8results about How to "Good shaping effect" patented technology

This utility model discloses a copper needle machine with a shaping structure for processing eyeglass temples, including an operating table, a heating box, and a machine body disposed on the operating table. It further includes a shaping mechanism disposed on the machine body; a mounting base is provided on one side of the top outer wall of the operating table, a second cylinder is provided on the top outer wall of the mounting base, a push block is provided at the piston end of the second cylinder, and a push needle is provided on one side outer wall of the push block; a mounting platform is provided on the top outer wall of the operating table near the machine body, a placement platform is provided on the top outer wall of the mounting platform, a first placement groove is provided on the top outer wall of the placement platform, and guide plates are provided on both sides of the top outer wall of the placement platform. The copper needle machine with a shaping structure for processing eyeglass temples disclosed in this utility model has the advantages of simple and accurate placement of copper needles, tight insertion of copper needles into eyeglass temples, good shaping effect, and simple operation.

The present application relates to an optical sheet, and aims to solve the technical problem of poor smoothness and easy abrasion of the existing liquid crystal display glass.The optical sheet comprises a substrate layer, a concave-convex structure layer arranged on the surface of the substrate layer, and a functional layer arranged on the surface of the concave-convex structure layer away from the substrate layer, wherein the functional layer comprises nano-silver ions, polyvinyl chloride and silicon dioxide.The optical sheet of the present application comprises a concave-convex structure layer, which makes the optical sheet have good smoothness, and the concave-convex structure layer makes the optical sheet have improved abrasion resistance, and the nano-silver ions in the functional layer provide antiviral function, the polyvinyl chloride provides antibacterial function, and the silicon dioxide further improves the abrasion resistance of the functional layer.

This application discloses an air conditioner cleaning nozzle, belonging to the field of cleaning technology. The air conditioner cleaning nozzle includes a threaded head, one end of which is provided with a pipe mechanism. The pipe mechanism includes an extension hose fixedly connected to one end of the threaded head, and the threaded head is connected to the extension hose. Multiple connecting strips are fixedly connected to the outer wall of the extension hose, and each connecting strip has a through-groove. By installing fixing wires within the multiple connecting strips on the outer wall of the extension hose, the fixing wires possess excellent shaping ability, allowing them to bend freely according to the complex internal structure of the air conditioner, easily reaching narrow corners or curved pipes. This overcomes the limitations of traditional straight nozzles that cannot reach dead angles, ensuring that the cleaning agent covers all parts of the air conditioner's interior. Simultaneously, the fixing wires are also flexible, not easily springing back after bending, allowing the extension hose to stably maintain the required shape, avoiding incomplete cleaning due to hose displacement during the cleaning process, and improving cleaning efficiency and accuracy.

The application provides a self-adaptive parameter adjustment method and system of a shaping magnetic stimulation instrument, which comprises adjusting stimulation parameters of the magnetic stimulation instrument, collecting muscle strength values of a current user's target muscle group in real time, determining final stimulation parameters and muscle strength value change amplitudes in a first cycle; identifying a muscle type of the current user through the final stimulation parameters and the muscle strength value change amplitudes; determining a self-adaptive intensity adjustment strategy of the current user through the muscle type; and automatically adjusting stimulation parameters of a subsequent cycle of the user according to the final stimulation parameters and the muscle strength values and the self-adaptive intensity adjustment strategy. The application introduces objective indexes, so that the shaping process is visualized, and thus is safer and more reliable, each shaping cycle reaches a peak contraction most suitable for the current user, so that the shaping effect is improved, therapist resources are saved, and labor costs are reduced.

This utility model discloses a burn-proof flame-spraying device for glass tableware processing, relating to the field of glass tableware processing technology. It includes a base with a mounting frame at its top and a protective frame inside the mounting frame. The device uses the output of a first motor to move the protective frame upwards, allowing for the shaping of softened material. Simultaneously, the rotating threaded rod drives a gear ring, which in turn rotates a cooling hood at the bottom. Activating the cooling hood cools the formed glass tableware during processing. The rotating cooling hood also facilitates rapid cooling of the softened material, providing good shaping results during the shaping process. Once the protective frame stops rising, the fixed cooling hood rapidly cools the shaped glass tableware, achieving excellent cooling performance.

This application relates to the field of material spheroidization processing technology, and provides a spheroidization device. The spheroidization device is used to prepare fine-particle-size spheroidized material with a median particle size D50 of 4.0-10 μm. The spheroidization device includes a shell with a cavity, inside which are a grading component and a shaping component. The grading component separates the tail powder from the spheroidized material; the tail powder is discharged from the cavity, and the spheroidized material falls back to the shaping component. The shaping component includes a toothed ring and a rotatable grinding disc structure with a gap between them. The rising airflow at the gap transports the tail powder and spheroidized material to the grading component. The grinding disc structure includes a grinding disc and a first grinding block located at its upper edge. The first grinding block has an arc surface on its windward side, extending radially along the grinding disc, with the rotation axis of the arc surface parallel to the extension direction of the first grinding block. This arc surface allows the material particles to undergo rolling grinding upon impact, prolonging the contact time and enhancing the positive pressure airflow to partially counteract the rising airflow, allowing the material to remain stably in the shaping area and improving the ability of fine particles to be spheroidized.

The hollow spiral incense stick with a long burning time described in this utility model is characterized by comprising a hollow spiral incense stick body extending downwards in a spiral shape, a base connected to the lower end of the hollow spiral incense stick body, and an insert rod, the upper end of which extends into the base and the lower end of which extends out of the base. This utility model eliminates the need for breaking the incense sticks apart during use, reducing unnecessary waste of mosquito coils. It also boasts a long burning time, is safe to use, and the hollow structure effectively reduces drying time and the amount of bamboo sticks used, significantly lowering production costs.

This application relates to the field of polymer material molding and processing technology, specifically disclosing a method for preparing a petal cup with a flower core bottom structure. The raw materials used include high-amylose corn starch, polycaprolactone diol, glycerol-water azeotropic mixture, food-grade montmorillonite nanosheets, citric acid, choline chloride, and sodium hypophosphite. These components synergistically constitute a raw material system suitable for biomimetic structural molding. The preparation method is as follows: first, humidity gradient gel particles are prepared; then, they are vibrated and sheared to fill the thin-walled area of ​​the petals; subsequently, gradient temperature and pressure curing under a temperature difference between the male and female molds allows for selective cross-linking and shaping of the petals; next, controlled-speed pressure release under a CO2 atmosphere eliminates internal stress and shapes a naturally curled form; finally, the mold is opened and cured to obtain the finished product. This petal cup can be used in high-end food packaging, home decoration, and art ware scenarios. The finished petals have complete shapes and clear textures, and the flower core bottom structure is dense and stable, possessing both good mechanical properties and biomimetic aesthetic effects.