Spectroscopy of polysaccharides

Chemical and Functional Properties of Food Saccharides

Volumn , Issue , 2003, Pages 371-386

  van Soest, Jeroen J G ^a  

^a WAGENINGEN UNIVERSITY   (Netherlands)

Author keywords

[No Author keywords available]

Indexed keywords

EID: 84888643971     PISSN: None     EISSN: None     Source Type: Book    
DOI: None     Document Type: Chapter

References (91)

1. Koenig, J.L., Ed., Spectroscopy of Polymers, ACS, Washington, 1992.
2. Wilson, R.H. and Tapp, H.S., Mid-infrared spectroscopy for food analysis: recent new applications and relevant developments in sample presentation methods, Trends Anal. Chem., 18, 85, 1999.
3. Gremlich, H.U. and Yan, B., Eds., Infrared and Raman Spectroscopy of Biological Materials, Practical Spectroscopy Series Vol. 24, Marcel Dekker, New York, 2001.
4. Kataoka, Y. and Kondo, T., FT-IR microscopic analysis of changing cellulose crystalline structure during wood cell wall formation, Macromolecules, 31, 760, 1998.
5. Langkilde, F.W. and Svantesson, A., Identification of celluloses with Fourier-transform (FT) mid-infrared, FT-Raman, and near-infrared spectrometry, J. Pharm. Biomed. Anal., 13, 409, 1995.
6. Rowe, R.C., McKillop, A.G., and Bray, D., The effect of batch and source variation on the crystallinity of microcrystalline cellulose, Int. J. Pharm., 101, 169, 1994.
7. Kacuráková, M. and Wilson, R.H., Developments in mid-infrared FT-IR spectroscopy of selected carbohydrates, Carbohydr. Polym., 44, 291, 2001.
8. Smits, A.L.M., The molecular organisation in starch based products, Ph.D. thesis, Utrecht University, Utrecht, 2001.
9. Iizuka, K. and Aishima, T., Starch gelation process observed by FT-IR/ATR spectrometry with multivariate data analysis, J. Food Sci., 64, 653, 1999.
10. Demiate, I.M. et al., The relationship between baking behavior of modified cassava starches and starch chemical structure determined with FTIR spectroscopy, Carbohydr. Polym., 42, 149, 2000.
11. Engelsen, S.B. and Norgaard, L., Comparative vibrational spectroscopy for determination of quality parameters in amidated pectins as evaluated by chemometrics, Carbohydr. Polym., 30, 9, 1996.
12. Filippov, M.P., Practical infrared spectroscopy of pectic substances, Food Hydrocoll.,6, 115, 1992.
13. Matsuhiro, B., Vibrational spectroscopy of seaweed galactans, Hydrobiologia, 327, 481, 1996.
14. Tian, W. et al., Sugar interaction with metal ions: crystal structure and FT-IR spectroscopic study of strontium galactarate monohydrate, J. Inorg. Biochem., 78, 197, 2000.
15. Jowder, O. et al., Mid-infrared spectroscopy and chemometrics for the authentication of meat products, J. Agric. Food Chem., 47, 3210, 1999.
16. Osborne, B.G., Recent developments in NIR analysis of grains and grain products, Cereal Foods World, 45, 11, 2000.
17. Reeves, J.B. et al., Mid infrared versus near infrared diffuse reflectance spectroscopy for quantitative and qualitative analysis of agricultural products, Recent Res. Dev. Agric. Food Chem., 3, 201, 1999.
18. Campbell, M.R. et al., Prediction of starch amylose content versus total grain amylase content in corn by near-infrared transmittance spectroscopy, Cereal Chem., 76, 552, 1999.
19. Blanco, M. et al., On-line monitoring of starch enzymatic hydrolysis by near-infrared spectroscopy, Analyst, 125, 749, 2000.
20. Evans, A.J. et al., Near infrared on-line measurement of degree of cook in extrusion processing of wheat flour, J. Near Infrared Spectrosc., 7, 77, 1999.
21. Berthold, J., Olsson, R.J.O., and Salmen, L., Water sorption to hydroxyl and carboxylic acid groups in carboxymethylcellulose (CMC) studied with NIR-spectroscopy, Cellulose, 5, 281, 1998.
22. Closs, C.B. et al., Phase separation and rheology of aqueous starch/galactomannan systems, Carbohydr. Polym., 39, 67, 1999.
23. Ma, C.Y. and Phillips, D.L., FT-Raman spectroscopy and its applications in cereal science, Cereal Chem., 79, 171, 2002.
24. Chong, C. K. et al., Development of NMR and Raman spectroscopic methods for the determination of the degree of substitution of maleate in modified starches, J. Agric. Food Chem., 49, 2702, 2001.
25. Schuster, K.C. et al., On-line FT-Raman spectroscopic monitoring of starch gelatinization and enzyme catalysed starch hydrolysis, Vibr. Spectr., 22, 181, 2000.
26. Jarvis, M.C. and McCann, M.C., Macromolecular biophysics of the plant cell wall: concepts and methodology, Plant Physiol. Biochem., 38, 1, 2000.
27. McCann, M.C. et al., Approaches to understanding the functional architecture of the plant cell wall, Phytochemistry, 57, 811, 2001.
28. Suutarinen, J., Anakainen, L., and Autio, K., Comparison of light microscopy and spatially resolved Fourier transform infrared (FT-IR) microscopy in the examination of cell wall components of strawberries, Lebensm. Wiss. Technol., 31, 595, 1998.
29. Fenwick, K.M., Jarvis, M.C., and Apperley, D.C., Estimation of polymer rigidity in cell walls of growing and nongrowing celery collenchyma by solid-state nuclear magnetic resonance in vivo, Plant Physiol., 115, 587, 1997.
30. Togawa, E. and Kondo, T., Change of morphological properties in drawing waterswollen cellulose films prepared from organic solutions. A view of molecular orientation in the drawing process, J. Polym. Sci. B, 37, 451, 1999.
31. Wada, M. et al., Improved structural data of cellulose IIII prepared in supercritical ammonia, Macromolecules, 34, 1237, 2001.
32. Noda, I., Dowrey, A.E., and Marcott, C., Two-dimensional infrared (2D IR) spectroscopy, Mod. Polym. Spectrosc., 1, 1999, p. 1.
33. Halttunen, M. et al., Applicability of FTIR/PAS depth profiling for the study of coated papers, Vibr. Spectrosc., 19, 261, 1999.
34. Bush, C.A., Martin-Pastor, M., and Imberty, A., Structure and conformation of complex carbohydrates of glycoproteins, glycolipids, and bacterial polysaccharides, Annu. Rev. Biophys. Biomol. Struct., 28, 269, 1999.
35. Bush, C.A., Ed., Polysaccharides and complex oligosaccharides, in Encyclopedia of Nuclear Magnetic Resonance, Wiley, Chichester, 1996.
36. Duus, J.Ø., Gotfredsen, C.H., and Bock, K., Carbohydrate structural determination by NMR spectroscopy: modern methods and limitations, Chem. Rev., 100, 4589, 2000.
37. Muloy, B., High field NMR as a technique for the determination of polysaccharide structures, Mol. Biotechnol., 6, 241, 1996.
38. Kerr, W.L. and Wicker, L., NMR proton relaxation measurements of water associated with high methoxy and low methoxy pectins, Carbohydr. Polym., 42, 133, 2000.
39. Cornillon, P. and Salim, L.C., Characterization of water mobility and distribution in low- and intermediate-moisture food systems, Magn. Reson. Imag., 18, 335, 2000.
40. Vodovotz, Y., Dickinson, L., and Chinachoti, P., Molecular characterization around a glassy transition of starch using H-1 cross-relaxation nuclear magnetic resonance, J. Agric. Food Chem., 48, 4948, 2000.
41. Cornillon, P., McCarthy, M.J., and Reid, D.S., Study of restricted diffusion by NMR in freeze dried starch gels, J. Text. Stud., 28, 421, 1997.
42. Tezuka, Y., 13C NMR structural study on cellulose derivatives with carbonyl gropus as a sensitive probe, in Cellulose Derivatives, ACS Symposium Series 688, Heinze, T.J. and Glasser, W.G., Eds., ACS, Washington, 1998, chap. 11.
43. Torri, G. et al., Novel cellulosic ethers with low degrees of substitution. II. Magic angle spinning NMR study, Carbohydr. Polym., 40, 125, 1999.
44. Focher, B. et al., Structural differences between non-wood plant celluloses: evidence from solid state NMR, vibrational spectroscopy and x-ray diffractometry, Ind. Crops Prod., 13, 193, 2001.
45. Larsson, P.T., Wickholm, K., and Iversen, T., A CP/MAS 13C NMR investigation of molecular ordering in celluloses, Carbohydr. Res., 302, 19, 1997.
46. Heux, L., Dinand, E., and Vignon, M.R., Structural aspects in ultrathin cellulose microfibrils followed by 13C CP-MAS NMR, Carbohydr. Polym., 40, 115, 1999.
47. Tanahashi, M. et al., Characterization of steam-exploded wood. III. Transformation of cellulose crystals and changes of crystallinity, Mokuzai Gakkaishi, 35, 654, 1989.
48. Wickholm, K., Larsson, P.T., and Iversen, T., Assignment of non-crystalline forms in cellulose I by CP/MAS 13C NMR spectroscopy, Carbohydr. Res., 312, 123, 1998.
49. Newman, R.H. and Hemmingson, J.A., Interactions between locust bean gum and cellulose characterized by 13C NMR spectroscopy, Carbohydr. Polym., 36, 167, 1998.
50. Karim, A.A., Norziak, M.H. and Seow, C.C., Methods for the study of starch retrogradation, Food Chem., 71, 9, 2000.
51. Stanek, M., Falk, H., and Huber, A., Investigation of the branching characteristic of glycogen by means of two-dimensional 1H and 13C NMR spectroscopy, Monatsh. Chem., 129, 355, 1998.
52. Yan, B. and Stark, R.E., A WISE NMR approach to heterogeneous biopolymer mixtures: dynamics and domains in wounded potato tissues, Macromolecules, 31, 2600, 1998.
53. Hediger, S., Lesage, A., and Emsley, L., A new NMR method for the study of local mobility in solids and application to hydration of biopolymers in plant cell walls, Macromolecules, 35, 5078, 2002.
54. Newman, R.H. and Redgwell, R.J., Cell wall changes in ripening kiwifruit: C-13 solid state NMR characterisation of relatively rigid cell wall polymers, Carbohydr. Polym., 49, 121, 2002.
55. Trampel, R. et al., Self-diffusion of polymers in cartilage as studied by pulsed field gradient NMR, Biophys. Chem., 97, 251, 2002.
56. Scott, J.E. and Heatley, F., Biological properties of hyaluronan in aqueous solution are controlled and sequestered by reversible tertiary structures, defined by NMR spectroscopy, Biomacromolecules, 3, 547, 2002.
57. Fischer, E. et al., Shear flow affects secondary and tertiary structures in hyaluronan solution as shown by rheo-NMR, J. Mol. Struct., 602, 303, 2002.
58. Nooy, A.E.J. et al., Ionic polysaccharide hydrogels via the passerini and ugi multicomponent condensations: synthesis, behavior and solid-state NMR characterization, Biomacromolecules, 259, 1, 2000.
59. Einfeldt, J., Meissner, D., and Kwasniewski, A., Polymer dynamics of cellulose and other polysaccharides in solid state-secondary dielectric relaxation processes, Progr. Polym. Sci., 26, 1419, 2001.
60. Rosa, A. de la, Heux, L. and Cavaillé, J.Y., Secondary relaxations in poly(allyl alcohol), PAA, and poly(vinyl alcohol), PVA. II. Dielectric relaxations compared with dielectric behaviour of amorphous dried and hydrated cellulose and dextran, Polymer, 42, 5371, 2001.
61. Borde, B. et al., Sub-Tg relaxations and physical ageing in hydrated glassy polysaccharides, in Biopolymer Science: Food and Non Food Applications, Les Colloques 91, Colonna, P. and Guilbert, S., Eds., INRA Service des Publ., Versailles, 1999, p. 167.
62. Yokoyama, M. et al., Mechanical and dielectric relaxations of wood in a low temperature range IV. Dielectric properties of adsorbed water at high moisture contents, Mokuzai Gakkaishi, 46, 523, 2000.
63. Ratkovic, S. and Pissis, P., Water binding to biopolymers in different cereals and legumes: proton NMR relaxation, dielectric and water imbibition studies, J. Mater. Sci., 32, 3061, 1997.
64. Einfeldt, J. et al., Influence of the p-toluene sulphonylation of cellulose on the polymer dynamics investigated by dielectric spectroscopy, Carbohydr. Polym., 49, 357, 2002.
65. Esch, M. et al., Dielectric properties of alginate beads and bound water relaxation studied by electrorotation, Biopolymers, 50, 227, 1999.
66. Hayashi, Y. et al., Ordering in aqueous polysaccharide solutions. I. Dielectric relaxation in aqueous solutions of a triple-helical polysaccharide schizophyllan, Biopolymers, 63, 21, 2002.
67. Ikeda, S. and Kumagai, H., Dielectric analysis of sol-gel transition of kappa-carrageenan with scaling concept, J. Agric. Food Chem., 46, 3687, 1998.
68. Meissner, D., Einfeldt, J., and Kwasniewski, A., Contributions to the molecular origin of the dielectric relaxation processes in polysaccharides — the low temperature range, J. Non Cryst. Solids, 275, 199, 2000.
69. Moates, G.K. et al., Dynamic mechanical and dielectric characterisation of amyloseglycerol films, Carbohydr. Polym., 44, 247, 2001.
70. Rejon, L. et al., Response time and electrorheology of semidiluted gellan, xanthan and cellulose suspensions, Carbohydr. Polym., 48, 413, 2002.
71. Zhao, X.P. and Duan, X., A new organic/inorganic hybrid with high electrorheological activity, Mat. Lett., 54, 348, 2002.
72. Settineri, C.A. and Burlingame, A.L., Mass spectrometry of carbohydrates and glycoconjugates, in Carbohydrate Analysis, Rassi, Z. el, Ed., Elsevier, Amsterdam, 1995, p. 447.
73. Stahl, B. et al., Analysis of fructans from higher plants by matrix-assisted laser desorption/ionization mass spectrometry, Anal. Biochem., 246, 195, 1997.
74. Garrozzo, D. et al., Matrix-assisted laser desorption/ionization mass spectrometry of polysaccharides, Rapid Commun. Mass. Spectrom., 9, 809, 1995.
75. Asam, M.R. and Glish, G.L., Tandem mass spectrometry of alkali cationized polysaccharides in a quadrupole ion trap, J. Am. Chem. Soc. Mass Spectrom., 9, 987, 1997.
76. Burgt, Y.E.M. et al., FAB CIDMS/MS analysis of partially methylated maltotrioses derived from methylated amylose: a study of the substituent distribution, Carbohydr. Polym., 329, 341, 2000.
77. Harada, N. and Nakanishi, K., Eds., in Circular Dichroic Spectroscopy, Exciton Coupling in Organic Stereochemistry, University Science Books, Mill Valley, CA 1983.
78. Parra, A. and Stevens, E.S., The origin of circular dichroism in unsubstituted carbohydrate polymers, Carbohydr. Polym., 41, 111, 2000.
79. Synytsya, A. et al., Interaction of metallotexaphyrins with mono- and polysaccharides, J. Chem. Soc. Perkin Trans., 2, 1876, 2000.
80. Boyd, R.D. et al., Surface characterization of glass and poly(methyl methacrylate) soiled with a mixture of fat, oil, and starch, J. Adhes. Sci. Technol., 14, 1195, 2000.
81. Granja, P.L. et al., Cellulose phosphates as biomaterials. II. Surface chemical modification of regenerated cellulose hydrogels, J. Appl. Polym. Sci., 82, 3354, 2001.
82. Morra, M. and Cassinelli, C., Simple model for the XPS analysis of polysaccharidecoated surfaces, J. Surf. Interf. Anal., 26, 742, 1998.
83. Morra, M. and Cassinelli, C., Non-fouling properties of polysaccharide-coated surfaces, J. Biomater. Sci. Polym. Ed.,10, 1107, 1999.
84. Dai, L.M. et al., Biomedical coatings by the covalent immobilization of polysaccharides onto gas-plasma-activated polymer surfaces, J. Surf. Interf. Anal., 29, 46, 2000.
85. Nakayama, Y., Takatsuka, M., and Matsuda, T., Surface hydrogelation using photolysis of dithiocarbamate or xanthate: hydrogelation, surface fixation, and bioactive substance immobilization, Langmuir, 15, 1667, 1999.
86. Veksli, Z., Andreis, M. and Rakvin, B., ESR spectroscopy for the study of polymer heterogeneity, Progr. Polym. Sci., 25, 949, 2000.
87. Wasserman, L.A. and LeMeste, M., Influence of water on potato starch-lipid interactions. An electron spin resonance (ESR) probe study, J. Sci. Food Agric., 80, 1608, 2000.
88. Williams, P.A. and Langdon, M.J., The influence of locust bean gum and dextran on gelation of kappa-carrageenan, Biopolymers, 38, 655, 1996.
89. Marcazzan, M. et al., An ESR assay for alpha-amylase activity towards succinylated starch, amylose and amylopectin, J. Biochem. Biophys. Meth., 38, 191, 1999.
90. King, K. and Gray, R., The effect of gamma-irradiation on guar gum, locust bean gum, gum tragacanth and gum karaya, Food Hydrocoll., 6, 559, 1993.
91. Sirendi, M., Gohtani, S., and Yamano, Y., Alkoxyl and methyl radical formation during cleavage of tert-butyl hydroperoxide in the presence of polysaccharides, J. Disp. Sci. Technol., 20, 699, 1999.