Mloptic Corp.

Siemens Aktiengesellschaft

Nanjing University

Nanjing Jusha Display Technology Co., Ltd.

Microsoft Technology Licensing, LLC

Southeast University

Nanjing University of Aeronautics and Astronautics

Nanjing University & Yancheng Academy of Environmental Protection Technology and Engineering

Bsh Hausgeräte Gmbh

A.o. Smith Corporation

Csmc Technologies Fab2 Co., Ltd.

Nanjing Noratech Pharmaceuticals Co., Ltd

Noratech Pharmaceuticals, Inc.

Wei Dong Wang

Wei Zhou

Pengfei Wu

Jian Wang

Aimin Li

Christopher Brian Quirk

Paul Nathan Bennett

Ahmed Hassan Awadallah

Chendong Shuang

Qing Zhou

Fei Liu

Yao Xing

Pan Chen

Cuixia Zhang

Yijia Liu

Yongshui Cai

Chenggang Lin

Chunyan Zhou

Lulu Wang

Saghar Hosseinisianaki

Nathan Yang

Nan Qi

Diliao Ye

Luliang Jia

Markus Vester

Longxing Shi

Weifeng Sun

Helmut Greim

Feng Lin

Hai Jun Wang

Shen Xu

Qihui Wu

Dayan Bi

Wei Su

Jiang He

Xiyuan Chen

Yi Zhang

Min Chen

Lin Fang

Mengqiao Wang

Weiwei Zhou

Haibo Li

Mancheng Zhang

RuiHua Li

Qimeng Li

Peng Shi

Xun Chen

Ismael Jesus Almendros Carmona

Bingbo Cui

Kewei Wang

Pingle Zhou

Zhengyuan Wang

SiWen Shen

Xiaojie Li

LiSong Zhou

LiYu Luo

Yunshu Wang

MengSha Guan

Lili Liu

Yueyue Su

Qingqing Zhao

ZhiBin Ge

Minglu Wang

Rui Gao

Xiaowen Ma

Congjian Huang

Boyong He

Jingyi Jiang

Tang Song

Beibei Wang

Hailing Zhang

Shun Feng Hu

Zanqi Huang

Zhengyang Zhao

A method for controlling an autoexposure function of a camera to a gray level setting, the method including establishing a critical exposure time of an image sensing device of the camera, wherein the critical exposure time of the image sensing device of the camera is an exposure time at which a first sensed gray level of the image sensing device of the camera is disposed at a target gray level, the sensed gray level is disposed in a trend of decreasing sensed gray level values; exposing the image sensing device of the camera to light to obtain a second sensed gray level and comparing the second sensed gray level at the critical exposure time to the target gray level, if the second sensed gray level is disposed at least at the target gray level, limiting the exposure of the image sensing device of the camera to the critical exposure time.

Algorithm to correct camera early saturation floor for autoexposure algorithm

A joint link-level and network-level intelligent system and method for dynamic spectrum anti-jamming are provided. The system includes a link-level anti-jamming subsystem and a network-level anti-jamming subsystem. The link-level anti-jamming subsystem sets a reward value as system transmission throughput in a single decision cycle, and a user makes an intelligent frequency usage decision based on the obtained reward value to skip a frequency band in which jamming exists. The network-level anti-jamming subsystem performs reasonable frequency band allocation and management for lower-level sub-users when link-level anti-jamming fails to further enhance a frequency domain anti-jamming capability of the entire system. The users make intelligent frequency usage decisions through a dynamic spectrum anti-jamming algorithm based on reinforcement learning to effectively avoid external malicious jamming, realize dynamic spectrum access, and enhance a frequency domain anti-jamming capability of the system.

Joint link-level and network-level intelligent system and method for dynamic spectrum anti-jamming

A wavefront calibration method for a wavefront tester of a lens, the method including: measuring an air wavefront of the wavefront tester without the lens; measuring at least one golden sample wavefront to generate an actual wedge angle and refractive index of the at least one golden sample based on the air wavefront; calculating a measured wedge angle and refractive index based on the actual wedge angle and refractive index of the at least one golden sample; and linear fitting between the actual wedge angle and refractive index and the measured wedge angle and refractive index to produce an actual magnification of the lens.

Wavefront tester calibration method

A dimming tester station for testing an optical object, the optical object disposed along an axis represented by a central axis of the optical object, the dimming tester station including a motion stage for supporting the optical object, wherein the optical object is disposed between at least one camera with an entrance pupil of the at least one camera disposed in a first plane and a light emitting panel configured to emit light through a front surface disposed in a second plane, the central axis is substantially perpendicular to the first plane and the second plane, the entrance pupil of the at least one camera is disposed in an orientation facing at least a portion of the front surface, the motion stage is configured to be adjustable such that the location of the optical object from each of the first plane and the second plane is alterable.

Dimming tester station

A method for aligning the projection of a first light source with an in-coupler of a waveguide, the method including supplying a secondary light source through an optical path of the waveguide to exit at the in-coupler of the waveguide as an exit light; determining the concentricity of the exit light with respect to the first light source; and improving the concentricity of the exit light with respect to the first light source by adjusting the positioning of the first light source such that the exit light becomes concentric with the projection of the first light source.

Waveguide calibration

A system for providing two parallel light beams spaced-apart a selectable distance, the system including: a first beam splitter configured for reflecting a light beam from a light source to create a first datum light beam, the first beam splitter is fixedly attached to a base; a second beam splitter configured for reflecting a transmitted light beam from the light beam from the light source to create a second datum light beam, a third beam splitter configured for reflecting a transmitted light beam from the light beam from the light source to create a third datum light beam, a fourth beam reflecting device configured for reflecting a transmitted light beam from the light beam from the light source to create a fourth light beam. Each of the second, third beam splitters and fourth beam reflecting device is configured to be slidingly attached to the base.

Binocular calibration target

An unmanned aerial vehicle (UAV) task cooperation method based on an overlapping coalition formation (OCF) game includes: constructing a sequential OCF game model for a UAV multi-task cooperation problem; using a bilateral mutual benefit transfer (BMBT) order that is biased toward the utility of a whole coalition to evaluate a preference of a UAV for a coalitional structure; optimizing task resource allocation of the UAV under an overlapping coalitional structure by using a preference gravity-guided Tabu Search algorithm to form a stable coalitional structure; and optimizing a transmission strategy based on the current coalitional structure, an updated status of a task resource allocation scheme of the UAV, and a current fading environment, so as to maximize task execution utility of a UAV network. The method quantifies characteristics of resource properties of the UAV and a task, and optimizes the task resource allocation of the UAV under the overlapping coalitional structure.

Unmanned aerial vehicle (UAV) task cooperation method based on overlapping coalition formation (OCF) game

Generally discussed herein are devices, systems, and methods for identifying a purpose of a communication. A method can include receiving a communication including communication content and communication context, the communication content a first portion of the communication and the communication context a second, different portion of the communication. The method can include identifying, by a machine learning (ML) model, based on the communication content and the communication context, one or more purposes associated with the communication, the one or more purposes indicating respective actions to be performed by a user that generated or received the communication. The method can include providing data indicating the purpose of the first portion of the content.

Purpose detection in communications using machine learning

Provided are an interruption recovery method for a machine tool machining file and a machine tool applying the method. The interruption recovery method includes: generating first check information when a machine tool machining file is executed, the machine tool machining file being stored in an external memory; generating second check information when the machine tool machining file is re-executed after an interruption occurs; comparing the first check information and the second check information to determine whether the machine tool machining file is changed before and after the interruption; and recovering the execution of the machine tool machining file when the first check information matches the second check information. By generating and comparing the check information before and after the interruption to verify the integrity and consistency of data of the machine tool machining file, the machine tool machining can be carried out accurately and unerringly.

Interruption recovery method for machine tool machining file and machine tool applying same

The present invention relates to a household appliance and a method for controlling same. The household appliance includes: at least one chamber for accommodating a to-be-processed object and at least one door for closing the chamber; a collection module, at least for collecting a time signal when the door is opened; a controller, connected to the collection module to receive and analyze the time signal generated by the collection module when the door is opened, count a high-frequency time segment when the door is opened in a predetermined time period T1, and generate a control signal for controlling an operation state of a function loading module; and the function loading module, connected to the controller to receive the control signal for controlling operation of the function loading module. Therefore, the present invention provides a household appliance with a new control method.

Household appliance and method for controlling same

A method for controlling an autoexposure function of a camera to a gray level setting, the method including exposing an imaging device of the camera for a first exposure duration and obtaining a first gray level of the imaging device of the camera, exposing the imaging device of the camera for a second exposure duration within the first exposure duration and the maximum exposure duration and obtaining a second gray level of the imaging device of the camera, determining whether the first gray level and the second gray level are upward-trending from the first exposure duration to the second exposure duration and if the first gray level and the second gray level are determined to be upward-trending, interpolating for a target exposure duration based on the gray level setting, the first exposure duration and the first gray level.

Autoexposure method

Provided is a dynamic control method that turns off a primary-side switching transistor when an output voltage exceeds an upper limit, and control the switching of a secondary-side synchronous rectification transistor with a fixed cycle and a fixed duty cycle. During the time that the synchronous rectification transistor is turned on, the energy of a load capacitor at the output end is extracted to the primary side, which causes the output voltage to drop rapidly and the overshoot voltage to decrease greatly.

Flyback switching power supply, control system thereof and control method therefor

A system for providing two spaced-apart parallel light beams wherein the space between the two spaced-apart parallel light beams is adjustable, the system including: a first beam splitter configured for reflecting a light beam from a light source to create a first light beam; a second beam splitter configured for reflecting a transmitted light beam from the light beam from the light source to create a second light beam; a third beam splitter configured for transmitting the first light beam and reflecting the first light beam to create a third light beam, the first beam splitter and the third beam splitter are disposed along a first central axis; a fourth beam splitter configured for transmitting the second light beam and reflecting the second light beam to create a fourth light beam.

Active self-monitoring binocular calibration target

The present invention discloses a method for preparing a simultaneous nitrogen and phosphorus removal lightweight material and the use thereof, and belongs to the technical field of environmental functional materials and sewage treatment. In the present invention, sulfur and an iron-based component are thoroughly melted and dispersed to obtain a molten mixture, where the iron-based component is a mixture of iron sulfides with carbonates of calcium and magnesium; and the above molten mixture is subjected to a foaming treatment to form the simultaneous nitrogen and phosphorus removal lightweight material. The simultaneous nitrogen and phosphorus removal lightweight material of the present invention has characteristics of high porosity, a large specific surface area, a light weight, and a high reaction activity. The resultant lightweight material, used as a microbial carrier and an electron donor for a biochemical reaction, is applied to a reactor such as a fixed bed or fluidized bed for sewage treatment, with the advantages of a good microbial attachment performance, a high denitrification rate and a good phosphorus removal effect.

Method for preparing simultaneous nitrogen and phosphorus removal lightweight material and the use thereof

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Shenzhen, China

Wei Dong Wang