Abstract: A crimping system for a prosthetic heart valve comprises an elongate rigid body and a radially flexible, tubular sock. The body has an inner lumen extending along a central longitudinal axis between an insertion end and an outlet end. The inner lumen has a greater diameter at the insertion end than at the outlet end. The sock is configured to receive a radially compressible prosthetic heart valve in a radially expanded state within the sock and to pull the valve through the inner lumen of the rigid body from the insertion end to the outlet end with the sock being positioned between an outer surface of the valve and an inner surface of the rigid body. The valve is radially compressed by the inner surface of the rigid body as the sock pulls the valve along the longitudinal axis toward the outlet end of the lumen.

Abstract: Embodiments of crimping devices for crimping stented prosthetic valves and other medical devices from a larger, expanded diameter to a smaller, crimped diameter are disclosed. Some crimping devices utilize a conical surface extending out-of-plane from the direction of crimping, where motion of the conical surface in the out-of-plane direction causes in-plane radially crimping. Other crimping devices comprise a funnel-shaped rigid body having a tapered inner lumen that compresses a medical device moving therethrough. Some funnel-shaped embodiments have slotted sides that allow portions of the medical device to project therethrough. Other funnel-shaped embodiments are used with a tubular sock to pull the medical device through the tapered lumen. Other crimping devices utilize rotating rollers that compress a medical device while the medical device spins between the rollers.

Abstract: A crimping system for a prosthetic heart valve comprises an elongate rigid body and a radially flexible, tubular sock. The body has an inner lumen extending along a central longitudinal axis between an insertion end and an outlet end. The inner lumen has a greater diameter at the insertion end than at the outlet end. The sock is configured to receive a radially compressible prosthetic heart valve in a radially expanded state within the sock and to pull the valve through the inner lumen of the rigid body from the insertion end to the outlet end with the sock being positioned between an outer surface of the valve and an inner surface of the rigid body. The valve is radially compressed by the inner surface of the rigid body as the sock pulls the valve along the longitudinal axis toward the outlet end of the lumen.

Abstract: A biomaterial handling device is described that will provide for functionality for performing both IVF procedures and washing techniques in a single device. Disclosed embodiments provide increased protection to biomaterial samples during processing and handling. Embodiments of the invention reduce labor intensive processes for both IVF and washing treatments and address reduced risks of contamination of biological samples by providing an increasingly sterile environment.

Abstract: Embodiments of crimping devices for crimping stented prosthetic valves and other medical devices from a larger, expanded diameter to a smaller, crimped diameter are disclosed. Some crimping devices utilize a conical surface extending out-of-plane from the direction of crimping, where motion of the conical surface in the out-of-plane direction causes in-plane radially crimping. Other crimping devices comprise a funnel-shaped rigid body having a tapered inner lumen that compresses a medical device moving therethrough. Some funnel-shaped embodiments have slotted sides that allow portions of the medical device to project therethrough. Other funnel-shaped embodiments are used with a tubular sock to pull the medical device through the tapered lumen. Other crimping devices utilize rotating rollers that compress a medical device while the medical device spins between the rollers.