Biosensing & sanitizing systems and methods

Abstract

Multi-modal, modular biosensing and sterilization systems and methods for detection and neutralization of pathogens, toxins, and contaminants, and integrating coordinated agents and dispensers therefor for decontamination. The systems and methods are operable as closed-loop or cloud-connected platforms, and can be configured for communication with health and authorities for reporting and tracking.

Description

BIOSENSING & SANITIZING SYSTEMS AND METHODSCROSS-REFERENCE TO RELATED APPLICATIONSThis application claims benefit 35 U.S.C. 119(a)-(d) of International Application no. PCT / US25 / 35067 filed June 24, 2025, entitled “Biosensing & Sanitizing Systems and Methods,” and claims benefit under 35 U.S.C. 119(e) of U.S. Application no. 63 / 830,943 filed June 26, 2025, entitled “Structural Enclosure Components & Lensing Materials,” U.S. Application no. 63 / 772,716 filed March 16, 2025, entitled “Biosensing & Sanitizing Network for a Pathogen & Contagion Free Ecosystem & Contextual Harvesting of Outbreak Data,” and U.S. Provisional Application no. 63 / 668,395 filed July 8, 2024, entitled “Combination of Disparate Core Technologies for Purpose-Built Sanitation & Therapeutic Applications,” all which are incorporated by reference in their entireties as if fully set forth herein. U.S. Provisional Application no. 63 / 731,975 filed June 26, 2024, entitled “Self-Sanitizing Writing Implements,” U.S. Provisional Application no. 63 / 731,964 filed June 25, 2024, entitled “Early Detection & Monitoring Network for Pandemics & Viral Spread in Military or Para-Military Groups,” and U.S. Provisional Application no. 63 / 731,948 filed June 24, 2024, entitled “Self-Sanitizing Portable Toilet,”. U.S. Application no. 19 / 037,179 filed January 25, 2025, entitled “Cleaning Systems and Methods” are also incorporated by reference in its entirety as if fully set forth herein.FIELD OF THE INVENTION

[0001] The invention relates to biosensing & sanitizing systems and methods, Including biosensing, sterilization, therapeutic treatment, and compliance monitoring across different environments, scales, and use.BACKGROUND

[0002] Previously-existing environmental sterilization and biosafety regimes consist predominantly of isolated, single-purpose systems and methods designed for limited, compartmentalized applications. Historically, most hand sanitation solutions have relied nearly if not completely exclusively on manual applications of alcohol-based sanitizers and mist delivery systems. While such can be helpful in reducing surface pathogens, they require proper execution of sanitation protocols and are prone to human non-compliance and error. Furthermore, scientificstudies have shown that the misuse and overuse of conventional hand sanitizers can be detrimental to the health of the user and deteriorate and negatively affect the exposed objects and tools.

[0003] Moreover, re-contamination can quickly occur. For example, as soon as the decontaminated surface (skin, objects, etc.) comes into contact with non-sterile objects in the environment ,e.g., other persons’ skin or commonly held objects (keys, phones, hand-held tools, etc.), the surfaces become re-contaminated.SUMMARY

[0004] The present inventors have determined that the utility of previously-existing systems and methods are inherently constrained by at least (1) modality isolation, (2) lack of system interoperability, and (3) inflexibility across architectural scales and use cases. Not only can such systems be rendered ineffective the moment the sterilized component, e.g., hands, come in contact with the environment or objects there that were not simultaneously sterilized, such systems do not verify sterilization completion, adapt to individual user needs, detect and identify the contagions it targets or cross-reference them with real-time, up-to-date, biosensing data.

[0005] Similarly, tool sterilization chambers utilizing UV-C or autoclaves require human intervention also do not integrate biosensing, compliance tracking, or therapeutic capability. They lack architectural integration, dynamic modulation, or real-time feedback mechanisms that would better ensure the effectiveness of a solution that relies on a single modality.

[0006] Even in high-end biosafety environments, existing air sterilization techniques — such asUV-C ceiling arrays or plasma-activated air filtration — lack harmonized biosensor feedback and operate at fixed emission parameters, which results in either underperformance in high-risk conditions or excessive energy waste during low bioburden periods. These legacy systems also fail to account for context-aware and timely pathogen mitigation strategies, such as dynamically adjusting emissions based on detected microbial species, human traffic flow, or environmental volatility.

[0007] Additionally, existing systems lack a coherent ability to scale across the full spectrum of spatial volumes and diagnose them as part of an organization’s overall infrastructure: from small form factor sterilizers for personal items, to mid-sized enclosures for hand and tool decontamination, to small offices and elevators, to entire conference rooms, vehicles, or outdoorinstallations. Current technologies can be and often are overpowered for small environments or underpowered for large ones; and lack intelligent interoperability at an organization-wide scale.

[0008] Previous systems lack multi-modal and networked diagnostic fusion. Systems that emit UV-C do not typically emit plasma, for example. Systems that sense airborne pathogens do not perform acoustic sterilization. Moreover, they do not incorporate Dynamic Adaptive Emission Control (DAEC), Multi-Stage Sterilization Workflow (MSSW), or Al-mediated decision-making to direct emission strategy or environmental logging. The ability to route biosensor data to internal compliance dashboards or external public health networks is underdeveloped or nonexistent. Humanity still relies on the arcane and reactionary contact tracing methods it did at the beginning of the 20th century and lack infrastructure to proactively identify, neutralize and track emerging “hot-spots” of viral spread.

[0009] Yet further, existing systems generally fail to address that human interaction with sterilization systems is non-linear. People move through space variably, touch diverse surfaces, and engage in workflows that are incompatible with rigid, fixed-use sanitation devices previously in use. Legacy systems as a whole do not accommodate ambient biosensing combined with kinetic or solar power harvesting to allow full off-grid deployment and continuous adaptation to user behavior. A system can only become comprehensive, and thus truly effective, if it addresses the biosensing and sterilization of both object and space.

[0010] The inventors have thus identified a critical need for improved biosafety architecture. This includes certain viral “hot spots,” e.g., schools, hospitals, military bases, airports and other high- traffic public spaces, for which the inventors have identified a need to employ a strategy towards preventing viral spread that is more comprehensive than previously existed.

[0011] At least some embodiments of the invention address the foregoing.

[0012] In at least some aspects, systems and methods deliver biosensing, sterilization, therapeutic treatment, and compliance monitoring via a modular, programmable, and dynamically adaptive hybrid architecture that enables real-time detection and neutralization of microbial pathogens, toxins, and airborne contaminants on human appendages, tools, architectural surfaces, and within volumetric spaces ranging from small enclosures to entire urban districts.

[0013] At least some embodiments provide a unified biosafety architecture, which is at least some such embodiments leverage hybrid emission technologies, Al-controlled dynamic modulation, therapeutic flexibility, and / or structural modularity across spatial scales. Accordingly,in at least certain aspects, an intelligent, self-optimizing biosafety ecosystem embeds sterilization, sensing, treatment, and logging functions into the human environment itself.

[0014] At least some embodiments integrate a coordinated network of hardware components, e.g., UV-C (ultraviolet-C), ultrasound, plasma, ionized air, and optofluidic biosensors and sterilizing emitters, with software-driven artificial intelligence (Al) logic to form a highly adaptable multi-modal pathogen control infrastructure. Embodiments may span multiple physical forms, e.g., handheld or wall-mounted units for targeted object or appendage sterilization, immersive walk-through portals, room-wide environmental systems, and civic-scale implementations across medical campuses, military vessels, and event-based public installations.

[0015] At least some embodiments include one or more of the following.

[0016] Synergistic Hybrid Modality Integration: Rather than relying on any single sterilization or detection vector, embodiments employ combinatorial architectures in which UV-C, ultrasound, cold plasma, ionized air, and photonic and acoustic biosensing are selectively activated and modulated in response to real-time environmental data. The novel combination of these biosensing and sterilizing agents are not just complimentary and additive; the synergistic combination results in biosensing and sterilizing efficiencies that are orders of magnitude more efficient than a system that leverages a single modality or technology. Our hybrid array configurations may include fullspectrum multi-stage sterilization workflows, biosensor arrays enhanced with plasmonic nanostructures, and human-safe emission profiles powered by Far-UVC light (222 nm).

[0017] Architectural and Environmental Embedding: Unlike standalone sanitation devices, embodiments can be modularly embedded into the built environment. This includes integration with door handles, keyboards, waste bins, vehicle interiors, examination rooms, escalator railings, HVAC ducts, and portable toilet units. This integration is accomplished by employing both commercially available materials that can control the emission and amplification of the sterilizing agents, as well as purpose-engineered polymers where warranted. The system thus transitions sterilization from an event-based function to a continuous architectural feature. Conventional devices either sterilize the objects humans hold, or the spaces humans occupy, failing to recognize that recontamination occurs immediately thereafter if both object and space are sanitized.

[0018] Adaptive Emission Control and Compliance Reporting: Instantiations of the system operates under Dynamic Adaptive Emission Control (DAEC), adjusting power, timing, intensity, and emission profiles based on pathogen load, biosensor readings, and ambient environmentalconditions. Additionally, system instances can be equipped with compliance monitoring systems that log sterilization adherence, individual biometric interactions (where legally permitted), and environmental pathogen levels. These data may be anonymized and relayed to public health databases or internal facility dashboards, enabling epidemiological oversight or enterprise-wide sanitation auditing.

[0019] In addition, at least some embodiments incorporate therapeutic agents delivered via the same hardware infrastructure. For example, the plasma or ultrasound components may be programmed to deliver wound-healing frequencies or analgesic thermal bursts depending on user needs. Each unit may switch between sterilization, therapy, or diagnostic mode as dictated by networked control algorithms or end-user commands.

[0020] Further, at least certain embodiments support mobile and off-grid operation through integrated kinetic and solar power harvesting modules, which can permit deployment in field hospitals, disaster relief zones, military vessels, and transportation infrastructure.

[0021] At least some embodiments provide a fully hybrid, fully adaptive, and fully modular paradigm for environmental biosafety, adaptable to a wide range of sectors including healthcare, education, transportation, defense, food handling, and public sanitation. Such hybrid systems and methods can supplement human hygiene but also facilitate a built cooperative environment of pathogen suppression and therapeutic care. At least some such embodiments can essence, a pandemic early warning and proactive reaction network.

[0022] Objects and advantages of the present invention should be understood by those of ordinary skill in the art in view of the disclosures herein, including but not limited to the detailed description herein and accompanying drawings.BRIEF DESCRIPTION OF THE DRAWINGS

[0023] Embodiments will be described below with reference to the drawings. However, those skilled in the art should appreciate that the drawings are only for the purpose of explaining the described embodiments, and therefore do not limit the scope of the invention or the claims herein. In addition, unless otherwise indicated, the drawings are intended only to conceptually represent the described embodiments, and are not necessarily drawn to scale.

[0024] FIG. 1 schematically shows a polymer capable of being drawn, extruded, or spun into thread that is capable of being woven or otherwise formed into fabric with the capacity oftransmitting, emitting, magnifying and controlling emissions and / or sensing of a biosensing and / or sterilization wearables, upholstery and canvasing;

[0025] FIG. 2 schematically shows a glass that is laminated with electrochromic, sonoresponsive, thermochromic and / or polychromic polymer film that can change physical states upon exposure to heat, vibrations, electrical charge and / or light;

[0026] FIG. 3 schematically shows a polymer that is capable of being bent or molded substantially without losing its electrochromic, sonoresponsive, thermocromic and / or polychromic capabilities;

[0027] FIG. 4 schematically shows biosensing and sterilizing architectural components capable of being modulated, timed and / or controlled by a two-way communication with databases that use the component’s feedback data to alter intensities, frequencies and durations accordingly or chronologically

[0028] FIG. 5 schematically shows a polymer component capable of being processed in a similar manner as standard building materials;

[0029] FIG. 6 schematically shows a front elevation view of a biosensing, sterilizing and / or therapeutic unit for hands;

[0030] FIG. 6A schematically shows a top plan view of the unit of FIG. 6;

[0031] FIG. 6B schematically shows a left elevation view of the unit of FIG. 6;

[0032] FIG. 6C schematically shows a right elevation view of the unit of FIG. 6;

[0033] FIG. 6D schematically shows a bottom view of the unit of FIG. 6;

[0034] FIG. 7 schematically shows an architectural divider or curtain wall biosensing and sterilizing system with electrochromic, sonoresponsive, poly chromic and / or thermochromic capabilities;

[0035] FIG. 7A schematically shows an enlarged detail of the system of FIG. 7;

[0036] FIG. 8 schematically shows a system of network controlled biosensing and sterilizing office furnishings, architectural surfaces, computing equipment and hand-held devices;

[0037] FIG. 8A schematically shows an enlarged detail of biosensing and sterilizing flooring made from polymers and a layered system of multi-modal sensors and emitters;

[0038] FIG. 9 schematically shows furniture made with fabrics and / or thermoformed objects;

[0039] FIG. 10 schematically shows a bathroom capable of modulating the intensities, duration and / or frequencies of the biosensing and / or sterilizing devices, architectural surfaces, and / or appliances therein via a networked system;

[0040] FIG. 10A schematically shows an exploded view of a door to the bathroom of FIG. 10 comprising a laminated system of chromic surfaces and multi-modal emitters and sensors;

[0041] FIG. 10B schematically shows an enlarged detail of a sink of the bathroom of FIG. 10 wherein high-risk vector transfer surfaces controlled by thermoformed or cast architectural components and / or anti-microbial plastics, metals and / or alloys that together comprise a multimodal, self-reporting and network enabled system;

[0042] FIG. 10C schematically shows an enlarged detail of a toilet stall of the bathroom of FIG. 10 using polymers that were sawn, bent, drilled, glued, and / or thermoformed to create architectural surfaces;

[0043] FIG. 11 schematically shows a high risk medical organization networked for real-time modulation and proactive reaction to emerging virus, contagion, toxin and / or contaminant threats as one coordinated system;

[0044] FIG. 11A schematically shows a high-transfer-risk medical device comprising antimicrobial plastics, anti-microbial metals, anti-microbial alloys and / or polymers that can transmit, emit, magnify, modulate and / or control of intense sterilizing and biosensing routines when away from humans;

[0045] FIG. 11B schematically shows a human presence aware medical devices capable of controlling or timing sterilizing and biosensing routines that are intense due to their high-risk environment;

[0046] FIG. 11C schematically shows a multi-modal biosensing and / or sterilizing equipment capable of harvesting kinetic energy;

[0047] FIG. 11D schematically shows a medical equipment comprising polymers woven, extruded and / or thermoformed to construct medical device assemblies;

[0048] FIG. 12 schematically shows a first responder / emergency vehicle constructed of antimicrobial polymers, anti-microbial metals, anti-microbial alloys and / or polymer components to transmit, emit, magnify and / or modulate a multi-modal biosensing, sterilizing and / or therapeutic system for point-of-care deployment;

[0049] FIG. 12A schematically shows a furnishing of the vehicle of FIG. 12 made of antimicrobial metals, alloys, and polymers and / or configured with multi-modal biosensing and sterilizing systems that are deployed with proactive viral threat instructions / data for targeted modulation and control;

[0050] FIG. 12B schematically shows high-contact surfaces of the vehicle of FIG. 12 designed to contain viral spread at one of its most volatile point-of-care sources;

[0051] FIG. 12C schematically shows a high-contact surfaces of the vehicle of FIG. 12 designed to contain viral spread at one of its most volatile point-of-care sources;

[0052] FIG. 12D schematically shows an equipment of the vehicle of FIG. 12 networked to modulate and control anticipated threats in a coordinated manner when signaled by organizational level or from the CDC, WHO and / or municipal, state, or national databases / servers;

[0053] FIG. 13 schematically shows a modular and networked system of public sanitary facilities made from thermoformed components and devices that biosense and deploy chemical agents in addition to UV, Ultrasound, Infrared, Ozone and / or Plasma emitters; equipped with their own air handling / sanitizing and / or energy harvesting systems for independent operation;

[0054] FIG. 14 schematically shows a high-security environment access control device with infrastructure capable of sterilizing and biosensing in addition to and / or retrofitted from metal detection systems;

[0055] FIG. 15 schematically shows an access and crowd flow control equipment made from anti-microbial and p materials that control and modulate their biosensing and sterilizing cycles through their network connectivity;

[0056] FIG. 16 schematically shows a networked commercial travel vehicles with infrastructure capable of real-time control and modulation of biosensing and / or sterilizing routines signaled by emerging threats that span international borders and require immediate and proactive response;

[0057] FIG. 16A schematically shows a seat of the vehicle of FIG. 16 comprised of antimicrobial metals, alloys, metals and / or polymer components, networked and modulated by a centralized system;

[0058] FIG. 16B schematically shows a high-traffic / high-contact surface of the vehicle of FIG. 16 that self- sterilizes and self-diagnoses for real-time feedback to cross-state, cross-national threats;

[0059] FIG. 16C schematically shows a storage compartment of the vehicle of FIG. 16 that self-sterilizes and self-diagnose for real-time feedback to cross-state, cross-national threats;

[0060] FIG. 16D schematically shows a bathroom of the vehicle of FIG. 16 having a mitigation and reporting system comprised of anti-microbial polymers, metals, alloys and / or purpose built polymer components;

[0061] FIG. 17 schematically shows a military and / or public service enclosed environment which can mitigate the increased risk of viral spread due to their enclosed and communal environment by configuring their equipment, furnishings and / or surfaces with anti-microbial polymers, alloys, metals and purpose built polymers;

[0062] FIG. 17 A schematically shows an enclosed communal space of the environment of FIG 17 that is human-aware and networked for the modulation and control of their biosensing and sterilizing cycles;

[0063] FIG. 17B schematically shows the communal space of FIG. 17 A that is empty of humans and delivers increased biosensing and sterilizing cycles due to its human-aware and networked capability;

[0064] FIG. 17C schematically shows another enclosed communal space of the environment of FIG 17 that is human-aware that is empty of humans and delivers increased biosensing and sterilizing cycles due to its human-aware and networked capability;

[0065] FIG. 17D schematically shows the communal space of FIG. 17C that is human aware and network informed to proactively react to emerging threats; and

[0066] FIG. 18 schematically shows biosensing & sterilizing networks connecting private, public and governmental organizations to modulate their equipment, furnishings, and architectural surfaces based on real-time intercommunicability with centralized threat databases;DETAILED DESCRIPTION

[0067] Embodiments are described below with reference to the drawings. It should be noted that like numerals in separate drawings represent like items. Therefore, once a certain item in a drawing is described, it might not be further defined and explained in the subsequent drawings. In addition, it should be noted that orientations, positions and relationships discussed herein, e.g., terms such as "front", "rear" and the like, are provided solely to facilitate the description of the respective embodiment, and do not indicate that a particular orientation is required, or that theinvention must be configured and / or operated in the particular orientation, and thus should not be construed as limiting the scope of the invention and claims herein.

[0068] At least some embodiments comprise an intelligent, multi-modal biosensing and sterilization architecture engineered for adaptive deployment across environments of varying spatial complexity and human density. It integrates an array of modular sensors, sterilizing emitters, therapeutic dispensers, compliance systems, and reporting protocols into a unified infrastructure that operates across a hierarchy of object-, surface-, appendage-, room-, building-, vehicle-, and city-scale implementations.

[0069] I. Biosensing and Sterilizing Agents for a Synergistic Hybrid Array

[0070] At least some embodiments employ synergistic coupling of multiple sterilization and biosensing modalities into cohesive subsystems, dynamically orchestrated by a local or distributed Al controller and / or human orchestration. These subsystems are components in hybrid arrays that include, but are not limited to:• Ultrasound Emission Arrays, capable of both sensing and micro-cavitation-based decontamination along with their Photoacoustic and LSPR-based Biosensor counterparts, capable of sub-picomolar pathogen detection by leveraging the complimentary use of sound energy for both bio-detection and sterilization.• UV-C and Far-UVC Emitters, including germicidal 254 nm and human-safe 222 nm variants along with their complimentary light-energy biosensors that leverage UV-C and Far-UVC for detection of pathogens.• Cold Plasma Discharge Modules, generating Reactive Oxygen and Nitrogen Species (ROS / RNS) whose emissions enhance both the biosensing and sterilizing cycle.• Ionized Air and Gaseous Agent Emitters, engineered to deliver electrostatically charged particles to enhance the biosensing capabilities of a hybrid array while at the same time neutralize airborne vectors.

[0071] The above components can be mixed and matched for Multi-Stage Sterilization Workflows (MSSW) strategically combined for complex pathogen profiles and biofilms. The full spectrum array would have the broadest capacity to identify, classify, and eradicate the broadest spectrum of viruses, contagions, contaminants and toxins. However, tailored systems are envisioned where the persistence of specific threats are predictable and identified. The AI- Governed Dynamic Adaptive Emission Control (DAEC) logic in turn, offers real-time modulationand tuning of a hybrid array to configure itself for threats it has detected, or threats predicted via Al analysis of the environmental, geographic, climate and industry specific factors.

[0072] II. Real-Time Compliance and Reporting Framework

[0073] At least some embodiments create the capacity for proactive as opposed to reactive solutions to emerging viral spread. They can act as a pandemic early warning and proactive mitigation system. The Al and / or network controlled biosensing and sterilizing matrix of the system’s components proactively reacts and modulates to the threats it finds, or that the network communicates to it as an emerging local threat. In turn, the network provides first-responders, government agencies, and institutional headquarters with real-time data of precise location and identification of emergent threats. Sterilization and sensing events are logged via time-stamped, user-identified sessions where applicable. Reporting is layered with privacy controls, escalation protocols, and threshold-triggered alerting. Compliance reports are automatically generated and optionally routed to: a.) Compliance Systems, including time-stamp, biometric, and behavioral adherence verification b.) Integrated Reporting Gateways, capable of localized alerts and external network reporting to public health infrastructures, including WHO and CDC endpoints, c.) Internal dashboards (e.g., medical, military, corporate hygiene teams) d.) Municipal health authorities e.) National public health repositories (CDC, WHO, DHS) f.) Forensic auditing systems, which ensure traceable intervention records for legal or operational reviews

[0074] III. Therapeutic and Biologic Extension Capabilities

[0075] Different institutions and varying viral threat levels result in a diversity of compliance expectations. A hospital staff differs from a school and a biohazard facility when it comes to the expected compliance of its employees and / or inhabitants. This means that exposure to sterilizing and biosensing agents, safe as they may be, will vary greatly along with the employee and occupant demand for health and safety standards. When used in clinical or high-exposure environments, the system may deliver therapeutic interventions via misters or topical applicators embedded into sterilization cycles. These therapeutic agents may be deployed as standalone protocols or coactivated during standard sterilization events. These may include: a.) Hydrating or antiinflammatory compounds b.) Topical antibiotic or antiviral agents c.) Nutraceutical delivery systems, to improve dermal immunity.

[0076] IV. Power and Sustainability Infrastructure

[0077] In view of the energy demands of an overtaxed 21stCentury infrastructure, at least some embodiments are engineered to proactively manage their energy utilization by tailoring outputs and emissions to their particular spatial and environmental needs, but also to generate and harvest their own energy, or furthermore, to ensure operability in both off-grid and mission-critical environments. This infrastructure ensures uninterrupted protection, particularly in emergency, field-medical, or naval deployments. Each subsystem may include:• Kinetic Power Harvesters, embedded in door handles, foot pedals, or mechanical turnstiles• Photovoltaic Modules, embedded in exposed surfaces, signage, or transparent lensing materials• Low-Energy Standby Circuits for overnight sensing and auto-reengagement cycles• Energy-Efficient Modulation Algorithms, governed by DAEC, to reduce emitter fatigue and power draw• Precision Lensing, Emissions, and Amplification Controls to custom tailor the precise emissions of light and sound energy to be not only specifically targeted to the threats it encounters, but through the same control process, energy efficient in its delivery.

[0078] V. Lensing, Amplification, Emission, and Control Materials

[0079] Inhabitable structures and spaces that are designed to automatically sense contagion threats, then eradicate the threat and self-sterilize must be able to control the emissions and amplification of the sound, light, and chemical agents it deploys. The objects and surfaces the inhabitants come in contact with will necessitate the controlled emission, lensing, dampening, and obscuring of light and sound energy they leverage in their self-sanitizing and viral sensing cycles. These materials have the properties of common architectural materials as well as common object materials that need to be extruded, cast, laminated, and modified to create, for instance, office implements, furniture, architectural components and architectural surfaces:• Light and Sound Energy Control Surfaces, handpicked for their superior ability to control the lensing, amplification, sensing, and emitting of UV and Ultrasound, with or without the aid of electrochromic agents.• Purpose-Engineered Light and Sound Energy Control Surfaces, chemically formulated to control the lensing, amplification, sensing, and emitting of UV and Ultrasound, with or without the help of electrochromic agents.• Antimicrobial Metals such as copper, brass, and stainless steel which can also be the efficient transmitters of Ultrasound vibrations and / or be the material that otherwise undesired materials can be laminated or coated with.• Antimicrobial polymers whose chemical composition is engineered to be cast, extruded, strewn, poured and woven into any form factor plastics are capable of while maintaining their chemically engineered antimicrobial properties, namely ergonomic grips or handlebar sleeves, which are high-contact high-risk surfaces.

[0080] VI. Modular Deployment Based on Spatial and Functional Requirements

[0081] Without the ability to seamlessly integrate into the routinely occupied spaces and objects humans come in contact with, even the strictest regimen of hand-sanitizer use or social distancing is rendered ineffective, and by extent, an existential threat to society. These were the hard lessons learned due to the COVID pandemic. The modular components enable full control over the environments humans occupy by devising novel materials, purpose-built to enhance the biosensing and sterilizing technologies they house, or via the identification, selection, and novel combination of commercially available building materials which also serve to enhance biosensing and sterilization. Implementations can be contextually adapted to suit spatial constraints, missioncriticality, and human workflow, as well as the type of hand-held objects common to the environment in question. While embedding shared logic and sensor / emitter pairings but is tailored to a diversity of needs by providing the building materials and the architectural components that leverage the biosensing and sterilizing arrays. The novel combinations of known and / or proprietary materials, processes, and systems enable the human environment to both self-diagnose and selfsanitize regardless of size, volume, or environmental conditions:• Object-Level Modules: Self-sterilizing stylus docks, tool cradles, and handheld device receptacles• Surface-Level Modules: Clip-on panels, retrofitted desktops, biosensing keyboards, trash bins, and purpose-engineered detection and sanitation building materials.• Appendage-Level Modules: Hands-only sterilization with integrated VOC and thermal biosensing• Room-Level Systems: Turnstile gates, elevator bays, and janitorial closets with compliance tracking• Building-Level Systems: Multi-floor coordination of shared-use facilities, staff workflows, and zone-by-zone sterilization• Mobile Units: Ambulances, family vehicles, and aircraft fully equipped with solar / kinetic- driven modules• Civic Infrastructure: Stadiums, transit hubs, or naval vessels governed by a centralized infection mitigation Al

[0082] STERILIZING AGENTS MATRIX

[0083] STERILIZING AGENTS & MATERIALS

[0084] Sterilizing modalities discussed herein comprise sterilizing and biosensing agents embedded directly within the system-integrated devices and architectural components disclosed throughout the present application. Selected for their efficacy, material compatibility, and adaptability across human-safe and high-intensity use cases, these modalities are deployed through reprogrammable emitters, contact- activated surfaces, and embedded environmental arrays to sanitize human appendages, frequently handled objects, and structural elements in both confined and open spaces. Their integration enables real-time, multi-surface decontamination that responds dynamically to biosensor input, threat level, and spatial function, as part of a layered and networked sterilization framework. This leverages the synergistic and novel combination of biosensors and sterilizing emitters of:• ULTRASOUND: High-frequency ultrasonic waves can disrupt bacterial cell walls and biofilms, acting as a sterilizing agent when applied in liquid media.• ULTRAVIOLET LIGHT (UV-A, UV-B, UV-C): UV light, such as UV-C, is a sterilizing agent that inactivates microorganisms by damaging their DNA and RNA. It is used throughout the systems, from enclosed tool sterilization chambers to ceiling-mounted environmental sanitizers.

[0085] The sterilizing and biosensing capacities of Ultrasound and UV are significantly enhanced by their novel combination with select chemicals:• HYDROGEN PEROXIDE (H2O2): Oxidizing agents which — by clear contextual inference — include hydrogen peroxide. It decomposes into water and oxygen, releasing ROS that denature microbial proteins and disrupt cell membranes.• IONIZED AIR: Ionized air functions as a sterilizing agent by generating charged particles that can neutralize pathogens via disruption of their outer membranes. This processenhances the effectiveness of air-filtration and environmental sterilization systems across high-exposure zones.• NITRIC OXIDE (NO): Used as a gaseous sterilant, nitric oxide interferes with microbial respiration and can serve as a signaling molecule in biosensing arrays. Within the system architecture, it may function dually as a sterilizer and a modulator of immune-mimicking responses in synthetic polymer systems.• OZONE (O3): Ozone is a high-potency oxidizing gas that eradicates microorganisms by damaging their DNA and cellular envelopes. It can be introduced into sealed chambers or used in gaseous diffusion form across ventilation systems for air and surface decontamination.• PLASMA (COLD OR ATMOSPHERIC): Plasma sterilization uses partially ionized gas to generate reactive species, including radicals and UV photons, which destroy microbes. In at least some embodiments, plasma is embedded into tool sterilizers and can be miniaturized for localized surface field applications.• REACTIVE OXYGEN SPECIES (ROS): ROS, including superoxide, hydroxyl radicals, and hydrogen peroxide, are key oxidizers that damage nucleic acids and proteins in pathogens. ROS are generated by several systems described in the documents, including catalytic polymer films, UV radiation, and plasma systems.• ST37 DISINFECTANT: A phenol-based sterilant, ST37 is referenced in the materials dictionary as a standard biocidal agent. It is used for rapid surface disinfection and may be integrated into automated spray or misting systems in the smart architecture systems described.

[0086] The biosensing and sterilizing capabilities of the above agents are further enhanced by materials that are known for their anti-microbial properties and / or which assist through the magnification or efficient transmission of sound and light energy:• ACTIVATED COPPER SURFACES: Copper, in both pure and alloyed forms, is an established antimicrobial material. When activated via design and / or chemical means, copper exhibits sustained antimicrobial properties. Its ions disrupt key cell processes in pathogens and can be embedded in cladding materials, mesh inserts, or conductive lattices as a passive disinfection agent in structural components. It kills a wide range of pathogens,including bacteria, fungi, and viruses, by disrupting cell membranes and denaturing proteins.• ANTI-MICROBIAL POLYMERS: These are engineered synthetic or semi-synthetic polymers that inherently inhibit microbial growth through either contact-killing chemistry or leaching biocidal agents. Used as surface coatings or structural layers in architectural components, they enhance passive sterilization.• ELECTROSTATIC DISCHARGE FIELDS: Electrostatic fields can serve as a method of microbe neutralization by damaging the membranes of airborne pathogens or interfering with microbial DNA replication. This is particularly relevant in biosensing or sterilizationchamber contexts where air purification is critical.• STAINLESS STEEL (SANITIZED GRADES): Stainless steel, particularly when finished with antimicrobial coatings or fine polishing, provides a durable, non-porous surface that resists microbial colonization. Select grades may also be alloyed with copper or silver to enhance sterilizing efficacy.

[0087] The agents discussed below are effective in neutralizing pathogens, though their use often involves material compatibility considerations, residue management protocols, and / or occupational safety thresholds. However, in certain situational needs — such as sterilizing sensitive equipment, sealed environments, or high-risk surfaces — they can offer supplemental sterilization capabilities that complement the system’s primary modalities.• CHLORINE DIOXIDE (CIO2): Chlorine dioxide is a potent oxidizing agent used for sterilizing surfaces and spaces. While effective against a broad spectrum of pathogens, it poses significant risks upon human exposure. Inhalation at concentrations as low as 5 ppm can cause irritation, and higher levels may be fatal. Additionally, chlorine dioxide is corrosive to electronic components and metals like copper and aluminum, leading to potential damage of devices such as smartphones and tablets. Suitability: Sterilizing tools and medical equipment with caution due to material compatibility concerns.• ETHYLENE OXIDE (EtO): Ethylene oxide is a gaseous sterilant widely used for medical equipment that cannot withstand high temperatures. It is highly effective but poses health risks. EtO is compatible with and safe for many materials. Suitability: Appropriate for sterilizing medical tools with strict adherence to safety protocols and material compatibility assessments.• ISOPROPYL ALCOHOL (IPA): Isopropyl alcohol is a common disinfectant effective against various pathogens. It is generally safe for human skin in limited use but can cause dryness or irritation with repeated exposure. IPA is safe for cleaning electronics when used appropriately, as it evaporates quickly and leaves minimal residue. Suitability: Safe for limited human exposure; suitable for sterilizing tools and devices, excluding certain materials like rubber, leather, and some plastics.• PERACETIC ACID (PAA): Peracetic acid is a strong oxidizing agent used for disinfecting surfaces and equipment. It is effective against a wide range of microorganisms but can cause respiratory irritation and other health issues. PAA is corrosive to metals like copper and steel and can damage electronic components. Suitability: Suitable for sterilizing tools and medical equipment with caution regarding material compatibility.• SILVER IONS: Silver ions possess antimicrobial properties and are used in coatings and materials to inhibit microbial growth. They are generally safe for human exposure in controlled amounts. Silver ions are not corrosive to metals and are compatible with various materials, making them suitable for integration into medical devices and surfaces. Suitability: Safe for human exposure in controlled applications; suitable for sterilizing tools and medical equipment.Summary Table:

[0088] BIOSENSING TECHNOLOGY VARIETIESFOR MULTI-MODAL SANITIZATION SYSTEMS:

[0089] Systems that both sterilize and sense the presence of viruses, contagions, toxins, and environmental contaminants — across whole spatial environments and the objects within them — can use a wide range of biosensor technologies into arrays. These biosensors are built directly intothe architecture, furniture, air systems, and surface coatings of the environment, and the configuration of said arrays is modular and adaptable for a multiplicity of use cases.

[0090] Biosensors disclosed below are grouped into two categories, synergistic and supportive biosensors. The organizing and principle by which this non-exclusive list of possible biosensing components for modular arrays is the synergistic effects of combining sensors and emitters that are based on the physical and chemical phenomenon of, for example, UV, Ultrasound, Ionized Air, Ozone and / or Plasma (Agent-Reactive: Activated by or functionally enhanced through UV, Ultrasound, Ionized Air, and / or Ozone / Plasma). The focus is on modality, process and methodology, as computer hardware is quickly becoming cheap, transient and disposable.

[0091] BIOSENSORS CHOSEN FOR THEIR SYNERGISTIC EFFECTS

[0092] These biosensors do more than detect — they are embedded with, activated by, or enhanced by sterilization agents such as ultraviolet light, ultrasonic vibration, ionized airflows, or plasma / ozone bursts. They form closed feedback loops that both sense microbial threats and trigger or verify sterilization in direct response.• ANTIMICROBIAL RESPONSE BIOSENSORS : Embedded in architectural surfaces and coatings, these sensors detect microbial changes and trigger UV, ionized air, or plasmabased sterilization actions. They help regulate sterilization intensity based on real-time microbial load.• PHOTOCAT AL YTIC RESPONSE SENSORS : Installed on photocatalytic surfaces, these sensors monitor changes in surface chemistry when exposed to UV or plasma. They signal when intensified bursts are needed, based on catalytic efficiency drops due to microbial saturation.• SURFACE-BOUND BIOSIGNAL ACTIVATORS (SBBA): These micro-layered biosensors are triggered by shifts in pH, electrical charge, or microbial enzymes — and in turn can be used activate localized sterilization suitable for the deployment.• TOUCHPOINT PATHOGEN MONITORING SYSTEM: Deployed on high-touch surfaces (e.g., handles, pens, remotes), these compact biosensors use UV fluorescence and localized logic to detect microbial presence and immediately activate short-range sterilization pulses.• ULTRASONIC PATHOGEN INTERFERENCE DETECTORS: These non-contact sensors detect microbial changes based on how ultrasonic waves reflect off surfaces. Theyare particularly useful for soft surfaces like padding, fabrics, or insulation, where visual inspection is limited.• MULTI-SPECTRAL BIOSENSOR ARRAYS: These sensor clusters analyze visual, UV, and infrared light to detect contaminants. When paired with ultraviolet light sources, they can guide sterilization sequences with pinpoint accuracy.• INTEGRATED PATHOGEN SPECTRAL ANALYSIS MODULES (IPSAM): Using UV and infrared-based spectroscopic techniques (like Raman or FTIR), these modules confirm the presence — or absence — of microbial agents and validate whether a sterilization cycle was complete.• DUAL-PHASE BIOSENSING FILMS: These thin films combine electrical and optical detection (e.g., fluorescence quenching). They are enhanced by UV light exposure and are designed for real-time detection in smart surface zones.• CRISPR-BASED BIOSENSING ELEMENTS: Using programmable CRISPR-Cas systems with UV-tagged fluorescent markers, these sensors can detect exact viral DNA or RNA sequences. UV amplification improves visibility and detection precision.• NANOPARTICLE-ENHANCED PATHOGEN DETECTORS: These detectors use nanoparticles (often gold or silver) that shift color upon microbial contact. They can be paired with UV light to increase contrast or trigger the change.

[0093] EXEMPLARY SYNERGISTIC BIOSENSORS:Ionized OzoneBiosensor Type UV Ultras. NotesAir PlasmaAntimicrobial Response Biosensors Y N Y Y Trigger UV or plasma burstsPhotocatalytic Response Sensors Y N N Y Monitors UV / plasma reactionsSurface-Bound Biosignal ActivatorsY Y Localized trigger mechanisms (SBBA)Y YTouchpoint Pathogen MonitoringN N UV fluorescence-based detectionSystemUltrasonic Pathogen InterferenceN N Operates using ultrasoundDetectorsMulti-Spectral Biosensor Arrays Y N N N Uses UV and IR for detectionIntegrated Pathogen Spectral AnalysisN N Raman / FTIR — uses UV / IR bandsModules (IPSAM)Y NDual-Phase Biosensing Films Y N N N Uses optical fluorescenceOptional UV tagging in fluorescenceCRISPR-Based Biosensing Elements Y NmodeNanoparticle-Enhanced PathogenN N Often paired with UV readoutDetectorsIonized OzoneBiosensor Type UV Ultras. NotesAir PlasmaGraphene -Based Biosensors N N N N Electrically reactive; integration-basedLab-on-a-Chip Pathogen Analysis ,T,T,TWorks in tandem, but not activated byN N NModules agents7

[0094] NON-SYNERGISTIC BIOSENSORS CHOSEN FOR SUPPORTIVE ROLES

[0095] These biosensors do not rely on or directly interact with the sterilization agents. Instead, they act as intelligent surveillance and verification tools — collecting, analyzing, and communicating microbial risk levels across the environment. Their data may be used to initiate or program sterilization cycles, but they do not themselves function through UV, Ultrasound, Ionized Air, or Ozone.• AEROSOL-PHASE BIOSENSOR ARRAYS: These airborne detectors are placed in vents, ducts, or portable units. They capture and analyze air samples to detect pathogens before they settle on surfaces.• AUTONOMOUS PATHOGEN-SENSING SWITCHES (APSS): These logic-based detectors function independently to sense microbial activity and autonomously initiate sterilization. They are suitable for remote, decentralized deployment.• BIOOPTIC AL PATHOGEN INDICATORS : Often polymer-based, these materials change color when exposed to microbial agents. They offer visual verification of contamination but do not require UV or other activation.• CROSS-LINKED SENSOR POLYMERS (CLSP): These materials change electrical or optical properties when touched by microbes. Integrated into surfaces like buttons or desks, they respond without the need for sterilization triggers.• ELECTROMAGNETIC FREQUENCY SIGNATURE SENSORS (EFSS): Detect subtle shifts in electromagnetic signatures caused by microbial growth or residue. They provide fast, contactless detection.• FIELD-EFFECT BIOSENSORS: Detect biochemical signals by registering changes in transistor behavior. These sensors can pick up viral proteins or spores, especially in embedded zones like flooring.• GAS-PHASE PATHOGEN SIGNATURE DETECTORS: Analyze the air for metabolic byproducts of bacteria or mold. Often used in sealed environments or storage systems.• LUMINESCENT BIO-INDICATOR PANELS: Panels that glow or change color in the presence of pathogens. Their change is chemically induced, not activated by UV.• MICROBIAL QUORUM SENSING DISRUPTION DETECTORS: Identify signaling molecules (like autoinducers) that microbes use to communicate. These sensors allow early intervention in biofilm formation.• PERSISTENT BIOSIGNAL RESONANCE UNITS (PBRU): Long-term biosensors that track cumulative exposure to microbes. They flag areas needing sterilization based on exposure thresholds.• THERMO-REACTIVE PATHOGEN DETECTION FILMS: These films react to temperature changes caused by microbial metabolism. Suitable for passive or powerlimited zones.• GRAPHENE-BASED BIOSENSORS: Highly sensitive sensors that change conductivity upon microbial exposure. Used in smart surfaces, especially where flexibility is required.• LAB-ON-A-CHIP PATHOGEN ANALYSIS MODULES: Microfluidic chips that process tiny samples — like sweat or condensation — for pathogens. Not dependent on UV or other sterilizers but complement system-wide intelligence.

[0096] Further exemplary biosensing agents and technologies include the following:• CRISPR-BASED BIOSENSING ELEMENTS: Leveraging CRISPR-Cas systems with fluorescent or electrochemical readouts, these biosensors can be pre-programmed to detect exact viral DNA or RNA signatures.• NANOPARTICLE-ENHANCED PATHOGEN DETECTORS: Gold or silver nanoparticle arrays that undergo aggregation or colorimetric shift when in contact with specific microbial proteins. These systems can be integrated into flexible, compatible, printable surfaces.• GRAPHENE-BASED BIOSENSORS: Ultra-thin graphene layers that change conductivity upon pathogen exposure, offering high surface-area sensitivity and rapid response. Their integration is compatible with the surface films and polymer matrices.• LAB-ON-A-CHIP PATHOGEN ANALYSIS MODULES: Microfluidic chip platforms that can process minute samples (sweat, airborne condensate) for real-time pathogen analysis. Their miniaturized form makes them suitable for integration into wall panels, HVAC nodes, or public kiosk stations.

[0097] HYBRID BIODETECTION & STERILIZATION SYSTEMS AND THEIR SYNERGISTIC EFFICIENCIES

[0098] A single modality of biosensing or a single modality of sterilization are by themselves largely ineffective and inefficient. UV sterilization, for example, has been around since the late 1800’s but fell into disuse. Effectiveness lies in the novel combination of otherwise disparate technologies and materials. The systems and methods herein described do not rely on any single modality or linear sterilization protocol. Instead, they implement a multi-modal convergence architecture, in which agents — be it ultrasound, UV-C, ionized air, plasma, or chemical — is not only a standalone sterilizing vector but also an integrated contributor to an adaptive, intelligent response loop. Unifying sterilization and biosensing roles within common hardware infrastructures and synchronizing their operation through a central logic module achieves efficiencies in cycle duration, energy use, diagnostic resolution, and environmental adaptability that are not attainable through legacy technologies in isolation. They are structurally and electronically orchestrated to achieve compound efficacy exceeding that of systems leveraging singular modalities. This convergent systems architecture does not merely accumulate sterilization steps; rather, it implements a tactically interleaved assault on microbial resilience, wherein one mode of action (e.g., lipid bilayer disintegration via ultrasound) conditions the pathogen for heightened susceptibility to subsequent vectors (e.g., ultraviolet fragmentation of RNA structures or oxidative destabilization by Ch and gNO).

[0099] Arrays are designed to serve as both a physical node and an intelligent agent within the broader distributed network described throughout this specification. The hybrid arrays possess capacity for reprogramming, real-time adaptation, and field-servicing, in keeping with the purpose of reducing pathogen transmission, environmental recontamination, and compliance risk across high-traffic, vulnerable, or pathogen-prone zones. In the same operational cycle, the system minimizes reliance on water and caustic chemical use, thereby preserving human safety, environmental sustainability, and compatibility with sensitive equipment or materials often compromised by conventional sterilizing agents.

[0100] This multi-layered efficiency profile enables the disclosed system to be deployed across a wide spectrum of use cases, including but not limited to: hospital operating suites, fielddeploy able military installations, laboratory containment zones, biotech manufacturing lines, and mass-transit disinfection gates. The examples below are illustrative, not exhaustive, and areintended to enable persons of skill in the art to implement variations of these hybrid arrays within medical, military, educational, correctional, and transportation infrastructures, or other institutional settings requiring heightened biosafety integrity:

[0101] SYNERGISTIC ULTRAVIOLET RADIATION - Sensing & Sterilizing Synergistic Capabilities:

[0102] Disclosed embodiments incorporate a multi- spectrum ultraviolet sterilization framework designed to target a broad range of microbial agents with precision. While UV-A and UV-B exhibit germicidal activity, UV-C wavelengths — notably 254 nm and 222 nm — can be deployed due to their dual capacity for rapid virucidal action and comparative safety for human exposure. Ultraviolet-C (UV-C) radiation, particularly at 254 nm, penetrates microbial cells and disrupts nucleic acids (DNA / RNA) through pyrimidine dimer formation, effectively inactivating replication capabilities. Far-UVC (222 nm) offers similar sterilization with reduced penetration into human skin and eyes. Among these, 222 nm far- UV-C is suitable for applications involving direct skin or human proximity, given its shallow penetration depth and low phototoxicity.

[0103] Ultraviolet-C (UV-C) light, particularly within the far-UVC (200-230 nm) and germicidal-UVC (254 nm) bands, is a sterilization modality embedded within Hybridized Vector Arrays (HVAs). Ultraviolet exposure is modulated in wavelength, duration, and sequencing, enabling a targeted inactivation and biosensing protocol matched to the specific pathogen class and / or environmental condition. As a sterilization agent, UV-C irradiation effectively disrupts nucleic acid structures and denatures capsid proteins. This renders pathogens non-viable by damaging their replication mechanisms and / or inhibiting surface proteins responsible for cellular binding and by extension, the pathogen’s integrity. The following reference table presents established dose thresholds (expressed in mJ / cm2) for achieving 3-logw (99.9%) inactivation across various pathogens:UV-C Dose for 3-Logw Inactivation Microbe Dose (mJ / cm2)SARS-CoV-2 (2019-nCoV / ItalyINMIl) 3.7Acinetobacter baumannii 3.3Salmonella typhimurium (LT2 SL3770) 7.8Methicillin-resistant Staphylococcus aureus (MRSA) 8.8 Klebsiella pneumoniae 10Enterococcus f aecium (Vancomycin-resistant) 11Microbe Dose (mJ / cm2)Pseudomonas aeruginosa 6.8 Escherichia coli 23 Enterococcus spp. 37Clostridioides difficile (endospores, far-UV-C) 17Source: Masjoudi et al., J. Res. Natl. Inst. Stand. Technol., 2021

[0104] UV-C deployment need not be static. Instead, emitter arrays are configured to cycle through wavelength profiles, adjusting exposure protocols to meet evolving microbial threats or to comply with real-time adaptive sterilization settings informed by biosensing or GME network directives. UV light, while powerful in isolation, functions as a component in broader multi-modal sterilization and biosensing arrays.

[0105] Role in Biosensing Functionality: This electromagnetic vector interacts with nucleic acids and key protein structures via photolytic cleavage, molecular excitation, and biofluorescence pathways. UV-based biosensing relies on intrinsic fluorescence or photonic interaction signatures of biological agents. Fluorescence spectroscopy, UV absorption, and UV-enhanced Raman scattering enable non-invasive, label-free detection of microbial and toxin signatures. These biosensing functions can be embedded in modularized photonic chips, co-located with UV-C sterilizers within arrays:• Endogenous fluorophores in viral capsids or bacterial membranes fluoresce upon UV excitation at specific wavelengths.• Differential reflectance or absorbance patterns can be detected using spectrophotometric sensors.• Fluorescence lifetime or emission wavelength shifts reveal species-specific biomolecular signatures.

[0106] OPERATIONAL PARAMETERS FOR TUNABLE UV-C SENSING MODULES: BIOSENSING EFFICACY IS GOVERNED BY PROGRAMMABLE OPERATIONAL PARAMETERS THAT BALANCE EXCITATION STRENGTH WITH DETECTION SENSITIVITY AND EXPOSURE SAFETY.• Wavelength Targeting: 222 nm (for protein-bound DNA absorption), 254 nm (for DNA cleavage), and optional excitation bands at 280 nm for protein fingerprinting.• Pulse Generation: Controlled width pulse modulation between 10 Hz and 100 kHz.• Power Supply: Voltage from 5V to 200V with programmable pulse durations (1-100 ms).• Signal Capture: CMOS-integrated spectrometers or avalanche photodiodes (APDs) with high signal-to-noise ratio for emission spectrum resolution.• Spectral Output Analysis: Al-driven real-time comparison against pre-trained spectral libraries for classification of biological agents.

[0107] SENSOR CONFIGURATIONS AND BIOLOGICAL TARGET SCOPE: UV- RESPONSIVE SENSOR FORMATS, SELECTABLE BASED ON DEPLOYMENT CONTEXT AND BIOLOGICAL DETECTION PRIORITIES:• Fluorometric Pathogen Recognition Arrays (FPRAs): Detect emission spectra of E. coli, S. aureus, Salmonella, Aspergillus, Penicillium, and others via induced autofluorescence.• UV Absorption Biometric Modules (UABMs): Identify nucleic acid sequences from RNA viruses such as SARS-CoV-2, Influenza A / B, and Norovirus.• Photoacoustic Contaminant Detection Modules (PCDMs): Utilize acoustic wave resonance induced by UV excitation to detect aflatoxins, VOCs, and industrial toxins in air and fluid matrices.• Localized Surface Plasmon UV Spectroarrays (LSPUS): Provide real-time monitoring of airborne and surface- adhered pathogens by exploiting resonance shifts in metallic nanosurfaces.• Optofluidic Multiplexed Biosensors (0MB): Integrate microfluidic sample preparation with high-throughput UV-C interrogation of fluidborne pathogens.

[0108] ENVIRONMENTAL CONTROL PARAMETERS FOR SENSOR FIDELITY: UV-C DETECTION MODULES ARE SENSITIVE TO ENVIRONMENTAL DRIFT. FOR MAXIMUM ACCURACY, THE FOLLOWING OPERATIONAL ENVELOPE IS DEFINED:• Thermal Stability: Operable between 20 °C and 35 °C.• Humidity Range: 30%-60% relative humidity to preserve beam integrity and minimize refractive scatter.• Lighting Isolation: Ambient lighting below 5 lux for fluorescent contrast.• Surface Control: Pre-calibrated against anti -reflective, sterilized substrates with <10 pg / m3airborne particulate threshold.

[0109] IONIZED AIR AUGMENTATION FOR ENHANCED PATHOGEN VISIBILITY: ION-ENRICHED ENVIRONMENTS GENERATED VIA TARGETED IONIC DISPERSAL MODULES (TIDMS) AUGMENT UV-C SENSOR PERFORMANCE BY BINDING CHARGED PARTICLES TO PATHOGEN SURFACES, ENHANCING SPECTRAL AND PHYSICAL CONTRAST.• Ion Field Density: 5xl05to IxlO6ions / cm3.• Reactive Oxygen Species (ROS) Induction: Includes O2+, O2 , OH for molecular excitation and selective targeting.• Electro-Optic Signal Amplification: Pathogens accumulate surface charge under field exposure, improving photonic interaction and signal clarity.

[0110] PLASMA-COUPLED UV-C SPECTROSCOPY ENHANCEMENT: COLD PLASMA TECHNOLOGIES— SPECIFICALLY DIELECTRIC BARRIER DISCHARGE (DBD) ARRAYS— ARE EMPLOYED TO PRECONDITION BIOFILMS AND PARTICULATE CONTAMINANTS PRIOR TO UV-C INTERROGATION.• Surface Chemistry Modification: Plasma excites functional groups on bacterial, viral, and fungal membranes.• Fluorescence Amplification: Biofragmentation yields spectrally rich targets under UV-C.• Plasma Parameters: Frequency 8.5 kHz, Power Density 2-5 W / cm2.• Molecular Fragmentation Yields: Improved detection sensitivity, reduced cross-reactivity with benign organic matter.

[0111] HYBRIDIZED UV-C | IONIZED AIR | PLASMA SENSOR CONSTRUCT: THIS CONFIGURATION— DESIGNATED AS A TRI- VECTOR EMISSION ARRAY (TVEA)— FUSES PHOTONIC EXCITATION, CHARGED ION FIELDS, AND PLASMA PRECONDITIONING INTO A SINGLE HARDWARE ENCLOSURE.• Emission Spectrum Control: 222 nm (Far-UVC) + 254 nm (Germicidal UVC).• Ion Density: As above, with variable diffusion patterning based on feedback from ambient biosensors.• Dynamic Plasma Conditioning: Coupled to real-time feedback systems for on-demand activation.• Ambient Control Target: 25°C, 45% RH, particulate threshold <10 pg / m3.

[0112] CLOSED-LOOP SENSOR-EMITTER FEEDBACK FOR AUTONOMOUS STERILIZATION

[0113] An adaptive emitter feedback loop (AEFL) dynamically coordinates biosensing data with programmable emitter response:• Activation Logic: UV-C sterilization emitters activate only when real-time spectral matches cross threat threshold.• Dose Modulation: Al adjusts wavelength, intensity, and dwell time based on contamination class and surface properties.• Spatial UV Mapping: Integrates geotagged exposure data with adaptive beam steering and intensity scaling.• Efficiency Metric: Minimizes energy waste while ensuring complete inactivation of surface and airborne pathogens across predefined zones.• Sterilization Envelope: Highly localized micro-sterilization patterns dynamically target hotspots while protecting adjacent zones from excessive exposure.

[0114] HYBRIDIZED SYSTEMS

[0115] Some viruses (e.g., those with lipid envelopes) contain UV-reactive chromophores or structural proteins that fluoresce under UV light and thus are detectable with UV-based sensors, while others (e.g., non-enveloped, minimalist capsids) lack sufficient photoreactive components, reducing detectability and necessitate a complementary technology such as ultrasound or plasma based solutions. While UV-C technologies — particularly at 222 nm and 254 nm — exhibit demonstrable efficacy in both microbial inactivation and fluorescence-based detection, their performance is inherently constrained by several structural and environmental factors. These include line-of-sight occlusion, shadowing effects on irregular surfaces, spectral interference from organic residue, and diminished penetration into porous or fibrous materials. Moreover, biofilm matrices and particulate clusters can shield underlying pathogens from photonic exposure, leading to false negatives in biosensing and incomplete sterilization. As such, UV-C is one component within a broader Multivector Sterilization and Detection Matrix (MSDM), wherein UV-C is augmented by ultrasonic disruption, plasma field excitation, ionized air charge loading, and AI- modulated response algorithms. This integrative strategy ensures both surface-level and volumetric pathogen control difficult to achieve with mono vector UV-C approaches.

[0116] SYNERGISTIC ULTRASOUND - Sensing & Sterilizing Synergistic Capabilities:

[0117] Ultrasound’s as Sterilizing Agent: Ultrasound-induced harmonic excitation as a sterilization modality, with acoustic resonance between 20 MHz and 100 MHz, is leveraged to disrupt viral integrity at both structural and functional levels. The principal mechanism of action involves the rupture or deformation of lipid bilayers and, in the case of enveloped viruses, the mechanical disarticulation of corona-type spike proteins, which are critical to host-cell binding and RNA translocation.

[0118] This resonance-based deformation proves especially effective against structurally similar pathogens, including HIV, influenza, and SARS-CoV-2, which share reliance on spike-mediated infectivity. While ultrasound alone may not achieve full inactivation of all strains, it induces sufficient membrane destabilization to enable subsequent eradication via UV-C irradiation or chemical oxidation, forming a multi-stage neutralization array.

[0119] ULTRASOUND EMISSION: Synergistic Biosensing Capabilities:

[0120] Role in Biosensing: Notably, the ultrasonic frequency range specified herein corresponds to that used in diagnostic medical imaging and is thus proven safe for human exposure. The sterilization effect initiates within sub-millisecond timescales, with the pathogen’s envelope rupture occurring in as little as 0.3 microseconds across a range of frequencies.

[0121] High-frequency ultrasound induces cavitation, a process where microscopic gas bubbles oscillate and collapse in a fluid medium. Ultrasound-based biosensing modules utilize controlled acoustic wave propagation to identify, differentiate, and inactivate pathogenic and toxic contaminants across a variety of environments. These Resonant Acoustic Vector Modules (RAVMs) operate by emitting structured sonic pulses through a given medium — air, surface, or liquid — and capturing the resulting backscatter, attenuation, or resonance patterns induced by biological interference. The system may be configured to deliver swept-pulse cycles utilizing preselected or randomized combinations of 110 MHz, 50 MHz, and 25 MHz, thereby broadening target susceptibility profiles across divergent and broad pathogen types.

[0122] These frequencies can also be dynamically sequenced to target pathogen-specific vulnerabilities or environmental response requirements. Variations in acoustic impedance, elasticity, and microstructural geometry among pathogens yield distinct echo signatures. At higher frequencies, resonance interaction with virus capsids, bacterial walls, or fungal chitin enables label-free detection through analysis of vibrational shift patterns. In liquid matrices, cavitation phenomena and bubble nucleation are used to amplify low-concentration pathogen presence. These properties are exploited within Hybrid Sensor Emitter Units (HSEUs) for real-time, in situ biosignal acquisition, classification, and — when coupled with emitter feedback — ultrasonic neutralization. This creates localized mechanical forces capable of:• Rupturing microbial cell walls and viral envelopes• Disrupting biofilms and surface-bound pathogens• Weakening outer membranes to enhance susceptibility to UV or chemical agents

[0123] Ultrasound Biosensing Process: Ultrasound biosensing operates via acoustic scattering and photoacoustic effects:• Acoustic impedance mismatch between pathogens and the surrounding medium alters the reflected signal, allowing detection via echo signature analysis.• Photoacoustic biosensors combine light pulses with ultrasonic detectors to measure thermoelastic expansion of biological targets, revealing size, density, and material-specific responses.

[0124] C. Ultrasound’s Selectivity & Applicability Explained: Viruses and microbes exhibit unique resonant frequencies, influenced by:• Particle size and density• Capsid or envelope composition• Surrounding fluid properties

[0125] Some viral types resonate or scatter more effectively under ultrasound stimulation, making them more detectable when utilizing sonic technologies. For example, rigid, geometric structures (e.g., icosahedral viruses) yield stronger echoes than amorphous or enveloped particles. Likewise, a system that leverages ultrasound needs to be coupled with other sensing technologies to broaden its sensing and sterilizing scope.

[0126] UV-C MONOVECTOR SYSTEMS AND HYBRIDIZATION

[0127] Consistent with operational parameters for programmable ultrasonic sensors ultrasound-based biosensors, fine-grained modulation of transmission and reception parameters can preserve spectral integrity while maximizing sensitivity:• Frequency Ranges: 1-10 MHz for general microbial detection; 50-100 MHz for high- resolution structural differentiation of bacterial vs. fungal vs. viral particles.• Intensity Levels: Typically 0.1-2 W / cm2to balance wave penetration and energy dispersion.• Transducer Voltage: Ranges between 10V and 200V depending on crystal composition (e.g., PZT, PVDF).• Pulse Duration: 10-500 ps for signal-to-noise ratio across complex media.• Resolution Enhancement: Includes chirped frequency sequences and time-gated reception schemes for artifact rejection and boundary-layer analysis.

[0128] SENSOR MODALITIES AND FUNCTIONAL DETECTION SCOPE: MULTIPLE ACOUSTIC BIOSENSOR DESIGNS ARE INCLUDED IN THE DISCLOSED SYSTEM, CUSTOMIZED FOR DISTINCT DETECTION ENVIRONMENTS AND PATHOGENIC PROFILES:• High-Frequency Acoustic Differentiators (HFADs): Exploit wall elasticity and impedance mismatch to detect E. coli, L. monocytogenes, P. aeruginosa.• Photoacoustic Ultrasound Transducers (PAUTs): Combine laser excitation with acoustic return signals to identify RNA / DNA-rich viral structures (e.g., SARS-CoV-2, Influenza A / B, Hepatitis B / C).• Resonant Ultrasound Spectroscopy Arrays (RUSAs): Tune to fungal bio-signatures including Candida albicans and Aspergillus fumigatus via frequency-shift analysis.• Microscale Acoustic Resonators (MARs): Sensitive to airborne and fluidborne toxins, VOCs, and heavy metal contaminants.• Surface Acoustic Wave Biosensors (SAW-Bs): Use surface-propagating wave deformation to detect lipopolysaccharide endotoxins, bacterial spores, and airborne molds.

[0129] ENVIRONMENTAL CALIBRATION AND ACOUSTIC PROPAGATION REQUIREMENTS: ULTRASOUND-BASED SYSTEMS ARE HIGHLY RESPONSIVE TO ENVIRONMENTAL DRIFT. EXEMPLARY CONDITIONS:• Temperature: 18°C-30°C for minimal sonic attenuation.• Relative Humidity: 20%-65% to preserve acoustic wave stability across air and porous substrates.• Surface Contact: Non-porous, acoustically neutral substrates required for maximum echo clarity.• Ambient Noise Suppression: Acoustic interference maintained below 50 dB SPL using damping foams, signal shielding, or ambient cancellation circuits.

[0130] IONIZED AIR COUPLING FOR ACOUSTIC SIGNAL AMPLIFICATION: TARGETED IONIC DISPERSAL MODULES (TIDMS) GENERATE CONTROLLED ELECTROSTATIC PARTICLE FIELDS THAT ENHANCE ULTRASOUND DETECTION THROUGH MICROBIAL AGGREGATION AND CONTRAST ELEVATION:• Charge Loading Range: 5xl05to IxlO6ions / cm3.• Acoustic Impedance Adjustment: Ion charge modifies surface density and elasticity of pathogens, for suitable wave interaction.• Detection Zone Enhancement: Ion-facilitated clustering increases echo surface area for aerosolized agents and air-suspended particles.

[0131] COLD PLASMA INTEGRATION FOR RESONANCE AMPLIFICATION: COLD PLASMA INTEGRATION— EXECUTED VIA LOCALIZED DIELECTRIC PLASMA ARRAYS (LDP AS)— PRODUCES REACTIVE OXYGEN AND NITROGEN SPECIES THATALTER MICROBIAL SURFACE CHEMISTRY, FACILITATING ULTRASONIC DETECTION AND BREAKDOWN:• Biofilm Disruption: Plasma breaks down extracellular polymeric substances, exposing underlying pathogens to acoustic interrogation.• Contrast Enhancement: Plasma-activated surfaces produce richer echo profiles due to fragmentation and oxidation byproducts.• Operational Plasma Parameters: Frequency at 8.5 kHz; Power Density 2-5 W / cm2.

[0132] MULTIVECTOR ACOUSTIC HYBRID DETECTION SYSTEM: A HYBRID CONFIGURATION INTEGRATING ULTRASOUND SENSORS, IONIZED AIRFIELDS, AND PLASMA FIELDS INTO A SINGLE NODE— DESIGNATED A TRLVECTOR ACOUSTIC DETECTION MODULE (TVADM)— YIELDS SUPERIOR SENSITIVITY AND CLASSIFICATION BANDWIDTH:• Sonic Frequency Window: 1-100 MHz sweep capability.• Plasma Field Stability: Cold plasma field maintained at low ozone levels to avoid acoustic distortion.• Environmental Envelope: 22°C, 45% RH, <50 dB SPL with high-efficiency particulate removal.• Cross-Vector Logic: Combined signal interpretation leverages electro-acoustic shifts, biofragmentation echo feedback, and thermal-acoustic hybrid signatures.

[0133] CLOSED-LOOP ACOUSTIC STERILIZATION VIA HIFU AND SENSOR SYNCHRONIZATION: HIGH-INTENSITY FOCUSED ULTRASOUND (HIFU) EMITTERS, WHEN DYNAMICALLY LINKED TO REAL-TIME PATHOGEN SENSORS, FORM A FEEDBACK-ACTIVATED HARMONIC EMITTER LOOP (FAHEL) FOR AUTONOMOUS NEUTRALIZATION OF DETECTED THREATS:• Emitter Control Loop: Adaptive Al sets pulse width, frequency, and beam focal depth based on sensor input.• HIFU Parameters: 1-5 MHz at 10-50 W / cm2, producing localized cavitation and thermal disruption of microbial structures.• Synergistic Enhancement: Integration with ionized air and plasma vectors multiplies sterilization efficiency through enhanced energy coupling and membrane oxidation.• Deployment Contexts: Particularly suited for sterilization of air handling ducts, shared touch surfaces, industrial food lines, and healthcare clean zones.

[0134] UNDETECTABLE CONTAMINANTS WITHOUT MULTIVECTOR COUPLING: DESPITE ITS VERSATILITY, ULTRASOUND SENSING ALONE CANNOT DETECT ALLCLASSES OF CONTAMINANTS. MONOVECTOR ACOUSTIC SYSTEMS LACK SUFFICIENT INTERACTION WITH:• Prions and Misfolded Protein Aggregates: No significant acoustic signature due to lack of distinct impedance boundaries.• Dissolved Chemical Agents (e.g., Pesticides, Organophosphates): Non-interactive in acoustic propagation mediums.• Low-Concentration Viruses (e.g., Rotavirus, Enterovirus): Below threshold of acoustic backscatter detection absent pre-clustering.• Non-Structural Exotoxins (e.g., Botulinum): Lack targetable mass or resonance. As such, integration of Multivector Hybrid Detection Architectures (MHDAs) overcomes these constraints and deliver holistic biosafety assurance.

[0135] While ultrasound technologies — including high-frequency transducers and HIFU emitters — offer substantial benefits in non-invasive pathogen detection and localized microbial neutralization, their standalone application is hindered by several material and operational constraints. Acoustic propagation is significantly diminished in low-density media and obstructed by porous, irregular, or heterogeneous surfaces, namely the human dermis. Moreover, ultrasound systems struggle to detect chemical agents, viral particles below the acoustic threshold, or prionlike protein aggregates lacking sufficient impedance differentials. Biofilm shielding and signal distortion from ambient mechanical vibrations can further reduce detection fidelity. When deployed in combination with UV-C radiation, ionized air, or antimicrobial agents, ultrasound resonance not only enhances sterilization efficacy but also contributes to biosensing functionality, where acoustic patterning enables detection of bacterial colonies, viral shells, mycotoxins, and other resonant molecular structures.

[0136] Thus, ultrasound functions as both a precision sterilizing agent and an active synergy amplifier within the integrated system architecture — amplifying the effect of subsequent vectors and supporting detection capabilities in hybrid sterilization-biosensing arrays. Accordingly, the disclosed system does not rely on ultrasound as a singular sterilization or sensing modality. Instead, it embeds ultrasound within a broader Resonant Hybridized Sterilization Array (RHSA), wherein acoustic methods are augmented by plasma pre-conditioning, ionized air clustering, and photonic excitation — resulting in a multi-vector construct that addresses the biological and environmental limitations inherent in monovector acoustic systems.

[0137] SCIENTIFICALLY DESCRIBED BENEFITS OF HYBRIDIZED ULTRASONICPHOTONIC DETECTION AND STERILIZATION SYSTEMS

[0138] Ultrasound and Ultraviolet Light mono-agent biosensing and sterilizing systems can be hybridized. Herein is disclosed an illustration of an integrated dual-vector sensing and sterilization system that combines ultrasonic harmonic resonance with ultraviolet-C (UV-C) photonic excitation to achieve high-precision pathogen detection, classification, and neutralization. By unifying these modalities into a single Hybrid Sensor Emitter Module (HSEM), the system exploits the complementary strengths of acoustic and optical vectors — namely, the penetrative capacity of ultrasound through complex geometries and the molecular- level excitation offered by UV-C spectroscopy. Together, this coupling enables label-free, real-time pathogen identification across fluidic, surface, and atmospheric media, while simultaneously forming a structural basis for automated sterilization response using programmable emitter feedback.

[0139] Programmable Operational Parameters of Dual- Vector Biosensors - Control and temporal alignment of acoustic and photonic transmission events.• Ultrasound Parameters: Operates at programmable frequencies from 1-100 MHz; pathogen interaction occurs at 3-10 MHz for bacterial and fungal detection. Power intensity ranges from 0.1-2 W / cm2, with voltage modulation up to 200V per transducer design.• UV-C Parameters: Emits within the 200-280 nm range, focused on 222 nm (Far-UVC) for active microbial cleavage and 254 nm (germicidal UV) for spectral fingerprinting. Emission intensity spans 5-50 mW / cm2; pulse frequency set between 10 Hz and 100 kHz.• Synchronized Pulse Modulation: Phase-locked excitation ensures temporal congruency of sonic and photonic stimuli, maximizing resonance and excitation effects for detection accuracy.

[0140] Sensor Modalities and Combined Vector Efficacy

[0141] The following sensor configurations are integrated within hybrid modules, providing broad-spectrum coverage through acoustic -photonic synergy:• Photoacoustic Ultrasound-UV-C Biosensors (PA-UVBs): Detect RNA / DNA of viruses such as SARS-CoV-2, Influenza A / B, and Hepatitis B / C via joint spectral and acoustic absorption differentials.• Fluorescence-Resonant Pathogen Analyzers (FRPAs): Pair UV-C-induced fluorescence with echo-based differentiation for bacterial detection (e.g., E. coli, Listeria, Staphylococcus aureus).• Hybrid Resonant Spectroscopy Units (HRSUs): Leverage dual-vector analysis for fungal signatures (e.g., Aspergillus, Candida) and fungal toxins via frequency and spectral shifts.• Surface Acoustic Wave-UV Biosensors (SAW-UVBs): Monitor airborne contaminants, including bacterial spores, molds, and volatile organics in real-time atmospheric contexts.• Low-Visibility Target Amplification: The hybrid approach resolves detection limitations associated with individually weak optical or acoustic signatures by cross-amplifying detection signals at overlapping spectral or impedance thresholds.

[0142] Environmental and Substrate Requirements for Dual-Mode Operation

[0143] Stable operation of the HSEM platform requires the following environmental and substrate calibration parameters:• Temperature Envelope: 20°C-35°C to ensure stable speed of sound propagation and UV- C photon stability.• Humidity Control: Relative humidity of 30%-60% to mitigate signal dampening and avoid UV scatter.• Lighting Suppression: Ambient light <5 lux required to minimize background fluorescence.• Sample Substrate: Surfaces that are acoustically neutral and optically transparent allow dual- vector penetration and backscatter reception without distortion.

[0144] Ionized Air Integration for Contrast

[0145] Integration of Targeted Ionic Dispersal Modules (TIDMs) increases microbial clustering and alters surface electrostatics, improving resonance reflectivity and UV absorbance:• Ion Range: 5xl05to IxlO6ions / cm3.• Functional Gains: ROS and ion- induced surface charge facilitate aggregation and contrast amplification across both acoustic and photonic channels.• Spatial Preconditioning: Airborne zones exhibit enhanced microbial residency on sensor substrates, improving hybrid signal strength.

[0146] Plasma-Coupled Resonance Amplification

[0147] Cold plasma vectors, deployed via Localized Dielectric Plasma Arrays (LDPAs), augment detection fidelity by chemically and structurally modifying pathogen membranes:• Biofilm Breakdown: Exposes microbially shielded substrates to both UV-C and ultrasonic interaction.• Spectral Amplification: RNS and ROS production increase fluorescence intensity and acoustic reflectivity.• Field Parameters: Plasma applied at 8.5 kHz, 2-5 W / cm2for suitable cavitation, oxidation, and signal coherence.

[0148] Multi- Vector Fusion System with Full Feedback Architecture

[0149] When ultrasound, UV-C, plasma, and ionized air are co-located in a unified detection and sterilization node — termed a Quad- Vector Biosensing Platform (QVP) — the resulting construct yields maximum performance in pathogen differentiation and in-situ neutralization.• Ultrasound-Coupled Fluorescence (UCF): Acoustic cavitation enhances UV fluorescence emission rates.• Ion- Plasma Catalysis (IPC): Reactive ion fields alter resonance behavior and UV scatter to expose cryptic toxins.• Environmental Baseline: System operates at 25°C, 45% RH, <50 dB SPL for signal-to- noise ratio.

[0150] Closed-Loop Detection and Emitter Feedback with Multi- Vector Emitters

[0151] Real-time feedback enables activation of co-located emitter modules in direct response to sensor data, forming a closed-loop logic construct known as the Adaptive Hybrid Emission Control System (AHECS):• Ultrasound Emitter: HIFU emissions between 1-5 MHz at 10-50 W / cm2provide structural sterilization via thermal and cavitation mechanisms.• UV-C Emission Array: Dual-band (222 nm / 254 nm) activation tailored to pathogen class and surface material.• Emitter Adaptation: System modulates beam dwell, angle, and intensity based on sensor mapping.• Multi-Phase Neutralization: Enhanced with concurrent ionized air and plasma, delivering sterilization across microbe types and environmental conditions.

[0152] Multi- Vector Integration

[0153] Vector augmentation address limitations of hybrid acoustic-photonic sensors in isolation against the following threats:• Prions and Misfolded Proteins: Minimal UV reactivity and negligible acoustic impedance.• Dissolved Chemical Agents: Absence of both UV spectral and acoustic resonance responses.• Low-Concentration Viral Particles: Below detection threshold unless clustered via ionic pre-treatment.• Exotoxins Without Carrier Structures: Require membrane disruption via plasma or ion bombardment for indirect detection.

[0154] Vector augmentation address limitations of Dual- Vector Ultrasound-UV-C Systems

[0155] While the integrated use of ultrasound and ultraviolet-C significantly expands the detection and sterilization bandwidth of biosensing systems, dual-vector constructs remain inherently constrained by biological and environmental edge cases. Specifically, acoustic and photonic methods alike require sufficient material density, structural variation, or spectral responsiveness to return usable data — conditions not met by prions, dissolved toxins, non- structural exotoxins, or ultra-low-concentration airborne viruses. Environmental challenges such as surface occlusion, substrate absorption, or ambient particulate interference can further compromise accuracy and sterility assurance. As such, dual-vector systems are not used in isolation, but rather incorporates them within a Multi- Vector Hybrid Architecture that integrates ionized air clustering and cold plasma-induced biofragmentation. This multi-vector framework ensures robust signal acquisition, microbial contrast enhancement, and comprehensive inactivation across pathogenic classes and environmental substrates.

[0156] SYNERGISTIC EFFECT OF INCORPORATING CHEMICAL AGENTS :

[0157] To address microbial resistance and reinforce sterilization efficacy, the disclosed system incorporates a chemical agent vector operating in coordinated sequence with ultraviolet irradiation, ultrasound excitation, and mechanical or gaseous disruption. This vector exploits the preconditioning effect — chemically destabilizing pathogens to enable more complete neutralization by other sterilization modalities.

[0158] Among suitable agents, hexylresorcinol (ST37) has a proven safety profile and utility as a surface tension reducer. By weakening viral membranes prior to UV-C and ultrasoundexposure, ST37 significantly enhances pathogen susceptibility. Its non-corrosive nature renders it suitable for repeated human exposure and for use with sensitive components.

[0159] Ozone (O3) is incorporated for its rapid, volume-based microbicidal action. Ozone penetrates cell membranes, breaks down viral protein coats, and damages RNA cores. Pathogens exposed to appropriate concentrations are neutralized within seconds. Ozone’s airborne sterilization capacity enables treatment of entire chamber volumes, not just surfaces, without residue or structural degradation.

[0160] Nitric oxide (NO) functions as a dual-action gas: at low concentrations, it promotes immune modulation; at higher concentrations, it exhibits direct antimicrobial activity via covalent DNA / protein binding and lipid peroxidation, destroying pathogens intracellularly and externally. As a lipophilic and hydrophilic free radical, NO easily crosses membranes, and when stabilized in sealed chambers, delivers targeted doses without forming hazardous NO2 byproducts. Effective bactericidal action is observed at concentrations above 1 pM, with 160 ppm inducing rapid microbial death.

[0161] Collectively, these agents are not deployed in isolation but strategically layered within an interleaved sterilization protocol, where chemical weakening enhances UV and acoustic lethality. Agents can be selected or excluded based on material compatibility, safety constraints, or targeted pathogen resistance profiles, ensuring maximal efficacy with minimal collateral risk.

[0162] IONIZED AIR AND COLD PLASMA: Dual Role Explanation

[0163] A. Sterilization Action:

[0164] Both ionized air and cold plasma generate Reactive Oxygen and Nitrogen Species (ROS / RNS), which damage pathogen membranes, proteins, and nucleic acids through oxidative stress.

[0165] B. Biosensing Functionality:• Cold plasma and ionized air alter the dielectric and electrostatic environment near microbial particles, which can be measured using field-effect sensors or impedance-based biosensors.• Detection of microbial metabolic byproducts (VOCs, nitric oxide derivatives) can also be monitored in ionized environments.

[0166] C. Selectivity Explanation:

[0167] Viruses with different lipid compositions or surface proteins alter local charge density differently under ionized exposure. This leads to distinct impedance profiles, enabling the classification of this specific sector of viruses that other complementary means may not identify or eradicate as effectively.

[0168] INSIGHTS ON BIOSENSING & STERILIZING SYNERGIES:

[0169] The synergistic efficacy of a novel combination of UV, ultrasound, and other technologies is not incidental — its novel combination is grounded in physical principles of energymatter interaction, bio-optical response, and acoustic resonance. Their overlapping mechanisms allow both the destruction and identification of pathogens with high specificity. This synergy justifies the system’s modular, ALdirected control logic and enables novel capabilities in dynamic outbreak response, architectural biosafety, and scalable biothreat mitigation.

[0170] 1. Shared Interaction Domains: The physical and chemical interaction zones (e.g.,UV excitation fields, ultrasound echo fields, plasma ion clouds) allow overlapping sterilization and detection.

[0171] 2. Pre-Disruption Signatures: Pathogens emit measurable biosignals (e.g., photonic emissions, acoustic echoes) prior to or during being damaged. This enables real-time detection even when sterilization is underway.

[0172] 3. Synergistic Signal Enhancement: One modality enhances the effectiveness or detectability of another:• Ultrasound cavitation makes cell walls more permeable to UV-induced damage.• UV fluorescence triggers photoacoustic waves detectable via ultrasound receivers.• Cold plasma-induced stress increases emission of microbial byproducts for V OC detection.

[0173] 4. Nonlinear Feedback Control: Dynamic Adaptive Emission Control (DAEC) uses biosensor input for controlling sterilization parameters in real-time, forming a closed loop where sensing and sterilization co-evolve.

[0174] EFFICIENCY ENHANCEMENTS FOR ADVANCED HYBRID SYSTEMS:

[0175] Dynamic Adaptive Emission Control for Energy Efficiency Overview: The incorporation of Dynamic Adaptive Emission Control (DAEC) provides intelligent management of sterilization vectors within hybrid sensor-emitter architectures. This methodology leverages real-time environmental and pathogen-detection feedback to dynamically regulate the intensity, duration, duty cycle, and power distribution of system emitters — including Ultrasound, UV-C,Plasma, and Ionized Air. The result is an emission protocol that maintains full sterilization efficacy while adapting continuously to situational demands.

[0176] Implementation:• Real-time, Al-driven control logic interprets multi-sensor data and calculates the required emission parameters — UV-C irradiance, Ultrasound amplitude, Plasma discharge duration, and Ionized Air density — based on pathogen load, surface material properties, and ambient conditions.• Embedded adaptive modulation circuitry adjusts emitter characteristics, including pulse width, frequency, and waveform harmonics, to ensure precise delivery of sterilizing vectors without wasteful energy expenditure.• Continuous environmental monitoring — integrated via on-board humidity, temperature, and particulate sensors — triggers modulation protocols that correct for ambient shifts which may affect sterilization thresholds.• Example Application: In a low-bioburden scenario, the system intelligently reduces UV-C exposure levels and Ultrasound acoustic pressure to preserve emitter lifespan and minimize unnecessary power draw, while still maintaining regulatory sterilization standards.

[0177] FEATURES:• Energy Conservation: Dynamic modulation reduces total power consumption by up to 40%, particularly in facilities with variable occupancy or episodic contamination events.• Emitter Longevity: Minimizing overuse extends the operational life of UV tubes, piezoelectric actuators, and plasma heads, thereby reducing replacement frequency and maintenance costs.• Targeted Emission Profiling: The system can dynamically refocus output toward localized contamination zones, improving sterilization performance in high- traffic or high-risk sectors without full-chamber activation.

[0178] Multi-Stage Sterilization Workflow for Complex Geometries & Airborne Pathogens Concept Overview: The Multi-Stage Sterilization Workflow (MSSW) enables the decontamination of complex environments and surface types through a sequential, multi-vector process specifically designed to overcome the limitations of single-pass systems. The MSSW approach addresses the challenges of biofilm resistance, porous surface adhesion, and aerosolized pathogen drift, offering robust deactivation across heterogeneous spatial conditions.

[0179] IMPLEMENTATION:• Stage 1 - Ultrasound Disruption: Initial application of low-frequency Ultrasound (1-5 MHz @ 2 W / cm2) to mechanically disrupt biofilm matrices and compromise the structural integrity of microbial colonies. This improves permeability for subsequent sterilization phases.• Stage 2 - UV-C Photolysis: Directed UV-C radiation at 254 nm (30 mW / cm2) is delivered to photo-inactivate the exposed genetic material of bacteria, viruses, and fungal spores. This stage ensures rapid DNA / RNA fragmentation.• Stage 3 - Plasma Oxidation: A cold plasma field (8.5 kHz, 3 W / cm2) produces Reactive Oxygen Species (ROS) and Reactive Nitrogen Species (RNS), which chemically degrade cell walls, denature viral envelopes, and oxidize endotoxins.• Stage 4 - Ionized Air Stabilization: Final emission of ionized air at 5xl05ions / cm3neutralizes residual airborne contaminants and interrupts particle reattachment to newly sanitized surfaces, creating a low-adhesion microenvironment.

[0180] FEATURES:• Enhanced Biofilm Penetration: Sequential staging ensures pathogens embedded within multi-layered substrates are exposed to multiple, structurally diverse attack vectors, overcoming common resistance mechanisms.• Superior Control of Aerosolized Pathogens: Ionized air generation actively stabilizes airborne vectors, mitigating the reintroduction of contaminants into controlled zones such as cleanrooms, surgical theaters, and sterile vestibules.• Cross-Sector Applicability: The multi-stage system is adaptable to environments ranging from medical device sterilization and HVAC system intake tunnels to food preparation surfaces and municipal water treatment interfaces, where pathogen adhesion varies significantly across materials.

[0181] Hybridization of Optical Biosensors with Plasmonic and Acoustic Amplification Concept Overview: The hybridization of Localized Surface Plasmon Resonance (LSPR) with Ultrasound excitation and UV-C optical sensing represents a novel biosensing configuration capable of detecting sub-picomolar pathogen concentrations with enhanced signal clarity and biochemical specificity. By merging plasmonic nanostructures with acoustic resonance andphotonic amplification, the system drastically improves fluorescence contrast, surface binding, and real-time detection precision.

[0182] IMPLEMENTATION:• Plasmonic Nanoparticle Coatings: Sensing surfaces are treated with engineered nanoparticles (e.g., gold, silver, aluminum) to amplify the electromagnetic field intensity surrounding captured pathogens. This enhances UV-C fluorescence emission and allows for near-field detection amplification.• Ultrasound-Induced Microbubble Enhancement: Low-frequency Ultrasound (3 MHz, 1 W / cm2) introduces microbubble agitation, which increases the binding probability of pathogen fragments to functionalized sensor surfaces and enhances acoustic coupling with target particles.• Optical Resonance Modulation: Tuned dielectric coatings on the biosensor substrate are used to adjust refractive index and acoustic impedance, creating multi-modal resonance zones that improve both pathogen differentiation and spectral resolution.• Example Application: A multi-signal biosensor configured for SARS-CoV-2 detection employs LSPR surface coatings, UV-C fluorescence capture, and Ultrasound-enhanced microbubble alignment. This configuration achieves sub-picomolar sensitivity, outperforming conventional RT-PCR systems in both speed and detection resolution.

[0183] FEATURES:• Higher Sensitivity: Incorporation of plasmonic and acoustic amplification improves the lower limit of detection by 10-100x compared to UV-C or Ultrasound sensing alone, allowing for early-stage contamination alerts and higher assay fidelity.• Expanded Detection Range: System capable of identifying low-mass viral particles, protein-bound endotoxins, and molecular-level airborne contaminants otherwise undetectable by prior optical means.• Accelerated Diagnostic Speed: Real-time biosensing feedback delivered in under 5 seconds, with no compromise to analytical accuracy, offering suitable response-time in emergency triage, transport hubs, and secure-access biosurveillance gates.

[0184] DURATION & EFFICIENCIES OF THE MULTI-MODAL STERILIZATIONCYCLE:

[0185] The synergies achieved by the convergence of modalities is not a matter of redundancy, but rather of layered complementarity. For example, a UV-C emitter can simultaneously induce RNA denaturation in pathogens while capturing fluorescence differentials for optical biosensing; likewise, ultrasound elements can both rupture lipid bilayers and detect acoustic signatures of target contaminants. The ionized air and plasma fields contribute by dispersing pathogens from occluded zones while simultaneously measuring particulate load and electrostatic decay profiles.

[0186] The resulting architecture forms a self-reinforcing, self-regulating hybrid array capable of identifying and neutralizing orders of magnitude faster and more efficiently than a system that relies on a single modality. Similar efficiencies are attained when documenting pathogen presence in complex, high-throughput environments by leveraging strategically chosen modalities for the sensor / sterilizer arrays. This dynamic behavior is further enhanced when interfaced with the broader Global Monitoring Environment (GME) Database, enabling feedback loops across institutional or mission-critical deployments and enabling what would otherwise be a stand-alone device to gain from the distributed intelligence that the Al enabled internet is quickly evolving into. The following tables and analyses present a quantitative breakdown of the efficiencies gained by combining these technologies — many of which would be operationally insufficient in isolation — into a multi-modal, high-responsiveness system that adjusts in real time to environmental and biological variables.

[0187] ANALYSIS PARAMETERS AND ASSUMPTIONS

[0188] The performance benchmarks and time-efficiency metrics described herein are based on controlled modeling scenarios in which the sterilization and biosensing arrays are operating under programmed environmental and system conditions. These parameters are derived from testbed configurations that simulate mission-critical use environments such as healthcare corridors, quarantine airlocks, military biosafety zones, and laboratory-grade cleanrooms. Unless otherwise specified, the following assumptions apply to detection and sterilization durations:• Sensor and Emitter Calibration: Sensor-emitter modules are presumed to be pre-calibrated and synchronized, with real-time data logging enabled and power levels maintained within required tolerances for peak function.• Pathogen Load Baselines: o Bacterial contamination threshold: 103CFU / mL o Viral contamination threshold: 102PFU / mLo Airborne contaminant threshold: 100 pg / m3(including aerosolized pathogens and VOCs)

[0189] All values represent conservative estimates based on worst-case load conditions and assume nominal baseline efficiency across the device arrays. Enhanced system responsiveness may be expected in embedded systems with multi-modal sequencing, adaptive emitter control, or feedback-driven biosensing logic as described elsewhere in this disclosure.

[0190] UNDERSTANDING EFFICIENCIES & SYNERGISTIC GAINS RELATED TO BIOSENSING:

[0191] The biosensing subsystem, comprising integrated sensor-emitter modules, is capable of detecting and classifying a wide spectrum of microbial threats across varying environmental states and surfaces. Sensing methods can operate independently or in layered combination with others, allowing for tiered response strategies and redundant validation when required. The following performance benchmarks represent standalone sensor operation, with detection times recorded from initial exposure to full signal resolution.• Ultrasound Sensors Alone (Baseline Comparison) o Average Detection Time: 30-90 seconds o Pathogens Identified: Bacteria, select viral particles, fungal spores, mycotoxins o Reduced differentiation across viruses with similar acoustic signatures; susceptible to environmental echo interference in acoustically reflective zones.• UV-C Sensors Alone (Baseline Comparison) o Average Detection Time: 10-45 seconds o Pathogens Identified: Bacteria, DNA- and RNA-based viruses, fungal contaminants, select protein-bound toxins o Detection efficacy diminishes in presence of non-fluorescent or weakly absorbing pathogens; surface reflectivity can alter signal accuracy.• Hybrid Ultrasound + UV-C Sensors o Average Detection Time: 5-25 seconds o Pathogens Identified: Expanded classification including airborne viruses, endotoxins, volatile organic compounds (VOCs) o Signal processing dependent on synchronization; calibration drift can reduce composite signal clarity.Ultrasound + UV-C Sensors Assisted with Plasma Emission o Average Detection Time: 3-15 seconds o Pathogens Identified: Enhanced accuracy in detecting biofilms, proteinaceous toxins, and structurally resilient fungal variants o Plasma field stability is essential; signal distortion may occur in environments with fluctuating plasma ion densities.• Ultrasound + UV -C Sensors Assisted with Ionized Airflow o Average Detection Time: 3-12 seconds o Pathogens Identified: Increased sensitivity to aerosolized bioagents and electrostatically charged particulates o Ion concentration that remain within calibrated bounds prevent signal degradation due to static interference or overionization.• Ultrasound + UV -C Sensors Assisted with Plasma and Ionized Air o Average Detection Time: 1-8 seconds o Pathogens Identified: Comprehensive biosensing coverage including prions, low- mass viral particles, and airborne molecular fragments o Simultaneous calibration of ion density and plasma charge intensity is required; minor imbalances may impair full-spectrum detection reliability.

[0192] UNDERSTANDING EFFICIENCIES & SYNERGIES BY EMPLOYING BIOSENSING + STERILIZATION HYBRID ARRAYS

[0193] When configured as hybrid sensor-emitter systems, the disclosed arrays perform simultaneous biosensing and sterilization, thereby reducing latency between detection and neutralization while maximizing throughput in high-contamination-risk environments. Hybrid sequences are executed within an adaptive logic framework, capable of tailoring exposure intensity, duration, and spatial sequencing based on real-time threat detection.• Ultrasound Sensors + Emitters o Detection Time: 30-90 seconds o Sterilization Time: 1-3 minutes (via high-intensity focused ultrasound, HIFU) o Effectiveness: Proven efficacy against bacterial spores, encapsulated viruses, and select fungal organisms; applicable to both surfaces and embedded contaminantso Reduced efficacy on non-biological chemical toxins; power demands increase in irregular acoustic geometries• UV-C Sensors + Emitters o Detection Time: 10-45 seconds o Sterilization Time: 30-90 seconds (using 254 nm germicidal UV-C) o Effectiveness: Highly effective for airborne and flat-surface sterilization, especially in high-exposure corridors or static object arrays o Shadowing and occluded surface geometries may reduce coverage; reflectivity variance across materials may impact exposure uniformity• Hybrid Ultrasound + UV-C Sensors + Emitters o Detection Time: 5-25 seconds o Sterilization Time: 30-90 seconds (combined HIFU + UV-C sequence) o Effectiveness: Broad- spectrum pathogen elimination including resistant strains and composite biofilms; adaptable to most indoor topographies o Higher power draw mitigated by energy-efficient design integration; energy distribution and timing synchronization can be maintained to prevent interference or underexposure in active chambers

[0194] UNDERSTANDING EFFICIENCIES OF BIOSENSING + STERILIZATION ARRAYS EQUIPPED WITH ENHANCING AGENTS

[0195] The synergistic application of ionized air and plasma discharge within the biosensingsterilization system architecture provides additive and, in certain configurations, multiplicative performance gains. These enhancing agents enable more precise pathogen targeting, accelerated detection-response cycles, and improved environmental decontamination coverage, especially in three-dimensional and high-turbulence zones such as HVAC intakes, surgical suites, and industrial workspaces.• Ultrasound + UV -C Sensors + Emitters with Plasma Enhancement o Detection Time: 3-15 seconds o Sterilization Time: 20-60 seconds o Effectiveness: Suitable for protein-bound toxins, multi-cellular fungal colonies, and resilient biofilm aggregates; effective across organic-inorganic surfaceso Sustained plasma discharge that remain within calibrated frequency and intensity windows preserve biosensing fidelity; plasma arc instability may introduce signal noise or electrical interference• Ultrasound + UV -C Sensors + Emitters with Ionized Air Enhancement o Detection Time: 3-12 seconds o Sterilization Time: 20-50 seconds o Effectiveness: Highly sensitive to aerosolized viral particles, charged particulates, and airborne fungal spores; suited for dynamic-flow environments such as isolation wards and containment vestibules o Over-ionization may create electrostatic masking effects, diminishing signal clarity; monitoring environmental ionic balance can prevent drift from sterilization thresholds• Ultrasound + UV-C Sensors + Emitters with Plasma and Ionized Air (Dual Enhancement) o Detection Time: 1-8 seconds o Sterilization Time: 10-45 seconds o Effectiveness: Comprehensive bio-neutralization including prions, low-mass viral fragments, toxin-laden aerosols, and non-visible contaminants; enables full-cycle sterilization of ambient air, surfaces, and confined-object arrays o Precise modulation of charge density and plasma field intensity; system requires real-time feedback loop with emitter control module to maintain exposure efficacy and prevent environmental overstimulation

[0196] This class of hybrid systems operates under a highly orchestrated multi-agent logic regime, with phase-staggered emissions, adaptive emitter prioritization, and preconfigured load profiles based on user-selected threat categories or environmental presets. The result is a platform capable of transitioning from passive monitoring to active sterilization in under 10 seconds, while maintaining compliance with safety tolerances and power distribution parameters.

[0197] FULLY INTEGRATED MULTI-MODAL BIOSAFETY AND THERAPEUTIC ARRAY (T-MBTA)

[0198] The present disclosure sets forth an embodiment of a hybrid system: the Total Multivector Biosafety and Therapeutic Array (T-MBTA). Designed for deployment in mission-critical facilities, the T-MBTA unifies sterilization, biosensing, therapeutic, and compliance systems into a single intelligent architecture.

[0199] The Total Multivector Biosafety and Therapeutic Array (T-MBTA) stands as a singular convergence of sterilization, biosensing, and therapeutic technologies into one harmonized, intelligent infrastructure. It is not merely a device — it is a biosafety architecture in itself, capable of executing coordinated multi-vector actions with adaptive, real-time precision. Through the integration of DAEC logic, MSSW sterilization stages, LSPR-acoustic-plasmonic biosensors, and therapeutic feedback emissions, the T-MBTA transforms sterilization from a static, blunt-force process into a dynamic, situationally aware immune response for built environments. Its capacity to detect, classify, neutralize, and respond to pathogens across multiple media — airborne, surface, fluidic, or embedded — represents a functional leap beyond the current state of the art.

[0200] Nonetheless, as with any system operating within the laws of physics and the complexity of real- world conditions, there remain edge cases and boundary conditions. Obstructed fields, signal-degrading materials, or contaminants beneath EM-opaque enclosures may require extended exposure cycles or auxiliary support. Likewise, in facilities where power stability, networked control, or autonomous logic is constrained, the system may defer to its built-in fallback protocols — preserving operational continuity while limiting adaptive modulation. As such the T- MBTA provides a high level of biosafety: resilient, intelligent, and scalable. It is not the elimination of limitation that makes this system novel — it is its capacity to recognize, adapt to, and transcend those limitations through design.

[0201] It integrates Acoustic (Ultrasound), Photonic (UV-C), Reactive (Cold Plasma), Field (Ionized Air), Biologic (Therapeutic Emission) vectors and identifies the vectors with the synergistic Spectral-Resonant (LSPR-Ultrasound-UV-C) Biosensing array. This Temporal (Multi-Stage Sterilization Workflow) is governed by embedded Dynamic Adaptive Emission Control (DAEC), allowing real-time Al modulation of emitter subsystems based on continuous feedback from the surrounding environment and onboard biosensors.

[0202] System- Wide Operational Parameters:

[0203] The T-MBTA operates under tightly coupled environmental tolerances, suitable for multi-vector coordination: a.) Temperature Envelope: 22°C-28°C b.) Relative Humidity: 40%- 55% RH c.) Ambient Light / Sound Thresholds: <5 lux / <50 dB SPL on materials that are: a.)Optically transparent, b.) acoustically neutral, c.) plasma-compatible polymeric or composite coatings, d.) capable of supporting therapeutic binding and UV reflectance stability.

[0204] AI-Governed Dynamic Adaptive Emission Control (DAEC):

[0205] DAEC constitutes the system’s central logic engine for emission orchestration. It employs Al-based analysis of multi-sensor data — including pathogen class, environmental conditions, and surface characteristics — to continuously adapt the emitter configuration:• Modulated Parameters: Pulse width, frequency, irradiance, acoustic amplitude, ion dispersion rate, and plasma discharge duration.• Power Use: DAEC reduces power consumption by up to 40% in low-bioburden scenarios while preserving regulatory sterilization efficacy.• Emitter Preservation: Minimizes wear on UV-C tubes, piezoelectric stacks, and dielectric barrier electrodes.• Targeted Zoning: Localized contamination triggers zone-specific intensity increases while preserving energy in sterile or vacant sectors.

[0206] Multi-Stage Sterilization Workflow (MSSW):To ensure full decontamination of porous, irregular, or geometrically complex substrates, the T- MBTA executes a four-phase sterilization sequence:• Stage 1 - Acoustic Disruption: Ultrasound (1-5 MHz, 2 W / cm2) breaks down biofilms and weakens pathogen matrices.• Stage 2 - UV-C Photolysis: Germicidal irradiation (254 nm @ 30 mW / cm2) cleaves DNA / RNA strands.• Stage 3 - Plasma Oxidation: Cold plasma (8.5 kHz, 3 W / cm2) releases ROS / RNS to chemically degrade exposed pathogens.• Stage 4 - Ionized Air Stabilization: Final field deployment (5xl05ions / cm3) prevents reattachment of particulates and establishes a low-adhesion barrier.This MSSW logic is triggered by surface type, detected microbial density, and airflow dynamics, ensuring maximum contact efficacy across stages.

[0207] Multimodal Biosensor Architecture with LSPR-Ultrasound-UV-C Hybridization:

[0208] The T-MBTA incorporates an advanced hybrid biosensor that unites Localized Surface Plasmon Resonance (LSPR), ultrasound-enhanced microbubble agitation, and UV-C fluorescence capture within a single device architecture:• Plasmonic Coatings: Engineered gold or silver nanoparticles amplify near-field electromagnetic resonance to increase signal yield.• Microbubble Coupling: Ultrasound (3 MHz, 1 W / cm2) enhances pathogen- surface binding via cavitation-driven agitation.• Spectral Resolution Tuning: Dielectric coatings modulate acoustic impedance and refractive index for sharper resonance detection.• Performance: Enables sub-picomolar sensitivity — suitable for airborne virus detection, endotoxin discrimination, and early-stage biothreat alerts.

[0209] Emitter Subsystem with Full- Vector Capability:

[0210] The emitter suite is designed for redundant and responsive output across sterilization modalities:• Ultrasound Emitter: HIFU (1-5 MHz, 10-50 W / cm2) with real-time depth and focus adjustment.• UV-C Array: 222 nm (Far-UVC) and 254 nm (germicidal) emissions under DAEC guidance.• Plasma Field: Cold plasma output at 2-5 W / cm2for localized oxidative sterilization.• Ion Dispersal Grid: Sustained ion generation at 5xl05-lxl06ions / cm3for aerosol neutralization and adhesion prevention.• Therapeutic Emission Portals: Optionally configured to release nitric oxide, peptide mists, or regenerative compounds upon DAEC approval.

[0211] Integrated Compliance Logging and Incident Telemetry (RTCCIT):

[0212] All system activities are monitored and logged via the Real-Time Compliance Capture and Incident Telemetry subsystem.• Recorded Metrics: Pathogen classification, emission events, sensor readings, environmental drift, and sterilization cycles.• Log Integrity: AES -256 encryption with optional blockchain integration for forensic traceability.• Alert System: Immediate transmission of anomaly packets and sterilization alerts to compliance officers or facility Al.

[0213] Environmental Mapping, Adaptive Logic, and Deployment Formats:

[0214] T-MBTA includes a directional emitter / sensor pairing and predictive spatial allocation system:• Zonal Prioritization Logic (ZPL): Evaluates contamination risk by motion history, occupancy data, and historical contact mapping.• Microzone Actuation: Individual emitter arrays target contaminated regions dynamically, with safety logic reducing output near live personnel.• Format Variants: Deployed as ceiling arrays, mobile emitter units, architectural glass inserts, wall-embedded sterilization panels, or duct-embedded biosafety nodes — all networked through a Distributed Environmental Biosafety Mesh (DEBM).

[0215] EMBEDDED THERAPEUTIC SYSTEMS AND PROTOCOLS FOR STERILIZATION AND BIOSENSING ARCHITECTURE:

[0216] Embedded therapeutic systems and protocols are essential to ensure physiological resilience and mitigate cumulative stress when humans are required to routinely intensified daily sanitation procedures. Without integrated therapeutic safeguards and enhancements, participation becomes compromised by compliance fatigue, and eventually, systemic dysregulation over time. Embedding therapeutic components directly into the sterilization and biosensing architecture maintains long-term biocompatibility, enhances user safety, and transforms decontamination from a reactive measure into a system that is recognized as a proactive health-sustaining process by its users; thus, promoting compliance and efficacy. As the systems can modular, from the very small and enclosed hand and object sterilizing units to enabling the biosensing and sterilization of very large spaces such as stadiums, convention halls, military bases, schools and cruise ships and high- occupancy military vessels, the choice of embedded therapeutic systems is as diverse as the multiplicity of its applications.• AUDIO THERAPEUTIC ENTRAINMENT MODULES: These modules emit audio frequencies tailored to modulate user mood, attention, and autonomic stability. By embedding these acoustic wave generators into the sterilization architecture, the system minimizes psychological distress during exposure cycles and enhances compliance for high-frequency usage environments. Such modules may operate in conjunction with biosensing feedback, modulating tone, rhythm, or frequency in response to detected stress biomarkers.• BIOSIGNAL-TRIGGERED THERAPEUTIC RESPONSES: The system architecture enables localized or networked therapeutic response triggers that activate upon detection of specific biosignals. This may include a rise in fever, respiratory irregularities, or stress indicators. These triggers may initiate sterilization cycles, administer calming stimuli, or alert external medical systems. Importantly, they create a feedback-responsive therapeutic loop, ensuring that biosensing is not merely diagnostic but therapeutically interactive.• CIRCADIAN-CALIB RATED THERAPEUTIC OUTPUTS: Certain light and acoustic emissions are tuned to human circadian rhythms. The biosensing modules detect user engagement times and light exposure history, allowing for modulation of UV, IR, and visible light wavelengths to align with natural circadian profiles. This therapeutic strategy enhances physiological resilience, stabilizes immune modulation, and counters the dysregulation caused by prolonged interior lighting conditions, especially in institutional, transport, or nocturnal environments.• CLEAN- AIR THERAPY VIA VENTILATED STERILIZATION: Integrated sterilization systems may include forced-air or vacuum-assisted chambers that utilize sterilizing agents (e.g., ozone, ionized air) while simultaneously filtering and purifying inhalable air through HEPA or activated carbon filters. These cycles include respiratory-safe operational sequences and post-sterilization decompression purges to remove agent residues. This system delivers dual benefits: object / surface sterilization and user respiratory therapy.• COLOR-BASED THERAPEUTIC MODULATION (CHROMOTHERAPY): Electrochromic films embedded into device surfaces or architectural elements shift visible coloration to emit therapeutic hues. These are dynamically modulated based on biosensing input or environmental conditions to elicit mood stabilization, behavioral modulation, or phototherapy effects. Applications include calming anxious users during sterilization cycles or delivering stimulating light frequencies during post-exposure cycles to enhance alertness. Such systems are particularly beneficial in healthcare, eldercare, and educational institutions where behavioral regulation supports infection control compliance.• COUNTER-STIMULUS CY CLE PROTOCOLS : These are safety and therapeutic systems which detect overstimulation or overexposure to sterilizing agents or high-intensity outputs (e.g., UV-C, heat, sound). In such cases, a counter-stimulus protocol is automaticallyactivated. For example, a cooling sequence may follow a thermal sterilization cycle, or a soothing audio frequency may follow high-frequency acoustic sterilization.• ELECTROPHOTONIC THERAPEUTIC INTERFACES: These systems include electrode-bearing transparent polymers or glass surfaces that simultaneously deliver lightbased sterilization and low-intensity bioelectrical or photonic stimulation to the user. When touched or approached, the user may receive targeted therapeutic effects such as peripheral nerve stimulation, improved circulation, or localized anti-inflammatory effects.• GENTLE FREQUENCY VIBROTACTILE THERAPY: Devices may incorporate subsonic or low-frequency vibratory elements that deliver therapeutic haptic feedback during sterilization or biosensing. These frequencies are tuned to promote lymphatic circulation, relaxation, and user feedback association with cycle completion. The vibratory output is typically embedded within hand interface modules, seating surfaces, or floormounted entry systems. Integration with biosensing allows vibratory therapy to be delivered precisely when therapeutic benefit is most needed — such as post-fever detection or stress biosignals.• MULTIMODAL NEUROSENSORY REINTEGRATION SYSTEMS: These systems deploy a synchronized array of stimuli — light, sound, temperature, and scent — in response to biosensed indicators of trauma, panic, or cognitive dissociation. Such systems can be embedded in critical-use areas such as isolation rooms, intensive care entries, and postquarantine reintegration portals.• OZONE RECOVERY THERAPY SYSTEMS: Where ozone is used as a sterilant, integrated recovery systems ensure therapeutic re-oxygenation of the airspace through chemical neutralizers, negative ion emitters, or fresh air flooding sequences. This prevents lingering irritants in the respiratory tract, ocular surfaces, and skin. Furthermore, the ozone recovery modules are designed to deliver antioxidant-rich air formulations or integrate humidification cycles to rehydrate exposed surfaces — supporting post-sterilization dermal and mucosal recovery.• PHOTOBIOMODULATION PANEL ARRAYS: These panels emit red, near-infrared, or blue light at therapeutic wavelengths for tissue regeneration, immune system modulation, and mental wellness. Embedded into entry systems, workstation hoods, or seatedsterilization zones, the panels are used for preventative therapy as users interact with the sterilization architecture.• THERAPEUTIC SOUND MASKING MODULES: In environments where ultrasonic sterilization, mechanical vacuuming, or airflow sterilants are in use, therapeutic sound masking ensures that the mechanical noise does not induce stress, disorientation, or non- compliance in users. The masking modules emit ambient or biologically calming frequencies (e.g., pink noise, oceanic sound patterns) that neutralize or psychologically reinterpret the disruptive sounds. These modules are especially important in multi-user or pediatric applications where emotional stability correlates directly with sterilization compliance .• UV-THERAPY INTERLACED EXPOSURE CYCLES : Certain sterilizing UV spectrums are inherently cytotoxic to human cells. However, the system includes interlaced exposure cycles wherein post-sterilization UV-A or controlled blue light therapies are deployed to encourage Vitamin D synthesis or circadian recalibration. These therapeutic interludes are calculated based on biosensed skin types, prior exposures, and environmental data.• ELECTROCHEMICAL APTAMER-BASED BIOSENSORS (E-AB): Electrochemical aptamer-based biosensors (E-AB) utilize engineered oligonucleotide sequences — aptamers — that selectively bind to target biomolecules, enabling real-time, high-specificity detection of physiological and pathogenic markers. When embedded within the sterilization or biosensing modules, E-AB arrays can provide dynamic, continuous health monitoring and trigger appropriate therapeutic feedback cycles. This system enhances the capacity of the biosensor-integrated device to function not only as a sterilizer but also as an intelligent diagnostic interface. By incorporating E-AB functionality, the system transitions from simple biohazard sensing to full-spectrum biosignature monitoring, thereby enabling therapeutic intervention on an individual biomarker basis.• INTEGRATION OF WEARABLE BIOSENSORS: Wearable biosensors refer to textilecompatible or adhesive-mounted modules capable of continuously monitoring physiological parameters such as temperature, pulse rate, respiration, pH, and sweat composition. Integration of these sensors into the sterilization and biosensing system extends diagnostic and therapeutic capacity beyond fixed architectural points into the ambulatory and personalized care domain. These wearable modules may synchronize withsterilization cycles or serve as distributed biosignal collection nodes for real-time environmental and health telemetry. These wearable biosensors supplement real-time biosensing, adaptive sterilization cycles, and distributed networks for epidemiological feedback. Such integration adds a mobile diagnostic node to the static biosensing matrix.• MAGNETIC MODULATION BIOSENSING (MMB): Magnetic Modulation Biosensing (MMB) employs alternating magnetic fields to manipulate magnetically labeled biomolecules within fluidic systems, enhancing detection accuracy and sensitivity. This system enables lower thresholds of pathogen or biomarker detection, particularly in airborne or trace fluid environments, and can be miniaturized for integration into wall- mounted, handheld, or object-based biosensing nodes. MMB represents an extrapolation of the signal amplification and adaptive response systems already disclosed, functioning as a higher-fidelity biosignal harvesting layer. Its inclusion enhances responsiveness to low- abundance biological threats, particularly in early-stage infections or post-sterilization verification protocols.• PHOTOBIOMODULATION THERAPY (PBMT): Photobiomodulation Therapy refers to the therapeutic application of red and near-infrared light at specific wavelengths to stimulate mitochondrial activity, reduce inflammation, and accelerate tissue recovery. When embedded into sterilization portals, touch surfaces, or ambient treatment panels, PBMT can be administered immediately after sterilization cycles to mitigate potential tissue irritation, dryness, or inflammation resulting from UV, ozone, or plasma exposure.• PULSED ELECTROMAGNETIC FIELD (PEMF) THERAPY: Pulsed Electromagnetic Field therapy applies time-varying magnetic fields to tissues in order to stimulate cellular repair processes, modulate inflammation, and enhance microcirculatory function. PEMF modules may be integrated into seating areas, hand sterilization portals, or object sterilization trays, delivering post-exposure therapy in parallel with biosensor analysis or sterilant neutralization routines.

[0217] DATA IDENTIFICATION, CLASSIFICATION, LOGGING, AND REPORTING SYSTEMS FOR BIOSENSING AND STERILIZATION ARCHITECTURE:

[0218] The ability to identify, classify, log, and report biosensing and sterilization data in real time contributes to the safe operation of any organization tasked with protecting human health in high-risk environments. In hospitals, military bases, transit hubs, and other mission-criticalinfrastructures, sterilization alone is insufficient if the execution, efficacy, and operator compliance of a cycle cannot be independently verified and historically reconstructed. In the 21stcentury, pandemic prevention systems can transform from reactive to proactive, and change methodologies from after-the-fact contact trace methods to real-time hot-spot detection, reporting, and modulated reaction of the systems meant to counteract an emergent threat. The systems described in this section provide that detection events, sterilization cycles, and user interaction is recorded with precision, structured for regulatory alignment, and accessible for audit or forensic review. By embedding comprehensive data control protocols into their operations, institutions gain not only operational safety but also legal defensibility, inter-agency interoperability, and adaptive system resilience. These protocols provide an accountability architecture, transforming hygiene and biosecurity from an act of retroactive procedure into a proactive closed-loop system of pinpoint traceable assurance.• AUDITABLE BIOSAFETY LOGGING SYSTEM: This system is designed to autonomously log sterilization and biosensing cycles executed by any device or networked component within the operational architecture. Each event log contains detailed metadata including device ID, timestamp, operator interaction (if any), detected pathogen signature (when applicable), sterilization parameters deployed, and outcome classification. Logs are encoded in tamper-evident formats and are accessible by regulatory compliance officers for forensic audits, ensuring verifiability of protocol adherence.• AUTONOMOUS PATHOGEN DETECTION SYSTEM (APDS): This system continuously monitors environmental substrates — air, water, and surface — for biological threats using automated sample collection, in situ analysis, and wireless reporting. APDS technologies operate without human intervention and include real-time signal amplification, machine learning pattern recognition, and adaptive threshold detection that adjusts based on environmental baselines. When embedded in this biosensing infrastructure, APDS nodes enhance early-warning response while minimizing false positives, which is crucial for maintaining user trust and procedural compliance.• BEHAVIOR-LINKED REPORTING INTERFACE (BLRI): The BLRI ties specific user actions — such as hand insertion, object placement, or premature device removal — to data logs that reflect both usage behavior and corresponding sterilization outcomes. This behavioral tagging ensures that the report not only records what sterilization or sensingevent occurred but how it was initiated, interrupted, or completed by the user. This enables a high-fidelity feedback loop for institutional compliance training, system reprogramming, or liability determination.• BIOMETRIC COMPLIANCE VERIFICATION (BCV): This subsystem utilizes fingerprint, palm-vein, or facial recognition biometrics to verify that a particular individual has engaged with the biosensing or sterilization device in accordance with required protocols. The biometric input is cross-referenced with a time-stamped usage record, producing an immutable chain-of-custody report that links the human actor to the hygienic outcome. This is particularly useful in secure installations, medical triage zones, and controlled-access areas where accountability is non-negotiable.• BIOSENSOR-CALIBRATED LOGGING FRAMEWORK (BCLF): This data architecture governs how biosensors embedded within the system logs detection events based on calibrated parameters including pathogen type, concentration threshold, exposure duration, and environmental context. Each logged detection is indexed by time, location, device ID, and sensor subtype (e.g., UV fluorescence, ultrasound, LSPR), ensuring a multidimensional dataset suitable for real-time analysis and historical pattern recognition. The BCLF enables the aggregation of heterogeneous biosensor data into a harmonized schema for downstream outbreak modeling and threat classification. It also standardizes data across decentralized devices to support centralized review, cross-jurisdictional reporting, and epidemiological feedback loops. Its internal indexing logic is purpose-built to meet public health reporting standards and institutional compliance mandates.• CENTRALIZED PATHOGEN REGISTRY (CPR): The CPR functions as a master data repository wherein pathogen detection events, sterilization responses, and user compliance data from distributed devices are compiled, indexed, and version-controlled. Each registry entry includes standardized taxonomic classification of the identified pathogen or contaminant, geolocation data of the detection, biosensor method used, and any concurrent clinical metadata available. The CPR ensures that the system is not only reactive but contributes to global bio-surveillance efforts by maintaining a continuously updated archive of biological threats encountered across its deployment lifecycle.• COMPLIANCE- ANCHORED DEVICE TAGGING (CADT): This protocol assigns sterilization or biosensing devices a unique compliance-oriented identifier that binds thedevice to its installation environment, operational history, maintenance record, and administrative oversight. CADT enables logged activity — whether successful sterilization, user override, or failed cycle — to be attributed back to a specific device in its contextual deployment. In highly regulated zones such as ICUs, transit ports, or biosafety labs, this allows supervisors to perform micro-level audits and ensure that no device is operating outside its certified parameters. The tagging system also facilitates rapid isolation of malfunctioning or outdated units, thereby maintaining systemwide regulatory compliance. CADT identifiers are cryptographically bound to compliance dashboards and may be rendered immutable through blockchain or other ledger-secured architectures.• COMPLIANCE-TIERED DATA VISUALIZATION DASHBOARDS (CTDVD): This system provides tiered access to real-time and historical biosensing and sterilization data via graphical user interfaces stratified by institutional role (e.g., operator, supervisor, epidemiologist, executive officer). Each tier presents the data with a fidelity, scope, and actionable control set appropriate to the user’s function, ensuring that compliance-related insights are not obscured by irrelevant technical minutiae or withheld due to over- restrictive access gating. Visualization tools include pathogen heatmaps, compliance violation timelines, device-level usage scatterplots, and demographic overlays for user behavior trends.• CRISPR-BASED BIOSENSOR TRACE LOGIC (CBTL): This subsystem, when CRISPR-based biosensing is employed, logs activation and match events with complete genomic sequence fragments, detection timestamps, and sensor parameters. Due to the specificity of CRISPR diagnostics, CBTL provides unparalleled traceability for high-risk, low-titer pathogens such as bioterror agents or emerging zoonotic diseases. The log schema is designed to withstand regulatory scrutiny and to integrate with broader biosafety and genomic surveillance systems, both locally and internationally. Data may be anonymized but retain trace forensic value through cryptographically hashed reference markers. The CBTL ensures that CRISPR detections do not exist as isolated datapoints but are auditable, contextualized, and legally admissible records of pathogen interaction.• DATA INTEGRITY VALIDATION PROTOCOL (DIVP): This protocol is integrated at the firmware and software levels to ensure that data logged, transmitted, or reported by the system retains its authenticity, accuracy, and chronological order. DIVP mechanismsinclude error correction, tamper detection, cryptographic hashing of datasets, and time- synchronized signature keys that bind data packets to specific devices and environmental conditions. In clinical or governmental compliance regimes, DIVP ensures that biosensing and sterilization reports can be trusted as evidentiary material in investigations, audits, or court proceedings. It also prevents manipulation of compliance records by end users or malicious actors.• DECENTRALIZED INCIDENT RESPONSE LOGIC (DIRL): This architecture enables each biosensing device or sterilization unit to locally record and respond to emergent biosafety incidents — e.g., high-titer detection, user override during sterilization, power failure during pathogen exposure — without relying on continuous central server availability. Logged incident data is stored locally with timestamped forensic tags and is queued for sync to the centralized registry once connectivity is re-established. DIRL supports system resilience in low-connectivity zones such as field hospitals, mobile clinics, or emergency shelters, while preserving the chain of incident accountability. The local-to- global log propagation model ensures that no data point is lost, even in hostile environments or post-disaster deployments. It also supports differentiated legal liability analysis by distinguishing between local response failures and systemic network issues.• EVENT-TRIGGERED PATHOGEN TRACEBACK (ETPT): This system initiates a retrospective analysis sequence upon detection of a qualifying biological threat, compiling prior biosensor data, environmental readings, user interactions, and sterilization records within a defined temporal and spatial window. The ETPT automatically correlates those prior events to the present contamination in order to identify potential sources, vectors, or chain-of-custody breaches. Data is organized into a trace report that includes device logs, air / surface biosensor signatures, and compliance behavior within proximity to the threat zone.• FACILITATED LOGGING VIA WEARABLE BIOSENSORS (FLWB): This subsystem enables real-time biosensing data to be collected passively from users via wearable devices (e.g., badges, wristbands, or embedded patches) and then synchronized with the primary sterilization and compliance databases. Biosensor readings may include perspiration pH, airborne pathogen exposure, or contact tracing via proximity monitoring. Each data stream is automatically tagged with user ID (anonymized or direct), timestamp, and locationcoordinates, creating a continuous physiological-logical integration between the human operator and the environmental biosensing ecosystem. In environments such as field hospitals or transit checkpoints, FLWB facilitates seamless logging without workflow disruption. It ensures that compliance and exposure data remain linked even outside fixed- device usage moments, improving the total reporting fidelity.• GENOMIC CATALOGING INTERFACE (GCI) : The GCI provides a structured database interface for biosensing systems utilizing advanced nucleic acid-based diagnostics (e.g., CRISPR, PCR-on-chip, LAMP). Each entry within the catalog stores the detected genomic signature, matched strain ID, mutation profile (when applicable), and environmental parameters of detection. GCI entries are linked to sterilization protocol outcomes to establish correlation between detected genome and effective eradication threshold, which informs protocol customization and pathogen-specific programming.• GEOSPATIAL PATHOGEN LOGGING (GPL): This subsystem captures the GPS-based coordinates of pathogen detection or sterilization events, layering those data points onto institutional, municipal, or global mapping interfaces for outbreak modeling, contact zone mapping, and compliance visualization. Logged data may be rendered as heatmaps, risk zone polygons, or temporal gradient spreads that aid public health authorities in containment planning. GPL ensures that biosensing outcomes are not restricted to abstract database entries but are visualized as evolving threats within real-world spaces. Each GPS- tagged event is also traceable to device ID, timestamp, and threat level classification, allowing for complete spatial-temporal reconstruction of pathogen behavior. This level of mapping granularity is indispensable for mobile deployment zones or infrastructure shared by multiple institutions.• HISTORICAL EXPOSURE INDEXING (HEI): This indexing framework tracks and logs cumulative exposure events tied to specific users, objects, or architectural zones, compiling long-term interaction histories with detected pathogens or compliance and sterilization lapses. Each indexed record links temporal exposure trends to device usage behavior, biosensor alerts, and prior compliance failures, forming a longitudinal risk profile for auditing or adaptive protocol refinement. The HEI enables institutions to shift from eventlevel incident logging to pattern- level exposure management, which is particularly vital for immunocompromised individuals, high-traffic areas, and mission-critical equipment.• INTEGRATED DATA HARMONIZATION ENGINE (IDHE): The IDHE functions as a middleware protocol that standardizes, aligns, and synchronizes biosensor data, sterilization logs, user compliance records, and environmental telemetry from disparate devices and formats into a unified schema. This harmonization ensures compatibility across modular embodiments, third-party analytics platforms, and jurisdiction-specific regulatory frameworks. IDHE resolves timestamp drift, unit inconsistencies, and signal variance across devices using normalization algorithms and system-specific calibration keys.• INTERAGENCY REPORTING BRIDGE (IRB): This subsystem automates the transformation of internal compliance and biosensing data into report formats compatible with external regulatory bodies, including municipal health departments, OSHA, CDC, WHO, and allied defense institutions. Each report is structured to meet the receiving agency’s data format, content thresholds, and submission frequency, with digital signature authentication embedded to confirm source integrity.• LAYERED ACCESS REPORT STRATIFICATION (LARS): LARS governs the granularity and visibility of compliance and biosensing data across different user roles, departments, and security classifications. Reports may be filtered or redacted based on clearance tier, ensuring that operators receive task-relevant alerts while institutional executives gain macro-level performance data, and regulators receive audit-level records. The stratification engine also logs instances of report access, creating a meta-compliance record for transparency in data handling.• LOCALIZED PATHOGEN INCIDENT LEDGER (LPIL): The LPIL creates a sitespecific, chronological ledger of pathogen detections, sterilization cycles, device malfunctions, and user compliance events occurring within a defined spatial perimeter (e.g., a room, building, transit vehicle, or command post). Unlike centralized logs, LPILs permit rapid local access during live incidents, investigations, or post-event debriefings. Each ledger entry includes context-enhancing metadata such as concurrent biosensor states, sterilization mode, ambient conditions, and user override logs.• MAGNETIC MODULATION BIOSENSING LOGGING (MMBL): This subsystem applies specifically to biosensors utilizing Magnetic Modulation Biosensing (MMB) technologies, which involve magnetic particle-assisted signal enhancement for ultra-sensitive detection. MMBL records the frequency of excitation pulses, magnetic field parameters, optical detection thresholds, and target signature confirmations. The logs are designed to capture each detection’s biochemical context and measurement fidelity, forming part of a pathogen-specific evidence chain.• MOTION-LINKED DEVICE ENGAGEMENT LOGGING (MDLEL): This system registers when a sterilization or sensing cycle is triggered by motion proximity, limb trajectory, or physical gesture — as opposed to direct touch or biometric confirmation. MDLEL logs include the motion type, detection range, time delay between detection and activation, and whether user behavior matched recommended interaction protocols. These logs are vital in semi-contact or contactless deployment scenarios where user error, bypass, or compliance gaps are more likely.• MULTINODAL STERILIZATION EVENT CORRELATION ENGINE (MSECE): MSECE analyzes sterilization events across multiple linked devices to determine if contamination events, sterilization failures, or behavioral anomalies are isolated or systemic. The engine correlates spatial and temporal patterns, operator IDs, biosensor alerts, and sterilization results across a network of devices to identify latent vectors or recurring procedural gaps. Each correlation is logged as a meta-event with embedded linkage metadata referencing the contributing devices, logs, and user interactions.• PATHOGEN IDENTITY CHAIN MAPPING (PICM): PICM is a reporting protocol that logs the biological lineage of each detected pathogen, including its strain origin, mutation branches (if detected), and prior occurrences within the institution or extended networks of participating institutions. Each detection event contributes a node to a dynamically evolving chain-of-identity structure, which can be traced backward or projected forward in models of potential evolution or spread. These identity chains are cryptographically sealed and compliant with international bioinformatics data standards to allow for export to epidemiological registries or inter-agency threat modeling systems.• PHOTOELECTROCHEMICAL BIOSENSOR REPORTING LAYER (PBRL): This protocol governs the logging of results derived from biosensors utilizing photoelectrochemical (PEC) detection modalities. Each PEC biosensing cycle is logged with photonic excitation parameters, electrode calibration values, sample class, light intensity curves, and event classification results. The PBRL logs ensure compatibilitybetween PEC output and broader system-wide data schemas, allowing these results to be meaningfully aggregated, compared, and transmitted alongside optical, acoustic, or CRISPR-based results.• REDUNDANT REPORTING VERIFICATION LOOPS (RRVL): This protocol establishes a tiered, multi-instance reporting system wherein biosensing or sterilization events are logged redundantly across independent storage layers — typically local device memory, institutional servers, and optionally secure offsite or cloud nodes. RRVL confirms the consistency and integrity of each log entry across these layers using checksum validations, version timestamps, and identity authentication headers. The system automatically flags discrepancies, missed uploads, or asynchronous entries, prompting either automatic retransmission or administrative investigation.• RESPONSE TIME LOGGING FOR PATHOGEN EXPOSURE (RTLPE) : RTLPE tracks the time interval between initial pathogen detection and corresponding sterilization or containment action. This includes system response latency, user reaction delay (if human interaction is needed), and the elapsed time before mitigation was fully executed. Logged intervals are compared against predefined thresholds to determine whether institutional protocols were met or violated.• SELF-CALIBRATING BIOSENSOR ERROR REPORTING (SCBER): This system continuously assesses the performance of embedded biosensors by cross-referencing their outputs with expected environmental baselines, recent device history, and secondary sensor confirmation when available. When a sensor exhibits drift, false-positive patterns, or signal loss, SCBER logs the anomaly along with automated recalibration attempts or internal alert triggers. The error logs are retained in a separate compliance subledger, ensuring that system accuracy is historically traceable and that biosensor maintenance cycles are accountable.• THERAPEUTIC INTERVENTION TRACE LOGGING (TITL): TITL captures the delivery and outcome of therapeutic enhancements (e.g., moisturizing agents, antimicrobial emollients, analgesic coatings) applied during or after sterilization. Each intervention is logged with its compound profile, dosage settings, delivery timestamp, and feedback from optional biometric or user-reported response metrics. The logging protocollinks therapeutic cycles to specific biosensing or sterilization events, forming a complete chain-of-care record.• ULTRASONIC EMISSION DETECTION LOGGING (UEDL): This protocol records biosensing detections and sterilization responses that utilize or are triggered by ultrasonic emissions. Each UEDL log includes frequency bands used, emission durations, reflective signal parameters, object resonance readings, and biosensor cross-validation results. Ultrasonic biosensing is often used in fluid environments or to detect physical presence of biological film layers; thus, UEDL provides specific performance feedback on a non- optical modality.• VERIFIED CROSS-MODALITY DETECTION REPORTING (VCMDR): VCMDR generates specialized log entries whenever a pathogen or contamination event is detected and independently confirmed across multiple biosensor modalities (e.g., optical + ultrasonic, CRISPR + LSPR). The verification event is logged as a higher-confidence detection with associated timestamps, sensor class identifiers, and data source references. These cross-modality logs support system credibility during high-stakes deployments and reduce reliance on single-sensor validation, especially where environmental noise may skew readings from individual technologies.• ZONE-SPECIFIC CONTAGION MAPPING ENGINE (ZSCME): ZSCME is a real-time mapping subsystem that aggregates pathogen detection logs, exposure records, and sterilization failures per discrete physical zones — such as classrooms, aircraft cabins, or surgical wings. Each mapped zone receives a dynamically updated risk index based on its cumulative event history, biosensor escalation status, and user compliance logs. The mapping engine generates visual and tabular reports stratified by zone, enabling targeted remediation and precise risk assessment and communication.

[0219] STRUCTURAL ENCLOSURE COMPONENTS & LENSING MATERIALS

[0220] FOR ENERGY MODULATION, FOCAL TRANSMISSION,AND ENVIRONMENTAL HARDENING FOR BIOSENSING AND STERILIZATION ARCHITECTURE

[0221] Structural components and advanced functional materials collectively define biosensing and sterilization capabilities of the disclosed architectural system. Such includesynergistic integration of material science, polymer engineering, and sterilization efficacy, with particular regard to the dual-purpose nature of select substrates and coatings.

[0222] These components are not merely passive elements within the structural framework; rather, they are active participants in the detection, neutralization, and long-term mitigation of microbial presence within the built environment. The ensuing disclosures include both conventional and non-conventional material configurations, with special attention given to the development of a novel multifunctional polymer platform designed to satisfy the stringent dual criteria of biosensing responsiveness and sterilization compatibility.

[0223] The choice of materials for the modular component’s array of sizes and functionalities is significantly affected by the material’s performance due to their chemical compositions, structural performance, lensing efficiencies, and their respective deployment environments for systems that transmit, focus, or reflect UV-C light, ultrasound, ionized air, and multimodal energy vectors for sterilization, biosensing, and therapeutic operations.

[0224] These materials and structures serve several purposes: First, they protect subsystems. Second, they enhance energy propagation, field accuracy, and operational longevity. Third, they precisely encapsulate and control the transmission of energy, namely as electrochromic casings that selectively interchange from translucent to opaque for UV safety, for example. This portion of the disclosure lists materials, of which one of ordinary skill in the art would understand their utility and suitabilities:

[0225] 1. Purpose-Built Polymers (PBP): are a series of novel engineered polymers tailored specifically for advanced multimodal energy transmission and sterilization protocols, as described in the section entitled “NOVEL POLYMERS (PBP).”

[0226] 2. Established High-Performance Polymers already commercially available, including FEP (Fluorinated Ethylene Propylene), PFA (Perfluoroalkoxy), Teflon AF, PMMA, COC, and PMP. These provide quick manufacturability while offering excellent transmission properties and mechanical resilience, as documented in "ESTABLISHED AND HIGH- PERFORMANCE MATERIALS FOR INTEGRATED BIOSENSING AND STERILIZATION SYSTEMS".

[0227] 3. Auxiliary & Special Case Polymers who do not possess the lensing, amplification, dampening, and emissions control capabilities as the PBP or High-Performance polymers, but which are necessary due to the very broad array of applications the extended networkof devices may have a specialized need for. For example, copper, brass, and stainless steel have long been recognized for their anti-microbial aspects, but their combination into this instant art becomes novel due to the compounding effects that their ability to transmit Ultrasound vibrations adds to the system’s modular components.

[0228] System architectures can use enclosure and lensing components that perform not only structural support functions but also enable real-time energy transmission, directional control, sensor fidelity, and anti-contamination resilience. These enclosures can permit high-energy UV-C light and high-frequency ultrasound to penetrate or reflect at precise angles, with minimal distortion, attenuation, or surface degradation. To that end, embodiments can incorporate the following material pathways:

[0229] PVDF-BASED NOVEL POLYMERS (NON-CHROMIC CONFIGURATION):

[0230] This novel multifunctional polymer platform disclosed herein is distinguished from the commercially available materials by its proprietary chemical composition and their capacity to unify structural, biosensing, and sterilization functions within a single, monolithic medium. Unlike the commercially available materials cataloged in the following sub-section, which are adapted or repurposed from existing applications, this PVDF-Based polymer was expressly engineered to fulfill the integrated demands of responsive architecture in a manner not achievable through legacy materials alone.

[0231] This PVDF-Based polymer is engineered to allow multi-spectral transparency, lensing, amplification, dielectric resilience, and prolonged sterilization cycle resistance. The PBP form the suitable substrate for UV-C domes, acoustic conduits, and dielectric barriers embedded with nanoscale biosensing circuitry. This specific configuration of the PBP also support embedded photochromic actuation and charge storage geometries. See full description in the referenced PBP section.

[0232] This specific configuration of the PVDF-Based Purpose-Built Polymer is a novel, multifunctional material engineered from polyvinylidene fluoride (PVDF) or its copolymerized derivative PVDF-HFP. It is chemically configured to serve as a monolithic structural and functional platform for sterilizing, biosensing, and therapeutic architectural applications. Unlike prior PVDFs, the PBP can be extruded, 3D printed, cast, sewn, woven, sawn, glued, and bent using standard fabrication tools and techniques, enabling its deployment as both a construction-grade material and a precision sterilization component.

[0233] This polymer may be manufactured and deployed in a variety of physical states, including filament, pellet, and gel for additive manufacturing; rigid sheets, rods, tubes, and pipe for conventional fabrication; and castable or brushable fluids for surface-layer formation. PBP variants may also be woven into smart textiles or laminated into multi-functional membranes.

[0234] PBP’s intrinsic material properties allow it to function simultaneously as a surface, a sensor, and a sterilization actuator. These properties include piezoelectricity, pyroelectricity, capacitive energy storage, and the ability to emit or modulate optical signals when combined with embedded grids of UV, IR, OLED, or photonic elements. It supports therapeutic ultrasound emission, photoacoustic interaction, and programmable response to biological and environmental threats. As a result, PBP panels, films, and fittings may serve as intelligent architectural components capable of autonomous biosensing, disinfection, and real-time adaptive response within human-occupied spaces.

[0235] The lensing and enclosure components are predominantly composed of this specific configuration of the novel PVDF-Based Purpose-Built Polymer (PBP) — is a custom-engineered material capable of:• Transmitting and / or lensing UV-C radiation at specific bactericidal and virucidal wavelengths (including 222 nm and 254 nm) with minimal energy loss;• Channeling and amplifying ultrasonic vibrations across a wide band of frequencies (notably within the 25-110 MHz sterilization spectrum);• Enduring prolonged exposure to ionized gas, ozone, nitric oxide, and plasma discharge environments without degradation or outgassing;• Supporting embedded optical sensors, biosensing filaments, or actuator ports for real-time compliance monitoring and system responsiveness;• Withstanding mechanical stressors in mission-critical deployment zones such as field hospitals, military installations, pathogen containment zones, or contamination-sensitive industrial sectors.• Optionally photochromic and electrochromic for transparency control for the safe handling of UV light.

[0236] The system utilizes a multimodal optical- acoustic transmission geometry, which allows the PVDF-Based PBP-based lensing structures to simultaneously:• Collimate UV-C light across planar or curved surfaces using geometrically integrated refraction cones or Fresnel ridge patterns;• Focus ultrasonic waves through radial or longitudinal acoustic conduits formed within or adhered to the PBP lens body;• Store and redirect energy via embedded capacitive geometries molded into the structural contours of the polymer, enabling passive or active energy recapture;• Shield underlying electronics and biosensing components from thermal, mechanical, and biochemical interference while maintaining full operational transparency.

[0237] To achieve these functions, this PVDF-Based PBP polymer is cast or extruded into high-tolerance geometries, with its surface characteristics optionally treated via corona discharge, plasma activation, or hydrophilic nanocoating to enhance optical clarity, acoustic efficiency, and chemical resilience. These enclosures and lensing systems are integral to the following categories of sterilization and biosensing modules, as disclosed elsewhere in this application:• End-effector emitter arrays used in wall-mounted or mobile disinfection units;• Tunnel and dome enclosures for arm, hand, or object entry sterilization stations (see Modular Embodiments of Devices);• Low-profile or embedded window components for architectural biosensing points or access control interfaces;• Flexible or inflatable sheath lenses used in conformable field devices or body-adaptable therapeutic emitters.

[0238] SCIENTIFIC DESCRIPTION OF THE PVDF-BASED PBP: To achieve persistent, programmable sterilization across diverse architectural environments and human-contact surfaces, it is necessary to reconceive traditional construction and fixture materials as active, responsive systems. The disclosed PVDF-Based Purpose-Built Polymer (PBP) material is engineered as a multifunctional platform capable of integrated biosensing, sterilization, therapeutic energy emission, and environmental signal processing. It is designed to replace passive architectural components with embedded sterilization logic, enabling self-disinfecting, self-reporting surfaces in mission-critical applications such as hospitals, military installations, and biosafety environments.

[0239] This section sets forth scientific composition, fabrication strategies, and programmable emission properties of the PVDF-Based PBP, including its ability to function as (1) a UV-C andIR light emitter and magnifier; (2) an ultrasound-generating surface through optical-fiber-based photoacoustic mechanisms; and (3) a precision-controlled electrochromic lens or filter responsive to electrical input. Moreover, the polymer is designed for fabrication in standard architectural and equipment-grade form factors — including sheets, panels, laminates, and 3D-printed parts — while retaining its energy-emitting and mechanical properties under conditions of mechanical alteration (e.g., cutting, bending, joining, gluing, sawing).

[0240] STRUCTURAL DESIGN AND MATERIAL ARCHITECTURE OF THEPVDF- BASED PBP: The PVDF-Based PBP formulation is based on a poly(vinylidene fluoride) (PVDF) matrix selected for its piezoelectric and electroactive properties. PVDF is a semi-crystalline polymer composed of repeating CH2-CF2 units that can be stretched and electrically poled to align its dipole moment along a desired axis. This alignment allows the material to exhibit programmable mechanical deformation (i.e., expansion or contraction) in response to electrical input, enabling the precision modulation of embedded emitter arrays.

[0241] In at least some embodiments, the PBP is engineered as a laminated stack or homogenous extrusion containing the following:• Embedded UV-C and IR LED arrays, cast or laminated into the polymer matrix in configurable grid patterns• Optical fiber networks coated or laminated within the PBP, enabling photoacoustic ultrasound emission• Electrochromic layers responsive to programmable voltage for controlled transparency or opacity in targeted wavelengths• Edge-banding or waveguides for light diffusion or magnification along planar or three- dimensional architectural surfaces

[0242] These design features enable the PBP to simultaneously function as an optical emitter, signal-transducing surface, biosensing interface, and dynamic filter of biologically significant radiation.

[0243] LIGHT ENERGY CONTROL AND MAGNIFICATION OF THE PBP

[0244] To serve as a sterilization-grade emitter and magnifier of Ultraviolet and Infrared radiation, the PVDF-Based PBP incorporates embedded UV-LEDs and IR-LEDs that emit at biologically significant wavelengths. Specifically, UV-C LEDs emitting at 222 nm, 254 nm, or 265 nm have proven germicidal efficacy, with 265 nm closely matching the germicidal responsepeak per IES standards. Meanwhile, IR emissions in the 600-1000 nm range enable low-level light therapy (LLLT) and photobiomodulation (PBM) applications, with common peaks at 650 nm and 840 nm. Where materials for light magnification are required, the polymer may be doped with or laminated to transmissive optical substrates such as:• Fused Silica• Quartz• Sapphire• Vycor• UV-transparent fluorides and select Pyrex formulations

[0245] These materials are selected for their low UV absorption coefficients and high resistance to thermal and photonic degradation. Magnification is achieved by minimizing thickness per the Beer-Lambert Law, allowing exponential attenuation control and programmable light intensity delivery through minimal optical depth.

[0246] The PVDF-Based PBP is thus not only a platform for emission, but a lensing and filtering system, capable of dynamically adjusting exposure for both disinfection and therapy based on occupant presence, air quality readings, or contamination alerts.

[0247] THE PVDF-BASED PBP’S ULTRASOUND EMISSION VIA PHOTOACOUSTIC PRINCIPLE

[0248] Beyond photonic emissions, the PVDF-Based PBP is configured to emit ultrasonic frequencies — typically between 20 and 100 MHz — via optical fiber-based ultrasound transmitters. These elements operate on the photoacoustic principle, where light pulses are converted into acoustic energy within the fiber and transmitted outward through the polymer surface. Features of this system include:• High-frequency output with broad bandwidth• Rapid, nanosecond-scale pulsing using ultra-fast laser diodes• Seamless integration with embedded light arrays• Compact and durable form factor compatible with laminate, extrusion, and 3D printing processes

[0249] The PVDF matrix serves as a piezoelectric amplifier, responding to electrical inputs and enhancing the acoustic emission profile. When integrated with fiber arrays and laser emitters,this configuration allows the material to deliver synchronized photonic and ultrasonic sterilization pulses during contamination events, user contact, or air quality triggers.

[0250] IV. FORM FACTOR AND FABRICATION FLEXIBILITY

[0251] The PVDF-Based PBP is explicitly designed for conventional architectural fabrication and post-processing. It retains its scientific and mechanical integrity when subjected to: a.) Cutting and sawing (standard panel saws, CNC routers) b.) Bending and thermoforming c.) Adhesive bonding and solvent welding d.) 3D printing (extrusion or stereolithography) e.) Lamination to standard substrates (plywood, MDF, composite board)

[0252] These attributes permit seamless deployment of the PVDF-Based PBP in the fabrication of: a.) Wall and ceiling panels b.) Medical cabinet and workbench surfaces c.) Sterile handwashing stations and touch-free devices d.) Autonomous UV / IR sterilizing furniture components e.) Self-sensing floor tiles and instrument trays. Additionally, edge-emitting waveguide structures allow flat PVDF-Based PBP panels to distribute UV or IR energy uniformly across the surface, turning passive objects into active sanitization instruments.

[0253] Above the electric field is in the opposite direction of the poled direction and the sheet is stretched length. Below the electric field is in the same direction of the poled direction and the sheet is contracted in length.IMAGE SOURCE: https: / / physics.montana.edu / eam / polymers / piezopoly.html

[0254] APPLICATION INTEGRATION AND SYSTEM INTEROPERABILITY

[0255] The PVDF-Based PBP platform is fully compatible with the broader biosensing and sterilization infrastructure disclosed in this application. It may serve as a physical and functional substrate for:• Sterilization routines within autonomous sanitizing systems• Self-reporting surfaces with embedded contamination response• Controlled exposure systems governed by air quality triggers or motion sensors• Patient interface surfaces requiring low-level therapeutic radiation

[0256] In mission-critical settings — e.g., military installations and surgical suites — the PVDF- Based PBP enables architectural environments to become self-sanitizing and intelligent, reducing the risk of pathogen transmission without relying on manual disinfection. Through its ability to emit, filter, and sense energy across multiple modalities, the Purpose-Built Polymer is central to the operability and resilience of the proposed integrated system.

[0257] SPECIFIED COMMERCIALLY AVAILABLE MATERIALS FOR SYNERGISTIC EFFECTS:

[0258] Copper, Brass, and Stainless Steel have long been recognized for their passive antimicrobial properties, and specifically in the case of Stainless Steel, they are the standard for medical and laboratory surfaces. They become a novel combination of active sterilization when combined with UV, Ultrasound, Ionized Air, Plasma, and the leveraged chemicals. Copper has long been used for furniture and architectural components. Brass, for example, has long been known for its use in musical instruments due to its ability to transmit and emit vibrations, and thus becomes a magnifying agent in the synergistic use of Ultrasound for sensing and sterilization. All three compound the effects of an assembly leveraging the synergistic effects of hand-picked agents that compromise a contagion chemically and / or eradicate it mechanically. These agents are more than merely additive. Strategically combination can make the biosensing and sterilization capabilities more efficient than a system that does not engage in the strategic pairing of complimentary materials.

[0259] A person versed in the art of engineering and manufacturing the variety of modular components would make use of polymers that have been designed to be actively anti-microbial. In this way, the modules of the system can mitigate their role as vectors in viral spread. Both FEP and PFA are suitable for transmission of Ultrasound, and are specifically beneficial for the lensing,and amplification of Ultraviolet light. Such materials can have intrinsic and / or engineered properties that support microbial detection, pathogen neutralization, or surface decontamination, including through passive or minimally active mechanisms.

[0260] Furthermore, both FEP and PFA can be fabricated as photochromic dynamic enclosures that alternate between transparent and opaque states in response to sterilization cycles. This enables controlled shielding from harmful UV-C light during operation while ensuring transparency for optical feedback systems and human inspection during idle periods. While not novel in chemical composition, these materials play a role in the construction of high-performance sterilization environments and provide proven, scalable pathways for the implementation of biosensing and sterilization technologies within both new builds and retrofit installations.

[0261] FEP (Fluorinated Ethylene Propylene): FEP is a chemically resistant, non-stick fluoropolymer with excellent transparency to UV and IR wavelengths. It is used in sterilizable coatings, transmissive optical films, and flexible tubing for fluidic or photonic architectures. Its low surface energy resists microbial adhesion and biofilm formation, making it suitable for longterm biosafe surfaces. It can also act as a sterile barrier in flexible biosensing windows or covers.• UV-C Transparency: -90% at 250 nm and -50% at 200 nm.• Thermal Stability: -200°C to +200°C.• Refractive Index: -1.338 (low scatter, high clarity).• Application Benefits: o Non-stick and hydrophobic surface inhibits biofilm formation. o Excellent candidate for optical transmission panels, lens sheaths, or conformable UV-C tunnels. o Suitable for high-throughput sterilization units due to low light loss and chemical inertness. o Semi-rigid structure supports pressurized or vacuum-sealed configurations.

[0262] PFA (Perfluoroalkoxy): PFA is a high-performance fluoropolymer with similar sterilization and optical properties to FEP but with enhanced thermal stability and chemical resistance. It is deployed in environments requiring extreme sterilant exposure, such as peracetic acid or ozone systems. PFA may be used in the fabrication of microfluidic sterilizing paths, sealed biosensor housings, or chemically inert claddings in harsh environments.• UV-C Transparency: -88% at 250 nm.• Thermal Stability: -200°C to +260°C.• Tensile Strength: ~30 MPa (vs. 22 MPa for FEP).• Refractive Index : ~ 1.344.• Features o Greater impact resistance and elongation capacity (-300% elongation at break). o Suitable for biosensor-enclosing shells and portable field-hardened emitters. o Low diffusion and structural stability suitable for consistent UV-C photon distribution. o Performs well under vibration and high-frequency acoustic stress.

[0263] VARIOUS CHROMOGENIC PURPOSE-BUILT POLYMERS:

[0264] 1. Electrochromic• Stimulus: Electrical voltage or current• Response: Change in optical properties (color / transparency)• Mechanism: Redox-driven alteration of molecular orbitals• Exemplary uses(s): Voltage-controlled smart windows, UV shielding, optical safety

[0265] 2. Sonoresponsive• Stimulus: Ultrasound waves (mechanical vibration, cavitation)• Response: Mechanical actuation, structural change, or surface effects• Mechanism: Piezoelectric, photoacoustic, or acoustic pressure-induced deformation• Exemplary uses(s): Active emission or transduction of acoustic energy for sterilization or sensing

[0266] 3. Mechano- / Thermochromic• Stimulus: Stress or heat (indirectly from ultrasound or mechanical load)• Response: Visible color change, opacity modulation• Mechanism: Pigment phase transition, molecular rearrangement, strain-birefringence• Exemplary uses(s): Visual confirmation of ultrasonic activity, compliance feedback, heatsensitive diagnostics

[0267] 4. Poly chromic• Stimulus: Multiple (electrical, thermal, mechanical, photonic, acoustic, chemical)• Response: Multi-modal or compound optical change• Mechanism: Combined or sequenced chromogenic pathways (e.g., electrochromic + thermochromic + photochromic)• Exemplary uses(s): Adaptive systems that shift color based on complex environmental triggers or tiered logic states• Polychromic materials are not a separate mechanism — they are compound systems that integrate two or more chromic response types within the same substrate or laminate.

[0268] 5. Anti-Microbial• Stimulus: Biological presence (microbes, bacteria, fungi, viruses) or contact with contaminated surfaces• Response: Inhibition or destruction of microbial organisms; prevention of colonization or biofilm formation• Mechanism: Passive: Surface topography (nanostructures), charge repulsion, hydrophobicity; Active: Release of biocidal agents (e.g., silver ions, quaternary ammonium compounds, copper oxide, peptides); and, Catalytic: Reactive oxygen species (ROS) generation via light or redox triggers (e.g., photocatalytic TiO2)• Exemplary uses(s): Self-sterilizing surfaces in medical, food, or public-contact environments; Protective textiles and wearables (e.g., masks, gloves, antimicrobial clothing); and, Long-term coatings on infrastructure to reduce pathogen transmission risk.

[0269] Anti-microbial materials are not inherently chromogenic but may be integrated with chromogenic and / or chemically combined systems for status signaling (e.g., color change upon microbial load saturation or agent depletion). In some formulations, dual-function materials may exhibit both antimicrobial and chromic responses (e.g., silver-based photochromic compounds).

[0270] Materials, chromogenic and otherwise, of which one of ordinary skill in the art should understand their utility and suitabilities:

[0271] 1. Purpose-Built Polymers (PBP): an engineered polymer tailored specifically for advanced multimodal energy transmission and sterilization protocols.

[0272] 2. Other polymers including FEP (Fluorinated Ethylene Propylene), PFA(Perfluoroalkoxy), Teflon AF, PMMA, COC, and PMP. These provide quick manufacturability while offering excellent transmission properties and mechanical resilience, as documented in "ESTABLISHED AND HIGH-PERFORMANCE MATERIALS FOR INTEGRATED BIOSENSING AND STERILIZATION SYSTEMS".

[0273] 3. Auxiliary & Special Case Polymers who do not possess the lensing, amplification, dampening, and emissions control capabilities as the PBP or High-Performance polymers, but which are necessary due to the very broad array of applications the extended network of devices may have a specialized need for. For example, copper, brass, and stainless steel have anti-microbial aspects, and combination into disclosed embodiments has compounding effects in that their ability to transmit Ultrasound vibrations adds to the system’s modular components.System architectures can use enclosure and lensing components that perform not only structural support functions but also enable real-time energy transmission, directional control, sensor fidelity, and anti-contamination resilience. These enclosures can permit high-energy UV-C light and high- frequency ultrasound to penetrate or reflect at precise angles, with minimal distortion, attenuation, or surface degradation. To that end, embodiments can incorporate the following material pathways:

[0274] ELECTROCHROMIC POLYMER (NEP):

[0275] The first of the various disclosed chromogenic, purpose-built polymers is a electrochromic polymer. Multifunctional polymer platforms disclosed herein are distinguished from the previously available materials by its proprietary chemical composition and its capacity to unify structural, biosensing, and sterilization functions within a single, monolithic medium. Unlike previously available materials cataloged in the following sub-section, which are adapted or repurposed from existing applications, this polymer was expressly engineered to fulfill the integrated demands of responsive architecture in a manner not achievable through legacy materials alone.

[0276] This polymer is engineered to allow multi-spectral transparency, dielectric resilience, and prolonged sterilization cycle resistance. NEP forms the suitable substrate for UV-C domes, acoustic conduits, and dielectric barriers embedded with nanoscale biosensing circuitry. It also supports embedded photochromic actuation and charge storage geometries. See full description in the referenced PBP section.

[0277] The PVDF-Based Purpose-Built Polymer is a multifunctional material engineered from polyvinylidene fluoride (PVDF) or its copolymerized derivative PVDF-HFP. It is chemically configured to serve as a monolithic structural and functional platform for sterilizing, biosensing, and therapeutic architectural applications. Unlike prior PVDFs, these PVDF- Based PBP can be extruded, 3D printed, cast, sewn, woven, sawn, glued, and bent using standard fabrication toolsand techniques, enabling its deployment as both a construction-grade material and a precision sterilization component.

[0278] This polymer may be manufactured and deployed in a variety of physical states, including filament, pellet, and gel for additive manufacturing; rigid sheets, rods, tubes, and pipe for conventional fabrication; and castable or brushable fluids for surface-layer formation. PBP variants may also be woven into smart textiles or laminated into multi-functional membranes.

[0279] This PBP’s intrinsic material properties allow it to function simultaneously as a surface, a sensor, and a sterilization actuator. These properties include piezoelectricity, pyroelectricity, capacitive energy storage, and the ability to emit or modulate optical signals when combined with embedded grids of UV, IR, OLED, or photonic elements. It supports therapeutic ultrasound emission, photoacoustic interaction, and programmable response to biological and environmental threats. As a result, PBP panels, films, and fittings may serve as intelligent architectural components capable of autonomous biosensing, disinfection, and real-time adaptive response within human-occupied spaces.

[0280] The lensing and enclosure components are predominantly composed of this Purpose- Built Polymer (PBP) — a custom-engineered material capable of:• Transmitting UV-C radiation at specific bactericidal and virucidal wavelengths (including 222 nm and 254 nm) with minimal energy loss;• Channeling and amplifying ultrasonic vibrations across a wide band of frequencies (notably within the 25-110 MHz sterilization spectrum);• Enduring prolonged exposure to ionized gas, ozone, nitric oxide, and plasma discharge environments without degradation or outgassing;• Supporting embedded optical sensors, biosensing filaments, or actuator ports for real-time compliance monitoring and system responsiveness;• Withstanding mechanical stressors in mission-critical deployment zones such as field hospitals, military installations, pathogen containment zones, or contamination-sensitive industrial sectors.• Optionally photochromic and electrochromic for transparency control for the safe handling of UV light.

[0281] The system utilizes a multimodal optical- acoustic transmission geometry, which allows the PBP-based lensing structures to simultaneously:• Collimate UV-C light across planar or curved surfaces using geometrically integrated refraction cones or Fresnel ridge patterns;• Focus ultrasonic waves through radial or longitudinal acoustic conduits formed within or adhered to the PBP lens body;• Store and redirect energy via embedded capacitive geometries molded into the structural contours of the polymer, enabling passive or active energy recapture;• Shield underlying electronics and biosensing components from thermal, mechanical, and biochemical interference while maintaining full operational transparency.

[0282] To achieve these functions, the PBP polymers can be cast or extruded into high- tolerance geometries, with its surface characteristics optionally treated via corona discharge, plasma activation, or hydrophilic nanocoating to enhance optical clarity, acoustic efficiency, and chemical resilience. These enclosures and lensing systems are integral to the following categories of sterilization and biosensing modules, as disclosed elsewhere in this application:• End-effector emitter arrays used in wall-mounted or mobile disinfection units;• Tunnel and dome enclosures for arm, hand, or object entry sterilization stations (see Modular Embodiments of Devices);• Low-profile or embedded window components for architectural biosensing points or access control interfaces;• Flexible or inflatable sheath lenses used in conformable field devices or body-adaptable therapeutic emitters.

[0283] To achieve persistent, programmable sterilization across diverse architectural environments and human-contact surfaces, it is necessary to reconceive traditional construction and fixture materials as active, responsive systems. The various disclosed Purpose-Built Polymer (PBP) material are engineered as a multifunctional platform capable of integrated biosensing, sterilization, therapeutic energy emission, and environmental signal processing. It is designed to replace passive architectural components with embedded sterilization logic, enabling selfdisinfecting, self-reporting surfaces in mission-critical applications such as hospitals, military installations, and biosafety environments.

[0284] This disclosure sets forth scientific composition, fabrication strategies, and programmable emission properties of the PBPs, including its ability to function as (1) a UV-C and IR light emitter and magnifier; (2) an ultrasound-generating surface through optical-fiber-basedphotoacoustic mechanisms; and (3) a precision-controlled electrochromic lens or filter responsive to electrical input. Moreover, the polymer is designed for fabrication in standard architectural and equipment-grade form factors — including sheets, panels, laminates, and 3D-printed parts — while retaining its energy-emitting and mechanical properties under conditions of mechanical alteration (e.g., cutting, bending, joining, gluing, sawing).

[0285] STRUCTURAL DESIGN AND MATERIAL ARCHITECTURE OF THE CHROMIC PBPs: The formulation of the various PBPs arebased on a poly(vinylidene fluoride) (PVDF) matrix selected for its piezoelectric and electroactive properties. PVDF is a semi-crystalline polymer composed of repeating CH2-CF2 units that can be stretched and electrically poled to align its dipole moment along a desired axis. This alignment allows the material to exhibit programmable mechanical deformation (i.e., expansion or contraction) in response to electrical input, enabling the precision modulation of embedded emitter arrays.

[0286] In at least some embodiments, the select PBP is engineered as a laminated stack or homogenous extrusion containing the following:• Embedded UV-C and IR LED arrays, cast or laminated into the polymer matrix in configurable grid patterns• Optical fiber networks coated or laminated within the PBP, enabling photoacoustic ultrasound emission• Electrochromic layers responsive to programmable voltage for controlled transparency or opacity in targeted wavelengths• Edge-banding or waveguides for light diffusion or magnification along planar or three- dimensional architectural surfaces

[0287] These design features enable the various chemical configurations of the PBPs to simultaneously function as an optical emitter, signal-transducing surface, biosensing interface, and dynamic filter of biologically significant radiation.

[0288] LIGHT ENERGY CONTROL AND MAGNIFICATION OF THE CHROMIC PBPs

[0289] To serve as a sterilization-grade emitter and magnifier of Ultraviolet and Infrared radiation, the PBP incorporates embedded UV-LEDs and IR-LEDs that emit at biologically significant wavelengths. Specifically, UV-C LEDs emitting at 222 nm, 254 nm, or 265 nm have proven germicidal efficacy, with 265 nm closely matching the germicidal response peak per IES standards. Meanwhile, IR emissions in the 600-1000 nm range enable low-level light therapy(LLLT) and photobiomodulation (PBM) applications, with common peaks at 650 nm and 840 nm. Where materials for light magnification are required, the polymer may be doped with or laminated to transmissive optical substrates such as:• Fused Silica• Quartz• Sapphire• Vycor• UV-transparent fluorides and select Pyrex formulations

[0290] These materials are selected for their low UV absorption coefficients and high resistance to thermal and photonic degradation. Magnification is achieved by minimizing thickness per the Beer-Lambert Law, allowing exponential attenuation control and programmable light intensity delivery through minimal optical depth.

[0291] The various chemically engineered PBPs are thus not only a platform for emission, but a lensing and filtering system, capable of dynamically adjusting exposure for both disinfection and therapy based on occupant presence, air quality readings, or contamination alerts.

[0292] THE CHROMIC PBP’S ULTRASOUND EMISSION VIA PHOTO ACOUSTIC PRINCIPLE

[0293] Beyond photonic emissions, the various chemical configurations of the PBPs can be configured to transmit ultrasonic frequencies — typically between 20 and 100 MHz — via optical fiber-based ultrasound emitters. These elements operate on the photoacoustic principle, where light pulses are converted into acoustic energy within the fiber and transmitted outward through the polymer surface. Features of this system include:• High-frequency output with broad bandwidth• Rapid, nanosecond-scale pulsing using ultra-fast laser diodes• Seamless integration with embedded light arrays• Compact and durable form factor compatible with laminate, extrusion, and 3D printing processes

[0294] The PVDF matrix serves as a piezoelectric amplifier, responding to electrical inputs and enhancing the acoustic emission profile. When integrated with fiber arrays and laser emitters, this configuration allows the material to deliver synchronized photonic and ultrasonic sterilization pulses during contamination events, user contact, or air quality triggers.

[0295] IV. FORM FACTOR AND FABRICATION FLEXIBILITY

[0296] These PBPs areexplicitly designed for conventional architectural fabrication and postprocessing. It retains its scientific and mechanical integrity when subjected to: a.) Cutting and sawing (standard panel saws, CNC routers) b.) Bending and thermoforming c.) Adhesive bonding and solvent welding d.) 3D printing (extrusion or stereolithography) e.) Lamination to standard substrates (plywood, MDF, composite board)

[0297] These attributes permit seamless deployment of the PBP in the fabrication of: a.) Wall and ceiling panels b.) Medical cabinet and workbench surfaces c.) Sterile handwashing stations and touch-free devices d.) Autonomous UV / IR sterilizing furniture components e.) Self-sensing floor tiles and instrument trays. Additionally, edge-emitting waveguide structures allow flat PBP panels to distribute UV or IR energy uniformly across the surface, turning passive objects into active sanitization instruments.

[0298] Above the electric field is in the opposite direction of the poled direction and the sheet is stretched length. Below the electric field is in the same direction of the poled direction and the sheet is contracted in length.IMAGE S OURCE : https : / / physics .montana. edu / eam / poly mers / piezopoly .html

[0299] APPLICATION INTEGRATION AND SYSTEM INTEROPERABILITY

[0300] The PBP platform is fully compatible with the broader biosensing and sterilization infrastructure disclosed in this application. It may serve as a physical and functional substrate for:• Sterilization routines within autonomous sanitizing systems• Self-reporting surfaces with embedded contamination response• Controlled exposure systems governed by air quality triggers or motion sensors• Patient interface surfaces requiring low-level therapeutic radiation

[0301] In mission-critical settings — e.g., military installations and surgical suites — the PBP enables architectural environments to become self-sanitizing and intelligent, reducing the risk of pathogen transmission without relying on manual disinfection. Through its ability to emit, filter, and sense energy across multiple modalities, the Purpose-Built Polymer is central to the operability and resilience of the proposed integrated system.

[0302] SONORESPONSIVE PURPOSE-BUILT POLYMER (NSRP)

[0303] In addition to the Electrochromic Polymer (PBP), disclosed is a chemical configuragion for a polymer that acts as active acoustic intermediaries that absorb, transmit, transduce, or modulate ultrasound energy to perform tasks essential to sterilization, biosensing, or user feedback. The sonoresponsive polymer detailed herein enables ultrasound, ultraviolet light, and infrared emitters to engage in sterilization and sensory detection cycles using vibratory and pressure-based phenomena to modulate and focus transmissions.

[0304] The chemical composure of this material is determined by the acoustic impedance, mechanical resonance, sonic dampening profiles, structural performance, and operational environments of ultrasonic and photoacoustic systems. These systems may emit, absorb, or reflect ultrasound in targeted applications involving contamination control, diagnostic monitoring, and therapeutic delivery, and this purpose built, sonoresponsive polymer is engineered to its physical and optical characteristics by the exposure to the precise sonic energy emitted by the sensing and sterilizing emitters.

[0305] This sonoresponsive polymer is tasked with multiple roles: First, it encapsulates and transmit sonic energy without distortion. Second, it facilitates the conversion of ultrasonic energy into mechanical or chemical effects. Third, they shield sensitive subsystems from environmental degradation while supporting signal fidelity and energy precision by altering its physical state to precisely control and modulate the emissions of sound and light energy. Among the relevant material platforms disclosed herein are:

[0306] 1. Sonoresponsive Purpose-Built Polymer (NSRP): A custom-engineered polymer formulated specifically for acoustic field modulation, biosensing actuation, and sonic sterilization cycles.

[0307] 2. Auxiliary & Hybrid Acoustic Conductive Materials, including aluminum, copper, and certain elastomer-metal composites, which serve as substrates for enhanced acoustic transmission or coupling, particularly when modular systems require hybrid interfaces or structural resonance matching.

[0308] Additional materials, such as PVDF, TPU (Thermoplastic Polyurethane), TPE (Thermoplastic Elastomer), and Polyether Ether Ketone (PEEK), can be used for rapid deployment in sonically active systems, providing robust mechanical and acoustic compatibility.

[0309] Architectural modules constructed from these materials can enable precise directional control of ultrasound and light energy fields, adaptive mechanical response to energy load, and long-term durability in high-cycling sterilization environments. These include but are not limited to therapeutic panels, biosensing nodes, acoustic domes, and modular hand sanitizing enclosures.

[0310] SONORESPONSIVE PURPOSE-BUILT POLYMER (NSRP):

[0311] This newly developed polymer platform is engineered for direct response to ultrasonic energy across a defined operational bandwidth. It is distinct from conventional materials in that it unifies structural utility with programmable acoustic reactivity, enabling ultrasound-triggered modulation of surface chemistry, morphology, and optical or mechanical behaviors.

[0312] The SRP comprises a copolymerized base matrix of polyvinylidene fluoride (PVDF) blended with a tailored proportion of piezoelectric or magnetostrictive inclusions. These inclusions may include barium titanate, zinc oxide nanowires, magnetostrictive rare-earth composites, or acoustic-doped elastomers, allowing the material to respond to incident ultrasound with quantifiable mechanical deformation, electrical polarization, or embedded actuation.

[0313] The NSRP may be fabricated in multiple form factors suitable for conventional and additive manufacturing workflows: as rigid sheets, laminated acoustic windows, castable surface treatments, 3D printable filaments, or woven threads. The polymer supports embedded acoustic couplers, capacitive grids, or mechanochromic indicators that activate in response to defined frequency and amplitude thresholds. Furthermore, the NSRP may optionally incorporate in its liquid or gel form, the ability to chemically bond previously severed NSRP sheets, castings, orextrusions and in their joining achieving a continuous surface that preserves the material’s sonoresponsive properties.

[0314] In active biosensing and sterilization systems, the SRP may serve several concurrent roles: (1) as a sterilization amplifier via cavitation-enhanced acoustic fields; (2) as a sensing surface via impedance or deformation monitoring; (3) as a mechanoresponsive emitter / receiver coupling interface; and (4) as a emission and transmission control and modulation lens and / or shield whose physical response to precise sonic waves blocks or transmits light energy by altering its translucence upon sonic signaling.

[0315] The lensing and enclosure components made from SRP are capable of:• Transmitting ultrasonic frequencies from 20 kHz to 200 MHz with low reflection and minimal attenuation.• Modulating internal pressure states and cavitation microfields for on-demand sterilization.• Withstanding prolonged exposure to water vapor, ionized gas, peroxide mists, and ultrasound-induced thermal cycling.• Supporting embedded pressure sensors, ultrasonic transducers, and photoacoustic interfaces.• Optionally altering shape, tension, or optical properties when stimulated by specific sonic input profiles.

[0316] The NSRP may incorporate dynamic tension geometries, acoustic horns, or biofilmdisrupting surface patterns molded directly into the polymeric substrate. This allows the formation of conformal emitter pads, dome arrays, or directional focal lenses used in autonomous or manual decontamination workflows.

[0317] THE NSRP

[0318] To fully integrate sonic sterilization into architectural systems, materials are active acoustic conductors and modulators. The NSRP fulfills this function through a matrix tailored for acoustic reactivity and programmable mechanical and dielectric responses. It is derived from a semi-crystalline PVDF-HFP base structure with embedded microstructural domains that resonate, deform, or generate charge in response to incident ultrasound.

[0319] This polymer system supports fabrication into standard and mission-critical architectural geometries while preserving sonic functionality across operational and sterilizationcycles. The following design features may be incorporated into a given NSRP substrate via lamination, casting or extruding the active elements below disclosed:• Piezoelectric inclusions for electrical readout or actuation.• Fiber-optic acoustic couplers for photoacoustic transduction.• Magnetostrictive elements for mechanical strain monitoring.• Mechanochromic overlays for visual confirmation of ultrasonic activation.

[0320] These design features enable the SRP to act as a platform for real-time sensing, decontamination, and structural response in biosensitive and sterilization-demanding environments.

[0321] ULTRASOUND ENERGY CONTROL AND STERILIZATION MODULATION

[0322] The NSRP is engineered to concentrate, reflect, or emit ultrasound across relevant sterilization and therapeutic bands. It does so through embedded geometries and acoustic impedance matching that reduce wavefront distortion and enable field control.

[0323] Acoustic performance characteristics:• Acoustic Impedance: Tunable between 1.2 and 3.5 MRayl, to match coupling media and interface materials.• Attenuation Coefficient: Minimized below 1 dB / cm at 3 MHz, enabling deep wave penetration.• Cavitation Resistance: High resistance to microbubble erosion and resonance fracturing.• Phase-Change Coating Compatibility: Supports thermochromic or photoacoustic overlays.

[0324] When ultrasound fields are introduced (e.g., from an embedded or external transducer), the NSRP surface may undergo:• Dynamic deformation or vibration for biofilm disruption.• Surface energy change to enhance antimicrobial surfactant action.• Acoustic actuation of microfluidic channels or drug release vesicles.• Triggered mechanochromic feedback for operational verification.

[0325] APPLICATION INTEGRATION AND SYSTEM INTEROPERABILITY

[0326] The SRP is engineered to integrate seamlessly into the broader biosensing and sterilization architecture disclosed in this application. Potential deployments include:• Conformal emitter domes for self-sterilizing hand sanitizing units.• Embedded ultrasonic waveguides in modular architectural wall panels.• Self-reporting acoustic sensors triggered by environmental pathogen alerts.• Low-frequency therapeutic delivery surfaces for LIPUS (Low-Intensity Pulsed Ultrasound).• Detachable or inflatable acoustic sterilization membranes for rapid deployment zones.

[0327] In at least some embodiments, SRP allows spaces to autonomously respond to contamination risks through real-time sonic interaction — either by modulating acoustic energy for sterilization or capturing data through ultrasonic signal analysis.

[0328] FORM FACTORS AND FABRICATION

[0329] The SRP supports a wide array of form factors, including:• Rigid Panels and Tiles: Cast or extruded for wall surfaces or biosensing floors.• Flexible Films: Rollable sheets for covering equipment or mobile deploy ables.• Inflatable Domes and Tunnels: Field-configurable barriers with built-in ultrasonic reflectors.• Extruded Threads and Woven Meshes: Used in smart textiles, medical gowns, or hospital bedding.• Photoacoustic Fiber Integration: Laminated into walls or ceilings for full-field activation.• Liquid and / or gelatinous form: can be utilized to cast custom forms upon the inclusion of a hardening catalyst in the pourable mix.• 3D Printing Filament, Liquids & Pellets: Used to feed the various feed mechanisms common in 3D printing.

[0330] Fabrication methods may include:• Injection molding with acoustic additives.• High-resolution 3D printing with piezoelectric filament blends.• Lamination with metallic or dielectric waveguides.• Corona or plasma surface activation to modify sonic transmission profiles.

[0331] Unlike legacy materials which passively reflect or attenuate ultrasonic energy, the NSRP enables active response and programmable behavior. Features include:• Integrated biosensing and sterilization in a monolithic structure.• High fabrication versatility for architectural and wearable deployments.• Simultaneous emission and sensing capabilities within the same enclosure.• Support for hybrid UV / Ultrasound sterilization architectures.• Embedded logic for acoustic field shaping and adaptive environmental response.

[0332] PHOTOCHROMIC PURPOSE-BUILT POLYMER (NPP)

[0333] Herein is disclosed an additional purpose built polymer, akin to the sonoresponsive and electrochromic purpose built polymers, similarly engineered as the structural materials and enclosure systems that support biosensing and sterilization functions by embedding visual feedback logic directly into architectural substrates. This NPP relies on engineered mechanical and thermal stimuli derived from ultraviolet light activation to produce optical changes visible to human or machine systems. The materials specified here represent a class of photochromic (and thermochromic by extension) polymeric compositions designed to provide non-electrical visual indication, pattern emergence, or transparency change in response to incident ultraviolet light.

[0334] These functional changes are produced via one or more mechanisms: stress-induced polymer phase shift, localized thermal generation from cavitation, or pigment microstructure reconfiguration. When properly tuned, the result is a material system that visually signals ultraviolet exposure, mechanical loading, and / or heat thresholds resulting from the heating properties of ultraviolet light — without requiring embedded circuitry or wiring. The functional utility of this capability spans: process verification, user safety feedback, field diagnostics, and passive biosensor activation markers.

[0335] The systems described leverage polymer substrates integrated into architectural form factors such as wall panels, access covers, hand-sanitizer chambers, dome sterilization hoods, and mobile field enclosures. The following material classes may be used:1. Ultraviolet- Light- Activated Mechanochromic Polymer (NPP): A photochromic polymer composition that shifts color, opacity, or refractive index when subject to ultrasonic excitation.2. Thermo-Responsive Chromogenic Polymers triggered by ultraviolet-induced cavitation or interfacial heating in aqueous or soft material assemblies, providing progressive or threshold-driven color change.3. Hybrid Elastomeric Composites embedded with leuco dyes, spiropyrans, or cholesteric liquid crystals, wherein mechanical or thermal strain reversibly disrupts optical properties at predetermined thresholds.

[0336] System architectures that include these polymers serve as passive optical interfaces that co-function with UV and ultrasound active emitters. While the emitters perform sterilization or sensing, the polymers provide real-time visual confirmation that ultrasound has penetrated a chamber, activated a fixture, or achieved a minimum field intensity. This section discloses integration of such polymers into biosensing and sterilization architectures as passive, zero-power state monitors.

[0337] PHOTOCHROMIC PURPOSE-BUILT POLYMER (NPP):

[0338] The Ultraviolet-Light-Activated Mechanochromic Polymer (NPP) represents a compositionally tuned polymer platform designed to translate mechanical stress or thermal change into chromatic output. It does so without requiring electrical bias or photonic triggers. The NPP material class is defined by its use of mechanochromic pigments dispersed within a flexible or semi-rigid elastomeric matrix, optionally including light-sensitive domains that amplify internal strain gradients upon exposure to ultraviolet light excitation.

[0339] NPP substrates may be fabricated as planar sheets, laminated films, spun and / or extruded geometries, or woven threads. The NPP class of purpose built polymers undergo a reversible chemical transformation, often referred to as photoisomerization, when exposed to specific wavelengths of light, most commonly ultraviolet (UV) light. This transformation involves a change in the molecular structure of the photosensitive component within the polymer. The mechanisms of photoisomerization:

[0340] 1. Ring Opening or Bond Breakage: Upon absorbing photons of UV light, the photochromic molecules undergo a change in their chemical structure. This can involve:• Ring opening: In compounds like spiropyrans and spirooxazines, the initial, often colorless, ring-closed form (e.g., spiropyran or spirooxazine) undergoes a light-induced cleavage of a chemical bond, typically a C-0 bond.• Cis-trans isomerization: In molecules like azobenzenes, a double bond can isomerize between the trans and cis forms.

[0341] 2. Formation of a Colored Isomer: The ring-opening or isomerization process leads to the formation of a different molecular structure, often called a colored isomer or, in the case of spiropyrans / spirooxazines, a merocyanine (MC) form. This new isomer has a different absorption spectrum compared to the original form, meaning it absorbs different wavelengths of light and,therefore, appears colored. This happens because the molecular structure changes, allowing for extended n-electron conjugation that enables the absorption of visible light.NPPs may be reversibly or irreversibly configured. The reverse reaction occurs when the UV light source is removed or exposed to visible light (or sometimes heat), the colored isomer reverts back to its original molecular structure. This process involves ring closure or back-isomerization, and the material returns to its initial, often colorless, state.These polymers are effective in modular paneling, field-deployable enclosures, end-effector emitter array casings, and user-facing fixtures such as contact pads or entry port seals. They are particularly effective where full electrical infrastructure cannot be assumed, such as mobile field hospitals or power-constrained installations.

[0342] The NPP platform may include Spiropyrans and Spirooxazines. These compounds undergo a reversible ring-opening and ring-closing process triggered by UV and visible light, respectively, to switch between colorless and colored forms. It may also include Azobenzene. Azobenzene and its derivatives undergo a reversible cis-trans isomerization around a nitrogennitrogen double bond

[0343] THE NPP:

[0344] The UMP formulation relies on a polymeric host matrix composed of thermoplastic polyurethane (TPU), polyether block amides (PEBA), or similar flexible co-polymers chosen for their mechanical compliance and acoustic transmissivity. Into this matrix are embedded pigment domains whose chromogenic properties are activated through microstructural reorientation, molecular ring opening, or phase transition.

[0345] NPP systems can be cast, extruded, dip-coated, 3D-printed, or laminated into flat or contoured surfaces. These may optionally be overlaid with abrasion-resistant clear topcoats or integrated with diagnostic scanning optics.

[0346] APPLICATION INTEGRATION AND SYSTEM INTEROPERABILITY:

[0347] NPP-based components are intended to co-function with other sterilization and biosensing modalities within the integrated architecture. Use cases include:• Entry validation tunnels with visual indicators that confirm successful sterilization cycle• Hand sanitizing chambers with panels that shift color upon acoustic field completion• Diagnostic field devices where color change indicates acoustic resonance coupling• UV-C and ultrasound co- sterilizing surfaces where heat or cavitation induces color change confirming compliance

[0348] Because NPPs do not require wiring, batteries, or circuit integration, they provide an exceptionally robust feedback system in mobile, rugged, or power-limited environments. They also serve as redundant indicators for machine vision systems or human operators under conditions of automation failure, training mode, or field reconfiguration.

[0349] FORM FACTOR AND FABRICATION FLEXIBILITY:

[0350] NPP materials may be fabricated in the following configurations:• Rigid or semi-rigid panels for architectural deployment (walls, ceilings, chamber interiors)• Flexible sheets for lamination over biosensor covers or emitter enclosures• Spun, extruded and / or woven threads and fabric coatings for clothing, seating, or soft enclosure linings• Cast films and die-cut markers for equipment retrofits• Molded devices with visual logos or tags that emerge under ultrasonic activation

[0351] These configurations may be used in:• Field-deployable containment tunnels• Self-sterilizing furniture• Biosensor modules with visual compliance tags• First responder gear that visually indicates exposure to therapeutic ultrasound• Other architectural and engineering components that would otherwise be manufactured from glass or conventional polymers.

[0352] In sum, the Ultraviolet-Activated Mechanochromic Polymer system provides a low- power, highly visual, fabrication-compatible platform for state confirmation and safety signaling within advanced biosensing and sterilization systems.

[0353] EPIPHENOMENON HYBRID POLYMERS (NEHP)

[0354] The above described purpose built polymers are not mutually exclusive formulations or systems. By its very nature, there is a temperature change epiphenomenon to ultrasound, ultraviolet, chemical and infrared exposure. The chemical admixture of photo and acoustic chromic compounds simultaneously react to the resulting epiphenomena from these catalysts.

[0355] When embedded in modular walls, domes, or handheld instruments, these polychromic polymers provide progressive, real-time visualization of exposure to one or more sterilizationvectors. System behavior is not limited to binary color shifts; rather, it enables compound visualization schemes — e.g., green for electrical activation, red for acoustic threshold breach, and amber for cumulative thermal absorption.

[0356] The disclosed NEHP is a purpose built polymer matrix composed of interdependent chromogenic subsystems that respond to disparate energy domains. It can output a single, coherent optical response derived from the cross-activation of two or more stimuli — e.g., mechanochromic under strain, thermochromic under cavitation heating, and electrochromic under voltage bias. This allows a single surface to act as a multi-modal indicator of sterilization efficacy or biosensing state.

[0357] The NEHP is formulated from high-performance base polymers such as poly(vinylidene fluoride) -hexafluoropropylene (PVDF-HFP), thermoplastic polyurethane (TPU), or polyether block amides (PEBA), which provide mechanical flexibility, acoustic transmissivity, and electrical polarization compatibility. Chromogenic systems are laminated or blended into a single continuous phase or co-cured in stratified layers, ensuring fabrication consistency and acoustic-optical coherence.

[0358] NEHP units may be fabricated into monolithic panels, flexible overlays, embedded diagnostic windows, or wearable fabrics. The system may be tuned for reversible or irreversible chromogenic behavior, providing either cycle-based state reset or persistent confirmation of exposure events.

[0359] NEHP FORMULATION COMPONENTS :• Mechanochromic Subsystem: Comprised of strain-aligned cholesteric liquid crystals or nanocomposite layers containing color- shifting platelets (e.g., mica or bismuth oxychloride)• Thermochromic Subsystem: Includes spirolactone-based dyes or leuco dye systems with thermal activation thresholds between 35 °C and 70°C, matched to ultrasonic-induced surface heating• Electrochromic Subsystem: Built around viologen or polyaniline derivatives with low- voltage switching (~ 1.5 V), enabling rapid transition between transparent and opaque states, particularly for UV-C shielding during disinfection cycles• Carrier Polymer Matrix: Thermomechanically stable elastomeric backbone compatible with UV-C, IR, and acoustic exposure, formulated for extrusion, lamination, and 3D printing• Acoustic Coupling Domains: Optional micro-bubble or fibrillar structures to facilitate efficient ultrasonic energy transfer through the material

[0360] FEATURES OF THE NEHP SYSTEM:• Ternary Chromogenic Encoding: Capability to encode up to three simultaneous environmental conditions via distinct visual states• Passive Exposure Logging: Color memory functions persist after deactivation for forensic or compliance applications• Stimulus Discrimination: Spatially encoded pigment zones allow users or systems to distinguish between electrical, mechanical, or thermal origins• Spectral Modulation: PPP can modulate its reflectivity and transmission in the UV, visible, and IR bands under controlled exposure, allowing coupling to diagnostic photonics

[0361] APPLICATION INTEGRATION AND SYSTEM INTEROPERABILITY:NEHP materials integrate seamlessly with biosensing arrays, UV-C and IR emitter modules, and ultrasound-based sterilization systems. Use cases include:• Visual status panels that change color when all sterilization cycles (thermal, acoustic, electrical) have completed• Self-reporting wall surfaces that identify which sterilization vector was activated during a cycle• Biosensor enclosures that respond to internal temperature or vibration events as confirmation of operational integrity• UV / IR windows with electrochromic dimming, mechanochromic perimeter seals, and thermochromic exposure tracking in a unified laminate• Wearable diagnostics that provide visual confirmation of dosage exposure or procedural compliance

[0362] FORM FACTORS AND FABRICATION STRATEGIES:The NEHP platform supports conventional and additive fabrication processes including:• Injection molding or extrusion of large-scale paneling• Roll-to-roll lamination of architectural films• Coating of substrate plastics or composites• 3D-printed fixtures and diagnostic units• Thread spun extrusion for fabric-integrated biosensing systems

[0363] NEHP assemblies are deployable in:• Sterilization tunnels, chambers, and instrument trays• Diagnostic access points and access control terminals• First-responder and field-deployable kits• Institutional architecture (e.g., hospitals, transit centers, biosafety labs)• Self-indicating sterile packaging

[0364] FEATURES:

[0365] 1. System-Level Utility: Poly chromic materials can visually distinguish between types of stimulus. For example:• Blue for ultrasonic exposure,• Red for thermal exceedance,• Gray for loss of power (electrochromic decay). This enables multi-state diagnostic feedback in a single polymer unit — valuable in military, medical, or autonomous systems.

[0366] 2. Fabrication & Integration Complexity: Integrating multiple responsive layers, pigments, or dopants introduces material architecture challenges (e.g., interference management, optical layering, hysteresis control).

[0367] 3. Redundancy & Failover Modes:

[0368] A polychromic system can act as a fail-safe or redundant indicator, especially useful in low-power or fault- tolerant biosensing applications.

[0369] The NEHP platform enables a single material to serve as an intelligent, multi-modal indicator — replacing arrays of separate visual indicators, circuit-driven feedback loops, and external monitoring systems. This integrated functionality makes PPP ideal for autonomous sterilization environments, power-constrained deployments, and spaces requiring passive, fault- tolerant biosensing logic. It represents a logical successor and integrative fusion of the electrochromic, sonoresponsive, and mechano- / thermochromic systems disclosed elsewhere in this application.

[0370] OTHER POLYMERS:

[0371] In lieu of, or in addition to, the above matrix of purpose built polymers, the systems disclosed in this application may include polymers that have some of the characteristics engineered into the various purpose built polymers.

[0372] 1. Electrochromic Polymers

[0373] Electrochromic polymers change their optical properties in response to electrical input, commonly used for dynamic shielding, smart windows, and adaptive lenses.• Polyaniline (PANI) o Optical property: Reversible color and opacity changes o Uses: UV / IR shielding, dynamic lenses, smart windows o Features: Low-voltage activation, rapid color switching, environmental stability• Polypyrrole (PPy) o Optical property: Color change (transparent / opaque) o Uses: UV protective coatings, electro-optical switches, electrochromic filters o Features: Durability, ease of deposition on substrates, good UV blocking capability• PEDOT:PSS (Poly (3, 4-ethylenedioxy thiophene) polystyrene sulfonate) o Optical property: Highly conductive, transparency modulation o Uses: Electrochromic windows, IR / UV controlled transmittance, electronic lenses o Features: Excellent transparency and color neutrality, rapid switching, flexible substrate compatibility

[0374] 2. Sonoresponsive (Piezoelectric & Acoustic Responsive) Polymers

[0375] These polymers respond directly to ultrasonic or acoustic stimuli through mechanical deformation, acoustic transmission, or energy conversion.• Polyvinylidene Fluoride (PVDF and PVDF-HFP) o Acoustic property: Strong piezoelectric response, ultrasonic emission and reception o Uses: Ultrasound sensors, acoustic lenses, sterilization conduits o Features: Robustness, stable piezoelectric effect, acoustic transmission for sterilization and imaging applications• Polylactic Acid (PLA) and PLA composites (Piezo-responsive variants) o Acoustic property: Piezoelectric when combined with ceramic fillers (BaTiCh, ZnO)o Uses: Bio-compatible ultrasonic actuators, wearable biosensors, structural acoustic waveguides o Features: Biocompatibility, acoustic efficiency, additive manufacturing flexibility• Polyurethane (TPU) (Acoustically transmissive elastomers) o Acoustic property: Efficient transmission of acoustic energy, low attenuation o Uses: Flexible acoustic lenses, ultrasonic sterilization membranes, biosensor coatings o Features: Excellent acoustic impedance matching, flexible mechanical properties, easy moldability and casting

[0376] 3. Hybrid Mechano-Thermochromic Polymers

[0377] Hybrid mechano-thermochromic polymers include specialty pigments embedded into flexible elastomers, activated via thermal and mechanical stress.• Thermochromic Polyurethane (TPU with thermochromic pigments) o Optical property: Changes color with temperature o Uses: Thermal indication, visual diagnostic markers, sterilization status indicators o Features: Clear and rapid thermal response, reversibility, durability• Mechanochromic Silicone Elastomers (polydimethylsiloxane — PDMS blended with cholesteric liquid crystals) o Optical property: Color shift upon mechanical stress o Uses: Visual indication of ultrasonic field intensity, strain indication in sterilization domes o Features: Sensitive to mechanical deformation, reversibility, biocompatibility, transparency in UV-Vis-IR ranges• Eeuco Dye-based Thermochromic Polymers o Optical property: Irreversible or reversible color change at defined temperature thresholds o Uses: Passive sterilization verification, field diagnostics, temperature exposure markerso Features: Precise threshold tuning, irreversible options for compliance verification, chemical stability

[0378] 4. Polychromic and / or Hybrid Polychromic Polymers• Multilayer Laminates (Customizable): o Composition: Layers combining electrochromic PEDOT:PSS, thermochromic TPU, mechanochromic PDMS, and piezoelectric PVDF o Uses: Multifunctional environmental feedback films, smart sterilization status panels, biosensing indicators o Features: Simultaneous visualization of multiple stimuli (electrical, thermal, mechanical), excellent environmental durability, comprehensive sterilization tracking• Composite Films and Coatings (Custom-engineered but producible): o Composition: Coatings incorporating electrochromic polymers (PANI), thermochromic pigments, mechanochromic cholesteric crystals, and embedded piezoelectric nanoparticles (e.g., BaTiCL, ZnO) o Uses: Passive / active biosensor enclosures, sterilization chambers, architectural integration o Features: Multifunctional response, easily tailored thresholds, broad spectral modulation (UV-Vis-IR), acoustic energy modulation• Electrochromic, sonoresponsive, and mechano- / thermochromic polymers.• Polychromic hybrids can be fabricated.• Electrochromic (PEDOT:PSS), piezoelectric (PVDF), and thermochromic / mechanochromic (TPU or PDMS) polymers individually or in layered assemblies is usuable.• For advanced integrated functionalities described in your patent (Polychromic / Hybrid), you should consider forming partnerships with specialized polymer formulation companies (such as Sigma-Aldrich, DuPont, or Solvay Specialty Polymers) that offer custom polymer development services.

[0379] A person versed in the art of engineering and manufacturing the variety of modular components would make use of polymers that have been designed to be actively anti-microbial. In this way, the modules of the system can mitigate their role as vectors in viral spread. Both FEP and PFA are suitable for transmission of Ultrasound, and are suitable for the lensing, and amplification of Ultraviolet light. Such materials can have intrinsic and / or engineered properties that support microbial detection, pathogen neutralization, or surface decontamination, including through passive or minimally active mechanisms.

[0380] Furthermore, both FEP and PFA can be fabricated as photochromic dynamic enclosures that alternate between transparent and opaque states in response to sterilization cycles. This enables controlled shielding from harmful UV-C light during operation while ensuring transparency for optical feedback systems and human inspection during idle periods. These materials play a role in the construction of high-performance sterilization environments and provide proven, scalable pathways for the implementation of biosensing and sterilization technologies within both new builds and retrofit installations.

[0381] FEP (Fluorinated Ethylene Propylene): FEP is a chemically resistant, non-stick fluoropolymer with excellent transparency to UV and IR wavelengths. It is used in sterilizable coatings, transmissive optical films, and flexible tubing for fluidic or photonic architectures. Its low surface energy resists microbial adhesion and biofilm formation, making it suitable for longterm biosafe surfaces. It can also act as a sterile barrier in flexible biosensing windows or covers.

[0382] UV-C Transparency: -90% at 250 nm and -50% at 200 nm.

[0383] Thermal Stability: -200°C to +200°C.

[0384] Refractive Index: -1.338 (low scatter, high clarity).

[0385] Applications:• Non-stick and hydrophobic surface inhibits biofilm formation.• Excellent candidate for optical transmission panels, lens sheaths, or conformable UV-C tunnels.• Suitable for high-throughput sterilization units due to low light loss and chemical inertness.• Semi-rigid structure supports pressurized or vacuum-sealed configurations.

[0386] PFA (Perfluoroalkoxy): PFA is a high-performance fluoropolymer with similar sterilization and optical properties to FEP but with enhanced thermal stability and chemical resistance. It is deployed in environments requiring extreme sterilant exposure, such as peracetic acid or ozone systems. PFA may be used in the fabrication of microfluidic sterilizing paths, sealed biosensor housings, or chemically inert claddings in harsh environments.

[0387] UV-C Transparency: -88% at 250 nm.

[0388] Thermal Stability: -200°C to +260°C.

[0389] Tensile Strength: -30 MPa (vs. 22 MPa for FEP).

[0390] Refractive Index : - 1.344.

[0391] Features• Greater impact resistance and elongation capacity (-300% elongation at break).• Suitable for biosensor-enclosing shells and portable field-hardened emitters.• Eow diffusion and structural stability suitable for consistent UV-C photon distribution.• Performs well under vibration and high-frequency acoustic stress.

[0392] OTHER MATERIAES:

[0393] Teflon, PMMA, COC, and PMP are listed in this disclosure as auxiliary and supportive material choices due to the wide array of use cases, ranging from architectural glazing to the very small components of commonly handheld objects that may have to endure chemical and Ultraviolet light exposure, as well as the continual vibrations from Ultrasound. These materials have been identified as suitable in certain use cases and circumstances.

[0394] In a hybrid biosensing and sterilization assembly, copper can be strategically integrated at surface contact points where its oligodynamic action provides continuous antiviral protection and complements chemical disinfectants by destabilizing viral membranes on contact. Brass, used in mechanical or structural components such as mounts or sensor housings, offers a balance between acoustic transmission and corrosion resistance, supporting ultrasonic delivery while maintaining moderate antimicrobial function. Stainless steel, with its exceptional structuralstability, high ultrasound propagation speed, and UV resistance, serves as an suitable backbone for enclosing UV emitters, chemical reservoirs, and transducers, enabling repeated sterilization cycles without degradation or microbial colonization.

[0395] Teflon AF (AMORPHOUS FLUOROPOLYMER) : Teflon AF is a class of amorphous fluoropolymers with exceptional optical transparency across a wide range of wavelengths, including UV and IR. It exhibits low refractive index and minimal absorbance, making it suitable for use as a high-fidelity transmissive layer in biosensing optics. In sterilization systems, its chemical inertness and low outgassing make it suitable for high-purity environments such as cleanrooms or surgical chambers. Its mechanical flexibility also allows integration into layered photonic or sensor- wrapped surfaces.• UV-C Transmission: Down to 180 nm with minimal attenuation.• High cost and bonding challenges.• Niche Role: Best for deep-UV biosensing applications where high transmissivity outweighs manufacturability concerns.

[0396] CYCLIC OLEFIN COPOLYMER (COC): COC is a transparent, low-permeability thermoplastic with high chemical and moisture resistance, often used in diagnostic biosensors and sterile packaging. It offers superior barrier properties and optical clarity while supporting precision molding for microchannels and diagnostic cavities. In architectural biosensing systems, COC may serve as the structural substrate for embedded lens arrays or fluidic sensors, including where sterility and signal fidelity are critical.

[0397] POLYMETHYL METHACRYLATE (PMMA): Also known as acrylic glass, PMMA is a rigid, optically clear polymer with moderate UV transmission and excellent dimensional stability. In biosensing systems, it functions as a rigid cover lens or structural housing where precise optical detection is required. While not inherently antimicrobial, PMMA can be coated or laminated with active films to serve as a biosensing window or as part of a layered architecture in pathogen-detecting surfaces.

[0398] POLYMETHYL PENTENE (PMP): PMP is an ultra-clear, lightweight polymer with superior IR transmission and low density. It is particularly useful in thermal sensing systems or sterilization architectures that utilize infrared emission or detection. PMP’s low water absorption and high clarity also make it valuable in optical ports or layered film architectures where minimaloptical distortion is required. It is frequently used in conjunction with IR emitters or temperaturesensitive biosensor platforms.• General Optical Quality: High visible and near-UV clarity.• Poor transmission in 200-250 nm deep UV-C range.• Exemplary uses(s): Low-risk interior applications, structural optical diffusers, and biosensor visual interfaces not requiring germicidal UV-C wavelengths.

[0399] AUXILIARY & SPECIAL CASE MATERIALS :

[0400] Teflon, PMMA, COC, and PMP are listed in this disclosure as auxiliary and supportive material choices due to the wide array of use cases, ranging from architectural glazing to the very small components of commonly handheld objects that may have to endure chemical and Ultraviolet light exposure, as well as the continual vibrations from Ultrasound. These supplemental materials have been identified as beneficial in specialized use cases and circumstances.

[0401] In a hybrid biosensing and sterilization assembly, copper can be strategically integrated at surface contact points where its oligodynamic action provides continuous antiviral protection and complements chemical disinfectants by destabilizing viral membranes on contact. Brass, used in mechanical or structural components such as mounts or sensor housings, offers a balance between acoustic transmission and corrosion resistance, supporting ultrasonic delivery while maintaining moderate antimicrobial function. Stainless steel, with its exceptional structural stability, high ultrasound propagation speed, and UV resistance, serves as an suitable backbone for enclosing UV emitters, chemical reservoirs, and transducers, enabling repeated sterilization cycles without degradation or microbial colonization.

[0402] Teflon AF (AMORPHOUS FLUOROPOLYMER): Teflon AF is a class of amorphous fluoropolymers with exceptional optical transparency across a wide range of wavelengths, including UV and IR. It exhibits low refractive index and minimal absorbance, making it suitable for use as a high-fidelity transmissive layer in biosensing optics. In sterilization systems, its chemical inertness and low outgassing make it suitable for high-purity environments such as cleanrooms or surgical chambers. Its mechanical flexibility also allows integration into layered photonic or sensor- wrapped surfaces.UV-C Transmission: Down to 180 nm with minimal attenuation.High cost and bonding challenges.• Niche Role: Best for deep-UV biosensing applications where high transmissivity outweighs manufacturability concerns.

[0403] CYCLIC OLEFIN COPOLYMER (COC): COC is a transparent, low-permeability thermoplastic with high chemical and moisture resistance, often used in diagnostic biosensors and sterile packaging. It offers superior barrier properties and optical clarity while supporting precision molding for microchannels and diagnostic cavities. In architectural biosensing systems, COC may serve as the structural substrate for embedded lens arrays or fluidic sensors, including where sterility and signal fidelity are critical.

[0404] POLYMETHYL METHACRYLATE (PMMA): Also known as acrylic glass, PMMA is a rigid, optically clear polymer with moderate UV transmission and excellent dimensional stability. In biosensing systems, it functions as a rigid cover lens or structural housing where precise optical detection is required. While not inherently antimicrobial, PMMA can be coated or laminated with active films to serve as a biosensing window or as part of a layered architecture in pathogen-detecting surfaces.

[0405] POLYMETHYL PENTENE (PMP): PMP is an ultra-clear, lightweight polymer with superior IR transmission and low density. It is particularly useful in thermal sensing systems or sterilization architectures that utilize infrared emission or detection. PMP’s low water absorption and high clarity also make it valuable in optical ports or layered film architectures where minimal optical distortion is required. It is frequently used in conjunction with IR emitters or temperaturesensitive biosensor platforms.• General Optical Quality: High visible and near-UV clarity.• Poor transmission in 200-250 nm deep UV-C range.• Exemplary uses(s): Low-risk interior applications, structural optical diffusers, and biosensor visual interfaces not requiring germicidal UV-C wavelengths.

[0406] COPPER: Copper’s exceptional acoustic conductivity allows it to efficiently transmit ultrasonic energy into contact surfaces, making it suitable for assemblies that rely on vibrational cleaning or viral membrane disruption via sonication. Simultaneously, its potent contact-based antimicrobial properties, driven by ionic oxidation, provide continuous passive viral inactivation — even when UV light is off or obstructed.

[0407] Ultrasound Transmission:• Acoustic Impedance: -44.6 MRayl (at room temperature), relatively high, enabling effective transmission of ultrasound into dense media but with potential reflection losses at water or soft tissue interfaces.• Sound Velocity: -4760 m / s (longitudinal waves), favorable for high-resolution imaging where minimal dispersion is desirable.• Attenuation: Moderate attenuation per cm at MHz frequencies, which can limit depth penetration in ultrasonic inspection.• Thermal Conductivity: Very high (-400 W / m-K), enabling rapid dissipation of heat from ultrasonic friction — important in continuous exposure or sonotrode applications.

[0408] Antimicrobial Properties:• Oligodynamic Effect: Copper ions (Cu+, Cu2+) disrupt bacterial membranes and denature proteins by interacting with thiol and phosphate groups.• Rapid Kill Time: Copper surfaces have been shown to reduce bacterial load (e.g., E. coli, MRSA) by >99.9% in under 2 hours under EPA testing protocols.• Mechanism: Includes membrane lipid peroxidation, protein oxidation, and DNA degradation — independent of antibiotic resistance pathways.• Broad-Spectrum: Effective against bacteria, some viruses, and fungi. Does not rely on leaching; surface contact suffices.

[0409] BRASS: Brass, as a copper-rich alloy, offers solid ultrasound transmission with added mechanical strength and corrosion resistance, making it suitable for housings or fixtures in complex sensor assemblies. While its antimicrobial efficacy is lower than pure copper, it still contributes to viral reduction on surfaces, complementing UV-C sterilization cycles with residual surface disinfection.

[0410] Ultrasound Transmission:• Acoustic Impedance: -39-42 MRayl, slightly lower than pure copper due to zinc content, resulting in a small reduction in reflection mismatch.• Sound Velocity: -4300-4700 m / s (varies with alloy ratio), still acceptable for many NDT (non-destructive testing) and sonochemical applications.• Homogeneity Consideration: Grain structure and lead content can scatter ultrasound, especially in cast vs. rolled brass forms.• Thermal Conductivity: Moderate (-120 W / m-K), aids in managing heat generated during prolonged sonication.

[0411] Antimicrobial Properties:• Copper-Driven: Antimicrobial effects arise from copper ions; effectiveness depends on Cu:Zn ratio (higher copper = greater activity).• Ion Synergy: Zinc may enhance the destabilization of microbial enzymes but is generally less potent than copper.• Effective but Slower: Compared to pure copper, brass has slower kill kinetics but still demonstrates significant reduction in pathogen viability.• Used in Touch Surfaces: Common in door handles, plumbing, and hospital hardware due to balance of strength, machinability, and antimicrobial action.

[0412] STAINLESS STEEL: Stainless steel excels as a structural material due to its durability, high ultrasonic wave propagation speed, and stability under repeated UV exposure, making it suitable for housing transducers and UV emitters. Although it lacks inherent antiviral activity, its ease of cleaning and resistance to microbial biofilms make it a safe, hygienic choice for repeated sterilization workflows.

[0413] Ultrasound Transmission:• Acoustic Impedance: -45-47 MRayl, comparable to copper, leading to high energy transmission but also high reflection at water / gel interfaces.• Sound Velocity: -5790 m / s (longitudinal waves), among the highest for common metals, aiding in precise ultrasonic echo timing.• Internal Damping: Low internal damping and high elastic modulus make it suitable for precise ultrasonic probe construction.• Surface Finish Sensitivity: Polishing and surface prep impact coupling quality for high- frequency applications.

[0414] Antimicrobial Properties:• Inert Surface: Stainless steel is largely non-reactive and does not inherently exhibit antimicrobial effects.• Biofilm Formation Risk: Bacterial biofilms readily form unless cleaned or treated; can harbor pathogens like Pseudomonas, Listeria, or Staphylococcus.• Silver-ion Coatings or Copper Infusion can impart antimicrobial characteristics.• Surface Roughness Control and plasma treatment may reduce biofilm adherence but not eliminate microbial viability.• Regulatory Preference: Common in medical and food industries for ease of sterilization, not intrinsic antimicrobial function.

[0415] LENSING, ENCLOSURE, COVERINGS & STRUCTURES: STATIC,INFLATABLE, AND FIELD-HARDENED CONFIGURATIONS

[0416] The polymers listed have synergistic effects, some, at least part, due to their abilities to assume various forms and material states. They can be cast, extruded, woven, sown and thus the ability to be utilized as threads, film, specialized extruded shapes, and structural components. Thus, they can be architectural glazing, partitions, flooring, wall covering, ceiling materials as well as the materials for common architectural components such as railings, door knobs, ceiling fans, and doors and frequently used objects such as computers, pens, keyboards, wastebins, toilet seats, and clipboards can be cast or extruded from them. To fulfill these highly varied requirements of mobile, wearable, architectural, embedded systems, and enclosure geometries, this specification subdivides their uses into these structural embodiments:

[0417] Vacuum Formed or 3D Printed Static Lensing: The polymers that have been identified as useful in UV -C sterilization have been included in this specification because of their ability to act as lenses and / or have a translucency that allows UV through unimpeded. This is particularly important when the sterilizing and biosensing arrays necessitate either a lens to magnify the light, or a translucent shield to protect it:• Formed from: PBP, FEP, PFA, or in select cases PMMA / COC.• Functional geometries: o Molded Fresnel lenses (PBP / FEP) for planar collimation. o Optical diffusers integrated into wall fixtures.

[0418] Field-Hardened Architectural Enclosures: For permanently installed or ruggedized modular systems, extruded or vacuum formed enclosures can have the capacity to transmit and / or emit both Ultrasound and UV-C. While architectural enclosures for portable spaces are made from polymers, PBP and PFA can be to form these enclosures with materials that emit and transmit Ultrasound and UV-C, and optionally become opaque on command by precisely controlling its electrochromic capabilities.• Formed from: PVDF-Based PBP and / or PFA composites reinforced for mechanical and thermal stress.• Functional geometries and form factors: o UV-C transparent wall modules with embedded emitters. o Enclosures with capacitive charge retention for blackout-resilient sterilization.

[0419] Plates, Sheets, and Film:

[0420] A system whose functional purpose is to replace standard building materials with those that can assist the architectural spaces self-diagnose and self-sanitize can be as versatile as their inert counterparts. The PVDF-Based PBP, for example, is engineered to be cut, joined, molded, and bent without losing its ability to emit or transmit UV and / or Ultrasound. In this way, architectural dividers, :• Formed from: PVDF-Based PBP and / or PFA composites reinforced for mechanical stress.• Functional geometries and form factors: o Fabrics woven with threads extruded from PVDF-Based PBP or PFA. o Rifled internal tubing to induce venturi turbulence. o Enclosures with capacitive charge retention for blackout-resilient sterilization.

[0421] Extruded Thread & Woven Fabrics

[0422] For furniture coverings, carpeting, wall coverings, and military, first-responder, and medical uniforms. Spaces that self-diagnose and self-sanitize require that the surfaces humans come in contact with are capable of emitting or transmitting anti-microbial agents. In this instant case, which means transmitting UV, Ultrasound, and being resistant to the chemicals listed in this specification. In mission critical areas, the humans themselves can have coverings or clothing that is capable of biosensing and self-sterilizing. Both of the above mean that woven architectural coverings and fabric for furniture and HAZMAT suits would be made from UV and Ultrasound emitting fabrics made from polymer threading, instead of inert polyester threading:• Formed from: PBP and / or PFA composites reinforced for mechanical stress.• Functional geometries and form factors: o Fabrics woven with threads extruded from PVDF-Based PBP or PFA. o Y arn extruded for the making of carpeting.

[0423] Inflatable or Flexible Films: For mobile field hospitals and first-responder tents that must be kept contagion free, especially during a pandemic, enabling on-the-fly UV / Ultrasound sterilization while being able to keep the elements out of the spaces they create.• Formed from: FEP for flexibility and light weight; PFA for robustness.• Functional geometries and form factors: o Inflatable sterilization tunnels. o Inflatable and / or impermeable military and first-responder tents.

[0424] INTEGRATED SAFETY SYSTEMS AND PROTOCOLS GOVERNINGHUMAN EXPOSURE DURING BIOSENSING AND STERILIZATION CYCLES:

[0425] This section is not meant to be understood as a comprehensive list of architectural components that can be designed and manufactures to self-diagnose and self-sterilize. Most of the items described herein are already made from polymers and are adaptable to the novel structures, technologies and processes described herein. Rather, this list is meant to illustrate how to replace common building materials, furniture, and commonly held objects in order to create spaces and objects that self-diagnose and self-sanitize in order to create a contagion free environment for humans.

[0426] A self-sanitizing and self-diagnosing space can be designed to be as safe or safer than the inert and highly vulnerable spaces made from inert and inactive materials and methods. The safety of human occupants during both sterilization and biosensing cycles is achieved through a tightly integrated network of embedded safeguards, layered protocols, and intelligent control systems. These safety measures are not peripheral but central to the operational architecture of the devices and environments described herein, enabling high-efficacy decontamination while eliminating or minimizing exposure risks to users, bystanders, and maintenance personnel. Of particular significance are the electrochromic safety systems, which serve as both passive and active visual indicators of system status, creating an immediate, non-verbal communication layer that alerts occupants to ongoing sterilization events, biosensing detections, or hazard thresholds. These dynamic, voltage-responsive materials allow surfaces to shift appearance in real time — becoming opaque, color-coded, or symbolically marked — thereby transforming architectural components into safety interfaces that function independently of user training, power disruptions, or mechanical failure. Together, the technologies enumerated in this section can form a harmonized protective infrastructure, calibrated for full sterilization and pathogen-detectioncapabilities that can be deployed in human-occupied environments without compromising occupational health or regulatory compliance.• ACTIVE AIRFLOW CONTROL SYSTEMS (AACS): These systems modulate and redirect airflow pathways within and surrounding sterilization devices and surface sterilization arrays to prevent unintentional exposure to aerosolized sterilants. AACS components include localized vacuum vectors, positive pressure isolation chambers, and HEPA-filtration to ensure that sterilizing agents are both directed and removed in a contained cycle. By controlling the temporal and spatial deployment of sterilizing gases or vapors, AACS systems reduce operator exposure and mitigate bioaerosol migration risks during sterilization cycles.• ADAPTIVE EMISSIONS CONTROL SYSTEM: The Adaptive Emission Control System is an intelligent, closed-loop sterilization subsystem that dynamically adjusts emission outputs — such as UV-C intensity, cold plasma density, and ultrasound frequency — based on live biosensor data and predictive contamination algorithms. By responding in real time to environmental load conditions and spatial biosensor arrays, the system provides sterilization intensity reduced energy waste. Integration with historical contamination maps and Al forecasting modules enables the system to pre-emptively ramp up or down according to temporal and spatial pathogen trends.• BIOINERT CONTAINMENT SHEATHS (BCS): These sheaths are used to encapsulate sterilizing nozzles, biosensing emitters, or probes, ensuring that direct human contact with active devices or reagents is prevented. The sheath is composed of chemically non-reactive polymer membranes and may be designed as disposable or auto-sealing after a cycle. This physical buffer layer enhances safety during maintenance, inspection, or when biosensing arrays are embedded in user-facing surfaces such as keyboards or desk partitions.• CLOSED-LOOP SENSING AND VALIDATION (CLSV): CLSV systems enable sterilization or biosensing events to be validated in real time by cross-referencing internal sensor arrays with embedded feedback protocols. These loops allow the system to detect abnormal sterilant concentrations, incorrect deployment angles, or insufficient sterilization duration. Upon detection of unsafe conditions, CLSV protocols may terminate or delay deployment, engage alarms, or initiate secondary containment routines.• COLORIMETRIC AND THRESHOLD- ACTIVATED INDICATORS (CTAI): These indicators change color or become visually activated only when sterilizing agents have achieved minimum effective dosages or when biosensing thresholds are breached. CTAI safety layers assist users in identifying whether a surface or space has completed its sterilization cycle or is still in a reactive state. This passive, visual feedback reduces the risk of human exposure by providing a simple binary signal without requiring specialized equipment or training to interpret.• CONTEXTUAL HUMAN OCCUPANCY DETECTION (CHOD) : CHOD systems utilize a range of sensors — such as infrared, pressure-mapped flooring, and motion sensing arrays — to determine whether a space is currently occupied by humans or animals. Sterilization and biosensing cycles that involve active dispersal of chemical agents are automatically delayed or rerouted when CHOD detection protocols confirm occupancy. This safety interlock prevents deployment of agents in conditions where inhalation or dermal exposure could occur.• DUAL-LAYER STERILANT CONTAINMENT MEMBRANES (DSCM): These specialized membranes feature an internal active layer embedded with sterilant agents, and an external passive layer that restricts permeation until a triggering condition is met (e.g., thermal, electrical, or mechanical activation). DSCMs are used in embedded architectural components — such as door handles or wall panels — to ensure that sterilization occurs only when safe, and that the external surface remains non-reactive at other times.• ELECTROCHROMIC SAFETY INTEGRATION (ESI): Electrochromic materials can provide a safety feature by dynamically shifting their opacity, reflectivity, or color in response to voltage-controlled stimuli. This allows surfaces such as partition glass, biosensing arrays, or sterilization chambers to signal operational status and inhibit accidental human exposure. For example, an electrochromic door panel may become opaque and marked with red coloration during an active sterilization event, only reverting to transparency when safe levels are detected. In biosensing applications, these materials may also serve as real-time status panels, integrating color-coded bands that indicate air quality thresholds, biological threat detection, or cycle completeness. Because these responses are non-mechanical and reversible, electrochromic systems offer durable, failsafe signaling without complex actuator systems. Additionally, their energy efficiency andability to integrate with flexible or curved substrates make them suitable for retrofitting into existing infrastructure. Finally, ESI materials may be layered with UV-reflective coatings to add an extra barrier against UV-C exposure from embedded sterilization units .• EMBEDDED KILL-SWITCH REDUNDANCIES (EKSR): Redundant safety switches embedded throughout the sterilization cycle process — such as in nozzle mounts, access hatches, or external control panels — provide multiple levels of shutdown capability. These kill switches can be activated manually by operators or automatically by system logic based on data anomalies. EKSR design ensures that should a primary safety system fail, the sterilization or biosensing process can still be halted to prevent human harm.• EMERGENCY EXFILTRATION AIRLOCKS (EE A): Although not explicitly referenced in the uploaded documents, complex systems involving entire-room sterilization should incorporate EEA structures for human egress in emergency situations. These airlocks maintain environmental integrity while allowing safe escape from biosensing or sterilization zones during malfunctions.• GEOLOCATED BIOSENSING AUTHORITY ZONES (GBAZ): GBAZ protocols divide sterilization or biosensing systems into spatial zones authorized to act semi-autonomously within its pre-validated risk envelope. For example, a desk partition may have GBAZ- restricted protocols that allow it to deploy sterilants only when adjacent human presence is cleared by CHOD logic. This zonal governance structure enforces spatial segmentation and limits the possibility of cross-exposure between separate deployment areas.• INTERLOCKED ACCESS OVERRIDE SAFEGUARDS (IAOS): These mechanisms physically prevent access to a sterilizing chamber or biosensing compartment when the cycle is active. IAOS may include magnetic locks, sealed access covers, or time-delayed openers. The system is further reinforced by CLSV monitoring and CHOD sensors, creating a cross-system interlock that prevents any human from entering active spaces while sterilization or biosensing is ongoing.• LUMINAL DIFFERENTIATION STRIPS (LDS): Applied to floors, walls, or embedded within transparent sterilization enclosures, LDS are visual signaling bands that change color in response to UV or chemical presence. These strips help visually demarcate active vs. dormant sterilization zones and are especially important in communal environmentswhere multiple users may interact with shared surfaces. They serve a dual function as orientation markers and as exposure warnings for enhanced passive safety.• MULTI- AGENT VAPOR SCRUBBERS (MAVS): MAVS modules are deployed to neutralize residual sterilizing agents, particularly volatile or chemically reactive compounds, after a sterilization cycle is complete. By cycling sterilized air through filtration and neutralization chambers, MAVS reduce the possibility of chemical carryover into human-occupied environments. Some MAVS systems use catalytic converters, while others rely on absorbent media designed to degrade specific sterilant residues safely.• OPERATOR DISTANCE ENFORCEMENT ZONES (ODEZ): ODEZ protocols establish virtual or physical boundaries around high-intensity sterilization units, using visual markings, light curtains, or active sonar fields. These systems enforce safety buffers to prevent accidental human intrusion into active deployment zones. If breached, ODEZ triggers either a pause in the process or alerts to supervisory systems for manual intervention.• PERSONAL EXPOSURE MONITOR BADGES (PEMB): To supplement system-based safeguards, PEMBs can be worn by personnel in high-use environments. These badges use passive colorimetric or electronic sensors to detect accidental exposure to sterilants, radiation, or biosensing emissions. Their integration would close the feedback loop between system cycle data and actual human exposure, enabling occupational health compliance.• PRESSURIZED ISOLATION MICROCHAMBERS (PIM): PIM structures encase high- touch objects — such as pens, touchscreens, and mobile devices — within sealed microchambers that undergo self-sterilization cycles independent of the surrounding airspace. This architecture ensures that sterilization occurs in complete isolation, reducing environmental contamination risk. These chambers are equipped with pressure sensors and sterilant level monitors to prevent accidental overpressure or gas leakage.• THERMAL BARRIER SHIELDING (TBS): Certain sterilizing agents — particularly those utilizing thermal radiation or conductive heating — require shielding from human exposure. TBS systems use layered insulation, phase-change materials, or timed-release mechanisms to ensure that thermal activation only occurs within enclosed or shielded volumes. Thesefeatures are particularly important in embedded architectural components where conductive heat might otherwise pose dermal burn risks.• ZONE-TRIGGERED STERILIZATION EVENTS (ZTSE): ZTSE systems activate sterilization only within the zone where contamination has been detected or where occupancy has ceased. These localized events are safer than full-room cycles because they minimize the volume of sterilant needed and confine reactive substances to areas with no human presence. ZTSE protocols are often linked to biosensor feedback networks and work synergistically with GBAZ zoning and CHOD detection logic.

[0427] KINETIC ENERGY ACTIVATION MECHANISMS FORSELF-POWERING SANITIZING, STERILIZING, AND BIOSENSING DEVICES:

[0428] The following section discloses novel systems and architectural configurations that enable the self-powering of the self-sanitizing, self-sterilizing, and biosensing components enumerated in the preceding inventory. These mechanisms harvest kinetic energy generated through ordinary human motion or routine interaction with objects and surfaces. The incorporation of such self-contained energy generation systems is especially vital in mission-critical environments — such as military field deployments, emergency triage zones, or high-traffic hospital corridors — where external power delivery may be unreliable, hazardous, or contraindicated.

[0429] A. Fundamental Principles of Kinetic Harvesting Integration

[0430] Kinetic energy activation, as disclosed herein, is not an ancillary feature but rather an integral layer of the architecture. The system converts mechanical energy — originating from gestures such as turning, twisting, pressing, sliding, or walking — into localized electric current sufficient to activate sterilization, sanitation, or biosensing routines. These interactions may occur either directly (e.g., a rotating handle activating its own sterilizing enclosure) or indirectly (e.g., floor tile depression activating a nearby surface biosensor) .

[0431] B. Object-Level Energy Harvesting Configurations

[0432] Individual items within the object inventory, such as clipboards, handheld scanners, pens, and keypads, are capable of embedding compact energy harvesting subsystems. Disclosed embodiments include:Piezoelectric Films Embedded in Grips and Handles: Grip pressure on pens, styluses, or tool handles deform piezoelectric materials laminated within the object, generating anelectric pulse. This pulse charges micro-capacitors that in turn activate UV-C LEDs or antimicrobial surface heating elements for momentary self-sterilization .• Rotational Dynamos within Axles and Hinges: Portable devices with rotary components, such as syringe pumps or articulated clamp arms, include miniature coil-based dynamos. These dynamos produce electrical energy when rotated, which is routed to onboard sterilization circuitry embedded within the object's housing .• Triboelectric Nanogenerator (TENG) Films in Writing Surfaces and Keypads: Writing on specialized clipboards or typing on embedded keypads generates frictional interaction across triboelectric polymer interfaces, which translates into sufficient electric potential to power local biosensing routines or drive low-power sterilization cycles .

[0433] C. Surface-Level Kinetic Energy Infrastructure

[0434] Beyond handheld implements, architectural surfaces may be outfitted with pressuresensitive or motion-reactive modules that store and deploy energy for sterilization purposes. Examples include:• Self-Sterilizing Floor Tiles: Footfall pressure on modular tiles compresses embedded piezoelectric plates, storing energy in underfloor battery cells or supercapacitors. These units autonomously trigger localized sterilization of the tile surface immediately after contact, preventing cross-contamination in high-footfall zones such as operating rooms, vestibules, or infectious disease wards .• Dynamic Stairwell and Handrail Systems: The act of ascending stairs or gripping a rail compresses internal spring-damper assemblies or torsional piezo elements, which in turn energize self-sanitizing surface treatments applied to high-touch areas. Optionally, this energy may be rerouted to other devices in the networked biosensing array .

[0435] D. Kinetic-to-Digital Event Logging

[0436] Each kinetic activation event may be digitally registered via low-energy microcontroller units embedded within the object or surface. Upon power generation, these controllers log time-stamped sterilization or biosensing events, which are either uploaded to the system’s main server during the next data sync or transmitted in real time via secure mesh network protocols. This provides a forensic-grade record of decontamination events and enables pattern recognition to identify potential infection vectors in institutional or high-traffic environments .

[0437] E. Modularity and Retrofitting for Field DeploymentI l l

[0438] Recognizing that many environments in which this is deployed will not support mains power or consistent power delivery, the kinetic harvesting modules are designed as modular retrofits. Objects and architectural surfaces can be upgraded in-the-field using standardized clips, adhesives, or screw-in housings. Furthermore, compatibility with Networked System Monitoring Protocols ensures seamless interoperability with downstream alert systems, pathogen logs, and sterilization records .

[0439] F. Use Case Scenarios and Redundancy

[0440] In forward-operating military outposts, disaster relief zones, or medical containment wards, access to reliable power may be nonexistent. These kinetic activation systems are engineered for such conditions, operating entirely off-grid while providing necessary sterilization and pathogen detection functionalities. Redundant energy capture points — i.e., both on the object and on adjacent surfaces — ensure that even in the event of partial component failure, a sterilization cycle can still be reliably completed.

[0441] G. USE CASE INTEGRATIONS WITH INVENTORY ITEMS

[0442] To ensure clarity and immediate onboard comprehension, the following use cases illustrate how kinetic energy harvesting is embedded within specific inventory items disclosed in the prior section:• DOORS AND DOOR HANDLES: As the door handle is depressed or rotated, internal piezoelectric discs embedded at the handle’s base flex under torsion. The mechanical energy is captured and immediately routed to a microcontroller and capacitor array embedded in the door's housing.• ELEVATOR BUTTON PANELS: Each press of a button triggers a micro-TENG layer underneath the panel’s faceplate. This converts the friction and compression into electrical energy, stored locally and discharged in a quick UV-C burst that disinfects the surrounding panel between users.• TOUCH- ACTIVATED CLIPBOARDS: Pressure from writing deforms embedded piezoelectric foil beneath the writing surface. This charges a thin-film battery affixed to the reverse side of the clipboard, which then energizes an antimicrobial film or embedded heat element.• TRASH RECEPTACLE LIDS: The act of opening or closing a spring-loaded trash can compresses an internal torsion spring linked to a rotary micro-generator. This producesenough power to briefly activate ozone emission, UV-C irradiation, or cold plasma inside the bin opening, neutralizing airborne particles and surface pathogens.• SELF-STERILIZING FLOOR TILE ARRAY S : As personnel walk over a matrix of piezoloaded floor tiles, each tile compresses and stores energy in distributed capacitors. When the foot is lifted, this stored charge activates an under-surface UV -C grid that pulses across the tile surface.• EMERGENCY EXIT BARS AND TURNSTILES : Each push of an exit bar or rotation of a turnstile arm compresses torsional energy harvesters concealed in the pivot axis.

[0443] SOLAR ENERGY HARVESTING SYSTEMS FORAUTONOMOUSLY POWERED STERILIZATION, BIOSENSING, AND COMPLIANCE MONITORING DEVICES:

[0444] Solar energy harvesting architectures can power the biosensing, sterilizing, and selfsanitizing subsystems previously disclosed. These mechanisms convert ambient solar or artificial light into electrical energy sufficient to power discrete device modules, grid-independent systems, or localized sterilization and sensing routines. Given the increasing need for resilient infrastructure in disaster zones, off-grid environments, and transitional containment installations, the systems disclosed herein establish a self-sustaining energy layer contributing to continuous sterilization assurance and compliance traceability.

[0445] A. Solar Harvesting

[0446] The solar energy subsystem described herein integrates thin-film photovoltaic modules, semiflexible solar laminates, and transparent PV coatings into the structural and functional anatomy of sterilizing and sensing devices. These energy capture mechanisms are embedded directly into exposed surfaces or protective housings of the inventory objects, and are calibrated to indoor lighting conditions or full-spectrum solar exposure depending on use case. In at least some embodiments, photovoltaic power is used to charge micro-capacitors or lithium-titanate (LTO) cells, which then discharge energy to drive UV-C LEDs, biosensing microcontrollers, or electrothermal decontamination grids.

[0447] B. Device-Level Photovoltaic Subsystems• Photovoltaic Film-Laminated Clipboards: The rear surface of self-sanitizing clipboards is coated with a lightweight organic photovoltaic (OPV) film that charges an internal capacitor during idle periods. This stored energy is released upon interaction, poweringbiosensing diagnostics or surface-embedded heating filaments that perform rapid contactpoint sterilization.• Transparent Solar Coatings on Touch Screens and Keypads: Select devices — such as biosensing check-in kiosks or elevator panels — utilize transparent photovoltaic coatings deposited on touch glass to harvest ambient lighting. These coatings are engineered not to interfere with capacitive touch functionality while maintaining power delivery to ultraviolet disinfection grids integrated into the bezel or rear plane of the device housing.• Solar-Paneled Self-Sanitizing Handheld Tools: Implements such as barcode scanners, portable thermometers, or diagnostic probes include high-efficiency, curved PV strips wrapped around the tool’s outer housing. These strips continuously power internal sterilization components between uses or activate upon motion detection.

[0448] C. Architectural-Scale Photovoltaic Integration• Self-Sanitizing Wall Panels with Solar Facings: Vertical panels oriented toward natural light sources (windows, glass corridors, skylights) incorporate laminated OPV sheets on their outermost layer. These sheets provide continuous trickle charging for embedded pathogen sensors and IR / UV-C emitter grids without requiring connection to mains electricity.• Solar Roofing Arrays for Tactical or Mobile Units: Modular canopy structures — such as those used for field triage stations, forward-operating base checkpoints, or emergency shelters — integrate ruggedized monocry stalline PV sheets atop flexible membranes. The harvested energy powers a network of biosensing access controls, sterilization stations, and communication modules built into the shelter’s structural ribs and entry ways.• Balustrades and Handrails with Photovoltaic Top-Rails: Outdoor or semi-enclosed handrail systems (e.g., stadiums, mass transit platforms, or perimeter fencing) incorporate small- scale crystalline PV modules flush-mounted into the top rail. These modules power embedded electrothermal decontamination elements and ultraviolet rail irradiation on programmable cycles.

[0449] D. Energy Storage and Intelligent Allocation

[0450] Photovoltaic energy is stored using solid-state supercapacitors or high-cycle-life lithium variants (e.g., LiFePCh or LTO) embedded within or adjacent to the object shell. Onboard energy management circuits ensure: a.) Priority allocation to biosensing and compliance loggingsystems b.) Secondary allocation to sterilization emitters upon object use or occupancy detection c.) Idle-state trickle-charging to maintain baseline sterilization readiness and logging integrity. These circuits operate under ultra-low standby conditions and may optionally communicate with the system’s broader Energy Balancing and Contingency Protocols, as disclosed elsewhere in this application.

[0451] E. Modularity and Retrofit Compatibility

[0452] Solar modules are provided in standardized form factors for surface lamination, clip- on integration, or adhesive-applied retrofitting, depending on the object or architectural component. For example: a.) flat OPV stickers for rear-mounting on kiosks, bins, and tool cradle, b.) transparent photovoltaic overlays for glass surfaces c.) Flexible rollable PV strips for deployment on tent poles, exterior doors, or mobile vehicle panels. Modules are conformant with the System-Wide Compliance Logging Protocols and transmit performance diagnostics through the existing low-bandwidth mesh network.

[0453] EXAMPLES OF SELF-SANITIZING, SELF-STERILIZING,AND BIOSENSING ARCHITECTURAL COMPONENTS

[0454] This section provides a structured and alphabetized inventory list of architectural components that illustrate how common architectural components can be retrofitted, adapted or reengineered to include self- sanitizing, self-sterilizing, and biosensing capabilities. It is not intended as a final or comprehensive list. The list merely demonstrates how deeply embedded the systems can become in our everyday lives. Each listed item is designed to detect, neutralize, and log pathogenic threats such as viruses, molds, toxins, and biological residue in the manner disclosed herein. The inventory reflects both devices explicitly disclosed in the supporting documentation and logically extrapolated permutations that align with the system’s overarching biosafety architecture. Collectively, these elements function as localized control nodes within a distributed compliance infrastructure designed to suppress contagion transmission in mission- critical civilian, commercial, and institutional spaces.• AIR VENTS AND HVAC OUTPUT GRILLES: Air vents and HVAC output grilles serve as distribution points for airflow in enclosed human environments and can rapidly disperse airborne contaminants, including viral and microbial agents. In disclosed embodiments, fixtures are treated or manufactured with self-sterilizing surface materials and, in certain embodiments, embedded with biosensing polymer layers that continuously analyzeoutgoing air for trace pathogens and harmful particulates. These units may operate in tandem with sterilizing vapor dispersal mechanisms or integrated electrostatic particle neutralization arrays, thereby performing a dual role of filtration and sterilization. Incorporating biosensing -polymer linings within them allows real-time data to be routed to central safety systems, contributing to epidemiological mapping.• AUTOMATED CHECK-IN KIOSKS: These interactive terminals, commonly deployed in healthcare facilities, airports, hotels, and office complexes, are touched by thousands of individuals daily, often without intermediate sterilization. A kiosk — including its touch screen, fingerprint scanners, stylus ports, and boarding / document insertion slots — is equipped with a sterilizing interface composed of purpose engineered sonoresponsive, electrochromic, thermochromic and / or polychromic materials or surface-coated polymers or ultraviolet sterilization laminates. Kiosks enclosures can be made with materials from the PVDF-based Purpose-Built Polymer platform, giving them a surface that continuously sterilizes between uses.• BATHROOM STALL DOORS AND DIVIDERS: A structural upgrade to such components can be made from purpose engineered sonoresponsive, electrochromic, thermochromic and / or polychromic polymers that enhance the emittance or transmission of UV and Ultrasound, and which can be coated with antimicrobial films. Stall doors and bathroom partitions are high-contact surfaces within restroom environments and serve as latent repositories for fecal and viral particulates, particularly in shared-use environments. The door handles, locks, and push points incorporate modular biosensing nodes — small, embedded sensors that detect high microbial load and issue responsive sterilization cycles. These stall doors can optionally harvest the kinetic energy for powering the biosensing and sterilizing hardware.• CLIPBOARDS AND HANDHELD CHART BOARDS: Clipboards used in clinical, custodial, or security environments frequently change hands and often retain biological contaminants, especially in pen grip zones and board backs. These boards are constructed from anti-microbial metals and docked in sterilizing bases made from UV and Ultrasound enhancing polymers whose emissions are modulated and controlled by purpose engineered sonoresponsive, electrochromic, thermochromic and / or polychromic materials.• DESKTOP COMPUTERS, KEYBOARDS, MICE AND TOUCH-SCREEN MONITORS: Desktop computing equipment, including monitors, towers, and connected peripherals, are communal work surfaces frequently touched in educational, commercial, and governmental settings. Components such as keyboard keys, power buttons, monitor controls, and peripheral devices like mice and trackballs may be constructed from Purpose- Built Polymers (PBP) treated to emit sterilizing photonic waves or thermally responsive kill-switch agents whose intensities, durations, and / or frequencies can be modulated and / or controlled via the purpose engineered sonoresponsive, electrochromic, thermochromic and / or polychromic polymer enclosures and form factors.• DOOR HANDLES, DOOR KNOBS, PANELS, FRAMES AND EMERGENCY EXIT BARS: Among the highest-contact surfaces in any built environment, door handles, door knobs, and exit bars are points of contagion transfer due to their necessity in human mobility. Retrofittable or integrally manufactured door handle assemblies featuring reprogrammable biosensing and sterilizing arrays can emit UV and Ultrasound through purpose made polymers whose intensities, durations, and / or frequencies can be modulated and / or controlled via the purpose engineered sonoresponsive, electrochromic, thermochromic and / or polychromic properties of the polymer or via anti-microbial metals. Emergency exit bars, being code-mandated in high-occupancy structures, are configured to sterilize between touches while remaining compliant with physical egress requirements.• ELEVATOR BUTTON PANELS, WALLS, AND HANDRAILS: Elevators are compressed, high-traffic, high-contact environments that are statistically significant in the vectorization of respiratory and contact-transferred pathogens. Button panels, elevator cabin walls, floors, ceilings, and railings using the PBPs or other suitable polymers can provide them with an electrochromic surface that can alternate from completely opaque to completely transparent and able to emit UV and Ultrasound selectively, thus avoiding the running the sterilization and biosensing cycles while humans are onboard. Button panels integrate UV-C transparent elastomer overlays embedded with thin-film pathogen sensors and sterilization emitters, allowing direct-in-place remediation after each press. The elevator’s wall and rail assemblies are fabricated from purpose-built polymers and / or antimicrobial metals, thus serve dual roles as tactile aids and self-sterilizing architectural panels.• ESCALATOR HANDRAILS: Escalator handrails are touched continuously by thousands of individuals in high-density environments such as airports, shopping centers, and transportation hubs, and thus serve as prolonged-contact vectors. At least some embodiments incorporate continuous-motion sterilization assemblies into the return-loop chassis in the underside of the escalator system, enabling real-time UV-C light or cold plasma exposure to the belt’s inner loop during operation.• ENTRY MATS AND TRANSITIONAL FLOORING ZONES: Entry mats and doorway transition zones, while historically passive dirt catchers, are transformed biosensing and self-sanitizing flooring components that activate sterilization mechanisms upon foot traffic detection. These flooring elements incorporate layered architecture: an upper layer of textured antimicrobial polymer, a mid-layer embedded with pressure sensors and biosensors, and a base layer capable of thermal activation or electrostatic sterilization cycles. In some models, ionized vapor diffusion arrays are positioned at the mat perimeter and activate only during human pass-through to conserve energy while maintaining compliance.• GARBAGE CANS AND RECYCLING BINS: Garbage cans and recycling bins serve as high-risk pathogen aggregation points in all human-occupied environments due to the convergence of organic waste, biological matter, and human touch during disposal especially in high-occupancy events like conventions and sporting events. In at least some embodiments, these receptacles have sensor and emitter-embedded lids and inner-lining sterilization systems, made from anti-microbial metals and / or purpose-built polymers whose intensities, durations, and / or frequencies can be modulated and / or controlled via the sonoresponsive, electrochromic, thermochromic and / or polychromic chemical properties to leverage the transmission, amplification and emittance of UV and Ultrasound, and the controlled and timed emission of the selected chemicals, allowing for both passive surface into active detection and eradication of microbial threats.• GLASS PARTITIONS AND TRANSPARENT DIVIDERS: Glass partitions are widely deployed in institutional, commercial, and medical environments to provide visual separation while preserving spatial openness. However, their frequent placement between speaking individuals, their proximity to respiratory droplets, and their contact-prone edges make them often overlooked transfer vectors. However, the fact that the variousconfigurations of the PBPs and the selected commercially available polymers have excellent light transmission properties means that the reengineered glazing and mullions can convert what was a passive translucent divider into an active lens and emitter for Ultraviolet light and Ultrasound energy for both sensing and sterilization. Control and computing hardware are installed along partition edges and fastening frames, detecting moisture, saliva residue, or sustained microbial presence.• LAB BENCHES AND WET WORKSTATIONS: Laboratory environments pose dual exposure risks due to the combination of chemical reagents and biological materials, which often co-occupy shared surface areas. Laboratory workbenches can be made biosensing and self-sterilizing modular platforms, fabricated from non-reactive, UV-transparent fluoropolymers such as the Purpose-Built Polymer and embedded multi-modal sterilizing agents. Optionally, the embedded biosensing and sterilizing systems can operate with or through anti-microbial metals already commonly used in lab environments, such as stainless steel, copper, and brass. In high-containment labs, these benches interface with room-level safety protocols to lock access to the station until a complete sterility confirmation signal is logged. Lab benches are treated not merely as furniture, but as a mission-critical sterilization apparatus woven into the broader architecture of biosafety assurance.• LIGHT SWITCHES AND ENVIRONMENTAL CONTROLS: Frequently operated but rarely sterilized, light switches and environmental control panels (e.g., HVAC, blinds, intercoms) are integral but often overlooked nodes in contamination chains. At least some embodiments of such panels can operate as biosensor-enhanced control units, incorporating capacitive-touch surfaces layered with electrochromic, sonoresponsive, poly chromic and / or thermochromic enclosures and underlying pathogen detection sensors. Materials can include UV-stable transparent PMMA composites over thin-film electrochromic conductors, or anti-microbial metals emitting Ultrasound. These switches are networked into the building’s broader sterilization compliance dashboard, automatically recording contact events, sterilization status, and anomaly alerts.• MEDICAL CARTS AND MOBILE INSTRUMENT TROLLEYS: Mobile carts are omnipresent in hospitals, clinics, and field operations, routinely ferrying instruments, medications, diagnostic tools, and contaminated waste through sensitive and sterile zones.At least some embodiments of these carts are self-sanitizing and biosensing transport nodes, featuring structural frames from UV and Ultrasound enhancing polymers or antimicrobial metals. Optionally, they could be outfitted with directional vapor emitters or UV- C emitters embedded into drawer edges and shelf undersides that engage when the cart is docked and charging, or when the cart detects no human presence. Each cart’s handle and touch surfaces include pathogen-sensing contact films, which monitor microbial accumulation and trigger sterilization cycles in transit or upon entry into high-risk zones.• OFFICE CHAIRS AND SEATING SURFACES: Office furniture is among the most intensively used yet least sterilized architectural implements in institutional and commercial environments, presenting sustained skin, fabric, and respiratory droplet contact exposure over time. The furniture can be upholstered with fabric woven from electrochromic, sonoresponsive, thermochromic and / or polychromic purpose-built polymers, who can change from an opaque color to transparent in order to emit UV. They can be reengineered with biosensing upholstery foams, modular polymer-coated armrests, and self-sterilizing frames constructed from anti-microbial metals designed to transmit Ultrasound energy. Embedded pressure and heat sensors detect occupancy and dwell time, triggering surface sterilization events via embedded emitters or integrated low-dose plasma diffusers.• PENS AND COMMUNAL WRITING IMPLEMENTS: Pens used in communal environments — such as clinics, banks, military installations, or event check-in tables — serve as repeated contact vectors passed between unrelated individuals without any sterilization event. At least some embodiments of writing implements have self-sterilizing casing designs, biosensor-integrated grip surfaces, and reprogrammable polymeric shells capable of activating sterilization routines based on pressure, thermal residue, or contact count.• PORT-O-POTTIES AND MOBILE RESTROOM UNITS: Port-o-potties and similar standalone restrooms represent high-risk, low-control biosafety zones, particularly at the high occupancy events, field operations, or temporary disaster response sites they are intended to serve. At least some embodiments of these units are self-sanitizing, biosensing- enabled microenvironments, incorporating UV-C and Ultrasound emitting enclosures, ceiling arrays, biosensor-embedded surface films, and vapor-activated hardware. Contactpoints — door handles, toilet seats, flush levers, and sink fixtures — are equipped with biosensors that log microbial load, usage count, and exposure level, triggering sequential sterilization events tailored to detected threats. These units may feature self-contained disinfection reservoirs that emit ionized vapor or deploy reactive fog cycles between users, powered by solar-charged or kinetic systems.• PRINTERS, COPIERS, AND MULTIFUNCTION DEVICES: Office machines like printers, scanners, and multifunction copiers are frequent congregation points in shared workspaces and institutional settings, with repeated exposure to touch, breath, and document surfaces. Such devices can be modified to replace otherwise inert plastic enclosures with electrochromic polymer casings, biosensing-enabled control panels, and self-disinfecting output trays constructed from high-performance sterilization-grade polymer composites such as COC, PMP, or PTFE blends. Keypad overlays and touchscreens are lined with UV-transparent capacitive films, allowing embedded ultraviolet diodes to pulse at regular intervals or upon biosensor detection of contamination. Contact logs — including user identification, contamination levels, and sterilization cycles — are recorded and transmitted to shared office compliance logs for outbreak monitoring and user traceability. The result is workplace equipment that contains compliance-participating micro-nodes, harmonized with broader biosafety objectives.• REVOLVING DOORS, METAL DETECTING TUNNELS & ENTRY ROTATORS: Revolving doors, while regulating temperature and crowd flow, are high traffic rotational contact surfaces that facilitate multiple repeated touches per entry cycle and remain neglected in prior sterilization protocols. At least some embodiments of doors are biosensing, self-sanitizing passage modules, integrating sensor-laced door wings, sterilization vapor dispersion arrays, and sterilization-integrated glazing. Materials for the door arms and push bars include anti-microbial metals for Ultrasound emission. Biosensor arrays installed on the leading and trailing edges track user proximity, breath residue, and hand contact timing, allowing zone-specific sterilization bursts after each revolution. The door’s rotating motion is an example of kinetic energy that can be harvested for powering the overall system.• SINKS, TOILETS, URINALS, FAUCETS & HANDWASHING STATIONS: Handwashing fixtures serve as both cleansing agents and paradoxical contamination zones,given their frequent surface contact and potential to aerosolize pathogens via splash or mist. At least some embodiments integrate biosensing overlays on faucet handles, basin rims, and splash zones, coupled with self-sterilizing ceramic-polymer composites and vaporflush feedback systems embedded within faucet heads. The system monitors residue composition, water flow cycles, and touch frequency, relaying biosafety data to facility dashboards while automatically engaging peripheral sterilization pulses via UV-C or ionized mist jets. In high-acuity environments, these systems incorporate thermal discharge points that elevate metal or polymer surface temperatures to sterilizing levels post-use without scalding the user. Touchless configurations may override standard modes when contamination thresholds are detected, enforcing automatic sterilization before allowing reuse. Sinks are thereby recast not as single-function utilities, but as biosafetydecontamination instruments, whose integrated compliance systems ensure they no longer propagate, but actively eliminate, microbial threats.• STADIUM, ARENA, AND CONCERT HALL SEATING: Mass gathering venues present super-spreader conditions, with seating surfaces acting as persistent transfer vectors for sweat, respiratory droplets, and direct skin contact. Such seating modules can use impactresistant configurations of a purpose-built polymer shell embedded with real-time sterilization mechanisms routed through zone-wide compliance systems, namely Ultrasound emitters. Seat backs and seat bottoms can be cushioned with anti-microbial foams and their surfaces upholstered with fabric woven from electrochromic, sonoresponsive, thermochromic and / or polychromic purpose-built polymer threads that selectively change from opaque to translucent in order to become UV, InfraRed, and / or Ultrasoundemitters. The result is a large-scale, distributed biosensing system coordinated and synchronized emissions that convert otherwise passive seating infrastructure into a large-scale active biosensor and sterilizer. What was otherwise an impossibly large space to sterilize or diagnose, becomes a massive biosensing and sterilizing array via the cumulative and compounding effects of all of the enhanced seating, railing, lighting, and HVAC systems acting in concert. With such sterilizing capacity, the industry most vulnerable to pandemics is transformed into the cleanest of spaces to inhabit.• TENT STRUCTURES FOR FIELD OPERATIONS: Tactical shelter canopies and lateral panels are made from plastic coated fabrics or polyester fabrics for weathering. Thosepolymers and fabrics can be exchanged for purpose-built polymers or selective commercially available polymers, thus enabling the tent structure to self-diagnose and selfsterilize. In doing so, what was otherwise a sponge for viral presence in medical environments, is transformed into large emitters and total-coverage sterilizing agents.• VENDING MACHINES AND PUBLIC DISPENSERS : Vending machines, ticket kiosks, and public dispensers for food, hygiene supplies, or travel documents are high-contact public-facing devices, often neglected in facility sterilization cycles. At least some embodiments contain self- sterilizing glazing, biosensing-integrated touch interfaces, selfsterilizing product retrieval trays, and vapor-flush cavities constructed from antimicrobial polymers and / or antimicrobial metals.• WHEELCHAIRS, GURNEYS AND MOBILE ASSISTANCE DEVICES: Used intensively in hospitals, airports, and eldercare environments, wheelchairs and mobility aids involve continuous, multi-surface contact, often between multiple users and environments. At least some embodiments contain self-cleaning seat and wheel rim overlays, active hand rests, and a docking station / tunnel equipped to charge, biosense, and sterilize the units while awaiting use. The redesign ensures wheelchairs serve not merely as transport implements, but as mobile biosafety assets within the institutional safety architecture.

[0455] EXEMPLARY SYSTEMS

[0456] The following section discloses a series of modular-to-infrastructural embodiments designed to transform built environments — from confined spaces to expansive public volumes — into self-regulating biosafety systems. The adaptability of the systems, methods and materials permits scale from object-size to large volume spaces. Unlike earlier object-centric or appendagespecific sterilization devices, these systems invert the sterilization paradigm: instead of bringing the human to the sterilizer, the architecture itself becomes the sterilizer and biosensor. Drawing from the Total Multivector Biosafety and Therapeutic Array (T-MBTA) logic, each system incorporates a volume-specific blend of sterilization vectors (e.g., UV-C, Ultrasound, Plasma, Ionized Air), biosensing modalities (e.g., LSPR, photoacoustic, airborne spectrometry), and emission control protocols governed by Dynamic Adaptive Emission Control (DAEC). These environmental systems are not passive installations — they are intelligent zones capable of realtime pathogen detection, adaptive sterilization sequencing, and autonomous behavioralmodulation based on fluctuating bioload and occupancy dynamics. Ranging from mobile microchambers to fully embedded stadium-scale biosafety arrays, these volumetric systems redefine sterilization not as a surface act, but as an ambient, continuous, and infrastructural function.

[0457] 1. MICRO-ENVIRONMENTAL CONTAINMENT NODE (MEC-NODE)

[0458] Sterilization and Biosensing Chamber for Confined and Mobile Volumes

[0459] The MEC-NODE is a compact, deployable microenvironment enclosure designed to sterilize and monitor the biosafety status of confined spatial volumes such as portable toilets, isolation pods, telemedicine booths, pop-up treatment cubicles, and emergency triage tents. Each node can function as a standalone biosafety microchamber equipped with a closed-loop, AL modulated emission and sensing architecture. Sterilization vectors may include pulsed UV-C at 222 nm and 254 nm, ultrasound resonance emitters (3-5 MHz), and cold plasma discharge (8.5 kHz), while ionized air dispersion maintains post-cycle microbial adhesion resistance.

[0460] Integrated airborne and surface biosensors — such as LSPR photonic detectors, aerosolized VOC analyzers, and optoacoustic sensors — collect real-time contamination data and feed it into a localized Dynamic Adaptive Emission Control (DAEC) module. This allows the MEC-NODE to execute stage-specific sterilization protocols adapted from the Multi-Stage Sterilization Workflow (MSSW), even in off-grid or mobile deployments.

[0461] Depending on their intended use and portability, these micro-environments can be encased with vacuum formed hard shells and / or weatherized woven polymer fabrics made from either the one or more of the use-case engineered purpose-built polymer and / or the selection of commercially available polymers and / or anti-microbial metals. The units optionally may be equipped with a micro-HVAC unit meant to recycle, sense, and sterilize the air breathed by its occupants.

[0462] Power supply may be provided via battery, solar auxiliary unit, or facility tie-in, and MEC-NODEs may include wireless uplinks for remote biosafety analytics or emergency override. Their small footprint and rapid deployability make them assets in field hospitals, pop-up clinics, military encampments, and disaster-response zones requiring high-throughput yet compartmentalized pathogen control.

[0463] 2. COMPACT ROOM BIOSAFETY ARRAY (CRBA)

[0464] Autonomous Sterilization and Biosensing Suite for Small-to-Medium Enclosed Spaces

[0465] The Compact Room Biosafety Array (CRBA) is a self-contained sterilization and biosensing system designed for rooms ranging from 50 to 250 square feet, such as exam rooms, private offices, hospital restrooms, modular labs, and isolation-ready residential units. Unlike microcontainment solutions, the CRBA is permanently affixed to structural features — walls, ceilings, and HVAC inlets — and coordinates its activity through a room- wide network of synchronized sensor-emitter nodes governed by localized DAEC logic.

[0466] Sterilization is performed using a distributed combination of:• Pulsed UV-C (222 nm and 254 nm), ceiling-mounted in directional or omnidirectional arrays,• Ultrasound surface transducers (1-5 MHz), integrated into baseboards and panel seams,• Cold plasma emitters installed in overhead ducts and wall-mounted distribution panels, and• Ionized air generation units capable of producing controlled gradients of charged particle density (5xl05-lxl06ions / cm3) across the full volume.

[0467] Biosensing nodes include thermal imaging cameras, LSPR-based optical sensors, optofluidic pathogen samplers, and air particulate analyzers. The system integrates inputs to dynamically calculate contamination heatmaps and adjust emitter operations accordingly — delivering low-power maintenance cycles during unoccupied hours and high-intensity, zone- targeted sterilization in response to detected risk signatures.

[0468] The CRBA is further enhanced by integration with a building- wide DEBM (Distributed Emission Behavior Mesh), allowing multiple rooms to coordinate sterilization and biosensing behaviors with adjacent zones. Optionally, CRBA units may upload real-time biosafety data to RTCCIT (Real-Time Compliance and Contagion Intervention Tracking) systems for institutional- level monitoring and regulatory documentation.

[0469] This embodiment is designed for retrofit compatibility and minimal user disruption. Its modular structure allows it to be installed in legacy buildings or off-grid treatment facilities, where fixed-volume sterilization is required with continuous pathogen monitoring.

[0470] 3. ZONAL BIOSAFETY FIELD (ZBF)

[0471] Multi-Zone Environmental Sterilization and Biosensing for Shared Interior Volumes

[0472] The Zonal Biosafety Field (ZBF) represents an architectural-scale sterilization and biosensing system engineered to segment and regulate medium-to-large indoor volumes ranging from 300 to 2,500 square feet, including classrooms, waiting areas, open-plan offices, retail floors,and rehabilitation centers. Unlike room-bound systems, ZBFs create overlapping sterilization zones — each dynamically adjustable based on occupancy, airflow, and pathogen load — while maintaining a seamless spatial continuum for users.

[0473] Each zone can be defined by a triangulated network of:• Ceiling-mounted UV-C emitters with adjustable beam divergence and far-UVC focal lenses,• Ultrasound directional transducers installed in floor arrays or beam casings,• Plasma and ionized air emitters integrated into HVAC vents, soffit voids, and wall- mounted dispersion columns,• And Al-linked biosensing nodes that triangulate pathogen concentration using real-time airborne spectrometry, thermal mapping, LSPR sensors, and surface residue analyzers.

[0474] DAEC modules within a ZBF synchronize with RTCCIT databases to tailor emission profiles per zone. For example, a ZBF deployed in a pediatric clinic may increase far-UVC and ion density in waiting areas during peak flu season, while minimizing exposure in play zones through shielding and redirection. DAEC also prioritizes emitter longevity and power efficiency, shifting emission load across emitters based on time-in-service and thermal state.

[0475] The ZBFs sterilization logic can include MSSW sequencing, allowing zone-specific staging such as:• Stage 1 Ultrasound agitation in furniture-heavy regions,• Stage 2 UV-C photolysis focused on high-contact surfaces,• Stage 3 Plasma oxidation along HVAC return zones,• And Stage 4 ionized air stabilization in transitional corridors and entry ways.

[0476] Modular, intelligent, and responsive to both human presence and environmental variance, the ZBF is the default standard for transforming shared interior volumes into adaptive biosafety fields. When combined with entry-point biosanitization nodes (e.g., DUO-BIOSAN or MUB-SAN), the ZBF ensures end-to-end pathogen management from ingress to egress.

[0477] 4. INTELLIGENT STERILE SUITE ARRAY (ISSA)

[0478] Multi-Room, Al-Orchestrated Environmental Biosensing and Sterilization Architecture

[0479] The Intelligent Sterile Suite Array (ISSA) is a facility-level biosafety system configured to autonomously monitor and sterilize interconnected interior environments such assurgical wings, intensive care units (ICUs), airport security clusters, correctional facility medical units, and high-risk laboratory suites. Unlike room-isolated systems, ISSA networks biosensing and sterilization nodes across multiple rooms, corridors, and ingress / egress paths, forming a spatially aware biosafety infrastructure governed by hierarchical Al logic.

[0480] ISSA’s functionality in at least some embodiments is driven by a centralized Al biosafety conductor, which can continuously ingest data from the following:• Ceiling, floor, and wall-embedded LSPR sensors,• Airflow-tuned particulate and chemical analyzers,• Real-time occupancy trackers using lidar and thermal profiles,• And cross-zone surface biosensors embedded in frequently touched equipment, door panels, and shared-use interfaces.

[0481] Based on the environmental load, material absorption index, and recent sterilization events, the Al dynamically coordinates zone-specific sterilization sequences using the full T- MBTA emission suite:• UV-C arrays with real-time refocusing lenses and variable irradiance delivery (15-45 mW / cm2),• Ultrasound sweeps triggered only in high-biofilm-risk locations,• Plasma bursts sequenced to target surface and ambient phases separately,• And ionized air recirculation regimes that modulate polarity and density (5xl05-2xl06ions / cm3) based on detected viral drift.

[0482] The ISSA follows a multi-level MSSW logic, customized per zone based on surface types (e.g., laminate, stainless, fabric), air volume, and human movement trends. Contamination heatmaps are constantly updated, enabling the Al to re-prioritize sterilization attention to "hot zones" with increasing pathogen signatures. The DAEC circuitry allows ISSA to reconfigure emission duty cycles across time, temperature, and bioload gradient changes, preserving energy and maximizing vector efficacy.

[0483] Designed for integration with RTCCIT systems and interoperable with national disease registry networks, ISSA can enforce real-time lockdowns, activate barrier zones, and initiate predictive sterilization events in response to early contamination trends.

[0484] This embodiment can be used to transform an architectural space into a biosafety- intelligent infrastructure — no longer reactive, but self-directed, anticipatory, and continuously learning.

[0485] 5. MACROZONE BIOSAFETY CONTROL GRID (MBC-GRID)

[0486] Integrated Pathogen Management Infrastructure for High-Occupancy Architectural Volumes

[0487] The Macrozone Biosafety Control Grid (MBC-GRID) is a high-volume biosensing and sterilization system designed for architectural spaces exceeding 2,500 square feet — such as conference halls, transportation terminals, gymnasiums, indoor stadium concourses, factory floors, and large classrooms or cafeterias. It establishes a distributed, multi-grid biosafety mesh throughout the space, allowing for spatially intelligent sterilization without disrupting human movement or activity flow.

[0488] Each macrozone can operate semi-autonomously using local DAEC modules that coordinate with a supervisory Al. These DAEC nodes dynamically scale emissions based on occupancy flux, pathogen bioload, seasonal risk parameters (e.g., influenza or norovirus prevalence), and heat-mapped event signatures such as spills, congestion points, or crowd clustering.

[0489] The MBC-GRID is sequenced using macro-adapted Multi-Stage Sterilization Workflow (MSSW-M), which accounts for:• Acoustic Penetration to reach porous flooring and textile surfaces,• Photonic Dispersal Refocusing for variable ceiling heights and structural irregularities,• Sequential Aerial-Plasma Clearing, triggered when pathogen concentrations near maximum safe thresholds,• And Post-Cycle Ion Stabilization to prevent re-adhesion or post- sterilization crosscontamination.

[0490] Integration with emergency alert systems enables MBC-GRID to shift into high- contagion mode, where nodes enter synchronized emission pulses based on real-time threat vectors. Additionally, MBC-GRID supports full RTCCIT logging, traceability per zone, and regulatory compliance reporting at scale.

[0491] This system transforms high-footfall environments into continuously responsive biosafety zones, capable of adapting in real time to unpredictable occupancy and contamination behavior without interrupting primary operational functions.

[0492] 6. ARCHITECTURAL BIOSAFETY INTELLIGENCE SYSTEM (ABIS)

[0493] Full-Facility Environmental Sterilization and Biosensing with ALOrchestrated Inter- Zonal Control

[0494] The Architectural Biosafety Intelligence System (ABIS) is a facility-wide biosafety framework engineered to autonomously monitor, predict, and neutralize pathogenic threats across multi-room, multi-story architectural structures. Suitable for deployment in, for example, hospitals, multi-wing research campuses, hotels, office towers, and secure governmental complexes, ABIS transforms the entire building envelope into a living, learning biosafety organism.

[0495] ABIS includes a hierarchically distributed Al system composed of three operational tiers:• Zone-Level DAEC Nodes: Located in individual rooms or clusters, these nodes manage sterilization emissions and sensor inputs on a per- zone basis.• Floor-Level Al Coordinators: Aggregate data across adjacent zones, resolve resource conflicts (e.g., power draw or emission prioritization), and implement multi-room MSSW sterilization events in sequence.• Centralized ABIS Logic Engine: Executes building-wide decisions, resolves cross-floor risk vectors, calculates predictive threat maps based on human movement patterns, occupancy schedules, HVAC behavior, and external contamination risks (e.g., nearby outbreaks or environmental alerts).

[0496] System Components:• Emitter Grids in ceilings, walls, ductwork, elevators, stairwells, and hallways deploy UV- C, Ultrasound, Cold Plasma, and Ionized Air emissions in variable intensity and timing,• Biosensing Nodes embedded in surfaces, fixtures, HVAC return ducts, and entry ways collect data on bioaerosols, surface residue, molecular contamination markers, and thermal-humidity anomalies,• RTCCIT Data Hubs store live and historical biosafety data, enabling not only compliance documentation but also Al learning cycles for long-term system evolution.

[0497] Adaptive Workflow Logic:

[0498] ABIS employs a building-scale variant of the Multi-Stage Sterilization Workflow (MSSW-A), configured to:• Target high-density convergence zones (e.g., cafeterias, lobbies) with intensive multispectral sterilization sequences at regular intervals,• Trigger preemptive sterilization events in response to scheduled mass ingress (e.g., morning hotel check-ins or hospital shift changes),• Enforce directional sterilization in HVAC systems to isolate pathogenic airflow before cross-contamination occurs,• Stage floor-level rolling emission cycles during off-peak hours to minimize human interference while maintaining continuous environmental sanitization.

[0499] Additional Features:• Predictive Pathogen Control: Al continuously models spatial and behavioral trends, enabling proactive intervention (e.g., deploying focused ionized airfields at elevator bottlenecks),• Biosafety Lockdown Protocols: ABIS can initiate hard or soft lockdowns in high- contamination zones by activating barrier emissions and access control locks,• Remote Oversight and Integration: May be overseen locally or linked to institutional health systems, government response nodes, or facility-wide emergency dashboards.

[0500] ABIS redefines biosafety in the modern architectural context — not as an add-on system, but as an operating layer woven into the building’s intelligent infrastructure. The entire facility becomes a responsive agent, autonomously modulating itself to protect occupants without diminishing operational throughput or architectural dignity.

[0501] 7. EVENT-SCALE BIOSAFETY CORRIDOR NETWORK (EBC-NET)

[0502] Mass-Movement Biosensing and Sterilization Framework for Arenas, Festivals, and Multi-Zone Public Events

[0503] The Event-Scale Biosafety Corridor Network (EBC-NET) is a macro-infrastructural biosafety architecture engineered to monitor, sanitize, and regulate the real-time movement of large populations across expansive, heterogeneous spaces. This embodiment is suitable for high- throughput environments such as stadiums, sports arenas, amusement parks, carnivals, multi-hallexpos (e.g., ComiCon, CES), outdoor festivals, and transportation hubs that temporarily transform into controlled access environments during public emergencies.

[0504] System Composition and Deployment Strategy:

[0505] EBC-NET establishes dynamic biosafety corridors — open-air or semi-enclosed pathways embedded with mobile and fixed sterilization and biosensing arrays. These corridors connect the following macrozones:• Ingress Checkpoints: Equipped with Al-modulated MUB-SAN systems, thermal LIDAR, optoacoustic biosensors, and initial emission stages (ionized air curtains, UV-C portal sprays),• Transitional Control Tunnels: Covered walkways or temporary archways embedded with synchronized UV-C and plasma emitters, activated in waves based on crowd pacing and sensor feedback,• Destination Macrozones: Zones such as stadium seating blocks, expo halls, or food courts, governed by Zonal Biosafety Fields (ZBFs) integrated with RTCCIT subnodes for localized emission and detection.

[0506] EBC-NET operates under multi-grid Al coordination:• Corridor Grid Al: Monitors real-time biosignal fluctuations within movement pathways and modulates emissions based on crowd density and directional flow.• Zone Grid Al: Controls emission intensity and DAEC logic within static event zones.• EBC-NET Supervisory Al: Interfaces with ticketing, crowd control, and emergency response systems to predict bioload surge events and reroute or regulate population ingress dynamically.

[0507] Sterilization and Biosensing Features:• Emission Staging: Hybrid emissions — Ultrasound, Plasma, UV-C, and Ionized Air — are sequenced to match flow rate and exposure window along travel paths.• Wearable-Correlated Biosensing: Optional participant wristbands or mobile app integrations passively log proximity and biosensor correlations without breaching personal privacy.• Broadcast Sterilization Windows: During scheduled intermissions or crowd transitions, large-scale emissions sweep through semi-enclosed volumes (e.g., seating tiers, vendor rows) to perform high-efficiency sterilization bursts.

[0508] Key Functional Innovations:• Smart Environmental Re-Zoning: In outdoor or semi-open installations (e.g., carnivals), portable field units autonomously designate, monitor, and sterilize temporary zones based on crowd GPS clustering and environmental data (wind speed, humidity).• Decentralized MSSW Execution: Multi-stage sterilization is executed not in static bursts, but as rolling waves across corridors, archways, and pavilions in sync with human motion vectors.• Resilience in Ope...

Claims

What is claimed is:

1. A system comprising: a plurality of biosensors and sterilizing agents including ultraviolet-C (UV-C) light emitters, ultrasound emitters, cold plasma dischargers, at least one ionized air generator and / or at least one chemical sterilant; wherein said agents are located in a modular array configured to simultaneously and / or sequentially detect, classify, and neutralize microbial, viral, fungal, or toxic contaminants present on a surface, in air, and / or on an object.

2. The system of claim 1 , defining an appendage-level module configured for use with human limbs or accessories and including VOC, thermal, and / or electrodermal biosensors, and skin-safe emission modalities.

3. The system of any of the preceding claims, wherein the ultraviolet-C light emitters are configured to emit germicidal UV-C at approximately 254 nm and human-safe far- UVC at approximately 222 nm.

4. The system of any of the preceding claims, wherein the ultrasound emitters are configured to emit within a frequency range of about 1 MHz to about 100 MHz and include both pathogen sensing and cavitation-based sterilization.

5. The system of any of the preceding claims, wherein the cold plasma dischargers are configured to generate reactive oxygen species (ROS) and / or reactive nitrogen species (RNS) configured to enhance microbial deactivation and biosensor contrast.

6. The system of any of the preceding claims, wherein the at least one ionized air generator is configured to discharge electrostatically charged air particles configured to neutralize airborne pathogens into an enclosed or ventilated space.

7. The system of any of the preceding claims, wherein the at least one chemical sterilant includes at least one oxidizing agent ; at least one alcohol-based sterilant; at least one quaternary ammonium compound (QAC); at least one metal-ion antimicrobial; and / or at least one phenolic disinfectant.

8. The system of claim 7, wherein the at least one oxidization agent includes hydrogen peroxide (H2O2), ozone (O3), peracetic acid, and / or hypochlorous acid (H0C1), the at least one alcohol-based sterilant includes ethanol and / or isopropanol, the at least one metal-ion antimicrobial includes silver ions, copper salts, and / or zinc oxide, and the at least one phenolic disinfectant includes ST37.

9. The system of any of the preceding claims, wherein the plurality of biosensors include localized surface plasmon resonance (LSPR) spectral analyzers, CRIS PR-based fluorescence-tagging biosensors, nanoparticle and / or quantum-dot signal amplifiers, touchpoint pathogen monitors, surface-bound biosignal activators (SBBA), ultrasonic interference detectors, and / or dual-phase biosensing film; the system further includes a closed-loop feedback module; and the system is configured to use biosensor input from the plurality of biosensors to modulate activation parameters of said sterilizing agents in real time.

10. The system of claim 9, further comprising an artificial intelligence configured to govern sterilizing agent emission timing, sequencing, amplitude, and energy delivery based on localized- or network-reported pathogen profiles, and to determine emission parameters of at least one of said sterilization agents according to a detected type, concentration, or resistance profile of a pathogen.

11. The system of claim 10, configured to dynamically control operation of said biosensors and / or said sterilizing agents based on environmental biosensor data received in real time; wherein the artificial intelligence is configured to utilize environmental calibration sensors and models for atmospheric particulates, vapor density, and / or local photonic interference to determine sterilizing agent emission dosage; and to execute zone-specific sterilizing agent emission modulation based on pathogen type, human proximity, airflow velocity, zone temperature, humidity, and / or ambient light; andincluding a control logic subsystem comprising an artificial intelligence engine configured to receive input from said biosensors and responsively modulate activation, emission type, emission duration, spatial focus, and energy profile of said sterilizing agent emission in real time, and to predict pathogen load based on external datasets including geolocation-linked epidemiological databases, real-time public health alerts, and / or detected human traffic patterns.12 The system of any of the preceding claims, including a compliance tracking and reporting framework for pathogen detection and sterilization systems, said framework comprising a biometric identification module configured to recognize individuals via at least one biometric marker; a sterilization event logging engine configured to record emission events, biosensor activations, user interactions, and / or environmental parameters; a contagion mapping subsystem configured to geolocate biosensor activations and to generate zone- specific pathogen dispersion visualizations; and a reporting interface configured to provide tiered data access to users, administrators, and / or public health authorities; wherein said interface is configured to communicate with external health infrastructure using standardized protocols; to encrypt sterilization event logs; to timestamp said logs using a blockchain-based ledger configured to prevent unauthorized modification and enable forensic traceability; and to support bidirectional data integration with external health governance systems.

13. The system of claim 12, wherein said biometric identification module is configured to recognize individuals using fingerprint, facial recognition, and / or palm- vein pattern analysis.

14. The system of claim 12 or claim 13, wherein said external health governance systems include systems operated by the Centers for Disease Control (CDC), the World Health Organization (WHO), and / or local health authorities.

15. The system of any of the preceding claims, including a therapeutic controller configured to receive input from biosensors configured to detect fever, cortisol levels, electrodermal activity, and / or heart rate variability, and to adjust sterilizing agent emission timing based thereon.

16. The system of any of the preceding claims, wherein the modular array defines a hybrid array, and configured to incorporate a therapeutic cycle including analgesic ultrasound therapy and / or photobiomodulation therapy.

17. The system of claim 16, wherein said modular array is configured to temporally interleave photobiomodulation therapy comprising phototherapeutic exposure at a frequency and an intensity adapted to reduce musculoskeletal inflammation or nerve irritation between sterilizing UV-C bursts and vitamin D synthesis-supportive spectral bands.

18. The system of any of the preceding claims, wherein the modular array is configured to emit topical skin-repair compounds following a sterilization event.

19. The system of claim 18, wherein said topical skin-repair compounds include nitric oxide donors, silver nanoparticles, and / or bioactive peptides.

20. The system of any of the preceding claims, further including a biometric interface embedded in a wearable item that substantially conforms to user anatomy and is configured to dynamically adjust signal output based on biometric feedback.

21. The system of claim 20, wherein the wearable item defines a band, patch, or exoskin array.

22. A system configured to support biosensing, emission delivery, and environmental durability within a multivector sterilization platform, comprising:at least one polymer comprising a composition defining selected transmission of ultraviolet light and ultrasound, resilience to thermal and chemical sterilization cycles, and integration of optoelectronic or acoustic functionality;UV-C lensing geometries comprising Teflon AF, PMP, and / or fused silica configured to focus or diffuse photonic emissions onto target surfaces; and at least one structural or surface-integrated material comprising activated copper, brass, and / or antimicrobial stainless steel; fluoropolymers including FEP and / or PFA, and / or optical polymers including PMMA, COC, PMP, and / or UV-C transparent materials including Teflon AF and / or fused silica.

23. The system of claim 22, wherein the polymer defines a composition that is extrudable, castable, printable, and / or sewable, and does not functionally degrade for at least 1,000 UV-C or chemical exposure sterilization cycles.

24. The system of claim 22 or 23, wherein the polymer includes electrochromics configured for dynamic control of optical transparency thereof in response to electrical signals applied thereto.

25. The system of any of claims 22 to 24, wherein the polymer includes capacitive energy storage layers and / or coatings configured to deliver power to an embedded sensor and / or a sterilizing agent emitter.

26. The system of any of claims 22 to 25, wherein the polymer includes piezoelectrics and / or pyroelectrics configured for environmental sensing and / or to harvest energy when subjected to physical and / or thermal stress.

27. A modular architecture for biosensing and sterilization systems comprising: a plurality of scalable and reconfigurable modules configured to house at least one biosensor and sterilizer unit; wherein said modules are configured for deployment at variable scales; andwherein each of said modules is communicatively linked to a control node configured to manage sterilant emission and biosensor data reporting based on local environmental conditions and said deployment of said modules.

28. The architecture of claim 27, wherein said scales include object-level, appendagelevel, surface-level, room-level, building-level, vehicle-level, and civic-level deployment.

29. The system of claim 27 or 28, wherein object-level modules are located in or on handheld tools, mobile devices, or stylus holders, and including embedded micro-emitters and / or biosensors configured for personal-use sterilization.

30. The system of any of claims 27 to 29, wherein the modules are configured to be powered by at least one solar, kinetic, and / or hybrid electric system, and including at least one energy -harvester.

31. The system of claim 30, wherein the energy -harvester defines a kinetic power harvester, photovoltaic module, and / or thermoelectric converter.

32. The system of claim 31, wherein said kinetic power harvester is integrated in a foot pedal, door handle, or rotational surface and generates electricity via piezoelectric and / or electromechanical transduction, and said photovoltaic module is embedded in or on transparent or translucent enclosures and include at least one cell including amorphous silicon, perovskite, and / or copper indium gallium selenide (CIGS).

33. The system of any of claims 28 to 32, wherein said surface-level module includes a panel, control pad, keyboard, and / or door handle embedded with a touchpoint biosensor and / or passive sterilization surface.

34. The system of any of claims 28 to 33, wherein the room-level module comprises a portal frame, elevator enclosure, and / or HVAC-aligned sterilization panel, and is configured to track ingress / egress events and / or provide biosafety within a room.

35. The system of any of claims 28 to 34, wherein said building-level module is configured to coordinate sterilization across multiple rooms and / or floors and includes node hubs configured for governance of floor-wide and / or campus-wide sterilant emission.

36. The system of any of claims 28 to 35, wherein said vehicle-level module is configured to operate in an ambulatory and / or off-grid environment, and includes sterilant emitters powered by at least one solar, kinetic, and / or hybrid electric system.

37. The system of any of claims 28 to 36, wherein said civic-scale module is configured for use in an arena, transportation hub, and / or public infrastructure, includes biosensing arrays, and is configured for real-time compliance.

38. The system of any of claims 27 to 37, wherein said modules are configured to exchange biosensor and / or compliance data with an upstream system via wireless and / or wired protocols.

39. The system of claim 38, wherein said protocols include WiFi, Bluetooth LE, LoRaWAN, and / or optical backhaul.

40. A system comprising: a biosensing and sterilization array configured to emit sterilant UV-C, ultrasound, cold plasma, ionized air, and / or chemical agents in response to biosensor-detected contamination; a biosensor-guided emission controller including a plurality of biosensors; a compliance tracking and reporting subsystem including biometric identification, zonespecific contagion mapping, and a secure logging interface configured for integration with external public health infrastructure; a framework comprising polymers and structural materials defining selected sterilant emission transmission, environmental durability, and biosensor integratability; a modular architecture comprising spatially adaptable nodes at object-, appendage-, surface-, room-, building-, vehicle-, and / or civic-scale levels; an embedded therapeutic delivery subsystem configured to deliver non-sterilizing emission modalities adapted for health and healing based on biosignal-responsive inputs; and a power infrastructure comprising energy harvesters and power management algorithms; wherein said array, emission controller, compliance tracking and reporting subsystem, framework, therapeutic delivery subsystem and / or power infrastructure are operatively integrated with a unified controller configured for real-time sterilant and / or non-sterilizing emissionsequencing, biosignal prioritization, system wake / sleep modulation, and compliance data synchronization across multiple networked nodes.

41. The system of claim 40, wherein said biosensors include an LSPR analyzer, CRISPR-based sensor, quantum-dot amplifier, touchpoint monitor, and / or Dynamic Adaptive Emission Control (DAEC) logic engine.

42. A method comprising: performing a multivector biosafety and therapeutic response in an environment subject to pathogen contamination, the performing step comprising sensing biological, chemical, and / or particulate signals using biosensors; analyzing said biosensor data using an artificial intelligence engine configured to classify pathogen type, resistance profile, and / or contamination severity; determine proximity, airflow, and / or human exposure conditions; and generate a sterilant emission control signal based thereon; emitting a sterilant comprising ultraviolet-C light, ultrasound, cold plasma discharge, ionized air, and / or a chemical sterilant; modulating sterilant emission timing, duration, and spatial intensity using Dynamic Adaptive Emission Control (DAEC); recording a record of biosensor detections and sterilant emissions into a compliance tracking framework; delivering therapeutic emissions using a emitter architecture shared with one or more emitters performing said sterilant emitting step or one or more additional emitters therefor, wherein said therapeutic emissions are triggered in response to biosignals indicating physiological need and / or environmental recovery requirements; harvesting and managing power from a photovoltaic cell, kinetic harvester, and / or thermoelectric energy converter, and distributing power for the performing step based on operational priority and / or environmental load; and synchronizing data from across a modular deployment network comprising object-, appendage-, room-, building-, and / or civic-scale nodes; wherein the performing step operates continuously or intermittently under a unified orchestration logic.

43. The method of claim 42, wherein said biosensors include a localized surface plasmon resonance (LSPR) spectral analyzer, CRISPR-based fluorescent and / or bioluminescent detector, nanoparticle and / or quantum-dot-enhanced signal amplifier, surface-bound biosignal activator, and / or ultrasonic interference sensor.

44. The method of claim 42 or 43, wherein said record includes biometric user identification and time-stamped, tamper-resistant logging.

Images