37results about How to "Low processing environment requirements" patented technology

The invention discloses an electrolytic grinding cathode in the technical field of electrolytic grinding composite processing, a cathode processing method, an electrolytic grinding system containing the cathode and a use method, including a conductive layer, a flexible insulating layer, a metal deposition layer, a flexible strip, Group hole structure and artificial diamond particles, the surface of the conductive layer is electroplated with a metal deposition layer, and the metal deposition layer is provided with artificial diamond abrasive grains, and the flexible strip is installed on the contact wheel, tension wheel and guide wheel in turn, and tensioned , the workpiece clings to the synthetic diamond abrasive grains on the flexible plate, and maintains a certain grinding pressure. The workpiece is electrically connected to the positive pole of the power supply, and the contact wheel and the positive liquid spray device are electrically connected to the negative pole of the power supply, and the workpiece is sprayed to the workpiece processing area. The electrolyte is sprayed to drive the flexible strip to move in a certain speed in the circumferential direction; the invention sweeps the surface of the workpiece evenly through the flexible strip to perform electrolytic grinding. clever.

A micro-nano self-organized structure prepared on the surface of stainless steel and its preparation method. The surface of a single-sided polished stainless steel 316L sheet is polished to a mirror luster, and then placed in acetone, alcohol, and deionized water for ultrasonic cleaning, and a long-pulse fiber laser is used. The cleaned stainless steel 316L sheet is subjected to continuous pulse laser burst processing to generate micro-nano self-organized structures, and then pulsed laser continuous bursts are performed on the micro-nano self-organized structures to prepare large-area two-dimensional self-organized micro-nano structures on the surface of 316L stainless steel. The structure can prepare periodic self-organized micro-nanostructures. This method is easy to operate and has low requirements on the processing environment. According to the processing parameters, periodic micro-nanostructures can be prepared on the surface of 316L stainless steel quickly, at low cost, and in a large area.

This invention discloses a layered Ti-Ni shape memory composite material and its preparation method, which belongs to the technical field of preparation of functional composite materials; pure titanium and pure nickel are the initial raw materials, and the titanium plate and nickel plate are subjected to surface pretreatment, accumulated Composite rolling, diffusion annealing, and controlled cooling are used to prepare a heterogeneous multi-layer structure shape memory composite material including a Ti layer as the outermost layer, a Ti-Ni layer wrapped in the Ti layer, and a Ni layer. The shape memory composite material prepared by the method has the characteristics of high specific strength, good plastic toughness, high fatigue strength, strong interfacial bonding, excellent electrical conductivity, non-magnetic, non-toxic, high corrosion resistance, good biocompatibility and the like. The preparation method of the invention has the advantages of simple process and convenient operation.

The invention provides a method and system for preparing titanium dioxide exposed to a high-activity surface by using a femtosecond laser, and belongs to the technical field of femtosecond laser applications. In the invention, a solid titanium dioxide nanotube array film is prepared on the surface of a titanium sheet by an anodic oxidation method, and then the anatase titanium dioxide with an exposed {010} crystal plane is obtained by scanning a femtosecond laser line by line. Compared with the traditional method, the invention has the advantages of direct processing of solid titanium dioxide, low processing environment requirements, high energy utilization rate, fast speed and the like. The anatase titanium dioxide with exposed {010} crystal face prepared by the method and system of the present invention can be used for photocatalysis and solar cell preparation, which is beneficial to obtain high photocatalysis or photoelectric conversion efficiency.

Disclosed is a method for processing an aluminum alloy stopper. The method includes a vertical rib processing step and an outer thread processing step. The vertical rib processing step includes using a die sleeve to process a stopper blank, accordingly extruding a concave part and a convex part on the cylindrical outer side wall of the stopper blank, and obtaining the stopper blank with the concave part and the convex part. The outer thread processing step includes utilizing an executing component to contact with the cylindrical outer side wall of the stopper blank with the concave part and the convex part, starting a hydraulic lifting device and a rotary motor, forming a thread on the convex part accordingly, and obtaining the aluminum alloy stopper.

The invention relates to a solid tire filling device, which comprises a tire clamping tool, a tire rotator, a foam filler injecting mechanical arm system, a foam material generating system and a control system integrated in sequence, and the tire clamping tool includes a first base , a swing rod bracket assembly rotatably arranged on the first base, and a wheel shaft fixing claw assembly movably arranged on the swing rod bracket assembly, the tire rotator includes a second base, a The drive assembly and the friction wheel assembly are arranged on the second base. The foam filler injecting mechanical arm system includes a third base and a mechanical arm assembly movably arranged on the third base. Compared with the prior art, the invention realizes the environmental protection reuse of tires with air leakage but in good wear state or that have been used for a long time, which can meet the processing and production needs of families or street stores.

The invention provides a waveguide micro-nanometer machining system and method. The waveguide micro-nanometer machining system and method are low in machining cost, high in precision and good in consistency. The waveguide micro-nanometer machining system is characterized by, comprising, a light source portion, a machining portion, a multi-freedom-degree workbench, an optical platform, a blowing portion, a suction portion and a control portion, wherein the light source portion provides laser beams, the machining portion focuses the laser beams on a substrate for photolithography machining and monitors the machining process in real time, the machining portion is provided with a variable-focus lens, a three-dimensional morphology instrument, a camera and a temperature measuring instrument, the multi-freedom-degree workbench drives the substrate to move in multiple freedom degree directions according to a preset waveguide pattern, the optical platform is used for installation of the multi-freedom-degree workbench and isolates external vibration, the blowing portion is arranged on one side of the multi-freedom-degree workbench and conducts blowing towards a machining area, the suction portion is arranged on the other side of the multi-freedom-degree workbench and conducting suction and removal on the gas blown by the blowing portion, and the control portion is connected with the light source portion, the machining portion, the multi-freedom-degree workbench, the optical platform, the blowing portion and the suction portion and controls operation of the light source portion, the machining portion, the multi-freedom-degree workbench, the optical platform, the blowing portion and the suction portion.

The invention relates to an electroforming processing method for the microstructure of the outer surface of a cylindrical revolving body part, which belongs to the field of electroforming processing. The feature of this method is to make a flexible electroformed shielding film with a micro-pore structure; use mechanical extrusion to closely fit the cylindrical rotating body part and the flexible shielding film, use the part as the cathode for electroforming, and Micro-protruding structures are formed on the surface of the body; the electroformed shielding film can be made entirely of insulating materials, or it can be made of insulating materials plus a layer of metal materials (such as platinum, titanium, etc.) with electrochemical insoluble properties. By adopting the electroforming processing method of the present invention, the micro-protruding structure can be formed on the outer surface of the cylindrical revolving body part, and has the characteristics of high manufacturing precision, high speed and low cost.