EC Dental Science

Review Article Volume 22 Issue 1 - 2023

Biosmart Material in Operative Dentistry

Mohamed Hany Ahmad Fouad1* and Sawsan Badr Jaber Ishaq2

1Cairo University, Giza, Egypt
2Batterjee Medical College, Jeddah, Saudi Arabia

*Corresponding Author: Mohamed Hany Ahmad Fouad, Professor of Restorative Dentistry, Registered in Saudi Commission for Health Specialties as Consultant, Saudi Arabia.
Received: December 06, 2022; Published: December 12, 2022



Introduction: Materials science has changed over a period of time, and it is not what it used to be. The conventional materials used in dentistry were passive and inert and had little to no interaction with body fluids and tissues. Materials used in the oral cavity are selected on the basis of their to survive oral environment without adversely interacting with oral tissues. At present, the scenario has changed. Many of the materials have become advanced in terms of function and biologically interact with body tissues. They are designed to perform and interact with tissues and are termed “Bio-smart” material. The structural modification in materials and devices allows them to actively participate and work in a better way for the desired outcome of planned treatment. Therefore, the concept of an “active” rather than “passive” material can be useful in dentistry. This first came into consideration with the introduction of fluoride-releasing materials and led to advancement in many more of them over a period of time. This permits and reflects a change in material philosophy. The same concept holds true in many other areas of engineering, such as automotive engineering, biomedicine, aerospace, and robotics.

Aim of the Study: The aim of the review is to understand the concept of various biosmart materials used in restorative dentistry over a period of time.

Methodology: The review is a comprehensive research of PUBMED since the year to 1988 to 2014.

Conclusion: The advent of these smart materials has drastically changed the treatment outcome. There are numerous applications of smart materials ranging from their fluoride-releasing properties to high mechanical aesthetic results, working as wonders in the field of dentistry. Advances in the form of these biosmart dental materials would be even better for the future.

Keywords: Bio-Smart Materials; Smart Burs; Self-Healing Composites

  1. McCABE JF., et al. “Smart materials in dentistry-Future prospects”. Dental Materials Journal1 (2009): 37-43.
  2. Allameh SM., et al. “Piezoelectric generators for biomedical and dental applications: Effects of cyclic loading”. Journal of Materials Science: Materials in Medicine1 (2007): 39-45.
  3. Gil FJ and Planell JA. “Shape memory alloys for medical applications”. Proceedings of the Institution of Mechanical Engineers, Part H: Journal of Engineering in Medicine6 (1998): 473-488.
  4. Stayton PS., et al. “Smart’ delivery systems for biomolecular therapeutics”. Orthodontics and Craniofacial Research3 (2005): 219-225.
  5. Thompson SA. “An overview of nickel–titanium alloys used in dentistry”. International Endodontic Journal4 (2000): 297-310.
  6. Dhull KS., et al. “Biosmart Materials in Dentistry: An Update”. International Journal of Oral Care and Research 2 (2017): 143-148.
  7. Yan Z., et al. “Response to thermal stimuli of glass ionomer cements”. Dental Materials5 (2007): 597-600.
  8. Versluis A., et al. “Thermal expansion coefficient of dental composites measured with strain gauges”. Dental Materials5-6 (1996): 290-294.
  9. Bullard RH., et al. “Effect of coefficient of thermal expansion on microleakage”. Journal of the American Dental Association7 (1988): 871-874.
  10. Yan Z., et al. “Response to thermal stimuli of glass ionomer cements”. Dental Materials5 (2007): 597-600.
  11. JF McCabe., et al. “Smart materials in dentistry”. Australian Dental Journal1 (2011): 3-10.
  12. Nomoto R., et al. “Effect of mixing method on the porosity of encapsulated glass ionomer cement”. Dental Materials10 (2004): 972-978.
  13. Yan Z., et al. “Effects of temperature on the fluoride release and recharging ability of glass ionomers”. Operative Dentistry2 (2007): 138-143.
  14. Boskey AL. “Amorphous calcium phosphate: the contention of bone”. Journal of Dental Research8 (1997): 1433-1436.
  15. Skrtic D and Antonucci JM. “Bioactive polymeric composites for tooth mineral regeneration: physicochemical and cellular aspects”. Journal of Functional Biomaterials3 (2011): 271-307.
  16. Skrtic D., et al. “Amorphous calcium phosphate-based bioactive polymeric composites for mineralized tissue regeneration”. Journal of research of the National Institute of Standards and Technology3 (2003): 167.
  17. Xu HH., et al. “Effects of calcium phosphate nanoparticles on Ca-PO4 composite”. Journal of Dental Research4 (2007): 378-383.
  18. Jandt KD and Sigusch BW. “Future perspectives of resin-based dental materials”. Dental Materials8 (2009): 1001-1006.
  19. RS Trask., et al. “Self-healing polymer composites: mimicking nature to enhance performance”. Bioinspiration and Biomimetics1 (2007): P1-P9.
  20. Teixeira EC., et al. “Shear bond strength of self-etching bonding systems in combination with various composites used for repairing aged composites”. Journal of Adhesive Dentistry2 (2005).
  21. Little DA. “A smart ceramics system for expanded indications”. Inside Dent12 (2012): 1-4.
  22. Badami V and Ahuja B. “Biosmart materials: Breaking new ground in dentistry”. The Scientific World Journal (2014).
  23. Dammaschke T., et al. “Efficiency of the polymer bur Smart Prep compared with conventional tungsten carbide bud bur in dentin caries excavation”. Operative Dentistry2 (2006): 256-260.

Mohamed Hany Ahmad Fouad and Sawsan Badr Jaber Ishaq. “Mohamed Hany Ahmad Fouad and Sawsan Badr Jaber Ishaq”.”. EC Dental Science 22.1 (2023): 91-99.