4results about How to "Uniform heating" patented technology

This invention provides an in-situ solid-state battery and its preparation method, comprising a battery cell and an in-situ solidified electrolyte precursor injected into the battery cell. The in-situ solidified electrolyte precursor is formulated according to the following mass percentages: 1-30 wt.% polymeric monomer, 0.1-1 wt.% initiator, 10-20 wt.% lithium salt, 0.1-10 wt.% redox shuttle, and the balance being an organic solvent. This invention utilizes the redox shuttle to react within the battery, converting electrical energy into heat, thereby uniformly heating the battery interior and solidifying the gel electrolyte in situ. This method provides more uniform heating and a more uniform polymerization effect, resulting in a more uniform and stable battery interface and higher cycle stability, thus producing a high-performance solid-state battery. Furthermore, this method is applicable to most polymeric monomers and achieves uniform heating within the battery without adding additional equipment.

The utility model discloses a kind of large-volume reaction kettle suitable for high-viscosity adhesive material, including kettle body, the kettle body bottom has the convergence portion of conical shape, the convergence portion gradually increases from below to above diameter;Outer wall heating pipe A, spiral is coiled on the outer surface of the convergence portion;Inner heating pipe, the inner heating pipe has at least three, at least three inner heating pipes ring described above are arranged on the convergence portion, the inner heating pipe is the helical structure of vertical extension, the diameter of tangent circle formed by the innermost point of at least three inner heating pipes is 2 / 5~3 / 5 of kettle body inner diameter. Through the above scheme, high-viscosity material can be uniformly heated without stirring in large-volume reaction kettle, overcome the problem that traditional reaction kettle needs stirring and manufacturing cost is high.

A transparent glass heating table, including a heating table top, vertical legs, a glass cover, a strip-shaped fixing plate, a strip-shaped magnetic block, an upper rectangular partition, a lower rectangular partition, a rotating cover plate, a food basin, and a movable baffle, the lower part of the heating table top is connected with the vertical legs, multiple vertical legs are distributed under the heating table top, the upper part of the heating table top is provided with multiple upper heating holes, the food basin is adapted to the upper heating hole, the food basin is inserted into the heating table top through the upper heating hole, the upper part of the food basin is provided with a food basin outer edge, the lower surface of the food basin outer edge is attached to the upper surface of the heating table top, the upper part of the food basin outer edge is connected with a food basin handle, a group of food basin handles are distributed on the upper part of the food basin outer edge, multiple food basins are uniformly distributed on the upper part of the heating table top, and the upper part of the heating table top is connected with the glass cover.

The utility model discloses a thickness cooling air device for overflow method substrate glass forming, the thickness cooling air device comprises two soaking box bodies and a cooling mechanism which are arranged at the bottom of an overflow brick, the soaking box bodies are located on the two sides of substrate glass respectively, and the cooling mechanism comprises a plurality of first cooling air pipes, a second cooling air pipe and a fixing assembly; the first cooling air pipe is arranged outside the soaking box body, and an air inlet of the first cooling air pipe is used for being communicated with cooling air; the second cooling air pipe penetrates through the soaking box body, an air outlet of the second cooling air pipe is close to the substrate glass, and the second cooling air pipe is made of a high-temperature-resistant material; and the first cooling air pipe and the second cooling air pipe are communicated through a fixing assembly. The problems that the thickness of the glass plate is repeatedly adjusted, the efficiency is low and the precision is poor due to the fact that the relative position between cooling air and the glass plate cannot be accurately adjusted due to the fact that a thickness air pipe is prone to deformation after long-term use can be solved.