315results about How to "Uniform conduction" patented technology

The present invention relates to the preparing technology of composite rubber material. Carbon nanotube via surface treatment and liquid rubber are ultrasonically mixed and added into partial hydrogenated nitrile-butadiene rubber to prepare mother rubber; the mother rubber is mixed with the rest hydrogenated nitrile-butadiene rubber, carbon black, zinc oxide and sulfurizing agent, and the mixture is mixed in a rolling mixer or a Banbury mixer and sulfurized to obtain the carbon nanotube modified hydrogenated nitrile-butadiene rubber. The present invention has the beneficial effects of raised heat performance, antiwear performance, mechanical strength, antiageing performance, etc. raised use performance and expanded application range.

The invention includes fabrics that have been dyed or finished with a dye that contains a conductive mixture of conductive organic materials, inorganic materials, metals, metal oxides, carbon and carbon nanotubes or combinations or mixtures thereof. The dye is used to finish a fabric such that it is conductive. These fabrics are useful in shielding law enforcement personnel from energy weapons discharge and in providing an electrostatic medium for personnel that work with static sensitive products. The fabrics, when appropriately grounded, dissipate the emitted charge and transmit it to ground. Additionally, the apparel has high wear resistance and is both thermally and electrically conductive yet is comfortable to wear.

The invention relates to a silica gel based carbon material oriented heat conduction interface material. The material comprises components in percentage by weight as follows: 9.5%-20% of siloxane-based resin with the viscosity being 200 cp-2,000 cp, 19.5%-35% of heat conductive filler, 35%-70% of an anisotropic carbon material and 1%-10% of an auxiliary agent and is prepared with a stirring and curing production method. The silica gel based carbon material oriented heat conduction interface material has the advantages as follows: according to the heat conductive interface material prepared by mixing the siloxane-based resin with the viscosity being 200 cp-2,000 cp, the heat conductive filler, the anisotropic carbon material and the auxiliary agent, the anisotropic carbon material mixed in gel is orientated through electric fields on upper and lower surfaces, longitudinal orientation of the carbon material is realized, the conduction path of the heat conductive material is in the direction where the large heat conduction coefficient is large, and the heat conduction performance is realized to the maximum; with the addition of the heat conductive filler, the defect that the heat conduction performance of the carbon material in direction, perpendicular to the orientation direction, of the carbon material, namely, in the horizontal direction of mixed gel, is poor after the anisotropic carbon material is orientated is overcome, balanced conduction of heat is guaranteed, and a production method is simple.

The invention relates to a lithium ion battery graphene conductive agent and a preparation method thereof. The graphene conductive agent comprises the following components by mass: 25-30 parts of graphene, 10-15 parts of polyethylene glycol, 5-10 parts of monoethanolamine, 100-160 parts of a solvent, 1-5 parts of a rare earth element, and 0.5-1 part of titanium carbide. According to the invention, the graphene conductive agent utilizes the excellent conductivity of graphene to enhance the capacity of an electrode material, reduce the battery internal resistance, and improve the battery cycle life. The dosage of the graphene conductive agent only accounts for 50-60% of that of existing conductive agents during preparation of a lithium ion battery, the binder dosage is reduced by 18%, and the 2C multiplying power is improved by 6-10%, the cost is saved, and the lithium ion battery can be more competitive.

The invention discloses a method for producing one impregnating two calcining anode carbon blocks, which is on the basis of producing common anode carbon blocks and comprises following steps: selectively using calcined coke, adding a little antioxidant additive, preheating a common anode under the temperature of 280-330DEG C for 18-24 hours, then, hoisting in a high pressure impregnation tank, filling impregnating pitch whose temperature is 160-180DEG C under the vacuum pressure of 0.09-0.094MPa, pressurizing 1.55-1.6MPa, maintaining the pressure for 3-5 hours, hoisting out and cooling to normal temperature, then, calcining for 200-220 hours under the temperature condition that the maximum temperature is 800-900DEG C according to a heating curve, cooling, and then cleaning up to obtain a new one impregnating two calcining anode carbon block. Since the pitch is filled in an air vent of the anode, the mechanicalness and the physical and chemical properties of the anode carbon blocks are newly changed, the bulk density and the compressive strength are increased, the porosity is lowered, the resistivity is lowered, the activity of the binder coke and the activity of aggregate tend to be consistent, the speed of selective oxidation is lowered, the voltage drop of the anode carbon blocks is lowered, and the using period of the anode is prolonged.

A touch panel includes a first electrode plate, a second electrode plate, and a continuous transparent insulating layer. The first electrode plate includes a first conductive layer. The second electrode plate includes a second conductive layer opposite to and spaced from the first conductive layer. The continuous transparent insulating layer is located between the first conductive layer and the second conductive layer. At least one of first conductive layer and the second conductive layer includes a carbon nanotube structure.

A resin composition comprises a polyphenylene sulfide resin and a nylon resin having a χ-parameter of less than 1.3 at 25° C., and has one glass transition temperature, and an image-forming apparatus comprises

a latent-image supporting member, and

an intermediate transfer member that supports a toner image transferred thereon from the latent-image supporting member, transfers the supported toner image onto an image receiving material,

the intermediate transfer member comprising a polyphenylene sulfide resin and a nylon resin having a χ-parameter of less than 1.3 at 25° C., and has one glass transition temperature

The invention relates to a compound-type metal roof thermal-insulation waterproof coating and a preparing method thereof. The compound-type metal roof thermal-insulation waterproof coating is composed of a surface layer coating and a base layer coating. The surface layer coating is prepared from water, dispersing agents, antifoaming agents, pigment, hollow glass beads, inorganic-thixotropy thickening agents, inorganic filler, silicone-modification acrylic emulsion, acrylic emulsion, film forming assistants, pH value regulation agents, thickening agents and antifreeze agents; the base layer coating is prepared from water, dispersing agents, antifoaming agents, pigment, heat-conducting functional filler, inorganic-thixotropy thickening agents, inorganic filler, acrylic emulsion, pH value regulation agents, thickening agents and antifreeze agents. Compared with the prior art, the problems that bonding of a present waterproof material and a metal base material is not firm, aging is prone to occurrence and the service life is limited are solved, and the compound-type metal roof thermal-insulation waterproof coating has the advantage of integrating water proofing, protection, rust protection and thermal insulation.

A heating device and a temperature control device are provided. The heating device includes a heating element, and a heat conducting film disposed on the surface of the heating element, wherein the heat conducting film has a surface area that is larger than the contact area between the heat conducting film and the heating element. The heat conducting film is used for uniformly conducting heat generated by the heating element. Therefore, the existing non-uniform heating and slow heat dissipation problems for the heating element having a large surface area can be solved. Furthermore, because the metallic heat conducting film has good heat conduction, the heat can be quickly spread over a larger area to prevent localized overheating and damage to the heating element itself or the electrical product.

The invention, which relates to the electronic material field, discloses a flexible heat-radiation film and a method for manufacturing the same. The heat-radiation film comprises a carrier film, a protection film layer, and at least one heat radiation layer group arranged between the carrier film and the protection film layer. The heat radiation layer group includes a heat-radiation adhesive film layer for horizontal heat transferring and a heat-radiation metal film layer at least being superposed on one surface of the heat-radiation adhesive film layer ad being used for longitudinal heat transferring, so that the heat radiation layer group having bidirectional heat transferring is formed. The heat-radiation adhesive film layer is made from raw materials including magnetic high-thermal-conductivity powder and resin. For the heat-radiation metal film layer, a material source is processed by a physical means to form atoms or molecules and then the atoms or molecules are deposited on the surface of the heat-radiation adhesive film layer. According to the heat-radiation film, the operation becomes simple; and the formed film layers are light, thin and compact. The flexible heat-radiation film can be applied to various electronic products and communication equipment.

The invention provides a temperature control disc. The temperature control disc is mainly used for solving the technical problem of thin film failure due to relatively low heat exchange efficiency and yield of the existing semiconductor coating equipment and not-uniform wafer temperature. The temperature control disc mainly comprises three parts, namely an upper heating disc body, a lower heating disc body and a heating disc base. The parts are connected by virtue of welding. The temperatures of the heating disc and the wafer are controlled by use of a medium and a heat conducting gas; each part has a different structure, so that medium channels and heat conducting gas channels of the heating disc can be formed, and furthermore, the temperature of the heating disc can be controlled; the temperature control disc is cooled and heated by use of a medium; and due to the circulation of the medium, the temperature of the heating disc is controlled; the medium channels are distributed inside the heating disc. The temperature control disc is reasonable in structure; the heat conducting gas inlet structure of the temperature control disc is capable of fully charging the heat conducting gas between the heating disc and the wafer quickly and evenly so that the temperature of the heating disc can be transferred to the wafer quickly and evenly or the temperature of the wafer can be quickly transferred to the heating disc for dissipation. The temperature control disc can be widely applied to the technical field of semiconductor thin-film deposition.

The invention discloses a semiconductor packaging structure which comprises a substrate, at least one chip, a packaging colloid and a grapheme layer. The grapheme layer is arranged on the packaging colloid or arranged on the surface e of the chip. By means of the grapheme layer, the semiconductor packaging structure has high planarity heat-conductivity coefficient, facilities lateral heat conductivity, increases even conduction of heat and heat exchange area, and further improves the heat conducting-out efficiency of the chip.

The invention discloses a method for making a training garment applying EMS. The method is characterized by including following steps: 1), making a semi-finished training garment, namely (1), cutting fabric; (2), fixing close-fitting electrodes; (3), fixing elastic electroconductive wires; (4), tightening a waist; (5), arranging an electric generator connecting member; 2), making a finished training garment, namely folding each of the left side and the right side of an obtained garment piece by half, sewing joints on the inner sides of legs and part of a joint of a back of the garment piece after being folded by half, arranging zippers at the rest part of the joint of the back to form a garment body, sewing lower sleeve pieces at positions, corresponding to upper arms, of the garment body to form sleeves, and enabling an EMS electric generator outside to attract the electric connecting member to form the training garment applying EMS.