Abstract: A photoelectric conversion module comprises an optical bench having at least one lens array; a circuit board having conductive trace formed on the circuit board, configured on the optical bench; at least one optical element flip-chip packaged on the circuit board to couple to the conductive trace; and an optical waveguide having an optical reflection structure, wherein the at least one lens array aligns to the optical reflection structure or the at least one optical element.

Abstract: A method for manufacturing an active optical cable comprises (a) flip-chip packaging chips onto a circuit board to form a OE circuit board, (b) integrating the OE circuit board onto an optical bench to form a OE bench, (c) integrating the OE bench onto a printed circuit board to form a OE module, (d) molding encapsulant onto the OE bench, (e) coupling a hybrid cable onto the OE module, and (f) utilizing low temperature, low pressure injection molding process to form the active optical cable.

Abstract: A photoelectric conversion assembly is proposed. The photoelectric conversion assembly comprises a photoelectric conversion module having an interposer, at least one optical element and an optical bench. The at least one optical element is configured on the interposer, and the optical bench is used to support for the interposer. A circuit board is used to support for the photoelectric conversion module, having metal pads for coupling the at least one optical element. An optical transmission component is used for transmitting light. An optical ferrule is used for engaging with the photoelectric conversion module and an optical transmission component. A plug is used for electrically connecting the circuit board.

Abstract: A photoelectric conversion module comprises an optical bench having at least one lens array; a circuit board having conductive trace formed on the circuit board, configured on the optical bench; at least one optical element flip-chip packaged on the circuit board to couple to the conductive trace; and an optical waveguide having an optical reflection structure, wherein the at least one lens array aligns to the optical reflection structure or the at least one optical element.

Abstract: A photoelectric conversion assembly is proposed. The photoelectric conversion module comprises three parts, photoelectric conversion module, a printed circuit board (PCB) and a hybrid cable. The photoelectric conversion module comprises an interposer, at least one optical element configured on the interposer, and an optical bench for the printed circuit board and the interposer configured thereon. Electrical wires are used for coupling to the printed circuit board. An optical ferrule is used for engaging with the photoelectric conversion module and an optical fiber component. A plug is used for electrically connecting the printed circuit board. A first lens array is configured under the interposer. A mirror is configured under the first lens array. A second lens array is configured left side of the mirror.

Abstract: A photoelectric conversion assembly is proposed. The photoelectric conversion assembly comprises a photoelectric conversion module having an interposer, at least one optical element and an optical bench. The at least one optical element is configured on the interposer, and the optical bench is used to support for the interposer. A circuit board is used to support for the photoelectric conversion module, having metal pads for coupling the at least one optical element. An optical transmission component is used for transmitting light. An optical ferrule is used for engaging with the photoelectric conversion module and an optical transmission component. A plug is used for electrically connecting the circuit board.

Abstract: A photoelectric conversion assembly is proposed. The photoelectric conversion module comprises three parts, photoelectric conversion module, a printed circuit board (PCB) and a hybrid cable. The photoelectric conversion module comprises an interposer, at least one optical element configured on the interposer, and an optical bench for the printed circuit board and the interposer configured thereon. Electrical wires are used for coupling to the printed circuit board. An optical ferrule is used for engaging with the photoelectric conversion module and an optical fiber component. A plug is used for electrically connecting the printed circuit board. A first lens array is configured under the interposer. A mirror is configured under the first lens array. A second lens array is configured left side of the mirror.

Abstract: A photoelectric conversion module is proposed. The photoelectric conversion module comprises two parts, interposer and optical bench. At least one optical element is configured on the interposer. The interposer is configured on a first concave portion of the optical bench. A first lens array is configured under the interposer to align the at least one optical element. A mirror is configured under the first lens array, with an optical micro-reflection surface. A second lens array is configured left side of the mirror.

Abstract: A photoelectric conversion module includes a circuit board, a flexible substrate configured on the circuit board, with a concave structure having a first optical micro-reflection surface and a second optical micro-reflection surface formed opposite to the first optical micro-reflection surface, an optical component configured on the flexible substrate, an IC chip mounted on the circuit board and electrically connected to the optical component via a wire and a conductive trace on the flexible substrate, and an optical waveguide member connected to the flexible substrate. The flexible substrate and the optical waveguide member are packaged by a carrier or an optical connector.