专利检索_ .以不含某特定材料或某材料含量很低时为特征的组合物或成分专利检索_ .以不含某特定材料或某材料含量很低时为特征的组合物或成分专利检索查询

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序号	专利名	申请号	申请日	公开（公告）号	公开（公告）日	发明人
241	METHOD AND COMPOSITION FOR ROAD CONSTRUCTION AND SURFACING	US14198264	2014-03-05	US20140186117A1	2014-07-03	ROBERT W. VITALE; FRANK D. ELSWICK; GINA M. GREENLEE
Methods and compositions for improving the strength and longevity of secondary roadways through environmentally sound practices are disclosed herein. A composition for road sealing includes acrylic and vinyl acetate powdered polymer mixed with native soil.
242	Method and composition for road construction and surfacing	US13725379	2012-12-21	US08764339B2	2014-07-01	Robert W. Vitale; Frank D. Elswick; Gina M. Greenlee
Methods and compositions for improving the strength and longevity of secondary roadways through environmentally sound practices are disclosed herein. A composition for road sealing includes an aqueous emulsion of acrylic and vinyl acetate polymer, water, and a resin-modified emulsion, wherein the resin-modified emulsion includes a mixture of pitch and rosin, an emulsifying agent, and water.
243	Cement Compositions Containing Metphosphate and Methods of Use	US13909232	2013-06-04	US20140102704A1	2014-04-17	Rahul Chandrakant Patil; Sandip Prabhakar Patil; Sohini Bose; Ashok K. Santra; Balasundaram Balaraman
In an embodiment, a cement composition includes: (i) hydraulic cement, wherein the hydraulic cement has a ratio of CaO to SiO2 in the range of 2.0 to 4.0; and (ii) a water-soluble metaphosphate in a concentration of at least 2.5% bwoc. In another embodiment, a cement composition includes: (i) hydraulic cement, wherein the hydraulic cement has a ratio of CaO to SiO2 of less than 2.0; and (ii) a water-soluble metaphosphate; wherein any alkali nitrate is in a concentration of less than 2% bwoc; and wherein any alkali hydroxide, alkali carbonate, or alkali citrate is in a concentration of less than 0.2% bwoc. Methods of cementing in a well include forming either of such cement compositions and introducing it into the well.
244	JOINT COMPOUND, WALL ASSEMBLY, AND METHODS AND PRODUCTS RELATED THERETO	US13842342	2013-03-15	US20140083035A1	2014-03-27	Robert H. NEGRI; Mark MIKLOSZ
Disclosed are aspects of board finishing systems. For example, in various aspects, disclosed are joint compound compositions, wall assemblies, methods of treating walls, and products related to any of the foregoing, including reinforcement trim, e.g., for protecting corners where boards meet, fasteners, and tape. The joint compound preferably is a drying type composition with reduced shrinkage property, and includes binder and hollow spheres, resulting in an ultra lightweight formulation in some embodiments. The joint compound composition can be applied in a one-coat treatment in preferred embodiments. Other aspects of board finishing system accommodate such a one-coat treatment to thusly allow a user to manipulate the compound closer to the plane of board as compared with conventional formulations. Joint tape and reinforcement trim can include non-swelling synthetic paper facing material in some embodiments.
245	Sulfur steel-slag aggregate concrete	US13751885	2013-01-28	US08652251B2	2014-02-18	Mohammed Al-Mehthel; Mohammed Maslehuddin; Saleh Al-Idi; Mohammed Rizwan Ali; Mohammed Salihu Barry
A sulfur-steel slag aggregate concrete, and methods of preparing the sulfur-steel slag aggregate concrete and disposing of elemental sulfur, are disclosed. In embodiments, the sulfur-steel slag aggregate concrete includes elemental sulfur, steel slag aggregate, limestone powder, and sand. Modifiers, such as plasticizers, are not required and are not used in embodiments of the sulfur-sand limestone mortar. In embodiments of the method to prepare the sulfur-steel slag aggregate concrete, each of the elemental sulfur, limestone powder, steel-slag, and sand are heated to at least 140 C, then combined, and then allowed to solidify.
246	Cement compositions comprising latex and a nano-particle	US12833189	2010-07-09	US08598093B2	2013-12-03	Craig W. Roddy; Jiten Chatterji; Roger Cromwell; Rahul Chandrakant Patil; Abhijit Tarafdar; Abhimanyu Deshpande; Christopher L. Gordon
Methods and compositions are provided that may comprise cement, a nano-particle, latex, and water. An embodiment of the present invention includes a method of cementing in a subterranean formation. The method may include introducing a cement composition into the subterranean formation, wherein the cement composition comprises cement, a nano-particle, latex, and water. The method further may include allowing the cement composition to set in the subterranean formation. Another embodiment of the present invention include a cement composition. The cement composition may comprise cement, a nano-particle, latex, and water.
247	LACTATE ACTIVATED CEMENT AND ACTIVATOR COMPOSITIONS	US13734732	2013-01-04	US20130160678A1	2013-06-27	Glenn SCHUMACHER; Rajeshkumar PATEL
Cementitious compositions in which the cementitious properties of fly ash are carefully controlled are described. The cementitious compositions may be substantially free harsh acids and bases such as citric acids (≈pH 2.2) and alkali metal activators including alkali hydroxides (≈pH 12-14) and metal carbonates (≈pH 11.6). The use of these harsh chemicals creates acid base reactions during use of the products. Instead of these harsh chemicals, a lactic acid salt based activator is be used as a reaction accelerator. Boric compounds may be used as a retarder in the compositions.
248	Calcium Sulfoaluminate Cement-Containing Inorganic Polymer Compositions and Methods of Making Same	US13307188	2011-11-30	US20130133554A1	2013-05-30	Redmond Richard Lloyd; Louise Margaret Keyte; Russell L. Hill; Zhaozhou Zhang; Mark Hollett; Li Ai
Inorganic polymer compositions and methods for their preparation are described herein. The compositions include the reaction product of a reactive powder, an activator, and optionally a retardant. The reactive powder includes fly ash, calcium sulfoaluminate cement, and less than 10% by weight portland cement. In some examples, the composition is substantially free from alkanolamines. In some examples, the ratio of water to reactive powder is from 0.06:1 to less than 0.2:1. Also described herein are building materials including the compositions.
249	UTILIZATION OF HEAVY OIL ASH TO PRODUCE HIGH QUALITY CONCRETE	US13665303	2012-10-31	US20130104779A1	2013-05-02	Mohammed Al-Mehthel; Abdulaziz S. Al-Utaibi; Mohammed Maslehuddin; Mohammed Rizwan Ali
A concrete mixture that includes aggregates, water and cement can include heavy oil ash instead of or in addition to a portion of the cement. In one embodiment, the heavy oil ash originates from heavy fuel oil burned in a power generation plant. The weight of the heavy oil ash used in the concrete mixture can be from greater than 0 to about 10% of the weight of the cement.
250	Retardant-Free Inorganic Polymer Compositions	US13269283	2011-10-07	US20130087939A1	2013-04-11	Russell L. Hill; Zhaozhou Zhang; Mark Hollett; Li Ai
Retardant-free inorganic polymer compositions and methods for their preparation are described herein. The methods include mixing reactants comprising a reactive powder and an activator in the presence of water and forming an inorganic polymer product. In some examples, the method includes continuously feeding the resultant mixture to produce the inorganic polymer product. Also described herein are mixtures and inorganic polymer compositions. Further described are building materials formed according to the methods.
251	Low Water Content Inorganic Polymer Compositions and Methods of Making Same	US13267969	2011-10-07	US20130087077A1	2013-04-11	Russell L. Hill; Zhaozhou Zhang; Mark Hollett; Li Ai
Inorganic polymer compositions and methods for their preparation are described herein. The compositions include the reaction product of a reactive powder, an activator, optionally a retardant, and water. The reactive powder includes 85% by weight or greater fly ash. The ratio of water to reactive powder is from 0.06:1 to less than 0.15:1. Also described herein are building materials including the compositions.
252	HYDRAULIC LIME COMPOSITION	US13577950	2011-02-10	US20120304895A1	2012-12-06	Robin Gibson
According to the invention there is provided A hydraulic lime composition including between 1 and 20% by weight of a Pozzolanic material which has a surface area of between 2 and 1000 m2g−1 when measured by BET N2 porosimetry, and an average particle size in the range 0.1 to 1000 μm.
253	Method and composition for road construction and surfacing	US13360774	2012-01-29	US08262313B2	2012-09-11	Robert W. Vitale; Frank D. Elswick; Gina M. Greenlee
Methods and compositions for improving the strength and longevity of secondary roadways through environmentally sound practices are disclosed herein. A composition for road sealing includes an aqueous emulsion of acrylic and vinyl acetate polymer, water, and a resin-modified emulsion, wherein the resin-modified emulsion includes a mixture of pitch and rosin, an emulsifying agent, and water.
254	USE OF A CONCRETE-BASED ELEMENT FOR TREATMENT OF GASES AND VOLATILE COMPOUNDS	US13501375	2010-10-11	US20120204719A1	2012-08-16	Isabelle Dubois-Brugger; Mélanie Dykman; Matthieu Horgnies
A method includes using an element which includes a monoblock concrete body with a volume greater than 1 L and a surface porosity greater than 8%, which body includes in the body and/or on a surface thereof a compound having a BET specific surface greater than 100 m2/g, and which element does not include a photocatalytic agent, to absorb from the atmosphere a gas selected from the group consisting of nitrogen oxides, carbon oxides, sulphur oxides, and ozone, or a volatile organic compound.
255	METHOD AND COMPOSITION FOR ROAD CONSTRUCTION AND SURFACING	US13360774	2012-01-29	US20120129983A1	2012-05-24	ROBERT W. VITALE; FRANK D. ELSWICK; GINA M. GREENLEE
Methods and compositions for improving the strength and longevity of secondary roadways through environmentally sound practices are disclosed herein. A composition for road sealing includes an aqueous emulsion of acrylic and vinyl acetate polymer, water, and a resin-modified emulsion, wherein the resin-modified emulsion includes a mixture of pitch and rosin, an emulsifying agent, and water.
256	Cement compositions for applying to ceramic honeycomb bodies	US12313460	2008-11-20	US08182603B2	2012-05-22	Anthony Joseph Cecce; Thomas James Deneka; Kintu Odinga X Early; Jeffrey Donald Roche; Patrick David Tepesch
Disclosed are cement compositions for applying to honeycomb bodies. The cement compositions can be applied as a plugging cement composition, segment cement, or even as after applied artificial skins or coatings. The cement compositions generally include an inorganic powder batch mixture consisting essentially of inorganic particles having a particle size greater than 100 nm. The cement compositions can further include an organic binder, a liquid vehicle, and one or more optional processing aids. Also disclosed are honeycomb bodies having the disclosed cement compositions applied thereto and methods for making same.
257	Use of polymeric microparticles in building material mixtures	US12290880	2008-11-04	US08177904B2	2012-05-15	Lars Einfeldt; Gerhard Albrecht; Gerd Löhden; Holger Kautz
The use of polymeric microparticles having a cavity in hydraulically setting building material mixtures is described, from 1 to 100% by volume of the cavity of these microparticles being filled with water. In this way, remarkable concrete resistance to the freezing and thawing cycle is achieved, these microparticles providing improved protection for the concrete from the effects of the freezing and thawing cycle, even at a diameter of from 0.1 to 1 μm and in doses which are 1 to 2 orders of magnitude lower than those described in the prior art. Moreover, the compressive strength of the correspondingly hardened concrete is substantially improved, which was likewise not foreseeable.
258	Method and composition for road construction and surfacing	US13102213	2011-05-06	US08104991B2	2012-01-31	Robert W. Vitale; Frank D. Elswick; Gina M. Greenlee
Methods and compositions for improving the strength and longevity of secondary roadways through environmentally sound practices are disclosed herein. A composition for road sealing includes an aqueous emulsion of acrylic and vinyl acetate polymer, water, and a resin-modified emulsion, wherein the resin-modified emulsion includes a mixture of pitch and rosin, an emulsifying agent, and water.
259	Fibrous plasticized gypsum composition	US12766854	2010-04-23	US20110262733A1	2011-10-27	Peter Paul Roosen; Thomas P. O'Keefe
A composition comprising purposely oriented lignocellulosic fiber bound to an inorganic hydrate such as gypsum in the absence of water using a polymer. In a preferred embodiment the polymer is polyurethane. A process for producing the composition and a wide variety of applications of the composition are also described.
260	Syrup composition, resin mortar composition and method of coating	US12067419	2006-09-13	US08007585B2	2011-08-30	Yujiro Yoshii; Toshikazu Aoki; Mikio Takasu
A syrup composition of the present invention comprises a mixture of monomers (A), each having a molecular mass of 130 to 300 and one (meth)acryloyl group; a resin (C) which is soluble in the monomers (A) and has a glass transition temperature of 20 to 155° C.; a wax (D); and a tertiary amine (E), wherein the monomers (A) contain a heterocyclic ring-containing (meth)acrylate (a1), an oligoethylene glycol monoalkyl ether (meth)acrylate (a2), and a hydroxyalkyl (meth)acrylate (a3) having a hydroxyalkyl group with 2 or 3 carbon atoms. The syrup composition does not substantially contain a polyvalent metal soap.

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