Neuropace, Inc.

Autonomic Technologies, Inc.

Other

Epicor Medical, Inc.

Epicor, Inc.

Cala Health, Inc.

St Jude Medical, Atrial Fibrillation Division, Inc

The Cleveland Clinic Foundation

Eneura, Inc.

Neuralieve, Inc.

Neurospace, Inc.

Autonamic Technologies, Inc.

Benjamin D Pless

Brett M Wingeier

Thomas K Tcheng

Barbara Gibb

Michael Sasha John

David R Fischell

Robert E Fischell

Anthony V Caparso

Scott Clinton Anderson

Matthias Vaska

David A Gallup

Roxanne L Richman

Jack E Ulstad, Jr

Carl Lance Boling

Felice Sun

Adrian R M Upton

Jonathan L Podmore

John Edwards Crowe

Timothy Edward Ciciarelli

Daniel Chao

Lisa Guzzo

Stephen T Archer

Ryan Powell

Bruce E Kirkpatrick

Kathryn H Rosenbluth

Samuel Richard Hamner

Serena HanYing Wong

Suresh K Gurunathan

Dennis Potts

Craig M Baysinger

Peter Lin

C Lance Boling

Martha J Morrell

Scott J S Fischell

Emily Ma

Kuen Chang

Dave Vondle

Javier Echauz

Rosana Esteller

Kenneth N Horne

Francis A Papay

Jonathan Harwood

Eyad Kishawi

Karen Tsuei

Kellie S Fletcher

Shannon M Schuetz

Adolf Van Der Heide

Mike Hardage

Brinda Ramachandran

Kathryn Rosenbluth

Serena Hanying Wong

Scott Sj Fischell

In some embodiments, systems and methods can include a wearable device with an electrically conductive skin interface that excites the underlying nerves from a transcutaneous surface stimulator. The device may be sized for a range of user sizes with stimulation electrodes positioned to target the appropriate nerves, such as the saphenous and/or posterior tibial nerves. The therapy may be adjusted based on leg restlessness or movement.

Systems, methods and devices for peripheral neuromodulation

Systems and methods include a wearable device with an electrically conductive skin interface that excites the underlying nerves from a transcutaneous surface stimulator. The device may be sized for a range of user sizes with stimulation electrodes positioned to target the appropriate nerves, such as the saphenous and/or posterior tibial nerves. The therapy may be adjusted based on leg restlessness or movement.

Systems, methods and devices for peripheral neuromodulation of the leg

Methods, devices, and systems induce neuromodulation by focusing a source of stimulation through a skull/brain interface in the form of an aperture formed in the skull, a naturally occurring fenestration in the skull, or a transcranial channel. Methods, devices, and systems identify where to locate skull/brain interfaces, accessories that can be used with the interfaces, and features for controlling stimulation delivered through the interfaces. Multiple indications for the skull/brain interfaces include diagnosis and treatment of neurological disorders and conditions such as epilepsy, movement disorders, depression, Alzheimer's disease, autism, coma, and pain.

Systems, methods and devices for a skull/brain interface

In some embodiments, systems and methods can include a wearable device with an electrically conductive skin interface that excites the underlying nerves from a transcutaneous surface stimulator. The device may be sized for a range of user sizes with stimulation electrodes positioned to target the appropriate nerves, such as the saphenous and/or posterior tibial nerves. Transcutaneous afferent stimulation of one, two, or more peripheral nerves can modulate a brain or spinal pathway associated with bladder function.

Systems, methods and devices for peripheral neuromodulation for treating diseases related to overactive bladder

Systems, methods and devices are disclosed for directing and focusing signals to the brain for neuromodulation and for directing and focusing signals or other energy from the brain for measurement, heat transfer and imaging. An aperture in the skull and/or a channel device implantable in the skull can be used to facilitate direction and focusing. Treatment and diagnosis of multiple neurological conditions may be facilitated with the disclosed systems, methods and devices.

Seizure sensing and detection using an implantable device

In certain aspects, the present disclosure is directed to a method of improving a patient's recovery after a neuro-ischemic event. The method can include identifying a patient who has suffered a neuro-ischemic event, and stimulating, for a period of time, a parasympathetic structure in the patient's cranium before, during, and/or after the patient undergoes a task-oriented therapy to improve the patient's recovery.

Methods of improving a patients recovery after a neuro-ischemic event

Methods for intra-operatively monitoring nerve evoked potentials such as somatosensory nerve evoked potentials during a surgical procedure. The methods include orthodromic and antidromic monitoring of nerve evoked potentials. Monitoring includes navigating the surgical pathway to avoid insult to anatomical tissue, minimizing activation of sensory nerves that result in undesirable side effects in a patient, and determining the suitable location for placement of an implantable medical device.

Methods of using nerve evoked potentials to monitor a surgical procedure

An implantable neurostimulator system adapted to provide therapy for various neurological disorders is capable of varying therapy delivery strategies based on the context, physiological or otherwise, into which the therapy is to be delivered. Responsive and scheduled therapies can be varied depending on various sensor measurements, calculations, inferences, and device states (including elapsed times and times of day) to deliver an appropriate course of therapy under the circumstances.

Differential neurostimulation therapy driven by physiological therapy

One aspect of the present disclosure relates to a system that can facilitate delivery of a medical device in proximity to a target region within a patient's body. Data representing an image of a portion of the patient's body can be received. Based on the data representing the image, a first three dimensional (3D) model of the medical device can be generated. A second 3D model of the medical device can be fitted within the first 3D model at a location in proximity to the target region to create a combined 3D model. A two dimensional (2D) projection of the combined 3D model can be created. In some instances, the 2D projection can be used to facilitate delivery of a medical device in proximity to the target region within a patient's body.

System and method for surgical planning and navigation to facilitate placement of a medical device within a target region of a patient

Various methods for laser welding biocompatible material for use in implantable medical devices are disclosed. A method for laser processing includes applying a laser beam to a biocompatible material comprising at least 85% by weight zirconium oxide (ZrO) or 'zirconia' in an oxygen-free environment and depleting the material of oxygen. The depletion of oxygen converts the zirconium oxide to elemental zirconium at an interface where the material is applied to the elemental zirconium. In one embodiment, the present invention provides for an implantable medical device or component thereof made of a biocompatible material comprising zirconium oxide. The device includes a substrate that has an intrinsic conductive pathway comprising elemental zirconium that extends from a first surface to a second surface of the substrate.

Implantable medical device and method for laser processing

One aspect of the present disclosure relates to a surgical guidance tool configured to facilitate delivery of a neurostimulator to a target craniofacial region of a subject. The surgical guidance tool can include a main body, a securing mechanism, and an adjustable guide mechanism. The main body can have a distal end, a proximal end, and a longitudinal axis extending between the distal and proximal ends. The securing mechanism can be disposed at the distal end and configured to secure a neurostimulator delivery tool to the main body. The guide mechanism can be configured to temporarily mate with a bodily target location of the subject and facilitate positioning of the neurostimulator delivery tool about the target craniofacial region. The guide member can be slidably attached to the distal end and selectively translatable along the longitudinal axis of the main body.

Surgical guidance tool to facilitate delivery of a neurostimulator into a pterygopalatine fossa

An interactive implantable medical device system includes an implantable medical device and a network-enabled external device capable of bi-directional communication and interaction with the implantable medical device. The external device is programmed to interact with other similarly-enabled devices. The system facilitates improved patient care by eliminating unnecessary geographic limitations on implantable medical device interrogation and programming, and by allowing patients, physicians, and other users to access medical records, history, and information and to receive status and care-related alerts and messages anywhere there is access to a communications network.

Systems and methods for interacting with an implantable medical device

The patient identification system of the preferred embodiments includes a transponder that is affixed to a patient and functions to communicate information that identifies the patient to a device or series of devices. The series of devices includes at least a first device that collects data from the patient and communicates with the transponder. The patient identification system is preferably designed to identify a patient, and more specifically to identify a patient to be associated with the data collected by the device. The patient identification system, however, may be alternatively used in any suitable environment and for any suitable reason.

Patient identification system

Growing community of inventors

Sunnyvale, CA, United States of America

Benjamin D Pless