Our group's research surrounding natural biomaterials largely surrounds the mechanical characteristics and biomechanical responses of craniofacial tissues. Primary goals involve establishing a core mechanobiological connection between the mechanical stress/strain conditions cranial sutures and periodontal ligament are subjected to and their biological adaptations. We are also interested in the mechanical and structural characterization of bone in the craniofacial environment, particularly its interaction with surrounding soft tissues and structural adaptations in response to mechanical stimuli.
Research within this stream focuses on orthodontic applications, investigating the mechanical response of tissues when subjected to orthodontic appliance loading and experimentally determining applied loads in a range of orthodontic scenarios. Our primary goals include creating comprehensive fine element models for dental applications and correlating numerical simulations with biomechanical experiments to better understand and predict clinical outcomes.
Our research in this area is focused on refining inorganic materials for clinical applications by employing various mechanical, surface, and chemical characterization techniques. Current research goals involve investigating the mechanical properties of anti-microbial dental materials, understanding strength mitigation through CAD/CAM techniques, and additive manufacturing of ceramic restorations.