The present invention discloses a deep vein thrombosis (“DVT”) device that is portable, tubeless, and battery-operated, which ensures that the patient will have maximum mobility during recovery. The DVT device provides a pneumatically controlled bladder portion, which is actuated by an electronically controlled air pump, where the pump/bladder combination is enclosed in a “pocket” of a wrap or cuff during use. All pump, battery, and control components are protectively housed in a plastic case that is permanently attached to the bladder portion. Once the pump/bladder combination is placed in the “pocket” the wrap or cuff will be sealed. The wraps or cuffs are single use, disposable garments designed to provide an absorbent barrier during use, where the bladder portion and air pump remain clean during use and can be reused by the patient or hospital staff. Tabs or extensions may be used to secure the pump/bladder combination after insertion into the “pocket” of the wrap or cuff.

An air pump device for a massage device includes a recognition device to acquire a type of the massage device via a wireless communication with an identification device of the massage device, and a controller to set an operation pattern based on the type of the massage device. The controller controls a pump connectable to an inflatable bladder of the massage device, based on the operation pattern.

A patient-worn therapeutic apparatus that includes a boot, a plate, and a selectively inflatable bladder. The boot is configured to accommodate a patient's foot and the plate is pivotally disposed within the boot. By one approach the pivot point is disposed proximal to the foot's arch when the patient's foot is accommodated by the boot. The selectively inflatable bladder is disposed on an underside of the plate and is configured to cause the plate to selectively pivot the patient's foot towards the patient when the patient's foot is accommodated by the boot.

Techniques and devices for extending a piston and/or compression unit, for example connected to a medical device such as a mechanical CPR device, to accommodate different sized patients, are described herein. In some cases, a piston of a mechanical CPR device may include an inner piston at least partially slidable into an external piston sleeve. In one aspect, some aspects, the piston includes sleeves which can move relative to each other to extend the piston. In additional aspects, the compression mechanism may also extend downward toward the patient. In all aspects, the change in length of the piston may be detected and used to modify movement of the piston, for example to more safely perform mechanical CPR.

A system and method for performing tissue therapy may include applying a reduced pressure to a tissue site, sensing a fluid parameter being applied to the tissue site, generating a fluid sensor signal in response to sensing the fluid parameter, and altering the fluid sensor signal in response to sensing that the fluid parameter changes. A fluid leak location mode may be entered. In response to the fluid leak location mode being entered, a graphical user interface that provides for fluid leak location functionality may be displayed. In one embodiment, the fluid leak location mode may be automatically entered in response to the sensor signal crossing a threshold value. Additionally, an alarm signal may be generated in response to determining that the fluid sensor signal crosses the threshold value.

The present disclosure relates to an assisted exoskeleton rehabilitation device, comprising: a back structure comprising a back crossbeam, a back supporting panel with an adjustable length, and a shoulder pneumatic muscle element mounted on the back supporting panel; an arm structure; a shoulder joint assembly, by which the arm structure is connected to an upper end of the back structure; and a waist structure. An upper end of the back supporting panel is fixedly connected to the back crossbeam, and a lower end thereof is fixedly connected to the waist structure. The shoulder joint assembly comprises a curved shoulder joint connecting panel, a shoulder traction wheel, a shoulder traction line, a first hinge mechanism and a second hinge mechanism. One end of the shoulder joint connecting panel is connected to the upper end of the arm structure by the first hinge mechanism to form a bend-stretch revolute pair of the shoulder joint, and the other end of the shoulder joint connecting panel is connected to the back crossbeam by the second hinge mechanism to form an abduction-adduction revolute pair and a medial rotation-lateral rotation revolute pair of the shoulder joint assembly, and the shoulder traction wheel is fixed to the upper end of the arm structure. The shoulder traction line is connected at one end to the shoulder traction wheel, and connected to the shoulder pneumatic muscle element at the other end.

A cooling compression sleeve device generally including three layers, a flexible bottom layer, a flexible middle layer, and a flexible top layer, and two voids, the first void substantially filled with a cooling agent and the second void including a selectively inflatable air bladder, which in its preferred form is portable, cleanable, reusable, and useful to provide cooling therapy to the limbs of humans or animals and particularly to the knee, shoulder, and elbow joints.

Systems and methods described herein include a pressure delivery component that has a pressure applicator configured to selectively apply therapeutic pressure to a treatment portion of a user body, and also includes a thermal delivery component that has a thermal applicator that is a configured to apply thermal treatment to the treatment portion. The thermal applicator may be removably disposable in operative relationship with the pressure delivery component in a use configuration of the treatment delivery component such that the thermal applicator is disposable between the treatment portion and the pressure applicator when the treatment delivery component is disposed on the treatment portion in the use configuration. Moreover, the pressure applicator is operable to apply pressure to the thermal applicator to enhance apposition of the thermal applicator to the treatment portion.

A pneumatic module has an air passage formed therein, including an air inlet to receive a source of pressurized air, a first subsystem with an air splitter in fluid communication with the air inlet, a second subsystem, and a third subsystem. The air splitter is configured to create two unequal air pressure fields to deflect an airflow from the air inlet to the second subsystem. The second subsystem is configured to create two unequal air pressure fields to deflect the airflow toward a first air bladder to inflate the first air bladder, and when the first air bladder reaches a first threshold air pressure, a first backpressure from the first air bladder causes the second subsystem to switch and deflect the air flow to a second air bladder. A second backpressure causes the air splitter to switch and deflect the airflow from the second subsystem to the third subsystem.

A tissue expander configured to be worn by a user having a shell having an aperture formed within the shell to receive tissue expanded by a distracting force. The shell has a skirt providing a skin contact surface area against the skin of the patient, the aperture defining an aperture surface area, wherein the skin contact surface area is greater than the aperture surface area, and wherein the skirt is non-fixedly attached to the skin of the patient and slides laterally outwardly.