Medtronic, Inc.

Mozarc Medical US LLC

Gyroscope Therapeutics Limited

Orbit Biomedical Limited

Janssen Biotech, Inc.

F. Hoffmann-La Roche Ag

Thomas Edward Meyer

Bryant J Pudil

David B Lura

Martin T Gerber

Benjamin L Ko

Brian Mullins

Michael F Keane

Isaac John Khan

Brendan J Oberkircher

Daniel W Price

Christopher M Hobot

Robert H Roth

Daniel J Abbott

Mark C Tsai

William Hajko

Suping Lyu

Paul D Gordon

Thomas D Kelly

Michael F Clem

Joseph Henry Contiliano

Jin Huang

Daniel James Prenger

Geoffrey King

Allen C Ho

Mark Fredrick Daniels

Jacob W Schubert

Mark S Ortiz

Scott Albert Uhland

Zhigang Li

Clinton W Denlinger

James G Lee

Thomas P Hartranft

Daniel Bloomberg

Yue Qiang Xue

Kenneth J Collier

Franklin S Busch

Anna R Raymond

Huande Liu

Mark Daniels

Denis P Turner

Rajesh V Iyer

Steven T Deininger

Orhan Soykan

Jeffrey J Clayton

VenKatesh R Manda

Tony C Siebel

Carl A Schu

James Strom

Lea A Nygren

Linda L Ruetz

Carl Wilbert Gomes, Ii

Michael G Marinkov

Soykan Orhan

Wayne R Kuechenmeister

Daniel C Hutchens

Calvin P Verlette

Samuel J Schmidt

Ishtiaque Masud

Eric A Grovender

Danielj Prenger

William P Hajko

Mark F Daniels

Daniel Jordan Bloomberg

William P Haijko

An arterial air capture chamber () is used in dialysis. The arterial air capture chamber () includes an upwardly extending fluid inlet () terminating in a fluid inlet port () positioned at about a 90° turn relative to a fluid flow of a fluid inlet tube (). The arterial air capture chamber () includes a draw tube () with an opposedly positioned beveled opening () at about 180° relative to the fluid inlet port (). The arterial air capture chamber () provides improved fluid dynamics, reducing both stagnant flow and turbulence. The arterial air capture chamber () also provides for bidirectional flow of fluid through the arterial air capture chamber ().

Arterial air capture chamber

The invention relates to devices, systems, and methods for generating a peritoneal dialysate having specified concentrations of one or more solutes. The devices, systems and methods use conductivity sensors, flow meters, and composition sensors to control addition of osmotic agents and ion concentrates into a peritoneal dialysate generation flow path.

Peritoneal dialysate preparation and sensor system

Systems and methods for managing the pH of a dialysate fluid during hemodialysis therapy. The systems and methods adjust dialysate pH and buffer concentration to generate a predetermined total bicarbonate buffer concentration in a dialysate entering a dialyzer.

pH and buffer management system for hemodialysis systems

Systems and methods for managing the pH of a dialysate fluid during hemodialysis therapy. The systems and methods adjust dialysate pH and buffer concentration to generate a predetermined total bicarbonate buffer concentration in a dialysate entering a dialyzer. The systems and methods generate a pH-modifying fluid and selectively add the pH modifying fluid to the dialysate in order to accurately control the total bicarbonate buffer concentration in the dialysate entering the dialyzer.

PH and buffer management system for hemodialysis systems

The invention relates to devices, systems, and methods for calculating a bicarbonate concentration in a fluid used in dialysis. The devices, systems, and methods can be used to calculate the bicarbonate concentration in either dialysate or blood. The invention measures the amount of carbon dioxide in both an acidified and non-acidified solution and calculates the bicarbonate concentration based on the difference in carbon dioxide concentrations.

Bicarbonate sensor for dialysis

The invention relates to systems and methods for generation and use of peritoneal dialysis fluid. The peritoneal dialysis fluid is generated by dissolving solids or diluting concentrated liquids in a single container having all components of the final peritoneal dialysis fluid.

Single container preparation of peritoneal dialysis fluid

A system for measuring at least one fluid characteristic at various stages within a sorbent system that has a sorbent cartridge that has at least one material layer and at least one fluid passageway in at least one location in the sorbent system to provide a diverted sample stream from the various stages. At least one fluid characteristic of the diverted sample stream is measured.

Fluid circuits for sorbent cartridges with sensors

Devices, systems, and methods for high capacity degassing of dissolved gases and gas bubbles from fluid such as a dialysate are provided. The devices, systems, and methods can include a degassing vessel with at least two degassing chambers. The fluid can be degassed in a first degassing chamber and recirculated through a second recirculating degassing chamber to remove a desired amount of gas such as carbon dioxide.

Dual stage degasser

An apparatus includes a body and a pair of rigid legs extending from the body. The body includes an engagement feature configured to engage a deployment instrument. The legs are parallel with each other. Each leg has a sharp tip. The legs both extend along a plane. The body defines a guide opening. The guide opening is oriented transversely relative to the plane associated with the legs. The guide opening is sized to receive a cannula having a generally flat profile. The guide opening is configured to guide the cannula through a sclerotomy at a substantially tangential orientation.

Guide apparatus for tangential entry into suprachoroidal space

A blood based solute monitoring system for measuring at least one blood solute species that has a first recirculation flow path in communication with a dialyzer. The first recirculation flow path is configured to allow a fluid to recirculate through a dialyzer such that the concentration of at least one solute species in the fluid becomes equilibrated to the solute species concentration of the blood compartment of the dialyzer. The blood solute monitoring system has at least one sensor to measure a fluid characteristic.

Recirculating dialysate fluid circuit for measurement of blood solute species

A portable dialysis cabinet for use in dialysis. The portable dialysis cabinet can have a size and weight that facilitates easy movement of the cabinet from one location to another with relative ease. The portable dialysis cabinet can have additional features necessary to facilitate portability, such as wheels and a handle. In general, the portable dialysis cabinet can contain all the necessary components for performing a dialysis session.

Fluid circuit for delivery of renal replacement therapies

An apparatus includes a first member and a second member. The first member is configured to receive a portion of a syringe barrel and includes a first stop surface. The second member includes a second stop surface. Each stop surface is configured to engage the portion of a plunger to thereby arrest longitudinal movement of the plunger relative to the syringe barrel. The second member is operable to move relative to the first member from a first position to a second position. The second member remains coupled with the first member while in both the first position and the second position. The second stop surface engages the portion of the plunger when the second member is in the first position. The second stop surface does not prevent the portion of the plunger from reaching the first stop surface when the second member is in the second position.

Dose clip assembly for syringe

A method includes inserting a flexible cannula between a sclera and a choroid of an eye. The needle is advanced from a distal end of the flexible cannula, such that the needle pierces the choroid to access a subretinal space of the eye. The needle is used to deliver a first volume of leading bleb fluid to the subretinal space. The delivery of leading bleb fluid is ceased for a duration of time. After expiration of the duration of time, the needle is used to deliver a second volume of the leading bleb fluid to the subretinal space. The combination of the delivered first and second volumes of the leading bleb fluid causes a substantial portion of the retina to detach from the choroid. A therapeutic agent may then be delivered to the subretinal space in the region where the retina is detached from the choroid.

Method of delivering leading blebs and agent to subretinal space

An apparatus includes a body, a needle, a catheter, and an actuator assembly. The needle extends distally from the body. The needle has an inner wall defining a needle lumen. The needle lumen is in fluid communication with a fluid port of the body. The catheter is slidably disposed in the needle lumen. The catheter has a catheter lumen. The first actuator assembly is configured to translate the catheter within and relative to the needle. The apparatus may also include an actuator assembly that is configured to rotate the needle relative to the body. The apparatus may be used to first deliver a leading bleb of fluid to the subretinal space in a patient's eye via the needle. The apparatus may then be used to deliver a therapeutic agent to the subretinal space in the patient's eye via the catheter.

Sub-retinal tangential needle catheter guide and introducer

A venous air capture chamber for use in dialysis, includes an upwardly extending fluid inlet terminating in first and second fluid inlet ports (). The first and second fluid inlet ports () are opposedly positioned on the fluid inlet at an angle of about 180&#xb0;. The venous air capture chamber also includes a fluid outlet () at the bottom of the chamber body. The venous air capture chamber provides improved fluid dynamics, reducing both stagnant flow and turbulence. The venous air capture chamber also provides for bidirectional flow of fluid through the chamber.

Venous air capture chamber

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Stillwater, MN, United States of America

Thomas Edward Meyer