Literature DB >> 27780004

Effects of Daytime Exposure to Light from Blue-Enriched Light-Emitting Diodes on the Nighttime Melatonin Amplitude and Circadian Regulation of Rodent Metabolism and Physiology.

Robert T Dauchy1, Melissa A Wren-Dail2, Aaron E Hoffman3, John P Hanifin4, Benjamin Warfield4, George C Brainard4, Steven M Hill2, Victoria P Belancio2, Erin M Dauchy2, David E Blask2.   

Abstract

Regular cycles of exposure to light and dark control pineal melatonin production and temporally coordinate circadian rhythms of metabolism and physiology in mammals. Previously we demonstrated that the peak circadian amplitude of nocturnal blood melatonin levels of rats were more than 6-fold higher after exposure to cool white fluorescent (CWF) light through blue-tinted (compared with clear) rodent cages. Here, we evaluated the effects of light-phase exposure of rats to white light-emitting diodes (LED), which emit light rich in the blue-appearing portion of the visible spectrum (465-485 nm), compared with standard broadspectrum CWF light, on melatonin levels during the subsequent dark phase and on plasma measures of metabolism and physiology. Compared with those in male rats under a 12:12-h light:dark cycle in CWF light, peak plasma melatonin levels at the middark phase (time, 2400) in rats under daytime LED light were over 7-fold higher, whereas midlight phase levels (1200) were low in both groups. Food and water intakes, body growth rate, and total fatty acid content of major metabolic tissues were markedly lower, whereas protein content was higher, in the LED group compared with CWF group. Circadian rhythms of arterial plasma levels of total fatty acids, glucose, lactic acid, pO2, pCO2, insulin, leptin, and corticosterone were generally lower in LED-exposed rats. Therefore, daytime exposure of rats to LED light with high blue emissions has a marked positive effect on the circadian regulation of neuroendocrine, metabolic, and physiologic parameters associated with the promotion of animal health and wellbeing and thus may influence scientific outcomes.

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Year:  2016        PMID: 27780004      PMCID: PMC5073062     

Source DB:  PubMed          Journal:  Comp Med        ISSN: 1532-0820            Impact factor:   0.982


  50 in total

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Authors:  Michael E Hughes; John B Hogenesch; Karl Kornacker
Journal:  J Biol Rhythms       Date:  2010-10       Impact factor: 3.182

2.  Melanopsin-expressing ganglion cells in primate retina signal colour and irradiance and project to the LGN.

Authors:  Dennis M Dacey; Hsi-Wen Liao; Beth B Peterson; Farrel R Robinson; Vivianne C Smith; Joel Pokorny; King-Wai Yau; Paul D Gamlin
Journal:  Nature       Date:  2005-02-17       Impact factor: 49.962

3.  Circadian control of insulin secretion is independent of the temporal distribution of feeding.

Authors:  A Kalsbeek; J H Strubbe
Journal:  Physiol Behav       Date:  1998-02-15

4.  Human melatonin regulation is not mediated by the three cone photopic visual system.

Authors:  G C Brainard; J P Hanifin; M D Rollag; J Greeson; B Byrne; G Glickman; E Gerner; B Sanford
Journal:  J Clin Endocrinol Metab       Date:  2001-01       Impact factor: 5.958

5.  Midwinter insomnia in the subarctic region: evening levels of serum melatonin and cortisol before and after treatment with bright artificial light.

Authors:  T Hansen; T Bratlid; O Lingjärde; T Brenn
Journal:  Acta Psychiatr Scand       Date:  1987-04       Impact factor: 6.392

6.  Increased breast cancer risk among women who work predominantly at night.

Authors:  J Hansen
Journal:  Epidemiology       Date:  2001-01       Impact factor: 4.822

7.  Dark-phase light contamination disrupts circadian rhythms in plasma measures of endocrine physiology and metabolism in rats.

Authors:  Robert T Dauchy; Erin M Dauchy; Robert P Tirrell; Cody R Hill; Leslie K Davidson; Michael W Greene; Paul C Tirrell; Jinghai Wu; Leonard A Sauer; David E Blask
Journal:  Comp Med       Date:  2010-10       Impact factor: 0.982

Review 8.  Changes in body composition in response to challenges during aging in rats.

Authors:  Tami Wolden-Hanson
Journal:  Interdiscip Top Gerontol       Date:  2010-08-10

9.  Rod photoreceptors drive circadian photoentrainment across a wide range of light intensities.

Authors:  Cara M Altimus; Ali D Güler; Nazia M Alam; A Cyrus Arman; Glen T Prusky; Alapakkam P Sampath; Samer Hattar
Journal:  Nat Neurosci       Date:  2010-08-15       Impact factor: 24.884

10.  Melanopsin and rod-cone photoreceptive systems account for all major accessory visual functions in mice.

Authors:  S Hattar; R J Lucas; N Mrosovsky; S Thompson; R H Douglas; M W Hankins; J Lem; M Biel; F Hofmann; R G Foster; K-W Yau
Journal:  Nature       Date:  2003-06-15       Impact factor: 49.962

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  14 in total

1.  Effects of light at night on laboratory animals and research outcomes.

Authors:  Kathryn M Emmer; Kathryn L G Russart; William H Walker; Randy J Nelson; A Courtney DeVries
Journal:  Behav Neurosci       Date:  2018-06-28       Impact factor: 1.912

2.  Relevance of Electrical Light on Circadian, Neuroendocrine, and Neurobehavioral Regulation in Laboratory Animal Facilities.

Authors:  John P Hanifin; Robert T Dauchy; David E Blask; Steven M Hill; George C Brainard
Journal:  ILAR J       Date:  2020-10-19

Review 3.  Circadian MicroRNAs in Cardioprotection.

Authors:  Yoshimasa Oyama; Colleen Marie Bartman; Jennifer Gile; Tobias Eckle
Journal:  Curr Pharm Des       Date:  2017       Impact factor: 3.116

4.  Effect of Daytime Blue-enriched LED Light on the Nighttime Circadian Melatonin Inhibition of Hepatoma 7288CTC Warburg Effect and Progression.

Authors:  Robert T Dauchy; Melissa A Wren-Dail; Lynell M Dupepe; Steven M Hill; Shulin Xiang; Muralidharan Anbalagan; Victoria P Belancio; Erin M Dauchy; David E Blask
Journal:  Comp Med       Date:  2018-06-06       Impact factor: 0.982

5.  Abnormal environmental light exposure in the intensive care environment.

Authors:  Emily P Fan; Sabra M Abbott; Kathryn J Reid; Phyllis C Zee; Matthew B Maas
Journal:  J Crit Care       Date:  2017-03-07       Impact factor: 3.425

Review 6.  Circadian-Hypoxia Link and its Potential for Treatment of Cardiovascular Disease.

Authors:  Colleen Marie Bartman; Tobias Eckle
Journal:  Curr Pharm Des       Date:  2019       Impact factor: 3.116

Review 7.  Circadian Rhythms, Disease and Chronotherapy.

Authors:  Yool Lee; Jeffrey M Field; Amita Sehgal
Journal:  J Biol Rhythms       Date:  2021-09-22       Impact factor: 3.649

8.  Influence of Daytime LED Light Exposure on Circadian Regulatory Dynamics of Metabolism and Physiology in Mice.

Authors:  Robert T Dauchy; David E Blask; Aaron E Hoffman; Shulin Xiang; John P Hanifin; Benjamin Warfield; George C Brainard; Murali Anbalagan; Lynell M Dupepe; Georgina L Dobek; Victoria P Belancio; Erin M Dauchy; Steven M Hill
Journal:  Comp Med       Date:  2019-09-20       Impact factor: 0.982

9.  Effects of Daytime Blue-Enriched LED Light on Physiologic Parameters of Three Common Mouse Strains Maintained on an IVC System.

Authors:  George B Voros; Robert T Dauchy; Leann Myers; Steven M Hill; David E Blask; Georgina L Dobek
Journal:  J Am Assoc Lab Anim Sci       Date:  2021-03-05       Impact factor: 1.232

10.  Bright daytime light enhances circadian amplitude in a diurnal mammal.

Authors:  Beatriz Bano-Otalora; Franck Martial; Court Harding; David A Bechtold; Annette E Allen; Timothy M Brown; Mino D C Belle; Robert J Lucas
Journal:  Proc Natl Acad Sci U S A       Date:  2021-06-01       Impact factor: 12.779

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