Abstract: A method for preparing a high-performance silicon-carbon composite graphite material includes grinding and sieving a graphite material, a silicon material and a binder; the grinded and sieved graphite material, silicon material and binder being put into a high-speed mixer and mixed evenly, and then put into a mold and pressed into ingots; and using a heating treatment and carbonizing the ingots in an inert gas, cooling the ingots to room temperature, then the ingots being pulverized, grinded, mixed, sieved, and magnetic separation to obtain the high-performance silicon-carbon composite graphite material. The method improves the problem of large volume changes in silicon material during the charging and discharging process which usually results in materials powdered and structure collapse. The silicon material, the graphite material and the binder are easy to obtain, have micron grade particle sizes, are suitable produced by factory scale, and are conducive to commercialization.

Abstract: The invention is a manufacture of the anode material with similar soft carbon and an application thereof, which includes: using the isotropic coke to be heated through calcining; using the isotropic coke after calcining and heating, and then crushing the isotropic coke into particulate form, using the isotropic coke in particulate form and heating it under the heat treatment range of 2100 degrees Celsius to 2600 degrees Celsius to form the similar soft carbon; and using the similar soft carbon after mixing and sieving, the similar soft carbon is used the particle mean size 2 ?m to 15 ?m as the anode material.

Abstract: A secondary granulated silicon-carbon battery anode material and its preparation method is disclosed. The secondary granulated silicon-carbon battery anode material comprises a carbon substrate, a plurality of nano-silicon and a modified layer. According to the preparation method of the secondary granulated silicon-carbon battery anode material, the nano-silicon is embedded into the surface pores of the carbon substrate, and the modified layer is coated on them, so that the uniformity of the battery during size mixing and the liquid permeability of the anode material can be improved, and the effect of effectively improving the cycle performance and the stability of the battery can be further achieved.

Abstract: A tongue depression auxiliary device composed of a brace and a support member, the brace is detachably sleeved in an oral cavity, the support member is connected to the brace, and the support member extends from the brace toward a lower jaw to support a tongue and push the tongue. The tongue depression auxiliary device can be worn no matter when a user is awake or sleeping and is capable of achieving an efficacy of increasing lung capacity and stimulating and activating fascia, and capable of achieving an effect of relieving stress and relaxing breathing, and improving the phenomenon of insomnia or snoring.

Abstract: In an anode material of a lithium-ion secondary battery and its preparation method, a natural graphite, an artificial graphite or both are mixed to form a graphite powder, and the graphite powder is mixed with a resin of a high hard carbon content and processed by a mist spray drying process, and finally added or coated with a special resin material after a carburizing heat treatment takes place to prepare a graphite composite of the anode material of the lithium-ion secondary battery and achieve a smaller surface area of an anode graphite composite of the battery and extended cycle life and capacity.

Abstract: In an anode material of a lithium-ion secondary battery and its preparation method, a natural graphite, an artificial graphite or both are mixed to form a graphite powder, and the graphite powder is mixed with a resin of a high hard carbon content and processed by a mist spray drying process, and finally added or coated with a special resin material after a carburizing heat treatment takes place to prepare a graphite composite of the anode material of the lithium-ion secondary battery and achieve a smaller surface area of an anode graphite composite of the battery and extended cycle life and capacity.

Abstract: Disclosed is a process for producing silicon carbide. The process includes the steps of (1) mixing .beta.-resin extracted from coal-tar pitch with .alpha.-resin and silica gel; (2) after being dried, grinding the mixture to powder; (3) heating the powder in an atmosphere of nitrogen with a temperature in the range from 300.degree. C. to 480.degree. C. until mesophase is cultured; and (4) proceeding the heat treatment with a higher temperature in the range from 900.degree. C. to 1200.degree. C. for a period in the range from 2 to 7 hours. By the process, the production of silicon carbide can be carried out at low temperatures so that it is cost-effective in energy consumption.