Abstract:
An exercise device is disclosed. The exercise device includes an ankle rest structure and a housing. Within the housing, a drive mechanism is provided that is connected to the ankle rest structure. The drive mechanism moves the ankle rest in a reciprocating motion along a generally horizontal plane. The exercise device also includes a knee rest structure spaced away from the ankle rest and connected to the housing. In one embodiment, the knee rest is movable in a horizontal and vertical direction with respect to the housing.
Abstract:
A walking assist device has rotational actuators that generate drive forces from electric energy supplied from batteries provided in right and left leg links. If there is a difference in the SOCs of the batteries of the two leg links, then a controller controls the rotational actuators such that the drive force of the rotational actuator corresponding to a battery having a lower SOC is smaller than the drive forces of the rotational actuators in the case where the SOCs of the two batteries are the same, while the drive of the rotational actuator corresponding to a battery having a higher SOC is larger than the drive forces of the rotational actuators in the case where the SOCs of the two batteries are the same.
Abstract:
A walking assistance device including a pelvic frame (10) extending from a lower back to each lateral side of a user, and a belly belt (20) for securing the pelvic frame in position. A power generator (30) is attached to each lateral side of the pelvic frame. A power transmitting arm (40) can be attached to an output member (33) of the power generator simply by hooking an upper part of a base end (41) of the power transmitting arm onto an upper groove (38) of the output member, and pushing a latch member or a slider (46) provided in a lower part of the base end onto a lower groove (39) of the output member. The user wearing the pelvic frame (10) can easily attach the power transmitting arm (40) to the output end of the power generator (30) by easily using a single hand without requiring help.
Abstract:
A wearable device (10) to assist with the movement of limbs (50, 51) connected at a joint (52), the device (50) comprising: a linear motion generating unit (20) to generate linear motion, the unit (20) having distal end portions operatively connected to the limbs (50, 51), whereby the linear motion generated by the unit (20) causes the limbs (50, 51) to move and pivot about the joint (52); a force measuring unit (30) to measure a change of force applied to the limbs or linear motion generating unit (20); and a displacement measuring unit (40) to measure the displacement of the linear motion generating unit (20) when linear motion is generated; wherein a predetermined distance of linear motion having a predetermined velocity is generated by the linear motion generating unit (20) to assist with the movement of the limbs (50, 51) based on the change of force measured by the force measuring unit (30) or the displacement measured by the displacement measuring unit (40).
Abstract:
Portable devices and methods for preventing deep vein thrombosis (DVT) by assuring that the ankle is flexed and extended sufficiently to promote blood flow in the lower leg are disclosed. The device includes an actuator with a free movement mode that allows a patient to move freely between activations or to initiate movement to delay a next automatic activation.
Abstract:
A handheld, electromechanical device useful in mammalian body-care includes a one-piece housing, a unitary insert, and a removable cover. The one-piece housing has a single opening defined by a rim. The rim circumscribes a rim area, and the one-piece housing has a projected area that is substantially larger than the rim area. The unitary insert is dimensioned to be insertable through the opening defined by the rim, and it has a frame having disposed thereon electromechanical elements interconnected in an electrical circuit. The cover is arranged and configured to close the opening of the one-piece housing.
Abstract:
A powered rocking bed, as disclosed, comprises a longitudinal push-pull rod medially connected to a powered driver, the rod configured to provide an oscillating push-pull longitudinal force on a first and second distal end about an axis there between and a plurality of upper and lower rollers disposed adjacent each distal end of the longitudinal push-pull rod. The disclosed bedding device also includes a head and a foot longitudinal slide rail configured to receive a respective distal end of the push-pull rod, the slide rails configured to provide a sliding surface for the lower cam rollers and transfer the push-pull force into an oscillating head-foot vertical force at the upper rollers. The disclosure further includes a body support member medially connected to a pivot proximal the axis, the member configured to receive the oscillating head-foot vertical force from the upper rollers on a respective head and foot portion thereof.
Abstract:
A rehabilitation exercising equipment includes a main frame, a seat mounted on the main frame, and a pivot mechanism pivotally mounted on the main frame and pivotable relative to the seat. Thus, when a user is seated on the seat, he/she can apply a force on the pivot mechanism to pivot the pivot mechanism backward and forward so as to extend and contract the user's waist and back, thereby achieving an exercising or rehabilitating function.
Abstract:
A walking assist device evaluates the degree of asymmetry between a left motion oscillator, which is a waveform signal indicative of the time-dependent change form of an output of a left hip joint angle sensor, and a right motion oscillator, which is a waveform signal indicative of the time-dependent change form of an output of a right hip joint angle sensor. In order to reduce the degree of asymmetry, the value of at least one of a left bending coefficient, a left stretching coefficient, a right bending coefficient, and a right stretching coefficient is adjusted.
Abstract:
This patent describes an 8+2 degrees of freedom (DOF) intelligent rehabilitation robot capable of controlling the shoulder, elbow, wrist and fingers individually and allowing functional arm movements with accompanying trunk and scapular motions. The rehabilitation robot uses the following integrated rehabilitation approach: 1) it has unique diagnostic capabilities to determine patient-specific multiple joint and/or multiple DOF biomechanical and neuromuscular changes; 2) it stretches the stiff joints/DOFs under intelligent control to loosen up the specific stiff joints and to reduce excessive cross-coupling torques/movements between the specific joints/DOFs, which can be done based on the above diagnosis for subject-specific treatment; 3) the patients practice voluntary reaching and some functional tasks to regain/improve their motor control capability, which can be done after the stretching loosened up the stiff joints; and 4) the outcome will be evaluated quantitatively at the levels of individual joints, multiple joints/DOFs, and the whole arm.