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Список литературы

1 Савельев В.

Статистика и котики.

М.: АСТ, 2024.

2 Бородин П. М.

Кошки, гены и география

. Химия и жизнь 4 (1979): 40–46.

3 Бородин П. М.

Кошки и гены: десять лет спустя

. Химия и жизнь 4 (1989): 40–45.

4 Бородин П. М.

Кошки и гены:

30

лет спустя

. Наука из первых рук. 4 (2009): 138–47.

5 Малиновская Л. П., Бородин П. М.

Кошки и гены:

40

лет спустя

. Наука из первых рук 4 (2020): 6–31.

6 Бородин П. М.

Кошки и гены: Современная генетика в популярном изложении

. М.: ЛЕНАНД, 2017.

7 Hetherington J. H., Willard F. D. C.

Two–, three–, and four-atom exchange effects in bcc

3

He.

Physical Review Letters 35 (1975): 1442–44.

8 Willard F. D. C.

L’hélium

3

solide. Un antiferromagnétique nucléaire.

La Recherche 114 (1980): 972–73.

9 Ершова Г. Г.

Последний гений XX века: Юрий Кнорозов: судьба ученого

. М.: РГГУ, 2019.

10 Lyons L. A. et al.

Tyrosinase mutations associated with Siamese and Burmese patterns in the domestic cat (Felis catus).

Animal Genetics 36 (2005): 119–26.

11 Pontius J. U. et al.

Initial sequence and comparative analysis of the cat genome.

Genome Research 17 (2007): 1675–89.

12 Zhang Y. et al.

Alternative splicing and cancer: a systematic review.

Signal Transduction and Targeted Therapy 6 (2021): 78.

13 Wang R. J. et al.

De novo mutations in domestic cat are consistent with an effect of reproductive longevity on both the rate and spectrum of mutations.

Molecular biology and evolution 39 (2022): msac147.

14 Guillery R. W.

An abnormal retinogeniculate projection in Siamese cats

. Brain research 14 (1969): 739–41.

15 Kaas J. H.

Serendipity and the siamese sat: the discovery that genes for coat and eye pigment affect the brain

. ILAR 4 (2005): 357–63.

16 Mason C., Guillery R.

Conversations with Ray Guillery on albinism: linking Siamese cat visual pathway co

. The European journal of neuroscience 7 (2019): 913–27.

17 Creel D. et al.

Retinal projections in tyrosinase-negative albino cats.

Journal of Neuroscience 7 (1982): 907–11.

18 Jeffery G.

Architecture of the optic chiasm and the mechanisms that sculpt its development

. Physiological reviews 81 (2001): 1393–1414.

19 Prieur D. S., Rebsam A.

Retinal axon guidance at the midline: chiasmatic misrouting and consequences

. Developmental neurobiology 77 (2017): 844–60.

20 Reis R. A. et al.

Dopaminergic signaling in the developing retina.

Brain research reviews 54 (2007): 181–88.

21 Fuhrma

Retinal pigment epithelium development, plasticity, and tissue homeostasis.

Experimental eye research 123 (2014): 141–50.

22 King R. A. et al.

Temperature-sensitive tyrosinase associated with peripheral pigmentation in oculocutaneous albinism.

The Journal of clinical investigation 3 (1991): 1046–53.

23 Рулье К. Ф.

От нечего делать

// Давиташвили Л. Ш., Микулинский С. Р. (ред.).

Избранные биологические произведения.

М.: Изд-во АН СССР, 1954.

24 Grichnik J. M.

Kit and melanocyte migration

. The Journal of investigative dermatology 126 (2006): 945–47.

25 David V. A. et al.

Endogenous retrovirus insertion in the KIT oncogene determines White and White spotting in domestic cats.

G3 4 (2014): 1881–91.

26 Montague M. J. et al.

Comparative analysis of the domestic cat genome reveals genetic signatures underlying feline biology and domestication.

Proceedings of the National Academy of Sciences of the USA 111 (2014): 17230–35.

27 Yu M., Ren B.

The three-dimensional organization of mammalian genomes

. A

28 Doudna J. A., Charpentier E.

The new frontier of genome engineering with CRISPR-Cas

9. Science 346 (2014): 1258096.

29 Korablev A. et al.

On-target CRISPR

/

Cas

9

activity can cause undesigned large deletion in mouse zygotes

. International journal of molecular sciences. 10 (2020): 3604.

30 Kabirova E. et al.

TAD border deletion at the Kit locus causes tissue-specific ectopic activation of a neighboring gene.

Nature communications 1 (2024): 4521.

31 Anderson H. et al.

A new Fi

95

-kb deletion downstream of the KIT gene

. Animal genetics 4 (2024): 676–80.

32 GaravÍs M. et al.

On the origin of the eukaryotic chromosome: the role of noncanonical DNA structures in telomere evolution.

Genome biology and evolution 6 (2013): 1142–50.

33 Novikova O., Belfort M.

Mobile group II introns as ancestral eukaryotic elements

. Trends in Genetics 11 (2017): 773–83.

34 Koonin E. V.

Viruses and mobile elements as drivers of evolutionary transitions

. Philosophical transactions of the Royal Society of London. Series B, Biological sciences 371 (2016): 20150442.

35 Johnson W. E.

Origins and evolutionary consequences of ancient endogenous retroviruses

. Nature reviews. Microbiology 17 (2019): 355–70.

36 Дарвин Ч.

Происхождение видов путем естественного отбора, или Сохранение благоприятных рас в борьбе за жизнь.

СПб.: Наука, 1991.

37 Дугаткин Л., Трут Л.

Как приручить лису (и превратить в собаку): сибирский эволюционный эксперимент

. М.: Альпина Паблишер, 2019.

38 Belyaev D. K., Borodin P. M.

The influence of stress on variation and its role in evolution.

Biologisches Zentralblatt 6 (1982): 705–14.

39 Belyaev D. K. et al.

Genetics of the W locus in foxes and expression of its lethal effects.

Journal of Heredity 6 (1975): 331–38.

40 Kukekova A. V. et al.

Georgian white coat color of red fox (Vulpes vulpes) maps to fox chromosome

2

in the region containing KIT gene

. Animal genetics 4 (2016): 514–15.

41 Castle W. E., Pincus G.

Hooded rats and selection, a study of the limitations of the pure-line theory

. Journal of Experimental Zoology 3 (1928): 409–39.

42 Clark S. A., Deppma

Fight or flight turns hair white

. Nature 577 (2020): 623–624.

43 Гоголь Н. В.

Собрание сочинений

(т. 3). М.: Художественная литература, 1984.

44 Толстой Л.

Холстомер. Избранное.

М.: Белый город, 2019.

45 Loss S. et al.

The impact of free-ranging domestic cats on wildlife of the United States.

Nature communications 4 (2013): 1396.

46 Kondo T., Hearing V. J.

Update on the regulation of mammalian melanocyte function and skin pigmentation

. Expert review of dermatology 1 (2011): 97–108.

47

In brief: What is the structure of hair and how does it grow?

// InformedHealth.org. Cologne, Germany: Institute for Quality and Efficiency in Health Care (IQWiG), 2006.

48 Hoekstra H.

Genetics, development and evolution of adaptive pigmentation in vertebrates

. Heredity 97 (2006): 222–34.

49 Kaelin C. B., Barsh G. S.

Genetics of pigmentation in dogs and cats

. A

50 Ito S., Wakamatsu K.

Diversity of human hair pigmentation as studied by chemical analysis of eumelanin and pheomelanin

. Journal of the European Academy of Dermatology and Venereology 12 (2014): 1369–80.

51 Ba

Dog colour patterns explained by modular promoters of ancient canid origin.

Nature ecology & evolution 5 (2021): 1415–23.

52 Kaelin C. B. et al.

Developmental genetics of color pattern establishment in cats.

Nature communications 12 (2021): 5127.

53 Robinson R.

Mutant gene frequencies in cats of Cyprus

. TAG. Theoretical and applied genetics 42 (1972): 293–96.

54 Lyons L. A. et al.

The Tabby cat locus maps to feline chromosome B

1. Animal genetics 37 (2006): 383–86.

55 Kaelin C. B. et al.

Specifying and sustaining pigmentation patterns in domestic and wild cats.

Science 337 (2012): 1536–41.

56 Pocock R. I.

Description of a new species of cheetah (Acinonyx)

. The Journal of comparative neurology 97 (1927): 245–52.

57 Browm W. P., Morgan K. T.

Age, breed designation, coat color, and coat pattern influenced the length of stay of cats at a no-kill shelter

. Journal of Applied Animal Welfare Science 2 (2015): 169–80.

58 Jones H. D., Hart C. L.

Black cat bias: prevalence and predictors

. Psychological reports 4 (2020): 1–9.

59 Eizirik E. et al.

Molecular genetics and evolution of melanism in the cat family.

Current biology 5 (2003): 448–53.

60 Schneider A. et al.

How the leopard hides its spots: ASIP mutations and melanism in wild cats.

Plos One 12 (2012): e50386.

61 Kaelin C. B. et al.

Ancestry dynamics and trait selection in a designer cat breed.

Current Biology 7 (2022): 1506–18.

62 Gershony L. C. et al.