Abstract: The invention discloses a mobile photography shock absorption system, comprising a shock absorption arm main body and a shock absorption head, and the shock absorption head is connected to the shock absorption arm main body; the shock absorption arm main body is installed with a shock absorber, and the end of the shock absorption arm main body is installed with an image transmission bracket; the lower part of the image transmission bracket is installed with a horizontal shock absorption head, and the bottom of the horizontal shock absorption head is installed with a suspension shock absorption system; the shock absorption arm main body is detachably connected with a double-sided dovetail slide plate. The above structure can be applied to camera equipment of different weights, saving more time and effort. On the other hand, compressed air is used to buffer and absorb energy.

Abstract: The invention discloses a mobile photography shock absorption system, comprising a shock absorption arm main body and a shock absorption head, and the shock absorption head is connected to the shock absorption arm main body; the shock absorption arm main body is installed with a shock absorber, and the end of the shock absorption arm main body is installed with an image transmission bracket; the lower part of the image transmission bracket is installed with a horizontal shock absorption head, and the bottom of the horizontal shock absorption head is installed with a suspension shock absorption system; the shock absorption arm main body is detachably connected with a double-sided dovetail slide plate. The above structure can be applied to camera equipment of different weights, saving more time and effort. On the other hand, compressed air is used to buffer and absorb energy.

Abstract: This application provides a data transmission method and apparatus. The method includes: receiving a first data packet and a first neural network data packet, where the first neural network data packet is used to carry neural network parameter information, the neural network parameter information is used to process data of a first video frame data packet, the first data packet includes first identification information, the first neural network data packet includes second identification information, and the first identification information and the second identification information each indicate a correspondence between the first data packet and the first neural network data packet; and sending the first data packet and the first neural network data packet based on the first identification information and the second identification information.

Abstract: This application provides a communication processing method for data transmission. A terminal-side device may adjust transmission of an uplink data burst in time based on time of arriving at an access stratum of the terminal-side device, a maximum peak rate, and a maximum data burst volume that are indicated by a network. This helps adapt to a network resource and improve a network load balancing capability.

Abstract: An uplink transmission method includes sending, by a terminal device to a network device, an uplink signal that includes a zero power reference signal. In a time-frequency resource for sending the uplink signal, a transmit power of the uplink signal within a range of a time-frequency resource of the zero power reference signal is zero.

Abstract: Relating data in various distributed data sources for use in data analysis is described. The data sources are generally related by first generating a keyword model for a plurality of data sources, which includes a plurality of weighted keywords, and providing a visual representation of the keyword model, such as a word cloud, to a user. The user interacts with the visual representation to modify, update, and select various aspects of the visual representation. The user also identifies keywords and data sources of interest such that a plurality of relational models are generated based on the user interest. Relating the data sources also includes providing the plurality of relational models to the user, receiving a user selection of the plurality of relational models, and generating a combined dataset model which relates one or more of the data sources according to the selected relational models.

Abstract: A display panel is provided. The display panel includes: a flexible substrate including a display area and a non-display area; a thin film transistor layer formed on the flexible substrate; grooves formed in the thin film transistor layer corresponding to the non-display area; a planarization layer and a pixel definition layer disposed on the thin film transistor layer respectively; bumps formed in the non-display area after patterning the planarization layer and the pixel definition layer; and a light emitting layer and a thin film encapsulation layer formed on the planarization layer in order, wherein the thin film encapsulation layer covers the bumps and the grooves.

Abstract: A display panel is provided. The display panel includes: a flexible substrate including a display area and a non-display area; a thin film transistor layer formed on the flexible substrate; grooves formed in the thin film transistor layer corresponding to the non-display area; a planarization layer and a pixel definition layer disposed on the thin film transistor layer respectively; bumps formed in the non-display area after patterning the planarization layer and the pixel definition layer; and a light emitting layer and a thin film encapsulation layer formed on the planarization layer in order, wherein the thin film encapsulation layer covers the bumps and the grooves.

Abstract: Relating data in various distributed data sources for use in data analysis is described. The data sources are generally related by first generating a keyword model for a plurality of data sources, which includes a plurality of weighted keywords, and providing a visual representation of the keyword model, such as a word cloud, to a user. The user interacts with the visual representation to modify, update, and select various aspects of the visual representation. The user also identifies keywords and data sources of interest such that a plurality of relational models are generated based on the user interest. Relating the data sources also includes providing the plurality of relational models to the user, receiving a user selection of the plurality of relational models, and generating a combined dataset model which relates one or more of the data sources according to the selected relational models.

Abstract: A display panel includes a substrate, a first metal layer arranged on the substrate, a first insulating layer disposed on the first metal layer, a second metal layer disposed on the first insulating layer, and a pixel unit. The first metal layer includes a first metal line and a second metal line. The first metal layer is spaced apart along a first direction. The second metal line is spaced apart along a second direction. The first metal line and the second metal line are connected at an intersection. The second metal layer includes a peripheral metal line. The peripheral metal line is electrically connected to the first metal line and the second metal line. The first metal line and the second metal line are connected to the pixel unit. The first metal line and the second metal line supply the pixel unit with a signal voltage.

Abstract: A display panel includes a substrate, a first metal layer arranged on the substrate, a first insulating layer disposed on the first metal layer, a second metal layer disposed on the first insulating layer, and a pixel unit. The first metal layer includes a first metal line and a second metal line. The first metal layer is spaced apart along a first direction. The second metal line is spaced apart along a second direction. The first metal line and the second metal line are connected at an intersection. The second metal layer includes a peripheral metal line. The peripheral metal line is electrically connected to the first metal line and the second metal line. The first metal line and the second metal line are connected to the pixel unit. The first metal line and the second metal line supply the pixel unit with a signal voltage.

Abstract: The selecting circuit includes first and second switch units. The first switch unit includes a first control terminal, a first input terminal, and a first output terminal. The second switch unit includes a second control terminal, a second input terminal, and a second output terminal. The first output terminal connects to the second output terminal, the first input terminal connects to an output terminal of a first-stage of driving units, the second input terminal connects to an output terminal of a last-stage of the driving units. A first control signal inputted from the first control terminal controls the first switch unit to be turned on or off, a second control signal inputted from the second control terminal controls the second switch unit to be turned on or off, to selectively output an output signal of first or second output terminals based on an output sequence of the scan driving signal.

Abstract: In the compensating circuit, a second thin film transistor (TFT) are connected to a gate and drain of a first TFT, and a source of the first TFT receives a constant DC voltage signal, and the second TFT receives a scan signal of nth stage; a third TFT is connected to the drain of the first TFT, is connected to a common ground through a light emitting device, and receives an enable signal; a fourth TFT receives a scan signal of n?1th stage, and is connected to a first end of a storage capacitor and the gate of the TFT, and a second end of the storage capacitor is connected to a fifth TFT and a sixth TFT; the fifth TFT receives a data signal and the scan signal of nth stage, respectively; the sixth TFT is connected to the common ground and receives the enable signal, respectively.

Abstract: The selecting circuit includes first and second switch units. The first switch unit includes a first control terminal, a first input terminal, and a first output terminal. The second switch unit includes a second control terminal, a second input terminal, and a second output terminal. The first output terminal connects to the second output terminal, the first input terminal connects to an output terminal of a first-stage of driving units, the second input terminal connects to an output terminal of a last-stage of the driving units. A first control signal inputted from the first control terminal controls the first switch unit to be turned on or off, a second control signal inputted from the second control terminal controls the second switch unit to be turned on or off, to selectively output an output signal of first or second output terminals based on an output sequence of the scan driving signal.

Abstract: In the compensating circuit, a second thin film transistor (TFT) are connected to a gate and drain of a first TFT, and a source of the first TFT receives a constant DC voltage signal, and the second TFT receives a scan signal of nth stage; a third TFT is connected to the drain of the first TFT, is connected to a common ground through a light emitting device, and receives an enable signal; a fourth TFT receives a scan signal of n?1th stage, and is connected to a first end of a storage capacitor and the gate of the TFT, and a second end of the storage capacitor is connected to a fifth TFT and a sixth TFT; the fifth TFT receives a data signal and the scan signal of nth stage, respectively; the sixth fifth TFT is connected to the common ground and receives the enable signal, respectively.

Abstract: A vanadium dioxide coating for intelligent temperature control is formed by mixing a vanadium dioxide powder slurry, a polymer emulsion, and coating additives, and then coating the mixture onto a substrate. The vanadium dioxide powdery slurry comprises vanadium dioxide composite powders and a dispersion medium, the composite powders comprising vanadium dioxide nanopowders having a chemical composition of V1?xMxO2, and the surface of the vanadium dioxide nanopowders being attached to organic modified long-chain molecules, wherein M is a doped element, and 0?x?0.5. Through using the vanadium dioxide powders and the slurry thereof having an organic modified surface, the coating has higher visible light transmittance, can almost completely screen ultraviolet rays, and simultaneously intelligently adjust infrared rays.

Abstract: A vanadium dioxide coating for intelligent temperature control is formed by mixing a vanadium dioxide powder slurry, a polymer emulsion, and coating additives, and then coating the mixture onto a substrate. The vanadium dioxide powdery slurry comprises vanadium dioxide composite powders and a dispersion medium, the composite powders comprising vanadium dioxide nanopowders having a chemical composition of V1?xMxO2, and the surface of the vanadium dioxide nanopowders being attached to organic modified long-chain molecules, wherein M is a doped element, and 0?x?0.5. Through using the vanadium dioxide powders and the slurry thereof having an organic modified surface, the coating has higher visible light transmittance, can almost completely screen ultraviolet rays, and simultaneously intelligently adjust infrared rays.

Abstract: The present invention relates to a rotary valve for vehicle power steering gear, comprising a worm shaft, a lower sealing ring, a locking nut, a lower outer ring, an upper outer ring, an intermediate sealing ring, an upper sealing ring, an input shaft, a valve housing, steel balls, and an adjusting nut; wherein an outer ring bearing is disposed between the lower sealing ring and the intermediate sealing ring, or between the intermediate sealing ring and the upper sealing ring. The operational pressure of the power steering gear can be increased, thus allowing a higher pressure of the steering system to be selected in the configuration of the whole vehicle, so that a power steering gear with a relatively small volume can be selected, thereby making the configuration of the whole vehicle easier, and more compact.

Abstract: The improved bandwidth provisioning solution of the present invention enables the provision of bandwidth on demand by dynamically establishing and terminating one or more dynamic virtual circuits (SVCs) (137) to supplement a subscriber's default broadband connection. The improved bandwidth provisioning solution includes a client-side application (107) residing on the subscriber's data processing system (105) and a connection-management application (142) residing on a proxy signaling server (140). The client-side application (107) transmits a subscriber's request for a bandwidth-on-demand session to the connection-management application (142), which communicates with an asynchronous transfer mode (ATM) edge device (120) using User Network Interface (UNI) signaling to initiate the one or more VCs (137). When the subscriber no longer desires the additional bandwidth, the supplemental VCs (137) may be terminated.

Abstract: The improved bandwidth provisioning solution of the present invention enables the provision of bandwidth on demand by dynamically establishing and terminating one or more dynamic virtual circuits (SVCs) (137) to supplement a subscriber's default broadband connection. The improved bandwidth provisioning solution includes a client-side application (107) residing on the subscriber's data processing system (105) and a connection-management application (142) residing on a proxy signaling server (140). The client-side application (107) transmits a subscriber's request for a bandwidth-on-demand session to the connection-management application (142), which communicates with an asynchronous transfer mode (ATM) edge device (120) using User Network Interface (UNI) signaling to initiate the one or more VCs (137). When the subscriber no longer desires the additional bandwidth, the supplemental VCs (137) may be terminated.