D. N. Ghista (Based on the Opening Address at the International Conference on Biomedical Physics & Mathematics of the Gauss Symposium, August 2, 1993 at Ludwig Maximillians Universitiit, Munchen, Germany) The traditional practice of Biomedical physics has now expanded to involve multiple aspects of medical practice: development of systems and technology in medical monitoring (e. g. , PET visualization of brain receptors to identify neuronal dysfunction), diagnosis (e. g. , computer-aided echocardiographic texture analysis to detect myocardial infarcts), organ­ support (e. g. , peritoneal dialysis), and therapeutic function (e. g. , encapsulation of insulin-producing pancreatic islet cells for treatment of diabetes). However, is Biomedical Physics a relatively new field? Not really, although we may have opened up new vistas of it, as presented in this book. Let us recall some early and well-known physician-cum-biomedical physicists. Both physical and physiological scientists will know of Jean Poiseuille (1799-1869), physician and physiologist; he measured blood pressure with a mercury manometer while being a medical student in Paris, received his medical degree in 1928, and then went on to describe the law of viscous flow (applicable to arteriolar flow).

D. N. Ghista (Based on the Opening Address at the International Conference on Biomedical Physics & Mathematics of the Gauss Symposium, August 2, 1993 at Ludwig Maximillians Universitiit, Munchen, Germany) The traditional practice of Biomedical physics has now expanded to involve multiple aspects of medical practice: development of systems and technology in medical monitoring (e. g. , PET visualization of brain receptors to identify neuronal dysfunction), diagnosis (e. g. , computer-aided echocardiographic texture analysis to detect myocardial infarcts), organ­ support (e. g. , peritoneal dialysis), and therapeutic function (e. g. , encapsulation of insulin-producing pancreatic islet cells for treatment of diabetes). However, is Biomedical Physics a relatively new field? Not really, although we may have opened up new vistas of it, as presented in this book. Let us recall some early and well-known physician-cum-biomedical physicists. Both physical and physiological scientists will know of Jean Poiseuille (1799-1869), physician and physiologist; he measured blood pressure with a mercury manometer while being a medical student in Paris, received his medical degree in 1928, and then went on to describe the law of viscous flow (applicable to arteriolar flow).

D. N. Ghista (Based on the Opening Address at the International Conference on Biomedical Physics & Mathematics of the Gauss Symposium, August 2, 1993 at Ludwig Maximillians Universitiit, Munchen, Germany) The traditional practice of Biomedical physics has now expanded to involve multiple aspects of medical practice: development of systems and technology in medical monitoring (e. g. , PET visualization of brain receptors to identify neuronal dysfunction), diagnosis (e. g. , computer-aided echocardiographic texture analysis to detect myocardial infarcts), organ­ support (e. g. , peritoneal dialysis), and therapeutic function (e. g. , encapsulation of insulin-producing pancreatic islet cells for treatment of diabetes). However, is Biomedical Physics a relatively new field? Not really, although we may have opened up new vistas of it, as presented in this book. Let us recall some early and well-known physician-cum-biomedical physicists. Both physical and physiological scientists will know of Jean Poiseuille (1799-1869), physician and physiologist; he measured blood pressure with a mercury manometer while being a medical student in Paris, received his medical degree in 1928, and then went on to describe the law of viscous flow (applicable to arteriolar flow).