Abstract: Disclosed are embodiments of an electrically conductive fluid interconnect for coupling an integrated circuit (IC) device to a substrate. The IC device may be coupled to the substrate in a socketless manner or using a socket. The electrically conductive fluid interconnect may include, for example, a metal, an electrically conductive paste, or an electrically conductive polymer material. The fluid may be in a liquid or paste state over at least part of an operating temperature range of the IC device, and in other embodiments the fluid may be in the liquid or paste state at room temperature. Other embodiments are described and claimed.

Abstract: Disclosed are embodiments of an electrically conductive fluid interconnect for coupling an integrated circuit (IC) device to a substrate. The IC device may be coupled to the substrate in a socketless manner or using a socket. The electrically conductive fluid interconnect may include, for example, a metal, an electrically conductive paste, or an electrically conductive polymer material. The fluid may be in a liquid or paste state over at least part of an operating temperature range of the IC device, and in other embodiments the fluid may be in the liquid or paste state at room temperature. Other embodiments are described and claimed.

Abstract: Methods and associated apparatus of reducing stress in a package Those methods may comprise providing a package comprising a die coupled to a substrate, wherein the substrate is disposed on an LGA socket, and wherein a TIM is disposed on a top surface of the die, and then attaching a thermal solution to the TIM, wherein at least one standoff is attached between the thermal solution and the substrate.

Abstract: Disclosed is a socket assembly comprising a retention mechanism, a circuit board, an IC socket, a heat sink unit and a loading mechanism. The retention mechanism includes a support plate, on which the circuit board, the IC socket comprising die and package, and the heat sink unit are stacked respectively. The retention mechanism further includes a plurality of standoffs perpendicular to the support plate and include a pair of latches at different heights. The loading mechanism includes a loading plate configured on end portions of the standoffs and a pair of downwardly extending clips that are capable of engaging to the latches on the both standoffs. Correspondingly, the circuit board, the IC socket and the heat sink unit are sandwiched between the loading plate and the support plate. The heights of the pair of latches on the standoffs are based on the die and package in the IC socket.

Abstract: The method and apparatus of the present invention dissipate heat from an electronic device to provide an efficient and universally applied thermal solution for high heat generating electronic devices. The apparatus comprises an evaporator, a condenser, a heater and conduits. The evaporator, condenser, and conduits define a closed system that has an interior volume which is partially filled with a liquid coolant. The evaporator is thermally connected to an electronic device, such as a processor, and removes thermal energy from the processor by evaporating the liquid coolant. When the apparatus is oriented such that no liquid coolant is in contact with the evaporator, the heater applies thermal energy to the coolant until the coolant begins to boil. Boiling the liquid coolant causes bubbles to form within the liquid coolant. The volume of the bubbles generated by boiling raises the level of the liquid coolant within the closed system until the liquid coolant comes into contact with the evaporator.

Abstract: The method and apparatus of the present invention dissipate heat from an electronic device to provide an efficient and universally applied thermal solution for high heat generating electronic devices. The apparatus comprises an evaporator, a condenser, a heater and conduits. The evaporator, condenser, and conduits define a closed system that has an interior volume which is partially filled with a liquid coolant. The evaporator is thermally connected to an electronic device, such as a processor, and removes thermal energy from the processor by evaporating the liquid coolant. When the apparatus is oriented such that no liquid coolant is in contact with the evaporator, the heater applies thermal energy to the coolant until the coolant begins to boil. Boiling the liquid coolant causes bubbles to form within the liquid coolant. The volume of the bubbles generated by boiling raises the level of the liquid coolant within the closed system until the liquid coolant comes into contact with the evaporator.

Abstract: The method and apparatus of the present invention dissipate heat from an electronic device to provide an efficient and universally applied thermal solution for high heat generating electronic devices. The apparatus comprises an evaporator, a condenser, a heater and conduits. The evaporator, condenser, and conduits define a closed system that has an interior volume which is partially filled with a liquid coolant. The evaporator is thermally connected to an electronic device, such as a processor, and removes thermal energy from the processor by evaporating the liquid coolant. When the apparatus is oriented such that no liquid coolant is in contact with the evaporator, the heater applies thermal energy to the coolant until the coolant begins to boil. Boiling the liquid coolant causes bubbles to form within the liquid coolant. The volume of the bubbles generated by boiling raises the level of the liquid coolant within the closed system until the liquid coolant comes into contact with the evaporator.

Abstract: The method and apparatus of the present invention dissipate heat from an electronic device to provide an efficient and universally applied thermal solution for high heat generating electronic devices. The apparatus comprises an evaporator, a condenser, a heater and conduits. The evaporator, condenser, and conduits define a closed system that has an interior volume which is partially filled with a liquid coolant. The evaporator is thermally connected to an electronic device, such as a processor, and removes thermal energy from the processor by evaporating the liquid coolant. When the apparatus is oriented such that no liquid coolant is in contact with the evaporator, the heater applies thermal energy to the coolant until the coolant begins to boil. Boiling the liquid coolant causes bubbles to form within the liquid coolant. The volume of the bubbles generated by boiling raises the level of the liquid coolant within the closed system until the liquid coolant comes into contact with the evaporator.

Abstract: An actuating device for automatically controlling the position of a movably mounted vehicle mirror comprises a motor controlled by switches for selectively actuating the motor in response to angular displacement of a trailer with respect to the vehicle. The switches are actuated in response to movement of the trailer and responsively close a circuit connecting a power source to the motor. Preferably, the switching means can include means for disconnecting the power source after a predetermined rotation of the motor in order to avoid excess energy use. Preferably, the disconnecting means comprises a plurality of switches arranged to contact lobes of a rotating cam at predetermined rotational positions of the cam. The cam can be concentrically secured to the rotor shaft or can be connected to the rotor shaft by a lever mechanism in order to form a crank which translates the rotor movement to linear displacement on a mirror positioning member.

Abstract: An assembly for converting mirrors commonly provided on trucks so that the mirror can be adjusted from a position adjacent the seat of the driver to provide maximum visibility from the right hand mirror. A clamp mounts to the mirror and connects to an actuator positioned in the truck adjacent the seat of the driver so that the mirror may be adjusted by the driver while the driver remains in the driving position.

Abstract: A mirror actuator for trucks whereby the mirror may be adjusted from a position adjacent the seat of the driver to provide maximum visibility from the right hand mirror. A lever is positioned in the truck adjacent the seat of the driver so that the lever may be actuated by the driver while the driver remains in the driving position. The lever in turn controls a cable which is secured to the exterior right hand mirror assembly so that actuation of the lever will cause a corresponding pivotal movement of the right hand exterior mirror about its vertical center line.

Abstract: A mirror actuating device for automatically changing the orientation of side-view mirrors which are movably mounted to a vehicle, such as a semi-truck tractor, in response to the relative positions of the tractor and a trailer being towed by the tractor to provide a variable field of view to a driver of the tractor through the mirrors. The actuating device has two actuating plates slidably mounted to the tractor, cables interconnecting the actuating plates to the mirrors, an actuating pin attached to the trailer, and an arm pivotally mounted between its ends to the tractor and having one end connected to the actuating plates and another end connected to the actuating pin. The necessary operating connection between the actuating plates on the tractor and the pin carried by the trailer is automatically made when the tractor and trailer are hooked together in the normal manner.