Abstract: An interconnect module having a base substrate with a microcontroller on a top surface and a photonic integrated circuit (PIC) and photodetector array on an opposed bottom surface is described. The interconnect module has a top and bottom fiber assembly, which both have a row of optical fibers. The bottom fiber assembly is actively aligned with the PIC to maximize optical coupling efficiency between the bottom fiber assembly and the PIC and then permanently affixed in this position. The top fiber assembly is actively aligned with the photodetector array to maximize optical coupling efficiency between the top fiber assembly and the photodetector array and then permanently affixed in this position.

Abstract: This present disclosure increases the interconnect density by using a different technology approach than the industry is currently using (stamping and molding). By using a MEMS-based technology approach, better geometry and impedance control can be carried out to reduce impedance discontinuities and feature size. Additional concepts include low connector insertion force, no contact wiping, and a precise alignment mechanism between the connector contacts and those on the mating substrate.

Abstract: This present disclosure increases the interconnect density by using a different technology approach than the industry is currently using (stamping and molding). By using a MEMS-based technology approach, better geometry and impedance control can be carried out to reduce impedance discontinuities and feature size. Additional concepts include low connector insertion force, no contact wiping, and a precise alignment mechanism between the connector contacts and those on the mating substrate.

Abstract: An optical engine having an optically transparent substrate with a lens on a first major surface and an optoelectronic element on an opposed second major surface is described. The optical engine has a sealed optical path and is capable of operating submerged in a cooling liquid. The optical engine may be attached to a mounting substrate to form an optoelectronic subassembly that may be incorporated in many different types of optical interconnects.

Abstract: An interconnection system includes a mating substrate that is configured to be placed in electrical communication with a main board along an insertion direction so as to define a separable interface. The interconnection system is configured to align the mating substrate with the main board along first and second transverse directions that are perpendicular to each other and to the insertion direction.

Abstract: Waveguides of optically transparent interposers are adiabatically coupled to respective waveguides of photonic integrated circuits that are mounted to the optically transparent interposers. In particular, photonic integrated circuits can be mounted to an interposer that has both optical connections and electrical connections. The optical connections of the interposer can be adiabatically coupled to the photonic integrated circuit. The electrical connections can be connected to the photonic integrated circuit and to a host board that also supports an ASIC.

Abstract: Waveguides of optically transparent interposers are adiabatically coupled to respective waveguides of photonic integrated circuits that are mounted to the optically transparent interposers. In particular, photonic integrated circuits can be mounted to an interposer that has both optical connections and electrical connections. The optical connections of the interposer can be adiabatically coupled to the photonic integrated circuit. The electrical connections can be connected to the photonic integrated circuit and to a host board that also supports an ASIC.

Abstract: This present disclosure increases the interconnect density by using a different technology approach than the industry is currently using (stamping and molding). By using a MEMS-based technology approach, better geometry and impedance control can be carried out to reduce impedance discontinuities and feature size. Additional concepts include low connector insertion force, no contact wiping, and a precise alignment mechanism between the connector contacts and those on the mating substrate.

Abstract: A method of fabricating a heat pipe may include providing a first material as a body section. The method may include stamping or etching the body section to include the cavity. A portion of the body section may constitute a wall of the cavity. The method may include stamping or etching the wall of the cavity to provide a set of corrugations on a portion of the wall of the cavity. The method may include forming an opening in the wall of the cavity. The method may include attaching a lid over the cavity. The lid constituting at least a portion of a hermetic seal of the cavity. The method may include attaching a cover to the body section approximately adjacent to the opening in the cavity. The method may include attaching a valve to the body section approximately at the opening to the cavity.

Abstract: A method of fabricating a heat pipe may include providing a first material as a body section. The method may include stamping or etching the body section to include the cavity. A portion of the body section may constitute a wall of the cavity. The method may include stamping or etching the wall of the cavity to provide a set of corrugations on a portion of the wall of the cavity. The method may include forming an opening in the wall of the cavity. The method may include attaching a lid over the cavity. The lid constituting at least a portion of a hermetic seal of the cavity. The method may include attaching a cover to the body section approximately adjacent to the opening in the cavity. The method may include attaching a valve to the body section approximately at the opening to the cavity.

Abstract: A method of fabricating a heat pipe may include providing a first material as a body section. The method may include stamping or etching the body section to include the cavity. A portion of the body section may constitute a wall of the cavity. The method may include stamping or etching the wall of the cavity to provide a set of corrugations on a portion of the wall of the cavity. The method may include forming an opening in the wall of the cavity. The method may include attaching a lid over the cavity. The lid constituting at least a portion of a hermetic seal of the cavity. The method may include attaching a cover to the body section approximately adjacent to the opening in the cavity. The method may include attaching a valve to the body section approximately at the opening to the cavity.

Abstract: A method of fabricating a heat pipe may include providing a first material as a body section. The method may include stamping or etching the body section to include the cavity. A portion of the body section may constitute a wall of the cavity. The method may include stamping or etching the wall of the cavity to provide a set of corrugations on a portion of the wall of the cavity. The method may include forming an opening in the wall of the cavity. The method may include attaching a lid over the cavity. The lid constituting at least a portion of a hermetic seal of the cavity. The method may include attaching a cover to the body section approximately adjacent to the opening in the cavity. The method may include attaching a valve to the body section approximately at the opening to the cavity.

Abstract: The specification describes electrical assemblies comprising actively cooled components wherein a thermal interposer is used to limit heat transfer between the ambient and the cooled components. The thermal interposer is effective for transmitting signals for both power/ground and RF. Structurally, the thermal interposer comprises thin conductors in various configurations that convey electrical signals but significantly limit heat flow.