Deka Products Limited Partnership

Carefusion 303, Inc.

Cordis Corporation

Deka Research and Development Corporation

Deka Products Limited Parternship

New Power Concepts LLC

Harvest Automation, Inc.

Eugly Diabetes Care LLC

Deka Products Limted Partnership

Deka Products Ltd. Partnership

Deka Research Products Limited Partnership

Larry B Gray

Dean Kamen

John Matthew Kerwin

Russell Herbert Beavis

Richard J Lanigan

Stephen Lewis Fichera

Colin Holmes Murphy

Brian Daniel Tracey

Thomas A Friedrich

Eric Yeaton

Derek Geoffrey Kane

Erik N Sabin

Christopher Charles Langenfeld

Dirk Albertus Van Der Merwe

Michael J Slate

Gregory R Lanier

Michael S Place

Jason A Demers

Jesse Tetherly Bodwell

Marc Aurele Mandro

David Blumberg, Jr

Kevin L Grant

James D Dale

David E Altobelli

Robert J Bryant, Jr

Robert A Charles

Felix Winkler

Casey Patrick Manning

Geoffrey P Spencer

Benjamin W Jones, Jr

Martin D Desch

N Christopher Perry

Gerald Michael Guay

Matthew R Gill

Michael J Baier

Christopher J Murray

David W McGill

Daniel F Pawlowski

Robert Bryant

Edward G Mitchell

Philip T Pupa

Gregory T Hulan

Jeffrey M Janway

Matthew C Harris

Kevin A Durand

Jonathan R Thurber

Michael J Wilt

Gregory R Lanier, Jr

Craig R Steinfels

Craig A Dodge

Geoff P Spencer

Jeffrey L Klein

Jonathan A Parker

Thomas F Soldau

John J Biasi

Bright C K Foo

Gregg W Rivinius

Jared Hamilton

William T Larkins

Philip R Houle

David D B Cannan

Clement D Bouchard

David C Nivens

Frederick Marshall Morgan

David E Collins

Scott A Leonard

John B Morrell

Bob D Peret

Jacob William Scarpaci

Joseph Lee Jones

Clara Vu

Richard Kurt Heinzmann

Prashant Bhat

Michael G Norris

Jared N Farlow

Rodney S Kenley

Kingston Owens

Hikmat Hojeibane

Brian H Yoo

Soon Yong Park

Todd A Ballantyne

Keith David Violette

Charles M Grinnell

Matthew A Norris

Todd Comins

Michael A Baker

David J Howlett

Alexander R Therrien

Shannon Prescott

Jake Smith

Brian G Gray

Jonathan Zobro

Benjamin E Colburn

Robert M Tumarkin

Ann Eckert

Paul G Girouard

James L Sloss

Paul R Curtin

Aaditya Ravindran

Christopher Perry

A peristaltic pump disclosed herein includes a raceway, a plunger, a motor, and a heater. The raceway is configured to retain a tube (e.g., an IV tube). The plunger acts on the tube disposed within the raceway. The motor engages the plunger to actuate the plunger. The heater is disposed in thermal-conductive contact with the tube. That is, the heater, either through direct or indirect application, heats the tube.

Apparatus and method for infusing fluid through a tube by appropriately heating the tube

A pump for pumping fluid includes a tube platen, a plunger, a bias member, inlet and outlet valves, an actuator mechanism, a position sensor, and a processor. The plunger is configured for actuation toward and away from the infusion-tube when the tube platen is disposed opposite to the plunger. The tube platen can hold an intravenous infusion tube. The bias member is configured to urge the plunger toward the tube platen.

Apparatus for infusing fluid

A patch-sized fluid delivery device may include a reusable portion and a disposable portion. The disposable portion may include components that come into contact with the fluid, while the reusable portion may include only components that do not come into contact with the fluid. Redundant systems, such as redundant controllers, power sources, motor actuators, and alarms, may be provided. Alternatively or additionally, certain components can be multi-functional, such a microphones and loudspeakers that may be used for both acoustic volume sensing and for other functions and a coil that may be used as both an inductive coupler for a battery recharger and an antenna for a wireless transceiver. Various types of network interfaces may be provided in order to allow for remote control and monitoring of the device.

Patch-sized fluid delivery systems and methods

Embodiments of the present invention relate generally to certain types of reciprocating positive-displacement pumps (which may be referred to hereinafter as 'pods,' “pump pods,” or “pod pumps”) used to pump fluids, such as a biological fluid (e.g., blood or peritoneal fluid), a therapeutic fluid (e.g., a medication solution), or a surfactant fluid. The pumps may be configured specifically to impart low shear forces and low turbulence on the fluid as the fluid is pumped from an inlet to an outlet. Such pumps may be particularly useful in pumping fluids that may be damaged by such shear forces (e.g., blood, and particularly heated blood, which is prone to hemolysis) or turbulence (e.g., surfactants or other fluids that may foam or otherwise be damaged or become unstable in the presence of turbulence).

Fluid pumping systems, devices and methods

A system for at least partial closed-loop control of a medical condition is disclosed. The system includes at least one medical fluid pump. The medical fluid pump including a sensor for determining the volume of fluid pumped by the pump. Also, at least one continuous analyte monitor, and a controller. The controller is in communication with the medical fluid pump and the at least one continuous analyte monitor. The controller includes a processor. The processor includes instructions for delivery of medical fluid based at least on data received from the at least one continuous analyte monitor.

Systems and methods for fluid delivery

A pump for administering an agent to a patient includes a housing, a motor, a gearbox, a sensor, and a controller. The motor may be coupled to housing. The gearbox is operatively connected to the motor. The sensor senses a rotation of the motor. The controller acts to control operation of the motor and monitor the quantity of the agent delivered to the patient. The pump also includes a pump assembly such that the pump is configured such that the pump assembly may be interchangeable from a syringe pump assembly and a peristaltic pump assembly.

Syringe pump

A wearable infusion pump assembly includes a reusable housing assembly, and a disposable housing assembly including a reservoir for receiving an infusible fluid. A releasable engagement assembly is configured to allow the reusable housing assembly to releasably engage the disposable housing assembly. A detachable external infusion set is configured to deliver the infusible fluid to a user.

Wearable pump assembly

A method of dispensing a therapeutic fluid from a line includes providing an inlet line connectable to an upstream fluid source. The inlet line is in downstream fluid communication with a pumping chamber. The pumping chamber has a pump outlet. The method also includes actuating a force application assembly so as to restrict retrograde flow of fluid through the inlet while pressurizing the pumping chamber to urge flow through the pump outlet. A corresponding system employs the method.

Pumping fluid delivery systems and methods using force application assembly

A system for priming an infusion pump is disclosed. The system includes a priming cap including a septum and configured to matably connect with a male part comprising a needle and attached to a length of tubing for fluid, wherein when matably connected with the male part, the priming cap occludes the tubing.

Infusion pump methods, systems and apparatus

A flow control device is disclosed. The flow control device includes a solenoid, the solenoid including an armature. Also, a piston connected to the armature. The piston includes a primary orifice. The piston having an open position and a closed position. A piston spring connected to the piston is also includes and at least one secondary orifice. The movement of the piston to the open position at least partially opens the at least one secondary orifice and the movement of the piston to the closed position at least partially closes the at least one secondary orifice. The movement of the armature actuates the piston movement and controls fluid flow from the primary orifice through the at least one secondary orifice.

Product dispensing system

Slide clamp

A flow sensor includes a fluid chamber configured to receive a fluid. A diaphragm assembly is configured to be displaced whenever the fluid within the fluid chamber is displaced. A transducer assembly is configured to monitor the displacement of the diaphragm assembly and generate a signal based, at least in part, upon the quantity of fluid displaced within the fluid chamber.

A repeater system may control a pump by using a repeater and a user interface. An adhesive patch system may be used for affixing a pump or other object to a human body. Such an adhesive patch system may include two sets of adhesive members, each member including an adhesive material on at least one side so as to attach to the body. The members of the first set are spaced to allow the members of the second set to attach to the body in spaces provided between the members of the first set, and the members of the second set are spaced to allow members of the first set to detach from the body without detaching the members of the second set. Also, fill stations and base stations are provided for personal pump systems.

Adhesive and peripheral systems and methods for medical devices

A peristaltic pump having at least first, second, and third stages is provided. The peristaltic pump includes a plunger, inlet and outlet valves, a spring, and an actuator. The plunger actuates toward and away from a tube, the inlet valve is upstream of the plunger, the outlet valve is downstream of the plunger, the spring biases the plunger toward the tube, and the actuator mechanically engages and disengages from the plunger. In the first stage, the inlet valve is opened and the plunger is actuated from the tube, in the second stage, the inlet valve is closed, the plunger is actuated toward the tube, and the actuator is mechanically disengaged from the plunger, and in the third stage, the outlet valve is opened. In the third stage or in a fourth stage, the actuator actuates the plunger toward the tube to discharge fluid downstream past the outlet valve.

Peristaltic pump

Growing community of inventors

Merrimack, NH, United States of America

Larry B Gray