Literature DB >> 33232577

A Guide to Fluorescence Lifetime Microscopy and Förster's Resonance Energy Transfer in Neuroscience.

Daniel J Liput1,2, Tuan A Nguyen3, Shana M Augustin1, Jeong Oen Lee1, Steven S Vogel3.   

Abstract

Fluorescence lifetime microscopy (FLIM) and Förster's resonance energy transfer (FRET) are advanced optical tools that neuroscientists can employ to interrogate the structure and function of complex biological systems in vitro and in vivo using light. In neurobiology they are primarily used to study protein-protein interactions, to study conformational changes in protein complexes, and to monitor genetically encoded FRET-based biosensors. These methods are ideally suited to optically monitor changes in neurons that are triggered optogenetically. Utilization of this technique by neuroscientists has been limited, since a broad understanding of FLIM and FRET requires familiarity with the interactions of light and matter on a quantum mechanical level, and because the ultra-fast instrumentation used to measure fluorescent lifetimes and resonance energy transfer are more at home in a physics lab than in a biology lab. In this overview, we aim to help neuroscientists overcome these obstacles and thus feel more comfortable with the FLIM-FRET method. Our goal is to aid researchers in the neuroscience community to achieve a better understanding of the fundamentals of FLIM-FRET and encourage them to fully leverage its powerful ability as a research tool. Published 2020. U.S. Government. Published 2020. This article is a US Government work and is in the public domain in the USA.

Entities:  

Keywords:  FLIM; FRET; FRET-based biosensor; conformational change; fiber-photometry; microscopy; protein-protein interaction

Mesh:

Year:  2020        PMID: 33232577      PMCID: PMC8274369          DOI: 10.1002/cpns.108

Source DB:  PubMed          Journal:  Curr Protoc Neurosci        ISSN: 1934-8576


  148 in total

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Journal:  Differentiation       Date:  2003-12       Impact factor: 3.880

2.  Singlet gradient index lens for deep in vivo multiphoton microscopy.

Authors:  Teresa A Murray; Michael J Levene
Journal:  J Biomed Opt       Date:  2012-02       Impact factor: 3.170

Review 3.  Fluorescence lifetime measurements and biological imaging.

Authors:  Mikhail Y Berezin; Samuel Achilefu
Journal:  Chem Rev       Date:  2010-05-12       Impact factor: 60.622

Review 4.  Neurobiology with caged calcium.

Authors:  Graham C R Ellis-Davies
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Review 5.  cAMP-dependent protein kinase: framework for a diverse family of regulatory enzymes.

Authors:  S S Taylor; J A Buechler; W Yonemoto
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Review 6.  FRET as a biomolecular research tool - understanding its potential while avoiding pitfalls.

Authors:  W Russ Algar; Niko Hildebrandt; Steven S Vogel; Igor L Medintz
Journal:  Nat Methods       Date:  2019-08-30       Impact factor: 28.547

7.  PKC gamma mutations in spinocerebellar ataxia type 14 affect C1 domain accessibility and kinase activity leading to aberrant MAPK signaling.

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8.  Estimating the distance separating fluorescent protein FRET pairs.

Authors:  Steven S Vogel; B Wieb van der Meer; Paul S Blank
Journal:  Methods       Date:  2013-06-25       Impact factor: 3.608

Review 9.  A Guide to Fluorescent Protein FRET Pairs.

Authors:  Bryce T Bajar; Emily S Wang; Shu Zhang; Michael Z Lin; Jun Chu
Journal:  Sensors (Basel)       Date:  2016-09-14       Impact factor: 3.576

10.  The impact of heterogeneity and dark acceptor states on FRET: implications for using fluorescent protein donors and acceptors.

Authors:  Steven S Vogel; Tuan A Nguyen; B Wieb van der Meer; Paul S Blank
Journal:  PLoS One       Date:  2012-11-13       Impact factor: 3.240

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  3 in total

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2.  Opto-electrical bimodal recording of neural activity in awake head-restrained mice.

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Journal:  Sci Rep       Date:  2022-01-14       Impact factor: 4.379

3.  Proteomic mapping and optogenetic manipulation of membrane contact sites.

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  3 in total

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