Boston Scientific Scimed, Inc.

Scimed Life Systems, Inc.

Other

Boston Scientific Corporation

Wendy Naimark

Maria Palasis

Toby Freyman

Samuel J Epstein

Timothy J Mickley

Tim J Mickley

Dennis R Boulais

Robert E Richard

Robert Herrmann

Robert J Crowley

William Joseph Shaw

Louis J Barbato

Janel L Lanphere

Erin McKenna

Praveen Kulkarni

Robbert A Herrmann

Inas Khayal

Hatal Patel

Louis G Ellis

Peter L Dayton

Mark W Boden

Mark Alan Hamm

Marlene C Schwarz

Marcia S Buiser

Michael Stephen Austin

Stephan P Mangin

Justin M Crank

Brandon J Shuman

Frederick H Strickler

Peter J Shank

John Benco

Lan Pham

Shaina Brito

Don Robinson

Alexandra Rousseau

Susan O'Brien

Henry Tung

Robert A Herrmann

Anastasia Panos

Samuel Epstein

Tim Mickley

The present invention is generally directed to medical devices, and more specifically to medical devices that are at least partially insertable or implantable into the body of a patient. The medical devices generally comprise (a) a therapeutic agent, more typically, a high-molecular-weight therapeutic agent, and (b) at least one polymeric layer, which typically acts to control the release of the therapeutic agent from the medical device. Also disclosed herein are methods of making such medical devices.

Medical devices for delivery of therapeutic agents

The present invention relates to implantable medical devices and methods that employ these medical devices to treat heart valves. In one embodiment, a medical device is provided comprising a body. The body may have a portion thereof including therapeutic agent and can be configured to support the device proximate a heart valve. Methods in accordance with embodiments of the present invention may also include providing a medical device having a body with at least a portion thereof including a therapeutic agent. These methods may also include positioning the medical device in a location proximate to a downstream surface of the heart valve and securing the device. The therapeutic agent released may then be delivered to the heart valve.

Local delivery of therapeutic agent to heart valves

The medical device of the invention comprises a surface comprising at least one outermost portion and a plurality of depressions. The depressions occupy at least about 80% of the surface area of the surface. The depressions contain a coating material that preferably comprises a biologically active material and/or polymer, and the outermost portion is substantially free of any coating material. The invention is also directed to a method for manufacturing a medical device. The method comprises applying a coating material to the surface of the medical device by using at least one roller.

Coated medical device and method for manufacturing the same

The present invention generally relates to a medical device for delivering a therapeutic agent to an internal portion of a patient's body. The medical device includes a shaft and a self-expanding delivery member in operative communication with the shaft. The delivery member is shaped from a porous material that is capable of releasing a therapeutic agent to an internal portion of a patient's body. The medical device further includes a therapeutic agent delivery lumen in fluid communication with the delivery member to fluidly connect the delivery member with a therapeutic agent source. A retention member may also be provided to selectively collapse the delivery member.

Medical device with drug delivery member

The present invention is generally directed to medical devices, and more specifically to medical devices that are at least partially insertable or implantable into the body of a patient. The medical devices generally include (a) a therapeutic agent, more typically, a high-molecular-weight therapeutic agent, and (b) at least one polymeric layer, which typically acts to control the release of the therapeutic agent from the medical device. Also disclosed herein are methods of making such medical devices.

The present invention provides a catheter and catheter assembly for delivering micronized therapeutic agents to a target site in the body and, in particular, to a target site in the heart. The micronized therapeutic agents are delivered in aerosol form or dry powder form. The present invention also provides a method of delivering micronized therapeutic agents to a target site in the body by placing the therapeutic agents in a catheter, positioning the catheter in the target site, and exposing the therapeutic agents to an energizing mechanism sufficient to create supersonic flow to carry the therapeutic agents from a stationary state in the catheter to a mobile state towards the target site.

Device and method for delivering micronized therapeutic agents in the body

Apparatus and method utilizing fluid to deliver a bolus of therapeutic material through a lumen to a delivery or discharge control portion of the apparatus, where the bolus may be discharged or delivered to a desired location.

Apparatus and methods for delivering a bolus of therapeutic material

A drug delivery particle including a reservoir region having primarily large pores and a metering region. The particle can be highly spherical.

Drug delivery particle

The present invention relates to microarray polymeric barriers designed to control the release rate of therapeutic agents. By varying the thickness of the coating or affecting, physically and/or chemically, the constituents of the barrier composition, the release profile of the underlying therapeutic agent can be modified and controlled.

Microarray drug delivery coatings

The present invention relates to a medical device and method for treating the body tissue of a patient. The present invention is also directed to a method of making the medical device and a method of using the medical device. More particularly, the invention relates to a medical device which is inserted into the body for delivery of therapeutic patches to the surface of a body lumen, organ or cavity. Specifically, the medical device has an umbrella-like or a basket-like expandable assembly; and a therapeutic patch. The expandable assembly is capable of changing from a retracted position to an expanded position. The expandable assembly can be self-expanding or non-self-expanding.

Medical device for delivering patches

A medical device with a therapeutic agent-releasing polymer coating. The medical device is provided by a method that comprises: (a) attaching at least one reactive species to a medical device surface, which reactive species leads to chain growth polymerization in the presence of monomer; (b) contacting the reactive species with at least one monomer species, thereby forming a polymer coating on the surface of the medical device; and (c) providing at least one therapeutic agent within the polymer coating. The therapeutic agent may be incorporated during formation of the polymer coating or after formation of the polymer coating. The at least one reactive species can comprise, for example, a free radical species, a carbanion species, a carbocation species, a Ziegler-Natta polymerization complex, a metallocene complex, and/or an atom transfer radical polymerization initiator. Alternatively, the medical device is provided by a process comprising: (a) immobilizing least one polymerization catalyst at a medical device surface, which polymerization catalyst leads to polymerization in the presence of monomer; (b) contacting the medical device surface with at least one monomer species, thereby forming a polymer coating at the surface of the medical device; and (c) providing at least one therapeutic agent within the polymer coating.

Processes for producing polymer coatings through surface polymerization

A device, system, and method for direct delivery of a therapeutic to a target site that utilizes the non-Newtonian characteristics of shear thinning and shear thickening to allow easy passage of a therapeutic through a delivery lumen yet facilitate retention of the therapeutic in the target site. The device, system, and method includes increasing the shear rate or shear stress of a non-Newtonian fluid having therapeutic properties thereby increasing or decreasing the viscosity of the non-Newtonian fluid.

Device and method for direct delivery of a therapeutic using non-newtonian fluids

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Cambridge, MA, United States of America

Wendy Naimark