7 results about "Radiation power density" patented technology

The invention belongs to the technical field of electromagnetic radiation detection, and discloses a multi-dimensional scanning detection system for visualizing electromagnetic radiation distribution of an axial generator, which is characterized in that a detection probe module performs multi-angle synchronous sampling through a high-precision radiation probe array; a precision linear guide rail and a servo motor of the mechanical scanning module drive a probe to move in a three-dimensional space of X, Y and Z according to a preset step pitch; the data acquisition and high-speed transmission module is used for transmitting multi-channel time sequence data to the data processing and analysis module in real time, calculating radiation power density through parameter calibration, noise suppression, feature extraction and a spatial interpolation algorithm and reconstructing three-dimensional field distribution; and the visualization module presents the result in a volume rendering, contour surface and section animation mode. The system is accurate and reliable, errors are obviously reduced through optimization and calibration, and the system can be used for research and development verification, radiation safety evaluation and structure optimization design, has the characteristics of rapid deployment and modular expansion, and is adaptive to generator equipment of multiple models and the like.

The invention discloses a radiation drying device based on a drying target absorption spectrum and a design method thereof. The device comprises a radiation source, a box body and a power supply, the radiation source is used for generating radiation, the box body comprises a back plate, side plates and a support, and the side plates are provided with air guide holes; the support is used for fixing the radiation source. The power supply is used for supplying power to the radiation sources and controlling on-off of the single radiation source. The design method comprises the following steps: selecting a proper radiation source according to an absorption spectrum of a drying target; calculating the required radiation source power and quantity according to the required radiation power density, the required radiation area and the reflectivity of the existing reflecting plate; designing a box body according to the radiation area and the side length of the radiation target surface; a radiation source arrangement mode is designed, and the radiation intensity is changed by controlling on-off of radiation sources through a power supply. According to the invention, accurate drying of a drying target and radiation distribution with the uniformity greater than 90% and the radiation power density greater than 20W / cm < 2 > under a large-size target can be realized, the energy consumption is reduced, and the drying efficiency is improved.

This invention discloses a radiation drying device based on the absorption spectrum of a drying target. The device includes a radiation source, a housing, and a power supply. The radiation source generates radiation. The housing includes a back plate, side plates, and a support; the side plates have air vents. The support secures the radiation source. The power supply powers the radiation source and controls the switching of individual radiation sources. The design method involves: selecting a suitable radiation source based on the absorption spectrum of the drying target; calculating the required radiation source power and quantity based on the required radiation power density, radiation area, and reflectivity of existing reflectors; designing the housing based on the radiation area and the side length of the radiation target surface; designing the radiation source arrangement; and controlling the switching of the radiation sources via the power supply to change the radiation intensity. This invention enables precise drying of targets and achieves a uniformity greater than 90% and a radiation power density greater than 20 W / cm² for large targets. 2 The radiation distribution is improved, energy consumption is reduced, and drying efficiency is increased.

The invention relates to a device for optimizing the photothermal radiation power density of a photothermal radiation heating source module, which is characterized in that one or more or one or more layers of films which take a reflecting film as a main body are fully or locally coated on the surface part of a preferentially selected element of a photothermal radiation source module with high accumulation density according to conditions; the photo-thermal radiation power density absorbed by a photo-thermal radiation source module with high accumulation density constructed by a plurality of electro-thermal radiation assemblies is greatly reduced, so that a heat dissipation cooling system of the photo-thermal radiation source module is greatly simplified, and the power loss required for maintaining the normal operation of the photo-thermal radiation source module is greatly reduced. Therefore, the device and the design for improving the overall radiation power density capability are achieved, and the application range of the device and the design which can be applied to heating procedures with wider and higher power density requirements and higher temperature and / or faster temperature rise and fall is greatly expanded.

In a method for producing a microstructured component which has a substrate (140) and at least one microstructured functional layer system (130) applied to the substrate, a workpiece is provided which has the substrate, a functional layer system applied to the substrate, and a cover layer system (110) applied to the functional layer system. Laser radiation is radiated through the cover layer system from a side facing away from the substrate onto a buffer layer (112), adjoining the cover layer, of the functional layer system in such a way that the laser radiation weakens or destroys a connection between the buffer layer and the cover layer system within at least one locally delimited target area in a boundary region between the buffer layer and the cover layer system. As a result, material of the cover layer system (110) is removed in the target area in order to expose the buffer layer (112) in the target area. The boundary region is irradiated by means of direct laser interference patterning (DLIP) by virtue of a laser beam emitted by a primary laser radiation source being split into at least two partial beams (TS1, TS2) and the partial beams being guided such that at least two mutually coherent partial beams pass through the cover layer system and a spatial intensity pattern is produced in a superimposition region (IVOL) of the coherent laser beams, said spatial intensity pattern having radiation microzones (MZ) with constructive interference and relatively high laser radiation power density adjacent to regions of destructive interference and low laser radiation power density in relation to the radiation microzones, wherein damaged microzones arranged with lateral spacings are produced in the boundary region by the laser radiation in the radiation microzones.

The invention discloses electronic equipment and a yagi antenna array thereof. A yagi antenna array of the electronic equipment comprises a plurality of yagi antenna units, the plurality of yagi antenna units are arranged in a plurality of rows and columns so as to form a plurality of yagi antenna rows and a plurality of yagi antenna columns, and each yagi antenna row comprises a plurality of yagi antenna units arranged along a first direction. Each yagi antenna column comprises a plurality of yagi antenna units arranged along a second direction, and the first direction is perpendicular to the second direction. The yagi antenna array of the electronic equipment has the advantages of being large in radiation power density, high in gain and the like, and the communication quality of the electronic equipment and a satellite can be effectively improved.

The embodiment of the invention provides an infrared rammed earth processing method and device. The infrared rammed earth processing method specifically comprises the steps that target soil parameters are obtained and input into a frequency spectrum mapping data table to obtain an infrared emission frequency spectrum distribution ratio; the target soil parameters comprise target soil parameters; infrared rammed earth data are obtained through the infrared emission spectrum distribution ratio and the target soil parameters; the infrared rammed earth data comprises a ratio of a main radiation source to an auxiliary radiation source, an included angle degree and radiation power density; obtaining a ratio of a main radiation source to an auxiliary radiation source through an infrared emission spectrum distribution ratio; determining an included angle between the main radiation source and the auxiliary radiation source according to the clay content; and determining the radiation power density according to the clay content and the infrared emission spectrum distribution ratio. According to the invention, the infrared band distribution ratio can be automatically adjusted along with parameter changes. According to the method, the thermal field uniformity is remarkably improved through infrared rammed earth data, namely, composite wave band and angle optimization and in combination with the dynamically calculated radiation power density.