Titlebook: Lasers in Cardiovascular Medicine and Surgery: Fundamentals and Techniques; George S. Abela Book 1990 Kluwer Academic Publishers 1990 Abla

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Laser Sources for Angioplastyhout significant thermal damage to the surrounding tissue. Since tissue absorption varies 1000-fold (from 10 cm. to 8000 cm.) and peak power 100,000-fold (from 5 watts to 0.5 megawatts) for the different lasers proposed for angioplasty, their effects [1] on atheroma and normal vessel wall vary enormously.

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0166-9842 pro- as those that are still in investigational phases. cedures have become of great interest to the Clinical case reports are presented by expert in- cardiologist, radiologist, and cardiovascular vestigators on the use of various catheter systems surgeon. One of the most extensively explored in th

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Historical Background, Development, and Future Trends of Lasers in Cardiovascular Disease in 1917 [1]. It was not until 1958 that Townes and Schawlow in the United States and Prokhorov in the Soviet Union further expanded on laser theory, which eventually led to the construction of the first laser in I960. This was a solid-state ruby laser built by Theodore Maiman at the Hughes Laborato

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Laser Physics and its Relevance to Applications in Medicinem were economically justifiable. Research began almost immediately to find medical applications for this intense light source. Now, more than a quarter of a century later, the laser has become commonplace in clinics, operating rooms, and doctors’ offices. Even though the laser is used extensively in

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The Excimer Laser-Tissue Interactions and Early Clinical Resultsally available for clinical and experimental use [2], all of which were continuous wave (CW). Of these, light from the C0. laser would not go down a quartz fiber, which left the argon and Nd:YAG lasers as the basic research tools. It quickly became apparent that the light from both these lasers prod

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