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Last modified date:2010.1.30
Takuya Kitaoka
Division of Biomaterial Science
Department of Forest and Forest Products Sciences Faculty of Agriculture Graduate SchoolUndergraduate SchoolHomepagehttp://brc.wood.agr.kyushu-u.ac.jp/
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| 1. | Koga H., Kitaoka T.,Silver Nanoparticles On-paper Synthesis of Silver Nanoparticles for Antibacterial Applications,IN-TECH Education and Publishing KG,in press,2010.01. |
| 2. | Paper-Structured Catalyst for Hydrogen Production, in the Advanced Technologies of Cellulose Utilization. |
| 3. | XPS Mapping Analysis of Paper Surface/Elementary Imaging of Paper Surface by SEM-EDS/Nano-Imaging of Paper Surface by AFM, in Know-How Catalogues for Paper Analysis and Observation. |
| 4. | Photocatalyst Paper/Hydrogen-Producing Catalyst Paper, in FIBER Super-Biomimetics. |
| 5. | Development of Catalyst Paper by a Papermaking Technique, in Encyclopedia of Hydrogen Utilization II. |
| 6. | Aluminum Chemistry at the Wet-End, in the Recent Trends of Wet End Chemistry and Paper Chemicals. |
| 1. | Architectural Design and Functional Development of Cellulosic Nanolayers T. Kitaoka, S. Yokota Bioscience & Industry. |
| 2. | A Novel Conception for the Wet-End Interactions Based on the Molecular Recognition on Paper Surface T. Kitaoka Wood Science in Kyushu, 13(1), 3-6 (2006). |
| 3. | Development of Porous Catalyst/Fiber Composites by a Papermaking Technique A. Tomoda, R. Suzuki, T. Kitaoka Fuel Cell, 5(4), 83-87 (2006). |
| 4. | Wet-End Interaction Based on the Molecular Recognition at the Cellulose/Water Interface T. Kitaoka Report of the Center of Advanced Instrumental Analysis Kyushu University, 23, 15-24 (2005). |
| 5. | Catalyst Paper T. Kitaoka Sen'i Gakkaishi, 60(9), P439-P442 (2004) The Society of Fiber Science and Technology, Japan. |
| 6. | Paperlike fiber/catalyst composites for environment and energy applications T. Kitaoka Cellulose Communications, 10(4), 170-174 (2003) The Cellulose Society of Japan. |
| 7. | Preparation and environmental applications of paperlike photocatalyst composites H. Tanaka, H. Ichiura, S. Fukahori, Y. Iguchi, T. Kitaoka Annals of the High Performance Paper Society, Japan, 41, 7-15 (2003). |
| 8. | A new conception in the design of papermaking additives based on the substrate recognition of cellulose-degrading enzymes T. Kitaoka Cellulose Communications, 8(4), 177-180 (2001) The Cellulose Society of Japan. |
| 9. | Molecular design of water-soluble polymer in paper chemistry H. Tanaka, T. Kitaoka Sen'i Gakkaishi, 56(5), P141-P145 (2000) The Society of Fiber Science and Technology, Japan. |
| 1. | Opietnik M., Potthast A., Kitaoka T., Rosenau T.,Synthesis of N-methylmorpholine N-(17O-oxide) and N-methylmorpholine 15N-(17O-oxide),Journal of Labelled Compounds and Radiopharmaceuticals,in press,2010.01. |
| 2. | Koga H., Kitaoka T., Nakamura M., Wariishi H.,Influence of a fiber-network microstructure of paper-structured catalyst on methanol reforming behavior,Journal of Materials Science,44(21), 5836-5841,2009.11. |
| 3. | Yokota S., Matsuyama K., Yamamoto H., Kitaoka T., Wariishi H.,Specific attraction at the carboxyl terminus of fatty acid/oxidized aluminum interface for the sizing appearance of fiber-network materials,Sen’i Gakkaishi,65(12), 332-337,2009.12. |
| 4. | Yokota S., Ohta T., Kitaoka T., Wariishi H.,Adsorption of cellobiose-pendant polymers to a cellulose matrix determined by quartz crystal microbalance analysis,BioResources,4(3), 1098-1108,2009.08. |
| 5. | Ishihara H., Koga H., Kitaoka T., Wariishi H., Tomoda A., Suzuki R.,Paper-structured catalyst for catalytic NOx removal from combustion exhaust gas,Chemical Engineering Science,65(1), 208-213,2010.01. |
| 6. | Koga H., Kitaoka T., Wariishi H.,On-paper synthesis of Au nanocatalysts from Au(III) complex ions for low-temperature CO oxidation,Journal of Materials Chemistry,19(29), 5244-5249,2009.08. |
| 7. | Koga H., Umemura Y., Ishihara H., Kitaoka T., Tomoda A., Suzuki R., Wariishi H.,Paper-structured fiber composites impregnated with platinum nanoparticles synthesized on a carbon fiber matrix for catalytic reduction of nitrogen oxides,Applied Catalysis B: Environmental,90(3-4), 699-704,2009.08. |
| 8. | Yokota S., Ohta T., Kitaoka T., Ona T., Wariishi H.,Preparation of cellobiose-conjugated polyacrylamide and its interaction with a cellulose matrix for papermaking application,Sen’i Gakkaishi,65(8), 212-217,2009.08. |
| 9. | Esaki K., Yokota S., Egusa S., Okutani Y., Ogawa Y., Kitaoka T., Goto M., Wariishi H.,Preparation of lactose-modified cellulose films by a nonaqueous enzymatic reaction and their biofunctional characteristics as a scaffold for cell culture,Biomacromolecules,10(5), 1265-1269,2009.05. |
| 10. | Yokota S., Ohta T., Kitaoka T., Ona T., Wariishi H.,Preparation and characteristics of anionic polyacrylamides containing direct dye with a high affinity for cellulose,BioResources,4(2), 497-508,2009.05. |
| 11. | Koga H., Kitaoka T., Wariishi H.,In situ synthesis of silver nanoparticles on zinc oxide whiskers incorporated in a paper matrix for antibacterial applications,Journal of Materials Chemistry,19(15), 2135-2140,2009.04. |
| 12. | Egusa S., Yokota S., Tanaka K., Esaki K., Okutani Y., Ogawa Y., Kitaoka T., Goto M., Wariishi H.,Surface modification of a solid-state cellulose matrix with lactose by a surfactant-enveloped enzyme in a nonaqueous medium,Journal of Materials Chemistry,19(13), 1836-1842,2009.04. |
| 13. | Yokota S., Matsuo K., Kitaoka T., Wariishi H.,Retention and paper-strength characteristics of anionic polyacrylamides conjugated with carbohydrate-binding modules,BioResources,4(1), 234-244,2009.02. |
| 14. | Yokota S., Kitaoka T., Opietnik M., Rosenau T., Wariishi H.,Synthesis of gold nanoparticles for in situ conjugation with structural carbohydrates,Angewandte Chemie International Edition,47(51), 9866-9869,2008.12. |
| 15. | Koga H., Kitaoka T., Wariishi H.,In situ synthesis of Cu nanocatalysts on ZnO whiskers embedded in a microstructured paper composite for autothermal hydrogen production,Chemical Communications,-(43), 5616-5618,2008.11. |
| 16. | Yokota S., Kitaoka T., Wariishi H.,Biofunctionality of self-assembled nanolayers composed of cellulosic polymers,Carbohydrate Polymers,74(3), 666-672,2008.11. |
| 17. | Yokota S., Matsuo K., Kitaoka T., Wariishi H.,Specific interaction acting at a cellulose-binding domain/cellulose interface for papermaking application,BioResources,3(4), 1030-1041,2008.11. |
| 18. | Koga H., Fukahori S., Kitaoka T., Nakamura M., Wariishi H.,Paper-structured catalyst with porous fiber-network microstructure for autothermal hydrogen production,Chemical Engineering Journal,139(2), 408-415,2008.06. |
| 19. | Fukahori S., Koga H., Kitaoka T., Nakamura M., Wariishi H.,Steam reforming behavior of methanol using paper-structured catalysts: Experimental and computational fluid dynamic analysis,International Journal of Hydrogen Energy,33(6), 1661-1670,2008.03. |
| 20. | Yokota S., Ueno T., Kitaoka T., Wariishi H.,Molecular imaging of single cellulose chains aligned on a highly oriented pyrolytic graphite surface,Carbohydrate Research,342(17), 2593-2598,2007.12. |
| 21. | Yokota S., Ueno T., Kitaoka T., Tatsumi D., Wariishi H.,Morphological imaging of single methylcellulose chains and their thermoresponsive assembly on a highly oriented pyrolytic graphite surface,Biomacromolecules,8(12), 3848-3852,2007.12. |
| 22. | Yokota S., Kitaoka T., Sugiyama J., Wariishi H.,Cellulose I nanolayers designed by self-assembly of its thiosemicarbazone on a gold substrate,Advanced Materials,19(20), 3368-3370,2007.10. |
| 23. | Fukahori S., Ichiura H., Kitaoka T., Tanaka H., Wariishi H.,Preparation of porous sheet composite impregnated with TiO2 photocatalyst by a papermaking technique,Journal of Materials Science,42(15), 6087-6092,2007.08. |
| 24. | Ueno T., Yokota S., Kitaoka T., Wariishi H.,Conformational changes in single carboxymethylcellulose chains on a highly oriented pyrolytic graphite surface under different salt conditions,Carbohydrate Research,342(7), 954-960,2007.05. |
| 25. | Yokota S., Matsuyama K., Kitaoka T., Wariishi H.,Thermally responsive wettability of self-assembled methylcellulose nanolayers,Applied Surface Science,253(11), 5149-5154,2007.03. |
| 26. | Egusa S., Kitaoka T., Goto M., Wariishi H.,Synthesis of cellulose in vitro by using a cellulase/surfactant complex in a nonaqueous medium,Angewandte Chemie International Edition,46(12), 2063-2065,2007.03. |
| 27. | Fukahori S., Iguchi Y., Ichiura H., Kitaoka T., Tanaka H., Wariishi H.,Effect of void structure of photocatalyst paper on VOC decomposition,Chemosphere,66(11), 2136-2141,2007.02. |
| 28. | Yokota S., Kitaoka T., Wariishi H.,Surface morphology of cellulose films prepared by spin coating on silicon oxide substrates pretreated with cationic polyelectrolyte,Applied Surface Science,253(9), 4208-4214,2007.02. |
| 29. | Mayumi A., Kitaoka T., Wariishi H.,Partial substitution of cellulose by ring-opening esterification of cyclic esters in a homogeneous system,Journal of Applied Polymer Science,102(5), 4358-4364,2006.12. |
| 30. | Koga H., Fukahori S., Kitaoka T., Tomoda A., Suzuki R., Wariishi H.,Autothermal reforming of methanol using paper-like Cu/ZnO catalyst composites prepared by a papermaking technique,Applied Catalysis A: General,309(2), 263-269,2006.08. |
| 31. | Fukahori S., Koga H., Kitaoka T., Tomoda A., Suzuki R., Wariishi H.,Hydrogen production from methanol using a SiC fiber-containing paper composite impregnated with Cu/ZnO catalyst,Applied Catalysis A: General,310, 138-144,2006.08. |
| 32. | Matsuyama K., Yokota S., Kitaoka T., Wariishi H.,Surface morphology and wetting characteristics of sized cellulose imitations,Sen’i Gakkaishi,62(4), 89-94,2006.04. |
| 33. | Fukahori S., Kitaoka T., Tomoda A., Suzuki R., Wariishi H.,Methanol steam reforming over paper-like composites of Cu/ZnO catalyst and ceramic fiber,Applied Catalysis A: General,300(2), 155-161,2006.01. |
| 1. | Self-assembling immobilization and bio-functional design of chitin nanolayers on a gold surface. |
| 2. | One-step lactosylation of hydrophobic alcohols via nonaqueous enzymatic reaction. |
| 3. | Development of sugar-based hydrogelators and their application to scaffold materials. |
| 4. | Synthesis of gold nanoparticles using NMMO redox system for in situ glyco-conjugation. |
| 5. | Synthesis of glyco-azobenzene derivatives and their application to surface glyco-modifications. |
| 6. | Synthesis of disaccharide lactone hydrogelators and their application as a cell scaffold. |
| 7. | One-pot synthesis of biomimetic alkyllactosides via nonaqueous biocatalysis. |
| 8. | Surface morphology and biofunctional characteristics of hyaluronan nanolayers. |
| 9. | Surface nanostructure and biofunctional characteristics of self-assembled chitin nanolayers. |
| 10. | Glycosynthesis via nonaqueous enzymatic reactions. |
| 11. | On-fiber synthesis of Au nanoparticles and their CO oxidation behavior. |
| 12. | Biofunctional characteristics of hyaluronan-fixed membrane. |
| 13. | On-paper synthesis of Pt nanoparticles and their NOx reduction behavior. |
| 14. | Computational fluid dynamic analysis of NOx reduction reaction in paper-structured catalysts. |
| 15. | Synthesis of gold nanoparticles for in situ glyco-conjugation in NMMO system. |
| 16. | Cellulose synthesis via nonaqueous enzymatic reactions. |
| 17. | Novel sugar nano-cylinder designed via self-assembly of supramolecular hydrogelator. |
| 18. | One-pot synthesis of alkylglycosides via nonaqueous enzymatic reaction. |
| 19. | Preparation and biofunctional characteristics of self-assembled chitin nanolayers. |
| 20. | In situ synthesis of gold nanocatalysts on a paper-structured matrix for catalytic CO oxidation. |
| 21. | In situ synthesis of platinum nanocatalysts on a paper-structured matrix for catalytic reduction of nitrogen oxides . |
| 22. | Carbohydrate-gold nanoparticles: synthesis, chemistry and applications. |
| 23. | Bioactive paper designed by surface modification with lactose via nonaqueous biocatalysis. |
| 24. | Synthesis of oligolactose and alkyllactosides by nonaqueous biocatalysis. |
| 25. | In situ synthesis of silver nanoparticles on ZnO whiskers embedded in a paper matrix for antibacterial applications. |
| 26. | Novel synthesis of gold nanoparticles for in situ conjugation with various carbohydrates via an NMMO-mediated redox reaction. |
| 27. | Cellulose model surfaces of different crystalline characteristics and their evaluation in enzyme adsorption and hydrolysis. |
| 28. | On-paper synthesis and antibacterial effect of silver nanoparticles. |
| 29. | Preparation and NOx reduction performance of platinum-containing paper-structured catalysts. |
| 30. | Catalytic mechanisms of cellulase in nonaqueous cellulose synthesis. |
| 31. | Synthesis of gold nanoparticles and in situ glyco-modification in an amine oxide medium. |
| 32. | Glyco-conjugation of hydrophobic alcohols by nonaqueous biocatalysis. |
| 33. | Nano-structural design and interfacial characteristics of chitin nanolayers. |
| 34. | Site-specific synthesis and catalytic function of platinum nanoparticles on cellulose crystals. |
| 35. | Surface glyco-modification of cellulose films by nonaqueous biocatalysis and their biointerfacial function. |
| 36. | Paper-structured catalyst with layered fiber-network microstructure for efficient autothermal hydrogen production. |
| 37. | Catalytic NOx reduction using paper-structured catalyst for the purification of automobile exhaust gas. |
| 38. | Development of activated carbon filter from biomass wastes for water purification application. |
| 39. | Development of paper-structured catalyst for effective hydrogen production by methanol reforming. |
| 40. | Effect of fiber-network microstructure of paper-structured catalyst on methanol reforming behavior. |
| 41. | Paper-structured catalyst for catalytic NOx removal from combustion exhaust gas. |
| 42. | Structural analysis and interfacial functions of self-assembled cellulosic nano-layers. |
| 43. | Nonaqueous cellulose synthesis by using cellulase/polymer complexes. |
| 44. | Glyco-synthesis by nonaqueous biocatalysis and structural and functional analysis. |
| 45. | Synthesis of oligolactose and lactosides by nonaqueous biocatalysis. |
| 46. | Synthesis and functional design of non-natural oligolactose by nonaqueous biocatalysis. |
| 47. | Synthesis of carbohydrate-conjugated gold nanoparticles and their functional design for cell sensing. |
| 48. | On-fiber synthesis of Pt nanoparticles and NOx reduction behavior by paper-structured Pt catalysts. |
| 49. | Development of paper-like microstructured catalysts and their NOx reduction performance. |
| 50. | CFD simulation of catalytic methanol reforming reaction in fiber-network microstructure. |
| 51. | Production of pure hydrogen by paper-structured catalyst containing Cu-nanoparticles. |
| 52. | Fiber-network microstructure effect of paper-structured catalyst on methanol reforming behavior . |
| 53. | Catalytic reduction of NOx using paper-structured catalyst for the purification of automotive emissions . |
| 54. | Preparation of cellulose-GNP complex in an NMMO/H2O system. |
| 55. | In-situ synthesis of Cu nanocatalyst on ZnO fibers embedded in a microstructured paper composite for effective hydrogen production. |
| 56. | Biofunctionality of cellulosic nanolayers designed by vectorial chain immobilization. |
| 57. | Nonaqueous enzymatic synthesis and structural characterization of novel oligosaccharides. |
| 58. | Surface morphology and cell attachment behavior of glyco-modified cellulose films. |
| 59. | Microstructure analysis of paper-structured catalyst for combustion exhaust gas purification. |
| 60. | Biofunctional cellulosic nanomaterials designed by self-assembly. |
| 61. | Biofunctional cellulosic nanomaterials designed by self-assembly. |
| 62. | Nonaqueous enzymatic polymerization of bioactive sugars by surfactant-enveloped enzymes. |
| 63. | Enzymatic synthesis of carbohydrate polymers by surfactant-enveloped enzyme in nonaqueous media. |
| 64. | Bio-functional interfaces composed of cellulosic biopolymers. |
| 65. | Effective hydrogen production using paper-structured catalyst with porous fiber-network microstructure. |
| 66. | Nonaqueous biocatalytic glycosynthesis by surfactant-enveloped enzymes. |
| 67. | Enzymatic polymerization of lactose by surfactant-enveloped enzymes in nonaqueous media. |
| 68. | Cellulosic bio-interface designed by vectorial chain immobilization via self-assembly. |
| 69. | Paper-structured catalyst prepared by a papermaking technique for hydrogen production. |
| 70. | Recent advances in bioresources chemistry. |
| 71. | In vitro synthesis of cellulose using cellulase/surfactant complex in nonaqueous media. |
| 72. | Adsorption behavior of cellobiose-pendant polymers at the cellulose/water interface. |
| 73. | Architectural arrangement of cellulose by self-assembly. |
| 74. | Surface chemistry of cellulose for paper materials. |
| 75. | Preparation and environmental applications of paperlike fiber/photocatalyst composites. |
| Copyright © 2006, Kyushu University. All right reserved. |