Inelastic Component Mounting for Wearable Compression and Thermal Therapy
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Solution Overview
Problem
Conventional temperature therapy devices have limitations such as limited re-usability, require pre-cooling or pre-heating, disrupt user rest, and are difficult to make in smaller form factors for easy transport.
Innovation Solution
A device with a compressive element, inflatable bladder, and temperature modulation assembly that applies compressive and thermal therapy, allowing for rapid transitions between hot and cold therapy modes, and is wearable for continuous therapy provision.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Duration of action of moving object
If conventional temperature therapy devices (ice packs, heating pads) are used, then temperature therapy can be applied, but the device requires pre-cooling or pre-heating and has limited re-usability
Solution Approach 1:
The patent applies phase change materials that undergo phase transitions (freezing/melting) to provide temperature therapy. The PCM capsules contain material that can be rapidly frozen and then provide cold therapy over an extended period, eliminating the need for pre-cooling of the entire device and enabling continuous re-use through rapid refreezing in a freezer.
Solution Approach 2:
The device segments the temperature therapy function into separate PCM capsules that can be independently frozen and replaced. This allows the main device body to remain at ambient temperature while only the therapeutic elements require freezing, significantly reducing pre-cooling time and enabling quick exchange of therapy elements.
2Ease of operation
If conventional temperature therapy devices are used, then temperature therapy can be applied, but the user must be close to external cooling/heating elements which disrupts rest
Solution Approach 1:
The temperature therapy device is pre-cooled by freezing PCM capsules in a freezer before use. This preliminary action stores the cooling capability within the device itself, eliminating the need for the user to access external cooling elements during therapy. The device can then be applied immediately and used without interruption for extended periods.
3Weight of moving object
If conventional temperature therapy devices are used, then temperature therapy can be applied, but the device cannot be made in smaller form factors for easy transport
Solution Approach 1:
The device uses flexible gel-like PCM capsules that can be molded into thin, conformable shapes. These flexible capsules allow the device to be made in a compact, wearable form factor that can be easily transported and applied to various body parts, while the gel material provides sufficient thermal mass for extended therapy duration.
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 device provides efficient, portable, and continuous temperature therapy with rapid mode transitions, enhancing user convenience and recovery by conforming to body contours and reducing recovery disruptions.
Implementation Method 1
the compressive element comprises an inflatable bladder... upon activation of the compressive element: (i) a compressive force can be applied to the body surface
Implementation Method 2
at least one temperature modulation assembly adapted to apply temperature treatment to the body surface of the user
Data Source
Figure 1A
Figure 1B
Figure 1C
AI summary
A device for applying compressive therapy is disclosed. According to one embodiment, the device has a top layer (122) and a bottom layer (124) adapted to contact a body surface of a user. The device further includes a compressive element (160) disposed between the top layer (122) and the bottom layer (124), where the compressive element (160) is configured such that, upon activation of the compressive element: (i) a compressive force is applied to the body surface and (ii) the compressive element curves to more closely conform to the bottom layer (124).