A patient lift system includes a lift housing, a base lift strap having a first end coupled to a lift housing and a second end coupled to a sling bar. The base lift strap is infection controlled. In one embodiment, a protective sleeve covers the base lift strap, wherein the protective sleeve has a first end and a second end. In another embodiment, the base lift strap is chemically treated to provide infection control.

The present invention provides a combined patient handling and surgical positioning system for use with a mechanical lift for positioning a patient on a surgical table. A pad assembly has a base with a top surface. The base has a plurality of handles attached thereto. The handles have openings defined therein. A foam top is fixedly mounted to the top surface of the base. At least one strap is attached to the pad assembly. The pad assembly is configured to prevent bunching when lifting or repositioning the patient during surgical table positioning changes required during surgery and the pad assembly is configured for movement in multiple directions during surgery. An elongate support member is configured to extend through the openings in the plurality of handles on the pad assembly. A plurality of lifting slings are configured to removably attach to the elongate support bar to the mechanical lift in a surgical theater.

Control unit (7), especially for a patient lift (1) comprising a base (10) and a power supply (8), said power supply (8) is releasably mounted on the base (10), and comprising locking means for retaining the power supply (8) on the base (10). The locking means comprises a set of slots and protrusions (17,18;20,22) on the base (10) and the power supply (8) and where the protrusions and slots engage each other, when the base (10) and the power supply (8) is displaced sideways in relation to each other. A tab (27) is arranged on an arm (24) of the locking handle (23). The tab (27) goes into the gap (28) between the base (10) and the power supply (8), when the locking handle (23) is locked. Thus, the protrusions (17,20) and slots (18,22) are in engagement with each other and at the same time functioning as a locking mechanism.

A modular patient lift system includes a ceiling grid, a plurality of rails, a gantry configured to traverse the ceiling grid via the plurality of rails, and a patient lift coupled to the gantry and configured to traverse the ceiling grid with the gantry. The modular patient lift system further includes one or more sensors provided on at least one of the plurality of rails, the gantry, and the patient lift, the one or more sensors configured to collect at least one of environmental data and position data.

A pump apparatus includes a pump configured for moving air, a housing supporting the pump, and an air output hose in communication with the pump. The housing further includes a rest for retaining a portion of the air output hose. The rest forms a u-shape having two side walls and a valley therebetween.

Embodiments of an inflatable transfer device including a top panel, a bottom panel coupled to the top panel to define an inflatable chamber therebetween, and a high-friction surface coupled to the top panel are disclosed. A top edge of each of the stringers is coupled to the top panel and a bottom edge of each of the stringers is coupled to the bottom panel. The high-friction surface is configured to maintain a patient in a fixed position when the inflatable transfer device and the patient are positioned at an angle with respect to a horizontal support surface.

A system includes a pump having a filter. The filter includes a HEPA material configured for filtering air and the pump used to inflate an inflatable device configured to support a patient. A kit includes a pump configured for moving air to inflate an inflatable device, and a removable filter including a HEPA material couplable to the pump and configured to filter the air to inflate the inflatable device. The inflatable device configured to support a patient on a supporting surface.

The present disclosure is related to systems and methods for controlling a patient bed of a medical device. A method includes determining whether a first gesture on the touch panel satisfies a first trigger condition; in response to determining that the first gesture satisfies the first trigger condition, generating, instructions for causing at least one icon to be displayed on the touch panel, the at least one icon being configured to control the movement of the patient bed; and determining at least one movement parameter of the patient bed based at least on a second gesture directed to the at least one icon.

An electric lifting and moving machine, including a bearing assembly consisting of a seat board to bear a user; a supporting assembly having a chassis; an electric lifting assembly having a motor driving assembly and a lifting assembly in transmission connection with each other; the lifting assembly is arranged on the chassis; at least one connection rod connected to the lifting assembly and the bearing assembly so that the lifting assembly drives the bearing the bearing assembly to move upward or downward; at least one castor on a bottom part of the chassis; and at least one foot brake assembly arranged on the chassis corresponding to the castor; in a parked state, the foot brake assembly contacts the castor to prevent it from rotating.

A patient transfer apparatus includes a seat assembly, a track assembly coupled to the seat assembly and including a track configured to engage the stairs in a stair traversing position, and front wheels coupled to the seat assembly for engagement with a floor in a transport position. The seat assembly includes a frame and a seat for supporting a patient. A front end of the track assembly is adjacent the front wheels without interfering with movement of the wheels in the transport position.