Abstract: A system for flushing a lumen of a medical device to remove air, comprising: a first fluid delivery device adapted to provide a pulsatile flow of a flushing gas from a pressurised source of the flushing gas; a second fluid delivery device adapted to provide a pulsatile flow of a flushing liquid from a source of the flushing liquid; and, at least one fluid coupling for connecting the first fluid delivery device and the second fluid delivery device to the lumen of the medical device.

Abstract: The present disclosure relates to a flushing fixture (300) for flushing a lumen of a catheter, comprising a housing (302) having a catheter entry port (304) and a catheter exit port (306), the catheter entry port being arranged to receive at least a distal part of a catheter (320), wherein the housing defines a flushing chamber (308) that is at least partially fillable with a liquid to thereby submerge the distal part of the catheter (320), wherein the catheter exit port (306) comprises a deformable exit opening (312) that is shaped to conform to a distal tip (324) of the catheter in such a way that the distal tip of the catheter covers the opening in a fluid tight manner, when in use.

Abstract: The present invention relates to a system for flushing a medical device, comprising a multi-port valve for controlling the delivery of flushing fluids, the multi-port valve connected to a source of pressurised flushing gas; a fluid outlet for coupling flushing fluids to the medical device; and, a gas-driven pump connected to the fluid outlet, wherein, in a first configuration, the multi-port valve couples a flow of gas from the source of pressurised flushing gas to the fluid outlet, and wherein, in a second configuration, the multi-port valve couples a flow of gas from the source of pressurised flushing gas to the gas-driven pump to drive the gas-driven pump thereby to provide a flow of flushing liquid to the fluid outlet.

Abstract: Systems and methods are provided for removing air from a medical device, such as a stent-graft and/or its delivery device. In an exemplary embodiment, the stent-graft or its delivery system or both are exposed to perfluorocarbon, by immersing the stent-graft or flushing the delivery device to remove air from the stent-graft. Optionally, the stent-graft and/or delivery system may be flushed multiple times, e.g., with perfluorocarbon before or after flushing with carbon dioxide, saline, a bio-inert gas, and the like. Thereafter, the stent-graft may be introduced into a patient's body and deployed at a target location, such as the site of an abdominal aortic aneurysm.

Abstract: Systems and methods are provided for removing air from a medical device, such as a stent-graft and/or its delivery device. In an exemplary embodiment, the stent-graft or its delivery system or both are exposed to perfluorocarbon, by immersing the stent-graft or flushing the delivery device to remove air from the stent-graft. Optionally, the stent-graft and/or delivery system may be flushed multiple times, e.g., with perfluorocarbon before or after flushing with carbon dioxide, saline, a bio-inert gas, and the like. Thereafter, the stent-graft may be introduced into a patient's body and deployed at a target location, such as the site of an abdominal aortic aneurysm.

Abstract: A vascular catheter including an embolic protection system which is deployable within a blood vessel, comprising a filter arranged to block the flow of solid particles and a gas capture system for capturing gas bubbles entrained within a flow of blood along the blood vessel.

Abstract: Systems and methods are provided for removing air from a medical device, such as a stent-graft and/or its delivery device. In an exemplary embodiment, the stent-graft or its delivery system or both are exposed to perfluorocarbon, by immersing the stent-graft or flushing the delivery device to remove air from the stent-graft. Optionally, the stent-graft and/or delivery system may be flushed multiple times, e.g., with perfluorocarbon before or after flushing with carbon dioxide, saline, a bio-inert gas, and the like. Thereafter, the stent-graft may be introduced into a patient's body and deployed at a target location, such as the site of an abdominal aortic aneurysm.