Medtronic, Inc.

University of Minnesota

Ashish Singal

Steven M Goetz

Jon P Davis

Rajeev Madhukar Sahasrabudhe

Nathan Andrew Torgerson

Lynn A Davenport

Brent A Huhta

Dwight E Nelson

Xin Su

Shyam Gokaldas

Thaddeus S Brink

Wende L Dewing

Mark J Holle

Blake A Hedstrom

Saurav Paul

Joel A Anderson

Spencer M Bondhus

Leroy L Perz

Spencer Fodness-Bondhus

John E Ferguson

Scott E Straka

Felicity Pino

James Krocak

Nicole Eugenia Pardo Lamos

David Amor

Greg Ruth

Blaine Schneider

Kari Roberts

Shanthi Kandikonda

The disclosure describes devices, systems, and techniques for identifying and treating bladder dysfunction. In one example, a method includes identifying one or more focal points at respective locations of bladder tissue of a bladder of a patient, the one or more focal points initiating coordinated contractions of a detrusor muscle. The method may also, or alternatively, include ablating, for each of the one or more focal points, a respective portion of the bladder tissue at the respective location of the focal point. Ablation of these targeted portions of the bladder tissue may reduce the coordinated contractions of the detrusor muscle and alleviate overactive bladder symptoms.

Ablation therapy to disrupt coordinated bladder contractions

In some examples, a burr hole cap assembly includes one or more markers that indicate a rotational orientation of a therapy delivery member relative to the burr hole cap assembly, where the therapy delivery member extends through an opening defined by the burr hole cap assembly. In addition, in some examples, the burr hole cap assembly includes a feature that indicates the rotational orientation of the therapy delivery member after the therapy delivery member is implanted in the patient. The feature can include the one or more markers in some examples.

Burr hole cap assembly with therapy delivery member orientation feature

In one aspect, a programmer for an implantable medical device comprises a user interface that receives user input corresponding to one or more selected stimulation therapy parameters for delivering stimulation therapy to a patient with the implantable medical device and presents an energy consumption estimate of a power source based on the selected stimulation therapy parameters; and a processor that determines one or more programming options that, if selected, would alter the selected stimulation therapy parameters and reduce the energy consumption estimate. The user interface presents at least one of the programming options to reduce the energy consumption estimate to the user with an indication that user selection of one or more of the presented programming options would alter the selected stimulation therapy parameters to reduce energy consumption of the implantable medical device.

User interface for optimizing energy management in a neurostimulation system

A care unit can include a base member and a plurality of petal members. Each petal member can extend from a first end, engaged with the base member, to a second end, spaced from the base member. Inward-facing surfaces of at least two petal members and the base member can collectively define a cavity for receiving at least a portion of the patient. The care unit can further include one or both of a therapy component, configured to provide a treatment to the patient, or a sensor component, configured to monitor a condition of the patient. The therapy component can be coupled to, or integrated with, one or both of the base member or a petal member and can include an optical light source, a thermal energy source, an oxygen or air source, a sound wave source, a sound wave-cancelling source, or a pulsating source, for example.

Care unit

Various programming techniques are described for medical devices that deliver electrical stimulation therapy that may include mapping between discrete electrical stimulation parameters and a graphical view of the electrical stimulation representing a stimulation zone generated by the parameters. In one example, a method includes receiving, via a programmer for an electrical stimulator, user input that graphically manipulates at least one of size and a shape of a graphical representation of at least one electrical stimulation zone displayed on the programmer, and defining a program to control delivery of electrical stimulation therapy based on the user input.

Managing electrical stimulation therapy based on variable electrode combinations

This disclosure describes techniques for obtaining an image of an anatomical implant region where leads associated with an implantable medical device are implanted in a patient, manipulating the image to show lead locations and placements, performing necessary image compression and manipulations, adjusting the image to associate it with information (e.g., patient, metadata, annotations, etc.) useful to a subsequent programmer retrieving the image, and transferring a copy of the captured image to the implantable medical device. The image stored in the implantable medical device may be retrieved at a later time by a user of programmer, where the user can use the image and other associated information to program subsequent therapy.

Storing image of therapy region in implantable medical device

Techniques are described, for medical devices that deliver electrical stimulation therapy, for controlling a transition from an initial stimulation location or initial stimulation shape to a user-specified target stimulation location or target stimulation shape in order to limit the rate of change of stimulation. One example method includes receiving, via a programmer for an electrical stimulator, user input indicating a target stimulation zone, and controlling the electrical stimulator to transition electrical stimulation from an initial stimulation zone to the target stimulation zone via one or more intermediate stimulation zones.

Programming techniques for controlling rate of change of electrical stimulation therapy

This disclosure describes techniques for programming stimulation therapy programs according to therapy targets (e.g., symptoms or areas of pain) in a patient to which they are applied. Several programs can be programmed for each therapy target, stored on an implantable medical device, and retrieved later by a programmer to modify, edit, delete, create, and/or select a therapy program for each of the therapy targets. Each therapy target is independent from the other therapy targets, and a user can select or change a program under one therapy target without affecting programs under the other therapy targets. During programming, a user can specify parameters for each program applicable to only that program, and can specify parameters for each therapy target applicable to every program associated with that therapy target. The organization of programs into slots and the selection of a program in each slot may be manual or automated.

Programming therapy delivered by implantable medical device

Growing community of inventors

Blaine, MN, United States of America

Ashish Singal