Studying the Swelling and Thermodynamic Functions of a Graft Co - polymer Using Different Molar Ratios of Acrylic Acid Monomer

Authors

  • Mazin F. Anad Department of Chemistry, College of Education for Pure Sciences, University of Kerbala, Holly Kerbala, Iraq. Author
  • Hamieda E. Salman Department of Chemistry, College of Education for Pure Sciences, University of Kerbala, Holly Kerbala, Iraq. Author
  • Mohammad N. AL-Baiati Department of Chemistry, College of Education for Pure Sciences, University of Kerbala, Holly Kerbala, Iraq. Author

DOI:

https://doi.org/10.61841/p97j1a23

Keywords:

Polyester Resin, Modified Polymer,, Modified Polyester Resin, Condensation Polymerization, Interpenetrating Polymer Network, Swelling, Swelling of Polymer, Swelling of Modified Resin, Swelling of Co-polymer, Rate of Polymerization, Activation Energy, Thermodynamic Functions

Abstract

In this work, the graft co-polymer was prepared by using glycerol as material containing the three alcoholic groups that reacted with terphthalic acid, which has two carboxylic groups as a first step, and then 0.5 mole of fumaric acid was added to the prepared graft co-polymer as a second step. The acrylic acid monomer was added to the graft co-polymer in different numbers of moles (1.5, 2.0, & 2.5 mole). The swelling ratio measurements of the graft co-polymer in three different buffer solutions (2.2, 7.0, and 8.0) at the constant temperature of 310 K. The results showed that the increase in the number of moles of the acrylic acid monomer leads to an increase in the swelling ratio. Thermodynamic functions were calculated for the linear polymer. 

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References

[1] Jin G. & Dijkstra J.; Hydrogels for Tissue Engineering Applications; Springer, p.59, (2010)

[2] Ebewele, R.; Polymer Science and Technology; CRC Press, New York, p. 71 & 35. (2000).

[3] Robert A.M.; Handbook of Petrochemicals Production Process; McGraw-Hill Publisher; New York, P.110&84, (2006).

[4] Reddy C. & Swamy B.; Inter. J. Phar. and Pharma. Sci.; 3 (1), p. 215, (2011).

[5] Boydston A., Xia Y., Kornfield J., Gorodetskaya I. & Grubbs R.; J. Am. Chem. Soc.; 130 (38), p.12775, (2008).

[6] You N., Higashihara T., Yasuo S., Ando S. & Ueda M.; J. Polym. Chem.; 1, p.480, (2010)

[7] Bastiurea M., Rodeanu M., Dima D., Murarescu M., & Andrei G.; Digest J. Nanomaterials and Biostructures; 10, p.521, (2015).

[8] Jin T., Zhu J., Wu F., Yuan W. & Geng, L.; J. Cont. Rele.; 128, p. 50, (2008).

[9] Mohammad AL-Baiati, Nadhir J. and Rawaa H; Res. J. Pharma., Bio. and Chem. Sci.; 7(5); P. 1452; (2016)

[10] Dinarvand R.; Int. J. Pharm.; 349, p.249, (2008)

[11] Puapermpoonsiri U., Spencer J. & Van der Walle C. ; Eur. J. Biopharm.; 72, 26 & 33 , (2009)

[12] You N., Higashihara T., Yasuo S., Ando S. & Ueda M.; J. Polym. Chem.; 1, p.480, (2010)

[13] Mohamed F. & Van der Walle C. ; J. Pharm. Sci.; 97, 71, (2009)

[14] Zahraa & Mohammad AL-Baiati; J. Global Pharma Techno.; 2017; 12 (9): 50-56

[15] Chaupart N., Serpe G. & Vedn J.; Polymer; 39, p.1375,(1998).

[16] Mohammad AL-Baiati; PhD Thesis; University of Baghdad; (2008); p. 45.

[17] Liu J., Zheng X., & Tang K.; Rev. Adv. Mater. Sci.; Vol. 33, p. 428, (2013)

[18] Pretsch E., Buhlmann P., & Baderscher M.; Structure determination of organic compounds; Springer, 4th ed., p. 244, (2009).

[19] Pavia, L., Lampman, L., Kris S., & Vyvyan R.; Introduction to Spectrophotometer; 4th Ed. (2009)

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Published

31.07.2020

How to Cite

F. Anad, M., E. Salman , H., & N. AL-Baiati, M. (2020). Studying the Swelling and Thermodynamic Functions of a Graft Co - polymer Using Different Molar Ratios of Acrylic Acid Monomer. International Journal of Psychosocial Rehabilitation, 24(5), 1441-1452. https://doi.org/10.61841/p97j1a23