Daniel Appenroth
Overview
Explore the profile of Daniel Appenroth including associated specialties, affiliations and a list of published articles.
Author names and details appear as published. Due to indexing inconsistencies, multiple individuals may share a name, and a single author may have variations. MedLuna displays this data as publicly available, without modification or verification
Snapshot
Snapshot
Articles
9
Citations
27
Followers
0
Related Specialties
Related Specialties
Top 10 Co-Authors
Top 10 Co-Authors
Published In
Published In
Affiliations
Affiliations
Soon will be listed here.
Recent Articles
1.
Appenroth D, Ravuri C, Torppa S, Wood S, Hazlerigg D, West A
J Biol Rhythms
. 2024 Oct;
39(6):554-567.
PMID: 39370744
Circadian rhythms synchronize the internal physiology of animals allowing them to anticipate daily changes in their environment. Arctic habitats may diminish the selective advantages of circadian rhythmicity by relaxing daily...
2.
Appenroth D, West A, Wood S, Hazlerigg D
J Comp Physiol A Neuroethol Sens Neural Behav Physiol
. 2024 Sep;
211(1):87-99.
PMID: 39299992
In mammals and birds, tanycytes are known to regulate thyroid hormone conversion, and this process is central to the control of seasonal reproduction. In mammals, this cell type is also...
3.
Appenroth D, Cazarez-Marquez F
Neuropharmacology
. 2024 Jun;
257:110050.
PMID: 38914372
Animals inhabiting temperate and high latitudes undergo drastic seasonal changes in energy storage, facilitated by changes in food intake and body mass. Those seasonal changes in the animal's biology are...
4.
Hazlerigg D, Appenroth D, Tomotani B, West A, Wood S
J Exp Biol
. 2023 Nov;
226(23).
PMID: 38031958
The polar regions receive less solar energy than anywhere else on Earth, with the greatest year-round variation in daily light exposure; this produces highly seasonal environments, with short summers and...
5.
van Dalum M, van Rosmalen L, Appenroth D, Cazarez Marquez F, Roodenrijs R, de Wit L, et al.
J Biol Rhythms
. 2023 Aug;
38(6):586-600.
PMID: 37565646
Seasonal mammals register photoperiodic changes through the photoneuroendocrine system enabling them to time seasonal changes in growth, metabolism, and reproduction. To a varying extent, proximate environmental factors like ambient temperature...
6.
Appenroth D, Wagner G, Hazlerigg D, West A
Curr Biol
. 2021 Apr;
31(12):2720-2727.e5.
PMID: 33930302
The high Arctic archipelago of Svalbard (74°-81° north) experiences extended periods of uninterrupted daylight in summer and uninterrupted night in winter, apparently relaxing the major driver for the evolution of...
7.
van Rosmalen L, van Dalum J, Appenroth D, Roodenrijs R, de Wit L, Hazlerigg D, et al.
FASEB J
. 2021 Apr;
35(5):e21605.
PMID: 33913553
Global warming is predicted to have major effects on the annual time windows during which species may successfully reproduce. At the organismal level, climatic shifts engage with the control mechanism...
8.
Appenroth D, Nord A, Hazlerigg D, Wagner G
Front Physiol
. 2021 Mar;
12:633866.
PMID: 33762966
Organisms use circadian rhythms to anticipate and exploit daily environmental oscillations. While circadian rhythms are of clear importance for inhabitants of tropic and temperate latitudes, its role for permanent residents...
9.
Appenroth D, Melum V, West A, Dardente H, Hazlerigg D, Wagner G
J Exp Biol
. 2020 Jun;
223(Pt 16).
PMID: 32587064
Organisms use changes in photoperiod to anticipate and exploit favourable conditions in a seasonal environment. While species living at temperate latitudes receive day length information as a year-round input, species...