edited by Ulrich Dirnagl, Arno Villringer, Karl M. Einhäupl.
Boston, MA
Springer US : Imprint : Springer
1993
Advances in experimental medicine and biology, 333.
Near Infrared Spectroscopy of the Brain --;NMR and time-resolved optical studies of brain imaging --;Wavelength dependence of the differential pathlength factor and the log slope in time-resolved tissue spectroscopy --;Towards human brain near infrared imaging: Time resolved and unresolved spectroscopy during hypoxic hypoxia --;Measurement of human hypothermic cerebral oxygen metabolism by transmission spectroscopy --;Optical CT imaging of hemoglobin oxygen-saturation using dual-wavelength time gate technique --;Optical properties of normal human intracranial tissues in the spectral range of 400 to 2500 nm --;Imaging of Brain Function Using Intrinsic Signals --;Optical imaging of the functional architecture in cat visual cortex: The layout of direction and orientation domains --;Mapping of neural activity patterns using intrinsic optical signals: From isolated brain preparations to the intact human brain --;Fiber optic imaging of subcortical neural tissue in freely behaving animals --;Olfactory information processing in insects revealed by real-time optical imaging of intrinsic signals --;Thermal Imaging of the Brain --;Infrared imaging of brain function --;IR thermal imaging of a monkey's head: Local temperature changes in response to somatosensory stimulation --;Optical Measurement of Ion Concentrations in Brain Cells and Tissues --;Spatiotemporal inhomogeneity of [Ca]i in neurons --;Intracellular ion concentrations in the brain: approaches towards in situ confocal imaging --;Optical Access to the Brain Microcirculation --;Optical access to the brain: how artificial are cranial window techniques? --;Multiparametric imaging of microregional circulation over the brain cortex by videoreflectometry --;Towards imaging of cerebral blood flow and metabolism on a microscopical scale in vivo --;Emerging Optical Techniques --;Detection of brain free oxygen radical generated photons in vivo: Preliminary results --;Diffusion properties of brain tissue measured with electrode methods and prospects for optical analysis --;Measuring oxygen using oxygen dependent quenching of phosphorescence: A status report --;Laser fluorescence spectroscopic experiments for monitoring molecules in brain --;Infrared-interference videomicroscopy of living brain slices --;Non-Optical Reference Techniques --;Blood-brain barrier transport measurements using PET-scanning and intravenous double indicator technique --;Nuclear magnetic resonance studies of human brain in vivo: Anatomy, function, and metabolism --;Autoradiographic and biochemical imaging in cerebral ischemia --;Contributors.
. ... At last the doctor will be freed from the tedious interpretation of screens and photographs. Instead, he will examine and scan through his patient directly. Wearing optical-shutter spectacles and aiming a pulsed laser torch, he will be able to peer at the beating heart, study the movement of a joint or the flexing of a muscle, press on suspect areas to see how the organs beneath respond, check that pills have been correctly swallowed or that an implant is savely in place, and so on. A patient wearing white cotton or nylon clothes that scatter but hardly absorb light, may not even have to undress ... David Jones, Nature (1990) 348:290 Optical imaging of the brain is a rapidly growing field of heterogenous techniques that has attracted considerable interest recently due to a number of theoretical advantages in comparison with other brain imaging modalities: it uses nonƯ ionizing radiation, offers high spatial and temporal resolution, and supplies new types of metabolic and functional information. From a practical standpoint it is important that bedside examinations seem feasible and that the implementations will be considerably less expensive compared with competing techniques. In October 1991, a symposium was held at the Eibsee near Garmisch, Germany to bring together the leading scientists in this new field.
Medicine.
Neurology.
Neurosciences.
RC386
.
6
.
D52
E358
1993
edited by Ulrich Dirnagl, Arno Villringer, Karl M. Einhäupl.