Abstract: A contactless connector includes: a circuit board; a light emitter arranged on the circuit board and capable of converting electrical signals into optical signals; a light emitter control chip arranged on the circuit board for controlling the operation of the light emitter; and a light-transmitting member at least partially covering the circuit board, the light emitter, and the light emitter control chip.

Abstract: This disclosure relates to a laser device. The laser device has laser diodes arranged at least partially side by side in a first direction. In operation of the laser device, light emanates from the laser diodes and couples into an optical fiber. The laser device also has an optical device, during operation of the laser device, that combines the light so that the light can be coupled at least partially together into the optical fiber. The beam parameter product of the laser diodes with respect to the direction in which the laser diodes are arranged next to one another is greater than the beam parameter product of the optical fiber.

Abstract: A connector for a circuit board includes a connector housing having a mounting arm. The mounting arm has a first fastening element that is releasably connectable to a first connecting element on the circuit board. The connection between the first fastening element and the first connecting element can be established and/or released by deflecting the mounting arm. A securing unit is disposed on the connector housing in such a way that the securing unit is movable between a releasing position and a locking position. In the locking position, the securing unit blocks deflection of the mounting arm. In the releasing position, the securing unit enables deflection of the mounting arm.

Abstract: A photonic coupler includes an input coupling section, an output coupling section, and a multimode interference (MMI) waveguide section. The input coupling section is adapted to receive an input optical signal along an input waveguide channel. The output coupling section is adapted to output a pair of output optical signals along output waveguide channels. The output optical signals having output optical powers split from the input optical signal. The MMI waveguide section is optically coupled between the input and output coupling sections. Notched waveguide sections may each be disposed between the MMI waveguide section and a corresponding one of the input or output coupling sections and/or the MMI waveguide section may include curvilinear sidewalls.

Abstract: A casing for housing a fiber optic transceiver for use in a fiber optic connector can include a top surface, a bottom surface and one or more lateral surfaces, wherein the top surface and at least one or more lateral surfaces are at least in parts electrically conductive, and wherein the bottom surface of the casing comprises one or more solder pads.

Abstract: Aspects relate to a photonic processing system, a photonic processor, and a method of performing matrix-vector multiplication. An optical encoder may encode an input vector into a first plurality of optical signals. A photonic processor may receive the first plurality of optical signals; perform a plurality of operations on the first plurality of optical signals, the plurality of operations implementing a matrix multiplication of the input vector by a matrix; and output a second plurality of optical signals representing an output vector. An optical receiver may detect the second plurality of optical signals and output an electrical digital representation of the output vector.

Abstract: The invention relates to an optical fiber signal direct guided optical module which comprises a connector, a control circuit board and a plastic optical fiber. The control circuit board is connected to the connector and is provided with a functional optical module. The plastic optical fiber is provided with an optical fiber end face corresponding to the functional optical module. The distance L between the end face of the optical fiber and the top face of the functional optical module is in range Of 50 ?m to 150 ?m. Optical signals emitted by the end face of the optical fiber can be directly received by the functional optical module, and optical signals emitted by the functional optical module can also directly penetrate through the end face of the optical fiber to be received by the plastic optical fiber.

Abstract: Multi-chip modules in different semiconductor packages may be optically data coupled by way of LEDs and photodetectors linked by a multicore fiber. The multicore fiber may pass through apertures in the semiconductor packages, with an array of LEDs and photodetectors in the semiconductor package providing and receiving, respectively, optical signals comprised of data passed between the multi-chip modules.

Abstract: A connector for connecting a circuit board to a mating connector includes a connector housing, a lens unit and a receiving unit. The connector housing has a receiving chamber and is connectable to a mating connector housing of the mating connector. The lens unit is disposed in the receiving chamber and is light-conductively connectable to a transmitter/receiver unit disposed on the circuit board and to at least one optical waveguide of the mating connector. The securing unit has two mounting arms and a securing portion connecting the mounting arms, the securing unit being releasably connected via the mounting arms at two opposite side walls of the connector housing, and the securing portion securing the lens unit in place within the receiving chamber.

Abstract: An optical transceiver includes housing, connector coupler and internal optical connector. Opening of housing is located on a side of housing and connected to accommodation space of housing. Connector coupler includes positioning frame and at least one elastic holding arm. Elastic holding arm protrudes from positioning frame and forms holding space. Positioning frame is located between at least a part of elastic holding arm and opening. Positioning frame is disposed in accommodation space. Positioning recess is located on a side of positioning frame close to opening and connected to holding space. At least a part of internal optical connector is located in holding space to be held in position by elastic holding arm. Positioning recess is configured to position external optical connector so as to allow internal optical connector to be plugged with and optically coupled to external optical connector.

Abstract: Provided is an optical submodule which includes an optical transmission/reception module that optically couples an optical transmission signal and an optical reception signal into one optical fiber and a flexible printed circuit board (FPCB) mounted on the optical transmission/reception module that functions as an electrical signal interface with a main board, and an electrical signal line of an optical transmission channel for the optical transmission signal and an electrical signal line of an optical reception channel for the optical reception signal may be deployed on different sides of the FPCB.

Abstract: A connector has a case, a circuit board, a thermal diffusing unit, and a first heat sink. The circuit board is mounted in the case and has a heating source. The thermal diffusing unit abuts the inner surface of the case and the heating source of the circuit board. A heat transfer coefficient of the thermal diffusing unit is larger than a heat transfer coefficient of the case. The first heat sink abuts the thermal diffusing unit and is exposed from the case. A heat transfer coefficient of the first heat sink is larger than the heat transfer coefficient of the case. By the first heat sink abutting the thermal diffusing unit and exposed from the case, and the heat transfer coefficients of both the thermal diffusing unit and the first heat sink being larger than that of the case, the heat dissipation efficiency is improved.

Abstract: An optical transceiver assembly includes an optical transmitter, an optical receiver, and a first multi-fiber ferrule exclusively connected to the optical transmitter via a first set of at least two optical fibers operable to transport respective optical signals away from the optical transmitter. The assembly includes a second multi-fiber ferrule exclusively connected to the optical receiver via a second set of at least two optical fibers operable to transport respective optical signals to the optical transmitter. The first set of at least two optical fibers is separate from the second set of at least two optical fibers.

Abstract: In a pipe structure in which an optical fiber passes, miniaturization of the optical module in the longitudinal direction of the optical fiber is prevented. In the optical module according to the present invention, a holding structure of the optical fiber necessary to adopt the pipe structure is moved to a cover extension unit of the package. The optical fiber is adhered and fixed to the cover extension unit protruding from the cover body unit of the package to ensure protection of the optical fiber, and the optical waveguide chip is disposed to be closer to an inner wall of a side surface of the package. By disposing the optical waveguide chip to be close to the inner wall of the package as much as possible and reducing the mounting area in the package to the utmost, it is possible to realize miniaturization of the entire optical module.

Abstract: An optical module includes a circuit board, a light emitting device and a data processor. The data processor is disposed on the circuit board. The data processor includes a reverse gearbox and a gearbox. The reverse gearbox is connected to the light emitting device, and is configured to receive a high-speed electrical signal from the circuit board, and decode the high-speed electrical signal into a plurality of channels of low-speed electrical signals. The plurality of channels of low-speed electrical signals drive the light emitting device to emit the plurality of channels of optical signals. The gearbox is connected to the light receiving device, and is configured to receive a plurality of channels of low-speed electrical signals output by the light receiving device, encode the plurality of channels of low-speed electrical signals into a high-speed electrical signal, and transmit the high-speed electrical signal to the circuit board.

Abstract: Fiber optic network systems are implemented, at least in part, using very small form factor (VSFF) interconnect components such as VSFF duplex connector; VSFF mechanical transfer ferrule (MT) connector; VSFF duplex uniboot connector; VSFF MT uniboot connector; VSFF duplex adapter; VSFF MT adapter; VSFF duplex pluggable transceiver; VSFF MT pluggable transceiver; VSFF patch cable assembly; VSFF trunk cable; and/or VSFF breakout cable. The VSFF fiber optic network systems can define fiber breakout cabling that connects large trunk cables to many peripheral network locations. The network systems can define branches and sub-branches from a trunk cable. The network systems can define cross-connect sub-networks between sets of transceivers or adapters. The network systems can define a trunk-to-transceiver cabling assembly for connecting a trunk cable to at least 32 transceiver ports.

Abstract: Disclosed is an optical device including a first lens and a second lens. The first lens of the optical device is joined to an end surface of an optical waveguide of an optical element to emit light emitted from the optical element. The second lens is optically coupled with the first lens to convert the light emitted from the first lens into collimated light.

Abstract: A pluggable optical module configured to operate in a host device includes transmit optics; receive optics; an interface configured to connect to the host device, and communicatively coupled to the transmit optics and the receive optics; and circuitry communicatively coupled to the interface, wherein the circuitry is configured to, subsequent to insertion into the host device where the pluggable optical module initiates a boot process, provide an indication related to one or more of a status of the boot process and a time for the boot process to complete.

Abstract: An optical module includes a housing, a plurality of active optical components and a path changer component. The housing has an airtight chamber. The active optical components are provided in the airtight chamber. The path changer component is provided in the airtight chamber, and the path changer component is configured to change an optical path of at least one of the active optical components.

Abstract: An optical module unlocking apparatus includes: a base, a sliding member, a driving piece, and an elastic piece. The sliding member is slidably disposed on the base along an insertion direction. The driving piece is rotatably connected to the base, the other end of the sliding member is connected to the driving piece, and the driving piece can rotate from a locked state to an unlocked state relative to the base under an action of external force, and drive the sliding member to move relative to the base along the insertion direction. A second connecting part is disposed on the driving piece. Because the driving piece is located outside a cage, space for disposing the elastic piece on the driving piece is sufficient, and the driving piece does not need to fit a spring plate. This simplifies a structure of the optical module and improves processing efficiency.