Hisense Broadband Multimedia Technologies Co., Ltd.

Hisense Broadband Multimedia Technologies, Ltd.

Hisense USA Corporation

Hisense International Co., Ltd.

Sigeng Yang

Peng He

Xuxia Liu

Long Zheng

Shijian Ben

Wei Cui

Yongliang Huang

Jingsheng Xia

Haiqiang Xu

Tao Wu

Qisheng Zhao

Jianwei Mu

Dengshan Xue

Hongchao Pan

Yinlong Liu

Baofeng Si

Shengwei Bo

Tengyue Li

Fenglai Wang

Yong Guo

Qiang Zhang

Qian Shao

Songlin Zhu

Ming Li

Yongjia Yin

Hongping Yan

Shuai Zhang

Yan Zhong

Chengshuang Luo

Lei Lu

Shenzhen Fu

Xiaolei Ma

Xuejian Li

An optical module includes a shell, a circuit board, at least one of a light-transmitting chip or a light-receiving chip, a lens assembly and a claw assembly. The lens assembly includes a lens base and a connecting part. The lens base covers the at least one of the light-transmitting chip or the light-receiving chip, and is configured to change a propagation direction of an optical signal incident into the lens assembly. The connecting part includes at least one positioning slot disposed on a surface of the connecting part facing away from the lens base. The claw assembly includes a claw and a through hole. The claw includes at least one positioning protrusion disposed on a surface of the claw facing the connecting part. The through hole is configured to be connected to an optical fiber outside the optical module.

Optical module

An optical module including a circuit board, a circuit adapter board disposed on and electrically connected to the circuit board, a silicon optical chip disposed on and electrically connected to the circuit adapter board, an optical fiber socket optically connected to the silicon optical chip through a first optical fiber ribbon, and a light source disposed on and electrically connected to the circuit board and optically connected to the silicon optical chip through a second optical fiber ribbon; wherein a thermal expansion coefficient of the circuit adapter board is lower than that of the circuit board, the silicon optical chip is provided with optical waveguide end facet on a side thereof configured to be butted with the first optical fiber ribbon and the second optical fiber ribbon, and the circuit adapter board has a notch on a side thereof proximate to the optical waveguide end facets.

An optical module includes a shell, a circuit board, a light source, and a silicon optical chip. The circuit board is located in the shell, a hollow portion is provided in the circuit board, and the hollow portion penetrates the circuit board. The light source includes at least one laser assembly, and the at least one laser assembly is mounted on the shell and is located in the hollow portion, and the at least one laser assembly is electrically connected to the circuit board. The silicon optical chip is mounted on the shell and is located in the hollow portion. The silicon optical chip is electrically connected to the circuit board and is connected to the light source.

An optical module includes a circuit board, a light transmit-receive device and a data processor. The light transmit-receive device includes a first laser array, a first detector array and a first lens assembly. The first laser array is disposed on the circuit board, and is configured to emit a plurality of channels of optical signals driven by the plurality of channels of low-speed electrical signals. The first detector array is disposed on the circuit board, and is configured to receive the plurality of channels of optical signals from outside of the optical module, and convert the plurality of channels of optical signals into a plurality of channels of electrical signals. The first lens assembly covers the first laser array and the first detector array, and is configured to change a propagation direction of optical signals incident into inside of the first lens assembly.

An optical module includes a circuit board and a silicon optical chip. The circuit board includes a plurality of circuit board bonding pads. The silicon optical chip includes a plurality of chip bonding pads corresponding to the plurality of circuit board bonding pads. The plurality of chip bonding pads are electrically connected to the corresponding circuit board bonding pads, so that the silicon optical chip is electrically connected to the circuit board. A chip bonding pad is electrically connected to at least one corresponding circuit board bonding pad through a plurality of bonding wires, or a circuit board bonding pad is electrically connected to at least one corresponding chip bonding pad through a plurality of bonding wires. A connecting line of two or more of bonding positions of the plurality of bonding wires on the circuit board bonding pads is inclined with respect to a connecting line of centers of the circuit board bonding pads.

An optical module includes a shell, a circuit board, a light-emitting chip, a lens assembly, an optical fiber ferrule assembly and a fastener. The fastener fixes the optical fiber ferrule assembly to the lens assembly. The fastener includes a fastening body, a first clamping portion and a second clamping portion. The first clamping portion is disposed at one end of the fastening body, and is clamped with the optical fiber ferrule assembly. The second clamping portion is disposed at the other end of the fastening body, and is clamped with the lens assembly.

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.

An optical module includes a shell, a circuit board, at least one of a light-transmitting chip or a light-receiving chip, a lens assembly, an optical fiber ferrule assembly and a fixing plate. The circuit board is disposed in the shell. The light-transmitting chip and/or the light-receiving chip is disposed on the circuit board. The lens assembly is disposed on the circuit board, covers the light-transmitting chip and/or the light-receiving chip, and is configured to change a propagation direction of an optical signal incident into the lens assembly. The optical fiber ferrule assembly is connected to the lens assembly, and is configured to transmit an optical signal incident into the optical fiber ferrule assembly. The fixing plate is configured to fix the optical fiber ferrule assembly to the lens assembly.

An optical module has an optical port and an electrical port, and includes a shell, a circuit board, a circuit adapter board, a silicon optical chip, a light source and an optical fiber socket. The circuit board is disposed in the shell. One end of the circuit board is provided with a connecting finger located in the electrical port. The circuit adapter board is disposed on and electrically connected to the circuit board. A thermal expansion coefficient of the circuit adapter board is lower than that of the circuit board. The silicon optical chip is disposed on and electrically connected to the circuit adapter board. The light source is disposed on the circuit board, is electrically connected to the circuit board, and is optically connected to the silicon optical chip. The optical fiber socket is optically connected to the silicon optical chip, and is configured to form the optical port.

An optical module includes a lens assembly and an optical fiber holder. The lens assembly includes a lens base, a first positioning column and a second positioning column. The optical fiber holder includes a first positioning hole and a second positioning hole. The first positioning hole is disposed on a second assembly surface and corresponds to a position of the first positioning column; the first positioning hole has an opening on the second assembly surface and an opening on a first side surface connected with the second assembly surface, and the two openings are connected. The second positioning hole is disposed on the second assembly surface and corresponds to a position of the second positioning column; the second positioning hole has an opening on the second assembly surface and has an opening on a second side surface connected with the second assembly surface, and the two openings are connected.

An optical module includes a circuit board, an optical emission chip array, an optical receiver chip array, an optical fiber array, and a lens assembly. The lens assembly includes a body with a step provided at a bottom portion thereof, an emission lenses array, an optical fiber lenses array, and a receiving lenses array. The emission lenses array and the receiving lenses array are respectively arranged on two step surfaces of the step, such that focal points thereof respectively fall on an emission surface of the optical emission chip array and a light sensitive surface of the optical receiver chip array. A first groove for forming a first reflective surface and a second groove for arranging a light filter that refracts light towards the optical fiber lenses array or reflects light to the receiving lenses array are provided at a top portion of the body.

The disclosure discloses an optical module, and relates to the field of optic fiber communications. A circuit according to an embodiment of the disclosure includes: a chip, which includes at least one wiring side, and on which there are arranged first signal interface pads arranged parallel to the wiring side; a circuit board on which there are arranged a number of second signal interface pads corresponding to the first signal interface pads, wherein at least two of the distances between the respective second signal interface pads and the wiring side are different from each other; and signal wires configured to connect the corresponding first signal interface pads and second signal interface pads.

An optical module is provided in the present disclosure. According to an embodiment, the optical module may comprise a housing, two or more circuit board layers, and a light emitting chip. The two or more circuit board layers may be disposed in the housing and electrically connected to each other; and the light emitting chip may be electrically connected to at least one of the circuit board layers.

The disclosure provides an optical module, including a housing, a circuit board and a light conducting structure; a portion of the light conducting structure is disposed in the housing, another portion of the light conducting structure juts out from the housing; the circuit board is provided with a light source, and the light conducting structure is configured to conduct light emitted by the light source to an outside of the housing. The optical conducting module in the optical module can conduct light emitted from the optical module to outside of the optical module. The optical module allows the state inside the optical module to be conducted to and displayed in the outside of the optical module with optical signals as propagation medium. The state inside the optical module can be directly learned from the outside of the optical module housing, thereby extending application scenarios of the optical module.

Growing community of inventors

Qingdao, China

Sigeng Yang