A device for treating a user includes a housing having apertures. The housing has application areas including a convex top surface, a concave bottom surface, a convex rear surface, convex side surfaces and rounded protrusions extending away from the housing. A vibrational source is located in the housing to produce vibration at the application areas. A switch is in operative communication with the vibrational source to control operation of the vibrational source.

An inflatable compression wrap comprises two sheet members, two bonding wires and a surrounding pattern. The sheet members are connected from each other through the surrounding pattern and the bonding wires, so that a plurality of latitudinal air chambers are formed between the sheet members. Wherein a plurality of first airbag sections and at least one second airbag section are alternately arranged in the odd sequence of the latitudinal air chambers, and at least one first airbag sections and a plurality of second airbag sections are alternately arranged in the even sequence of the latitudinal air chambers; so that the first and the second airbag sections are alternately arranged along the latitudinal direction and a longitudinal direction. When the latitudinal air chambers are inflated, the different compression forces are respectively generated by the first and second airbag section of the latitudinal air chamber to improve the blood circulation of the patient.

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.

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 apparatus for performing compression therapy on a person. The apparatus comprises: i) a sleeve configured to encircle a first portion of a limb of the person and to hold the apparatus in place on the limb of the person; ii) a shell configured to encircle the first portion of the limb of the person, wherein the shell is positioned outside of the sleeve with respect to the first portion of the limb; iii) a bladder comprising at least one air cell, wherein the bladder is disposed between the sleeve and the shell; and iv) a control unit comprising an air pump, the control unit configured to cause the air pump to pump air into the at least one air cell, thereby inflating the bladder. The control unit is disposed within an interior compartment of the shell.

A garment for providing circulatory system disorder therapy includes a skin contacting layer, a backing layer, and a coupling. The backing layer is coupled to the skin contacting layer such that the skin contacting layer and the backing layer form a plurality of macro-chambers. A first one of the plurality of macro-chambers is partitioned into a plurality of micro-chambers. Each of the plurality of micro-chambers is in direct fluid communication with at least one other of the plurality of micro-chambers. The coupling is coupled to the backing layer and is configured to supply pressurized air directly into the first macro-chamber such that the pressurized air is delivered to a first one of the plurality of micro-chambers of the first macro-chamber.

A toe-tapping exercise machine includes: a foot rest part having a right foot rest adapted to seat a user's right foot thereon and a left foot rest adapted to seat the user's left foot thereon; and an operating part coupled to the foot rest part to allow toe portions of the foot rest part to tap each other, the operating part including: a driving motor for transferring rotating power; a right foot rest operator for receiving the rotating power from the driving motor to operate the right foot rest; and a left foot rest operator for receiving the rotating power from the driving motor to operate the left foot rest, the driving motor being disposed between the right foot rest operator and the left foot rest operator and having rotary shafts extended from both sides thereof.

An exercise device includes a foot support portion pivotably connected to a leg support portion and having a neutral position relative to a pivot axis. The support portion is configured to rotate about the neutral pivot axis in a first direction away from the neutral position and in a second direction away from the neutral position. The second direction is opposite the first direction. The exercise device also includes a resistance mechanism configured to exert a force on the foot support portion about the pivot axis opposite to the respective first and second directions of rotation of the foot support portion about the pivot axis.

An inflation garment for the treatment of DVT is operated by a portable, battery powered air pump and controller detachably mounted on the inflation garment. The controller is formed with hook-fastening devices on the bottom surface of the controller that is detachably engagable with the material on the outer surface of the inflation garment. To mount the controller, the inflation garment is folded to expose the air inlet and outlet ports on the inflation garment to facilitate the operative attachment of the controller ports, then the inflation garment is unfolded and pressed against the bottom surface of the controller to engage the hook fasteners with the material of the inflation garment. A supplemental support is provided to wrap at least partially around the inflation garment to enhance the support of the inflation garment on the patient's limb without slipping.

Arterial compression methods and apparatus may include high-frequency pulse waveforms applied to one or more cuffs on a limb. Additionally or alternatively, they may include high inflation rate configurations, such as may be used to more quickly inflate a cuff on a limb. They may also include inflating a cuff on a limb using a plurality of inflation pulses.