121 |
DURABILITY COATING FOR OXIDE FILMS FOR METAL FLUORIDE OPTICS |
US14623993 |
2015-02-17 |
US20150241605A1 |
2015-08-27 |
Gerald Philip Cox; Michael Joseph D'lallo; Jean-Francois Oudard; Jue Wang |
A coated metal fluoride optic is provided. The coated metal fluoride optic includes an alkaline earth metal fluoride substrate and a coating disposed on at least one surface of the substrate. The coating includes an adhesion layer comprising a fluoride-containing material, a non-densified intermediate layer deposited on the adhesion layer, and a densified capping layer deposited on the intermediate layer. |
122 |
USE OF MULTI-STAGE POLYMERIZATE DISPERSIONS TO COAT METAL SHEETS |
US14403824 |
2013-06-04 |
US20150104658A1 |
2015-04-16 |
Ekkehard Jahns; Hans-Juergen Denu; Sebastian Roller; Alexander Kurek |
The present invention relates to the use of aqueous multistage polymer dispersions obtainable by free-radically initiated aqueous emulsion polymerization, having a soft phase and a hard phase and having a hard-to-soft stage ratio of 25% to 95% by weight to 75% to 5% by weight, the glass transition temperature (Tg) of the soft phase, as first stage, being −30 to 0° C. and that of the hard phase, as second stage, being 20 to 60° C., comprising at least one monomer of the general formula I in which the variables have the following definitions: n=0 to 2, R1, R2, R3=independently of one another hydrogen or methyl group, X═O or NH, Y═H, alkali metal or NH4, to coat metal sheets. |
123 |
ROOFING TILE WITH ENHANCED SURFACE DURABILITY AND PROCESSES FOR MANUFACTURING THE ROOLING TILE |
US13486526 |
2012-06-01 |
US20130143036A1 |
2013-06-06 |
Andreas DRECHSLER; Jürgen KLEIN; Florence YZIQUEL; Jeffrey CHEN; Emmanuel FOURDRIN |
A new roofing tile with enhanced surface durability and processes for manufacturing the same. The abstract of the disclosure is submitted herewith as required by 37 C.F.R. §1.72(b). As stated in 37 C.F.R. §1.72(b): A brief abstract of the technical disclosure in the specification must commence on a separate sheet, preferably following the claims, under the heading “Abstract of the Disclosure.” The purpose of the abstract is to enable the Patent and Trademark Office and the public generally to determine quickly from a cursory inspection the nature and gist of the technical disclosure. The abstract shall not be used for interpreting the scope of the claims. Therefore, any statements made relating to the abstract are not intended to limit the claims in any manner and should not be interpreted as limiting the claims in any manner. |
124 |
METAL-GRAPHITE FOAM COMPOSITE AND A COOLING APPARATUS FOR USING THE SAME |
US13601958 |
2012-08-31 |
US20120328789A1 |
2012-12-27 |
Minhua Lu; Lawrence S. Mok; Krystyna W. Semkow |
A method of producing a metal-graphite foam composite, and particularly, the utilization thereof in connection with a cooling apparatus. Also provided is a cooling apparatus, such as a liquid cooler or alternatively, a heat sink for electronic heat-generating components, which employ the metal-graphite foam composite. |
125 |
Crush resistant latex topcoat composition for fiber cement substrates |
US11560329 |
2006-11-15 |
US08202578B2 |
2012-06-19 |
T. Howard Killilea; Carl Lewis Cavallin; Shane Wesley Carter; William John Mittelsteadt; Glen Otto Vetter |
A coated fiber cement article in the form of an unattached fiber cement board substrate having a first major surface at least a portion of which is covered with a crush resistant final topcoat composition comprising a multistage latex polymer, and a method for making a crush resistant coated fiber cement article by coating a fiber cement board substrate with such a composition and stacking the coated boards. |
126 |
COMPOSITE SUBSTRATE FOR LED LIGHT EMITTING ELEMENT, METHOD OF PRODUCTION OF SAME, AND LED LIGHT EMITTING ELEMENT |
US13148712 |
2010-02-10 |
US20110316040A1 |
2011-12-29 |
Hideki Hirotsuru; Hideo Tsukamoto; Yosuke Ishihara |
A substrate for an LED light emitting element having a small difference of linear thermal expansion coefficient with the III-V semiconductor crystal constituting an LED, having an excellent thermal conductivity, and suitable for high output LEDs. A porous body comprises one or more materials selected from silicon carbide, aluminum nitride, silicon nitride, diamond, graphite, yttrium oxide, and magnesium oxide and has a porosity that is 10 to 50 volume % and a three-point bending strength that is 50 MPa or more. The porous body is infiltrated, by means of liquid metal forging, with aluminum alloy or pure aluminum at an infiltration pressure of 30 MPa or more, cut and/or ground to a thickness of 0.05 to 0.5 mm and to a surface roughness (Ra) of 0.01 to 0.5 μm, then is formed with a metal layer comprising one or more elements selected from Ni, Co, Pd, Cu, Ag, Au, Pt and Sn on its surface to a thickness of 0.5 to 15 μm, so as to thereby produce the composite substrate for the LED light emitting element. |
127 |
METHOD, PRINTING DEVICE, AND FORMULATIONS FOR DECORATING GLASS OR CERAMIC ITEMS |
US12527710 |
2007-12-12 |
US20100098952A1 |
2010-04-22 |
Kay K. Yeong; Thomas Hirt; James E. Fox |
A method and a printing device (6) for decorating glass or ceramic items, wherein a pigment layer (3) is sandwiched between two glass frit layers (2, 4), wherein at least the pigment formulation layer (3) and the upper glass frit formulation layer (4) are, or can be, imprinted by an inkjet printing process. |
128 |
Materials based on sialon's |
US10566318 |
2004-08-06 |
US07514383B2 |
2009-04-07 |
Bernd Bitterlich; Kilian Friederich; Ulrich Mowlai |
A material based on SiAlON contain 70-97 vol. % of alpha and beta-SiAlON and an amorphous or partially crystalline grain boundary phase and 3 to 30 vol.% of a hard material. The material has an alpha-SiAlON gradient which decreases from the outside to the inside. |
129 |
Fluorocarbon-grafted polysiloxanes |
US11132836 |
2005-05-19 |
US07476714B2 |
2009-01-13 |
Martial Jean-Jacques Pabon; Romain Severac; Emmanuel Abel Jean-Mark Puchois; Matthieu Perdon |
A composition useful to provide oil repellency, water repellency, and stain resistance to substrates comprising a polymer prepared by contacting a polyfluoroalkyl sulfonyl halide with a compound of Formula II, III or IV (E-(O)q)3Si—O—(Si(R2)2—O)m—[Si(R3—NHR4)(R2)O]n—Si—((O)q-E)3 Formula II HR4N—R3—Si(R2)2—O—[Si(R2)2—O]m—[Si(R3—NHR4)(R2)O]n—Si(R2)2—R3—NHR4 Formula III HR4N—R3—Si(R2)2—O—[Si(R2)2—O]m—Si—((O)q-E)3 Formula IV wherein each R2 is independently a C1 to C8 alkyl, each R3 is independently a divalent group containing carbon, oxygen, and optionally at least one of nitrogen oxygen and sulfur, each R4 is independently H or C1 to C8 alkyl, each E is independently a C1 to C8 branched or linear alkyl, each q is independently zero or 1, m is a positive integer, and n is independently zero or a positive integer, such that n/(m+n) is zero or a positive fraction having a value up to about 0.7, and the polymer viscosity is less than or equal to 10000 mPa·s under a shear rate of 0.1 s−1 at a temperature of 20° C. |
130 |
SYSTEM AND METHOD FOR GEMSTONE MICROINSCRIPTION |
US11775181 |
2007-07-09 |
US20080006615A1 |
2008-01-10 |
Charles Rosario; William H. Moryto |
A gemstone micro-inscription system, comprising an energy source, a spatial light modulator, and a control, the control controlling a spatial light pattern modulation of the spatial light modulator, wherein the spatial light modulator exposes a photoresist on the gemstone, which selectively impedes an etching process to produce a pattern on the gemstone corresponding to the spatial light modulation pattern. |
131 |
Ceramic support capable of supporting a catalyst, a catalyst-ceramic body and processes for producing same |
US11641770 |
2006-12-20 |
US20070173403A1 |
2007-07-26 |
Kazuhiko Koike; Tomohiko Nakanishi; Takeshi Ueda; Masakazu Tanaka |
A ceramic support capable of supporting a catalyst comprising a ceramic body having fine pores with a diameter or width up to 1000 times the ion diameter of a catalyst component to be supported on the surface of the ceramic body, the number of the fine pores being not less than 1×1011 pores per liter, is produced by introducing oxygen vacancies or lattice defects in the cordierite crystal lattice or by applying a thermal shock to form fine cracks. |
132 |
CRUSH RESISTANT LATEX TOPCOAT COMPOSITION FOR FIBER CEMENT SUBSTRATES |
US11560329 |
2006-11-15 |
US20070110981A1 |
2007-05-17 |
T. Killilea; Carl Cavallin; Shane Carter; William Mittelsteadt; Glen Vetter |
A coated fiber cement article in the form of an unattached fiber cement board substrate having a first major surface at least a portion of which is covered with a crush resistant final topcoat composition comprising a multistage latex polymer, and a method for making a crush resistant coated fiber cement article by coating a fiber cement board substrate with such a composition and stacking the coated boards. |
133 |
Materials based on sialon's |
US10566318 |
2004-08-06 |
US20070010392A1 |
2007-01-11 |
Bernd Bitterlich; Killian Friederich; Ulrich Mowlai |
Know Si3N4 and SiAlON cutting materials become, at the beginning, rounded very quickly on the cutting edge during usual long continuous cuts in gray cast iron (GG) which is described as initial wear. The invention thus provides that the raw material mixture of the material comprised of: component A, an alpha/beta SiAlON, and; component B, a hard material, has a composition consisting of 70 to 97% by volume of component A and 3 to 30% by volume of component B. |
134 |
Three-dimension ceramics structure and method for producing the same |
US09726381 |
2000-12-01 |
US20020068149A1 |
2002-06-06 |
Eiichi
Koyama; Yoshio
Tsumura; Yoshiaki
Nagae; Kazuhiro
Ueda; Yoshiharu
Nishino; Takeo
Nishimura |
A method for manufacturing a three-dimension ceramics structure includes the steps of immersing a three-dimension structural fabric into ceramics slurry, and baking the three-dimension structural fabric raised from the ceramics slurry at a predetermined temperature to eliminate organic components of the three-dimension structural fabric to thereby obtain the three-dimension ceramics structure. |
135 |
Process for the preparation of ceramic materials free from auto-adhesion
under and during aging |
US486893 |
1995-06-07 |
US5624625A |
1997-04-29 |
Claude Le Gressus; Claude Faure; Pierre Bach; Guy Blaise; Daniel Treheux |
Process for the preparation of ceramic materials for parts having friction surfaces subject to friction and free from auto/self-adhesion under stress or during aging. A precursor of the ceramic undergoes successive operations of pressing, sintering, polishing the surface obtained, cleaning the solid gangue resulting from the polishing, roasting in the presence of oxygen, and a doping treatment for increasing the dielectric susceptibility and homogeneity of the ceramic material adjacent the friction surfaces and to increase the mobility of the charges. |
136 |
Process and system for protecting an oxidizable material against
oxidation |
US146988 |
1993-11-02 |
US5498760A |
1996-03-12 |
Laurence Piketty-Leydier; Jean-Marc Dorvaux; Gerard Rousseau |
Process and system for protecting an oxidizable material against oxidation.The process according to the invention consists of forming a gas-permeable body (1) having open pores (28), a first surface (2) intended to come into contact with an oxidizing gaseous flow (4) liable to oxidize the body and a second surface (6) opposite to the first surface and injecting an oxygen-free protective gas (8) through the second surface (6) leading to disturbances in the material giving it a protection against oxidation. |
137 |
Surface cleaner and treatment |
US706570 |
1991-05-28 |
US5223168A |
1993-06-29 |
Gary Holt |
An acid-based cleaner and related methods, for cleaning and treating tile, limestone-based cement and concrete and similar surfaces to maintain a slip-resistant surface, and to harden and strengthen the grout or cement and make it more resistant to penetration by salt or other deterious chemicals. The cleaner comprises an aqueous solution of hydrofluoric acid, phosphoric acid, and a surface active or wetting agent. Also, the invention, upon application to the surface, creates a microbe-free surface as required in hospitals, laboratories, and the like. |
138 |
Single phase enrichment of super critical fluids |
US911503 |
1986-09-25 |
US4786387A |
1988-11-22 |
David R. Whitlock |
A fluid solution maintained under near critical conditions of temperature and pressure is subjected to a non-uniform field which deflects one of the components of the solution to a greater extent than other components of the solution. |
139 |
Non-destructive evaluation method for coated carbon-carbon composites |
US772815 |
1985-09-05 |
US4661369A |
1987-04-28 |
Robert L. Crane |
A non-destructive technique for detecting and repairing surface flaws in the silicon carbide oxidation resistant coating of a carbon-carbon composite. The surface of the composite is treated with a test liquid consisting essentially of a carrier fluid, a particulate pigment and a finely divided borosilicate glass, or a mixture of silicon dioxide and boron oxide, containing 0.25 to 8 weight percent boron oxide. The treated surface is inspected for surface flaws. Any discovered flaws are repaired by heating the surface to cause the borosilicate glass to flow and heal the flaw. The composite is thereafter heated to a further elevated temperature to deplete the boron from the flaw-sealing glass. |
140 |
Plugging micro-leaks in multi-component, ceramic tubesheets with
material leached therefrom |
US312588 |
1981-10-19 |
US4505995A |
1985-03-19 |
Barrie H. Bieler; Floris Y. Tsang |
Cracks, in ceramic wall members, on the order of 1 micron or less in width are plugged helium-tight by selectively leaching a component of the wall member with a solvent, letting the resultant leach form a liquid bridge within the crack, removing the solvent and sintering the resultant residue. This method is of particular value for remedying microcracks or channels in a cell member constituting a tubesheet in a hollow fiber type, high temperature battery cell, such as a sodium/sulfur cell, for example. |