A weighted walker attachment system generally comprises a kit of weighted walker attachments that can be mounted to standard walker or other assistive perambulatory device for use in physical therapy and rehabilitation. A plurality of weighted attachments are provided and adapted to be mounted at a variety of locations on an assistive device. The weight of each attachment can be adjusted, as needed, for example, by adding or removing individual weighted plates mounted on a base plate that itself is removably mounted to the assistive device. In alternate kits, interchangeable weighted attachments can be provided in varying weights, distinguished by optical and/or tactile indicators, and selectively mounted on the assistive device, either as an accessory or in replacing a portion of the device, such as extensions provided on a walker's legs, in accordance with a therapeutic rehabilitation plan for an individual patient.

A body weight support system includes a tether configured to be coupled to an attachment device worn by a user to couple the user to the body weight support system. A method of providing gait training includes defining a reference length of the tether when the attachment device is in an initial position and defining a threshold length of the tether. A first amount of body weight support is provided during the gait training as the user moves relative to a surface and the length of the tether is less than the threshold length. A second amount of body weight support is provided during the gait training as the user moves relative to the surface and the length of the tether is greater than the threshold length. The method further includes displaying data associated with the gait training on a display of an electronic device.

A training device may include a plurality of elongate shafts and at least one hinge structure interconnecting a pair of elongate shafts of the plurality of elongate shafts. The at least one hinge structure may be configured to allow a user to pivot the pair of elongate shafts relative to each other to select a desired angle between the pair of elongate shafts. In various embodiments, the at least one hinge structure comprises a hinge mechanism configured to be adjustable in discrete angle increments. Generally, the training device may be utilized in multiple configurations and may be adjusted and deployed in multiple different patterns to facilitate variable training exercises

Devices and methods are provided for promoting labour. An example device includes a platform and an upper portion. The platform includes a substantially level upper surface to receive a first foot of the user. The platform is substantially rigid to support the user's weight. The upper surface defines a height that provides an elevation differential between the first foot and a second foot of the user. The elevation differential can cause an uneven gait when the user walks while wearing the device. The upper portion is attached to the platform for releasably securing the platform to the first foot of the user. An example method involves positioning a first foot of a user on an upper surface of a platform device, securing the platform device to the first foot; and walking with the platform device secured to the first foot and a second foot of the user being free.

The present disclosure relates to systems and methods for measuring the location, the amplitude, and/or the direction of forces applied to a walking or running surface. An example system includes a pressure-sensitive sheet that extends along a first axis. The pressure-sensitive sheet includes a top surface and a bottom surface. A vertical force applied at a location along at least one of the top surface or the bottom surface forms an electrical path between the top surface and the bottom surface having a resistance, r.sub.f, that is inversely proportional to an amplitude of the vertical force. The system further includes read out circuitry configured to provide information indicative of the amplitude of the vertical force and the location of the vertical force along the first axis of the pressure-sensitive sheet.

Systems, devices, and methods for projecting an agility ladder onto a ground surface. A device may include a light source and an optical element configured to include an image of the agility ladder having a plurality of adjacent enclosed zones. The optical element may be positioned to allow the light source to project light through the optical element. The device may include at least one optical lens positioned such that the optical element is between the light source and the at least one optical lens. The at least one optical lens may be configured to magnify and project the image onto the ground surface. The device may include a plurality of sensors configured to detect an appendage partially or completely stepped within each of the plurality of adjacent enclosed zones. The device may include a processor coupled to the sensors and programmed to determine one or more training metrics.

An exercise step, usable for any of a variety of step exercises, can include a solid top surface that may be polygonal in shape. At least a portion of an underside of the exercise step can be formed in a honeycomb configuration, thereby reducing weight of the step as well as the material required to make the step. Handles may be formed by indentations in sides of the step for ease of lifting and positioning. The handles may be formed in opposites of the polygonal shape. In some embodiments, the polygonal shape may be symmetrical or may include longer and shorter sides in an alternating arrangement. At least a portion of the bottom of the step can be formed from an anti-slip material.

A therapeutic walking trainer with a foot receiving portion for receiving at least a sub-region the forefoot of a user or for forming a connection with a toe of a shoe, having at least one main carrier which can be displaced in and/or counter to an adjustment direction, and with an actively and/or passively operable adjustment unit for the relative adjustment, oriented essentially perpendicular to the adjustment direction, of the foot receiving portion relative to the at least one main carrier.

A physical therapy system including a boot assembly, a track assembly and a communications assembly is disclosed. The boot assembly includes a boot that is worn on the foot of the user with the knee that requires treatment. The boot includes a cushioned sole provided by a sponge within the boot. The sponge being entirely enclosed by a cover. The track assembly includes a track on which the boot is maneuvered on. The boot and the track having a low friction coefficient to allow the boot to easily slid on the track. The user may maneuver the boot in a manner that rehabilitates their knee. Within the boot is the communication assembly which includes a processor and sensors to gather data from the usage of the boot. The collected data is communicated to a mobile device allowing a user to track their therapy sessions and progress.

A stand type walking exercise device may include a body structure including a pair of side frames, a front frame for connecting the pair of side frames at the front of each of the pair of side frames, and a pair of first fastening frames protruding upward from the pair of side frames, a prop structure connected to the upper sides of the pair of side frames by the pair of first fastening frames to support a part of the user's body, a safety pad separably bound to the lower side of the prop structure, and a lower structure including support frames connected to the lower sides of the pair of side frames and in contact with and supported on the ground, and a pair of rotating parts formed on the support frames. The pair of rotating parts rotates independently of each other.