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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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Differences in surface structure (ober- hautchen) of body scales of lacertid lizards involve cell size, shape and surface profile, presence or absence of fine pitting, form of cell margins, and the occurrence of longitudinal ridges and pustular projections. Phylogenetic information indicates that the primitive pattern involved narrow strap-shaped cells, with low posteriorly overlapping edges and relatively smooth surfaces. Deviations from this condition produce a more sculptured surface and have developed many times, although subsequent overt reversals are uncommon. Like variations in scale shape, different patterns of dorsal body microornamentation appear to confer different and conflicting performance advantages. The primitive pattern may reduce friction during locomotion and also enhances dirt shedding, especially in ground-dwelling forms from moist habitats. However, this smooth microornamentation generates shine that may compromise cryptic coloration, especially when scales are large. Many derived features show correlation with such large scales and appear to suppress shine. They occur most frequently in forms from dry habitats or forms that climb in vegetation away from the ground, situations where dirt adhesion is less of a problem. Microornamentation differences involving other parts of the body and other squamate groups tend to corroborate this functional interpretation. Microornamentation features can develop on lineages in different orders and appear to act additively in reducing shine. In some cases different combinations may be optimal solutions in particular environments, but lineage effects, such as limited reversibility and different developmental proclivities, may also be important in their genesis. The fine pits often found on cell surfaces are unconnected with shine reduction, as they are smaller than the wavelengths of most visible light.

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A new species of Eremias has been described from the Cholistan Desert of Pakistan. It constitutes the first record of the genus Eremias from the Oriental (Indian) region. The species has been named Eremias cholistanica, after the Cholistan Desert of Pakistan. This striped desert lacerta is not only different from all its congeners in several morphological characteristics but has been collected from an area distant from the previous known range of Eremias.

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A complete catalogue is provided for the type specimens of lacertid lizards in the herpetological collection of the Zoological Museum, Berlin, as of December, 1993. The collection contains a total of 514 type specimens, representing 63 taxa, of which 42 are currently regarded as valid at the specific or subspecific level. Types representing an additional four taxa appear to have been lost from the collection. The collections are especially rich in African lacertid types and in historically significant specimens collected early in the Nineteenth Century by Pallas, Eversmann, and Hemprich & Ehrenberg. Also present are the type series of many subspecies of Podarcis lilfordi and P. pityusensis described by Eisentraut.

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The final part of a series of papers on the lizards of the Caucasus, that have been published in previous years. The paper reports on the life habits, capture and keeping in terraria of several lizards of Soviet Transcaucasia. In these respects the agamid Phrynocephalus helioscopus persi- cus and three species of the lacertid genus Eremias occuring in that area (i. e. strauchi, velox, pleskei) are discussed. Finally a !ist of all lizard species and subspecies actually known to occur in this region is given.

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During herpetological fieldwork from April 2013 to March 2014 on the herpetofauna of the counties of Saravan, Sib and Suran, Zaboli, Sarbaz, and Chabahar in south east of Sistan and Baluchestan Province, Southeastern Iran a total of 97 specimens of lizards belonging to 19 species and five subspecies, 16 genera, and six families were collected and identified as follows: Calotes versicolor, Laudakia nupta nupta, L. n. fusca, Phrynocephalus scutellatus, Trapelus agilis agilis (Agamidae); Agamura persica, Bunopus tuberculatus, Cyrtopodion scabrum (Gekkonidae); Acanthodactylus blanfordii, A. micropholis, Eremias fasciata, E. persica , Mesalina watsonana, Ophisops elegans (Lacertidae); Ablepharus grayanus, Eumeces schneiderii zarudnyi, Ophiomorus brevipes, O. tridactylus (Scincidae); Uromastyx asmussi (Uromastycidae); and Varanus griseus caspius (Varanidae). The most diverse families of the present collection are the Lacertidae with six species, followed by Agamidae and Scincidae each with four species. Detailed information of each lizard species was also provided.

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The reptile and mammals fauna of North-East of Iran were investigated and the contraction and fragmentation of some species due to climatic changes and human activities were analyzed. The sampling was carried out in selected stations throughout the Great Khorsan. The results showed that there are approximately 71 reptiles (including 39 species of lizards, 32 snakes and one turtle) and 83 species of mammals. The exact number of vulnerable and threatened reptile and mammal species in Khorasan provinces is not clear, but there are at least 33 reptiles and 10 mammals categorized as threatened species. The distribution and population size of some species has greatly changed during recent years, most probably as a result of recent global warming, i. e. temperature rise, decrease of precipitation, drought and human harmful activities. The human activity in this region, especially urbanization, agricultural activities and cutting of shrubs has caused fragmentation and serious decline of population size in some species and even elimination of some local endemic population of relict species. The conservation of mammals and reptiles in the North-East of Iran demands organized collaborations including education of native people for protection of valuable vertebrate faunae of the area.

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We have studied the terrestrial reptile fauna of the northwest Yazd province (Iran) and present here some of the characters that we examined for common species in the region. In total, 50 specimens from eight families (six lizard families and two snake families) were collected from the region. The collected lizards belonging to 13 species were Laudakia nupta, Phrynocephalus maculatus, Phrynocephalus scutellatus, and Trapelus agilis (Agamidae); Agamura persica and Bunopus crassicaudus (Gekkonidae), Teratoscincus bedriagai (Sphaerodactylidae); Eremias fasciata, Eremias persica, Mesalina watsonana, and Ophisops elegans (Lacertidae); Varanus griseus (Varanidae), and finally Uromastix asmussi belonging to the Uromastycidae. The two species of snakes were Spalerosophis diadema schiraziana (Colubridae) and Psammophis schokari (Lamprophiidae). Based on these results, Agamidae and Lacertidae are the families with highest number of genera and the genera Eremias and Phrynocephalus had the most species. Among the collected lizards, Trapelus agilis, Mesalina watsonana, and Bunopus crassicaudus were the most abundant species in the northwest Yazd province.

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The genus Eremias, Fitzinger, 1834, with 35 species of mostly sand, steppe, and desert dweller lizards, is one of the most specious genera of the diverse family of Lacertidae. Here, we record E. fasciata from Hormozgan Province, a new location in southern Iran, and describe the specimens morphometrics. Previously published localities for E. fasciata in Iran lie between 450 and 1700 m elevation, while the elevation of this new locality is at about 15 m a.s.l.

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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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In north Khorasan province, Iran, we compared the effectiveness of two types of traps for collecting reptiles: funnel traps and pitfall traps. Three stations were monitored over three 10-day periods and in total 544 individuals (including 200 re-captures) belonging to 5 species and 4 families of lizards (Lacertidae) were collected. Funnel traps with 280 captures were more efficient than pitfall traps with 264 captures, but the differences between the two traps are not significant. Three species were captured most often in the three different stations respectively: station 1, Bunopus crassicauda (22% relative frequency); station 2, Eremias fasciata (29% relative frequency); and station 3, Trapelus agilis (32% relative frequency). Shannon species richness indices were higher for pitfall than funnel traps (i.e., 1.45 vs. 1.40), but the difference was not significant. Pitfall traps were better for capturing species that search widely for food, while the funnel traps preferentially captured species that climb plants, such as Trapelus agilis. We recommend using both types of trap to capture the various types of species in any one region.

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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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Spatial gradients of species richness can be shaped by the interplay between historical and ecological factors. They might interact in particularly complex ways in heterogeneous mountainous landscapes with strong climatic and geological contrasts. We mapped the distribution of 171 lizard species to investigate species richness patterns for all species (171), diurnal species (101), and nocturnal species (70) separately. We related species richness with the historical (past climate change, mountain uplifting) and ecological variables (climate, topography and vegetation). We found that assemblages in the Western Zagros Mountains, north eastern and north western parts of Central Iranian Plateau have the highest number of lizard species. Among the investigated variables, annual mean temperature explained the largest variance for all species (10%) and nocturnal species (31%). For diurnal species, temperature change velocity shows strongest explained variance in observed richness pattern (26%). Together, our results reveal that areas with annual temperature of 15–20 °C, which receive 400–600 mm precipitation and experienced moderate level of climate change since the Last Glacial Maximum (LGM) have highest number of species. Documented patterns of our study provide a baseline for understanding the potential efect of ongoing climate change on lizard diversity in Iran.

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During recent years several lizard taxa were added to the faunal list of Pakistan. Descriptions and new records are scattered in different publications in the herpetological literature. The present paper puts the information together, and provides a comprehensive list of recent publications on the lizards of Pakistan.

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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 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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The reptile`s fauna of Sabzevar was investigated during 10 years (2003-2013). In total 42 species belonging to 29 genera, 13 families and two orders (Squamata and Testudines) were collected and identified. The most diverse group in the area is lizards with 23 species, followed by snakes with 18 species and the testudines with one species. The most diverse families are Colubridae, Lacertidae with 8 and Gekkonidae with 5 species respectively, followed by Agamidae with 4 species, Viperidae, Boidae and Scincidae with 3 species each, Lamrophiidae and Spherodactylidae with 2 species and 4 families Elapidae, Thyphlopidae, Varanidae and Testudonidae with only one species each.

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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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We have studied the terrestrial reptile fauna of the northwest Yazd province (Iran) and present here some of the characters that we examined for common species in the region. In total, 50 specimens from eight families (six lizard families and two snake families) were collected from the region. The collected lizards belonging to 13 species were Laudakia nupta, Phrynocephalus maculatus, Phrynocephalus scutellatus, and Trapelus agilis (Agamidae); Agamura persica and Bunopus crassicaudus (Gekkonidae), Teratoscincus bedriagai (Sphaerodactylidae); Eremias fasciata, Eremias persica, Mesalina watsonana, and Ophisops elegans (Lacertidae); Varanus griseus (Varanidae), and finally Uromastix asmussi belonging to the Uromastycidae. The two species of snakes were Spalerosophis diadema schiraziana (Colubridae) and Psammophis schokari (Lamprophiidae). Based on these results, Agamidae and Lacertidae are the families with highest number of genera and the genera Eremias and Phrynocephalus had the most species. Among the collected lizards, Trapelus agilis, Mesalina watsonana, and Bunopus crassicaudus were the most abundant species in the northwest Yazd province.

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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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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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Climate condition is an important key affecting species presence, especially for reptiles. Precipitation and temperature are especially important environmental factors to consider. In the present study, I collected as many presence records as possible for seven lizard species from the Sistan region and analyzed them in relation to environmental variables using the maximum entropy algorithm. According to the analysis, temperature seasonality affected the distributions of three species (Eremias fasciata, Ophiomorus tridactylus, Teratoscincus bedriagai) and precipitation affected the presence of four species (Ablepharus pannonicus, Bunopus tuberculatus, Cyrtopodion scabrum, Trapelus agilis). The most important variable affecting E. fasciata and O.tridactylus (23% of contribution) is isothermality. For T. bedriagai, temperature seasonality was more important (32% contribution). Annual precipitation was the most highly contributed variable for A. pannonicus. Precipitation of the wettest month has a high contribution for the other species, representing 49, 48, and 54% for B. tuberculatus, C. scabrum and T. agilis, respectively.

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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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Elements of the herpetofauna are in the author`s opinion of great importance for the zoogeographical division of the Palaearctic region. It is suggested that this region be divided into the following four subregions: 1/ arctic, 2/ boreal Euro-Siberian, 3/ bo- real Himalayan-Manchurian and 4/ Mediterranean-Central-Asiatic.

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One species of amphibian, the green toad (Bufo viridis oblongus), and 20 species of reptiles, Comprising the Afghan tortoise (Agricnemys horsfieldi), 4 agamid lizards (Agama agilis, A. n. nupta (?), Phrynocephalus mystaceus galli, Ph. scutellatus), 4 gekkonid lizards (Agamura persica, Cyrtodactylus caspius, Teratoscincus bedriagai , T. scincus) , 4 lacertid lizards (Eremias fasciata (?), E. persica, E. v. velox, Meislina guttulata watsonana) , 1 varanid lizard (Varanus griseus caspius), 1 boiid snake (Eryx tataricus), 4 colubrid snakes (Coluber karelini , C. rhodorhachis ladacensis, Psammophis lineolatus, Spalerosophis diadema schiraziana) , and a single viperid snake (Pseudocerastes p. persicus), are documented from the Turan Biosphere Reserve. Collecting data, ecological information, measurements, and relevant observations are given for those forms within the Reserve, and a tentative zoogeographic analysis of the Turan herpetofauna is attempted.

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The composition and distribution of the vertebrate fauna of Afghanistan remain poorly documented and in recent decades little new data have become available due to a series of wars and the resulting unstable security conditions. As Afghanistan returns to some semblance of normalcy, baseline faunistic data will be particularly important for establishing national conservation priorities as well as for placing Afghan taxa into their broader phylogenetic and zoogeographic contexts. We here provide an updated checklist of the herpetofauna of Afghanistan based in part upon biodiversity archives of specimen records from several museum and private collec- tions as well as literature references and field research. The herpetofauna of Afghanistan consists of 118 species and subspecies belonging to 58 genera and 21 families. Seven species are endemic to the country, whereas 18 taxa have to be delet- ed from previous lists of the Afghan herpetofauna. Afghanistan’s primary zoogeo- graphic relationship to the Palearctic Region is reaffirmed but with secondary influ- ence from the Oriental Region. Immediately following the checklist, two sections provide information about species probably occurring in Afghanistan and previous- ly mentioned species that are now recognized as absent.

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Kuh-e Bafq Protected Area and Darreh-Anjir Wildlife Refuge are located in Yazd Province, Central Iran. Although reptiles are relatively diverse in this area, little is known regarding their diversity, distribution, and habitat preferences. The present study was carried out from March 2012 to late June 2013. A total of 55 specimens were collected (or observed) and identified, belonging to six families, 14 genera, and 16 species.