Literature DB >> 18419259

Biological Rhythms Workshop IA: molecular basis of rhythms generation.

S R Mackey1.   

Abstract

Current circadian models are based on genetic, biochemical, and structural data that, when combined, provide a comprehensive picture of the molecular basis for rhythms generation. These models describe three basic elements-input pathways, oscillator, and output pathways-to which each molecular component is assigned. The lines between these elements are often blurred because some proteins function in more than one element of the circadian system. The end result of these molecular oscillations is the same in each system (near 24-hour timing), yet the proteins involved, the interactions among those proteins, and the regulatory feedback loops differ. Here, the currentmodels for the molecular basis for rhythms generation are described for the prokaryotic cyanobacterium Synechococcus elongatus as well as the eukaryotic systems Neurospora crassa, Drosophila melanogaster, Arabidopsis thaliana, and mammals (particularly rodents).

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Year:  2007        PMID: 18419259     DOI: 10.1101/sqb.2007.72.060

Source DB:  PubMed          Journal:  Cold Spring Harb Symp Quant Biol        ISSN: 0091-7451


  15 in total

1.  Closing the circadian negative feedback loop: FRQ-dependent clearance of WC-1 from the nucleus.

Authors:  Christian I Hong; Peter Ruoff; Jennifer J Loros; Jay C Dunlap
Journal:  Genes Dev       Date:  2008-11-07       Impact factor: 11.361

2.  FRQ-interacting RNA helicase mediates negative and positive feedback in the Neurospora circadian clock.

Authors:  Mi Shi; Michael Collett; Jennifer J Loros; Jay C Dunlap
Journal:  Genetics       Date:  2009-11-30       Impact factor: 4.562

Review 3.  Collective timekeeping among cells of the master circadian clock.

Authors:  Jennifer A Evans
Journal:  J Endocrinol       Date:  2016-05-06       Impact factor: 4.286

Review 4.  Perfect timing: circadian rhythms, sleep, and immunity - an NIH workshop summary.

Authors:  Jeffrey A Haspel; Ron Anafi; Marishka K Brown; Nicolas Cermakian; Christopher Depner; Paula Desplats; Andrew E Gelman; Monika Haack; Sanja Jelic; Brian S Kim; Aaron D Laposky; Yvonne C Lee; Emmanuel Mongodin; Aric A Prather; Brian J Prendergast; Colin Reardon; Albert C Shaw; Shaon Sengupta; Éva Szentirmai; Mahesh Thakkar; Wendy E Walker; Laura A Solt
Journal:  JCI Insight       Date:  2020-01-16

5.  Methylselenocysteine resets the rhythmic expression of circadian and growth-regulatory genes disrupted by nitrosomethylurea in vivo.

Authors:  Ming Zhu Fang; Xun Zhang; Helmut Zarbl
Journal:  Cancer Prev Res (Phila)       Date:  2010-04-27

Review 6.  In synch but not in step: Circadian clock circuits regulating plasticity in daily rhythms.

Authors:  J A Evans; M R Gorman
Journal:  Neuroscience       Date:  2016-02-06       Impact factor: 3.590

7.  Casein kinase 1-dependent phosphorylation of familial advanced sleep phase syndrome-associated residues controls PERIOD 2 stability.

Authors:  Naval P Shanware; John A Hutchinson; Sang Hwa Kim; Lihong Zhan; Michael J Bowler; Randal S Tibbetts
Journal:  J Biol Chem       Date:  2011-02-15       Impact factor: 5.157

8.  Cry1-/- circadian rhythmicity depends on SCN intercellular coupling.

Authors:  Jennifer A Evans; Haiyun Pan; Andrew C Liu; David K Welsh
Journal:  J Biol Rhythms       Date:  2012-12       Impact factor: 3.182

9.  Asymmetric vasopressin signaling spatially organizes the master circadian clock.

Authors:  Joseph L Bedont; Kayla E Rohr; Abhijith Bathini; Samer Hattar; Seth Blackshaw; Amita Sehgal; Jennifer A Evans
Journal:  J Comp Neurol       Date:  2018-08-22       Impact factor: 3.215

10.  Evidence that human blastomere cleavage is under unique cell cycle control.

Authors:  Ann A Kiessling; Ritsa Bletsa; Bryan Desmarais; Christina Mara; Kostas Kallianidis; Dimitris Loutradis
Journal:  J Assist Reprod Genet       Date:  2009-03-14       Impact factor: 3.412

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