Patents
Literature
Patsnap Copilot is an intelligent assistant for R&D personnel, combined with Patent DNA, to facilitate innovative research.
Patsnap Copilot

176 results about "Microbeam" patented technology

A microbeam is a narrow beam of radiation, of micrometer or sub-micrometer dimensions. Together with integrated imaging techniques, microbeams allow precisely defined quantities of damage to be introduced at precisely defined locations. Thus, the microbeam is a tool for investigators to study intra- and inter-cellular mechanisms of damage signal transduction.

Microbeam tungsten argon arc welding method for magnesium alloy thin-walled tube

The invention relates to a microbeam tungsten argon arc welding method for a magnesium alloy thin-walled tube. A low-magnesium aluminum alloy welding wire is used as a filling material, and the thin-walled tube is welded by a microbeam tungsten argon arc welding process under inert gas shielding. The low-magnesium aluminum alloy welding wire comprise 9.5%-11.6% of Al (aluminum), 0.6%-1.75% of Zn (zinc), 0.15%-0.35% of Mn (manganese), 0.01%-0.05% of Cu (copper), 0.02%-0.05% of Si (silicon) and the balance Mg (magnesium) in mass percent. The microbeam tungsten argon arc welding method for the magnesium alloy thin-walled tube is high in welding efficiency and convenient and flexible in application, and can be used for obtaining a crack-free welding joint without magnesium-aluminum brittle compounds. Compared with a conventional tungsten argon arc welding method, the microbeam tungsten argon arc welding method has the advantages that arc stability of microbeam argon arc welding for the magnesium alloy thin-walled tube is obviously improved, the tensile strength of the welding joint is 30% higher than that of a conventional tungsten argon arc welding joint, the elongation of the welding joint is increased by 10%, and the use requirements of industrial production on magnesium alloy thin-walled tube welding component can be met.
Owner:SHANDONG UNIV

Laser and microbeam plasma composite 3D (3-dimensional) printing equipment and method

The invention discloses a laser and microbeam plasma composite 3D (3-dimensional) printing equipment and method. The equipment comprises a central control system, a sealing forming chamber, a laser forming device and a plasma processing device, wherein a laser forming spray head and a plasma gun are correspondingly put on a support frame arranged at the left and right side inner walls of the sealing forming chamber, and the laser forming spray head or the plasma gun is clamped through a co-work numerical control main shaft, so that the laser forming spray head or the plasma gun moves in the Z, X and Y directions in the sealing forming chamber. The central control system controls the co-work numerical control main shaft for conveying back the laser forming spray head back to the support frame, then, the co-work numerical control main shaft clamps the plasma gun for filling the inside of the profile of a formed metal part, and the work is alternately carried out in such a way until the part manufacturing is completed, so that the scanning time is reduced to a great degree. The laser fast forming is combined with the plasma, the problem of conflict between the efficiency and the precision of a metal 3D printing technology is solved, and in addition, the plasma is adopted for replacing the laser to be used as a heat source, so that the high-efficiency and low-cost industrial level metal 3D printing equipment is obtained.
Owner:SOUTH CHINA UNIV OF TECH

Portable microbeam X-ray fluorescence spectrophotometer

The invention discloses a portable microbeam X-ray fluorescence spectrophotometer, comprising a main frame, wherein an X-ray light tube and an X-ray detector are arranged on the main frame; a detected sample is arranged within a detection beam range of the X-ray light tube; the X-ray detector is arranged right above the detected sample; the fluorescence spectrophotometer also comprises an X-ray combined refractor which is used for selectively collecting an X-ray fluorescent light generated by a detected sample micro-cell; the X-ray combined refractor is connected with the lower end of the X-ray detector; the X-ray detector is arranged inside an image space of the X-ray combined refractor; the detected sample is arranged inside an object space of the X-ray combined refractor; the upper end of the X-ray detector is connected with a port for connecting an information collection system; a laser device is also arranged on the main frame; the detected sample is arranged within an irradiation range of the laser device. By adopting the portable microbeam X-ray fluorescence spectrophotometer, the structure is simplified and the size is reduced while the microcell resolution ratio is smaller than 10 microns; the portable microbeam X-ray fluorescence spectrophotometer is convenient to carry.
Owner:ZHEJIANG UNIV OF TECH

Electron beam fast-forming equipment with on-line monitoring function and operation method thereof

InactiveCN106180718AOvercoming the disadvantage of susceptibility to contaminationAdditive manufacturing apparatusIncreasing energy efficiencySecondary electronsTransmitter
The invention discloses electron beam fast-forming equipment with an on-line monitoring function and an operation method thereof. The electron beam fast-forming equipment comprises a central control unit, an electronic gun power source, a deflector/scanner power source, a workbench power source, an electronic gun, a work room, a powder-filling box, a workbench, a secondary electron collector and a secondary electron transmitter. The secondary electron collector receives secondary electron information generated in the microbeam scanning process of electron beams. The secondary electron transmitter is used for shaping and amplifying of the secondary electron information and then feeding the information into the central control unit. The central control unit can analyze and process synchronously-recorded secondary electronic signals and judge whether flaws exist in a manufacturing layer. According to the electron beam fast-forming equipment with the on-line monitoring function and the operation method thereof, secondary reflection electronic signals are used for performing on-line quality monitoring on the element manufacturing process of the electron beam fast-forming equipment, and hence the defect that pollution is likely to occur by the adoption of optical monitoring means is overcome.
Owner:GUILIN THD TECH CO LTD

Total-rock component testing method based on in-situ electronic probe analysis

The invention discloses a total-rock component testing method based on in-situ electronic probe analysis. The total-rock component testing method comprises the steps of jet-plating a manufactured rock X-ray plate or a thin X-ray plate with a carbon conductive film, putting a jet-plated sample into an electronic probe sample chamber for analysis, shooting a back scattering electronic image under the condition of a magnification factor of 450-550, performing precision quantitative analysis on different minerals in the image through an electronic probe wavelength dispersive spectrometer, and counting the area percentages of the different minerals in the shot back scattering image by adopting a grid method; calculating a result which is the content of a total-rock element of the rock sample by performing a weighing average operation on an element content average value of different analysis points of the same mineral and the area percentages of the minerals. The method disclosed by the invention has the advantages of no destroy to the sample, in-situ microbeam analysis, high analysis precision, easiness in sample preparation, zero pollution and the like, and has an extremely good application prospect in the analysis of aerolite, gem-jade and precious rare rock samples.
Owner:GUILIN UNIVERSITY OF TECHNOLOGY

Additive and subtractive composite 3D printing equipment and method for plasma multi-axis numerical control machine tool

The invention discloses additive and subtractive composite 3D printing equipment and method for plasma and multi-axis numerical control machine tool. The additive and subtractive composite 3D printing equipment comprises a central control system, a sealed forming chamber, a five-axis five-linkage numerical control machining device, a microbeam plasma gun, a cooling machine, a powder storage tank, a vertical mill milling machining device and a protective gas bottle. The vertical mill milling machining device is arranged in a III region inside the sealed forming chamber and used for cutting a layered profile of a workpiece and protrusions on the surface of the forming face. The five-axis five-linkage numerical control machining device is arranged in a II region inside the sealed forming chamber and used for changing the workpiece and machining any forming face. The microbeam plasma gun is arranged in an I region inside the sealed forming chamber for manufacturing additive. The central control system is connected with a five-axis five-linkage numerical control machining platform, the powder storage tank, the cooling machine, the microbeam plasma gun, the vertical mill milling machining device and a facing cutter. According to the additive and subtractive composite 3D printing equipment and method, after multiple layers are machined through microbeam plasma arc, the microbeam plasma arc machining is converted into milling, the protrusions on the surface of the workpiece are cut precisely at a high speed, and the internal surface quality of the workpiece is improved.
Owner:SOUTH CHINA UNIV OF TECH
Who we serve
  • R&D Engineer
  • R&D Manager
  • IP Professional
Why Eureka
  • Industry Leading Data Capabilities
  • Powerful AI technology
  • Patent DNA Extraction
Social media
Try Eureka
PatSnap group products