System for field resonance-based detection and regulation of vascular, cardiac and neuronal dysfunctions including field-based imaging

Abstract

System for field resonance-based, non-invasive detection and regulation of biological dysfunctions, characterized in that it includes a textile-integrated sensor system that detects, processes and outputs resonance patterns for diagnosis or regulation, whereby field-based interactions that go beyond the known forces (fifth force) can also be taken into account.

Description

1. Title

[0001] System for field resonance-based detection and regulation of vascular, cardiac and neuronal dysfunctions including field-based imaging 2. Technical field

[0002] The invention relates to a modular, non-invasive diagnostic and regulatory system based on field resonance-based sensor components. It serves to detect and regulate functional disorders in the arterial, venous, cardiac, and neuronal systems, as well as for resonance-based imaging of internal body conditions. In addition to established biological and physical forces, the system also considers the possibility of a fifth force, which is suggested by the interplay of resonance, entropy, and biological interactions. 3. State of the art

[0003] Existing systems include invasive or stationary methods such as Doppler and angiography for arterial disorders, ultrasound for venous thrombosis, implantable defibrillators or pharmacotherapy for cardiac dysrhythmias, EEG and invasive electrodes for epilepsy or Parkinson's syndromes, and MRI and CT for imaging. A continuous, textile-integrated, and field resonance-based system that modularly combines these areas is not yet known. 4. Object of the invention

[0004] The goal is to provide a flexible, modular, and portable system capable of detecting and regulating functional disorders of the vascular system (arterial / venous), cardiovascular arrhythmias, neuronal dysrhythmias, and imaging resonance representations of internal bodily states. Furthermore, the system should offer the possibility of considering even more subtle influences that point to a fifth force beyond the known forces. 5. Solution to the task

[0005] The task is solved by a textile-integrated sensor system that is modular in design and comprises the following units: - Detection of venous thrombosis through multimodal sensory monitoring - Detection and regulation of arterial vascular disorders including coronary artery disease - Non-invasive microimpedance of cardiac arrhythmias - Field-based detection and regulation of neuronal oscillations (e.g., in epilepsy, Parkinson's syndromes, or other cerebral dysrhythmias) - Resonance-based imaging of internal body conditions - Analysis of rhythmic patterns and subtle field-based interactions that can be interpreted in the context of a postulated fifth force 6. Advantages - non-invasive, textile-integrated, continuous - Modular design suitable for different application areas - expandable with additional modules - usable for preventive, diagnostic and therapeutic purposes - Combining functional diagnostics and resonance-based imaging - extended to include the option of field interactions beyond known forces (fifth 7th description of the module for field resonance-based detection of venous thrombosis) 7. Description of the module for field resonance-based detection of venous thrombosis 7.1 Title

[0006] Modular wearable system for the early, non-invasive detection and regulation of venous thrombosis through multi-channel sensor monitoring 7.2 Summary

[0007] The system combines bioelectrical, optical, and motion-based measurement systems in a textile-integrated sensor system for the early detection of venous thrombosis. It includes a mobile evaluation unit with AI-supported analysis and an optional feedback module. The modular structure allows for flexible combinations of sensors and use in nursing care, general practitioner practices, or home monitoring. 7.3 Technical Description

[0008] The present invention relates to a medical diagnostic system. The aim is to develop a wearable-based diagnostic system that, by combining various bioelectrical, optical, and motion-related parameters, enables continuous or situational detection of thrombotic changes in the venous vascular system—particularly in the lower extremities.

[0009] The innovative core lies in the sensor integration of impedance measurement, light reflection rheography (LRR), motion analysis, and optional blood flow or temperature modulation for risk assessment. The data are evaluated using AI-based pattern recognition and validated with conventional imaging systems (e.g., ultrasound). The system aims for the early identification of clinically silent or incipient thromboses – particularly in high-risk patients in outpatient settings, nursing care, or during mobilization at home.

[0010] The invention comprises: - a textile or semi-textile sensor system (e.g. as a sock, gaiter or belt) - a modular combination of LRR, impedance, motion and, if necessary, temperature or pressure sensors - a portable evaluation unit with an interface to mobile devices - an AI-supported analysis platform for the classification of thrombosis patterns - a prototype setup for clinical testing and comparative studies with ultrasound 7.4 Advantages - Continuous, low-threshold monitoring of venous thrombosis risk - early detection of clinically silent thromboses - Integration into textile wearables (sock, cuff, gaiter) - mobile and usable in everyday life - open for nursing care, general practitioner practice and home monitoring - usable preventively, diagnostically and as a complementary therapy 8. Description of the module for field resonance-based detection and regulation of arterial thrombosis 8.1 Title

[0011] Textile-integrated system for field-based detection and regulation of arterial vascular disorders including coronary heart disease 8.2 Technical Area

[0012] The invention relates to the non-invasive, field-based diagnosis and regulation of arterial circulatory disorders. These include, in particular, atherosclerosis, arterial stiffness, arterial occlusions, coronary artery disease (CAD), and dynamic vascular reactions such as vasospasms. The system combines physiological measurement parameters with field resonance-based signals, which are acquired and processed via textile-integrated sensor systems. 8.3 State of the art

[0013] Existing systems for diagnosing arterial diseases (e.g., Doppler sonography, CT angiography, invasive coronary angiography) are either invasive, involve radiation exposure, or can only be used at specific points. Continuous, portable, and field-based real-time monitoring of arterial dysfunction is not yet available. 8.4 Object of the invention

[0014] The object of the invention is to provide a modular, textile-integrated system that detects arterial diseases, including coronary artery disease, at an early stage and non-invasively measures their functional parameters (e.g., vascular stiffness, pulse wave analysis, blood flow resonance). Furthermore, the system is intended to contribute to field-based regulation by utilizing feedback signals (visual, auditory, sensory). 8.5 Solution to the task

[0015] The task is solved by a textile-integrated sensor system that includes: - pulse wave and flow measurement in combination with field resonance-based signals, - a processing unit for the detection of pathological patterns, especially vascular constrictions and circulatory deficits, - a modular interface for integration with other modules, - an optional feedback unit for regulating cardiovascular patterns (e.g. HRV, field coherence), - integration into wearable systems (e.g. clothing, cuffs) that allow continuous everyday use. 8.6 Advantages - early, non-invasive detection of arterial and coronary disorders - Continuous measurement without radiation exposure - Integration into wearable systems (e.g. clothing, cuffs) - can be combined, for example, with rhythm and venous diagnostics - usable for preventive, diagnostic and therapeutic purposes - Synergy through the combination of multiple diagnostic levels (functional, field-based, sensory) 9. Description of the module for field resonance-based detection and regulation of cardiovascular disorders 9.1 Title

[0016] System for field-based detection and regulation of cardiovascular disorders 9.2 Technical Area

[0017] The invention relates to a system for the detection and regulation of cardiovascular disorders, in particular for the field-based detection and non-invasive harmonization of deviations in cardiac rhythm, including those associated with thrombotic processes or other cardiovascular disorders. This module analyzes cyclic patterns and deviations in physiological rhythms. Such structures may indicate previously poorly understood interactions, which are interpreted within the context of an extended theory of forces—including a postulated fifth force. 9.3 State of the art

[0018] Existing systems for treating cardiovascular disorders often rely on invasive methods, such as defibrillator implantation or drug therapy. The simultaneous detection and regulation of different types of disorders is not currently possible with existing technology. A non-invasive, field-based combined diagnostic approach with feedback regulation is not yet available. 9.4 Object of the invention

[0019] The object of the invention is to provide a reversible system that can be applied close to the body and that, in particular, detects cardiac arrhythmias as an expression of cardiovascular disturbance patterns and harmonizes them non-invasively. 9.5 Solution to the task

[0020] The task is solved by a system that uses textile or wearable sensors for the capacitive, optical, or field-based detection of physiological anomalies. Detection is differentiated according to rhythmic patterns. Regulation is achieved via adapted micro-pulses, field modulations, or light stimulation, depending on the detected disturbance. 9.6 Example of Implementation

[0021] In a preferred embodiment, the system comprises a textile structure with integrated sensors that measure the capacitive conductivity of the fabric. Software analyzes the detected signals and classifies them as an arrhythmia. A connected module then applies a targeted pulse waveform, as needed, to harmonize the arrhythmia. 10. Description of the module for field resonance-based imaging of internal body conditions 10.1 Title

[0022] Textile-integrated system for field resonance-based, non-invasive imaging of internal body conditions 10.2 Technical Area

[0023] This module concerns an imaging, field resonance-based system used for the non-invasive visualization of internal body conditions. It combines textile-integrated stimulation and field-sensitive sensors to depict biological structures and functional patterns without mechanical pressure probes, contrast agents, or invasive electrodes.

[0024] This module investigates echo and feedback phenomena in the diagnostic field. The resulting patterns may contain clues to forces that go beyond classical physical models and can be understood as a fifth force. 10.3 State of the art

[0025] Existing imaging systems such as ultrasound, MRI, or electrical impedance tomography are based on mechanical, electromagnetic, or electrical interactions with tissue. These usually require stationary devices and are not contactless. A fully textile-integrated, resonance-based system for internal imaging does not yet exist. 10.4 Object of the invention

[0026] The task is to provide a system capable of capturing internal bodily states in a contactless, resonance-based, and textile-integrated manner. The imaging should be sensitive to structural, functional, and fluid-related changes and be usable for both medical-diagnostic and artistic-poetic purposes. 10.5 Solution to the task

[0027] The task is solved by a textile-integrated system, comprising: a) a field-generating stimulation area (e.g. capacitive or inductive textile structures), b) a field-sensitive sensor structure (e.g. capacitive grids, topological antenna fields), c) a processing unit for the detection, amplification and display of resonance patterns, d) an output unit (e.g. mobile app, real-time visualization, poetic-aesthetic representation). 10.6 Advantages - fully textile-integrable - non-invasive, contact-free - no moving parts - visual feedback of tissue structures and functional states - open to medical and aesthetic-artistic applications - new form of body-oriented diagnostics and self-awareness 11. Description of the module for field-based recording and regulation of neuronal oscillations 11.1 Title

[0028] System for field resonance-based detection and regulation of neuronal oscillations in neurophysiological dysrhythmias 11.2 Technical Area

[0029] This module addresses non-invasive, field-based neurodiagnostics and regulation. It captures neuronal oscillations via textile or body-worn sensor elements and enables their analysis and harmonization. Its primary application is in neurophysiological dysrhythmias such as epileptic seizures.

[0030] The module records neuronal field signatures and investigates their interactions with physiological processes. It also considers the possibility that additional, more subtle influences (in the sense of a fifth force) might be at play, beyond the known forces. 11.3 State of the art

[0031] Current systems for detecting and treating cerebral dysrhythmic activity, such as epileptic activity, rely on EEG analysis, invasive deep electrode implantation, or pharmacological therapy. A continuous, wearable, and field resonance-based method for detecting and regulating neuronal oscillations does not yet exist. 11.4 Object of the invention

[0032] The task is to provide a system that, for example, detects epileptiform patterns early and harmonizes them through field-based feedback. The goal is a preventive, non-invasive intervention that can be used both in clinical settings and in everyday life. 11.5 Solution to the task

[0033] The task is solved by a textile-integrated system, comprising: a) a field-sensitive sensor structure for detecting neuronal resonance patterns, b) a processing unit for analyzing cerebral dysrhythmic signatures using AI-supported pattern recognition, c) a feedback module that outputs regulating stimuli (e.g. micro-pulses, light or acoustic signals), d) a mobile interface for real-time display and customization of individual resonance profiles. 11.6 Advantages - early detection of cerebral dysrhythmic phenomena, e.g. epileptic activity - Non-invasive, field-based regulation of neuronal rhythms - Integration into wearable textile systems - continuous monitoring even outside clinical settings - preventive, diagnostic and therapeutic uses

Claims

[1] System for field resonance-based, non-invasive detection and regulation of biological dysfunctions, characterized by , that it includes a textile-integrated sensor system that captures, processes and outputs resonance patterns for diagnosis or regulation, and can also take into account field-based interactions that go beyond the known forces (fifth force). [2] System according to claim 1, characterized by that it is modular and includes at least one of the following units: a) module for the detection of arterial vascular disorders, b) module for the detection of venous thrombosis, c) module for the regulation of cardiac arrhythmias, d) module for the detection and regulation of neuronal oscillations, e) module for resonance-based imaging of internal body conditions. [3] System according to any one of the preceding claims, characterized by that the sensor units include capacitive, optical, bioelectrical or motion-based measurement systems. [4] System according to any one of the preceding claims, characterized by that the evaluation unit includes an AI-supported analysis platform. [5] System according to any one of the preceding claims, characterized by that feedback signals in the form of micropulses, light or acoustic stimuli can be used for regulation. [6] System according to any one of the preceding claims, characterized by that it is portable and textile-integrated and includes a mobile interface. [7] System according to any one of the preceding claims, characterized by , that the evaluation of sensory resonance patterns includes the possibility of a previously unclassified interaction that goes beyond the known physical forces (“fifth force”). [8] Portable diagnostic system for the non-invasive detection of venous thrombosis, characterized bythat it includes a textile-integrated or textile-mounted sensor system, an evaluation unit with data processing, and an optional feedback module. [9] System according to claim 8, characterized by , that the sensor system combines at least two different measurement systems, selected from: a) bioelectrical impedance measurement, b) light reflection rheography, c) motion sensing, d) temperature measurement, e) pulse / flow modulation. [10] System according to any one of the preceding claims, characterized by that the evaluation unit performs an AI-supported analysis, in particular based on Random Forest, Convolutional Neural Networks (CNN) or similar models. [11] System according to any one of the preceding claims, characterized by that the sensor unit is integrated into a garment or a wearable textile module, e.g., a hat, sock, gaiter, cuff, or thigh strap. [12] System according to any one of the preceding claims, characterized by that it supports a comparative test with classic ultrasound systems (e.g., AutoDVT) for validation. [13] System according to any one of the preceding claims, characterized by that the evaluation unit is mobile and has an interface to a smartphone, tablet or medical evaluation server [14] System according to any one of the preceding claims, characterized by that the system is used as an early warning system for risk groups, especially in nursing, post-operative care, home use or general practitioner practice. [15] System according to any one of the preceding claims, characterized by , that it optionally generates visual, acoustic or haptic feedback to the wearer or medical personnel. [16] System according to any one of the preceding claims, characterized by that the components are modular and can be used individually or in combination. [17] System according to any one of the preceding claims, characterized by that it is used for thrombosis prophylaxis, monitoring of disease progression or supplementary monitoring in cases of known coagulation disorders. [18] System according to any one of the preceding claims, characterized by , that a special analysis module automatically sends a warning message to medical professionals when characteristic patterns of incipient venous thrombosis are detected. [19] System for field-based, non-invasive detection of arterial vascular diseases including coronary heart disease, characterized by , that pulse wave, flow and field resonance-based signals are captured, combined and processed by a textile-integrated system to detect arterial vascular disorders. [20] System according to claim 19, characterized by that pulse wave velocity is used to determine arterial elasticity. [21] System according to any of the preceding claims, characterized by , that field resonance-based patterns are used to identify arterial stenoses, vasospasms, or blood flow deficits. [22] System according to any of the preceding claims, characterized by , that it works modularly with feedback signals that contribute to the regulation of cardiovascular parameters, using visual, auditory or sensory stimuli. [23] System according to any of the preceding claims, characterized by that it can be combined with other field diagnostic systems, especially for rhythm-based, venous and imaging diagnostics. [24] Textile-integrated system for cardiac micropulse regulation, comprising: a wearable textile carrier element, an integrated network for generating micropulses and a control unit for activating the micropulses by external stimuli, wherein the micropulses are activated by means of galvanic or optical stimuli and are designed for non-invasive harmonization of cardiac arrhythmias, including the possibility of modulating resonance patterns that may be associated with a fifth force beyond the known physical forces. [25] System according to claim 24, characterized by that the micropulses control a frequency suitable for synchronizing cardiac activities, especially atrial or ventricular excitations. [26] System according to any one of the preceding claims, characterized by, that the textile structure uses sensors to detect cardiac activity patterns and adaptively modulates the impulse output in frequency and strength. [27] System according to one of the preceding claims, wherein the textile structure is modular and allows partial integration into garments. [28] System according to any of the preceding claims, wherein the micropulses are applied non-invasively and do not cause shock or tissue trauma. [29] System according to any of the preceding claims, which is reversible and can be used without permanent implantation. [30] System according to one of the preceding claims, which can be combined with further modular system components, in particular with tactile feedback systems or diagnostic modules. [31] System according to any of the preceding claims, characterized bythat micropulse regulation also takes into account more subtle resonance and rhythm interactions, which are interpreted in the context of a postulated fifth force. [32] Textile-integrated system for field resonance-based, non-invasive imaging of internal body conditions, characterized by , that a field-generating stimulation area and a field-sensitive sensor structure are combined to represent resonance patterns of biological tissue, including such patterns as depicting more subtle field interactions which may be related to a postulated fifth force. [33] System according to claim 32, characterized by that the sensor structure comprises capacitive grids or topological antenna fields [34] System according to claim 32 or 33, characterized by , that the recorded resonance patterns are processed into pictorial representations in a processing unit. [35] System according to any of the preceding claims, characterized by that the display is in real time via mobile devices [36] System according to any of the preceding claims, characterized by that the output format also includes an artistic-aesthetic visualization. [37] System according to any of the preceding claims, characterized by that no direct electrodes, mechanical pressure probes or contrast agents are required. [38] System according to any of the preceding claims, characterized by that field resonance-based imaging also includes patterns that suggest a fifth force beyond the known physical forces. [39] Textile-integrated system for field resonance-based detection of neuronal oscillations, characterized by that cerebral dysrhythmic patterns can be detected in real time and additionally more subtle resonance patterns can be captured, which are interpreted in the context of a postulated fifth force. [40] System according to claim 39, characterized by , that a field-sensitive sensor structure is used for the continuous recording of neuronal activity patterns. [41] System according to claim 39 or 40, characterized by that the analysis is carried out using AI-supported systems, in particular neural networks [42] System according to any one of the preceding claims, characterized by that a feedback module outputs regulating stimuli in the form of micropulses, light or acoustic signals [43] System according to any one of the preceding claims, characterized by that it is portable and textile-integrated and includes a mobile interface. [44] System according to any one of the preceding claims, characterized by that it is used both diagnostically for the detection and therapeutically for the prevention of cerebral dysrhythmic patterns. [45] System according to any one of the preceding claims, characterized bythat the field resonance-based analysis also takes into account influences that go beyond the known physical forces and are described as a fifth force.