Abstract: An electromagnetic compatibility (EMC) scattering apparatus comprising an attachment component, a scattering cape, and a brace. The attachment component is configured to permit the EMC scattering apparatus to attach to a second object such as a drawer, cable outlet, cable connector, etc. The scattering cape is attached to the attachment component and is configured to scatter energy emitted from the second object by fluttering in response to airflow from the second object. The brace is connected to the attachment component, the brace is configured to keep the scattering cape in an extended position. The brace can also be attached to the scattering cape.

Abstract: A flexible kink-resistant introducer sheath (10). The introducer sheath includes an inner liner (31), a coil (33) and an outer tube (33). The inner liner includes a passageway (30) extending longitudinally therethrough, where a catheter (50) can be advanced through the passageway. The coil (33) has a plurality of turns positioned longitudinally and compression fitted around the inner liner (31), where the turns have a predetermined spacing therebetween. The outer tube (20) is positioned longitudinally around the coil (33) and the inner liner (31), and is connected to the inner liner through the spaces between the turns. A diameter difference between the inner liner and the catheter is in a range of about 0.0005 to about 0.004 inch (0.013 to about 0.10 mm).

Abstract: A wire guide includes a mandrel that has a proximal portion and a distal portion. A first coating with a low coefficient of friction is disposed on the proximal portion of the mandrel. A second coating is disposed on the distal portion of the mandrel, where the second coating provides a sub-structure. A third coating is disposed on the second coating, where the third coating comprises a surface that allows for easy maneuverability of the wire guide. The first coating on the proximal portion provides enough lubricity to keep the wire guide from becoming bound or stuck in a catheter or medical device while still allowing a user to have a good grip of the wire guide. The second coating on the distal portion provides lubricity for the wire guide, which allows the user to easily maneuver the wire guide through a vascular anatomy.

Abstract: A wire guide includes a mandrel that has a proximal portion and a distal portion. A first coating with a low coefficient of friction is disposed on the proximal portion of the mandrel. A second coating is disposed on the distal portion of the mandrel, where the second coating provides a sub-structure. A third coating is disposed on the second coating, where the third coating comprises a surface that allows for easy maneuverability of the wire guide. The first coating on the proximal portion provides enough lubricity to keep the wire guide from becoming bound or stuck in a catheter or medical device while still allowing a user to have a good grip of the wire guide. The second coating on the distal portion provides lubricity for the wire guide, which allows the user to easily maneuver the wire guide through a vascular anatomy.

Abstract: A wire guide includes a mandrel that has a proximal portion and a distal portion. A first coating with a low coefficient of friction is disposed on the proximal portion of the mandrel. A second coating is disposed on the distal portion of the mandrel, where the second coating provides a sub-structure. A third coating is disposed on the second coating, where the third coating comprises a surface that allows for easy maneuverability of the wire guide. The first coating on the proximal portion provides enough lubricity to keep the wire guide from becoming bound or stuck in a catheter or medical device while still allowing a user to have a good grip of the wire guide. The second coating on the distal portion provides lubricity for the wire guide, which allows the user to easily maneuver the wire guide through a vascular anatomy.

Abstract: A wire guide includes a mandrel that has a proximal portion and a distal portion. A first coating with a low coefficient of friction is disposed on the proximal portion of the mandrel. A second coating is disposed on the distal portion of the mandrel, where the second coating provides a sub-structure. A third coating is disposed on the second coating, where the third coating comprises a surface that allows for easy maneuverability of the wire guide. The first coating on the proximal portion provides enough lubricity to keep the wire guide from becoming bound or stuck in a catheter or medical device while still allowing a user to have a good grip of the wire guide. The second coating on the distal portion provides lubricity for the wire guide, which allows the user to easily maneuver the wire guide through a vascular anatomy.

Abstract: The present invention provides a method and device for preventing cerebral embolization during endovascular procedures in the carotid arteries. The invention comprises a guide catheter and balloon, which may selectively occlude the common carotid artery, and further comprises a wire and balloon, which may selectively occlude the internal carotid artery. Occlusion of the common carotid artery will induce retrograde flow at the site, redirecting emboli to the external carotid artery. Occlusion of the internal carotid artery reduces the risk of emboli migrating to the brain, and allows clearance of the site by antegrade blood flow from the common carotid artery. Occlusion of both the common and internal carotid arteries induces a quiescent state at the site during the procedure. Control of blood flow by selective inflation and deflation of either or both balloons, in concert with the procedures, will reduce the risk of emboli migrating to the brain.

Abstract: A method of performing an operation including angioplasty of the internal carotid artery includes blocking blood flow in the internal carotid artery, performing the angioplasty while the blood flow is blocked in the internal carotid artery, and reversing flow in the internal carotid artery after the angioplasty has been performed to wash material loosened during the angioplasty out of the internal carotid artery. Normal flow in the internal carotid artery is restored after the loosened material is washed out of the internal carotid artery.

Abstract: A method of performing an operation including angioplasty of the internal carotid artery which includes blocking blood flow in the internal carotid artery, performing the angioplasty while the blood flow is blocked in the internal carotid artery, and reversing flow in the internal carotid artery after the angioplasty has been performed to wash material loosened during the angioplasty out of the internal carotid artery. Normal flow in the internal carotid artery is restored after the loosened material is washed out of the internal carotid artery.

Abstract: An apparatus for recovering pharmaceutical product from blister packs and a method for doing same is provided. Pharmaceutical product blister pack cards, which are unsuitable for sale, are straightened, if necessary, and stacked in a magazine. Individual blister cards are indexed from the magazine stack onto an operations chain conveyor at a loading station by a finger indexing subsystem. The chain conveyor carries the blister card to a cutting station where the back face of the card receives a peripheral cut at the location of each blister pocket and inside the wall of the pocket. The chain conveyor then carries the blister card to a punching station where each product on the card is forced through the back face of the card utilizing moving the respective cut section of the card back, thereby discharging the product into a collection bin. The emptied blister card is moved to a discharge region where it is separated from the chain conveyor.

Abstract: An apparatus for recovering pharmaceutical product from blister packs and a method for doing same is provided. Pharmaceutical product blister pack cards, which are unsuitable for sale, are straightened, if necessary, and stacked in a magazine. Individual blister cards are indexed from the magazine stack onto an operations chain conveyor at a loading station by a finger indexing subsystem. The chain conveyor carries the blister card to a cutting station where the back face of the card receives a peripheral cut at the location of each blister pocket and inside the wall of the pocket. The chain conveyor then carries the blister card to a punching station where each product on the card is forced through the back face of the card utilizing moving the respective cut section of the card back, thereby discharging the product into a collection bin. The emptied blister card is moved to a discharge region where it is separated from the chain conveyor.