A bed with four moving wheels, the bed has ability to transfer the patient to the lateral bed along with the sheet, comprises two lifting jacks for raising or lowering the frame with sheets, two high power motors for moving the bed in the lateral direction by rack and pinion gears and four low power motors that rotate simultaneously and in opposite directions for locking the sheet at the four corners by rotation of motors and the whole system is powered by a battery and the motors and jacks are controlled by a control panel.

A pediatric patient support system is provided. The system includes a support extension configured to be removably coupled to a cradle of a table, wherein the support extension includes radial supports extending in a radial direction relative to a longitudinal axis of the cradle. The system includes a pair of rods, wherein each rod is coupled to a respective radial support and extends substantially parallel to the longitudinal axis. The system includes a patient support disposed between and coupled to the rods, the patient support being configured to support a pediatric patient, wherein the patient support is configured to move axially relative to the longitudinal axis along the rods to move the pediatric patient in and out of a central bore of a medical imaging system.

A reconfigurable portable load bearing structure which can be configured into an extended load bearing configuration or a collapsed configuration, comprising of a first, second and third plurality of rail segments that are each rotatably coupled together and a plurality of support segments or pads which are configured to selectively couple and latch into one of a plurality of positions on said first, second and third plurality of rail segments.

A spinal immobilization board (1) comprising a support body (2) adapted to support the torso and the head of a person; at least one apical anchoring strap (5) configured to secure the head of the person; and an anchoring belt (9) configured to secure a portion of the torso of the person. The board (1) further comprises a gripping means (11) comprising a first and a second lifting handle (12, 13) that are arranged in a respective perimeter portion of the board (1) and extend outwardly from the board. The first and second lifting handles (12, 13) are active on a portion of the board (1) adapted to be arranged near the armpits of the person in a handling condition of the board (1).

A spine board is provided having a skull tong anchor assembly slidably attached to the spine board where a push rod mechanism is used to apply traction force on the skull tong anchor assembly. The push rod mechanism includes a strain gauge device so that the traction force can be selected and monitored. The spine board can also include a mattress that can be attached to the spine board where the mattress includes integrated shoulder straps that can be partially detached therefrom to secure a patient to the spine board.

An automated system and methods are provided for coordinating a transfer of a patient between patient support apparatuses. The system includes first and second patient support apparatuses having a patient support surface supported by an adjustable frame. A controller is provided and is configured to communicate with at least one of the first and second patient support apparatuses. The controller includes programmable instructions to coordinate automated movements of at least one of the patient support apparatuses in order to couple the support apparatuses at a preferential transfer position, engage or monitor at least one safety feature, and provide an indication that it is safe to transfer the patient between the first and second patient support apparatuses.

The various embodiments disclosed herein relate to wheelchair systems for transporting a mobility-challenged passenger onto an aircraft and transfer that passenger into an aircraft seat. The implementations include systems with lift systems, belt systems, and/or transfer ramps.

A wheelchair includes a lower assembly including a lower frame having wheels rotatably mounted thereto, an upper assembly including an upper frame supporting a seat, a backrest and at least one movable armrest, and a lift mechanism configured to move the upper assembly relative to the lower assembly between a lowered position and a raised position, wherein a user can move sideways out of the seat in the raised position with the movable armrest lowered.

A transfer device includes a device body, and an articulated transfer platform. The articulated transfer platform include a distal platform segment and a plurality of intermediate platform segments. A distal locking mechanism is releasably securable to a locking mechanism of a lead intermediate platform segment, and locking mechanisms of successive intermediate platform segment are releasably securable to locking mechanisms of preceding intermediate platform segment. In a stowed position, the successive intermediate platform segments are positioned below the lead intermediate platform segment. In an extended position, the distal platform segment is located laterally away from the device body, the distal locking mechanism is secured to the locking mechanism of the lead intermediate platform segment, and the locking mechanism of a successive intermediate platform segment is secured to the locking mechanism of the lead intermediate platform segment.

A lift, a head support, and methods for use thereof for use with a surgical frame are provided. The lift and the head support can be used with the surgical frame that is capable of reconfiguration before, during, or after surgery. The surgical frame can include a main beam that can be rotated, raised/lowered, and tilted upwardly/downwardly to afford positioning and repositioning of a patient supported thereon, and the lift and the head support can be used in lifting the patient from a table/gurney and positioning the patient with respect to the main beam.