161 |
Removal of metallic stains from porcelain surfaces |
US3754941D |
1971-01-04 |
US3754941A |
1973-08-28 |
BURKE R |
This disclosure relates to cleansing compositions having particular utility as a metallic stain remover from hard surfaces such as porcelain, comprising an oxidant capable of oxidizing the metal in a practical time such as the metallic ions ferric, stannous, cupric and mercuric and non-metallic oxidants such as hydrogen peroxide, a flouride solubilizer and a halide promotor, said composition having a pH of 0.5 - 5. Additives such as detergents, perfumes, fillers, colorants, etc. may be included provided they do not adversely affect the stain removing properties of the composition. Although aluminum pot marks are most often encountered in normal household cleaning, said cleansers are effective against other metallic stains such as iron, tin, magnesium, etc.
|
162 |
Alkaline detergent composition |
US3640878D |
1969-05-29 |
US3640878A |
1972-02-08 |
CHIRASH WILLIAM; BURKE RICHARD LERDA |
A DISHWASHING DETERGENT COMPOSITION CONTAINING SODIUM SILICATE, PENTASODIUM TRIPOLYPHOSPHATE AND SODIUM FLUOSILICATE. THE LATTER ACTS TO PROTECT THE OVERGLAZE PATTERNS OF FINE CHINA. OTHER ALKALI METAL SILICATES, PHOSPHATES, CARBONATES, FLUOSILICATES AND CHELATES MAY BE USED. AN ANTISPOTTING AGENT, ACTIVE OXYGEN, OR CHLORINE BLEACHING AGENT (YIELDING HYPOCHLORITE CHLORINE) AND AN ORGANIC DETERGENT MAY ALSO BE PRESENT.
|
163 |
Processes of cleaning and passivating reactor equipment |
US3522093D |
1967-02-27 |
US3522093A |
1970-07-28 |
WOOLMAN WILFRID A |
|
164 |
Noncorrosive rust remover |
US3510432D |
1966-02-03 |
US3510432A |
1970-05-05 |
SQUIRE ALBERT T |
|
165 |
Metal cleaning and treating compositions |
US17334762 |
1962-02-15 |
US3239467A |
1966-03-08 |
LIPINSKI RICHARD J |
|
166 |
Synthetic acid and associated methods |
US16915204 |
2020-06-29 |
US11034598B2 |
2021-06-15 |
John T. MacDonald, II; John Thomas MacDonald, III |
Glycine is an organic compound that can be used in the making of a synthetic acid that obviates all the drawbacks of strong acids such as hydrochloric acid. The new compound is made by dissolving glycine in water, in a weight ratio of approximately 1:1 to 1:1.5. The solution is mixed until the glycine is essentially fully dissolved in the water. Once dissolution is complete, hydrogen chloride gas is dissolved in the solution to produce the new compound, which can be referred to as hydrogen glycine. Also disclosed is a method for adjusting the pH of a fluid, the method comprising adding an effective amount of a solution to the fluid for adjusting the pH thereof to a desired level, wherein the solution is prepared by mixing glycine in water to form a glycine solution; and adding hydrogen chloride to the glycine solution. |
167 |
Cleaning formulations |
US15264078 |
2016-09-13 |
US10233413B2 |
2019-03-19 |
Seiji Inaoka |
A composition useful for removing residue from a semiconductor substrate comprising in effective cleaning amounts: from about 55 to 80% by weight of water; from about 0.3 to about 5.0% by weight of EDTA; from about 10.0 to about 30.0% by weight of an amine compound wherein the amine compound is selected from the group consisting of a secondary amine, a tertiary amine, and mixtures thereof; from about 0.1 to about 5.0% by weight of a polyfunctional organic acid; from about 0.01 to about 8.0% by weight of a fluoride ion source; from about 0 to about 60% by weight of a water-miscible organic solvent; and from about 0 to about 15% by weight of a corrosion inhibitor. |
168 |
Biological corrosion inhibitor for metals |
US15512292 |
2015-09-14 |
US10087404B2 |
2018-10-02 |
Takuo Tsuruta; Ryosuke Shimizu; Takahiro Hosono; Junichi Fuji; Satoshi Wakai |
An object of the present invention is to provide a biological corrosion inhibitor for a metal, which exhibits the effect at a low concentration and is superior in biodegradability. A biological corrosion inhibitor for a metal including 3-methylglutaraldehyde as an effective ingredient is provided. |
169 |
Precursor polyelectrolyte complexes compositions |
US15433775 |
2017-02-15 |
US09976109B2 |
2018-05-22 |
David R. Scheuing; Thomas F. Fahlen; Jared Heymann; Mike Kinsinger; William Ouellette; William L. Smith |
The invention relates to compositions and methods of treatment employing compositions comprising polyelectrolyte complexes. The compositions include a water-soluble first polyelectrolyte bearing a net cationic charge or capable of developing a net cationic charge and a water-soluble second polyelectrolyte bearing a net anionic charge or capable of developing a net anionic charge. The total polyelectrolyte concentration of the first solution is at least 110 millimolar. The composition is free of coacervates, precipitates, latex particles, synthetic block copolymers, silicone copolymers, cross-linked poly(acrylic) and cross-linked water-soluble polyelectrolyte. The composition may be a concentrate, to be diluted prior to use to treat a surface. |
170 |
Fabric treatment composition |
US14573418 |
2014-12-17 |
US09347022B1 |
2016-05-24 |
Lisa Grace Frentzel; Robert Richard Dykstra; Jaden S. Zerhusen |
A composition of a plurality of homogeneously structured particles. The particles include polyethylene glycol, perfume, and starch granules and each has a mass between about 0.95 mg and about 5 grams. |
171 |
Azeotropic compositions of 1,1,1,3,3-pentachloropropane and hydrogen fluoride |
US13402983 |
2012-02-23 |
US08999909B2 |
2015-04-07 |
Daniel C. Merkel; Hsueh Sung Tung; Konstantin A. Pokrovski; Hang T. Pham; Ryan Hulse |
Provided are azeotropic or azeotrope-like mixtures of 1,1,1,3,3-pentachloro-propane (240fa) and hydrogen fluoride. Such compositions are useful as an intermediate in the production of HFC-245fa and HCFO-1233zd. |
172 |
Cleaning composition/solutions and use thereof |
US13416893 |
2012-03-09 |
US08859478B2 |
2014-10-14 |
Michael Rochon; Michael Mikoluk; Asquith Williams |
A a non-disinfectant formulated solution and a process for removal of soil and disease causing microorganisms from a surface/substrate. The process including contacting the surface/substrate with the formulated solution and applying a dry cloth to the surface/substrate thereafter. In one formulated cleaning solution there is at least two organic acids and sodium chloride mixed thereinto. |
173 |
Liquid acidic hard surface cleaning composition |
US12201038 |
2008-08-29 |
US08420587B2 |
2013-04-16 |
Laura Cermenati; William Mario Laurent Verstraeten; Christopher Andrew Morrison |
Liquid compositions for cleaning hard-surfaces having pH comprised between 3 and 4, obtained upon the mixing of an acid agent having a pKa comprised between 4 and 6, a source of alkalinity and a surfactant system. Process for treating hard surfaces, preferably delicate, hard surfaces, by applying said composition onto said hard surface and the use of said composition for cleaning hard surface while maintaining surface safety. |
174 |
REMOVAL OF METAL SALT-COMPRISING IONIC LIQUIDS FROM WORKPIECES AND RECYCLING OF SUCH LIQUIDS |
US13264455 |
2010-04-13 |
US20120028868A1 |
2012-02-02 |
Aurelie Alemany; Itamar Michael Malkowsky |
The present invention relates to a method of removing residues of a metal salt comprising ionic liquid—from a workpiece, which comprises the step (a) treatment of at least part of the workpiece surface with a treatment agent comprising a metal salt ionic liquid-free and/or an organic solvent which is an optionally halogenated hydrocarbon or a mixture of two or more of such hydrocarbons. |
175 |
Particle removal method and composition |
US12069205 |
2008-02-07 |
US08075697B2 |
2011-12-13 |
Mark Jonathan Beck |
A method and cleaning solution for cleaning electronic substrates, such as a semiconductor wafers, hard disks, photomasks or imprint molds. The method comprises the steps of contacting a surface of the substrate with a cleaning solution comprised of a polyphosphate, and then removing the cleaning solution from the surface. Additional optional steps include applying acoustic energy to the cleaning solution while the cleaning solution is in contact with the surface, and removing the cleaning solution from the surface by rinsing the surface with a rinsing solution with or without the application of acoustic energy. The cleaning solution comprises a polyphosphate, such as any of the water soluble polyphosphates. Depending on the application, the cleaning solution may also comprise a base and/or a quantity of suspended particles. Complexing agents, amines, biocides, surfactants and/or other substances, may also be added to the cleaning solution. |
176 |
Solvent |
US12380249 |
2009-02-25 |
US08007687B2 |
2011-08-30 |
Lawrence A. Boville, Sr. |
An organic solvent which is very useful in paints is made up primarily of n-butyl acetate, n-heptane, methyl ethyl ketone, methyl isobutyl ketone, acetone and a light hydrotreated petroleum distillate. The solvent typically has a closed cup flash point of about 50 to 75° F. The petroleum distillate typically has a boiling range from 230 to 320° F., a closed cup flash point from 35 to 75° F. and a kauri-butanol value not less than 25. A mixture of 8-carbon and 9-carbon hydrocarbons which are typically primarily paraffins or cycloparaffins typically makes up the vast majority of the petroleum distillate. |
177 |
Reduction of Attraction Forces Between Silicon Wafers |
US11988132 |
2006-06-26 |
US20090117713A1 |
2009-05-07 |
Erik Sauar; Per Arne Wang |
The present invention is related to a method for reducing attraction forces between wafers (4). This method is characterized in that it comprises the step of, after sawing and before dissolution of the adhesive (5), introducing spacers (6) between wafers (4). The invention comprises also a wafer singulation method and an agent for use in said methods. |
178 |
Method for Removing Etch Residue and Chemistry Therefor |
US12091032 |
2005-10-21 |
US20080287332A1 |
2008-11-20 |
Balgovind Sharma |
A method for cleaning, especially by removing etch residue (e.g., polymers or particles) from a semiconductor structure, and a cleaning chemistry is described. The method of cleaning includes placing the semiconductor structure with an etch residue particle on it in a chemistry to remove the particle, wherein the active component of the chemistry consists of a carboxylic acid having equal numbers of COOH and OH groups. In one embodiment, the carboxylic acid is tartaric acid. In one embodiment, the chemistry further comprises water. |
179 |
Surfactant-free detergent composition comprising an anti-soil redeposition agent |
US10433667 |
2001-12-05 |
US07407924B2 |
2008-08-05 |
Kazuyoshi Arai; Tomoki Seo |
Washing is carried out using a detergent composition having main detergency obtained through an alkaline inorganic salt and further including at least an anti-soil redeposition agent. There is provided a clothes washing method, and a detergent composition for the same, that uses a detergent having detergency equivalent to or greater than that of synthetic detergents containing a surface active agent as the main detergency ingredient and also has excellent anti-soil redeposition efficiency wherein main detergency is obtained by an alkaline inorganic salt. |
180 |
CLEANING WAFER INCLUDING DETERGENT LAYER FOR EXPOSURE APPARATUS OF IMMERSION LITHOGRAPHY SYSTEM, COMPOSITION OF DETERGENT LAYER, METHOD OF USING CLEANING WAFER AND APPLICATION SYSTEM |
US11621002 |
2007-01-08 |
US20080163892A1 |
2008-07-10 |
I-Hsiung Huang; Ling-Chieh Lin |
A method of an in situ cleaning of an objective lens of a semiconductor apparatus includes placing a cleaning wafer having a detergent layer on a scanning stage of the semiconductor apparatus. A cleaning composition in the detergent layer is dissolved by using an immersion liquid (water), so that the cleaning composition reacts with the contaminants on the objective lens. Thereafter, the objective lens is rinsed with another solvent. |