| 序号 | 专利名 | 申请号 | 申请日 | 公开（公告）号 | 公开（公告）日 | 发明人 |
|---|---|---|---|---|---|---|
| 121 | HONEYCOMB STRUCTURE AND METHOD OF MANUFACTURING HONEYCOMB STRUCTURE | US13337153 | 2011-12-26 | US20120264596A1 | 2012-10-18 | Yoshihiro KOGA |
| A honeycomb structure includes a substantially pillar-shaped honeycomb unit having cells defined by cell walls. The cell walls include silicon carbide particles having a nitrogen-containing layer provided on surfaces of the silicon carbide particles. A method of manufacturing a honeycomb structure includes preparing paste containing silicon carbide particles. The paste is molded to form a honeycomb molded body. The honeycomb molded body is fired in an inert atmosphere containing no nitrogen to obtain a substantially pillar-shaped honeycomb unit having cells defined by cell walls. The honeycomb unit is heated in an environment containing nitrogen to provide a nitrogen-containing layer on surfaces of the silicon carbide particles forming the cell walls. | ||||||
| 122 | REFRACTORY MATERIAL IMPREGNATED WITH PHASE CHANGE MATERIAL, METHOD FOR MAKING THE SAME, AND TEMPERATURE CONTROLLED CHAMBER FORMED BY THE SAME | US13364310 | 2012-02-01 | US20120196040A1 | 2012-08-02 | Richard Wilk, JR.; Jonathan Abi |
| The present invention is directed to methods for forming heat absorbing bodies (and the resulting heat absorbing bodies and enclosures formed thereby) that utilize capillary action to draw a fluidic composition comprising a molten phase change material (PCM) into the interstitial spaces of a porous body of a refractory material. In one embodiment, the fluidic composition saturates substantially all of the interstitial spaces of a porous body of a fibrous ceramic refractory material. | ||||||
| 123 | METHOD OF IMPROVING GYPSUM BOARD STRENGTH | US13339699 | 2011-12-29 | US20120167805A1 | 2012-07-05 | James R. Wittbold; Bruce L. Petersen; David R. Blackburn |
| One or more of these or other problems are improved using a method of making a strong gypsum panel which includes a method for forming a hardened shell structure at the interface of a foamed bubble and a gypsum slurry. A strengthening component is selected from the group consisting of set accelerators, water soluble polyphosphate salts, blends of water soluble polyphosphate salts with starch, boric acid, fibers, glycerin or combinations thereof. The strengthening component is combined with a foaming agent and with water to form an aqueous soap mixture. Foam is generated from the aqueous soap mixture, and added to a gypsum slurry. Allowing the strengthening component to contact the soap bubbles prior to addition of the foam to the gypsum slurry allows the strengthening component to preferentially contact the soap film rather than be dispersed through the entire slurry. | ||||||
| 124 | HONEYCOMB STRUCTURAL BODY | US13206863 | 2011-08-10 | US20120064286A1 | 2012-03-15 | Shogo HIROSE; Yukio MIYAIRI; Eriko KODAMA; Hiroyuki SUENOBU; Koichi SENDO; Yusuke TSUCHIYA |
| A honeycomb structural body includes porous partition walls arranged to form a plurality of cells which become through channels of a fluid, porosities of the partition walls are from 45 to 70%, a pore diameter distribution of the partition walls is measured by mercury porosimetry, the pore diameter distribution indicates a bimodal distribution, in the bimodal distribution, a pore diameter at the maximum peak value of a small pore side distribution is from 1 to 10 μm, and a pore diameter at the maximum peak value of a large pore side distribution exceeds 10 μm, and a ratio between a pore volume of the small pores and a pore volume of the large pores is in a range of 1:7 to 1:1 in the honeycomb structural body. | ||||||
| 125 | Porous ceramic filters with catalyst coatings | US11498640 | 2006-08-03 | US07674498B2 | 2010-03-09 | Tinghong Tao; Jianguo Wang |
| Porous ceramic catalyst supports or filters to be provided with catalyst coatings via oxide washcoating processes are pre-coated with cross-linked polymer barrier layers to prevent washcoat nanoparticle intrusion into the microcracked and/or microporous surfaces of the ceramics, the barrier coatings being formed by thermally cross-linking hydrocarbon polymers that are vaporizable at moderate washcoat stabilization or catalyst activation temperatures and that preferentially block the micropore/microchannel pore volume of the article. | ||||||
| 126 | Methods of Making Inorganic Membranes | US12389911 | 2009-02-20 | US20100056369A1 | 2010-03-04 | Yunfeng Gu |
| Methods of making inorganic membranes, for example, methods of making gamma-alumina inorganic membranes which can be useful for, for example, molecular level gas separations and/or liquid filtration are described. | ||||||
| 127 | HONEYCOMB STRUCTURE | US12248647 | 2008-10-09 | US20090246451A1 | 2009-10-01 | Takahiko IDO; Chizuru Kasai |
| A honeycomb structure includes at least one honeycomb unit and coating layers. The at least one honeycomb unit includes a first SOx-occluding agent, first inorganic particles, an inorganic binder, and partition walls extending along the longitudinal direction of the at least one honeycomb unit to define parallel through holes. The coating layers are formed on the partition walls. A basicity of the at least one honeycomb unit is higher than a basicity of the coating layers. The coating layers include a second SOx-occluding agent and second inorganic particles. | ||||||
| 128 | Porous sintered composite materials | US12001112 | 2007-12-10 | US07534287B2 | 2009-05-19 | Robert Zeller; Christopher Vroman |
| The present invention is directed to porous composite materials comprised of a porous base material and a powdered nanoparticle material. The porous base material has the powdered nanoparticle material penetrating a portion of the porous base material; the powdered nanoparticle material within the porous base material may be sintered or interbonded by interfusion to form a porous sintered nanoparticle material within the pores and or on the surfaces of the porous base material. Preferably this porous composite material comprises nanometer sized pores throughout the sintered nanoparticle material. The present invention is also directed to methods of making such composite materials and using them for high surface area catalysts, sensors, in packed bed contaminant removal devices, and as contamination removal membranes for fluids. | ||||||
| 129 | Catalytic filter based on silicon carbide (β-SiC) for combustion of soot derived from exhaust gases from an internal combustion engine | US10963604 | 2004-10-14 | US07479265B2 | 2009-01-20 | Charlotte Pham; Laurie Pesant; Pierre Bernhardt; Michel Wolf; Cuong Pham-Huu; Marc-Jacques Ledoux; Michel Kartheuser; Estelle Vanhaecke |
| This invention relates to β-SiC foam parts with a specific surface area preferably equal to at least 5 m2/g and with at least two zones A and B with a different cellular porosity distribution, wherein the parts were made by chemical transformation of a porous precursor medium comprising at least two blocks A′ and B′, each having a different cellular porosity distribution, and in that the at least two zones A and B are derived from the chemical transformation of the two blocks A′ and B′. This foam, optionally after deposition of an active layer, may be used as a filter medium in cartridges designed for the purification of exhaust gases. The invention also relates to manufacturing processes for preparing such a filter medium. | ||||||
| 130 | Carbon Foam With Supplemental Material | US11742807 | 2007-05-01 | US20080275150A1 | 2008-11-06 | Douglas J. Miller; David M. Kaschak; Richard L. Shao |
| A carbon foam composite including a carbon foam skeleton having a supplemental material therein, the composite useful for, inter alia, a variety of applications including applications requiring durability and water resistance. Also included is a method for making such carbon foam composite materials. | ||||||
| 131 | Porous sintered composite materials | US12001112 | 2007-12-10 | US20080149571A1 | 2008-06-26 | Robert Zeller; Christopher Vroman |
| The present invention is directed to porous composite materials comprised of a porous base material and a powdered nanoparticle material. The porous base material has the powdered nanoparticle material penetrating a portion of the porous base material; the powdered nanoparticle material within the porous base material may be sintered or interbonded by interfusion to form a porous sintered nanoparticle material within the pores and or on the surfaces of the porous base material. Preferably this porous composite material comprises nanometer sized pores throughout the sintered nanoparticle material. The present invention is also directed to methods of making such composite materials and using them for high surface area catalysts, sensors, in packed bed contaminant removal devices, and as contamination removal membranes for fluids. | ||||||
| 132 | Membrane structure and method of making | US11297776 | 2005-12-08 | US20070131609A1 | 2007-06-14 | Vidya Ramaswamy; Milivoj Brun; Sergio Loureiro; Anthony Ku; Mohan Manoharan |
| A membrane structure is provided. A membrane structure has a top surface and a bottom surface. The membrane structure includes a plurality of sintered layers including an inner layer disposed between two outer layers. The membrane structure further includes a nonmonotonic gradient in pore size extending between the top surface and the bottom surface. A method of making a membrane structure is provided. The method includes the steps of providing at least one inner layer; providing a plurality of outer layers; and laminating the inner layer and the outer layers to obtain a membrane structure. | ||||||
| 133 | Honeycomb structure and manufacturing method for honeycomb structure | US11606199 | 2006-11-30 | US20070068128A1 | 2007-03-29 | Yukio Oshimi; Hiroki Sato |
| A honeycomb structured body includes: a plurality of honeycomb members bonded together by a bonding material, each honeycomb member including an outer wall, a partition arranged inward from the outer wall, and a plurality of cells partitioned by the partition for functioning as a flow passage for a fluid; an outer surface formed by an outer coating layer; a filter core portion including a plurality of first honeycomb members of the plurality of honeycomb members, each of the first honeycomb members having a vertical cross-section that is orthogonal to an axis of the honeycomb structured body and rectangular; a filter peripheral portion arranged outside the filter core portion and formed by a plurality of second honeycomb members of the plurality of honeycomb members, each of the second honeycomb members having a vertical cross-section that is orthogonal to the axis and irregular in shape; and a filling layer arranged between the outer coating layer and an outer surface of either one of the filter core portion and the filter peripheral portion. | ||||||
| 134 | Porous sintered composite materials | US11502215 | 2006-08-10 | US20070039299A1 | 2007-02-22 | Robert Zeller; Christopher Vroman |
| The present invention is directed to porous composite materials comprised of a porous base material and a powdered nanoparticle material. The porous base material has the powdered nanoparticle material penetrating a portion of the porous base material; the powdered nanoparticle material within the porous base material may be sintered or interbonded by interfusion to form a porous sintered nanoparticle material within the pores and or on the surfaces of the porous base material. Preferably this porous composite material comprises nanometer sized pores throughout the sintered nanoparticle material. The present invention is also directed to methods of making such composite materials and using them for high surface area catalysts, sensors, in packed bed contaminant removal devices, and as contamination removal membranes for fluids. | ||||||
| 135 | Porous ceramic filters with catalyst coatings | US11498640 | 2006-08-03 | US20060270816A1 | 2006-11-30 | Tinghong Tao; Jianguo Wang |
| Porous ceramic catalyst supports or filters to be provided with catalyst coatings via oxide washcoating processes are pre-coated with cross-linked polymer barrier layers to prevent washcoat nanoparticle intrusion into the microcracked and/or microporous surfaces of the ceramics, the barrier coatings being formed by thermally cross-linking hydrocarbon polymers that are vaporizable at moderate washcoat stabilization or catalyst activation temperatures and that preferentially block the micropore/microchannel pore volume of the article. | ||||||
| 136 | Porous sintered composite materials | US10733218 | 2003-12-11 | US07112237B2 | 2006-09-26 | Robert Zeller; Christopher Vroman |
| The present invention is directed to porous composite materials comprised of a porous base material and a powdered nanoparticle material. The porous base material has the powdered nanoparticle material penetrating a portion of the porous base material; the powdered nanoparticle material within the porous base material may be sintered or interbonded by interfusion to form a porous sintered nanoparticle material within the pores and or on the surfaces of the porous base material. Preferably this porous composite material comprises nanometer sized pores throughout the sintered nanoparticle material. The present invention is also directed to methods of making such composite materials and using them for high surface area catalysts, sensors, in packed bed contaminant removal devices, and as contamination removal membranes for fluids. | ||||||
| 137 | High separation area membrane module | US10978126 | 2004-10-29 | US20060090649A1 | 2006-05-04 | Wei Liu; Jimmie Williams |
| A ceramic monolithic multi-channel module support (10) has a module hydraulic diameter (102) in a range about 9 to 100 mm, an aspect ratio of the module hydraulic diameter (102) to a module length (104) greater than 1, a plurality of feed flow channels (110) distributed substantially in parallel over a module cross-section, the plurality of feed flow channels (110) having a size and shape defining a channel density in the range of about 50-800 channels/in2 (7.8-124 channels/cm2) in a module frontal area, a channel hydraulic diameter (112) in the range of about 0.5-3 mm, a rim distance (120) having a thickness greater than 1.0 mm (0.04 in), and a percent open frontal area (OFA) in the range of about 20-80%. | ||||||
| 138 | Method and apparatus for filtering exhaust particulates | US10763646 | 2003-03-03 | US20050050870A1 | 2005-03-10 | Shi-Wai Cheng |
| A particulate filter for an exhaust system configured to manage an exhaust flow includes a housing and a wall-flow filtration element contained within the housing. The wall-flow filtration element is configured to trap exhaust particulates and to pass ash particles. | ||||||
| 139 | Filter catalyst for purifying exhaust gases and its manufacturing method thereof | US10660707 | 2003-09-12 | US20040053781A1 | 2004-03-18 | Seiji Okawara |
| The filter catalyst for purifying exhaust gases having a catalytic layer comprising the first catalyst support 2 having an average particle diameter of 1 nullm or less, the second catalyst support 3 having an average particle diameter from {fraction (1/20)} to null of the average pore diameter of the filter cellular walls 12 and catalytic ingredients, on the filter cellular walls 12 having an average pore diameter of from 20 to 40 nullm, and the catalytic layer having uneven surfaces is used. Since the second catalyst support hardly enters into the pore with a diameter of 20 nullm or less, it exists partly on the filter cellular walls and the inside surface of the wall. Therefore, since PMs collide with the convex part of the catalytic layer, it becomes possible to collect them easily and the collecting rate for PMs and the ability of PMs purification are improved. | ||||||
| 140 | 그래핀 폼 또는 그래핀-유사 폼에 기초한 계층 복합 구조들 | KR1020177014632 | 2015-10-30 | KR1020170078774A | 2017-07-07 | 호지뻬드로스; 알베르또보스까; 하비에르마르티네즈; 페르난도까이예; 산드라루이즈-고메즈; 루까스뻬레쓰; 비올레타바랑꼬; 안토니오빠에쓰두에나쓰; 헤수스가르시아산루이쓰 |
| 본발명은오픈-셀그래핀폼 또는그래핀-유사폼을포함하는계층복합구조에관한것으로, 상기그래핀폼 또는그래핀-유사폼은전도성나노다공성스펀지구조로코팅되고, 상기그래핀폼 또는그래핀-유사폼의공극들빈 공간의적어도 10% v/v는상기전도성다공성스펀지구조로채워지는것을특징으로한다. 본발명은또한전도성나노다공성스펀지구조는오픈-셀구조를가지는그래핀폼 또는그래핀-유사폼을전착하여, 그래핀폼 또는그래핀-유사폼을코팅하고그래핀폼 또는그래핀-유사폼 공극들의빈 공간을부분적으로채우는것을특징으로하는계층복합구조의제조에관한것이다. | ||||||
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