Boston Scientific Scimed, Inc.

Boston Scientific Corporation

Scimed Life Systems, Inc.

Oxford University Innovation Limited

Boston Scientific Medical Device Limited

Timothy Paul Harrah

Christopher L Oskin

Abhijit Takale

Arpita Banerjee

Sandesh Gavade

Pavan Misra

Derrick Lenz

Brandon Wesley Craft

Niraj Prasad Rauniyar

Peter J Pereira

Chad Schneider

Jerry Timothy Long, Jr

Kimberly DeGraaf

Elizabeth Anne Stokley

Sebastian Koerner

Jianmin Li

Eric Wong

Jozef Slanda

Mark W Boden

Jamie Li

William Stanhope

Adam Perry Nodiff

Sandra Nagale

Subodh Morey

Mark Hera

Aaron Kurtiss Kirkemo

Ashish Jain

Robert J Riker

Michael S H Chu

Brian P Watschke

James M Goddard

Ding Sheng He

Erik E Sperry

Allan Charles Shuros

Bryan Allen Clark

Charles A Gibson

Kenneth J Daignault

Weenna Bucay-Couto

Jonathan Zoll

Lynne E Swanson

Charudatta Chandrakant Aradhye

Dennis Werner

Michael Sh Chu

Michael C Peterson

Christopher P Gauvin

Thomas Michael Zappia, Jr

Amedeo Chiavetta

Anant Subramaniam

Paul James Fearis

Rajiv Kumar Singh

Stuart Perry

William Gastrock

Isaac Ostrovsky

Shibaji Shome

Michael F Weiser

William Joseph Shaw

Michael Barenboym

Wen-Jui Ray Chia

Doreen Rao

Steven L Kangas

Alfred P Intoccia, Jr

John Edward Sherry

Leo James Lichte

Ty Fairneny

Brian C MacLean

Sacha Tang

Ronald Ciulla

Kenneth P Reever

William Asselin

Kasyap Venkata Seethamraju

Rajivkumar Singh

Mayur Kiran Patel

Alfred Intoccia

Nishant Randhawa

Jan D Seppala

Samuel P Baldwin

Salman Kapadia

Michael O'Brien

Sumit Malik

Biten Kishore Kathrani

Martin Phelan

Brent Palmisano

Brian MacLEAN

Avshalom Shenhav

David Shreeve

Prateet Verma

Deanna Cavallaro

Steven Diamond

Jessica Williams

Benjamin Turney

Sarah Waters

Derek Moulton

Sanda Nagale

Daryl Christopher Donatelli

Melissa Graves

Prashant Borkar

Jan Seppala

Yosi Hazan

Mark A Hera

Michael SH Chu

Devices, systems, and methods are provided for breaking a kidney stone(s) into smaller particles, fragments, and/or stone dust; and removing the same from a patient. The medical device may include a tube having a distal end, a proximal end, a port located proximal of the distal end, and a length of the tube extending between the proximal end and the distal end. A first portion of the tube may be proximal of the port and have a first cross-sectional area, while a second portion of the tube may be distal of the port and have a second cross-sectional area smaller than the first cross-sectional area. A first lumen may extend from the proximal end to the distal end of the tube. A second lumen may in communication with the port to fluidly connect the proximal end of the tube with the port.

Medical device having a plurality of lumens and a port

The present disclosure is directed to a medical device. Systems and methods are provided for utilizing a laser to break a kidney stones into smaller fragments and/or dust, and removing particles, stone fragments and/or stone dust from a patient. The medical device may include a delivery device including a tube, and an elongate member having a distal end, a proximal end, and a lumen extending between the proximal end and the distal end, wherein the elongate member is configured to move axially relative to the tube and apply suction through the distal end.

Medical device and methods of use

The present disclosure is directed to a medical device. Systems and methods are provided for utilizing a laser to break a kidney stones into smaller fragments and/or dust, and removing particles, stone fragments and/or stone dust from a patient. The medical device may include a tube having a distal end and a proximal end, a first lumen extending from the proximal end to the distal end of the tube and in fluid communication with the distal end and a plurality of side ports located at a distal portion of the tube, and a second lumen extending from the proximal end to the distal end of the tube.

An endoscopic system includes an endoscopic imager configured to capture image frames of a target site within a living body and a processor configured to apply a spatial transform to a preliminary set of image frames, the spatial transform converting the image frames into cylindrical coordinates; calculate a map image from the spatially transformed image frames, each pixel position in the map image being defined with a vector of fixed dimension; align a current image frame with the map image and apply the spatial transform to the current image frame; fuse the spatially transformed current image frame to the map image to generate a fused image; and apply an inverse spatial transform to the fused image to generate an enhanced current image frame having a greater spatial resolution than the current image frame. The system also includes a display displaying the enhanced current image frame.

System and method for endoscopic video enhancement, quantitation and surgical guidance

An endoscopic system includes an endoscopic imager configured to capture images of a target site within a living body and a processor configured to determine one or more image metrics for each one of a plurality of image frames captured over a time span, analyze changes in the image metrics over the time span, and determine a turbidity metric for the target site based on the analyzed changes in the image metrics.

System, device and method for turbidity analysis

According to an aspect, a medical device includes an elongate member and a sleeve. The elongate member defines a lumen and has a first end portion and a second end portion. The second end portion has a first configuration and a second configuration. The second end portion has a first size when the second end portion is in its first configuration and a second size when the second end portion is in its second configuration. The first size is smaller than the second size. The second end portion is biased to its second configuration. The sleeve defines a lumen extending from a first end portion of the sleeve to a second end portion of the sleeve.

Access device having an anchoring feature and methods of using the same

A scope system includes a processor and a scope device. The scope device includes a handle configured to remain outside of the body and an elongated shaft extending from the handle to a distal tip and including a working channel extending therethrough. The working channel is open at the distal tip of the shaft. The shaft is inserted through a bodily lumen to a target surgical site. The shaft includes at least one sensor transmitting to the processor sensor data relating to the target surgical site.

Endoscopic scope device with a sensor

The present disclosure relates generally to controlled extension medical stents, and more particularly to controlled extension devices positioned in the body to stent the ureter and facilitate drainage from the kidney to the bladder.

Controlled extension stent

An attachment for an imaging device may include a first sheath including a proximal end, a distal end, and a lumen extending between the proximal end and the distal end; a second sheath positioned around an exterior of the first sheath; and a connector coupled to the first sheath and configured to be coupled to the imaging device.

Attachment for an imaging device

A medical system for use in a lithotripsy procedure may include a processor configured to receive input from a first imaging device, wherein the first imaging device may be configured to send image data representative of an image captured in a lumen of a kidney, bladder, or ureter to the processor. The processor may be configured to display the image on a display device coupled to the processor, and analyze the image to sense the presence of an object within the image. If an object was sensed within the image, the processor may analyze the image to estimate a size of the object, and display the estimate on the display device.

Medical user interfaces and related methods of use

An operation room system includes a processing unit configured to receive data associated with a patient, determine a treatment for the patient, identify a control setting associated with one or more treatment devices that are (i) in communication with the processing unit, and (ii) operable to perform the treatment, and generate a display including the control setting and at least one view of the data.

Operating room devices, methods, and systems

Irrigation devices, methods, and systems are disclosed. The system comprises a catheter with one or more lumens and an expandable portion. One or more pumps are used to supply a mixture of contrasting and dilating agents in an interior kidney volume and flush a portion of the mixture out of the interior kidney volume. The method comprises placing a catheter into the interior kidney volume through a ureter, occluding a portion of the ureter with a distal end of the catheter, forming an exit port through an exterior kidney surface, flowing the contrasting and dilating agents through the one or more lumens to supply the mixture in the interior kidney volume, and flushing a portion of the mixture out of the exit port.

Irrigation devices, methods, and systems

A fluid management system includes a pump configured to pump fluid through the system at a fluid flow rate. The system includes a processor including a user interface, the user interface allowing a user to input a set of system operating parameters, the processor being configured to control the pump to maintain a target fluid flow rate based on the set of system operating parameters. The system further includes a scope device coupled to the pump to deliver the fluid to a target surgical site, the scope device including an elongated shaft extending from a distal end thereof, the elongated shaft including at least one sensor, the at least one sensor transmitting sensor data relating to the target surgical site to the processor. The processor automatically signals to the pump to adjust the fluid flow rate based on the sensor data.

Automated fluid management system

Growing community of inventors

Cambridge, MA, United States of America

Timothy Paul Harrah