https://ojs.akademperiodyka.org.ua/index.php/Zoodiversity/issue/feed Zoodiversity 2025-10-27T11:06:44+00:00 Kharchenko Vitaliy vit@izan.kiev.ua Open Journal Systems <div style="color: #222222; font-family: Arial, Helvetica, sans-serif; font-size: small; font-style: normal; font-variant-ligatures: normal; font-variant-caps: normal; font-weight: 400; letter-spacing: normal; orphans: 2; text-align: start; text-indent: 0px; text-transform: none; white-space: normal; widows: 2; word-spacing: 0px; -webkit-text-stroke-width: 0px; background-color: #ffffff; text-decoration-style: initial; text-decoration-color: initial;">"Zoodiversity" is the new name for "Vestnik Zoologii", which was published for 1967-2019.</div> <div style="color: #222222; font-family: Arial, Helvetica, sans-serif; font-size: small; font-style: normal; font-variant-ligatures: normal; font-variant-caps: normal; font-weight: 400; letter-spacing: normal; orphans: 2; text-align: start; text-indent: 0px; text-transform: none; white-space: normal; widows: 2; word-spacing: 0px; -webkit-text-stroke-width: 0px; background-color: #ffffff; text-decoration-style: initial; text-decoration-color: initial;"> <p>The publisher and manufacturer of the Journal Zoodiversity is the Publishing House "Akademperiodyka" of the National Academy of Sciences of Ukraine in accordance with the order of the Presidium of the National Academy of Sciences of Ukraine No. 158 of March 24, 2022 "On the appointment of the Publishing House "Akademperiodyka" of the National Academy of Sciences of Ukraine as the Publisher&nbsp;of Scientific Journals, the preparation and issue of which is carried out in within the framework of the Program for Supporting Journals of the National Academy of Sciences of Ukraine".</p> </div> <p>Zoodiversity is publishing original papers in all fields of zoology (except for strictly applied): fauna and systematics, ecology, parasitology, ethology, descriptive and comparative morphology, physiology, paleozoology, zoological aspects of nature conservancy; the journal also includes eventual items like Information and Chronicle, Book Reviews, Field Notes, etc.</p> <p>Publication language is English.</p> https://ojs.akademperiodyka.org.ua/index.php/Zoodiversity/article/view/872 Scanning Electron Microscopy Provides a Novel Method to Map Abdominal Musculature in Archaeognatha (Insecta) 2025-10-27T11:06:43+00:00 N. Matushkina natalymatushkina@knu.ua <p>Using scanning electron microscopy, previously overlooked cuticle modifications were revealed in the attachment points of skeletal musculature of <em>Trigoniophthalmus simplex</em> (Insecta, Archaeognatha, Machilidae). These findings demonstrate that SEM may serve as an indirect approach for rapidly and precisely mapping complicated abdominal musculature of Archaeognatha. The reference to Archaeognatha is especially relevant for the mapping of the abdominal muscles in insects in the sense of the presence of a hypothesized plesiomorphic sclerite composition in this group of wingless insects.</p> 2025-10-08T08:46:05+00:00 Copyright (c) 2025 Natalia Matushkina https://ojs.akademperiodyka.org.ua/index.php/Zoodiversity/article/view/786 When Morphology Meets Molecules: Barcoding Confirms an Ancient Separation of Phytoecia tigrina subspecies (Coleoptera, Cerambycidae) 2025-10-27T11:06:41+00:00 A. Zamoroka andrew.zamoroka@pnu.edu.ua <p>The molecular analysis of <em>Phytoecia tigrina</em> revealed substantial genetic differentiation (5.8–7.0&nbsp;%) between populations on opposite sides of the Carpathian Arc. Two distinct haplogroups were identified: PhtZk (western, haplotype PhtZk-1) and PhtPo (eastern, haplotypes PhtPo-1 and PhtPo-2), including the type locality of <em>Phytoecia tigrina podillica</em> Zamoroka, Ruicănescu&amp; Manci, 2024. These findings support the division of <em>Ph. tigrina</em> into two subspecies. The pronounced genetic divergence suggests that the separation between <em>Ph. tigrina tigrina</em> and <em>Ph. tigrina podillica</em>, occurred much earlier than previously assumed. Moreover, the coexistence of two highly distinct haplotypes within <em>Ph. tigrina podillica</em> populations suggests episodes of rapid range expansions and contractions during the Late Pleistocene and Holocene. Overall, our results provide valuable insights into the evolutionary processes driving intraspecific diversification in <em>Ph. tigrina</em> in response to cyclical climate fluctuations.</p> 2025-10-02T09:39:11+00:00 Copyright (c) 2025 Andrew Zamoroka https://ojs.akademperiodyka.org.ua/index.php/Zoodiversity/article/view/759 Whether the Presence of Di- and Triploid Hybrids, Pelophylax esculentus, Influences Gametogenesis of Their Parental Species, P. ridibundus 2025-10-27T11:06:36+00:00 E. Pustovalova eleonorapustovalova@karazin.ua V. Strus vasylyna.strus@gmail.com N. Suriadna suriadna@gmail.com O. Biriuk mykhailova.o.v@gmail.com I. Biriuk biriuk.i.j@gmail.com D. Shabanov d.a.shabanov@gmail.com <p>Meiosis ensures efficient reproduction by the formation of viable gametes with a constant number of chromosomes. However, in natural hybrid complexes, where parental and hybrid lineages coexist, the fidelity of this process may be challenged. To better understand how this process functions in natural populations, we investigated, for the first time, the features of spermatogenesis and assessed the level of abnormal meiotic metaphases in the parental species <em>Pelophylax ridibundus</em> and <em>P. lessonae</em> of the hybridogenetic <em>P. esculentus</em> complex from 11 locations in Ukraine. Using Giemsa and/or Ag staining, we analysed 2,203 meiotic and 471 mitotic metaphases from 41 males. Most of the analysed spermatogonia and spermatocytes had chromosome numbers consistent with those forming viable gametes. The average level of aneuploidy in <em>P. ridibundus</em> males was 17% across all hemiclonal population systems analysed, which is significantly lower than in hybrids (p &lt; 0.05). Furthermore, the lack of a significant difference (p = 0.93) in aneuploidy frequency among <em>P. ridibundus</em> from different population systems compared to the pure R-population suggests that the spermatogenesis of <em>P. ridibundus</em> is not affected by the presence of hybrids or the other parental species (<em>P. lessonae</em>). This cytogenetic robustness may contribute to the long-term stability of mixed populations, where <em>P. ridibundus</em> serves as a consistent source of haploid gametes necessary for the reproduction of <em>P. esculentus</em> hybrids.</p> 2025-09-01T13:37:42+00:00 Copyright (c) 2025 Eleonora Pustovalova, Vasylyna Strus, Nataliia Suriadna, Olha Biriuk, Ihor Biriuk, Dmytro Shabanov https://ojs.akademperiodyka.org.ua/index.php/Zoodiversity/article/view/865 Risk Assessment of Introduced Fish Species as a Biodiversity Mitigation Effort in Lake Toba, North Sumatra, Indonesia 2025-10-27T11:06:32+00:00 A. S. Batubara agungsbb@unimed.ac.id M. Muliari agungsbb@unimed.ac.id B. Manurung agungsbb@unimed.ac.id H. Sipahutar agungsbb@unimed.ac.id Y. Akmal agungsbb@unimed.ac.id I. Irfannur agungsbb@unimed.ac.id S. Maulizar agungsbb@unimed.ac.id F. M. Nur agungsbb@unimed.ac.id Y. E. Ritonga agungsbb@unimed.ac.id K. Lubis agungsbb@unimed.ac.id <p>Lake Toba's environment and ichthyofauna are degrading due to human activities and the introduction of invasive fish species. Studies are needed to identify species, distribution patterns, densities and risks of introduced fish species, and these studies must be conducted using scientific and measurable approaches. Research was conducted in Lake Toba, North Sumatra, Indonesia, from June to August 2024, at ten research locations. The research employed an exploratory method, measuring parameters such as population density, the Shannon-Wiener diversity index (H'), the evenness index (E), and the Simpson dominance index (C). Furthermore, this research measures the risk of invasiveness using the Fish Invasiveness Screening Test (FIST). Nine introduced fish species have become established in Lake Toba, including <em>Amphilophus labiatus</em> (Günther, 1864), <em>Aplocheilus panchax</em> (Hamilton, 1822), <em>Cyprinus carpio</em> Linnaeus, 1758, <em>Mystacoleucus padangensis</em> (Bleeker, 1852), <em>Oreochromis mossambicus</em> (Peters, 1852), <em>O. niloticus</em> (Linnaeus, 1758), <em>Poecilia reticulata</em> Peters, 1859, <em>Puntigrus tetrazona</em> (Bleeker, 1855), and <em>Xiphophorus helleri</em> Heckel, 1848. Population density values show that <em>P. reticulata</em> has the highest average value reaching 6.02 ind/m<sup>2</sup>, followed by <em>A. labiatus</em> 2.21 ind/m<sup>2</sup>, M<em>. padangensis</em> 0.21 ind/m<sup>2</sup>, <em>O. niloticus</em> 0.14 ind/m<sup>2</sup>, <em>P. tetrazona </em>0.08 ind/m<sup>2</sup>, <em>X. helleri</em> 0.03 ind/m<sup>2</sup>, and 0.01 ind/m<sup>2</sup> in <em>A. panchax</em>, <em>C. carpio</em>, and <em>O. mossambicus</em>, respectively. Diversity index analysis show low diversity (mean of 0.7), evenness index shows unstable community (mean of 0.46), and Simpson dominance index shows the presence of a dominant species (mean of 0.63). The results of the FIST analysis show that five introduced fish species are in the high risk category, three species have a moderate risk and one species has a low risk. <em>O. niloticus</em>, <em>A. labiatus</em>, <em>C. carpio</em>, <em>O. mossambicus</em>, and <em>P. reticulata</em> have a high risk for ichthyofauna diversity and in fact cause low diversity in Lake Toba.</p> 2025-09-01T11:53:11+00:00 Copyright (c) 2025 A. S. Batubara, M. Muliari, B. Manurung, H. Sipahutar, Y. Akmal, I. Irfannur, S. Maulizar, F. M. Nur, Y. E. Ritonga, K. Lubis https://ojs.akademperiodyka.org.ua/index.php/Zoodiversity/article/view/799 A Survey of Helminths of the Marsh Frog, Pelophylax ridibundus (Amphibia, Ranidae) and the First Record of Ophiotaenia saphena (Cestoda, Proteocephalidae) in the Ukrainian Part of the Danube Delta 2025-10-27T11:06:29+00:00 O. Greben oksana1greben@gmail.com Ya. Syrota goobar4.699@gmail.com I. Dmytriieva ioanna.dmytrieva9@gmail.com A. Nechai anechai2791@gmail.com V. Dupak valeriadupak13@gmail.com O. Marushchak ecopelobates@gmail.com Yu. Kuzmin rhabdias@gmail.com R. Svitin svitinrs@gmail.com <p>In 23 examined marsh frogs, <em>Pelophylax ridibundus </em>(Pallas, 1771), from the town of Vylkove (Odesa Region, Ukraine), 25 helminth species were found. Helminth infracommunities in the studied frogs comprised 3–14 species (mean 9.4; median 10.0) and intensity of infection ranged from 20–351 (mean 151; median 155). Six helminth species were classified as predominating in the helminth component community based on their prevalence and abundance: the nematode <em>Oswaldocruzia duboisi</em> Ben Slimane et al., 1993, the cestode <em>Ophiotaenia saphena </em>Osler, 1931, the trematodes <em>Diplodiscus subclavatus</em> (Pallas, 1760), <em>Prosotocus confuses </em>(Looss, 1894), <em>Pleurogenoides medians</em> (Olsson, 1876), and <em>Tylodelphys excavata</em> (Rudolphi, 1803) (metacercariae). The nematodes <em>Icosiella neglecta</em> (Diesing, 1851) and <em>Os. duboisi</em> and the cestode <em>Op. saphena</em> are reported for the first time in marsh frogs from Vylkove. The latter species is known as a parasite of true frogs (Ranidae) in North America and was recently discovered in <em>Pelophylax</em> spp. in Greece and Romania. It is first reported in Ukraine and is regarded as an invasive alien parasite of <em>P. ridibundus</em> in the Ukrainian part of the Danube Delta. The morphological description and molecular characterisation of <em>Op. saphena</em> from the new locality are provided.</p> 2025-08-19T00:00:00+00:00 Copyright (c)