Somogy megye cincéreinek katalógusa (Coleoptera: Cerambycidae)

Kovács, Tibor; Hegyessy, Gábor; Borsos, Sándor

doi:10.24394/natsom.2001.1.213

Cited by 3 publications

(3 citation statements)

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“…tigrina is presented in Table 4. Kaufmann (1914), Kaszab (1971), Holzschuh (1984), Hegyessy et al (1999), Hegyessy & Kovács (2003), Kovács (2005), Kovács & Hegyessy (2006), Csathó (2009), Tóth et al (2016) Reliable Moldavian Upland Moldova, Romania Miller & Zubowsky (1917), Medvedev & Shapiro (1957), Dascălu (2002), Popescu (2013), Csathó (2014), Derjanschi et al (2016), Tóth et al (2016), Crișan et all. (2017), Bacal et all.…”

Section: Discussionmentioning

confidence: 99%

“…Middle East Syria, Lebanon, Israel Pic (1891), Sama (2002), Ozdikmen (2008) Doubtful Pannonian Plain (Tisza-Danube-Velika Morava) Hungary, Romania, Serbia Kuthy (1897), Kosanin (1904), Kaszab (1971), Ieniștea (1975), Holzschuh (1984), Ádám (1988, Kovács (1998), Hegyessy et al (1999), Hegyessy & Kovács (2003), Kovács (2005), Kovács & Hegyessy (2006), Csathó (2009), Tatole et al (2009), Serafim (2010), Serafim & Chimiliu (2010), Ilić & Ćurčić (2015), Tóth et al (2016), Crișan et all. (2017), this study…”

Section: Reliablementioning

confidence: 99%

“…Presently, a confident discussion can be held regarding the spread of Ph. tigrina in the following countries: Bulgaria (Gradinarov & Petrova, 2021), Hungary (Kovács & Hegyessy, 2006), Moldova (Bacal et al, 2020), Romania (Crișan et al, 2017), Serbia (Ilić & Ćurčić, 2015), Tür-kiye (Özdikmen & Turgut, 2010), and Ukraine (Zamoroka, 2022(Zamoroka, , 2023. In this study, a comprehensive investigation was undertaken encompassing morphological analysis and computational simulation to assess the ecological niche and environmental suitability of Ph.…”

Section: Introductionmentioning

confidence: 99%

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East and West of the Carpathian Arc: Evidence of postglacial ecological and morpho-logical divergence of Phytoecia tigrina metapopulations (Coleoptera, Cerambycidae)

Zamoroka,

Ruicănescu,

Manci

2024

Biosys. divers.

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Phytoecia tigrina Mulsant (1851) is recognized as a species under strict protection EU Habitat Directive, it represents a focal point for conservation efforts across Europe. However, the dearth of comprehensive understanding regarding its biology, ecology, and geographical distribution poses formidable challenges to conservation endeavors. In the current study, we have delineated eight European and two Asian distinct metapopulations of Ph. tigrina across its geographic range, with a particular emphasis on elucidating its dispersion within the Circum-Carpathian region. This delineation serves to underscore the species' distribution, niche dimensions and limits of ecological tolerance that illuminate its adaptation capacity to diverse environmental conditions within the range. Our study has unveiled notable differentials in both morphological and ecological traits among Ph. tigrina metapopulations, notably between those located on the eastern and western flanks of the Carpathian Arc. Such differentials suggest the influence of divergent evolutionary trajectories, likely influenced by historical climatic changes during the Late Pleistocene and Holocene epochs. Significantly, specimens derived from eastern metapopulations exhibit morphological features of sufficient magnitude to warrant the proposition of a distinct subspecies, Phytoecia (Pilemia) tigrina podillica ssp. nov. This taxonomic delineation underscores the taxonomic complexity inherent within the Ph. tigrina species complex. Our investigations have further illuminated the historical dynamics of the species distribution, indicating the presence at least of two refugia during the Last Glacial Maximum (LGM). These refugial enclaves, situated in the Sea of Marmara/Eastern Aegean Sea region and the Pannonian Plain, likely played pivotal roles in shaping contemporary distributional patterns. Moreover, our ecological niche modeling endeavors have elucidated rapid expansions of suitable habitat for Ph. tigrina during post-glacial epochs, notably the Preboreal and Boreal periods. These expansions aligned with the rapid dispersion of its host plant Cynoglottis barrelieri supplying colonization of new territories in the face of the fast-changing post-glacial environment. Our study underscores the intricate interplay between evolutionary history, environmental dynamics, and imperatives for conservation Ph. tigrina. By elucidating these complexities, we endeavor to furnish a robust foundation for future conservation initiatives aimed at safeguarding this emblematic species and its associated habitats.

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Section: Discussionmentioning

confidence: 99%

Section: Reliablementioning

confidence: 99%

Section: Introductionmentioning

confidence: 99%

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East and West of the Carpathian Arc: Evidence of postglacial ecological and morpho-logical divergence of Phytoecia tigrina metapopulations (Coleoptera, Cerambycidae)

Zamoroka,

Ruicănescu,

Manci

2024

Biosys. divers.

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A review of Turkish saproxylic beetles from the European Red List

Avgin

Dertli

Barševskis

2014

Annales de la Société entomologique de France (N.S.)

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Climate-induced seasonal activity and flight period of cerambycid beetles in the Zselic forests, Hungary

Keszthelyi¹,

Pónya²,

Pál-Fám³

2017

J. For. Sci.

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Keszthelyi S., Pónya Z., Pál-Fám F. (2017): Climate-induced seasonal activity and flight period of cerambycid beetles in the Zselic forests, Hungary. J. For. Sci., 63: 503-510.The longhorn beetle fauna (Coleoptera: Cerambycidae) was studied in the Zselic region (Somogy county) in Hungary in seven consecutive years (2009)(2010)(2011)(2012)(2013)(2014)(2015). In total 2,931 specimens were observed and the presence of 83 species was identified during the sampling period. The most abundant species were: Plagionotus arcuatus (Linnaeus, 1758) (p i = 10.542); Cerambyx scopoli Füssli, 1775 (p i = 8.359), Dorcadion aethiops (Scopoli, 1763) (p i = 6.653) and Strangalia melanura (Redtenbacher, 1867) (p i = 6.209). According to our examinations, individual meteorological factors, particularly temperature, directly influenced the dispersal and the activity of longhorn beetles (P = 0.038) as well as the species richness (P = 0.047), as did weather systems formation and movement of air masses, cold and warm fronts. It is also shown that the activity of the insects is influenced by daily weather conditions. The activity of arthropods was higher during warm, dry days and less pronounced during cold, wet ones coupled with high air pressure values. A conspicuous relationship was observable between the appearance of cerambycid beetles and their time period. According to the results of Principal Coordinate Analysis four major groups can be distinguished: early-flight, late spring-flight, summer-flight and late-flight species.

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Somogy megye cincéreinek katalógusa (Coleoptera: Cerambycidae)

Cited by 3 publications

References 0 publications

East and West of the Carpathian Arc: Evidence of postglacial ecological and morpho-logical divergence of Phytoecia tigrina metapopulations (Coleoptera, Cerambycidae)

East and West of the Carpathian Arc: Evidence of postglacial ecological and morpho-logical divergence of Phytoecia tigrina metapopulations (Coleoptera, Cerambycidae)

A review of Turkish saproxylic beetles from the European Red List

Climate-induced seasonal activity and flight period of cerambycid beetles in the Zselic forests, Hungary

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