Innovational Holdings LLC

Neomend, Inc.

2c Optics, Inc.

Cordis Corporation

Conor Medsystems, Inc.

Advanced Closure Systems, Inc.

Neovasys, Inc.

Cardiosynopsis, Inc.

Cardinal Health Switzerland 515 Gmbh

Soane Technologies, Inc.

Koala Konnection

Shanghai Microport Medical (group) Co., Ltd.

Theodore L Parker

Stuart D Edwards

John Francis Shanley, Iv

Theodore R Kucklick

Thomas C Wehman

Eugene V Skalnyi

Thai Minh Nguyen

Ronald G Lax

Stephen Hunter Diaz

David S Soane

Robert Falotico

Jonathon Zhong Zhao

Chengxue Li

Alan A Stein

Serjan D Nikolic

Vipul Bhupendra Dave

Gary Steese-Bradley

Anthony Lam

John Evans

Danforth Joslyn

Travis David Boone

Nam Thanh Le

Kinam Park

Frank Litvack

Andrew S Luk

John M Evans

Andrew Luk

Thai M Nguyen

Thai Nguyen

Peter Park

Micheline Lisa Markey

Kelly Edwards

Diane Mai Huong Dang

Lei Zhao

Andrew Sheung-King Luk

Thia Minh Nguyen

Gary W Steese-Bradley

A method and system for delivering drug includes a first set of holes filled with a first formulation of the drug and a second set of holes filled with a second formulation of the same drug. This dual formulation or dual release kinetic system allows the creation of specifically tailored release kinetics by summation of multiple release kinetics.

Implantable medical device with openings for delivery of beneficial agents with combination release kinetics

Implantable medical devices may be utilized to locally delivery one or more drugs or therapeutic agents to treat a wide variety of conditions, including the treatment of the biological organism's reaction to the introduction of the implantable medical device. These therapeutic agents may be released under controlled and directional conditions from a stent so that the one or more therapeutic agents reach the correct target area, for example, the surrounding tissue.

Rapamycin reservoir eluting stent

A system for delivery of a beneficial agent in the form of a viscous liquid or paste allows holes in a medical device to be loaded in a single step process. The loading of a beneficial agent in a paste form also provides the ability to deliver large and potentially sensitive molecules including proteins, enzymes, antibodies, antisense, ribozymes, gene/vector constructs, and cells including endothelial cells.

System and method for loading a beneficial agent into a medical device

An expandable medical device includes a plurality of elongated struts, forming a substantially cylindrical device which is expandable from a first diameter to a second diameter. A plurality of different beneficial agents may be loaded into different openings within the struts for delivery to the tissue. For treatment of conditions such as restenosis, different agents are loaded into different openings in the device to address different biological processes involved in restenosis and are delivered at different release kinetics matched to the biological process treated. The different agents may also be used to address different diseases from the same drug delivery device. In addition, anti-thrombotic agents may be affixed to at least a portion of the surfaces of the medical device for the prevention of sub-acute thrombosis. To ensure that the different agents remain affixed to the device as well as to each other, masking and de-masking processes may be utilized.

Adhesion promoting temporary mask for coated surfaces

The invention provides a method for single-step terminal sterilization process for bio-active heparin coatings on materials and biomaterials containing heparin used in medical devices, such as catheters, tissue engineering scaffolds, or drug delivery carrier materials. This may include any medical device or implantable that could benefit from improved antithrombotic and biocompatible heparin surfaces. Other relevant device examples may include heparin or a heparin derivative coated stents to reduce clotting and restenosis, dental or ophthalmological implants. These materials may comprise additional polymeric compositions such as polyethyleneimine, dextran sulfate or their modified forms. These polymers together with heparin coatings may be applied to other substrate of medical devices such as metal, ceramics or biologically derived materials.

E beam sterilization of medical devices comprising bioactive coating

An implantable drug delivery device loaded with a beneficial agent is provided, wherein the beneficial agent is in two different forms, a first form having a higher solubility and a second form having a lower solubility, and wherein the two different forms are present in a proportion which is selected to achieve a desired release rate.

Composition, system, and method for modulating release kinetics in implantable drug delivery devices by modifying drug solubility

The implantable medical devices are configured to release at least one therapeutic agent from a matrix affixed to the implantable body with a release profile which is programmable to the agent and treatment. The matrix is formed such that the concentration of the therapeutic agent in the matrix varies as a gradient relative to a surface of the implantable body. The change in the concentration gradient of the agent in the matrix directly controls the rate of elution of the agent from the matrix. The therapeutic agent matrix can be disposed in the stent or on surfaces of the stent in various configurations, including within volumes defined by the stent, such as openings, holes, or concave surfaces, as a reservoir of agent, and alternatively as a coating on all or a portion of the surfaces of the stent structure.

Implantable medical device with beneficial agent concentration gradient

Systems and methods introduce a closure material to seal a vessel puncture site. The system and methods provide a catheter adapted for passage through a tissue puncture and sized to occupy substantially all the tissue puncture. The catheter includes a lumen in fluid communication with a fluid delivery port adjacent the catheter distal end. One or more dispensers are in fluid communication with the catheter lumen for dispensing first and second fluid compositions in the catheter lumen. An actuator causes the first and second fluid compositions to be dispensed from the dispensers and mixed by flowing the first and second fluid compositions through a static mixer. The first and second fluid compositions are dispensed from the fluid delivery port as a fluid mixture that reacts in situ to form a nonfluent closure composition adjacent the vessel puncture site.

Systems and methods for sealing a vascular puncture

The beneficial agent is applied into the holes in a medical device in a dry particulate form and is adhered in the hole in a manner that allows release of the drug in a controlled manner. The drug material would be formed into particles and placed in the holes. The solvent would be added to partially liquefy and adhere the drug into the holes. After application of the solvent, the particles are adhered together in a substantially uniform drug containing matrix. The particles may include drug alone or drug in combination with other materials including a matrix.

An expandable medical device includes a plurality of elongated struts, forming a substantially cylindrical device which is expandable from a first diameter to a second diameter. A plurality of different beneficial agents may be loaded into different openings within the struts for delivery to the tissue. For treatment of conditions such as restenosis, different agents are loaded into different openings in the device to address different biological processes involved in restenosis and are delivered at different release kinetics matched to the biological process treated. The different agents may also be used to address different diseases from the same drug delivery device. In addition, anti-thrombotic agents may be affixed to at least a portion of the surfaces of the medical device for the prevention of sub-acute thrombosis. To ensure that the different agents remain affixed to the device as well as to each other, primer layers may be utilized.

Adhesion promoting primer for coated surfaces

An expandable medical device includes a plurality of elongated struts, forming a substantially cylindrical device which is expandable from a cylinder having a first diameter to a cylinder having a second diameter. A plurality of different beneficial agents can be loaded into different openings within the struts for delivery to the tissue. For treatment of conditions such as restenosis, different beneficial agents are loaded into different openings in the device to address different biological processes involved in restenosis and are delivered at different release kinetics matched to the biological process treated. The different beneficial agents may also be used to address different diseases, such as restenosis and acute myocardial infarction from the same drug delivery device.

Expandable medical device with openings for delivery of multiple beneficial agents

The present invention relates to implantable medical devices for the localized delivery of therapeutic agents, such as drugs, to a patient. More particularly, the invention relates to a device having a gradient of water soluble therapeutic agents within a therapeutic agent layer and a mixing layer that allows for controlled release of the therapeutic agents.

Therapeutic agent delivery device with controlled therapeutic agent release rates

The present invention relates to implantable medical devices for delivery of therapeutic agents, such as drugs, to a patient. More particularly, the invention relates to a device having therapeutic agents protected by a protective layer that prevents or retards processes that deactivate or degrade the active agents.

Implantable medical device with drug filled holes

A drug delivery device is provided with openings for directional delivery of a plurality of therapeutic agents to blood vessels or other lumens or organs. In particular, the invention relates to the delivery of different therapeutic agents, different quantities of therapeutic agents, or different release profiles of the same or different therapeutic agents in different directions from the drug delivery device. The invention is useful, for example, for delivering antirestenotic, antithrombotic, antiplatelet, antiproliferative, antineoplastic, immunosuppressive, angiogenic, anti-inflammatory, or antiangiogenic agents and/or vasodilators to a blood vessel. In one embodiment, antiproliferative, antineoplastic, angiogenic, antiangiogenic, anti-inflammatory, and/or antirestenotic agents are delivered to the wall of a blood vessel and antithrombotic agents, antiplatelet agents, and/or vasodilators are delivered to the lumen of a blood vessel.

Drug delivery device and method for bi-directional drug delivery

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Danville, CA, United States of America

Theodore L Parker