7results about How to "Shape adjustable" patented technology

The utility model discloses a bending machine for automobile plate processing, which comprises a machine shell, a fixing plate arranged at the top of the machine shell and used for placing a workpiece to be bent, and an overturning plate rotationally arranged on the side of the machine shell and used for bending the workpiece to be bent, and further comprises a bending adjusting mechanism and a conveying mechanism, the bending adjusting mechanism is arranged on the top of the machine shell and located above the fixing plate. The bending adjusting mechanism comprises a mounting part, a rotating part and an overturning abutting part. The pair of mounting parts are respectively arranged at the top of the shell in a sliding manner; the rotating part is rotationally arranged between the pair of mounting parts; according to the device, the problem that the bending angle and shape can be adjusted only by disassembling and replacing components is solved, and the effect that the angle and shape of the bending position of a bent workpiece can be adjusted without disassembling and replacing the overturning abutting part is achieved.

The invention is suitable for the field of gas sensor detection, and provides a mixed potential type ammonia gas sensor and a preparation method thereof. The mixed potential type ammonia gas sensor comprises a layered nickel silicate sensitive electrode, a reference electrode and a solid electrolyte, the layered nickel silicate sensitive electrode and the reference electrode are positioned on the surface of the solid electrolyte; the layered nickel silicate sensitive electrode is prepared from three kinds of layered nickel silicate electrode slurry with different morphologies. According to the invention, the layered nickel silicate is used as the sensitive electrode, so that the response value to ammonia gas is obviously improved at room temperature; compared with an existing most advanced mixed potential type ammonia gas sensor, the high-temperature mixed potential type ammonia gas sensor has the advantage that the low-concentration response to ammonia gas can be remarkably improved at room temperature compared with other high-temperature mixed potential type ammonia gas sensors.

This invention discloses a method for generating crystal image samples based on a diffusion model, comprising: generating a standard comparison image based on a reaction flask photograph; obtaining crystal identification features based on the shape and color of the crystal; detecting the presence of the crystal by using the crystal identification features and the standard comparison image; and generating a crystal image based on the crystal presence result. The crystal image generation is performed using a diffusion model. This invention, through an AI method based on a diffusion model, can generate crystal growth images under different conditions within seconds, without requiring long waiting times for experimental results or physical experiments. It can generate high-quality crystal growth samples, suitable for materials research and educational visualization. The shape, color, transparency, and other parameters of the crystal can be adjusted to match experimental data of specific chemical systems. It utilizes AI to generate large-scale, high-quality crystal growth image datasets, assisting the application of deep learning in materials science.

The invention belongs to the field of material chemistry, and discloses a nitrogen-doped zinc-based adsorbent, a preparation method of the nitrogen-doped zinc-based adsorbent and application of the nitrogen-doped zinc-based adsorbent in radioactive cesium removal, and the preparation method of the nitrogen-doped zinc-based adsorbent comprises the following steps: step 1, preparing a ZIF-8 precursor with a dodecahedron structure; step 2, preparation of HNZOR or HNZSS: dispersing the ZIF-8 precursor obtained in the step 1 in a solvent, carrying out a low-temperature hydrothermal reaction at 150-200 DEG C, collecting a product after the reaction is completed, washing and carrying out vacuum drying to obtain HNZOR; the preparation method comprises the following steps: dispersing HNZOR in water, carrying out secondary low-temperature hydrothermal reaction in an ammonium hydroxide environment at 120-180 DEG C, collecting a product after the reaction is completed, washing and carrying out vacuum drying to obtain HNZSS; and 3, activating the HNZOR or HNZOR obtained in the step 2 by using potassium salt containing K < + >, and after activation is completed, washing and drying to obtain the nitrogen-doped zinc-based adsorbent. The adsorbent disclosed by the invention can be widely applied to removal and enrichment of Cs < + > in nuclear power plant wastewater, accident emergency water bodies and high-salt complex waste liquid.

The application discloses a synthesis method of rare earth borate nanoparticles, which comprises the following steps: heating a boron precursor in a nitrogen atmosphere, then rapidly injecting a rare earth metal precursor, rapidly heating to 280-310 DEG C and maintaining for a period of time to form uniform rare earth borate nanoparticles; wherein the rare earth metal precursor is an organic solution containing rare earth acetate hydrate and oleic acid; and the boron precursor is an organic solution containing tributyl borate. The application firstly innovatively improves the synthesis method of rare earth borate nanoparticles, prepares regular morphology and uniform size neodymium borate nanoparticles, and after optical performance characterization, it is shown that the neodymium borate nanoparticles have the potential for BNCT used for near-infrared two-zone imaging guidance. The preparation method can realize the size control of the neodymium borate nanoparticles by adjusting the proportion of the neodymium precursor and the boron precursor, and is suitable for the preparation of various rare earth borate nanoparticles, and the method has universality.

This application discloses a method for encapsulating organic solid-liquid phase change materials. The method includes the following steps: mixing phase change microcapsule powder, polymer, crosslinking agent, and water; reacting; washing with water; and drying to obtain the organic solid-liquid composite phase change material. This invention has low process requirements, does not use organic solvents, has minimal environmental pollution, and the prepared phase change profile has an adjustable shape, exhibiting characteristics such as no leakage, high heat storage density, and good stability, making it highly promising for applications in cold chain transportation and thermal management.