Determination of glass transition temperature of ambient and cryogenically ground black pepper as influenced


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Authors

  • S.Balasubramanian , R. Kumar , P. Roselin , S.N. Saxena , K.K. Singh CAR-Central Institute of Agricultural Engineering Regional Centre, Coimbatore-641 007, Tamilnadu Author

https://doi.org/10.56093/

Keywords:

Keywords: Ambient, Black pepper, Cryogenic, DSC, Glass transition temperature, Grinding

Abstract

Glass transition temperature was determined for ambient (30°C) and cryogenically (-50°C) ground black pepper
powder with reference to various moisture content (2.82-18.2%, d.b.) and particle size (85-492 μm) using state
thermograms of DSC. Glass transition temperatures (T ) were found decreased non-linearly from 139.8 to 97.1°C andg
157.7°C to 91.3°C for ambient and cryogenically ground black pepper powder with respect to the increase in moisture
content from and particle size at constant heating rate (10°C min ) profile. The difference of heat flow, peak point and
total enthalpy of black pepper samples were also calculated.

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References

1. Balasubramanian, S., Apramita, D., Singh, K.K., Bosco,

2. J.D., Ashish, M.M. 2016. Application of glass

3. transition in food processing. Critical Reviews in

4. Food Science and Nutrition. 56(6):919-936,

5. DOI:10.1080/10408398. 2012.734343.

6. Balasubramanian, S., Kumar, R., Singh, K.K.,

7. Zachariah, T.J., Vikram. 2013. Size reduction

8. characteristics of black pepper. J. Spices and

9. Aromatic Crops. 22(2):138-147

10. indzus, W., Livings, S.J., Gloria-Hernandez, H.,

11. Fayard, G., Lengerich, B.V., Meuser, F. 2002.

12. Glass transition of extruded wheat, corn and rice

13. starch. Starch. 54(9):393–400.

14. Carolina, B.C., Carolina, S., Zamora, M.C., Jorge, C.

15. Glass transition temperatures and some

16. physical and sensory changes in stored spray-

17. dried encapsulated flavors. Lebensm-Wiss u-

18. Technol. 40:1792-1797.

19. Enrione, J., Osorio, F., Pedreschi, F., Hill, S. 2010.

20. Prediction of the glass transition temperature on

21. extruded waxy maize and rice starches in

22. presence of glycerol. 2010. Food Bioprocess

23. Technol. DOI 10.1007/s11947-010-0345-1

24. Jaya, S., Das, H. 2009. Glass transition and sticky point

25. temperatures and stability/mobility diagram of fruit

26. powders. Food and Bioprocess Technol. 2:89-95.

27. Kalichevsky, M., Jaroszkiewicz, E.M., Blanshard, J.M.V.

28. A study of the glass transition of

29. amylopectine-sugar mixtures. Polymer.

30. (2):346-358.

31. Karmas, R., Buera, M.P., Karel, M. 1992. Effect of glass

32. transition on rates of nonenzymatic browning in

33. food systems. J. Agric Food Chem. 40(5):873-879.

34. Le, M.M., Champion, D., Roudaut, G., Blond, G.,

35. Simatos, D. 2002. Glass transition and food

36. technology: a critical appraisal. J. Food Sci.

37. :2444-2458.

38. Levine, H., Slade, L.A. 1986. Physico-chemical

39. approach to the study of commercial starch

40. hydrolysis products (SHPs). Carbohyd Polymer.

41. :213-244.

42. Lourdin, D., Bizot, H., Colonna, P. 1997a.

43. Antiplasticization in starch-glycerol films. J. App

44. Polymer Sci. 63(8):1047-1053.

45. Lourdin, D., Coignard, L., Bizot, H., Colonna, P. 1997b.

46. Influence of equilibrium relative humidity and

47. plasticizer concentration on the water content and

48. glass transition of starch materials. Polymer.

49. (21):5401-5406.

50. Martins, R.C., Lopes, V.V., Vicente, A.A., Teixeira, J.A.

51. Computational shelf-life d a t i n g :

52. complex systems approaches to food bioprocess

53. technology food quality and safety. Food and

54. Bioprocess Technol. 1:207-222.

55. Otles, S., Otles, S. 2005. Glass transition in food

56. industry-characteristic properties of glass

57. transition and determination techniques.

58. Electronic J. Polish Agric Univ. 8(4):1-7.

59. Rahman, G., Senadeera, M.S., Al-Alawi, W.A., Truong,

60. T., Bhandari, B., Al-Saidi, G. 2010. Thermal

61. transition properties of spaghetti measured by

62. Differential Scanning Calorimetry (DSC) and

63. Thermal Mechanical Compression Test (TMCT).

64. Sep. 16, 2009. Food Bioprocess Technol. DOI

65. 1007/s11947-009-0258-z.

66. Rahman, M.S. 1995. Food properties handbook. Boca

67. Raton, FL: CRC Press, USA.

68. Rahman, M.S. 2006. State diagram of foods: its potential

69. use in food processing and product stability.

70. Trends in Food Sci Technol. 17:129-141.

71. Ranganna, S. 1986. Handbook of Analysis and quality

72. nd

73. control for fruit and vegetable products, II edn.

74. Tata Mc Graw-Hill, New Delhi.

75. Roos, Y.H. 2003. Thermal analysis, state transitions and

76. food quality. J. Thermal Anal Calorimetry. 71:197-

77. Slade. L,, Levine, H. 1988. Non-equilibrium behavior of

78. small carbohydrate–water systems. Pure Applied

79. Chem. 60:1841-1864.

80. Slade, L., Levine, H. 1993. The glassy state

81. phenomenon in food molecules. In J.M.V.

82. Blanshard P. J. Lillford (Eds.), The glassy state in

83. foods. Nottingham: Nottingham University Press.

84. -102 p.

85. Wang, N., Jiugao, Y., Xiaofei, M., Chunmei, H. 2009. An

86. investigation of the physical properties of

87. extruded glycerol- and formamide-plasticized

88. cornstarch. J. Thermoplastic Composite

89. Materials. 22(3):273-291.

90. Zeleznak, K.J., Hoseney, R.C. 1987. The glass transition

91. in starch. Cereal Chem. 64(2):121

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Published

2021-06-30

How to Cite

S.Balasubramanian , R. Kumar , P. Roselin , S.N. Saxena , K.K. Singh. (2021). Determination of glass transition temperature of ambient and cryogenically ground black pepper as influenced. International Journal of Seed Spices, 11(1), 1-8. https://doi.org/10.56093/