50results about How to "Shorten the propagation path" patented technology

A touch-sensitive apparatus is configured to define a touch surface on a panel by propagating diverging energy beams (e.g. of radiation) across the touch surface inside the panel. Two rows (20A, 20B) of components (2, 3) of a first type that emits energy as a diverging beam and a second type that detects energy are functionally connected to the panel at opposite ends of the touch surface. The rows (20A, 20B) are defined by consecutive component blocks (B) that each contain only components (2, 3) of one type and are defined by type and number of included components. Each row (20A, 20B) comprises a respective sequence (S) of two component blocks (B) of different types and is defined by systematically repeating the sequence (S) along the respective opposite end. To achieve an improved spatial resolution of the touch-sensitive apparatus for a given number of components, at least one of the sequences (S) is selected to consist of two component blocks (B) with different number of components, and the sequences (S) are selected such that at least one component block (B) differs between the sequences (S).

The invention provides a micropapilla detection system based on YOLOv5. The micropapilla detection system comprises a lung adenocarcinoma pathological image acquisition module, a detection model training module and a micropapilla detection module; a feature extraction module in the detection model training module adds a layer of feature extraction on the basis of a BottleneckCSP network structure to obtain a shallow feature map, so that the multiple of downsampling of the feature extraction module is reduced by half; the feature fusion module is used for down-sampling the shallow feature map and splicing the shallow feature map with the deep feature map, so that the features of the shallow feature map and the deep feature map are fused, and the small target detection capability of the network is enhanced; and the prediction module replaces the GIoU loss with the CIoU loss, optimizes the prediction frame, improves the regression speed and precision of the prediction frame, and is more suitable for the detection of micronipples.

The invention relates to a portable fully-integrated DNA on-site inspection minitype total-analysis system detection light path. The portable fully-integrated DNA on-site inspection minitype total-analysis system detection light path is characterized by comprising an exciting light focusing system, a micro-fluidic electrophoresis chip, a fluorescence collecting, focusing and conducting system as well as a fluorescence splitting and detection system. The portable fully-integrated DNA on-site inspection minitype total-analysis system detection light path can divide wide-wavelength fluorescence into a plurality of colored tapes; and besides, a focusing mirror in a wavelength division multiplexer can focus fluorescence beams into micron-order light spots, and is suitable for a low-noise detector and a detector with high noise caused by large sensitive surface. The portable fully-integrated DNA on-site inspection minitype total-analysis system detection light path has a light path structurewhich is provided with a plurality of fluorescence channels, is high in flux and high in flexibility and is simple in process adjustment and low in cost, realizes modular independence, is simple in process adjustment, high in stability and high in extensible degree of electrophoresis channels and fluorescence channels, and can be widely applied in the fields of DNA detection, on-site detection, capillary electrophoresis detection and the like.

The invention discloses a method for realizing multi-point real touch on a surface acoustic wave touch screen. The method comprises the following steps that (1), a group of transmitting transducer arrays or receiving transducer arrays are at least arranged on the X axis or the Y axis; (2), a transmitting circuit drives transmitting transducers to transmit a surface acoustic wave signal, and a receiving circuit controls receiving transducers to receive the surface acoustic wave signal; (3), when a touch body touches the surface acoustic wave touch screen, the surface acoustic wave signal reaches the receiving transducers after being reflected by the touch body; when the surface acoustic wave signal intensity is greater than a set threshold value, the receiving circuit sends the surface acoustic wave signal to an MCU (microprocessor control unit), and the MCU determines the coordinates of the touch body. By the method, the multi-point real touch response of two or more points is realized, ghost points are eliminated fundamentally, and moreover, the touch response of unlimited points in a touch area can be really realized by the conventional process.

The invention provides a timing task monitoring method, device and system, an apparatus and a storage medium, wherein the method comprises the steps of obtaining the configuration information of a timing task from a distributed task scheduling system; and triggering the corresponding detection task according to the configuration information of the timing task so as to execute the step of monitoring whether the timing task is triggered on time or not according to the difference between the triggering time of the detection task and the triggering time of a distributed task scheduling system fortriggering the timing task. According to the method, monitoring can be carried out at the source of the timing task triggering, the propagation path of the problem is shortened, the problem positioning speed can be increased, and the problem processing efficiency can be improved. Moreover, by carrying out centralized monitoring on the distributed task scheduling system, each service team does notneed to check the timing tasks to find abnormity, so that the labor cost can be reduced, and the subjective errors caused by the manpower are avoided.

The invention relates to a digital watermarking processing method for a BMP (bitmap) image, which belongs to the technical field of computer application. The method comprises the following steps of: firstly, building three folders in an SD card; next, automatically loading programs cured in an Flash memory by the digital watermarking processing system for BMP image after startup, and transmitting image data to a digital watermarking processing module for processing through an SDRAM (Synchronous Dynamic Random Access Memory) controller and a data bus; then, caching the BMP image data with watermarking information to an SDRAM memory through the data bus and the SDRAM controller; finally, writing the image data to the SD card in an SD card interface through the SDRAM controller, the data bus and the SD card controller, storing the BMP image embedded with the watermarking information, after storing, lighting up an LED indication lamp and finishing processing. The method is fast for processing speed, small in volume, simple, portable and convenient to timely execute copyright protection on the obtained original image information.

The invention discloses a fluorescent wheel fixing structure and a laser projection device, relates to the technical field of display, and can reduce the size of a fluorescent wheel, reduce the cost,reduce the noise and improve the user experience on the premise of ensuring the normal heat dissipation of the fluorescent wheel. The structure comprises a housing, an inner cavity of the housing is used for containing a fluorescent wheel, the fluorescent wheel comprises a wheel piece and a motor, the output end of the motor is fixed to the wheel piece, a motor heat dissipation plate is closely fixed to the side, away from the output end, of an outer shell of the motor, and the motor heat dissipation plate and the inner wall of the inner cavity are fixed in an attached mode so that the fluorescent wheel and the shell can be fixed. The structure is used for manufacturing the laser projection device.

The invention relates to the technical field of biological safety protection technologies and equipment, in particular to a vehicle-mounted extensible mobile biological safety laboratory which comprises a loading vehicle, a fixed compartment is connected to the upper portion of the loading vehicle, an extensible compartment is arranged on the right side of the fixed compartment, and the interior of the fixed compartment comprises a laboratory working area. The laboratory working area comprises a reagent storage and preparation area, a specimen preparation area is arranged on one side of the reagent storage and preparation area, an amplification area is arranged on the other side of the specimen preparation area, maintenance access doors are formed in the left side and the rear wall of the reagent storage and preparation area, and an exhaust equipment room is arranged behind the laboratory working area. The laboratory is novel in layout and reasonable in partition, the equipment modules with different functions are relatively independent, the space of the compartment is fully utilized, the unfolding operation area is large, the applicability of the laboratory is improved, and the operation efficiency of operators is improved.

The invention relates to a physical trapper which comprises a light-emitting lamp, a housing and a solar device. The solar device comprises a solar panel and a storage battery. The electric quantity output end of the solar panel is connected with the storage battery. The housing comprises a waterproof cover and a transparent fence. The waterproof cover is installed at the upper end of the fence. The solar panel is installed on the waterproof cover. The light-emitting lamp is installed on the waterproof cover and penetrates into the fence. The light-emitting lamp comprises a light-emitting body and a second electrode fixedly connected with the light-emitting body. The second electrode comprises two or more metal springs. The metal springs are respectively arranged at intervals. The storage battery comprises a battery body and a first electrode fixed to the battery body, the portion penetrated by the first electrode is inserted in the gap between the metal springs in the state that the first electrode is in contact with the second electrode and is in contact with at least one metal spring. The physical trapper is small in electric energy loss during working, and the light-emitting time of the light-emitting lamp is long.

The embodiment of the invention provides a light conversion element, which comprises a prism. The prism is provided with a light incident surface and a light emergent surface. When light enters the prism from the light incident surface, the light is emergent from the light emergent surface after at least one reflection, and the light emergent surface is provided with an accommodating groove for accommodating at least part of an image sensor. The accommodating groove is formed in the light emitting surface, so that the image sensor of the lens assembly can partially extend into the accommodating groove, the mounting space below the display screen is saved, the propagation path of light from the display screen opening to the image sensor is saved, and the light loss is reduced. Meanwhile, due to the fact that the hole in the display screen only needs to guarantee the light inlet amount, the hole does not need to be too large, and the size of the hole in the display screen can be reduced.Meanwhile, the embodiment of the invention also provides a lens assembly and an electronic device.

The invention discloses a car body device of a rail car. The car body device comprises a car body (3) and a car body chassis (2), wherein the car body (3) is connected with the car body chassis (2) in a welding manner. According to the car body device, the weight of the car body device of the rail car is effectively reduced. The invention also discloses the rail car including the car body device.

The invention discloses an array substrate and a preparation method thereof, and a display device, wherein the array substrate is used for reducing grain recognition light propagation paths and improving grain recognition accuracy and efficiency. The array substrate comprises: a substrate body; a display area and a peripheral area, wherein the display area comprises a first thin film transistor onthe substrate, a first connecting lead wore electrically connected with the first thin film transistor on the substrate, a packaging layer located on the first thin film transistor, a photosensitivedevice located on the packaging layer, and a second connecting lead wire located on the packaging layer and electrically connected with the photosensitive device, the first connecting lead wire, the second connecting lead wire and the packaging layer all extend to the peripheral area, the peripheral area comprises a retaining wall positioned between the first connecting lead wire and the packaginglayer, the packaging layer covers the retaining wall, the packaging layer is provided with a first via hole exposing the first connecting lead wire on the side, deviating from the first thin film transistor, of the retaining wall, and the second connecting lead wire is electrically connected with the first connecting lead wire through the first via hole.

An arrangement method of photovoltaic cell gate lines is characterized in that multiple gates lines are all arranged on a semiconductor substrate of a photovoltaic cell and in tight Ohm connection with the semiconductor substrate; the gate lines are in tight Ohm connection with one another in the intersection positions; the gate lines include thick transverse gates, thin transverse gates and radiation gates; the thin transverse gates are arranged in parallel, the distance between every two adjacent thin transverse gates is 3 mm to 5 mm, and the thin transverse gates are spread all over the semiconductor substrate of the photovoltaic cell; the thick transverse gates are arranged on one side of the semiconductor substrate and parallel with the thin transverse gates; the middles of the thick transverse gates are connected with a negative electrode; the radiation gates and the transverse gates intersect, and the radiation gates are not parallel with one another and have the trend to converging to the electrode; in the plane where the semiconductor substrate is located, the extension lines of all the radiation lines converge at one point, the point is located in the perpendicular bisector of the thick transverse gates, and the distance from the point to the thick transverse gates is half of the length of the thick transverse gates.

The invention provides a waveguide rotary joint. The waveguide rotary joint comprises a first flange, a first rectangular waveguide, an annular waveguide, a second rectangular waveguide and a second flange, wherein the first rectangular waveguide and the second rectangular waveguide are arranged perpendicular to one another, the first flange is mounted at one end of the first rectangular waveguide, the height of the annular waveguide is not smaller than the height of the first rectangular waveguide, the other end of the first rectangular waveguide is connected with the peripheral surface of the annular waveguide, the second flange is mounted at one end of the second rectangular waveguide, the other end of the second rectangular waveguide is connected with the end surface of the annular waveguide, and the second rectangular waveguide and the annular waveguide are coaxially arranged. According to the invention, the waveguide rotary joint can shorten the transmission path of electromagnetic waves in a waveguide channel.

The invention discloses an inverted light emitting diode with an embedded scattering layer, the inverted light emitting diode comprises a sapphire substrate, and a u-GaN layer, an n-type doped nitridematerial layer, a heavily doped n-type doped nitride material layer, a light emitting layer and a p-type doped nitride material layer are sequentially grown on the sapphire substrate. A transparent conductive layer is deposited on the p-type doped nitride material layer; a three-dimensional n-type through hole array directly reaching the p-type doped nitride material layer is etched on the transparent conductive layer, the p-type doped nitride material layer, the light emitting layer and the heavily doped n-type doped nitride material layer; an air gap structure communicated with the three-dimensional n-type through hole array is etched on the heavily doped n-type doped nitride material layer; bottom reflecting layers are deposited on the transparent conductive layer and in the three-dimensional n-type through hole array, and electrodes are arranged on the bottom reflecting layers. An air gap structure array is formed on the sapphire substrate to form an embedded light scattering layer, so that photons are scattered, the escape probability of the photons is increased, and the light emitting efficiency of the LED is improved.

The mud compensation device in the ultrasonic imaging logging instrument is applied to the ultrasonic imaging logging instrument, and is a mud compensation device with mud compensation function. The feature is: it consists of a connecting section, a cone transition section and a sound-transmitting window, the connecting section, the cone transition section and the sound-transmitting window are integrated as a whole, made of polytetrafluoroethylene, and the wall thickness is between 3-8mm. The connecting sections at both ends are cylindrical, with an outer diameter between 80-110mm, and the ends of the connecting sections are provided with internal threads. The sound-transmitting window is in the middle of the two connecting sections. The sound-transmitting window is a protruding cylinder with an outer diameter of 150-300mm and a height of 70-90mm. There is a cone transition section between the connection section and the sound-transmission window, and the inclination angle of the hypotenuse of the cone transition section is between 10-20 degrees. The effect is: the distance from the mud compensation device to the well wall is shortened, the propagation path of the sound wave in the mud is reduced, and the propagation attenuation of the sound wave in the mud is reduced; and the risk of sticking of the instrument in drilling can be reduced.

The invention discloses a resource allocation method for an embedded edge computing platform, and aims to provide a simple, reliable and quickly deployable distributed computing resource allocation method for the embedded edge computing platform. According to the technical scheme, the method comprises the steps that a Json file serves as a carrier, the Json file is arranged according to a data propagation path and node calculation operation in a calculation graph, and calculation operation programs needing to be additionally supplemented are packaged into a compressed file together; then, a calculation task (namely, a Json file package) is injected into the embedded edge calculation platform, a Json file is automatically analyzed, a calculation graph is recovered, the requirements of calculation and communication resources are decomposed according to the calculation graph, and a mapping graph is formed; and finally, the mapping graph is used to complete the deployment from the calculation demand to the hardware resources; and if the mapping is not successful, the decomposition mode of the calculation graph is adjusted according to the reason of failure feedback to form a new mapping graph, and then mapping is performed again.