Industrial Applications of Immobilized Cells

References

• Bitton C., Marshall K. C. Adsorption of Microorganisms to Surfaces. John Wiley & Sons, New York 1980
   Google Scholar
• Michaelis L., Ehrenreich M. Die Absorptionsanaly.se der Fermente. Biochem. Z. 1908; 10: 283
   Google Scholar
• Dunnill P. Immobilized cell and enzyme technology. Phil. Trans. R. Sot: Land. 1980; B290: 409
   Google Scholar
• Linko Y.-Y., Pohjola L., Linko P. Entrapped glucose isomerase for high fructose syrup production. Process Biochem. 1977; 12(6)14
   Google Scholar
• Hattori T., Furusaka C. Chemical activities ofEschericia coliadsorbed on a resin, Dowex-l. Nature 1959; 184(suppl 20)
   Google Scholar
• Hattori T., Furusaka C. Chemical activitiesof Eschericia coliadsorbed on a resin. Biochim. Biophys. Acta 1959; 31: 581
   PubMedGoogle Scholar
• Takasaki Y., Tanabe O. Enzyme Method for Converting Glucose in Glucose Syrups to Fructose. U.S. Patent 3; 616(221)1971
   Google Scholar
• Takasaki Y., Kanbayashi A. Method of Convening Glucose into Fructose. U.S. Patent 3; 753(853)1973
   Google Scholar
• Lilly M. D. Immobilized enzyme reactors. Biotechnology. DECHEMA Monographs,Verlag Chemie, Frankfurt/Main 1978; Vol. 82: 165
   Google Scholar
• Chihata I. Development of enzyme engineering. Application of immobilized cell system. Food Process Engineering Enzyme Engineering in Food Processing, P. Linko, J. Larinkari. Applied Science Publishers, London 1980; Vol. 2: 1
   Google Scholar
• Shimizu J., Kaga T. Apparatus for Continuous Hydrolysis of Raffmose. U.S. Patent 3; 664(927)1972
   Google Scholar
• Suzuki H., Yoshida H., Ozawa Y., Kamibayashi A., Sato M., Mori S., Endo M. Increasing Yield of Sucrose. U.S. Patent 1973; 767: 526
   Google Scholar
• Mosbach K., Mosbach R. Entrapment of enzymes and microorganisms in synthetic cross-linked polymers and their application in column techniques. Acta Chem. Scand. 1966; 20: 2807
   PubMedGoogle Scholar
• Brodelius P. Industrial applications of immobilized biocatalysts. in Adv. Biochem. Eng, T. K. Ghose, A. Fiechter, N. Blakebrough. Springer-Verlag, Berlin 1978; Vol. 10: 75
   Google Scholar
• Klein J., Wagner F. Immobilized whole cells. Biotechnology, DECHEMA Monographs. Verlag Chemie, Frankfurt/Main. 1978; Vol. 82: 142
   Google Scholar
• Chibata I. Immobilized Enzymes. Research and Development. Kodansha, Tokyo 1978
   Google Scholar
• Chibata I., Tosa T., Sato T. Use of immobilized cell systems to prepare Tine chemicals. Microbial Technology, H. J. Peppier, D. Perlman. Academic Press, New York 1979; Vol. 2: 433
   Google Scholar
• Kolot. New trends in yeast technology. Immobilized cells. Process Biochem. 1980; 15(7)2
   Google Scholar
• Cheetham P. S. J. Developments in the immobilisation of microbial cells and their applications. Topics in Enzyme and Fermentation Technology, A. Wiseman. Ellis Horwood, Ltd., Chichester 1989; Vol. 4: 189
   Google Scholar
• Berger R. Immobilisierung mikrobieller Zellen und deren Nutzung zur Substratwandlung, Eine Literaturüberschichte. Acta Biotechnol. 1981; 1: 73
   Google Scholar
• Linko P., Linko Y. Y. Applications of immobilized microbial cells. Applied Biochem. Bioeng, I. Chibata, L. B. Wingard, Jr. Academic Press, New York 1983
   Google Scholar
• Bucholz K. Reaction engineering parameters for immobilized biocatalysts. Adv. Biochem. Bioeng, A. Fiechter. Springer-Verlag, Berlin 1982; Vol. 24: 39
   Google Scholar
• Anon. Coca-Cola adds fructose to formulation. Food Eng. Inl. 1980; 5(4)11
   Google Scholar
• Spaeth R. W. The Uniled States corn wet-milling industries in the 1980s. F. 0. Licht's Int'l. Sweetener Report. 1980; 3: 37
   Google Scholar
• Carbonnell R. J. “In-house” commercialization by a major corporation, paper presented at the. Conference of Biotechnology. New Brunswick, N.J. Dec. 1 to 3, 1982
   Google Scholar
• Anon. Japan: isoglucose production. F. O. Licht's Int'l. Sweetener Report. 1980; 3: 53
   Google Scholar
• Barker S. A. High fructose syrups. New sweeteners in the food industry. Process Biochem. 1975; 10(10)39
   Google Scholar
• Bucke C. Industrial glucose isomerase. Topics in Enzyme and Fermentation Biotechnology, A. Wiseman. Elli, Horwood. Chichester 1977; Vol. 1: 147
   Google Scholar
• Casey J. P. High fructose com syrup, A case history of innovation. StärketStarch. 1977; 29: 196
   Google Scholar
• Antrim R. L., Colilla W., Schmyder B. J. Glucose isomerase production of high-fructose syrups. Applied Biochem. Bioeng, L. B. Wingard, Jr, E. Katchalski-Katzir, L. Goldstein. Academi Press., New York 1979; Vol 2: 98
   Google Scholar
• Hemmingsen S. H. Development of an immobilized glucose isomerase for industrial application. Applied Biochem. Bioeng, L. B. Wingard, Jr, E. Katchalski-Katzir, L. Goldstein. Academic Press, New York 1979; Vol. 2: 157
   Google Scholar
• Chen W. P. Glucose isomerase (a review). Process Biochem. 1980; 15(6)36
   Google Scholar
• Marshall R. O. Enzymatic Process. U.S. Patent 2; 950(228)1960
   Google Scholar
• Yoshimura S., Danno G., Natake M. Studies on D-glucose isomerising activity of D-xylose grown cells fromBacillus coagulansstrain HN-68, Part 1. Description of the strain and conditions for the formation of the activity. Agric. Biol. Chem. 1966; 30: 1015
   Web of Science ®Google Scholar
• Tsumura N., Hagi M., Sato T. Propagation ofStreptomyces phaechromogenesin the presence of Co2+. Agric. Biol. Chem. 1967; 31: 902
   Web of Science ®Google Scholar
• Takasaki Y., Kosugi Y., Kanbayashi A. Streptomycesglucose isomerase. Fermentation Advances, D. Perlman. Academic Press, New York 1969; 561
   Google Scholar
• Lewis L. T., Lloyd N. E., Logan R. M., Patel D. N. Process for Isomerizing Glucose to Fructose. U.S. Patent 3; 694(314)1972
   Google Scholar
• Lewis L., Lloyd N., Logan R., Patel N. Process for Isomerizing Glucose to Fructose. U.S. Patent 1974; 3: 817–832
   Google Scholar
• Thompson K. N., Johnson R. A., Lloyd N. E. Process for Isomerizing Glucose to Fructose. U.S. Patent 3; 788(945)1974
   Google Scholar
• Lee C., Long M. Enzymatic Process using Immobilied Microbial Cells. U.S. Patent 3; 821(086)1974
   Google Scholar
• Long M. E. Enzymatic Process using Immobilized Microbial Cells. U.S. Patent 3; 935(069)1976
   Google Scholar
• Long M. E. Glucose Isomerization Process. U.S. Patent 4; 060(456)1977
   Google Scholar
• Van Velzen A. Water-Insoluble Enzyme Composition. U.S. Patent. 3; 838(007)1974
   Google Scholar
• Amotz S., Nielsen T. K., Thiessen N. O. Immobilization of Glucose Isomerase. U.S. Patent 3; 980(521)1976
   Google Scholar
• Takasaki Y. Method of Immobilizing Enzymes to Microbial Cells. U.S. Patent. 1976; 3: 950–222
   Google Scholar
• Snell R. L. Process for Conditioning Bacterial Cells Containing Glucose Isomerase activity. U.S. Patent. 1976; 3: 974–036
   Google Scholar
• Ishimatsu Y., Shigesada S., Kimura S. Immobilization of Microbial Cells having Glucose Isomerase. Japan Kokai. 1976; 76: 44–688
   Google Scholar
• Tsumura N., Kasumi T. Immobilization of glucose isomerase in microbial cell. Abstracts of Papers. 5th lnt'l. Ferment Symp., June 28 to July 3.1976 Dellweg. H. 291. July 3, 1976
   Google Scholar
• Tsumura N., Kasumi T. Method of Isomerizing Glucose with Enzyme immobilized within Microbial Cell. U.S. Patent. 1977; 4: 001–008
   Google Scholar
• Tsumura N., Kasumi T., Ishikawa M. Immobilization of glucose isomerase in microbial cells. Stärke/Starch. 1978; 30: 420
   Google Scholar
• Kasumi T., Tsumura N., Kobayashu T. Immobilization of glucose isomerase in microbial cells. Stärke/Starch. 1979; 31: 25
   Google Scholar
• Littlejohn J. H., Dworschack R. G. Treatment of Cellular Material Containing Glucose Isomerase;. U.S. Patent. 1975; 3: 909–355
   Google Scholar
• Moskowitz G. I. Immobilized Glucose Isomerase. U.S. Patent. 1974; 3: 843–442
   Google Scholar
• Lartique D. J., Weetall H. H. Method of making Fructose. U.S. Patent., 3: 939–041
   Google Scholar
• Vieth W. R., Wang S. S., Saini R. Preparation of Protein Membranes containing Microbial Cells. U.S. Patent. 1976; 3: 972–776
   Google Scholar
• Zittan L., Poulsen P. B., Hemmingsen S. H. Sweetzyme. A new immobilized glucose isomerase. Stärke/Starch 1975; 27: 236
   Web of Science ®Google Scholar
• Poulsen P. B., Zittan L. Continuous production of high-fructose syrup by cross-linked cell ho-mogenates containing glucose isomerase. Methods ofEnzymology, K. Mosbach. Academic Press, New York 1976; Vol. 44: 809
   Google Scholar
• Oestergaard J., Knudsen S. I. Use of sweetzyme in industrial continuous isomerization. Various process alternatives and corresponding product types. Stärke/Starch 1976; 28: 350
   Google Scholar
• Norsker O., Gibson K., Zittan L. Experience with empirical method for evaluating pressure drop properties of immobilized glucose isomerase. Stärke/Starch 1979; 51: 13
   Google Scholar
• Hupkes J. V. Practical process conditions for the use of immobilized glucose isomerase. Stärke/Starch 1978; 30: 24
   Google Scholar
• Hupkes J. V., Tilbury R. van, Production and properties of an immobilized glucose isomerase. StarkelStarch. 1976; 28: 356
   Google Scholar
• Ji X.-S., Li H.-X., Zheng Y.-S., Bai P.-F., Gu G.-Z., Wang L.-M., Xu S.-S. Immobilization ofStreptomycescells possessing glucose isomerase activity. Acta Biochim. Biophys. Sinica 1982; 14: 85
   Google Scholar
• Chibata I., Tosa T., Satq T. Preparation of D-Fructose. U.S. Patent 4; 081(327)1978
   Google Scholar
• Tosa T., Sato T., Mori T., Yamamoto K., Takata I., Nishida Y., Chibata I. Immobilization of enzymes and microbial cells using carrageenan as matrix. Biotechnol. Bioeng. 1979; 21: 169
   Google Scholar
• Linko Y.-Y., Viskari R., Pohjola L., Linko P. Preparation and performance of celllose bead entrapped whole cell glucose isomerase. J. Solid Phase Biochem. 1977; 2: 203
   Google Scholar
• Linko Y.-Y., Viskari R., Pohjola L., Linko P. Cellulose bead entrapped whole cell glucose isomerase in fructose syrup production. Enzyme Engineering, G. B. Broun, G. Manecke, L. B. Wingard, Jr. Plenum Press, New York 1978; 345
   Google Scholar
• Linko P., Poutanen K., Weckström L., Linko Y.-Y. Preparation and kinetic behavior of immobilized whole cell biocatalysts. Biochimie 1980; 62: 387
   PubMed Web of Science ®Google Scholar
• Linko P., Poutanen K., Linko Y.-Y. Reactor performance in glucose isomeriztation by cellulose bead immobilizedActinoplanescells. J. Mol. Catalysis 1981; 13: 263
   Google Scholar
• Pansolli P., Giovenco S., Dinelli D., Morisi F. Kinetics of fiber entrapped glucose isomerase. Analysis and Control of Immobilized Enzyme Systems, D. Thomas, J. P. Kemevez. North Holland Publishing, Amsterdam 1976; 237
   Google Scholar
• Hamilton B. K., Cotton C. K., Cooney C. L. Glucose isomerase: A case study of enzyme-catalyzed process technology. Immobilized Enzymes in Food and Microbial Processes, A. C. Olson, C. L. Cooney. Plenum Press, New York 1974; 85
   Google Scholar
• Hamilton B. K., Gardner C. R., Colton C. K. Basic concepts in the effects of mass transfer of immobilized enzyme kinetics. Immobilized Enzymes in Food and Microbial Processes, A. L. Olson, C. L. Cooney. Plenum Press, New York 1974; 205
   Google Scholar
• Lee Y.-Y., Wun F., Tsao G. T. Kinetics and mass transfer characteristics of glucose isomerase immobilized on porous glass. Immobilized Enzyme Technology, H. H. Weetall, S. Suzuki. Plenum Press, New York. 1975; 129
   Google Scholar
• Engasser J. M., Horwath C. Diffusion and kinetics with immobilized enzymes. Applied Biochemistry Bioengineering, L. B. Wingard, Jr, E. Kalchalski-Katzir, L. Goldstein. Academic Press., New York. 1976; 127
   Google Scholar
• Pitcher W. R., Jr. Design and operation of immobilized enzyme reactors. Advances in Biochemical Engineering, T. K. Ghose, A. Fiechter, N. Blakebrough. Springer-Verlag, Berlin 1977; Vol. 10: 1
   Google Scholar
• Ghose T. K., Chand S. Kinetics and mass transfer studies on the isomerization of cellulose hydrolysate using immobilizedStreptomycescells. J. Ferment. Technol. 1978; 18: 53
   Google Scholar
• Roels J. A., Tilbury R. Van, Temperature dependence of stability and activity of an immobilized glucose isomerase in a packed bed. Stärke/Starch 1979; 31: 17
   Google Scholar
• Van Keulen M. A., Vellenga K., Joosten G. E. H. Kinetics of the isomerization of D-glucose into D-fructose catalyzed by glucose isomerase containingArthrobactercells in immobilized and nonim-mobilized form. Biotechnol. Bioeng. 1981; 23: 1437
   Google Scholar
• Karonen R., Poutanen K., Linko Y.-Y., Linko P. Isomerized syrups of increased fructose content. Food Process Engineering. Enzyme Engineering in Food Processing, P. Linko, J. Larinkari. Applied Science Publishers, London 1980; Vol. 2: 123
   Google Scholar
• Crocco S. A close look at the high fructose syrups. Food Eng. Int'l. 1977; 2(2)41
   Google Scholar
• Anon. United States: further rapid gains in HFCS capacity. F. O. Licht's Int'l. Sweetener Report 1980; 3: 45
   Google Scholar
• Poutanen K., Linko Y.-Y., Linko P. Treatment of hydrolyzed lactose syrup with immobilized glucose isomerase. Milchwissenschaft 1978; 33(7)435
   Google Scholar
• Poutanen K., Linko Y.-Y., Linko P. Enzymatic isomerization of glucose in hydrolyzed whey lactose syrup. North Eur. Dairy J. 1975; 44(4)90
   Google Scholar
• Lindroos A., Linko Y.-Y., Linko P. Barley starch conversion by immobilized glucoamylase and glucose isomerase. Food Process EngineeringEnzyme Engineering in Food Processing, P. Linko, J. Larinkari. Applied Science Publishers, London, Vol. 2: 92–180
   Google Scholar
• De Whalley H. C. S. Refining agents for the treatment of sugar liquids, etc. British Patent No. 1944; 564: 270
   Google Scholar
• Wiseman A. New and modified invertase and their applications. Topics in Enzyme and Fermentation Technology, A. Wiseman. Ellis Horwood, Chichester 1979; Vol. 3: 267
   Google Scholar
• Linko Y.-Y., Weckström L., Linko P. Sucrose inversion by immobilizedSaccharomyces cerevisiaeyeast cells. Food Process Engineering. Enzyme Engineering in Food Processing, P. Linko, J. Larinkari. Applied Science Publishers, London 1980; Vol. 2: 81
   Google Scholar
• D'Souza S. F., Nadkarni G. B. Continuous inversion of sucrose by gel-entrapped yeast cells. Enzyme Microb. Technol. 1980; 2: 217
   Web of Science ®Google Scholar
• D'Souza S. F., Nadkarni G. B. Continuous conversion of sucrose to fructose and gluconic acid by immobilized yeast cell multienzyme complex. Biotechnol. Bioeng. 1980; 22: 2179
   PubMed Web of Science ®Google Scholar
• Johnson D. E., Ciegler A. Substrate conversion by fungal spores entrapped in solid matrices. Archiv. Biochem. Biophys. 1969; 130: 384
   Google Scholar
• Toda K., Shoda M. Sucrose inversion by immobilized yeast cells in complete mixing reactor. Biotechnol. Bioeng. 1975; 17: 481
   Google Scholar
• Parascandola P., Scardi V. Gelatin-entrapped whole-cell invertase. Bioechnol. Lett. 1981; 3: 369
   Web of Science ®Google Scholar
• Parascandola P., Salvadore S., Scardi V. Tuff as a convenient material for supporting immobilized invertase-active whole cells of. Saccharomyces cerevisiae. J. Ferment. Technol. 1982; 60: 477
   Google Scholar
• Goldstein H., Barry P. W., Rizzuto A. B., Venkatasubramanian L., Vieth W. R. Continuous enzymatic production of invert sugar. J. Ferment. Technol. 1977; 55: 516
   Google Scholar
• Kierstan M., Bucke C. The immobilization of microbial cells, subcellular organelles, and enzymes in calcium alginate gels. Biotechnol. Bioeng. 1977; 19: 387
   PubMed Web of Science ®Google Scholar
• Toda K. Interparticle mass transfer study with a packed column of immobilized microbes. Biotechnol. Bioeng. 1975; 17: 1729
   Google Scholar
• Meisner R., Merz G., Klefentz H. Immobilization of Enzymatically Active Preparation. Ger. Offen. 1980; 2: 912–827
   Google Scholar
• D'Souza S. F., Nadkarni G. B. Immobilized catalase-containing yeast cells: preparation and enzyme properties. Biotechnol. Bioeng. 1980; 22: 2191
   PubMedGoogle Scholar
• Sicard P. J. Hydrogenated glucose syrups, sorbitol, mannitol, and xylitol. Nutritive Sweeteners, G. G. Birch, K. J. Parker. Applied Science Publishers, London 1982; 145
   Google Scholar
• Linko P. Lactose and lactitol. Nutritive Sweeteners, Birch, K. J. Parker. Applied Science Publishers, London 1982; 109
   Google Scholar
• Tate, Lyle. Foodstuffs, etc. containing Isomaltulose. British Patent Appl. 1979; 2: 066–639A
   Google Scholar
• Tate, Lyle. Tablets Containing Isomaltulose as Diluent. British Patent Appl. 1980; 2: 066–640A
   Google Scholar
• Cheetham P. S. J., Imber C. E., Isherwood J. The formation of isomaltulose by immobilized. Erwinia rhapontici. Nature 1982; 299: 628
   Web of Science ®Google Scholar
• Tate, Lyle. Isomaltulose Production from Sucrose. British Patent Appl. 1979; 2: 063–268A
   Google Scholar
• Suzuki H., Ozawa Y., Oota H., Koshida H. Decomposition of raffinose by a-galactosidase of mold, (I) α-Galactosidase formation and hydrolysis of raffinose by the enzyme preparation. Agric. Biol. Chem. 1969; 33: 506
   Web of Science ®Google Scholar
• Obara J., Hashimoto S. Enzyme applications in the sucrose industry. Sugar Technol. Rev. 1977; 4: 200
   Google Scholar
• Abbott B. J. Immobilized cells. Annual Reports of Fermentation Processes, D. Perlman. Academic Press, New York 1977; Vol. 1: 205
   Google Scholar
• Chibata I., Tosa T., Sato T. Immobilized aspartase-containing microbial cells: preparation and enzyme properties. Appl. Microbiol. 1974; 27: 878
   PubMedGoogle Scholar
• Saimaru H., Izumi C., Narita S., Yamada M. Fixation of ot-Galactosidase within the Cell of Microorganism Synthesizing this Enzyme. Cer. Offen. 1975; 2: 518–280
   Google Scholar
• Linden J. C. Immobilized α-galactosidase in the sugar beet industry. Enzyme. Microb. Technol. 1982; 4: 130
   Web of Science ®Google Scholar
• Nishimaru H., Izumi C., Narita S., Yamada M. Fixation of α-Galactosidase inside microorganisms. Japan. Kokai. 1975; 75: 140–680
   Google Scholar
• Sato K., Terashima M. Intracellular Melibiase Production. Japan. Kokai 1974; 74: 66–886
   Google Scholar
• Suzuki H. Raffinose Decomposition by an Immobilized α-Galactosidase. Japan. Kokai 1973; 73: 52–989
   Google Scholar
• Thananunkul D., Tanaka M., Chichester C. O., Lee T.-C. Degradation of raffinose and stachyose in soybean milk by α-galactosidase fromMortierelta vinaceae.Entrapment of α-galactosidase with polyacrylamide. J. Food Sci. 1976; 4: 173
   Google Scholar
• Shukia T. P. Beta-galactosidase technology: a solution to the lactose problem. CRC Crit. Rev. Food Technol. 1975; 5: 325
   Google Scholar
• Marconi W. Immobilized enzymes Biotechnology. DECHEMA Monographs, Vol. 82, Verlag Chemie, Frankfurt/Main. 1978, 78
   Google Scholar
• Forsman E. S., Heikonen M., Kiviniemi L., Kreula M., Linko P. Kinetic investigations of the hydrolysis of milk lactose with solubleKluyveromyces fragilisβ-galactosidase. Michwissenschaft 1979; 34: 618
   Google Scholar
• Harju M., Kreula M. Lactose hydrolysates. Carbohydrate Sweeteners in Foods and Nutrition, P. Koivistoinen, L. Hyvönen. Academic Press, New York 1980; 233
   Google Scholar
• Dohan L. A., Baret J. L., Pain S., Delalande P. Lactose hydrolysis by immobilized lactase: semi-industrial experience. Food Process Engineering, Enzyme Engineering in Food Processing, P. Linko, L. Larinkari. Applied Science Publishers, London 1980; Vol. 2: 137
   Google Scholar
• Dinelli D. Fiber-entrapped enzymes. Process Biochem. 1972; 7(8)9
   Google Scholar
• Guillaume J., Plichon B. Enzymatically Active Polymer Production. French Demande 1975; 2: 277–097
   Google Scholar
• Miyata N., Kikuchi T. Microbial fungus body fixing method. Japan Kokai. 1976; 76: 128–477
   Google Scholar
• Jirku V., Turkova J., Veruović C., Kubánek V. Immobilization of yeast cells on polyphenylene oxide. Biotechnol. Lett. 1981; 2: 451
   Google Scholar
• Griffith M. W., Muir D. D. Hydrolysis of lactose by a thermostable p-galactosidase immobilized on DEAE-cellulose. J. Sci. FoodAgric 1980; 31: 397
   Google Scholar
• DeRosa M., Gambacorta A., Nicolaus B., Buonocore V. Immobilized bacterial cells containing a thermostable β-galactosidase. Biotechnol. Lett. 1980; 2: 29
   Google Scholar
• DeRosa M., Cambacorta A., Lama L., Nicolaus B. Immobilization of thermophilic microbial cells in crude egg white. Biotechnol. Lett. 1981; 3: 183
   Google Scholar
• D'Souza S. F., Kaul R., Nadkarni G. B. Immobilization of microbial cells in hen egg white. Biotechnol. Bioeng. 1982; 24: 1701
   PubMedGoogle Scholar
• Weckström L., Linko Y.-Y., Linko P. Entrapment of whole cell yeast β-galactosidase in precipitated cellulose derivatives. Food Process Engineering. Enzyme Engineering in Food Processing, P. Linko, J. Larinkari. Applied Science Publishers, London 1980; Vol. 2: 148
   Google Scholar
• Hirano K., Karube I., Suzuki S. Aminoacylase pellets. Biotechnol. Bioeng. 1977; 19: 311
   Google Scholar
• Hirano K., Karube I., Matsunaga T., Suzuki S. Basic studies on packed-bed reactor using aminoacylase-pellets. J. Ferment. Technol. 1977; 55: 401
   Google Scholar
• Suzuki S., Hirano K., Hiraga K., Takagi K. Pellet form fixed enzyme production. Japan. Kokai 1977; 77: 03–891
   Google Scholar
• Makarova E. N., Melkonyan A. B., Markosyan L. S. L-Alanine acylase in encapsulated yeasts. Biol. Zh. Arm. 1979; 32: 860
   Google Scholar
• Brodelius P., Hägerdal B., Mosbach K. Immobilized whole cells of the yeastTrigonopsis variabiliscontaining D-amino acid oxidase for the production of α-keto acids. Enzyme Engineering, H. H. Weetall, G. P. Royer. Plenum Press, New York 1980; Vol. 5: 373
   Google Scholar
• Chibata I., Tosa I., Sano R. L-Amino Acids. Japan. Kokai 1973; 73: 72–391
   Google Scholar
• Tosa T., Sato T., Mori T., Yushi M., Chibata I. continuous production of L-aspartic acid by immobilized aspartase. Biotechnol. Bioeng. 1973; 15: 69
   Web of Science ®Google Scholar
• Tosa T., Sato T., Mori T., Chibata I. Basic studies for continuous production of L-aspartic acid by immobilized. Eschericia coli, Appl. Microbiol. 1974; 27: 886
   PubMedGoogle Scholar
• Sato T., Mori T., Tosa T., Chibata I., Furui M., Yamashita K., Sumi A. Engineering analysis of continuous production of L-aspartic acid by immobilizedEschericia colicells in fixed beds. Biotechnol. Bioeng. 1975; 17: 1797
   PubMed Web of Science ®Google Scholar
• Meng G.-Z., Yang L.-W., Kon X.-F., Zhang Y.-Y. The immobilized cells ofEschericia coliAS1.881 possessing high aspartase activity. Acta Microbiol. Sinica 1978; 18: 39
   Google Scholar
• Yamada K. Bioengineering Report, Recent advances in industrial fermentation in Japan. Biotechnol. Bioeng. 1977; 19: 1563
   PubMed Web of Science ®Google Scholar
• Chibata I., Koto J., Wada M., Uchida Y., Murata K. Fixed Microorganisms Production. Japan. Kokai 1979; 79: 135–295
   Google Scholar
• Sato T., Nishida Y., Tosa T., Chibata I. Immobilization ofEscherichia colicells containing aspartase activity with K-carrageenan. Biochim. Biophys. Acta. 1979; 179: 570
   Google Scholar
• Nishida Y., Sato T., Tosa T., Chibata I. Immobilization ofEschericia colicells having aspartase activity with carrageenan and locust bean gum. Enzyme Microb. Technol. 1979; 1: 95
   Google Scholar
• Nelson R. P. Immobilized Microbial Cells. U.S. Patent 3; 957(580)1976
   Google Scholar
• Slowinski W., Charm S. E. Glutamic acid production with gel-entrapped. Corynebacterium glutamicum. Biotechnol. Bioeng. 1973; 15: 973
   PubMed Web of Science ®Google Scholar
• Venkatasubramanian K., Constantinides A., Vieth W. R. Synthesis of organic acids and modification of steroids by immobilized microbial cells. Enzyme Engineering, E. K. Pye, H. H. Weetall. Plenum Press, New York 1978; Vol. 3.: 29
   Google Scholar
• Kim H. S., Ryu D. D. Y. Continuous glutamate production using immobilized whole-cell system. Bintechnol. Bioeng. 1982; 24: 2167
   PubMed Web of Science ®Google Scholar
• Yakovleva I. Synthesis of tyrosine, aspartic acid and glutamic acid by immobilized biocatalysts. Food Process Engineering, Vol. 2, Enzyme Engineering in Food Processing, P. Linko, J. Larinkari. Applied Science Publishers, London 1980; 159
   Google Scholar
• Leuschner F. Embedded Enzymes for Use in Enzymic. Reactions. Ger. 1966; 1: 227–885
   Google Scholar
• Chibata I., Tosa T., Sato T., Yamamoto K. l-Alanine and d-Aspartic Acid by an Immobilized Microbe. Japan. Kokai. 1974; 74: 75–782
   Google Scholar
• Chibata I., Tosa T., Sato T., Yamamoto K. l-Alanine and d-Aspanic Acid Production from dl-Aspartic acid. Japan. Kokai. 1974; 75: 100–289
   Google Scholar
• Chibata I., Tosa T., Sato T., Yamamoto K. Process for Preparing l-Alanine. U.S. Patent. 1975; 3: 898–128
   Google Scholar
• Yamamoto K., Tosa T., Chibata I. Continuous production of l-alanine usingPseudomonas dacunhueimmobilized with carrageenan. Biolechol. Bioeng. 1980; 22: 2045
   Web of Science ®Google Scholar
• Takamatsu S., Yamamoto K., Tosa T., Chibata I. Stabilization of l-aspartate β-decarboxylase activity ofPseudomonas dacunhaeimmobilized with carrageenan. J. Ferment. Technol. 1981; 59: 489
   Google Scholar
• Sato T., Takamatsu S., Yamamoto K., Uemura I., Tosa T., Chibata I. Production of L-alanine from ammonium fumarate using two types of immobilized microorganisms. Eur. J. Appl. Microbiol. Biotechnol. 1982; 15: 147
   Google Scholar
• Yamamoto K., Sato T., Tosa T., Chibata I. Continuous production of L-citrulline by immobilizedPseudomonasputidacells. Biotechnol. Bioeng. 1974; 16: 1589
   Google Scholar
• Decottignies-LeMaréchal P., Calderón R., Vandecaatele J. P., Azerad R. Synthesis of L-tryptophan by immobilizedEschericia colicells. Eur. J. Appl. Microbiol. Biotechnol. 1979; 7: 33
   Google Scholar
• Wagner F., Lang S., Bang W.-G., Vorlop K. D., Klein J. Production of L-tryptophan with immobilized cells. Enzyme Engineering, I. Chibata, S. Fukui, L. B. Wingard, Jr. Plenum Press, New York 1982; Vol. 6: 251
   Google Scholar
• Kanamitsu O. Production of L-Lysine with Entrapped Microbes. Japan. Kokai 1975; 75: 132–181
   Google Scholar
• Yamada H., Yamada K., Kumagai H., Hino T., Okamura S. Immobilization of β-tyrosinase cells with collagen. Enzyme Engineering, E. K. Pye, H. H. Weetall. Plenu Press. 1978; Vol. 3: 57
   Google Scholar
• Wada M., Kato J., Chibata I. Electron microscopic observations on immobilized growing yeast cells. J. Ferment. Technol. 1980; 58: 327
   Google Scholar
• Getränke-Technik A. G. Continuous Treatment of Liquids with Enzyme Carriers. Ger. Offen. 1971; 1: 517–814, 1969., 2,000.297
   Google Scholar
• Berdell H. P. Continuous Treatment of Liquids in Fermentative Processes by Passing through Enzyme Containing Porous Structures. Swiss Patent. 1970; 489: 601
   Google Scholar
• Berdell H. P. Process and Apparatus for the Continuous Treatment of Liquids with Enzyme Carriers. U.S. Patent 3; 769(175)1973
   Google Scholar
• Baker D. A., Kirsop B. H. Rapid beer production and conditioning using a plug fermentor. J. Inst. Brew. 1973; 79: 487
   Google Scholar
• Baker D. A., Kirsop B. H. A rapid procedure for reducing the diacetyl content of beer. J. Inst. Brew. 1973; 79: 43
   Google Scholar
• Moll M., Blachere H., Durand G. Continuous Brewing of Beer. Ger. Offen. 1975; 2: 429–574
   Google Scholar
• Moll M., Durand G., Blachere H. Continuous Production of Fermented Liquids. U.S. Patent 4; 009(286)1977
   Google Scholar
• Chiou C. J. Studies on the principles and application of immobilized yeast cells. Chung-kuo Yeh Hua Hsueh Hai Chih 1979; 17(3 to 4)138
   Google Scholar
• Tolls T., Showrys J., Sandine W., Elliker F. Enzymic removal of diacetyl from beer, (II) Further studies on the use of diacetyl reductase. Appl. Microbiol. 1970; 19: 649
   PubMedGoogle Scholar
• Linko P., Linko Y.-Y. Continuous ethanol production by immobilized yeast reactor. Biotechnol. Lett. 1981; 3: 21
   Web of Science ®Google Scholar
• Linko P., Sorvari M., Linko Y.-Y. Ethanol production with immobilized cell reactors. Ann. New York Acad. Sci. 1983, (in press)
   Google Scholar
• Hartmeier W. Coimmobilisates from Fermentable Yeasts with Coupled Enzymes as well as Their Production and Use. United Kingdom Patent Appl. 1981; 2: 077–291A
   Google Scholar
• Hough J. S., Lyons T. P. Couplings of enzymes onto microorganisms. Nature 1972; 235: 389
   PubMed Web of Science ®Google Scholar
• Wiesenberg A. Wine making goes continuous. Food Eng. Int'l. 1978; 3(2)26
   Google Scholar
• Wick E., Popper K. Continuous fermentation in slant tubes. Biotechnol. Bioeng. 1977; 19: 235
   Google Scholar
• Divies C. Use of Polymer Matrix Embedded Microorganisms in Enzymic Reactions. Ger. Offen., 2,633,076; French Demande 2,320,349. 1977
   Google Scholar
• Gestrelius S. Potential application of immobilized viable cells in the food industry: malolactic fermentation of wine. Enzyme Engineering, I. Chibata, S. Fukui, L. B. Wingard, Jr. Plenum Press, New York 1982; Vol. 6: 245
   Google Scholar
• Middlehouven J., Bakker M. Degradation of caffeine by immobilized cells ofPseudomonas putidastrain C 304. Eur. J. Appl. Microbiol. Biotechnol. 1982; 15: 214
   Google Scholar
• Kaufman W., Bauer K. 6-Aminopenicillanic Acid. German Patent 1961; 1: 111–778
   Google Scholar
• Poulsen P. B. European and American trends in the industrial application of immobilized biocatalysts. Enzyme Microb. Technol. 1981; 3: 271
   Google Scholar
• Laeerlöf E., Nathorst-Westfelt L., Ekström B., Sjöberg B. Production of 6-aminopenicillanic acid with immobilizedEscherichia coliacylase. Methods of Enzymology, K. Mosbach. Academi press, New York 1976; Vol. 44: 759
   Google Scholar
• Balasingham K., Warburton D., Dunnill P., Lilly M. D. The isolation and kinetics of penicillin amidase form. E. coli, Biochim. Biophys. Acta 1972; 276: 250
   PubMedGoogle Scholar
• Chibata I., Osaka S, Tosa T., Sato T., Tadashi T. Manufacture of 6-aminopenicillanic acid by immobilized penicillin amidase-containing microorganisms. German Patent 1974; 2: 414–128
   Google Scholar
• Sato T., Tosa T., Chibata I. Continuous production of amino-penicillanic acid from penicillin by immobilized microbial cells. Eur. Appl. Microbiol. Biotechnol. 1976; 2: 153
   Google Scholar
• Sun W.-R., Wang Z.-S., Zhang Y.-Y., Zhang Q.-X., Wang X.-Q. Immobilization of penicillin acylase-producingEscherichia coliAS 1.76. Acta Microbiol. Sinica 1980; 20: 407
   Google Scholar
• Wang Q.-C, Ye X-L., Zhao F.-X., Liu G.-R., Liu G.-Y., Ou G.-Q., Shen C.-Q., Xu J.-D. Production of 6-aminopenicillanic acid from benzylpenicillin by immobilizedE. colicells. Acta Biochim. Biophys. Sinica. 1980; 12: 305
   Google Scholar
• Klein J., Wagner F. Immobilization of whole microbial cells for the production of 6-aminopenicillanic acids. Enzyme Engineering, H. H. Weetall, G. P. Royer. Plenum Press, New York 1980; Vol. 5: 335
   Google Scholar
• Mayer H, Collins J., Wagner F. Cloning of the penicillin G acylase gene ofEscherichia coliATCC 11105 on multicopy plasmids. Plasmids of Medical, Environmental and Commercial Importance, K. N. Timmis, A. Pühler. Elsevier/Nort Holland Biomedical Press., Amsterdam 1979; 459
   Google Scholar
• Meyer H., Jaakkola P., Schömer U., Segner A., Temmer T., Wagner F. Enzymatic hydrolysis of some penicillins and cephalosporins by clonedEscherichia coliacylase. Advances in Biotechnology, M. Moo-Young, C. W. Robinson, C. Vezina. Pergamon Press, Toronto 1981; Vol. I.: 83
   Google Scholar
• Klein J., Wagner F. Estimation of catalytic efficiency of immobilized cell biocatalysts. Abstracts of Communications, 2nd Eur. Congr. Biotechnol., April 5 to 10. 1981. Society of Chemical Industry, LondonEngland 1981; 118
   Google Scholar
• Gestrelius S. M. Immobilized Enzyme Products. British Patent 1979; 2: 019–410
   Google Scholar
• Vojtiset V., Zeman R., Barta M., Culik K. Bonded Cells with Penicillin Acylase Activity. Ger. Offen. 1980; 2: 950–985
   Google Scholar
• Kluge M., Klein J., Wagner F. Production of 6-aminopenicillanic acid by immobilized. Pleurotus ostreatus. Biotechnol. Lett. 1982; 4: 293
   Google Scholar
• Marconi W., Bartoli F., Cecere F., Galli G., Morisi F. Synthesis of penicillin and cephalosporin by penicillin acylase entrapped in fibers. Agric. Biol. Chem. 1975; 39: 277
   Web of Science ®Google Scholar
• Suzuki S., Karube I. Production of antibiotics and enzymes by immobilized whole cells. Immobilized Microbial Cells, K. Venkatasubramanian. ACS Symp. Ser. 1979; 106–59
   Google Scholar
• Kurzatkowski W., Kurylowicz W., Paszkiewicz A. Penicillin G production by immobilized fungal vesicles. Eur. J. Appl. Microbiol. Biotechnol. 1982; 15: 211
   Google Scholar
• Fleming I. D., Turner M. K., Napier E. J. Deacylation of 3-methyl-7β-(phenoxyacetamido)-3-cephem-4-carboxylic acid. German Patent 2; 422(374)1974
   Google Scholar
• Fukushima M., Fuji T., Matsumoto L., Morishita ML. 7-Amino-cephem Compounds. Japan. Kokai 76; 70(884)1976
   Google Scholar
• Yamanouchi Pharmaceutical Co., Ltd. Fixing D-Amino Acid Oxidase in Yeast Body. Japan. Kokai 79; 154(592)1979
   Google Scholar
• Wang Z. X., Yeu H. A., Wang M. Z., Jiao Q. H., Han W. Z., Sun W. R., Zhang Q. X. Production of 7-aminoacetoxycephalo-sporanic acid by immobilizedE. colicells. Acta Microbiol. Sinica 1981; 21: 477
   Google Scholar
• Wang Z. X., Han W. Z., Yue H. A., Zhang Q. X. Enzymatic synthesis of cephalexin by immobilizedE. coliAS-1.76 cells. Acta Microbiol. Sinica (in press).
   Google Scholar
• Suzuki S., Karube I., Morikawa Y. Production of Antibiotics. Japan Kokai 79; 138(194)1979
   Google Scholar
• Venkatasubramanian K., Vieth W. R. Immobilized microbial cells. Progress in Industrial Microbiology, M. J. Bull. Elsevier, Amsterdam 1979; Vol. 15.: 61
   Google Scholar
• Veelken M., Pape H. Production of tylosin and nikkomycin by immobilizedStreptomycescells. Eur. J. Appl. Microbiol. Biotechnol. 1982; 15: 206
   Google Scholar
• Vandamme E. J. Use of microbial enzyme and cell preparations to synthesize oligopeptide antibiotics. J. Chem. Tech. Biotechnol. 1981; 31: 637
   Google Scholar
• Kieslich K. Steroid conversions. Economic Microbiology, Microbial Enzymes and Byconversions, A. H. Rose. Academic Press, New York 1980; Vol. 5: 369
   Google Scholar
• Mosbach K., Larsson P. O. Preparation and application of polymer entrapped enzymes and microorganisms in microbial transformation processes with special reference to steroid 11 -β-hydroxylation and Δ1-dehydrogenation. Biotechnol. Bioeng. 1970; 12: 19
   PubMed Web of Science ®Google Scholar
• Larsson P. O., Mosbach K. Immobilization of steroid-transforming microorganisms in polyacry-lamide. Methods ofEnzymology, K. Mosbach. Academic Press, New York 1976; Vol. 44: 183
   Google Scholar
• Larsson P. O., Ohlson S., Mosbach K. Steroid conversion using immobilized living microorganisms. Enzyme Engineering, G. Broun, G. Manecke, L. B. Wingard, Jr. Plenum Press, New York 1978; Vol. 4: 317
   Google Scholar
• Ohlson S., Larsson P. O., Mosbach K. Steroid transformation by living cells immobilized in calcium alginate. Eur. J. Appl. Microbiol. Biotechnol. 1979; 7: 103
   Google Scholar
• Ohlson S., Flygare S., Larsson P. O., Mosbach K. Steroid hydroxylation using immobilized spores ofCurvularia lunatagerminated. in situ, Eur. J. Appl. Microbiol. Biotechnol. 1980; 10: 1
   Google Scholar
• Omata T., Tanaka A., Yamane T., Fukui S. Transformation of steroids by gel-entrappedNocurdia rhodochrouscells in organic solvent. Eur. J. Appl. Microbiol. Biotechnol. 1979; 8: 143
   Google Scholar
• Sonomoto K., Tanaka A., Omata T., Yamane T., Fukui S. Application of photo-crosslinkable resin prepolymers to entrap microbial cells. Effects of increased cell-entrapping gel hydrophobicity on the hydrocortisone Δ1-dehydrogenation. Eur. J. Appl. Microbiol. Biotechnol. 1979; 6: 325
   Google Scholar
• Tanaka A., Jin I. N., Kawamoto S., Fukui S. Entrapment of microbial cells and organelles with hydrophilic urethane prepolymers. Eur. J. Appl. Microbiol. Biotechnol. 1979; 7: 351
   Google Scholar
• Fukui S., Ahmed A., Omata T., Tanaka A. Bioconversion of lipophilic compounds in nonaqueous solvent, effect of gel hydrophobicity on diverse conversions of testosterone by gel-entrappedNocurdia rhodochrouscells, Eur. J. Appl. Microbiol. Biotechnol. 1980; 10: 289
   Google Scholar
• Fukui S., Soda E., Tanaka A., Yamane T., Komata T. Conversion of steroid materials to useful compounds. Japan Kokai 80; 15(760)1980
   Google Scholar
• Tanaka A., Sonomoto K., Hoq M. M., Usui N., Nomure K., Fukui S. Hydroxylation of steroids by immobilized microbial cells. Enzyme Engineering, I. Chibata, S. Fukui, L. B. Wingard, Jr. Plenum Press, New York. 1982; Vol. 6: 131
   Google Scholar
• Omata T., Iida T., Tanaka A., Fukui S. Immobilization of microbial cells and enzymes with hydrophobic photocross-linkable resin prepolymers. Eur. J. Appl. Microbiol. Biotechnol 1979; 6: 207
   Google Scholar
• Constantinides A. Steroid transformation at high substrate concentration using immobilizedCorynebac-teriumsimplexcells. Biotechnol. Bioeng. 1980; 22: 119
   PubMed Web of Science ®Google Scholar
• Kondo E., Matsuo E. Pseudo crystallofermentation of steroids: a new process for preparing prednisolone by a microrganism. J. Gen. Appl. Microbiol. 1960; 7: 113
   Google Scholar
• Kondo E. Steroid-I -dehydrogenation by a crude enzyme preparation from. Arthrobacler simplex., Agric. Biol. Chem. 1962; 27: 69
   Google Scholar
• Bhasin D. P., Cryte C. C., Studebaker J. F. A silicon polymer as a steroid reservoir for enzyme catalyzed steroid reactions. Biotechnol. Bioeng. 1976; 18: 1777
   Google Scholar
• Yang L. W., Zhong L. C. Preparation and the enzymatic properties of immobilizedArthrobacler simplexBy-2–13 cells possessing 3-keto-steroid-Δ1-dehydrogenase activity. Acta. Microbiol. Sinica 1983; 22(3), (in press)
   Google Scholar
• Yang L. W., Zhong L.-C. Transformation of hydrocortisone by immobilizedArthrobacter simplexBy-2–13 cells. Acta Biochim. Biophys. Sinica, (in press).
   Google Scholar
• Maddox I. S., Dunnill P., Lilly M. D. Use of immobilized cells ofRhizopus nigricansfor the 11α-hydroxylation of progesterone. Biotechnol. Bioeng. 1981; 23: 345
   Web of Science ®Google Scholar
• Duarte J. M. C., Lilly M. D. The use of free and immobilized cells in the presence of organic solvents: the oxidation of cholesterol by Nocardia rhodochrous. Enzyme Engineering, H. H. Weetall, G. P. Royer. Plenum Press, New York 1980; Vol. 5: 363
   Google Scholar
• Glomon C., Germain P., Miclo A., Engasser J. M. Steroid conversion by immobilized cells. Enzvme Engineering, I. Chibata, S. Fukui, L. B. Wingard, Jr. Plenum Press, New York 1982; Vol. 6.: 125
   Google Scholar
• Atrat P., Hüller E., Hörhold C. Steroid transformation with immobilized microorganisms. (V) Continuous side chain cleavage of a cholesterol derivative with immobilizedMycobacterium phleicells. Eur. J. Appl. Microbiol. Biotechnol 1981; 12: 157
   Google Scholar
• Larsson P. O., Ohlson S., Mosbach K. New approach to steroid conversion using activated immobilized microorganisms. Nature 1976; 263: 796
   PubMed Web of Science ®Google Scholar
• Miall L. M. Organic acids. Economic Microbiology, Primary Products of Metabolism, A. H. Rose. Academic Press, New York 1978; Vol. 2: 48
   Google Scholar
• Greenshield R. N. Acetic acid: vinegar. Economic Microbiology.Primary Products of Metabolism, A. H. Rose. Academic Press, New York 1980; Vol. 2: 121
   Google Scholar
• Barker S. A., Kay I. M., Kennedy J. F. Water Insoluble Nitrogen-Containing Biologically Active Organic Substances. U. S. Patent 1975; 3: 912–593
   Google Scholar
• Kennedy J. F., Barker S. A., Humphreys J. D. Microbial living cells immobilized on metal hydroxides. Nature 1976; 262: 242
   Google Scholar
• Kennedy J. F., Humphreys J. D., Barker S. A., Greenshield R. N. Application of living immobilized cells to the acceleration of the continuous conversion of ethanol (wort) to acetic acid (vinegar) hydrous titanium (IV) oxide-immobilizedAcetobacterspecies. Enzyme Microb. Technol. 1980; 2: 209
   Web of Science ®Google Scholar
• Ghommidh C., Navarro J. M., Durand G. Acetic acid production by immobilizedAcetobactercells. Biotechnol. Lett. 1981; 3: 93
   Google Scholar
• Ghommidh C., Navarro J. M., Durand G. A study of acetic acid production by immobilizedAcetobactercells: oxygen transfer. Biotechnol. Bioeng. 1982; 24: 605
   PubMed Web of Science ®Google Scholar
• Ghommidh C., Navarro J. M., Messing R. A. A study of acetic acid production by immobilizedAcetobactercells: product inhibition effects. Biotechnol. Bioeng. 1982; 24
   Google Scholar
• Chibata I., Tosa T., Sato T., Yamamoto K. Process for Preparing L-Malic Acid. U.S. Patent 3; 922(195)1975
   Google Scholar
• Takata I., Yamamoto K., Tosa T., Chibata I. Screening of microorganisms having high fumarase activity and their immobilization with carrageenan. Eur. J. Appl. Microbiol. Biotechnol. 1979; 7: 161
   Google Scholar
• Takata T., Yamamoto K., Tosa T., Chibata I. Immobilization ofBrevibacterium flavumwith carrageenan and its application for continuous production of L-malic acid. Enzyme Microb. Technol. 1980; 2: 30
   Web of Science ®Google Scholar
• Takata I., Kayashima K., Tosa T., Chibata I. Improvement of stability of fumarase activity ofBrevibacterium flavumby immobilization with k-carrageenan and polyethyleneimine. J. Ferment. Technol. 1982; 60: 431
   Google Scholar
• Yang L. W., Zhong L. C. The immobilized cells ofCandida rugosapossessing fumarase activity. Acta Microbiol. Sinica 1980; 20: 296
   Google Scholar
• Zhang S. Z. Industrial applications of immobilized biomaterials in China. Enzyme Engineering, I. Chibata, S. Fukui, L. B. Wingard, Jr. Plenum Press, New York 1982; Vol. 6: 265
   Google Scholar
• Ado Y., Kawamoto T., Masunaga I., Takayama K., Takasawa S., Kimura K. Production of L-malic acid with immobilized thermophilic bacterium. Thermus rubens Nov. sp., in Enzyme Engineering. Plenum Press, New York 1982; Vol. 6: 303
   Google Scholar
• Chibata I., Tosa T., Sato T., Yamamoto K. Process for Preparing Urocanic Acid. U.S. Patent., 3: 898–127
   Google Scholar
• Shibtanai T., Nishimua N., Nabe K., Kakimoto T., Chibata I. Enzymatic production of urocanic acid by. Achromobacler liquidum, Appl. Microbiol. 1974; 27: 688
   Google Scholar
• Jack T. R., Zajic J. R. The enzymatic conversion of L-histidine to urocanic acid by whole cells ofMicococcus luteusimmobilized on carbodimide activated carboxymethylcellulose. Biotechnol Bioeng. 1977; 19: 631
   Google Scholar
• Lock wood L. B. Production of organic acids by fermentation. Microbial Technology, H. J. Peppier, D. Perlman. Academic Press, New York 1979; 355
   Google Scholar
• Briffaud J., Engasser J. M. Citric acid production by free and immobilized yeasts, kinetic effects of oxygen diffusional limitations. Preprints, Part 2, 1st Eur. Congr. Biotechnol., Interlaken, Switzerland, Sept., 25–29, 1978. DECHEMA, Frankfurt/Main 1978; 133
   Google Scholar
• Stottmeister U. Kontinuerliche Citronensauresynthese mit in Polyacrylamide immobilisierten. Candida lipolytica-Zellen, Z. Allg. Mikrobiol. 1979; 763: 19
   Google Scholar
• Berger V., Langhammer G. Immobilisierung vonCandida lipolytica-Zellen in polyacrylamidgel zwecks Gewinnung von Citronensäure, Z. Allg. Mikrobiol. 1980; 20: 69
   Google Scholar
• Vieth W. R., Venkatasubramanian K. Immobilized cell systems. Enzyme Engineering, G. Broun, G. Manecke, L. B. Wingar, Jr. Plenum Press, New York 1978; Vol. 4: 307
   Google Scholar
• Vieth W. R., Venkatasubramanian K. Immobilized microbial cells in complex biocatalysis. Immobilized Microbial Cells, K. Venkatasubramanian. ACS Symp. Ser., ACS, Washington, DC 1979; Vol 6: I
   Google Scholar
• Linko P. Immobilized live cells. Advances in Biotechnology, M. Moo-Young, C. W. Robinson, C. Vezina. Pergamon Press, Toronto 1981; 711
   Google Scholar
• Vaija J., Linko Y. Y., Linko P. Citric acid production with alginate bead entrapped. Aspergillus niger, Appl. Biochem. Biotechnol. 1982; 7: 51
   PubMedGoogle Scholar
• Heinrich M., Rehm H. J. Formation of gluconic acid at low pH-values by free and immobilizedAspergillus nigercells during citric acid fermentation. Eur. J. Appl. Microbiol. Biotechnol. 1982; 15: 88
   Google Scholar
• Vaija J., Linko P. Mass transfer restrictions in immobilized cell systems: citric acid production with immobilized. Aspergillus niger, KemialKemi 1981; 8(12)802
   Google Scholar
• Griffith W. L., Compere A. L. A new method for coating fermentation tower packing so as to facilitate microorganism attachment. Dev. Ind. Microbiol. 1975; 17: 241
   Google Scholar
• Compere A. L., Griffith W. L. Fermentation of waste materials to produce industrial intermediates. Dev. Ind. Microbiol. 1975; 17: 247
   Google Scholar
• Compere A. L., Griffith W. L. Microorganism Immobilization. U.S. Patent 4; 287(305)1981
   Google Scholar
• Griffith W. L., Compere A. L. Continuous lactic acid production using a fixed-film system. Dev. Ind. Microbiol 1977; 18: 723
   Google Scholar
• Linko P. Immobilized biological systems for continuous fermentation. Food Process Enginering Enzyme Engineering in Food Processing, P. Linko, J. Larinkari. Applied Science Publishers, London 1980; Vol. 2.: 27
   Google Scholar
• Linko P., Linko Y.-Y. Immobilized microbial cells for ethanol and other applications, paper 69a. presented at the 74th Annual AIChE Meeting, New Orleans, LA, USA. Nov. 8–12, 1981
   Google Scholar
• Stenroos S. L., Linko Y. Y., Linko P. Production of L-lactic acid with immobilized. Lactobacillus delbrueckii. BiotechnoL Lett. 1982; 4: 159
   Web of Science ®Google Scholar
• Stenroos S. L., Linko Y.-Y., Linko P., Harju M., Heikonen M. Lactic acid fermentation with immobilized Lactobacillus. Enzyme Engineering, I. Chibata, S. Fukui, L. B. Wingard, Jr. Plenum Press, New York 1982; Vol. 6: 299
   Google Scholar
• Linko P., Stenroos S.-L., Koistinen T., Harju M., Heikonen M. Applications of immobilized lactic acid bacteria. Enzyme Engineering. in press. 1984; Vol. 7
   Google Scholar
• Karube I., Hirano K., Suzuki S. Glucose oxidase pellets. BiotechnoL Bioeng. 1977; 9: 1233
   Google Scholar
• D'Souza S. F., Nadkarni G. B. Immobilized catalase-containing cells: preparation and enzymic properties. BiotechnoL Bioeng. 1980; 22: 2191
   PubMedGoogle Scholar
• Brodelius P., Mosbach K. Immobilized Microbial Enzyme/Cell Systems and Their use in Preparing α-Keto Acids from the Corresponding Amino Acids. European Patent Appl. 1980; 18: 333
   Google Scholar
• Brodelius P., Nilsson K., Mosbach K. Production of α-keto acids. (I) Immobilized cells ofTrigonopsis variabiliscontaining D-amino acid oxidase. Appl. Biochem. BiotechnoL. 1981; 6: 293
   PubMedGoogle Scholar
• Szwajcer E., Brodelius P., Mosbach K. Production of α-keto acids. (2) Immobilized whole cells ofProvidenciasp. PCM 1298 containing L-amino acid oxidase. Enzyme Microb. TechnoL 1982; 4: 409
   Web of Science ®Google Scholar
• Wikström P., Szwajcer E., Brodelius P., Nilsson K., Mosbach K. Formation of α-keto acids from amino acids using immobilized bacteria and algae. BiotechnoL Lett. 1982; 4: 153
   Google Scholar
• Makover S., Pruess D. L. Method for Producing 2-Keto-L-Gulonic Acid. U.S. Patent 3; 907(639)1975
   Google Scholar
• Martin C. K. A., Perlman D. Conversion of L-sorbose to L-sorbosone by immobilized cells ofGluconobacter melanogenusIFO 3293. Biotechnol Bioeng. 1976; 18: 217
   Google Scholar
• Martin C. K. A., Perlman D. Conversion of L-sorbose to 2-keto-L-gulonic acid by mixtures of immobilized cells ofGluconobater melanogenusandPseudomonasspecies, in Abstracts of Papers. 5th lnt'l Fermentation Symp., Berlin. June 28 to July 3, 1976 Verlag Versuchs Lehranstalt für Spiritusfabrikation. Berlin. 1976, 297
   Google Scholar
• Kato E. Studies of erythorbic acid fermentation. Immobilized microbial cells by polyacrylamide. Meiji Daigaku Kagaku Kijutsu Kenkyoyusho Nempo 1974; 16: 26, (Japan.)
   Google Scholar
• Aunstrup K. Industrial approach to enzyme production. Biotechnological Applications of Proteins and Enzymes, Z. Bohak, N. Sharon. Academic Press, New York 1977; 39
   Google Scholar
• Diers I. Glucose isomerase. Bacillus coaguhms. Continuous Culture, A. C. R. Dean, D. C. E. Wood, C. G. T. Evans, J. Melling. Ellis Horwood., Chichester. 1976; 208
   Google Scholar
• Kokubu T., Karube I., Suzuki S. α-Amylase production by immobilized whole cells of Bacillus subtilis. Eur. J. Appl. Microbiol. Biotechnol. 1978; 5: 233
   Google Scholar
• Suzuki S., Karube I. Continuous or Batchwise Production of Enzymes. Japan. Kokai 79; 132(294)1979
   Google Scholar
• Shinmyo A., Kimura H., Okada H. Physiology of a-amylase production by immobilized. Bacillus amyloliquefaciens, Eur. J. Appl. Microbiol. Biotechnol 1982; 14: 7
   Google Scholar
• Kokubu T., Suzuki S. Protease production by immobilized mycelia of. Streptomyces fradiae, Biotechnol Bioeng. 1981; 23: 29
   Web of Science ®Google Scholar
• Frein E. M., Montenecourt B. S., Eveleigh D. E. Cellulase production byTrichoderma reeseiimmobilized on K-carrageenan. Biotechnol Lett. 1982; 4: 287
   Google Scholar
• Chibata I., Kakimoto T., Nishimura N., Nabe K. CoA production by immobilized bacterial cells. Japan. Kokai 75; 126(884)1975
   Google Scholar
• Shimizu S., Morioka H., Tani Y., Ogata K. Synthesis of coenzyme A by immobilized microbial cells, J. Ferment. Technol. 1975; 53: 77
   Google Scholar
• Asada M., Nakanishi K., Matsuno R., Kamikubo T. Continuous CoA production with immobilizedBrevibacterium ammoniagenescells. Agric. Biol. Chem. 1982; 46: 1687
   Web of Science ®Google Scholar
• Samejima H., Kimura K., Ado Y., Suzuki Y., Tadokoro T. Regeneration of ATP by immobilized cells and its utilization for the synthesis of nucleotides. Enzyme Engineering, G. Broun, G. Manecke, L. B. Wingard, Jr. Plenu Press, New York 1978; Vol. 4: 237
   Google Scholar
• Yamada H., Shimizu S., Tani Y. Synthesis of coenzymes by immobilized cell system. Enzyme Engineering, H. H. Weetall, G. P. Royer. Plenum Press, New York 1980; Vol. 5: 405
   Google Scholar
• Kawabata Y., Demain A. L. Enzymatic synthesis of pantothenic acid byEscherichia colicells. Immobilized Microbial Cells, K. Venkutasubramanian. ACS Symp. Series, ACD, Washington. D.C 1979; Vol. 106: 133
   Google Scholar
• Yamada H., Shimizu S., Shimada H., Tani Y., Takahashi S., Ohashi T. Production of D-phenylglycine-related amino acids by immobilized microbial cells. Biochimie 1980; 62: 395
   Google Scholar
• Chibata I., Kato J., Murata K. Glutathione. Japan. Kokai. 1979; 79: 138–190
   Google Scholar
• Murata K., Tani K., Kato J., Chibata I. Continuous production of glutathione using immobilized microbial cells containing ATP-generating system. Biochimie 1980; 62: 347
   Google Scholar
• Murata K., Tani K., Kato J., Chibata I. Glutathione production coupled with ATP regeneration system. Eur. J. Appl. Microbiol. Biotechnol. 1980; 10: 11
   Google Scholar
• Murata K., Tani K., Kato J., Chibata I. Glutathione production by immobilizedSaccharomyces cerevisiaecells, containing an ATP regeneration system. Eur. J. Appl. Microbiol. Biotechnol. 1981; 11: 72
   Google Scholar
• Ado Y., Suzuki Y., Tadokoro T., Kimura K., Samejima H. Regeneration of ATP by immobilized microbial cells and its utilization for the synthesis of ATP and CDP-choline. Appl. Biochem. Bioiechnol 1979; 4: 43
   Google Scholar
• Kimura K., Tatsuyomi Y., Mizushima N., Tanaka A., Matsuno R., Fukuda H. Immobilization of glycolysis system of yeast and production of cytidine diphosphate cholin. Eur. J. Appl. Microbiol. Biotechnol. 1978; 5: 13
   Google Scholar
• Kimura K., Tatsutomi Y., Matsuno R., Tanaka A., Fukuda H. Some properties of immobilized glycolysis system of yeast in fermentative phosphorylation of nucleotides. Eur. J. Appl. Microbiol. Biotechnol. 1981; 11: 78
   Google Scholar
• Uchida T., Watanabe T., Kato T., Chibata I. Continuous production of NADP by immobilizedAchromobacter aceriscells. Biotechnol. Bioeng. 1978; 20: 255
   Google Scholar
• Ado T., Kimura K., Samejima H. Production of useful nucleotides with immobilized microbial cells. Enzyme Engineering, H. H. Weetall, P. Royer. Plenum Press, New York 1980; Vol. 5: 295
   Google Scholar
• Tanaka Y., Hayashi T., Kawashima K. Production of NADP by immobilized cells with NAD-kinase. Biotechnol Bioeng. 1982; 24: 857
   Google Scholar
• Nabe K., Izuo N., Yamada S., Chibata I. Conversion of glycerol to dihydroxyacetone by immobilized whole cells of. Acetobacler xylinum, Appl. Environmental Microbiol 1979; 38: 1056
   PubMed Web of Science ®Google Scholar
• Holst O., Enfors S. O., Mattiasson B. Oxygenation of immobilized cells using hydrogen peroxide; a model study ofGluconobacter oxydansconvening glycerol to dihydroxyacetone. Eur. J. Appl. Microbiol. Biotechnol 1982; 14: 64
   Google Scholar
• Adlercreutz P., Hoist O., Mattiasson B. Oxygen supply to immobilized cells, (2) Studies on a coimmobilized algae-bacteria preparation within situoxygen generation. Enzyme Microb. Technol 1982; 4: 395
   Web of Science ®Google Scholar
• Schnarr G. R. W., Szarel W. A., Jones J. K. N. Preparation and activity of immobilizedAcetobacler suboxydanscells. Appl. Environmenia. Microbiol 1977; 33: 732
   Google Scholar
• Vogelmann H., Ghahremani B., Wagner F. Preparation of porphobilinogen and uroporphyrin 111 from 5-aminolaevulinic acid by pretreated cells of. Chromatium vinosum, Eur. J. Appl Microbiol. Biotechnol 1975; 2: 19
   Google Scholar
• Heinrich M., Rehm H. J. Growth ofFusarium moniliformeon n-alkanes: comparison of an immobilization method with conventional processes. Eur. J. Appl. Microbiol Biotechnol. 1981; 11: 139
   Google Scholar
• Kominek L. Dialysis Process and Apparatus. U.S. Patent 3; 915(802)1975
   Google Scholar
• Couderc R., Baratti J. Immobilized yeast cells with methanol oxidase activity: preparation and enzymatic properties. Biotechnol. Bioeng. 1980; 22: 1155
   Google Scholar
• Bui K., Arnaud A., Galzy P. A new method to prepare amides by bioconversion of corresponding nitriles. Enzyme Microb. Technol. 1982; 4: 195
   Google Scholar
• Kosaric N., Ng D. C. M., Russell I., Stewart G. S. Ethanol production by fermentation: an alternative liquid fuel. Advances in Applied Microbiology, D. Perlman. Academic Press, New York 1980; 147
   Google Scholar
• Rhigelato R. C. Anaerobic fermentation: alcohol production. Phil. Trans. R. Soc. London. 1980; B290: 303
   Google Scholar
• Bu'Lock J. D., Comberbach D. M. A practical system for high-productivity ethanol fermentation, paper presented at the 2nd Eur. Congr. Biotechnol., April 5 to 10. 1981. Eastbourne. England. Abstracts of Papers. 1981, 204
   Google Scholar
• Griffith W. L., Compere A. L. Biomass Growth Restriction in a Packed-Bed Reactor. U.S. Patent 4; 127(447)1978
   Google Scholar
• Hino T., Yamada H., Okamura S. Immobilization of Microorganisms in a Hydrophilic Complex Gel. U.S. Patent 4; 148(689)1979
   Google Scholar
• Ghose T. K., Bandyopadhyay K. K. Continuous rapid ethanol fermentation with immobilized yeast cell. Proc. 1st Nat'l. Seminar on Immobilized Enzyme Eng, R. N. Mukherjea. Jahpur. Univ., Calcutta 1979; 135
   Google Scholar
• Moo-Young M., Lamptey J., Robinson C. W. Immobilization of yeast cells on various supports for ethanol production. Biotechnol. Lett. 1980; 2: 541
   Google Scholar
• Wada M., Kato J., Chibata I. Continuous production of ethanol using immobilized growing yeast cells. Eur. J. Appl. Microbiol. Biotechnol. 1980; 10: 275
   Google Scholar
• Wada M., Kato J., Chibata I. Continuous production of ethanol in high concentration using immobilized growing yeast cells. Eur. J. Appl. Microbiol. Biotechnol. 1981; 11: 67
   Google Scholar
• Holcberg I. P., Margalith P. Alcohol fermentation by immobilized yeast at high sugar concentrations. Eur. J. Appl. Microbiol. Biotechnol. 1981; 13: 133
   Google Scholar
• Wang H. Y., Hettwer D. J. Cell immobilization in k-carrageenan with tricalcium phosphate. Biotechnol. Bioeng. 1982; 24: 1827
   PubMed Web of Science ®Google Scholar
• Linko Y. Y., Jalanka H., Linko P. Ethanol production from whey with immobilized living yeast. Biotechnol. Lett. 1981; 3: 263
   Web of Science ®Google Scholar
• Larsson P. O., Mosbach K. Alcohol production by magnetically immobilized yeast. Biotechnol. Lett. 1979; 1: 501
   Web of Science ®Google Scholar
• Margaritis A., Bajpai P. K., Wallace J. B. High ethanol productivities using small Ca-alginate beads of immobilized cells of. Zymomonas mobilis. Biotechnol. Lett. 1981; 3: 613
   Web of Science ®Google Scholar
• Linko P., Linko Y. Y. Continuous ethanol fermentation by immobilized biocatalysts. Enzyme Engineering, I. Chibata, S. Fukui, L. B. Wingard, Jr. Plenum Press, New York 1982; Vol. 6: 335
   Google Scholar
• Day D. F., Sarkar D. An immobilized yeast cell column for the fermentation of molasses. Enzyme Engineering, I. Chibata, S. Fukui, L. B. Wingard, Jr. Plenum Press, New York 1982; Vol. 6: 343
   Google Scholar
• Fukushima S., Hanai S. Pilot operation for continuous alcohol fermentation of molasses in an immobilized bioreactor. Enzyme Engineering, I. Chibata, S. Fukui, L. B. Wingard, Jr. Plenum Press, New York 1982; Vol. 6: 347
   Google Scholar
• Nagashima M. Technology developments on biomass alcohol production in Japan. Continuous alcohol production with immobilized microbial cells, paper presented at the 3rd Biochemical Engineering Conference, Santa Barbara, Calif. Sept., 19 to 24, 1982
   Google Scholar
• Anon. Japanese consortium checks out streamlined fermentation process. Biomass Digest 1982; 4(7)1
   Google Scholar
• Grote W., Lee K. J., Rogers P. L. Continuous ethanol production by immobilized cells of. Zymomonas mobilis, Biotechnol. Lett. 1980; 2: 481
   Web of Science ®Google Scholar
• Arcuri E. J., Worden R. M., Shumate S. E. II, Ethanol production of immobilized cells of. Zymomonas mobilis, Biotechnol. Lett. 1980; 2: 499
   Web of Science ®Google Scholar
• Arcuri E. J. Continuous ethanol production and cell growth in an immobilized-cell bioreactor employing. Zymomonas mobilis, Biotechnol. Bioeng. 1982; 24: 595
   PubMed Web of Science ®Google Scholar
• Amin G., Verachtert H. Comparative study of ethanol production by immobilized-cell systems usingZymomonas mobilisor. Saccharomyces bayanus, Eur. J. Appl. Microbiol. Biotechnol. 1982; 14: 59
   Google Scholar
• Prince I. G., Barford J. P. Tower fermentation usingZymomonas mobilisfor ethanol production. Biotechnol. Lett. 1982; 4: 525
   Web of Science ®Google Scholar
• Anon. AustralianZymomonasprocess moves closer to commercial market. Biomass Digest. 1982; 4(7)5
   Google Scholar
• Margaritis A., Bajpai P. Continuous ethanol production from Jerusalem artichoke tubers (II) Use of immobilized cells of. Kluyveromyces marxianus, Biotechnol. Bioeng. 1982; 24: 1483
   PubMedGoogle Scholar
• Chiang L. C., Hsiao H. Y., Flickinger M. C., Chen L. F., Tsao G. T. Ethanol production from pentoses by immobilized microorganisms. Enzyme Microb. Technol. 1982; 4: 93
   Google Scholar
• Slininger P. J., Bothast R. J., Black L. T., McGhee J. E. Continuous conversion of D-xylose to ethanol by immobilized. Pachysoten tannophilus, Biotechnol. Bioeng. 1982; 24: 2241
   PubMed Web of Science ®Google Scholar
• Krouwel P. G., van der Laan W. F. M., Kossen N. W. F. Continuous production ofn-butanol and isopropanol by immobilized, growingClostridium butylicumcells. Biotechnol. Lett. 1980; 2: 253
   Google Scholar
• Noon R. There's more than one way to ferment biomass to fuel. Powergrade butanol. Chemiech 1982; 12(11)681
   Google Scholar
• Häggstróm L., Molin N. Calcium alginate immobilized cells ofClostridium aceiobutylicumfor solvent production. Bioteehnol. Lett. 1980; 2: 241
   Web of Science ®Google Scholar
• Häggström L. Immobilized cells ofClostridium acetobutylicumfor butanol production. Advances in Biotechnology, M. Moo-Young, C. W. Robinson. Pergamon Press., Toronto 1981; Vol. 2: 79
   Google Scholar
• Mattiasson B., Suominen M., Andersson E., Häggström L., Albertsson P. A., Hahn-Hägerdal B. Solvent production byClostridium aceiobutylicumin aqueous two-phase systems. Enzyme Engineering, I. Chibata, S. Fukui, L. B. Wingard, Jr. Plenum Press, New York 1982; Vol. 6: 153
   Google Scholar
• Sankarnarayan V., Lee Yoon Y., Chambers R. P. Fermentative conversion of xylose into chemicals. Proc. Papermakers Conf.Atlanta, USA, April, 13 to 16, 1980, TAPPI. Atlanta 1980; 175
   Google Scholar
• Chua J. W., Erarslan S., Kinoshita S., Taguchi H. 2,3-Butanediol production by immobilizedEnterobacter aerogenes1AMM 133 with K-carrageenan. J. Ferment. Technol. 1980; 58: 123
   Google Scholar
• Kautola H., Linko Y. Y., Linko P. 2.3-Butanediol produciion by immobilized cells ofEnterobactersp. in Enzyme Engineering., 7, in press.
   Google Scholar
• Bisping B., Rehm H. J. Glycerol production by immobilized cells of. Saccharomyces cerevisiae. Eur. J. Appl. Microbiol. Bioteehnol. 1982; 14: 136
   Google Scholar
• van De Linden A. C. Epoxidation of a-olefins by heptane grownPseudomoiuiscells. Biochim. Biophys. Acta. 1963; 77: 157
   Google Scholar
• Furuhashi K., Taoka A., Uchida S., Urawa S. Verfahren zur Herstellung von Epoxiden unter Verwendung von immobilisirten Mikroorganismen. Cer. Offen. 1980; 2: 931–148
   Google Scholar
• Furuhashi K., Uchida S., Karube I., Suzuki S. Propyleneoxide production by immobilizedNocardia corallinaB-276. Enzyme Engineering, I. Chibata, S. Fukui, L. B. Wingard, Jr. Plenum Press, New York 1982; Vol. 6: 139
   Google Scholar
• Cape R. E., Amon W. F., Jr, Neidleman S. L. The future of biotechnology and the role of genetic engineering. Bioteehnol. Lett. 1980; 2: 199
   Google Scholar
• Neidleman S. L. The use of Enzymes as Catalysts for Alkene Oxide Production. Hydrocarbon Process. 1980; 59: 11–135
   Google Scholar
• Neidleman S. L., Amon W. F., Jr, Geigert J. Epoxides and Glycols from Alkenes. U.S. Patent Appl. 1978; 914: 384, European Patent Appl., 7.176, 198.
   Google Scholar
• Aon. Cetus reveals enzymic propylene oxide process with variations. European Chem. News. 1980; 35(943)22
   Google Scholar
• De Bont J. A. M., Tramper J., Luyben K., Ch A. M. Production of propylene oxide by immobilizedMycobacteria.Abstracts of Communications. 2nd Eur. Congr. Bioteehnol. Eastbourne, England, April, 5 to 10. 1981. Soc. Chem. Ind., London. 1981; 158
   Google Scholar
• Weetall H. H., Bennett M. A. Production of hydrogen using immobilizedRhodospirillum rubrum.in Abstracts of Papers. 5th Int'l Ferment. Symp. Berlin. June 28 to July 3. 1976 Verlag Versuchs Lehranstalt Spiritusfabrikation. Berlin. 1976, 299
   Google Scholar
• Weetall H. H., Krampitz L. O. Production of hydrogen from water using biophotolytic methods. J. Solid-Phase Biochem. 1980; 5: 115
   Google Scholar
• Suzuki S., Karube I., Matsunaga T., Kuriyama S., Suzuki N., Shirogami T., Takamura T. Biochemical enrgy conversion using immobilized whole cells of. Clostridium butyricum, Biochimie 1980; 62: 353
   Google Scholar
• Karube I., Urano N., Matsunaga T., Suzuki S. Hydrogen production from glucose by immobilized growing cells of. Clostridium buryrium, Eur. J. Appl. Microbiol. Biotechnol. 1982; 16: 5
   Google Scholar
• Egrer P., Simon H. Hydrogenation with entrappedClostridiumsp. LA 1 and observation of its stability. Biotechnol. Lett. 1982; 4: 501
   Google Scholar
• Tischer W., Tiemeyer W., Simon H. Stereospecific hydrcgenations with immobilized microbial cells or enzymes. Biochimie 1980; 62: 331
   PubMedGoogle Scholar
• Doinmergues Y. R., Diem H. G., Divies C. Polyacrylamide-entrappedRhizobiumas an inoculant for legumes. Appl. Environmental Microbiol. 1979; 37: 779
   Google Scholar
• Venkatasubramanian K., Toda Y. Nitrogen fixation by immobilized NIF depressedKlebsiella pneumoniaecells. Bioteehnol. Bioeng. Symp., No 10: 237
   Google Scholar
• Gainer J. L., Kirwan D. J., Foster J. A., Seyhan E. Use of adsorbed and covaiently bound microbes in reactors. Biotechnol. Bioeng. Symp., No. 10: 35
   Google Scholar
• Musgrave S. C., Kerby N. W., Codd G. A., Stewart W. D. P. Sustained ammonia production by immobilized filaments of the nitrogen fixingCyanobacterium anabaena27893. Biotechnol. Lett. 1982; 4: 647
   Web of Science ®Google Scholar
• Karube I., Matsunaga T., Otomine Y., Suzuki S. Nitrogen fixation by immobilized. Azotobacter chroococcum, Enzyme Microh. Technol. 1981; 3: 309
   Google Scholar
• Scott C. D., Haucher C. W., Arcuri E. J. Tapered fluidized bed bioreactors for environmental control and fuel production. Advances in Biotechnology, M. Moo-Young, C. W. Robinson, C. Vezina. Pergamon Press., Toronto 1981; Vol. 1.: 651
   Google Scholar
• Klein J., Schara P. Entrapment of living microbial cells in covalent polymeric networks (II) A quantitative study on the kinetics of oxidative phenol degradation by entrappedCandida tropicaliscells. Appt. Biochem. Biotechnol. 1981; 6: 91
   Google Scholar
• Takahashi S., Itoh M., Kaneko Y. Treatment of phenolic wastes byAureobasidium pullulansadhered to the fibrous supports. Eur. J. Appl. Microbiol. Biotechnol. 1981; 13: 175
   Google Scholar
• Nilsson I., Ohlson S., Häggström L., Molin N., Mosbach K. Denitrification of water using immobilizedPseudomonas denitrifcanscells. Eur. J. Appl. Microbiol. Biotechnol. 1980; 10: 261
   Google Scholar
• Nilsson I., Häggström I., Molin N. Denitrification of drinking water using immobilizedPseudomonas denitrificuns.in Abstracts. 6th Int'l. Ferment. Symp., London. Ontario. July. 20 to 25. 1980 Le Droite. Ottawa. 1980, 124
   Google Scholar
• Mattiasson B., Ramstorp M., Nilsson I., Hahn-Hägerdal B. Comparison of the performance of a hollow-fiber microbe reactor with a reactor containing alginate entrapped cells. Biotechnol. Lett. 1981; 3: 561
   Web of Science ®Google Scholar
• Kokufuta E., Matsumoto W., Nakamura I. Immobilization ofNitrosomonas europeacells with polyelectrolyte complex. Biotechnol. Bioeng. 1982; 24: 1591
   PubMed Web of Science ®Google Scholar
• Nazly N., Knowles C. J. Cyanide degradation by immobilized fungi. Biotechnol. Lett. 1981; 3: 363
   Google Scholar
• Livernoche L., Jurasek D., Desrochers M., Veliky I. A. Decolorization of a kraft mill effluent with fungalmycelium immobilized in calcium alginate gel. Biotechnol. Lett. 1981; 3: 701
   Web of Science ®Google Scholar
• Somerville H. J., Mason J. R., Ruffell R. N. Benzene degradation by bacterial cells immobilized in polyacrylamide gel. Eur. J. Appl. Microbiol. Biotechnol. 1977; 4: 75
   Google Scholar