Compression garments and methods may include a head garment configured to be positioned around both sides of a head of a body from a posterior of the head to an anterior of the head (e.g., wherein the head garment may include a plurality of controllable head pressure applying regions positionable proximate at least cheeks and a posterior of the head) and a neck garment (e.g., coupled to the head garment). The compression garments and methods may also include a torso garment. Such garment portions may include one or more controllable pressure applying regions to move lymph from the head downward.

A garment includes a longitudinal arch support configured for supporting a longitudinal arch of a foot; and a transverse arch support that extends from the longitudinal arch support and is configured for supporting a transverse arch of the foot.

An amplitude-modulated pulsed direct current (DC) electrotherapy system may comprise an electrotherapy glove for insertion of a practitioner's hand and an exterior surface including an electrically conductive patient-contact surface for contacting a patient's skin during an electrotherapy-assisted physical manipulation treatment of the patient's muscle within a physical manipulation target region, a signal generator operably connected to the glove via an electrically conductive interface to deliver an amplitude-modulated pulsed DC electrical signal to the target region via the patient-contact regions of the glove, the amplitude-modulated pulsed DC electrical signal having an alternating current electrical signal for inhibiting painful sensation in the patient's skin within the target region due to application of the amplitude-modulated pulsed DC electrical signal mixed with a pulsed DC electrical signal frequency and amplitude capable of inducing relaxation of the patient's muscle to increase a portion thereof accessible to the practitioner for physical manipulation during the electrotherapy-assisted physical manipulation treatment.

A sleeve assembly is configured to provide heat therapy and massage therapy simultaneously. The sleeve assembly an outer sleeve operatively connected to an outer layer, a first pocket, and a second pocket. A rechargeable battery pack with controls is arranged in the second pocket through a second pocket opening. A heating element assembly is arranged within the first pocket through a first pocket opening attached to the rechargeable battery pack with controls with a cord. A user can wrap the outer sleeve around an arm to provide heat therapy and massage therapy to a client simultaneously.

A chest compression assist glove is disclosed herein. The chest compression assist glove solves numerous problems in the performance of CPR by a human and is intended to provide mechanical advantage for a single rescuer performing chest compressions. The chest compression assist glove disclosed herein mitigates the fatigue and degradation of performance experienced by the rescuer due to the high energy demands of performing an intrinsically mechanically disadvantaged action over a sustained period.

A garment provides therapeutic pressure to the body of a wearer in response to a two-factor authentication system. The garment includes reversibly inflatable chambers configured to press against the body of a wearer. The garment includes a pump fluidly connected to the chambers and a controller. The controller sends an inflation signal to the pump to inflate the chambers and a deflation signal to the pump to deflate the chambers. The garment includes touch-sensitive fabric. In some implementations, the controller sends the inflation signal to the pump in response to one or more touches to the touch responsive fabric. In some implementations, the controller sends the inflation signal to the pump in response to biometric data.

A haptic healthcare patient garment. The garment comprises a cloth an inflatable bladder, a radio transceiver, a plurality of sensors, a display, a processor communicatively coupled to the inflatable bladder, to the radio transceiver, to the sensors, and to the display, a memory communicatively coupled to the processor, and an application stored in the non-transitory memory that, when executed by the processor receives vital signs indications from the sensors, presents a plurality of vital signs values on the display, receives a command via the radio transceiver to provide a hug to a patient wearing the haptic healthcare patient garment, in response to receiving the command to provide a hug, causes the inflatable bladder to inflate, and causes the inflatable bladder to deflate, whereby the patient is given a hug by the garment from a remote well-wisher.

The present disclosure relates to energizing garments wearable by a user. The energizing garment is provided with compressive material and fingers (e.g., watershed fingers and/or massage (non-watershed) fingers) that can be positioned about the user's body to provide a combination of compression and penetrating massage to tissues that are oriented relative to watersheds of the user. The compressive material and fingers may be sized, shaped, oriented, or arranged in patterns to strategically energize the tissues of the user to release fluids, such as lymph, interstitial fluids, and/or blood, along or across the watersheds.

A vibrating headband to be worn by a user on a head of the user, the vibrating headband including a main body having a shape to wrap around apportion of the head of the user, an inner lining disposed on an inner surface of the main body, such that the inner lining contacts the portion of the head of the user, a vibrating motor to cause the vibrating headband to vibrate, and a power button to cause the vibrating motor to activate in response to the power button being pressed by the user.