Literature DB >> 18838610

Maternal photoperiodic history affects offspring development in Syrian hamsters.

Annaliese K Beery1, Matthew J Paul, David M Routman, Irving Zucker.   

Abstract

During the first 7 weeks of postnatal life, short day lengths inhibit the onset of puberty in many photoperiodic rodents, but not in Syrian hamsters. In this species, timing of puberty and fecundity are independent of the early postnatal photoperiod. Gestational day length affects postnatal reproductive development in several rodents; its role in Syrian hamsters has not been assessed. We tested the hypothesis that cumulative effects of pre- and postnatal short day lengths would restrain gonadal development in male Syrian hamsters. Males with prenatal short day exposure were generated by dams transferred to short day lengths 6 weeks, 3 weeks, and 0 weeks prior to mating. Additional groups were gestated in long day lengths and transferred to short days at birth, at 4 weeks of age, or not transferred (control hamsters). In pups of dams exposed to short day treatment throughout gestation, decreased testis growth was apparent by 3 weeks and persisted through 9 weeks of age, at which time maximum testis size was attained. A subset of males (14%), whose dams had been in short days for 3 to 6 weeks prior to mating displayed pronounced delays in testicular development, similar to those of other photoperiodic rodents. This treatment also increased the percentage of male offspring that underwent little or no gonadal regression postnatally (39%). By 19 weeks of age, males housed in short days completed spontaneous gonadal development. After prolonged long day treatment to break refractoriness, hamsters that initially were classified as nonregressors underwent testicular regression in response to a 2nd sequence of short day lengths. The combined action of prenatal and early postnatal short day lengths diminishes testicular growth of prepubertal Syrian hamsters no later than the 3rd week of postnatal life, albeit to a lesser extent than in other photoperiodic rodents.

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Year:  2008        PMID: 18838610      PMCID: PMC2636743          DOI: 10.1177/0748730408322985

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


  37 in total

1.  Maternal transfer of photoperiodic information in Siberian hamsters. IV. Peripubertal reproductive development in the absence of maternal photoperiodic signals during gestation.

Authors:  T H Horton; S A Stachecki; M H Stetson
Journal:  Biol Reprod       Date:  1990-03       Impact factor: 4.285

2.  Effects of a circadian mutation on seasonality in Syrian hamsters (Mesocricetus auratus).

Authors:  A S Loudon; N Ihara; M Menaker
Journal:  Proc Biol Sci       Date:  1998-03-22       Impact factor: 5.349

3.  Effect of asymmetrical reductions of photoperiod on pineal melatonin, locomotor activity and gonadal condition of male Syrian hamsters.

Authors:  M H Hastings; A P Walker; J Herbert
Journal:  J Endocrinol       Date:  1987-08       Impact factor: 4.286

4.  Interval timer control of puberty in photoinhibited Siberian hamsters.

Authors:  Jin Ho Park; Alexander S Kauffman; Matthew J Paul; Matthew P Butler; Annaliese K Beery; Ruth M Costantini; Irving Zucker
Journal:  J Biol Rhythms       Date:  2006-10       Impact factor: 3.182

5.  Sex differences in the onset of seasonal reproductive quiescence in hamsters.

Authors:  Annaliese K Beery; Justin J Trumbull; Jyeming M Tsao; Ruth M Costantini; Irving Zucker
Journal:  Proc Biol Sci       Date:  2007-01-22       Impact factor: 5.349

6.  Complex circadian regulation of pineal melatonin and wheel-running in Syrian hamsters.

Authors:  J A Elliott; L Tamarkin
Journal:  J Comp Physiol A       Date:  1994-04       Impact factor: 1.836

7.  Development of meadow voles is influenced postnatally by maternal photoperiodic history.

Authors:  T M Lee
Journal:  Am J Physiol       Date:  1993-10

Review 8.  The timed infusion paradigm for melatonin delivery: what has it taught us about the melatonin signal, its reception, and the photoperiodic control of seasonal responses?

Authors:  T J Bartness; J B Powers; M H Hastings; E L Bittman; B D Goldman
Journal:  J Pineal Res       Date:  1993-11       Impact factor: 13.007

9.  Simulated natural day lengths synchronize seasonal rhythms of asynchronously born male Siberian hamsters.

Authors:  Matthew P Butler; Kevin W Turner; Jin Ho Park; James P Butler; Justin J Trumbull; Sean P Dunn; Philip Villa; Irving Zucker
Journal:  Am J Physiol Regul Integr Comp Physiol       Date:  2007-04-11       Impact factor: 3.619

10.  Effects of prenatal and postnatal photoperiods and of the pineal gland on early testicular development in the marsh rice rat (Oryzomys palustris).

Authors:  K E Edmonds; M H Stetson
Journal:  Biol Reprod       Date:  1995-05       Impact factor: 4.285

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Authors:  Barbara Helm; Rachel Ben-Shlomo; Michael J Sheriff; Roelof A Hut; Russell Foster; Brian M Barnes; Davide Dominoni
Journal:  Proc Biol Sci       Date:  2013-07-03       Impact factor: 5.349

Review 2.  Influence of photoperiod on hormones, behavior, and immune function.

Authors:  James C Walton; Zachary M Weil; Randy J Nelson
Journal:  Front Neuroendocrinol       Date:  2010-12-13       Impact factor: 8.606

3.  Enhancement and suppression of ultradian and circadian rhythms across the female hamster reproductive cycle.

Authors:  Brian J Prendergast; Annaliese K Beery; Matthew J Paul; Irving Zucker
Journal:  J Biol Rhythms       Date:  2012-06       Impact factor: 3.182

4.  Exposure of C57BL/6J mice to long photoperiod during early life stages increases body weight and alters plasma metabolomic profiles in adulthood.

Authors:  Tatsuhiro Uchiwa; Yusuke Takai; Ayako Tashiro; Mitsuhiro Furuse; Shinobu Yasuo
Journal:  Physiol Rep       Date:  2016-09
  4 in total

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