An adjustable supine cycling machine is an apparatus that efficiently exercises and strengthens abdominal muscles. The apparatus targets the all of the abdominal muscles from all angles. As the user pedals, the user may retract or extend his or her legs and tilt his or her legs in order to activate all the muscles of the abdominal region. The apparatus includes a leg-exercising device, a support base, a lifting arm, and a linear actuator. A spherical bearing allows the tilt of the leg-exercising device. The leg-exercising device is preferably a cycling machine. The lifting arm pivots the leg-exercising device about the support base and is controlled by the linear actuator. The apparatus preferably applies resistance to the rotary movement of the leg-exercising device in order to strengthen the abdominal muscles. The resistance is adjusted by a control unit.

An end range of motion improving device is disclosed including, first and second link members to independently rotate an upper leg and a lower leg of a patient, having a controller to selectively rotate the link members, and a networked computing system to facilitate communication between the controller and other networked devices.

An end range of motion improving device is disclosed including, first and second link members to independently rotate an upper leg and a lower leg of a patient, having a controller to selectively rotate the link members, and a networked computing system to facilitate communication between the controller and other networked devices.

A pulmonary expansion therapy (PXT) device may be a handheld device that covers specific lung fields and may generate negative pressure fields locally. The device also may provide vibratory/percussion therapy for airway clearance. The PXT may generate a localized negative pressure field non-invasively to the exterior of the chest wall, thereby increasing the functional residual capacity in underlying lung fields. As a result, increased ventilation and perfusion to the targeted internal lung field may be achieved by creating a decrease in the external barometric pressure relative to the more positive intrinsic airway pressures. The PXT device also may improve lung compliance by enabling a medical professional to grab and elevate the chest wall to compensate for the dysfunction of the respiratory musculature responsible for lifting the chest wall. In some embodiments, once a targeted functional residual capacity (FRC) has been established, vibration or percussion may be applied.

A multimodal haptic device operating as a closed-loop system, the device including a pipeline configured to allow a closed-loop flow of a fluid medium, a manifold operatively connected to the pipeline, the manifold having a pump and a valve to control and regulate a flow of the fluid medium along the pipeline, and a display unit operatively connected to the pipeline, the display unit having a tactile display and a valve operatively connected to the tactile display for regulating an efflux of the fluid medium from the tactile display into the pipeline.

An end range of motion improving device is disclosed including, first and second link members to independently rotate an upper leg and a lower leg of a patient, having a controller to selectively rotate the link members, and a networked computing system to facilitate communication between the controller and other networked devices.

Devices and methods for CPR chest compression with active decompression.

A pulmonary expansion therapy (PXT) device may be a handheld device that covers specific lung fields and may generate negative pressure fields locally. The device also may provide percussion therapy for airway clearance. The PXT may generate a localized negative pressure field non-invasively to the exterior of the chest wall, thereby increasing the functional residual capacity in underlying lung fields. As a result, increased ventilation and perfusion to the targeted internal lung field may be achieved by creating a decrease in the external barometric pressure relative to the more positive intrinsic airway pressures. The PXT device also may improve lung compliance by enabling a medical professional such as a Respiratory Therapist/Care provider to grab and elevate the chest wall to compensate for the dysfunction of the respiratory musculature responsible for lifting the chest wall during normal breathing. In some embodiments, once a targeted functional residual capacity (FRC) has been established, percussion may be applied with increased effectiveness due to greater oscillatory movement of chest wall.

An electrotherapy system includes a control device, a pulse generator and an electrode pad unit. The control device receives a user input associated with one of twelve meridians of a human, and outputs a control signal associated with the one of the twelve meridians. The pulse generator generates an electrical stimulation signal according to a reference frequency of a reference signal and the one of the twelve meridians with which the control signal is associated. The electrode pad unit contacts a user at a location corresponding to the one of the twelve meridians, and is coupled to the pulse generator for introducing the electrical stimulation signal from the pulse generator to the user.

A respiratory therapy apparatus includes components operable to simultaneously provide a High Frequency Chest Wall Oscillation (HFCWO) therapy and a Mechanical Insufflation/Exsufflation (MIE) therapy to a patient. The respiratory therapy apparatus includes a controller that controls a synchronization of the HFCWO therapy and the MIE therapy to provide respiratory therapy to the patient to effectively clear mucous or induce deep sputum from the lungs of patient.