10results about How to "Improves wall thickness uniformity" patented technology

This utility model discloses a mold temperature measurement system for a fully automated capsule production line, belonging to the field of pharmaceutical capsule manufacturing technology. It includes an infrared temperature sensor, a PLC controller, and a touchscreen. The infrared temperature sensor is mounted on the mold pushing track before the glue-dipping station via a sensor bracket, with the sensor probe corresponding to the capsule mold after it has reached its position. The PLC controller is connected to the infrared temperature sensor to receive analog temperature signals and convert them into digital temperature values. The touchscreen is communicatively connected to the PLC controller, displaying the current temperature value in real time and storing historical temperature data. The PLC controller is configured to trigger a single temperature sampling after the capsule mold pushing action is completed. This utility model can automatically monitor, store, alarm, and analyze the temperature data of the capsule mold, improving capsule processing quality and reducing waste.

The present application relates to the technical fields of intelligent manufacturing and automation control, and discloses a kind of intelligent regulation and control methods for the wall thickness of crucible spin pressing in piezoelectric single crystal growth, comprising: collecting data in the process of spin pressing, and obtaining stable acquisition sequence by preprocessing;Stable acquisition sequence is fused by adaptive weighted fusion and Kalman filtering, and the fused wall thickness is obtained by fusing the laser thickness value and the wall thickness value and compensation value respectively mapped by the spin pressing force, torque and eccentricity;Calculate the comprehensive deviation vector of wall thickness deviation, local wall thickness thinning rate, eccentricity deviation and roundness error;Based on the comprehensive deviation vector and the wall thickness deviation, the fuzzy adaptive PID output correction value and the hierarchical threshold comparison are executed in parallel to generate pass jump and trajectory reconstruction instructions, and the closed-loop cooperative control is formed by issuing the numerical control spin pressing system;After each pass is completed, the wall thickness distribution is obtained by fusion and solution, and the deviation is determined to add compensation pass or trajectory reconstruction, and iteration is carried out until the requirements are met.The present application realizes the online intelligent closed-loop regulation and control of the wall thickness of crucible spin pressing.

The application discloses an electrolytic machining device, an electrolytic machining method and an aero-engine, and is applied to auxiliary electrolytic machining of a machine case on an electrolytic machining equipment. The electrolytic machining device comprises a positioning plate, a fixing piece, a sealing assembly, a machining cavity provided on one side of the sealing assembly and communicated to a sealing cavity, and a cathode. The sealing cavity is used for accommodating a machine tool rotating shaft, the positioning plate and the machine case. The cathode is provided with a sealing structure used for cooperating with the sealing assembly when a preset machining gap is left between the cathode and the machine case after the cathode is moved to a preset machining position. The sealing assembly is further provided with a liquid outlet structure used for leading electrolyte in the machining gap out. An isolation piece is used for being covered on a large end of the machine case and being sealingly connected with an inner wall of the large end of the sealing cavity. The electrolyte flow field in the closed structure has high controllability and high stability. The electrolyte uniformly flows through the machining gap and ensures that the electrolyte is full in the machining gap, so that the lack of electrolyte is avoided, and the machining precision is greatly improved.

According to the blowing mold and the blowing needle, a material storage cavity is formed in the blowing mold and used for storing additional plastic blanks, and the blowing needle is matched with the material storage cavity to scrape the plastic blanks in the material storage cavity in the moving process and accurately guide the plastic blanks to a bottle opening forming area, so that sufficient material supply at a bottle opening is ensured; therefore, the completeness and the wall thickness uniformity of bottle opening forming are obviously improved. The utility model does not need to greatly reform the existing blow molding equipment, can be easily integrated into the existing production line only by additionally arranging the material storage cavity and the port structure in the mold, has the characteristics of low implementation cost and strong compatibility, enhances the sealing performance and the service life of the product due to the improvement of the bottle opening forming quality, and is suitable for large-scale production. And the production rejection rate is obviously reduced, and the overall production efficiency and economic benefits are improved.

The application discloses a kind of perforation deformation compensation formula steel pipe rolling mill and use method, belong to seamless steel tube production equipment technical field.It includes rolling mill frame, ejector rod and about ejector rod symmetrical installation can be vertically direction lifting motion lifting plate A and lifting plate B;Lifting plate A inside is sequentially rotatably installed with the upper roll A, upper roll B and upper roll C perpendicular to the ejector rod;Lifting plate B inside is sequentially rotatably installed with lower roll A, lower roll B and lower roll C;The radius of rolling circle C formed by upper roll C and lower roll C is greater than the radius of rolling circle B formed by upper roll B and lower roll B, and less than the radius of rolling circle A formed by upper roll A and lower roll A.The application is a kind of steel pipe rolling mill with reasonable structure, high stability head perforation centricity, realize the perforation and rolling of pipe blank by means of perforation deformation compensation principle, to significantly improve the uniformity of hollow steel tube wall thickness.

The utility model discloses an impact hydraulic bulging device for a composite pipe, relates to the technical field of hydraulic bulging of metal pipes, and aims to solve the problems that when the composite pipe is transversely placed on a lower die and two ends of an inner pipe are clamped and plugged for hydraulic bulging in the prior art, the inner pipe is not positioned in the center of an outer pipe; and the problem that the wall thickness is not uniform during hydraulic expansion of the inner pipe is solved. A conical inner pipe positioning piece is connected to the middle of the supporting table, first hydraulic rods are fixedly connected to the lower ends of the middles of the two sides of the C-shaped supporting frame, the telescopic ends of the two first hydraulic rods extend to the inner side of the C-shaped supporting frame and are fixedly connected with side clamping molds, and a lower pressing plate is connected to the upper end of the inner side of the C-shaped supporting frame; by arranging the conical inner pipe positioning piece and the supporting table which are vertically placed, the inner pipe is automatically centered and positioned before bulging, the problem of eccentricity of the inner pipe caused by traditional transverse placement is solved, and therefore the wall thickness uniformity of the composite pipe after bulging is improved.

This invention discloses a plastic bottle blow molding system and method, relating to the field of plastic packaging molding technology. The system includes a zoned precision preheating mechanism, a multi-stage air-blowing stretch blow molding mechanism, an internal and external composite cooling mechanism, and a PLC control mechanism, arranged sequentially along the preform processing direction. The method includes preform conveying, zoned precision preheating, multi-stage air-blowing stretch blow molding, internal and external composite cooling, and demolding. This invention improves the preform temperature control accuracy to within ±1℃ and reduces wall thickness deviation to within ±0.05mm through independent cooling at the bottle mouth, 5-segment axial zone heating, and PID closed-loop temperature control. The precise synchronous coordination of three independent air paths with the stretch rod movement solves molding defects such as wrinkles and pitting. Synchronous cooling through a double-spiral reverse cooling channel outside the mold and a through-type cooling channel inside the stretch rod shortens the molding cycle from 3-4 seconds to 2-2.5 seconds.

The application discloses a kind of semi-solid extrusion forming thin-walled component device and method, it is related to metal processing technical field, the device of semi-solid extrusion forming thin-walled component disclosed in the application includes preprocessing unit, extrusion unit and heat treatment unit, preprocessing unit includes first gradient heating temperature control device and preprocessing mould, extrusion unit includes second gradient heating temperature control device and extrusion mould, heat treatment unit includes third gradient heating temperature control device and heat treatment carrier, the method of semi-solid extrusion forming thin-walled component disclosed in the application includes obtaining cylindrical semi-solid blank, preheating, spraying lubricant, remelting heating, extruding thin-walled component and heat treatment;Semi-solid extrusion forming thin-walled component device and method disclosed in the application reduce the extrusion force requirement, with good forming effect.

The application provides a manufacturing method of a hemi-aluminum spherical shell, which comprises the following steps: firstly, a hemi-core shaft ball is obtained through super-precision turning, so as to ensure the size precision and roughness of the outer spherical surface; secondly, a special fixture is manufactured through precise turning, milling and super-precision turning; then, the hemi-core shaft ball is assembled on the conical surface of the special fixture through negative pressure adsorption and adhesive fixation; the hemi-aluminum spherical shell is obtained through super-precision turning; and finally, the inner and outer stoppers are processed and assembled to form a complete spherical shell to load specific substances. The manufacturing method of the hemi-aluminum spherical shell can obtain a high-precision hemi-aluminum spherical shell, which has better size precision consistency and higher wall thickness uniformity than the hemi-aluminum spherical shell manufactured by using a traditional mold, and the wall thickness uniformity of the hemi-aluminum spherical shell is better than 3 mu m, so that the yield can be improved and the cost can be reduced.

This application discloses a battery device and an electrical device. The battery device includes: a housing; multiple battery cells, each having a casing and an electrical connection portion. In a first direction, the electrical connection portion is located on one side of the casing, and the multiple battery cells are electrically connected via electrical connectors. The housing has a first cavity wall opposite to the electrical connectors. A support structure is at least partially located between the casing and the first cavity wall, with a minimum distance between the support structure and the first cavity wall that is less than the minimum distance between the electrical connectors and the first cavity wall. At least one support structure is a first support structure and includes a first support portion and a second support portion connected together. The first support portion is located between two adjacent electrical connectors, and the second support portion is located between the casing and the electrical connectors. In the above technical solution, the support structure can transmit and disperse the external impact force borne by the first cavity wall. The first support structure can support the electrical connectors and increase the mating area with the casing, effectively reducing the risk of damage to the electrical connection structure.