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Fig. 6 in Karyotype description and evidence of multiple sex chromosome system X X X X /X X Y in Potamotrygon aff. motoro and P. falkneri (Chondrichthyes: Potamotrygonidae) in the upper Paraná River basin, Brazil
Fig. 6. Somatic metaphases of Potamotrygon aff. motoro, the population of Porto Rico (a), population of Ilha Solteira (b), identification of constitutive heterochromatin. Metaphases of Potamotrygon falkneri sample from Porto Rico (c) and Ilha Solteira (d), analysis of constitutive heterochromatin after C-banding technique.
Figure 4 from: Abramov A (2012) Karyotypes of two rare rodents, Hapalomys delacouri and Typhlomys cinereus (Mammalia, Rodentia), from Vietnam. ZooKeys 164: 41-49. https://doi.org/10.3897/zookeys.164.1785
Figure 4 - Typhlomys cinereus. Adult female from Sa Pa, Lao Cai Province, northern Vietnam. Photographed by Alexei V. Abramov.
Figure 1 from: Abramov A (2012) Karyotypes of two rare rodents, Hapalomys delacouri and Typhlomys cinereus (Mammalia, Rodentia), from Vietnam. ZooKeys 164: 41-49. https://doi.org/10.3897/zookeys.164.1785
Figure 1 - Map of localities. 1 sampling locality of Typhlomys cinereus 2 type locality of Hapalomys longicaudatus 3 locality from Badenhorst et al. 2009 4 type locality of Hapalomys pasquieri 5 type locality of Hapalomys delacouri 6 sampling locality of Hapalomys delacouri in Bu Gia Map 7 approximate locality for Hapalomys longicaudatus record from Yong et al. 1982.
Figure 2 from: Abramov A (2012) Karyotypes of two rare rodents, Hapalomys delacouri and Typhlomys cinereus (Mammalia, Rodentia), from Vietnam. ZooKeys 164: 41-49. https://doi.org/10.3897/zookeys.164.1785
Figure 2 - Hapalomys delacouri. Adult male from Bu Gia Map, Binh Phuoc Province, southern Vietnam. Photographed by Alexei V. Abramov.
Figure 3 from: Abramov A (2012) Karyotypes of two rare rodents, Hapalomys delacouri and Typhlomys cinereus (Mammalia, Rodentia), from Vietnam. ZooKeys 164: 41-49. https://doi.org/10.3897/zookeys.164.1785
Figure 3 - A Karyotype of male Hapalomys delacouri (ZIN 100410), 2n=38, NFa=48 B Karyotype of female Typhlomys cinereus (ZIN 100411), 2n=38, NF=48.
Figure 1 from: McDonough M, Sotero-Caio C, Ferguson A, Lewis P, Tswiio M, Thies M (2013) Mitochondrial DNA and karyotypic data confirm the presence of Mus indutus and Mus minutoides (Mammalia, Rodentia, Muridae, Nannomys) in Botswana. ZooKeys 359: 35-51. https://doi.org/10.3897/zookeys.359.6247
Figure 1 - Distributions for three species of Nannomys in southern Africa. Dark grey indicates distribution for Mus minutoides, light grey for Mus indutus, and stippled pattern for Mus setzeri, adapted from Monadjem (2008a), Monadjem (2008b), and Monadjem and Coetzee (2008), respectively. Five trapping localities in Botswana (a); black crosses indicate captures for Mus minutoides and grey triangles for Mus indutus. Records from northwestern Botswana, Ngamiland District (b). Locality of syntopic records for Mus indutus and Mus minutoides at Koanaka Hills site (c).
Figure 3 from: McDonough M, Sotero-Caio C, Ferguson A, Lewis P, Tswiio M, Thies M (2013) Mitochondrial DNA and karyotypic data confirm the presence of Mus indutus and Mus minutoides (Mammalia, Rodentia, Muridae, Nannomys) in Botswana. ZooKeys 359: 35-51. https://doi.org/10.3897/zookeys.359.6247
Figure 3 - Karyotypes of female TK164752 (a) and male TK164768 (c) Mus minutoides and female TK164753 Mus indutus (e) from Botswana. The chromosome arms identified in yellow on the images to the right of each karyogram correspond to regions of homology to the X chromosome of Mus musculus detected by FISH for female TK164752 (b) and male TK164768 (d) Mus minutoides and female TK164820 Mus indutus (f). Note that in Mus minutoides, a single chromosome arm shows homology to the X chromosome of the house mouse, indicating the presence of an X-autosome translocation, whereas a whole acrocentric chromosome corresponds to the X of Mus indutus. The insert on (b) represents the (1.X) translocation of individual TK164752 Mus minutoides, with the long arm corresponding to the X chromosome.
Figure 2 from: McDonough M, Sotero-Caio C, Ferguson A, Lewis P, Tswiio M, Thies M (2013) Mitochondrial DNA and karyotypic data confirm the presence of Mus indutus and Mus minutoides (Mammalia, Rodentia, Muridae, Nannomys) in Botswana. ZooKeys 359: 35-51. https://doi.org/10.3897/zookeys.359.6247
Figure 2 - Cytochrome b gene tree generated from 741 base pairs including 125 taxa using Bayesian inference. Grey boxes indicate species of interest: Mus minutoides and Mus indutus. Clades that include Mus from Botswana are enlarged to the right of the phylogeny. Diploid and fundamental numbers are shown for individuals sampled in this study and Veyrunes et al. (2005). Identification includes GenBank number and general locality. Support values at nodes are Bayesian posterior probabilities followed by Maximum-likelihood bootstrap support; dashes indicate regions of the tree where Maximum-likelihood analysis resulted in a polytomy.
Figure 6 from: Xu C, Li Y, Xie H, Huang X, Wu W, Yu L, Wang D (2014) Morphological and karyotypic differences within and among populations of Radopholus similis. ZooKeys 444: 69-93. https://doi.org/10.3897/zookeys.444.8186
Figure 6 - Haploid chromosomes and genital cells of Radopholus similis stained with DAPI Haploid chromosomes. A RsB population B RsL population C RsN population D RsY population; Genital cells E Female stained with DAPI F Male stained with DAPI G Female Non-stained with DAPI H Male non-stained with DAPI Arrows Arrow a: Cap cell; Arrow b: Somatic cells; Arrow c: Germinal zone; Arrow d: growth zone; Arrow e: spermatheca; Arrow f: testis; Arrow g: seminal vesicle.
Figure 4 from: Xu C, Li Y, Xie H, Huang X, Wu W, Yu L, Wang D (2014) Morphological and karyotypic differences within and among populations of Radopholus similis. ZooKeys 444: 69-93. https://doi.org/10.3897/zookeys.444.8186
Figure 4 - Annuli terminated at vulvar, incisures and genital papillae in cloacal region of Radopholus similis Annuli terminated at vulvar region of females: A One annulus in RsC B One and two annuli on each side in RsN C One and three annuli on each side in RxXJs D Three annuli in RsP E Two annuli in RsK F Four annuli in RsW. Incisures in lateral region of femlaes G RsH H RsJs. Number of genital papillae in cloacal region of males: I 0 genital papillae of RsEs J 1 genital papillae of RsKs. 2 genital papillae of RsP L 3 genital papillae of RsC M 4 genital papillae of RsB N 5 genital papillae of RsTs O 5 genital papillae of RsI P 6 genital papillae of RsB Q 7 genital papillae of RsM R 8 genital papillae of RsG S 8 genital papillae in double row of RsD T 9 genital papillae in double row of RsP.
Figure 5 from: Xu C, Li Y, Xie H, Huang X, Wu W, Yu L, Wang D (2014) Morphological and karyotypic differences within and among populations of Radopholus similis. ZooKeys 444: 69-93. https://doi.org/10.3897/zookeys.444.8186
Figure 5 - Anterior region and tail of Radopholus similis Anterior region. A Female RsTs B Female RsL C Female RsLs D Male RsV E Male RsXJ F Male RsAs Female tails G Female type I of RsWs H RsXJs I RsCs J RsP K RsW L RsI M RsXJs N RsW O RsJs P RsXJs Q RsL. Male tails: R RsG S RsLs T RsHs U RsVs V RsS.
Figure 3 from: Xu C, Li Y, Xie H, Huang X, Wu W, Yu L, Wang D (2014) Morphological and karyotypic differences within and among populations of Radopholus similis. ZooKeys 444: 69-93. https://doi.org/10.3897/zookeys.444.8186
Figure 3 - Lip region morphology of female and male of Radopholus similis Female: A Face view of RsA B Face view of RsC C Face view of RsD D Face view of RsT E Face view of RsT F Lateral view of RsE G Lateral view of RsE H Lateral view of RsK I Lateral view of RsXJ J Lateral view of RsT K Lateral view of RsP L Lateral view of RsL M Lateral view of RsY N Lateral view of RsEs O Lateral view of RsT P Lateral view of RsXJ. Male: Q Face view of RsTs R Lateral view of RsY S Lateral view of RsV T Lateral view of RsN.
Figure 2 from: Xu C, Li Y, Xie H, Huang X, Wu W, Yu L, Wang D (2014) Morphological and karyotypic differences within and among populations of Radopholus similis. ZooKeys 444: 69-93. https://doi.org/10.3897/zookeys.444.8186
Figure 2 - Tail morphology of Radopholus similis Female: A–B TypeItail C–D Type II tail E–H Type III tail I–J Type IV tail. Male: L–M TypeItail K, N Type II tail O–R Type III tail. A, E: RsB; B, F, G, P: RsW; C: RsP; D, I: RsA; H: RsC; J: RsHs; K–L: RsH; M–N: R: RsN; O: RsL; Q: RsXJ. Scale bar: A–R = 10 µm.
Figure 1 from: Xu C, Li Y, Xie H, Huang X, Wu W, Yu L, Wang D (2014) Morphological and karyotypic differences within and among populations of Radopholus similis. ZooKeys 444: 69-93. https://doi.org/10.3897/zookeys.444.8186
Figure 1 - Morphology of Radopholus similis Female: A whole body C anterior part of body E lip region and stylet G vulva region H tail. Male: B whole body D anterior part of body F lip region and stylet I cloacal region J tail Scale bar: A = 50 µm; B, H = 20 µm; C, E, G, I, J = 10 µm; D, F = 5 µm.
Supplementary material 5 from: She C-W, Jiang X-H, He C-P (2023) Comparative karyotype analysis of eight Cucurbitaceae crops using fluorochrome banding and 45S rDNA-FISH. Comparative Cytogenetics 17(1): 31-58. https://doi.org/10.3897/compcytogen.v17.i1.99236
The number and position of 45S rDNA locus in Cucurbitaceae species
Supplementary material 3 from: She C-W, Jiang X-H, He C-P (2023) Comparative karyotype analysis of eight Cucurbitaceae crops using fluorochrome banding and 45S rDNA-FISH. Comparative Cytogenetics 17(1): 31-58. https://doi.org/10.3897/compcytogen.v17.i1.99236
Chromosome measurements of the eight Cucurbitaceae crops obtained from five metaphases per species
Supplementary material 2 from: She C-W, Jiang X-H, He C-P (2023) Comparative karyotype analysis of eight Cucurbitaceae crops using fluorochrome banding and 45S rDNA-FISH. Comparative Cytogenetics 17(1): 31-58. https://doi.org/10.3897/compcytogen.v17.i1.99236
CPD-stained mitotic metaphase chromosomes with the maximum condensation degree
Supplementary material 1 from: She C-W, Jiang X-H, He C-P (2023) Comparative karyotype analysis of eight Cucurbitaceae crops using fluorochrome banding and 45S rDNA-FISH. Comparative Cytogenetics 17(1): 31-58. https://doi.org/10.3897/compcytogen.v17.i1.99236
The plant materials
Data from: Rates of karyotypic evolution in Estrildid finches differ between island and continental clades
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Data from: Phylogenomic analysis of transcriptome data elucidates co-occurrence of a paleopolyploid event and the origin of bimodal karyotypes in Agavoideae (Asparagaceae)
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