141 |
Coating composition |
US233833 |
1988-08-16 |
US4863516A |
1989-09-05 |
Mark F. Mosser; Kevin B. Eddinger; William J. Fabiny |
A coating composition based upon an aqueous acid binder solution containing phosphate and chromate and/or molybdate ions into which has been dispersed a blend of metallic powder particles of three primary dimensions and flat metal flake materials, which can be applied to a substrate part to be coated more uniformly and thickly than conventional metal flake coatings, and which imparts better corrosion and impact resistance than conventional powder metal coatings. |
142 |
Multiple liquid proportional dispensing device |
US530770 |
1983-09-07 |
US4585150A |
1986-04-29 |
Robert C. Beacham; Robert E. Switek, Jr.; Jack Buelow |
The apparatus of this invention is for dispensing two liquids so that the ratio K of the flow rates of the liquids is substantially constant. The apparatus comprises two containers each having a dispensing orifice and an air vent passage having two ends, an inlet end at the outside surface of the container and an outlet end inside the container. In the preferred embodiment, the containers are geometrically proportional in shape with the dispensing or pouring orifices and vent passages all in corresponding locations. The ratio of the cross-sectional areas of the pouring orifices of the two containers is C K.sup.5/6 where C is the ratio of the flow coefficients of the two liquids to be poured. When the containers are placed in the same spatial orientation and each filled to the same proportion of fullness with different liquids and then tilted simultaneously to the same pour angle while maintaining the outlet end of the vent passage at a higher elevation than the pouring orifice for each container, the ratio of the flow rates of the liquids poured from the pouring orifices of the containers is equal to K. |
143 |
Refractory mortar composition |
US641720 |
1975-12-17 |
US3986884A |
1976-10-19 |
George Hugh Criss; Ernest Paul Weaver |
A refractory composition suitable for use as a mortar which consists of chromic oxide and high alumina refractory material and a bonding material consisting of anhydroglucose polymer and phosphoric acid, the composition being substantially free of SiO.sub.2. |
144 |
Mix for forming lightweight concrete |
US3470005D |
1965-09-10 |
US3470005A |
1969-09-30 |
FLACHSENBERG PAUL; WUHRER JOSEF; STEIN WALTER |
|
145 |
MASONRY BLOCK HAVING A BIASED-RUBBER FACE |
US16194541 |
2018-11-19 |
US20190249429A1 |
2019-08-15 |
Nasser M. AL-AQEELI; Homoud M. ASSEHDI; Mohammad MASLEHUDDIN |
A cementitious composite and cured masonry block made from the cementitious composite. The cementitious composite contains a cement, a non-rubber aggregate, a crumb rubber and at least one of cement kiln dust and limestone powder. The crumb rubber aggregate is extracted from scrap tires after being processed and then mixed in specified percentages with the aggregate, the cement and water, then cured in forms to make the masonry blocks. In the present disclosure sand, which is used in conventional masonry blocks, is at least partially replaced with crumb rubber to produce a sand-free or sand-reduced masonry block that contains crumb rubber. The crumb rubber masonry blocks satisfy the ASTM non-load bearing requirements. The use of crumb rubber decreases the unit weight and increases thermal resistance of the masonry blocks. The use of cement kiln dust or limestone as a partial replacement of cement will lead to decrease in the cost. The use of industrial waste materials, such as crumb rubber, limestone powder and cement kiln dust, will lead to economic and environmental benefits. |
146 |
Method for producing an insulating composite building block |
US15300855 |
2015-04-02 |
US10040726B2 |
2018-08-07 |
Hélène Lombois-Burger; Cédric Roy; Christophe Levy |
A method for producing a composite insulating mineral block, includes providing a mineral masonry block including at least one cell with walls having a water absorption rate of less than 5 g/(m2·s) at 10 minutes, and filling the cell with a mineral cement foam, wherein a cement used to produce the mineral cement foam has an aluminum oxide content of less than 20% by weight of the cement. |
147 |
LOW-CALCIUM SILICATE CEMENT AND PREPARATION AND HARDENING METHODS THEREOF |
US15571248 |
2015-09-25 |
US20180111875A1 |
2018-04-26 |
Guihua HOU; Bao LU; Xiaojiao GAO; Qinfang ZHANG; Yuebin CAO; Entian CUI; Zetian TAO; Ruiyu JIANG; Feng ZHANG |
A low-calcium silicate cement, comprising: based on the total mass of oxides as 1, 50-60% of calcium oxide, 30-45% of silica, 2-6% of alumina, and 1-4% of iron oxide. A preparation method of the low-calcium silicate cement comprises: subjecting raw materials to crushing, joint grinding and uniform mixing to obtain a low-calcium silicate cement raw meal; calcining the above low-calcium silicate cement raw meal at 1050-1300° C. for 30-90 min, and cooling to obtain low-calcium silicate cement clinker; and levigating the above low-calcium silicate cement clinker till a specific surface area is 400-500 m2/Kg, thereby obtaining a low-calcium silicate cement. |
148 |
LIGHTWEIGHT FOAMED CEMENT, CEMENT BOARD, AND METHODS FOR MAKING SAME |
US15213751 |
2016-07-19 |
US20180022653A1 |
2018-01-25 |
Marianela Perez-Pena |
Disclosed is a foamed cementitious composition which limits or eliminates aggregate, especially porous lightweight aggregate and uses a lower than usual water to cementitious composition weight ratio. The stable cementitious foam mixtures may be employed to make cement boards and other cement products. The foamed cementitious composition was made with additions of PVOH foaming stabilizer and surfactant foaming agents to make foam water or by entrain air into cementitious slurry mixtures. The cementitious mixtures have a limited amount or preferably no perlite and no lightweight aggregate. The resulting foamed mixture had foam bubbles with size in the range of 50 to 200 μm. After setting the foamed cementitious composition the resulting set board has air cells with size in the range of 50 to 200 μm. |
149 |
LOW-TEMPERATURE-CURABLE CROSS-SECTION REPAIR MATERIAL, AND CROSS-SECTION REPAIRING METHOD USING THE SAME |
US15545744 |
2016-02-16 |
US20180002562A1 |
2018-01-04 |
Kunihiro KUROKI; Atsushi UMINO |
Provided is a low-temperature-curable cross-section repair material which can be cured in a short period of time, even in extremely low temperature environments of −25° C., and which exhibits excellent workability and strength development. Also provided is a cross-section repairing method using the same. The low-temperature-curable cross-section repair material is characterized by: comprising 100 parts by of a radical polymerizable resin composition (A), 0.1-10 parts by of a hydroxyl group-containing aromatic tertiary amine (C-1), 0.1-10 parts by of an organic peroxide (D), and 1.0-500 parts by of an inorganic filler (E); and the radical polymerizable resin composition (A) comprising at least one type of radical polymerizable resin (A-1) selected from the group consisting of vinyl ester resins, urethane (meth)acrylate resins and polyester (meth)acrylate resins, and a radical polymerizable unsaturated monomer (A-2) having at least two or more (meth)acryloyl groups per molecule thereof. |
150 |
Lightweight foam concrete with elemental sulfur |
US15445200 |
2017-02-28 |
US09834477B1 |
2017-12-05 |
Mohammed H. Al-Mehthel; Mohammed Maslehuddin; Saleh H. Al-Idi; Mohammed Shameem |
A foam concrete with elemental sulfur has constituents that include a cement, a fine filler, an elemental sulfur in powder form, a coarse aggregate, a water, and a foam solution. The foam solution includes a foaming agent and a foaming water. The foam concrete has a compressive strength of at least 26 MPa, a thermal conductivity of less than 0.30 W/mK and a maximum dry weight of 1620 kg/m3. |
151 |
Foam concrete with oil ash |
US15420557 |
2017-01-31 |
US09796624B1 |
2017-10-24 |
Mohammed Heshan Al-Mehthel; Mohammed Maslehuddin; Saleh H. Al-Idi; Mohammed Ibrahim |
A foam concrete has constituents that include a cement, a sand, a coarse aggregate, an oil ash, a water, and a foam solution. The foam concrete has a compressive strength of at least 20 MPa, a thermal conductivity of less than 0.41 W/mK and a maximum weight of 1650 kg/m3. |
152 |
Method for reducing elemental sulfur in gypsum products |
US14931766 |
2015-11-03 |
US09656876B1 |
2017-05-23 |
John W. College; Sang-Ho Lee; Chris Hilton; Yu-Zhi Kiang; Choung-Houng Lai; George Glavin |
Disclosed are various methods for reducing levels of elemental sulfur within gypsum products such as wall board. Gypsum sometimes includes increased levels of elemental sulfur. Such sulfur can be corrosive and otherwise harmful at elevated levels. The disclosure contemplates reacting the elemental sulfur with copper to copper sulfide. This reaction has the benefit of reducing the levels of elemental sulfur present within the final gypsum product. The copper can be added at any of a variety of locations in the manufacturing process. This is a very efficient method for reducing elemental sulfur in the production of gypsum products. |
153 |
Method For Reducing Elemental Sulfur In Gypsum Products |
US14931766 |
2015-11-03 |
US20170121183A1 |
2017-05-04 |
John W. College; Sang-Ho Lee; Chris Hilton; Yu-Zhi Kiang; Choung-Houng Lai; George Glavin; Helen Ilyashenko |
Disclosed are various methods for reducing levels of elemental sulfur within gypsum products such as wall board. Gypsum sometimes includes increased levels of elemental sulfur. Such sulfur can be corrosive and otherwise harmful at elevated levels. The disclosure contemplates reacting the elemental sulfur with copper to copper sulfide. This reaction has the benefit of reducing the levels of elemental sulfur present within the final gypsum product. The copper can be added at any of a variety of locations in the manufacturing process. This is a very efficient method for reducing elemental sulfur in the production of gypsum products. |
154 |
Sintered ferrite magnet and its production method |
US14429502 |
2013-08-30 |
US09536646B2 |
2017-01-03 |
Yoshinori Kobayashi; Tsunehiro Kawata |
A sintered ferrite magnet comprising metal elements of Ca, La, Fe and Co, whose atomic ratios are represented by the general formula of Ca1-xLaxFe2n-yCoy, wherein x and y, and n representing a molar ratio meet 0.3≦x≦0.6, 0.25≦y≦0.5, and 3≦n≦6, and further comprising 0.2% to 0.35% by mass of SiO2. |
155 |
Joint compound, wall assembly, and methods and products related thereto |
US14500333 |
2014-09-29 |
US09249578B2 |
2016-02-02 |
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. |
156 |
Calcium aluminate cement |
US14278125 |
2014-05-15 |
US09193626B2 |
2015-11-24 |
Douglas Ostrander; Markus Schmid |
The present invention relates to a white calcium aluminate cement containing at least 90% by weight of monocalcium aluminate, an A/C value in the range of 1.75 to 2.0, a fineness according to Blaine in the range of 3500 to 6000 cm2/g, a slope n in the range of 1.1 to 1.5 and a location parameter x′ of 8-20 μm in an RRSB particle size grid according to DIN 66145 as well as its use in formulations of the construction chemical industry and the refractory industry. |
157 |
SPRAY-APPLIED JOINT COMPOUND, WALL ASSEMBLY, AND METHODS AND PRODUCTS RELATED THERETO |
US14736861 |
2015-06-11 |
US20150284543A1 |
2015-10-08 |
Pamela L. Hargrove; Kevin W. Moyer, JR.; Rafael Bury; Robert Negri |
Provided are compositions and methods for expeditious wall installation by spray-applying a joint compound comprising a polymeric binder and hollow spheres. |
158 |
PROCESS TO PRODUCE A DURABLE CONCRETE AT HOT AMBIENT CONDITIONS |
US14425949 |
2013-09-23 |
US20150218048A1 |
2015-08-06 |
Wolfram Franke |
The invention relates to the use of calcium nitrate for producing a cementitious composition and/or a cementitious solid at high ambient temperatures. The invention is directed to ensuring sufficient hydration by a limitation of the maximum hydration temperature. |
159 |
SELF-LEVELLING CONCRETE |
US14380971 |
2013-03-06 |
US20150047534A1 |
2015-02-19 |
Thierry Claude Consales |
The invention relates to uniformed concrete comprising, in percentages by weight, (d) 87% to 98% of particles comprising more than 90 wt.-% alumina, (c) 1% to 7% silica fume particles, (f) 1% to 8% particles of a hydraulic cement, the fraction of said particles having a size less than 40 μm being distributed as follows, in percentage by weight in relation to the weight of the unformed concrete: fraction <0.5 μm: ≧4%, fraction <2 μm: ≧5%, fraction <10 μm: ≧19%, fraction <40 μm: 34%-52%, fraction between 2 μm and 40 μm: 26.5%-34%, the concentration of Zro2, in percentage by weight on the basis of the uniformed concrete, being less than 2%, and the concentration of organic fibres, in percentage by weight on the basis of the uniformed concrete, being less than or equal to 0.03%. |
160 |
Utilization of heavy oil ash to produce high quality concrete |
US13665303 |
2012-10-31 |
US08945300B2 |
2015-02-03 |
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. |