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TANNİK ASİDİN DERİDE SERBEST FORMALDEHİT VE ALTI DEĞERLİKLİ KROM BİLEŞİKLERİNİN OLUŞUMUNUN ÜZERİNE ANTİOKSİDAN ETKİSİ

Year 2014, Volume: 24 Issue: 1, 105 - 110, 01.06.2014

Abstract

Deri ürünlerinde serbest formaldehit ve altı değerlikli krom bileşiklerinin varlığı, formaldehitin endüstriyel kimyasalların üretim proseslerinde kullanılması ve deri endüstrisinde tabaklama maddesi olarak kullanılan krom (III)’ün belirli koşullar altında krom (VI)’ya okside olmasından kaynaklanmaktadır. Bu çalışmada kromla tabaklanmış deriler retenaj işleminde 0,1, 0,5, 1, 2 ve %3 oranlarında tannik asit ile muamele edilerek, tannik asidin antioksidan etkisinin altı değerlikli krom ve serbest formaldehit oluşumu üzerine etkisi araştırılmıştır. Bu amaçla retenaj işlemi sonrasında derilerin serbest formaldehit içerikleri ISO TS 17226 metoduna göre HPLC cihazı kullanılarak analiz edilmiştir. Deri örnekleri yüksek sıcaklık ve UV gibi hızlandırılmış yaşlandırma koşullarına maruz bırakılarak derilerde altı değerlikli krom oluşumu sağlanmıştır. Deri örneklerindeki krom (VI) miktarları TS EN ISO 17075 standardına göre belirlenmiştir. Mamul derilerin fiziksel özellikleri üzerine olan etkisi de incelenmiştir. Tannik asidin altı değerlikli krom ve formaldehit oluşumu üzerine engelleyici etkisi, %1 tannik asit konsantrasyonunun üzerindeki değerlerde gözlenmiştir. %3 tannik asit kullanımı ile krom (VI) değerleri 3 ppm’in altında elde edilmiş ve ayakkabı için eko etiket kriterlerini sağlamıştır. Bunun yanında uygulanan tüm tannik asit konsantrasyonları formaldehit miktarını kısıtlanan limit değerlerinin altında elde edilmesini sağlamıştır. Tannik asidin artan konsantrasyonları mamul derilerin fiziksel özellikleri üzerine olumlu bir etki göstermiştir. Çalışmadan elde edilen sonuçlar tannik asidin derideki krom (VI) ve serbest formaldehit oluşumu üzerine etkin bir antioksidan etkisinin olduğunu göstermektedir

References

  • 1. TFL, 2010, “Eco Guidelines, Restricted substances in leather”, p: 12-16.
  • 2. IUE, 2008, “Document on restricted products in leather”, p: 2-3.
  • 3. AFIRM, 2012, “Apparel and Footwear International RSL Management Group, Restricted Substances Guide”, p: 7.
  • 4. Avudainayagam S., Megharaj M., Owens G., Kookana R.S., Chittleborough D. and Naidu R., 2003, “Chemistry of chromium in soils with emphasis on
  • tannery waste sites”, Reviews of Environmental Contamination and Toxicology, 178, p: 53-91.
  • 5. Kolomaznik K., Adamek M., Andel I. and Uhlirova M., 2008, “Leather waste--potential threat to human health, and a new technology of its treatment”, Journal of Hazardous Materials, 160(2-3), p: 514-520.
  • 6. Font J., Cuadros R.M., Reyes M.R., Costa Lopez J., Marsal A., 1999, “Influence of various factors on chromium(VI) formation by photo-ageing”, Journal of the Society of Leather Technologists and Chemists, 83(6), p: 300-306.
  • 7. Palop R., Parareda J., Ballús O. and Marsal A., 2008, “Leather Ageing and Hexavalent Chromium Formation as a Function of the Fatliquoring Agent Part II: Chrome Retanned Leathers”, Journal of the Society of Leather Technologists and Chemists, 92(6), p: 233-237.
  • 8. Dikshith T.S.S., 2013, “Hazardous Chemicals: Safety Management and Global Regulations”, CRC Press, 143987820X, 9781439878200, p: 198-199.
  • 9. Wolf G., Hüffer S., 2002, “Formaldehyde in Leather- A Survey”, Journal of the American Leather Chemists Association, 97, p: 456-464. 10. Shi X., 1999, Reduction of Chromium (VI) and its Relationship to Carcinogenesis, Journal of Toxicology and Environmental Health, Part B, 2(1), p: 87-104.
  • 11. Costa M. and Klein C.B., 2006, “Toxicity and Carcinogenicity of Chromium Compounds in Humans”, Critical Reviews in Toxicology, 36(2), p: 155-163.
  • 12. Soffritti M., Maltoni C., Maffei F and Biagi R., 1989, “Formaldehyde: an experimental multipotential carcinogen”, Toxicololgy and Industrial Health, 5(5), p: 699-730.
  • 13. Bayramoglu E.E., Korgan A., Kalender, D., Gulumser, G., Okcu, B., Kılıc, E., 2008, Elimination of free formaldehyde in leather by Vinca rosea and Camellia sinensis extracts, Journal of the American Leather Chemists Association, 103 (3), p: 119–123.
  • 14. Bayramoglu E.E., Önem E., Yorgancioglu A., Yilmaz B., 2011, “Investigation of the effects 15. Yu C.Z., Wang R., Ma X.Y., Yang M.Y., 2010, “Antioxidant effects of phenolic compounds on unsaturated lipids preventing the oxidation of chrome(III)”, Journal of the Society of Leather Technologists and Chemists, 94(1), p: 33-38.
  • 16. Andrade R.G., Ginani J.S., Lopes G.K.B., Dutra F., Alonso A. and Hermes-Lima M., 2006, “Tannic acid inhibits in vitro iron-dependent free radical formation”, Biochimie, 88(9), p: 1287–1296.
  • 17. Zengin A.C.A, Çolak S.M. and Zengin G., 2014, “Eco-friendly soaking process using tannic acid as an alternative bactericide”, Archives of Environmental Protection, doi: 10.2478/aep-2014-0003.
  • 18. Çolak S.M., Yapici B.M. and Yapici A.N., 2010, “Determination of antimicrobial activity of tannic acid in pickling process”, Romanian Biotechnological Letters, 15, p: 5325–5330.
  • 19. Çolak, S.M. and Dandar, U., 2010, “The effect of tannic acid usage on the formation of Cr (VI) in leather”, Fresenius Environmental Bulletin, 19, p: 1511– 1516.
  • 20. ISO TS 17226, “Determination of Formaldehyde Content in Leather”. The IULTCS Official Methods of Analysis, Society of Leather Technologists and Chemists (SLTC), Northampton. 21. TS EN ISO 2418, 2006, “Chemical, physical and mechanical and fastness tests, Sampling location” Turkish Standard (TSE), Ankara, Turkey.
  • 22. TS EN ISO 2419, 2006, “Leather- Physical and mechanical tests- Sample preparation and conditioning”, Turkish Standard (TSE), Ankara, Turkey.
  • 23. TS 4119 EN ISO 3376, 2002, “Determination of elongation at break”, Turkish Standard (TSE), Ankara, Turkey.
  • 24. TS EN ISO 3377-2, 2002, “Determination of tear load”, Turkish Standard (TSE), Ankara, Turkey.
  • 25. TS 4120 EN ISO 3380, 2005, “Physical and mechanical tests. Determination of shrinkage temperature up to 100 °C”, Turkish Standard (TSE), Ankara, Turkey . 26. Font J., Cuadros R.M., Lalueza J., Orús C., Reyes M..R., Costa-Lopéz J. and Marsal A., 1998, “Presence of Chromium (VI) in Sheepskins: Influence of Tannery Processes”, Journal of the Society of Leather Technologists and Chemists, 82(49), p: 91-95.
  • 27. TS EN ISO 17075, 2007, “Determination of hexavalent chromium content”, The IULTCS Official Methods of Analysis, Society of Leather Technologists and Chemists (SLTC), Northampton.
  • 28. Zengin A.C.A., Crudu M., Maier S.S., Deselnicu V., Albu L., Gulumser G., Bitlisli B.O., Basaran B. and Mutlu M.M., 2012, “Eco-leather: Chromium-free leather production using Titanium, Oligomeric Melamine-Formaldehyde Resin, and Resorcinol tanning agents and the properties of the resulting leathers”, Ekoloji, 21(82), p: 17-25.
  • 29. Graf D., 2001, “Formation of Cr(VI) Traces in Chrome-Tanned Leather: Causes, Prevention & Latest Findings”, Journal of the American Leather Chemists Association, 96, p: 169–179.
  • 30. Albu M.G., Ghica M.V., Giurginca M., Trandafiri V., Popa L. and Cotrut C., 2009. Spectral Characteristics and Antioxidant Properties of Tannic Acid Immobilized on Collagen Drug-Delivery System, Revista de Chimie, 60(7), p: 666-672. of various waste extracts on free formaldehyde in leather”, Tekstil ve Konfeksiyon, 4, p: 410–414

ANTIOXIDANT EFFECT OF TANNIC ACID ON FORMATION OF FORMALDEHYDE AND HEXAVALENT CHROMIUM COMPOUNDS IN LEATHER

Year 2014, Volume: 24 Issue: 1, 105 - 110, 01.06.2014

Abstract

The presence of formaldehyde and hexavalent chromium in leather products, results from the inclusion of formaldehyde in chemical manufacturing process of industrial chemicals, and the oxidation of Cr (III), which is used as tanning agent in leather tanning industry, to Cr (VI) under certain conditions. In this study, wet-blue sheep skins were treated with different concentrations of tannic acid such as 0.1, 0.5, 1, 2 and 3% at retanning process in order to investigate the antioxidant effect of tannic acid on chromium (VI) and free formaldehyde formation in leather. For this purpose following the retanning process, formaldehyde content of leathers were analyzed according to ISO TS 17226 method with HPLC device. Hexavalent chromium formation was forced by exposing leather samples to accelerated ageing conditions, such as high temperature and UV. The chromium (VI) content on leather samples were determined in accordance with TS EN ISO 17075 standard procedure. The physical properties of final leathers were also investigated. Inhibitory efficiency of tannic acid both on hexavalent chromium and formaldehyde was attained at concentrations above 1% tannic acid. The offer of 3% tannic acid fulfilled the Eco-label criteria for footwear and provided lower chromium (VI) values than 3 ppm. Besides, all four tested concentrations of tannic acid maintained the formaldehyde concentrations under restricted limits. The improvement effect on the physical characteristics of leathers was observed in direct proportion of increasing tannic acid concentrations. The results indicated that tannic acid has a remarkable antioxidant effect on chromium (VI) and free formaldehyde formation in leather

References

  • 1. TFL, 2010, “Eco Guidelines, Restricted substances in leather”, p: 12-16.
  • 2. IUE, 2008, “Document on restricted products in leather”, p: 2-3.
  • 3. AFIRM, 2012, “Apparel and Footwear International RSL Management Group, Restricted Substances Guide”, p: 7.
  • 4. Avudainayagam S., Megharaj M., Owens G., Kookana R.S., Chittleborough D. and Naidu R., 2003, “Chemistry of chromium in soils with emphasis on
  • tannery waste sites”, Reviews of Environmental Contamination and Toxicology, 178, p: 53-91.
  • 5. Kolomaznik K., Adamek M., Andel I. and Uhlirova M., 2008, “Leather waste--potential threat to human health, and a new technology of its treatment”, Journal of Hazardous Materials, 160(2-3), p: 514-520.
  • 6. Font J., Cuadros R.M., Reyes M.R., Costa Lopez J., Marsal A., 1999, “Influence of various factors on chromium(VI) formation by photo-ageing”, Journal of the Society of Leather Technologists and Chemists, 83(6), p: 300-306.
  • 7. Palop R., Parareda J., Ballús O. and Marsal A., 2008, “Leather Ageing and Hexavalent Chromium Formation as a Function of the Fatliquoring Agent Part II: Chrome Retanned Leathers”, Journal of the Society of Leather Technologists and Chemists, 92(6), p: 233-237.
  • 8. Dikshith T.S.S., 2013, “Hazardous Chemicals: Safety Management and Global Regulations”, CRC Press, 143987820X, 9781439878200, p: 198-199.
  • 9. Wolf G., Hüffer S., 2002, “Formaldehyde in Leather- A Survey”, Journal of the American Leather Chemists Association, 97, p: 456-464. 10. Shi X., 1999, Reduction of Chromium (VI) and its Relationship to Carcinogenesis, Journal of Toxicology and Environmental Health, Part B, 2(1), p: 87-104.
  • 11. Costa M. and Klein C.B., 2006, “Toxicity and Carcinogenicity of Chromium Compounds in Humans”, Critical Reviews in Toxicology, 36(2), p: 155-163.
  • 12. Soffritti M., Maltoni C., Maffei F and Biagi R., 1989, “Formaldehyde: an experimental multipotential carcinogen”, Toxicololgy and Industrial Health, 5(5), p: 699-730.
  • 13. Bayramoglu E.E., Korgan A., Kalender, D., Gulumser, G., Okcu, B., Kılıc, E., 2008, Elimination of free formaldehyde in leather by Vinca rosea and Camellia sinensis extracts, Journal of the American Leather Chemists Association, 103 (3), p: 119–123.
  • 14. Bayramoglu E.E., Önem E., Yorgancioglu A., Yilmaz B., 2011, “Investigation of the effects 15. Yu C.Z., Wang R., Ma X.Y., Yang M.Y., 2010, “Antioxidant effects of phenolic compounds on unsaturated lipids preventing the oxidation of chrome(III)”, Journal of the Society of Leather Technologists and Chemists, 94(1), p: 33-38.
  • 16. Andrade R.G., Ginani J.S., Lopes G.K.B., Dutra F., Alonso A. and Hermes-Lima M., 2006, “Tannic acid inhibits in vitro iron-dependent free radical formation”, Biochimie, 88(9), p: 1287–1296.
  • 17. Zengin A.C.A, Çolak S.M. and Zengin G., 2014, “Eco-friendly soaking process using tannic acid as an alternative bactericide”, Archives of Environmental Protection, doi: 10.2478/aep-2014-0003.
  • 18. Çolak S.M., Yapici B.M. and Yapici A.N., 2010, “Determination of antimicrobial activity of tannic acid in pickling process”, Romanian Biotechnological Letters, 15, p: 5325–5330.
  • 19. Çolak, S.M. and Dandar, U., 2010, “The effect of tannic acid usage on the formation of Cr (VI) in leather”, Fresenius Environmental Bulletin, 19, p: 1511– 1516.
  • 20. ISO TS 17226, “Determination of Formaldehyde Content in Leather”. The IULTCS Official Methods of Analysis, Society of Leather Technologists and Chemists (SLTC), Northampton. 21. TS EN ISO 2418, 2006, “Chemical, physical and mechanical and fastness tests, Sampling location” Turkish Standard (TSE), Ankara, Turkey.
  • 22. TS EN ISO 2419, 2006, “Leather- Physical and mechanical tests- Sample preparation and conditioning”, Turkish Standard (TSE), Ankara, Turkey.
  • 23. TS 4119 EN ISO 3376, 2002, “Determination of elongation at break”, Turkish Standard (TSE), Ankara, Turkey.
  • 24. TS EN ISO 3377-2, 2002, “Determination of tear load”, Turkish Standard (TSE), Ankara, Turkey.
  • 25. TS 4120 EN ISO 3380, 2005, “Physical and mechanical tests. Determination of shrinkage temperature up to 100 °C”, Turkish Standard (TSE), Ankara, Turkey . 26. Font J., Cuadros R.M., Lalueza J., Orús C., Reyes M..R., Costa-Lopéz J. and Marsal A., 1998, “Presence of Chromium (VI) in Sheepskins: Influence of Tannery Processes”, Journal of the Society of Leather Technologists and Chemists, 82(49), p: 91-95.
  • 27. TS EN ISO 17075, 2007, “Determination of hexavalent chromium content”, The IULTCS Official Methods of Analysis, Society of Leather Technologists and Chemists (SLTC), Northampton.
  • 28. Zengin A.C.A., Crudu M., Maier S.S., Deselnicu V., Albu L., Gulumser G., Bitlisli B.O., Basaran B. and Mutlu M.M., 2012, “Eco-leather: Chromium-free leather production using Titanium, Oligomeric Melamine-Formaldehyde Resin, and Resorcinol tanning agents and the properties of the resulting leathers”, Ekoloji, 21(82), p: 17-25.
  • 29. Graf D., 2001, “Formation of Cr(VI) Traces in Chrome-Tanned Leather: Causes, Prevention & Latest Findings”, Journal of the American Leather Chemists Association, 96, p: 169–179.
  • 30. Albu M.G., Ghica M.V., Giurginca M., Trandafiri V., Popa L. and Cotrut C., 2009. Spectral Characteristics and Antioxidant Properties of Tannic Acid Immobilized on Collagen Drug-Delivery System, Revista de Chimie, 60(7), p: 666-672. of various waste extracts on free formaldehyde in leather”, Tekstil ve Konfeksiyon, 4, p: 410–414
There are 27 citations in total.

Details

Other ID JA88VH27NM
Journal Section Articles
Authors

Selime Mente Çolak This is me

Urana Dandar This is me

Eylem Kılıç This is me

Publication Date June 1, 2014
Submission Date June 1, 2014
Published in Issue Year 2014 Volume: 24 Issue: 1

Cite

APA Mente Çolak, S., Dandar, U., & Kılıç, E. (2014). ANTIOXIDANT EFFECT OF TANNIC ACID ON FORMATION OF FORMALDEHYDE AND HEXAVALENT CHROMIUM COMPOUNDS IN LEATHER. Textile and Apparel, 24(1), 105-110.

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