A warming device for the handrim of a wheelchair is disclosed herein to relieve discomfort caused by manually wheeling a wheelchair in cold and/or wet weather conditions. The warming device includes a hand interface, a mount, and a heating element. The warming device is configured to mount the tube of a handrim. The heating element of the warming device is coupled to an electronics system including a printed circuit board and a battery. The electronics system may be internal to the warming device, or may be housed in an external electronics box mounted similarly to the handrim or the rear wheel of the wheelchair.

A bed for therapeutic and recreational applications, comprises a frame structure, a mattress provided on the frame structure of the bed, a plurality of Light Emitting Diodes (LEDs) configured to emit electromagnetic radiation, an infrared heater assembly provided within the frame structure, the infrared heater assembly including a plurality of flexible heating elements connected with a power source, a plurality of temperature sensors provided at a plurality of locations on the frame structure and the mattress in order to generate signals in correlation with temperature values at the plurality of locations. Further, the frame structure includes a plurality of frame segments adapted to rotate to respective predetermined angles. Also, the mattress is made from at least partially transparent material and includes a fluid that is at least partially transparent.

A medical battery module for vacuum mattresses and heating mats includes a battery compartment and a battery that is removable from and insertable into the battery compartment. The battery is electrically connectable or connected to a heating support of the vacuum mattress or of the heating mat. The battery compartment is padded with a shock-resistant material and the shock-resistant material is at least partly sheathed by a liquid-repellent film. The battery module is either separate from the heating support or lies on the heating support.

A patient support is provided. The patient support may include a plurality of inflatable members. The plurality of inflatable members may include a core including a resilient material. The patient support may be controlled with a first controller positioned within an envelope of the patient support. The patient support may include a detector to detect when an external controller is coupled to the patient support, the patient support being controlled by the second controller when the second controller is present.

A device (4) aligns and connects a housing hood (3) to a housing (2). The device (4) has a first connecting piece (5) and a second connecting piece (6). The first connecting piece (5) has a clamp bearing element (51) and the second connecting piece (6) has a lamella element (61). The lamella element (61) is arranged movably along the clamp bearing element (51). The device (4) has a clamping element (7) for clearance-free clamping the lamella element (61) with the clamp bearing element (51). An alignment of the hood (3) on a housing (2) can be carried out simply and rapidly and requires only weak clamping forces.

A method and system tilts an infant-care medical device. In one example, the method and system pivots the infant-care device about the tilt axis by releasing a tilt platform of the infant-care medical device using an actuator to allow the tilt platform to pivot about the tilt axis. The method and system also selectively adjusts a rotational position of the tilt platform relative to a tilt axis. As the tilt platform pivots about the tilt axis, the system and method dampens pivoting of tilt platform using a damper. As so dampened, the pivoting of the tilt platform is counter-balanced such that vibration and/or movements that may be felt by an infant within the infant-care medical device may be reduced.

A multifunctional mattress having a mattress body and a heating/cooling pressurization apparatus connected to the mattress body; the mattress body comprises independent pressurized circular balloons, alternatingly pressurized square balloons, heating/cooling air supply tubes, and pressurized tubing; the two sides of said heating/cooling air supply tubes are provided with small blow holes; the independent pressurized circular balloons (3) has a surface layer and a bottom layer; the surface layer and bottom layer are joined to form a plurality of independent closed balloons (33); at a position corresponding to the head are independent pressurized circular balloons; the alternatingly pressurized square balloon areas can be inflated or deflated by means of balloons causing the upper layer of sealed balloons to rise or fall.

A climate-controlled bed capable of adapting to the needs of a sleeper via a closed loop feedback control system is provided. The bed includes a thermoelectric energy source, a sensor configured to monitor a physiological temperature of a sleeper, and a control system that regulates a temperature of the bed via the thermoelectric energy source. The control system can utilize data from the sensor to determine optimal thermal needs of the sleeper. The control system can also vary the temperature of the bed during a sleep cycle based on at least one predetermined sleep factor, such as the natural circadian temperature cycle.

A patient support apparatus includes a frame having a patient support deck. A footboard is removably coupled to the frame. A compression therapy module is located inside the footboard or is mounted to a foot section of the frame. A sleeve port is pneumatically coupled to the compression therapy module and is located on the foot section. The sleeve port is configured for attachment to at least one tube extending from a compression sleeve worn on a limb of a patient. Control circuitry is coupled to the frame and is operable to control functions of the patient support apparatus and to control the compression therapy module. A graphical display screen is coupled to the control circuitry and displays user inputs that are selected to control functions of the patient support apparatus and the compression therapy module.

There can be provided an incubator (11) which relatively readily stores a cassette tray (61) in a cassette tray accommodation space (62) or takes out the cassette tray (61) from the cassette tray accommodation space (62) through one of a plurality of tray loading/unloading ports (63a-63c) even if a doctor or nurse performs an operation in a region including the outside of the cassette tray accommodation space (62) and its vicinity or even if a sophisticated article such as a sophisticated medical apparatus exists in the region including the outside of the cassette tray accommodation space (62) and its vicinity. In this incubator (11), the cassette tray accommodation space (62) includes at least two tray loading/unloading ports (63a-63c) of a front tray loading/unloading port (63a), a rear tray loading/unloading port, a left tray loading/unloading port (63b), and a right tray loading/unloading port (63c).