Abstract:
The present invention provides an extrudable, crosslinked, grease-like heat-radiating material which can find completely new ways of use (in terms of methods of operation and putting it in a service area), because it can be formed into any shape after it is extruded from the container in which it is held (e.g., syringe or tube) to be put or placed in a gap of any shape between a heat-generating body and heat-radiating body, where it keeps shape self-retainability even when kept under a very light load, e.g., kept on a slanted plate, unlike the conventional thermoconductive silicone rubber composition or thermoconductive silicone oil compound, whose applicable areas are limited to formed articles, represented by sheet, and coating. The present invention also provides a container filled with and sealing the extrudable, crosslinked, grease-like heat-radiating material, process for producing the container, and method of heat radiation using the container. More specifically, the present invention provides the extrudable, crosslinked, grease-like heat-radiating material comprising a crosslinked silicone gel (A) dispersed with a thermoconductive filler (B) and shape self-retainable in spite of being fluid, wherein the thermoconductive filler (B) is incorporated at 5 to 500 parts by weight per 100 parts by weight of the crosslinked silicone gel (A); container filled with and sealing the extrudable, crosslinked, grease-like heat-radiating material; process for producing the container; and method of heat radiation using the container put or placed in a gap between a heat-generating body and heat-releasing body.
Abstract:
A coating material (20) comprising a mixture of a thermosetting resin, polytetrafluoroethylene, a member of the polyolefin group consisting of polyethylene, a copolymer of polyethylene and polypropylene, and a combination of polyethylene and a copolymer of polyethylene and polypropylene, in a solvent, wherein said solvent being volatile and having the property of dissolving said resin, is produced and applied to a metal substrate (12).
Abstract:
PROBLEM TO BE SOLVED: To provide a metal processing process giving excellent lubrication, wherein no seizure is caused, cleaning is easy, high speed processing is possible and the removal of residues is not required. SOLUTION: The metal processing process comprises conducting the lubrication of a metal during the processing using a fluorinated inert liquid selected from the group consisting of an aliphatic perfluorocarbon of a general formula of C n F 2n+2 , perfluoromorpholine of a general formula of C n F 2n+1 ON, a perfluorocycloalkane, perfluoroamine, a highly fluorinated amine, a perflluoroether and a highly fluorinated ether. COPYRIGHT: (C)2007,JPO&INPIT
Abstract translation:要解决的问题:为了提供提供优异润滑的金属加工工艺,其中不会发生卡死,清洗容易,可以进行高速加工,并且不需要去除残留物。 解决方案:金属加工工艺包括在加工期间使用选自以下的氟化惰性液体进行金属的润滑:氟化惰性液体,其由通式为C n SB> F 2n + 2 SB>,通式为C N B> 2n + 1 SB> ON的全氟吗啉,全氟环烷烃,全氟胺,高度氟化的胺,全氟醚和 高度氟化的醚。 版权所有(C)2007,JPO&INPIT
Abstract:
PROBLEM TO BE SOLVED: To provide a lubricant for electrophotography by which the amount of toner passing through a cleaning blade and remaining in a photoreceptor is reduced so as to be less than the conventional one regardless of the condition of the formed image even by using the toner formed into a spherical shape. SOLUTION: The lubricant for the electrophotography to be coated on a latent image carrier to which the toner having ≥0.94 spherical degree is fed, is obtained by adding an inorganic additive satisfying the relation of 2Y/1,000≤X≤Y/10 [wherein, Y is a particle diameter (μm) of the toner; and X is a particle diameter (μm) of the inorganic additive] thereto. COPYRIGHT: (C)2005,JPO&NCIPI
Abstract:
A medical device for use in surgery made of a metal having a first hard coating layer applied to the metal, a second PTFE coating layer applied to the hard coating, and a third soap based lubricant coating layer applied to the PTFE layer.
Abstract:
An improved oil composition is disclosed. The oil composition includes a base oil comprising a hydrocarbon, the base oil having a base thermal conductivity. The oil composition also includes a first additive comprising a plurality of derivatized first additive nanoparticles dispersed within the base oil to form a modified oil having a modified thermal conductivity, wherein the modified thermal conductivity is greater than the base thermal conductivity. Alternately, an improved oil composition includes a base oil comprising a hydrocarbon and a first additive comprising a plurality of derivatized first additive nanoparticles dispersed within the base oil to form a modified oil comprising a stabilized suspension of the derivatized first additive nanoparticles in the base oil.
Abstract:
An improved oil composition is disclosed. The oil composition includes a base oil comprising a hydrocarbon, the base oil having a base thermal conductivity. The oil composition also includes a first additive comprising a plurality of derivatized first additive nanoparticles dispersed within the base oil to form a modified oil having a modified thermal conductivity, wherein the modified thermal conductivity is greater than the base thermal conductivity. Alternately, an improved oil composition includes a base oil comprising a hydrocarbon and a first additive comprising a plurality of derivatized first additive nanoparticles dispersed within the base oil to form a modified oil comprising a stabilized suspension of the derivatized first additive nanoparticles in the base oil.