A compression device particularly suited for DVT prophylaxis includes a disposable wrap and a re-usable controller removably mounted on the wrap to apply a tensioning force to the wrap when it is encircling the limb of a patient. The wrap includes an RF chip with a unique identifier and the controller includes an RF sensor and processor to authenticate the wrap before commencing a compression cycle. A kiosk is provided for storing a plurality of wraps for use by patients and a plurality of controllers to be used with any of the wraps. The processor of each controller can control an electric motor in the controller to tighten and loosen the wrap according to a compression protocol between a pre-tension compression force and maximum compression force. The amount of movement of the wrap changes as the patient's physiology changes while maintaining the pre-tension and maximum compression forces.

An automated chest compression device for performing CPR, with distance sensors disposed on a compressing mechanism and on a structure fixed relative to the CPR patient, for determining inferior/superior movement of the compressing mechanism over the course of multiple compressions.

A gastrointestinal stimulation devices including a random stimulation delivery mechanism(s), configured to provide stimuli to a bodily tissue in a vicinity of the stimulation capsule, the provided random stimuli being characterized by a stimulation parameter, and a control circuitry in communication with said physical stimulation delivery mechanism, and configured to set and alter the stimulation parameter non-systematically, thereby altering the characterization of the stimuli provided to the bodily tissue. The algorithm may be patient tailored, and may have a learning machinery which responds to data being received from the patient.

Venous therapy methods and apparatus improve arterial or venous blood flow, for example in the legs. Venous therapy can reduce venous backflow and can improve arterial therapy such as that provided by intermittent pneumatic compression therapy.

A shaking device includes at least one pad, a mover configured to reciprocally move the pad, and a mount configured to support the mover. The shaking device may be connected with a medical device using a feedback system. The shaking device may be configured to change settings based on readings from the feedback system.

A chest compression device with a chest compression belt assembly including guards and sensors operable with a control system to control operation of the system depending on detection of proper installation of the guards.

Compression garment (1) for a limb of a person, comprising a flexible body portion (2) having a first, limbward side (3) and a second side (4) opposing the first side (3), and at least one band (6) extending from a lateral side (30) of the body portion (2) for wrapping around the limb, wherein the band (6) comprises a fastener (13) such that the end of the band (6) is removably attachable onto the compression garment (1) when wrapped around the limb, whereby the body portion (2) further comprises at least one guiding element (10) providing a channel (9) for receiving the band (6) and guiding the band (6) back over itself when the band (6) spans over the first side (3) to provide an opening (8) for receiving the limb.

A CPR chest compression device with a cooling exhaust flow path configured to direct cooling air flow through the device. A CPR chest compression device with a battery retainer interoperable with the control system to provide for controlled shut-down when an operator attempts to remove the battery during operation.

A medical device system is disclosed that includes a wearable harness worn, during use, on a torso of a subject. Engines coupled to the wearable harness may apply an oscillation force to at least one treatment area of the subject in order to mobilize at least some secretions in an airway within the subject substantially adjacent to the at least one treatment area. The wearable harness may be secured on the subject using one or more straps coupled to the wearable harness. A controller may determine a tension force applied by at least one of the straps by receiving, measurements of at least one property from a force sensing element (e.g., a force sensor) integrated with the strap. The tension force may also be correlated to forces being applied to the subject by the engines.

An abdomen massaging system massages through selective application of heat, vibrations, and pressure the muscles of the abdomen for relieving menstrual pains and cramps. The system utilizes a massage belt that is wearable about the pelvis. The massage belt has a fastener, such as straps, that hold the body portion around abdomen. The massage belt is remotely regulated by a control unit or a remote controller to selectively generate vibration with a vibratory element, heat with a heat element, and pressure with a pressure element. These massaging components are controlled by a hands-free control unit that initiates a vibration signal, a heat signal, and a pressure signal to the massage belt. The heat element, vibratory element, and pressure element provide a perceptible stimulus to the pelvic area at predetermined times and intensities. The control unit regulates signals between a rest mode, a signal mode, a timer, and a speed control.