Abstract: Inflatable medical devices and methods for making and using the same are disclosed. The inflatable medical devices can be medical balloons. The balloons can be configured to have a through-lumen or no through-lumen and a wide variety of geometries. The device can have a high-strength, non-compliant, fiber-reinforced, multi-layered wall. The inflatable medical device can be used for angioplasty, kyphoplasty, percutaneous aortic valve replacement, or other procedures described herein.

Abstract: A device is disclosed for therapeutic and/or diagnostic use in or on a patient's body. The device can have a sheath and a tool. The sheath can be made, at least in part, from a laminate. The laminate can have reinforcement fibers in longitudinal, latitudinal, helical, and/or other configurations around the sheath. The tool can be at least partially within the sheath. The tool can be attached to the sheath at one or more lengths along the tool. The sheath can be removed from the tool and replaced.

Abstract: Inflatable medical devices and methods for making and using the same are disclosed. The inflatable medical devices can be medical balloons. The balloons can be configured to have a through-lumen or no through-lumen and a wide variety of geometries. The device can have a high-strength, non-compliant, fiber-reinforced, multi-layered wall. The inflatable medical device can be used for angioplasty, kyphoplasty, percutaneous aortic valve replacement, or other procedures described herein.

Abstract: A device is disclosed for therapeutic and/or diagnostic use in or on a patient's body. The device can have a sheath and a tool. The sheath can be made, at least in part, from a laminate. The laminate can have reinforcement fibers in longitudinal, latitudinal, helical, and/or other configurations around the sheath. The tool can be at least partially within the sheath. The tool can be attached to the sheath at one or more lengths along the tool. The sheath can be removed from the tool and replaced.

Abstract: Inflatable medical devices and methods for making and using the same are disclosed. The inflatable medical devices can be medical balloons. The balloons can be configured to have a through-lumen or no through-lumen and a wide variety of geometries. The device can have a high-strength, non-compliant, fiber-reinforced, multi-layered wall. The inflatable medical device can be used for angioplasty, kyphoplasty, percutaneous aortic valve replacement, or other procedures described herein.

Abstract: Biological navigation devices and methods are disclosed. The devices can be used as or to support colonoscopies or endoscopes. The devices can have one or more releasable, and/or everting, and/or pressurized tubes. The devices can be removably attached to elongated elements, such as colonoscopes or other endoscopes.

Abstract: A device is disclosed for therapeutic and/or diagnostic use in or on a patient's body. The device can have a sheath and a tool. The sheath can be made, at least in part, from a laminate. The laminate can have reinforcement fibers in longitudinal, latitudinal, helical, and/or other configurations around the sheath. The tool can be at least partially within the sheath. The tool can be attached to the sheath at one or more lengths along the tool. The sheath can be removed from the tool and replaced.

Abstract: A device is disclosed for therapeutic and/or diagnostic use in or on a patient's body. The device can have a sheath and a tool. The sheath can be made, at least in part, from a laminate. The laminate can have reinforcement fibers in longitudinal, latitudinal, helical, and/or other configurations around the sheath. The tool can be at least partially within the sheath. The tool can be attached to the sheath at one or more lengths along the tool. The sheath can be removed from the tool and replaced.

Abstract: Inflatable medical devices and methods for making and using the same are disclosed. The inflatable medical devices can be medical balloons. The balloons can be configured to have a through-lumen or no through-lumen and a wide variety of geometries. The device can have a high-strength, non-compliant, fiber-reinforced, multi-layered wall. The inflatable medical device can be used for angioplasty, kyphoplasty, percutaneous aortic valve replacement, or other procedures described herein.

Abstract: Inflatable medical devices and methods for making and using the same are disclosed. The inflatable medical devices can be medical balloons. The balloons can be configured to have a through-lumen or no through-lumen and a wide variety of geometries. The device can have a high-strength, non-compliant, fiber-reinforced, multi-layered wall. The inflatable medical device can be used for angioplasty, kyphoplasty, percutaneous aortic valve replacement, or other procedures described herein.

Abstract: Inflatable medical devices and methods for making and using the same are disclosed. The inflatable medical devices can be medical balloons. The balloons can be configured to have a through-lumen or no through-lumen and a wide variety of geometries. The device can have a high-strength, non-compliant, fiber-reinforced, multi-layered wall. The inflatable medical device can be used for angioplasty, kyphoplasty, percutaneous aortic valve replacement, or other procedures described herein.

Abstract: Biological navigation devices and methods are disclosed. The devices can be used as or to support colonoscopies or endoscopes. The devices can have one or more releasable, and/or everting, and/or pressurized tubes. The devices can be removably attached to elongated elements, such as colonoscopes or other endoscopes.

Abstract: Inflatable medical devices and methods for making and using the same are disclosed. The inflatable medical devices can be medical balloons. The balloons can be configured to have a through-lumen or no through-lumen and a wide variety of geometries. The device can have a high-strength, non-compliant, fiber-reinforced, multi-layered wall. The inflatable medical device can be used for angioplasty, kyphoplasty, percutaneous aortic valve replacement, or other procedures described herein.

Abstract: An improved reinforced laminate for use in sails or other flexible sheet or membrane applications utilizes a pull-truded thin lightweight reinforcing sheet of unidirectional extruded monofilaments in which the reinforcing sheet or sheets form one or more uni-tapes laminated to a polymer film such as Mylar, or other extended sheet of material. The monofilaments are uniformly embedded in the uni-tape via an elastomeric polymer matrix, with the reinforcing sheet, when incorporated into sails via lamination resulting in sails with reinforcing monofilaments having diameters 5 times less than conventional strands or threads. The use of small diameter monofilaments greatly increases the monofilament-over-monofilament crossover density, resulting in a dramatic increase in shear strength, and Youngs' Modulus, with an accompanying dramatic decrease in weight. In one embodiment the improvement in specific modulus over conventional sail laminates is about six-fold.

Abstract: An improved reinforced laminate for use in sails or other flexible sheet or membrane applications utilizes a pull-truded thin lightweight reinforcing sheet of unidirectional extruded monofilaments in which the reinforcing sheet or sheets form one or more uni-tapes laminated to a polymer film such as Mylar, or other extended sheet of material. The monofilaments are uniformly embedded in the uni-tape via an elastomeric polymer matrix, with the reinforcing sheet, when incorporated into sails via lamination resulting in sails with reinforcing monofilaments having diameters 5 times less than conventional strands or threads. The use of small diameter monofilaments greatly increases the monofilament-over-monofilament crossover density, resulting in a dramatic increase in shear strength, and Youngs' Modulus, with an accompanying dramatic decrease in weight. In one embodiment the improvement in specific modulus over conventional sail laminates is about six-fold.