Abstract: A swivel-type portable flash device includes a C-shaped swivel cover that rotates (swivels) relative to a housing between an open position in which a plug connector is exposed for insertion in a host system, and a closed position in which the plug connector is covered and protected by the swivel cover. The swivel cover is permanently rotatably connected to the housing by way of ring-shaped protrusions that are movably engaged inside corresponding recessed ring-shaped grooves formed in upper/lower walls of the housing, whereby the swivel cover is manually rotatable relative to the housing between the opened and closed positions. The swivel cover also includes locking structures (e.g., locking notches) disposed on the ring-shaped protrusions, and the housing includes second locking structures disposed in the recessed ring-shaped grooves, where the first locking structures operably engage the second locking structures to prevent rotation of the swivel cover when the plug connector is in the closed position.

Abstract: An extended universal serial bus (USB) storage device is described herein. According to one embodiment, an extended USB storage device includes a printed circuit board assembly (PCBA) having a flash memory device and a flash controller mounted thereon, and an extended USB connector plug coupled to the PCBA for providing a USB compatible interface between an external device and the flash memory device and the flash controller, wherein the extended USB connector plug includes a first end used to couple to the external device and a second end coupled to the flash memory device and the flash controller. The extended USB connector plug includes multiple communication interfaces. Other methods and apparatuses are also described.

Abstract: Various embodiments of a USB drive pen device are disclosed herein. In one embodiment, a USB drive pen device includes a USB plug assembly having a flash controller and a flash memory device, a pusher assembly including a rotator having one or more tabs disposed thereon, and a housing for housing at least a portion of the USB plug assembly and the pusher assembly. The housing includes a tunnel and an inner tube extended from the tunnel disposed within the housing. An intersection between the tunnel and inner tube includes one or more angled corners to lock the USB plug assembly in either a deployed position or a retracted position. Other methods and apparatuses are also described.

Abstract: A flash memory device includes one or two panels that are attached solely by a thermal bond adhesive to either a frame or integrated circuits (e.g., flash memory devices) disposed on a PCBA. The frame is disposed around the PCBA and supports peripheral edges of the panels. The thermal bond adhesive is either heat-activated or heat-cured, and is applied to either the memory devices, the frame or the panels, and then compressed between the panels and flash memory devices/frame using a fixture. The fixture is then passed through an oven to activate/cure the adhesive. An optional insulating layer is disposed between the panels and the ICs. An optional conforming coating layer is formed over the ICs for preventing oxidation of integrated circuit leads or soldering area, covering or protecting extreme temperature exposure either cold or hot, and waterproofing for certain military or industrial applications.

Abstract: A press-push type computer peripheral “flash drive” device includes an elongated (e.g., metal) tubular casing containing a PCBA having a plug connector. A plastic housing assembly includes front and rear cap portions mounted over the open ends of the tubular casing, and a fixed plastic sleeve portion disposed in the tubular casing. The PCBA is secured to a plastic sliding rack structure that is disposed in the tubular casing and includes an actuating button protruding through a slot formed in a wall of the tubular casing. When the actuating button is manually pushed and slid along the slot, a portion of the sliding rack structure slides against the plastic sleeve portion in deploying and retracting the USB connector out of the device.

Abstract: A USB device including a tubular housing and a rear cap assembly including a handle structure that is rotatably connected to the tubular housing to facilitate deploying and retracting a plug connector through a front opening of the housing. The plug connector is fixedly connected onto the front end of a sliding rack assembly that is disposed in housing such that the sliding rack assembly is slidable along a longitudinal axis. The sliding rack assembly includes a carrier including a carrier tray for supporting electronic devices and an elongated positioning rod extending from a rear portion of the carrier tray. The positioning rod is operably engaged with an actuator portion such that manual rotation of the rear cap handle structure relative to the housing around the longitudinal axis causes the sliding rack assembly to slide inside the housing between retracted and deployed positions.

Abstract: A Universal Serial Bus (USB) memory card includes a tube metal housing that is rectangularly-shaped and a Chip-On-Board (COB)-Universal Serial Bus (USB) device and a carrier substrate having a U-block disposed on one side of thereof and vertically extending upwardly from a bottom surface of the U-block, the COB-USB device positioned on the carrier substrate forming a USB card sub-assembly, the USB card sub-assembly being securely located inside the metal housing with the U-block serving to stop the COB-USB device from slipping out of the metal housing.

Abstract: A pen-type computer peripheral device includes an elongated housing containing a PCBA having a plug connector. The PCBA is secured to a positioning member that is actuated by way of a press-push button that is exposed through a slot defined in a wall of the housing. A spring-loaded mechanism includes a spring and a locking mechanism that locks the connector in a retracted position and a deployed position, and the spring biases the connector from the retracted position to the deployed position, or vice versa.

Abstract: In an embodiment of the present invention, a memory card includes a bottom plastic piece having a plurality of lateral sides, one of which includes a notch, and a cavity interposed along the lateral sides. A printed circuit board (PCB) assembly, including memory, is positioned in the cavity. A fin-structure is created as part of the manufacturing process of the bottom plastic piece of the card. The memory card is configured to function in a read-write mode when the fin-structure is present, and in a write-protect mode when the fins are snapped off, and the notch is exposed. Alternatively, a plug device can be insertably positioned into the notch, causing the memory card to function in a read-write mode when the plug device is positioned into the notch, and in a write-protect mode when the plug device is removed and the notch is exposed.

Abstract: A Solid State Drive (SSD) device includes a printed circuit board assembly (PCBA) defining rivet holes, and a support structure including parallel side frame rails defining rivet openings and support platforms for receiving and supporting the PCBA. Compression-mated rivet sets are used to connect the PCBA to the support structure, each rivet set including a female rivet portion and an associated male rivet portion. The PCBA is mounted onto the support structure such that the rivet holes are aligned with the rivet openings of the plurality of rivet openings, and then the rivet sets are mounted and secured using an automatic rivet tool such that each rivet set extends through an associated rivet hole/opening and fixedly engaged such that the PCBA and the support structure are held between end caps of the respective male and female rivet portions.

Abstract: An extended USB plug connector includes a connector substrate including a frontend having a first set of electrical contact pins disposed thereon and a backend having a second set of electrical contact pins disposed thereon. The first set includes a first row of electrical contact pins disposed on a top surface of the connector substrate and a second row of electrical contact pins disposed in parallel with the first row of electrical contact pins and interior to the first row of electrical contact pins, where the second row includes more electrical contact pins than the first row. The second set of electrical contact pins includes a number of electrical contact pins equal to the first row and second row of electrical contact pins in total. The second set of electrical contact pins are used to connect to corresponding electrical contact pads disposed on a printed circuit board assembly having a USB controller and flash memory devices disposed thereon.

Abstract: A flash-memory device has a printed-circuit board assembly (PCBA) with a PCB with a flash-memory chip and a controller chip. The controller chip includes an input/output interface circuit to an external computer over a Secure-Digital (SD) interface, and a processing unit to read blocks of data from the flash-memory chip. The PCBA is encased inside an upper case and a lower case, with SD contact pads on the PCB that fit through contact openings in the upper case. Supporting end ribs under each of the SD contact pads and middle ribs support the PCB at a slanted angle to the centerline of the device. The PCB slants upward at the far end to allow more thickness for the chips mounted to the bottom surface of the PCB, and slants downward at the insertion end to position the SD contact pads near the centerline.

Abstract: A USB device including a housing and a rear cap that is rotatably connected to the housing to facilitate deploying and retracting a plug connector through a front opening of the housing. The plug connector is fixedly connected onto the front end of a sliding rack assembly that is disposed in housing such that the sliding rack assembly is slidable along a longitudinal axis. The sliding rack assembly includes a carrier including a carrier tray for supporting electronic devices and an elongated positioning rod extending from a rear portion of the carrier tray. The positioning rod is operably engaged with an actuator portion such that manual rotation of the rear cap relative to the housing around the longitudinal axis causes the sliding rack assembly to slide inside the housing between retracted and deployed positions.

Abstract: A press-push type computer peripheral “flash drive” device includes an elongated (e.g., metal) tubular casing containing a PCBA having a plug connector. A plastic housing assembly includes front and rear cap portions mounted over the open ends of the tubular casing, and a fixed plastic sleeve portion disposed in the tubular casing. The PCBA is secured to a plastic sliding rack structure that is disposed in the tubular casing and includes an actuating button protruding through a slot formed in a wall of the tubular casing. When the actuating button is manually pushed and slid along the slot, a portion of the sliding rack structure slides against the plastic sleeve portion in deploying and retracting the USB connector out of the device.

Abstract: A Low-power flash-memory device uses a modified Universal-Serial-Bus (USB) 3.0 Protocol to reduce power consumption. The bit clock is slowed to reduce power and the need for pre-emphasis when USB cable lengths are short in applications. Data efficiency is improved by eliminating the 8/10-bit encoder and instead encoding sync and framing bytes as 9-bit symbols. Data bytes are expanded by bit stuffing only when a series of six ones occurs in the data. Header and payload data is transmitted as nearly 8-bits per data byte while framing is 9-bits per symbol, much less than the standard 10 bits per byte. Low-power link layers, physical layers, and scaled-down protocol layers are used. A card reader converter hub allows USB hosts to access low-power USB devices. Only one flash device is accessed, reducing power compared with standard USB broadcasting to multiple devices.

Abstract: An extended universal serial bus (USB) storage device is described herein. According to one embodiment, an extended USB storage device includes a printed circuit board assembly (PCBA) having a flash memory device and a flash controller mounted thereon, and an extended USB connector plug coupled to the PCBA for providing a USB compatible interface between an external device and the flash memory device and the flash controller, wherein the extended USB connector plug includes a first end used to couple to the external device and a second end coupled to the flash memory device and the flash controller. In one embodiment, a front piece (1701) includes a metal case (1706) for shielding and a tongue (1709) with contact pins (1781, 1782) and a rear piece (1702) includes a tip portion (1713) with contacts (1783). When the rear tip portion (1713) is inserted into the front piece the contact pins (1783) engage the contact pins (1781, 1782).

Abstract: A portable USB device with an improved configuration is described herein. According to one embodiment, a portable USB device includes a core unit having a USB plug connector coupled to one or more flash memory devices and a flash controller disposed therein, where the flash controller is capable of exchanging data with a host via the USB plug connector using a bulk-only-transfer protocol. The portable USB device further includes a housing for enclosing the core unit, including a front end opening to allow the USB plug connector to be deployed. The portable USB device further includes a core unit carrier for carrying the core unit for deploying and retracting the core unit, including a slide button to allow a finger of a user to slide the USB plug connector of the core unit in and out of the housing via the front end opening of the housing.

Abstract: Briefly, a portable USB flash memory device is disclosed to include a Chip-On-Board COB Printed Circuit Board Assembly PCBA inside. The flash memory device is enclosed inside a housing structure with a sliding button to deploy the USB plug connector external to the housing structure. The flash memory device with Multi-Level-Cell MLC compatible is being able to connect to a host with a Universal Serial Bus USB interface.

Abstract: A memory module assembly includes a heat-sink plate attached to one or more of the integrated circuits (e.g., memory devices) of a memory module PCBA by adhesive. The heat-sink plate includes an elongated base structure, a first contact plate extending away from the base structure such that a step-like positioning surface is defined therebetween, and heat-exchange fins extending from the opposite side of the base structure. An optional upper heat-sink plate is secured to a second side of the PCBA by a second adhesive layer, and contacts the lower heat-sink plate to facilitate heat transfer to the heat-exchange fins. The adhesive is either heat-activated or heat-cured. The adhesive is applied to either the memory devices or the heat-sink plates, and then compressed between the heat-sink plates and memory module using a fixture. The fixture is then passed through an oven to activate/cure the adhesive.

Abstract: A case-grounded flash-memory drive has a printed-circuit board assembly (PCBA) with flash-memory chips and a controller chip. The PCBA is encased inside an upper case and a lower case, with a Serial AT-Attachment (SATA) connector that fits through an opening between the cases. The cases can be assembled with the PCBA by a screw-together or thermal-bond adhesive method. Triple-axis case-grounding tabs draw any electro-static-discharges (ESD) current off the upper case along a primary axis and onto a PCBA ground through a secondary axis that is screwed into the PCBA. An intermediary axis between the primary and secondary axes fits around a PCBA notch while the secondary axis passes through a metalized alignment hole on the PCBA for grounding. When the SATA connector is inserted into a host, the host ground sinks ESD currents collected by the triple-axis case-grounding tabs.