Patents Assigned to Medtronic
  • Patent number: 12213723
    Abstract: A vitreous enamel coating for an electrosurgical metal cutting blade, the coating having a coefficient of thermal expansion substantially near the coefficient of thermal expansion of the metal cutting blade. Selection of materials having similar coefficients of thermal expansion results in an electrosurgical cutting blade with an improved insulating layer, substantially improved durability, or both.
    Type: Grant
    Filed: November 14, 2017
    Date of Patent: February 4, 2025
    Assignee: Medtronic Advanced Energy LLC
    Inventors: Xiaoming Cheng, Himanshu K. Bhatt, Zahedul Huq
  • Patent number: 12214206
    Abstract: A tool has an outer assembly, which includes a deployment tube, extending around, and moveable with respect to an inner assembly of the tool; the inner assembly includes a single pull wire and a distal member configured to engage an end of an implantable medical device. The deployment tube includes an articulating segment located just proximal to an enlarged distal-most portion, which contains the device and the distal member. Relatively soft and stiff sections of a composite sidewall define the articulating segment and extend alongside one another, such that, when the pull wire is actuated, the composite sidewall causes bending of the segment in two directions. A handle assembly of the tool includes a control member for the pull wire, and may further include a flushing subassembly that has a connector port located at an end of the handle assembly that is opposite a proximal port of the handle.
    Type: Grant
    Filed: September 3, 2021
    Date of Patent: February 4, 2025
    Assignee: Medtronic, Inc.
    Inventors: Sean Ward, Rónán P. Wood, Paula McDonnell, Gwenda Francis, Aram Jamous
  • Patent number: 12214210
    Abstract: A leadless neurostimulation device having a header unit including at least one primary electrode having a contact surface that defines an external surface of the leadless neurostimulation device, a housing including a secondary electrode positioned on the same side of the leadless neurostimulation device as the at least one primary electrode, and a anchor device including at least one suture point for securing the leadless neurostimulation device to patient tissue or at least one protrusion nub configured to create mechanical resistance that impedes relative movement between wherein the leadless neurostimulation device and the patient tissue when implanted, where the at least one primary electrode and the secondary electrode are configured to transmit an electrical stimulation signal therebetween to provide electrical stimulation therapy to a target nerve of a patient.
    Type: Grant
    Filed: September 24, 2021
    Date of Patent: February 4, 2025
    Assignee: Medtronic, Inc.
    Inventors: Steven T. Deininger, Jerel K. Mueller, Todd V. Smith, Jeffrey Clayton, Thomas M. Hillebrand, Phillip C. Falkner, Jenna N. George, Sarah J. Offutt
  • Publication number: 20250032285
    Abstract: A loading device for loading a graft-stent into a graft cover includes an eye shaft, an adjustment shaft, a rod, and a collar. The eye shaft includes an eyelet disposed at a first end of the eye shaft. The adjustment shaft includes a first portion adjustably coupled to a second end of the eye shaft opposite the first end of the eye shaft such that an overall length of the loading device may be lengthened or shortened via the adjustment shaft. The rod is coupled to a second portion of the adjustment shaft opposite the first portion of the adjustment shaft. The collar is disposed over the rod and includes a collar lumen configured to receive a suture between an inner surface of the collar and an outer surface of the rod.
    Type: Application
    Filed: April 2, 2024
    Publication date: January 30, 2025
    Applicant: Medtronic Vascular, Inc.
    Inventors: Kerry Page MONGILIO, Alyssa BROWN, Sohrab SETHNA
  • Publication number: 20250032767
    Abstract: Hemostatic springs and hemostatic seals comprising hemostatic springs facilitate introducing a surgical device into the vasculature of a patient during a surgical procedure. Each hemostatic spring comprises a radial array of spring segments positioned on a circular path about a central axis. Each hemostatic seal is configured to reduce an axial length of the hemostatic spring to constrict the radial array of spring segments to reduce a cross-sectional area of the central passage. Methods include axially inserting the surgical device into the hemostatic seal while compression from the hemostatic seal minimizes fluid leakage. Methods can further include reducing a frictional force of inserting the device into the hemostatic seal by reducing the axial compression to dilate the hemostatic spring.
    Type: Application
    Filed: April 10, 2024
    Publication date: January 30, 2025
    Applicant: Medtronic, Inc.
    Inventor: Jake DUNLEA
  • Publication number: 20250032251
    Abstract: A transcatheter heart valve delivery assembly includes a first shaft portion including a first wall surrounding a first chamber. A second shaft portion is attached to a distal end of the first shaft portion and includes a second wall surrounding a second chamber. A funnel portion is attached to a distal end of the second shaft portion and includes a funnel wall surrounding a funnel chamber. The funnel portion moves between a radially-compressed position, in which the funnel chamber includes a first diameter that is less than or equal to a diameter of the second chamber, and a radially-expanded position, in which the funnel chamber includes a second diameter that is greater than the first diameter. The funnel portion is biased into the radially-compressed position. Methods of recapturing a heart valve prosthesis are provided.
    Type: Application
    Filed: March 26, 2024
    Publication date: January 30, 2025
    Applicant: Medtronic, Inc.
    Inventor: Marc A. ANDERSON
  • Publication number: 20250032246
    Abstract: Prosthetic heart valves each includes a link extending along an axial direction and an axial frame. The axial frame includes a plurality of struts comprising a plurality of inner struts pivotally attached to a plurality of outer struts at a plurality of pivot nodes. A first pivot node of the plurality of pivot can be attached to the link and a second pivot node of the plurality of pivot nodes can move relative to the link in the axial direction. Methods of radially expanding a prosthetic heart valve can comprise radially expanding the radially expandable frame from a radially retracted orientation to a radially expanded orientation while the second pivot node axially translates relative to the link.
    Type: Application
    Filed: April 3, 2024
    Publication date: January 30, 2025
    Applicant: Medtronic, Inc.
    Inventor: Karl L. OLNEY
  • Patent number: 12208269
    Abstract: Systems, devices, and techniques are described for calibrating a medical device that senses ECAP signals from a patient's nerve tissue. For example a method includes instructing, with processing circuitry, stimulation circuitry of a medical device to deliver, on stimulation electrodes of the medical device, an electrical stimulation signal having an amplitude substantially equal to zero to a patient, entering, with the processing circuitry subsequent to instructing the stimulation circuitry to deliver the electrical stimulation signal, a passive recharge state on stimulation electrode circuitry, and auto-zeroing, with the processing circuitry, inputs to an operational amplifier of sensing circuitry electrically coupled to sensing electrodes of the medical device while the stimulation electrode circuitry is in the passive recharge state.
    Type: Grant
    Filed: March 14, 2022
    Date of Patent: January 28, 2025
    Assignee: Medtronic, Inc.
    Inventors: Todd V. Smith, Robert A. Corey, Heba Tareq Omar, Kristin N. Hageman
  • Patent number: 12208259
    Abstract: A fixation component includes tines extending from a base portion of the fixation component. Each tine is elastically deformable between a pre-set position and an open position. Each tine includes a hook segment extending from a proximal end near the base portion to a distal end. Each tine also includes a distal segment extending from the distal end of the hook segment to a tissue-piercing tip. When positioned in the pre-set position, the hook segment extends along a pre-set curvature that encloses an angle between 135 degrees and 270 degrees, and the distal segment extends away from a longitudinal axis of the fixation component.
    Type: Grant
    Filed: December 5, 2023
    Date of Patent: January 28, 2025
    Assignee: Medtronic, Inc.
    Inventors: Jonathan L. Kuhn, Michael P. Campbell, Vladimir Grubac, Kenneth D. Rys, Richard W. Swenson, Charles Lowell Wilson
  • Patent number: 12211221
    Abstract: Devices, systems, and methods used to register medical image data with anatomical positions are disclosed. The image data is captured by an imaging system over a period of time. The positions are determined by one or more modalities over the period of time. The positions are collected into position data, and determinations are made as to which position data is best for registering the image data with patient anatomy and for reconstructing 3D images of the patient anatomy.
    Type: Grant
    Filed: February 2, 2022
    Date of Patent: January 28, 2025
    Assignee: Medtronic Navigation, Inc.
    Inventors: Patrick A. Helm, Robert J. Pahl
  • Patent number: 12207866
    Abstract: A method for ablating tissue by applying at least one pulse train of pulsed-field energy. The method includes delivering a pulse train of energy having a predetermined frequency to cardiac tissue, the pulse train including at least 60 pulses, an inter-phase delay between 0 ?s and 5 ?s, an inter-pulse delay of at least 5 ?s, and a pulse width of 5 ?s.
    Type: Grant
    Filed: November 6, 2023
    Date of Patent: January 28, 2025
    Assignee: Medtronic, Inc.
    Inventors: Mark Stewart, Steven J. Fraasch
  • Publication number: 20250025300
    Abstract: Devices including a capsule having an interior and a clamp assembly including a plurality of clamps. Each clamp includes a first arm having a first free end and a second arm having a second free end. The device includes a clamp assembly including a compacted state in which the plurality of clamps are compressed within the capsule and a deployed state in which at least the free ends of the plurality of clamps are positioned outside of the interior of the capsule. The first free end is closer to the second free end in the compacted state as compared to the deployed state. The device can further include a push rod releasably secured to the clamp assembly and a delivery rod releasably secured to the capsule. Methods of using the devices are also disclosed.
    Type: Application
    Filed: October 7, 2024
    Publication date: January 23, 2025
    Applicant: Medtronic Vascular, Inc.
    Inventors: William W. Chang, Karan P. Punga, Matthew Baldwin, Brian J. Castelli, Michael A. Gloss, Mingfei Chen
  • Patent number: 12201820
    Abstract: A medical device system includes a cardiac electrical stimulation device and a ventricular assist device (VAD). The cardiac stimulation device and the VAD are capable of communication with each other to confirm detection of cardiac events.
    Type: Grant
    Filed: December 3, 2021
    Date of Patent: January 21, 2025
    Assignee: Medtronic, Inc.
    Inventor: Mark L. Brown
  • Patent number: 12201825
    Abstract: An implantable medical device assembly comprises a sealed housing; a motor including a rotating output shaft within the sealed housing; a first coaxial shaft within the sealed housing, the first coaxial shaft being mechanically coupled to the rotating output shaft such that rotation of the rotating output shaft drives rotation of the first coaxial shaft; a second coaxial shaft external to the sealed housing, the second coaxial shaft being in axial alignment with the first coaxial shaft; an oscillating component mechanically coupling the first coaxial shaft to the second coaxial shaft, wherein rotation of the rotating first coaxial shaft drives the oscillation of the oscillating component, wherein the oscillation of the oscillating component drives rotation of the second coaxial shaft; and a flexible seal including the oscillating component. The sealed housing and the flexible seal combine to form a substantially sealed enclosure encasing the motor and the first coaxial shaft.
    Type: Grant
    Filed: July 22, 2020
    Date of Patent: January 21, 2025
    Assignee: Medtronic, Inc.
    Inventors: Reginald D. Robinson, Mary E. Robischon, Rodney J. Haberle, Gerald G. Lindner, Don A. Rutledge, Jason R. Simoneau
  • Patent number: 12206276
    Abstract: Devices and methods described herein facilitate rapid wireless recharging, while reducing risk of injury, damage, or discomfort caused by heat generated during recharging. The embodiments described herein are useful in a variety of context, including for IoT devices, personal electronics, electric vehicles, and medical devices, among others. Such devices can prevent localized overheating of the device.
    Type: Grant
    Filed: June 30, 2023
    Date of Patent: January 21, 2025
    Assignee: Medtronic, Inc.
    Inventors: Andrew T. Fried, Venkat R. Gaddam, Brett Otteson
  • Patent number: 12201752
    Abstract: This invention pertains to systems and components useful for infusing medications such as insulin. Typically, the components are used to deliver insulin to a diabetic patient at a site of infusion over a period of time greater than 4 days. The system components typically comprise a cannula adapted for subcutaneous insertion into a diabetic patient. The system further comprises a fluid conduit adapted to deliver the insulin solution from a medication reservoir to the site of infusion and a depot in operable contact with the fluid conduit. The depot comprises selected materials including a site-loss mitigating agent (such as heparin) which inhibits inflammation at the site of infusion, and encapsulation of the cannula at the site of infusion. The site-loss mitigating agent is not premixed with the insulin, and instead is adapted to contact the insulin solution in the depot as the insulin solution flows from the medication reservoir to the site of infusion.
    Type: Grant
    Filed: October 12, 2021
    Date of Patent: January 21, 2025
    Assignee: Medtronic MiniMed, Inc.
    Inventors: Kiem H. Dang, Sarnath Chattaraj, Hsi C. Fusselman, Lance P. Hoffman, Guangping Zhang
  • Patent number: 12201844
    Abstract: Systems and methods that automatically adjust, or adapt, stimulation waveforms delivered to brain structures. Closed loop system embodiments can automatically be re-configured into a more suitable closed loop control system in response to measures of control system performance. Measures can be internal performance characteristics of the adaptive control system or external inputs provided by another subsystem. As these measures change in time, the robust adaptive system changes in response.
    Type: Grant
    Filed: September 26, 2023
    Date of Patent: January 21, 2025
    Assignee: Medtronic, Inc.
    Inventors: Thomas L. Chouinard, Scott R. Stanslaski, Timothy R. Abraham, Robert S. Raike
  • Patent number: 12201466
    Abstract: A method and system is disclosed for acquiring image data of a subject. The image data can be collected with an imaging system in a selected manner and/or motion. More than one projection may be combined to generate and create a selected view of the subject.
    Type: Grant
    Filed: October 2, 2023
    Date of Patent: January 21, 2025
    Assignee: Medtronic Navigation, Inc.
    Inventors: Patrick A. Helm, Rasika A. Parkar, Robert Reddy, Kyo C. Jin, Seunghoon Nam, Andre D. A. Souza, Xiaodong Tao, David Adams Garlow, John R. Martin
  • Patent number: 12201353
    Abstract: A method for ablating tissue by applying at least one pulse train of pulsed-field energy. The method includes delivering a pulse train of energy having a predetermined frequency to cardiac tissue, the pulse train including at least 60 pulses, an inter-phase delay between 0 ?s and 5 ?s, an inter-pulse delay of at least 5 ?s, and a pulse width of 5 ?s.
    Type: Grant
    Filed: March 5, 2024
    Date of Patent: January 21, 2025
    Assignee: Medtronic, Inc.
    Inventors: Mark Stewart, Steven J. Fraasch
  • Patent number: 12201839
    Abstract: Systems, devices, methods, and techniques are described for using evoked compound action potential (ECAP) signals to monitor lead position and/or detect lead migration. An example system includes sensing circuitry configured to sense an ECAP signal, and processing circuitry. The processing circuitry controls the sensing circuitry to detect, after delivery of an electrical stimulation pulse, a current ECAP signal, and determines one or more characteristics of the current ECAP signal. The processing circuitry also compares the one or more characteristics of the current ECAP signal to corresponding one or more characteristics of a baseline ECAP signal, and determines, based on the comparison, a migration state of the electrodes delivering the electrical stimulation pulse. Additionally, the processing circuitry outputs, based on the migration state, an alert indicative of migration of the electrodes.
    Type: Grant
    Filed: October 16, 2023
    Date of Patent: January 21, 2025
    Assignee: Medtronic, Inc.
    Inventors: Jiashu Li, David A. Dinsmoor, Duane L Bourget, Kristin N. Hageman, Hank Bink, Christopher L. Pulliam