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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
61	Method for applying sealing material paste to peripheral surface of ceramic block	US14495896	2014-09-25	US09610606B2	2017-04-04	Tomohiro Takano; Kazuya Bando
A method of manufacturing a honeycomb structured body, includes providing an application jig. A sealing material paste is put on a peripheral surface of a pillar-shaped ceramic block. The application jig is set in such a manner that a first principal surface of the application jig faces upward and a second principal surface of the application jig faces downward. The ceramic block is placed inside a second opening section of the application jig. The ceramic block is passed through an opening section of the application jig so that a face defining the second opening section spreads an entire peripheral surface of the ceramic block with the sealing material paste to manufacture a honeycomb structured body with a peripheral sealing material layer formed on the peripheral surface of the ceramic block.
62	Manufacturing method of honeycomb structure	US13851397	2013-03-27	US09099228B2	2015-08-04	Toru Ogawa; Shuhei Fujita; Shinya Yoshida
The manufacturing method of the honeycomb structure includes a step of coating a surface of each of releasing sheets with a paste for an electrode, to prepare electrode forming sheets in which the releasing sheets are provided with electrode paste films; a formed honeycomb body with the electrode forming sheets forming step of attaching the electrode forming sheets to a side surface of a tubular formed ceramic honeycomb body which is the curved surface to prepare a formed honeycomb body with the electrode forming sheets; and a honeycomb structure forming step of firing the formed honeycomb body, or removing releasing sheets from the formed honeycomb body to form the formed honeycomb body with the pastes for the electrodes, and then firing the formed honeycomb body with the pastes for the electrodes, to obtain a honeycomb structure having a side surface provided with the electrodes.
63	CERAMIC COMPONENT	US14522746	2014-10-24	US20150045200A1	2015-02-12	Wayde R. Schmidt; David C. Jarmon; William K. Tredway
A ceramic component includes a porous structure that has fibers and a coating on the fibers. A ceramic material is within pores of the porous structure. A glass or glass/ceramic material is within pores of the porous structure, and one of the ceramic material or the glass or glass/ceramic material is within internal residual porosity of the other of the ceramic material or the glass or glass/ceramic material.
64	Cellular Ceramic Article and Method For Manufacturing The Same	US13834415	2013-03-15	US20140272276A1	2014-09-18	Kenneth Joseph Drury; Paul John Shustack; Todd Parrish St. Clair
A method and apparatus to treat a dried unfired article comprising a ceramic precursor composition substantially held together by a binder, to be resistant to binder soluble solvent based processing. The method includes depositing a fluid on the article surface, and polymerizing the deposited fluid to form a polymer thin layer on the surface. The fluid may be an aerosol, a vapor, a fog, a mist, a smoke, or combinations thereof. An apparatus to perform the method and an article resistant to binder soluble solvent based processing are also provided. The article can be an unfired honeycomb body that includes a dried composition of ceramic precursor substantially held together by a binder and a layer disposed on a surface of the unfired honeycomb body. The surface to be exposed in the green state to a binder soluble solvent and the layer protects the binder from solubilization by the solvent.
65	MANUFACTURING METHOD OF HONEYCOMB STRUCTURE	US13851397	2013-03-27	US20130255854A1	2013-10-03	Toru OGAWA; Shuhei FUJITA; Shinya YOSHIDA
The manufacturing method of the honeycomb structure includes a step of coating a surface of each of releasing sheets with a paste for an electrode, to prepare electrode forming sheets in which the releasing sheets are provided with electrode paste films; a formed honeycomb body with the electrode forming sheets forming step of attaching the electrode forming sheets to a side surface of a tubular formed ceramic honeycomb body which is the curved surface to prepare a formed honeycomb body with the electrode forming sheets; and a honeycomb structure forming step of firing the formed honeycomb body, or removing releasing sheets from the formed honeycomb body to form the formed honeycomb body with the pastes for the electrodes, and then firing the formed honeycomb body with the pastes for the electrodes, to obtain a honeycomb structure having a side surface provided with the electrodes.
66	Porous synthetic bone graft and method of manufacture thereof	US10343482	2001-07-27	US07094371B2	2006-08-22	Wei Jen Lo
A process for preparing artificial bone is described which comprises: (i) preparing a mixture of a finely divided bio-compatible ceramic powder, an organic binder and a pore-forming agent in an inert liquid to form a body and causing at least some of the pore-forming agent to align along a common axis; (ii) optionally shaping the resulting body; (iii) allowing the pore-forming agent to form a porous structure in the body; (iv) heating the shaped body to a temperature sufficient to fix the porous structure and; (v) further heating the body to eliminate residues of organic binder and pore-forming agent and to fuse it.
67	Method of making a terrazzo surface from recycled glass	US10454678	2003-06-05	US06770328B1	2004-08-03	Tim Whaley
The method of making a terrazzo surface from recycled glass involves several steps. First, the substrate over which the terrazzo layer is formed is conditioned and primed. Second, an epoxy mixture is made by mixing crushed recycled glass, epoxy resin and epoxy primer. Third, the epoxy mixture is poured over the substrate to a height of ⅜″ nominally. Fourth, the mixture is troweled and allowed to cure and harden. Fifth, the surface is ground and polished to expose glass fragments near the surface. Grout is then applied to fill any air bubbles opened during the grinding process. Finally, the floor is polished and sealed. Decorative patterns and designs may also be formed in the terrazzo by attaching metal divider strips of different shapes to the substrate before pouring the epoxy mixture, and then using different colored mixtures to create patterns and/or designs in the surface.
68	Composite structure with foamed cementitious layer	US09663288	2000-09-15	US06613424B1	2003-09-02	Dean L. Putt; Peter A. Christie; Andrea M. Moser; Marsha Stalker Bischel; Anthony L. Wiker
The present invention provides for an acoustically absorbent porous panel that is both rigid and resistant to sagging caused by moisture. The acoustically absorbent porous panel is comprised of at least two layers. The first layer is a facing layer formed from a cured aqueous foamed cementitious material. The foamed cementitious material comprises on a wet basis about 53% to about 68% by weight cement, about 17% to about 48% by weight water, about 0.05% to about 5% by weight fiber, and about 0.01% to about 10% by weight surfactant. Additionally, pores distributed within the cured material comprising about 75% to about 95% by volume of the material. The second layer is a backing layer that is affixed to the facing layer.
69	Hollow balls and a method for producing hollow balls and for producing light-weight structural components by means of hollow balls	US10169752	2002-10-09	US20030104147A1	2003-06-05	Frank Bretschneider; Herbert Stephan; Juergen Brueckner; Guenter Stephani; Lothar Schneider; Ulf Waag; Olaf Andersen; Paul Hunkemoeller
The invention relates to hollow balls having shells comprising a sintered inorganic material, such as metals, metal oxides or ceramic, and to methods for producing lightweight structural components using such hollow balls. According to the object of the invention, the application area is to be widened, processing to form structural components is to be made technologically simpler and the properties of the hollow balls and of the structural components produced therewith are to be improved for specific applications. For this purpose, an additional solid functional layer is formed on a shell on the hollow balls. The functional-layer material can then be made able to flow and plastically and/or elastically deformed as a result of a physical and/or chemical treatment.
70	Precast concrete plates	US09894218	2001-06-28	US20010045685A1	2001-11-29	Michael Damian Bowe; Roger Shan Chung Hsin
A precast concrete plate, such as a roof tile, floor tile, wall tile or house siding, comprises in total from about 0.2% to about 5% by weight of a polymeric modifier having a Tg of above null40null C. The portion of said concrete which comprises no more than about 50% of the thickness of all the concrete which forms the plate, when measured from the bottom surface of the plate towards the top surface of the plate, includes at least about 60% by weight of said polymeric modifier. The plates have a relatively higher degree of resistance to flexural loadings and resistance to impact-impulse loadings in comparison to concrete plates which comprise no polymeric modifier, thus rendering them less likely to be broken or fractured during their storage, transfer and assembly.
71	Precast concrete plates	US09212039	1998-12-15	US06311448B1	2001-11-06	Michael Damian Bowe; Roger Shan Chung Hsin
A precast concrete plate, such as a roof tile, floor tile, wall tile or house siding, comprises in total from about 0.2% to about 5% by weight of a polymeric modifier having a Tg of above −40° C. The portion of said concrete which comprises no more than about 50% of the thickness of all the concrete which forms the plate, when measured from the bottom surface of the plate towards the top surface of the plate, includes at least about 60% by weight of said polymeric modifier. The plates have a relatively higher degree of resistance to flexural loadings and resistance to impact-impulse loadings in comparison to concrete plates which comprise no polymeric modifier, thus rendering them less likely to be broken or fractured during their storage, transfer and assembly.
72	Compositions used in manufacturing articles having an inorganically filled organic polymer matrix	US133912	1998-08-13	US6090195A	2000-07-18	Per Just Andersen; Simon K. Hodson
Compositions, methods, and systems for manufacturing articles, particularly containers and packaging materials, having a highly inorganically filled matrix. Suitable inorganically filled mixtures are prepared by mixing together an organic polymer binder, water, one or more aggregate materials, fibers, and optional admixtures in the correct proportions in order to form an article which has the desired performance criteria. The inorganically filled mixtures are molded to fashion a portion of the mixture into a form stable shape for the desired article. Once the article has obtained form stability, such as by heating to remove water by evaporation, the article is removed from the mold and allowed to harden to gain strength. The articles may have properties substantially similar to articles presently made from traditional materials like paper, paperboard, polystyrene, plastic, or metal. They have especial utility in the mass production of containers, particularly food and beverage containers.
73	System for manufacturing sheets from hydraulically settable compositions	US473790	1995-06-07	US5879722A	1999-03-09	Per Just Andersen; Simon K. Hodson
Systems for manufacturing sheets having a highly inorganically filled matrix. Suitable inorganically filled mixtures are prepared by mixing together an organic polymer binder, water, one or more inorganic aggregate materials, fibers, and optional admixtures in the correct proportions in order to form a sheet which has the desired performance criteria. The inorganically filled mixtures are formed into sheets by first extruding the mixtures and the passing the extruded materials between a set of rollers. The rolled sheets are dried in an accelerated manner to form a substantially hardened sheet, such as by heated rollers and/or a drying chamber. The inorganically filled sheets may have properties substantially similar to sheets presently made from traditional materials like paper, cardboard, polystyrene, plastic, or metal. The systems yield sheets can be rolled, pressed, scored, perforated, folded, and glued. They have especial utility in the mass production of containers, particularly food and beverage containers.
74	Method for manufacturing articles having inorganically filled, starch-bound cellular matrix	US288667	1994-08-09	US5783126A	1998-07-21	Per Just Andersen; Simon K. Hodson
Compositions, methods, and systems for manufacturing articles, particularly containers and packaging materials, having a particle packed, highly inorganically filled, cellular matrix are disclosed. Suitable inorganically filled mixtures are prepared by mixing together a starch-based binder, a solvent, inorganic aggregates, and optimal admixtures, e.g., fibers, mold-releasing agents, rheology-modifying agents, plasticizers, coating materials, and dispersants, in the correct proportions to form an article which has the desired performance criteria. The inorganically filled mixtures have a predetermined viscosity and are heated between molds at an elevated temperature and pressure to produce form-stable articles having a desired shape and a selectively controlled cellular, structure matrix. The molded articles may be placed in a high humidity chamber to obtain the necessary flexibility for their intended use. The articles may be manufactured to have properties substantially similar to articles presently made from conventional materials like paper, paperboard, polystyrene, plastic, or other organic materials. They have especial utility in the mass-production of containers, particularly food and beverage containers.
75	Methods for manufacturing articles from sheets of unhardened hydraulically settable compositions	US105741	1993-08-10	US5766525A	1998-06-16	Per Just Andersen; Simon K. Hodson
Methods and systems for readily and economically manufacturing hydraulically settable articles, particularly containers, from microstructurally engineered hydraulically settable mixtures wherein the mixture is extruded into a sheet that is feed through a plurality of sets of rollers so as to form the sheet into the desired thickness. The sheet is then pressed between a male die of a desired shape and a female die having a substantially complimentary configuration of the male die shape to immediately fashion a portion of the sheet into a form stable shape for the desired article. To assist in imparting form stability, the dies can be heated or cooled. Once the article has obtained form stability, the article is removed from the dies and dried under heated air to gain strength. The article can then be cut from the sheet and receive printing or a coating, if desired, prior to packaging, shipping, and use.
76	Methods for manufacturing sheets from hydraulically settable compositions	US475366	1995-06-07	US5720913A	1998-02-24	Per Just Andersen; Simon K. Hodson
Compositions and methods for manufacturing sheets having a hydraulically settable matrix are disclosed. Suitable compositions are prepared by mixing together a hydraulic binder, water, and appropriate additives (such as aggregates, fibers, and rheology-modifying agents) which impart predetermined properties so that a sheet formed therefrom has the desired performance criteria. The compositions are formed into sheets by first extruding them into a sheet and then calendering the sheet using a set of rollers. The calendered sheets are dried in an accelerated manner to form a substantially hardened sheet. The drying is performed by heated rollers and/or a drying chamber. The hydraulically settable sheets so formed may have properties substantially similar to sheets made from presently used materials like paper, cardboard, polystyrene, or plastic. Such sheets can be rolled, pressed, scored, perforated, folded, and glued. They have especial utility in the mass production of containers, particularly food and beverage containers.
77	Sealable liquid-tight containers comprised of coated hydraulically settable materials	US478364	1995-06-07	US5714217A	1998-02-03	Just Andersen; Simon K. Hodson
Sealable liquid-tight containers and methods for economically manufacturing such containers for storing and dispensing substances and any other purposes for which conventional sealable liquid-tight containers are utilized. The containers are readily and economically formed from mixtures of hydraulically settable binders such as hydraulic cement, gypsum and clay with water. Appropriate additives can also be added to the mixture which impart desired characteristics and properties to both the mixture and the hardened containers. The mixtures can be utilized to form containers by various methods. One method involves forming the containers without substantial mixing of the mixture, compacting the mixture and hydrating the mixture. Other methods involve molding the mixture, extruding the mixture and forming sheets from the mixture to be converted into containers. The components may also be dried, coated, lined, laminated and/or receive printing.
78	Method and apparatus for manufacturing articles of manufacture from sheets having a highly inorganically filled organic polymer matrix	US475383	1995-06-07	US5709913A	1998-01-20	Per Just Andersen; Simon K. Hodson
Compositions, methods, and apparatus for manufacturing sheets having a highly inorganically filled matrix. Suitable inorganically filled mixtures are prepared by mixing together an organic polymer binder, water, one or more aggregate materials, fibers, and optional admixtures in the correct proportions in order to form a sheet which has the desired performance criteria. The inorganically filled mixtures are formed into sheets by first extruding the mixtures and then passing the extruded materials between a set of rollers. The rolled sheets are dried in an accelerated manner to form a substantially hardened sheet, such as by heated rollers and/or a drying chamber. The inorganically filled sheets may have properties substantially similar to sheets presently made from traditional materials like paper, paperboard, polystyrene, plastic, or metal. Such sheets can be cut, rolled, pressed, scored, perforated, folded, and glued to fashion articles from the sheet. They have especial utility in the mass production of containers, particularly food and beverage containers.
79	Articles of manufacture fashioned from sheets having a highly inorganically filled organic polymer matrix	US472870	1995-06-07	US5705238A	1998-01-06	Per Just Andersen; Simon K. Hodson
Compositions, methods, and apparatus for manufacturing sheets having a highly inorganically filled matrix. Suitable inorganically filled mixtures are prepared by mixing together an organic polymer binder, water, one or more aggregate materials, fibers, and optional admixtures in the correct proportions in order to form a sheet which has the desired performance criteria. The inorganically filled mixtures are formed into sheets by first extruding the mixtures and then passing the extruded materials between a set of rollers. The rolled sheets are dried in an accelerated manner to form a substantially hardened sheet, such as by heated rollers and/or a drying chamber. The inorganically filled sheets may have properties substantially similar to sheets presently made from traditional materials like paper, paperboard, polystyrene, plastic, or metal. Such sheets can be controlled, pressed, scored, perforated, folded, and glued to fashion articles for the sheets. They have especial utility in the mass production of containers, particularly food and beverage containers.
80	Systems for manufacturing sheets from hydraulically settable compositions	US475320	1995-04-07	US5679381A	1997-10-21	Per Just Andersen; Simon K. Hodson
Compositions and methods for manufacturing containers from sheets having a hydraulically settable matrix are disclosed. Suitable compositions are prepared by mixing together a hydraulic binder, water, and appropriate additives (such as aggregates, fibers, and rheology-modifying agents) which impart predetermined properties so that a sheet formed therefrom has the desired performance criteria. Hydraulically settable sheets are formed from the mixture by extrusion, then calendering the sheets using a set of rollers and then drying the sheets in an accelerated manner to substantially harden the sheets. The resulting hydraulically settable sheets may have properties substantially similar to sheets made from presently used materials like paper, cardboard, polystyrene, or plastic. The sheets can be laminated, corrugated, coated, printed on, scored, perforated, cut, folded, rolled, spiral wound, molded, assembled and seamed to mass produce articles of manufacture from the sheets such as food and beverage containers.

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