Section 1 · Introduction
An introduction to the science, engineering, and biological foundations behind orthodontic treatment, exploring how braces evolved into sophisticated systems capable of reshaping human dentition.
Malocclusion, or the misalignment of teeth and jaws, affects a significant portion of the global population, impacting not only aesthetics but also oral health, speech, and overall quality of life [Cleveland Clinic, 2024; Cenzato et al., 2021]. Orthodontic treatment, primarily through the use of braces, aims to correct these misalignments, enhancing dental function, improving facial aesthetics, and boosting self-esteem.
The journey from rudimentary attempts at tooth alignment in ancient times to the sophisticated systems employed today showcases a remarkable convergence of engineering innovation and biological understanding.
This paper delves into the multifaceted world of orthodontic braces, exploring their historical evolution, the underlying engineering principles that govern their function, and the intricate biological mechanisms that facilitate tooth movement.
By examining the materials, mechanics, and cellular responses involved, this research aims to provide a comprehensive understanding of how braces work and why they are effective.
Furthermore, this paper will explore the integration of engineering and medicine in orthodontics, highlighting the collaborative efforts that drive advancements in treatment techniques.
Finally, the discussion looks toward the future of orthodontics, analysing emerging technologies and potential breakthroughs that promise to revolutionize orthodontic care through artificial intelligence, smart materials, digital modelling, and bioengineered systems.
Investigating biomechanics, materials science, stress distribution, and orthodontic force systems.
Understanding periodontal ligament responses, bone remodelling, and cellular signalling pathways.
Exploring AI-assisted treatment, smart materials, and digital orthodontics.
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