David J Noonan

US Patent:

20180263716, Sep 20, 2018

Filed:

Jan 6, 2016

Appl. No.:

15/544547

Inventors:

- EINDHOVEN, NL
GREGORY COLE - OSSINING NY, US
DAVID PAUL NOONAN - NEW YORK NY, US
NERIMAN NICOLETTA KAHYA - EINDHOVEN, NL

International Classification:

A61B 34/30
A61B 6/00
A61B 34/20
A61F 2/954
A61B 6/12
A61B 90/00

Abstract:

A robotic system for operating a endovascular deployment device () including a treatment device () mounted to a delivery tool () connected to a proximal control (), and further including an optical shape sensor () (e.g., an endograft endovascular deployment device incorporating an optical shape sensor). The robotic system employs a robot () attachable to proximal control () and/or delivery tool () for navigating the treatment device () within a cardiovascular system (e.g., a robot controlling an axial rotation and/or axial translation of an endograft mounted to a sheath catheter). The robotic system further employs a robot controller () for controlling a navigation of treatment device () within the cardiovascular system by the robot () derived from a spatial registration between a shaping sensing by the optical shape sensor () of a portion or entirety of endovascular deployment device () to a medical image of the cardiovascular system (e.g., an X-ray/reconstructed image of an abdominal aorta).

US Patent:

20180014886, Jan 18, 2018

Filed:

Dec 31, 2015

Appl. No.:

15/544925

Inventors:

- EINDHOVEN, NL
Gregory Cole - Ossining NY, US
David Paul Noonan - New York NY, US
Neriman Nicoletta Kahya - Eindhoven, NL

International Classification:

A61B 5/00
A61F 2/95
A61F 2/07
A61F 2/06

Abstract:

A medical device deployment system includes a main body () and a guidewire () capable of being passed through the main body and including a lumen. An optical shape sensing (OSS) system () is configured to pass through the lumen in the guidewire. The OSS system is configured to measure shape, position or orientation of an endograft () relative to a blood vessel for placement of the endograft.

US Patent:

20180008352, Jan 11, 2018

Filed:

Jan 8, 2016

Appl. No.:

15/544649

Inventors:

- EINDHOVEN, NL
Gregory Coie - Ossining NY, US
David Paul Noonan - New York NY, US
Neriman Nicoletta Kahya - Eindhoven, NL
Ehsan Dehghan Marvast - New York NY, US

Assignee:

Koninklijke Philips N.V. - Eindhoven

International Classification:

A61B 34/20
A61F 2/958
A61F 2/07
A61F 2/95
A61F 2/954
A61F 2/91

Abstract:

A system for medical device deployment includes an optical shape sensing (OSS) system () associated with a deployable medical device () or a deployment instrument (). The OSS system is configured to measure shape, position or orientation of the deployable medical device and/or deployment instrument. A registration module () is configured to register OSS data with imaging data to permit placement of the deployable medical device. An image processing module () is configured to create a visual representation (′) of the deployable medical device and to jointly display the deployable medical device with the imaging data.

US Patent:

20170215973, Aug 3, 2017

Filed:

Sep 16, 2015

Appl. No.:

15/514619

Inventors:

- EINDHOVEN, NL
ARYEH LEIB REINSTEIN - BRONX NY, US
XINGCHI HE - COLUMBIA MD, US
PAUL THIENPHRAPA - CAMBRIDGE MA, US
DIRK DIJKKAMP - WAALRE, NL
DAVID PAUL NOONAN - NEW YORK NY, US

International Classification:

A61B 34/20
G01B 11/24
G01D 5/353

Abstract:

A triggering device includes an optical fiber () configured for optical shape sensing. A supporting element () is configured to support a portion of the optical fiber. An interface element () is configured to interact with the optical fiber associated with the supporting element to cause a change in a property of the fiber. A sensing module () is configured to interpret an optical signal to determine changes in the property of the fiber and accordingly generate a corresponding trigger signal.

US Patent:

20170196643, Jul 13, 2017

Filed:

Jul 14, 2015

Appl. No.:

15/324001

Inventors:

- EINDHOVEN, NL
ARYEH LEIB REINSTEIN - BRONX NY, US
DAVID PAUL NOONAN - NEW YORK NY, US

International Classification:

A61B 34/30
A61B 6/12
A61B 34/20
A61B 1/04

Abstract:

A workstation for calibrating a robotic instrument () having a distal tip () within an X-ray image space (). The workstation employs a calibration controller () for calibrating an RCM length of the robotic instrument () responsive to X-ray images () of different poses of the distal tip () of the robotic instrument () within the X-ray image space (), and further employs a robotic instrument controller () for controlling a guidance of the robotic instrument () within the X-ray image space () from the RCM calibration. The robotic instrument () may include an endoscope whereby the calibration controller () is further employed to calibrate a focal length of the robotic instrument () responsive to the X-ray images () and one or more endoscope image(s) () of the X-ray image space () for guidance within the X-ray image space () from the RCM/focal length calibrations.

US Patent:

20170049463, Feb 23, 2017

Filed:

Jan 22, 2015

Appl. No.:

15/119039

Inventors:

- EINDHOVEN, NL
RALF SEIP - CARMEL NY, US
DAVID PAUL NOONAN - NEW YORK NY, US

International Classification:

A61B 17/22
A61B 17/00
A61N 7/02

Abstract:

A method of harvesting a blood vessel, the method may be performed by an apparatus which may include a flexible body portion () having at least one ultrasound transducer (), the apparatus may be controlled by at least one controller, the method may include one or more acts of: percutaneously situating the flexible body into the blood vessel having vessel walls and connective tissue attached to the vessel walls; and exciting the at least one ultrasound transducer () to output ultrasound signals of a first type having a focal zone outside of the vessel walls so as to fractionate a region of connective tissue in the focal zone.

US Patent:

20170042521, Feb 16, 2017

Filed:

Feb 26, 2015

Appl. No.:

15/119077

Inventors:

- EINDHOVEN, NL
RALF SEIP - CARMEL NY, US
DAVID PAUL NOONAN - NEW YORK NY, US

International Classification:

A61B 17/00
A61B 34/20
A61N 7/02
A61B 17/22
A61B 18/24
A61B 17/12
A61B 17/11

Abstract:

A method of performing a coronary bypass procedure, the method may be performed by the flexible apparatus controlled by at least one controller, the method may include acts of: percutaneously situating the flexible apparatus into a first artery coupled to connective tissue of a chest wall; transluminally detaching at least a portion of the first artery from the connective tissue by applying ultrasound signals of a first type emitted by at least one transducer of the flexible apparatus; steering at least a portion of the detached portion first artery from a current location to a bypass location at a target artery by applying a force transmitted through the flexible apparatus situated within the first artery; and coupling, by the flexible apparatus situated within the first artery, the first artery to the target artery at the bypass location to establish flow communication between the first artery and the target artery.

US Patent:

20160231104, Aug 11, 2016

Filed:

Sep 30, 2014

Appl. No.:

15/025403

Inventors:

- Eindhoven, NL
MARTINUS BERNARDUS VAN DER MARK - BEST, NL
KAREN IRENE TROVATO - PUTNAM VALLEY NY, US
CORNELIUS ANTONIUS NICOLAAS MARIA VAN DER VLEUTEN - LIEMPDE, NL
DAVID PAUL NOONAN - NEW YORK NY, US
MOLLY LARA FLEXMAN - MELROSE MA, US
JEROEN JAN LAMBERTUS HORIKX - WEERT, NL
ANNA HENDRIKA VAN DUSSCHOTEN - EINDHOVEN, NL
ELBERT GERJAN VAN PUTTEN - 'S-HERTOGENBOSCH, NL

International Classification:

G01B 11/24
G01B 11/16
A61B 34/20
G02B 6/36

Abstract:

A clamp mechanism for fixation of an optical fiber (OSF) with optical shape sensing properties arranged for Optical Shape Sensing. A fixing element preferably with a circular cross section serves to engage with the optical fiber (OSF), and together with an additional fixing arrangement with a straight longitudinal portion arranged for engaging with the associated optical fiber (OSF), a fixation of a section of the optical fiber (OSF) is provided with the optical fiber (OSF) in a straight position. In some embodiments, the clamp mechanism can be implemented by three straight rods (R R R) with circular cross section, e.g. with the same diameter being a factor of such as 6.46 times a diameter of the optical fiber (OSF). Hereby an effective fixation and straightening of the optical fiber (OSF) without disturbing strain can be obtained with a clamp mechanism which is easy to assemble and disassemble in practical applications e.g. when used as a launch fixture, and with the optical fiber (OSF) incorporated in a medical device.