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Review. Journal of Surfactants and Detergents, 18(2) 199-204. [4] Parvinzedeh M., Hajiraissi R. (2008). Effect of nano and micro emulsion silicone softeners on properties of polyester fibers. Tenside Surf. Det. 45(5), 254-257. [5] Pathiban M., Kumar M.R. (2007). Effect of fabric softener on thermal comfort of cotton and polyester fabrics. Indian Journal of Fibre & Textile Research, 32, 446-452. [6] Montazer M., Hashemikia S. (2012). Application of polyurethane/citric acid/silicone softener composite on cotton/polyester knitted fabric producing durable soft and smooth


INTRODUCTION: Photodynamic therapy is a topical treatment of pathogens that involves the use of a photoactive dye (photosensitizer), which is non-toxic when not exposed to light and activated by light of a specifi c wavelength in the presence of oxygen. The highly cytotoxic oxygen species generated by the induced photophysical processes inactivate the pathogenic cells.

The PURPOSE of this study was to present a new method we developed for photodynamic disinfection of prostheses and impressions in prosthetic dentistry and to assess its effectiveness in comparison with some conventional methods of disinfection.

MATERIALS AND METHODS: The method was developed on the basis of series of experimental studies (30 experiments for each type of disinfectant, 30 controls with no disinfection for each material, and 30 direct cultures of each test microorganism - MRSA, P. aeruginosa and C. albicans) using standard test specimens made of prosthesis plastic and impression materials.

RESULTS: The new method of photodynamic disinfection with GaPc1 as photosensitizer was 100% effi cient in C-silicones, A-silicones and polyethers, but not in alginates (40%). To plastics the photodynamic method shows the same effi ciency as the conventional disinfectants of hypochlorite solutions and denture cleansing tablets (100% effect).

CONCLUSION: The method of photodynamic disinfection we developed is a good therapeutic choice against orally transmitted diseases in prosthetic dentistry.

. 21, RILEM publications 1999. 8. Vik, M., Základy měření barevnosti, Liberec, Technická univerzita 1995. 9. Bartovská, L., Šišková, M., Fyzikální chemie povrchů a koloidních soustav. 6 ed., VŠCHT Praha 2012. 10. Sandberg, L., Comparisons of Silicone and Urethane Sealant Durabilities. Journal of Materials in Civil Engineering 1991, 3 (4), 278-291.

., Więzowska, A. (2011). Modelling of the temperature field within knitted fur fabrics. Fibres and Textiles in Eastern Europe, 19, 1(84), 55–59. Korycki R. Więzowska A. 2011 Modelling of the temperature field within knitted fur fabrics Fibres and Textiles in Eastern Europe 19, 1 84 55 59 [22] Zięba, M., Małysa, A., Wasilewski, T., Ogorzałek, M. (2019). Effects of chemical structure of silicone polyethers used as fabric softener additives on selected utility properties of cotton fabric. Autex Research Journal, 19(1), 1–7. Zięba M. Małysa A. Wasilewski T. Ogorzałek M. 2019