Abstract: A patient support apparatus includes a support surface, which includes at least one fluid bladder and a recess, and a fluid delivery system configured to deliver fluid to the bladder, with at least a portion of the fluid delivery system being located in the recess. The fluid delivery system includes a pump having a fluid output and a fluid input. The apparatus further includes a chamber wall that defines a chamber in fluid communication with the fluid input or output of the pump, with the chamber wall absorbing vibration from the pump when the pump is operated to output fluid at its fluid output.

Abstract: Hospital equipment includes a member and a clip mounting to the member. The clip includes a first clip member and a second clip member pivotally interconnected with the first clip member about a pivot axis. Each of the first and second clip members has a receiving portion for receiving the member. A biasing member urges the first clip member and the second clip member toward each other wherein when the first clip member and the second clip member straddle the frame or rail member and the frame or rail member is positioned in the receiving portions, the biasing member urges the first and second clip members to engage the frame or rail member. An accessory mounting member is configured for mounting an accessory to the clip and is coupled to one of the clip members wherein the clip may be used for mounting an accessory to the member.

Abstract: A patient support apparatus includes a support surface, which includes at least one fluid bladder and a recess, and a fluid delivery system configured to deliver fluid to the bladder, with at least a portion of the fluid delivery system being located in the recess. The fluid delivery system includes a pump having a fluid output and a fluid input. The apparatus further includes a chamber wall that defines a chamber in fluid communication with the fluid input or output of the pump, with the chamber wall absorbing vibration from the pump when the pump is operated to output fluid at its fluid output.

Abstract: Hospital equipment includes a member and a clip mounting to the member. The clip includes a first clip member and a second clip member pivotally interconnected with the first clip member about a pivot axis. Each of the first and second clip members has a receiving portion for receiving the member. A biasing member urges the first clip member and the second clip member toward each other wherein when the first clip member and the second clip member straddle the frame or rail member and the frame or rail member is positioned in the receiving portions, the biasing member urges the first and second clip members to engage the frame or rail member. An accessory mounting member is configured for mounting an accessory to the clip and is coupled to one of the clip members wherein the clip may be used for mounting an accessory to the member.

Abstract: A vibrating patient support apparatus has a spring loaded percussion device preferably for treatment of pulmonary problems of a patient. Preferably, the percussion device is part of a bed mattress and is located beneath an upper cushioning member of the mattress for patient comfort. The percussion device preferably has a resilient pad in contact with the cushioning member, a rigid member disposed below the pad, a plurality of springs engaged between the pad and rigid member, a cam in biased contact with the rigid member by the springs and an electric motor for rotating the cam.

Abstract: A vibrating patient support apparatus has a resonant referencing percussion device preferably located internally to a cover of a mattress of the apparatus. The percussion device delivers a percussion or vibration at a controlled operating frequency that is preferably slightly less than a resonant frequency located internal to the mattress of the apparatus. With the various weight distributions of a patient, the device is capable of determining the ever shifting resonant frequency via control signals received by a controller from a pressure sensor or accelerometer of the device. Because the operating frequency is slightly less than the natural resonating frequency, energy of the system is conserved. Because the operating frequency is not the controller calculated resonant frequency, wear on the device and potential damage is minimized.