Sz Dji Osmo Technology Co., Ltd.

Sz Dji Technology Co., Ltd.

Huawei Technologies Co., Limited

Huawei Digital Power Technologies Co., Ltd.

Sz Dji Osom Technology Co., Ltd.

Tridonic Gmbh Co. Kg

Li Zhou

Yanchong Zhao

Jing Liu

Tao Zhao

Bin Wang

Yong Qing Wang

Xi Feng Zhao

Peng Wang

Mohan Liu

Mingliang Zhu

Yueqiang Lu

Paul Pan

Lei Zhang

Qinghua Yu

Zhicheng Sui

Hongrui Jiang

Tao Fan

Lei Zhao

Xiyong Wang

Renzhi Yang

Baolu Meng

Wei Shui

Jiyong Jiang

Teng Fei Zhang

Yanming Li

Kang Sun

Patrick Yang

Xianggen Li

Lixun Bai

Yong Wang

Jiaqi Yang

Zaosheng Hu

Tjaco Middel

Yueliang Wang

This application relates to the field of artificial intelligence technologies, and discloses a machine learning model search method, a related apparatus, and a device. In the method, before model search and quantization, a plurality of single bit models are generated based on a to-be-quantized model, and evaluation parameters of layer structures in the plurality of single bit models are obtained. Further, after a candidate model selected from a candidate set is trained and tested, to obtain a target model, a quantization weight of each layer structure in the target model may be determined based on a network structure of the target model and evaluation parameters of all layer structures in the target model, a layer structure with a maximum quantization weight in the target model is quantized, and a model obtained through quantization is added to the candidate set.

Machine learning model search method, related apparatus, and device

A neural network model processing method includes obtaining a first low-bit neural network model through training, where the model includes a first operation layer and a second operation layer. Each operation layer includes at least one operation. Values/a value of a parameter and/or data used for the operation are/is represented by using N bits, and N is a positive integer less than 8. The neural network model processing method further includes compressing the model to obtain a second low-bit neural network model, where the compressed model includes a third operation layer. The third operation layer is equivalent to the first operation layer and the second operation layer, and an operation layer other than the third operation layer in the at least one operation layer is the same as an operation layer other than the first operation layer and the second operation layer in the at least two operation layers.

Neural network model processing method and apparatus

This application discloses a notification display method. The method comprises: when there is a to-be-notified event, displaying, by a terminal, a notification by classification based on a notification type of the notification corresponding to the to-be-notified event; and displaying, by the terminal, in different display modes based on a priority of the notification, wherein the different display modes comprise: displaying in expanded form or displaying in collapsed form in the corresponding display pane, or the different display modes comprise: displaying in a first mode or displaying in a second mode in the corresponding display pane, and content displayed in the first mode is more than content displayed in the second mode.

Notification display method and terminal

A method for establishing an end-to-end network connection includes obtaining, by a first node, super node information from a server, obtaining, by the first node, a network address translation (NAT) type of the first node, obtaining, by the first node, a NAT type of a to-be-connected second node from the server, determining, by the first node based on the NAT type of the first node and the NAT type of the second node, whether to use a relay node, and selecting, by the first node, the relay node from super nodes to establish a connection to the second node.

Method and apparatus for establishing end-to-end network connection, and network system

An isolated communications apparatus applied to a transformer. The transformer includes N first rectifier units and a second rectifier unit, and the isolated communications apparatus includes N first control units, a second control unit, and a signal convergence unit. The first control units are connected to the first rectifier units in a one-to-one correspondence. Each first control unit is connected to the signal convergence unit, and the signal convergence unit and the second control unit are connected through an optical fiber. The signal convergence unit is configured to: receive first data packets from the N first control units, send the first data packets to the second control unit, receive at least one second data packet from the second control unit, determine a first control unit corresponding to each second data packet, and send each second data packet to a corresponding first control unit.

Isolated communications apparatus and power supply system

A gimbal for carrying an imaging device includes a support frame and a center of gravity adjusting unit. The center of gravity adjusting unit includes a transmission member and a coupling member. The center of gravity adjusting unit is coupled to the support frame through the coupling member. A motor is configured to enable the transmission member to drive a portion of the support frame to have a linear movement relative to the coupling member to adjust a center of gravity of the support frame.

Gimbal

A digital video transmitter includes a video converter configured to convert a digital video signal obtained from an imaging device to a serial differential signal, a filter electrically coupled to the video converter through a differential signal transmission line and configured to filter an interference introduced by an electronic adjuster or a motor, and an image transmitter electrically coupled to the filter and configured to receive and transmit the serial differential signal.

Gimbal system

A method includes using a Hall angular displacement sensor to detect a magnetic field strength generated by a magnet disposed on a first end of a rotating shaft of a motor assembly of a gimbal. The sensor is disposed on a side of an electrical connecting device in a first rotating member of the gimbal that faces away from the magnet. The method further includes determining a rotational angle of a rotor of the motor assembly with respect to a stator of the motor assembly based on the magnetic field strength. The stator is coupled to the first rotating member. The rotor is coupled to a second rotating member of the gimbal and disposed on a second end of the rotating shaft. The method also includes determining a positional relationship between the first rotating member and the second rotating member based on the rotational angle.

Motor, gimbal having the motor, and image capturing device having the gimbal

An image processing method includes obtaining one or more sets of image data generated by an imaging sensor and one or more sets of positional data generated by one or more positional sensors. An individual set of image data is associated with an image timestamp based on a time at which the individual set of image data was generated. An individual set of positional data is associated with a positional timestamp based on a time at which the individual set of positional data was generated. The method further includes correlating one of the one or more sets of image data with a corresponding one of the one or more sets of positional data based on an image timestamp associated with the one of the one or more sets of image data and a positional timestamp associated with the corresponding one of the one or more sets of positional data.

Systems and methods for digital video stabilization

An apparatus for supporting a payload includes a payload mount configured to be coupled to the payload to secure the payload, a first support member coupled to one side of the payload mount in a single arm configuration and including a first actuation unit configured to rotate the payload mount around a first rotational axis relative to the first support member, and a single flexible member including a branched configuration. The branched configuration includes at least a first end that is electrically coupled to the payload mount and a second end that is electrically coupled to the first actuation unit.

Payload mounting platform

A gimbal for carrying an imaging device includes a support frame and a center of gravity adjusting unit arranged at the support frame. The center of gravity adjusting unit is configured to adjust a center of gravity of the support frame by moving one part of the support frame relative to another part of the support frame. The center of gravity adjusting unit includes a threaded rod. One end of the threaded rod is provided with a rotating handle or a driving motor configured to drive the threaded rod to rotate.

A digital video transmitter for a gimbal includes a video converter configured to receive a digital video signal from an imaging device and convert the digital video signal to output a serial differential signal, a first filter electrically coupled to the video converter through a first differential signal transmission line, a second filter electrically coupled to the first filter through a second differential signal transmission line, and an image transmitter electrically coupled to the second filter and configured to receive and transmit the serial differential signal.

An apparatus for supporting a payload includes a first support member coupled to the payload and a flexible member configured to be electrically coupled to the first support member and the payload. The payload is configured to rotate around a first rotational axis relative to the first support member. The flexible member is configured to (i) wind around a portion of the first support member or the payload when the payload is rotated in a first direction around the first rotational axis, and (ii) unwind from around the portion when the first support member is rotated in a second direction opposite the first direction around the first rotational axis. The flexible member is configured to transmit sensor data indicating a spatial disposition of the payload or the first support member.

A gimbal for carrying an imaging device includes a support frame and a center of gravity adjusting unit. The support frame includes two pillars, two clamping devices arranged on the two pillars, respectively, and a guiding post arranged approximately perpendicular to the two pillars through the two clamping devices. The guiding post is configured to move along a longitudinal direction of the pillars through the clamping devices and to carry the imaging device. The center of gravity adjusting unit is arranged on one of the pillars and configured to at least adjust a position of the guiding post on the pillars.

The present invention discloses a motor comprising a stator, a rotator rotatably connected with the stator and an electrical connector that provides an electric signal to the motor. The motor further comprises a magnet fixed on the rotator and a Hall angular displacement sensor fixed on the electrical connector and arranged opposite to the magnet. The magnet and the Hall angular displacement sensor are spaced from each other by the electrical connector. The present invention further discloses a gimbal using the motor and an image capturing device using the gimbal.

Growing community of inventors

Shenzhen, China

Li Zhou