Stryker Corporation

Stryker Canadian Management, Inc.

Other

Michael Joseph Hayes

Krishna Sandeep Bhimavarapu

Aaron Douglas Furman

David Terrance Becker

Jonathan Mark Greenbank

Christopher John Hopper

Daniel Vincent Brosnan

Annie Désaulniers

Richard C Mayoras, Jr

Anuj K Sidhu

Vivek Shankar

Richard Anthony Derenne

Alexey Titov

Joshua Elmer Mix

Jason A Vanderplas

Martin W Stryker

Jean-Paul Dionne

Ming Chen

Kevin Mark Patmore

Thomas Alan Puvogel

Clifford Edwin Lambarth

Chad Conway Souke

Marko N Kostic

Jerald A Trepanier

Michael W Steffler

Brandon J Buckingham

Martin Plante

Bruce L MacDonald

Joseph E Mroz

John P Geer

William Dwight Childs

Michael T Brubaker

Adam Darwin Downey

Justin Jon Raymond

Jeffrey S Dunfee, Ii

James K Galer

Jason John Connell

Annie Desaulniers

Christopher Scott Jacob

Jonathan David Campbell

Michael Harry Lau

Connor Feldpausch StJohn

Anish Paul

Guy Lemire

Sujay Sukumaran

Marco Constant

Joshua Alan Mansfield

David Kim Soui Wan Fong

Lavanya Vytla

Janani Gopalkrishnan

Pascal Castonguay

Brian Keith Carpenter

Eileen Siew Chin Cheong Youne

Kurosh Nahavandi

Richard Paré

Christopher C Gentile

Robert G Cox

Marco Morin

Luc Petitpas

Richard J Bartow

Richard L McDaniel

Christopher J Cummings

Dale R Lehmann

Abel Laban-Dick Manumbu

David Neustaedter

Doug Harris

Ron Lancaster

Patrick Beyer

Randy Newsome

Richard C Mayoras

Bruce L Macdonald

Jr Mayoras Richard C

Conor Feldpausch StJohn

A person support apparatus includes sensors for monitoring aspects of a person positioned thereon. The outputs from the sensors are used to distinguish between new and prior occupants of the support apparatus, automatically zero an integrated scale system, distinguish between objects and humans on the support apparatus, determine if a person is sleeping or awake, monitor and characterize movement levels of the person, record a log of likely events regarding a support surface of the apparatus, propose identifications of objects added to or removed from the support surface, record force outputs, and/or other purposes. A person's sleep state may also be obtained and forwarded to a remote location. The sleep state data may be used to mute and/or control alerts or indicators, and/or to predict when a person is going to wake up and likely exit the support apparatus.

Patient support apparatus with patient information sensors

A location detection system identifies the locations of medical devices such as patient support apparatuses and/or patient care devices within a medical facility. The devices communicate via a wired connection to one or more medical facility systems (e.g. nurse call system, computer network, etc.), and/or via a wireless connection to such systems. The location detection system automatically determines location information of the devices and communicates the location information so that the recipient of any outgoing alerts and/or other information sent from the devices is apprised of the location of the particular device sending the alert or other information. Caregivers are thereby able to respond to the correct location of an alert, and software systems such as EMR systems, admission discharge and transfer (ADT) systems, etc. are able to correlate transmitted device data with the location and/or patient assigned to that location.

Location detection systems and methods

A patient support system includes a patient support apparatus and a powered device mounted relative to the patient support apparatus and an electrical circuit to power the powered device, with the electrical circuit having a wireless power receiver to inductively couple to and transfer electrical energy from a wireless power transmitter when the wireless power receiver is in proximity to the wireless power transmitter.

Patient support with energy transfer

A system is provided that comprises a patient support apparatus and a unit being independent from the patient support apparatus. The patient support apparatus comprises a support structure having a base and a patient support surface for a patient. The patient support apparatus also comprises an electrical distribution system, one or more electrical devices, and an energy storage device (ESD) configured to store energy to power the one or more electrical devices through the electrical distribution system. The unit is configured to autonomously interact with the patient support apparatus to remove the ESD from the patient support apparatus and/or to place a replacement ESD on to the patient support apparatus.

Energy storage device management for a patient support apparatus

A person support apparatus, such as a bed, cot, stretcher, or the like, includes an exit detection system that has, in some embodiments, multiple user-selectable modes. A first mode issues an alert in response to a static condition being met and the second mode issues an alert in response to a dynamic condition being met. The static condition may be defined by an unchanging boundary that triggers an alert if the occupant's center of gravity crosses the boundary. The dynamic condition may be defined by a changing boundary that triggers an alert if the occupant's center of gravity crosses it. The changing boundary may change based upon the occupant's height, weight, BMI, vital sign, or other characteristic. The changing boundary may also change based upon a position of one or more components of the person support apparatus, such as a siderail or Fowler section.

Person support apparatuses with exit detection systems

A patient handling device includes a frame for supporting a patient, a controller, and two alert lights which are activated when a controller detects an alert situation, such as, but not limited to, a patient exiting from the patient handling device. The controller is in communication with the alert lights and operable to monitor an integrated bed exit system. The alert lights are positioned adjacent the foot end corners of the frame and are viewable by a user positioned anywhere within a 270 degree section of a circle defined at the center of the patient handling device. The alert lights include one or more Light Emitting Diodes (LEDs).

Patient handling device including local status indication, one-touch fowler angle adjustment, and power-on alarm configuration

Patient support apparatuses, such as beds, cots, stretchers, recliners, operating tables, and the like include wireless mesh network transceivers that enable them to communicate with each other, and other devices, via mesh networks and/or ad hoc networks. One or more additional wireless transceivers are included, such as WiFi transceivers that enable direct communication with a healthcare facility network, such as an Ethernet. The mesh network communication between patient support apparatuses and other devices is used for any one or more of: extending the communication range of the existing IT infrastructure, efficiently routing data to the healthcare facility network, determining location of the patient support apparatuses and devices, transporting patient data from one patient support to the next as the patient moves, and for other aspects.

Patient support apparatus communication systems

A person support apparatus includes a first transceiver adapted to wirelessly communicate with a second transceiver of a headwall interface that is positioned off of the person support apparatus. A communication link is automatically established between the first and second transceivers without requiring a user of the person support apparatus to activate a designated control and without requiring the user to identify the headwall interface. The first transceiver includes a unique identifier assigned to the headwall interface in its messages to the headwall interface. The first transceiver may also automatically transmit a disconnect signal to the headwall interface indicating the termination of the communication link is not accidental. The disconnect signal is sent based on one or more of the following: (1) a brake being off, (2) an A/C power cord being unplugged; and/or (3) a signal strength between the transceivers decreasing.

Patient support apparatuses with wireless headwall communication

A monitoring system includes one or more units that are adapted monitor the radio frequency conditions of a facility or portion of the facility. The units include a packet sniffer and/or an RF spectrum analyzer. Sniffed packets and spectrum data are recorded and made available for analysis and display, either locally on the units or at one or more remote locations. The locations of the units are also gathered, thereby enabling correlation of the sniffed packets and/or RF spectrum data with locations within the facility. Real time RF conditions can thereby be gathered and used to improve the wireless communications within the facility and/or to ensure the wireless communication infrastructure of the facility is operating satisfactorily. The units may be person support apparatuses, such as beds, chairs, stretchers, cots, or the like.

Person support apparatuses with communication channel monitoring

An access system for managing users engaged in providing care to patients. A patient support apparatus is provided and comprises a frame, a patient support surface configured to support the patient, and a powered device having a function. An input system is disposed in communication with the powered device and is configured to receive input data. A user control system is disposed in communication with the input system and comprises an authorization module. The authorization module is configured to access a permission level for a user dictating whether the user has permission to operate the powered device with the input system to perform the function. The authorization module is further configured to determine performance data relating to performance of the user in caring for the patient based on the input data, and to modify the permission level based on the performance data.

Access systems for use with patient support apparatuses

Patient support apparatuses, such as beds, cots, stretchers, recliners, or the like, include control systems with one or more image, radar, and/or laser sensors to detect objects and determine if a likelihood of collision exists. If so, the control system controls the speed and steering of the patient support apparatus in order to reduce the likelihood of collision. The control system may be adapted to autonomously drive the patient support apparatus, to transmit a message to a remote device indicating whether it is occupied by a patient or not, and/or to transmit its route to the remote device. The remote device may determine an estimate of a time of arrival of the patient support apparatus at a particular destination and/or determine a distance of the patient support apparatus from the particular destination.

Patient support apparatuses with navigation and guidance systems

Growing community of inventors

Kalamazoo, MI, United States of America

Michael Joseph Hayes