Stryker Corporation

Umano Medical Inc.

Stryker Canadian Management, Inc.

Maax Bath, Inc.

Marco Morin

Guy Lemire

Jean-Paul Dionne

Pascal Castonguay

Richard Paré

Luc Petitpas

David Kim Soui Wan Fong

Steve Bolduc

Nicolas Cantin

Jimmy Laflamme

Sylvain Lacasse

Jean-Philippe Beaudet

Jérôme Marcotte

Richard Pare

Frederic Renaud

Michael Joseph Hayes

Christopher John Hopper

David Terrance Becker

Richard C Mayoras, Jr

Marco Constant

Steve Donnelly

Gabriel Mercier

Jean-Francois Girard

Jean Bizouard

Sébastien Viger

Luc Landry

Vincent Morissette

Jeffrey Joseph Thompson

Nadine Trepanier

Jonathan DesRochers

Francois St-Laurent

Mathieu Dufresne

David Wan Fong

Sebatien Lessard

A hospital bed comprising: a frame; a plurality of extendable patient support panels mounted to the frame, each patient support panel including a central section and at least one side section selectively movable laterally towards and away from the central section; a movement transmission assembly including at least one transmission member connecting at least two of the movable side sections for laterally moving at least one of the movable side sections when another one of the movable side sections is moved.

Hospital bed with adjustable width

There is described a door assembly for a bathing enclosure, comprising: a frame; a rotatable panel rotatably securable to a wall; and a slidable panel slidably secured to the frame, wherein a sliding motion of the slidable panel triggers a rotation of the rotatable panel, wherein the door assembly is movable between an open position and a closed position, wherein when the door assembly is in the closed position, the rotatable and slidable panels are adjacent to one another and are unparallel and wherein when the door assembly is in the open position, the rotatable and slidable panels overlap one another and are parallel together.

Door assembly for a bathing enclosure

A siderail assembly for a bed, the bed having a patient support assembly, the siderail assembly comprising: a siderail disposed in a siderail plane; a mounting member for mounting to the patient support assembly; at least two parallel connecting arms, each connecting arm having a first end pivotably connected to the mounting member and a second end pivotably connected to the siderail, each connecting arm being adapted to pivot relative to the siderail about a first pivot axis and to pivot relative to the mounting member about a second pivot axis to allow the siderail to pivot along an arcuate path relative to the mounting member, the first and second pivot axes being parallel to each other and angled relative to the siderail plane to allow the siderail to move in a direction perpendicular to the siderail plane when pivoting.

Siderail system for a bed

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.

Patient support apparatus with lift system

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.

Hospital bed

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. The display is configured to allow the user to select the functional component and control or monitor a function associated with the selected functional component and includes a touch-selectable icon at the display representative of a function associated with the selected component, and with the icon operable to adjust the function of the selected component.

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.

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.

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.

A patient support apparatus, such as a bed, stretcher, or the like, includes a support deck with a head section pivotable between a generally flat orientation and a raised orientation. As the head section pivots from the flat orientation to an intermediate orientation, the pivot axis of the head section remains generally stationary. As the head section pivots from the intermediate orientation to the raised orientation, the pivot axis of the head section moves. The support deck may include an intermediate section attached to the head section wherein a foot end of the intermediate section moves linearly in a horizontal plane as the head section pivots from the intermediate orientation toward the raised orientation.

Shearless pivot for bed

A patient bed includes a patient support, with a headboard, a footboard, and a plurality of side rails. One or more surfaces of the side rails or of the headboard or of the footboard includes a gap and a sealing cover for sealing the gap to facilitate cleaning and disinfection of the patient bed. For example, the cover may comprise a membrane that is applied to the surface, for example, by an adhesive. The adhesive may be releasable so that the membrane may be removed for replacement or to provide access to the gap for example, where the gap is formed between a control interface that is located in the surface.

A patient support apparatus, such as a bed, stretcher, or the like, includes a support deck having a plurality of pivotable sections adapted to support a patient thereon. A head section of the support deck generally supports a patient's torso and is movable between a generally horizontal orientation and a raised orientation. A CPR drop assembly allows the head section to be pivoted relatively quickly to the horizontal orientation in order to allow CPR (cardiopulmonary resuscitation) to be administered to the patient. The drop assembly may include a foot pedal having both a mechanical and electrical link to an actuator. The drop assembly may also be configured to operate in different manners depending upon the angular orientation of the head section at the time the drop assembly is initially activated.

CPR drop mechanism for a hospital bed

A patient bed includes a base, a patient support, and an elevation mechanism for raising or lowering the patient support relative to the base. The elevation mechanism comprises a first pair of arms and a second pair of arms, with both the pairs of arms mounted relative to the patient support and the base. The first pair of arms and the second pair of arms have pivot connections at the patient support, with the pivot connections of at least one pair of the pair of arms moving in a sinusoidal path when the patient support is raised or lowered with respect to the base.

The present invention provides a movable siderail apparatus () for use with a patient support apparatus. The siderail apparatus () is configured to move the siderail body () associated therewith in a clock-type swing movement relative to the patient support apparatus. Two or more support arms () are disposed between the intermediate frame or the deck support of the patient support apparatus and the siderail body (), each support arm () having two pivots (), a first () rotatably connecting it to the intermediate frame or deck support and a second () rotatably connecting it to the siderail body (), thereby enabling the siderail body () 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 () and a lower edge of the siderail () are substantially obtuse during rotational movement of the siderail (). In a second preferred embodiment, a guiding mechanism () is operatively connected to the cross-member () and two or more lower pivots (), such that the guiding mechanism () provides means for lateral movement of the siderail () toward and away from the support apparatus.

Growing community of inventors

Lévis, Canada

Marco Morin