11 results about "Snail shell" patented technology

The invention belongs to the technical field of anti-impact protection. According to the snail shell imitating square tube improved anti-impact energy absorption structure and the application, the structural monomers or the structural modular array can be used for dynamic load protection. Under the action of an axial compression load, the structure realizes a multi-layer and progressive collapse path, and has low initial peak crushing force and staged and approximately linear increasing force-displacement response characteristics. According to the bionic structure, the energy absorption efficiency of the rectangular pipe is effectively improved under the condition that the mass and the manufacturing complexity are not increased, and the bionic structure is suitable for vehicle anti-collision systems, rail transit buffer devices and other anti-impact protection fields.

The present invention relates to a process for preparation of dual functional materials (DFMs) that exhibit both catalytic activity and CO2 sorption capacity, specifically designed for blue H2 production via sorption-enhanced steam methane reforming. Process for preparation of dual functional materials (DFMs) consisting the CO2 sorbent, calcium oxide (CaO) derived from biowaste resources, including snail shells, seashells, or eggshells, while nickel (Ni), derived from nickel nitrate hexahydrate, serves as the catalyst. The dual functional materials (DFMs) are prepared by combining the catalyst and sorbent through various methods, including wet mixing (WM), wet impregnation (WI), and the sol-gel (SG) method. Comparative studies demonstrated that the combined sorbent-catalyst composition (CSCC) synthesized through WI exhibits superior performance in terms of both CH4 conversion and H2 purity compared to those derived through WM and SG methods.

The application discloses a high-strength and high-toughness fiber reinforced composite material based on biological structure combined bionics and a preparation method thereof, and comprises a component main body which is a cross-layer structure of bionic snail shell; the component main body comprises an outer layer, a middle layer and an inner layer which are sequentially arranged; the fiber laying mode of the outer layer imitates the brick clay structure of a nacre layer; the fiber laying mode of the middle layer imitates the cross-layer structure of the snail shell; and the fiber laying mode of the inner layer imitates the spiral structure of a mantis shrimp chela rod. According to the force state difference of different positions in the stress process of the fiber reinforced composite material, the excellent natural structures such as shells, snail shells and mantis shrimp chela rods are combined and bionized, so that the mechanical properties of the fiber reinforced composite material are effectively improved, and the regional design is customized to endow the fiber reinforced composite material with the ability of adapting to complex and severe environments.

A submerged pump with an anti-reverse function comprises a vertical long-shaft submerged pump composed of a motor, a bearing chamber, a pump shaft, a barrel, an impeller and a snail shell, the upper portion of the barrel is connected with the bearing chamber, the lower portion of the barrel is connected with the snail shell, the pump shaft is located in the barrel, the lower portion of the pump shaft is connected with the impeller, and a positioning sleeve is fixedly connected to the outer circle of the pump shaft through a bolt. A permanent magnet ring is embedded in the outer circle of the positioning sleeve, the barrel is connected with a gland through a bolt at the permanent magnet ring, the gland extends into the barrel and is close to the permanent magnet ring, the gland is provided with a magnet exciting coil at the outer side of the permanent magnet ring, the magnet exciting coil is connected with a wire A and a wire B, the wire B is connected with an alarm, and the wire A is connected with a resistor. When the pump shaft rotates reversely, current generated by the magnet exciting coil drives the alarm to give an alarm, an operator is prompted to reconnect a power line, and the shell prevents the submerged pump from rotating reversely.

1. The name of the design product: silicone mold (snail shell plate). 2. The use of the design product: silicone mold for making plate by dropping glue. 3. The design points of the design product: in shape. 4. The picture or photo that best shows the design points: perspective view 1. 5. Other changes in the state of the case need to be explained: the use of the design in the state of the reference figure 1-3 is the model made by the mold.

This invention belongs to the field of oil-water emulsification and crude oil transportation technology, and specifically relates to a biomimetic snail shell spiral static mixer for oil-water emulsification. It includes an oil-water mixing pipe body, with an inlet straight pipe and an outlet straight pipe respectively connected to both ends of the body. The end of the inlet straight pipe is the oil-water mixing pipe inlet, and an emulsion inlet is provided on the outside of the inlet straight pipe. The end of the outlet straight pipe is the oil-water mixing pipe outlet. The inner cavity of the inlet straight pipe also has a starfish-inspired turbulence structure. By introducing biomimetic turbulence elements in the inlet region, strong swirling flow and primary shearing can be generated before the fluid enters the spiral flow channel, promoting more complete contact and breakup of the oil and water phases. Combined with the natural swirling characteristics of the snail shell flow channel, it can further improve oil-water mixing efficiency and emulsification effect, reduce energy consumption, and adapt to the needs of complex crude oil transportation and recovery conditions.

The invention discloses intelligent shell breaking and snail meat taking equipment and method, and relates to the field of snail meat processing. Comprising a material distributing base, a crushing box is arranged at the upper end of the material distributing base, the lower end of the crushing box is located in the material distributing base and provided with a discharging net cylinder, a material distributing structure is arranged at one end of the discharging net cylinder, a rotating gear ring is rotated, and the rotating gear ring drives a plurality of rotating screws to rotate synchronously through a plurality of rotating gears; under the action of a threaded hole, a movable frame moves upwards or downwards along a rotating screw rod, the movable frame drives the positions of a rotating shaft, a crushing roller and a first drive to be adjusted, the distance between the crushing roller and a grinding block is adjusted to the distance suitable for crushing the snails, the snails of different sizes and types are conveniently crushed, and the situation that the extrusion force is small, and the crushing efficiency is high is avoided. The crushing force is insufficient to thoroughly crush the snail shells, so that snail shell fragments are large, snail meat still adheres to the snail shells, and meat and shell separation is seriously affected.

The application discloses a continuous shell crushing device for snails, which comprises a main frame (1), a shell crushing mechanism (2) arranged on the main frame (1), and a screening mechanism (3) arranged on the side of the main frame (1), wherein the discharge end of the screening mechanism (3) faces the feeding port of the shell crushing mechanism (2). The shell crushing mechanism (2) comprises a shell crushing main box (8) provided with a partition plate (11) and a pair of crushing rollers (10) arranged in the shell crushing main box (8), and the partition plate (11) divides the area between the two crushing rollers (10) into two crushing stations for respectively processing snails of different volumes screened by the screening mechanism (3). The application realizes the full crushing and mixing of snail shells and snail meat by using the classification cooperation of the screening mechanism and the shell crushing mechanism and the secondary processing of the reciprocating cutting mechanism.

1. The name of the design product: silicone mold (snail shell plate storage). 2. The use of the design product: silicone mold for making plate storage box with glue dripping. 3. The design points of the design product: in shape. 4. The picture or photo that best indicates the design points: perspective view 1. 5. Other circumstances that need to be explained: the use state of the design in the design is shown in figures 1-3, which is the model manufactured by the mold.

The present application relates to a conch-like bioactive scaffold and a preparation method and application thereof. The conch-like bioactive scaffold has a spiral structure feature; the whole scaffold comprises a middle support, a peripheral wall containing a through-hole structure, and a spiral-shaped node and a spiral-shaped cavity integrally formed between the middle support and the peripheral wall.

The invention belongs to the technical field of oil-water emulsification and crude oil transportation, and particularly relates to a bionic snail shell spiral static mixer for oil-water emulsification. The oil-water mixing pipe comprises an oil-water mixing pipe body, an inlet straight pipe and an outlet straight pipe are installed at the two ends of the oil-water mixing pipe body in a butt joint mode respectively, the end of the inlet straight pipe is an oil-water mixing pipe inlet, an emulsion inlet is formed in the outer portion of the inlet straight pipe, and the end of the outlet straight pipe is an oil-water mixing pipe outlet. A starfish-imitating turbulent flow structure is further installed in an inner cavity of the inlet straight pipe, a bionic turbulent flow element is introduced into an inlet area, strong rotational flow and primary shearing can be generated before fluid enters a spiral flow channel, and an oil phase and a water phase are made to make more sufficient contact and be broken. In combination with the natural rotational flow characteristic of the snail shell flow channel, the oil-water mixing efficiency and the emulsification effect can be further improved, the energy consumption is reduced, and the requirements of complex crude oil conveying and recovery working conditions are met.