Literature DB >> 21921293

Photic resetting and entrainment in CLOCK-deficient mice.

Robert Dallmann1, Jason P DeBruyne, David R Weaver.   

Abstract

Mice lacking the CLOCK protein have a relatively subtle circadian phenotype, including a slightly shorter period in constant darkness, differences in phase resetting after 4-hour light pulses in the early and late night, and a variably advanced phase angle of entrainment in a light-dark (LD) cycle. The present series of experiments was conducted to more fully characterize the circadian phenotype of Clock(-/-) mice under various lighting conditions. A phase-response curve (PRC) to 4-hour light pulses in free-running mice was conducted; the results confirm that Clock(-/-) mice exhibit very large phase advances after 4-hour light pulses in the late subjective night but have relatively normal responses to light at other phases. The abnormal shape of the PRC to light may explain the tendency of CLOCK-deficient mice to begin activity before lights-out when housed in a 12-hour light:12-hour dark lighting schedule. To assess this relationship further, Clock(-/-) and wild-type control mice were entrained to skeleton lighting cycles (1L:23D and 1L:10D:1L:12D). Comparing entrainment under the 2 types of skeleton photoperiods revealed that exposure to 1-hour light in the morning leads to a phase advance of activity onset (expressed the following afternoon) in Clock(-/-) mice but not in the controls. Constant light typically causes an intensity-dependent increase in circadian period in mice, but this did not occur in CLOCK-deficient mice. The failure of Clock(-/-) mice to respond to the period-lengthening effect of constant light likely results from the increased functional impact of light falling in the phase advance zone of the PRC. Collectively, these experiments reveal that alterations in the response of CLOCK-deficient mice to light in several paradigms are likely due to an imbalance in the shape of the PRC to light.
© 2011 The Author(s)

Entities:  

Mesh:

Substances:

Year:  2011        PMID: 21921293      PMCID: PMC3437920          DOI: 10.1177/0748730411414345

Source DB:  PubMed          Journal:  J Biol Rhythms        ISSN: 0748-7304            Impact factor:   3.182


  38 in total

1.  Peripheral circadian oscillators require CLOCK.

Authors:  Jason P DeBruyne; David R Weaver; Steven M Reppert
Journal:  Curr Biol       Date:  2007-07-17       Impact factor: 10.834

2.  Cellular construction of a circadian clock: period determination in the suprachiasmatic nuclei.

Authors:  C Liu; D R Weaver; S H Strogatz; S M Reppert
Journal:  Cell       Date:  1997-12-12       Impact factor: 41.582

3.  Long-term constant light induces constitutive elevated expression of mPER2 protein in the murine SCN: a molecular basis for Aschoff's rule?

Authors:  Marta Muñoz; Stuart N Peirson; Mark W Hankins; Russell G Foster
Journal:  J Biol Rhythms       Date:  2005-02       Impact factor: 3.182

4.  The mouse Clock mutation behaves as an antimorph and maps within the W19H deletion, distal of Kit.

Authors:  D P King; M H Vitaterna; A M Chang; W F Dove; L H Pinto; F W Turek; J S Takahashi
Journal:  Genetics       Date:  1997-07       Impact factor: 4.562

5.  mCRY1 and mCRY2 are essential components of the negative limb of the circadian clock feedback loop.

Authors:  K Kume; M J Zylka; S Sriram; L P Shearman; D R Weaver; X Jin; E S Maywood; M H Hastings; S M Reppert
Journal:  Cell       Date:  1999-07-23       Impact factor: 41.582

6.  Phase responses to light pulses in mice lacking functional per or cry genes.

Authors:  Kamiel Spoelstra; Urs Albrecht; Gijsbertus T J van der Horst; Verena Brauer; Serge Daan
Journal:  J Biol Rhythms       Date:  2004-12       Impact factor: 3.182

7.  A clock shock: mouse CLOCK is not required for circadian oscillator function.

Authors:  Jason P Debruyne; Elizabeth Noton; Christopher M Lambert; Elizabeth S Maywood; David R Weaver; Steven M Reppert
Journal:  Neuron       Date:  2006-05-04       Impact factor: 17.173

8.  The circadian Clock mutant mouse: impaired masking response to light.

Authors:  Uwe Redlin; Samer Hattar; N Mrosovsky
Journal:  J Comp Physiol A Neuroethol Sens Neural Behav Physiol       Date:  2004-11-19       Impact factor: 1.836

9.  A molecular mechanism regulating rhythmic output from the suprachiasmatic circadian clock.

Authors:  X Jin; L P Shearman; D R Weaver; M J Zylka; G J de Vries; S M Reppert
Journal:  Cell       Date:  1999-01-08       Impact factor: 41.582

10.  Positional cloning of the mouse circadian clock gene.

Authors:  D P King; Y Zhao; A M Sangoram; L D Wilsbacher; M Tanaka; M P Antoch; T D Steeves; M H Vitaterna; J M Kornhauser; P L Lowrey; F W Turek; J S Takahashi
Journal:  Cell       Date:  1997-05-16       Impact factor: 41.582

View more
  11 in total

1.  TIMELESS mutation alters phase responsiveness and causes advanced sleep phase.

Authors:  Philip Kurien; Pei-Ken Hsu; Jacy Leon; David Wu; Thomas McMahon; Guangsen Shi; Ying Xu; Anna Lipzen; Len A Pennacchio; Christopher R Jones; Ying-Hui Fu; Louis J Ptáček
Journal:  Proc Natl Acad Sci U S A       Date:  2019-05-28       Impact factor: 11.205

Review 2.  Metabolism and the circadian clock converge.

Authors:  Kristin Eckel-Mahan; Paolo Sassone-Corsi
Journal:  Physiol Rev       Date:  2013-01       Impact factor: 37.312

3.  The hepatic circadian clock modulates xenobiotic metabolism in mice.

Authors:  Jason P DeBruyne; David R Weaver; Robert Dallmann
Journal:  J Biol Rhythms       Date:  2014-08       Impact factor: 3.182

4.  The duper mutation reveals previously unsuspected functions of Cryptochrome 1 in circadian entrainment and heart disease.

Authors:  Chip Sisson; Michael Seifu Bahiru; Emily N C Manoogian; Eric L Bittman
Journal:  Proc Natl Acad Sci U S A       Date:  2022-08-05       Impact factor: 12.779

5.  Circadian transcription factor NPAS2 and the NAD+ -dependent deacetylase SIRT1 interact in the mouse nucleus accumbens and regulate reward.

Authors:  Darius D Becker-Krail; Puja K Parekh; Kyle D Ketchesin; Shintaro Yamaguchi; Jun Yoshino; Mariah A Hildebrand; Brandan Dunham; Madhavi K Ganapathiraju; Ryan W Logan; Colleen A McClung
Journal:  Eur J Neurosci       Date:  2022-01-20       Impact factor: 3.698

6.  Constant light enhances synchrony among circadian clock cells and promotes behavioral rhythms in VPAC2-signaling deficient mice.

Authors:  Alun T L Hughes; Cara L Croft; Rayna E Samuels; Jihwan Myung; Toru Takumi; Hugh D Piggins
Journal:  Sci Rep       Date:  2015-09-15       Impact factor: 4.379

7.  Phosphorylation of a central clock transcription factor is required for thermal but not photic entrainment.

Authors:  Euna Lee; Eun Hee Jeong; Hyun-Jeong Jeong; Evrim Yildirim; Jens T Vanselow; Fanny Ng; Yixiao Liu; Guruswamy Mahesh; Achim Kramer; Paul E Hardin; Isaac Edery; Eun Young Kim
Journal:  PLoS Genet       Date:  2014-08-14       Impact factor: 5.917

8.  NPAS2 Compensates for Loss of CLOCK in Peripheral Circadian Oscillators.

Authors:  Dominic Landgraf; Lexie L Wang; Tanja Diemer; David K Welsh
Journal:  PLoS Genet       Date:  2016-02-19       Impact factor: 5.917

9.  Suppressed cellular oscillations in after-hours mutant mice are associated with enhanced circadian phase-resetting.

Authors:  Clare Guilding; Fiona Scott; David A Bechtold; Timothy M Brown; Sven Wegner; Hugh D Piggins
Journal:  J Physiol       Date:  2012-12-03       Impact factor: 5.182

Review 10.  Interdependence of nutrient metabolism and the circadian clock system: Importance for metabolic health.

Authors:  Aleix Ribas-Latre; Kristin Eckel-Mahan
Journal:  Mol Metab       Date:  2016-01-14       Impact factor: 7.422

View more

北京卡尤迪生物科技股份有限公司 © 2022-2023.