Morphological variation of <Emphasis Type="Italic">Melanargia russiae</Emphasis> (Esper, 1783) (Lepidoptera,Satyridae) from the main part of the range and in case of its expansion to the north under climate change conditions

A climate-related shift in the range boundaries of the western–central Eurasian subboreal species Melanargia russiae in the Ural region from the northern forest-steppe zone to pine–birch forests was found. Morphological variation of M. russiae wings from the boundary northern populations and populations from the main part of the range in the Urals were studied. The results of a complex analysis of the morphological traits (size, wing shape, and wing pattern eyespots) confirm the hypothesis that the local population formed in the south of Sverdlovsk oblast and contradict the hypothesis of the migratory origin of M. russiae imago.     

Phenotypic variability of eye-spots in natural populations of <Emphasis Type="Italic">Coenonympha pamphilus</Emphasis> L. (Lepidoptera,Satyridae)

Variation of eye-spots in the wing pattern of Coenonympha pamphilus (Linnaeus, 1758) was studied in the Urals with adjacent territories and in Dzhelal-Abad Province of Kyrgyzstan. Discriminant analysis of the wing length and eye-spot diameter and the phenetic distances calculated by the Hartman’s method revealed clinal variation of the characters. The butterflies in the northern parts of the range (Sverdlovsk and Kurgan Provinces) are smaller than those in the south (Orenburg and Chelyabinsk Provinces) and have fewer eye-spots which themselves are smaller. The Kyrgyzstan specimens differ significantly from the Ural ones (the nominotypical subspecies) in both quantitative and qualitative characteristics of the wing pattern, and should probably be assigned to the subspecies C. pamphilus marginata Heyne, 1894. As in most Satyridae, females of C. pamphilus are larger than males and on the average possess more eye-spots on the wings. The degree of phenotypic variation in natural populations was studied using the method of variation spectra (Kovalenko, 1996a, 1996b, 2007, etc.). The arrangement of phenotypic combinations within the theoretical spectrum (St) matrix allows one to describe the actual (Sr) and potential (Sp) spectra for either sex and for the species as a whole. The actual spectrum was found to be considerably broader in males than in females. With minor variations, Sr and Sp showed the same general trends in different samples of both sexes. In all the samples, phenetic combinations with one spot on the fore wing (in cell M ₁-M ₂) were predominant. The hind wing had either no spots (which was typical of males, especially in the northern parts of the range) or the maximum possible number, six (mostly in females, more often in the southern parts of the range). The phenetic combinations with the maximum (4) number of spots on the fore wing and the minimum number (0) on the hind wing are prohibited for C. pamphilus.     

A new form of <Emphasis Type="Italic">Kailasius autocrator</Emphasis> (Lepidoptera,Papilionidae) from the eastern Pamirs

A new subspecies, Kailasius autocrator pshartanus, from the eastern Pamirs (the Muzkol Ridge, Sasyk River) is described. The new subspecies is distinguished from the nominative subspecies by the wing pattern and ecology. This subspecies has the most primitive wing pattern in the genus. The range of this species is considered to be the center of Kailasius genus origin.     

Molecular genetic analysis of five extant reserves of black honeybee <Emphasis Type="Italic">Apis melifera melifera</Emphasis> in the Urals and the Volga region

Local populations of the black honeybee Apis mellifera mellifera from the Urals and the Volga region were examined in comparison with local populations of southern honeybee subspecies A. m. caucasica and A. m. carpatica from the Caucasus and the Carpathians. Genetic analysis was performed on the basis of the polymorphism of nine microsatellite loci of nuclear DNA and the mtDNA COI–COII locus. On the territory of the Urals and the Volga region, five extant populations (reserves) of the black honeybee A. m. mellifera were identified, including the Burzyanskaya, Tatyshlinskaya, Yuzhno-Prikamskaya, Visherskaya, and Kambarskaya populations. These five populations are the basis of the modern gene pool of the black honeybee A. m. mellifera from the Urals and the Volga region. The greatest proportion of the remaining indigenous gene pool of A. m. mellifera (the core of the gene pool of the population of A. m. mellifera) is distributed over the entire territory of Perm krai and the north of the Republic of Bashkortostan. For the population of A. m. mellifera from the Urals and the Volga region, the genetic standards were calculated, which will be useful for future population studies of honeybees.     

Asparagus beetles of the <Emphasis Type="Italic">Crioceris duodecimpunctata</Emphasis> (Linnaeus, 1758) group (Coleoptera,Chrysomelidae) from Russia and Adjacent Countries

The distribution of Crioceris duodecimpunctata (Linnaeus, 1758) and two related species with their subspecies is defined more precisely. Crioceris orientalis tshingisana Lopatin, 1966, stat. n. and C. hypopsila demokidovi Semenov, 1909, stat. n. are treated as subspecies for the first time. Lectotypes of C. hypopsila Jacobson, 1907, C. demokidovi Semenov, 1909, and C. duodecimpunctata hypolachna Jacobson, 1907 are designated. The male and female genitalia are described and illustrated for all the species considered. A new key to the species of Crioceris without a black sutural stripe is compiled.     

On Two Little Known Species of Leaf Beetles (Coleoptera,Chrysomelidae) from the South Urals

120 years ago G.G. Jacobson described two species of leaf beetles from the South Urals that have remained poorly studied until recently. Chrysolina roddi, previously known only from the foothills and low mountains of the South Urals, the low Zhiguli Mountains, and the limestone cliffs on the Don River, is recorded here for the first time from the alpine tundra of the Iremel massif; its host plant in the alpine zone is the small alpine lovage Pachypleurum simplex (= Ligusticum mutellinoides), family Apiaceae. Two species of the subgenus Crositops, Ch. roddi and Ch. kabaki, are presently treated as foothill-alpine disjunct taxa. The distribution of Ch. poretzkyi, described from the low-montane part of Bashkortostan, also shows a foothill-alpine disjunction. Alpine populations of Ch. poretzkyi are described here as a new subspecies Ch. (Arctolina) poretzkyi olschwangi Mikhailov subsp. n. Revision of the type of Ch. poretzkyi that has long been considered lost confirms that this species belongs to the subgenus Arctolina, in disagreement with its previous placement in the subgenus Pleurosticha. Within Arctolina, the identity of Ch. tundralis and its differences from Ch. poretzkyi are discussed.     

Review of the fauna of the bug families Ceratocombidae,Tingidae, Microphysidae,and Reduviidae (Heteroptera) of the Middle and South Urals,with analysis of the zoogeographie structure of the Tingidae fauna

Based on the material of the authors’ collections from the South Ural Reserve (Republic of Bashkortostan), Sverdlovsk and Chelyabinsk provinces, the collections of the Zoological Institute of the Russian Academy of Sciences, the Ilmen State Reserve (Chelyabinsk Province), and the Institute of Plant and Animal Ecology of the Ural Branch of the Russian Academy of Sciences (Yekaterinburg), and also the reliable literature data, an annotated list of the true bug fauna of the Middle and South Urals is compiled for the first time. The list includes representatives of the families Ceratocombidae (1 species), Tingidae (45 species of 14 genera), Microphysidae (1 species), and Reduviidae (2 species of 1 genus). The known fauna of the Middle Urals (Perm Territory and Sverdlovsk Province) includes 24 species of Tingidae and 1 species of Microphysidae; that of the South Urals includes 1 species of Ceratocombidae, 41 species of Tingidae, 1 species of Microphysidae, and 2 species of Reduviidae. Six species are recorded from the Urals for the first time: Ceratocombus (Xylonannus) brevipennis Poppius, 1910 (Ceratocombidae), Acalypta gracilis gracilis (Fieber, 1844), Agramma tropidopterum Flor, I860 (Tingidae), Loricula (Myrmedobia) exilis (Fallén, 1807) (Microphysidae), Empicoris culiciformis (De Geer, 1773), and E. vagabundus (Linnaeus, 1758) (Reduviidae). The families Ceratocombidae and Microphysidae were not previously known from this region. The following numbers of species are recorded for the first time for different regions of the Middle and South Urals: for Perm Territory, 2 species of Tingidae; for Sverdlovsk Province, 11 species of Tingidae and 1 of Microphysidae; for Bashkortostan, 1 species of Ceratocombidae, 13 of Tingidae, 1 ofMicrophysidae, and 2 species of Reduviidae; for Chelyabinsk Province, 3 species of Tingidae. The Tingidae fauna of the Middle and South Urals mostly includes species widespread in the latitudinal and longitudinal directions, including 4 Holarctic (8.9%) and 12 Trans-Palaearctic species (26.7%). Ranges of 24 species (53.3%) mainly lie in the “humid” northern part of the Palaearctic (the humid complex of species). Ranges of 21 species (46.7%) mainly lie in the southern part of the Palaearctic, i.e., the Tethyan Region (the arid complex), the Tingidae fauna of the Middle Urals including only 2 species (8.3%) of that complex. Seven species (17.1%) of Tingidae form the arid element in the fauna of Orenburg Province: Kalama henschi (Puton, 1892), Galeatus vitreus Golub, 1974, G. scrophicus Saunders, 1876, Tingis (Tingis) pusilla (Jakovlev, 1873), T. (Tropidocheila) renovata Golub, 1977, T. (Tr.) maculata (Herrich-Schaeffer, 1838), Dictyla subdola (Horvath, 1905). Ranges of 7 species (15.5% of the whole studied fauna of Tingidae) are limited to the Middle and South Urals in the east and northeast. Ranges of 8 other species (17.8%) extend eastwards, beyond the Urals no farther than the south of Western Siberia and Western Kazakhstan. The mountain territory of the Middle and the South Urals obviously serves as a significant orographic and climatic barrier on the way of eastward expansion of some Western- and Central-Palaearctic species of Tingidae.     

Host associations of <Emphasis Type="Italic">Coenonympha hero</Emphasis> (Lepidoptera: Nymphalidae) in northern Europe: microhabitat rather than plant species

Understanding ecological requirements of endangered species is a primary precondition of successful conservation practice. Regrettably, we know surprisingly little about the life history of numerous threatened insects, and about their use of larval host plants in particular. The brown butterflies (Nymphalidae: Satyrinae) have traditionally been considered polyphagous on grasses and indiscriminatory in their oviposition behavior. However, detailed studies on several species have revealed local specialization in host plant use as well as the decisive role of microlimatic conditions as determinants of habitat quality. The present study addresses host plant relationships in the endangered brown butterfly Coenonympha hero (L.) at the northern limit of its European distribution. We combine laboratory-based host preference and performance tests with an analysis of microhabitat use by adult butterflies in the field. Both lines of evidence suggest that C. hero is polyphagous enough not to be associated with one particular host species. Oviposition choices of C. hero are not driven by host plant species but rather by structural characteristics of the substrate. The preferred rigid needle-like structures may serve as cues of ‘transparent’ vegetation which allows the larvae to benefit from sunlight reaching the lower strata of the tuft. Our results suggest that conservation efforts should prioritize microclimatic parameters, rather than the presence of any particular host plant species, as decisive determinants of habitat quality in C. hero.     

Role of the <Emphasis Type="Italic">porcupine</Emphasis> gene in the development of the wing imaginal disk of <Emphasis Type="Italic">Drosophila melanogaster</Emphasis>

A search for the genes interacting with the Merlin tumor suppressor gene revealed a Merlin-porcupine interaction during wing morphogenesis. Ectopic expression of the porcupine gene in the wing imaginal disk reduced the adult wing, while addition of an UAS construct with a full-length or truncated copy of the Merlin gene partly restored the wing phenotype. The highest restoration level was observed upon adding the fragments coding for the C end of the Merlin protein. In addition, the porcupine gene was shown to mediate the wingless gene autoregulation, which occurs at two ontogenetic stages, segmentation during embryo development and determination of the wg expression band at the boundary between the dorsal and ventral compartments of the wing imaginal disk.     

Some New Species of <Emphasis Type="Italic">Crassatella</Emphasis> (Bivalvia) from the Upper Eocene of Ukraine

Three new bivalve species of Crassatella (C. necopina sp. nov., C. personata sp. nov., C. singulata sp. nov.) from detrital sand of the Rybal’sky quarry of Dnepropetrovsk are described. Based on the study of additional material, the subspecies C. (C.) parisiensis Orbigny duplex Berezovsky, 2004 is ranked species (Upper Eocene; Ukraine Dnepropetrovsk, Rybal’sky quarry, Mandrikovka Beds).     

The Role of Geographical and Ecological Factors on Population Divergence of the Neotropical otter <Emphasis Type="Italic">Lontra longicaudis</Emphasis> (Carnivora,Mustelidae)

The geographic distribution of the populations of a species are influenced by the spatial structure of the ecosystems, the environmental factors and the presence of geographic barriers. The Neotropical otter, Lontra longicaudis, is widely distributed throughout the Americas, where a wide range of environmental conditions and geographical features could promote genetic and morphological variation on the three currently recognized subspecies. In this study, we combined phylogeographic, morphometric and environmental niche modelling analyses to examine whether: (1) genetic variation is associated with the presence of barriers to gene flow and/or hydrography; (2) genetic and morphologic variation are associated with environmental variation; and (3) the observed variation in L. longicaudis populations corresponds to the previously defined subspecies. We found strong phylogeographic structure between the northern (L. l. annectens) and the two-southern subspecies (L. l. longicaudis and L. l. enudris), and although shallower, we also detected genetic differentiation between the two South American subspecies. Such genetic differentiation corresponds to the hydrography and to the geographical barriers characteristic of the distributional area of the species. We found a correlation between the shape of the skull and mandible with the environmental variation through the distribution of the species, and we rejected the hypothesis of niche equivalency and similarity between the three identified genetic lineages, suggesting adaptations to different environmental conditions. Our results support that the variation in environmental conditions, in concert with geographical barriers to gene flow and hydrography, have led to population divergence of L. longicaudis along the Neotropics. These results have important taxonomic implications for the species and its conservation.     

A new subspecies of <Emphasis Type="Italic">Centaurea cassia</Emphasis> (Asteraceae) from Turkey

A new subspecies in sect. Jacea (Mill.) DC., Centaurea cassia Boiss. subsp. dumanii M. Dinç, A. Duran &; B. Bilgili subsp. nov., collected by the authors from South Anatolia, is described and illustrated. The new subspecies is restricted to Abies cilicica (Ant. &; Kotschy) Carr. subsp. cilicica forest above Göller Yaylas? (C6 Adana-Kozan). Diagnostic morphological characters from C. cassia subsp. cassia are discussed. The ecology, biogeography and conservation status of the new taxon are also presented.     

Genetic structure of the populations of <Emphasis Type="Italic">Dactylorhiza ochroleuca</Emphasis> and <Emphasis Type="Italic">D. incarnata</Emphasis> (Orchidaceae) in the area of their joint growth in Russia and Belarus

We carried out an allozyme analysis to investigate polymorphism and genetic structure of the populations of D. incarnata and D. ochroleuca in regions of their joint growth in Russia and Belarus. We found that D. ochroleuca individuals in the populations of the Urals and Siberia, which are distant fragments from the main range of the species, do not differ significantly from individuals within the main part of the area (Belarus) on the basis of the allelic composition of eight gene loci. We revealed that D. ochroleuca and D. incarnata are differentiated by different alleles of the GDH locus. Thus, we established a genetic marker suitable to distinguish these closely related taxa. In addition to the GDH locus, D. ochroleuca and D. incarnata in the places of their joint growth, differ in the allelic structure of the PGI and NADHD loci. D. incarnata from the Urals and Siberia were polymorphic for both loci, and individuals from Belarus were polymorphic for one locus (PGI). In contrast, all D. ochroleuca individuals growing in sympatric populations with polymorphic D. incarnata were homozygous for the same alleles. Thus, comparison of the genetic structure of D. ochroleuca and D. incarnata points to the existence of a genetic isolation and a functioning isolation mechanism even under conditions of their joint growth. We found that the GDH locus in D. incarnata is polymorphic only in populations which grow together with D. ochroleuca, with exception a few examples. Thus, we conclude that variability of the GDH locus in D. incarnata is associated with hybridization with D. ochroleuca.     

Chemical and molecular identification of the invasive termite <Emphasis Type="Italic">Zootermopsis nevadensis</Emphasis> (Isoptera: Archotermopsidae) in Japan

Numerous termite species have been introduced outside their native ranges by human transport, and some have become invasive. The dampwood termite Zootermopsis nevadensis (Hagen), which is native to western North America, has been introduced to and become established in Kawanishi City, Hyogo Prefecture, Japan. Zootermopsis nevadensis is subdivided into two subspecies based on cuticular hydrocarbon (CHC) phenotypes: Z. nevadensis nevadensis and Z. nevadensis nuttingi (Haverty and Thorne). Here, we identified Z. nevadensis in Japan as hybrids between the two subspecies. Chemical analysis showed the presence of 7,15-dimethylhenicosane and 5,17-dimethylhenicosane in the CHCs of Z. nevadensis in Japan, corresponding to the CHC phenotype of Z. n. nevadensis. Conversely, all mitochondrial cytochrome c oxidase subunit I sequences of Z. nevadensis in Japan were identical to sequences from Z. n. nuttingi and hybrids between the two subspecies from a native hybrid zone in California, USA. In addition, phylogenetic analysis showed that Z. nevadensis in Japan formed a clade with Z. n. nuttingi and hybrids between the two subspecies. Our results show discordance between the chemical and genetic features of Z. nevadensis in Japan, indicating that individuals of Z. nevadensis in Japan are hybrids between the two subspecies.     

A review of the fauna of the subgenus <Emphasis Type="Italic">Troginus</Emphasis>, genus <Emphasis Type="Italic">Carpelimus</Emphasis> (Coleoptera,Staphylinidae), from tropical Africa

The review includes seven species, three new species are described: Carpelimus maliensis, C. neuterus, and C. xenosus spp. n. The names Trogophloeus variegatus Cameron, 1944, T. ruandanus Cameron, 1956, and Carpelimus maroccanus Gildenkov, 2004 are synonymized with Carpelimus atomus (Saulcy, 1864). Carpelimus rondaensis is downgraded to the subspecies C. boops rondaensis (Fagel, 1957). Lectotype of Trogophloeus dundoensis Cameron, 1950 is designated. New data on the morphology and distribution of Carpelimus (Troginus) species are given.     

World Catalogue of the Family Ratardidae (Lepidoptera,Cossoidea) with Description of a New Species from Thailand and Establishment of New Synonymy and a New Status for <Emphasis Type="Italic">Ratarda javanica</Emphasis> Roepke, 1937

An illustrated catalogue is given of the family Ratardidae in the world fauna which includes 10 species from 3 genera. A new species, Callosiope elenae Yakovlev sp. n., is described from Lampang Province, Thailand. Externally, the new species differs well from the type species of the genus, C. banghaasi. The fore wing of C. elenae sp. n. has a pattern of alternating wide black bands against pure white background (in C. banghaasi, the fore wing is strongly darkened, without bands). The hind wing of C. elenae sp. n. shows a pattern of large dropshaped black smears at the wing edge and a more or less expressed spotted pattern in the discal and postdiscal areas (in C. banghaasi, the hind wing is completely black, with no pattern). A new synonymy: Ratarda marmorata Moore, 1879 = Ratarda guttifera Hering, 1925 syn. n. and a new status: Ratarda mora javanica Roepke, 1937 stat. n., are established. Ratarda excellens (Strand, 1917) is recorded in the fauna of Thailand for the first time.     

Investigating species boundaries using DNA and morphology in the mite <Emphasis Type="Italic">Tyrophagus curvipenis</Emphasis> (Acari: Acaridae), an emerging invasive pest,with a molecular phylogeny of the genus <Emphasis Type="Italic">Tyrophagus</Emphasis>

Mites of the genus Tyrophagus (Acari: Acaridae) are among the most widespread and common mites, inhabiting diverse natural and anthropogenic habitats. Some species are pests of agricultural products and stored food and/or live in house dust, causing allergies to humans. We sequenced 1.2 kb of the mitochondrial COI gene for 38 individuals belonging to seven species of Tyrophagus, including T. curvipenis, T. putrescentiae, T. fanetzhangorum, T. longior, T. perniciosus, and T. cf. similis. Molecular phylogenetic analyses (1) recovered two major clades corresponding to the presence or absence of eyespots, and (2) separated all included morphological species. Tyrophagus curvipenis and T. putrescentiae had the lowest between-species genetic distances (range, mean?±?SD): 14.20–16.30, 15.17?±?0.40 (K2P). The highest within-species variation was found in T. putrescentiae 0.00–4.33, 1.78?±?1.44 (K2P). In this species, we recovered two distinct groups; however, no geographical or ecological dissimilarities were observed between them. Based on our analyses, we document important morphological differences between T. curvipenis and T. putrescentiae. For the first time, we record the occurrence of T. curvipenis in the New World and suggest that it may be an emerging pest as it is currently spreading in agricultural produce.     

The origins of global invasions of the German wasp (<Emphasis Type="Italic">Vespula germanica</Emphasis>) and its infection with four honey bee viruses

A successful control or eradication programme using biological control or genetically-mediated methods requires knowledge of the origin and the extent of wasp genetic diversity. Mitochondrial DNA variation in the native and invaded range of the social wasp Vespula germanica was used to examine intra-specific genetic variation and invasive source populations. We also examined wasps for the presence of four viruses found in honey bees: Acute bee paralysis virus, Deformed wing virus, Israeli acute paralysis virus and Kashmir bee virus. German wasps showed reduced genetic diversity in the invaded range compared to that of their native range. Populations in the introduced range are likely to have arrived from different source populations. All four viral honey bee pathogens were found in V. germanica, although they varied in their distribution and strain. Multiple introductions of German wasps have occurred for most invaded regions, though some populations are genetically homogenous. The differing locations of origin will guide researchers searching for biocontrol agents and the reduced genetic diversity may make these wasps a potentially viable target for control via gene drives.     

Comparative karyology of species of the genera <Emphasis Type="Italic">Misgurnus</Emphasis> and <Emphasis Type="Italic">Cobitis</Emphasis> (Cobitidae) from the Amur River Basin in connection with their taxonomic relations and the evolution of karyotypes

Data are first provided on karyotypes of four species of Cobitidae from the Amur Basin: Misgurnus nikolskyi (2n = 50 = 10m + 4 sm + 36sta, NF = 64), Cobitis lutheri, (2n = 50 = 12m + 8sm + 30sta, NF = 70), C. choii (2n = 50 = 8m + 10sm + 8st + 24a, NF = 68), and C. melanoleuca (2n = 50 = 6m + 16sm + 28sta, NF = 72), and number of chromosomes in M. mohoity (2n = 50) and karyotypes of C. melanoleuca from the basin of the Don, Malyi and Bol’shoi Uzen rivers, and Selenga. These data are discussed in connection with problems of taxonomy of the studied genera, as well as the evolutionary relations of their karyotypes. On the basis of karyological differences between the populations of C. melanoleuca from different parts of the range, a new subspecies C. melanoleuca gladkovi subsp. nov. that inhabits waters of Europe is described.