Abstract:
A system and method are disclosed for improving hard drive actuator lead attachment. In one embodiment, an actuator board is coupled to an actuator flexible cable by a bonding agent, such as an anisotropic conductive film (ACF). In one embodiment, an actuator flexible cable is coupled to one or more actuator coil leads, such as by solder bump bonding, and the flexible cable/actuator coil coupling is embedded in an actuator frame, such as by polymer injection molding.
Abstract:
A cable assembly (100) includes a connector (3) receiving a plurality of terminals, a printed circuit board (PCB) (4), a Light Emitting Diode (LED) member (5) and a cable (7). The PCB comprises a pair of opposite mounting surfaces. One of the mounting surfaces is attached to a rear end of the connector, and electrically connecting with the terminals. The LED member comprises a plurality of tail portions (51) soldering to the other mounting surface, each tail portion comprises a straight portion (511), a connecting portion extending forwardly from the distal end of the straight portion, and a soldering portion (512) extending vertically from the distal end of the connecting portion. The cable electrically connects with the PCB.
Abstract:
A hardware assembly of a non-volatile solid state drive and a processor is made more compact by eliminating elements previously associated with such assemblies. For embodiments implementing a SATA cable to electrically connect the solid state drive and processor, the SATA cable directly connects the two elements without implementing intervening bulky SATA connectors. For embodiments implementing a printed circuit board for mounting the solid state drive and processor, the SATA cable itself may be eliminated by replacing it with a hardwired signal path on the printed circuit board. These compact hardware assemblies are manufactured by hardwiring the signal path to the solid state drive at a SATA interface and hardwiring the same signal path to the processor also such that the hardwired signal path electrically connects the solid state drive to the processor.
Abstract:
An RF input portion is formed on a printed circuit board and is operable to input a high-frequency signal received by an antenna device. An electronic component is mounted on the printed circuit and is operable to process the input high-frequency signal. The RF input portion has a specific pattern adapted to be electrically interchangeably connectable with a plurality of types of connections.
Abstract:
A cable assembly (100) includes a connector (3) receiving a plurality of terminals, a printed circuit board (PCB) (4), a Light Emitting Diode (LED) member (5) and a cable (7). The PCB comprises a pair of opposite mounting surfaces. One of the mounting surfaces is attached to a rear end of the connector, and electrically connecting with the terminals. The LED member comprises a plurality of tail portions (51) soldering to the other mounting surface, each tail portion comprises a straight portion (511), a connecting portion extending forwardly from the distal end of the straight portion, and a soldering portion (512) extending vertically from the distal end of the connecting portion. The cable electrically connects with the PCB.
Abstract:
A power supply is described. The power supply includes a main power connector and one or more circuit boards rigidly connected to the main power connector, including mechanical and electrical connection. The main power connector has a body that includes a plurality of contacts. The main power connector is configured to mate with a corresponding connector on a motherboard in a computer. The motherboard is coupled to one or more processors. A first plane including a first circuit board in the one or more circuit boards is substantially parallel to a symmetry plane of the body. The symmetry plane includes a direction of insertion of the main power connector when mated with the corresponding connector. The one or more circuit boards include one or more switched mode power supplies to convert an input signal to one or more output signals.
Abstract:
A cable has miniaturized, low-cost, highly-integrated wireless network access points embedded in the cable at periodic intervals along the length of the cable. Power conductors that run the length of the cable supply each of the access points with electrical power. Each access point has an antenna for receiving and transmitting radio signals. The antenna of an access point is encapsulated, along with the rest of the access point circuitry, underneath an insulating protective outer sheath of the cable. The cable includes conductors that are usable for a purpose other than deploying a wireless network. When the cable is physically installed (for example, in the wall or ceiling of a building) for the other purpose, the access points are simultaneously physically installed. The access points so installed can then be activated and used as part of a wireless network.
Abstract:
A cable connector includes a contact assembly including an electrical insulating block part which is configured to incorporate plural signal contacts; and a relay wiring substrate mounted to a back of the contact assembly. The relay wiring substrate includes, on a surface, a contact connecting pad electrically connected to one of the signal contacts, a wiring connecting pad, and a wiring pattern connecting the contact connecting pad and the wiring connecting pad. The relay wiring substrate further includes a ground layer inside the relay wiring substrate. The cable connector further includes a cable connected to the relay wiring substrate by electrically connecting an end of a wiring with the wiring connecting pad. The relay wiring substrate further includes a ground pattern for matching impedance inside the relay wiring substrate.
Abstract:
A signal transmission cable with adaptive contact pin reference structure includes a first cable having a connecting edge; a second cable having a connecting edge; a component lay-out section having a first lateral edge adjacent to the connecting edge of the first cable, and a second lateral edge; and an overlapping section having an inner lateral edge adjacent to the second lateral edge of said component lay-out section with a folding line formed between them, and an outer lateral edge adjacent to the connecting edge of the second cable with another folding line formed between them. Signal transmission lines included in the component lay-out section and the first cable are correspondingly connected with one another, and signal transmission lines included in the overlapping section are correspondingly connected to those included in the second cable and the component lay-out section.
Abstract:
A high frequency coax via structure is configured with a stripped semi-rigid cable (no shield), and an inductive compensation loop to mitigate transition discontinuity between that via structure's center conductor and the pad to which the center conductor is connected. The performance of top-to-bottom microwave transitions at high frequencies (e.g., 1 to 12 GHz) for such boards is enhanced. A non-metallized via hole embodiment that is configured with surrounding ground vias provides a greater degree of compensation for connection pads associated with greater capacitance (such as those coupled to a component).