Abstract: A percutaneous heart valve delivery system including a valve delivery catheter coupled with a first inflatable balloon positioned at a distal end of the valve delivery catheter, wherein the first inflatable balloon is configured to fracture a previously implanted prosthetic heart valve; and a replacement transcatheter heart valve positioned proximal to the first inflatable balloon, wherein the replacement transcatheter heart valve is configured to be implanted subsequently within the previously implanted, fractured prosthetic heart valve, following fracture of the previously implanted heart valve without withdrawal of the percutaneous heart valve delivery system. Also disclosed are methods of implantation of a new heart valve within a previously implanted prosthetic heart valve and methods of valvuloplasty of a native heart valve.

Abstract: A percutaneous heart valve delivery system including a valve delivery catheter coupled with a first inflatable balloon positioned at a distal end of the valve delivery catheter, wherein the first inflatable balloon is configured to fracture a previously implanted prosthetic heart valve; and a replacement transcatheter heart valve positioned proximal to the first inflatable balloon, wherein the replacement transcatheter heart valve is configured to be implanted subsequently within the previously implanted, fractured prosthetic heart valve, following fracture of the previously implanted heart valve without withdrawal of the percutaneous heart valve delivery system. Also disclosed are methods of implantation of a new heart valve within a previously implanted prosthetic heart valve and methods of valvuloplasty of a native heart valve.

Abstract: A component mount for a data storage device (DSD). The component mount includes a flexible member or printed circuit board assembly (PCBA) including a pad for electrically connecting to a printed circuit board (PCB) of the DSD. At least one capacitor is mounted on the flexible member or PCBA, and is electrically connected with the pad.

Abstract: A component mount for a data storage device (DSD). The component mount includes a flexible member or printed circuit board assembly (PCBA) including a pad for electrically connecting to a printed circuit board (PCB) of the DSD. At least one capacitor is mounted on the flexible member or PCBA, and is electrically connected with the pad.

Abstract: A component mount for a data storage device (DSD). The component mount includes a flexible member or printed circuit board assembly (PCBA) including a pad for electrically connecting to a printed circuit board (PCB) of the DSD. At least one capacitor is mounted on the flexible member or PCBA, and is electrically connected with the pad.

Abstract: A data storage device (DSD) with improved manufacturing method. The DSD includes a main printed circuit board (PCB) that includes a first PCB connector and a second PCB connector. The DSD also includes a first flash card mounted over the main PCB and including a flash memory and a flash card connector configured to connect to the first PCB connector, and a second flash card mounted over the main PCB and including a flash memory and a flash card connector configured to connect to the second PCB connector. The first flash card and the second flash card are mounted over the main PCB in a plane substantially parallel with the main PCB. The main PCB can be mounted to a base before connecting the first and second flash cards, or the first and second flash cards can be mounted to the main PCB before mounting to the base.

Abstract: A component mount for a data storage device (DSD). The component mount includes a flexible member or printed circuit board assembly (PCBA) including a pad for electrically connecting to a printed circuit board (PCB) of the DSD. At least one capacitor is mounted on the flexible member or PCBA, and is electrically connected with the pad.

Abstract: A storage device cradle includes a housing having a receiving surface sized and configured to receive at least a portion of a storage device, the receiving surface having a hole defined therethrough. An external interface of the cradle is configured to communicatively couple to a computer, and a storage device connector extends at least partially through the hole in the receiving surface. The storage device connector is communicatively coupled to the external interface, configured to couple to the storage device, and rotatable about a pivot axis defined by at least one shaft mounted within the housing.

Abstract: A storage device fixture includes first and second storage device bays for receiving first and second storage devices, the first and second storage device bays having first and second entrances, respectively. First and second ejector assemblies are at least partially linearly moveable within the first and second storage device bays, respectively, and first and second rotatable linkages also form part of the storage device fixture, the first rotatable linkage rotatable in a first rotational direction in engagement with the first ejector assembly, and the second rotatable linkage rotatable in a second rotational direction in engagement with the second ejector assembly. Finally, an actuator may move in engagement with at least one of the first and second rotatable linkages, causing the first and second rotatable linkages to rotate substantially simultaneously in the first and second rotational directions, respectively.

Abstract: A method for manufacturing a disk drive includes assembling the head disk assembly in a clean room, performing servo writing upon the head disk assembly in the clean room, and performing a head disk assembly test upon the head disk assembly in the clean room. The head disk assembly is then connected to the controller printed circuit board assembly to form a drive-under-test. The drive-under-test is then transported to an integrated test system and electrically connected thereto. The integrated tests system then performs substantially all of the required manufacturing tests upon the drive-under-test, thereby substantially reducing the labor and floor space associated therewith.

Abstract: A method for manufacturing a disk drive includes assembling the head disk assembly in a clean room, performing servo writing upon the head disk assembly in the clean room, and performing a head disk assembly test upon the head disk assembly in the clean room. The head disk assembly is then connected to the controller printed circuit board assembly to form a drive-under-test. The drive-under-test is then transported to an integrated test system and electrically connected thereto. The integrated tests system then performs substantially all of the required manufacturing tests upon the drive-under-test, thereby substantially reducing the labor and floor space associated therewith.

Abstract: An external disk drive assembly includes a molded plastic base; a sheet metal frame latched to the base; a power supply housing, a disk drive housing, and a disk drive controller card affixed to the frame; a forced air cooling fan mounted in a molded receptacle on the base; a cover removably secured to the base; and thin sheet metal plates inside the cover and base to provide electrical grounding and EMI and RFI shielding. The receptacle has oppositely-facing U-shaped walls matching the outer configuration of the fan housing. The sheet metal base has a retaining flange for extending over the fan housing. During assembly, the fan housing is simply dropped into the receptacle so the outer walls of the receptacle locate the fan housing relative to the base and frame. The frame is then latched to the base which locates the retaining flange over the top of the fan housing.