Huawei Technologies Co., Limited

Grg Banking Equipment Co., Ltd.

Zte Corporation

Wuhan Institute of Virology, Cns

Fei Zhao

Ming Li

Jing Zhang

Bo Tian

Xin Tu

Tiancai Liang

Minjie Fang

Chengye Zhang

Li Zeng

Dongyu Geng

Hongyan Fu

Xiaofeng Zheng

Zhenlin Xie

Dongsheng Yao

Daoyu Liu

Zhangzhou Shen

Yige Song

Hong Yang

Yinghua Zhu

Tingke Ge

Haifei Jiang

Yibing Gao

Wenbo Zeng

Minhua Luo

Zhicong Xie

Lebao Yang

Jingfei Zhang

Embodiments of this application provide a laser scanning apparatus, which is a key component of a Lidar and may be used in fields such as autonomous driving and intelligent driving. The scanning apparatus includes: a scanning micromirror chip, a packaging shell, and a packaging component. The scanning micromirror chip includes a scanning micromirror and a laser, where the scanning micromirror and the laser are integrated at different positions of the scanning micromirror chip. The packaging shell is located on the scanning micromirror chip, and forms a hollow structure together with the scanning micromirror chip. Both the laser and the packaging component are located in the hollow structure. In addition, the packaging component is fixed on the packaging shell, and is configured to collimate and reflect a beam emitted by the laser, and emit an output beam to the scanning micromirror.

Laser scanning apparatus

A recombinant Herpes Simplex Virus type 1 (HSV-1) strain H129-derived anterograde multi-synaptic transneuronal viral tracer for multi-synaptic neural circuit mapping comprises two or more fluorescence expression cassettes being integrated into the H129 genome at different locations; wherein each fluorescence expression cassette contains at least two copies of fluorescent protein-encoding sequence that are arranged in tandem, and at least one linker-encoding sequence, where at least one linker-encoding sequence is disposed between two fluorescent protein-encoding sequences, allowing transcription of fluorescent protein-encoding sequences and linker-encoding sequence as a single transcript; and wherein the linker-encoding sequence encodes a linker peptide containing at least two adjacent amino acids that are highly inefficient in forming a peptide bond between them; thereby, when the single transcript is translated, at least two fluorescent proteins are stoichiometrically generated due to the impedence of peptide bond formation by the linker peptide.

Anterograde multi-synaptic transneuronal tracer

A flattening device includes: a holder configured to support the following components; at least one flattening roller set, including a first flattening roller and a second flattening roller arranged oppositely at two sides of a sheet medium conveying path; and a power mechanism configured to drive the first and second flattening rollers to rotate. A surface of the first flattening roller is distributed with n arc-shaped grooves arranged in parallel with an axis direction of the first flattening roller, wherein n is a natural number greater than or equal to 1; and a surface of the second flattening roller is provided with at least one arc-shaped protruding portion in rolling engagement with the arc-shaped grooves of the first flattening roller; and wherein, the first flattening roller and the second flattening roller are in rolling engagement to form a conveying passage for the sheet medium.

Flattening device and financial self-service equipment

A virtual private network implementation method includes intercepting, by an NDIS intermediate driver, a packet sent by an application program to an intranet server, and determining, according to a PID corresponding to the packet, whether to allow a process corresponding to the packet to use an SSL VPN; when the process corresponding to the packet is allowed to use the SSL VPN, establishing, by the NDIS intermediate driver, a new packet, and submitting the new packet to an NDIS network interface card driver; and sending, by the NDIS network interface card driver, the new packet to the client, and sending, by the client, the new packet to the intranet server. Thereby, a virtual private network is implemented based on process control, and a client has a fast startup speed.

Virtual private network implementation method and client device

A mode converter provided in the present invention includes an input multimode waveguide, an output multimode waveguide, and a first conversion waveguide, where the input multimode waveguide is configured to receive a first signal which mode is a first mode; the first conversion waveguide has an input coupling waveguide with a first effective refractive index, and has an output coupling waveguide with a second effective refractive index; the first conversion waveguide is configured to perform, by using the input coupling waveguide, evanescent wave coupling on the first signal that is in the first mode and that is transmitted in the input multimode waveguide, and couple the first signal to the second mode of the output multimode waveguide by using the output coupling waveguide, so as to obtain the first signal in the second mode; and the output multimode waveguide is configured to output the first signal in the second mode.

Mode converter, multimode waveguide transmission apparatus, and method

The present invention discloses a mode multiplexer/demultiplexer and a switching node. The mode multiplexer/demultiplexer includes a multi-mode optical waveguide, a first transmission optical waveguide, and a second transmission optical waveguide. The multi-mode optical waveguide includes a first mode channel and a second mode channel. The first transmission optical waveguide includes a first coupling region that includes a first fundamental-mode channel, and the first fundamental-mode channel performs optical mode coupling with the first mode channel in the multi-mode optical waveguide. The second transmission optical waveguide includes a second coupling region that includes a second fundamental-mode channel, and the second fundamental-mode channel performs optical mode coupling with the second mode channel in the multi-mode optical waveguide. An effective refractive index of a fundamental-mode optical signal in the first coupling region is different from an effective refractive index of the same fundamental-mode optical signal in the second coupling region.

Mode multiplexer/demultiplexer and switching node

A thickness detection device for sheet-type medium includes a fixing frame, a reference shaft and a detection assembly shaft. A reference roller is fixedly sleeved on the reference shaft. At least one detection roller is provided on the detection assembly shaft, and the detection roller is in an elastic contact with the reference roller. The detection roller is sleeved on the detection assembly shaft by a bracket, the bracket has an elongated hole through which the bracket is sleeved on the detection assembly shaft, an elastic element is provided between an end of the elongated hole and the detection assembly shaft, and the elastic element enables the detection assembly shaft to elastically maintain a certain distance from the end of the elongated hole. Thus, thickness signal obtained is not interfered by banknote displacements in other directions, and thickness detection of the full banknote can be achieved.

Thickness detection device for sheet medium

The present disclosure relates to a subrack and a terminal. The subrack includes a chassis, a first main board region arranged in a front part of the chassis, and a second main board region arranged at a rear of the chassis and also includes: a first air duct arranged in the chassis and a second air duct arranged in the chassis, where the second air duct and the first air duct are separated.

Subrack and terminal

An optical interconnector () includes: a first vertical coupled cavity (), a first optical waveguide (), and a second optical waveguide (). The first vertical coupled cavity () includes N identical micro-resonant cavities that are equidistantly stacked, where a center of each micro-resonant cavity is located on a first straight line that is perpendicular to a plane on which the micro-resonant cavity is located, the first optical waveguide () and a first micro-resonant cavity () are in a same plane, the second optical waveguide () and a second micro-resonant cavity () are in a same plane, the first optical waveguide () is an input optical waveguide, the second optical waveguide () is a first output optical waveguide, and an optical signal having a first resonant wavelength in the first optical waveguide () enters the second optical waveguide () through the first vertical coupled cavity ().

Optical interconnector, optoelectronic chip system, and optical signal sharing method

Growing community of inventors

Wuhan, China

Fei Zhao