Compression garment
In an embodiment, a compression garment can include one or more of a flex frame, a shape memory material, a backing, and a control module. In some variations, the flex frame can include a set of support regions, a set of cutout regions, a set of bridges, one or more terminals, and one or more rotation points. In some variations, the compression garment 100 can further include a fabric sleeve, one or more fasteners, a power module, and/or any other suitable component. The compression garment functions as a compression device (e.g., to improve circulation, enhance muscle recovery, etc.), and can additionally or alternatively function as a passive compression device, a heating and/or cooling device, or perform any other suitable functionality.
1. A compression garment, comprising:
a fabric sleeve;
a flex frame comprising:
a series of struts, each strut of the series of struts comprising a first groove arranged at a first edge of the strut and a second groove arranged at a second edge of the strut opposite the first edge; and
a series of spring links, each spring link of the series of spring links disposed between adjacent struts of the series of struts such that each spring link is connected to a central region between the first edge and the second edge of a first strut of the adjacent struts and a central region between the first edge and the second edge of a second strut of the adjacent struts, wherein each spring link extends outward from the central region of the first strut and the central region of the second strut toward opposite lateral edges of the flex frame;
a shape memory alloy configured to be disposed on the flex frame such that the shape memory alloy is retained in the first groove and the second groove of each strut of the series of struts and the shape memory alloy crosses over itself between adjacent struts of the series of struts;
a controller electrically connected to the shape memory alloy, the controller configured to apply a current to the shape memory alloy and, in response, the shape memory alloy transitions from a first length to a second length, the second length smaller than the first length, such that the series of spring links contract and an overall length of the flex frame decreases.
2. The compression garment of claim 1 , wherein the shape memory alloy is a shape memory alloy wire.
3. The compression garment of claim 1 , further comprising a connection from the controller to a vehicle power source.
4. The compression garment of claim 1 , wherein the controller is configured to apply a set of stimulation patterns, wherein each of the set of stimulation patterns comprises a current parameter for manipulation of the shape memory alloy and a temporal parameter associated with the current parameter.
5. The compression garment of claim 4 , wherein the flex frame is a first flex frame and further comprising a second flex frame, the first and the second flex frames controlled independently of each other, and wherein one of the set of stimulation patterns comprises a time delay between application of a current definition to the shape memory alloy disposed on the first flex frame and application of the current definition to another shape memory alloy disposed on the second flex frame.
6. The compression garment of claim 1 , further comprising a shape memory polymer at least partially surrounding the shape memory alloy, the shape memory polymer comprising an expanded state and a compressed state, wherein the transition from the expanded state to the compressed state occurs in response to a predetermined temperature change of the shape memory alloy.
7. The compression garment of claim 1 , further comprising a body of shape memory material coupled to at least one of the shape memory alloy and the flex frame, the body of shape memory material comprising a set of magnetic particles, wherein an applied magnetic field induces a morphological change in the body of shape memory material.
8. A compression garment, comprising:
a fabric sleeve;
a flex frame comprising:
a series of struts;
a series of spring links, each spring link of the series of spring links disposed between adjacent struts of the series of struts such that each spring link is connected to a central region of a first strut of the adjacent struts and a central region of a second strut of the adjacent struts, wherein each spring link extends outward from the central region of the first strut and the central region of the second strut toward opposite lateral edges of the flex frame;
a shape memory alloy configured to be disposed on the flex frame such that the shape memory alloy is retained by the series of struts and crosses over itself between adjacent struts of the series of struts.
9. The compression garment of claim 8 , further comprising:
a controller electrically connected to the shape memory alloy and configured to apply a current to the shape memory alloy and, in response, the shape memory alloy transitions from a first length to a second length, the second length smaller than the first length, such that the series of spring links contract and an overall length of the flex frame decreases.
10. The compression garment of claim 9 , further comprising a flexible backing coupled to an exterior surface of the flex frame, the flexible backing comprising a set of strips with a set of fasteners arranged at opposing ends of the set of strips.
11. The compression garment of claim 9 , further comprising a shape memory polymer surrounding one or both of the shape memory alloy and the flex frame.
12. The compression garment of claim 11 , wherein the shape memory polymer comprises a first morphological state and a second morphological state, wherein a transition from the first morphological state to the second morphological state is induced by a morphological change of the shape memory alloy.
13. The compression garment of claim 8 , wherein a thickness of the flex frame is greatest at each strut of the series of struts.
14. The compression garment of claim 8 , wherein each strut of the series of struts comprises a first groove arranged at a first edge of the strut and a second groove arranged at a second edge of the strut, the first groove and the second groove configured to retain the shape memory alloy.
15. The compression garment of claim 9 , wherein the series of struts comprises a magnetic element configured to provide a magnetic field for retention of the shape memory alloy.
16. The compression garment of claim 9 , wherein the shape memory alloy is a shape memory alloy wire.
17. The compression garment of claim 9 , further comprising a connection from the controller to a vehicle power source.
18. The compression garment of claim 9 , wherein the controller is configured to apply a set of stimulation patterns, wherein each of the set of stimulation patterns comprises a current parameter for manipulation of the shape memory alloy and a temporal parameter associated with the current parameter.
19. The compression garment of claim 18 , further comprising a biometric sensor subsystem, in communication with the controller, that generates a biometric dataset for a user, and wherein at least one of the current parameter and the temporal parameter is determined based on the biometric dataset of the user.
20. The compression garment of claim 18 , wherein the flex frame is a first flex frame and further comprising a second flex frame, the first and the second flex frames controlled independently of each other, and wherein one of the set of stimulation patterns comprises a time delay between the application of a current definition to the shape memory alloy disposed on the first flex frame and the application of the current definition to another shape memory alloy disposed on the second flex frame.