A multimedia connector cable having a cable encasing a plurality of optical fibers. The cable having a proximal end and a distal end. The proximal end having an electrical connector in optical communication with the plurality of optical fibers. The distal end having an optical connector in optical communication with the plurality of optical fibers.

A flexible flat cable includes a highly reflective member having a plate shape, light-transmitting signal transmission members spaced apart from each other on a first surface of the highly reflective member, conductive signal transmission members spaced apart from each other on the first surface of the highly reflective member, a highly reflective adhesive member that fixes the light-transmitting signal transmission members and the conductive signal transmission members to the highly reflective member, and couples the highly reflective member to a non-conductive member, the non-conductive member including a first surface in contact with the highly reflective adhesive member, and a second surface opposite to the first surface of the non-conductive member, an adhesive member that is disposed on the second surface of the non-conductive member, and couples an electrical shield member to the non-conductive member, and the electrical shield member coupled to the non-conductive member by the adhesive member.

The present disclosure relates to a fiber optic connection system that uses a slide clip to provide robust retention of a fiber optic connector within a mating fiber optic adapter. In certain examples, the fiber optic connector may be a hybrid connector that provides both electrical and optical connectivity.

A plug connector, which can be fastened to a line, for transmitting optical and electrical signals, includes a contact support, two contact fastening regions, a lens fastening region and a locking member. The contact fastening regions are formed in the contact support and are each configured to receive an electrical contact, which is connectable to the line, for transmitting the electrical signals. The lens fastening region is formed in the contact support and is configured to receive, in an aligned manner, a lens member, which is connectable to the line, for transmitting the optical signals. The locking member is lockable to the contact support, and the line is fastenable to the plug connector using the locking member in a locked state.

A USB-C connector for a fiber optic cable has a two-section dongle form. The small plug section has a USB-C plug head and an optical transceiver and control circuitry, but no other signal processing functions. The second section includes a fiber connector and a signal processing chipset, but no optical transceiver. The two sections are connected together by a short hybrid cable containing both optical fibers and electrical wires. The optical fibers connect the optical transceiver to the fiber connector. A subset of electrical wires connect the control circuitry to the chipset, and another subset of electrical wires connect the chipset to a second subset of pins of the plug head. A first subset of pins of the plug head are connected directly to the control circuitry for optical-electrical signal conversion. Two such USB-C connectors connected to the ends of a long all-fiber cable form a USB-C extender.

An optical electrical connector includes a casing, a printed circuit board, an electronic chip, a photoelectric conversion component, and a heat sink device. The casing includes an electrical port and an optical port. A receiving space is defined between the electrical port and the optical port. The printed circuit board extends longitudinally along a first direction. The printed circuit board includes a main body portion located in the receiving space and a front end portion exposed in the electrical port. The electronic chip, the photoelectric conversion component and the heat sink device are all accommodated in the receiving space. The electronic chip and the photoelectric conversion component are not only disposed on the printed circuit board, but also electrically connected to the printed circuit board. The heat sink device is disposed on the casing and faces the electronic chip for conducting the heat accumulated on the electronic chip.

A power and optical fiber interface system includes a housing having an interior. A cable inlet is configured to receive a hybrid cable having an electrical conductor and an optical fiber. An insulation displacement connector (IDC) is situated in the interior of the housing configured to electrically terminate the conductor, and a cable outlet is configured to receive an output cable that is connectable to the IDC and configured to output signals received via the optical fiber.

A pluggable free-space photoelectric hybrid connector including a female connector and a male connector is provided. The female connector includes a first insulating substrate, metal elastic clips, a first circuit board, and a first optical communication module. An insertion cavity is formed at the front end of the first insulating substrate, and a first fiber mounting hole and first electrode mounting holes are formed at the rear end thereof. The metal elastic clips are mounted in the first electrode mounting holes respectively, where contact portions of at least one set of metal elastic clips are exposed from the top of the insertion cavity, and contact portions of at least another set of metal elastic clips are exposed from the bottom of the insertion cavity. The first circuit board is mounted at the rear end of the first insulating substrate and is electrically connected to the metal elastic clips.

A front housing of the optical-electrical composite connector is axially provided with a through groove passing through the front housing on the front housing, and an inner wall of the through groove is provided with a first groove. A rear housing includes a main body portion and a clamping portion connected to one end of the main body portion. An outer surface of the clamping portion is axially provided with a second groove, the clamping portion is located in the through groove, and the first groove is butted with the second groove to form an accommodation space. One end that is of the through groove and that is away from the main body portion is an optical port. The font housing is provided with an opening connecting to the accommodation space and the outside. The conductive terminal is accommodated in the opening, and the conductive terminal forms an electrical port.

An optical transceiver that includes a housing, an inner ceiling, and an outer ceiling. The housing includes sides and a bottom. The inner ceiling is assembled with the housing; while, the outer ceiling is fit with the housing. The outer ceiling, which forms a cavity accompanied with the housing, is fastened with the inner ceiling by a screw inserted into a screw hole.