Optical measurements of synchronized activity in isolated mammalian cerebellum

Neuroscience

Volumn 94, Issue 3, 1999, Pages 859-866

  Cohen, D ^a   Yarom, Y ^a  

^a Department of Neurobiology   (Israel)

Author keywords

Cerebellum; Optical imaging; Voltage sensitive dyes

Indexed keywords

6,7 DINITRO 2,3 QUINOXALINEDIONE; BICUCULLINE;

ANIMAL CELL; ANIMAL TISSUE; ARTICLE; CEREBELLUM CORTEX; CONTRAST ENHANCEMENT; DIAGNOSTIC ACCURACY; GUINEA PIG; IMAGE ANALYSIS; MEMBRANE POTENTIAL; NEUROANATOMY; NONHUMAN; OPTICAL INSTRUMENTATION; PRIORITY JOURNAL; VOLTAGE CLAMP;

ANIMALS; BICUCULLINE; CEREBELLAR CORTEX; CEREBELLUM; CEREBRAL ARTERIES; ELECTRIC STIMULATION; EVOKED POTENTIALS; EXCITATORY AMINO ACID ANTAGONISTS; FLUORESCENT DYES; GUINEA PIGS; PYRIDINIUM COMPOUNDS; QUINOXALINES; REACTION TIME; STYRENES; SYNAPSES; TETRODOTOXIN;

EID: 0032829769     PISSN: 03064522     EISSN: None     Source Type: Journal    
DOI: 10.1016/S0306-4522(99)00348-6     Document Type: Article

References (26)

1. Arieli A., Shoham D., Hildesheim R., Grinvald A. Coherent spatiotemporal patterns of ongoing activity revealed by real-time optical imaging coupled with single-unit recording in the cat visual cortex. J. Neurophysiol. 73:1995;2072-2093.
2. i increases in the dendrites of cerebellar Purkinje neurons. J. Neurosci. 15:1995;2777-2787.
3. Chen G., Hanson C.L., Ebner T.J. Functional parasagittal compartments in the rat cerebellar cortex: an in vivo optical imaging study using neutral red. J. Neurophysiol. 76:1996;4169-4174.
4. Davila H.V., Salzberg B.M., Cohen L.B., Waggoner A.S. A large change in axon fluorescence that provides a promising method for measuring membrane potential. Nature New Biol. 241:1973;159-160.
5. Ebner T.J., Chen G. Use of voltage sensitive dyes and optical recordings in the central nervous system. Prog. Neurobiol. 46:1995;463-506.
6. Eccles J. C., Ito M. and Szentagothai J. (1967) The Cerebellum as a Neuronal Machine. Springer, Berlin.
7. Elias S.A., Yae H., Ebner T.J. Optical imaging of parallel fiber activation in the rat cerebellar cortex: spatial effects of excitatory amino acids. Neuroscience. 52:1993;771-786.
8. Fromherz P., Muller C.O. Cable properties of a straight neurite of a leech neuron probed by a voltage sensitive dye. Proc. natn. Acad. Sci. USA. 91:1994;4604-4608.
9. Grinvald A., Hildesheim R., Farber I.C., Anglister L. Improved fluorescent probes for the measurement of rapid changes in membrane potential. Biophys. J. 39:1982;301-308.
10. Grinvald A., Lieke E., Frostig R.D., Gilbert C.D., Wiesel T.N. Functional architecture of cortex revealed by optical imaging of intrinsic signals. Nature. 324:1986;361-364.
11. Grinvald A., Ross W.N., Farber I. Simultaneous optical measurements of electrical activity from multiple sites on processes of cultured neurons. Proc. natn. Acad. Sci. USA. 78:1981;3245-3249.
12. Ito M. (1984) The Cerebellum and Neural Control. Raven, New York.
13. Kim J.H., Dunn M.B., Hua Y., Rydberg J., Yae H., Elias S.A., Ebner T.J. Imaging of cerebellar surface activation in vivo using voltage sensitive dyes. Neuroscience. 31:1989;613-623.
14. Konnerth A., Obaid A.L., Salzberg B.M. Optical recording of electrical activity from parallel fibers and other cell types in skate cerebellar slices. J. Physiol. 393:1987;681-702.
15. Llinas R., Yarom Y., Sugimori M. Isolated mammalian brain in vitro: new technique for analysis of electrical activity of neuronal circuit function. Fedn Proc. 40:1981;2240-2245.
16. Llinas R. R. and Simpson J. I. (1981) Cerebellar control of movement. In Handbook of Behavioral Neurobiology (eds Towe A. L. and Luschei E. S.), Vol. 5, pp. 231-302. Plenum, New York.
17. Momose-Sato Y., Sato K., Hirota A., Kamino K. GABA-induced intrinsic light-scattering changes associated with voltage-sensitive dye signals in embryonic brain stem slices: coupling of depolarization and cell shrinkage. J. Neurophysiol. 79:1998;2208-2217.
18. Nakagami Y., Saito H., Matsuki N. Optical recording of trisynaptic pathway in rat hippocampal slices with a voltage-sensitive dye. Neuroscience. 81:1997;1-8.
19. Palay S. L. and Chan-Palay V. (1974) Cerebellar Cortex. Springer, New York.
20. Pichitpornchai C., Rawson J.A., Rees S. Morphology of parallel fibers in the cerebellar cortex of the rat: an experimental light and electron microscopic study with biocytin. J. comp. Neurol. 342:1994;206-220.
21. Rapp M., Segev I., Yarom Y. Physiology, morphology and detailed passive models of guinea-pig cerebellar Purkinje cells. J. Physiol. 474:1994;101-118.
22. Ross W.N., Werman R. Mapping calcium transients in the dendrites of Purkinje cells from the guinea-pig cerebellum in vitro. J. Physiol. 389:1987;319-336.
23. Salzberg B.M., Grinvald A., Cohen L.B., Davila H.V., Ross W.N. Optical recording of neuronal activity in an invertebrate central nervous system: simultaneous monitoring of several neurons. J. Neurophysiol. 40:1977;1281-1291.
24. Ts'o D.Y., Frostig R.D., Leike E.E., Grinvald A. Functional organization of primate visual cortex revealed by high resolusion optical imaging. Science. 249:1990;333-448.
25. Vranesic I., Iuima T., Ichikawam M., Matsumoto G., Knopfel T. Signal transmission in the parallel fiber-Purkinje cell system visualized by high resolution imaging. Proc. natn. Acad. Sci. USA. 91:1994;13,014-13,018.
26. Wang G., Tanaka K., Tanifuji M. Optical imaging of functional organization in the monkey inferotemporal cortex. Science. 272:1996;1665-1668.