Patent classifications
B05D1/185
MODIFICATION METHOD OF SURFACE OF BASE, COMPOSITION, AND POLYMER
A modification method of a surface of a base includes applying a composition on a surface layer of a base to form a coating film. The surface layer contains a metal atom. The coating is heated. The composition contains a polymer and a solvent. The polymer includes at an end of a main chain or at an end of a side chain thereof, a functional group that is at least one selected from: a group represented by the following formula (1); a group containing a carbon-carbon triple bond; and a group containing an aromatic hydroxy group. In the formula (1), R.sup.1 represents a hydrogen atom or a monovalent organic group having 1 to 20 carbon atoms; and n is an integer of 1 to 10, wherein in a case in which n is no less than 2, a plurality of R.sup.1s are identical or different.
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Method of forming a self-cleaning film system
A method of forming a self-cleaning film system includes depositing a photocatalytic material onto a substrate to form a first layer. The method also includes disposing a photoresist onto the first layer and then exposing the photoresist to light so that the photoresist has a developed portion and an undeveloped portion. The method includes removing the undeveloped portion so that the developed portion protrudes from the first layer. After removing, the method includes depositing a perfluorocarbon siloxane polymer onto the first layer to surround and contact the developed portion. After depositing the perfluorocarbon siloxane polymer, the method includes removing the developed portion to thereby form the self-cleaning film system.
Fluidic channels and methods of altering the surface energy of components thereof
A surface-treated fluidic channel is provided comprising a dispensing device that comprises a microarray of microchannels. The fluidic channel is made from metal and comprises a surface and a hydrophobic coating layer comprising a self-assembled monolayer of an organophosphorus acid adhered to the surface. A mesh nebulizer comprising a reservoir and a dispensing device comprising a microarray of microchannels is also provided. A metal surface layer is applied to the interior and exterior surfaces of the reservoir and dispensing device, and a hydrophobic coating layer comprising an organo-silicon or a self-assembled monolayer of an organophosphorus acid is adhered to the metal surface layer, usually on the exterior surfaces of the reservoir and dispensing device. A hydrophilic polymeric coating layer may be chemically bonded to and propagated from terminal functional groups on the hydrophobic coating layer on the interior surfaces of the reservoir and dispensing device.
Treating fluidic channels
Disclosed is the treatment of the interior walls of a fluidic channel with a self-assembled monolayer of an organophosphorus acid.
Reactor for Coating Particles in Stationary Chamber with Rotating Paddles
A reactor for coating particles includes a stationary vacuum chamber to hold a bed of particles to be coated, a vacuum port in an upper portion of the chamber, a chemical delivery system configured to inject a reactant or precursor gas into a lower portion of the chamber, a paddle assembly, and a motor to rotate a drive shaft of the paddle assembly. The lower portion of the chamber forms a half-cylinder. The paddle assembly includes a rotatable drive shaft extending through the chamber along the axial axis of the half cylinder, and a plurality of paddles extending radially from the drive shaft such that rotation of the drive shaft by the motor orbits the plurality of paddles about the drive shaft.
Superhydrophobic and dust mitigating coatings
A system, apparatus, composition and method employing a dust mitigation coating that also mitigates or repels water, ice, and other liquids. Techniques to coat the surfaces of equipment and items with these dust, liquid, and ice mitigation coatings, minimizing or eliminating mission problems caused by dust, liquid, or ice accumulation, particularly in outer space or on another planetary body or moon. Further, the dust mitigation coatings should exhibit a Lotus-like effect, making the coated surfaces ultra-hydrophobic. The present invention is also directed to techniques for improving the functioning of terrestrial-based equipment and systems where dust, liquid, or ice accumulation is a problem, such as in hospitals and other health contexts to prevent contamination.
Method for grafting a coloured indicator onto a solid substrate and implementation kit
The present invention relates to a method for grafting, in a covalent manner, a coloured indicator having at least one aromatic primary amine function onto the surface of a solid substrate, including the steps that consist of: (a) preparing, from the coloured indicator having at least one aromatic primary amine function, the corresponding diazonium salt; (b) placing the solid substrate in contact with a solution containing the diazonium salt prepared in step (a) and subjecting the solution to non-electrochemical conditions for an optimal grafting time whereby organic chains in which the units are derivatives of the diazonium salt are grafted, in a covalent manner, onto the surface of the solid substrate; (c) washing the solid substrate thus grafted; (d) repeating steps (b) and (c) or possibly steps (a) to (c) at least once. The present invention also relates to a kit for implementing such a method.
Treating fluidic channels
Disclosed is the treatment of the interior walls of a fluidic channel with a self-assembled monolayer of an organophosphorus acid.
Method for manufacturing of a carbon nanomembrane
A method for the manufacture of a carbon nanomembrane is disclosed. The method comprises preparing a metallised polymer substrate and applying on the metallised polymer substrate a monolayer prepared from an aromatic molecule. The aromatic molecule is cross-linked to form a carbon nanomembrane. The carbon nanomembrane is coated by a protective layer and subsequently the carbon nanomembrane and the protective layer are released from the metallised polymer substrate. Finally, the carbon nanomembrane and the protective layer are optionally placed on a support. The protective layer can be optionally removed. The carbon nanomembrane can be used for filtration.
Method and kit for cleaning and coating a tip of a test probe utilized in a test system for an integrated circuit package
A kit for cleaning and coating a tip of a test probe in an integrated circuit package test system is provided. The kit comprises a transfer stamp having a porous material impregnated with a phosphonic acid solution. The size and shape of the transfer stamp approximate those of the integrated circuit package being tested. Also provided is a method of cleaning and coating a tip of a test probe in an integrated circuit package test system. The method includes aligning the test system with a transfer stamp comprising a porous material that is impregnated with a phosphonic acid solution; pushing the test probe into the porous material to coat the tip with the phosphonic acid solution; removing the test probe; and allowing the phosphonic acid solution to dry on the tip of the test probe and form a self-assembled monolayer of phosphonates thereon. A test probe is also provided.