Medtronic Minimed, Inc.

Ichor Medical Systems, Inc.

Global Bio Therapeutics, Inc.

Steven Masterson

Robert M Bernard

Andrew W Hannaman

Sheldon B Moberg

Afshin Bazargan

Daniel Steven Kline

Kevin Lee Bokelman

Eric M Lorenzen

Colin A Chong

Rafael Bikovsky

Arsen Ibranyan

Adam J Livingston

Jose Gustavo Cabrera Aquino

Blanca Angelica Segura Pacheco

Tom McGee

Paul D Faucher

John N Hoffman

Allan Rozenberg

Brady M Bernard

Steven Gerken

Bianca Angelica Segura Pacheco

Provided herein is a clamp device that can be used in minimally invasive procedures, including surgeries such as laparoscopic surgeries, for clamping a tissue or an organ or a portion of a tissue or organ. Also provided herein are methods of clamping a tissue or an organ or a portion thereof during minimally invasive surgery using the clamp device provided herein. Also provided are systems for performing a minimally invasive surgery that include the clamp device for minimally invasive surgery provided herein and an injection device configured to access an endoscopic port for the minimally invasive surgery.

Clamp device for minimally invasive procedures and uses thereof

Apparatus for the delivery of an electrical field which facilitates the intracellular delivery of a therapeutic agent to a predetermined site within the tissue of a patient. The apparatus will comprise a plurality of penetrating electrodes arranged in a predetermined spatial relationship, each electrode with a cross sectional area contributing to the total cross sectional area of all electrodes, and structural means incorporating an inanimate source of energy operatively connected to the plurality of electrodes for deploying the electrodes, wherein the source of energy is sufficient to impart a force of at least 1000 pounds per square inch (0.7 kilogram per square millimeter) of total cross sectional area of all electrodes at the initiation of the deployment of the electrodes. The apparatus will also comprise means for generating an electrical field which facilitates the intracellular delivery of a therapeutic agent, which means is operatively connected to said electrodes at least in their deployed state.

Apparatus for electrically mediated delivery of therapeutic agents

Provided herein is an injection device that can be used in minimally invasive procedures, such as laparoscopic surgeries, for direct administration of a fluid, such as a therapeutic, to a target tissue or organ.

Injection device for minimally invasive procedures and uses thereof

An insertion device may include a device housing configured to be operatively engaged with and disengaged from a base, and engageable with an actuation device, the device housing having a carrier body supporting a piercing member. The carrier body moveable by a carrier body of the actuation device at least between a retracted position and an advanced position. The device housing having a section for supporting a portion of the carrier body of the device housing, the section moveable relative to the carrier body of the device housing to provide sufficient clearance to allow the carrier body of the device housing to be moved by the carrier body of the actuation device.

Insertion device systems and methods

An insertion device may include a base adapted to be carried by a patient, and a housing attached to the base, the housing having a fluid connector arranged for movement relative to the base. A pair of interactive elements including a first interactive element may be supported on the base and a second interactive element supported on the housing at a location to be interactable with the first interactive element when the fluid connector is moved to a predetermined position. Circuitry may be configured to detect an interaction between the first interactive element and the second interactive element when the fluid connector is in the predetermined position, the circuitry configured to provide a signal or a change in state in response to detecting the interaction between the first interactive element and the second interactive element.

A fluid infusion system including a pocketable pump housing with a reservoir cavity with helical coupling features. The system further has a reservoir with an open end that is removable from the reservoir cavity. A removable cap coupled to the housing is also included in the system. The cap has corresponding coupling features, an exterior surface and a tab. The corresponding coupling features couple the cap to the housing while the tab is a ridge that extends away from the exterior surface. The tab has a port to accommodate flow from the reservoir and the port defines an axis of rotation such that torque applied to the tab about the axis of rotation disengages the coupling between the cap and the housing. The system further has a removably coupled guard with a slot defined to immobilize rotation of the tab about the axis of rotation.

Activity guard

Method and apparatus for the reproducible, consistent and efficacious delivery of a therapeutic agent to a patient. The invention comprises means for the controlled administration of the therapeutic agent () through an orifice to the patient, a plurality of penetrating electrodes () arranged with a predetermined spatial relationship relative to the orifice (), and means for generating an electrical signal operatively connected to the electrodes.

Method and apparatus for delivery of therapeutic agents

The fluid infusion system is disclosed that includes a pump housing that has a reservoir cavity and is designed to be pocketable. The reservoir cavity has a rim and helical coupling features formed on an interior face of the reservoir cavity. The fluid infusion system further has a reservoir that is removable from the reservoir cavity and the reservoir also has an open end. A removable cap coupled to the pump housing is also included in the fluid infusion system. The cap has corresponding coupling features, an exterior surface and a tab. The corresponding coupling features are defined to couple the cap to the pump housing while the tab is defined as a ridge that extends away from the exterior surface. The tab further has a port to accommodate fluid flow from the reservoir where the port defines an axis of rotation such that torque applied to the tab about the axis of rotation disengages the coupling between the cap and the pump housing. Further included in the infusion system is a guard that is removably coupled to the pump housing. The guard has a slot defined to immobilize rotation of the tab about the axis of rotation.

Growing community of inventors

Encinitas, CA, United States of America

Steven Masterson