Data from: Baby fish working out: an epigenetic source of adaptive variation in the cichlid jaw

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larval development;developmental plasticity;Craniofacial;Labeotropheus fuelleborni;Maylandia zebra;Tropheops tropheops

DOI：

doi:10.5061/dryad.s8fn4

摘要：

ting the mechanical environment in which bone develops. Consistent with this, we found that both natural variation and experimental manipulation of this behaviour induced

Data from: Whole-genome sequences of Malawi cichlids reveal multiple radiations interconnected by gene flow

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Lethrinops auritus;Placidochromis cf. longimanus;Fossorochromis rostratus;Lethrinops gossei;Tyrannochromis nigriventer;Dimidiochromis dimidiatus;Astatotilapia burtoni;Otopharynx tetrastigma;Rhamphochromis woodi;Stigmatochromis modestus;Aulonocara \u2018minutus\u2019;Placidochromis johnstoni;Diplotaxodon \u2018macrops black dorsal\u2019;Lethrinops \u2018longimanus redhead\u2019;Astatotilapia bloyeti;Chilotilapia rhoadesii;Dimidiochromis compressiceps;Nimbochromis linni;Placidochromis electra;Taeniolethrinops praeorbitalis;Diplotaxodon greenwoodi;Diplotaxodon macrops;Cynotilapia axelrodi;Ctenopharynx nitidus;Lethrinops lethrinus;Diplotaxodon \u2018similis white back\u2019;Placidochromis subocularis;Aulonocara stuartgranti;Copadichromis virginalis;Protomelas ornatus;Alticorpus macrocleithrum;Mylochromis ericotaenia;Dimidiochromis strigatus;Aulonocara steveni;Cynotilapia afra;Astatotilapia calliptera;Copadichromis trimaculatus;Champsochromis caeruleus;Lethrinops \u2018oliveri\u2019;Buccochromis rhoadesii;Diplotaxodon \u2018macrops ngulube\u2019;Otopharynx lithobates;Nimbochromis polystigma;Taeniolethrinops furcicauda;Otopharynx \u2018brooksi nkhata\u2019;Hemitaeniochromis spilopterus;Lethrinops albus;Mylochromis melanotaenia;Rhamphochromis longiceps;Astatotilapia tweddlei;Hemitilapia oxyrhynchus;Buccochromis nototaenia;Copadichromis cf. trewavasae;Ctenopharynx intermedius;Placidochromis milomo;Pallidochromis tokolosh;Copadichromis quadrimaculatus;Genyochromis mento;Taeniolethrinops macrorhynchus;Rhamphochromis esox;Diplotaxodon limnothrissa;Alticorpus geoffreyi;Aulonocara \u2018yellow\u2019;Nimbochromis livingstoni;Stigmatochromis guttatus;Metriaclima zebra;Taeniochromis holotaenia;Copadichromis likomae;Dimidiochromis kiwinge;Petrotilapia genalutea;Iodotropheus sprengerae;Tropheops tropheops;Labeotropheus trewavasae;Mylochromis anaphyrmus;Trematocranus placodon

DOI：

doi:10.5061/dryad.7rj8k6c

摘要：

%. These divergence values overlap diversity within species, with 82% of heterozygosity shared between species. Phylogenetic analyses suggest tha

Data from: Foraging environment determines the genetic architecture and evolutionary potential of trophic morphology in cichlid fishes

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关键词：

Tropheops;Haplochromus;QTL;Plasticity;Labeotropheus;Genetic assimilation

DOI：

doi:10.5061/dryad.m2j85

摘要：

Phenotypic plasticity allows organisms to change their phenotype in response to shifts in the environment. While a central topic in current

Data from: Genetic basis of continuous variation in the levels and modular inheritance of pigmentation in cichlid fishes

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关键词：

Tropheops;contemporary;Development and Evolution;Fish;red cheek;Labeotropheus fuelleborni;quantitative genetics;sexual selection;Adaptation

DOI：

doi:10.5061/dryad.7sr73

摘要：

from QTL interval to candidate gene. In total, we detected 41 QTL and 13 epistatic interactions that underlie melanocyte- and xanthophore-based