Book

Description

Medical laser technology has become an essential component of modern healthcare, providing precise, minimally invasive, and versatile approaches to diagnosis, treatment, surgery, rehabilitation, and tissue regeneration. As laser systems continue to advance, a clear understanding of their physical principles, technological foundations, biological effects, and clinical applications is increasingly important for students, researchers, and healthcare professionals. Fundamentals and Clinical Applications of Medical Laser Systems presents an integrated introduction to the science, technology, and clinical use of medical lasers. The book covers fundamental principles of laser physics, laser generation, optical properties, beam characteristics, energy delivery, laser–tissue interactions, dosimetry, treatment parameters, photobiological effects, tissue responses, and laser safety. The book connects these scientific foundations with the design, operation, and clinical application of medical laser systems. It explains how wavelength, power, energy density, exposure time, pulse duration, and other treatment parameters influence biological tissues and therapeutic outcomes. Clinical applications across medicine and dentistry are explored, including photobiomodulation, tissue healing, surgery, dermatology, oncology, ophthalmology, dental treatment, regenerative medicine, and emerging biomedical applications. Designed for students, researchers, medical physicists, biomedical engineers, physicians, dentists, and healthcare professionals, this book combines fundamental theory with clinically relevant applications. It serves as both an accessible textbook and a practical reference for understanding the science, technology, safety, and expanding clinical potential of medical laser systems. By bridging laser physics, biomedical technology, biological responses, and clinical practice, this book provides a foundation for understanding the current and future role of lasers in precision healthcare.