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Karyotype of Gekko Monarchus (Squamata: Gekkonidae) from Sarawak, Malaysia

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Karyotype of Gekko Monarchus (Squamata: Gekkonidae) from Sarawak, Malaysia Japanese Journal of Herpetology 13 (4):136-138., Dec. 1990 (C)1990 by The HerpetologicalSociety of Japan Karyotype of Gekko monarchus (Squamata: Gekkonidae) from Sarawak, Malaysia HIDETOSHI OTA, TSUTOMU HIKIDA, MASAFUMI MATSUI, AND AKIRA MORI Abstract: Gekko monarchus from Sarawak, Malaysia, has 2n=44 chromosomes for- ming a graded series, of which all but one submetacentric pair of micro-elements are uniarmed. The relationship of G. monarchus with other congeneric species is discussed from a cytotaxonomic point of view. Key words: Gekko monarchus; Gekkonidae; Karyotype; Sarawak; Malaysia The genus Gekko consists of nearly 30, mor- phologically highly diverse species distributed in RESULTS AND DISCUSSION East and Southeast Asia, the Indo-Australian Ar- G. monarchus has a karyotype consisting of chipelago, and the western Pacific islands (Wer- 2n=44 chromosomes. Of these, the second muth, 1965; Zhou et al., 1982; Song, 1985; Ota, smallest pair is submetacentric, and all the 1989a; Shibata, 1989, 1990; Ota and others are acrocentric elements. Thus, the fun- Nabhitabhata, 1991; Ota et al., 1991). Ota damental number (NF) was calculated as 46. (1989b), in describing karyotypes of five Gekko No size-group formations nor sex chromosome species, briefly reviewed the published heteromorphisms were evident (Fig. 1). chromosome data for species belonging to this Published chromosome data for species genus and demonstrated extensive intrageneric belonging to the genus Gekko are summarized in karyological diversifications involving changes Table 1. Diploid chromosome numbers in most in both diploid and fundamental numbers. Yet, karyotyped members of this genus are 38, and karyotypes of nearly two thirds of the species in only two species, G. kikuchii from Lanyu the genus remain unknown, and therefore, it is Island, Taiwan, and G. sp. from Thailand, are strongly desirable to accumulate data for such exceptions by having 2n=44 and 42 " unsurveyed" species to clarify the relationships chromosomes, respectively. Karyomorphs with among Gekko species from a cytotaxonomic 2n=38 chromosomes are also characterized by viewpoint. the presence of two large metacentric pairs that In the present study, we investigated G. monar- are distinct in size from the remaining pairs. On chus karyologically for the first time, and com- the other hand, no such enlarged metacentric pared its karyotype with those of other con- pairs or size group formations are recognized in generic species hitherto karyotyped. Results in- the karyotypes of G. kikuchii and G. sp. from dicate a close chromosomal resemblance bet- Thailand (Ota, 1989b; Ota and Nabhitabhata, ween G. monarchus and G. kikuchii, a species 1991). endemic to Lanyu Island, Taiwan (Ota, 1989a). The diploid number of G. monarchus is iden- tical with that of G. kikuchii, and is greater than MATERIALSAND METHODS those of other species. Moreover, karyotypes of Two males and two females of G. monarchus, the two species, as well as that of G. sp. from all collected from Kuching and Sibu, Sarawak, Thailand, greatly resemble each other in the Malaysia, were used. Metaphase preparations absence of enlarged metacentric pairs which were made by a bone-marrow air-dry method results in the formation of a graded chromosome following Ota et al. (1987). Each slide was in- series. The NF value of G. monarchus (46) is vestigated after being stained in 3% Giemsa solu- smaller than any other congeneric species. In tion for 30min. The karyotype was determined this feature, the karyotype of this species most for each animal on the basis of at least 10 well- closely resembles those of G. gecko, G. smithii spread cells. Voucher specimens were deposited and G. sp. from Thailand (NF=48), and then, in the herpetological collection of the Depart- G. kikuchii (NF=50). ment of Zoology, Kyoto University (KUZ 12317, Several authors, studying the mode of 12401, 12407, 12495). chromosomal differentiation and evolution in geckos, postulated centric fusion (involving a Accepted 22, Oct. 1990 change in chromosome number, and the conser- OTA ET AL. -LIZARD KARYOTYPE 137 TABLE 1 The diploid (2n) and fundamental numbers (NF) in the known karyotypes of species of Gekko. vation of NF value) and pericentric inversion ween the two species (Ota, unpublished data) (vice versa) to be major patterns of supports this speculation. chromosomal re-organization in this group [see King (1987a, b) for review]. In the genus ACKNOWLEDGMENTS.-We wish to express our Gekko, the chromosome number is relatively sincere thanks to T. Hidaka for providing an oppor- conservative, whereas the NF value is variable. tunity to visit Sarawak. We are also deeply grateful to Ota (1989b), therefore, assumed the K. Araya and T. Ueda for their help, and to David Labang, Abang Abdul Hamid and the staff of the Na- predominance of pericentric inversion over fu- tional Park & Wildlife and Forest Research Sections, sion in the karyological diversification within Forest Department of Sarawak, for continuous sup- this genus. Accepting this assumption, the port during our survey in Sarawak. We thank J. A karyotype of G. monarchus seems to be evolu- Wilkinson for correcting verbal errors. Field trips of tionally most closely allied to that of G. Hikida, Matsui and Mori were supported by a Mon- kikuchii. Close morphological resemblance bet- busho International Scientific Research Program FIG. 1. Karyotype of Gekko monarchus from Kuching, Sarawak, Malaysia (female, KUZ 12495). The bar equals 10μm. 138 Jpn. J. Herpetol. 13 (4). 1990 (Field Research: No. 01041051) to T. Hidaka. Ota's of Japan, formerly identified as Gekko japonicus laboratory work was partially supported also by a (Reptilia: Gekkonidae). Occas. Pap. Osaka Mus. Grant-in-Aid from the Japan Ministry of Education, Nat. Hist. 2 (5): 73-75. (in Japanese with English Science and Culture (A-63790257). abstract) SHIBATA, Y. 1990. Gekko sp. from the Koshiki LITERATURE CITED Islands, Kyushu, Japan (Reptilia: Gekkonidae). Oc- CHEN, J., X. PENG ANDD. YU. 1986. Studies on the cas. Pap. Osaka Mus. Nat. Hist. 2 (6): 77-82. (in karyotypes of three species of the genus Gekko. Ac- Japanese with English abstract) SOLLEDER, E. AND M. SCHMID. 1984. XX/XY-sex ta Herpetologica Sinica 5 (1): 24-29, pl. 2. (in Chinese with English abstract) chromosomes in Gekko gecko (Sauria, Reptilia). COHEN, M. M., CH. C. HUANG AND H. F. CLARK. Amphibia-Reptilia 5 (4): 339-345. 1967. The somatic chromosomes of 3 lizard SONG, M. 1985. A new species of Gekko from Shaanxi. Acta Herpetol. Sinica 4 (4): 329-330, pl. species: Gekko gecko, Iguana iguana, and 27. (in Chinese with English abstract) Crotaphytus collaris. Experientia 23 (9): 769-771. KING, M. 1987a. Chromosomal evolution in the WERMUTH, H. 1965. Liste der rezenten Amphibien and Reptilien. Gekkonidae, Pygopodidae, Xan- Diplodactylinae (Gekkonidae: Reptilia). I. Evolu- tionary relationships and patterns of change. Aust. tusiidae. Das Tierreich Lief. 80. Walter de J. Zool. 35 (5): 507-531. Gruyter, Berlin. 246p. WU, G. AND E. ZHAO. 1984. Studies on karyotypes KING, M. 1987b. Monophyleticism and polyphy- leticism in the Gekkonidae: A chromosomal perspec- of Gekko gecko and Gekko subpalmatus. Acta tive. Aust. J. Zool. 35 (5): 641-654. Herpetol. Sinica 3 (2): 61-64. (in Chinese with OTA, H. 1989a. A review of the geckos (Lacertilia: English abstract) Reptilia) of the Ryukyu Archipelago and Taiwan. YOSHIDA,M. C. AND M. ITOH. 1974. Karyotype of In: M. Matsui, T. Hikida and R. C. Goris (eds.), the gecko, Gekko japonicus. Chrom. Inf. Serv. Current Herpetology in East Asia. p. 222-261. The (17): 29-31. ZHOU, K. -Y., Y. -Z. LIU AND D. -J. LI. 1982. Three Herpetological Society of Japan, Kyoto. OTA, H. 1989b. Karyotypes of five species of Gekko new species of Gekko and remarks on Gekko hokouensis (Lacertiformes, Gekkonidae). Acta (Gekkonidae: Lacertilia) from East and Southeast Asia. Herpetologica 45 (4): 438-443. Zootaxonomica Sinica 7 (4): 438-446, pls. 1-2. (in OTA, H. AND J. NABHITABHATA. 1991. A new species Chinese with English summary) of Gekko (Gekkonidae: Squamata) from Thailand. Copeia: in press. Department of Biology, University of the OTA, H., T. HIKIDA AND M. MATSUI. 1991. Re- Ryukyus, Nishihara, Okinawa, 903-01 JAPAN evaluation of the status of Gekko verreauxi Tytler, (HO), Department of Zoology, Faculty of 1864, from the Andaman Islands, India. J. Science, Kyoto University, Kitashirakawa- Herpetol.: in press. oiwakecho, Sakyo-ku, Kyoto, 606 JAPAN (TH OTA, H., M. MATSUI, T. HIKIDA AND S. TANAKA. & AM), and Biological Laboratory, Yoshida Col- 1987. Karyotype of a gekkonid lizard, Eublepharis lege, Kyoto University, Yoshida-nihonma- kuroiwae kuroiwae. Experientia 43 (8): 924-925. tsucho, Sakyo-ku, Kyoto, 606 JAPAN (MM) SHIBATA, Y. 1989. Re-examination of gecko specimens from the Osumi and the Tokara Islands 要 旨 マ レー シア,サ ラワク州産ヤモ リの一 種(Gekko monarchus)の 核型 縁関係について,細 胞分類学 の立場か ら論 じた。 太 田英 利 ・疋田 努 ・松井 正文 ・森 哲 (903-01沖 縄 県中頭郡 西原町千 原1琉 球 大 マ レー シア,サ ラワク州 で採集 されたGekko 学理学部 生物学科(太 田)・606京 都市左京 区 ｍonarchusは 大 きさの連続す る2n=44本 の染 北 白川追 分町 京都 大学理学部 動物学教 室(疋 色体を持 っていた。その形態は,次 端部動 原体 田 ・森)・606京 都市左京区吉 田二本松町 京都 型の微小染色体一組 を除 き,す べて単腕 型であ 大学 教養部生物学 教室(松 井)) った。Gekko monarchusと 他の同属種 との類.
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