Abstract: A manifold assembly includes a manifold core defining an inlet tube, an outlet tube, a first projection configured to be fluidly coupled with a first bladder, and a second projection configured to be fluidly coupled with a second bladder. A connector is operably coupled to the manifold core and defines a first pathway region, a second pathway region, and release notches. A motor rotates the connector to a first position to fluidly couple the outlet tube with the first projection via the first pathway region and the inlet tube with the second projection via the second pathway region, to a second position to fluidly couple the first and projections with the release notches, and to a third position to fluidly couple the outlet tube with the second projection via the first pathway region and the inlet tube with the first projection via the second pathway region.

Abstract: A support surface assembly includes a covering defining an interior. Bladders are disposed within the interior. The bladders are operable between a deployed state and a non-deployed state. A manifold assembly is disposed within the interior of the covering. The manifold assembly includes a manifold core defining an inlet and multiple outlets. An engagement surface of the manifold core defines an inlet-connecting aperture in fluid communication with the inlet and multiple outlet-connecting apertures each in fluid communication with one of the multiple outlets. A connector includes an inner side that abuts the engagement surface of the manifold core. The inner side defines a recessed region. The connector is configured to be rotated by a motor to fluidly couple the inlet-connecting aperture with at least one of the outlet-connecting apertures to adjust the respective bladders between the deployed state and the non-deployed state.

Abstract: A patient support apparatus includes a frame having a head section moveably coupled to a seat section. At least one frame actuator is configured to raise and lower the frame relative to a floor. At least one head section actuator is configured to adjust an angle of the head section relative to the seat section. A patient support surface is positioned on the frame. The patient support surface includes a plurality of bladders. An air source is configured to inflate and deflate the plurality of bladders. A sensor is configured to detect the presence of a caregiver at a head end of the frame. A control circuitry adjusts a position of the frame in response to a command from a caregiver.

Abstract: A patient support apparatus includes a mattress that defines a plurality of grooves. A bladder is disposed within each groove. Each bladder is operable between a deployed state and a non-deployed state. A flap is disposed adjacent to each groove. Each flap includes a broad contact surface and a narrow contact surface. A manifold is in fluid communication with each bladder. The manifold is configured to direct fluid into each bladder to adjust the bladders between the deployed state and the non-deployed state, and consequently move the flaps between a raised position and a lowered position, respectively.

Abstract: A patient support apparatus includes a seat section, a head section rotatably coupled to the seat section, and a leg section rotatably coupled to the seat section to form a support surface for a patient. The support surface has a back area where the patient's back is positioned when the patient is positioned on the support surface, a leg area where the patient's legs are positioned when the patient is positioned on the support surface, and a foot area where the patient's legs are positioned when the patient is positioned on the support surface.

Abstract: A system for adjusting the height of a patient support surface on a bed includes one or more height adjustment actuators operable to adjust a height of the patient support surface above a floor surface; a controller connected to the one or more height adjustment actuators, the controller including a memory; and one or more user interface units connected to the controller, wherein the controller is configured to record as a stored actuator state a current state of the one or more height adjustment actuators in the memory in response to a first input signal from the one or more interface units, and is configured to operate the one or more height adjustment actuators to automatically return them to the stored actuator state in response to a second input signal from the one or more interface units.

Abstract: A system for adjusting the height of a patient support surface on a bed includes one or more height adjustment actuators operable to adjust a height of the patient support surface above a floor surface; a controller connected to the one or more height adjustment actuators, the controller including a memory; and one or more user interface units connected to the controller, wherein the controller is configured to record as a stored actuator state a current state of the one or more height adjustment actuators in the memory in response to a first input signal from the one or more interface units, and is configured to operate the one or more height adjustment actuators to automatically return them to the stored actuator state in response to a second input signal from the one or more interface units.

Abstract: A system for adjusting the height of a patient support surface on a bed includes one or more height adjustment actuators operable to adjust a height of the patient support surface above a floor surface; a controller connected to the one or more height adjustment actuators, the controller including a memory; and one or more user interface units connected to the controller, wherein the controller is configured to record as a stored actuator state a current state of the one or more height adjustment actuators in the memory in response to a first input signal from the one or more interface units, and is configured to operate the one or more height adjustment actuators to automatically return them to the stored actuator state in response to a second input signal from the one or more interface units.

Abstract: A system for adjusting the height of a patient support surface on a bed includes one or more height adjustment actuators operable to adjust a height of the patient support surface above a floor surface; a controller connected to the one or more height adjustment actuators, the controller including a memory; and one or more user interface units connected to the controller, wherein the controller is configured to record as a stored actuator state a current state of the one or more height adjustment actuators in the memory in response to a first input signal from the one or more interface units, and is configured to operate the one or more height adjustment actuators to automatically return them to the stored actuator state in response to a second input signal from the one or more interface units.

Abstract: A hospital bed includes a mattress support attached to an end panel of adjustable height. The panel comprises a lower frame and a movable upper frame defining between them two spaced vertical uprights, of telescopic structure, an actuating cylinder, and an extension amplification mechanism.

Abstract: A hospital bed includes a mattress support attached to an end panel of adjustable height. The panel comprises a lower frame and a movable upper frame defining between them two spaced vertical uprights, of telescopic structure, an actuating cylinder, and an extension amplification mechanism.