Abstract: A patient support apparatus includes a patient support surface, a plurality of caster wheels supporting the patient support surface on a floor or ground surface, a brake for manually braking at least one caster wheel of the plurality of caster wheels, and a handle or pedal for manually operating the brake, with the handle or pedal at least having a brake position. The patient support apparatus also includes an electrical actuator configured to couple to the brake and to selectively output a driving force and a user interface in communication with the electrical actuator. In response to input at the user interface, the electrical actuator generating the driving force to actuate the brake to thereby brake the at least one caster wheel, and wherein the driving force of the actuator moves the handle or pedal to the brake positon when the actuator actuates the manually operable brake to brake the caster wheel.

Abstract: A patient support apparatus includes a base, a patient support, and a lift mechanism wherein the lift mechanism is coupled to the patient support by at least one upper pivot connection. The upper pivot connection includes an elongated slot and a pin captured in the elongated slot to form a sliding pivot axis, with the sliding pivot axis traveling along the elongated slot when the lift mechanism raises or lowers the patient support.

Abstract: A patient support apparatus includes a deck, a plurality of side rails, a control panel, and a plurality of subsystems, such as a bed exit system that detects when a patient may exit from the support apparatus, or a lifting mechanism to raise and lower the deck. A controller is in communication with the control panel and is adapted to monitor conditions regarding the side rails and/or the other subsystems. At least one lamp is also provided on the patient support apparatus that is adapted to be illuminated in a first manner when a plurality of monitored conditions remain in a desired state, and in a second manner when at least one of the plurality of monitored conditions changes to an undesired state.

Abstract: A patient support apparatus includes a base, a patient support, and a lift mechanism wherein the lift mechanism is coupled to the patient support by at least one upper pivot connection. The upper pivot connection includes an elongated slot and a pin captured in the elongated slot to form a sliding pivot axis, with the sliding pivot axis traveling along the elongated slot when the lift mechanism raises or lowers the patient support.

Abstract: A patient support apparatus includes a frame, with a barrier, and a patient support surface supported in the frame. The apparatus further includes a control system with a controller, which is incorporated into the surface or the frame, and which is in communication with at least one functional component associated with the surface or the frame for controlling or monitoring the functional component. The control system further includes a touch-screen display in communication with the controller for controlling the functional component, which is positioned in the barrier between the exterior and interior side of the barrier wherein the display is incorporated into the barrier and accessible at the exterior or interior side for access by a user.

Abstract: A patient support apparatus, such as a bed, cot, stretcher, gurney, surgical table, or the like, is disclosed that includes at least one form of wireless energy transfer and/or at least one form of wireless communication amongst its components. The wireless energy transfer may include the inductive transfer of electrical energy from the main body of the patient support apparatus to a mattress positioned thereon that uses electrical energy. Alternatively, the wireless energy transfer may include the inductive transfer or electrical energy from a stationary power station to the patient support itself. Or, the patient support apparatus may include both types of inductive energy transfer. The wireless communication may be between a controller on the main body of the patient support apparatus and a controller within, or coupled to, the mattress.

Abstract: A patient support apparatus includes a patient support surface, a manually operable brake operatively associated with the patient support surface, a manual brake activation handle or pedal for manually operating the manually operable brake, and an electrically powered actuator. The actuator is mechanically coupled to the manually operable brake and to the manual brake activation handle or pedal, and actuates the manually operable brake and moves the manual brake activation handle or pedal from a first position to a second portion in response to a signal at the patient support apparatus.

Abstract: A method of actuating a manually operable brake on a caster wheel of a patient support apparatus to stop motion of the apparatus includes electrically coupling the control system of the patient support to an actuator at the patient support, generating actuating signals with the control system based on input at the patient support apparatus, transmitting the actuating signals to the actuator to thereby actuate the actuator to output a driving force, and mechanically coupling the driving force of the actuator with the manually operable brake to thereby actuate the manually operable brake and thereby brake the caster wheels.

Abstract: A patient support apparatus, such as a bed, cot, stretcher, gurney, surgical table, or the like, is disclosed that includes at least one form of wireless energy transfer and/or at least one form of wireless communication amongst its components. The wireless energy transfer may include the inductive transfer of electrical energy from the main body of the patient support apparatus to a mattress positioned thereon that uses electrical energy. Alternatively, the wireless energy transfer may include the inductive transfer or electrical energy from a stationary power station to the patient support itself. Or, the patient support apparatus may include both types of inductive energy transfer. The wireless communication may be between a controller on the main body of the patient support apparatus and a controller within, or coupled to, the mattress.

Abstract: A patient support apparatus, such as a bed, stretcher, or cot, includes a patient support deck that is directly coupled to elevation adjustment mechanisms without the need for an intervening frame. The elevation adjustment mechanisms may be placed outside the perimeter of the support deck to allow the support deck to be lowered to a greater extent and provide room for attaching side rails to the support deck. The width of the patient support deck may be adjusted by way of extenders, and the sleep surface may also be adjusted by way of foldable strips. A jack type of actuator may be used to pivot the different sections of the support deck with respect to each other. The elevation adjustment mechanisms may include vertical threaded shafts that rotatingly engage threaded collars and raise or lower the collars when the shaft and the collar rotate with respect to each other.

Abstract: A patient support apparatus includes a frame, with a barrier, and a patient support surface supported in the frame. The apparatus further includes a control system with a controller, which is incorporated into the surface or the frame, and which is in communication with at least one functional component associated with the surface or the frame for controlling or monitoring the functional component. The control system further includes a touch-screen display in communication with the controller for controlling the functional component, which is positioned in the barrier between the exterior and interior side of the barrier wherein the display is incorporated into the barrier and accessible at the exterior or interior side for access by a user.

Abstract: A patient support apparatus may include a base frame, lift arms, an intermediate frame, a deck support having three articulating sections, a brake system, various drive motors, actuators, and sensors, at least one power source, communication devices, and at least one controller, wherein the lift arms, articulating sections, drive motors, brake system, and actuators may be controlled from the at least one controller and in response to signals received by the various sensors, while storing data internally and/or sending data to a remote location.

Abstract: A method of actuating a manually operable brake on a caster wheel of a patient support apparatus to stop motion of the apparatus includes electrically coupling the control system of the patient support to an actuator at the patient support, generating actuating signals with the control system based on input at the patient support apparatus, transmitting the actuating signals to the actuator to thereby actuate the actuator to output a driving force, and mechanically coupling the driving force of the actuator with the manually operable brake to thereby actuate the manually operable brake and thereby brake the caster wheels.

Abstract: A patient bed includes a base, a patent support supported by the base, and a control system. The patient support includes a pivotal head-end section, with the control system including an actuator to pivot the head-end section and being adapted to control the speed of the actuator and, further, to selectively increase the speed of the actuator to pivot the head-end section at a greater speed.

Abstract: The present invention provides a movable siderail apparatus (5) for use with a patient support apparatus. The siderail apparatus (5) is configured to move the siderail body (14) associated therewith in a clock-type swing movement relative to the patient support apparatus. Two or more support arms (20) are disposed between the intermediate frame or the deck support of the patient support apparatus and the siderail body (14), each support arm (20) having two pivots (30, 40), a first (40) rotatably connecting it to the intermediate frame or deck support and a second (30) rotatably connecting it to the siderail body (14), thereby enabling the siderail body (14) to be raised or lowered vertically by a rotation substantially parallel to the longitudinal direction of the patient support apparatus. In a first preferred embodiment, the angles defined between each support arm (20) and a lower edge of the siderail (9) are substantially obtuse during rotational movement of the siderail (9).

Abstract: The present invention provides a movable siderail apparatus (5) for use with a patient support apparatus. The siderail apparatus (5) is configured to move the siderail body (14) associated therewith in a clock-type swing movement relative to the patient support apparatus. Two or more support arms (20) are disposed between the intermediate frame or the deck support of the patient support apparatus and the siderail body (14), each support arm (20) having two pivots (30, 40), a first (40) rotatably connecting it to the intermediate frame or deck support and a second (30) rotatably connecting it to the siderail body (14), thereby enabling the siderail body (14) to be raised or lowered vertically by a rotation substantially parallel to the longitudinal direction of the patient support apparatus. In a first preferred embodiment, the angles defined between each support arm (20) and a lower edge of the siderail (9) are substantially obtuse during rotational movement of the siderail (9).

Abstract: A patient support apparatus, such as a bed, stretcher, or cot, includes a patient support deck that is directly coupled to elevation adjustment mechanisms without the need for an intervening frame. The elevation adjustment mechanisms may be placed outside the perimeter of the support deck to allow the support deck to be lowered to a greater extent and provide room for attaching side rails to the support deck. The width of the patient support deck may be adjusted by way of extenders, and the sleep surface may also be adjusted by way of foldable strips. A jack type of actuator may be used to pivot the different sections of the support deck with respect to each other. The elevation adjustment mechanisms may include vertical threaded shafts that rotatingly engage threaded collars and raise or lower the collars when the shaft and the collar rotate with respect to each other.

Abstract: A patient support apparatus may include a base frame, lift arms, an intermediate frame, a deck support having three articulating sections, a brake system, various drive motors, actuators, and sensors, at least one power source, communication devices, and at least one controller, wherein the lift arms, articulating sections, drive motors, brake system, and actuators may be controlled from the at least one controller and in response to signals received by the various sensors, while storing data internally and/or sending data to a remote location.

Abstract: A patient bed includes a base, a patent support supported by the base, and a control system. The patient support includes a pivotal head-end section, with the control system including an actuator to pivot the head-end section and being adapted to control the speed of the actuator and, further, to selectively increase the speed of the actuator to pivot the head-end section at a greater speed.

Abstract: A siderail support mechanism comprises a bottom cross-member having a first lower pivot and a second lower pivot, a first support arm and a second support arm. The first support arm includes a first upper pivot shaft and a first lower pivot shaft, the first upper pivot shaft being configured to pivotally attach to the siderail at a first upper pivot and the first lower pivot shaft configured to pivotally attach to the first lower pivot of the bottom cross-member. The first upper pivot includes an oblong slot. The second support arm includes a second upper pivot shaft having a locking cog for locking the siderail in a deployed position. A release handle is centrally positioned on the siderail to enable one-handed operation in disengaging the locking mechanism and lowering the siderail to a stowed position.