University of Delaware

Other

Northern Arizona University

James Cole Galloway

Sunil K Agrawal

Ralph Douglas Cope

Kim Ferrara

Kyle N Winfree

Nanette Gopez

Xi Chen

Christina B Ragonesi

Sherry Liang

Steven A Cope

Stephen Dolph

Zachary R Schoepflin

Tim Braucht

Ji-Chul Ryu

A multi-room in-home harness system is disclosed. Specific implementations may include a first plurality of tracks including a first track system in a first room, a trolley that may be configured to moveably couple to a track of the first plurality of tracks and move along a horizontal plane of the track, and a cart coupled to the trolley, where the trolley may be configured to move the cart along each track of the first plurality of tracks and may also be configured to transfer the cart from the first plurality of tracks to a second plurality of tracks in a second room.

Multi-room in-home harness system

A gantry system supports a human user in a harness attached to a carriage on a track. The carriage may comprise a body defining a U-shaped or C-shaped opening sized to receive a cylindrical track, and a pair of wheels attached to the body that roll along a top portion of the track with sufficiently minimal drag to permit the user to move the carriage without assistance. Single track embodiments may have a straight or curved trajectory and may have intersecting track portions with junctions that move between the intersecting track portions. In other embodiments, the carriage traverses a perpendicular track spanning a pair of parallel tracks. The perpendicular track may traverse the parallel tracks with or without motorized assistance. A counterweight system may provide partial weight support for the user. In one embodiment, the tracks are supported by a collapsible free-standing structure.

Open area harness system for providing patient mobility

Powered mobility systems and methods are disclosed. A powered mobility system includes a mobile unit, a support frame, a plurality of markers, a motion capture device, and a processor. The mobile unit is operable to move the powered mobility system. The support frame is adapted to support a user. The plurality of markers are configured to be attached to the user. The motion capture device is configured to detect movement of the plurality of markers. The processor is programmed to receive signals from the motion capture device, translate the signals into instructions for moving the mobile unit, and transmit the instructions to the mobile unit. A powered mobility method includes placing a user in a support frame, attaching a plurality of markers to the user, detecting movement of the plurality of the markers, and generating movement of the mobile unit based on the movement of the plurality of the markers.

Powered mobility systems and methods

A powered mobility device for advancing cognitive, perceptual and motor abilities of a child lacking natural mobility is disclosed. The device includes a seat sized for the child to be secured therein and a motorized drive assembly coupled to the seat. A local operating instrument is operably coupled to the drive assembly for operating and steering the drive assembly. The local operating instrument is positioned to allow manipulation by the child seated in the seat. A processor is operatively coupled to the motorized drive assembly and to a local steering instrument. The processor is adapted to transmit a signal to the motorized drive assembly and the local steering instrument to control the mobility device. A method for advancing cognitive, perceptual and motor abilities of a child by using the device is also disclosed.

Intelligent powered mobility for infants and special needs children

Growing community of inventors

Elkton, MD, United States of America

James Cole Galloway