Wearable EMS and Light Therapy System for Adaptive Recovery
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Solution Overview
Problem
Current electrical muscle stimulation (EMS) systems and light therapy devices are limited in their ability to provide patient-specific and adaptable treatments, leading to suboptimal recovery outcomes after invasive medical procedures, with restrictive hardware and lack of reproducibility in treatment protocols.
Innovation Solution
Development of EMS and light therapy systems that include wearable garments with integrated sensors and controllers, allowing for real-time biometric data collection and adaptive stimulation protocols to optimize muscle tone, circulation, and tissue composition before and after surgery, and personalized light therapy based on user-specific indicators.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Reliability
If current EMS systems use adhesive electrodes requiring detailed anatomy understanding, then some stimulation benefit may be achieved, but the system becomes complex and difficult to use without professional knowledge
Solution Approach 1:
The EMS system automatically detects muscle groups through sensors and independently determines optimal electrode placement and stimulation parameters without requiring user knowledge of anatomy or manual calibration, enabling self-service operation while maintaining effective stimulation
Solution Approach 2:
The system continuously monitors muscle response through sensors and adjusts stimulation parameters in real-time based on feedback signals, automatically optimizing electrode contact and stimulation intensity without requiring manual adjustment or anatomical knowledge from the user
2Reliability
If current EMS systems prohibit physical activity during use, then safety may be maintained, but the system fails to provide effective stimulation to improve recovery outcomes
Solution Approach 1:
The EMS system dynamically adapts its operation based on detected physical activity levels, adjusting stimulation parameters in real-time to maintain effectiveness whether the patient is at rest or engaged in physical therapy exercises, eliminating the need to choose between safety and stimulation effectiveness
Solution Approach 2:
The system changes stimulation parameters such as intensity, frequency, and pulse duration based on the detected activity state and muscle response, allowing effective stimulation during various activity levels while maintaining safety through continuous monitoring and adaptive adjustment
3Adaptability or versatility
If current EMS systems allow adjustment of electrical intensity, then some customization is possible, but they still fail to provide patient-specific protocols tailored to individual needs and procedures
Solution Approach 1:
The system automatically generates patient-specific stimulation protocols by detecting individual anatomical characteristics, muscle group configurations, and procedural history through integrated sensors, eliminating the need for manual protocol creation while ensuring each patient receives customized treatment tailored to their specific needs
Solution Approach 2:
The system continuously monitors muscle response, tissue composition changes, and procedural progress through sensors, using this feedback to automatically adjust and optimize stimulation parameters in real-time, ensuring each patient receives the most effective personalized protocol based on their actual physiological response rather than generic parameters
4Ease of manufacture
If light therapy devices use static wavelength radiation, then device simplicity is maintained, but the system cannot optimize light energy attributes tailored to particular patient needs
Solution Approach 1:
The light therapy system dynamically adjusts wavelength, intensity, and pulse duration parameters based on real-time detection of patient-specific indicators such as tissue composition, muscle condition, and procedural status, enabling customized treatment optimization without requiring complex manual configuration
Solution Approach 2:
The system changes light energy parameters including wavelength selection, power output, and treatment duration based on detected patient indicators and treatment goals, allowing optimization of light therapy effectiveness for each patient while maintaining device simplicity through automated parameter adjustment
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
These systems reduce recovery time, improve procedural success, and enhance patient compliance by providing tailored and reproducible treatments that can be adjusted dynamically based on individual patient data, thereby improving muscle function and overall surgical outcomes.
Implementation Method 1
Electrical muscle stimulation (EMS) may be a treatment option for some patients
Implementation Method 2
Photobiomodulation is an example of non-ionizing light therapy including deployment of a light source to contact an exterior surface of a user
Data Source
AI summary
Described herein are therapeutic electrical muscle stimulation (EMS) apparatuses for improving outcomes and reducing recovery time associated with a medical procedure. Also described are methods and apparatuses (including light-therapy suits, user interfaces, feedback systems and control systems, etc.), which may include hardware, software and/or firmware, for light therapy (LT) systems for the diagnosis, prevention, treatment, and detection of diseases and conditions, including symptoms associated therewith.