tbd (in Japanese)

Andrew Millar

tbd (in Japanese)

Translated title of the contribution: Timing beyond transcription, in plants

Andrew Millar

School of Biological Sciences

Research output: Contribution to journal › Literature review

Abstract

Circadian rhythms were first observed in plants. Molecular genetic studies since 1991 have identified a complex gene regulatory network in the plant circadian clock. Systems biology approaches since 2005 have used mathematical models to understand its mechanism. In 2011, the paradigm of a clock based on transcriptional regulation was called into doubt, by a rediscovery of non-transcriptional timing. The new data suggest that the non-transcriptional clock may be ancestral, and common to all eukaryotes, whereas transcriptional clock circuits evolved much more recently.

Translated title of the contribution	Timing beyond transcription, in plants
Original language	Other
Journal	Saibou Kougaku (Cell Technology)
Volume	30
Issue number	12
Publication status	Published - 2012

Keywords

Biological Clocks
Gene Regulatory Networks
Plant science
Metabolic Networks and Pathways
Circadian Rhythms

TiMet: Linking the clock to metabolism
Millar, A.
EU government bodies
1/03/10 → 28/02/15
Project: Research
SynthSys; formerly CSBE: Centre for Systems Biology at Edinburgh
Millar, A., Beggs, J., Ghazal, P., Goryanin, I., Hillston, J., Plotkin, G., Tollervey, D., Walton, A. & Robertson, K.
BBSRC
8/01/07 → 31/12/12
Project: Research

Cite this

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title = "tbd (in Japanese)",

abstract = "Circadian rhythms were first observed in plants. Molecular genetic studies since 1991 have identified a complex gene regulatory network in the plant circadian clock. Systems biology approaches since 2005 have used mathematical models to understand its mechanism. In 2011, the paradigm of a clock based on transcriptional regulation was called into doubt, by a rediscovery of non-transcriptional timing. The new data suggest that the non-transcriptional clock may be ancestral, and common to all eukaryotes, whereas transcriptional clock circuits evolved much more recently.",

keywords = "Biological Clocks, Gene Regulatory Networks, Plant science , Metabolic Networks and Pathways, Circadian Rhythms",

author = "Andrew Millar",

year = "2012",

language = "Other",

volume = "30",

journal = "Saibou Kougaku (Cell Technology)",

number = "12",

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TY - JOUR

T1 - tbd (in Japanese)

AU - Millar, Andrew

PY - 2012

Y1 - 2012

N2 - Circadian rhythms were first observed in plants. Molecular genetic studies since 1991 have identified a complex gene regulatory network in the plant circadian clock. Systems biology approaches since 2005 have used mathematical models to understand its mechanism. In 2011, the paradigm of a clock based on transcriptional regulation was called into doubt, by a rediscovery of non-transcriptional timing. The new data suggest that the non-transcriptional clock may be ancestral, and common to all eukaryotes, whereas transcriptional clock circuits evolved much more recently.

AB - Circadian rhythms were first observed in plants. Molecular genetic studies since 1991 have identified a complex gene regulatory network in the plant circadian clock. Systems biology approaches since 2005 have used mathematical models to understand its mechanism. In 2011, the paradigm of a clock based on transcriptional regulation was called into doubt, by a rediscovery of non-transcriptional timing. The new data suggest that the non-transcriptional clock may be ancestral, and common to all eukaryotes, whereas transcriptional clock circuits evolved much more recently.

KW - Biological Clocks

KW - Gene Regulatory Networks

KW - Plant science

KW - Metabolic Networks and Pathways

KW - Circadian Rhythms

M3 - Literature review

VL - 30

JO - Saibou Kougaku (Cell Technology)

JF - Saibou Kougaku (Cell Technology)

IS - 12

ER -

tbd (in Japanese)

Abstract

Keywords

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Projects

TiMet: Linking the clock to metabolism

SynthSys; formerly CSBE: Centre for Systems Biology at Edinburgh

Cite this