[미국특허]
Catalyst design for heavy-duty diesel combustion engines
원문보기
IPC분류정보
국가/구분
United States(US) Patent
등록
국제특허분류(IPC7판)
B01J-023/42
B01J-023/44
B01J-021/04
B01J-035/02
B01J-037/34
B01J-035/00
B01D-053/94
출원번호
US-0521295
(2014-10-22)
등록번호
US-9427732
(2016-08-30)
발명자
/ 주소
Yin, Qinghua
Qi, Xiwang
Biberger, Maximilian A.
출원인 / 주소
SDCmaterials, Inc.
대리인 / 주소
Morrison & Foerster LLP
인용정보
피인용 횟수 :
9인용 특허 :
359
초록
Disclosed are washcoats, coated substrates formed from such washcoats, and catalytic converters for use in diesel applications, such as heavy duty diesel applications. Methods of preparing the coated substrates are also disclosed.
대표청구항▼
1. A coated substrate comprising: a substrate;a first washcoat layer comprising: boehmite particles; anda first catalytically active material comprising platinum and palladium in a weight ratio of 10:1 platinum:palladium to 100:1 platinum:palladium, or comprising platinum and no palladium; anda seco
1. A coated substrate comprising: a substrate;a first washcoat layer comprising: boehmite particles; anda first catalytically active material comprising platinum and palladium in a weight ratio of 10:1 platinum:palladium to 100:1 platinum:palladium, or comprising platinum and no palladium; anda second washcoat layer comprising: boehmite particles; anda second catalytically active material comprising: i. platinum and palladium in a weight ratio of 1:2 platinum:palladium to 8:1 platinum:palladium;ii. two or more catalytically active materials which together comprise platinum and palladium in a weight ratio of 1:2 platinum:palladium to 8:1 platinum:palladium; oriii. palladium and no platinum. 2. The coated substrate of claim 1, wherein the catalytic washcoat layers are substantially free of zeolites. 3. The coated substrate of claim 1, wherein the first catalytically active material or the second catalytically active material comprises plasma-created composite nanoparticles bonded to pre-formed micron-sized carrier particles, wherein the composite nanoparticles comprise a support nanoparticle and a catalytic nanoparticle. 4. The coated substrate of claim 1, wherein the first catalytically active material or the second catalytically active material comprises micron-sized particles comprising plasma-created composite nanoparticles embedded within the micron-sized particles, wherein the composite nanoparticles comprise a support nanoparticle and a catalytic nanoparticle. 5. The coated substrate of claim 1, wherein the first catalytically active material comprises hybrid particles comprising plasma-created composite nanoparticles bonded to pre-formed micron-sized carrier particles, wherein the composite nanoparticles comprise a support nanoparticle and a catalytic nanoparticle, and wherein the micron-sized pre-formed carrier particles are impregnated by wet-chemistry methods with platinum or platinum:palladium alloy. 6. The coated substrate of claim 1, wherein the first catalytically active material comprises catalytic particles produced by only wet-chemistry methods, comprising a micron-sized particle impregnated by only wet-chemistry methods with platinum or platinum:palladium alloy. 7. The coated substrate of claim 1, wherein the second catalytically active material comprises hybrid particles comprising plasma-created composite nanoparticles bonded to pre-formed micron-sized carrier particles, wherein the composite nanoparticles comprise a support nanoparticle and a catalytic nanoparticle, and wherein the micron-sized pre-formed carrier particles are impregnated by wet-chemistry methods with palladium or platinum:palladium alloy. 8. The coated substrate of claim 1, wherein the second catalytically active material comprises catalytic particles produced by only wet-chemistry methods, comprising a micron-sized particle impregnated by only wet-chemistry methods with palladium or platinum:palladium alloy. 9. The coated substrate of claim 1, wherein: the second washcoat layer comprises two or more catalytically active materials which together comprise platinum and palladium in a weight ratio of 1:2 platinum:palladium to 8:1 platinum:palladium; andthe two or more catalytically active materials together comprising platinum and palladium in a weight ratio of 1:2 platinum:palladium to 8:1 platinum:palladium comprise: i) a catalyst comprising platinum:palladium alloy in a ratio of about 15:1 Pt:Pd to about 25:1 Pt:Pd; andii) a catalyst comprising palladium. 10. The coated substrate of claim 1, wherein: the second washcoat layer comprises two or more catalytically active materials which together comprise platinum and palladium in a weight ratio of 1:2 platinum:palladium to 8:1 platinum:palladium; andthe two or more catalytically active materials together comprising platinum and palladium in a weight ratio of 1:2 platinum:palladium to 8:1 platinum:palladium comprisea) plasma-created composite nanoparticles bonded to pre-formed micron-sized carrier particles, wherein the composite nanoparticles comprise a support nanoparticle and a catalytic nanoparticle, wherein the catalytic nanoparticle comprises a platinum:palladium alloy in a ratio of about 15:1 Pt:Pd to about 25:1 Pt:Pd; andb) a catalyst comprising palladium. 11. The coated substrate of claim 1, wherein the two or more catalytically active materials together comprising platinum and palladium in a weight ratio of 1:2 platinum:palladium to 8:1 platinum:palladium comprise: a) micron-sized particles comprising plasma-created composite nanoparticles embedded within the micron-sized particles, wherein the composite nanoparticles comprise a support nanoparticle and a catalytic nanoparticle, wherein the catalytic nanoparticle comprises a platinum:palladium alloy in a ratio of about 15:1 Pt:Pd to about 25:1 Pt:Pd; andb) micron-sized carrier particles impregnated with palladium by wet-chemistry methods. 12. The coated substrate of claim 1, wherein the two or more catalytically active materials together comprising platinum and palladium in a weight ratio of 1:2 platinum:palladium to 8:1 platinum:palladium comprise: a) hybrid particles comprising plasma-created composite nanoparticles bonded to pre-formed micron-sized carrier particles, wherein the composite nanoparticles comprise a support nanoparticle and a catalytic nanoparticle, and wherein the micron-sized pre-formed carrier particles are impregnated by wet-chemistry methods with palladium or platinum:palladium alloy, wherein the hybrid particles comprise a total content of platinum:palladium in a ratio of about 15:1 Pt:Pd to about 25:1 Pt:Pd; andb) micron-sized carrier particles impregnated with palladium by wet-chemistry methods. 13. The coated substrate according to claim 1, wherein the washcoat layer or washcoat layers further comprises filler particles. 14. The coated substrate of claim 13, wherein the filler particles comprise alumina. 15. The coated substrate of claim 1, wherein the washcoat layer comprising the second catalytically active material further comprises a third catalytically active material selected from the group consisting of: plasma-created composite nanoparticles bonded to pre-formed micron-sized carrier particles, wherein the composite nanoparticles comprise a support nanoparticle and a catalytic nanoparticle;micron-size particles comprising plasma-created composite nanoparticles embedded within the micron-sized particles, wherein the composite nanoparticles comprise a support nanoparticle and a catalytic nanoparticle;hybrid particles comprising plasma-created composite nanoparticles bonded to pre-formed micron-sized carrier particles, wherein the composite nanoparticles comprise a support nanoparticle and a catalytic nanoparticle, and wherein the micron-sized pre-formed carrier particles are impregnated by wet-chemistry methods with platinum, palladium, or platinum:palladium alloy; andcatalytic particles produced by only wet-chemistry methods, comprising a micron-sized particle impregnated by only wet-chemistry methods with platinum, palladium, or platinum:palladium alloy; wherein said third catalytically active material is different from the second catalytically active material. 16. A coated substrate comprising: a substrate; anda washcoat layer comprising: boehmite particles;a first catalytically active material comprising platinum and palladium in a weight ratio of 10:1 platinum:palladium to 100:1 platinum:palladium, or comprising platinum and no palladium; anda second catalytically active material comprising platinum and palladium in a weight ratio of 1:2 platinum:palladium to 8:1 platinum:palladium, or comprising palladium and no platinum. 17. The coated substrate of claim 16, wherein the washcoat layer containing the first catalytically active material and the second catalytically active material is substantially free of zeolites. 18. The coated substrate of claim 16, wherein the first catalytically active material comprises a) plasma-created composite nanoparticles bonded to pre-formed micron-sized carrier particles, wherein the composite nanoparticles comprise a support nanoparticle and a catalytic nanoparticle; orb) micron-sized particles comprising plasma-created composite nanoparticles embedded within the micron-sized particles, wherein the composite nanoparticles comprise a support nanoparticle and a catalytic nanoparticle; orc) hybrid particles comprising plasma-created composite nanoparticles bonded to pre-formed micron-sized carrier particles, wherein the composite nanoparticles comprise a support nanoparticle and a catalytic nanoparticle, and wherein the micron-sized pre-formed carrier particles are impregnated by wet-chemistry methods with platinum or platinum:palladium alloy; ord) catalytic particles produced by only wet-chemistry methods, comprising a micron-sized particle impregnated by only wet-chemistry methods with platinum or platinum:palladium alloy. 19. The coated substrate of claim 16, wherein the second catalytically active material comprises: a) plasma-created composite nanoparticles bonded to pre-formed micron-sized carrier particles, wherein the composite nanoparticles comprise a support nanoparticle and a catalytic nanoparticle; orb) micron-sized particles comprising plasma-created composite nanoparticles embedded within the micron-sized particles, wherein the composite nanoparticles comprise a support nanoparticle and a catalytic nanoparticle; orc) hybrid particles comprising plasma-created composite nanoparticles bonded to pre-formed micron-sized carrier particles, wherein the composite nanoparticles comprise a support nanoparticle and a catalytic nanoparticle, and wherein the micron-sized pre-formed carrier particles are impregnated by wet-chemistry methods with palladium or platinum:palladium alloy; ord) catalytic particles produced by only wet-chemistry methods, comprising a micron-sized particle impregnated by only wet-chemistry methods with palladium or platinum:palladium alloy. 20. The coated substrate of claim 16, wherein the second catalytically active material comprises two or more catalytically active materials which together comprise platinum and palladium in a weight ratio of 1:2 platinum:palladium to 8:1 platinum:palladium. 21. The coated substrate of claim 16, wherein the washcoat layer or washcoat layers further comprises filler particles. 22. The coated substrate of claim 16, wherein the washcoat layer comprising the second catalytically active material further comprises a third catalytically active material selected from the group consisting of: plasma-created composite nanoparticles bonded to pre-formed micron-sized carrier particles, wherein the composite nanoparticles comprise a support nanoparticle and a catalytic nanoparticle;micron-size particles comprising plasma-created composite nanoparticles embedded within the micron-sized particles, wherein the composite nanoparticles comprise a support nanoparticle and a catalytic nanoparticle;hybrid particles comprising plasma-created composite nanoparticles bonded to pre-formed micron-sized carrier particles, wherein the composite nanoparticles comprise a support nanoparticle and a catalytic nanoparticle, and wherein the micron-sized pre-formed carrier particles are impregnated by wet-chemistry methods with platinum, palladium, or platinum:palladium alloy; andcatalytic particles produced by only wet-chemistry methods, comprising a micron-sized particle impregnated by only wet-chemistry methods with platinum, palladium, or platinum:palladium alloy; wherein said third catalytically active material is different from the second catalytically active material. 23. A method of forming a coated substrate comprising coating a substrate with a washcoat layer comprising: boehmite particles;a first catalytically active material comprising platinum and palladium in a weight ratio of 10:1 platinum:palladium to 100:1 platinum:palladium, or comprising platinum and no palladium; anda second catalytically active material comprising platinum and palladium in a weight ratio of 1:2 platinum:palladium to 8:1 platinum:palladium, or comprising palladium and no platinum. 24. A method of forming a coated substrate comprising, in either order: coating a substrate with a first washcoat layer comprising: boehmite particles; anda first catalytically active material comprising platinum and palladium in a weight ratio of 10:1 platinum:palladium to 100:1 platinum:palladium, or comprising platinum and no palladium; andcoating the substrate with a second washcoat layer comprising: boehmite particles; anda second catalytically active material comprising platinum and palladium in a weight ratio of 1:2 platinum:palladium to 8:1 platinum:palladium, or comprising palladium and no platinum.
Frind Gerhard (Altamont NY) Siemers Paul A. (Clifton Park NY) Rutkowski Stephen F. (Duanesburg NY), Apparatus and method for transfer arc cleaning of a substrate in an RF plasma system.
Vogelesang Laurens B. (Nieuwkoop NLX) Verbruggen Marcel L. C. E. (Arnhem NLX) Paalvast Cornelis G. (Vlaardingen NLX), Armour plate composite with ceramic impact layer.
Whitney Eric J. (Cincinnati OH) Pratt Vanon D. (Hamilton OH) Scheidt Wilbur D. (Cincinnati OH) Young William R. (Cincinnati OH), Axial flow laser plasma spraying.
Taguchi,Kiyoshi; Ukai,Kunihiro; Wakita,Hidenobu; Fujihara,Seiji, CO removal catalyst, method of producing CO removal catalyst, hydrogen purifying device and fuel cell system.
Abe Fumio (Handa JPX) Noda Naomi (Ichinomiya JPX) Hori Makoto (Kitakyushu JPX) Fukui Toshimi (Kitakyushu JPX), Catalyst for exhaust gas purification and process for production thereof.
Domesle Rainer (Alzenau-Kaelberau DEX) Engler Bernd (Hanau DEX) Koberstein Edgar (Alzenau DEX) Voelker Herbert (Zeiskam DEX), Catalyst for purification of exhaust gases of diesel engines and method of use.
Brand Reinhold (Hanau DEX) Engler H. Bernd (Hanau DEX) Honnen Wolfgang (Bruchkoebel DEX) Kleine-Moellhoff Peter (Alzenau DEX) Koberstein Edgar (Alzenau DEX), Catalyst for the selective reduction of nitrogen oxides with ammonia.
Yin, Qinghua; Qi, Xiwang; Biberger, Maximilian A.; Sarkar, Jayashir, Coated substrates for use in catalysis and catalytic converters and methods of coating substrates with washcoat compositions.
Yin, Qinghua; Qi, Xiwang; Biberger, Maximilian A.; Sarkar, Jayashir, Coated substrates for use in catalysis and catalytic converters and methods of coating substrates with washcoat compositions.
Hagen Donald F. (Woodbury MN) Bahmet Wanda (St. Paul MN) Haddad Louis C. (Mendota Heights MN) Perkins Robert E. (Oakdale MN), Composite articles separating mercury from fluids.
John H. Aikens ; Harry W. Sarkas ; Richard W. Brotzman, Jr. ; Sara Helvoigt, Compositions for forming transparent conductive nanoparticle coatings and process of preparation therefor.
Hanrahan Robert J. ; Parker Robin Z. ; Heaton Harley L., Comprehensive system for utility load leveling, hydrogen production, stack gas cleanup, greenhouse gas abatement, and methanol synthesis.
Addiego William P. (Big Flats NY) Lachman Irwin M. (Corning NY) Patil Mallanagouda D. (Corning NY) Williams Jimmie L. (Painted Post NY), Controlled pore size phosphate-alumina material and method for producing same.
J채hn,Peter; Wiessmeier,Georg; Krumbach,Bernhard; Rose,Reinhold; Siebert,Thomas; Krautkr채mer,Rainer, Device and method for carrying out experiments in parallel.
Kalck, Philippe; Serp, Philippe; Corrias, Massimiliano, Divided solid composition composed of grains provided with continuous metal deposition, method for the production and use thereof in the form of a catalyst.
Arno Jose I. ; Holst Mark ; Carpenter Kent ; Lane Scott, Effluent gas stream treatment system having utility for oxidation treatment of semiconductor manufacturing effluent gases.
Frese ; Jr. Karl W. (Cupertino CA) Leach Steven C. (Menlo Park CA) Summers David P. (San Francisco CA), Electrochemical reduction of aqueous carbon dioxide to methanol.
Dean, Kenneth Andrew; Coll, Bernard F.; Talin, Albert Alec; Von Allmen, Paul A.; Wei, Yi; Rawlett, Adam Madison; Stainer, Matthew, Field emission display and methods of forming a field emission display.
Marantz Daniel R. (25 Cedar La. Sands Point NY 11050) Marantz David R. (25 Cedar La. Sands Point NY 11050) Kowalsky Keith A. (3012 Bond Dr. Merrick NY 11566), High velocity electric-arc spray apparatus and method of forming materials.
Abkowitz Stanley (Lexington MA) Rowell David M. (Billerica MA) Heussi Harold L. (Essex MA) Ludwig Harold P. (Woburn MA) Kraus Stephen A. (Clinton MA), Impact resistant clad composite armor and method for forming such armor.
Conrad,Thomas; Meyer,Gerhard, Leucite glass ceramic doped with nanoscale metal oxide powder, method for producing the same, and dental materials and dental products formed therefrom.
Long Gary (Cincinnati OH) Deutchman Arnold H. (Columbus OH), Light-utilizing device including a region having a non-abruptly varying refraction index and a method for producing the.
Tapesh Yadav ; Ming Au ; Bijan Miremadi ; John Freim ; Yuval Avniel ; Roger Dirstine ; John Alexander ; Evan Franke, Materials and products using nanostructured non-stoichiometric substances.
Koplin, Tobias Joachim; Domke, Imme; Castellano, Christopher R.; Koermer, Gerald Stephen; Schrof, Wolfgang; Feuerhake, Robert; Schornick, Gunnar; Cristadoro, Anna; Schönfelder, Daniel; Hibst, Hartmut; Ten Cate, Mattijs Gregor Jurriaan, Metal oxide support material containing nanoscaled iron platinum group metal.
Kodas, Toivo T.; Hampden-Smith, Mark J.; Caruso, James; Skamser, Daniel J.; Powell, Quint H., Metal-carbon composite powders, methods for producing powders and devices fabricated from same.
Charles Dominic Iacovangelo ; Keith Milton Borst ; Elihu Calvin Jerabek ; Patrick Peter Marzano ; Barry Lee-Mean Yang, Method and apparatus for arc plasma deposition with evaporation of reagents.
Abdelmalek Fawzy T. (12807 Willowyck Dr. St. Louis MO 63146), Method and apparatus for flue gas cleaning by separation and liquefaction of sulfur dioxide and carbon dioxide.
Wahl Rudolf (Stuttgart DEX) Walz Erwin (Renningen DEX), Method and apparatus for removing dust and gas pollutants from waste gases, particularly waste gases produced in the man.
Ashbrook Clifford L. (Rte. 2 ; Box 439 Spicewood TX 78669) Scarborough Douglas B. (Rte. 17 ; Box 124-A3 San Antonio TX 78238), Method and apparatus for treating cooling tower water.
Biberger, Maximilian A.; Lehman, Jr., Stephen Edward; Kevwitch, Robert Matthew; Yin, Qinghua; Kingsley, Jesudos J., Method and system for forming plug and play metal catalysts.
Biberger, Maximilian A.; Lehman, Jr., Stephen Edward; Kevwitch, Robert Matthew; Yin, Qinghua; Kingsley, Jesudos J., Method and system for forming plug and play metal catalysts.
Biberger, Maximilian A.; Lehman, Jr., Stephen Edward; Kevwitch, Robert Matthew; Yin, Qinghua; Kingsley, Jesudos J., Method and system for forming plug and play metal compound catalysts.
Biberger, Maximilian A.; Lehman, Jr., Stephen Edward; Kevwitch, Robert Matthew; Yin, Qinghua; Kingsley, Jesudos J., Method and system for forming plug and play metal compound catalysts.
Biberger, Maximilian A.; Lehman, Jr., Stephen Edward; Kevwitch, Robert Matthew; Yin, Qinghua, Method and system for forming plug and play oxide catalysts.
Biberger, Maximilian A.; Lehman, Jr., Stephen Edward; Kevwitch, Robert Matthew; Yin, Qinghua, Method and system for forming plug and play oxide catalysts.
Cesur Celik CA; Tony Addona CA; Maher I. Boulos CA; Gangqiang Chen CA; H. John Davis CA, Method and transferred arc plasma system for production of fine and ultrafine powders.
Lenling William J. (Madison WI) Henfling Joseph A. (Bosque Farms NM) Smith Mark F. (Albuquerque NM), Method for minimizing decarburization and other high temperature oxygen reactions in a plasma sprayed material.
Fritzemeier, Leslie G.; Matejczyk, Daniel E.; Van Daam, Thomas J., Method for preparing cryomilled aluminum alloys and components extruded and forged therefrom.
Hagemeyer, Alfred; Dingerdissen, Uwe; Kuhlein, Klaus; Manz, Andreas; Fischer, Roland, Method for producing catalysts containing metal nanoparticles on a porous support, especially for gas phase oxidation of ethylene and acetic acid to form vinyl acetate.
Keller, Walter, Method for the display of standardized large-format internet pages with for example HTML protocol on hand-held devices with a mobile radio connection.
Hampden Smith,Mark J.; Kodas,Toivo T.; Atanassov,Plamen; Atanassova,Paolina; Kunze,Klaus; Napolitano,Paul; Dericotte,David, Method for the production of electrocatalyst powders.
Iwata Takashi (Fujisawa JPX) Yokota Seiji (Hiratsuka JPX) Inoue Yoshiaki (Tokyo JPX) Koizumi Tadashi (Tokyo JPX), Method of and apparatus for igniting a high-frequency torch to create a high-temperature plasma of high purity.
Popoola Oludele O. ; Zaluzec Matthew J. ; Joaquin Armando M. ; Baughman James R. ; Cook David J., Method of bonding thermally sprayed coating to non-roughened aluminum surfaces.
Chaklader Asoke C. D. (Vancouver CAX) Butters Robert G. (Vancouver CAX) Ross Douglas A. (Richmond CAX), Method of collecting plasma synthesize ceramic powders.
Anderson ; Jr. Herbert R. (Patterson NY) Divakaruni Renuka S. (Ridgefield CT) Dynys Joseph M. (Poughkeepsie NY) Kandetzke Steven M. (Fishkill NY) Kirby Daniel P. (Poughkeepsie NY) Master Raj N. (Wapp, Method of making multilayered ceramic structures having an internal distribution of copper-based conductors.
Birkenbeil Hans (Frankfurt DEX) Brand Ulrich (Langenselbold DEX) Goor Gustaaf (Hanau DEX) Kunkel Wolfgang (Frankfurt DEX), Method of separating catalyst-free working solution from the hydrogenation cycle of the anthraquinone method for the pro.
Leamon, David; Layman, Frederick P.; Ruiz, Eliseo; Biberger, Maximilian A., Methods and apparatuses for nano-materials powder treatment and preservation.
19840200 ; Niederer et al., Methods for and products of processing nanostructure nitride, carbonitride and oxycarbonitride electrode power materials by utilizing sol gel technology for supercapacitor applications.
Bogan, Jr., Leonard Edward; Han, Scott; Jacobs, Bradley Anson; Kaiser, Frederick William; Klugherz, Peter David; Lin, Manhua; Link, III., Richard David; Linsen, Michael William, Methods for producing unsaturated carboxylic acids and unsaturated nitriles.
Carter George W. (800 Chapman Blvd. Ottawa CAX K1G 1T9) Tsangaris Andreas (29 Confederation Private Ottawa CAX K1V 9W6), Municipal solid waste disposal process.
Drumm,Robert; Goebbert,Christian; Gossmann,Kai; Nonninger,Ralph; Schmidt,Helmut, Nanoscale corundum powders, sintered compacts produced from these powders and method for producing the same.
Triplett Kelly B. (Stamford CT) Burk Johst H. (Mohegan Lake NY) Sherif Fawzy G. (Stony Point NY) Vreugdenhil Willem (Katonah NY), Non-oxide metal ceramic catalysts comprising metal oxide support and intermediate ceramic passivating layer.
Kezuka, Masamichi; Miyashita, Kiyoshi; Ogawa, Ryohei; Hishinuma, Akihiro, Photocatalyst containing metallic ultrafine particles and process for producing said photocatalyst.
Bernecki Thomas F. (Elmont NY) Varley Kevin J. (Hicksville NY) Rusch William P. (Lake Ronkonkoma NY) Wlodarczyk Janusz (Jackson Heights NY) Klein John F. (Port Washington NY), Plasma gun with adjustable cathode.
Kitahashi Masamitsu,JPX ; Kurokawa Iwao,JPX ; Tokunaga Mikio,JPX ; Tokynaya Hiroyuki,JPX, Plasma torch with swirling gas flow in a shielding gas passage.
McGinnis Roger N. (Bellingham WA) Drehman Lewis E. (Bartlesville OK) Pitzer Emory W. (Bartlesville OK), Platinum group metal catalyst on the surface of a support and a process for preparing same.
Yadav, Tapesh; Kostelecky, Clayton, Polymer nanocomposite implants with enhanced transparency and mechanical properties for administration within humans or animals.
Beauseigneur Patricia A. (Waverly NY) Lachman Irwin M. (Corning NY) Patil Mallanagouda D. (Corning NY) Swaroop Srinivas H. (Painted Post NY) Wusirika Raja R. (Painted Post NY), Pore impregnated catalyst device.
Dubust Jean-Claude (Limours FRX) Boncoeur Marcel (Paris FRX) Hansz Bernard (Vertle Petit FRX), Process and apparatus for coating a member by plasma spraying.
Heilmann Paul (Maintal DEX) Loser Klaus (Mainhausen DEX) Preisser Friedrich (Budingen DEX), Process and apparatus for heat treatment of workpieces by quenching with gases.
Irgang Matthias,DEX ; Menger Volkmar,DEX ; Miesen Ernest,DEX ; Stops Peter,DEX ; Graf Fritz,DEX, Process and catalyst for the selective hydrogenation of butynediol to butenediol.
Serrano Jean-Pierre (St. Aubin-de-Medoc FRX) Feuillerat Jean (Bordeaux FRX), Process and device for injecting a finely divided material into a hot gaseous flow and apparatus for carrying out this p.
Dorer Gary L. (Taunton MA) Mikelsons Valdis (Mendota Heights MN), Process for forming a microstructured transmission and reflectance modifying coating.
Jurewicz,Jerzy W.; Guo,Jiayin, Process for plasma synthesis of rhenium nano and micro powders, and for coatings and near net shape deposits thereof and apparatus therefor.
Nakagawa Katsumi (Nagahama JPX), Process for preparing a functional thin film by way of the chemical reaction among active species and apparatus therefor.
Ushida Yoshihisa (Ohtake JPX) Amimoto Yoshikatu (Iwakuni JPX) Toyota Akinori (Iwakuni JPX) Kashiwa Norio (Iwakuni JPX), Process for the production of spherical carrier particles for olefin polymerization catalysts.
Overbeek Rudolf A. ; Khonsari Ali M. ; Chang Yung-Feng ; Murrell Lawrence L. ; Tatarchuk Bruce J. ; Meffert Michael W., Production of composite structures.
Cheng, Huiming; Liu, Chang; Cong, Hongtao; Liu, Min; Fan, Yueying; Su, Ge, Production of single-walled carbon nanotubes by a hydrogen arc discharge method.
Beutel, Tilman W.; Dettling, Joseph C.; Hollobaugh, Dustin O.; Mueler-Stach, Torsten W., Pt-Pd diesel oxidation catalyst with CO/HC light-off and HC storage function.
Guyomard Daniel (Lamorkoye MI FRX) Anderson ; Jr. James L. (Howell MI) Frank Alfred (Toledo OH) Chavaillaz Georges (Saint Sulpice CHX), Recirculation system and method for automated dosing apparatus.
Vigliotti, Anthony; Yadav, Tapesh; Kostelecky, Clayton; Wyse, Carrie, Reducing manufacturing and raw material costs for device manufacture with nanostructured powders.
Espinoza, Rafael L.; Jothimurugesan, Kandaswamy; Coy, Kevin L.; Ortego, Jr., James Dale; Srinivasan, Nithya; Ionkina, Olga P., Silica-alumina catalyst support, catalysts made therefrom and methods of making and using same.
Brotzman ; Jr. Richard W. ; Aikens John H., Siloxane star-graft polymers, ceramic powders coated therewith and method of preparing coated ceramic powders.
Buysch, Hans-Josef; Hesse, Carsten; Jentsch, Jorg-Dietrich; Rechner, Johann; Zirngiebl, Eberhard, Supported catalysts containing a platinum metal and process for preparing diaryl carbonates.
Horn ; Jr. William E. (Gibsonia PA) Balaba Willy M. (Monroeville PA) Parker Anthony A. (Toledo OH), Surface treating aluminum trihydrate powders with prehydrolized silane.
Noda Naomi,JPX ; Shibagaki Yukinari,JPX ; Mizuno Hiroshige,JPX ; Takahashi Akira,JPX, System for exhaust gas purification and method for exhaust gas purification using said system.
Yang, Ming; Xiao, Xingcheng; Day, Ryan J.; Qi, Gongshin, Catalysts with atomically dispersed platinum group metal complexes and a barrier disposed between the complexes.
Biberger, Maximilian A.; Kearl, Bryant; Yin, Qinghua; Qi, Xiwang, Compositions for passive NOx adsorption (PNA) systems and methods of making and using same.
Biberger, Maximilian A.; Kearl, Bryant; Yin, Qinghua; Qi, Xiwang, Compositions for passive NOx adsorption (PNA) systems and methods of making and using same.
Biberger, Maximilian A.; Kearl, Bryant; Yin, Qinghua; Qi, Xiwang; Leamon, David, Lean NOx traps, trapping materials, washcoats, and methods of making and using the same.
Biberger, Maximilian A.; Lehman, Jr., Stephen Edward; Kevwitch, Robert Matthew; Yin, Qinghua; Kingsley, Jesudos J., Method and system for forming plug and play metal catalysts.
Yin, Qinghua; Qi, Xiwang; Biberger, Maximilian A.; Leamon, David, Washcoats and coated substrates for catalytic converters and methods of making and using same.
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