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The present study is a review of the 1976 publication by professor A.D. NIAZI, director of the Natural History Museum of Bagdad, on the Lacertini of Iraq, including additional materials from Irqi collections. Twenty-two individuals of five taxa of this group originating from the territory under study were indentified in Iraqi collections: Lacerta cf. strigata EICHWALD, 1831 which had been removed from the list of Iraqi lacertids by many authors, L. media media LANTZ & CYRÉN, 1920, Timon kurdistanicus (SUCHOW, 1936) and two subspecies of Apathya cappadocica (WERNER, 1902). A key for identification and a map of the records are also presented.

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The Northwest of Iran, covering the three provinces of Ardabil, East Azerbaijan and West Azerbaijan, is a special area that, due to its particular geographical and climatic conditions has a rich biodiversity. The present study was conducted with the aim of studying the habitat, substrate type, feeding, conservation and distribution of lizards in this area from 2003 to now. Our results have revealed that there are 20 lizard species belonging to 13 genera and 5 families in this area. Lacertid lizards have the highest species diversity with 12 species. We also found that high ranges of habitats with a different substrate types are inhabited by lizard species. The number of species in pine regions compared with other types of area is considerably greater. The conservation status of lizards is unknown and requires further study.

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Northwestern Iran has unique geographical and climatic conditions that support a rich flora and fauna. In view of the lack of in-depth studies on the lizards of the region, an investigation was started in the northern part of Ardabil Province for an inventory of this component of the fauna and their habitats. Collections were made from October 2003 to June 2005 and 165 specimens were collected and identified. Five families, 12 genera and 15 species are represented, including Agamidae: Laudakia caucasia, Phrynocephalus persicus, Trapelus ruderatus; Lacertidae: Lacerta media media, Lacerta strigata, Lacerta brandtii, Darevskia raddei raddei, Eremias strauchi strauchi, Eremias arguta, Ophisops elegans; Scincidae: Mabuya aurata transcaucasica, Eumeces schneiderii princeps, Abelepharus bivittatus; Anguidae: Pseudopus apodus and Gekkonidae: Cyrtopodion caspium caspium. Comparing this list to the data provided by Anderson (1999), it seems that most of the lizards are being reported for the Province for the first time. The families Gekkonidae and Anguidae are newly recorded, and the gecko Cyrtopodion caspium is first recorded from the west and northwest of Iran. With seven species represented in the area, lacertids have the highest species diversity among the lizard families and need further study. Habitat features also have been given for all species.

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The present work provides a list of all amphibians and reptiles recorded from Iraq up to 2014. It includes 115 species (105 species of reptiles and 10 species of amphibians) dating back to 25 families (20 families of reptiles and 5 families of amphibians). Conservation status of each species was mentioned.

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Vorarbeiten über Schädlingsfauna der Kriehtieren (Reptilien) in der Türkei -- Die Kriehtiere leben meistens auf dem Lande. Viele sind Insektenfresser. Zahlreiche Arten nehmen tierische und pflanzliche, oder ausschliesslich pflanzliche Nahrung zu sich. Ihre wirtschaftliche Schäden an Kulturpflanzen sind gelegentlich. Die besonderen Arten von Pflanzenschädlingen, die in der Türkei leben, sind noch nicht genugend untersucht. Darüber findet man heute sehr wenige und nur zerstreute Veröffentlichungen und Beobachtungen in der Hand. In dieser Vorarbeit sind die bisheute bekannten pflanzenschädliche Arten von Kriehtieren bzw. Eidechsen und Schildkröten, in ihren Verbreitungsgebieten und ihre Nährpflanzen zum erstenmale zusammengestellt. Selbstverstândlioh sind darüber weitere und vertiefte Beobachtungen erforderlich. -- Die Arten der Eidechsen: Agama stellio L. (Schleuderschwanz). Verbreitung: Anatolien, Ankara (Ebner 1919, Kerville 1939). Nährpflanzen: Die süssen Früchten wie Feigen, Pfirsiche, Zuckermelonen, und andere Früohte, Salate, Lattichsalate.,- Agama stellio stellio L. Verbreitung: Süd - und west Türkei, Amasya, Nigde, Diyarbakir, Kayseri, Çanakkale (Bodenheimer 1946 und andere). Nährpflanzen: Wie bei Agama stellio L. -- Agama ruderata Oliv. (Ankara, Kerville 1939), Agama ruderata ruderata Oliv. Ankara, Eregli (Konya), Mardin, Nusaybin, Gaziantep und Malatya (Bodenheimer 1946), Eine Probe in Eregli (Konya) wurde vom Verfasser gefunden. Nährpflanzen: Noch nicht festgestellt, vielleicht wie bei Agama stellio L. -- Lacerta viridis Laur. var. major D. und B. (Srnaragdeidechse). Verbreitung: Westanatolien, andere Fundorte sind nicht bekannt. Nährpflanzen: Weintrauben, Feigen, Kirchen und andere süsse Früchten. Note: Noch mehrere Lacerta Arten wurden in der Türkei gefunden, ob sie pflanzliche Nahrung zu sich nehmen oder nicht, ist unklar. -- Die Arten der Schildkröten. Testudo graeca L. (Grichische Schildkröte). Verbreitung: Fast in allen Geblieten der Türkei. Nährpflanzen: Steppenpflanzen, junges Getreide - Baumwolle -Luzerne - Pflanzen, Gemüsen, Weintrauben, Blätter und Juruge Triebe von vielen jungen Pflanzen. -- Emys orbicularis L. (Surnpf-oder Europäische Schildkröte). Verbreuitung: Ankara (Kerville 1939), Manisa, Bursa, Kayseri, Eski¬sehir, Adapazari, Turhal (Bodenheimer 1946 und andere). Nährpflanzen: Wedntrauben, Zucker-und Wassermelonen. - Note: Noch andere Arten der Schâldknöten leben auch in der Türkei, aber ihre Nahrung ist nicht bekannt.

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TERRA TYPICA. Krasnovodsk, southern Turkmenistan. DISTRIBUTION. L. strigata is widely distributed in North Eurasia. It lives predominantly in the eastern half of the Caucasus, at least up to the latitude of the towns Armavir and Stavropol in the Stavropol Territory in the north-west and the valley of the river Terek and lower reaches of the river Kuma in Dagestan in the north-east. In the eastern Transcaucasia it mainly occurs in the lowland regions of Azerbaijan, Armenia and Georgia, where it is not known to the west of the Suramsky range. Until recently an isolated population existed in the area of the cape Pizunda in Abkhazia. It also occurs in the south-west of Turkmenistan. Outside of the Caucasus it is known from eastern Turkey and northern Iran. CONSERVATION STATUS. On the most part of the distribution range the number of the species is stable.

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Acanthodactylus cantoris blanfordi, Acanthodactylus cantoris schmidti, Acanthodactylus fraseri, Acanthodactylus micropholis, Apathya cappadocica urmiana, Eremias arguta, Eremias brevirostris, Eremias fasciata, Eremias grammica, Eremias guttulata, Eremias intermedia, Eremias lineolata, Eremias nigrocellata, Eremias persica, Eremias pleskei, Eremias scripta, Eremias strauchi, Eremias velox velox, Lacerta brandtii, Lacerta chlorogaster, Lacerta princeps princeps, Lacerta princeps kurdistanica, Lacerta saxicola defilippii. Lacerta saxicola raddei, Lacerta strigata, Lacerta trilineata media, Ophisops elegans.

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Acanthodactylus blanfordi, Acanthodactylus boskianus, Acanthodactylus grandis, Acanthodactylus micropholis, Acanthodactylus nilsoni, Acanthodactylus opheodurus, Acanthodactylus schmidti, Eremias acutirostris, Eremias andersoni, Eremias arguta, Eremias fasciata, Eremias grammica, Eremias intermedia, Eremias lalezharica, Eremias lineolata, Eremias nigrocellata, Eremias nigrolateralis, Eremias persica, Eremias pleskei, Eremias scripta, Eremias strauchi strauchi, Eremias strauchi kopetdaghica, Eremias velox velox, Lacerta brandtii, Lacerta cappadocica urmiana, Lacerta chlorogaster, Lacerta defilippii, Lacerta media media, Lacerta mostoufi, Lacerta praticola praticola, Lacerta princeps princeps, Lacerta princeps kurdistanica. Lacerta raddei raddei, Lacerta raddei vanensis, Lacerta steineri, Lacerta strigata, Lacerta valentini valentini, Lacerta zagrosica, Mesalina brevirostris brevirostris, Mesalina brevirostris fieldi, Mesalina watsonana, Ophisops elegans.

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Relatively little is known about the ecology of lizards in Iran. This paper serves as a brief introduction to five representative biotopes and their associated lizard species living syntopically, based largely on my own observations. The selected localities are found in 1) Masjed Soleyman, foothills of the Zagros Mountains, Khuzestan; 2) Kupal dunes, on the Mesopotamian Plain, Khuzestan; 3) Shah ‘Abbas Caravanserai, Dasht-e Kavir, on the Central Plateau; 4) an abandoned village in Sistan, ruined buildings and loose loess substrate; 5) Hyrcanian Forest, northern slopes of lower Alborz Mountains and the Gorgan region. The biotopes are characterized briefly and the concept of syntopy is discussed.

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Algyroides fitzingeri, Algyroides marchi, Algyroides moreoticus, Algyroides nigropunctatus, Lacerta agilis, Lacerta lepida, Lacerta princeps, Lacerta schreiberi, Lacerta strigata, Lacerta trilineata, Lacerta viridis, Lacerta andreanszkyi, Lacerta armeniaca, Lacerta bedriagae, Lacerta brandtii, Lacerta cappadocica, Lacerta caucasica, Lacerta chlorogaster, Lacerta cyanura, Lacerta danfordi, Lacerta derjugini, Lacerta dugesii, Lacerta fraasii, Lacerta graeca, Lacerta horvathi, Lacerta jayakari, Lacerta laevis, Lacerta monticola, Lacerta mosorensis, Lacerta oxycephala, Lacerta parva, Lacerta perspicillata, Lacerta praticola, Lacerta rudis, Lacerta saxicola, Lacerta vivipara, Gallotia atlantica, Gallotia galloti, Gallotia simonyi, Podarcis erhardii, Podarcis filfolensis, Podarcis hispanica, Podarcis lilfordi, Podarcis melisellensis, Podarcis milensis, Podarcis muralis, Podarcis peloponnesiaca, Podarcis pityusensis, Podarcis sicula, Podarcis taurica, Podarcis tiliguerta, Podarcis wagleriana, Psammodromus algirus, Psammodromus blanci, Psammodromus hispanicus, Psammodromus microdactylus.

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DNA sequence indicates the Lacertidae contain two subfamilies, Gallotiinae and Lacertinae, the latter comprising two monophyletic tribes, the Eremiadini of Africa and arid southwest and central Asia, and the Lacertini of Europe, northwest Africa and southwest and east Asia. Relationships within the 108 species of Lacertini are explored using mtDNA (291 bp cytochrome b; 329 bp 12S rRNA for 59 nominal species, and reanalysis of the data of Harris et al. 1998, and Fu 2000). The morphology of the tribe is reviewed and 64 of its characters (equivalent to 83 binary ones) also used to assess relationships. The Lacertini are assigned to 19 monophyletic units of 1 to 27 species, recognised here as the following genera (contents are indicated in brackets): Algyroides, Anatololacerta gen. nov. (L. danfordi group), Apathya (L. cappadocica group), Archaeolacerta (L. bedriagae), Dalmatolacerta gen. nov. (L. oxycephala), Darevskia (L. saxicola group), Dinarolacerta gen. nov. (L. mosorensis), Hellenolacerta gen. nov. (L. graeca), Iberolacerta (L. monticola group), Iranolacerta gen. nov. (L. brandtii and L. zagrosica), Lacerta s. str. (sand and green lizards, L. agilis group), Parvilacerta gen. nov. (L. parva and L. fraasii), Phoenicolacerta gen. nov. (L. laevis group), Podarcis (wall lizards), Scelarcis (L. perspicillata), Takydromus (Asian grass lizards), Teira (L. dugesii), Timon (ocellated lizards, L. lepida group) and Zootoca (L. vivipara). Both mtDNA and morphology indicate that Lacerta and Timon are sister taxa, and DNA suggests further possible relationships among genera (Fig. 1, p. 6). Neither DNA nor morphology indicates that the archaeolacertas (sometimes formalised as Archaeolacerta sens. lat.) form a clade. Instead, they are representatives of an ecomorph associated with living on rock exposures and using the narrow crevices that these contain. The Lacertidae probably arose in the European area, with the Gallotiinae later reaching Northwest Africa and the Canary Islands, and the ancestor of the Eremiadini invading Africa in the mid-Miocene. The Lacertini spread through much of their present European range and diversified, perhaps largely by repeated vicariance, around 12–16 My ago, producing the ancestors of the present mainly small-bodied genera, which then underwent often modest speciation. Three units spread more widely: the Lacerta-Timon clade of large-bodied lizards probably dispersed earliest, followed by Algyroides and then Podarcis. Overall, European Lacertidae show a pattern of repeated spread, often accompanied by restriction of previous groups. Expansion of Lacertini may have displaced earlier lacertid lineages from all or much of Europe; while spread of Podarcis may have restricted many other genera of Lacertini. The earlier expansion of the Lacerta-Timon clade probably did not have this effect, as difference in adult body size restricted competitive interaction with other forms. Several invasions of more distant areas also occurred: of East Asia by Takydromus over 10 My ago, and more recently of northwest Africa by Podarcis, Scelarcis and Timon, and Madeira by Teira. Relationships within the Eremiadini estimated from both mtDNA, and nDNA differ considerably from those based on morphology. They indicate relatively mesic forms may have diversified widely across Africa and given rise to at least three independent invasions of arid habitats. MtDNA also indicates that Lacerta andreanskyi belongs in the Eremiadini and may occupy a basal position there. It is assigned to a further new genus, Atlantolacerta gen. nov.

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Background. The purpose of the work is to clarify the species of turtles, lizards and snakes that P. S. Pallas noted in the Volga river basin and the Volga-Ural inter fluve. Pallas’s data on the reptile fauna of the region are compared with current data Materials an methods. The basis of the study was the analysis of Pallas’s publications. The names of reptiles used by Pallas with their modern names are identified. Results. From the Volga region, Pallas described two species of reptiles that are new to science: “Coluber melanis” (black forest-steppe form of the Vipera berus) and “Lacerta pipiens” (Alsophylax pipiens). From the interfluve of the Volga and the Ural Pallas described two species yet: “Lacerta apoda” (Pseudopus apodus) and “Lacerta mystacea” (Phrynocephalus mystaceus). The great naturalist noted in the Volga region also reptiles, whose modern names are: Emys orbicularis, Phrynocephalus helioscopus, Phrynocephalus guttatus, Phrynocephalus mystaceus, Eremias velox, Lacerta agilis, Natrix natrix, Natrix tessellata, Hierophis caspius, Gloydius halys, Vipera berus, Vipera renardi. At the beginning of the XXI century, one species of turtles, 11 species of lizards and 10 species of snakes reliably inhabit the region. Conclusions. The species of reptiles noted by Pallas, except for the Pseudopus apodus and the Gloydius halys, reliably inhabit the region at present. The data of the Pallas serve as a basis for studying the dynamics of species composition, distribution, abundance and phenology of reptiles in the Volga basin.

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Es gibt sicherlich verschiedene Möglichkeiten, im Terrarium gehaltene Eidechsen zu überwintern. Der eine schwört auf seinen Keller, der andere auf eine laubgefüllte Grube in seinem Garten. Nun, wem beides nicht zur Verfügung steht, dem kann auch ein Kühlschrank ganz ausgezeichnete Dienste leisten. Freilich ist nicht gemeint, die Eidechsen frei zwischen Wurst und Käse zu betten, vielmehr bedarf es einiger Vorbereitungen. Im wesentlichen stellen sich zur Überwinterung von Eidechsen 4 Fragen: 1. wen? 2. wann? 3. wie? Und 4. wie lange? Auf diese 4 Fragen soll im in diesem Bericht eine Antwort gegeben werden.

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Es gibt sicherlich verschiedene Möglichkeiten, im Terrarium gehaltene Eidechsen zu überwintern. Der eine schwört auf seinen Keller, der andere auf eine laubgefüllte Grube in seinem Garten. Nun, wem beides nicht zur Verfügung steht, dem kann auch ein Kühlschrank ganz ausgezeichnete Dienste leisten. Freilich ist nicht gemeint, die Eidechsen frei zwischen Wurst und Käse zu betten, vielmehr bedarf es einiger Vorbereitungen. Im wesentlichen stellen sich zur Überwinterung von Eidechsen 4 Fragen: 1. wen? 2. wann? 3. wie? Und 4. wie lange? Auf diese 4 Fragen soll im in diesem Bericht eine Antwort gegeben werden.

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The longevity of several lacertid lizard species in captivity is reported. The conditions of keeping, which have been successful throughout many years, are briefly presented.

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General remarks on Georgia as nature area and on ist herpetofauna, with discussion about ist population density. Short presentation and hints on distribution and habitats of Eremias arguta transcaucasica, E. velox caucasica, Ophisops elegans elegans, Lacerta agilis brevicaudata, L. agilis ioriensis, L. agilis grusinica, L. media media and L. strigata.

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Many regions of the former USSR still re- ceive little attention from Western visitors, herpetologists not excluded. For the Cau- casus Mountains this is all the more sur- prising since the area forms a zone where northern and Middle Eastern flora and fauna meet, and which is thus of considera- bly zoogeographical interest. Presently we find three larger states in the Caucasus: Georgia, Azerbaijan and Arme- nia. Turkey borders to the southwest, Iran to the southeast, and in the north it is the Russian federation. Various smaller parts claim independence. The Black Sea forms the natural western boundary, the Caspian Sea the eastern one. Herpetologically the Caucasus is historically well-known because of the work of Darev- sky and collaborators on the rock lizards (at the time still in the large genus Lacerta, now in Darevskia) and the discovery of the first case of parthenogenesis in vertebrates (DAREVSKY, 1967; DAREVSKII, 1978; DAREVSKY & KULIKOVA, 1961). Below we will concentrate on the results of our field trip to Georgia during the last two weeks of June 2003. Predictably, because of our common interest in the group, the lacertids will receive the most attention.

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The interspecific relationships among female size, clutch size, egg size, and hatchling size were examined for 64 European lacertids. The eggs of all species increased linearly in both linear dimensions and mass during incubation. Across species initial egg mass was positively correlated with juvenile mass, with an allometric relationship exponent of 0.87. Initial egg mass across species increased proportionally with female mass to the power of 0.57. Moreover, an increase in maternal mass was also accompanied by an increase in clutch size. The number of eggs per clutch across species scaled with female mass to the power of 0.39. Removing the effect of female mass resulted in a negative correlation between egg mass and clutch size. Species for which the average egg size was lower than expected on the basis of female mass, tended to have larger relative clutch size. The total egg mass per clutch was about one third of female mass (exponent 0.94).

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A new tandemly repeated (satellite) DNA family namely Agi160, from Lacerta agilis and Lacerta strigata (Lacerta sensu stricto (s. str.), Linnaeus 1758) have been cloned and sequenced. Agi160 is found in the above two species, as well as two other representatives of the same genus, L. viridis and L. media. DNA hybridization did not reveal it in Darevskia, Podarcis, Zootoca, Eremias, Ophisops, and Gallotia - the other genera of the family Lacertidae. The results suggest that Agi160 is a Lacerta s. str. specific family of tandem DNA repeats. However, a comparison between sequences of Agi160 and CLsat repeat units revealed 60 bp regions 62-74% identical. The latter is a satellite DNA family typical for Darevskia (syn. L. saxicola complex) (Grechko et al., Molecular-genetic classification and phylogenetic relatedness of some species of Lacertidae lizards by taxonoprint data. Mol Biol 32:172-183, 1988.). Both Agi160 and CLsat tandem repeats share several common features (e.g., the same AT content and distribution of multiple short A-T runs, internal structure of repeated units, the presence of conservative regions). These data are indicative of their common origin and a possibly strong selective pressure upon conserving both satellites. A comparative analysis of structure, organization, and abundance of these two families of satDNA reveals evolutionary pathways that led to their formation and divergence. The data are consistent with the hypotheses of the concerted evolution of satellite DNA families. The possibility of use of Agi160 as a phylogenetic tool, defining relationships within Lacerta s. str., as well as within the whole family of Lacertidae is discussed.

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Comparative analyses were carried out about the variability of the pileal shields of different species belonging to the family Lacertidae. The results of the comparisons have been evaluated in respect to the phylogenetical relationships existing between the different genera and species of the family.

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We describe a case of temporary transfer of a striated lizard, Lacerta strigata Eichwald, 1831 to eating winged individuals of the cornfield ant, Lasius alienus (Foerster, 1850) registered in the territory of the Staropavlovskaya village, Stavropol region.

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New data on the distribution of four species of lizards (Darevskia brauneri, D. daghestanica, Lacerta agilis ioriensis, L. strigata) in the Caucasus are presented.

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A reptile catalogue of the Zoological Museum, Stavropol State University, is presented. 1,019 specimens of 88 species collected within the territories of Russian Federation, Ukraine, Georgia, Kazakhstan, Uzbekistan, Turkmenistan, and some other areas are listed. The history of the Museum and the formation of its collection are given.

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DNA barcoding remains a recognized and widely used method for taxon identification in biodiversity inventory and monitoring. In this publication, we present information about the results of using this method in the study of green lizards of the genus Lacerta. A total of 67 sequences of the COI gene fragment of three species (L. agilis, L. media, L. strigata) were analyzed. For the first time, all subspecies of L. agilis known in the Caucasus were studied using DNA barcoding, and a phylogeographic hypothesis for L. strigata in the Caucasian part of the range was proposed. Genetic identification has been successful at the species level. In the composition of L. agilis within the Caucasus, we can diagnose only the subspecies L. a. boemica and L. a. exigua, while L. a. brevicaudata, L. a. grusinica and L. a. mzymtensis are identical from L. a. exigua, while L. a. ioriensis from L. a. boemica.

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DNA barcoding remains a recognized and widely used method for taxon identification in biodi- versity inventory and monitoring. In this publication, we present information about the results of using this method in the study of green lizards of the genus Lacerta. A total of 67 sequences of the COI gene fragment of three species (L. agilis, L. media, and L. strigata) were analyzed. For the first time, all subspecies of L. agilis known in the Caucasus were studied using DNA barcoding, and a phylogeographic hypothesis for L. strigata in the Caucasian part of the range was proposed. Genetic identification has been successful at the species level. In the composition of L. agilis within the Caucasus, we can diagnose only the subspecies L. a. boemica and L. a. exigua, while L. a. brevicaudata, L. a. grusinica, and L. a. mzymtensis do not differ in this marker from L. a. exigua and L. a. ioriensis from L. a. boemica.

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An analysis of the spatial distribution of green lizards of the genus Lacerta in Dagestan is given. The distribu- tion ranges of L. agilis, L. media, and L. strigata are specified and detailed. A set of vector (points of records) and raster synthetic maps are created, reflecting the spatial distribution of species. Bioclimatic modeling of habitat suitability is carried out. The minimum overlap of ecological (eco-climatic) niches is noted for L. me- dia with all species studied, the maximum in L. agilis and L. strigata.

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An analysis of the spatial distribution of green lizards of the genus Lacerta in Dagestan is given. The distribu- tion ranges of L. agilis, L. media, and L. strigata are specified and detailed. A set of vector (points of records) and raster synthetic maps are created, reflecting the spatial distribution of species. Bioclimatic modeling of habitat suitability is carried out. The minimum overlap of ecological (eco-climatic) niches is noted for L. me- dia with all species studied, the maximum in L. agilis and L. strigata.

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An analysis of the spatial distribution of green lizards of the genus Lacerta in Dagestan is given. The distribution ranges of L. agilis, L. media, and L. strigata are specified and detailed. A set of vector (points of records) and raster synthetic maps is created, reflecting the spatial distribution of species. Bioclimatic mod- eling of habitat suitability is carried out. The minimum overlap of ecological (eco-climatic) niches is noted for L. media with all the species studied, and the maximum overlap is observed in L. agilis and L. strigata.

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From the publisher: Before you a unique atlas-determinant. For the first time in one edition descriptions of all species of amphibians and reptiles living on the territory of Russia are presented, illustrated with beautiful color photographs. The book is written by E.A. Dunaev and V.F. Orlova, the famous Russian herpetologists, researchers of the Zoological Museum of Moscow State University named after MV Lomonosov. Lomonosov. A simple and accessible form of presentation, detailed descriptions of the external appearance, lifestyle and behavior, photographs reflecting all variants of the variability of these animals, will help the curious reader to become more familiar with turtles, snakes, lizards, frogs and other representatives of the herpetofauna. And special keys will allow you to determine who you met on a country walk, in a city park, at a dacha or while traveling to different corners of our country. The book is of great interest not only for nature lovers, but also for specialists in herpetology and students of biological faculties of universities. It lists the amphibians and reptiles of the native fauna, reflects the latest changes in the taxonomy of these groups, lists species included in the Red Book of Russia and regional Red Books, lists reference and scientific publications on reptiles and amphibians of Russian fauna.

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A specially optimized restriction analysis of highly repetitive DNA elements, called DNA taxonprint, was applied for phylogenetic study of primates and lizards. It was shown that electrophoretic bands of DNA repeats revealed by the taxonprint technique have valuable properties for molecular systematics. Approximately half of taxonprint bands (TB) are invariable and do not disappear from the genomes during evolution or change spontaneously. Presumably these invariable bands are restriction fragments of dispersed DNA repeats. Another group represents variable taxonprint bands that differ even between closely related species. These variable bands are probably represented by tandem DNA repeats and could be used as species-specific markers. It was shown that taxonprint bands are independent characters since the appearance of a new taxonprint band does not change the previous band pattern. Phylogenetic reconstruction carried out on taxonprint data demonstrated that this approach could be of general utility for molecular systematics and species identification.

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Squamata or scaled Reptiles are the largest order of new Reptiles including Lizards, Snakes and Amphisbaenia. They have formed 95 precent of new Reptiles. Our goal is Lizard Biodiversity of Torbat-e Heydaryeh in Razavi Khorasan Province. The study of Lizards Biodiversity of Torbat-e Heydaryeh in Razavi Khorasan Province was carried out in 2012 until 2013. In this research 132 specimens were collected and observed and identified on the basis of morphological, morphometric and meristic characters. The collected and observated Lizards belonging to 5 families: Agamidae, Lacertidae, Scincidae, Gekkonidae and Varanidae including 8 genera and 12 species. Results showed that Agamidae and Lacertidae families have the most frequency. The Agamidae family has the most genera and Lacertidae family has the most species. laudakia caucasia, laudakia microlepis, Trapelus sanguinolentus and Mesalina watsonana were the dominant species in this region and had a wider distribution rang in coparision with other species.

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Partial DNA sequences from three mitochondrial (cytochrome b, 12S rRNA and 16S rRNA) and two nuclear (-fibrinogen intron 7 and C-mos) genes were used to estimate the phylogenetic relationships among all eight extant species of green lizards, Lacerta sensu stricto, and many currently recognized subspecies. All eight species form a monophyletic group. L. agilis, L. schreiberi and L. strigata are genetically well differentiated species. L. trilineata and L. pamphylica are not monophyletic units based on analyses of the -fibrinogen intron 7. Lacerta media is closely related to some Lacerta trilineata. L. bilineata and L. viridis are closely related, and recognition of L. bilineata as a distinct species makes L. viridis paraphyletic also. For both L. bilineata and L. viridis, some subspecies appear to remain in their southern glacial refugia, while a single genetic entity shows successfully postglacial expansion. The topology derived from C-mos variation is concordant with that derived from mtDNA, with substitutions occurring at a similar rate to that of transversions in the rRNA genes. Although C-mos is typically used at deeper taxonomic levels it is also phylogenetically informative within green lizards. -fibrinogen intron 7, typically used for assessing phylogenetic relationships among bird species, is a useful phylogenetic marker for reptiles also, showing considerable variation between species. There is not complete concordance between estimates of relationships derived from the mtDNA and nuclear markers, probably because rapid diversification led to incomplete lineage sorting in the green lizards. Introgression could also be occuring between some species.

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Four types of nuclear DNA markers identified by the taxonprint, RAPD, and IMP (Inter-MIR-PCR) methods, and the nucleotide sequences of satellite DNA monomers have been used to analyze the molecular genetic similarity between some populations, subspecies, and species of lizards combined into the group Lacerta s. str., as well as representatives of some other genera. The notions on the systematics and phylogeny of this group based on morphological and zoogeographic criteria have been compared to the conclusions based on molecular genetic data. The genus and species subdivisions of populations based on nuclear molecular markers and morpho- logical characters generally agree with each other, the degree of genetic differences being correlated with the tax- onomy suggested by zoomorphologists. The degree of differences between the subspecies of one of the species studied, Lacerta agilis, varies depending on the molecular markers used: according to the results of RAPD anal- ysis, all subspecies substantially differ from one another, the variation within populations being small; with respect to other markers, the differences are smaller and not equivalent. The existence of the so-called eastern and western clades of this species earlier assumed by other researchers on the basis of mtDNA and morphological data has been confirmed. There are no distinct gradations exceeding individual variation in 14 populations of L. agilis exigua (the eastern clade) with respect to IMP markers, although these populations inhabit a vast area from the Ural Mountains to the Kabardino-Balkar Republic (the Caucasus). These data suggest that the subspecies has been rap- idly spreading northwards since the Pleistocene glaciation (about 15,000 years ago).

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Multiple band patterns of DNA repeats in the 20–500-nucleotide range can be detected by digesting genomic DNA with short—cutting restriction endonucleases, followed by end labeling of the restriction fragments and fractionation in nondenaturing polyacrylamide gels. We call such band patterns obtained from genomic DNA ‘‘taxonprints’’ (Fedorov et al. 1992). Here we show that taxonprints for the taxonomic groups studied (mammals, reptiles, fish, insects—altogether more than 50 species) have the following properties: (1) All individuals from the same species have identical taxonprints. (2) Taxonprint bands can be subdivided into those specific for a single species and those specific for groups of closely related species, genera, and even families. (3) Each restriction endonuclease produces unique band patterns; thus, five to ten restriction enzymes (about 100 bands) may be sufficient for a statistical treatment of phylogenetic relationships based on polymorphisms of restriction endinuclease sites. We demonstrate that taxonprint analysis allows one to distinguish closely related species and to establish the degree of similarity among species and among genera. These characteristics make to use this phenomenon for phylogenetic aims (Cooke 1975; Christie and Skinner 1979; Brown and Dover 1979, 1980; Elizur et al. 1982; Hembelen et al. 1982; Buckland 1983; Dandieu et al. 1984; Lima de Faria et al. 1984; Shubina and Mednikov 1986; Turner et al. 1991), but this approach has not been extensively applied. In this paper we have reexamined the problem on the basis of our own preliminary results, partly published in Russian journals, confirming the ideas about possible correlations between evolution of DNA repeats and speciation (Fedorov et al. 1992; Grechko et al. 1993; Potapov and Ryskov 1993). We have demonstrated that the modified method designated ‘‘DNA taxonprint’’ (Fedorov et al. 1992) can be effectively used for revealing species—specific genomic markers in different taxonomic groups. These taxonprint markers are found to be helpful for evaluation of the degree of species similarity between species, genera, and families. More than 50 species from different taxa were studied.

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Six species belonging to the genus Lacerta live in Türkiye. In this study, both present and future potential distribution maps were created based on occurrence data and climatic variables for these six species. Two scenarios for future projections (shared socioeconomic pathways, SSPs,: 245 and 585) and two timeframes (2041–2060 and 2081–2100) were used. The present and future potential distributions of these species were compared. As a result, it was predicted that the distribution ranges in the six species will expand in the future, and this expansion has revealed new environments.

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Ecological niche modeling (ENM) is one way to achieve niche differentiation. In the present study, habitat suitability of Lacerta media Lantz & Cyrén, 1920 and Lacerta strigata Eichwald, 1831 was evaluated and the ecological niche spaces were evaluated between the two species. Based on the maximum entropy (MaxEnt) result, northwestern and western Iran has been predicted as the most suitable for L. media and the southern Caspian Sea region has been predicted as suitable for L. strigata presence. Also there are several records of L. strigata presence in East Azarbaijan and Fars provinces and L. media presence in Alborz, Markazi and Esfahan provinces that are currently situated outside the suitable predicted region. Maximum temperature of the coldest month and precipitation of the warmest quarter with contribution more than 68% and 76% for L. media and L. strigata, respectively, were distinguished as the key contributing factors for the presence of both species. However, ecological niche overlap was calculated between the two species and that the niches were significantly different.

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This publication on the herpetofauna oft he Caucasus is a compilation oft wo articles published in 1967 and 1970 (Zool. Abh. SStaatl. Mus. Tierk. Dresden 29, pp. 85-93 and Aquarien terrarien 17, pp. 120-123.

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The Caspian Green Lizard, Lacerta strigata Eichwald, 1831, is a member of the Lacertidae family distributed in the Caspian coast of northern Iran. The specimens were found in coastal dunes, hilly areas and pastureland containing some shrubby cover. In this research, the reproductive biology of this species was studied from April 20 to September 5, 2013. Forty eight adult specimens including 24 females and 24 males were collected by hand at midday from three sampling stations (Goharbaran, Ab-Bandansar and Ab-Bandankesh) of Sari County, located in Mazandaran Province of Iran. Ovaries and testes were removed and processed for histological and morphometric studies. In females, there were 6¬17 follicles in each ovary. Totally, 6¬10 oviductal eggs were observed in mature females. The oogenic and spermatogenic cycle begins from late March, mating starts from early May, with oviposition occurring from late May to late June, with the possibility of producing a secondary clutch later in the season. In males, the mean number and mean diameter of seminiferous tubules were 86.95 and 190.4750 microns, respectively. The mean diameter of tunica albuginea, germinal layer and lumen were 18.75, 69.79 and 144.27 microns, respectively. Maximum reproductive activity occurs from early May to early June, reduces from early July and ends in August. Hence, oogenesis and spermatogenesis occurs from April through July, L. strigata follows a seasonal reproductive cycle with associated type.

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The aim of this study is to detect areas of endemism in lizards in Iran. This is the first study of its kind focusing on this subject. Areas of endemism for two families of lizards (Lacertidae and Gekkonidae) that have the highest number of endemic species than other lizard families in Iran were identified by Parsimony Analysis of Endemicity (PAE). Distribution data were collected from previous studies on the Iranian lizards and also from the recent literature on the descriptions of new endemic species. A total of 81 species of lizards were available for analysis. The study area was divided into a 2° × 2° grid of 63 Operational Geographic Units (OGUs). PAE was applied to the data matrix to detect areas of endemism and detected eight areas of endemism in southwestern Iran and near the Persian Gulf. Southern Iran is the main region where most species from Arabia came into Iran and were stopped in their dispersal. Two grids in southern and northeastern Iran were recognized as the areas with the highest density of species in the studied families. Lacertidae and Gekkonidae did not have a shared endemic species in the region (cells 59 and 60) but the area of endemism identified by PAE in the Persian Gulf region suggests that exchange between Iranian and Arabian herpetofauna was very high during interglacial periods. The distribution pattern of the endemic species of these families is concentrated in the region of the Alborz and the Zagros Mountains, but the single area of endemism in southern Iran has an important role in the historical biogeography of the Iranian herpetofauna. During interglacial periods, the Persian Gulf acted as a corridor between the herpetofauna of the two sides and this suggests the importance of this area of endemism for the Gekkonidae family. Also, the OGUs with the highest density of species are located around the country and, the lowest density is in the Central Plateau. PAE detected eight areas of endemism in southwestern Iran, but according to the number of species per units, two OGUs can be identified as high density in northeastern and southern Iran.

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The life and work of the Alsatian Louis Amédée Lantz (1886-1953), a pioneer of European herpetology. A trained and professional research-chemist, the Alsatian Louis Amédée Lantz was an active and particularly dynamic herpetologist. His residence of nearly twelve years in Russia enabled him to make several field trips to regions such as the Caucasus and Iran. He always carried with him a home made telescopic net that he used to catch lizards. That net became symbolic of Lantz for most people around him. He realized significant herpetological collections mainly deposited in the Museum of the Zoology Institute of the Russian Academy of Sciences in St. Petersburg. Soon after the Russian Revolution in 1917, he had to leave the country and stayed for a few years in France before joining England. During this period, Lantz visited the French Pyrenees and the Mediterranean border (Hyeres Islands, Bandol), enabling him to discover for the first time oviparous populations of common lizard and also to describe a new species of lizard from the French Pyrenees. Lantz is also at the origin of the discovery of unisexual reproduction by parthenogenesis in reptiles. His collaboration with the Swedish amateur herpetologist Otto Cyrén, whom he met through the German herpetologist Willy Wolterstorff, was particularly successful throughout his career. Lantz died at the age of 66 years, in Switzerland, as he was about to join the team of herpetologists at the Natural History Museum in Paris.

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Several recent papers have reviewed the life and work of French herpetologist Louis Amédée Lantz. They have detailed the composition of his collections deposited in several museums. However, since then, several other important specimens from his collections deposited at the Natural History Museum (NHM, UK) have come to light and we here present all of them in detail. We discovered paralectotypes of Lacerta saxicola obscura Lantz & Cyrén (BMNH 1918.11.21.5–7), syntypes of Lacerta boemica Sukhov (BMNH 1960.1.4.26–30, BMNH 1965.337–342) and Lacerta viridis media Lantz & Cyrén (BMNH 1960.1.4.25, 1966.512). We also identified numerous specimens from the French Mediterranean islands in Lantz’s collection deposited at the NHM, some of which represent the first reported specimens of their species from certain islands. We here provide data on all these specimens. We also place the Mediterranean island specimens from the Lantz collection in their historical context and emphasize the historical and taxonomic value of these collections.

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Little is known about altitudinal distribution of lizards in Iran. In the present study we studied distribution pattern of members of family Lacertidae along the eleveatinal gradient in Iran. To determine environmental drivers of distribution pattern of 48 lizard species, all known valid members of family Lacertidae, along elevational gradient in Iran. Firstly, we classified Iran digital elevation model (DEM) based on 100m intervals, that resulted in 56 altitudinal bands and number of species in each band was recorded. Secondly, we extracted mean value of following variables; altitude, slop, area, solar radiation index (SRI), normalized differences vegetation index (NDVI), annual precipitation, precipitation of wettest month, precipitation of driest month precipitation, precipitation of wettest quarter, precipitation of driest quarter, and precipitation of warmest quarter, and using VIF measure correlated variables were removed. Finally, we performed a multiple regression and found that area and precipitation of warmest quarter are the most important drivers of distribution pattern of family Lacertidae along elevational gradient in Iran. General distribution pattern of family Lacertidae was unimodal and maximum number of species living from 1475 m to 1675 m.

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Within its range, the Caspian green lizard, Lacerta strigata, occurs in the Elburz Mountains (northern Iran) at elevations from below sea level to approximately 2700 m a.s.l. To determine the environmental factors affecting the distribution of this lizard, we used an ensemble approach to model the distribution of the Caspian green lizard (Lacerta strigata) in Iran using four algorithms (generalized boosted model, maximum entropy, generalized linear model, random forest). Results revealed that low-elevation habitats between the Elburz Mountains and the Caspian Sea are the most suitable habitats for the species. The normalized difference vegetation index (NDVI), annual precipitation (both with positive relationships), and altitude (with a negative relationship) were the most important environmental variables influencing the distribution of the species. NDVI was likely the most important variable because it is an indicator of plant productivity, which presumably influences the availability of food resources such as insects. We also tested the validity of an old distribution record for the species near Shiraz in southwestern Iran. The results show that southwestern Iran is not ecologically suitable for the species. As our results highlighted that the NDVI strongly affects distribution of the species, we suggest protection of vegetation cover in the habitat of the species for conservation of Lacerta strigata.

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Materials and methods. Observations of Amphibians and Reptiles were carried out during two tourist trips in March 2016 and in May 2018 in the Iranian provinces of Gilan and Ardebil.
Results. New data on the distribution of 6 species of Amphibians (Bufo eichwaldi, Bufotes variabilis, Hyla orientalis, H. savignyi, Pelophylax ridibundus, Rana pseudodalmatina) and 21 species of Reptiles (Emys orbicularis, Paralaudakia caucasia, Trapelus ruderatus, Darevskia chlorogaster, D. defilippii, D. raddei, Eremias strauchi, Iranolacerta brandtii, Lacerta strigata, Ophisops elegans, Ablepharus bivittatus, Heremites auratus, Pseudopus apodus, Eryx jaculus, Eirenis punctatolineatus, Hemorrhois ravergieri, Platyceps najadum, Telescopus fallax, Xerotyphlops vermicularis, Natrix natrix, N. tessellata) in the study area were obtained. The author compares the obtained data with the results of other Herpetological researches in the region.
Conclusions. In general, the herpetofauna of the Caspian slopes of the Talysh Range in Iran is an inseparable part of mesophilic herpetocomplexes with the prevalence of gyrcan elements common from the north-western foothills of Talysh in Azerbaijan to the Western Kopetdag in Turkmenistan.

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is article provides data on the distribution of lacertid lizards in the region of the Southwest Caspian. e study was performed between 2007 and 2014 in the territory of Jalilabad, Masalli, Yardimli, Len- koran, Masalli and Lerik administrative districts of the Republic of Azerbaijan. On the basis of eld data and the results of studies of museum collections, we noted a change in the range of lizards under the in uence of anthropogenic deforestation. In particular, it is noted that there is a narrowing of the distribution of the green belly lizard, Darevskia chlorogaster and the extension of the habitats of Azer- baijani, D.raddei and striped, Lacerta strigata lizards. Because of the fact that the green belly lizard distribution in the region decreased by more than a third, it is proposed that it be included in the Red Data Book of Azerbaijan.

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The zone of syntopy between Lacerta agilis, Lacerta strigata and Parvilacerta parva were discovered in vicinity of Mets Parni village, Lori Province, Armenia. 93 individuals of L. agilis (83.7%) and18 of L. strigata (16.2%) and one lizard of P. parva were examined during 2009-2011. According to our observations, the season activity of L. agilis is shorter than syntopic L. strigata on month. L. strigata emerged from hibernation at mid-April and were active until the mid-October, while L. agilis left winter burrows two week after L. strigata at the beginning of May and disappeared into hibernation on two week earlier at the end of September. Females of L. strigata lay thier irst clutchof eggs at the end of May, whereas L. agilis lay the irst clutch at the beginning of summer. The hatchlings of both species active till end October when the thermal conditions still favourable. Similarly, the appearance of young from winter hibernation occurs earlier than adults. Our surveys also revealed that two syntopic species possess spacial diferentiation of the same slope, where in bottom of slope were met L. strigata, in the middle of slope were both species and on higher places near to top of slope were mainly L. agilis. Thus, the dates of season activity, stages of reproductive cycles as well as pattern of spacial diferentiation allow to syntopic species to share resources of habitats.

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An overview of the cases of introduction (both accidental and intentional) of amphibians and reptiles in the Caucasus and Crimea is provided. The introduction cases are systemized in accordance with the goals and ways of introduction and with regards to the expected scale of the impact and its nature. No negative consequences of the introduction of amphibian and reptile species in the Crimea and Caucasus are currently observed on any of the known examples. No cases of species naturalization, which the “invasion” term can be applied to, have been revealed. The importance of allochthonous populations as experimental sites to study microevolutionary processes and ecological adaptations of the species in new environmental conditions is discussed.

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Turkey is biogeographically diverse and consequently has a rich herpetofauna. As a result of active herpetological research, the number of species has steadily increased in recent years. I present here a new checklist of amphibian and reptile species distributed in Turkey, revising the nomenclature to reflect the latest taxonomic knowledge. In addition, information about the systematics of many species is also given. In total 35 (19.4%) amphibian and 145 (80.6%) reptile species comprise the Turkish herpetofauna. Among amphibians, 16 (45.7%) anurans and 19 urodelans (54.3%) are present. Among reptiles, 11 (7.6%) testudines, 71 (49%) saurians, 3 (2.1%) amphisbaenians and 60 (41.3%) ophidians are considered part of the herpetofauna. The endemism rate in Turkey is considered relatively high with a total of 34 species (12 amphibian species – 34.3% and 22 reptile species – 15.2%) endemic to Turkey, yielding a total herpetofaunal endemism of 18.9%. While 38 species have not been threat-assessed by the IUCN, 92 of the 180 Turkish herpetofaunal species are of Least Concern (LC), 13 are Near Threatened (NT), 10 are Vulnerable (VU), 14 are Endangered (EN), and 7 are Critically Endangered (CR). In addition, 6 species are in the DD (Data Deficient) category.

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The background species of the saurofauna of the southeastern periphery of the Tersk Sands in the early 1980s were Phrynocephalus guttatus (Gmelin, 1789), Eremias velox (Pallas, 1771) and Eremias arguta (Pallas, 1773). Research conducted in 1983–1984 showed that each of them had different preferred biotopes: Phr. guttatus – blown sands, E. arguta – fixed sands, E. velox – scattered shrubbery. At the turn of the 20th and 21st centuries, Phr. guttatus completely disappeared in the study area on the southeastern periphery of the Tersk Sands, and after 2008 - E. velox. Currently, the territory is inhabited by E. arguta and the widespread Lacerta strigata Eichwald, 1831. The rapid changes in the composition of the saurofauna can be explained primarily by the strict biotopic confinement of lizards in conditions of total steppification of the Terek sands. The transformation of landscapes brought stenobiont species, in the conditions of the Eastern Pre-Caucasus psammophile species of Turanian genesis, to the brink of extinction and created favorable conditions for eurybiont and/ or steppe forms. If existing trends continue, we can expect the complete disappearance of such obligate psammophiles as Phr. mystaceus (Pallas, 1776) and Phr. guttatus in the Terek Sands. They may be followed by Trapelus sanguinolentus (Pallas, 1814) and E. velox. In this case, biotopic preferences of a species determine their current and prospective sociological status.

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THE LACERTA VIRIDIS-COMPLEX Compared with the beginning of this century there has been a considerable change in taxonomy of the, mostly, green large lizards ofthe genus La- certa. Even in the last decade a lot of new facts are published on the green lizards of Turkey. A classification at the beginning of the century is given. L. agilis, L. jayakari, L. princeps, L. lepi- da, L. pater, L. schreiberi, L. pamphylica, L. stri- gata, L. media, L. trilineata and L. viridis are considered here as one group. A short discription of the species (also of the juveniles), the subspe- cies and the ranges of the species arc enumerated in this article.

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With its special ecological zones and various habitats, Iran shows a considerable variety of reptiles, among which the largest variety is related to lizards. The purpose of this study is to investigate the lizard fauna of the Dodangeh Wildlife Sanctuary in Mazandaran province. With an area of 15,673 hectares, DWR is located about 95 kilometers southeast of Sari, Mazandaran. Samples were collected and analyzed from April 2017 to the end of November 2017, and their metric and meristic traits were investigated. In this research, 54 lizard samples were collected. In total, seven lizard species from seven genera and five families, including Paralaudakia caucasia in the Agamidae, Anguis colchica, and Pseudopus apodus in the Anguidae, Tenuidactylus caspius in the Gekkonidae, Ablepharus pannonicus in the Sincidae, Darevskia caspica and Lacerta strigata in the Lacertidae family were identified. The Lacertidae had the most abundance among the families. Among the species, Darevskia caspica showed the highest frequency (24%) and Anguis colchica showed the lowest frequency (6%). Also, the images and key identification of species of the Dodangeh Wildlife Sanctuary were prepared. Considering the increasing development of human activities in the study area, the conservation value of lizards needs more attention. subspecies complexes is suggested.

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The paper describes the history of biogeographic views on the herpetofauna of both Dagestan and the Caucasus as a whole. The species are grouped into eight zoogeographic groups on the basis of our de- tailed chorological analysis. Mesophilous and xerophilous refuges of the Dagestan herpetofauna are de- scribed. Our herpeto-geographical subdivision of the territory is given. The territory of Dagestan is lo- cated in the Palaearctic subkingdom of Holarctic kingdom and divided between two areas, namely, the Turanian and Mediterranean ones. The boundary between the regions is the junction of the northern foot- hills and plains of the Eastern Caucasus. A possible reconstruction of the regional herpetofauna genesis is considered.

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Aim Body size is instrumental in influencing animal physiology, morphology, ecology and evolution, as well as extinction risk. I examine several hypotheses regarding the influence of body size on lizard evolution and extinction risk, assessing whether body size influences, or is influenced by, species richness, herbivory, island dwelling and extinction risk. Location World-wide. Methods I used literature data and measurements of museum and live specimens to estimate lizard body size distributions. Results I obtained body size data for 99% of the world`s lizard species. The body size–frequency distribution is highly modal and right skewed and similar distributions characterize most lizard families and lizard assemblages across biogeographical realms. There is a strong negative correlation between mean body size within families and species richness. Herbivorous lizards are larger than omnivorous and carnivorous ones, and aquatic lizards are larger than non-aquatic species. Diurnal activity is associated with small body size. Insular lizards tend towards both extremes of the size spectrum. Extinction risk increases with body size of species for which risk has been assessed. Main conclusions Small size seems to promote fast diversification of disparate body plans. The absence of mammalian predators allows insular lizards to attain larger body sizes by means of release from predation and allows them to evolve into the top predator niche. Island living also promotes a high frequency of herbivory, which is also associated with large size. Aquatic and nocturnal lizards probably evolve large size because of thermal constraints. The association between large size and high extinction risk, however, probably reflects a bias in the species in which risk has been studied.

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The growth rate was studied in L. strigata which occurs on different heights, from semideserts to mountain steppes of Armenia. It was established that in mountains the growth rate increased two-fold. The total duration of the active life of lizards from the mountain and foothill populations is about the same. The lizards of the mountain population reproduce 4-5 times during their life and those of the foothills reproduce 2 times.

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The etymology of the reptiles, especially the lizards of Iran has not been completely presented in other published works. Iran is a very active geographic area for any animals, and more especially for lizards, due to its wide range deserts and ecology. We have attempted to ascertain, as much as possible, the construction of the Latin binomials of all Iranian lizard species. We believe that a review of these names is instructive, not only in codifying many aspects of the biology of the lizards, but in presenting a historical overview of collectors and taxonomic work in Iran and Middle East region. We have listed all recorded lizards of Iran according to the order of the scientific names in the book of Anderson, The Lizards of Iran. All lizard species and types have been grouped under their proper Families, and then they have been alphabetically ordered based on their scientific binominal nomenclature. We also examined numerous published works in addition to those included in the original papers presenting each binomial.

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Presented is a comprehensive overview of data on the herpetological species occurring in the Ararat region of Turkey. A total of 41 species, including their first records, published historical localities, and respective sources, are recorded in this assessment of surprisingly high regional species richness.

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The phylogeny of 12 species of Caucasian rock lizards and ground lizards, genus Lacerta, subgenus Archacolacerta, was determined from allozyme data. Three additional species of Lacerta Sorlned the outgroup. Of the 35 loci resolved, 20 were phylogenetically informative. Permutation tail probabilities calculated using Hennig86 and RandomCladistics and g, statistics obtained in PAUP revealed significant pattern in the data. Our analysis resolved 12 most parsimonious trees; among which were three well-supported monophyletic groups: I) (Lacerta alpina, L. caucasica, L. daglzestanica) [the L. caucasica group]; 2) (L. mixta. L. saxicola. L. raddei-nairensis) [the L. saxicola group]; and 3) (L. parvlila, L. portschinskii (L. valentini, L. rudis)) [the L. ruciis group]. The second and third groups formed a clade. The ground lizards L. praticola and L. derj~cginwi ere resolved as ingroup members. but their placement in the globally most parsimonious trees was ambiguous. A preferred tree was chosen by alternately pruning L. praticola and L. devugini from the tree. In doing so, L. praticola was resolved as the sister taxon of the L. calccasica group; and L, derjligini was resolved as the sister taxon of the clade containing the L. snxicola and L. rrldis groups. Our results are somewhat congruent with the morphology-based phylogeny of Darevsky (1967).

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60 species of reptiles live in the Azerbaijan Republic. From them 17 species, or 28.3% are spread on Absheron Peninsula. These species belong to 3 orders, 13 families, 22 genera. Lizards are reptiles belonging to the order Squamata. On Absheron peninsula lizards inhabit a wide variety of biotopes, from garden habitats to sand dunes. Most species of Absheron are diurnal, but Caspian bent-toed geckos comprise a night time fauna in many habitats. Many species, can shed their tails in order to escape from predators. Lizards have many morphological adaptations that suit them to the substrates they inhabit, from specialized toe-pads in vertical rock-face dwellers to fringed-toes in loose-sand runners. Modern scientific study of lizards in Absheron began with the field natural history studies of E.P. Menetriem and E.E. Eichwald in the 19th century.

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The Herpetofauna of the Mountain ridge of Central and Southern Greece has been somewhat neglected compared to the island fauna. Especially the vertical distribution of species is scarcely documented, perhaps due to the poor accessi- bility of these parts of Greece. Only recently the Greek mountains have come in focus of herpetologists, mainly induced by questions about the distribution of vipers. Green lizards {Lacerta s. str.) are a well defined group, in which the different species need different thermal conditions for egg incubation, which results in different northern distributionboundaries (RYKENA 1987). Southern boundaries and vertical distributions have been discussed by some authors (B6HME 1978, 1989, NETTMANN & RYKENA 1984a, 1984b, RYKENA 1987, SCHMIDTLER 1986), but.detailed studies are still rare. As L. agilis was recently detected in Central Greece (NiLSON & ANDREN 1987), this region appeared to be appropriate to analyse the vertical distribution pattern of three green lizard species. The results of a preliminarystudy are presented here.

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The present work reports on Lacerta viridia atrigata Eichwald and L. princeps Blanf., from Iraq along with detailed notes on their natural . history, coloration as well as their taxonomy. Characters ot taxonomic importance are pointed out and a key to the available species of the Iraqi Lacerta is provided. Important evoiut!onary tendencies of certain taxonomic features are pointed out with some evolutionary notes related to the subject. The publlcation of Hass and Werner (1969) is critically discussed in relation to the present work.

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The global struggle to conserve as many species as possible with limited resources requires an improvement of our knowledge on the distribution of biodiversity. In Iran, the state of knowledge is poor for most groups of organisms, except few vertebrate groups and vascular plants. Reptiles are one of the best known, most diverse vertebrate groups in Iran, with a high rate of endemism (ca. 29%), but distribution patterns and related environmental drivers remain poorly understood. In the present study, based on a large publicly available dataset, we use general additive modelling (GAM) to identify explanatory variables for species richness of reptiles in Iran. Results indicate heterogeneity parameters (range +entropy) as the variables with the highest explanatory values. Based on the grid cells of the predicted environmental richness, using hotspot analysis, we suggest seven hotspots of reptile diversity (HRDs) across the country. Our results corroborate the previously recognized HRDs and detect three additional ones, located alongside the major mountain ranges around the central deserts plateau, particularly in the Zagros Mountains. Four of the largest HRDs (ca. 90%) situate within the Irano-Anatolian and Caucasus global biodiversity hotspot. In addition, our results reveal a large gap between identified HRDs and the current network of protected areas (PAs) in the country. While three of the detected HRDs in this study are partially touched (ca. 18%) by the PA network, overall, these areas are only covered by less than 10%. Therefore, the effectiveness of the current PAs for the protection of the reptile diversity of Iran is questionable.

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Trombiculid mites are known as vectors of larvae of Ericotrombidium caucasicum Schluger, 1967, Lacertacarus latus Schluger et Vasilieva, 1977, and Schoengastia sp. chigger mites (Acariformes: Trombiculidae) were col- lected from lizards Lacerta strigata and L. agilis (Reptilia: Lacertidae) in the Caucasus and adjacent territory (Iran). Our record of Ericotrombidium caucasicum in Azerbaijan is the first finding of the species in this country. Also, results of E. caucasicum on L. strigata and Lacertacarus latus on L. agilis are new host-parasite associa- tions. Schoengastia sp. has been reported from L. strigata for the first time.

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The tick-borne encephalitis (TBE) virus has been confirmed by molecular analysis in the Caucasus region for the first time. The virus obtained from a tick Ixodes ricinus ex Caspian green lizard belongs to the Zausaev strain of the Siberian subtype (not to a strain of the European subtype highly distributed in the territories adjacent to the Caucasus). This unusual record indicates the need to study the role of lizards in the circulation of natural focal infections.

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Based on a literature review, as well as on our own data, 14 ixodid tick species belonging to 5 genera were registered for the lizard hosts of the genus Lacerta (L. agilis, L. media, and L. strigata) in the Caucasus and the adjacent territories: Haemaphysalis sulcata, Haem. punctata, Haem. parva, Haem. caucasica, Haem. concinna, Haem. inermis, Ixodes ricinus, I. redikorzevi, Dermacentor marginatus, D. reticulatus, Hyalomma marginatum, Rhipicephalus bursa, Rh. rossicum, and Rh. turanicum. Tick species Haem. caucasica were recorded from Armenia for the first time. Our findings of Haem. punctata represent the first record of this species for Chechnya, Ingushetia (Russia), Armenia, and Azerbaijan. Most of the parasite species are associated with L. agilis (13) and L. strigata (12); L. media is a host of 6 tick species. Data on the infestation of Lacerta spp. by four tick species from our material (I. ricinus, Haem. punctata, Haem. caucasica, and Hyal. marginatum) are presented in the article. In addition, our article contains information on the range of infections associated with the above tick species. Castor bean tick I. ricinus (236 specimens), the most represented species in our collection, parasitizes all available terrestrial vertebrates including humans and can be vector of many various pathogens, so our study provides significant epidemiological information.

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In the first part of our travel report, we presented our reptile and amphibian finds in the Zagros Mountains. In the second part we report on our observations in the mountains of Tabriz, Zanjan, Manjil and Teheran between May 3rd and 7th, 2016.

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In the first part of our travel report, we presented our reptile and amphibian finds in the Zagros Mountains. In the second part we report on our observations in the mountains of Tabriz, Zanjan, Manjil and Teheran between May 3rd and 7th, 2016.

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Many animals display complex colour patterns that comprise several adjacent, often contrasting colour patches. Combining patches of complementary colours increases the overall conspicuousness of the complex pattern, enhancing signal detection. Therefore, selection for conspicuousness may act not only on the design of single colour patches, but also on their combination. Contrasting long- and short-wavelength colour patches are located on the ventral and lateral surfaces of many lacertid lizards. As the combination of long- and short-wavelength-based colours generates local chromatic contrast, we hypothesized that selection may favour the co-occurrence of lateral and ventral contrasting patches, resulting in complex colour patterns that maximize the overall conspicuousness of the signal. To test this hypothesis we performed a comparative phylogenetic study using a categorical colour classification based on spectral data and descriptive information on lacertid coloration collected from the literature. Our results demonstrate that conspicuous ventral (long wavelength-based) and lateral (short wavelength-based) colour patches co-occur throughout the lacertid phylogeny more often than expected by chance, especially in the subfamily Lacertini. These results suggest that selection promotes the evolution of the complex pattern rather than the acquisition of a single conspicuous colour patch, possibly due to the increased conspicuousness caused by the combination of colours with contrasting spectral properties.

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An updated checklist of the herpetofauna of Iran is presented based on records of amphibian and reptile species whose presence has been confirmed in Iran as a result of extensive field expeditions, examination of herpetological collections, literature review, and personal communications from researchers. The herpetofauna of Iran consists of 13 species and five subspecies of frogs and toads belonging to five genera and four families, eight species of salamanders belonging to four genera and two families, nine species and six subspecies of turtles, terrapins and tortoises belonging to nine genera and six families, one species of crocodile, one species of amphisbaenian, more than 125 species of lizards belonging to 36 genera and eight families as well as 79 species of snakes belonging to 37 genera and six families

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Der Nordosten Irans, ein faszinierendes Gebiet, einerseits durch die immense Ausdehnung arider (Hoch-) Ebenen und Hügelländer, andererseits durch die überraschende landschaftliche Vielfalt unmittelbar südlich des Kaspischen Meeres. So kontrastieren die beeindruckend dichten Hyrcanischen Wälder und das über 5000 m hohe Elburs-Gebirge die endlosen, staubtrockenen Weiten im Landesinneren. Dementsprechend groß ist auch die dortige Artenvielfalt: Knapp 60 Reptilien- und Amphibienarten konnten im Zuge der 14-tägigen Exkursion auf der 4000 km langen Rundtour beobachtet werden.

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n 2920 specimens of Lacerta agilis boemica and L. strigata from Daghestan the individual variation of the head scutes pattern was studied. About 150 different deviations from the normal pattern were revealed. These deviations include: absence of individual normal shields or fissures, separating adjacent shields (A); presence of additional shields or fissures (B); alterations of shields’ arrangement (C). In both species the next three properties of the variation were shown and discussed: 1) variants of group (B) are much more diversified and frequent than those of group (A); 2) the extent of the variation as well as its diversity is strictly limited; 3) deviations of groups A and B are discrete in their morphological expression. These properties are supposed to be determined by morphogenetic mechanisms, shaped in the course of evolution of head scutellation in the direction of oligomerization and formation of a regular and stable pattern.

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Using methods of statistical analysis, the extent of morphological inter- and intra-population variation in two sympatric lizard species (Lacerta agilis boemica and L. strigata) from the North Caucasus (Daghestan) was compared. 1042 specimens from 7 localities of lowland and foothill Daghestan were scored for 8 pholidotic features and 22 characters of head scutellation. The occurrence of evident differences in the extent of the interpopulation variation was revealed: the latter is higher in L. agilis as compared with L. strigata from the same localities. Two factors are proposed to be responsible for this difference: a) gene flow among populations which seems to be more intense in L. strigata and b) developmental homeostasis which seems to be higher in L. strigata if compared with L. agilis.

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Die Echsenfauna Dagestans (südöstlicher Nordkaukasus, Russland) umfaßt 17 Arten, welche neun Gattungen in fünf Familien angehören (Gekkonidae - l, Agamidae - 4, Anguidae - 2, Scincidae – l und Lacertidae - 9 Arten). Für jede Art wurden detaillierte Verbreitungskarten mit Katastern in Dagestan (50 300 km2) erstellt. Einige Angaben zu den Habitaten, zur Häufigkeit sowie über die lokale Arealdynamik werden ebenfalls mitgeteilt.

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Age and growth in Lacerta agilis (ssp. L. a. boemica) and a closely related sympatric species L. strigata from the eastern North Caucasus, Russia were assessed by skeletochronology and back-calculation methods. We examined 320 specimens from one lowland, two submontane (both species), and two mountain (L. agilis) localities. Age structure, back-calculated snout-vent length (SVL) at hatching and subsequent hibernations, and asymptotic SVL were studied for sexual dimorphism, altitudinal variation and interspecific differences. Pattern of resorption of growth layers in bone and its possible effects on growth inferences from skeletochronological data were also considered. The back-calculated SVLs showed a good conformity to comparable field data. Mean and maximum SVL at the first hibernation clearly decreased with altitude. Within the same localities, these parameters were consistently higher in L. agilis than in L. strigata. Between the 1st and 2nd hibernations (the period of the highest increment in SVL in all study populations), L. strigata grew faster than the syntopic L. agilis. In the lowland locality, females of both species tended to grow slower than males between the 1st and 2nd hibernations, while at higher elevations they exhibited lower SVL increments than the males between the 2nd and 3d hibernations. This pattern, along with occurrence of gravid yearlings in the lowland locality (but not in the other sites), suggests an earlier onset of reproduction in the lowland populations compared to those from higher elevations. Asymptotic SVLs in the study populations tended to be larger in males than in females. In L. agilis these sexual size differences (SSD) varied among populations, being quite strong in the lowland site and negligible at the highest locality. The mountain populations (960 and 1900 m a.s.l.) of L. a. boemica exhibited higher mean age and longevity than the lowland and submontane populations (20-600 m a.s.l.) of both species; however, no clear altitudinal trend was found for adult SVL. Much of the variation revealed in this study, including the interlocality differences in SSD, can be related to the length of activity season, in line with recently published theoretical models and experimental studies stressing the role of proximate factors.

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Sex chromosomes are believed to be stable in endotherms, but young and evolutionary unstable in most ectothermic vertebrates. Within lacertids, the widely radiated lizard group, sex chromosomes have been reported to vary in morphology and heterochroma- tinization, which may suggest turnovers during the evolution of the group. We compared the partial gene content of the Z-specific part of sex chromosomes across major lineages of lacertids and discovered a strong evolutionary stability of sex chromosomes. We can conclude that the common ancestor of lacertids, living around 70million years ago (Mya), already had the same highly differentiated sex chromosomes. Molecular data demonstrating an evolutionary conservation of sex chro- mosomes have also been documented for iguanas and caenophidian snakes. It seems that differences in the evolutionary conservation of sex chromosomes in vertebrates do not reflect the distinction between endotherms and ectotherms, but rather between amniotes and anamniotes, or generally, the differences in the life history of particular lineages.

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Several species of the green lizard group of the Caucasus (Lacerta tritineata, L. strigata and L. agilis) occur sympatrically. However, the reproductive isolating mechanisms prevent the hybridization. Various kinds of possible mechanisms, both premating (habitat isolation, differences in the breeding period, mating behaviour, including visual, sound, tactile and chemical communications, sizes) and postmating (low amounts of fertilized eggs, hybrid inviability) are discussed. The author provides new data on artificial hybridization of the three species (table 3).

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Fifty-three species of reptiles occur in Turkmenistan, of which 25 inhabit lowlands and 28 occur in plains and mountains. The species composition of reptiles in seven natural regions of Turkmenistan is discussed; the fauna of the sandy and clay desert is the richest. Seven species of reptiles`-occur in high density (from 10 to 71 per hectare), 30 species are frequent (1 to 10 per ha.) and 16 species are rare (0.2 to 1 per ha.). The fauna i3 subjected to a zoogeographical analysis.

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Hybridization experiments between the five commonly recognized species L. agilis, L. viridis, L. schreiberi, L. strigata, L. trilineata reveal increased rates of malformation and reduced fertility up to sterility as postzygotic isolating mechanisms. Depending on the combination, 30% up to 100% of hybrid females are sterile while only two sterile males were observed among hundreds. In backcrosses and in the rare cases of F2 generations, a drastic decrease of reproductive success was observed, if fertile offspring occurred. Clear species boundaries between the five species are demonstrated, although different degrees of postzygotic isolation indicate different genetic distances between them. Results from crosses within the taxon L. viridis s. 1. justify the distinction of two polytypic semispecies, L. bilineata in the western part of the range and L. viridis in the eastern part.

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Green lizards of the genus Lacerta have served as excellent models for studying the impact of Pleistocene climatic oscillations on genetic structures. The Caspian green lizard, Lacerta strigata, occupies various habitats across the Caucasus and the South Caspian Sea, with the Hyrcanian Forests and north of the Alborz Mountains forming the core of the range. This study aimed to re-examine the phylogenetic relation ships of L. strigata with other congeneric members and to assess the genetic structure and historical demography of the species. Furthermore, Species Distribution Models (SDMs) were performed to infer the species` potential habitat suitability and were then projected on climate scenarios reflecting current and past (6 ky and 21 ky before present) conditions. A total of 39 individuals collected from most of the distribu tion range, together with additional lacertid species sequences from the GenBank database, were examined using mtDNA (Cyt b and 12S ribosomal RNA) and nuclear (C-mos and β-fibrinogen) sequence data. Based on the phylogenetic analyses, L. stri gata was found to be a sister taxon to all other members of the genus. The species included two main clades (regional western and eastern) that diverged in a period between the Early and Middle Pleistocene. Based on the BBM and S-Diva analyses, both dispersal and vicariance events explained the phylogeographic structure of the species in the Hyrcanian Forests. The historical demographic analyses using Bayesian skyline plots showed a mild increase in the effective population size from about 120 Kya for the western regional clade. According to phylogeographic structures and SDMs evidence, as in other species within the region, it appears that the south of the Caspian Sea (Hyrcanian Forests), and the Alborz Mountains acted as multiple refu gia during cold periods and promoted expansion outwards amid the warm periods. Overall, the results provided evidence that the genetic structure of the species has been influenced by the Pleistocene climatic fluctuations.

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We present an annotated checklist for a total 241 reptiles and 22 amphibians including 5 frogs, 9 toads, 7 newts and salamanders, 1 crocodile, 1 worm lizard, 148 lizards, 79 snakes and 12 turtles and tortoises, includes the most scientific literature up to August 2014 and also based on several field surveys conducted in different Provinces of Iran from 2009 to 2014. We present an up-to-dated checklist of reptiles and amphibians in Iran. We provide a comprehensive listing of taxonomy, names, distribution and conservation status of all amphibians and reptiles of Iran. This checklist includes all recognized named taxa, English names for classes, orders, families, species, subspecies along with Persian names for species, including indication of native and introduced species. For the first time we report two non-native introduced reptiles from natural habitats of Iran. Of the total 22 species of amphibians in Iran, 6 (27.2%) are endemic and of the total 241 species of reptiles, 55 (22.8%) are endemic. Of the 22 amphibians species in Iran, 3 (13%) are Critically Endangered, 2 (9%) are Vulnerable and of the 241 reptile species 3 (1.2%) are Critically Endangered, 4 (1.6%) are Endangered and 10 (4.1%) are Vulnerable. Accordingly, this paper combines significant aspects of taxonomy, common names, conservation status and distribution of the Iranian herpetofauna.

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The structural and functional features that animals develop in order to survive and thrive in their environment have long drawn the attention of the scientific community. Regarding insular ecosystems, the unique physical-natural conditions prevailing on them, the strictly defined by the seas boundaries and the more simplified systems induce the diversification and evolution of island biotas with a number of ways. The main aim of the present research was first, to investigate the effect of natural selection on the ecology, physiology and general biology of ectothermic animals, such as lizards and second, to examine how natural selection can shape morphological, functional and behavioral traits. To this aim, we studied insular and mainland populations of the lizard species Lacerta trilineata (Sauria: Lacertidae). The green lizards of the genus Lacerta comprises nine allopatric species, four of which occur in Greece, while only L. trilineata is distributed in both continental and insular Greek region. The latter feature makes L. trilineata an ideal organism to study the phenotypic plasticity of physiological and morphological traits. How and with what adaptations was its current distribution formed? How did insular and mainland populations have diversified to the different environmental conditions? Are there historical or ecological causes that led to this diversification? These are some of the subjects that this PhD Thesis was dealt with. Through a comparative framework, that contained several L. trilineata populations we tried to address these issues. The resolved phylogeny revealed that the first branch-off of the Greek green lizards occurred during the middle Miocene (13.91 Mya) and led to the separation of the L. viridis/bilineata group from the species L. agilis and L. trilineata. The next major cladogenetic event took place at late Miocene (11.65 Mya) and led to the separation of the latter two species. Regarding the clade of L. trilineata our results support the existence of six distinct lineages. The high intraspecific genetic divergences between these lineages, which are comparable to that recorded among lacertid species, raises questions regarding its taxonomic status and whether or not it is a single species. L. trilineata seems to originate and diverge in western Anatolia. Given the phylogeny of L. trilineata in the Aegean and the geological history of the Greek area, we assume that the ancestral form of this species invaded the Greek area from Anatolia before the complete formation of the MAT (~9 Mya). The forming of this barrier gave the two groups of L. trilineata lineages (west and east of the trench). Within each group, some other vicariant and dispersal events as well as the raise of the Mediterranean Sea at the end of the last glacial period during Holocene have resulted in the present distribution of the six evolutionary lineages of L. trilineata. In order to approach the thermal biology of this species, we studied two mainland and two island populations and determined three different thermal values for each population: lizard`s temperature under normal conditions in the field (body temperature), the temperature that a lizard may achieve in a special designed thermal gradient in the lab (selective temperature) and the potential temperatures that an animal could reach in its biotope (operative temperatures). From the correlation of these three values we tried to describe the strategy of thermoregulation that each population has adopted. The comparison between mainland and island populations revealed that both populations have adapted to their thermal environment, supporting the `labile` view on the evolution of thermal physiology for this species. In particular, insular lizards thermoregulate less effectively because of the more benign, in terms of thermal quality, environment and have lower thermal preferenda. Mainland lizards on the other hand, showed higher effectiveness as a result of the more demanding environment. However, predation regime seems to restrict the ability of the latter to achieve body temperatures close to their set-point range. To investigate the trophic ecology of the Balkan green lizard, we removed the digestive track of preserved specimens as well as collected the fecal material from live lizards, and we correlated the trophic data with morphological and functional traits. Our findings support that L. trilineata is a widely foraging predator, feeding on numerous invertebrate taxa, while Coleoptera and Orthoptera represent the predominant prey group. Ontogeny, sex, season and habitat affect the feeding ecology of this species. The seasonal variation in the diet of L. trilineata corroborate that the species is an opportunistic predator. However, juveniles followed a discrete feeding pattern, which indicates an ontogenetic shift. During their growth, lacertids undergo significant changes in the size, shape and performance of their feeding apparatus. A complementary underlying reason should be sought in the way adults exploit their environment and the areas that usually occupy. Finally, regarding the observed differences in diet composition between sexes as well as island and mainland populations, these probably reflect adaptations through sexual and natural selection. The more robust heads of male lizards allows them to develop a greater bite force and consequently to feed on harder prey items. In addition, the food scarcity prevailing in the Mediterranean islands offers little choice to insular lizards. Thus islanders have to take advantage of every available food resource in order to survive even plant material, which they achieved by increasing the head depth and width as well as bite force, compared to their mainland counterparts. Differences on feeding ecology usually affect several aspects of the digestive system such as physiology and morphology. In the study of the digestive procedure we tried to obtain a qualitative approach of the digestion of the main organic compounds (lipids, sugars and proteins). Islanders deviated from their mainland peers increasing the digestive tract length and the frequency of cecal valves in the hindgut. However, an increase in the digestive tract length and the frequency of cecal valves might cause an increase of gut passage time and, thus, food retention times. In other words, enzymes could have more time to act, which maximize the rate of energy intake and the digestive efficiency. We believe that these changes on the digestive procedure could be interpreted as adaptations for the limited food availability prevailing on islands. Finally, given that the ability of an animal to successfully colonize new habitats is mainly determined by its ability to cope with pathogens of the environment, we studied the immune response in association with the genetic diversity of the major histocompatibility complex (MHC) class I. For the study of cell-mediated response we used two methodological approaches: (a) the mixed lymphocyte reaction (MLR) and (b) the phytohemagglutinin-induced skin swelling test (PHA). Our finding revealed that the genetic boundaries of islands and the food scarcity prevailing on them caused decline in the genetic divergence at the MHC genes and in parasite tolerance. Nonetheless, the significant importance of balancing selection against genetic drift, in shaping MHC polymorphism, has lead to an increase on the nucleotide diversity of the remaining MHC alleles. As a result and besides the reduce parasite tolerance of islanders, the latter demonstrated high cell mediated response, which is comparable to their mainland peers. To sum up, it appears that island populations of L. trilineata have adapted to the different biotic and abiotic environmental conditions of islands, which have lead to the development of unique morphological, physiological and behavioral traits.

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The herpetological map presented in this paper shows the distribution and abundance of the reptiles in Turkmenistan. The country is divided into 17 complexes and the 84 species and subspecies found in Turmkmeistan are listed as occurring in mountains, plains, or both.

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Numerical and cladistic methods are applied to pholidosis in Green Lizards. As a result of this first publication treating the nearly related L. viridis and L. strigata, the specific rank of L. strigata, a fully allopatric and probably polytypic taxon, becomes questionable. L. vi- ridis living along the Southern coast of the Black Sea is now subdivided into three, partly intergrading subspecies: L. viridis meridionalis CYREN 1933 (Marmara-Region), L. v. paph- lagonica n. ssp. (West Pontus-Subregion), L. v. inftapunctata n. ssp. (East Pontus-Subre- gion). The lauer comprises also specimens having been assigned to Lacerta agilis grusinica by PETERS (1962 a).

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In Green lizards (Lacerta s. str.) two kinds of numerical variation appear in temporals, supraciliars, supraciliargranules, dorsals, gulars, femoral pores and subdigital lamellae: The first being correlated with climate, the second non-correlated. In the first kind of variation the mean values increase from forms living in moderate-continental regions to forms living in more warm-oceanic regions. This kind of variation is clearly visible even in closely related forms (mostly `minor subspecies`) and shows an almost parallel gradation in all the seven scale characteristics (see Abb. 2). Within the climatically extreme ranges of a form the pattern of scutellation seems to be generally rather uniform and to correspond to its climatic centre. The second kind of variation of these scales - non-correlated and non-parallel - has a greater importance only when comparing more distantly related forms (subspecies-groupings; Abb. 2). These results produce a number of difficult questions concerning the first kind of vari- ation and being mostly insolvable at present: Inherited or non-inherited (modificatory) character of variation? Influence of inherited climatic requests to non-inherited scutella- tion-patterns? Clinal changes of scutellation-patterns correlated with climate, as the expression of an ecological cline? Predictions of climatic adaptation basable on (modifica- tory) scutellation data? Importance of this kind of variation for taxonomy of lacertids?

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Im March and April 1995, the author visited the type localities of Neurergus kaiseri K. P. SCHMIDT, 1952, Batrachuperus persicus ElSELT & STEINER, 1970 and habitats of N. microspilotus (NESTEROV, 1917) and Salamandra salamandra semenovi NESTEROV, 1916 in Iran. The habitats of three species (except Batrachuperus persicus) observed and collected on this occasion are described. Hitherto unsuccessful attempts to find metamorphs of Batrachuperus persicus are explained by their possibly subterranean (troglobiotic) habits.

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The latest changes in the taxonomy of amphibians and reptiles are analyzed in the work, among them, in particular, toads, frogs, tortoises, geckoes, agamas, lacertids, boas and colubrids. A new list is published, which provides information for 100 species and subspecies: 6 species of amphibians and 94 species of reptiles (6 turtles, 58 lizards, 30 snakes). The conservation status of reptiles in Turkmenistan was revised according to the IUCN assessments.

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This book shows a comprehensive picture of the reptiles, excluding snakes, living in Europe, North Africa, Middle and Near East and Central Asia. The bulk of the book is an annotated checklist and a distributional atlas of approx 500 species of lizards, crocodiles, turtles and terrapins, and amphisbaenians, living in the Western Palearctic. Information on distribution, subspecies, chorotype and main references are provided for each species, as well as 226 colour maps showing the global distribution of the species on a grid of one degree. For each species map the bibliographic and original sources (more than 850 sources are listed) are indicated. A further 83 maps show the distribution of all genera and main species groups of Palearctic reptiles. Beside the checklist and the atlas, in some additional chapters the following arguments are treated: Materials and methods; status of knowledge on the Palearctic fauna; composition of the Western Palearctic reptile fauna (including a statement on biodiversity and species richness); descriptive biogeography (including a discussion on the Palearctic region boundaries based on reptile distribution and the herpeto-geographic sectors of the Western Palearctic); conservation status. A list of more than 730 references quoted in the text and high quality colour plates including photos of the most of the supraspecific taxa living in the study area completes the book.

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We present a comprehensive summary of the distribution of the lizards of Iran accompanied by an annotated checklist. The updated maps of distribution of all 146 species of 41 genera of 11 families are based on all available bibliographic records, catalogues of museum collections and our own field observations. The final dataset used for the distribution maps contains 8525 georeferenced records and cover 41% of the country when plotted on a grid of 0.25° × 0.25° resolution. The dataset is publicly accessible through GBIF portal (http://www.gbif.org/dataset/7db4f705-61ae-4c6e-9de2-06674e7d46b2). Following the latest biogeographic division of the country, ~53% of the species (76 species) inhabit the Iranian Province, ~41% (60 species) the Western Asian mountain transition zone, ~9% (13 species) the Turanian Province, and ~18% (27 species) the Arabian Province. In addition, ~2% (3 species) reach Iran from the Indo-Malay biogeographic region and ~2% (3 species) are believed to have been introduced to Iran by humans. Endemic species (46) represent ~32% of the known species diversity. The most species-rich family of lizards in Iran is Lacertidae with 47 species, followed by Gekkonidae (41), Agamidae (18), Scincidae (15), Phyllodactylidae (10), Sphaerodactylidae (4), Eublepharidae and Uromastycidae (3), Anguidae and Varanidae (2), and Trogonophidae with one representative.

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Principal trends and methods of investigating the postnatal growth in reptiles are discussed. Particular attention is paid to the development of the method of skeletochronology, which enables age determination of individuals, back-calculation of their body length in years before the capture, and reconstruction of growth curves based on such data.

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The last species list of the European herpetofauna was published by Speybroeck, Beukema and Crochet (2010). In the meantime, ongoing research led to numerous taxonomic changes, including the discovery of new species-level lineages as well as reclassifications at genus level, requiring significant changes to this list. As of 2019, a new Taxonomic Committee was established as an official entity within the European Herpetological Society, Societas Europaea Herpetologica (SEH). Twelve members from nine European countries reviewed, discussed and voted on recent taxonomic research on a case-by-case basis. Accepted changes led to critical compilation of a new species list, which is hereby presented and discussed. According to our list, 301 species (95 amphibians, 15 chelonians, including six species of sea turtles, and 191 squamates) occur within our expanded geographical definition of Europe. The list includes 14 non-native species (three amphibians, one chelonian, and ten squamates).

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This article is about keeping and breeding the Caspian Green Lizard (Lacerta strigata). The author describes his experiences with various couples he kept, and the somewhat successful breeding of the third couple. In five clutches 29 eggs were laid, some of them infertile, some of them containing young animals hat never hatched. From these eggs a total of only nine healthy young were born, possibly due to the relatively young age of the female. There is also a short discussion about the aggressiveness of the species. One couple could not be housed together, due to the aggressive nature of the male, and five young from one clutch were so intolerant towards each other that three of them lost their tails. The animals seem to be more aggressive in indoor vivariums than outdoors, though the author concludes it’s too early to pinpoint an exact cause.

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Report on a terrarium kept wild caught couple of Lacerta strigata. Remarkable is the hight breeding rate after a `winter rest` of only three weeks at room temperatures.

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Vertebral laminae are bony ridges or sheets that connect important morphological landmarks on the vertebrae, like diapophyses or zygapophyses. They usually exhibit some serial variation throughout the column. A consistent terminology facilitates the morphological description of this variation, and the recognition of patterns that could be taxonomically significant and could serve as phylogenetic characters. Such a terminology was designed for saurischian dinosaurs, and has also been applied to other members of Archosauri- formes. Herein, this terminology is applied for the first time to lizards (Squamata). Probably due to their generally smaller size compared to saurischian dinosaurs, lizards have less developed vertebral laminae. Some laminae could not be recognized in this group and oth- ers require new names to account for differences in basic vertebral morphology. For instance, the fusion of diapophysis and parapophysis in lacertids into a structure called synapophysis necessitates the creation of the new term synapophyseal laminae for both diapophyseal and parapophyseal laminae. An assessment of occurrence and serial varia- tion in a number of lacertid species shows that some laminae develop throughout ontogeny or only occur in large-sized species, whereas the distribution of other laminae might prove to be taxonomically significant in future.

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Knowledge on the spatial distribution of taxa is crucial for the decision-making processes in conservation and management of biodiversity that rely on precise distribution data. We present an annotated list for a total of 37 amphibian (20 caudatans and 17 anurans) and 141 reptile species (11 chelonians, 70 lizards, 3 amphisbaenians and 57 snakes) in Turkey, using both available scientific literature up to December 2020 and our own fieldwork data from 1987 to 2020. We provide a comprehensive listing of taxonomy, names, distribution and conservation status of Turkish amphibians and reptiles. The herpetofauna list will be particularly useful for establishing national conservation priorities as well as for placing Turkish fauna into phylogenetic and biogeographic contexts. We compiled information published in books, journals and various web sources and added our personal data. We projected the data in the WGS84 coordinate system and created an overlay grid with cells of 50x50 km2. The database comprises more than 500 grid cells and 11,913 records. As a result, the distribution of Turkish amphibians and reptiles has been extensively mapped with geographical information systems and a database has been created. The obtained data will be useful in planning future studies on taxonomy, ecology and conservation of Turkish amphibians and reptiles.

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In this study, it is aimed to determine Amphibian and Reptilian species of Ararat Mountain and near Environment, threats to species and precautions to be taken against these factors. For these purposes, total of 18 days herpetological trips carried out in Ararat Mountain between 2011-2017. As a result of the trips and literature searches, 4 Anuran (Bufotes variabilis, Pelophylax ridibundus, Hyla savignyi, Pelobates syriacus), 2 Chelonian species (Mauremys caspica, Testudo graeca) 10 lizard species (Paralaudakia caucasia, Phrynocephalus horvathi, Heremites auratus, Eumeces schneiderii, Eremias strauchi, Eremias pleskei, Darevskia valentini, Lacerta strigata, Ophisops elegans, Pseudopus apodus) and 13 snake species (Xertoyphlops vermicularis, Dolichophis schmidti, Eirenis collaris, Hemorrhois ravergieri, Natrix natrix, N. tessellata, Platyceps najadum, Zamenis hohenackeri, Z. longissimus, Eryx jaculus, Malpolon insignitus, Macrovipera lebetina, Montivipera raddei) a total of 4 amphibians and 25 reptilian species belonging to 14 families were determined in Ararat Mountain.