Recent research:
The research focuses on the mechanical characterization, optimization, and manufacturing of advanced materials, with a strong emphasis on dental restorative systems and industrial biocomposites. In the dental field, investigations have evaluated the fracture resistance, microhardness, and thermal aging behavior of various CAD/CAM materials, including bulk-fill resins, hybrid ceramics, and 3D-printed polymers. These studies provide critical insights into the clinical performance and longevity of restorative components under occlusal and thermal stress. Parallel to this, the research explores the development of sustainable biocomposites, utilizing natural fibers such as bamboo, sisal, and agricultural waste within polymer matrices. Methodologies include micromechanical modeling, rheological optimization, and additive manufacturing (3D printing) to enhance processability and mechanical properties. Furthermore, the work extends to structural engineering, where finite element analysis and experimental testing are applied to optimize industrial components, such as masonry blocks with recycled rubber, steel framing systems, and remanufactured industrial bearings. The integration of digital technologies, including image processing for corrosion detection and advanced manufacturing workflows, underscores a commitment to circular economy principles and industrial efficiency.

Key Topics:

• Mechanical properties of dental restorative materials
• Additive manufacturing and 3D printing technologies
• Biocomposite development and natural fiber reinforcement
• Structural engineering and failure analysis
• CAD/CAM dental workflows and material performance
• Circular economy and industrial asset remanufacturing