Hill-rom Services, Inc.

Welch Allyn, Inc.

Kenzi L Mudge

Britten J Pipher

Stephen R Embree

Brandon M Ayers

David Edward Quinn

Timothy Joseph Receveur

Douglas A Seim

Frederick Collin Davidson

Steven D Baker

Raymond A Lia

Ervin Goldfain

Jon R Salvati

Eric D Agdeppa

Collin Davidson

David J Maier

John A Lane

Craig M Meyerson

Thomas A Myers

Bradley T Smith

John S Schroder

Andrew S Robinson

Laura A Hassey

Pamela Wells

Ynjiun P Wang

Robert L Vivenzio

Eugene G Urrutia

Henry Joe Smith, Iii

Zhon Ye Chu

Charles A Lachenbruch

Richard Joseph Schuman, Sr

Michael T McMahon

Dan R Tallent

Michael Scott Hood

Matthew David Mullin

Frank E Sauser

Philippe Kaikenger

John V Harmeyer

Jean-Bernard Duvert

Yongji Fu

Varad Narayan Srivastava

Brandon P Fisk

Kiana Mathews Dezelon

Gregory J Shannon

Jennifer A Gunn

Frank LoMascolo

Cory Russell Gondek

Song Yong Chung

Matthew D Morgan

Mickael Audic

Christopher M Keegan

Brandon Smith

Jennifer Bergstrom

Jeffrey J Chiodo

Elizabeth A Kowal

David M Antos

Alonso De La Vega Gomez

Tanya M Hawthorne

Sinan Batman

Catherine Infantolino

Heinz-Hermann Dalbert

Matthew O'Neal

Ynjiun Paul Wang

Matthew O'NEAL

Henry Joe Smith Iii

Stephen Embree

Eugene Urrutia

A charting system is provided for use in a healthcare facility having a network. The charting system includes a microphone to receive voice inputs from a caregiver. A vital sign monitor obtains a vital sign from a patient and displays it. The system includes a communication device having a voice-to-text module that includes a processor coupled to the microphone. The processor operates a voice-to-text algorithm that converts the vital sign into text in response to the caregiver dictating the vital sign into the microphone. The processor initiates transmission of the vital sign to an EMR computer via the network after conversion of the at least one vital sign to text.

System for EMR vitals charting

A locating system includes a tag with body that has a first button and a second button, a driver configured to determine a type of button press of at least one of the first button and the second button, and a control unit in communication with the driver. The control unit is configured to communicate the type of button press determined by the driver. The tag also includes a transmitter in communication with the control unit. At least one receiver is configured to selectively communicate with the transmitter. A controller is in communication with the at least one receiver. The controller is configured to determine a location of the tag within a predefined area based on information from the at least one receiver, correlate the type of button press from the tag with a message, and generate a notification to communicate the message.

Tags for locating system of medical facility

A movement detection device includes a signal transmission device configured to transmit a radar signal transmission toward a target area and to receive reflected radar signals, and a signal analysis device configured to analyze the reflected radar signals to detect a movement in the target area that is indicative of micro-shivering. In response to detecting the micro-shivering, the movement detection device generates an alarm.

Micro-movement and gesture detection using radar

Systems for voice control of medical devices in a healthcare facility are disclosed herein. The systems employ continuous speech processing software, voice recognition software, natural language processing software, and other software to permit voice control of the medical devices. Systems are also provided for distinguishing which medical device from among multiple medical devices in a patient room is the particular medical device to be controlled by voice input from a caregiver or a patient.

Voice control in a healthcare facility

High-accuracy locating systems and methods are used for determining successful caregiver rounding, monitoring whether housekeepers have properly cleaned patient beds, or determining whether patients have ambulated sufficient distances during recovery. Patient beds having at least two locating tags are used for establishing patient care zones around the patient beds. Locating anchors and equipment tags are moved around a patient room to determine optimum locating anchor placement within the patient room based on signal quality values. A locating tag on a patient bed switches roles to operate as a locating anchor in response to the patient bed becoming stationary. A locating tag has a digital compass which is used to determine a field of good ranging relative to a front of a caregiver wearing the locating tag.

Ultra-wideband locating systems and methods

A caregiver location system includes a computer configured to track a location of a caregiver in a healthcare facility. A caregiver identification (ID) tag is worn by a caregiver and has a tag transmitter configured to communicate with a plurality of receivers. The plurality of receivers and the computer cooperate to form a locating system that is operable to determine a location of the caregiver ID tag. The computer collects data over time related to a caregiver location within the healthcare facility and determines a problem area within the healthcare facility where a determined caregiver location is inaccurate.

Method of historical identification and accuracy compensation for problem areas in a locating system

An example monitoring device for detecting and measuring a vital sign of a subject includes: a base; a battery mounted to the base; first and second transceivers attached to the base at opposing angles, and powered by the battery to transmit pulses and receive reflected pulses; an antenna powered by the battery, and configured to wirelessly transmit data acquired from the first and second transceivers; and a computing device powered by the battery, and operatively coupled to the first and second transceivers and the antenna, the computing device having a processing device and a memory storing instructions that, when executed by the processing device, cause the monitoring device to determine a respiration rate by detecting a cyclical change in distance based on the reflected pulses.

Vital sign detection and measurement

Systems and methods for EMR vitals charting

A system identifies a first position of a tag in a clinical environment based on first times at which first receivers received a first wireless signal from the tag. The system estimates a second position of the tag in the clinical environment based on second times at which second receivers received a second wireless signal from the tag. The system determines that a boundary is located between the first position and the second position, defines a path range around the first position of the tag based on an expected movement of the tag during a time interval between the first and second wireless signals, determines that the boundary lacks a door within the path range, adjusts the second position of the tag based on the boundary map, and transmits a message indicating that the tag is located at the adjusted position at the second time.

Intelligent location estimation for assets in clinical environments

An example system connects to a location engine in a mesh network, transmits a first message indicating a bus master service hosted by a bus master, and receives a message indicating a location service hosted by a location engine and an aggregation service hosted by an aggregator connected to the location engine. The bus master stores a first entry corresponding to the location service and a second entry corresponding to the aggregation service. The bus master transmits a request to access the location service; receives a response confirming a subscription to the location service; and receives timing data indicating times at which the multiple receivers in a clinical environment received a wireless signal from a tag. The bus master aggregates the timing data into a data stream and transmits data stream to the location service in accordance with the subscription.

Flexible mesh network for locating assets in a clinical environment

A system can identify a first position of a tag in a clinical environment based on first times at which first receivers received a first wireless signal from the tag. The system can estimate a second position of the tag in the clinical environment based on second times at which second receivers received a second wireless signal from the tag. The system determines that a boundary is located between the first position and the second position, defines a path range around the first position of the tag based on an expected movement of the tag during a time interval between the first and second wireless signals, determines that the boundary lacks a door within the path range, adjusts the second position of the tag based on the boundary map, and transmits a message indicating that the tag is located at the adjusted position at the second time.

Historical identification and accuracy compensation for problem areas in a locating system

Aspects of the subject disclosure may include, for example, a system adapted for determining from sensor data collected for a patient over a period of time a normative condition of a biological function of the patient, generating provisioning information according to the normative condition, detecting a first sensor coupled to the patient, and providing the provisioning information to the first sensor to enable the first sensor to detect an abnormal state of the biological function of the patient. Other embodiments are disclosed.

Method and apparatus for managing sensors

A system for identifying a location of a device includes a first antenna mounted to a plug. The first antenna surrounds one or more prongs of the plug, and the plug has a memory that stores a device ID. A second antenna receives the device ID from the first antenna when the plug is coupled to a power outlet. A controller uses a communication module to wirelessly transfer the device ID and a power outlet ID to a computer server. The computer server uses the device ID and the power outlet ID to determine the location of the device within a building.

Identification of device location in healthcare facility

Monitoring a patient can include a vital sign device including a skin contact and a demodulator circuit in communication with the electrically conductive skin contact, the demodulator circuit including: a physiological waveform data processing module configured to process the waveform data received from the electrically conductive skin contact; and a digitally encoded data processing module configured to detect and decode digitally encoded data modulated at the carrier frequency. Also included can be a signal conductive blanket including an extended touch point. A clinician contacts the extended touch point of the signal conductive blanket and the patient monitoring device to connect the vital sign device and the patient monitoring device.

Wireless sensors in medical environments

Growing community of inventors

Skaneateles, NY, United States of America

Kenzi L Mudge