Access this chapter
Tax calculation will be finalised at checkout
Purchases are for personal use only
Preview
Unable to display preview. Download preview PDF.
Literaturverzeichnis
Hansen J R (1978) Dehydration and hydration kinetics of soyabean proteins. J Agric and Food Chem 26, 297–301
Lewis P S (1926) The kinetics of protein denaturation,I. The effect of Variation in the hydrogen ion concentration on the velocity of the heat denaturation of oxyhaemoglobin. Biochem J 20,965–992
Eyring H and Stearn A E (1939) The application of the theory of absolute reaction rates to proteins. Chem Reviews 24, 253 (1939)
Tuszynski W B (1971) A kinetic model of the clotting of casein by rennet. J Dairy Res 38, 115–125
White J C D and Sweetsur A W M (1977) Kinetics of heat induced aggregation of milk protein. J Dairy Res 44, 237–247
Tammann O (1895) Zur Wirkung ungeformter Fermente. Z Phys Chemie 18, 426–442
Haurowitz F et al. (1954) Denaturation of hemoglobin by alkali. J Phys Chem 58, 103–105
Lyster R L J (1970) The denaturation of a-Lactalbumin and a-Lactoglobulin in heated milk. J Dairy Res 37, 233–43
Eipeson W E et al. (1974) Kinetics of thermal precipitation of leaf proteins from lucern. J Food Sci and Technol India 2, 66–70
Luers V H und Landauer M (1922) über die Kinetik der Hitzegerinnung von Proteinen. Angew Chemie 35, 469–472
Labuza T P et al. (1982) Kinetics of protein quality change in egg noodles stored under constant and fluetuating temperatures. Cereal Chem 59, 142–148
Tsao T F et al. (1973) Available lysine in heated fortified rice meal. Food Sci. 43, 1106–1108
Wolf J C et al. (1981) Mathematical model for predicting free lysine and methionine losses during elevated temperature processing. Progr Food Nutr Sci 5, 405–413
Wolf J C et al. (1982) Predicting available lysine losses during heat processing. J Food Proc Eng 6, 201–218
Taira H and Sukarai Y (1966) Studies on amino acid contents of processed soybean Pt 8. Effect of heating on total lysine on available lysine in defatted soybean flour. Jap J Nutr Food 18, 359
Labuza T P and Saltmarch M (1981) Kinetics of browning and protein quality loss in whey powders during steady State and nonsteady State storage conditions. J Food Sci 47, 92–96
Williams M P and Nelson P E (1974) Kinetics of thermal degradation of methylmethionine sulfonium ions in citrate buffers and in sweet corn and tomato serum. J Food Sci 39, 457–460
Greenberg D M and Winnick J (1940) Plant proteases; III. Kinetic properties. J Biol Chem 135, 781–787
Butler J A V (1941) The molecular kinetics of trypsin action. J A A C S (2), 2971–2974
Resende R et al. (1969) Thermal destruetions and regeneration of enzymes in green bean and spinach puree. Food Tech 23, 63–66
Mc Gilliviary J H (1930) The denaturation of pancreatic lipase by heat. Biochem J 24, 891–904
Farkas D F et al. (1962) Studies on the kinetics of lipoxidase inactivation using thermal and ionizing energy. J Food Sci 27, 262–276
Kunitz M (1937) Formation of trypsin from trypsinogen by an enzyme produced by a mold of the genus Penicillium. J Gen Phsl 21, 601–620
Zoueil M E and Esselen W B (1958) Thermal destruetion rates and regeneration of peroxidase in green beans and turnips. Food Res 24, 119–133
Vavek D et al. (1982) Kinetics of peroxidase deactivation in blanching of corn on the cob. J Agric and Food Chem 30, 967–970
Joffe F M and Ball C O (1962) Kinetics and energetics of thermal inactivation and the generation rates of a peroxidase system. J Food Sci 27, 58–592
Zilva S S (1914) The rate of inactivation by heat of peroxidase in milk. Biochem J 8, 656–669
Ling A C and Lund D B (1978). Determining kinetic parameters of heat resistant and heat labile isoenzymes from thermal destruction curves. J Food Sci 43, 1307–1310
Blang S M and Hagratawata B (1972) Kinetics of aerobic oxidation of ascorbic acid. J Pharm Sci 61, 556–562
Huelin F E (1953) Studies on the anaerobic decomposition of ascorbic acid. Food Res 18, 633–639
Neumen H J et al. (1965) Effect of drying temperatures on initial quality and storage stability of dehydrofrozen peas. Food Techn 19, 125
Labuza T P (1972) Nutrient losses during drying and storage of dehydrated foods CRC Critical Rev. in Food Techn. 3, 217–240 (1972)
Kirk J et al. (1977) Dehydration of ascorbic acid in a dehydrated food system. J Food Sci 42, 1274–1279
Lee S H and Labuza T P (1975) Destruction of ascorbic acid as a funetion of water activity. J Food Sci 40, 370–373 (1975)
Saguy I et al. (1978) Accelerated method for determining the kinetic model of ascorbic acid loss during dehydration. J Food Sci 43, 1860–1864
Waletzko P and Labuza T P (1976) Accelerated shelf life testing of intermediate moisture food in air and in an oxygen free atmosphere. J Food Sci 41, 1338–1344
Dennison D B and Kirk J R (1978) Oxygen effect on the degradation of ascorbic acid in a dehydrated food system. J Food Sci 43, 609–612
Garrett E R (1956) Prediction of stability of pharmaceutical preparations; II. Vitamin stability in liquid multivitamin preparations. J Pharm Sci 45, 171–178
Laing B M et al. (1978) Degradation kinetics of ascorbic acid at high temperature and water activity. J Food Sci 43, 1440–1443
Eison-Perchonek T. W. und Downes T W (1982) Kinetic of ascorbic acid and autoxydation as a funetion of dissolved oxygen concentration and temperature. J Food Sci 47, 765–767, 773
Evenden W and Marsh G L (1947) Effect of storage temperature on retention of ascorbic acid in orange juice. Food Res 13, 244–253
Lee Y C et al. (1977) Kinetics and Computer-Simulation of ascorbic acid stability of tomato juice as funetions of temperature, pH and metal catalyst. J Food Sci 42, 640–641
Vojnovich C and Pfeifer V J (1970) Stability of ascorbic acid in blends with wheat flour, CSM and infant cereals. Cereal Sci Today 15, 317
Reimer J and Karel M (1977) Shelf life studies of vitamin C during food storage, prediction of L-ascorbic acid retention in dehydrated tomato juice. J Food Process and Preservation 1, 293
Cameron E J (1955) Retention of Nutrients during canning National Canners Association. Washington DC
Gami D B and Chen T S (1985) Kinetics of folacin destruction in Swiss chard during storage. J Food Sci 50, 447–449, 453
Frost D V and Mc Intire J C (1944) The hydrolysis of pantothenate; A first order reaction-relation to thiamin stability. J Am Soc 66, 425–427
Hamm D J and Lund D B (1978) Kinetic parameters for thermal inactivation of pantothenic acid. J Food Sci 53, 63–633
Evans S R et al. (1981) Thermal degradation of pyridoxine hydrochloride in dehydrated model food systems. J Food Sci 46, 555–558, 563
Woodcock E A et al. (1982) Riboflavin photochemical degradation in pasta measured by high Performance liquid chromatography. J Food Sci 47, 545–549, 555
Singh R P et al. (1975) Kinetic analyses of induced riboflavin loss in whole milk. J Food Sci 40, 164–167
Fellicotti E and Esselen W B (1957) Thermal destruction rates of thiamin in purred meats and vegetables. Food Techn 11, 77–84
Bendix G H et al. (1951) Factors influencing the stability of thiamin during heat Sterilisation. J Food Res 16, 494–503
Mulley E A (1975) Kinetics of thiamin degradation by heat. J Food Sci 40, 77–84
Kamman J F et al. (1981) Kinetics of thiamin and riboflavin loss in pasta as a funetion of constant and variable storage conditions. J Food Sci 46, 1457–1461
Farrer K T H (1955) The thermal destruction of vitamin B1 in foods. Adv Food Res 6, 257–312
Rice E E and Beuk J F (1945) Reaction rates for decomposition of thiamin in pork at various cooking temperatures. Food Res 10, 99–107
Lenz M K and Lund D B (1982) Experimental procedurs for determining destruction kinetics of food components. Food Techn 34, 51–55
Bell J W et al. (1979) Catalytic effects of stainless steel, teflon, or glass on thermal degradation of thiamin in a tubular laminar flow reactor. J Agric and Food Chem 27, 384–386
Corry J E L (1973) The water relations and heat resistance of microorganisms, in: Prog. in Industrial Microbiology, 12, 73–108
Briggs A (1960) The resistance of spores of the genus Bacillus to phenol, heat and radiation. J Appl Bact 29, 490–504
Collier C P and Towsend C T (1961) The resistance of bacterial spores to superheated steam. J Dairy Sci 44, 1989–1996
Perkin A G et al. (1977) Thermal death kinetics of Bacillus stearothermophilus spores at ultrahigh temperatures, II. Effect of heating period on experimental results. J Food Techn 12, 131–148
Fox K and Pflug I J (1968) Effect of temperatures and gas velocity on the dry heat destruction rate of bacterial spores. Appl Microbiol 16, 343–348
Wang DI-C et al. (1964) Kinetics of death of bacteria spores at elevated temperatures. Appl Microbiol 12, 45–454
Harnulv B D and Snygg B G (1972) Heat resistance of Bacillus subtilis spores at various water activities. J Appl Bact 35, 615–624
Van Uden N V and Madeira-Lopes (1976) Yield and maintenance relations of yeast growth in the chemostat at superoptimal temperatures. Biotechnology and-engineering 18, 791–804
Sognefest P et al. (1948) Effect of pH on thermal process requirements of canned foods. Food Res. 13, 400–410
Stumbo C R et al. (1950) Nature of thermal death time curves for P.A. 3679 and Clostridium botulinum. Food Technol 4, 321–326
Xezones H and Hutchings I J (1965) Thermal resistance of Clostridium botulinum (62A) as affected by fundamental food constituents. Food Techn 19, 113–115
Kaplan A M et al. (1974) Significance of variations in observed slopes of thermal death time curves for putrefactic anaerobes. Food Res 19, 173–184
Odlaug T E and Pflug I J (1977) Thermal destruction of Clostridium botulinum spores suspended in tomato juice in aluminum thermal death time tubes. Appl and Env Microbiol 34, 429–433 (1977)
Bradshaw J G et al. (1977) Thermal inactivation of ideal loop-reactive Clostridium perfringens Type A strains in phosphate buffer and beef gravy. Appl and Env Microbiol 34, 280–284
Warren D S (1973) A physicochemical model for the death-rate of a microorganism. J Food Techn 8, 247–257
Xezones H et al. (1965) Processing requirements for a heat tolerant anaerobe. Food Techn 18, 1001–1002
Roberts J A (1968) Heat and radiation resistance and activation of spores of Clostridium welchii. J Appl Bact 31, 133–144
Evans D A et al. (1970) Heat resistance of certain pathogenic bacteria in milk using a commercial plate heat exchanger. J Dairy Sci 53, 1659–1665
Dega C A et al. (1972) Heat resistance of salmonellae in concentrated milk. Appl Microbiol 23, 415–420
Collins E B (1961) Resistance of certain bacteria to cottage cheese cooking procedures. J Dairy Sci 44, 1989–1996
Read R B jr. et al. (1961) Studies on thermal destruction of E. coli in milk and milk produets. Appl Microbiol 9, 415–418
Van Uden N V et al. (1968) Temperature funetions of thermal death in yeast and their relation to the maximum temperature for growth. Archiv für Mikrobiol 61, 381–393
Sognefest P et al. (1948) Effect of pH on thermal process requirements of canned foods. Food Res 13, 400–410
Collier C P and Townsend C T (1956) The resistance of bacterial spores to superheated steam. Food Techn 10, 477–481
Sevastronova N A et al. (1971) The effect of sorbic acid and heating of Pseudomonas fluorescens Konservnaya i ovoshchesushilnaya promyslenost, 30–31 (1971)
Elizondo H and Labuza T P (1974) Death kinetics of microorganism in spray draying. Biotechn. and Bioeng 15, 1245–1259
Gibson B (1973) The effect of high sugar concentrations on the heat resistance of vegetative microorganisms. J Appl Bact 36, 365–376
Angelotti R et al. (1961) Time temperature effects on Salmonellae and Staphylococci in foods, III. Thermal death time studies. Appl Microbiol 9, 308–315
Anellis A et al. (1954) Heat resistance in liquid eggs of some strains of the genus salmonellae Food Res 19, 377–395
Goepfert J M and Biggie R A (1968) Heat resistance of Salmonellae typhimurium and senftenberg 775-w in milk chocolate. Appl Microbiol 16, 1939–1940
Cotterill O J and J. Glauert J (1971) Thermal resistance of Salmonellae in eggs yolk containing 10 percent sugar or salt after storage at various temperatures. Poultry Sci. 50, 109–115
Baird-Parker A C et al. (1970) The effect of water activity on the heat resistance of heat sensitive and heat resistant strains of Salmonellae. J Appl Bact 33, 512–522 (1970)
Thomas C T et al. (1966) Thermal resistance of Salmonellae and Staphylococci in foods. Appl Microbiol 14, 315–320
Li Cari J J and Potter N N (1970) Salmonella survial during spray drying and subsequent handling of skim milk powder. J Dairy Sci 53, 865–882
Walker G C and Harmon L G (1966) Thermal resistance of Staphylococcus aureus in milk, whey and phosphate buffer. Appl Microbiol 14, 584
Evans D A et al. (1970) Heat resistance of certain pathogenic bacteria in milk using a commercial plate heat exchanger. J Dairy Sci 53, 1659–1665
Scott W J (1937) The growth of microorganism on ox muscle; II. The influence of temperature Austr J of the Council for Sci and Ind Res 10, 338–350
Greene V W and Jezeski J J (1954) The influence of temperature on the development of several psychrophilic bacteria of dairy origin. Appl Microbiol 2, 110–117
Barg E A and Hopton J W (1969) Psychrophilic properties and the temperature characteristic of growth of bacteria. J Bact 100, 552–553
Ingraham J L (1958) Growth of psychrophilic bacteria. J Bact 76, 75–80
Slaton A (1916) The rate of growth of bacteria. J Chem Soc (London) 109, 2–10
Harder W and Veldkamp H (1971) Competition of marine psychrophilic bacteria at low temperatures. Ant van Leeuwenholk 37, 51–63
Olson R H and Jesetzki J J (1963) Some effects of carbon source, aeration, and temperature on growth of a psychrophilic strain of Pseudomonas fluorescence. J Bact 86, 429–433
Maillard L C, CR. (1912) Acad Sci Ser 154, 2, 66 (1912); ibid 155,1554
Amadori M, Atti R. (1931) Acad Naz Lincei Mem, Cl Sci Fis Mat Nat 13, 72
Heyns K et al. (1957) Chem Ber 90, 2039
Paulsen H et.al. The carbohydrates: Chemistry and Biochemistry (ed. by D Horton) Vol IB, Academic Press, New York 1980, p. 881
Westphal G u Kroh L (1986) Nahrung 29, 757, 765
Baltes W (1986) Lebensmittel-und Gerichtl Chemie 40, 49
Wittmann R u. Eichner K (1989) Z Lebensm Unters Forsch 188, 212
Beck J et al. (1988) Carbohydrate Res 177, 240
Ledl F u. Schleicher E (1990) Angew Chemie 102, 597
Namiki M (1989) Adv Food Res 38, 155
Baynes J W (1989) “The MAILLARD reaction in Aging, Diabetes and Nutrition”(ed. by V M Monnier), Prog Clin Biol Res 304, AR Lin Inc, New York
Hogde J E et al. (1963) Proc Am Soc Brew Chem 84
Ledl F et al. (1986) Z Lebensm Unters Forsch 182, 12
Fujimaki M u M Namiki M (1986) “Aminocarbonyl reactions in Food and Biological systems” (ed. by H Kato) Dev Food Sci 13, Elsevier, Amsterdam
Kato Y et al. (1986) J Agric Food Chem 34, 351
Kroh L et al. (1989) Z Lebensm Unters Forsch 188, 351
Shigematsu H et al. (1971) Agric Biol Chem 35, 2097
Hodge J E (1953) J Agric Food 1, 928
Anet E F L J (1959) Austr J Chem 12, 491
Baltes W (1973) Ernährungsumschau 20, 35
Olano F et al. (1992) Food Chem 43, 351
Yaylayan VA u. W. M. Baiser W M (1992) “Physical Chemistry of Foods” (ed. by H G Schwartzberg u. RW Hartel) Verlag Marcel Dekker Inc, New York-Basel-Hongkong
Labuza T P, Reineccius G A, Monnier V M, Brien J O and Baynes J W (1994) “Maillard-Reaction in Chemistry, Food and Health”, The Royal Society of Chemistry
Author information
Authors and Affiliations
Rights and permissions
Copyright information
© 1996 Springer-Verlag Berlin Heidelberg
About this chapter
Cite this chapter
Westphal, G., Buhr, H., Otto, H. (1996). Anhang. In: Reaktionskinetik in Lebensmitteln. Springer, Berlin, Heidelberg. https://doi.org/10.1007/978-3-642-61167-4_12
Download citation
DOI: https://doi.org/10.1007/978-3-642-61167-4_12
Publisher Name: Springer, Berlin, Heidelberg
Print ISBN: 978-3-642-64727-7
Online ISBN: 978-3-642-61167-4
eBook Packages: Springer Book Archive