序号 专利名 申请号 申请日 公开(公告)号 公开(公告)日 发明人
161 Cement raw material method of municipal waste incineration ash JP13718698 1998-05-19 JP4067641B2 2008-03-26 敏隆 山▲崎▼; 正康 山▲崎▼; 光一 橋本; 衞 田中; 和義 真鍋; 倫朗 石▲崎▼
162 Method of producing cement JP2006160559 2006-06-09 JP2007326750A 2007-12-20 NAGOSHI YOSHIYUKI; TODA HARUHIKO
<P>PROBLEM TO BE SOLVED: To provide a method of producing cement by which water-soluble mercury contained in a cement raw material such as coal ash, garbage incineration ash and/or sewage sludge incineration ash is removed and the removed mercury is simply processed. <P>SOLUTION: In the method of the cement, the water-soluble mercury is removed by washing the cement raw material such as coal ash, garbage incineration ash and/or sewage sludge incineration ash with water. By the producing method, the mercury in the cement kiln is sufficiently reduced with a simple process of washing with water. <P>COPYRIGHT: (C)2008,JPO&INPIT
163 Concrete product JP2001358658 2001-11-26 JP2003160368A 2003-06-03 MORI HIROAKI; YOSHIMOTO MINORU; HAYAKAWA TAKAYUKI
PROBLEM TO BE SOLVED: To provide a concrete product which is good in strength revelation in spite of using more refuse originating material even in the case of being subjected to the steam aging. SOLUTION: The concrete product is manufactured by forming a mixture of a hydraulic composition, composed of a crushed material of a fired matter manufactured from at least ≥ one between refuse incinerated ash and sludge incinerated ash as a raw material, an aggregate, a part of or whole of which is made by refuse originating material, and a composition containing water, then hardened by steam aging. COPYRIGHT: (C)2003,JPO
164 Method for manufacturing cement material JP2000403847 2000-12-04 JP2002168431A 2002-06-14 KUME SHOICHI
PROBLEM TO BE SOLVED: To solve the problem in the conventional art that dioxin is formed in incineration treatment of waste, and the dioxin is contained, as a natural result, in the incineration ash of the waste, if the ash is dumped as it is in a disposal site, the dioxin remains toxic, further if the dioxin is solidified with cement at normal temperature, hazard of the dioxin remains exposed. SOLUTION: In the treatment of general and industrial wastes, and treatment of incineration ash and fly ash, a system of a direct melting furnace is employed. The furnace comprises a coke bed, which is very effective for restriction of dioxin formation. In this furnace, a reduction reaction occurs at a temperature of at least 1,000 deg.C, a sufficient temperature for conducting a thermal decomposition of dioxin. Slag melted at high temperature is discharged to the outside of the furnace and cooled, even if dioxin recombination is generated in the cooling time, elution of harmful mater is hindered by the sticking action of the slag.
165 Treatment for converting waste into cement raw material JP9114599 1999-03-31 JP2000281398A 2000-10-10 IDA MASAYA; SUZUKI TSUTOMU; MIURA KEIICHI
PROBLEM TO BE SOLVED: To provide a treatment process for converting waste such as municipal refuse incineration ash or sewage sludge incineration ash, into a treated material which contains substantially no sulfate ions and has a drastically reduced lead content and is suitable as a cement raw material by subjecting such waste to sulfuric acid leaching to elute and separate copper and zinc from the waste, further subjecting the sulfuric acid-leaching residue to alkali leaching to elute and separate lead from the residue and converting gypsum in the reside into calcium hydroxide. SOLUTION: This treatment process comprises: adding sulfuric acid to waste such as municipal refuse incineration ash or sewage sludge incineration ash or solid matter in a slurry of such waste thereby subjecting the waste to sulfuric acid leaching in a ≤400 g/l solid/liquid ratio and at a pH of ≤4, to decompose and elute copper and zinc, to solidify lead and calcium as lead sulfate and gypsum, respectively, so as to allow them to remain in the residue and to perform liquid-solid separation of the leachate and the residue from each other; and adding an alkali to the surface acid-leaching residue so as to form a slurry having a ≤200 g/l solid/ liquid ratio and strong alkalinity of a pH of ≥13.5, to leach most of lead, to convert gypsum into calcium hydroxide, to perform solid-liquid separation of the leachate and the alkali- leaching residue from each other and to remove sulfate ion. Thus, the recovered solid matter (alkali-leaching residue) containing substantially no lead and almost no sulfate ion is appropriately used as a cement raw material. Further preferably, the waste is subjected to water washing treatment in a 300 g/l solid/liquid ratio beforehand to remove water-soluble chlorine compounds. COPYRIGHT: (C)2000,JPO
166 Treatment of sludge incineration ash JP26914398 1998-09-24 JP2000095549A 2000-04-04 SUZUKI TSUTOMU; MIURA KEIICHI; TODA YOSHITOMO; HASHIMOTO KAZUAKI
PROBLEM TO BE SOLVED: To recover phosphorus as high-purity phosphoric acid, to suppress the reaction to form calcium sulfate and not to deteriorate cement when used as a cement material by applying solid-liq. separation to a slurry obtained by adding sulfuric acid to sludge incineration ash, recovering a phosphoric acid soln. from the separated liq., adding an alkali soln. to the separated solid and using the solid residue separated from liq. as the cement material. SOLUTION: Any sludge incineration ash contg. a phosphorus component can be used, and the incineration ash of sewage sludge, river sludge or silt is normally used. The incineration ash contg. a large amt. of an alkaline-earth metal component such as calcium and so on is preferably used. Phosphorus is leached out by sulfuric acid in an ordinary temp. range of 0-40 deg.C. The normality of the sulfuric acid soln. is preferably >=1 to increase the elution efficiency, and 1 N sulfuric acid is preferably used by 3300 ml for 100 g of the incineration ash. Sodium hydroxide is used in the alkali soln., and >=500 ml of the soln. is added to 100 g of the solid residue after the sulfuric acid is added.
167 Pyrolysis of dioxin and device therefor JP18475898 1998-06-30 JP2000016844A 2000-01-18 YAMAMOTO YASUSHI; MICHIHASHI HIDEJI; SATO KOICHIRO; OGIRI TETSUO
PROBLEM TO BE SOLVED: To provide a method for pyrolyzing dioxin worried on the employment of incinerated ash in the production of an ecological cement, and to provide a device for pyrolyzing the dioxin. SOLUTION: This method for pyrolyzing dioxin comprises collecting kiln dust containing the non-pyrolyzed dioxin, treating the collected kiln dust 14 with an acid to precipitate the dioxin together with the lead product, heating the precipitates at a higher temperature than the boiling point of the dioxin, guiding the evaporated dioxin-containing gas 20 into a rotary kiln 3 for calcining a cement, and subsequently pyrolyzing the guided dioxin with heat on the calcination of the cement.
168 Treatment of refuse incineration ash containing dioxin JP19310397 1997-07-02 JPH1119623A 1999-01-26 YAMAZAKI MASAYASU; HASHIMOTO KOICHI
PROBLEM TO BE SOLVED: To surely and inexpensively make dioxin non-polluting by feeding refuse incineration ash contg. the dioxin into a cement kiln for firing cement clinker from cement raw materials and pyrolyzing the dioxin in the refuse incineration ash by the firing heat at firing the clinker. SOLUTION: The cement raw materials are calcined during the flow down in the respective cyclones 2a of a preheater 2 and are thereafter fed to the kiln tail section 4a of the cement kiln 4 where the cement clinker is fired by burner heating. At this time, the refuse incineration ash contg. the dioxin stored in a storage tank 9 is fed into the kiln tail section 4a by a truck 8 from a refuse incineration furnace 5 and a dust collector 6. Burner heating is executed at a temp. exceeding the pyrolysis temp. of the dioxin in the cement kiln 4 and is rotated at a low speed in a circumferential direction. As a result, the cement clinker is fired and simultaneously the dioxin included in the fed refuse incineration ash is well pyrolyzed and made non-polluting.
169 Production of cement and apparatus for production therefor JP30197895 1995-10-25 JPH09118551A 1997-05-06 YAMAMOTO YASUSHI; OGIRI TETSUO; MICHIHASHI HIDEJI; TAMAE TAKAMIKI
PROBLEM TO BE SOLVED: To enable the stable operation of a kiln possible by rapidly cooling the waste gases at the tail at the kiln, thereby eliminating coating troubles and suppressing the reformation of dioxin and to stable produce cement and cement based solidifying material by efficiency treating waste gas dust and effectively utilizing this gas in the production of the cement and cement based solidifying material by firing the chlorine-contg. raw materials, such as incineration ashes of municipal waste, in the kiln. SOLUTION: The waste gases at the kiln end are cooled with air or water to lower the waste gas temp. down to ≤400°C, more preferably ≤300°C. Further, calcium carbonate, dolomite, quicklime or slaked lime, etc., are blown to the waste gases to rapidly cool the gases. The apparatus for production is illustrated in the Fig. The compounded raw materials contg. cement raw materials, etc., are molded to about 5 to 50mm and the moldings are supplied, after drying, into the kiln 1 from a housing 3. The moldings are cooled in a clinker cooler 6 after firing. The waste gases are introduced to a waste gas duct 3, a classifying means 4, a dust collector 5 and a fan device 7. A rapid cooling means 8 is disposed in the lower part 3b of a discharge duct 3. COPYRIGHT: (C)1997,JPO
170 Clinker for high sulfate coal ash cement and its production JP9977694 1994-05-13 JPH07309646A 1995-11-28 MASUDA YOSHITAKA
PURPOSE: To obtain a clinker fit to produce high sulfate coal ash cement having a high rate of setting and ensuring high strength by compacting and firing a fine powdery mixture of coal ash with gypsum, limestone and a small amt. of fluorite. CONSTITUTION: A fine powdery mixture of coal ash discharged as a by-product from a thermal power plant with gypsum, limestone and a small amt. of fluorite is compacted and fired to obtain the objective clinker for high sulfate coal ash cement consisting essentially of 16.5-17.5% SiO 2, 9-10.5% Al 2O 3, 0.7-0.9% Fe 2O 3, 63.0-65.4% Cab, 1.9-2.4% MgO and 4.0-5.3% SO 2 and contg. 0.7-3% free lime. COPYRIGHT: (C)1995,JPO
171 Method of desulfurizing flue gas from combustion apparatus JP25685 1985-01-07 JPS60156531A 1985-08-16 ARUBUREHITO UORUTERU; HORUSUTO HERUHIENBATSUHA
172 JPS5038726A - JP7122374 1974-06-21 JPS5038726A 1975-04-10
173 MORTAR OR CONCRETE PRODUCED WITH A HYDRAULIC BINDER EP14909564 2014-12-30 EP3241812A4 2018-07-25 BURGOS ENRIQUEZ ENRIQUE
The invention relates to mortar or concrete produced with a hydraulic binder, comprising aggregates from cinders from the bottom of municipal waste incinerators and/or from slurry from wastewater treatment plants, or other natural or artificial aggregates, of different particle sizes depending of the use thereof as mortar or concrete, and a binder consisting of: glass and/or other pozzolans; pure Portland clinker with gypsum or plaster of Paris, or the resulting cements following the grinding thereof; and/or optionally lime, depending on the quantity of glass and/or pozzolans; all of the materials forming the base of the binder being ground and mixed together until a binder is obtained, together with the aggregates, with cementing mineral neoformations and a strong pozzolanic character.
174 CEMENTITIOUS BINDERS, ACTIVATORS AND METHODS FOR MAKING CONCRETE EP13728240.6 2013-05-31 EP2855394B1 2018-06-20 BALL, David Martin James; LISKA, Martin; HEWLETT, Peter
An activator composition for a non-OPC hydraulically-active material comprises an activator, which is CaO or lime, and a polycarboxylate-ether-based (PCE) superplasticiser, and is mixable with a hydraulically active material comprising ground granulated blast furnace slag (GGBS) and/or pulverised fuel ash (PFA) to form a cementitious binder. The cementitious binder does not comprise any Portland cement and is, therefore, more environmentally friendly.
175 MORTAR OR CONCRETE PRODUCED WITH A HYDRAULIC BINDER EP14909564.8 2014-12-30 EP3241812A1 2017-11-08 BURGOS ENRIQUEZ, Enrique

The invention relates to mortar or concrete produced with a hydraulic binder, comprising aggregates from cinders from the bottom of municipal waste incinerators and/or from slurry from wastewater treatment plants, or other natural or artificial aggregates, of different particle sizes depending of the use thereof as mortar or concrete, and a binder consisting of: glass and/or other pozzolans; pure Portland clinker with gypsum or plaster of Paris, or the resulting cements following the grinding thereof; and/or optionally lime, depending on the quantity of glass and/or pozzolans; all of the materials forming the base of the binder being ground and mixed together until a binder is obtained, together with the aggregates, with cementing mineral neoformations and a strong pozzolanic character.

176 CALCIUMSULFOALUMINATZEMENT MIT TERNESIT EP12735471.0 2012-07-16 EP2744766A2 2014-06-25 BULLERJAHN, Frank; SCHMITT, Dirk; BEN HAHA, Mohsen; BATOG, Barbara; ZAJAC, Maciej
The invention relates to a ternesite calcium sulfoaluminate clinker and to a ternsite clinker having 20 - 100 wt.-% C 5S 2$ and less than 15 wt.-% C 4A 3$, and to the use of ternesite as an additive in calcium-sulfoaluminate (ferrite)(belite) clinker (CSA(F)(B)), calcium-sulfoaluminate (ferrite)(belite) cement, and to binding agents containing 10 - 90 wt.-% CSA(F)(B) and 90 - 10 wt.-% ternesite.
177 INSTALLATION POUR LA FABRICATION D'UN CLINKER CIMENTIER COMPRENANT UN DISPOSITIF POUR LA PRODUCTION DE GAZ DE SYNTHÈSE À PARTIR DE DÉCHETS SOLIDES EP11832127.2 2011-10-27 EP2633004A2 2013-09-04 HUE, François; PASQUIER, Michel; LAC, Philippe
The invention relates to a cement clinker manufacturing plant characterized in that it comprises: a plant for producing purified syngas, obtained from solid waste, and means for transferring ash recovered from the ash pan (6) of the gasifier (3) to at least one inlet of the feedstock conversion device, which the plant includes, and/or of the furnace (15) for the purpose of incorporating said ash into the feedstock; and means (32) for conveying the purified syngas to the main tuyere (7) of the furnace (15) and/or to at least one inlet of the feedstock conversion device.
178 Feuchtigkeit und flüchtige organische Verbindungen speicherndes Baustoffgemisch und Verputz EP10172288.2 2010-08-09 EP2289857A2 2011-03-02 Braun, Reiner; Simmler, Hans; Vonbank, Roger; Blessing, Rudi

Es wird ein Baustoffgemisch und ein Verputz offenbart, welcher Feuchtigkeit aus der Raumluft aufnehmen und abgeben kann und zusätzlich leicht flüchtige organische Verbindungen (VOCs) aus der Raumluft adsorbiert und damit aus der Raumluft entfernt. Aus dem Baustoffgemisch kann ein Verputz als druckfester Unterputz oder Oberputz ausgebildet sein, welche neben mindestens einem Anteil aus Aktivkohle, Adsorptionsmittel aus Mehrschichtsilikaten, wie Montmorillonit, sowie Verstärkungsmittel in Form von Cellulosefasern und/oder Kohlefasern und ein mineralisches Bindemittel umfasst.

179 Improvements in and relating to waste handling EP08166502.8 2008-10-13 EP2047919A1 2009-04-15 Casey, Daniel; Collier, Andrew James Harvey; Jones, Andrew

There is provided a method of treating waste ash (10). The method comprises combining waste ash with water to form a waste ash slurry (30); treating the waste ash slurry and/or the waste ash and/or water to be combined with the waste ash to lower the pH thereof; and dewatering the waste ash slurry. The method further comprises the step of washing the resultant ash product with water to provide a washed ash product (120) by re-cycling water (70) removed from the waste ash slurry.

180 Procédé de traitement de résidus d'épuration des fumées d'incineration d'ordures menagères et produit obtenu EP05300173.1 2005-03-09 EP1582508A9 2009-01-07 Marcadier, Eric

L'objet de l'invention est une utilisation d'un vitrifiat de Réfiom comme composé secondaire dans un clinker en cimenterie.

L'invention concerne aussi l'utilisation d'un vitrifiat de Réfiom dans le milieu de la route, par sa capacité à produire des fines d'attrition sous les effets des différentes manutentions, du malaxage, du transport, du répandage et surtout du compactage par des engins lourds.

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