Closed-Loop Antimicrobial Gas Generation for Household Disinfection
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Solution Overview
Problem
Current methods for generating antimicrobial gases like chlorine dioxide (ClO2) are impractical for household or personal use, and existing systems for producing ClO2 from precursor chemicals are slow and produce low-quality solutions, failing to effectively disinfect airborne pathogens and surfaces in enclosed spaces.
Innovation Solution
A closed-loop system that generates and monitors antimicrobial gases, using a microprocessor-controlled network of sensors and generators to maintain target concentrations of ClO2 in enclosed spaces, ensuring effective disinfection of both air and surfaces by actively dispersing ClO2 gas and adjusting its concentration based on real-time environmental data.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Ease of operation
If current methods are used to generate antimicrobial gases, then disinfection capability is achieved, but the systems are large and impractical for household or personal use
Solution Approach 1:
The system is divided into separate functional modules: a generation subsystem that produces ClO2 gas from precursor chemicals, a distribution subsystem that disperses the gas through HVAC or direct venting, and a control subsystem that monitors concentration and regulates operation. This segmentation allows each component to be optimized independently, enabling compact household-scale deployment while maintaining effective disinfection capability.
Solution Approach 2:
The patent uses HVAC systems or building infrastructure as intermediaries to distribute the antimicrobial gas throughout enclosed spaces. This intermediary approach eliminates the need for large standalone generation systems in each room, as the gas is centrally produced and distributed through existing ventilation pathways, significantly reducing the physical footprint required.
2Productivity
If ClO2 is generated from liquid and solid precursor chemicals using current methods, then antimicrobial gas is produced, but the process is slow and generates low quality ClO2 solutions
Solution Approach 1:
The system employs precise control of reaction parameters including temperature, pressure, and reactant flow rates to optimize ClO2 generation. By maintaining specific parameter ranges (e.g., controlled heating rates, regulated chemical mixing ratios), the system achieves both rapid generation and high-purity ClO2 output, eliminating the slow, low-quality production associated with conventional methods.
Solution Approach 2:
The control subsystem continuously monitors ClO2 concentration in the enclosed space using sensors and adjusts the generation rate accordingly. This feedback mechanism ensures that the system produces exactly the amount of ClO2 needed at the right time, preventing both insufficient generation and excessive production that would compromise solution quality. The system can detect and respond to concentration variations in real-time, maintaining optimal production conditions.
Applied Scientific Principles
This section explains which scientific principles are used to turn an abstract innovation direction into a practical engineering solution.
Function Achieved in This Case
The system provides a safe and effective means to quickly generate and maintain antimicrobial gas concentrations, effectively sanitizing and disinfecting enclosed spaces, reducing airborne pathogens and protecting occupants from contagions, while being efficient and practical for use in various settings.
Implementation Method 1
the sensing sub-system samples air from the volume under treatment continuously or at intervals and measures the concentration of the antimicrobial present in the air from the volume under treatment
Implementation Method 2
a reactor including a mixing chamber, wherein two or more reagents are combined in the mixing chamber to create an antimicrobial
Data Source
AI summary
In one aspect, a system for generating and monitoring an antimicrobial is provided, the system including: a microprocessor and/or a microcontroller; an external communications device; a computational system; an antimicrobial sensor and/or an environmental sensor; and an antimicrobial generator, wherein the external communications device, the computational system, the antimicrobial generator, and the antimicrobial sensor and/or the environmental sensor are operatively connected to the microprocessor and/or the microcontroller. The system may further include a separate sensor sub-system comprising: a sensor sub-system microprocessor and/or a sensor sub-system microcontroller; a sensor sub-system external communications device; a sensor sub-system antimicrobial sensor and/or a sensor sub-system environmental sensor; and a sensor sub-system computational system. The system may further include a separate generation sub-system comprising: a generation sub-system microprocessor and/or a generation sub-system microcontroller; a generation sub-system external communications device; and a generation sub-system antimicrobial generator.


