Acoustic patient sensor coupler
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1
Assignment
First Claim
1. An acoustic sensor configured to non-invasively detect acoustic vibrations indicative of one or more physiological parameters of a patient, the acoustic sensor comprising:
- a frame;
a sensing element supported by the frame, the sensing element configured to output a signal responsive to acoustic vibrations associated with a patient when the acoustic sensor is attached to the patient; and
a one piece integral acoustic coupler supported by the frame and configured to be coupled with an area of the skin of the patient, the acoustic coupler comprising;
a bottom surface comprising a dielectric material that electrically decouples the area of the skin of the patient from the sensing element when the acoustic sensor is attached to the patient, the bottom surface having no openings and forming a barrier between the patient and the sensing element;
one or more air vent holes on at least two sidewalls of the acoustic coupler and aligned with at least one pressure equalization pathway in the frame; and
a top hole configured to be stretched open, from an unstretched state, to enable receiving the frame and the sensing element, wherein;
the top hole is further configured to stretch back to the unstretched state after the frame and the sensing element are received by the acoustic coupler, andthe acoustic coupler covers at least a portion of a top of the frame.
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Accused Products

Abstract
According to certain described aspects, multiple acoustic sensing elements are employed in a variety of beneficial ways to provide improved physiological monitoring, among other advantages. In various embodiments, sensing elements can be advantageously employed in a single sensor package, in multiple sensor packages, and at a variety of other strategic locations in the monitoring environment. According to other aspects, to compensate for skin elasticity and attachment variability, an acoustic sensor support is provided that includes one or more pressure equalization pathways. The pathways can provide an air-flow channel from the cavity defined by the sensing elements and frame to the ambient air pressure.
786 Citations
SELECTIVE AMPLIFICATION OF AN ACOUSTIC SIGNAL | ||
Patent #
US 20170354796A1
Filed 06/08/2017
|
Current Assignee
Ford Global Technologies LLC
|
Sponsoring Entity
Ford Global Technologies LLC
|
Selective amplification of an acoustic signal | ||
Patent #
US 10,065,013 B2
Filed 06/08/2017
|
Current Assignee
Ford Global Technologies LLC
|
Sponsoring Entity
Ford Global Technologies LLC
|
Non-invasive physiological sensor cover | ||
Patent #
US 10,188,331 B1
Filed 10/02/2018
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Non-invasive physiological sensor cover | ||
Patent #
US 10,194,848 B1
Filed 10/02/2018
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Magnetic connector | ||
Patent #
US 10,205,272 B2
Filed 10/07/2016
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Pogo pin connector | ||
Patent #
US 10,205,291 B2
Filed 02/05/2016
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Arm mountable portable patient monitor | ||
Patent #
US 10,213,108 B2
Filed 03/03/2017
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Physiological measurement device | ||
Patent #
US 10,219,706 B2
Filed 10/11/2018
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Oximeter probe off indicator defining probe off space | ||
Patent #
US 10,219,746 B2
Filed 06/20/2016
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Patient-worn wireless physiological sensor | ||
Patent #
US 10,226,187 B2
Filed 08/31/2016
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Physiological parameter alarm delay | ||
Patent #
US 10,255,994 B2
Filed 02/12/2018
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Monitor configuration system | ||
Patent #
US 10,292,664 B2
Filed 07/29/2016
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Physiological alarm threshold determination | ||
Patent #
US 10,325,681 B2
Filed 02/12/2018
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Fold flex circuit for LNOP | ||
Patent #
US 10,327,337 B2
Filed 02/05/2016
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Modular multi-parameter patient monitoring device | ||
Patent #
US 10,327,713 B2
Filed 02/23/2018
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Physiological monitor | ||
Patent #
US 10,335,072 B2
Filed 11/14/2016
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Physiological measurement device | ||
Patent #
US 10,335,033 B2
Filed 11/21/2018
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Acoustic respiratory monitoring sensor having multiple sensing elements | ||
Patent #
US 10,349,895 B2
Filed 12/01/2016
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Modular patient monitor | ||
Patent #
US 10,354,504 B2
Filed 11/15/2017
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Bidirectional physiological information display | ||
Patent #
US 10,357,209 B2
Filed 06/06/2017
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Physiological alarm threshold determination | ||
Patent #
US 10,366,787 B2
Filed 02/12/2018
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Flowometry in optical coherence tomography for analyte level estimation | ||
Patent #
US 10,368,787 B2
Filed 05/13/2015
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Wireless patient monitoring systems and methods | ||
Patent #
US 10,383,527 B2
Filed 08/31/2016
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Localized projection of audible noises in medical settings | ||
Patent #
US 10,388,120 B2
Filed 02/26/2018
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Hemoglobin display and patient treatment | ||
Patent #
US 10,413,666 B2
Filed 10/20/2017
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Low power pulse oximeter | ||
Patent #
US 10,433,776 B2
Filed 10/29/2018
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Nasal/oral cannula system and manufacturing | ||
Patent #
US 10,441,196 B2
Filed 01/22/2016
|
Current Assignee
MASIMO Sweden AB
|
Sponsoring Entity
MASIMO Sweden AB
|
Systems and methods for patient fall detection | ||
Patent #
US 10,448,844 B2
Filed 08/31/2016
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Advanced pulse oximetry sensor | ||
Patent #
US 10,448,871 B2
Filed 06/28/2016
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Optical sensor including disposable and reusable elements | ||
Patent #
US 10,463,284 B2
Filed 12/04/2017
|
Current Assignee
Masimo Laboratories Inc.
|
Sponsoring Entity
Masimo Laboratories Inc.
|
Acoustic respiratory monitoring systems and methods | ||
Patent #
US 10,463,340 B2
Filed 10/14/2010
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
JP Morgan Chase Bank N.A.
|
Advanced pulse oximetry sensor | ||
Patent #
US 10,470,695 B2
Filed 12/19/2018
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Non-invasive physiological sensor cover | ||
Patent #
US 10,478,107 B2
Filed 05/24/2019
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
METHODS AND APPARATUS FOR PRODUCING AND USING LIGHTLY FILTERED PHOTOPLETHYSMOGRAPH SIGNALS | ||
Patent #
US 20110028802A1
Filed 07/31/2009
|
Current Assignee
Nellcor Puritan Bennett Ireland
|
Sponsoring Entity
Nellcor Puritan Bennett Ireland
|
Sine saturation transform | ||
Patent #
US 7,904,132 B2
Filed 12/16/2008
|
Current Assignee
JP Morgan Chase Bank N.A.
|
Sponsoring Entity
Masimo Corporation
|
ADHESIVE PATCH FOR MONITORING ACOUSTIC SIGNALS | ||
Patent #
US 20110034831A1
Filed 12/16/2008
|
Current Assignee
ACARIX AS
|
Sponsoring Entity
ACARIX AS
|
MEDICAL MONITORING SYSTEM | ||
Patent #
US 20110001605A1
Filed 03/03/2010
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Variable indication estimator | ||
Patent #
US 7,873,497 B2
Filed 01/29/2009
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Non-invasive measurement of second heart sound components | ||
Patent #
US 7,909,772 B2
Filed 04/15/2005
|
Current Assignee
ANDROMED INC.
|
Sponsoring Entity
ANDROMED INC.
|
Physiological trend monitor | ||
Patent #
US 7,880,606 B2
Filed 02/12/2008
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Physiological monitor | ||
Patent #
US 7,899,507 B2
Filed 05/03/2006
|
Current Assignee
JP Morgan Chase Bank N.A.
|
Sponsoring Entity
Masimo Corporation
|
Systems and methods for indicating an amount of use of a sensor | ||
Patent #
US 7,910,875 B2
Filed 03/06/2007
|
Current Assignee
JP Morgan Chase Bank N.A.
|
Sponsoring Entity
Masimo Corporation
|
Method and apparatus for reducing coupling between signals in a measurement system | ||
Patent #
US 7,865,222 B2
Filed 01/23/2006
|
Current Assignee
Cercacor Laboratories
|
Sponsoring Entity
Cercacor Laboratories
|
Non-invasive tissue glucose level monitoring | ||
Patent #
US 7,899,518 B2
Filed 09/12/2005
|
Current Assignee
Masimo Laboratories Inc.
|
Sponsoring Entity
Masimo Laboratories Inc.
|
Physiological monitor | ||
Patent #
US 7,891,355 B2
Filed 05/03/2006
|
Current Assignee
JP Morgan Chase Bank N.A.
|
Sponsoring Entity
Masimo Corporation
|
System and method for monitoring the life of a physiological sensor | ||
Patent #
US 7,880,626 B2
Filed 10/12/2006
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Physiological monitor | ||
Patent #
US 7,894,868 B2
Filed 05/05/2006
|
Current Assignee
JP Morgan Chase Bank N.A.
|
Sponsoring Entity
Masimo Corporation
|
Variable aperture sensor | ||
Patent #
US 7,937,129 B2
Filed 03/21/2006
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
ACOUSTIC RESPIRATORY MONITORING SYSTEMS AND METHODS | ||
Patent #
US 20110125060A1
Filed 10/14/2010
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
JP Morgan Chase Bank N.A.
|
Cyanotic infant sensor | ||
Patent #
US 7,937,128 B2
Filed 06/30/2005
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Signal processing apparatus | ||
Patent #
US 7,937,130 B2
Filed 12/19/2008
|
Current Assignee
JP Morgan Chase Bank N.A.
|
Sponsoring Entity
Masimo Corporation
|
MEDICAL MONITORING SYSTEM | ||
Patent #
US 20110105854A1
Filed 10/14/2010
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
JP Morgan Chase Bank N.A.
|
Robust alarm system | ||
Patent #
US 7,962,188 B2
Filed 10/12/2006
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Low noise oximetry cable including conductive cords | ||
Patent #
US 7,919,713 B2
Filed 04/16/2008
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
PERSONAL DIGITAL ASSISTANT OR ORGANIZER FOR MONITORING GLUCOSE LEVELS | ||
Patent #
US 20110082711A1
Filed 10/05/2010
|
Current Assignee
Masimo Laboratories Inc.
|
Sponsoring Entity
Masimo Laboratories Inc.
|
Rapid non-invasive blood pressure measuring device | ||
Patent #
US 7,951,086 B2
Filed 11/12/2009
|
Current Assignee
JP Morgan Chase Bank N.A.
|
Sponsoring Entity
Masimo Corporation
|
Physiological parameter confidence measure | ||
Patent #
US 7,957,780 B2
Filed 03/01/2006
|
Current Assignee
Cercacor Laboratories
|
Sponsoring Entity
Cercacor Laboratories
|
Sepsis monitor | ||
Patent #
US 7,941,199 B2
Filed 05/15/2007
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Cercacor Laboratories
|
Transducer for sensing body sounds | ||
Patent #
US 7,940,937 B2
Filed 12/23/2003
|
Current Assignee
THINKLABS MEDICAL LLC
|
Sponsoring Entity
THINKLABS MEDICAL LLC
|
Signal processing apparatus | ||
Patent #
US 7,962,190 B1
Filed 07/07/1998
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
ACOUSTIC RESPIRATORY MONITORING SENSOR HAVING MULTIPLE SENSING ELEMENTS | ||
Patent #
US 20110213273A1
Filed 10/14/2010
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
JP Morgan Chase Bank N.A.
|
WELLNESS ANALYSIS SYSTEM | ||
Patent #
US 20110230733A1
Filed 01/19/2011
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
JP Morgan Chase Bank N.A.
|
Virtual display | ||
Patent #
US 7,990,382 B2
Filed 01/03/2007
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
SMMR (small molecule metabolite reporters) for use as in vivo glucose biosensors | ||
Patent #
US 8,008,088 B2
Filed 06/26/2006
|
Current Assignee
Cercacor Laboratories
|
Sponsoring Entity
Cercacor Laboratories
|
ACOUSTIC PATIENT SENSOR | ||
Patent #
US 20110213272A1
Filed 10/14/2010
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
JP Morgan Chase Bank N.A.
|
BIDIRECTIONAL PHYSIOLOGICAL INFORMATION DISPLAY | ||
Patent #
US 20110172551A1
Filed 10/14/2010
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
JP Morgan Chase Bank N.A.
|
BIDIRECTIONAL PHYSIOLOGICAL INFORMATION DISPLAY | ||
Patent #
US 20110224567A1
Filed 10/14/2010
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
JP Morgan Chase Bank N.A.
|
ACOUSTIC RESPIRATORY MONITORING SENSOR HAVING MULTIPLE SENSING ELEMENTS | ||
Patent #
US 20110213271A1
Filed 10/14/2010
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
JP Morgan Chase Bank N.A.
|
WIRELESS PATIENT MONITORING SYSTEM | ||
Patent #
US 20110208015A1
Filed 01/20/2011
|
Current Assignee
JP Morgan Chase Bank N.A.
|
Sponsoring Entity
JP Morgan Chase Bank N.A.
|
Wearable auscultation system and method | ||
Patent #
US 7,976,480 B2
Filed 12/09/2004
|
Current Assignee
Motorola Solutions Inc.
|
Sponsoring Entity
Motorola Solutions Inc.
|
PHYSIOLOGICAL ACOUSTIC MONITORING SYSTEM | ||
Patent #
US 20110172561A1
Filed 10/14/2010
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
JP Morgan Chase Bank N.A.
|
Plethysmograph pulse recognition processor | ||
Patent #
US 7,988,637 B2
Filed 05/03/2006
|
Current Assignee
JP Morgan Chase Bank N.A.
|
Sponsoring Entity
Masimo Corporation
|
SYSTEM AND METHOD FOR MONITORING THE LIFE OF A PHYSIOLOGICAL SENSOR | ||
Patent #
US 20110172967A1
Filed 01/27/2011
|
Current Assignee
JP Morgan Chase Bank N.A.
|
Sponsoring Entity
JP Morgan Chase Bank N.A.
|
Miniature apparatus and method for optical stimulation of nerves and other animal tissue | ||
Patent #
US 7,988,688 B2
Filed 09/28/2006
|
Current Assignee
Nervesense Ltd
|
Sponsoring Entity
Lockheed Martin Aculight Corp.
|
Noise rejecting electronic stethoscope | ||
Patent #
US 7,991,165 B2
Filed 10/04/2006
|
Current Assignee
the united states of america as represented by the secretary of the navy
|
Sponsoring Entity
the united states of america as represented by the secretary of the navy
|
MULTIPLE-WAVELENGTH PHYSIOLOGICAL MONITOR | ||
Patent #
US 20110237911A1
Filed 03/28/2011
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
CALIBRATION FOR MULTI-STAGE PHYSIOLOGICAL MONITORS | ||
Patent #
US 20110196211A1
Filed 12/03/2010
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
JP Morgan Chase Bank N.A.
|
ADAPTIVE ALARM SYSTEM | ||
Patent #
US 20110213212A1
Filed 02/28/2011
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
JP Morgan Chase Bank N.A.
|
Signal processing apparatus | ||
Patent #
US 8,019,400 B2
Filed 08/20/2007
|
Current Assignee
JP Morgan Chase Bank N.A.
|
Sponsoring Entity
Masimo Corporation
|
Systems and methods for acquiring calibration data usable in a pulse oximeter | ||
Patent #
US 7,991,446 B2
Filed 05/08/2006
|
Current Assignee
JP Morgan Chase Bank N.A.
|
Sponsoring Entity
Masimo Corporation
|
Resposable pulse oximetry sensor | ||
Patent #
US 8,000,761 B2
Filed 05/02/2006
|
Current Assignee
JP Morgan Chase Bank N.A.
|
Sponsoring Entity
Masimo Corporation
|
ACOUSTIC RESPIRATORY MONITORING SENSOR HAVING MULTIPLE SENSING ELEMENTS | ||
Patent #
US 20110213274A1
Filed 10/14/2010
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
JP Morgan Chase Bank N.A.
|
PULSE OXIMETRY SYSTEM WITH LOW NOISE CABLE HUB | ||
Patent #
US 20110209915A1
Filed 10/14/2010
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
JP Morgan Chase Bank N.A.
|
Noninvasive hypovolemia monitor | ||
Patent #
US 7,976,472 B2
Filed 09/06/2005
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Signal processing apparatus | ||
Patent #
US 8,046,041 B2
Filed 06/21/2007
|
Current Assignee
JP Morgan Chase Bank N.A.
|
Sponsoring Entity
Masimo Corporation
|
Pulse oximetry data confidence indicator | ||
Patent #
US 8,046,040 B2
Filed 04/04/2006
|
Current Assignee
JP Morgan Chase Bank N.A.
|
Sponsoring Entity
Masimo Corporation
|
Respiratory monitoring | ||
Patent #
US 8,028,701 B2
Filed 05/31/2007
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Laboratories Inc.
|
SMMR (small molecule metabolite reporters) for use as in vivo glucose biosensors | ||
Patent #
US 8,029,765 B2
Filed 12/23/2004
|
Current Assignee
Cercacor Laboratories
|
Sponsoring Entity
Cercacor Laboratories
|
Fluid titration system | ||
Patent #
US 8,048,040 B2
Filed 09/11/2008
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Multiple wavelength sensor drivers | ||
Patent #
US 8,050,728 B2
Filed 03/01/2006
|
Current Assignee
Cercacor Laboratories
|
Sponsoring Entity
Cercacor Laboratories
|
Signal processing apparatus | ||
Patent #
US 8,036,728 B2
Filed 06/21/2007
|
Current Assignee
JP Morgan Chase Bank N.A.
|
Sponsoring Entity
Masimo Corporation
|
Methods for noninvasively measuring analyte levels in a subject | ||
Patent #
US 8,036,727 B2
Filed 06/02/2006
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
GLT Acquisition Corporation
|
METHOD AND APPARATUS FOR MONITORING BREATHING CYCLE BY FREQUENCY ANALYSIS OF AN ACOUSTIC DATA STREAM | ||
Patent #
US 20110288431A1
Filed 11/16/2009
|
Current Assignee
University Health Network
|
Sponsoring Entity
University Health Network
|
Signal processing apparatus | ||
Patent #
US 8,046,042 B2
Filed 06/21/2007
|
Current Assignee
JP Morgan Chase Bank N.A.
|
Sponsoring Entity
Masimo Corporation
|
DISPOSABLE COMPONENTS FOR REUSABLE PHYSIOLOGICAL SENSOR | ||
Patent #
US 20100317936A1
Filed 05/18/2010
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
ACOUSTIC SENSOR ASSEMBLY | ||
Patent #
US 20100274099A1
Filed 12/21/2009
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
JP Morgan Chase Bank N.A.
|
Multiple wavelength sensor equalization | ||
Patent #
US 7,647,083 B2
Filed 03/01/2006
|
Current Assignee
Cercacor Laboratories
|
Sponsoring Entity
Masimo Laboratories Inc.
|
MULTI-STREAM DATA COLLECTION SYSTEM FOR NONINVASIVE MEASUREMENT OF BLOOD CONSTITUENTS | ||
Patent #
US 20100030040A1
Filed 08/03/2009
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Multiple wavelength sensor emitters | ||
Patent #
US 7,764,982 B2
Filed 03/01/2006
|
Current Assignee
Cercacor Laboratories
|
Sponsoring Entity
Cercacor Laboratories
|
Physiological measurement communications adapter | ||
Patent #
US 7,844,315 B2
Filed 05/03/2006
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Physiological monitor | ||
Patent #
US 7,761,128 B2
Filed 04/13/2005
|
Current Assignee
JP Morgan Chase Bank N.A.
|
Sponsoring Entity
Masimo Corporation
|
Physiological measurement communications adapter | ||
Patent #
US 7,844,314 B2
Filed 02/01/2005
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Stethoscope with frictional noise reduction | ||
Patent #
US 7,806,226 B2
Filed 12/21/2005
|
Current Assignee
3M Innovative Properties Company
|
Sponsoring Entity
3M Innovative Properties Company
|
Multiple wavelength sensor substrate | ||
Patent #
US 7,761,127 B2
Filed 03/01/2006
|
Current Assignee
Cercacor Laboratories
|
Sponsoring Entity
Cercacor Laboratories
|
Configurable physiological measurement system | ||
Patent #
US 7,729,733 B2
Filed 03/01/2006
|
Current Assignee
Cercacor Laboratories
|
Sponsoring Entity
Cercacor Laboratories
|
HEAT SINK FOR NONINVASIVE MEDICAL SENSOR | ||
Patent #
US 20100004518A1
Filed 07/02/2009
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
PATIENT MONITOR WITH VISUAL RELIABILITY INDICATOR | ||
Patent #
US 20100094096A1
Filed 10/14/2008
|
Current Assignee
Shenzhen Mindray Bio-Medical Electronics Co. Ltd.
|
Sponsoring Entity
Shenzhen Mindray Bio-Medical Electronics Co. Ltd.
|
Two-stage calibration of medical probes | ||
Patent #
US 7,860,553 B2
Filed 02/09/2006
|
Current Assignee
Biosense Webster Incorporated
|
Sponsoring Entity
Biosense Webster Incorporated
|
Optical spectroscopy pathlength measurement system | ||
Patent #
US 7,801,581 B2
Filed 12/11/2006
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Cercacor Laboratories
|
Method for data reduction and calibration of an OCT-based blood glucose monitor | ||
Patent #
US 7,822,452 B2
Filed 04/13/2006
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
GLT Acquisition Corporation
|
PATIENT MONITOR INCLUDING MULTI-PARAMETER GRAPHICAL DISPLAY | ||
Patent #
US 20100069725A1
Filed 09/15/2009
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
JP Morgan Chase Bank N.A.
|
Wireless Position Location And Tracking System | ||
Patent #
US 20100090901A1
Filed 11/30/2009
|
Current Assignee
Clinical Patents LLC
|
Sponsoring Entity
Clinical Patents LLC
|
NON-INVASIVE PRESSURED PROBING DEVICE | ||
Patent #
US 20100305416A1
Filed 10/23/2007
|
Current Assignee
ONSENS INC.
|
Sponsoring Entity
ONSENS INC.
|
Systems and methods for determining respiration metrics | ||
Patent #
US 7,662,105 B2
Filed 12/14/2005
|
Current Assignee
Cardiac Pacemakers Incorporated
|
Sponsoring Entity
Cardiac Pacemakers Incorporated
|
Sensor isolation | ||
Patent #
US 7,734,320 B2
Filed 08/20/2007
|
Current Assignee
JP Morgan Chase Bank N.A.
|
Sponsoring Entity
Masimo Corporation
|
ELECTRO-ACOUSTIC TRANSDUCER COMPRISING A MEMS SENSOR | ||
Patent #
US 20100195864A1
Filed 07/29/2008
|
Current Assignee
Knowles IPC Sendirian Berhad
|
Sponsoring Entity
Knowles IPC Sendirian Berhad
|
METHOD AND SYSTEM FOR DYNAMIC RANGE CONTROL IN AN AUDIO PROCESSING SYSTEM | ||
Patent #
US 20100204996A1
Filed 02/09/2009
|
Current Assignee
Avago Technologies International Sales Pte Limited
|
Sponsoring Entity
Avago Technologies International Sales Pte Limited
|
Detector shield | ||
Patent #
US 7,791,155 B2
Filed 12/21/2007
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Cercacor Laboratories
|
MODULAR PATIENT MONITOR | ||
Patent #
US 20100261979A1
Filed 12/17/2009
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Pulse oximetry sensor adapter | ||
Patent #
US 7,844,313 B2
Filed 01/27/2006
|
Current Assignee
JP Morgan Chase Bank N.A.
|
Sponsoring Entity
Masimo Corporation
|
Method and system for acquiring biosignals in the presence of HF interference | ||
Patent #
US 20090018429A1
Filed 07/13/2007
|
Current Assignee
NeuroWave Systems Inc.
|
Sponsoring Entity
NeuroWave Systems Inc.
|
Pulse oximeter access apparatus and method | ||
Patent #
US 7,483,729 B2
Filed 11/04/2004
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Low-noise optical probes for reducing ambient noise | ||
Patent #
US 7,483,730 B2
Filed 10/04/2004
|
Current Assignee
JP Morgan Chase Bank N.A.
|
Sponsoring Entity
Masimo Corporation
|
Signal processing apparatus and method | ||
Patent #
US 7,489,958 B2
Filed 05/03/2006
|
Current Assignee
JP Morgan Chase Bank N.A.
|
Sponsoring Entity
Masimo Corporation
|
Signal processing apparatus | ||
Patent #
US 7,496,393 B2
Filed 09/30/2003
|
Current Assignee
JP Morgan Chase Bank N.A.
|
Sponsoring Entity
Masimo Corporation
|
Manual and automatic probe calibration | ||
Patent #
US 7,496,391 B2
Filed 01/13/2004
|
Current Assignee
JP Morgan Chase Bank N.A.
|
Sponsoring Entity
Masimo Corporation
|
Variable indication estimator | ||
Patent #
US 7,499,835 B2
Filed 03/14/2006
|
Current Assignee
JP Morgan Chase Bank N.A.
|
Sponsoring Entity
Masimo Corporation
|
OCT based method for diagnosis and therapy | ||
Patent #
US 7,510,849 B2
Filed 01/21/2005
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
GlucoLight Corporation
|
Multipurpose sensor port | ||
Patent #
US 7,500,950 B2
Filed 07/23/2004
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Interface cable | ||
Patent #
US 7,509,494 B2
Filed 02/28/2003
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Signal processing apparatus and method | ||
Patent #
US 7,499,741 B2
Filed 05/04/2004
|
Current Assignee
JP Morgan Chase Bank N.A.
|
Sponsoring Entity
Masimo Corporation
|
Signal processing apparatus | ||
Patent #
US 7,509,154 B2
Filed 08/20/2007
|
Current Assignee
JP Morgan Chase Bank N.A.
|
Sponsoring Entity
Masimo Corporation
|
Adherent Device with Multiple Physiological Sensors | ||
Patent #
US 20090076363A1
Filed 09/12/2008
|
Current Assignee
Medtronic Monitoring Inc.
|
Sponsoring Entity
Medtronic Monitoring Inc.
|
SYSTEMS AND METHODS FOR DETERMINING A PHYSIOLOGICAL CONDITION USING AN ACOUSTIC MONITOR | ||
Patent #
US 20090093687A1
Filed 03/07/2008
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
JP Morgan Chase Bank N.A.
|
Manual and automatic probe calibration | ||
Patent #
US 7,526,328 B2
Filed 12/15/2006
|
Current Assignee
JP Morgan Chase Bank N.A.
|
Sponsoring Entity
Masimo Corporation
|
Personal status physiologic monitor system and architecture and related monitoring methods | ||
Patent #
US 7,515,044 B2
Filed 06/19/2006
|
Current Assignee
Welch Allyn Incorporated
|
Sponsoring Entity
Welch Allyn Incorporated
|
Remote sensing infant warmer | ||
Patent #
US 7,530,942 B1
Filed 10/18/2006
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Signal processing apparatus | ||
Patent #
US 7,530,955 B2
Filed 05/04/2004
|
Current Assignee
JP Morgan Chase Bank N.A.
|
Sponsoring Entity
Masimo Corporation
|
Dual-mode pulse oximeter | ||
Patent #
US 7,530,949 B2
Filed 08/03/2004
|
Current Assignee
JP Morgan Chase Bank N.A.
|
Sponsoring Entity
Masimo Corporation
|
RESPIRATION TRAINING MACHINE ENABLING GRASP OF RESULT | ||
Patent #
US 20090170664A1
Filed 12/26/2006
|
Current Assignee
Jichi Medical University, Omron Healthcare Company Limited
|
Sponsoring Entity
Jichi Medical University, Omron Healthcare Company Limited
|
AUTOMATIC GAIN CONTROL FOR IMPLANTED MICROPHONE | ||
Patent #
US 20090187065A1
Filed 01/21/2009
|
Current Assignee
Otologics LLC
|
Sponsoring Entity
Cochlear Limited
|
Multiple wavelength sensor interconnect | ||
Patent #
US 7,563,110 B2
Filed 05/23/2008
|
Current Assignee
Cercacor Laboratories
|
Sponsoring Entity
Masimo Laboratories Inc.
|
Multiple wavelength sensor attachment | ||
Patent #
US 7,596,398 B2
Filed 03/01/2006
|
Current Assignee
Cercacor Laboratories
|
Sponsoring Entity
Masimo Laboratories Inc.
|
PATCH AND PATCH PREPARATION | ||
Patent #
US 20090247924A1
Filed 07/13/2007
|
Current Assignee
Nitto Denko Corporation
|
Sponsoring Entity
Nitto Denko Corporation
|
Rapid non-invasive blood pressure measuring device | ||
Patent #
US 7,618,375 B2
Filed 04/28/2006
|
Current Assignee
JP Morgan Chase Bank N.A.
|
Sponsoring Entity
Masimo Corporation
|
MONITOR CONFIGURATION SYSTEM | ||
Patent #
US 20090275844A1
Filed 04/27/2009
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
JP Morgan Chase Bank N.A.
|
PULSE OXIMETRY SYSTEM WITH ELECTRICAL DECOUPLING CIRCUITRY | ||
Patent #
US 20090299157A1
Filed 05/05/2009
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
JP Morgan Chase Bank N.A.
|
ELECTRONIC STETHOSCOPE SYSTEM | ||
Patent #
US 20090316925A1
Filed 06/22/2009
|
Current Assignee
EISENFELD LEONARD
|
Sponsoring Entity
EISENFELD LEONARD
|
Bandage with sensors | ||
Patent #
US 7,625,117 B2
Filed 03/02/2007
|
Current Assignee
Finvers Ivars, Haslett James W., Jullien Graham A
|
Sponsoring Entity
Finvers Ivars, Haslett James W., Jullien Graham A
|
Method of providing an optoelectronic element with a non-protruding lens | ||
Patent #
US 7,332,784 B2
Filed 06/27/2006
|
Current Assignee
JP Morgan Chase Bank N.A.
|
Sponsoring Entity
Masimo Corporation
|
Signal processing apparatus | ||
Patent #
US 7,328,053 B1
Filed 11/17/1998
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Respiratory monitor display | ||
Patent #
US 20080039735A1
Filed 06/06/2007
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
MINIATURE APPARATUS AND METHOD FOR OPTICAL STIMULATION OF NERVES AND OTHER ANIMAL TISSUE | ||
Patent #
US 20080077198A1
Filed 09/28/2006
|
Current Assignee
Nervesense Ltd
|
Sponsoring Entity
Nervesense Ltd
|
Multi-wavelength physiological monitor | ||
Patent #
US 7,343,186 B2
Filed 05/27/2005
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Laboratories Inc.
|
Flex circuit shielded optical sensor | ||
Patent #
US 7,340,287 B2
Filed 12/02/2005
|
Current Assignee
JP Morgan Chase Bank N.A.
|
Sponsoring Entity
Masimo Corporation
|
Integrated sensors for tracking performance metrics | ||
Patent #
US 20080076972A1
Filed 03/27/2007
|
Current Assignee
Apple Inc.
|
Sponsoring Entity
Apple Inc.
|
Pulse oximetry ear sensor | ||
Patent #
US 7,341,559 B2
Filed 07/31/2003
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
HAND-HELD VITAL SIGNS MONITOR | ||
Patent #
US 20080077026A1
Filed 09/07/2006
|
Current Assignee
Sotera Wireless Incorporated
|
Sponsoring Entity
Sotera Wireless Incorporated
|
REMOTE HEALTH CARE SYSTEM WITH STETHOSCOPE | ||
Patent #
US 20080077435A1
Filed 06/01/2007
|
Current Assignee
BIOSIGN TECHNOLOGIES INC.
|
Sponsoring Entity
BIOSIGN TECHNOLOGIES INC.
|
Parallel alarm processor | ||
Patent #
US 7,355,512 B1
Filed 03/13/2007
|
Current Assignee
JP Morgan Chase Bank N.A.
|
Sponsoring Entity
Masimo Corporation
|
Stethoscope with Frictional Noise Reduction | ||
Patent #
US 20080093157A1
Filed 12/21/2005
|
Current Assignee
3M Innovative Properties Company
|
Sponsoring Entity
-
|
External sensing system for gastric restriction devices | ||
Patent #
US 20080097249A1
Filed 04/02/2007
|
Current Assignee
Ellipse Technologies Inc.
|
Sponsoring Entity
-
|
Cuff volumetric pulse wave obtaining apparatus, cuff volumetric pulse wave analyzing apparatus, pressure pulse wave obtaining apparatus, and pressure pulse wave analyzing apparatus | ||
Patent #
US 7,361,148 B2
Filed 01/14/2004
|
Current Assignee
Fukuda Denshi Company Limited
|
Sponsoring Entity
Omron Healthcare Company Limited
|
Method and apparatus for tissue oximetry | ||
Patent #
US 7,356,365 B2
Filed 07/02/2004
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
GlucoLight Corporation
|
Signal processing apparatus | ||
Patent #
US 7,376,453 B1
Filed 09/01/1998
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Signal component processor | ||
Patent #
US 7,373,194 B2
Filed 02/01/2005
|
Current Assignee
JP Morgan Chase Bank N.A.
|
Sponsoring Entity
Masimo Corporation
|
Pulse oximetry data capture system | ||
Patent #
US 7,373,193 B2
Filed 11/05/2004
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Multiple wavelength sensor interconnect | ||
Patent #
US 7,377,794 B2
Filed 03/01/2006
|
Current Assignee
Cercacor Laboratories
|
Sponsoring Entity
Masimo Laboratories Inc.
|
Connector switch | ||
Patent #
US 7,371,981 B2
Filed 02/18/2005
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Piezoelectric vibration sensor | ||
Patent #
US 7,368,855 B2
Filed 04/07/2003
|
Current Assignee
VIBROTRON AS
|
Sponsoring Entity
VIBROTRON AS
|
Sine saturation transform | ||
Patent #
US 7,377,899 B2
Filed 05/03/2006
|
Current Assignee
JP Morgan Chase Bank N.A.
|
Sponsoring Entity
Masimo Corporation
|
Noise rejecting electronic stethoscope | ||
Patent #
US 20080137876A1
Filed 10/04/2006
|
Current Assignee
Russotti Joseph S., Kassal James J.
|
Sponsoring Entity
Russotti Joseph S., Kassal James J.
|
Body worn physiological sensor device having a disposable electrode module | ||
Patent #
US 20080139953A1
Filed 11/01/2006
|
Current Assignee
Welch Allyn Incorporated
|
Sponsoring Entity
-
|
Signal processing apparatus | ||
Patent #
US 7,383,070 B2
Filed 12/03/2004
|
Current Assignee
JP Morgan Chase Bank N.A.
|
Sponsoring Entity
Masimo Corporation
|
PHYSIOLOGICAL PARAMETER SYSTEM | ||
Patent #
US 20080188733A1
Filed 12/21/2007
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
-
|
PLETHYSMOGRAPH VARIABILITY PROCESSOR | ||
Patent #
US 20080188760A1
Filed 12/07/2007
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
JP Morgan Chase Bank N.A.
|
Physiological parameter system | ||
Patent #
US 7,415,297 B2
Filed 03/08/2005
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Transducer for sensing actual or simulated body sounds | ||
Patent #
US 20080219464A1
Filed 05/14/2008
|
Current Assignee
Smith Clive Leonard
|
Sponsoring Entity
Smith Clive Leonard
|
Systems and methods for acquiring calibration data usable in a pulse oximeter | ||
Patent #
US 7,428,432 B2
Filed 04/22/2003
|
Current Assignee
JP Morgan Chase Bank N.A.
|
Sponsoring Entity
Masimo Corporation
|
Application identification sensor | ||
Patent #
US 7,438,683 B2
Filed 03/03/2005
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Systems and methods for determining blood oxygen saturation values using complex number encoding | ||
Patent #
US 7,440,787 B2
Filed 11/28/2005
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Laboratories Inc.
|
Disposable cover for stethoscope head | ||
Patent #
US 20080251313A1
Filed 04/16/2007
|
Current Assignee
Knight Carl E., Knight JoAnn F.
|
Sponsoring Entity
Knight Carl E., Knight JoAnn F.
|
Signal processing apparatus | ||
Patent #
US 7,454,240 B2
Filed 05/11/2006
|
Current Assignee
JP Morgan Chase Bank N.A.
|
Sponsoring Entity
Masimo Corporation
|
Fetal oximetry system and sensor | ||
Patent #
US 7,469,158 B2
Filed 10/01/2004
|
Current Assignee
RIC INVESTMENTS LLC
|
Sponsoring Entity
RIC INVESTMENTS LLC
|
Signal processing apparatus | ||
Patent #
US 7,469,157 B2
Filed 02/13/2004
|
Current Assignee
JP Morgan Chase Bank N.A.
|
Sponsoring Entity
Masimo Corporation
|
Sine saturation transform | ||
Patent #
US 7,467,002 B2
Filed 08/20/2007
|
Current Assignee
JP Morgan Chase Bank N.A.
|
Sponsoring Entity
Masimo Corporation
|
Pulse oximeter probe-off detector | ||
Patent #
US 7,471,969 B2
Filed 11/25/2003
|
Current Assignee
JP Morgan Chase Bank N.A.
|
Sponsoring Entity
Masimo Corporation
|
Signal processing apparatus and method | ||
Patent #
US 7,471,971 B2
Filed 03/02/2004
|
Current Assignee
JP Morgan Chase Bank N.A.
|
Sponsoring Entity
Masimo Corporation
|
Multiplanar ultrasonic vascular sensor assembly and apparatus for movably affixing a sensor assembly to a body | ||
Patent #
US 20070016030A1
Filed 02/28/2006
|
Current Assignee
INCEPTIO MEDICAL TECHNOLOGIES LC
|
Sponsoring Entity
INCEPTIO MEDICAL TECHNOLOGIES LC
|
Arrhythmia alarm processor | ||
Patent #
US 7,190,261 B2
Filed 04/18/2006
|
Current Assignee
JP Morgan Chase Bank N.A.
|
Sponsoring Entity
Masimo Corporation
|
Amount of use tracking device and method for medical product | ||
Patent #
US 7,186,966 B2
Filed 12/19/2005
|
Current Assignee
JP Morgan Chase Bank N.A.
|
Sponsoring Entity
Masimo Corporation
|
Acoustic sensor | ||
Patent #
US 20070049837A1
Filed 06/21/2006
|
Current Assignee
MEDSCANSONICS INC.
|
Sponsoring Entity
MEDSCANSONICS INC.
|
Stethoscope apparatus | ||
Patent #
US 20070058818A1
Filed 05/18/2005
|
Current Assignee
Takashi Yoshimine
|
Sponsoring Entity
Takashi Yoshimine
|
Signal processing apparatus | ||
Patent #
US 7,215,986 B2
Filed 06/15/2005
|
Current Assignee
JP Morgan Chase Bank N.A.
|
Sponsoring Entity
Masimo Corporation
|
Signal processing apparatus | ||
Patent #
US 7,215,984 B2
Filed 05/04/2004
|
Current Assignee
JP Morgan Chase Bank N.A.
|
Sponsoring Entity
Masimo Corporation
|
Optical sensor including disposable and reusable elements | ||
Patent #
US 7,225,007 B2
Filed 06/30/2005
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Laboratories Inc.
|
Medical examination apparatus, system, and/or method | ||
Patent #
US 20070106179A1
Filed 10/20/2006
|
Current Assignee
Tiba Medical Inc.
|
Sponsoring Entity
Tiba Medical Inc.
|
Attachment and optical probe | ||
Patent #
US 7,225,006 B2
Filed 01/23/2003
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Method and apparatus for demodulating signals in a pulse oximetry system | ||
Patent #
US 7,221,971 B2
Filed 12/19/2005
|
Current Assignee
JP Morgan Chase Bank N.A.
|
Sponsoring Entity
Masimo Corporation
|
Systems and methods for determining respiration metrics | ||
Patent #
US 20070135725A1
Filed 12/14/2005
|
Current Assignee
Cardiac Pacemakers Incorporated
|
Sponsoring Entity
Cardiac Pacemakers Incorporated
|
HEARING AID WITH DIGITAL COMPRESSION RECAPTURE | ||
Patent #
US 20070147639A1
Filed 07/11/2006
|
Current Assignee
KS HIMPP
|
Sponsoring Entity
KS HIMPP
|
Method and apparatus for online health monitoring | ||
Patent #
US 7,246,069 B1
Filed 10/15/1999
|
Current Assignee
UE Systems Inc.
|
Sponsoring Entity
UE Systems Inc.
|
System, medium, and method to conduce a user's breathing | ||
Patent #
US 20070167855A1
Filed 11/22/2006
|
Current Assignee
Samsung Electronics Co. Ltd.
|
Sponsoring Entity
Samsung Electronics Co. Ltd.
|
Active pulse blood constituent monitoring | ||
Patent #
US 7,239,905 B2
Filed 08/16/2005
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Laboratories Inc.
|
Breathing biofeedback device | ||
Patent #
US 20070173730A1
Filed 12/21/2006
|
Current Assignee
Breathresearch Inc.
|
Sponsoring Entity
Breathresearch Inc.
|
Reusable pulse oximeter probe and disposable bandage apparatii | ||
Patent #
US 7,245,953 B1
Filed 11/05/2002
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
High sensitivity noise immune stethoscope | ||
Patent #
US 20070165872A1
Filed 11/15/2006
|
Current Assignee
Active Signal Technologies Inc
|
Sponsoring Entity
Active Signal Technologies Inc
|
Variable pressure reusable sensor | ||
Patent #
US 7,254,434 B2
Filed 10/13/2004
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Two-stage calibration of medical probes | ||
Patent #
US 20070185397A1
Filed 02/09/2006
|
Current Assignee
Biosense Webster Incorporated
|
Sponsoring Entity
Biosense Webster Incorporated
|
Signal processing apparatus | ||
Patent #
US 7,254,433 B2
Filed 09/30/2003
|
Current Assignee
JP Morgan Chase Bank N.A.
|
Sponsoring Entity
Masimo Corporation
|
Method and apparatus for monitoring glucose levels in a biological tissue | ||
Patent #
US 7,254,429 B2
Filed 08/11/2004
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
GlucoLight Corporation
|
Physiological parameter tracking system | ||
Patent #
US 7,254,431 B2
Filed 08/30/2004
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Parameter compensated pulse oximeter | ||
Patent #
US 7,274,955 B2
Filed 09/25/2003
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Ventilator breath display and graphic user interface | ||
Patent #
US 7,270,126 B2
Filed 03/02/2006
|
Current Assignee
Nellcor Puritan Bennett Incorporated
|
Sponsoring Entity
Nellcor Puritan Bennett Incorporated
|
Dual-mode physiologic monitoring systems and methods | ||
Patent #
US 20070208262A1
Filed 03/03/2006
|
Current Assignee
Physiowave Inc.
|
Sponsoring Entity
Physiowave Inc.
|
Pulse oximetry sensor including stored sensor data | ||
Patent #
US 7,272,425 B2
Filed 09/26/2005
|
Current Assignee
JP Morgan Chase Bank N.A.
|
Sponsoring Entity
Masimo Corporation
|
Pulse oximetry sensor | ||
Patent #
US 7,280,858 B2
Filed 01/04/2005
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Multivariate analysis of green to ultraviolet spectra of cell and tissue samples | ||
Patent #
US 7,289,835 B2
Filed 06/02/2005
|
Current Assignee
Cercacor Laboratories
|
Sponsoring Entity
Masimo Laboratories Inc.
|
Non-invasive cardiac monitor and methods of using continuously recorded cardiac data | ||
Patent #
US 20070255153A1
Filed 02/06/2007
|
Current Assignee
Board of Trustees of the Leland Stanford Junior University
|
Sponsoring Entity
Board of Trustees of the Leland Stanford Junior University
|
Low power pulse oximeter | ||
Patent #
US 7,295,866 B2
Filed 02/24/2004
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Physiological assessment system | ||
Patent #
US 7,292,883 B2
Filed 03/30/2005
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Non-Invasive Monitoring of Respiratory Rate, Heart Rate and Apnea | ||
Patent #
US 20070282212A1
Filed 04/08/2005
|
Current Assignee
ANDROMED INC.
|
Sponsoring Entity
JP Morgan Chase Bank N.A.
|
Acoustic sensor using curved piezoelectric film | ||
Patent #
US 6,937,736 B2
Filed 08/05/2002
|
Current Assignee
Measurement Specialties Incorporated
|
Sponsoring Entity
Measurement Specialties Incorporated
|
Induced fluorescence spectroscopy blood perfusion and pH monitor and method | ||
Patent #
US 5,456,252 A
Filed 09/30/1993
|
Current Assignee
Cedars-Sinai Medical Center
|
Sponsoring Entity
Cedars-Sinai Medical Center
|
Variable mode averager | ||
Patent #
US 6,430,525 B1
Filed 06/05/2000
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Glucose fluorescence monitor and method | ||
Patent #
US 5,341,805 A
Filed 04/06/1993
|
Current Assignee
Cedars-Sinai Medical Center
|
Sponsoring Entity
Cedars-Sinai Medical Center
|
Optoelectronic element with a non-protruding lens | ||
Patent #
US 7,067,893 B2
Filed 01/03/2003
|
Current Assignee
JP Morgan Chase Bank N.A.
|
Sponsoring Entity
Masimo Corporation
|
Non-protruding optoelectronic lens | ||
Patent #
US 6,525,386 B1
Filed 03/10/1998
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Variable indication estimator | ||
Patent #
US 6,999,904 B2
Filed 08/05/2002
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Non-invasive software update apparatus | ||
Patent #
US 5,564,108 A
Filed 05/12/1995
|
Current Assignee
Datex-Ohmeda Incorporated
|
Sponsoring Entity
Ohmeda Inc.
|
Mold tool for an optoelectronic element | ||
Patent #
US 6,830,711 B2
Filed 01/03/2003
|
Current Assignee
JP Morgan Chase Bank N.A.
|
Sponsoring Entity
Masimo Corporation
|
Flex circuit shielded optical sensor | ||
Patent #
US 6,985,764 B2
Filed 05/02/2002
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Pulse oximetry sensor adaptor | ||
Patent #
US 6,993,371 B2
Filed 07/22/2003
|
Current Assignee
JP Morgan Chase Bank N.A.
|
Sponsoring Entity
Masimo Corporation
|
Pulse oximetry data confidence indicator | ||
Patent #
US 6,996,427 B2
Filed 12/18/2003
|
Current Assignee
JP Morgan Chase Bank N.A.
|
Sponsoring Entity
Masimo Corporation
|
Method and apparatus for demodulating signals in a pulse oximetry system | ||
Patent #
US 7,003,339 B2
Filed 11/03/2003
|
Current Assignee
JP Morgan Chase Bank N.A.
|
Sponsoring Entity
Masimo Corporation
|
Method and apparatus for reducing coupling between signals | ||
Patent #
US 7,003,338 B2
Filed 07/08/2003
|
Current Assignee
Cercacor Laboratories
|
Sponsoring Entity
Masimo Corporation
|
Combined sensor assembly | ||
Patent #
US 20060047215A1
Filed 09/01/2004
|
Current Assignee
Welch Allyn Incorporated
|
Sponsoring Entity
Welch Allyn Incorporated
|
Power supply rail controller | ||
Patent #
US 7,015,451 B2
Filed 01/24/2003
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Apparatus for detecting human physiological and contextual information | ||
Patent #
US 7,020,508 B2
Filed 08/22/2002
|
Current Assignee
JB IP Acquisitions LLC
|
Sponsoring Entity
BodyMedia Incorporated
|
Parallel measurement alarm processor | ||
Patent #
US 7,030,749 B2
Filed 10/28/2004
|
Current Assignee
JP Morgan Chase Bank N.A.
|
Sponsoring Entity
Masimo Corporation
|
Blood parameter measurement system | ||
Patent #
US 7,027,849 B2
Filed 11/21/2003
|
Current Assignee
Cercacor Laboratories
|
Sponsoring Entity
Masimo Laboratories Inc.
|
Method and apparatus for monitoring heart function in a subcutaneously implanted device | ||
Patent #
US 7,035,684 B2
Filed 02/26/2003
|
Current Assignee
Medtronic Incorporated
|
Sponsoring Entity
Medtronic Incorporated
|
Pulse oximetry data confidence indicator | ||
Patent #
US 7,024,233 B2
Filed 09/16/2004
|
Current Assignee
JP Morgan Chase Bank N.A.
|
Sponsoring Entity
Masimo Corporation
|
Plethysmograph pulse recognition processor | ||
Patent #
US 7,044,918 B2
Filed 10/27/2004
|
Current Assignee
JP Morgan Chase Bank N.A.
|
Sponsoring Entity
Masimo Corporation
|
Rapid non-invasive blood pressure measuring device | ||
Patent #
US 7,041,060 B2
Filed 09/06/2005
|
Current Assignee
JP Morgan Chase Bank N.A.
|
Sponsoring Entity
Masimo Corporation
|
Use of time indexed plethysmographic spectral data in assessing saturation estimation validity | ||
Patent #
US 20060094943A1
Filed 06/28/2005
|
Current Assignee
General Electric Company
|
Sponsoring Entity
General Electric Company
|
Resposable pulse oximetry sensor | ||
Patent #
US 7,039,449 B2
Filed 12/19/2003
|
Current Assignee
CFS BUHL GMBH
|
Sponsoring Entity
CFS BUHL GMBH
|
Ventilator breath display and graphic user interface | ||
Patent #
US 20060144397A1
Filed 03/02/2006
|
Current Assignee
Nellcor Puritan Bennett Incorporated
|
Sponsoring Entity
Nellcor Puritan Bennett Incorporated
|
Method and system for detection of heart sounds | ||
Patent #
US 7,096,060 B2
Filed 06/27/2003
|
Current Assignee
Inovise Medical Inc.
|
Sponsoring Entity
Inovise Medical Inc.
|
Blood-pressure monitor | ||
Patent #
US 20060184052A1
Filed 02/14/2006
|
Current Assignee
Tanita Corporation
|
Sponsoring Entity
Tanita Corporation
|
Low noise optical housing | ||
Patent #
US 7,096,054 B2
Filed 07/31/2003
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Implantable medical device providing adaptive neurostimulation therapy for incontinence | ||
Patent #
US 20060190051A1
Filed 04/28/2005
|
Current Assignee
Medtronic Incorporated
|
Sponsoring Entity
Medtronic Incorporated
|
Optical probe including predetermined emission wavelength based on patient type | ||
Patent #
US 7,096,052 B2
Filed 10/06/2003
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Combined electrical and audio anatomical signal sensor | ||
Patent #
US 7,110,804 B2
Filed 04/24/2003
|
Current Assignee
Inovise Medical Inc.
|
Sponsoring Entity
Inovise Medical Inc.
|
Method and system for continuous monitoring and diagnosis of body sounds | ||
Patent #
US 20060198533A1
Filed 03/03/2006
|
Current Assignee
Wang Le Yi, Hong Wang
|
Sponsoring Entity
Wang Le Yi, Hong Wang
|
Personal status physiologic monitor system and architecture and related monitoring methods | ||
Patent #
US 20060238333A1
Filed 06/19/2006
|
Current Assignee
Welch Allyn Incorporated
|
Sponsoring Entity
Welch Allyn Incorporated
|
Programmable ECG sensor patch | ||
Patent #
US 20060264767A1
Filed 05/17/2005
|
Current Assignee
CARDIOVU INC.
|
Sponsoring Entity
CARDIOVU INC.
|
Parameter compensated physiological monitor | ||
Patent #
US 7,142,901 B2
Filed 11/14/2003
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Shielded optical probe having an electrical connector | ||
Patent #
US 7,132,641 B2
Filed 03/31/2003
|
Current Assignee
JP Morgan Chase Bank N.A.
|
Sponsoring Entity
Masimo Corporation
|
Optical spectroscopy pathlength measurement system | ||
Patent #
US 7,149,561 B2
Filed 10/28/2003
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
System and method of determining whether to recalibrate a blood pressure monitor | ||
Patent #
US 6,852,083 B2
Filed 01/17/2002
|
Current Assignee
JP Morgan Chase Bank N.A.
|
Sponsoring Entity
Masimo Corporation
|
Pulse oximetry data confidence indicator | ||
Patent #
US 20050033128A1
Filed 09/16/2004
|
Current Assignee
JP Morgan Chase Bank N.A.
|
Sponsoring Entity
JP Morgan Chase Bank N.A.
|
Physiological measurement communications adapter | ||
Patent #
US 6,850,788 B2
Filed 02/28/2003
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Signal component processor | ||
Patent #
US 6,850,787 B2
Filed 06/26/2002
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Dual-mode pulse oximeter | ||
Patent #
US 20050065417A1
Filed 08/03/2004
|
Current Assignee
JP Morgan Chase Bank N.A.
|
Sponsoring Entity
JP Morgan Chase Bank N.A.
|
Systems and methods for indicating an amount of use of a sensor | ||
Patent #
US 6,861,639 B2
Filed 02/03/2003
|
Current Assignee
JP Morgan Chase Bank N.A.
|
Sponsoring Entity
Masimo Corporation
|
Stereo pulse oximeter | ||
Patent #
US 6,898,452 B2
Filed 09/22/2003
|
Current Assignee
JP Morgan Chase Bank N.A.
|
Sponsoring Entity
Masimo Corporation
|
Optical sensor including disposable and reusable elements | ||
Patent #
US 6,920,345 B2
Filed 01/24/2003
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Physiological sensor combination | ||
Patent #
US 6,934,570 B2
Filed 12/19/2002
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Active pulse blood constituent monitoring | ||
Patent #
US 6,931,268 B1
Filed 11/06/2000
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Laboratories Inc.
|
Isolation and communication element for a resposable pulse oximetry sensor | ||
Patent #
US 6,950,687 B2
Filed 01/24/2003
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Rapid non-invasive blood pressure measuring device | ||
Patent #
US 6,939,305 B2
Filed 10/14/2003
|
Current Assignee
JP Morgan Chase Bank N.A.
|
Sponsoring Entity
Masimo Corporation
|
System for detecting injection holding material | ||
Patent #
US 6,943,348 B1
Filed 10/19/1999
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Systems and methods for determining blood oxygen saturation values using complex number encoding | ||
Patent #
US 6,970,792 B1
Filed 12/03/2003
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Laboratories Inc.
|
Pulse and active pulse spectraphotometry | ||
Patent #
US 6,961,598 B2
Filed 02/21/2003
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Fetal oximetry system and sensor | ||
Patent #
US 20050283059A1
Filed 10/01/2004
|
Current Assignee
RIC INVESTMENTS LLC
|
Sponsoring Entity
RIC INVESTMENTS LLC
|
Active pulse blood constituent monitoring | ||
Patent #
US 20050272987A1
Filed 08/16/2005
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Systems and methods for indicating an amount of use of a sensor | ||
Patent #
US 6,979,812 B2
Filed 02/24/2005
|
Current Assignee
JP Morgan Chase Bank N.A.
|
Sponsoring Entity
Masimo Corporation
|
Optical probe and positioning wrap | ||
Patent #
US 6,678,543 B2
Filed 11/08/2001
|
Current Assignee
JP Morgan Chase Bank N.A.
|
Sponsoring Entity
Masimo Corporation
|
Reusable pulse oximeter probe and disposable bandage method | ||
Patent #
US 6,684,091 B2
Filed 01/11/2001
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Sensidyne Inc.
|
Pulse oximetry data confidence indicator | ||
Patent #
US 6,684,090 B2
Filed 05/15/2001
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Method and devices for laser induced fluorescence attenuation spectroscopy (LIFAS) | ||
Patent #
US 6,697,657 B1
Filed 06/28/2000
|
Current Assignee
Cedars-Sinai Medical Center
|
Sponsoring Entity
Cedars-Sinai Medical Center
|
Pulse oximetry sensor compatible with multiple pulse oximetry systems | ||
Patent #
US 6,697,656 B1
Filed 06/27/2000
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Low power pulse oximeter | ||
Patent #
US 6,697,658 B2
Filed 06/26/2002
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Stereo pulse oximeter | ||
Patent #
US 6,714,804 B2
Filed 12/21/2001
|
Current Assignee
JP Morgan Chase Bank N.A.
|
Sponsoring Entity
Masimo Corporation
|
Signal processing apparatus and method | ||
Patent #
US 6,699,194 B1
Filed 04/11/2000
|
Current Assignee
JP Morgan Chase Bank N.A.
|
Sponsoring Entity
Masimo Corporation
|
Signal processing circuit for pyro/piezo transducer | ||
Patent #
US 6,702,755 B1
Filed 05/17/2001
|
Current Assignee
Dymedix Corporation
|
Sponsoring Entity
Dymedix Corporation
|
Universal modular pulse oximeter probe for use with reusable and disposable patient attachment devices | ||
Patent #
US 6,721,585 B1
Filed 08/17/2001
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Sensidyne Inc.
|
Resposable pulse oximetry sensor | ||
Patent #
US 6,725,075 B2
Filed 04/23/2002
|
Current Assignee
JP Morgan Chase Bank N.A.
|
Sponsoring Entity
Masimo Corporation
|
Non-invasive tissue glucose level monitoring | ||
Patent #
US 6,728,560 B2
Filed 02/28/2002
|
Current Assignee
General Hospital Corporation
|
Sponsoring Entity
General Hospital Corporation
|
Quality indicator for measurement signals, in particular, for medical measurement signals such as those used in measuring oxygen saturation | ||
Patent #
US 6,725,074 B1
Filed 05/29/2002
|
Current Assignee
Philips Electronics North America Corporation
|
Sponsoring Entity
Koninklijke Philips N.V.
|
Non-invasive tissue glucose level monitoring | ||
Patent #
US 6,721,582 B2
Filed 02/20/2001
|
Current Assignee
Cercacor Laboratories
|
Sponsoring Entity
General Hospital Corporation
|
Reusable pulse oximeter probe and disposable bandage apparatus | ||
Patent #
US 6,735,459 B2
Filed 09/09/2002
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Sensidyne Inc.
|
Signal processing apparatus | ||
Patent #
US 6,745,060 B2
Filed 12/03/2001
|
Current Assignee
JP Morgan Chase Bank N.A.
|
Sponsoring Entity
Masimo Corporation
|
Pulse oximetry data confidence indicator | ||
Patent #
US 20040133087A1
Filed 12/18/2003
|
Current Assignee
JP Morgan Chase Bank N.A.
|
Sponsoring Entity
JP Morgan Chase Bank N.A.
|
Ribbon cable substrate pulse oximetry sensor | ||
Patent #
US 6,760,607 B2
Filed 12/20/2001
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Method and apparatus for monitoring heart function in a subcutaneously implanted device | ||
Patent #
US 20040167416A1
Filed 02/26/2003
|
Current Assignee
Medtronic Incorporated
|
Sponsoring Entity
-
|
Dual-mode pulse oximeter | ||
Patent #
US 6,770,028 B1
Filed 08/18/2000
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Cuff volumetric pulse wave obtaining apparatus, cuff volumetric pulse wave analyzing apparatus, pressure pulse wave obtaining apparatus, and pressure pulse wave analyzing apparatus | ||
Patent #
US 20040158162A1
Filed 01/14/2004
|
Current Assignee
Fukuda Denshi Company Limited
|
Sponsoring Entity
-
|
Pulse oximeter probe-off detection system | ||
Patent #
US 6,771,994 B2
Filed 02/24/2003
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Low-noise optical probes for reducing light piping | ||
Patent #
US 6,792,300 B1
Filed 07/03/2001
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Combined electrical and audio anatomical signal sensor | ||
Patent #
US 20040215094A1
Filed 04/24/2003
|
Current Assignee
Inovise Medical Inc.
|
Sponsoring Entity
Inovise Medical Inc.
|
Low-noise optical probes for reducing ambient noise | ||
Patent #
US 6,813,511 B2
Filed 09/27/2002
|
Current Assignee
JP Morgan Chase Bank N.A.
|
Sponsoring Entity
Masimo Corporation
|
Plethysmograph pulse recognition processor | ||
Patent #
US 6,816,741 B2
Filed 10/08/2002
|
Current Assignee
JP Morgan Chase Bank N.A.
|
Sponsoring Entity
Masimo Corporation
|
Signal processing apparatus and method | ||
Patent #
US 6,826,419 B2
Filed 12/20/2002
|
Current Assignee
JP Morgan Chase Bank N.A.
|
Sponsoring Entity
Masimo Corporation
|
Parallel measurement alarm processor | ||
Patent #
US 6,822,564 B2
Filed 01/24/2003
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
DEVICE AND SYSTEM FOR REMOTE FOR IN-CLINIC TRANS-ABDOMINAL/VAGINAL/CERVICAL ACQUISITION, AND DETECTION, ANALYSIS, AND COMMUNICATION OF MATERNAL UTERINE AND MATERNAL AND FETAL CARDIAC AND FETAL BRAIN ACTIVITY FROM ELECTRICAL SIGNALS | ||
Patent #
US 6,816,744 B2
Filed 05/28/2002
|
Current Assignee
REPRODUCTIVE HEALTH TECHNOLOGIES INC.
|
Sponsoring Entity
REPRODUCTIVE HEALTH TECHNOLOGIES INC.
|
Transducer for sensing body sounds | ||
Patent #
US 20040228494A1
Filed 12/23/2003
|
Current Assignee
THINKLABS MEDICAL LLC
|
Sponsoring Entity
THINKLABS MEDICAL LLC
|
Non-invasive tissue glucose level monitoring | ||
Patent #
US 6,505,059 B1
Filed 04/06/1999
|
Current Assignee
General Hospital Corporation
|
Sponsoring Entity
General Hospital Corporation
|
Tension-adjustable mechanism for stethoscope earpieces | ||
Patent #
US 20030015368A1
Filed 07/18/2001
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
JP Morgan Chase Bank N.A.
|
Method and apparatus for monitoring respiration using signals from a piezoelectric sensor mounted on a substrate | ||
Patent #
US 6,517,497 B2
Filed 12/13/2000
|
Current Assignee
GE MARQUETTE MEDICAL SYSTEMS INC.
|
Sponsoring Entity
GE Medical Systems Information Technologies Incorporated
|
Reusable pulse oximeter probe and disposable bandage apparatus | ||
Patent #
US 6,519,487 B1
Filed 10/05/2000
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Sensidyne Inc.
|
System for indicating the expiration of the useful operating life of a pulse oximetry sensor | ||
Patent #
US 6,515,273 B2
Filed 02/10/2000
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Pulse oximeter probe-off detection system | ||
Patent #
US 6,526,300 B1
Filed 06/16/2000
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Low power pulse oximeter | ||
Patent #
US 20030028085A1
Filed 06/26/2002
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
JP Morgan Chase Bank N.A.
|
Shielded optical probe having an electrical connector | ||
Patent #
US 6,541,756 B2
Filed 01/25/2001
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Pulse oximeter monitor for expressing the urgency of the patient's condition | ||
Patent #
US 6,542,764 B1
Filed 12/01/2000
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Shielded optical probe and method | ||
Patent #
US 6,580,086 B1
Filed 10/19/1999
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Universal/upgrading pulse oximeter | ||
Patent #
US 6,584,336 B1
Filed 03/01/2000
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Pulse oximetry sensor adapter | ||
Patent #
US 6,597,933 B2
Filed 10/17/2001
|
Current Assignee
JP Morgan Chase Bank N.A.
|
Sponsoring Entity
Masimo Corporation
|
Generation of spatially-averaged excitation-emission map in heterogeneous tissue | ||
Patent #
US 6,597,932 B2
Filed 02/20/2001
|
Current Assignee
Cercacor Laboratories
|
Sponsoring Entity
ARGOSE INC.
|
Tension-adjustable mechanism for stethoscope earpieces | ||
Patent #
US 6,595,316 B2
Filed 07/18/2001
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
ANDROMED INC.
|
Pulse oximetry pulse indicator | ||
Patent #
US 6,606,511 B1
Filed 01/06/2000
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Integral patch type electronic physiological sensor | ||
Patent #
US 20030149349A1
Filed 12/18/2002
|
Current Assignee
Thomas P. Jensen
|
Sponsoring Entity
-
|
Optical spectroscopy pathlength measurement system | ||
Patent #
US 6,640,116 B2
Filed 08/09/2001
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Vibrating element liquid discharging apparatus having gas pressure sensing | ||
Patent #
US 20030196660A1
Filed 04/19/2002
|
Current Assignee
Instrumentarium Dental Incorporated
|
Sponsoring Entity
-
|
Asynchronous fluorescence scan | ||
Patent #
US 6,639,668 B1
Filed 11/03/2000
|
Current Assignee
Cercacor Laboratories
|
Sponsoring Entity
ARGOSE INC.
|
Rapid non-invasive blood pressure measuring device | ||
Patent #
US 6,632,181 B2
Filed 10/05/1999
|
Current Assignee
JP Morgan Chase Bank N.A.
|
Sponsoring Entity
Masimo Corporation
|
Signal processing apparatus | ||
Patent #
US 6,650,917 B2
Filed 12/04/2001
|
Current Assignee
JP Morgan Chase Bank N.A.
|
Sponsoring Entity
Masimo Corporation
|
Method and apparatus for demodulating signals in a pulse oximetry system | ||
Patent #
US 6,643,530 B2
Filed 12/13/2000
|
Current Assignee
JP Morgan Chase Bank N.A.
|
Sponsoring Entity
Masimo Corporation
|
Pulse oximeter probe-off detector | ||
Patent #
US 6,654,624 B2
Filed 12/19/2001
|
Current Assignee
JP Morgan Chase Bank N.A.
|
Sponsoring Entity
Masimo Corporation
|
Piezoelectric biological sound monitor with printed circuit board | ||
Patent #
US 6,661,161 B1
Filed 06/27/2002
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
ANDROMED INC.
|
Pulse oximeter user interface | ||
Patent #
US 6,658,276 B2
Filed 02/12/2002
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Sensor wrap including foldable applicator | ||
Patent #
US 6,671,531 B2
Filed 12/11/2001
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Reusable pulse oximeter probe and disposable bandage apparatus | ||
Patent #
US 6,343,224 B1
Filed 10/14/1999
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Sensidyne Inc.
|
Pulse oximetry sensor adapter | ||
Patent #
US 6,349,228 B1
Filed 09/23/1999
|
Current Assignee
JP Morgan Chase Bank N.A.
|
Sponsoring Entity
Masimo Corporation
|
Pulse oximeter probe-off detector | ||
Patent #
US 6,360,114 B1
Filed 03/21/2000
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Method and apparatus for estimating systolic and mean pulmonary artery pressures of a patient | ||
Patent #
US 6,368,283 B1
Filed 09/08/2000
|
Current Assignee
Universite Laval, Institut De Recherches Cliniques De Montreal
|
Sponsoring Entity
Universite Laval, Institut De Recherches Cliniques De Montreal
|
System and method of determining whether to recalibrate a blood pressure monitor | ||
Patent #
US 6,371,921 B1
Filed 11/01/1999
|
Current Assignee
VITAL INSITE INCORPORATED
|
Sponsoring Entity
VITAL INSITE INCORPORATED
|
Resposable pulse oximetry sensor | ||
Patent #
US 6,377,829 B1
Filed 12/09/1999
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Manual and automatic probe calibration | ||
Patent #
US 6,397,091 B2
Filed 11/30/1999
|
Current Assignee
The United States of America As Represented By The Secretary of Agriculture
|
Sponsoring Entity
The United States of America As Represented By The Secretary of Agriculture
|
Shielded optical probe and method having a longevity indication | ||
Patent #
US 6,388,240 B2
Filed 03/02/2001
|
Current Assignee
JP Morgan Chase Bank N.A.
|
Sponsoring Entity
Masimo Corporation
|
Physiological condition monitors utilizing very low frequency acoustic signals | ||
Patent #
US 6,415,033 B1
Filed 03/24/2000
|
Current Assignee
iLIFE Solutions Inc.
|
Sponsoring Entity
iLIFE Solutions Inc.
|
System and method for assessing breathing and vocal tract sound production of a user | ||
Patent #
US 6,423,013 B1
Filed 09/15/2000
|
Current Assignee
BOARD OF GOVERNORS OF SOUTHWEST MISSOURI STATE UNIVERSITY THE
|
Sponsoring Entity
BOARD OF GOVERNORS OF SOUTHWEST MISSOURI STATE UNIVERSITY THE
|
Module for acquiring electroencephalograph signals from a patient | ||
Patent #
US 6,430,437 B1
Filed 10/27/2000
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Physiometrix Inc.
|
Elastic sock for positioning an optical probe | ||
Patent #
US 6,470,199 B1
Filed 06/21/2000
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Plethysmograph pulse recognition processor | ||
Patent #
US 6,463,311 B1
Filed 12/23/1999
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Pulse oximeter user interface | ||
Patent #
US 20020161291A1
Filed 02/12/2002
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
JP Morgan Chase Bank N.A.
|
Acoustic biosensor for monitoring physiological conditions in a body implantation site | ||
Patent #
US 6,486,588 B2
Filed 06/01/2001
|
Current Assignee
Remon Medical Technologies LTD
|
Sponsoring Entity
Remon Medical Technologies LTD
|
Device and system for remote for in-clinic trans-abdominal/vaginal/cervical acquisition, and detection, analysis, and communication of maternal uterine and maternal and fetal cardiac and fetal brain activity from electrical signals | ||
Patent #
US 20020193670A1
Filed 05/28/2002
|
Current Assignee
REPRODUCTIVE HEALTH TECHNOLOGIES INC.
|
Sponsoring Entity
REPRODUCTIVE HEALTH TECHNOLOGIES INC.
|
Signal processing apparatus and method | ||
Patent #
US 6,501,975 B2
Filed 01/09/2001
|
Current Assignee
JP Morgan Chase Bank N.A.
|
Sponsoring Entity
Masimo Corporation
|
Phonopneumograph system | ||
Patent #
US 6,168,568 B1
Filed 10/04/1996
|
Current Assignee
Isonea Limited
|
Sponsoring Entity
KARMEL MEDICAL ACOUSTIC TECHNOLOGIES LTD.
|
Photodiode detector with integrated noise shielding | ||
Patent #
US 6,184,521 B1
Filed 01/06/1998
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Signal processing apparatus and method | ||
Patent #
US 6,206,830 B1
Filed 11/17/1999
|
Current Assignee
JP Morgan Chase Bank N.A.
|
Sponsoring Entity
Masimo Corporation
|
Method and apparatus for passive heart rate detection | ||
Patent #
US 6,210,344 B1
Filed 03/24/1999
|
Current Assignee
UMM ELECTRONICS INC.
|
Sponsoring Entity
UMM ELECTRONICS INC.
|
Glucose monitoring apparatus and method using laser-induced emission spectroscopy | ||
Patent #
US 6,232,609 B1
Filed 12/01/1995
|
Current Assignee
Cedars-Sinai Medical Center
|
Sponsoring Entity
Cedars-Sinai Medical Center
|
Method and apparatus for demodulating signals in a pulse oximetry system | ||
Patent #
US 6,229,856 B1
Filed 04/10/1998
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Signal processing apparatus | ||
Patent #
US 6,236,872 B1
Filed 11/25/1998
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Phonospirometry for non-invasive monitoring of respiration | ||
Patent #
US 6,241,683 B1
Filed 02/22/1999
|
Current Assignee
McGill University
|
Sponsoring Entity
McGill University
|
Noninvasive medical monitoring instrument using surface emitting laser devices | ||
Patent #
US 6,253,097 B1
Filed 03/06/1996
|
Current Assignee
Datex-Ohmeda Incorporated
|
Sponsoring Entity
Datex-Ohmeda Incorporated
|
Device for pressure measurements | ||
Patent #
US 6,248,083 B1
Filed 09/20/1999
|
Current Assignee
St. Jude Medical Coordination Center BVBA
|
Sponsoring Entity
Radi Medical Systems AB
|
Signal processing apparatus | ||
Patent #
US 6,263,222 B1
Filed 10/06/1997
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Low-noise optical probes | ||
Patent #
US 6,256,523 B1
Filed 06/09/1998
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Thin film piezoelectric polymer sensor | ||
Patent #
US 6,261,237 B1
Filed 08/20/1998
|
Current Assignee
MCG INTERNATIONAL INC.
|
Sponsoring Entity
MEDACOUSTICS INC.
|
Patient cable connector | ||
Patent #
US 6,280,213 B1
Filed 11/07/2000
|
Current Assignee
JP Morgan Chase Bank N.A.
|
Sponsoring Entity
Masimo Corporation
|
Optical filter for spectroscopic measurement and method of producing the optical filter | ||
Patent #
US 6,278,522 B1
Filed 05/26/1999
|
Current Assignee
Cercacor Laboratories
|
Sponsoring Entity
Masimo Laboratories Inc.
|
Piezoelectric acoustic device | ||
Patent #
US 6,275,594 B1
Filed 03/02/1999
|
Current Assignee
Hokuriku Electric Industry Company Limited
|
Sponsoring Entity
Hokuriku Electric Industry Company Limited
|
Human body sensor for seat | ||
Patent #
US 6,271,760 B1
Filed 04/05/1999
|
Current Assignee
Matsushita Electric Industrial Company Limited
|
Sponsoring Entity
Matsushita Electric Industrial Company Limited
|
Fetal pulse oximetry sensor | ||
Patent #
US 6,285,896 B1
Filed 07/07/1999
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Acoustic sensor and electric stethoscope device incorporating the same therein | ||
Patent #
US 6,295,365 B1
Filed 11/02/1999
|
Current Assignee
Haruyoshi Ota
|
Sponsoring Entity
Haruyoshi Ota
|
Reservoir electrodes for electroencephalograph headgear appliance | ||
Patent #
US 6,301,493 B1
Filed 11/01/1999
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Physiometrix Inc.
|
Anesthesia monitoring system based on electroencephalographic signals | ||
Patent #
US 6,317,627 B1
Filed 11/02/1999
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Physiometrix Inc.
|
Reusable pulse oximeter probe with disposable liner | ||
Patent #
US 6,321,100 B1
Filed 07/13/1999
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Sensidyne Inc.
|
Device and method for measuring pulsus paradoxus | ||
Patent #
US 6,325,761 B1
Filed 02/28/2000
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Gregory Jay
|
Stereo pulse oximeter | ||
Patent #
US 6,334,065 B1
Filed 05/27/1999
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Manual and automatic probe calibration | ||
Patent #
US 6,011,986 A
Filed 02/02/1998
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Rapid non-invasive blood pressure measuring device | ||
Patent #
US 6,027,452 A
Filed 06/26/1996
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
VITA INSITE INC.
|
Signal processing apparatus and method | ||
Patent #
US 6,036,642 A
Filed 06/22/1998
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Transducer support plate and tocodynamometer attachment system | ||
Patent #
US 6,048,323 A
Filed 04/13/1998
|
Current Assignee
Edward H. Hon
|
Sponsoring Entity
Edward H. Hon
|
Apparatus and method for measuring an induced perturbation to determine a physiological parameter | ||
Patent #
US 6,045,509 A
Filed 02/19/1998
|
Current Assignee
VITAL INSITE INC.
|
Sponsoring Entity
VITAL INSITE INC.
|
Signal processing apparatus and method | ||
Patent #
US 6,067,462 A
Filed 05/19/1998
|
Current Assignee
JP Morgan Chase Bank N.A.
|
Sponsoring Entity
Masimo Corporation
|
Signal processing apparatus | ||
Patent #
US 6,081,735 A
Filed 07/03/1997
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Portable integrated physiological monitoring system | ||
Patent #
US 6,083,156 A
Filed 11/16/1998
|
Current Assignee
Lisiecki Ronald S. Salt Lake City UT, Lisiecki Ronald S.
|
Sponsoring Entity
Lisiecki Ronald S. Salt Lake City UT, Lisiecki Ronald S.
|
Low noise optical probe | ||
Patent #
US 6,088,607 A
Filed 01/28/1997
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Method and apparatus for enhancing patient compliance during inspiration measurements | ||
Patent #
US 6,106,481 A
Filed 10/01/1997
|
Current Assignee
BOSTON MEDICAL TECHNOLOGIES INC.
|
Sponsoring Entity
BOSTON MEDICAL TECHNOLOGIES INC.
|
Blood glucose monitoring system | ||
Patent #
US 6,110,522 A
Filed 04/16/1998
|
Current Assignee
Cercacor Laboratories
|
Sponsoring Entity
Masimo Laboratories Inc.
|
Method and devices for laser induced fluorescence attenuation spectroscopy | ||
Patent #
US 6,124,597 A
Filed 07/07/1997
|
Current Assignee
Cedars-Sinai Medical Center
|
Sponsoring Entity
Cedars-Sinai Medical Center
|
Device and method for measuring pulsus paradoxus | ||
Patent #
US 6,129,675 A
Filed 09/11/1998
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Gregory Jay
|
Self adjusting headgear appliance using reservoir electrodes | ||
Patent #
US 6,128,521 A
Filed 07/10/1998
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Physiometrix Inc.
|
Reusable pulse oximeter probe and disposable bandage apparatus | ||
Patent #
US 6,144,868 A
Filed 04/12/1999
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Sensidyne Inc.
|
Active pulse blood constituent monitoring | ||
Patent #
US 6,151,516 A
Filed 11/12/1998
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Laboratories Inc.
|
Circuit board based cable connector | ||
Patent #
US 6,152,754 A
Filed 12/21/1999
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Signal processing apparatus | ||
Patent #
US 6,157,850 A
Filed 05/16/1997
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Patient cable sensor switch | ||
Patent #
US 6,165,005 A
Filed 12/07/1999
|
Current Assignee
JP Morgan Chase Bank N.A.
|
Sponsoring Entity
Masimo Corporation
|
Active pulse blood constituent monitoring method | ||
Patent #
US 5,860,919 A
Filed 04/17/1997
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Shielded medical connector | ||
Patent #
US 5,890,929 A
Filed 06/03/1997
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
-
|
Exciter-detector unit for measuring physiological parameters | ||
Patent #
US 5,904,654 A
Filed 02/26/1996
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
-
|
Device for producing a display from monitored data | ||
Patent #
US 5,912,656 A
Filed 07/01/1994
|
Current Assignee
Datex-Ohmeda Incorporated
|
Sponsoring Entity
-
|
Method and apparatus for demodulating signals in a pulse oximetry system | ||
Patent #
US 5,919,134 A
Filed 01/12/1998
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
-
|
Patient cable connector | ||
Patent #
US 5,934,925 A
Filed 04/09/1997
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Optical filter for spectroscopic measurement and method of producing the optical filter | ||
Patent #
US 5,940,182 A
Filed 06/01/1998
|
Current Assignee
Cercacor Laboratories
|
Sponsoring Entity
-
|
Optoacoustic imaging system | ||
Patent #
US 5,977,538 A
Filed 05/11/1998
|
Current Assignee
CEREVAST THERAPEUTICS INC.
|
Sponsoring Entity
IMARX THERAPEUTICS INC.
|
Pulse oximetry sensor adapter | ||
Patent #
US 5,995,855 A
Filed 02/11/1998
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Device and method for detecting and recording snoring | ||
Patent #
US 5,989,193 A
Filed 02/19/1998
|
Current Assignee
SOMED PTY LIMITED
|
Sponsoring Entity
SOMED PTY LIMITED
|
Signal processing apparatus and method | ||
Patent #
US 6,002,952 A
Filed 04/14/1997
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Patient cable sensor switch | ||
Patent #
US 5,997,343 A
Filed 03/19/1998
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Sonification system using synthesized realistic body sounds modified by other medically-important variables for physiological monitoring | ||
Patent #
US 5,730,140 A
Filed 04/28/1995
|
Current Assignee
Fitch William Tecumseh S.
|
Sponsoring Entity
Fitch William Tecumseh S.
|
Patient cable connector | ||
Patent #
D393830S
Filed 10/16/1995
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Blood glucose monitoring system | ||
Patent #
US 5,743,262 A
Filed 06/07/1995
|
Current Assignee
Cercacor Laboratories
|
Sponsoring Entity
Masimo Corporation
|
Capnometer | ||
Patent #
US 5,738,106 A
Filed 02/23/1996
|
Current Assignee
Nihon Kohden Corporation
|
Sponsoring Entity
Nihon Kohden Corporation
|
Signal processing apparatus and method | ||
Patent #
US 5,769,785 A
Filed 06/07/1995
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Manual and automatic probe calibration | ||
Patent #
US 5,758,644 A
Filed 06/07/1995
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Optical filter for spectroscopic measurement and method of producing the optical filter | ||
Patent #
US 5,760,910 A
Filed 06/07/1995
|
Current Assignee
Cercacor Laboratories
|
Sponsoring Entity
Masimo Corporation
|
Low-noise optical probes | ||
Patent #
US 5,782,757 A
Filed 10/16/1995
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Automatically activated blood pressure measurement device | ||
Patent #
US 5,785,659 A
Filed 05/17/1996
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Vital Insite Inc.
|
Motion insensitive pulse detector | ||
Patent #
US 5,791,347 A
Filed 08/14/1996
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
VITAL INSITE INC.
|
Auscultation augmentation device | ||
Patent #
US 5,812,678 A
Filed 02/26/1996
|
Current Assignee
Dennis W. Davis, Rainone Adele Scalise, Scalise Stanley J.
|
Sponsoring Entity
Dennis W. Davis, Rainone Adele Scalise, Scalise Stanley J.
|
Apparatus and method for measuring an induced perturbation to determine a physiological parameter | ||
Patent #
US 5,810,734 A
Filed 11/22/1995
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
VITAL INSITE INC.
|
Electronic stethoscope | ||
Patent #
US 5,825,895 A
Filed 07/19/1996
|
Current Assignee
STETCHTECH CORPORATION
|
Sponsoring Entity
STETCHTECH CORPORATION
|
Manual and automatic probe calibration | ||
Patent #
US 5,823,950 A
Filed 11/12/1996
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Apparatus and method for measuring an induced perturbation to determine a physiological parameter | ||
Patent #
US 5,833,618 A
Filed 11/22/1995
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
VITAL INSITE INC.
|
Apparatus and method for measuring an induced perturbation to determine a physical condition of the human arterial system | ||
Patent #
US 5,830,131 A
Filed 11/22/1995
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
VITAL INSITE INC.
|
Apparatus and method for measuring an induced perturbation to determine blood pressure | ||
Patent #
US 5,590,649 A
Filed 04/15/1994
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
VITAL INSITE INC.
|
Electronic stethescope | ||
Patent #
US 5,602,924 A
Filed 12/09/1993
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
ANDROMED INC.
|
Signal processing apparatus | ||
Patent #
US 5,632,272 A
Filed 10/07/1994
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Low noise optical probe | ||
Patent #
US 5,638,818 A
Filed 11/01/1994
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Active pulse blood constituent monitoring | ||
Patent #
US 5,638,816 A
Filed 06/07/1995
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Patient cable connector | ||
Patent #
US 5,645,440 A
Filed 10/16/1995
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Signal processing apparatus | ||
Patent #
US 5,685,299 A
Filed 12/14/1995
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
EEG headpiece with disposable electrodes and apparatus and system and method for use therewith | ||
Patent #
US 5,479,934 A
Filed 09/23/1993
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Physiometrix Inc.
|
Signal processing apparatus and method | ||
Patent #
US 5,482,036 A
Filed 05/26/1994
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Signal processing apparatus | ||
Patent #
US 5,490,505 A
Filed 10/06/1993
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Arterial sensor | ||
Patent #
US 5,494,043 A
Filed 05/04/1993
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
VITAL INSITE INC.
|
Alarm for patient monitor and life support equipment | ||
Patent #
US 5,534,851 A
Filed 06/06/1994
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Russek Linda G.
|
Apparatus and method for noninvasive blood pressure measurement | ||
Patent #
US 5,533,511 A
Filed 01/05/1994
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
VITAL INSITE INCORPORATED
|
Active noise control stethoscope | ||
Patent #
US 5,539,831 A
Filed 08/16/1993
|
Current Assignee
University of Mississippi
|
Sponsoring Entity
University of Mississippi
|
Positive displacement piston flow meter with damping assembly | ||
Patent #
US 5,562,002 A
Filed 02/03/1995
|
Current Assignee
Sensidyne Inc.
|
Sponsoring Entity
Sensidyne Inc.
|
Headset for electronic stethoscope | ||
Patent #
US 5,561,275 A
Filed 04/28/1994
|
Current Assignee
ANDROMED INC.
|
Sponsoring Entity
Theratechnologies Inc.
|
Patient-to-transducer interface device | ||
Patent #
US 5,578,799 A
Filed 06/02/1995
|
Current Assignee
UNIVERSITY RESEARCH ENGINEERS ASSOCIATES INC.
|
Sponsoring Entity
UNIVERSITY RESEARCH ENGINEERS ASSOCIATES INC.
|
Method for determining the biodistribution of substances using fluorescence spectroscopy | ||
Patent #
US 5,377,676 A
Filed 03/30/1993
|
Current Assignee
Cedars-Sinai Medical Center
|
Sponsoring Entity
Cedars-Sinai Medical Center
|
Ultrasound medical diagnostic device having a coupling medium providing self-adherence to a patient | ||
Patent #
US 5,394,877 A
Filed 03/21/1994
|
Current Assignee
Axon Medical Inc., Axon Medical Inc. Salt Lake City UT
|
Sponsoring Entity
Axon Medical Inc., Axon Medical Inc. Salt Lake City UT
|
Blood pressure monitoring system | ||
Patent #
US 5,406,952 A
Filed 02/11/1993
|
Current Assignee
Biosyss Corporation Braintree MA, Biosyss Corporation
|
Sponsoring Entity
Biosyss Corporation Braintree MA, Biosyss Corporation
|
Housing for a dental unit disinfecting device | ||
Patent #
D359546S
Filed 01/27/1994
|
Current Assignee
Theratechnologies Inc.
|
Sponsoring Entity
Theratechnologies Inc.
|
Pulse responsive device | ||
Patent #
US 5,431,170 A
Filed 11/25/1992
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Mathews Geoffrey R.
|
Stethoscope head | ||
Patent #
D361840S
Filed 04/21/1994
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Theratechnologies Inc.
|
Stethoscope headset | ||
Patent #
D362063S
Filed 04/21/1994
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Theratechnologies Inc.
|
Patient monitor sheets | ||
Patent #
US 5,448,996 A
Filed 02/08/1994
|
Current Assignee
Lifesigns Inc. New York NY, Lifesigns Inc.
|
Sponsoring Entity
Lifesigns Inc. New York NY, Lifesigns Inc.
|
Finger-cot probe | ||
Patent #
US 5,452,717 A
Filed 06/02/1994
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Stethoscope ear tip | ||
Patent #
D363120S
Filed 04/21/1994
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Theratechnologies Inc.
|
Apparatus for calibrating pulse oximeter | ||
Patent #
US 5,278,627 A
Filed 02/14/1992
|
Current Assignee
Nihon Kohden Corporation
|
Sponsoring Entity
Nihon Kohden Corporation
|
Alarm for patient monitor and life support equipment system | ||
Patent #
US 5,319,355 A
Filed 07/10/1991
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Russek Linda G.
|
Low noise finger cot probe | ||
Patent #
US 5,337,744 A
Filed 07/14/1993
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Electronic stethoscope housing | ||
Patent #
D353195S
Filed 05/28/1993
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Theratechnologies Inc.
|
Stethoscope head | ||
Patent #
D353196S
Filed 05/28/1993
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Theratechnologies Inc.
|
Stethoscope cover | ||
Patent #
US 5,269,314 A
Filed 01/09/1992
|
Current Assignee
Altera Corporation
|
Sponsoring Entity
Morris Saundra K., Kendall Dwain
|
Medical auscultation device | ||
Patent #
US 5,078,151 A
Filed 09/04/1990
|
Current Assignee
Laballery Vincent
|
Sponsoring Entity
Laballery Vincent
|
Passive fetal monitoring sensor | ||
Patent #
US 5,140,992 A
Filed 07/16/1990
|
Current Assignee
United States Of America As Represented By The Administrator Of The National Aeronautics And Space Administration
|
Sponsoring Entity
United States Of America As Represented By The Administrator Of The National Aeronautics And Space Administration
|
Respiration rate monitor | ||
Patent #
US 5,143,078 A
Filed 09/29/1989
|
Current Assignee
Colin Medical Technology Corporation
|
Sponsoring Entity
COLIN ELECTRONICS CO. LTD. A CO. OF JAPAN
|
Method and apparatus for continuously and noninvasively measuring the blood pressure of a patient | ||
Patent #
US 5,163,438 A
Filed 09/24/1990
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Paramed Technology Incorporated
|
Diagnostic apnea monitor system | ||
Patent #
US 4,982,738 A
Filed 11/30/1988
|
Current Assignee
DR. MADAUS GMBH A CORP. OF WEST GERMANY
|
Sponsoring Entity
DR. MADAUS GMBH A CORP. OF WEST GERMANY
|
Electronically augmented stethoscope with timing sound | ||
Patent #
US 5,003,605 A
Filed 08/14/1989
|
Current Assignee
ARK CLO 2000-1 LIMITED
|
Sponsoring Entity
CARDIODYNE INC. A CORP. OF DE
|
Air-gap hydrophone | ||
Patent #
US 5,033,032 A
Filed 09/14/1989
|
Current Assignee
MICROSONICS INC. A CORP. OF CO
|
Sponsoring Entity
MICROSONICS INC. A CORP. OF CO
|
Noninvasive diagnostic system for coronary artery disease | ||
Patent #
US 5,036,857 A
Filed 10/26/1989
|
Current Assignee
University of Medicine and Dentistry of New Jersey
|
Sponsoring Entity
University of Medicine and Dentistry of New Jersey
|
Oximeter sensor assembly with integral cable and method of forming the same | ||
Patent #
US 5,041,187 A
Filed 10/01/1990
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Thor Technology Corporation
|
Oximeter sensor assembly with integral cable and encoder | ||
Patent #
US 5,069,213 A
Filed 12/19/1989
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
THOR TECHNOLOGY CORPORATION
|
Nasal breath monitor | ||
Patent #
US 4,924,876 A
Filed 11/04/1987
|
Current Assignee
Peter Cameron
|
Sponsoring Entity
Peter Cameron
|
Bio-acoustic signal sensing device | ||
Patent #
US 4,947,859 A
Filed 01/25/1989
|
Current Assignee
CHERNE LLOYD AND JOAN
|
Sponsoring Entity
CHERNE MEDICAL INC. 5725 SOUTH COUNTY ROAD 18 MINNEAPOLIS MN 55436 A CORP. OF MN
|
Method and apparatus for measuring respiratory flow | ||
Patent #
US 4,960,118 A
Filed 05/01/1989
|
Current Assignee
Pennock Bernard E.
|
Sponsoring Entity
Pennock Bernard E.
|
Oximeter sensor assembly with integral cable | ||
Patent #
US 4,964,408 A
Filed 04/29/1988
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
THOR TECHNOLOGY CORPORATION
|
Method and apparatus for continuously and non-invasively measuring the blood pressure of a patient | ||
Patent #
US 4,960,128 A
Filed 11/14/1988
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
PARAMED TECHNOLOGY INCORPORATED A CORP. OF CA
|
Displacement sensor | ||
Patent #
US 4,805,633 A
Filed 12/31/1987
|
Current Assignee
TDK Corporation
|
Sponsoring Entity
TDK Corporation
|
Portable, multi-channel, physiological data monitoring system | ||
Patent #
US 4,827,943 A
Filed 10/15/1987
|
Current Assignee
ADVANCED MEDICAL TECHNOLOGIS INC.
|
Sponsoring Entity
ADVANCED MEDICAL TECHNOLOGIS INC.
|
Disposable stethoscope head shield | ||
Patent #
US 4,871,046 A
Filed 05/23/1988
|
Current Assignee
Turner Kenneth R.
|
Sponsoring Entity
Turner Kenneth R.
|
Interactive transector device | ||
Patent #
US 4,884,809 A
Filed 12/30/1985
|
Current Assignee
Rowan Larry
|
Sponsoring Entity
Rowan Larry
|
Active multi-layer piezoelectric tactile sensor apparatus and method | ||
Patent #
US 4,634,917 A
Filed 12/26/1984
|
Current Assignee
Battelle Memorial Institute
|
Sponsoring Entity
Battelle Memorial Institute
|
Pulse oximeter monitor | ||
Patent #
US 4,653,498 A
Filed 05/20/1986
|
Current Assignee
Nellcor Puritan Bennett Incorporated
|
Sponsoring Entity
Nellcor Incorporated
|
Heart sound sensor | ||
Patent #
US 4,672,976 A
Filed 06/10/1986
|
Current Assignee
CHERNE LLOYD AND JOAN
|
Sponsoring Entity
CHERNE INDUSTRIES INC.
|
Respiration and heart rate monitoring apparatus | ||
Patent #
US 4,576,179 A
Filed 05/06/1983
|
Current Assignee
A.H. Robins Co. Inc.
|
Sponsoring Entity
A.H. Robins Co. Inc.
|
Diaphragm comprising at least one foil of a piezoelectric polymer material | ||
Patent #
US 4,578,613 A
Filed 01/24/1980
|
Current Assignee
US Philips Corporation
|
Sponsoring Entity
US Philips Corporation
|
ECG enhancement by adaptive cancellation of electrosurgical interference | ||
Patent #
US 4,537,200 A
Filed 07/07/1983
|
Current Assignee
Board of Trustees of the Leland Stanford Junior University
|
Sponsoring Entity
Board of Trustees of the Leland Stanford Junior University
|
Transducer with a flexible sensor element for measurement of mechanical values | ||
Patent #
US 4,413,202 A
Filed 04/11/1983
|
Current Assignee
Hans List
|
Sponsoring Entity
Hans List
|
Piezoelectric acceleration pick-up | ||
Patent #
US 4,326,143 A
Filed 10/13/1978
|
Current Assignee
Kistler Instrumente AG
|
Sponsoring Entity
Kistler Instrumente AG
|
Electronic stethoscope | ||
Patent #
US 4,254,302 A
Filed 06/05/1979
|
Current Assignee
WALSHE FAMILY REVOCABLE LIVING TRUST
|
Sponsoring Entity
Walshe James C.
|
Microphone capable of cancelling mechanical generated noise | ||
Patent #
US 4,127,749 A
Filed 03/31/1977
|
Current Assignee
Matsushita Electric Industrial Company Limited
|
Sponsoring Entity
Matsushita Electric Industrial Company Limited
|
Multi-sound chamber stethoscope | ||
Patent #
US 3,951,230 A
Filed 01/31/1975
|
Current Assignee
3M Company
|
Sponsoring Entity
3M Company
|
Signal processing apparatus | ||
Patent #
US 8,126,528 B2
Filed 03/24/2009
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
System and method for acquisition and analysis of physiological auditory signals | ||
Patent #
US 20070282174A1
Filed 11/20/2006
|
Current Assignee
Audio Evolution Diagnostics Inc.
|
Sponsoring Entity
Audio Evolution Diagnostics Inc.
|
Method and system for acquiring biosignals in the presence of HF interference | ||
Patent #
US 8,108,039 B2
Filed 07/13/2007
|
Current Assignee
NeuroWave Systems Inc.
|
Sponsoring Entity
NeuroWave Systems Inc.
|
Electronic auscultation device | ||
Patent #
US 8,092,396 B2
Filed 10/20/2006
|
Current Assignee
Steven J. Mccoy, Sun I-Chiang, Bagha Merat, Henneman Kim Porter, Tirandaz Arash, Nevin Richard D., Roethig David O.
|
Sponsoring Entity
Steven J. Mccoy, Sun I-Chiang, Bagha Merat, Henneman Kim Porter, Tirandaz Arash, Nevin Richard D., Roethig David O.
|
BLOOD PRESSURE MEASUREMENT SYSTEM | ||
Patent #
US 20120059267A1
Filed 08/25/2011
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Connector assembly with reduced unshielded area | ||
Patent #
US 8,118,620 B2
Filed 10/09/2008
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Health monitoring appliance | ||
Patent #
US 8,121,673 B2
Filed 04/18/2009
|
Current Assignee
Koninklijke Philips N.V.
|
Sponsoring Entity
Bao Tran
|
Signal processing apparatus | ||
Patent #
US 8,128,572 B2
Filed 11/24/2008
|
Current Assignee
JP Morgan Chase Bank N.A.
|
Sponsoring Entity
Masimo Corporation
|
Noninvasive multi-parameter patient monitor | ||
Patent #
US 8,130,105 B2
Filed 03/01/2006
|
Current Assignee
Cercacor Laboratories
|
Sponsoring Entity
Cercacor Laboratories
|
Method and apparatus for demodulating signals in a pulse oximetry system | ||
Patent #
US 8,150,487 B2
Filed 05/18/2007
|
Current Assignee
JP Morgan Chase Bank N.A.
|
Sponsoring Entity
Masimo Corporation
|
Manual and automatic probe calibration | ||
Patent #
US 8,145,287 B2
Filed 04/24/2009
|
Current Assignee
JP Morgan Chase Bank N.A.
|
Sponsoring Entity
Masimo Corporation
|
Reusable pulse oximeter probe and disposable bandage apparatii | ||
Patent #
US 8,175,672 B2
Filed 07/06/2007
|
Current Assignee
JP Morgan Chase Bank N.A.
|
Sponsoring Entity
Masimo Corporation
|
PHYSIOLOGICAL MONITOR CALIBRATION SYSTEM | ||
Patent #
US 20120116175A1
Filed 10/15/2011
|
Current Assignee
Cercacor Laboratories
|
Sponsoring Entity
Cercacor Laboratories
|
Signal processing apparatus and method | ||
Patent #
US 8,180,420 B2
Filed 08/20/2007
|
Current Assignee
JP Morgan Chase Bank N.A.
|
Sponsoring Entity
Masimo Corporation
|
Drug administration controller | ||
Patent #
US 8,182,443 B1
Filed 01/17/2007
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Method and apparatus for demodulating signals in a pulse oximetry system | ||
Patent #
US 8,185,180 B2
Filed 08/20/2007
|
Current Assignee
JP Morgan Chase Bank N.A.
|
Sponsoring Entity
Masimo Corporation
|
Signal processing apparatus and method | ||
Patent #
US 8,190,227 B2
Filed 02/09/2009
|
Current Assignee
JP Morgan Chase Bank N.A.
|
Sponsoring Entity
Masimo Corporation
|
Noninvasive multi-parameter patient monitor | ||
Patent #
US 8,190,223 B2
Filed 03/01/2006
|
Current Assignee
Cercacor Laboratories
|
Sponsoring Entity
Cercacor Laboratories
|
NON-INVASIVE INTRAVASCULAR VOLUME INDEX MONITOR | ||
Patent #
US 20120179006A1
Filed 01/10/2012
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
JP Morgan Chase Bank N.A.
|
System and method for creating a stable optical interface | ||
Patent #
US 8,219,172 B2
Filed 03/17/2006
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
GLT Acquisition Corporation
|
Noninvasive multi-parameter patient monitor | ||
Patent #
US 8,224,411 B2
Filed 03/01/2006
|
Current Assignee
Cercacor Laboratories
|
Sponsoring Entity
Cercacor Laboratories
|
Physiological trend monitor | ||
Patent #
US 8,228,181 B2
Filed 01/31/2011
|
Current Assignee
JP Morgan Chase Bank N.A.
|
Sponsoring Entity
Masimo Corporation
|
Low-noise optical probes for reducing ambient noise | ||
Patent #
US 8,229,533 B2
Filed 01/25/2012
|
Current Assignee
JP Morgan Chase Bank N.A.
|
Sponsoring Entity
Masimo Corporation
|
Optical sensor including disposable and reusable elements | ||
Patent #
US 8,233,955 B2
Filed 11/29/2006
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Cercacor Laboratories
|
Cough detector | ||
Patent #
US 8,241,223 B2
Filed 04/30/2006
|
Current Assignee
RESPIRI LIMITED
|
Sponsoring Entity
Isonea Limited
|
Noninvasive oximetry optical sensor including disposable and reusable elements | ||
Patent #
US 8,244,325 B2
Filed 05/29/2007
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Cercacor Laboratories
|
MEDICAL CHARACTERIZATION SYSTEM | ||
Patent #
US 20120209082A1
Filed 02/13/2012
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
JP Morgan Chase Bank N.A.
|
RESPIRATORY EVENT ALERT SYSTEM | ||
Patent #
US 20120209084A1
Filed 01/20/2012
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
JP Morgan Chase Bank N.A.
|
Multi-stream sensor for noninvasive measurement of blood constituents | ||
Patent #
US 8,203,704 B2
Filed 08/03/2009
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Cercacor Laboratories
|
Multiple wavelength sensor substrate | ||
Patent #
US 8,255,027 B2
Filed 07/19/2010
|
Current Assignee
Cercacor Laboratories
|
Sponsoring Entity
Cercacor Laboratories
|
Patient monitor capable of monitoring the quality of attached probes and accessories | ||
Patent #
US 8,255,026 B1
Filed 10/12/2007
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Physiological monitor | ||
Patent #
US 8,255,028 B2
Filed 05/05/2006
|
Current Assignee
JP Morgan Chase Bank N.A.
|
Sponsoring Entity
Masimo Corporation
|
Variable indication estimator | ||
Patent #
US 8,260,577 B2
Filed 01/14/2011
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
High sensitivity noise immune stethoscope | ||
Patent #
US 8,265,291 B2
Filed 11/15/2006
|
Current Assignee
Active Signal Technologies Inc
|
Sponsoring Entity
Active Signal Technologies Inc
|
Oximeter probe off indicator defining probe off space | ||
Patent #
US 8,265,723 B1
Filed 10/12/2007
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Cercacor Laboratories
|
DRUG ADMINISTRATION CONTROLLER | ||
Patent #
US 20120227739A1
Filed 05/18/2012
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
JP Morgan Chase Bank N.A.
|
Sensor, Sensor Pad and Sensor Array for Detecting Infrasonic Acoustic Signals | ||
Patent #
US 20120232427A1
Filed 06/23/2011
|
Current Assignee
CVR Global Inc.
|
Sponsoring Entity
CVR Global Inc.
|
ELECTRO ACOUSTIC TRANSDUCER | ||
Patent #
US 20120230523A1
Filed 11/10/2010
|
Current Assignee
Ehrlund Gran
|
Sponsoring Entity
Ehrlund Gran
|
Transducer for sensing actual or simulated body sounds | ||
Patent #
US 8,275,140 B2
Filed 05/14/2008
|
Current Assignee
Smith Clive Leonard
|
Sponsoring Entity
Smith Clive Leonard
|
Systems and methods for storing, analyzing, and retrieving medical data | ||
Patent #
US 8,274,360 B2
Filed 10/10/2008
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
PATIENT MONITOR FOR MONITORING MICROCIRCULATION | ||
Patent #
US 20120265039A1
Filed 02/09/2012
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Multiple wavelength sensor emitters | ||
Patent #
US 8,301,217 B2
Filed 09/28/2009
|
Current Assignee
Cercacor Laboratories
|
Sponsoring Entity
Cercacor Laboratories
|
Method for data reduction and calibration of an OCT-based physiological monitor | ||
Patent #
US 8,306,596 B2
Filed 09/22/2010
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
GLT Acquisition Corporation
|
PEDIATRIC MONITOR SENSOR STEADY GAME | ||
Patent #
US 20120283524A1
Filed 04/18/2012
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Systems and methods for storing, analyzing, retrieving and displaying streaming medical data | ||
Patent #
US 8,310,336 B2
Filed 10/14/2010
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
SYSTEM FOR GENERATING ALARMS BASED ON ALARM PATTERNS | ||
Patent #
US 20120286955A1
Filed 04/19/2012
|
Current Assignee
JP Morgan Chase Bank N.A.
|
Sponsoring Entity
JP Morgan Chase Bank N.A.
|
Duo connector patient cable | ||
Patent #
US 8,315,683 B2
Filed 09/20/2007
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
PERSONAL HEALTH DEVICE | ||
Patent #
US 20120296178A1
Filed 05/16/2012
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Piezo element stethoscope | ||
Patent #
US 8,320,576 B1
Filed 11/06/2009
|
Current Assignee
Abbruscato Charles Richard
|
Sponsoring Entity
Abbruscato Charles Richard
|
HIGH SENSITIVITY NOISE IMMUNE STETHOSCOPE | ||
Patent #
US 20120302920A1
Filed 08/08/2012
|
Current Assignee
Active Signal Technologies Inc
|
Sponsoring Entity
Active Signal Technologies Inc
|
PATIENT MONITOR CAPABLE OF MONITORING THE QUALITY OF ATTACHED PROBES AND ACCESSORIES | ||
Patent #
US 20120319816A1
Filed 08/27/2012
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
JP Morgan Chase Bank N.A.
|
Patient monitor having context-based sensitivity adjustments | ||
Patent #
US 8,337,403 B2
Filed 10/20/2008
|
Current Assignee
JP Morgan Chase Bank N.A.
|
Sponsoring Entity
Masimo Corporation
|
PATIENT MONITORING SYSTEM | ||
Patent #
US 20120330112A1
Filed 06/19/2012
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Reflection-detector sensor position indicator | ||
Patent #
US 8,346,330 B2
Filed 10/12/2009
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Portable patient monitor | ||
Patent #
US 8,353,842 B2
Filed 12/23/2008
|
Current Assignee
JP Morgan Chase Bank N.A.
|
Sponsoring Entity
Masimo Corporation
|
Ceramic emitter substrate | ||
Patent #
US 8,355,766 B2
Filed 10/09/2008
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Signal processing apparatus | ||
Patent #
US 8,359,080 B2
Filed 02/15/2012
|
Current Assignee
JP Morgan Chase Bank N.A.
|
Sponsoring Entity
Masimo Corporation
|
Magnetic Reusable Sensor | ||
Patent #
US 20130023775A1
Filed 07/16/2012
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Physiological monitor | ||
Patent #
US 8,364,223 B2
Filed 05/03/2006
|
Current Assignee
JP Morgan Chase Bank N.A.
|
Sponsoring Entity
Masimo Corporation
|
Signal processing apparatus | ||
Patent #
US 8,364,226 B2
Filed 02/09/2012
|
Current Assignee
JP Morgan Chase Bank N.A.
|
Sponsoring Entity
Masimo Corporation
|
Tissue profile wellness monitor | ||
Patent #
US 8,374,665 B2
Filed 04/21/2008
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Cercacor Laboratories
|
MULTIPLE MEASUREMENT MODE IN A PHYSIOLOGICAL SENSOR | ||
Patent #
US 20130041591A1
Filed 07/13/2012
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
MODULATED PHYSIOLOGICAL SENSOR | ||
Patent #
US 20130046204A1
Filed 08/13/2012
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
HEALTH CARE SANITATION MONITORING SYSTEM | ||
Patent #
US 20130045685A1
Filed 08/17/2012
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
JP Morgan Chase Bank N.A.
|
Physiological parameter tracking system | ||
Patent #
US 8,385,995 B2
Filed 08/06/2007
|
Current Assignee
JP Morgan Chase Bank N.A.
|
Sponsoring Entity
Masimo Corporation
|
Multiple wavelength sensor emitters | ||
Patent #
US 8,385,996 B2
Filed 04/13/2009
|
Current Assignee
Cercacor Laboratories
|
Sponsoring Entity
Cercacor Laboratories
|
Magnetic connector | ||
Patent #
US 8,388,353 B2
Filed 03/10/2010
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Cercacor Laboratories
|
OCCLUSIVE NON-INFLATABLE BLOOD PRESSURE DEVICE | ||
Patent #
US 20130060147A1
Filed 08/02/2012
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
JP Morgan Chase Bank N.A.
|
METHOD FOR DATA REDUCTION AND CALIBRATION OF AN OCT-BASED PHYSIOLOGICAL MONITOR | ||
Patent #
US 20130060108A1
Filed 11/02/2012
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Floating ballast mass active stethoscope or sound pickup device | ||
Patent #
US 8,396,228 B2
Filed 02/27/2008
|
Current Assignee
STETHOSCOPE TECHOLOGIES INC.
|
Sponsoring Entity
STETHOSCOPE TECHOLOGIES INC.
|
Systems and methods for indicating an amount of use of a sensor | ||
Patent #
US 8,399,822 B2
Filed 03/22/2011
|
Current Assignee
JP Morgan Chase Bank N.A.
|
Sponsoring Entity
Masimo Corporation
|
Secondary-emitter sensor position indicator | ||
Patent #
US 8,401,602 B2
Filed 10/12/2009
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Prediction and monitoring of clinical episodes | ||
Patent #
US 8,403,865 B2
Filed 07/25/2007
|
Current Assignee
EarlySense Ltd.
|
Sponsoring Entity
EarlySense Ltd.
|
System and method for altering a display mode | ||
Patent #
US 8,405,608 B2
Filed 02/28/2008
|
Current Assignee
JP Morgan Chase Bank N.A.
|
Sponsoring Entity
Masimo Corporation
|
PERFUSION INDEX SMOOTHER | ||
Patent #
US 20130079610A1
Filed 09/26/2012
|
Current Assignee
JP Morgan Chase Bank N.A.
|
Sponsoring Entity
JP Morgan Chase Bank N.A.
|
Plethysmograph variability processor | ||
Patent #
US 8,414,499 B2
Filed 12/07/2007
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
PHYSIOLOGICAL ACOUSTIC MONITORING SYSTEM | ||
Patent #
US 20130090567A1
Filed 10/12/2012
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
JP Morgan Chase Bank N.A.
|
Non-invasive sensor calibration device | ||
Patent #
US 8,418,524 B2
Filed 06/11/2010
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Multi-wavelength physiological monitor | ||
Patent #
US 8,423,106 B2
Filed 03/10/2008
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Cercacor Laboratories
|
FINGERTIP PULSE OXIMETER | ||
Patent #
US 20130096405A1
Filed 08/10/2012
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
JP Morgan Chase Bank N.A.
|
SYSTEMS AND METHODS FOR STORING, ANALYZING, AND RETRIEVING MEDICAL DATA | ||
Patent #
US 20130096936A1
Filed 09/24/2012
|
Current Assignee
JP Morgan Chase Bank N.A.
|
Sponsoring Entity
JP Morgan Chase Bank N.A.
|
Spot check monitor credit system | ||
Patent #
US 8,428,967 B2
Filed 05/18/2011
|
Current Assignee
Cercacor Laboratories
|
Sponsoring Entity
Cercacor Laboratories
|
System for determining confidence in respiratory rate measurements | ||
Patent #
US 8,430,817 B1
Filed 10/15/2010
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Contoured protrusion for improving spectroscopic measurement of blood constituents | ||
Patent #
US 8,437,825 B2
Filed 07/02/2009
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Cercacor Laboratories
|
Two-part patch sensor for monitoring vital signs | ||
Patent #
US 8,449,469 B2
Filed 11/10/2006
|
Current Assignee
Sotera Wireless Incorporated
|
Sponsoring Entity
Sotera Wireless Incorporated
|
Method of fabricating epitaxial structures | ||
Patent #
US 8,455,290 B2
Filed 09/04/2010
|
Current Assignee
Masimo Semiconductor Inc.
|
Sponsoring Entity
Masimo Semiconductor Inc.
|
Congenital heart disease monitor | ||
Patent #
US 8,457,707 B2
Filed 09/19/2007
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Low power pulse oximeter | ||
Patent #
US 8,457,703 B2
Filed 11/13/2007
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Signal processing apparatus | ||
Patent #
US 8,463,349 B2
Filed 05/03/2012
|
Current Assignee
JP Morgan Chase Bank N.A.
|
Sponsoring Entity
Masimo Corporation
|
SMMR (small molecule metabolite reporters) for use as in vivo glucose biosensors | ||
Patent #
US 8,466,286 B2
Filed 08/22/2011
|
Current Assignee
Cercacor Laboratories
|
Sponsoring Entity
Cercacor Laboratories
|
Interference detector for patient monitor | ||
Patent #
US 8,471,713 B2
Filed 07/22/2010
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Laboratories Inc.
|
Non-invasive physiological sensor cover | ||
Patent #
US 8,473,020 B2
Filed 07/27/2010
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Laboratories Inc.
|
SYSTEMS AND METHODS FOR STORING, ANALYZING, RETRIEVING AND DISPLAYING STREAMING MEDICAL DATA | ||
Patent #
US 20130162433A1
Filed 11/13/2012
|
Current Assignee
JP Morgan Chase Bank N.A.
|
Sponsoring Entity
JP Morgan Chase Bank N.A.
|
Multiple wavelength sensor drivers | ||
Patent #
US 8,483,787 B2
Filed 10/31/2011
|
Current Assignee
Cercacor Laboratories
|
Sponsoring Entity
Cercacor Laboratories
|
TISSUE PROFILE WELLNESS MONITOR | ||
Patent #
US 20130178749A1
Filed 02/11/2013
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Variable indication estimator | ||
Patent #
US 8,489,364 B2
Filed 08/31/2012
|
Current Assignee
JP Morgan Chase Bank N.A.
|
Sponsoring Entity
Masimo Corporation
|
PATIENT MONITOR CONFIGURATION | ||
Patent #
US 20130109935A1
Filed 12/20/2012
|
Current Assignee
JP Morgan Chase Bank N.A.
|
Sponsoring Entity
JP Morgan Chase Bank N.A.
|
System, medium, and method to conduce a user's breathing | ||
Patent #
US 8,491,489 B2
Filed 11/22/2006
|
Current Assignee
Samsung Electronics Co. Ltd.
|
Sponsoring Entity
Samsung Electronics Co. Ltd.
|
AUTOMATED CCHD SCREENING AND DETECTION | ||
Patent #
US 20130190581A1
Filed 01/03/2013
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
JP Morgan Chase Bank N.A.
|
Alarm suspend system | ||
Patent #
US 8,203,438 B2
Filed 07/28/2009
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Sine saturation transform | ||
Patent #
US 8,498,684 B2
Filed 03/08/2011
|
Current Assignee
JP Morgan Chase Bank N.A.
|
Sponsoring Entity
Masimo Corporation
|
SIGNAL PROCESSING APPARATUS AND METHOD | ||
Patent #
US 20130197328A1
Filed 12/05/2012
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
JP Morgan Chase Bank N.A.
|
Method and apparatus for coupling a channeled sample probe to tissue | ||
Patent #
US 8,504,128 B2
Filed 04/24/2008
|
Current Assignee
GLT Acquisition Corporation
|
Sponsoring Entity
GLT Acquisition Corporation
|
Non-invasive measurement of analytes | ||
Patent #
US 8,509,867 B2
Filed 02/07/2006
|
Current Assignee
Cercacor Laboratories
|
Sponsoring Entity
Cercacor Laboratories
|
CONFIGURABLE PATIENT MONITORING SYSTEM | ||
Patent #
US 20130211214A1
Filed 02/08/2013
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Multi-stream emitter for noninvasive measurement of blood constituents | ||
Patent #
US 8,515,509 B2
Filed 08/03/2009
|
Current Assignee
Cercacor Laboratories
|
Sponsoring Entity
Cercacor Laboratories
|
Method and apparatus for prevention of apnea | ||
Patent #
US 8,517,981 B2
Filed 02/10/2010
|
Current Assignee
Oregon Health Science University
|
Sponsoring Entity
Oregon Health Science University
|
Bidirectional physiological information display | ||
Patent #
US 8,523,781 B2
Filed 10/14/2010
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Electro-acoustic transducer comprising a MEMS sensor | ||
Patent #
US 8,526,665 B2
Filed 07/29/2008
|
Current Assignee
Knowles IPC Sendirian Berhad
|
Sponsoring Entity
Knowles Electronics Asia Pte. Ltd.
|
Shielded connector assembly | ||
Patent #
US 8,529,301 B2
Filed 02/17/2012
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Dual-mode pulse oximeter | ||
Patent #
US 8,532,727 B2
Filed 08/20/2007
|
Current Assignee
JP Morgan Chase Bank N.A.
|
Sponsoring Entity
Masimo Corporation
|
Pulse oximeter probe-off detector | ||
Patent #
US 8,532,728 B2
Filed 12/29/2008
|
Current Assignee
JP Morgan Chase Bank N.A.
|
Sponsoring Entity
Masimo Corporation
|
EPITAXIAL STRUCTURES ON SIDES OF A SUBSTRATE | ||
Patent #
US 20130243021A1
Filed 05/10/2013
|
Current Assignee
Masimo Semiconductor Inc.
|
Sponsoring Entity
JP Morgan Chase Bank N.A.
|
WIRELESS PATIENT MONITORING DEVICE | ||
Patent #
US 20130253334A1
Filed 02/07/2013
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
JP Morgan Chase Bank N.A.
|
Alarm suspend system | ||
Patent #
US 8,547,209 B2
Filed 05/21/2012
|
Current Assignee
JP Morgan Chase Bank N.A.
|
Sponsoring Entity
Masimo Corporation
|
Methods for noninvasively measuring analyte levels in a subject | ||
Patent #
US 8,548,549 B2
Filed 09/09/2011
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
GLT Acquisition Corporation
|
Physiological measurement communications adapter | ||
Patent #
US 8,548,548 B2
Filed 11/29/2010
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Optical sensor including disposable and reusable elements | ||
Patent #
US 8,548,550 B2
Filed 07/31/2012
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Cercacor Laboratories
|
Noninvasive multi-parameter patient monitor | ||
Patent #
US 8,560,032 B2
Filed 05/22/2012
|
Current Assignee
Cercacor Laboratories
|
Sponsoring Entity
Cercacor Laboratories
|
Signal processing apparatus | ||
Patent #
US 8,560,034 B1
Filed 07/06/1998
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
HYPERSATURATION INDEX | ||
Patent #
US 20130274571A1
Filed 04/17/2013
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
JP Morgan Chase Bank N.A.
|
Heat sink for noninvasive medical sensor | ||
Patent #
US 8,570,503 B2
Filed 06/15/2012
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Cercacor Laboratories
|
Physiological trend monitor | ||
Patent #
US 8,570,167 B2
Filed 07/24/2012
|
Current Assignee
JP Morgan Chase Bank N.A.
|
Sponsoring Entity
JP Morgan Chase Bank N.A.
|
Hemoglobin display and patient treatment | ||
Patent #
US 8,571,619 B2
Filed 05/19/2010
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
JP Morgan Chase Bank N.A.
|
Adaptive calibration system for spectrophotometric measurements | ||
Patent #
US 8,571,618 B1
Filed 09/27/2010
|
Current Assignee
Masimo Laboratories Inc.
|
Sponsoring Entity
Masimo Laboratories Inc.
|
Noise shielding for a noninvasive device | ||
Patent #
US 8,577,431 B2
Filed 07/02/2009
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Cercacor Laboratories
|
NONINVASIVE PHYSIOLOGICAL SENSOR COVER | ||
Patent #
US 20130296672A1
Filed 05/01/2013
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
JP Morgan Chase Bank N.A.
|
Noninvasive multi-parameter patient monitor | ||
Patent #
US 8,581,732 B2
Filed 03/05/2012
|
Current Assignee
Cercacor Laboratories
|
Sponsoring Entity
Cercacor Laboratories
|
Reprocessing of a physiological sensor | ||
Patent #
US 8,584,345 B2
Filed 03/07/2011
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
JP Morgan Chase Bank N.A.
|
Ear sensor | ||
Patent #
US 8,588,880 B2
Filed 02/16/2010
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
JP Morgan Chase Bank N.A.
|
CONTOURED PROTRUSION FOR IMPROVING SPECTROSCOPIC MEASUREMENT OF BLOOD CONSTITUENTS | ||
Patent #
US 20130317370A1
Filed 05/06/2013
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
MULTIPLE WAVELENGTH SENSOR DRIVERS | ||
Patent #
US 20130317327A1
Filed 07/08/2013
|
Current Assignee
Cercacor Laboratories
|
Sponsoring Entity
Cercacor Laboratories
|
Optical sensor including disposable and reusable elements | ||
Patent #
US 8,600,467 B2
Filed 07/01/2010
|
Current Assignee
Masimo Laboratories Inc.
|
Sponsoring Entity
Masimo Laboratories Inc.
|
SYSTEMS AND METHODS FOR DETERMINING BLOOD OXYGEN SATURATION VALUES USING COMPLEX NUMBER ENCODING | ||
Patent #
US 20130324817A1
Filed 05/17/2013
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
DUO CONNECTOR PATIENT CABLE | ||
Patent #
US 20130324808A1
Filed 11/19/2012
|
Current Assignee
JP Morgan Chase Bank N.A.
|
Sponsoring Entity
JP Morgan Chase Bank N.A.
|
Pulse and active pulse spectraphotometry | ||
Patent #
US 8,606,342 B2
Filed 10/31/2005
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Cercacor Laboratories
|
MULTI-WAVELENGTH PHYSIOLOGICAL MONITOR | ||
Patent #
US 20130338461A1
Filed 04/12/2013
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
CONGENITAL HEART DISEASE MONITOR | ||
Patent #
US 20130331670A1
Filed 05/31/2013
|
Current Assignee
JP Morgan Chase Bank N.A.
|
Sponsoring Entity
JP Morgan Chase Bank N.A.
|
DUAL-MODE PATIENT MONITOR | ||
Patent #
US 20140012100A1
Filed 09/09/2013
|
Current Assignee
JP Morgan Chase Bank N.A.
|
Sponsoring Entity
JP Morgan Chase Bank N.A.
|
Noninvasive multi-parameter patient monitor | ||
Patent #
US 8,626,255 B2
Filed 05/22/2012
|
Current Assignee
Cercacor Laboratories
|
Sponsoring Entity
Cercacor Laboratories
|
Multi-stream sensor front ends for noninvasive measurement of blood constituents | ||
Patent #
US 8,630,691 B2
Filed 08/03/2009
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Cercacor Laboratories
|
Configurable physiological measurement system | ||
Patent #
US 8,634,889 B2
Filed 05/18/2010
|
Current Assignee
Cercacor Laboratories
|
Sponsoring Entity
Cercacor Laboratories
|
Automatic gain control for implanted microphone | ||
Patent #
US 8,641,595 B2
Filed 01/21/2009
|
Current Assignee
Otologics LLC
|
Sponsoring Entity
Cochlear Limited
|
Non-invasive monitoring of respiratory rate, heart rate and apnea | ||
Patent #
US 8,641,631 B2
Filed 04/08/2005
|
Current Assignee
ANDROMED INC.
|
Sponsoring Entity
JP Morgan Chase Bank N.A.
|
AUTOMATED ASSEMBLY SENSOR CABLE | ||
Patent #
US 20140034353A1
Filed 07/25/2013
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
JP Morgan Chase Bank N.A.
|
Perfusion trend indicator | ||
Patent #
US 8,652,060 B2
Filed 01/22/2008
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
JP Morgan Chase Bank N.A.
|
EAR SENSOR | ||
Patent #
US 20140058230A1
Filed 08/23/2013
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Sepsis monitor | ||
Patent #
US 8,663,107 B2
Filed 05/03/2011
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Cercacor Laboratories
|
Patient monitor for determining microcirculation state | ||
Patent #
US 8,666,468 B1
Filed 05/04/2011
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Respiratory monitoring | ||
Patent #
US 8,667,967 B2
Filed 09/01/2011
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
JP Morgan Chase Bank N.A.
|
Pulse oximetry system for adjusting medical ventilation | ||
Patent #
US 8,670,811 B2
Filed 06/25/2010
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
JP Morgan Chase Bank N.A.
|
Low-noise optical probes for reducing ambient noise | ||
Patent #
US 8,670,814 B2
Filed 01/27/2009
|
Current Assignee
JP Morgan Chase Bank N.A.
|
Sponsoring Entity
JP Morgan Chase Bank N.A.
|
Method and apparatus for reducing coupling between signals in a measurement system | ||
Patent #
US 8,676,286 B2
Filed 01/03/2011
|
Current Assignee
Cercacor Laboratories
|
Sponsoring Entity
Cercacor Laboratories
|
INTELLIGENT MEDICAL NETWORK EDGE ROUTER | ||
Patent #
US 20140077956A1
Filed 09/18/2013
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
MULTIPURPOSE SENSOR PORT | ||
Patent #
US 20140081097A1
Filed 09/13/2013
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
PHYSIOLOGICAL MONITOR WITH MOBILE COMPUTING DEVICE CONNECTIVITY | ||
Patent #
US 20140081100A1
Filed 09/20/2013
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Cyanotic infant sensor | ||
Patent #
US 8,682,407 B2
Filed 05/03/2011
|
Current Assignee
JP Morgan Chase Bank N.A.
|
Sponsoring Entity
JP Morgan Chase Bank N.A.
|
Programmable ECG sensor patch | ||
Patent #
US 8,688,189 B2
Filed 05/17/2005
|
Current Assignee
CARDIOVU INC.
|
Sponsoring Entity
CARDIOVU INC.
|
NONINVASIVELY MEASURING ANALYTE LEVELS IN A SUBJECT | ||
Patent #
US 20140094667A1
Filed 09/25/2013
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Acoustic respiratory monitoring sensor having multiple sensing elements | ||
Patent #
US 8,690,799 B2
Filed 10/14/2010
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
JP Morgan Chase Bank N.A.
|
PULSE OXIMETER PROBE-OFF DETECTOR | ||
Patent #
US 20140100434A1
Filed 09/10/2013
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Secondary-emitter sensor position indicator | ||
Patent #
US 8,700,112 B2
Filed 02/28/2013
|
Current Assignee
JP Morgan Chase Bank N.A.
|
Sponsoring Entity
JP Morgan Chase Bank N.A.
|
VARIABLE INDICATION ESTIMATOR | ||
Patent #
US 20140025306A1
Filed 07/15/2013
|
Current Assignee
JP Morgan Chase Bank N.A.
|
Sponsoring Entity
JP Morgan Chase Bank N.A.
|
HEMOGLOBIN DISPLAY AND PATIENT TREATMENT | ||
Patent #
US 20140051954A1
Filed 10/25/2013
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
JP Morgan Chase Bank N.A.
|
FLOWOMETRY IN OPTICAL COHERENCE TOMOGRAPHY FOR ANALYTE LEVEL ESTIMATION | ||
Patent #
US 20140051952A1
Filed 10/25/2013
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
ADAPTIVE CALIBRATION SYSTEM FOR SPECTROPHOTOMETRIC MEASUREMENTS | ||
Patent #
US 20140051953A1
Filed 10/28/2013
|
Current Assignee
Cercacor Laboratories
|
Sponsoring Entity
Cercacor Laboratories
|
NOISE SHIELDING FOR A NONINVAISE DEVICE | ||
Patent #
US 20140066783A1
Filed 11/01/2013
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Acoustic respiratory monitoring sensor having multiple sensing elements | ||
Patent #
US 8,702,627 B2
Filed 10/14/2010
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
JP Morgan Chase Bank N.A.
|
Reusable pulse oximeter probe and disposable bandage apparatii | ||
Patent #
US 8,706,179 B2
Filed 05/07/2012
|
Current Assignee
JP Morgan Chase Bank N.A.
|
Sponsoring Entity
JP Morgan Chase Bank N.A.
|
Method and apparatus for monitoring blood constituent levels in biological tissue | ||
Patent #
US 8,204,566 B2
Filed 08/02/2007
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
GLT Acquisition Corporation
|
MAGNETIC-FLAP OPTICAL SENSOR | ||
Patent #
US 20140114199A1
Filed 10/17/2013
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Reflective non-invasive sensor | ||
Patent #
US 8,712,494 B1
Filed 05/02/2011
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
NON-INVASIVE MEASUREMENT OF ANALYTES | ||
Patent #
US 20140120564A1
Filed 08/12/2013
|
Current Assignee
Cercacor Laboratories
|
Sponsoring Entity
Cercacor Laboratories
|
MULTI-STREAM SENSOR FOR NONINVASIVE MEASUREMENT OF BLOOD CONSTITUENTS | ||
Patent #
US 20140121482A1
Filed 10/25/2013
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
UNIVERSAL MEDICAL SYSTEM | ||
Patent #
US 20140121483A1
Filed 10/30/2013
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Acoustic patient sensor | ||
Patent #
US 8,715,206 B2
Filed 10/14/2010
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
JP Morgan Chase Bank N.A.
|
Method and apparatus for demodulating signals in a pulse oximetry system | ||
Patent #
US 8,718,737 B2
Filed 04/02/2012
|
Current Assignee
JP Morgan Chase Bank N.A.
|
Sponsoring Entity
JP Morgan Chase Bank N.A.
|
Physiological parameter confidence measure | ||
Patent #
US 8,718,735 B2
Filed 06/03/2011
|
Current Assignee
Cercacor Laboratories
|
Sponsoring Entity
Cercacor Laboratories
|
Method and apparatus for coupling a sample probe with a sample site | ||
Patent #
US 8,718,738 B2
Filed 02/26/2009
|
Current Assignee
GLT Acquisition Corporation
|
Sponsoring Entity
GLT Acquisition Corporation
|
PHYSIOLOGICAL MEASUREMENT COMMUNICATIONS ADAPTER | ||
Patent #
US 20140125495A1
Filed 09/25/2013
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
SMMR (SMALL MOLECULE METABOLITE REPORTERS) FOR USE AS IN VIVO GLUCOSE BIOSENSORS | ||
Patent #
US 20140127137A1
Filed 06/17/2013
|
Current Assignee
Cercacor Laboratories
|
Sponsoring Entity
Cercacor Laboratories
|
OPTICAL SENSOR INCLUDING DISPOSABLE AND REUSABLE ELEMENTS | ||
Patent #
US 20140128699A1
Filed 10/29/2013
|
Current Assignee
Masimo Laboratories Inc.
|
Sponsoring Entity
Masimo Laboratories Inc.
|
PHYSIOLOGICAL TREND MONITOR | ||
Patent #
US 20140128696A1
Filed 10/28/2013
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
PHYSIOLOGICAL TEST CREDIT METHOD | ||
Patent #
US 20140129702A1
Filed 11/04/2013
|
Current Assignee
Cercacor Laboratories
|
Sponsoring Entity
Cercacor Laboratories
|
Non-invasive sensor calibration device | ||
Patent #
US 8,720,249 B2
Filed 04/11/2013
|
Current Assignee
JP Morgan Chase Bank N.A.
|
Sponsoring Entity
JP Morgan Chase Bank N.A.
|
Physiological monitor | ||
Patent #
US 8,721,541 B2
Filed 01/18/2013
|
Current Assignee
JP Morgan Chase Bank N.A.
|
Sponsoring Entity
JP Morgan Chase Bank N.A.
|
Physiological parameter system | ||
Patent #
US 8,721,542 B2
Filed 08/07/2008
|
Current Assignee
JP Morgan Chase Bank N.A.
|
Sponsoring Entity
JP Morgan Chase Bank N.A.
|
Patient safety system with automatically adjusting bed | ||
Patent #
US 8,723,677 B1
Filed 10/19/2011
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
MEDICAL MONITORING SYSTEM | ||
Patent #
US 20140135588A1
Filed 09/19/2013
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
NONINVASIVE MULTI-PARAMETER PATIENT MONITOR | ||
Patent #
US 20140142402A1
Filed 10/11/2013
|
Current Assignee
Cercacor Laboratories
|
Sponsoring Entity
Cercacor Laboratories
|
NONINVASIVE MULTI-PARAMETER PATIENT MONITOR | ||
Patent #
US 20140142399A1
Filed 11/11/2013
|
Current Assignee
Cercacor Laboratories
|
Sponsoring Entity
Cercacor Laboratories
|
REPROCESSING OF A PHYSIOLOGICAL SENSOR | ||
Patent #
US 20140142401A1
Filed 11/13/2013
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Patient monitor capable of accounting for environmental conditions | ||
Patent #
US 8,740,792 B1
Filed 07/08/2011
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
PERFUSION TREND INDICATOR | ||
Patent #
US 20140163344A1
Filed 02/14/2014
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
PATIENT MONITORING SYSTEM | ||
Patent #
US 20140163402A1
Filed 03/15/2013
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Interference detector for patient monitor | ||
Patent #
US 8,754,776 B2
Filed 06/14/2013
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Laboratories Inc.
|
Patient monitoring system for indicating an abnormal condition | ||
Patent #
US 8,755,872 B1
Filed 07/27/2012
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Acoustic respiratory monitoring sensor having multiple sensing elements | ||
Patent #
US 8,755,535 B2
Filed 10/14/2010
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
JP Morgan Chase Bank N.A.
|
Signal processing apparatus | ||
Patent #
US 8,755,856 B2
Filed 02/22/2012
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
JP Morgan Chase Bank N.A.
|
HEARTBEAT TRANSDUCER FOR A MONITORING DEVICE | ||
Patent #
US 3,682,161 A
Filed 02/20/1970
|
Current Assignee
Alibert Vernon F.
|
Sponsoring Entity
Alibert Vernon F.
|
PULSE AND ACTIVE PULSE SPECTRAPHOTOMETRY | ||
Patent #
US 20140171763A1
Filed 12/09/2013
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
POOL SOLAR POWER GENERATOR | ||
Patent #
US 20140166076A1
Filed 12/16/2013
|
Current Assignee
Masimo Semiconductor Inc.
|
Sponsoring Entity
Masimo Semiconductor Inc.
|
Reflection-detector sensor position indicator | ||
Patent #
US 8,761,850 B2
Filed 12/21/2012
|
Current Assignee
JP Morgan Chase Bank N.A.
|
Sponsoring Entity
JP Morgan Chase Bank N.A.
|
NON-INVASIVE MONITORING OF RESPIRATORY RATE, HEART RATE AND APNEA | ||
Patent #
US 20140180154A1
Filed 12/18/2013
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
SEPSIS MONITOR | ||
Patent #
US 20140180038A1
Filed 02/27/2014
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Disposable active pulse sensor | ||
Patent #
US 8,764,671 B2
Filed 06/26/2008
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
JP Morgan Chase Bank N.A.
|
Multispot monitoring for use in optical coherence tomography | ||
Patent #
US 8,768,423 B2
Filed 03/04/2009
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
GLT Acquisition Corporation
|
Acoustic sensor assembly | ||
Patent #
US 8,771,204 B2
Filed 12/21/2009
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
JP Morgan Chase Bank N.A.
|
RESPIRATORY MONITORING | ||
Patent #
US 20140194766A1
Filed 01/13/2014
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
PATIENT MONITOR FOR DETERMINING MICROCIRCULATION STATE | ||
Patent #
US 20140194711A1
Filed 01/21/2014
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
CONFIGURABLE PHYSIOLOGICAL MEASUREMENT SYSTEM | ||
Patent #
US 20140194709A1
Filed 12/11/2013
|
Current Assignee
Cercacor Laboratories
|
Sponsoring Entity
Cercacor Laboratories
|
Magnetic connector | ||
Patent #
US 8,777,634 B2
Filed 03/04/2013
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Cercacor Laboratories
|
Multiple wavelength optical sensor | ||
Patent #
US 8,781,544 B2
Filed 03/26/2008
|
Current Assignee
Cercacor Laboratories
|
Sponsoring Entity
Cercacor Laboratories
|
Manual and automatic probe calibration | ||
Patent #
US 8,781,543 B2
Filed 03/26/2012
|
Current Assignee
JP Morgan Chase Bank N.A.
|
Sponsoring Entity
JP Morgan Chase Bank N.A.
|
Noninvasive oximetry optical sensor including disposable and reusable elements | ||
Patent #
US 8,781,549 B2
Filed 08/14/2012
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Cercacor Laboratories
|
METHOD AND APPARATUS FOR REDUCING COUPLING BETWEEN SIGNALS IN A MEASUREMENT SYSTEM | ||
Patent #
US 20140200422A1
Filed 03/17/2014
|
Current Assignee
Cercacor Laboratories
|
Sponsoring Entity
Cercacor Laboratories
|
WRIST-MOUNTED PHYSIOLOGICAL MEASUREMENT DEVICE | ||
Patent #
US 20140200420A1
Filed 03/18/2014
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Monitoring blood constituent levels in biological tissue | ||
Patent #
US 8,788,003 B2
Filed 04/25/2012
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
GLT Acquisition Corporation
|
CYANOTIC INFANT SENSOR | ||
Patent #
US 20140206963A1
Filed 03/24/2014
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Bidirectional physiological information display | ||
Patent #
US 8,790,268 B2
Filed 10/14/2010
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
JP Morgan Chase Bank N.A.
|
EAR SENSOR | ||
Patent #
US 20140213864A1
Filed 03/18/2014
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Calibration for multi-stage physiological monitors | ||
Patent #
US 8,801,613 B2
Filed 12/03/2010
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
JP Morgan Chase Bank N.A.
|
METHOD AND APPARATUS FOR DEMODULATING SIGNALS IN A PULSE OXIMETRY SYSTEM | ||
Patent #
US 20140243627A1
Filed 05/05/2014
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Physiological acoustic monitoring system | ||
Patent #
US 8,821,415 B2
Filed 10/14/2010
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
JP Morgan Chase Bank N.A.
|
Depth of consciousness monitor including oximeter | ||
Patent #
US 8,821,397 B2
Filed 09/27/2011
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
JP Morgan Chase Bank N.A.
|
Blood analysis system | ||
Patent #
US 8,830,449 B1
Filed 04/17/2012
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Cercacor Laboratories
|
Apparatus and method for creating a stable optical interface | ||
Patent #
US 8,831,700 B2
Filed 07/09/2012
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
GLT Acquisition Corporation
|
MANUAL AND AUTOMATIC PROBE CALIBRATION | ||
Patent #
US 20140288400A1
Filed 06/03/2014
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
PATIENT MONITOR AS A MINIMALLY INVASIVE GLUCOMETER | ||
Patent #
US 20140275881A1
Filed 03/04/2014
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Method of fabricating bifacial tandem solar cells | ||
Patent #
US 8,852,994 B2
Filed 05/24/2010
|
Current Assignee
Masimo Semiconductor Inc.
|
Sponsoring Entity
JP Morgan Chase Bank N.A.
|
ACOUSTIC RESPIRATORY MONITORING SENSOR HAVING MULTIPLE SENSING ELEMENTS | ||
Patent #
US 20140303520A1
Filed 04/07/2014
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
PHYSIOLOGICAL PARAMETER CONFIDENCE MEASURE | ||
Patent #
US 20140309506A1
Filed 03/18/2014
|
Current Assignee
Cercacor Laboratories
|
Sponsoring Entity
Cercacor Laboratories
|
SYSTEMS AND METHODS FOR TESTING PATIENT MONITORS | ||
Patent #
US 20140275872A1
Filed 03/11/2014
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
PATIENT MONITOR PLACEMENT INDICATOR | ||
Patent #
US 20140275808A1
Filed 03/13/2014
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
CLOUD-BASED PHYSIOLOGICAL MONITORING SYSTEM | ||
Patent #
US 20140275835A1
Filed 03/10/2014
|
Current Assignee
Cercacor Laboratories
|
Sponsoring Entity
Cercacor Laboratories
|
Method and apparatus for controlling positioning of a noninvasive analyzer sample probe | ||
Patent #
US 8,868,147 B2
Filed 05/21/2008
|
Current Assignee
GLT Acquisition Corporation
|
Sponsoring Entity
GLT Acquisition Corporation
|
Optical sensor including disposable and reusable elements | ||
Patent #
US 8,868,150 B2
Filed 09/30/2013
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Cercacor Laboratories
|
SYSTEMS AND METHODS FOR MONITORING A PATIENT HEALTH NETWORK | ||
Patent #
US 20140266790A1
Filed 03/05/2014
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
HEART SOUND SIMULATOR | ||
Patent #
US 20140276115A1
Filed 03/10/2014
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
WIRELESS OPTICAL COMMUNICATION BETWEEN NONINVASIVE PHYSIOLOGICAL SENSORS AND PATIENT MONITORS | ||
Patent #
US 20140275871A1
Filed 03/12/2014
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
METHOD AND APPARATUS FOR COUPLING A SAMPLE PROBE WITH A SAMPLE SITE | ||
Patent #
US 20140316228A1
Filed 05/02/2014
|
Current Assignee
GLT Acquisition Corporation
|
Sponsoring Entity
GLT Acquisition Corporation
|
Physiological acoustic monitoring system | ||
Patent #
US 8,870,792 B2
Filed 10/12/2012
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
JP Morgan Chase Bank N.A.
|
NONINVASIVE OXIMETRY OPTICAL SENSOR INCLUDING DISPOSABLE AND REUSABLE ELEMENTS | ||
Patent #
US 20140330099A1
Filed 07/15/2014
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
REFLECTANCE CALIBRATION OF FLUORESCENCE-BASED GLUCOSE MEASUREMENTS | ||
Patent #
US 20140330098A1
Filed 07/14/2014
|
Current Assignee
Cercacor Laboratories
|
Sponsoring Entity
Cercacor Laboratories
|
PHYSIOLOGICAL PARAMETER SYSTEM | ||
Patent #
US 20140330092A1
Filed 05/12/2014
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Non-invasive physiological sensor cover | ||
Patent #
US 8,886,271 B2
Filed 06/17/2013
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Laboratories Inc.
|
MULTISPOT MONITORING FOR USE IN OPTICAL COHERENCE TOMOGRAPHY | ||
Patent #
US 20140336481A1
Filed 05/16/2014
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
PATIENT SAFETY SYSTEM WITH AUTOMATICALLY ADJUSTING BED | ||
Patent #
US 20140333440A1
Filed 05/12/2014
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Shielded connector assembly | ||
Patent #
US 8,888,539 B2
Filed 08/09/2013
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Signal processing apparatus and method | ||
Patent #
US 8,888,708 B2
Filed 05/14/2012
|
Current Assignee
JP Morgan Chase Bank N.A.
|
Sponsoring Entity
JP Morgan Chase Bank N.A.
|
Sine saturation transform | ||
Patent #
US 8,892,180 B2
Filed 07/29/2013
|
Current Assignee
JP Morgan Chase Bank N.A.
|
Sponsoring Entity
JP Morgan Chase Bank N.A.
|
DISPOSABLE ACTIVE PULSE SENSOR | ||
Patent #
US 20140343436A1
Filed 05/16/2014
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Digit gauge for noninvasive optical sensor | ||
Patent #
US 8,897,847 B2
Filed 03/18/2010
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
JP Morgan Chase Bank N.A.
|
Multi-stream sensor front ends for noninvasive measurement of blood constituents | ||
Patent #
US 8,909,310 B2
Filed 01/13/2014
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Cercacor Laboratories
|
PHYSIOLOGICAL ACOUSTIC MONITORING SYSTEM | ||
Patent #
US 20140371632A1
Filed 08/29/2014
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
SYSTEMS AND METHODS FOR ACQUIRING CALIBRATION DATA USABLE IN A PULSE OXIMETER | ||
Patent #
US 20140323825A1
Filed 07/07/2014
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
BIDIRECTIONAL PHYSIOLOGICAL INFORMATION DISPLAY | ||
Patent #
US 20150025406A1
Filed 07/28/2014
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
PHYSIOLOGICAL ACOUSTIC MONITORING SYSTEM | ||
Patent #
US 20150045685A1
Filed 10/23/2014
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Wireless communications device and personal monitor | ||
Patent #
US 8,961,413 B2
Filed 05/16/2006
|
Current Assignee
JB IP Acquisitions LLC
|
Sponsoring Entity
BodyMedia Incorporated
|
ADHESIVE PATCH HAVING MULTIPLE ACOUSTIC SENSORS FOR MONITORING ACOUSTIC SIGNALS | ||
Patent #
US 20150099998A1
Filed 12/12/2014
|
Current Assignee
Acarix AS
|
Sponsoring Entity
Acarix AS
|
Acoustic sensor assembly | ||
Patent #
US 9,028,429 B2
Filed 04/23/2014
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Hemoglobin display and patient treatment | ||
Patent #
US 9,037,207 B2
Filed 10/25/2013
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
JP Morgan Chase Bank N.A.
|
Flowometry in optical coherence tomography for analyte level estimation | ||
Patent #
US 9,060,721 B2
Filed 10/25/2013
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
GLT Acquisition Corporation
|
Patient monitor for monitoring microcirculation | ||
Patent #
US 9,066,666 B2
Filed 02/09/2012
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Cercacor Laboratories
|
System for determining confidence in respiratory rate measurements | ||
Patent #
US 9,066,680 B1
Filed 10/15/2010
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Pulse oximeter access apparatus and method | ||
Patent #
US 9,072,474 B2
Filed 01/27/2009
|
Current Assignee
JP Morgan Chase Bank N.A.
|
Sponsoring Entity
JP Morgan Chase Bank N.A.
|
Method for data reduction and calibration of an OCT-based physiological monitor | ||
Patent #
US 9,078,560 B2
Filed 11/02/2012
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
GLT Acquisition Corporation
|
Method and apparatus for reducing coupling between signals in a measurement system | ||
Patent #
US 9,084,569 B2
Filed 03/17/2014
|
Current Assignee
Cercacor Laboratories
|
Sponsoring Entity
Cercacor Laboratories
|
System for generating alarms based on alarm patterns | ||
Patent #
US 9,095,316 B2
Filed 04/19/2012
|
Current Assignee
JP Morgan Chase Bank N.A.
|
Sponsoring Entity
JP Morgan Chase Bank N.A.
|
Pulse oximetry system with low noise cable hub | ||
Patent #
US 9,106,038 B2
Filed 10/14/2010
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
JP Morgan Chase Bank N.A.
|
Pulse oximetry system with electrical decoupling circuitry | ||
Patent #
US 9,107,625 B2
Filed 05/05/2009
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
JP Morgan Chase Bank N.A.
|
System and method for monitoring the life of a physiological sensor | ||
Patent #
US 9,107,626 B2
Filed 12/17/2014
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Physiological measurement communications adapter | ||
Patent #
US 9,113,831 B2
Filed 09/25/2013
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Wrist-mounted physiological measurement device | ||
Patent #
US 9,113,832 B2
Filed 03/18/2014
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Reflection-detector sensor position indicator | ||
Patent #
US 9,119,595 B2
Filed 06/18/2014
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Physiological trend monitor | ||
Patent #
US 9,131,883 B2
Filed 10/28/2013
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Hypersaturation index | ||
Patent #
US 9,131,881 B2
Filed 04/17/2013
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
JP Morgan Chase Bank N.A.
|
Noninvasive multi-parameter patient monitor | ||
Patent #
US 9,131,882 B2
Filed 10/11/2013
|
Current Assignee
Cercacor Laboratories
|
Sponsoring Entity
Cercacor Laboratories
|
Acoustic sensor assembly | ||
Patent #
US 9,131,917 B2
Filed 03/27/2015
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Sensor adapter cable | ||
Patent #
US 9,138,180 B1
Filed 05/03/2011
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Systems and methods for storing, analyzing, retrieving and displaying streaming medical data | ||
Patent #
US 9,142,117 B2
Filed 11/13/2012
|
Current Assignee
JP Morgan Chase Bank N.A.
|
Sponsoring Entity
JP Morgan Chase Bank N.A.
|
Optical sensor including disposable and reusable elements | ||
Patent #
US 9,138,182 B2
Filed 10/29/2013
|
Current Assignee
Masimo Laboratories Inc.
|
Sponsoring Entity
Masimo Laboratories Inc.
|
Variable indication estimator | ||
Patent #
US 9,138,192 B2
Filed 07/15/2013
|
Current Assignee
JP Morgan Chase Bank N.A.
|
Sponsoring Entity
JP Morgan Chase Bank N.A.
|
Alarm suspend system | ||
Patent #
US 9,153,121 B2
Filed 08/26/2014
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Modular patient monitor | ||
Patent #
US 9,153,112 B1
Filed 03/02/2011
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Modular patient monitor | ||
Patent #
US 9,161,696 B2
Filed 12/17/2009
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Multi-mode patient monitor configured to self-configure for a selected or determined mode of operation | ||
Patent #
US 9,161,713 B2
Filed 12/20/2012
|
Current Assignee
JP Morgan Chase Bank N.A.
|
Sponsoring Entity
JP Morgan Chase Bank N.A.
|
Physiological parameter confidence measure | ||
Patent #
US 9,167,995 B2
Filed 03/18/2014
|
Current Assignee
Cercacor Laboratories
|
Sponsoring Entity
Cercacor Laboratories
|
Physiological monitor calibration system | ||
Patent #
US 9,176,141 B2
Filed 10/15/2011
|
Current Assignee
Cercacor Laboratories
|
Sponsoring Entity
Cercacor Laboratories
|
Emitter driver for noninvasive patient monitor | ||
Patent #
US 9,186,102 B2
Filed 03/27/2014
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Acoustic respiratory monitoring sensor with probe-off detection | ||
Patent #
US 9,192,351 B1
Filed 07/20/2012
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
OPTICOUSTIC SENSOR | ||
Patent #
US 20160045118A1
Filed 10/30/2015
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
ACOUSTIC SENSOR ASSEMBLY | ||
Patent #
US 20160066879A1
Filed 08/06/2015
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Opticoustic sensor | ||
Patent #
US 9,326,712 B1
Filed 06/02/2011
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Physiological acoustic monitoring system | ||
Patent #
US 9,370,335 B2
Filed 10/23/2014
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Physiological acoustic monitoring system | ||
Patent #
US 9,386,961 B2
Filed 08/29/2014
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Acoustic respiratory monitoring sensor having multiple sensing elements | ||
Patent #
US 9,538,980 B2
Filed 04/07/2014
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
PHYSIOLOGICAL ACOUSTIC MONITORING SYSTEM | ||
Patent #
US 20170007190A1
Filed 07/07/2016
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
PHYSIOLOGICAL ACOUSTIC MONITORING SYSTEM | ||
Patent #
US 20170007198A1
Filed 06/16/2016
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
Bidirectional physiological information display | ||
Patent #
US 9,668,703 B2
Filed 07/28/2014
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
ACOUSTIC RESPIRATORY MONITORING SENSOR HAVING MULTIPLE SENSING ELEMENTS | ||
Patent #
US 20170079594A1
Filed 12/01/2016
|
Current Assignee
Masimo Corporation
|
Sponsoring Entity
Masimo Corporation
|
14 Claims
- 1. An acoustic sensor configured to non-invasively detect acoustic vibrations indicative of one or more physiological parameters of a patient, the acoustic sensor comprising:
a frame; a sensing element supported by the frame, the sensing element configured to output a signal responsive to acoustic vibrations associated with a patient when the acoustic sensor is attached to the patient; and a one piece integral acoustic coupler supported by the frame and configured to be coupled with an area of the skin of the patient, the acoustic coupler comprising; a bottom surface comprising a dielectric material that electrically decouples the area of the skin of the patient from the sensing element when the acoustic sensor is attached to the patient, the bottom surface having no openings and forming a barrier between the patient and the sensing element; one or more air vent holes on at least two sidewalls of the acoustic coupler and aligned with at least one pressure equalization pathway in the frame; and a top hole configured to be stretched open, from an unstretched state, to enable receiving the frame and the sensing element, wherein; the top hole is further configured to stretch back to the unstretched state after the frame and the sensing element are received by the acoustic coupler, and the acoustic coupler covers at least a portion of a top of the frame. - View Dependent Claims (2, 3, 4, 5, 6, 7, 8, 9, 10, 11)
- 12. An acoustic sensor configured to non-invasively detect acoustic vibrations associated with a medical patient, said acoustic vibrations indicative of one or more physiological parameters of the medical patient, said acoustic sensor comprising:
at least one sound-sensing membrane configured to detect acoustic vibrations associated with a medical patient when the acoustic sensor is attached to the medical patient; a sensor support configured to support the at least one sound-sensing membrane against the medical patient'"'"'s skin, wherein the sensor support comprises at least one pressure equalization pathway formed in a wall of the sensor support, the at least one pressure equalization pathway extending from an acoustic cavity to ambient air pressure; and a one piece integral acoustic coupler supported by the sensor support and configured to be coupled with the skin of the patient, the acoustic coupler comprising; a bottom surface comprising a dielectric material that electrically decouples the skin of the patient from the at least one sound-sensing membrane when the acoustic sensor is attached to the patient, the bottom surface having no openings and forming a barrier between the medical patient and the at least one sound-sensing membrane; one or more openings aligned with the at least one pressure equalization pathway, wherein the one or more openings in the acoustic coupler comprise one or more openings on two sides of the acoustic coupler; and a top hole configured to be stretched open, from an unstretched state, to enable receiving the sensor support and the at least one sound-sensing membrane, wherein; the top hole is further configured to stretch back to the unstretched state after the sensor support and the at least one sound-sensing membrane are received by the acoustic coupler, and the acoustic coupler covers at least a portion of a top of the frame. - View Dependent Claims (13, 14)
1 Specification
This application is a nonprovisional of U.S. Provisional Application No. 61/703,731, filed Sep. 20, 2012, titled “Acoustic Patient Sensor Coupler, the disclosure of which is hereby incorporated by reference in its entirety. In addition, this application relates to the following U.S. patent applications, the disclosures of which are incorporated in their entirety by reference herein:
Many of the embodiments described herein are compatible with embodiments described in the above related applications. Moreover, some or all of the features described herein can be used or otherwise combined with many of the features described in the applications listed above.
The “piezoelectric effect” is the appearance of an electric potential and current across certain faces of a crystal when it is subjected to mechanical stresses. Due to their capacity to convert mechanical deformation into an electric voltage, piezoelectric crystals have been broadly used in devices such as transducers, strain gauges and microphones. However, before the crystals can be used in many of these applications they must be rendered into a form which suits the requirements of the application. In many applications, especially those involving the conversion of acoustic waves into a corresponding electric signal, piezoelectric membranes have been used.
Piezoelectric membranes are typically manufactured from polyvinylidene fluoride plastic film. The film is endowed with piezoelectric properties by stretching the plastic while it is placed under a high-poling voltage. By stretching the film, the film is polarized and the molecular structure of the plastic aligned. A thin layer of conductive metal (typically nickel-copper) is deposited on each side of the film to form electrode coatings to which connectors can be attached.
Piezoelectric membranes have a number of attributes that make them interesting for use in sound detection, including: a wide frequency range of between 0.001 Hz to 1 GHz; a low acoustical impedance close to water and human tissue; a high dielectric strength; a good mechanical strength; and piezoelectric membranes are moisture resistant and inert to many chemicals.
Due in large part to the above attributes, piezoelectric membranes are particularly suited for the capture of acoustic waves and the conversion thereof into electric signals and, accordingly, have found application in the detection of body sounds. However, there is still a need for reliable acoustic respiratory monitoring systems.
Embodiments of an acoustic sensor and physiological monitoring system described herein are configured to provide accurate and robust measurement of bodily sounds under a variety of conditions, such as in noisy environments or in situations in which stress, strain, or movement can be imparted onto the sensor with respect to a patient.
According an aspect of the disclosure, an acoustic sensor includes one or more sensing elements supported by a frame or other support structure. The sensing elements contact the frame at certain locations and are spaced from the frame at others. The sensing elements and frame define a cavity in which the sensing elements vibrate in response to acoustic signals received from a medical patient. However, skin elasticity and the force used to attach the acoustic sensor to the medical patient'"'"'s skin can affect the volume and/or air pressure within the cavity defined by the sensing elements and frame. Variability in skin elasticity or attachment force can lead to variability in cavity resonance, which can cause unwanted variability in sensor performance. For example, an acoustic sensor that is attached to very elastic skin may provide a different output signal than an acoustic sensor that is attached to firmer or tighter skin. Similarly, an acoustic sensor loosely attached to patient'"'"'s skin may provide a different output signal than an acoustic sensor tightly attached a patient'"'"'s skin.
To compensate for skin elasticity and attachment variability, in one embodiment the acoustic sensor support includes one or more pressure equalization pathways. The pathways provide an air-flow channel from the cavity defined by the sensing elements and frame to the ambient air pressure. By equalizing pressure within the cavity with ambient during sensing, variability in sensor performance may be reduced and/or eliminated. In some embodiments, the pressure equalization pathways include one or more holes, notches, ports, or channels that extend from within the sensor'"'"'s cavity to a location in communication with ambient air pressure.
While certain embodiments described herein are compatible with single-sensing element designs, according to certain aspects, multiple acoustic sensing elements are employed to provide enhanced physiological monitoring. For example, multiple acoustic sensing elements can be included in one or more sensor packages coupled to a patient and/or at various other locations in the monitoring environment, such as on one or more sensor packages or other components not coupled to the patient.
In some configurations, a plurality of acoustic sensing elements are advantageously arranged in a single acoustic sensor package. In some such embodiments, physical and/or electrical symmetry between the sensing elements can be exploited. In some cases, for example, the electrical poles of two or more sensing elements are connected so as to provide improved electrical shielding, enhanced signal to noise ratio, reduced design complexity and associated cost. In one such configuration, multiple sensing elements are arranged in stack on a sensor frame or other support structure. Generally, shielding can be beneficially achieved using one or more portions that are integral to the sensing elements rather than using physically separate components.
Systems and methods described herein achieve noise compensation in a variety of ways. For example, sensing elements (or groups thereof) can be arranged such that a physiological signal sensing element provides a physiological signal having both a component indicative of a target physiological signal (e.g., respiratory, heart or digestive sounds) and an interfering noise component. At least one other sensing element, on the other hand, provides a reference signal. The reference signal may include a significant noise component, but not a significant target physiological component, for example, and can advantageously be used to produce a physiological signal having a reduced noise component. For example, certain embodiments employ adaptive filtering techniques to attenuate the noise component. In various embodiments, the noise component can come from a variety of sources, an can include, without limitation, ambient noise, interfering bodily sounds emanating from the patient (e.g., respiratory, heart or digestive sounds), noise coming from skin-coupled devices (e.g., surgical or other medical equipment), etc., further specific examples of which are provided herein.
Moreover, according certain aspects, the sensing elements are selectively configurable in a plurality of modes. For example, the sensing elements can be configured as either physiological signal sensing elements or noise sensing elements, as desired. As one illustrative example, a first sensor is used to detect respiratory sounds, while a second sensor used to detect heart sounds. In a first monitoring mode, the system uses the first sensor to detect the target respiratory sounds, and uses the second sensor as a noise reference sensor to minimize the effect of heart sounds (and/or other interfering noise) on the respiratory signal. Conversely, the system can switch to a second mode where the first sensor is used as the reference sensor to reduce the effect of respiratory sounds (and/or other interfering noise) on the signal produced by the second sensor. A wide variety of embodiments incorporating selective sensing element configurations are described herein.
Additionally, sensing elements (or groups thereof) can be arranged with respect to one another such that components of their output signals resulting from a common source (e.g., the patient'"'"'s body) will be correlated or otherwise generally similar. The signal components from interfering noise sources, on the other hand, can be expected to be uncorrelated or otherwise have certain dissimilarities (e.g., phase or time shift). In these cases, the output signals from the first and second acoustic sensing elements can be combined in ways that accentuate commonalities between the two signals while attenuating differences.
In certain embodiments, a medical device is provided for non-invasively outputting a reduced noise signal responsive to acoustic vibrations indicative of one or more physiological parameters of a medical patient. In some embodiments, the medical device includes a first acoustic sensing element configured to be acoustically coupled to the body of a patient, the first acoustic sensing element being configured to output a first signal comprising a physiological signal component and a noise component. The medical device can also include a second acoustic sensing element being configured to output a second signal comprising at least a noise component. The medical device of some embodiments includes a noise attenuator configured to produce a reduced noise signal in response to the first and second signals. The reduced noise signal can include a physiological signal component and a noise component. In certain embodiments, the ratio of the physiological signal component of the reduced noise signal to the noise component of the reduced noise signal is greater than the ratio of the physiological signal component of the first signal to the noise component of the first signal.
According to certain aspects, a method of providing a reduced noise signal responsive to acoustic vibrations indicative of one or more physiological parameters of a medical patient is provided. The method can include outputting a first signal using first acoustic sensing element coupled to the body of a patient. The signal may comprise a physiological component and a noise component. The method can further including outputting a second signal using the second acoustic sensing element, the second signal comprising at least a noise component. In certain embodiments, the method further includes processing the first and second signals using a noise attenuator to produce a reduced noise signal in response to the first and second signals. The reduced noise signal can include a physiological signal component and a acoustic noise component. In certain embodiments, the ratio of the physiological signal component of the reduced noise signal to the noise component of the reduced noise signal greater than the ratio of the physiological signal component of the first signal to the noise component of the first signal.
In certain embodiments, a medical device is provided for non-invasively generating a reduced noise signal responsive to acoustic vibrations indicative of one or more physiological parameters of a medical patient. The medical device can include at least one first acoustic sensing element configured to generate a first signal in response to acoustic vibrations. The medical device of certain embodiments also includes at least one second acoustic sensing element configured to generate a second signal in response to acoustic vibrations. In certain embodiments, the medical device further includes a noise attenuation module configured to generate a reduced noise signal indicative of one or more physiological parameters of a medical patient in response to at least one of the first and second signals.
A medical sensor is provided in some embodiments for non-invasively outputting signals responsive to acoustic vibrations indicative of one or more physiological parameters of a medical patient. The medical sensor can include a first acoustic sensing element for generating a first signal. The medical sensor can also include a second acoustic sensing element for generating a second signal. The first and second signals in some embodiments are configured to be provided to a noise attenuator adapted to reduce a noise component of the first or second signal.
In certain embodiments, an acoustic sensor is provided for non-invasively outputting signals responsive to acoustic vibrations indicative of one or more physiological parameters of a medical patient. In certain embodiments, the acoustic sensor includes a sensor support. The acoustic sensor can also include a first acoustic sensing element at least partially supported by the sensor support and configured to output a first signal responsive to acoustic vibrations. The acoustic sensor of some embodiments includes a second acoustic sensing element at least partially supported by the sensor support and configured to output a second signal responsive to acoustic vibrations. In some embodiments, the first and second acoustic sensing elements are configured to provide the first and second signals to a noise attenuator configured to output a reduced noise signal having a higher signal to noise ratio than either of the first and second signals.
In certain embodiments, a method is provided of non-invasively outputting signals responsive to acoustic vibrations indicative of one or more physiological parameters of a medical patient. The method can include providing a sensor comprising a sensor support, a first acoustic sensing element at least partially supported by the sensor support, and a second acoustic sensing element at least partially supported by the sensor support. The method can further include outputting a first signal using the first acoustic sensing element. In certain embodiments, the first signal is responsive to acoustic vibrations, and the first acoustic sensing element is coupled to a medical patient. The method can include outputting a second signal using the second acoustic sensing element. In certain embodiments, the second signal responsive to acoustic vibrations, and the second acoustic sensing element coupled to the medical patient. In certain embodiments, the method includes providing the first signal and the second signal to a noise attenuator configured to output a reduced noise signal having a higher signal to noise ratio than either of the first and second signals.
In certain embodiments, an acoustic sensor is provided for non-invasively outputting signals responsive to acoustic vibrations indicative of one or more physiological parameters of a medical patient. The acoustic sensor can include a sensor support, and a first piezoelectric film at least partially supported by the sensor support and comprising a first electrode and a second electrode. In certain embodiments, the sensor includes a second piezoelectric film at least partially supported by the sensor support and comprising a first electrode and second electrode. In some embodiments, the first electrode of the first piezoelectric film and the first electrode of the second piezoelectric film are coupled to a common potential, and the second electrode of the first piezoelectric film and the second electrode of the second piezoelectric film are coupled to a noise attenuator.
In certain embodiments, an acoustic sensor is provided for non-invasively outputting signals responsive to acoustic vibrations indicative of one or more physiological parameters of a medical patient. In some embodiments, the acoustic sensor includes a sensor support. In some embodiments, the acoustic sensor includes a first acoustic sensing element at least partially supported by the sensor support and comprising an inner portion and an outer portion. In some embodiments, the acoustic sensor includes a second acoustic sensing element at least partially supported by the sensor support and comprising an inner portion and an outer portion. In certain embodiments, the acoustic sensor is configured such that the inner portions are positioned between the outer portions, the outer portions forming an electrical shielding barrier around the inner portions.
In certain embodiments, a method is provided of manufacturing an acoustic sensor for non-invasively outputting signals responsive to acoustic vibrations indicative of one or more physiological parameters of a medical patient. The method can include providing a first acoustic sensing element comprising an inner portion and an outer portion. The method can also include providing a second acoustic sensing element comprising an inner portion and an outer portion. In certain embodiments, the method includes attaching the first acoustic sensing element to a sensor support. The method in some embodiments includes attaching the second sensing element to the sensor support over the first acoustic sensing element. In certain embodiments, the inner portions of the first and second acoustic sensing elements are disposed between the outer portions of the first and second acoustic sensing elements, and the outer portions form an electrical shielding barrier around the inner portions.
An acoustic sensor is provided in some embodiments that is configured to non-invasively detect acoustic vibrations associated with a medical patient, the acoustic vibrations indicative of one or more physiological parameters of the medical patient. The sensor can include a sensor support and first and second sensing membranes supported by the sensor support, each of said first and second sensing membranes comprising first and second surfaces on opposite sides of each of said first and second sensing membranes. In some embodiments, the first and second sensing membranes are aligned such that said first surfaces face each other. The first surfaces in some embodiments are configured to provide an electrical signal indicative of a physiological parameter of a medical patient, and said second surfaces are configured to provide electrical shielding around said first surfaces.
In some embodiments, an acoustic sensor is provided that is configured to non-invasively detect acoustic vibrations associated with a medical patient. The acoustic vibrations can be indicative of one or more physiological parameters of the medical patient. In certain embodiments, the sensor includes at least one sound-sensing membrane is configured to detect acoustic vibrations associated with a medical patient when the acoustic sensor is attached to the medical patient. The sensor can also include a sensor support defining an acoustic cavity and configured to support the at least one sensing membrane over the acoustic cavity. The sensor support may include at least one pressure equalization pathway formed in a wall of the sensor support, the at least one pressure equalization pathway extending from the acoustic cavity to ambient air pressure.
In certain embodiments, an acoustic sensor is configured to non-invasively detect acoustic vibrations associated with a medical patient, the acoustic vibrations indicative of one or more physiological parameters of the medical patient. The sensor can include at least one sound-sensing membrane configured to detect acoustic vibrations associated with a medical patient when the acoustic sensor is attached to the medical patient. The sensor can further include a sensor support configured to support the at least one sensing membrane against the medical patient'"'"'s skin. In some embodiments, the sensor is configured to provide an electrical signal in response to acoustic vibrations detected by the at least one sound-sensing membrane substantially independent of a force used to attach the sensor to the medical patient'"'"'s skin.
In certain embodiments, an acoustic sensor can non-invasively detect acoustic vibrations indicative of one or more physiological parameters of a patient. The acoustic sensor can include a frame and a sensing element supported by the frame. The sensing element can output a signal responsive to acoustic vibrations associated with a patient when the acoustic sensor is attached to the patient. Further, the acoustic sensor can include an acoustic coupler supported by the frame and which can be coupled with an area of the skin of the patient. The acoustic coupler can include a bottom surface having a dielectric material that electrically decouples the area of the skin of the patient from the sensing element when the acoustic sensor is attached to the patient.
For purposes of summarizing the disclosure, certain aspects, advantages and novel features of the inventions have been described herein. It is to be understood that not necessarily all such advantages can be achieved in accordance with any particular embodiment of the inventions disclosed herein. Thus, the inventions disclosed herein can be embodied or carried out in a manner that achieves or optimizes one advantage or group of advantages as taught herein without necessarily achieving other advantages as can be taught or suggested herein.
Throughout the drawings, reference numbers can be re-used to indicate correspondence between referenced elements. The drawings are provided to illustrate embodiments of the inventions described herein and not to limit the scope thereof.
Various embodiments will be described hereinafter with reference to the accompanying drawings. These embodiments are illustrated and described by example only, and are not intended to be limiting.
Overview
In various embodiments, an acoustic sensor configured to operate with a physiological monitoring system includes an acoustic signal processing system that measures and/or determines any of a variety of physiological parameters of a medical patient. For example, in an embodiment, the physiological monitoring system includes an acoustic monitor. The acoustic monitor may be an acoustic respiratory monitor which can determine any of a variety of respiratory parameters of a patient, including respiratory rate, expiratory flow, tidal volume, minute volume, apnea duration, breath sounds, riles, rhonchi, stridor, and changes in breath sounds such as decreased volume or change in airflow. In addition, in some cases the acoustic signal processing system monitors other physiological sounds, such as heart rate to help with probe off detection, heart sounds (S1, S2, S3, S4, and murmurs), and change in heart sounds such as normal to murmur or split heart sounds indicating fluid overload. Moreover, the acoustic signal processing system may (1) use a second probe over the chest for additional heart sound detection; (2) keep the user inputs to a minimum (example, height); and/or (3) use a Health Level 7 (HL7) interface to automatically input patient demography.
In certain embodiments, the physiological monitoring system includes an electrocardiograph (ECG or EKG) that measures and/or determines electrical signals generated by the cardiac system of a patient. The ECG includes one or more sensors for measuring the electrical signals. In some embodiments, the electrical signals are obtained using the same sensors used to obtain acoustic signals.
In still other embodiments, the physiological monitoring system includes one or more additional sensors used to determine other desired physiological parameters. For example, in some embodiments, a photoplethysmograph sensor determines the concentrations of analytes contained in the patient'"'"'s blood, such as oxyhemoglobin, carboxyhemoglobin, methemoglobin, other dyshemoglobins, total hemoglobin, fractional oxygen saturation, glucose, bilirubin, and/or other analytes. In other embodiments, a capnograph determines the carbon dioxide content in inspired and expired air from a patient. In other embodiments, other sensors determine blood pressure, pressure sensors, flow rate, air flow, and fluid flow (first derivative of pressure). Other sensors may include a pneumotachometer for measuring air flow and a respiratory effort belt. In certain embodiments, these sensors are combined in a single processing system which processes signal output from the sensors on a single multi-function circuit board.
Referring to the drawings,
Turning to
For clarity, a single block is used to illustrate the one or more sensors 13 shown in
In some embodiments of the system shown in
As shown in
In some embodiments, the ground signal is an earth ground, but in other embodiments, the ground signal is a patient ground, sometimes referred to as a patient reference, a patient reference signal, a return, or a patient return. In some embodiments, the cable 25 carries two conductors within an electrical shielding layer, and the shielding layer acts as the ground conductor. Electrical interfaces 23 in the cable 25 can enable the cable to electrically connect to electrical interfaces 21 in a connector 20 of the physiological monitor 17. In another embodiment, the sensor 13 and the physiological monitor 17 communicate wirelessly.
The component or group of components between the sensor 101 and the monitor in any particular embodiment may be referred to generally as a cabling apparatus. For example, where one or more of the following components are included, such components or combinations thereof may be referred to as a coupling apparatus: the sensor cable 117, the connector 105, the cable connector 109, the instrument cable 111, and/or the connector 112. It should be noted that one or more of these components may not be included, and that one or more other components may be included between the sensor 101 and the monitor, forming the cabling apparatus.
The acoustic sensor 101 can further include circuitry for detecting and transmitting information related to biological sounds to the physiological monitor. These biological sounds can include heart, breathing, and/or digestive system sounds, in addition to many other physiological phenomena. The acoustic sensor 101 in certain embodiments is a biological sound sensor, such as the sensors described herein. In some embodiments, the biological sound sensor is one of the sensors such as those described in U.S. patent application Ser. No. 12/044,883, filed Mar. 7, 2008, which is incorporated in its entirety by reference herein (the '"'"'883 application). In other embodiments, the acoustic sensor 101 is a biological sound sensor such as those described in U.S. Pat. No. 6,661,161 or U.S. patent application Ser. No. 12/643,939, filed on Dec. 21, 2009 (the '"'"'939 application), both of which are incorporated by reference herein in their entirety. Other embodiments include other suitable acoustic sensors. For example, in certain embodiments, compatible acoustic sensors can be configured to provide a variety of auscultation functions, including live and/or recorded audio output (e.g., continuous audio output) for listening to patient bodily or speech sounds. Examples of such sensors and sensors capable of providing other compatible functionality can be found in U.S. patent application Ser. No. 12/904,789, entitled ACOUSTIC RESPIRATORY MONITORING SYSTEMS AND METHODS, filed on Oct. 14, 2010, which is incorporated by reference herein in its entirety.
In an embodiment, the acoustic sensor 101 includes one or more sensing elements (not shown), such as, for example, a piezoelectric device or other acoustic sensing device. Where a piezoelectric membrane is used, a thin layer of conductive metal can be deposited on each side of the film as electrode coatings, forming electrical poles. The opposing surfaces or poles may be referred to as an anode and cathode, respectively. Each sensing element can generate a voltage potential across the electrical poles that is responsive to vibrations generated by the patient.
The shell 102 according to certain embodiments houses a frame (not shown) or other support structure configured to support various components of the sensor 101. The one or more sensing elements can be generally wrapped in tension around the frame. For example, the sensing elements can be positioned across an acoustic cavity disposed on the bottom surface of the frame. Thus, the sensing elements according to some embodiments are free to respond to acoustic waves incident upon them, resulting in corresponding induced voltages across the poles of the sensing elements.
Additionally, the shell 102 can include an acoustic coupler (not shown), which can advantageously improve the coupling between the source of the signal to be measured by the sensor (e.g., the patient'"'"'s body) and the sensing element. The acoustic coupler of one embodiment includes a bump positioned to apply pressure to the sensing element so as to bias the sensing element in tension. For example, the bump can be positioned against the portion of the sensing element that is stretched across the cavity of the frame. In certain embodiments, the coupler can also advantageously provide electrical decoupling or insulation between the electrical components of the sensor and the skin of the patient.
The attachment sub-assembly 104 in some embodiments includes first and second elongate portions 106, 108. The first and second elongate portions 106, 108 can include patient adhesive (e.g., in some embodiments, tape, glue, a suction device, etc.). The adhesive on the elongate portions 106, 108 can be used to secure the sensor subassembly 102 to a patient'"'"'s skin. One or more resilient backbone members 110 included in the first and/or second elongate portions 106, 108 can beneficially bias the sensor subassembly 102 in tension against the patient'"'"'s skin and/or reduce stress on the connection between the patient adhesive and the skin.
While an example sensor system 100 has been provided, embodiments described herein are compatible with a variety of sensors and associated components. For example, compatible acoustic couplers, support frames, attachment subassemblies, sensing elements, and other components are described in greater detail below and in the '"'"'939 application.
The connector 121 is coupled with a cable section 124, and the connector 123 is also coupled with a cable section 122. These cable sections 122, 124 combine together in a junction 120 to form a single dual cable section 125 that terminates in a monitor connector 126. The junction 120 can be a piece of molded plastic or the like that joins the two cable sections 122, 124 together without electrically coupling the two cables. The monitor connector 126 can connect to a physiological monitor, enabling both sensors connected to the dual sensor cable 130 to provide physiological parameter data to the physiological monitor.
Advantageously, in certain embodiments, the dual sensor cable 130 is smaller than existing dual sensor cables that have extensive electrical decoupling or isolation circuitry inside. Isolation or decoupling circuitry can be included in dual sensor or multiple sensor patient cables to reduce or prevent ground loops from forming in a patient and thereby reduce or prevent electric shock to a patient, as described in U.S. application Ser. No. 12/904,775, filed Oct. 14, 2010, titled “Pulse Oximetry System with Low Noise Cable Hub,” the disclosure of which is hereby incorporated by reference in its entirety. However, such circuitry is not included in the dual sensor cable 130 because decoupling can advantageously be performed by the sensor itself, as will be set forth more fully herein. As a result, the dual sensor cable 130 can be less bulky than the cable described in the '"'"'775 application while still providing the benefits of multiple sensor monitoring. In other embodiments, the dual sensor cable 130 can also be adapted to interface with more than two sensors, such as any of the sensors described herein.
Improving Signal-to-Noise Ratio Using Multiple Sensors
The patient sensor 215 can also include at least one acoustic coupler for acoustically coupling the first and second physiological signal acoustic sensing elements 220, 221 to a patient'"'"'s body 201. In
According to one configuration, the acoustic sensing elements 220, 221 are supported in a stacked configuration on a sensor frame (not shown) or other support. Example stacked configurations are described below with respect to
As shown in
In some embodiments, the acoustic coupler, or couplers, 213, 214 are designed to provide a substantially equal amount of coupling between each of the sensing elements 220, 221 and the patient'"'"'s body 201, though this is not required. Example acoustic couplers compatible with the sensor 215 are described in greater detail throughout the disclosure.
As described, the first and second physiological signal acoustic sensing elements 220, 221 can be specially adapted to detect physiological sounds from a patient. However, the signals output by the acoustic sensing elements 220, 221 may also include noise (e.g., random noise, white Gaussian noise, etc.) from a variety of sources, which decreases the signal-to-noise ratio (SNR) of the signals.
The SNR of these signals can be improved, however, by collecting the desired physiological signal from more than one acoustic sensing element, and then combining (e.g., summing, subtracting, averaging, etc.) the respective outputs from the acoustic sensing elements in a manner that tends to reinforce the physiological signal components of the signals while tending to cancel or reduce the noise components of the signals. For example, the sensor 215, monitor, or other intermediate component, can include a noise attenuator which performs the combining of the signals from the sensing elements 220, 221 to achieve the improved SNR signal. Some embodiments of this approach are illustrated in
Generally, where sensors, sensing elements, couplers, etc., are described throughout the disclosure as being coupled to the patient'"'"'s body, this may mean that one or more of the acoustic couplers are directly coupled to the patient'"'"'s skin or other body part, such as where an acoustic coupler 212 is directly coupled to the skin 201 and transmits acoustic signals to one or more sensing elements 220, 221 as shown in
In
In some embodiments, the 180° phase shift between the outputs from the two piezoelectric films 320, 321 is achieved by differentially connecting the piezoelectric films to the difference amplifier 340. For example, the cathode 320b of the first piezoelectric film 320 can be connected to the non-inverting terminal of the difference amplifier, while the anode 321a of the second piezoelectric film 321 can be connected to the inverting terminal of the difference amplifier 340. The anode 320a and the cathode 321b of the first and second films 320, 321, respectively, can be connected to ground (or be otherwise operatively coupled or coupled to a common potential). In some embodiments, the 180° phase shift is facilitated by mounting the two piezoelectric films 320, 321 such that one is flipped with respect to the other. For example, the two piezoelectric films 320, 321 can be mounted such that the cathode of one of the films faces toward the patient'"'"'s body, while the anode of the other film faces toward the patient'"'"'s body.
Since, in some embodiments, the physiological signal component of the second voltage waveform 331 is substantially a negative copy of the physiological signal component of the first voltage waveform 330, when these two waveforms 330, 331 are subtracted by the sensing circuit 340, they combine constructively, as indicated by the output waveform 341 from the sensing circuit 340. However, the outputs from the first and second piezoelectric films 320, 321 may also each include a noise component (not illustrated in the waveforms 330, 331). If the noise in the outputs from the piezoelectric films is random or otherwise uncorrelated, then at least a portion of the noise will tend to be combined destructively by the sensing circuit 340. Thus, the sensing circuit 340 can amplify the physiological signal component from the first and second piezoelectric films 320, 321 while attenuating random noise. The result in certain embodiments is that the physiological signal is emphasized while the random noise component of the output signals from the piezoelectric films 320, 321 is deemphasized.
For example, in one embodiment, the physiological signal is at least approximately doubled while the noise component is increased but less than doubled. The noise component might not double due to the random or uncorrelated nature of the noise, resulting in some portions of the noise combining additively while others combine negatively. Because the increase in the physiological signal can be greater than the increase in the noise, the sensor assembly configuration shown in
While the configuration of
Similar to the sensor configuration of
Depending on the embodiment, the configuration shown in
Generally, a variety of different sensing circuits 340 can be used in the embodiments of
Moreover, the number and arrangement of the sensing elements 320, 321 can vary according to certain aspects. For example, in some embodiments, more than two physiological signal acoustic sensing elements 320, 321 are used, and their inputs are summed together by, for example, a summing amplifier, a digital signal processor, etc. A variety of configurations including more than two sensing elements are possible. For example, in one embodiment a pair of stacked sensing elements is arranged in a side-by-side configuration on a frame with respect to another pair of stacked sensing elements. In other embodiments, more than two sensing elements (e.g., 3, 4, 5 or more) are arranged in a stacked configuration. In yet other embodiments, more than two sensing elements (e.g., 3, 4, 5 or more) are arranged side-by-side with respect to one another.
In the depicted embodiment, the first acoustic sensing element 420 is wrapped around a portion of the frame 418 and the second acoustic sensing element 421 is generally wrapped around the first acoustic sensing element 420 and also supported by the frame. In the illustrated embodiment, the physiological signal acoustic sensing elements 420, 421 are piezoelectric films. An acoustic coupler 414 acoustically couples the sensing elements 420, 421 to the patient'"'"'s body 401, and can be aligned with both the first and second sensing elements 420, 421, as shown. In some other embodiments, an acoustic coupler 414 is not used. In the embodiment of
In the depicted embodiment, a PCB 422 is disposed in the upper cavity 438 of the frame 418, and is in electrical contact with one or more of the electrodes of the first and second sensing elements 420, 421. For example, the PCB 422 can be in electrical contact with the anode and cathode of each of the sensing elements 420, 421. While other configurations are possible, first and second ends 424, 426 of the first sensing element 420 can generally extend underneath opposite sides of the PCB 422. A first end 428 of the second sensing element 421 extends underneath the PCB 422, while a second end 430 of the second sensing element 421 extends over the opposing side of the PCB 422.
The upper side of the first ends 424, 428 of the first and second sensing elements 420, 422 can include contacts (not shown) corresponding to both electrodes of the respective sensing elements 420, 421. These contacts can be coupled to corresponding contacts on the underside of the PCB 422. One or more through holes or vias may be used to extend the electrodes on the underside of the ends 424, 428 of the sensing elements 420, 421 up to the upper side, enabling contact with appropriate PCB 422 contacts. Example first and second sensing elements compatible with the arrangement of
While not shown for the purpose of clarity, in one embodiment, at least one additional layer (not shown) can be disposed between the sensing elements 420, 421. The additional layer can include an adhesive that adhesively couples the sensing elements 420, 421 together. This adhesive coupling can help ensure that the sensing elements 420, 421 move uniformly together in response to vibrations, reducing losses and improving the response of the sensor. The adhesive coupling can also at least partially maintain tension of one or more of the sensing elements 420, 421.
The additional layer can further be configured to insulate the sensing elements 420, 421 from one another, preventing shorts, noise and/or other undesirable electrical behavior. For example, the additional layer can include a dielectric material. In an embodiment, the adhesive described above acts as a dielectric material. Additional adhesive layers are described below with respect to
The ends of the sensing elements 420, 422 may be configured to provide improved sensor performance, reliability, etc. For example, the additional layer may extend to the ends of one or more of the sensing element 420, 422. In one embodiment, the additional layer is an adhesive layer extending to the under side of the second end 430 of the second sensing element 420, helping secure the connection between the second sensing element 422 and the PCB 422. Moreover, in such embodiments, the second end 430 may be generally stretched across the top of the PCB 422, biasing one or more of the sensing elements 420, 421 in tension and thus providing an improved piezoelectric response.
Depending on the embodiment, one or more of the ends of the sensing elements 420, 421 can also include a dielectric material. For example, in one embodiment, the underside of the second end 430 of the second sensing element 421 includes a dielectric material, thereby insulating the second end 430 and the PCB 422. Additionally, the electrode coatings can be configured to reduce the possibility of electrical shorts or other undesirable behavior. In one embodiment, for example, the electrode coating on the underside of the second sensing element 421 does not extend to the second end 430, thereby reducing the risk of undesirable electrical contact between the second end 430 and the top surface of the PCB 422. In another embodiment, a dielectric material is placed on the underside of the PCB 422 instead of or in addition to providing a dielectric material on the end of the sensing element 420 or 421.
A variety of other configurations are possible for the arrangement of the sensing elements 420, 421. For example, in one embodiment, the ends of the sensing elements 420, 421 which are not connected to the PCB 422 do not extend over or under the PCB 422. In another embodiment, each end of the sensing elements 420, 421 includes one electrode contact, and all four ends are thus in electrical contact with corresponding contacts on the PCB 422. This is in contrast with the arrangement described above, in which the upper side of the first ends 424, 428 each include both anode and cathode electrode contacts for the respective sensing elements 420, 421.
As discussed, and as with many of the embodiments described herein, the piezoelectric films 420, 421 are shown in
Shielding Using Multiple Sensing Elements
In certain embodiments, multiple sensing elements can be employed to form an electrical noise shielding barrier, providing electrical shielding. Moreover, using the sensing elements or portions thereof to form the barrier can simplify the design of the sensor, reducing costs. For example, one or more stacked sensing elements can be configured to electrically shield the sensor. In some configurations, where the stacked sensing elements are piezoelectric films, the inner, facing electrodes of the films in the stack are used to communicate voltage signals generated by the piezoelectric elements to the sensing circuitry of the sensor (and/or monitor). The outer electrodes of the films in the stack can advantageously be configured to shield the inner electrodes from electrical noise. Generally, throughout the disclosure, the term “inner” refers to the sensing element surface and/or electrode coating which is facing the other sensing element in the active region of the stack (e.g., across the acoustic cavity). Conversely, the term “outer” refers to the sensing element surface and/or electrode which is facing away from the other sensing element in the active region of the stack.
The electrical noise shielding barrier can electrically shield the electrical poles of the sensing element from external electrical noises. In some embodiments the outer portions of the sensing element form a Faraday cage or shield around the inner portions. Thus, the outer portions can distribute external electrical noise substantially equally to the electrical poles of the piezoelectric sensing element. The shield can act to reduce the effect of noise on the sensing element from sources such as external static electrical fields, electromagnetic fields, and the like.
Using a second sensing element to form an electrical shielding barrier can also help to reduce costs by reducing the complexity involved in constructing the sensor and reducing material costs. For example, such embodiments may not include one or more shielding layers which are physically separate from the sensing elements (e.g., copper shielding layers), reducing manufacturing costs associated with purchasing and handling such components. However, certain aspects of shielding barriers formed from multiple sensing elements described herein are compatible with shielding barriers formed from separate layers and aspects thereof. Example shielding barriers including those formed from separate shielding layers are described with respect to FIGS. 2D-2E below and throughout the '"'"'939 application, including, without limitation, paragraphs [0120]-[0146] and FIGS. 2D-2E of the '"'"'939 application which are incorporated by reference herein.
As shown, the films 420, 421 are disposed with respect to each other in a stacked configuration such that the cathode 420b of the first film 420 is facing the anode 421a of the second film 421. Thus, these two inner electrodes 420b, 421a of the stack are generally sandwiched between the anode 420a of the first film 420 and the cathode 421b of the second film 421, which form the outer electrodes of the stack. The inner electrodes 420b, 421a can be operationally coupled to a sensing circuit (e.g., a differential amplifier) in the manner shown in
In addition, the outer electrodes 420a, 421b of the films 420, 421 can be configured to form layers of an electrical noise shielding barrier, providing the additional benefit of electrically shielding the sensor from external electrical noises. The electrical noises shielded (or at least partially shielded) can include electromagnetic interference (EMI) from various sources, such as 50 or 60 Hz (AC) noise, noise from other medical devices, and so forth. In some embodiments for example, the outer electrodes 420a, 421b of the first and second films 420, 421 form a barrier around the inner electrodes 420b, 421a of the first and second films 420, 421. Thus, a significant amount of external electrical noise is not directly incident on the inner electrodes 420b, 421a. The outer electrodes 420a, 421b can, for example, distribute at least a portion of the external electrical noise substantially equally to the inner electrodes 420b, 421a, which form the electrical poles of the sensor. For example, because the outer electrodes 420a, 421b may share a common potential (e.g., ground), noise incident on either of the outer electrodes 420a, 421b can be distributed equally to each electrode 420a, 421b. The equally distributed noise can then be capacitively coupled to the inner electrodes 420b, 421a.
Thus, in certain embodiments, because the noise is equally distributed, the noise signal components on the inner electrodes 420b, 421a will be substantially in phase. The physiological signal components can be substantially out of phase, on the other hand, due to the differential orientation of the inner electrodes 420b, 421a with respect to one another in some implementations. The noise signals can advantageously be removed or substantially removed, such as through a common-mode rejection technique as described herein. In certain embodiments, at least some of the external electrical noise is shunted or otherwise directed to ground instead of, or in addition to, being equally distributed to the inner electrodes 420b, 421a.
A variety of alternative configurations are possible. For example, more than two sensing elements (e.g., 2, 3, 4, 5 or more) may be arranged to provide electrical shielding and/or improved signal-to-noise ratio in some embodiments. Moreover, the particular polarities of the sensing elements 420, 421 of
Additionally, shielding barriers formed using stacked sensing elements 420, 421 can provide improved coupling of bodily sounds to the sensor, improving sensor operation (e.g., sensor sensitivity, measurement reliability, etc.). Generally, portions of both the shielding barrier and the sensing element will tend to vibrate in response to the patient sounds. Thus, an uneven mechanical response between the shielding barrier and the sensing element may result in lost signal, affecting sensor performance. For example, shielding barriers including layers that are physically separate from the sensing element can be, in some cases, relatively stiffer than the sensing element. This can limit movement of the sensing element in response to vibrations, producing a corresponding limiting affect on sensor sensitivity. In contrast, where electrodes of the sensing elements are used as shielding layers, the shielding barrier and the sensing element are generally formed from the same type material and integrally connected. Thus, the sensor may be relatively more responsive to vibrations, improving sensor operation.
Moreover, each of the outer electrode shield layers in the stacked configuration can be evenly spaced from the respective inner electrode sensor poles, particularly across the mechanically active portions of the sensor (e.g., across the frame cavity 436 of
According to certain aspects, the physical configuration of the electrodes of the first and second films 420, 421 can be tailored to provide improved electrical shielding. For example, the outer electrodes 420b, 421a can be plated using a material selected to provide enhanced shielding. Although other materials may be used, in one embodiment, the outer electrodes 420b, 421a are plated with silver ink. Moreover, in certain embodiments, the outer electrode coatings of the piezoelectric stack cover a greater portion of the surface area of the respective piezoelectric films than the inner electrode coatings. For example, the outer electrode coatings may cover a significantly larger portion of the surface area of the respective piezoelectric films than the inner electrode coatings. In certain embodiments, for example, the outer electrodes generally envelope or surround the inner electrodes or a substantial portion thereof when the films 420, 421 are in a stacked configuration. Thus, the amount of surface area of the inner electrodes which is exposed to electrical noise is reduced due to the mechanical and/or electrical barrier created by the surrounding outer electrodes.
The interior sensing element 520 includes an anode electrode coating 520a on the outer surface 526 which extends via a through hole 532 to a portion on one end the end of the inner surface 524. The inner surface 524 of the first sensing element 520 also includes a cathode coating 520b. The exterior sensing element 521 includes an anode electrode coating 521a on the inner surface 528 which extends via a through hole 534 to a portion on one end of the outer surface 530. The outer surface of the exterior sensing element 521 also includes a cathode electrode coating 521b.
As shown in
As described with respect to
In such embodiments, where an electrode coating covers substantially the entire surface area of the piezoelectric film, or otherwise covers a significantly larger portion of the surface area of the piezoelectric film than the electrode coating on the opposing side, the electrode coating may be referred to as “flooded.” Thus, the configuration of
A wide variety of flooded electrode configurations are possible. For example, in some embodiments, the sizes and shapes of the electrode coatings may differ from the illustrated embodiment. The relative sizes of the inner electrode coatings versus the outer electrode coatings can also vary. For example, the inner electrode coatings are much smaller in relation to the outer electrode coatings than is shown.
In some alternative embodiments, the outer and inner electrode coatings are both flooded or otherwise cover about the same surface area, or the electrode coating on the inner electrode coating covers more surface area than the outer electrode. Such embodiments may, in some cases, provide relatively less shielding than embodiments where the outer electrode coatings cover more surface area than the inner electrodes, but nonetheless provide some significant amount of electrical shielding.
Example Sensor
The sensor 600a is generally attachable to a patient and can be coupled to a patient monitor. For example, the sensor 600a can be used with the system 10 of
Referring to
Advantageously, in certain embodiments, the acoustic coupler shell 602a or coupler 602a has structural characteristics that can provide patient decoupling or patient isolation benefits. In particular, with reference to
In currently-available acoustic sensors (such as in the '"'"'939 application), the coupler has slits in the bottom surface to enable the coupler to move more freely with the patient'"'"'s vibrations and thereby increase signal to noise ratio. However, the open slits potentially expose the patient'"'"'s skin to harmful currents, and thus the sensor of the '"'"'939 application is typically used with a cable hub having decoupling circuitry as described above and as shown in the '"'"'775 application. Counterintuitively, these slits from the sensor of the '"'"'939 application can be closed (or may be nonexistent) as shown in the coupler 602a of
Advantageously, in certain embodiments, the bottom surface 699 and sides 611, 613 of the coupler 602a are substantially enclosed and thereby provide patient isolation or decoupling from electrical components without significantly impacting SNR in the sensor 600a. In fact, in some tests, at least a portion of the audio range of the sensor 600a has an improved SNR using the coupler 602a over the coupler of the '"'"'939 application. In certain embodiments, this improvement stems at least in part from including air vent holes 607 in two (or optionally more) of the sides 613 of the coupler 602a. Corresponding pressure equalization pathways 650, described in greater detail below, are included in the frame 606. In certain embodiments, the air vent holes 607 and pressure equalization pathways 650, together with the substantially enclosing shape of the coupler 602a, cause the acoustic chamber formed by the coupler 602a and the frame 606 to act as a Helmholtz resonator or approximately as a Helmholtz resonator, thereby advantageously improving the resonance of certain frequencies in the chamber and thereby increasing SNR.
In certain embodiments, the acoustic coupler 602a is made of a silicone material that is flexible and can be stretched over the frame (see
The components of the sensor 600a can be assembled similarly to the sensor 415 of
The adhesive layer 612 is wrapped around the first sensing element 621, and the second sensing element 621 is in turn wrapped around the adhesive layer 612, generally forming a piezoelectric stack. As discussed with respect to
The PCB 604 is positioned in the cavity 616 (
The coupler shell 602 is generally configured to transmit vibrations received from the patient to the films 620, 621 in the piezoelectric stack. The acoustic coupler 602 can include a lower protrusion or bump 628 (
Generally, the piezoelectric films 620, 621 can be any of those described herein. In the illustrated embodiment, for example, the films 620, 621 are the piezoelectric films described in
For example, in one embodiment, the region 618 (
According to the above-described connection scheme, the films 620, 621 can be coupled to circuitry (not shown) residing on the PCB 222 or other system component (e.g., the hub or monitor) to provide improved SNR and/or electrical shielding. For example, the electrodes of the films 620, 621 can each be coupled to an input of an attenuation circuit (e.g., a differential amplifier) or ground (or other common potential) in the manner illustrated schematically with respect to
The frame 606 can include one or more pressure equalization pathways 650. The pressure equalization pathways 650 provide an air communication pathway between the lower acoustic cavity 614 and ambient air pressure. The pressure equalization pathways 650 allow the sensor'"'"'s membrane(s) or film(s) 621, 622 to vibrate within the cavity 614 independent of skin elasticity or the force used to attach the sensor to a patient'"'"'s skin. As described above, corresponding air vent holes 607 in the coupler 602a can be positioned over the pressure equalization pathways 650 in the frame 606 when the frame 606 is inserted into the coupler 602a. (Insertion of the frame 606 into the coupler 602a is described in greater detail below with respect to
Indeed, variability in skin elasticity or the force used to attach the acoustic sensor to the medical patient'"'"'s skin can affect the volume and/or air pressure within the cavity 614 defined by the sensing elements 621, 622 and frame 606. Variability in skin elasticity or attachment force can lead to variability in cavity resonance, which can cause unwanted variability in sensor 600a performance. For example, an acoustic sensor 600a that is attached to very elastic skin may provide a different output signal than an acoustic sensor 600a that is attached to firmer or tighter skin. Similarly, an acoustic sensor 600a that is loosely attached to patient'"'"'s skin may provide a different output signal than an acoustic sensor 600a that is tightly attached to a patient'"'"'s skin.
To compensate for attachment variability, in one embodiment the acoustic sensor frame 606 includes one or more pressure equalization pathways 650. The pathways 650 provide an air-flow channel from the cavity 614 to the ambient air pressure. By equalizing pressure within the cavity 614 with ambient during sensing, variability in sensor performance may be reduced and/or eliminated. In some embodiments, the pressure equalization pathways 650 include one or more holes, notches, ports, or channels that extend from within the sensor'"'"'s cavity 614 to a location in communication with ambient air pressure.
In one embodiment, the pressure equalization pathways 650 are provided on opposite sides of the frame 606 portion that defines an acoustic cavity 614. Symmetrically arranging the pressure equalization pathways 650 can further improve sensor 600a performance. In another embodiment the pressure equalization pathways 650 are provided in portions of the sensor frame 606 which do not contact the sensor'"'"'s sensing elements, membranes, and/or films 621, 622. By preventing contact between the pressure equalization pathways 650 and the sensor'"'"'s sensing membrane, sensor 600a performance may be further improved.
In one embodiment, the sensor frame 606 includes one, two, three, four, or five pressure equalization pathways 650 on each of two opposite sides of the sensor frame 606. In another embodiment, the sensor frame 606 includes at least one pressure equalization pathway 650 on each of its sides. In one embodiment, each pressure equalization pathway 650 is formed as a notch. A frame 606 that includes notches as its pressure equalization pathways 650 may be easier to fabricate than a frame that includes other pressure equalization pathways 650 (e.g., holes). For example, when the frame 606 is made by molding plastic, creating notches in the frame'"'"'s 606 side wall requires less complicated tooling than forming holes.
Aspects of some of the components of the sensor 600a are described in greater detail herein with respect to other embodiments. For example, one or more of the coupling shell 602, PCB 604, frame 606, sensing elements 620, 621, adhesive layers 608, 610, 612, or portions or aspects thereof are compatible with the corresponding components shown in
However, the coupler 602b also has an enclosed bottom surface 699, like the coupler 602a. Accordingly, the coupler 602b can also be used in place of bulky decoupling circuitry in a cable hub, as described above with respect to the coupler 602a. In some embodiments, the coupler 602a can provide greater electrical decoupling (withstanding in some implementations DC current of up to about 5 kV) than the coupler 602b (which can withstand in some implementations up to about 3 kV of DC current). However, both couplers 602a, 602b can advantageously protect a patient from harmful current surges due to ground loops formed in the patient between the sensor and other equipment, such as defibrillators and the like, thereby eliminating a need for a bulky cable hub when using multiple sensors in a dual sensor cable.
Noise Compensation Overview
Embodiments of systems generally including at least first and second acoustic sensing elements and configured to provide noise compensation will now be described with respect to
According to various aspects, the multiple acoustic sensing elements can be beneficially arranged in a variety of configurations. For example, the first and second sensing elements can be incorporated into the same sensor package. In some embodiments, the first and second sensing elements are included in separate sensor packages, or can otherwise be strategically positioned at a variety of locations in the monitoring environment. For example, such sensors can be positioned at multiple locations on the patient, as is shown in and described with respect to
Generally speaking, the interfering noise signals described herein can include any acoustic signal, and can include vibrational, sonic, infrasonic, or ultrasonic waves. Such signals can be transmitted in gases, liquids and/or solids. For example, depending on the physiological signal being monitored, the interfering noise can include patient sounds generated from physiological processes, such as breathing sounds, heart sounds, digestive sounds, combinations of the same and the like. Interfering noise can further include speech sounds, snoring, coughing, gasping, etc., and can emanate from the patient or other individuals in the monitoring environment. Further sources of noise can also include humming or other acoustic noise coming from computers or other electronic equipment in the operating environment, ambient traffic or airplane noise, combinations thereof and the like.
Interfering noise can additionally emanate from one or more noisy devices that are coupled to the patient, such as medical devices that are coupled to the patient during use. Examples of such devices can include, without limitation, powered surgical equipment (e.g., electrosurgical tools for cauterizing, coagulating, welding, cutting, etc.), ventilation equipment (e.g., continuous positive airway pressure (CPAP) machines), nebulizers, combinations of the same and the like.
Particularly where a noise source is readily identifiable, the noise sensing element according to certain aspects may be positioned in physical proximity to the noise source, so as to obtain a signal including a relatively clean noise reference signal, allowing for improved noise compensation according to techniques described herein. Specific example cases are provided below with respect to
According to yet other described embodiments, it can be expected that the components of their output signals resulting from one source (e.g., the patient'"'"'s body) will be generally similar while signal components from other sources (e.g., noise components) can be expected to have certain dissimilarities (e.g., phase or time shift). In these cases, the output signals from the first and second acoustic sensing elements can be advantageously combined in ways that accentuate commonalities between the two signals while attenuating differences between the two output signals, or vice versa, producing a reduced noise output signal.
Moreover, while shown and described as first and second sensing elements with respect to many of the embodiments described below, there may be more than two (e.g., 3, 4, 5 or more) sensing elements in certain embodiments. Additionally, while described as individual sensing elements for the purposes of illustration, in certain embodiments one or more of the first and second sensing elements each include multiple acoustic transducers or other types of sensing elements. In some embodiments, for example, the first and/or second sensing elements each include at least two piezoelectric films arranged in a stacked configuration, wrapped around a support frame, as described above with respect to
The acoustic physiological monitoring system 700 includes a first acoustic sensing element 720 and a second acoustic sensing element 721. In some embodiments, these acoustic sensing elements are passive devices. In some embodiments, the first acoustic sensing element 720 is used to produce a physiological signal 730 that is indicative of one or more physiological sounds (e.g., sounds resulting from physiological processes) emanating from a patient'"'"'s body. For example, the first acoustic sensing element 720 may be used to produce a physiological signal 730 that is indicative of a particular type of physiological sound, which is sometimes referred to herein as the target physiological sound. A variety of target physiological sounds are possible, including breathing sounds, heart sounds, digestive sounds, and the like. For example, the sensing elements 720, 721 can be piezoelectric films. In general, this physiological signal 730 can include unwanted noise as a result of interfering noise in the patient'"'"'s surroundings being picked up by the first acoustic sensing element 720. The physiological component and the noise component of the signal 730 can overlap in time and/or frequency content. Devices for detecting primarily physiological sounds emanating from the patient'"'"'s body are disclosed more fully herein.
In some embodiments, the second acoustic sensing element 721 is used to produce a noise signal that is substantially representative of, or otherwise meaningfully correlated with, any noise picked up by the first acoustic sensing element 720. The noise signal 731 may not necessarily duplicate the noise component of the physiological signal 730. For example, the signal strength of the noise in the two signals 730, 731 can differ. Other differences between the noise signal 731 and the noise component of the physiological signal 730 are also possible. However, it can be advantageous for the second acoustic sensing element to be positioned and designed such that the noise signal 731 has some degree of commonality with the noise present in the physiological signal 730. In this way, the noise signal 731 can provide useful information to meaningfully reduce, remove, filter, cancel, separate out, etc. the noise from the physiological signal 730. Devices for detecting primarily noise sounds are disclosed more fully herein.
In addition, the second acoustic sensing element 721 can also be positioned and designed such that the noise signal 731 is substantially free of the physiological sounds picked up by the first acoustic sensing element 720, or such that such physiological sounds are a less-significant component of the noise signal 731 than they are of the physiological signal 730. While illustrated as producing a noise signal 731, in other embodiments discussed more fully herein the second acoustic sensing element is positioned and designed to provide a second physiological signal rather than a noise reference signal. For example, like the first sensing element 720, the second acoustic sensing element 721 may include both a significant physiological signal component and an interfering noise component. In such embodiments, the first and second physiological signals can be combined in certain ways so as to reinforce the physiological components of the two signals while reducing any noise components that can exist in the two physiological components. In other embodiments, this can be carried out using more than two acoustic sensing elements.
In some embodiments, the physiological signal mixed with noise 730 and the noise signal 731 are input to a processing unit 790. In some embodiments, the processing unit 790 includes a noise attenuator 740, a signal quality calculator 750, and a physiological characteristic calculator 760. The processing unit 790 can be implemented as one or more digital signal processors, one or more analog electric processing components, combinations of the same or the like, etc.
In some embodiments, the noise attenuator 740 reduces the amount of noise present in the physiological signal 730 based on information gleaned from the noise signal 731, as discussed in more detail herein. For example, the noise attenuator 740 can reduce the signal energy of the noise component of the physiological signal 730. Alternatively, or in addition, the noise attenuator 740 can reduce or remove a portion of the noise component of the physiological signal 730 over a particular frequency range. In some embodiments, the processing unit 790 outputs a physiological signal with reduced noise 741 using the noise attenuator 740. The signal 741 can also be provided to other sub-blocks of the processing unit 790 (e.g., the physiological characteristic calculator 760).
The signal quality calculator 750 is a device that is used to determine, for example, an objective indicator of the quality of the physiological information obtained from one or more acoustic sensing elements. This can be done, for example, by comparing the physiological signal 730 with the noise signal 731, as discussed further herein. The signal quality calculator 750 can also output an objective indicator of the degree of confidence in the accuracy of a physiological characteristic (e.g., respiratory rate) determined based on the physiological information collected from one or more acoustic sensors. The signal quality calculator 750 can also output a binary confidence indicator that selectively indicates low confidence and/or high confidence in the accuracy of the physiological characteristic. The processing unit 790 then outputs one or more signal quality indicators 751.
The physiological characteristic calculator 760 is used to determine, for example, one or more values or signals that are indicative of a physiological characteristic of the patient. For example, the physiological characteristic can be respiratory rate, expiratory flow, tidal volume, minute volume, apnea duration, breath sounds, riles, ronchi, stridor, and changes in breath sounds such as decreased volume or change in airflow. In some embodiments, a physiological characteristic is calculated using a processing algorithm applied to the physiological signal with reduced noise 741 that is outputted by the noise attenuator 740.
The physiological signal with reduced noise 741, the signal quality indicator 751, and the physiological characteristic indicator can be output to a disp