Impact of surface treatment and addition of CuO NPs of surface roughness of acrylic denture base bonded to soft liner

Authors

  • Saja Abd Almunaf Fadhil Department of Prosthetic Dental Technology, College of Health and Medical Technology, Middle Technical University, Iraq
  • Hawraa Khalid Aziz

DOI:

https://doi.org/10.32828/mdj.v20i1.1149

Keywords:

Fiber laser, CuO NPs, acrylic, silicone liner, surface roughness

Abstract

Background: The import of the rough surface makes the application of several elements to enhance this feature vital for the adhesion of soft liners. Aim: The study's goal was to to ascertain the impact of copper oxide nanoparticles added in two ratios to heated-cured acrylic resin and fiber laser surface treatment on surface roughness. Materials and methods:60 acrylic specimens in the shape of discs were manufactured and divided into three groups: one received no addition; the other two received the addition of 0.3% CuO NPs; and a third group that received the addition of 0.5% CuO NPs. Each group was divided into two categories: those that were laser treatment and those who did not. The surface roughness test was then examined using a roughness tester called a profilometer. Results: The average roughness values were high for the control groups and low for the CuO NPs 0.5% groups. The mean values in the laser-treated groups had greater roughness than the control groups, according to the laser application.Conclusion:. As the fraction of CuO NPs increased, the surface roughness reduced. The laser treatment also reduced surface roughness.

References

CRAIG, R., SAKAGUCHI, R. & POWERS, J. 2012. Craig's Restorative Dental Materials. 13th. Philadelphia, Pa, USA: Elsevier.

LO GIUDICE, R., SINDONI, A., TRIBST, J. P. M., DAL PIVA, A. M. D. O., LO GIUDICE, G., BELLEZZA, U., LO GIUDICE, G. & FAMÀ, F. 2022. Evaluation of Zirconia and High Performance Polymer Abutment Surface Roughness and Stress Concentration for Implant-Supported Fixed Dental Prostheses. Coatings, 12, 238.

MACHADO, A. L., GIAMPAOLO, E. T., VERGANI, C. E., SOUZA, J. F. D. & JORGE, J. H. 2011. Changes in roughness of denture base and reline materials by chemical disinfection or microwave irradiation: surface roughness of denture base and reline materials. Journal of applied oral science, 19, 521-528.

ONWUBU, S. C., VAHED, A., SINGH, S. & KANNY, K. M. 2017. Reducing the surface roughness of dental acrylic resins by using an eggshell abrasive material. The Journal of prosthetic dentistry, 117, 310-314.

AMIRI, M., ETEMADIFAR, Z., DANESHKAZEMI, A. & NATEGHI, M. 2017. Antimicrobial effect of copper oxide nanoparticles on some oral bacteria and candida species. Journal of dental biomaterials, 4, 347.

DIN, M. I., ARSHAD, F., RANI, A., AIHETASHAM, A., MUKHTAR, M. & MEHMOOD, H. 2017. Single step green synthesis of stable copper oxide nanoparticles as efficient photo catalyst material. Biomed Mater, 9, 41-48.

BHAVYASREE, P. & XAVIER, T. 2020. Green synthesis of Copper Oxide/Carbon nanocomposites using the leaf extract of Adhatoda vasica Nees, their characterization and antimicrobial activity. Heliyon, 6.

GAD, M. M., RAHOMA, A., ABUALSAUD, R., AL-THOBITY, A. M., AKHTAR, S., HELAL, M. A. & AL-HARBI, F. A. 2020. Impact of different surface treatments and repair material reinforcement on the flexural strength of repaired PMMA denture base material. Dental Materials Journal, 39, 471-482.

NODA, M., OKUDA, Y., TSURUKI, J., MINESAKI, Y., TAKENOUCHI, Y. & BAN, S. 2010. Surface damages of zirconia by Nd: YAG dental laser irradiation. Dental materials journal, 29, 536-541

ERDOǦAN, M., ÖKTEM, B., KALAYCıOǦLU, H., YAVAŞ, S., MUKHOPADHYAY, P. K., EKEN, K., ÖZGÖREN, K., AYKAÇ, Y., TAZEBAY, U. H. & ILDAY, F. Ö. 2011. Texturing of titanium (Ti6Al4V) medical implant surfaces with MHz-repetition-rate femtosecond and picosecond Yb-doped fiber lasers. Optics express, 19, 10986-10996.

FORNAINI, C., POLI, F., MERIGO, E., BRULAT-BOUCHARD, N., EL GAMAL, A., ROCCA, J.-P., SELLERI, S. & CUCINOTTA, A. 2018. Disilicate dental ceramic surface preparation by 1070 nm fiber laser: Thermal and ultrastructural analysis. Bioengineering, 5, 10.

TUNCDEMIR, A., BUYUKERKMEN, E., CELEBI, H., TERLEMEZ, A. & SENER, Y. 2018. Effects of postsurface treatments including femtosecond laser and aluminum-oxide airborne-particle abrasion on the bond strength of the fiber posts. Nigerian journal of clinical practice, 21, 350-355.

SIMÕES, I. G., DOS REIS, A. C. & DA COSTA VALENTE, M. L. 2021. Analysis of the influence of surface treatment by high-power laser irradiation on the surface properties of titanium dental implants: A systematic review. The Journal of Prosthetic Dentistry.

DEGIRMENCI, K., HAYATI ATALA, M. & SABAK, C. 2020. Effect of different denture base cleansers on surface roughness of heat polymerised acrylic materials with different curing process. Odovtos International Journal of Dental Sciences, 22, 145-153.

ÇAKMAK, G., DONMEZ, M. B., DE PAULA, M. S., AKAY, C., CHAVAN, A., SCHIMMEL, M. & YILMAZ, B. 2022. Surface roughness and stainability of new-generation denture base materials after brushing and coffee thermocycling. Journal of materials research, 1-11.

YASSER, A. D. & FATAH, N. A. 2017. The effect of addition of zirconium nano particles on antifungal activity and some properties of soft denture lining material. Journal of baghdad college of dentistry, 29, 27-33.

ISSA, S. 2014. Functionalization of titanium surface for dental implants design. Université Paris-Est.

TUKMACHI, M. & MOUDHAFFER, M. 2017. Effect of nano silicon dioxide addition on some properties of heat vulcanized maxillofacial silicone elastomer. IOSR-JPBS, 12, 37-43.

KORKMAZ, F. M. & AYCAN, S. 2019. Effect of fiber laser irradiation on the shear bond strength between acrylic resin and titanium. Scanning, 2019.

ABDUL-SHAFI, H. A.-W. & AZIZ, H. K. 2022. Effect of Aging on the Antifungal Activity and Surface Roughness of Soft Lining Material Incorporated with Chitosan Nano-Particles. Journal of Techniques, 4, 67-75.

ASLI, H. N., RAHIMABADI, S., HEMMATI, Y. B. & FALAHCHAI, M. 2021. Effect of different surface treatments on surface roughness and flexural strength of repaired 3D-printed denture base: An in vitro study. The Journal of Prosthetic Dentistry, 126, 595. e1-595. e8.

NOOR, M., KADIRGAMA, K. & RAHMAN, M. 2011. Particle swarm optimisation prediction model for surface roughness. International Journal of the Physical Sciences, 6, 3082-3090.

GILANI, S. Q. Z., WIENER, J., NAEEM, M. S., JAVED, Z., JABBAR, A., ABID, H. A. & KARAHAN, M. 2021. Adsorption Kinetics of an Activated Carbon Glass Composite Prepared Using Acrylic Waste Through Laser Treatment. Fibres & Textiles in Eastern Europe, 29, 81-89.

TUGUT, F., AKIN, H., MUTAF, B., AKIN, G. E. & OZDEMIR, A. K. 2012. Strength of the bond between a silicone lining material and denture resin after Er: YAG laser treatments with different pulse durations and levels of energy. Lasers in medical science, 27, 281-285.

AKIN, H., TUGUT, F., MUTAF, B., AKIN, G. & OZDEMIR, A. K. 2011. Effect of different surface treatments on tensile bond strength of silicone-based soft denture liner. Lasers in medical science, 26, 783-788.

ERGUN, G., SAHIN, Z. & ATAOL, A. S. 2018. The effects of adding various ratios of zirconium oxide nanoparticles to poly (methyl methacrylate) on physical and mechanical properties. Journal of oral science, 60, 304-315.

KURNIAWAN, A. A., IMAM, D. N. A. & HIRAWAN, H. 2020. The Effect of Addition of Nano hydroxyapatite Powder of Anadara granosa Shells on Surface Roughness of Heat-cured Acrylic Resin. DENTA, 14, 82-87.

MOHAMMED, E. & ELDAWASH, H. 2022. Gold-nano particles addition to conventional heat-cured acrylic resin materials: Influence on the flexural strength, color changes, surface roughness, and hardness. Egyptian Dental Journal, 68, 1543-1550.

HAMEED, T. M., AL–DABBAGH, B. M. & JASIM, R. K. 2022. Reinforcement of denture base materials with Nano sisal fibers powder. Materials Today: Proceedings, 61, 1015-1022.

CHOWDHURY, A. R., KAURANI, P., PADIYAR, N., MEENA, S., SHARMA, H. & GUPTA, A. 2021. Effect of addition of titanium oxide and zirconium oxide nanoparticles on the surface roughness of heat cured denture base resins: an in-vitro study. SVOA Mater Sci Technol, 3, 36-44.

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Published

30.06.2024

How to Cite

Impact of surface treatment and addition of CuO NPs of surface roughness of acrylic denture base bonded to soft liner. (2024). Mustansiria Dental Journal, 20(1), 73-84. https://doi.org/10.32828/mdj.v20i1.1149

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