Interdisciplinary biomedical engineering — combining healthcare technology, artificial intelligence, medical devices and translational research to develop innovative and affordable solutions for modern healthcare.
Design and development of intelligent biomedical instruments for physiological signal acquisition, patient monitoring, and clinical applications.
Development of affordable, user-centric medical devices, healthcare technologies, and prototype solutions for clinical needs.
Application of AI and machine learning for medical diagnosis, predictive analytics, clinical decision support, and intelligent healthcare systems.
Development of connected healthcare devices integrating wearable sensors, cloud platforms, and remote patient monitoring.
Research on nanomaterials, biomaterials, targeted drug delivery, nanotoxicology, and advanced therapeutic technologies.
Design of prosthetics, rehabilitation devices, assistive technologies, and smart mobility solutions.
Research on artificial organs, implantable medical devices, tissue engineering, regenerative medicine, and biomaterial-based therapeutic systems.
Medical equipment management, patient safety, quality assurance, healthcare technology assessment, and hospital engineering.
Development of optical sensing technologies, spectroscopy, photonic devices, and non-invasive diagnostic systems.
Promoting innovation-driven research, patent development, technology commercialization, and entrepreneurship in biomedical engineering.
My research focuses on developing affordable, intelligent, and patient-centered healthcare technologies by integrating biomedical engineering, artificial intelligence, biomaterials, and clinical innovation to improve healthcare accessibility and quality of life.