Optogenetic analysis of mammalian neural circuits

Standard

Optogenetic analysis of mammalian neural circuits. / Oertner, Thomas; Helmchen, Fritjof; de Lecea, Luis; Beck, Heinz; Konnerth, Arthur; Benjamin, Kaupp; Yawo, H; Knöpfel, Thomas; Hausser, Michael.

Optogenetics . Hrsg. / Peter Hegemann; Stefan Sigrist. Dahlem Workshop Reports. Aufl. Berlin : De Gryter, 2013. S. 109-126 10 (Dahlem Workshop Reports).

Publikationen: SCORING: Beitrag in Buch/SammelwerkSCORING: Beitrag in SammelwerkForschung

Harvard

Oertner, T, Helmchen, F, de Lecea, L, Beck, H, Konnerth, A, Benjamin, K, Yawo, H, Knöpfel, T & Hausser, M 2013, Optogenetic analysis of mammalian neural circuits. in P Hegemann & S Sigrist (Hrsg.), Optogenetics . Dahlem Workshop Reports Aufl., 10, Dahlem Workshop Reports, De Gryter, Berlin, S. 109-126.

APA

Oertner, T., Helmchen, F., de Lecea, L., Beck, H., Konnerth, A., Benjamin, K., Yawo, H., Knöpfel, T., & Hausser, M. (2013). Optogenetic analysis of mammalian neural circuits. in P. Hegemann, & S. Sigrist (Hrsg.), Optogenetics (Dahlem Workshop Reports Aufl., S. 109-126). [10] (Dahlem Workshop Reports). De Gryter.

Vancouver

Oertner T, Helmchen F, de Lecea L, Beck H, Konnerth A, Benjamin K et al. Optogenetic analysis of mammalian neural circuits. in Hegemann P, Sigrist S, Hrsg., Optogenetics . Dahlem Workshop Reports Aufl. Berlin: De Gryter. 2013. S. 109-126. 10. (Dahlem Workshop Reports).

Bibtex

@inbook{52ff55d3ff894fd2838cabcc6c29a2b4,
title = "Optogenetic analysis of mammalian neural circuits",
abstract = "The identification, characterization and development of optogenetic probes,described extensively in the previous chapters, have provided us with a remarkable set of tools for probing brain function. The resulting “optogenetic revolution” has captured the attention of a whole generation of scientists working at different levels of nervous system function. The power of the optogenetic approach is particularly appealing for those working at the levels of neural circuits and neural systems in the mammalian brain. This is because circuits and systems pose special challenges – and offer remarkable opportunities – for experimenters seeking to understand the functional organization of the mammalian brain. Neural circuits and systems are at the interface between the cellular and molecular levels of analysis and higher-level functions such as behavior and cognition; thus, any mechanistic understanding of brain function must embrace the level of the circuit as an essential bridging element. However, not only are mammalian circuits incredibly complex, consisting of diverse cell types with elaborate morphologies linked by intricate webs of synaptic connections; but activity patterns in neural circuits during behavior take place on the millisecond timescale and engage thousands to millions of neurons. It is partly because of this complexity that optogenetics holds such promise, because it offers the possibility of precisely targeted interventions both in space and time. In this chapter we will discuss how optogenetics has helped us to address fundamental questions at each of these levels, and also outline some of the challenges that remain, both for interpreting existing experimental data, and in designing new probes and approaches for maximizing the power of optogenetic intervention.",
author = "Thomas Oertner and Fritjof Helmchen and {de Lecea}, Luis and Heinz Beck and Arthur Konnerth and Kaupp Benjamin and H Yawo and Thomas Kn{\"o}pfel and Michael Hausser",
year = "2013",
language = "English",
isbn = "978-3-11-027072-3",
series = "Dahlem Workshop Reports",
publisher = "De Gryter",
pages = "109--126",
editor = "Peter Hegemann and Stefan Sigrist",
booktitle = "Optogenetics",
edition = "Dahlem Workshop Reports",

}

RIS

TY - CHAP

T1 - Optogenetic analysis of mammalian neural circuits

AU - Oertner, Thomas

AU - Helmchen, Fritjof

AU - de Lecea, Luis

AU - Beck, Heinz

AU - Konnerth, Arthur

AU - Benjamin, Kaupp

AU - Yawo, H

AU - Knöpfel, Thomas

AU - Hausser, Michael

PY - 2013

Y1 - 2013

N2 - The identification, characterization and development of optogenetic probes,described extensively in the previous chapters, have provided us with a remarkable set of tools for probing brain function. The resulting “optogenetic revolution” has captured the attention of a whole generation of scientists working at different levels of nervous system function. The power of the optogenetic approach is particularly appealing for those working at the levels of neural circuits and neural systems in the mammalian brain. This is because circuits and systems pose special challenges – and offer remarkable opportunities – for experimenters seeking to understand the functional organization of the mammalian brain. Neural circuits and systems are at the interface between the cellular and molecular levels of analysis and higher-level functions such as behavior and cognition; thus, any mechanistic understanding of brain function must embrace the level of the circuit as an essential bridging element. However, not only are mammalian circuits incredibly complex, consisting of diverse cell types with elaborate morphologies linked by intricate webs of synaptic connections; but activity patterns in neural circuits during behavior take place on the millisecond timescale and engage thousands to millions of neurons. It is partly because of this complexity that optogenetics holds such promise, because it offers the possibility of precisely targeted interventions both in space and time. In this chapter we will discuss how optogenetics has helped us to address fundamental questions at each of these levels, and also outline some of the challenges that remain, both for interpreting existing experimental data, and in designing new probes and approaches for maximizing the power of optogenetic intervention.

AB - The identification, characterization and development of optogenetic probes,described extensively in the previous chapters, have provided us with a remarkable set of tools for probing brain function. The resulting “optogenetic revolution” has captured the attention of a whole generation of scientists working at different levels of nervous system function. The power of the optogenetic approach is particularly appealing for those working at the levels of neural circuits and neural systems in the mammalian brain. This is because circuits and systems pose special challenges – and offer remarkable opportunities – for experimenters seeking to understand the functional organization of the mammalian brain. Neural circuits and systems are at the interface between the cellular and molecular levels of analysis and higher-level functions such as behavior and cognition; thus, any mechanistic understanding of brain function must embrace the level of the circuit as an essential bridging element. However, not only are mammalian circuits incredibly complex, consisting of diverse cell types with elaborate morphologies linked by intricate webs of synaptic connections; but activity patterns in neural circuits during behavior take place on the millisecond timescale and engage thousands to millions of neurons. It is partly because of this complexity that optogenetics holds such promise, because it offers the possibility of precisely targeted interventions both in space and time. In this chapter we will discuss how optogenetics has helped us to address fundamental questions at each of these levels, and also outline some of the challenges that remain, both for interpreting existing experimental data, and in designing new probes and approaches for maximizing the power of optogenetic intervention.

M3 - SCORING: Contribution to collected editions/anthologies

SN - 978-3-11-027072-3

T3 - Dahlem Workshop Reports

SP - 109

EP - 126

BT - Optogenetics

A2 - Hegemann, Peter

A2 - Sigrist, Stefan

PB - De Gryter

CY - Berlin

ER -