[ 1 ] Star B, Nederbragt A J, Jentoft S, et al. The genome sequence of Atlantic cod reveals a unique immune system [J]. Nature, 2011, 477(7363): 207–210. link1

[ 2 ] Miller W, Schuster S C, Welch A J, et al. Polar and brown bear genomes reveal ancient admixture and demographic footprints of past climate change [J]. Proceedings of the National Academy of Sciences of the United States of America. 2012, 109(36): E2382– 2390. link1

[ 3 ] Shin S C, Ahn D H, Kim S J C, et al. The genome sequence of the Antarctic bullhead notothen reveals evolutionary adaptations to a cold environment [J]. Genome Biology, 2014, 15(9): 468. link1

[ 4 ] Yim H S, Cho Y S, Guang X, et al, Minke whale genome and aquatic adaptation in cetaceans [J]. Nature Genetics, 2014, 46(1): 88–92. link1

[ 5 ] Kelley J L, Peyton J T, Fiston-Lavier A S, et al, Compact genome of the Antarctic midge is likely an adaptation to an extreme environment [J]. Nature Communications, 2014, 5: 4611. link1

[ 6 ] Li C, Zhang Y, Li J, et al. Two Antarctic penguin genomes reveal insights into their evolutionary history and molecular changes related to the Antarctic environment [J]. GigaScience, 2014, 3(1): 27. link1

[ 7 ] Lien S, Koop B F, Sandve S R, et al. The Atlantic salmon genome provides insights into rediploidization [J]. Nature, 2016, 533(7602): 200–205. link1

[ 8 ] Ahn D H, Shin S C, Kim B M, et al. Draft genome of the Antarctic dragonfish, Parachaenichthys charcoti [J]. GigaScience, 2017, 6(8): 1–6. link1

[ 9 ] Jones S J M, Taylor G A, Chan S, et al. The genome of the Beluga whale (Delphinapterus leucas) [J]. Genes (Basel), 2017, 8(12): Pii:E378. link1

[10] Kang S, Ahn D H, Lee J H, et al, The genome of the Antarctic-endemic copepod, Tigriopus kingsejongensis [J]. GigaScience, 2017, 6(1): 1–9. link1

[11] Christensen K A, Rondeau E B, Minkley D R, et al. The Arctic charr (Salvelinus alpinus) genome and transcriptome assembly [J]. Plos One, 2018, 13(9): e0204076. link1

[12] Chen L B , Lu Y, Li W H, et al. The genomic basis for colonizing the freezing Southern Ocean revealed by Antarctic toothfish and Patagonian robalo genomes [J]. GigaScience, 2019, 8: 1–16. link1

[13] Liu C L, Huang X H. Transcriptome-wide analysis of DEADbox RNA helicase gene family in an Antarctic psychrophilic alga Chlamydomonas sp ICE-L [J]. Extremophiles, 2015, 19(5): 921–931. link1

[14] Thorne M A S, Kagoshima H, Clark M S, et al. Molecular analysis of the Cold Tolerant Antarctic Nematode, Panagrolaimus davidi [J]. Plos One, 2014, 9(8): e104526. link1

[15] Kim H S, Lee B Y, Han J, et al. De novo assembly and annotation of the Antarctic copepod (Tigriopus kingsejongensis) transcriptome [J]. Marine Genomics, 2016, 28: 37. link1

[16] Bilyk K T, Cheng C H C. Model of gene expression in extreme cold-reference transcriptome for the high-Antarctic cryopelagic notothenioid fish Pagothenia borchgrevinki [J]. BMC Genomics, 2013, 14: 634. link1

[17] Chen Z, Cheng C H C, Zhang J, et al. Transcriptomic and genomic evolution under constant cold in Antarctic notothenioid fish [J]. Proceedings of the National Academy of Sciences of the United States of America, 2008, 105(35): 12944. link1

[18] Coppe A, Agostini C, Marino I A M, et al. Genome evolution in the cold: Antarctic icefish muscle transcriptome reveals selective duplications increasing mitochondrial function [J]. Genome Biology and Evolution, 2012, 5 (1): 45. link1

[19] Papetti C, Harms L, Windisch H S, et al. A first insight into the spleen transcriptome of the notothenioid fish Lepidonotothen nudifrons: Resource description and functional overview [J]. Marine Genomics, 2015, 24: 237. link1

[20] Cocca E, Ratnayake-lecamwasam M, Parker S K, et al. Genomic remnants of alpha-globin genes in the hemoglobinless antarctic icefishes [J]. Proceedings of the National Academy of Sciences of the United States of America, 1995, 92: 1817–1821. link1

[21] O’Brien K M, Mueller I A. The unique mitochondrial form and function of Antarctic channichthyid icefishes [J]. Integrative and Comparative Biology, 2010, 50: 993–1008. link1

[22] Xu Q, Cai C, Hu X, et al. Evolutionary suppression of erythropoiesis via the modulation of TGF-β signalling in an Antarctic icefish [J]. Molecular Ecology, 2015, 24: 4664–4678. link1

[23] Shin S C, Kim S J, Lee J K, et al. Transcriptomics and comparative analysis of three Antarctic notothenioid fishes [J]. Plos One, 2012, 7(8): e43762. link1

[24] Coppe A, Agostini C, Marino I A, et al. Genome evolution in the cold: Antarctic icefish muscle transcriptome reveals selective duplications increasing mitochondrial function [J]. Genome Biology and Evolution, 2013, 5: 45–60. link1

[25] Clark M S, Thorne M A S, Toullec J Y, et al. Antarctic krill 454 pyrosequencing reveals chaperone and stress transcriptome [J]. Plos One, 2011, 6(1): e15919. link1

[26] Meyer B, Martini P, Biscontin A, et al. Pyrosequencing and de novo assembly of Antarctic krill (Euphausia superba) transcriptome to study the adaptability of krill to climate-induced environmental changes [J]. Molecular Ecology Resource, 2015, 15: 6. link1

[27] Buckley B A, Somero G N. cDNA microarray analysis reveals the capacity of the cold-adapted Antarctic fish Trematomus bernacchii to alter gene expression in response to heat stress [J]. Polar Biology, 2009, 32 (3): 403. link1

[28] Huth T J, Place S P. Transcriptome wide analyses reveal a sustained cellular stress response in the gill tissue of Trematomus bernacchii after acclimation to multiple stressors [J]. BMC Genomics, 2016, 17: 127. link1

[29] Andersen Ø, Frantzen M, Rosland M, et al. Effects of crude oil exposure and elevated temperature on the liver transcriptome of polar cod (Boreogadus saida) [J]. Aquatic Toxicology, 2015, 165: 9. link1

[30] Kang S, Kim S, Park H. Transcriptome of the Antarctic amphipod Gondogeneia antarctica and its response to pollutant exposure [J]. Marine Genomics, 2015, 24: 253. link1

[31] Rhee J S R, Kim B M, Choi B S, et al. Transcriptome information of the Arctic green sea urchin and its use in environmental monitoring [J]. Polar Biology, 2014, 37 (8): 1133. link1

[32] De Pittà C, Bertolucci C, Mazzotta G M, et al. Systematic sequencing of mRNA from the Antarctic krill (Euphausia superba) and first tissue specific transcriptional signature [J]. BMC Genomics, 2008, 9: 45. link1

[33] Seear P J, Tarling G A, Burns G, et al. Differential gene expression during the moult cycle of Antarctic krill (Euphausia superba) [J]. BMC Genomics, 2010, 11: 582. link1

[34] Burns G, Thorndyke M C, Peck L S, et al. Transcriptome pyrosequencing of the Antarctic brittle star Ophionotus victoriae [J]. Marine Genomics, 2013, 9: 9. link1

[35] Gudbrandsson J, Ahi E P, Franzdottir S R, et al. The developmental transcriptome of contrasting Arctic charr (Salvelinus alpinus) morphs [J]. F1000Research, 2015, 4: 136. link1

[36] Magnanou E, Noirot C, Falcón J, et al. Sequencing and characterization of a multi-organ Arctic charr transcriptome: A toolbox for investigating polymorphism and seasonal life in a high Arctic fish [J]. Marine Genomics, 2016, 29: 45. link1

[37] Kelley J L, Aagaard J E, MacCoss M J, et al. Functional diversification and evolution of antifreeze proteins in the antarctic fish Lycodichthys dearborni [J]. Journal of Molecular Evolution, 2010, 71: 111–118. link1

[38] Nicodemus-Johnson J, Silic S, Ghigliotti L, et al. Assembly of the antifreeze glycoprotein/trypsinogen-like protease genomic locus in the Antarctic toothfish Dissostichus mawsoni (Norman) [J]. Genomics, 2011, 98(3): 194–201. link1

[39] Lee J K, Kim Y J, Park K S, et al. Molecular and comparative analyses of type IV antifreeze proteins (AFPIVs) from two Antarctic fishes, Pleuragramma antarcticum and Notothenia coriiceps [J]. Comparative Biochemistry and Physiology B-Biochemisty & Molecular Biology, 2011, 159(4): 197–205. link1

[40] Cao L X, Huang Q, Wu Z C, et al. Neofunctionalization of zona pellucida proteins enhances freeze-prevention in the eggs of Antarctic notothenioids [J]. Nature Communications, 2016, 7(1): 12987. link1

[41] Oreste U, Coscia M. Specific features of immunoglobulin VH genes of the Antarctic teleost Trematomus bernacchii [J]. Gene, 2002, 295(2): 199–204. link1

[42] Capriglione T, Odierna G, Caputo V, et al. Characterization of a Tc1-like transposon in the Antarctic ice-fish, Chionodraco hamatus [J]. Gene, 2002, 295(2): 193–198. link1

[43] Small D J, Moylan T, Vayda M E, et al. The myoglobin gene of the Antarctic icefish, Chaenocephalus aceratus, contains a duplicated TATAAAA sequence that interferes with transcription [J]. Journal of Experimental Biology, 2003, 206: 131–139. link1

[44] Kim M, Ahn I Y, Kim H J, et al. Molecular characterization and induction of heat shock protein 90 in the Antarctic bivalve Laternula elliptica [J]. Cell Stress & Chaperons, 2009, 14(4): 363–370. link1

[45] Place S P, Hofmann G E. Constitutive expression of a stress-inducible heat shock protein gene, HSP70, in phylogenetically distant Antarctic fish [J]. Polar Biology, 2005, 28(4): 261–267. link1

[46] Clark M S, Fraser K P P, Burns G, et al. The HSP70 heat shock response in the Antarctic fish Harpagifer antarcticus [J]. Polar Biology, 2008, 31(2): 171–180. link1

[47] Ahi E P, Steinhäuser S, Pálsson A, et al. Differential expression of the aryl hydrocarbon receptor pathway associates with craniofacial polymorphism in sympatric Arctic charr [J]. EvoDevo, 2015, 6: 27. link1

[48] Aluru N, Jorgensen E H, Maule A G, et al. PCB disruption of the hypothalamus-pituitary-interrenal axis involves brain glucocorticoid receptor downregulation in anadromous Arctic charr [J]. American Journal of Physiology-Regulatory Integrative and Comparative Physiology, 2004, 287(4): R787–793. link1

[49] Miyazaki T, Iwami T. Molecular cloning of cDNA encoding red opsin gene in the retinas of five Antarctic notothenioid fishes [J]. Polar Biology, 2012, 35(5): 775–783. link1

[50] Borley K A, Sidell B D. Evolution of the myoglobin gene in Antarctic icefishes (Channichthyidae) [J]. Polar Biology, 2011, 34(5): 659–665. link1