Search

The Dinaric Karst is a global hotspot for subterranean diversity, with two distinct peaks of species richness in the northwest and southeast, and an area of a lower species richness in the central part. In this article, we present a species list and describe the ecological conditions of the Lukina jama–Trojama cave system, located in the central part of the Dinaric Karst. This cave system is the deepest and one of the most logistically challenging cave systems sampled so far in the Dinaric Karst. Repeated sampling resulted in a list of 45 species, including 25 troglobionts, 3 troglophiles, 16 stygobionts, and 1 stygophile. Most of the recorded species are endemic to the Velebit Mountain, while three species are endemic to the Lukina jama–Trojama cave system. Within the system, species richness peaks in the deepest third of the cave, most likely reflecting the harsh ecological conditions in the upper parts, including ice, cold winds, and occasional waterfalls. Milder and more stable deeper parts of the cave contain a rich subterranean species community, part of which is associated with two very distinct aquatic habitats, the cave hygropetric and the phreatic zone. The newly recognized hotspot of subterranean biodiversity in the central Dinaric Karst, which has emerged between the two known centers of biodiversity, further highlights the species richness in large cave systems, but also challenges the diversity patterns in the Dinaric Karst overall.

Subterranean ecosystems are among the most widespread environments on Earth, yet we still have poor knowledge of their biodiversity. To raise awareness of subterranean ecosystems, the essential services they provide, and their unique conservation challenges, 2021 and 2022 were designated International Years of Caves and Karst. As these ecosystems have traditionally been overlooked in global conservation agendas and multilateral agreements, a quantitative assessment of solution-based approaches to safeguard subterranean biota and associated habitats is timely. This assessment allows researchers and practitioners to understand the progress made and research needs in subterranean ecology and management. We conducted a systematic review of peer-reviewed and grey literature focused on subterranean ecosystems globally (terrestrial, freshwater, and saltwater systems), to quantify the available evidence-base for the effectiveness of conservation interventions. We selected 708 publications from the years 1964 to 2021 that discussed, recommended, or implemented 1,954 conservation interventions in subterranean ecosystems. We noted a steep increase in the number of studies from the 2000s while, surprisingly, the proportion of studies quantifying the impact of conservation interventions has steadily and significantly decreased in recent years. The effectiveness of 31% of conservation interventions has been tested statistically. We further highlight that 64% of the reported research occurred in the Palearctic and Nearctic biogeographic regions. Assessments of the effectiveness of conservation interventions were heavily biased towards indirect measures (monitoring and risk assessment), a limited sample of organisms (mostly arthropods and bats), and more accessible systems (terrestrial caves). Our results indicate that most conservation science in the field of subterranean biology does not apply a rigorous quantitative approach, resulting in sparse evidence for the effectiveness of interventions. This raises the important question of how to make conservation efforts more feasible to implement, cost-effective, and long-lasting. Although there is no single remedy, we propose a suite of potential solutions to focus our efforts better towards increasing statistical testing and stress the importance of standardising study reporting to facilitate metaanalytical exercises. We also provide a database summarising the available literature, which will help to build quantitative knowledge about interventions likely to yield the greatest impacts depending upon the subterranean species and habitats of interest. We view this as a starting point to shift away from the widespread tendency of recommending conservation interventions based on anecdotal and expert-based information rather than scientific evidence, without quantitatively testing their effectiveness., This study is funded by the European Commission via the Marie Sklodowska-Curie Individual Fellowships program (H2020-MSCA-IF-2019; project number 882221), awarded to S.M. Additional support is provided by the PRIN SHOWCAVE “A multidisciplinary research project to study, classify and mitigate the environmental impact in tourist caves” (project number 2017HTXT2R; funded by the Italian Ministry of Education, University and Research). M.B.M. acknowledges support from the Kone Foundation (project number 202007611). T.D., C.F., V.Z., and M.Z. were supported by the Slovenian Research Agency, through core programme P1-0184 and P6-0119. O.T.M. was supported by a grant of the Romanian Ministry of Research, Innovation and Digitization, CNCS/CCCDI— UEFISCDI, project number 2/2019 (DARKFOOD), within PNCDI III. S.I.S. acknowledges funding by MEMOBIC (EU Operational Programme Research, Development and Education No. CZ.02.2.69/0.0/ 0.0/16_027/0008357), and by the Ministry of Education, Youth and Sports of the Czech Republic (grant number CZ.02.1.01/0.0/0.0/16 025/0007417). E.P. is supported by the PON “Research and Innovation” Programme (Axis IV “Education and Research for recovery” – Action IV.6 “Research contracts on Green themes”).

Monografija životinja pronađenih u Gornjoj i Donjoj Baraćevoj špilji.

Strojno učenje je grana računalne znanosti koja se koristi u brojnim područjima. U sklopu ovog rada strojno učenje se koristi na području botanike za predviđanje nalazišta biljnih vrsta. Kako postoje zapisi isključivo o nađenim biljnim vrstama (isključivo pozitivni primjeri), programsko rješenje za predviđanje nalazišta koristi model strojnog učenja zvan jednoklasni stroj potpornih vektora. U radu je opisana teorijska podloga, odnosno opis odabranog modela strojnog učenja i format geoprostornih podataka shapefile. Implementirano programsko rješenje sastoji se od servisa za predviđanje izrađenog u programskom jeziku python, koji sa ostatkom sustava komunicira koristeći sabirnicu poruka. Za demonstraciju rješenja izrađen je prototip aplikacije s grafičkim korisničkim sučeljem. Izrađeno programsko rješenje testirano je na geoprostornim podacima o klimi i nekoliko najrasprostranjenijih biljnih vrsta Hrvatske čiji su podaci dobiveni iz baze podataka Flora Croatica. Machine learning is a branch of computer science used in wide range of fields. As a part of this paper machine learning is used in botany for plant specimen site prediction. Since there are only records of found species (positive labels only), the solution uses a machine learning model called one-class support vector machine for site prediction. The paper describes theoretical basis, which consists of a machine learning model used and geospatial data format called shapefile. Implemented software solution consists of prediction service coded in Python programming language which uses message bus to communicate with the rest of the system. A prototype of a GUI application is developed to demonstrate the solution. The software solution has been tested on climate geospatial data and a couple of most frequent plant species in Croatia the data of which was obtained from Flora Croatica database.

Genus Pacificampa Chevrizov, 1978 Diagnosis (based on Chevrizov 1978) Thoracic macrosetae with no more than 3+3 macrosetae on pronotum, 4+4 on mesonotum (2+2 lateral posterior included), and 2+2 on metanotum (1+1 lateral posterior included). One dorsal macroseta on metathoracic femora and one or two on tibia. Subequal elbowed claws with ridges on dorsal side that look like very small lateral crests under optical microscope; without lateral processes. Urotergites V– VII with no more than 1+1 medial posterior, 1+1 lateral anterior and 2+2 lateral posterior macrosetae and on urotergite VIII with no more than 1+1 medial posterior and 3+3 lateral macrosetae. Up to 7+7 macrosetae on first urosternite, 5+5 macrosetae on second to seventh urosternites, and 1+1 macrosetae on eighth urosternite. First urosternite in males with thick appendages with large field of glandular a1 setae., Published as part of Sendra, Alberto, Komerički, Ana, Lips, Josiane, Luan, Yunxia, Selfa, Jesús & Jiménez-Valverde, Alberto, 2021, Asian cave-adapted diplurans, with the description of two new genera and four new species (Arthropoda, Hexapoda, Entognatha), pp. 1-46 in European Journal of Taxonomy 731 on page 22, DOI: 10.5852/ejt.2021.731.1199, http://zenodo.org/record/4422557, {"references":["Chevrizov B. P. 1978. Two new genera of the Family Campodeidae from the Far East Caves. Zoologichesky Zhurnal 57 (2): 197 ‾ 205."]}

Pacificampa wudonghuii Sendra sp. nov. urn:lsid:zoobank.org:act: 447EE93A-F466-4C66-827A-0751A259070F Figs 51–64 Etymology This species is dedicated to Professor Wu Donghui, from the Northeast Institute of Geography and Agroecology (NEIGAE), Chinese Academy of Sciences, Changchun (China), for his enthusiastic contribution and support to the knowledge of Northern China soil and cave biodiversity. Type material Holotype CHINA • ♀; Liaoning Province, Benxi, Huanren, Xianren Dong; 17 May 2019, L. Deharveng, A. Bedos and Wu Donghui leg.; labelled “CHILN19-005-holotype”; NEIGA-diplura-01. Paratypes CHINA • 1 ♀, 1 juvenile, same collection data as for holotype; labelled “CHILN19-005-female paratype”; MZB (MCNB) 2020-1160 • 1 juvenile; same collection data as for preceding; labelled “CHILN19- 005-juvenile paratype”; MZB (MCNB) 2020-1161 • 1 ♀; Liaoning Province, Benxi, Huanren, Pylon cave; 17 May 2019; L. Deharveng, A. Bedos and Wu Donghui leg.; labelled “CHILN19-007-female paratype”; MZB (MCNB) 2020-1164. Other material examined CHINA • 1 ♂, same collection data as for holotype; mounted on an aluminium stage and coated with palladium-gold; Coll. AS. Description BODY. Length 6.5–6.9 mm in females; 3.9 mm in one juvenile. Epicuticle smooth under optical microscope but well reticulated under high magnifications as one can see irregular polygonal structures of variable sizes with scattered external glands either visible or covered with secretion (Figs 51, 53); body with smooth clothing setae. HEAD. Antennae broken in all specimens; central antennomeres with two whorls of distal barbed macrosetae and uneven short setae; in addition, with single distal whorl of up to 8–12 gouge sensilla of 22–29 µm long (Fig. 51) and among them one or two small coniform sensilla (5 µm long). Proximal antennomeres with typical trichobothria disposition with bacilliform sensillum (9–10 µm long) on third antennomere in ventral position, between c–d macrosetae (Fig. 52). Plain frontal process with one anterior macrosetae, longer than clothing setae. Three macrosetae along each side of insertion line of antennomere and x setae with length ratios of a / i / p / x, 42/55/42/45, respectively, in holotype (Fig. 54). Large suboval labial palps, each with enlarged coniform latero-external sensillum near two gard setae and eight normal setae on anterior portion, up to 150 neuroglandular setae in medial and posterior positions. THORAX. Thoracic macrosetae distribution: pronotum has 1+1 ma, 1+1 la, 1+1 lp macrosetae; mesonotum has 1+1 ma, 1+1 la and 2+2 lp macrosetae; and metanotum has 1+1 ma and 1+1 lp macrosetae. Long macrosetae with long barbs in distal three-fourths; marginal setae longer than clothing setae, which are barbed from distal half to three-fourths. Legs elongated, metathoracic legs reach posterior border of seventh abdominal segment. Mesothoracic and metathoracic femora have one dorsal macroseta each, barbed along distal three-fourths (Fig. 55), absent in prothoracic femora. Calcars with two or three long barbs in middle (Fig. 56). Prothoracic and mesothoracic tibia with one short ventral macrosetae with one apical barb and two in metathoracic tibia (Fig. 57). Each tarsus with two separated ventral rows of thicker and longer setae among clothing setae, and a few setiform sensilla (Fig. 58). Three long smooth dorsal tarsal and one ventral setae. Subequal elbowed claws with smooth ventral surface ridged on dorsal side that can be mistaken for lateral crests under optical microscopes, between a blunt unguiculus and without lateral processes (Figs 59–60). ABDOMEN. Distribution of abdominal macrosetae on tergites (Fig. 61 shows 1+1 ma on III in the paratype from Grotte du Pylone, but absent in Xianren Dong Cave types; 1+1 ma, 1+1 la and 2+2 lp on IV–VII; 1+1 mp and 3+3 lp on VIII and 1+1 mp and 5+5 lp on IX abdominal; ma and la macrosetae with barbs in distal half to one third and shorter than mp and lp macrosetae, which bear long barbs along distal four-fifths. Urosternite I with 7+7 macrosetae (Fig. 62); urosternites II to VII with 4+4 macrosetae (Fig. 63); urosternite VIII with 1+1 macrosetae (Fig. 64); urosternal macrosetae of varying lengths, with one apical to twenty distal long barbs. Stylus setae smooth, apical and subapical setae shorter than ventromedial seta (Fig. 63). SECONDARY SEX CHARACTERS. Female urosternite I with subcylindrical appendages, each bearing up to 40 glandular a 1 setae in apical field. Male urosternite I with thick short, and subcylindrical appendages, each with large apical field of about 220 glandular a 1 setae (Fig. 62). Taxonomic affinities Pacificampa wudonghuii sp. nov. shares with P. birsteini Chevrizov, 1978, P. caesa Chevrizov, 1978 and P. nipponica Sendra, 2018 the same distribution of notal macrosetae (1+1 medial anterior, 1+1 lateral anterior, and 1+1 lateral posterior macrosetae on pronotum; 1+1 medial anterior, 1+1 lateral anterior, and 2+2 lateral posterior macrosetae on mesonotum; and 1+1 medial anterior and 1+1 lateral anterior macrosetae on metanotum). An undescribed species mentioned by Ferguson (1997) from northeastern China also has this setal distribution. However, P. wudonghuii sp. nov. differs from other species of Pacificampa in having 1+1 medial anterior, 1+1 lateral anterior, and 2+2 lateral posterior macrosetae on the fourth urotergite (Fig. 61), a pattern distribution that begins on the fifth urotergite for the other species. In addition, the larger male appendages have more abundant glandular a 1 setae in P. wudonghuii sp. nov. (Fig. 62) than in the other species of Pacificampa.

Anisuracampa ywangana Sendra & Komerički sp. nov. urn:lsid:zoobank.org:act: 511F81B5-6CB2-4A98-AB3E-11AF72205A26 Figs 1, 3–19; Tables 1–2; Supp. file 2 Etymology This species is named after the important karst region Ywangan in Myanmar, the location of Win Twin Cave (Figs 1, 3–4). Type material Holotype MYANMAR • ♀; Shan State, Ywangan, Win Twin Cave; 21º11′51.47″ N, 96º32′40.34″ E; 16 Nov. 2018; Aung Lin leg.; labelled “holotype”; MZB (MCNB) 2020-1152. Paratypes MYANMAR • 1 ♀; same collection data as for holotype; labelled “paratype-H1”; MZB (MCNB) 2020- 0620 • 1 ♀, 1 ♂, 1 juvenile; same collection data as for holotype; 8 May 2018; labelled “paratype-H2”, “paratype-M”, “paratype-J”; MZB (MCNB) 2020-1153, MZB (MCNB) 2020-1155, MZB (MCNB) 2020-1154. Other material examined MYANMAR • 2 specs; same collection data as for the holotype; 8 May 2018; mounted on two separate aluminium stages and coated with palladium-gold; Coll. AS. Description BODY. Length is 4.3–6.0 mm (n = 4) in adults and 2.6 mm in one juvenile (Table 1). The epicuticle is smooth under optical microscope but reticulated at higher magnification, showing irregular polygonal structures of variable sizes (Fig. 11). Body with long smooth clothing setae. HEAD. Two complete and intact antennae in holotype and paratype-M with 35 antennomeres each, whereas paratype-J (juvenile) has 38 antennomeres. The antennae are similar to length of body (Table 1), with medial antennomeres 2× as long as wide but apical antennomeres 1½ × as long as wide. Cupuliform organ with up to 17 spheroidal olfactory chemoreceptors arranged in two uneven concentric circles; each chemoreceptor forms a complex structure of multi–perforated folds with one distinguishing crown of fringes a surrounding central column. Each of these structures is inside a polygonal cell (Figs 5–6). Distal and central antennomeres with three whorls of distal barbed macrosetae and 5–6 scattered whorls of smooth setae in addition to single distal whorl of up to 14 gouge sensilla of 24–28 µm length (Figs 7–8) that are more abundant on dorsal side of antennomere. Proximal antennomeres with typical trichobothria, plus small bacilliform sensillum on third antennomere in ventral position. Round protrusion of frontal process covered with one anterior macroseta and two or three posterior macrosetae (Fig. 10). Three macrosetae along each side of insertion line of antennomere and x setae with thin distal barbs; length ratios of a / i / p / x, 45/57/56/65, respectively, in paratype-H2. Labial palps large and suboval, each with bacilliform latero-external sensillum, two guard setae, up to 18 normal setae and up to 140 neuroglandular setae. THORAX. Thoracic macrosetae distribution (Figs 9, 11) have pronotum with 1+1 ma, 1+1 la, 2+2 lp 2,3 macrosetae; mesonotum with 1+1 ma, 2+2 la and 4+4 lp 1–4 macrosetae; and metanotum with 1+1 ma, 2+2 la and 3+3 lp 1–3 macrosetae. All macrosetae long and with thin barbs along basal half to twothirds of each seta; marginal setae barbed and longer than clothing setae. Legs elongated, metathoracic legs reach end of abdomen in adults or overpass it in juvenile. Tibia always longer than femur or tarsus (Table 1). Each femur III with three or, less frequently, two long dorsal macrosetae with distal barbs (0.25 mm in 0.62 mm femur of paratype-H1) (femora I–II with one to three long dorsal macrosetae). Calcars covered with thin abundant barbs all over. Tibiae I–III usually with two short, completely barbed ventral macrosetae, occasionally just one. Each tibia with two rows of ventral barbed setae almost from base and scattered throughout with thin, long setiform sensilla. Three well-barbed dorsal distal tarsal setae longer than rest of tarsal setae. Subequal claws with lateral expansion in crest; basal and ventral portion of claws covered with short to long spiniform formations. Laminar pretarsus of lateral processes sharply curved with what apparently looks like thin fringes under optical microscope, but under SEM seen as narrow laminar expansions (Figs 12–15). ABDOMEN. Distribution of macrosetae on tergites with 1+1 post 1 on I–III; 1+1 post 1 to 3+3 post 1–3 on IV, 4+4 post 1–4 and 1+1 la on V, 5+5 post 1–5 or 6+6 post 1–6 and 1+1 la on VI–VII; 7+7 post on VIII; and 8+8 or 9+9 post macrosetae on IX abdominal segment. All tergal abdominal macrosetae long and barbed along distal half to four-fifths. Urosternite I has 7+7 macrosetae (Figs 16–17); while urosternites II to VII with 5+5 macrosetae; and urosternite VIII with 1+1 macrosetae; urosternal macrosetae of medium size and barbed along distal half. Stylus with short apical seta with small barbs, and each subapical seta completely covered with barbs and with short, barbed ventromedial seta (Figs 18–19). One intact cercus 2.4 × body length and with 14 primary articles (Table 2). Article length increases from proximal to distal articles; covered with long thin macrosetae, with distal barbs, and less abundant long, thin setae. Each primary article with whorl of shorter thin plumose setae at distal position. SECONDARY SEX CHARACTERS. Female urosternite I with enlarged subcylindrical appendages, each bearing up to 60 ventral glandular a 2 setae proximally and apical field of up to 28 glandular a 1 setae (Figs 16–17). Male with similar appendages with two fields of glandular setae (19 a 2 and 27 a 1) in one appendage of male paratype. Spermatozoid fascicles small, 0.04 mm in diameter, and formed by undistinguishable filament of spermatozoids in spiral. Taxonomic affinities Anisuracampa was proposed for a soil-dwelling species, Anisuracampa suoxiensis Xie & Yang, 1990 from Hunan Province in southeastern China. As a plusiocampine genus, Anisuracampa is characterized by the laminar pretarsus but with the lateral processes with long barbs and weakly developed lateral crests (Figs 12–15) (see Xie & Yang 1991: fig. 34). In addition to this trait, Anisuracampa has two or three dorsal femoral macrosetae and 1+1 macrosetae on the eighth urosternite. All of these characters are present in A. ywangana sp. nov., a cave-adapted species from the Win Twin Cave in eastern Myanmar. Therefore, these morphological similarities together with the congruent geographical distribution in Southeast Asia are considered sufficient reason to place this new species in Anisuracampa. However, A. ywangana sp. nov. differs from A. suoxiensis in several characters besides the traits related to adaptations to cave ecosystems. Anisuracampa ywangana sp. nov. has 4+4 lateral posterior macrosetae on the mesonotum (Fig. 9) (2+ 2 in A. suoxiensis), 3+3 lateral posterior and 2+2 lateral anterior macrosetae on the metanotum (2+2 lateral posterior and no lateral anterior macrosetae in A. suoxiensis) and 5+5 posterior and 1+1 lateral anterior macrosetae on urotergites V–VII (4+4 posterior and no lateral anterior macrosetae in A. suoxiensis). Regarding the new species’ cave-adapted features, it has a larger body and longer appendages at least double the size of those of A. suoxiensis, with 30–35 antennomeres in A. ywangana sp. nov. (24 in A. suoxiensis). It is impossible to compare other useful taxonomical characteristics mentioned in the description of A. ywangana sp. nov. with A. suoxiensis as the former was described using SEM, whereas the latter was described under optical observations with a brief diagnosis and the type material of A. suoxiensis is not available for study. Remarks Anisuracampa ywangana sp. nov. was observed and collected walking on the Win Twin cave floor and boulders, approximately 300 m from the entrance, and on the wet flowstone in a vast chamber (Figs 1–3; Supp. file 2). The Win Twin cave is located within a large karst area referred to as Ywangan karst, which is situated in the western part of the Shan plateau, approximately 10 km northeast of Ywangan Township and 15 km east of the Panlaung Pyadalin Wildlife Sanctuary. The cave has only been discovered recently and is currently under tourist development by the local community. It has not been fully surveyed and approximately only the first 400 m were explored during the collection of the type material. The cave itself is large, with numerous chambers, and its entrance was enlarged by mining (Fig. 4); after approximately 300 m into the main passage, it opens into a vast chamber filled with speleothems (Fig. 3), from which it again continues further by smaller, narrow passages opening into new chambers. At the bottom of the vast chamber, the oxygen level becomes too low for further exploration during the dry season (May), while by the end of the rainy season (November) it was possible to reach two further lower chambers before the oxygen level became too low. No active water flow was observed, but sparse remains of particular organic matter are present and the air temperature recorded in May 2018 was 20.0°C, while the sediment temperature was 19.6°C (unpublished data)., Published as part of Sendra, Alberto, Komerički, Ana, Lips, Josiane, Luan, Yunxia, Selfa, Jesús & Jiménez-Valverde, Alberto, 2021, Asian cave-adapted diplurans, with the description of two new genera and four new species (Arthropoda, Hexapoda, Entognatha), pp. 1-46 in European Journal of Taxonomy 731 on pages 4-9, DOI: 10.5852/ejt.2021.731.1199, http://zenodo.org/record/4422557, {"references":["Xie R. & Yang Y. 1991. Description of two new genera and three new species of Campodeidae in China (Diplura). Contribution Shanghai Institute of Entomology 10: 95 ‾ 102."]}

Hubeicampa aff. melissa Sendra & Lips gen. et sp. nov. Material examined CHINA • 3 ♂♂ (6.6 to 8.0 mm), 1 ♀ (9.6 mm), 1 juv. (5.5 mm); Hubei, Banqiao, Kedu Dong (Grotte des Têtards); 6 Aug. 2009; Josiane Lips leg.; Coll. AS. Remark Specimens from Kedu Dong are considered as H. aff. melissa gen. et sp. nov. due to the specimens’ bad condition which does not allow us to clearly observe any variations in the taxonomical features. Nevertheless, they have the same important traits as the new species, but there is no dorsal macrosetae on the femur, except in a juvenile. Taxonomic affinities Hubeicampa melissa Sendra & Lips gen. et sp. nov. is closely related to another cave-adapted species, Hubeicampa lipsae (Condé, 1993), which is a new combination of Plusiocampa (Dydimocampa) lipsae Condé, 1993, and thus leads us to propose Hubeicampa as a new genus for both species that live in karst regions of the Chinese province of Hubei. The new genus is distinguished by the pretarsus, which has lateral crests and a laminar lateral process covered by spiniform formations and micro-barbs, pubescent setae and macrosetae (Figs 36–39), as well as by 1+1 macrosetae on the eighth urosternite. A significant number of taxonomic characters separates H. melissa gen. et sp. nov. from H. lipsae. The most relevant differences are in the number of macrosetae on the mesonotum (Fig. 30) (with 1+1 medial anterior, 1+1 lateral anterior and 1+1 medial posterior macrosetae in H. melissa gen. et sp. nov. instead of 1+1 medial anterior and 2+2 lateral posterior macrosetae in H. lipsae), and the number of macrosetae on metanotum (with 1+1 medial anterior macrosetae and none or 1+1 medial posterior submacrosetae instead of 1+1 medial anterior and 1+1 lateral posterior in H. lipsae). Other important features are the larger lateral crests in the pretarsus of H. melissa gen. et sp. nov. (Figs 36–37) the presence of one dorsal macroseta on the metathoracic femora, and one ventral macroseta on the metathoracic tibia in H. melissa gen. et sp. nov. instead of two dorsal femora and two ventral tibia macrosetae in H. lipsae. Finally, there are 4+4 posterior macrosetae on V–VII urotergites in H. melissa gen. et sp. nov. (Fig. 40) instead of 3+ 3 in H. lipsae. Remarks Hubeicampa melissa Sendra & Lips gen. et sp. nov. lives in the “Grotte du 8 ième Ciel Baxian Dong”, a cave situated at an elevation of 1870 m in the mountain near Banqiao village in the Hubei Province. The cave is 1703 m long and 122 m deep, with a huge entrance and giant galleries, as well as narrow passages and a narrow independent entry. The holotype of Hubeicampa melissa gen. et sp. nov. was observed and collected on the cave floor at about 300 m from the huge entry and at the top of the - 40 m deep pit on clay ground above the Saltpetre passage (Lips et al. 2009) (Figs 46–48). Some paratypes were collected in the same cave in the big chamber “Grande galerie du Va-et-Vient”., Published as part of Sendra, Alberto, Komerički, Ana, Lips, Josiane, Luan, Yunxia, Selfa, Jesús & Jiménez-Valverde, Alberto, 2021, Asian cave-adapted diplurans, with the description of two new genera and four new species (Arthropoda, Hexapoda, Entognatha), pp. 1-46 in European Journal of Taxonomy 731 on pages 14-18, DOI: 10.5852/ejt.2021.731.1199, http://zenodo.org/record/4422557, {"references":["Conde B. 1993. Premiers Campodeidae cavernicoles de China, comme exemple de l'evolution souterraine de la Famille (Diplura). Revue suisse de Zoologie 100 (4): 823 ‾ 828. Available from https: // www. biodiversitylibrary. org / page / 41223963 [accessed 19 Nov. 2020].","Lips B., Faverjon M., Routhieau V., Schalk P. & Lips J. 2009. Rapport de la 8 ieme expedition speleologique en Chine, provinces de l'Hubei et du Sichuan. Aventures karstiques lointaines & Institut de technologie de Chengdu. Speleologie au pays de l'Homme sauvage 8: 1 ‾ 112."]}

Genus Hubeicampa Sendra & Lips gen. nov. urn:lsid:zoobank.org:act: 3992F636-8036-4734-ACA6-A4972A157D82 Type species Hubeicampa lipsae (Condé, 1993) comb. nov. Plusiocampa (Dydimocampa) lipsae Condé, 1993: 826, figs 2a–c. Diagnosis Dense pubescence of thin micro-barbs on setae. No more than 4+4 macrosetae on pronotum, 3+3 on mesonotum and 2+2 on metanotum. One or two dorsal macrosetae on metathoracic femora and one or two on tibia. Subequal elbowed claws with lateral crests; basal and ventral portion of claws covered with very small, thin, spiniform formations that look pubescent under optical microscope. Laminar lateral processes of the pretarsus completely covered with dense micro–barbs. Urotergites V–VII with 3+3 or 4+4 posterior macrosetae and without lateral anterior macrosetae. Up to 12+12 macrosetae on first urosternite, 4+4 or 5+5 macrosetae on second to seventh urosternites and 1+1 macrosetae on eighth urosternite. First urosternite in males without glandular g 1 setae and appendages with glandular a 1 setae. Etymology The genus name refers to the Chinese province of Hubei where the first cave-adapted dipluran was described., Published as part of Sendra, Alberto, Komerički, Ana, Lips, Josiane, Luan, Yunxia, Selfa, Jesús & Jiménez-Valverde, Alberto, 2021, Asian cave-adapted diplurans, with the description of two new genera and four new species (Arthropoda, Hexapoda, Entognatha), pp. 1-46 in European Journal of Taxonomy 731 on pages 10-11, DOI: 10.5852/ejt.2021.731.1199, http://zenodo.org/record/4422557, {"references":["Conde B. 1993. Premiers Campodeidae cavernicoles de China, comme exemple de l'evolution souterraine de la Famille (Diplura). Revue suisse de Zoologie 100 (4): 823 ‾ 828. Available from https: // www. biodiversitylibrary. org / page / 41223963 [accessed 19 Nov. 2020]."]}

Mueggejapyx Sendra & Komerički gen. nov. urn:lsid:zoobank.org:act: 924B9ABA-1630-4832-86EE-19CE73C3E7CB Type species Mueggejapyx brehieri Sendra & Komerički gen. et sp. nov. Diagnosis Large and elongated body; antennae with 36 antennomeres; trichobothria on antennomeres 4–6 in a 3/5/5 pattern; a trichobothria in distal position; 1–2 placoid sensilla on medial and distal antennomere; apical antennomere with 16–18 placoid sensilla; dorsal and ventral side of head with numerous uniformly distributed sM and sm, and several M; five laminae pectinate on maxilla; elongated thoracic segments; and cuticle with tiny micro-holes, pronotum and mesonotum each with 5+5 M, metanotum with 2+2 M; strong internal Y cuticular furcisternite structures in pro-presternites and pro-, meso- and metasternites; urotergites with at most 1+1 M (ma), 1+1 M 1, 1+1 M 2–5; urite X longer than wide, with marked carinae with subparallel margins, with 2+2 intracarinal macrosetae; acropygium rounded; lateral angles of urotergites VI and VII with weakly to moderate lobiform projection; first urosternite with multiperforated surface and rounded protrusions, with 3+3 M on prescutum and 11+11 M on scutum; median glandular organ with seta-shaped sensilla; lateral subcoxal organs with one to three rows of short glandular setae (GS), one row of sensory setae (SS), and a row of setae with large socket; sternites with abundant sm and strong M; cerci strong, elongated, rectilinear and becoming curved subapically, heavily sclerotized with external dorsal and ventral carinae. Both cerci without medial tooth, but with one short row of small round denticles on the right cercus and two rows of small round denticles on the left cercus. Etymology This genus is dedicated to the memory of the American entomologist Mark Alan Muegge (pronounced Meggy), who died young due to an unfortunate car accident in 2015. He left behind a promising career and was devoted, among other groups, to diplurans; alongside other taxa, he provided a description of the highly cave-adapted japygid from Texas, Mixojapyx reddelli Muegge, 1992., Published as part of Sendra, Alberto, Komerički, Ana, Lips, Josiane, Luan, Yunxia, Selfa, Jesús & Jiménez-Valverde, Alberto, 2021, Asian cave-adapted diplurans, with the description of two new genera and four new species (Arthropoda, Hexapoda, Entognatha), pp. 1-46 in European Journal of Taxonomy 731 on pages 28-29, DOI: 10.5852/ejt.2021.731.1199, http://zenodo.org/record/4422557, {"references":["Muegge M. A. 1992. New species of cavernicolous japygid (Diplura: Japygidae) from Texas. Annals of the Entomological Society of America 85 (4): 406 ‾ 412. https: // doi. org / 10.1093 / aesa / 85.4.406"]}

Plutocampa speophila Chevrizov, 1978 Plutocampa speophila Chevrizov, 1978: 201, fig. 2(1‾9). Material examined RUSSIA • ♀, holotype (6 mm), 1 ♀ paratype (5 mm); Far East, Primorye region, Olgisk District, Priiskovaya cave; 3 Nov. 1966; S.I. Ljovuschkin leg.; slide; ZMMU Dip0007. Redescription (based on Chevrizov 1978) Under optical microscope it has a smooth cuticle covered by thin smooth clothing setae. Antennae are apparently intact with 23 antennomeres in the paratype, medial antennomeres 1.4 × as long as wide; third antennomere with a thick sensillum in ventral position (c–d macrosetae); last antennomere with at least eight olfactory chemoreceptors. Small and pointed frontal process has one long anterior smooth macrosetae and two shorter posterior macrosetae; there are three smooth macrosetae along each side of the line of insertion of antennomere and smooth x setae with a similar length, ratios of a / i / p / x are 20/23/22/23, respectively. Labial palps are large with thick sensilla. Pronotum with 1+1 ma, 3+3 (2+ 2 paratype) la, 2+2 lp 1,3 mesonotum with 1+1 ma, 3+3 (2+ 2 paratype) la, 2+2 lp 2,3 , 1+1 (0+ 1 paratype) mp and metanotum with 1+1 ma, 2+2 lp, 1+1 mp macrosetae, long and thin notal macrosetae covered with thin barbs along their distal three-fourths; marginal setae are long and some of them are as long and barbed as the macrosetae. The metathoracic legs reach the posterior border of the VII abdominal segment; femora have two long barbed dorsal macrosetae and one ventral macrosetae. The tibia has one ventral short macrosetae, a few distal barbs, and calcars with several long barbs. The tarsus has two rows of smooth ventral setae, slightly thicker than clothing setae and on distal part: three long smooth dorsal setae and one ventral seta; the pretarsus has no lateral processes, with unequal elbowed claws, and with large lateral crests. Urotergite I with 1+1 post 1 ; urotergite II 1+2 (1+ 1 paratype) post 1,2 ; urotergite III 2+2 post 1,2 ; urotergites IV–VII 4+4 post 1–4 ; urotergite VIII 5+5 post 1–5 and abdominal segment IX 7+7 post, macrosetae long with barbs along three-fourths. Urosternite I with 5+5, urosternites II–VII 4+4, and urosternite VIII 1+1 macrosetae; urosternal macrosetae are shorter than urotergal macrosetae with long barbs; smooth stylar setae. First urosternite appendages (female) have large, short and subconical appendages, each with apical field with about fifty glandular a 1 setae., Published as part of Sendra, Alberto, Komerički, Ana, Lips, Josiane, Luan, Yunxia, Selfa, Jesús & Jiménez-Valverde, Alberto, 2021, Asian cave-adapted diplurans, with the description of two new genera and four new species (Arthropoda, Hexapoda, Entognatha), pp. 1-46 in European Journal of Taxonomy 731 on page 20, DOI: 10.5852/ejt.2021.731.1199, http://zenodo.org/record/4422557, {"references":["Chevrizov B. P. 1978. Two new genera of the Family Campodeidae from the Far East Caves. Zoologichesky Zhurnal 57 (2): 197 ‾ 205."]}

Mueggejapyx brehieri Sendra & Komerički gen. et sp. nov. urn:lsid:zoobank.org:act: 8D581345-0B2E-4E5C-918C-DBF84F3B6978 Figs 2, 65–97; Tables 5–6 Etymology This species is dedicated to Franck Brehier, French biospeleologist, who has dedicated himself to exploring and studying many karst areas and caves in Southeast Asia. Type material Holotype MYANMAR • ♂; Shan State, Ywangan, Win Twin Cave; 21º11′51.47″ N, 96º32′40.34″ E, 16 Nov. 2018: Aung Lin leg.; labelled “♂4-holotype”; MZB (MCNB) 2020-1156. Paratypes MYANMAR • 1 ♂, 1 ♀; same collection data as for holotype; labelled “♂3-paratype” and “♀1– paratype”; MZB (MCNB) 2020-0626, MZB (MCNB) 2020-0627 • 1 ♀; same collection data as for holotype; labelled “♀2-paratype”; MZB (MCNB) 2020-1159 • 1 ♂; Shan State, Parpent Cave 1; 2 Dec. 2015; Franck Brehier leg; collected by hand; collector’s code BUR15-FB20; labelled “♂5-paratype”; MZB (MCNB) 2020-0628 • 1 ♂; same collection data as for preceding; collector’s code MY15–20.06; labelled “♂7-paratype”; MZB (MCNB) 2020-1158 • 1 ♀; Shan State, Kyauk Khaung [= Stone Cave]; 30 Nov. 2015; Franck Brehier leg.; collector’s codes: BUR15–FB17, MY15–17.03; labelled “♀6-paratype”; MZB (MCNB) 2020-1157. Other material examined MYANMAR • 2 specs; same collection data as for holotype; mounted on two separate aluminium stages and coated with palladium-gold; Coll. AS. Description BODY. Elongated (Fig. 2), length 23 mm in male holotype (19–26 mm in three paratype females, 15–23 mm in three paratype males). Greatest width at urotergite VII 2.6 mm. Epicuticle smooth under optical microscope, with numerous micropores at higher magnifications (Figs 72, 85). Cuticle unpigmented, except for slightly sclerotized areas on dorsal head, mandible tips, femoral and tibial condyles and segments VI–X (Fig. 2). HEAD. Antennae with 36 antennomeres; antennae less than ½ body length; first antennomere short, followed by three longer and larger antennomeres (2 nd to 4 th antennomeres with reinforced borders) (Figs 65–68, 70; Table 5). All antennomeres with abundant setae including sM and sm setae, which appear more abundant on ventral side of 7 th to 16 th antennomeres under light microscope; trichobothria present on antennomeres 4–6 in a 3/5/5 pattern, in which a trichobothria in distal position; 1 or 2 placoid sensilla present on latero-interior ventral side on 17 th and more distal antennomeres; apical antennomere bearing 16–18 placoid sensilla distributed in three irregular whorls (Figs 65–66). Dorsal and ventral side of head with numerous uniformly distributed sM and sm, and several M, more obvious in young specimens (♂7- paratype); on dorsal side A1–3, S2,4,6, M2,3,5, I4,5, P2 and L1–5 (Fig. 69); on ventral side, submentum with large 1+1 M in posterior position, admentum with 4+4 M, mentum at base of labial palps with 1+1 M; external lobes of mentum with abundant sM; internal lobes with 1+1 short M. Elongated, conical labial palps almost 3 × as long as wide compared with sM and sm in addition to one long, apical seta and a few shorter setiform sensilla (Figs 75–77). Lacinia falciform well sclerotized, all five laminae pectinate. THORAX. Thoracic segments elongated (Figs 71, 75). Pronotum with 5+5 M and numerous uniformly distributed sM and sm; mesonotum with 5+5 M and a few sM and sm; metanotum with 2+2 M and a few sm; both prescuta have 1+1 M and scattered sM and sm; at high magnifications tiny, uniformly distributed micropores (0.10–0.15 µm diameter) visible on cuticle surface (Fig. 72). Thoracic sternites, intersternites, and presternites well defined with sm, sM, and M setae (Figs 75, 77–79). Pro-presternites and pro-, meso- and metasternites have strong internal Y-shaped cuticular structures (furcisternites) (Barlet & Carpentier 1962), and only in pro-presternites prolongation of posterior branch named spine clearly visible on surface (Denis 1949). Pro-presternum with 1+1 short M in anterior lateral position and 1+1 sM in medial anterior; prosternum with 1+1 medial anterior M; 3+3 lateral anterior M, 1+1 medial intermediate M and 2+2 lateral posterior M; meso-poststernum with 5+5 M; meso-intersternum with 5+5 M; mesosternum with 1+1 medial anterior M, 4+4 lateral anterior M, 1 M sagittal, 1+1 medial intermediate M, 1+0 medial posterior M and 3+3 lateral posterior M; metapoststernum with 5+5 M; meta-intersternum 4+4 M; and metasternum with 1+1 medial anterior M, 3+3 lateral anterior M; 1+1 sagittal M, 1+1 medial intermediate M, 3+3 lateral posterior M (Figs 75, 77–79). Legs elongated, hind legs reaching 5 th abdominal segment. Frictional setae between trochantercoxa-femora articulations; femora-tibia-tarsus articulations with row of long M or sM setae with large sockets, plus additional 1 M in coxa, 5 M in trochanter and 7 M in femora. Tibia and tarsus with M and sM; 5 M in tibia and 2 M in tarsus. Tibia also bearing one calcar seta at ventral apex, thicker and more robust than other tibial setae, and two rows of four or five thick setae along ventral side. Pretarsus with two unequal claws and sharp medial unguiculus. ABDOMEN. Abdominal tergites with few sm and sM. Tergite I (prescutum and scutum) without M; tergite II with 0 or 1+1 M5; tergite III with 1+1 M (medial anterior macrosetae), 0 or 1+1 M1, 1+1 M4–5; tergites IV–VI with 1+1 M (ma), 0 or 1+1 M1, 1+1 M2–5; tergite VIII with 1+1 M4–5; tergite IX lacking M except (M1 present in specimens from Parpent Cave 1 (Fig. 88). Urite X (Figs 89, 92) nearly 1.5 × as long as wide, distinctly marked carinae present with subparallel margins slightly convergent towards posterior; 2+2 intracarinal D1 and D3 macrosetae and 3+3 macrosetae (L1, L3, L5) on carinae (Fig. 89); ventral side with four rows of 3+3 M, 3+3 M, 2+2 M, and 2+2 M from anterior to posterior position; acropygium rounded (Fig. 91). Tergites I–V with blunt, slightly rounded to pointed posterolateral angles; angles on tergites VI and VII more conspicuous, lobiform projection small to more prolonged and visibly sclerotized in largest specimens; tergite IX with projections (Fig. 88). Sternite I (Figs 80–85) with multiperforated surface and rounded protrusions covered by abundant sm and lesser sM and 3+3 or 3+4 M on prescutum and 11+11 M on scutum. Median glandular organ with 12 seta-shaped sensilla (Fig. 83). Lateral subcoxal organs invaginated below posterior margin or evaginated showing central opening protruding over margin of first urosternite (Figs 81–82). Each lateral subcoxal organ with one, two, or three rows of glandular setae (GS) (54–100 in males, 47–66 in females) and one row of sensory setae (SS) (11–24 in males, 13–15 in females) occupying 0.22–0.30 (males) and 0.23–0.25 (females) of interstyle width; GS/st1 (stylus of first sternite) = 0.1–0.23 (males) and 0.18–0.28 (females), SS/st1= 0.19 (male) and 0.16–0.26 (females); row of setae with large sockets anterior to glandular setae, 7–12 in males and 6–10 in females (Figs 80–85). Sternites have abundant sm and strong M; sternites II–VII with 7+7 A M, 5+5 (4+4) B M and 4+4 C M; sternite VIII with 3+3 (4+4) A M, 3+3 (2+2) B M and 3+3 C M (see Material and methods for terminology); sternite IX with 1+1 M (Figs 86–87). Cerci strong, well developed, elongated and rectilinear, becoming curved toward apex (Figs 89–92), length ranging from 2.8 mm in largest specimen (♀ 1- paratype) to 1.4 mm in the smallest (♂7- paratype); cerci always slightly longer than urite X, heavily sclerotized with external dorsal andventral carinae projecting from dorsal and ventral acetabular articulations running almost to apex ventrally and halfway dorsally. Cerci with medial tooth; right cercus with basal notch complementary in shape to round tooth at ventral side of basal portion of left cercus. Posterior to right notch and left tooth: in right cercus short row of 5 or 6 small, round denticles in line; and in left cercus two rows of small round denticles (4+4); these rows of denticles occupying 1/8 of total length of each cercus (Figs 89–95, 97). Each cercus with scattered sm, sM, and M setae and several conical sensilla throughout, more abundant distally (Figs 96–97). Dorsal side of each cercus with 6 or 7 D macrosetae, D1, D3 and D5 largest on both cerci; ventral side with 12 V-macrosetae, V3 and V8 being largest; intracarinal region with 5–7 L macrosetae, a pair of macrosetae in L1 being largest (Figs 91, 94–95). Taxonomic affinities Mueggejapyx gen. nov. is distinguished by its elongated, rectilinear, heavily sclerotized cerci curving subapically, and lacking a medial tooth but with one or two rows of basal small round denticles, its median glandular organ with seta-shaped sensilla, and short lateral subcoxal organs, each with a row of setae that have large sockets. Remarks Mueggejapyx brehieri gen. et sp. nov., was observed and collected along with A. ywangana sp. nov. in Win Twin Cave (Figs 1–4), as well as in two nearby caves: Parpent Cave 1 and Kyauk Khaung (synonyms: Sin Lae Ye Win, Stone Cave). The latter is the second longest cave so far explored in Myanmar. Kyauk Khaung Cave is over 4790 m long and also situated in the Ywangan karst area. Its entrance is located only 1240 m southeast of the entrance to Win Twin, and the cave itself extends mostly towards the northeast of the entrance. During the 2015 biological research of Kyauk Khaung, specimens of Campodeidae and Japygidae were found in the northernmost parts of the cave, which indicates the species is most likely distributed throughout the entire subterranean habitats of the Ywangan karst (unpublished data). The Ywangan karst covers 1050 ha, and at the moment hosts three other endemic troglobitic invertebrates: the carabid beetle Birmaphaenops brehieri Deuve, 2017 (Deuve 2017), the cave crab Shanphusa ywarngan Ng & Whitten, 2017 (Ng & Whitten 2017), and a woodlouse Bamaoniscus lobatus Taiti et al, 2020 as well as an endemic karst-adapted gecko, the Linn-Way bent-toed gecko Cyrtodactylus linnwayensis Grismer et al., 2017 (Grismer et al. 2017), and 17 species of bats (unpublished data). Due to its biodiversity, Ywangan karst is proposed as a karst Key Biodiversity Area and a subterranean Ramsar Site. Although cave tourism is being developed in the area, there are substantial efforts being made by the NGO sector (Fauna & Flora International Myanmar) to provide guidance for development of sustainable, low-impact tourism as well as cave and biodiversity conservation (unpublished data)., Published as part of Sendra, Alberto, Komerički, Ana, Lips, Josiane, Luan, Yunxia, Selfa, Jesús & Jiménez-Valverde, Alberto, 2021, Asian cave-adapted diplurans, with the description of two new genera and four new species (Arthropoda, Hexapoda, Entognatha), pp. 1-46 in European Journal of Taxonomy 731 on pages 29-37, DOI: 10.5852/ejt.2021.731.1199, http://zenodo.org/record/4422557, {"references":["Barlet J. & Carpentier F. 1962. Le thorax des Japygides. Bulletin et Annales de la Societe royale d'Entomologie de Belgique 8: 95 ‾ 127.","Denis J. R. 1949. Ordre des Diploures. In: P. P. Grasse (ed.) Traite de Zoologie IX: 160 ‾ 185. Masson, Paris.","Deuve T. 2017. Decouverte du premier Carabique troglobie de Birmanie et descriptions de deux nouveaux Lanxangaphaenops du Laos (Coleoptera, Caraboidea, Trechidae). Bulletin de la Societe entomologique de France 122 (1): 97 ‾ 104.","Ng P. K. L. & Whitten A. J. 2017. On a new species of Shanphusa Yeo & Ng, 2007 (Brachyura, Potamoidae, Potamidae), from a cave in central Myanmar. Crustaceana 90 (2) 235 ‾ 245. https: // doi. org / 10.1163 / 15685403 - 00003646","Taiti S. & Montesanto G. 2020. Troglobiotic terrestrial isopods from Myanmar, with descriptions of a new genus and three new species (Crustacea, Oniscidea). In: Kottelat M., Deharveng L. & Ng P. K. L. (eds) Anthony J. Whitten (1953 - 2017) Memorial Issue. Raffles Bulletin of Zoology Supplement 35: 109 - 122.","Grismer L. L., Perry L., Wood Jr., Myint Kyaw T., Thaw Z., Evan S. H., Quah M. L., Murdoch M. S., Grismer A. L., Htet K. & Ngwe L. 2017. Twelve new species of Cytodactylus Gray (Squamata: Gekkonidae) from isolated limestone habitats in east-central and southern Myanmar demonstrate high localized diversity and unprecedented microendemism. Zoological Journal of the Linnean Society 182: 862 ‾ 959. https: // doi. org / 10.1093 / zoolinnean / zlx 057"]}

Pacificampa caesa Chevrizov, 1978 Pacificampa caesa Chevrizov, 1978: 199, figs 1(10‾19). Material examined RUSSIA • ♂ holotype (6.8 mm); Far East, Primoriye region, Chandolaz Mountain Range, Bliznets Cave; 23 Jun. 1974; B.P. Chevrizov leg.; slide; ZMMU Dip0004. Redescription (based on Chevrizov 1978) It has a smooth cuticle under optical microscope and is covered by abundant short and smooth clothing setae. The antennae are apparently intact with 27 antennomeres, medial antennomeres are 3 × as long as wide; third antennomere has a sensillum in ventral position (c–d macrosetae). The plain frontal process has one long anterior smooth macroseta and two, almost two times shorter, posterior macrosetae; the three macrosetae with short distal barbs along each side of the insertion line of the antennomere are longer than the smooth x setae with length ratios of a / i / p / x, 7/8/4/3, respectively. Pronotum with 1+1 ma, 1+1 la, 1+1 lp, mesonotum with 1+1 ma, 1+1 la, 2+2 lp, and metanotum with 1+1 ma, 1+1 lp macrosetae; all notal macrosetae are robust with a few short distal barbs, in particular the la are longer and the lp pronotal macrosetae have more numerous short distal barbs; the marginal setae are thicker than the clothing setae with short distal barbs, the lateral posterior marginal setae are larger and have more numerous small barbs. The metathoracic legs reach the end of the abdomen; the femora have one robust dorsal macroseta with short distal barbs, whereas the tibia has one ventral short macroseta with 1–2 apical barbs and the calcars are with 3–4 long barbs; the tarsus has two rows of robust, smooth ventral setae, three long, smooth dorsal and one distal ventral setae; the pretarsus is without lateral processes, with subequal elbowed claws, and with a smooth ventral surface ridged on the dorsal side that looks like very small lateral crests under optical microscopes, but they are not. Urotergites V–VII have 1+1 ma, 1+1 la, 2+2 lp; urotergite VIII and abdominal segment IX has 1+1 mp, 3+3 lp, all macrosetae are robust and with a few short distal barbs. Urosternite I has 6+6, urosternites II–VII 5+5, and urosternite VIII 1+1 macrosetae; all urosternal macrosetae are robust and with a few long barbs; robust smooth stylar setae. First urosternite appendages have (male) subcylindrical appendages thick, each of these has a large apical field with more than one hundred glandular a 1 setae., Published as part of Sendra, Alberto, Komerički, Ana, Lips, Josiane, Luan, Yunxia, Selfa, Jesús & Jiménez-Valverde, Alberto, 2021, Asian cave-adapted diplurans, with the description of two new genera and four new species (Arthropoda, Hexapoda, Entognatha), pp. 1-46 in European Journal of Taxonomy 731 on page 23, DOI: 10.5852/ejt.2021.731.1199, http://zenodo.org/record/4422557, {"references":["Chevrizov B. P. 1978. Two new genera of the Family Campodeidae from the Far East Caves. Zoologichesky Zhurnal 57 (2): 197 ‾ 205."]}

Pacificampa birsteini Chevrizov, 1978 Pacificampa birsteini Chevrizov, 1978: 198, fig. 1(1‾9). Material examined RUSSIA • ♀ holotype (7 mm); Far East, Primoriye region, Partizanskii Mountain Range, Belyi Dvorets Cave (White Palace Cave); 16 Aug. 1966; S.I. Ljovushkin leg.; slide; ZMMU Dip0003. Redescription (based on Chevrizov 1978) It has a smooth cuticle, under optical microscope, covered by abundant short smooth clothing setae. The antennae are apparently intact with 26 antennomeres; the medial antennomeres are 3 × as long as wide, and the last antennomere has about eight spheroidal olfactory chemoreceptors; the third antennomere has a sensillum in ventral position (c–d macrosetae). The plain frontal process has one long anterior smooth macrosetae and two, almost two times shorter, posterior macrosetae; the three macrosetae have a few thin distal barbs along each side of the insertion line of antennomere longer than the smooth x setae, with length ratios of a / i / p / x, 5/6/5/2, respectively. Pronotum with 1+1 ma, 1+1 la, 1+1 lp, mesonotum with 1+1 ma, 1+1 la, 2+2 lp, and metanotum with 1+1 ma, 1+1 lp macrosetae; all notal macrosetae are robust with a few short distal barbs; the marginal setae are thicker than the clothing setae with short distal barbs, whereas the lateral posterior marginal setae are larger with abundant small barbs. The metathoracic legs overpass the end of the abdomen; the femora have one dorsal robust macroseta with 2–3 distal barbs, the tibia has two short ventral macrosetae with 1–2 apical barbs and the calcars have 3–4 long barbs; the tarsus has two rows of smooth robust ventral setae, three long smooth dorsal and one distal ventral setae; the pretarsus is without lateral processes, with subequal elbowed claws and with a smooth ventral surface, ridged on the dorsal side, that looks like very small lateral crests under optical microscope, but they are not. Urotergite IV with 1+0 la, 0–1 lp; urotergites V–VII with 1+1 ma, 1+1 la, 2+2 lp; urotergite VIII and abdominal segment IX with 1+1 mp, 3+3 lp, all macrosetae are robust with a few short distal barbs. Urosternite I with 6+6, urosternites II–VII with 5+5, and urosternite VIII with 1+1 macrosetae; all urosternal macrosetae are robust with a few long barbs; robust smooth stylar setae. First urosternite appendages (female) are subcylindrical and long with an apical field of a 1 glandular setae. Cercal articles have whorls of long macrosetae with a few distal barbs., Published as part of Sendra, Alberto, Komerički, Ana, Lips, Josiane, Luan, Yunxia, Selfa, Jesús & Jiménez-Valverde, Alberto, 2021, Asian cave-adapted diplurans, with the description of two new genera and four new species (Arthropoda, Hexapoda, Entognatha), pp. 1-46 in European Journal of Taxonomy 731 on pages 22-23, DOI: 10.5852/ejt.2021.731.1199, http://zenodo.org/record/4422557, {"references":["Chevrizov B. P. 1978. Two new genera of the Family Campodeidae from the Far East Caves. Zoologichesky Zhurnal 57 (2): 197 ‾ 205."]}

Plutocampa paurochaeta Chevrizov, 1978 Plutocampa paurochaeta Chevrizov, 1978: 204, fig. 3(11‾19). Material examined RUSSIA • ♀ holotype (6.7 mm); Far East, Primoriye region, Chandolaz Mt. Range, Solyanik Cave; 25 Jun. 1974; P.B. Chevrizov leg.; slide; ZMMU Dip0005. Redescription (based on Chevrizov 1978) Under optical microscope, one can see a smooth cuticle covered by thin smooth clothing setae. Antennae, apparently intact, have 28 antennomeres, the central antennomere is 1.6 × as long as wide, the apical antennomere has about eight olfactory chemoreceptors; the third antennomere has a large sensillum in ventral position. The head has a small and pointed frontal process with one long anterior smooth macroseta and two shorter posterior macrosetae; three smooth macrosetae along each side of the insertion line of the antennomere and smooth x setae with similar length, ratios of a / i / p / x are 6/5/8/7, respectively. Pronotum with 1+1 ma, 2+2 la, 2+2 lp 1,3 , mesonotum with 1+1 ma, 2+1 la, 2+2 lp 2,3 , and metanotum with 1+1 ma, 2+2 lp macrosetae, notal macrosetae are long and thin with thin barbs on three-fourths of distal barbs; marginal setae are long and smooth. Metathoracic legs overpass the end of the abdomen; femora have two long barbed dorsal macrosetae and one ventral macroseta, and the tibia has one ventral short macroseta and calcars with several long barbs. The tarsus has two rows of ventral smooth setae slightly thicker than the clothing setae, three long and smooth dorsal subapical setae and one ventral subapical seta; the pretarsus is without lateral processes, with unequal elbowed claws, and with large lateral crests. Urotergite IV with 1+1 post 1 , urotergites V–VII with 4+4 post 1–4 , urotegite VIII with 5+5 post1–5, macrosetae are long, with barbs along their three-fourths. Urosternite I with 6+6, urosternites II–VII with 4+4, and urosternite VIII with 1+1 macrosetae; urosternal macrosetae are shorter than urotergal macrosetae with long barbs; smooth stylar setae. First urosternite appendages (female) have large, short subconical glandular a 1 setae with a smaller apical field. The cerci have eight articles plus a basal one covered with whorls of smooth setae and whorls of macrosetae barbed with thin barbs at the proximal articles to smooth in medial and distal articles., Published as part of Sendra, Alberto, Komerički, Ana, Lips, Josiane, Luan, Yunxia, Selfa, Jesús & Jiménez-Valverde, Alberto, 2021, Asian cave-adapted diplurans, with the description of two new genera and four new species (Arthropoda, Hexapoda, Entognatha), pp. 1-46 in European Journal of Taxonomy 731 on page 22, DOI: 10.5852/ejt.2021.731.1199, http://zenodo.org/record/4422557, {"references":["Chevrizov B. P. 1978. Two new genera of the Family Campodeidae from the Far East Caves. Zoologichesky Zhurnal 57 (2): 197 ‾ 205."]}

Genus Anisuracampa Xie & Yang, 1991 Diagnosis (modified and improved from original diagnosis by Xie & Yang 1991) Mesonotum and metanotum with 1+1 medial anterior, no or 2+2 lateral anterior, and 2+2 to 4+4 lateral posterior macrosetae. Two to three dorsal macrosetae on metathoracic legs. Elbowed claws ventrally with long spiniform formations with apparently lateral crests. Laminar pretarsus lateral processes with long, broad barbs. Urotergites with 4+4–5+5 posterior macrosetae on urotergites V–VII. Eighth urosternite with 1+1 macrosetae. First urosternite with non–glandular setae bearing coniform or subtrapezoidal appendages., Published as part of Sendra, Alberto, Komerički, Ana, Lips, Josiane, Luan, Yunxia, Selfa, Jesús & Jiménez-Valverde, Alberto, 2021, Asian cave-adapted diplurans, with the description of two new genera and four new species (Arthropoda, Hexapoda, Entognatha), pp. 1-46 in European Journal of Taxonomy 731 on page 3, DOI: 10.5852/ejt.2021.731.1199, http://zenodo.org/record/4422557, {"references":["Xie R. & Yang Y. 1991. Description of two new genera and three new species of Campodeidae in China (Diplura). Contribution Shanghai Institute of Entomology 10: 95 ‾ 102."]}

Monografija u kojoj su opisani izabrani i istraženi speleološki objekti na otoku Mljetu.

U današnjem svijetu veliki podaci i raspodijeljeni sustavi su jedini prihvatljivi tandem za produkcijski vrijednu aplikaciju. U ovom diplomskom radu obrađuju se koncepti raspodijeljenih sustava kao te alat Apache Pinot, te načini modeliranja podataka za efikasnu pretragu. Apache Pinot predstavlja raspodijeljenuplatformu za brzu i efikasnu obradu tokova podataka. U okviru diplomskog radabiti će opisani teoretski koncepti platforme Apache Pinot kao i studijski primjerinstalacije,konfiguracije, učitavanja podataka i analize podataka. In this day and age big data and distributed systems are the only accepta-ble duo for production efficient applications. In this master theses, concepts ofdistributed systems are revised along with the Apache Pinot platform and datamodeling techniques. Apache Pinot is a distributed platform for data stream pro-cessing. In this theses theoretical concepts behind Apache Pinot will be explainedand a study case will be given in which installation, configuration, data loading and data analysis are going to be demonstrated.

This presentation highlights the need to develop a set of minimum standards for monitoring. This would ensure a meaningful comparison of the Article 17 reporting results between EU member states.

radu je provedena analiza i dimenzioniranje čelične konstrukcije visoke građevine visine 172 metra sa 40 nadzemnih etaža koja je izvedena nosivim sustavom izvedene sustavom cijev u cijevi. Na odabranom sustavu istražen je utjecaj načina modeliranja međukatne konstrukcije na ponašanje građevine u slučaju statičkog i seizmičkog djelovanja. Nakon provedena analize opterećenja izrađen je model konstrukcije u računalnom programu SCIA Engineer te su provedene statičke i seizmičke analize i konstrukcija je dimenzionirana na mjerodavne učinke djelovanja. Razmatrana su tri načina modeliranja međukatne konstrukcije: plošni elementi, krute veze i zamjenske dijagonale. Analize odabranih načina modeliranja su pokazale da pojednostavljenje numeričkog modela predstavlja opravdan izbor pri modeliranju. Ova tvrdnja se osobiti očituje u smanjenju broja konačnih elemenata kod alternativnih načina kruta veza ili zamjenske dijagonale što rezultira puno manjim utroškom vremena u odnosu na mode s plošnim elementima. Također, u okviru rada, projektirani su priključci čeličnog nosivog sustava metodom CBFEM u programu Idea Statica te su izrađeni pregledni nacrti i nacrti karakterističnih detalja na temelju 3D modela konstrukcije u programu Tekla Structures.

U ovom članku dan je pregled razvoja i aktualno stanje Katastra speleoloških objekata Republike Hrvatske. Uz kratak opis uspostave, metodologije i strukture Katastra, dan je i tablični pregled Katastra u brojevima. Također su tablično predstavljeni izvori financiranja, učesnici, dionici, osobe uključene u izradu. Broj speleoloških objekata tablično je prikazan po tipu objekta, po županijama, po parkovima prirode i nacionalnim parkovima, s obzirom na Natura 2000 mrežu te po udrugama, po godinama i kurgovima unosa, te je dan pregled ukupne dubine i duljine speleoloških objekata po udrugama. Metodologija je shematski prikazana a web obrazac za unos podataka je predstavljen kroz slike.

symbIoTe je programski okvir za integraciju IoT platformi. OpenHAB je naj- poznatiji programski okvir otvorenog koda za upravljanje Smart Home objektima. Cilj završnog rada bio je napraviti dodatak RAP (time i povezati platforme) takav da komunikacija između symbIoTea i openHABa bude jednoznačno premapirana i točna. Također je napravljena i podrška za kontinuiranu provjeru registriranih resursa. symbIoTe is a framework that overrides other “smart” platforms. OpenHAB is the most widely known and commercial open source code framework for Smart Home objects management. The aim of the thesis was to make the RAP (thus linking platforms) add-on so that the communication between SymbIoTe and OpenHAB is unambiguously premature and accurate. Support for continuous verification of registered resources has also been developed.

Cilj ovog rada je izrada biblioteke za robotski operacijski sustav za navigaciju robota do određenog cilja i regulaciju brzine prilikom kretanja u ovisnosti o udaljenosti od povezanog objekta. U sklopu rada opisana je matematička podloga potrebna za izvođenje regulacije brzine, tehnologije koje su korištene za izradu rada i postupak implementacije rješenja kroz tri faze. Rezultat rada je javno dostupna biblioteka koja zadovoljava postavljene zahtjeve. Uspješnost izrade biblioteke eksperimentalno je provjerena na robotu Pioneer P3-DX u kontroliranim uvjetima u javnom prostoru. The goal of this paper is to create a program library for robotic operating system whose task is to navigate the robot to a certain goal while maintaining fixed distance to a bound object. The paper discusses the mathematical background required to perform the movement adjustment, technologies used for developing the software and software implementation split in three parts. The result of the paper is a publicly available library which satisfies all demands. Library has been experimentally tested on a pioneer P3-DX robot under controlled conditions in a public area.

A two-year research projects in the Krka National Park and Paklenica National Park were conducted aiming to test different methods for cave habitats and fauna monitoring in order to develop monitoring protocols for different species, show caves and cave habitats. Altogether, we investigated 16 caves and 28 target species from the following taxa: Serpulidae, Araneae, Isopoda, Amphipoda, Decapoda, Diplopoda, Chilopoda, Collembola, Diplura and Coleoptera. Here, we will present the results from the monitoring of fauna in three caves from the Krka National Park (Stara jametina, Miljacka II and show cave Oziđana špilja), and the show cave Manita peć in Paklenica National Park. We used two different methods: (1) invertebrate census of the whole cave (in Oziđana špilja), and (2) invertebrate census on plots (in Stara jametina and Miljacka II). The first method is suitable for small caves. For this method, it is best to divide the cave into 3-5 zones and conduct a “minimum- time census”, with a predefined number of people and the amount of time per zone. The second method is applicable for large caves. Again, it is necessary to define the number of people and the amount of counting time per plot. In Manita peć, we combined these two methods: the cave was divided into three zones and plots per zone (in triplicates) were established. With this approach, we were able to collect quantitative data sets and estimate the total abundance of the fauna as well as the abundance of individual taxa. Furthermore, this monitoring scheme is replicative and suitable for long-term monitoring of both fauna and cave habitats. A detailed species inventory of the investigated cave and the trained researchers that can identify species on sight, without collecting them, are crucial prerequisites for the successful implementation of the abovementioned methods.

Projektom Biospeleološka istraživanja i inventarizacija faune u speleološkim objektima Nacionalnog parka Sjeverni Velebit u suradnji Javne ustanove "Nacionalni park Sjeverni Velebit" i Hrvatskog biospeleološkog društva, biospeleološki je istraženo 5 speleoloških objekata: Jama pod Budinom kosicom, Jama u kuku, Sniježnica u Medvjeđoj dolini, Špilja u Štirovači i Terca. U svakom je objektu sakupljana fauna, mjereni su mikroklimatski parametri te su fotodokumentirani ulaz, unutrašnjost objekta i fauna. Detaljno su taksonomski obrađene skupine pauka (Araneae), jednakonožnih rakova (Isopoda), striga (Chilopoda), dvojenoga (Diplopoda), skokuna (Collembola) i kornjaša (Coleoptera). Rezultati ovog istraživanja značajno su doprinijeli poznavanju podzemne faune Parka te su naglasili važnost i potrebu sustavne inventarizacije podzemne faune speleoloških objekata., Via the project ‘Biospeleological investigations and inventory of the fauna in the speleological structures of the Northern Velebit National Park’ in collaboration with the Northern Velebit National Park public institution and the Croatian Biospeleological Society, five speleological structures have been biospeleologically investigated: The pit below Budina kosica, the pit in Kuk, Sniježnica in Medvjeđa valley, the cave in Štirovača and Terca. In each structure the fauna was collected, the microclimatic parameters were measured and the entrance, underground spaces and fauna were photographed. Groups of spiders (Araneae), crustaceans (Isopoda), centipedes (Chilopoda), millipedes (Diplopoda), springtails (Collembola) and beetles (Coleoptera) were taxonomically processed in detail. In total, 27 taxa were recorded of which 13 are troglobion, i.e. species completely adapted to life underground. Four species were noted in the park for the first time, and one of them is new to science. The range of the measured air temperatures started from 2.9 to 9.8°C and this shows a great diversity of the habitats of the speleological structures of Northern Velebit, which is evident also by the number of recorded species. These results have complemented significantly to the list of the underground fauna of the park, expanded the knowledge of the recorded species and have highlighted the importance of the systematic inventorying of the underground fauna of speleological structures of all dimensions, small and large. Likewise, it has shown that the underground fauna of the Northern Velebit National Park is extremely interesting and worthy of preservation.

U ovom radu objašnjen je postupak određivanja nosivosti tla ispod plitkih temelja, odnosno teorije nosivosti temelja. Prikazan je utjecaj parametara tla i dimenzija temelja na njegovu nosivost putem rješavanja raznih primjera pomoću proračunske tablice za rješavanje problemskih zadataka u programu Microsoft Excel. Parametri tla uključuju koheziju, kut unutarnjeg trenja i zapreminsku težinu tla. Proračunska tablica za određivanje nosivosti tla sadrži ukupno trinaest parametara koje je potrebno unijeti, a koji se odnose na karakteristike tla, nagib i veličinu sile koja djeluje na temelj, dimenzije temelja, faktor sigurnosti te položaj podzemne vode. Rezultat proračuna je karakteristična i proračunska bruto nosivost tla, proračunska neto nosivost tla te dopušteno opterećenje gornje konstrukcije.

The Cave Cadaster of the Republic of Croatia is the culmination of a long history of cave research and organized gathering of data on caves. It was established by the State Institute for Nature Protection (at present Ministry of Environment and Energy), which provides the financial and technical support and coordination, in collaboration with numerous Croatian caving clubs, which provide verified data. Currently, 27 caving clubs, along with Croatian Geological Survey, are involved in the Cadaster, which now comprises of 2448 verified caves and 424 caves awaiting verification. This is still less than 30% of all explored caves in Croatia, assuming that the estimate of 10.000 explored caves is correct. The Cadaster was a response to the vast knowledge on caves in Croatia, scattered in numerous archives of caving clubs and thousands of publications of both speleological and biospeleological nature. The need to organize the data, resolve countless synonyms, verify decades old information and make them available to the caving community as well as the Croatian Nature Protection Sector and public institutions dealing with protecting life and property led to its creation in 2015. Generalized data are available to public through web portal of NPIS Bioportal (http://www.bioportal.hr/). High quality data is a priority, maintained by a complex methodology for data collection. This data will provide the basis for biospeleological analyses along with faunistic data compiled under CroFauna database. Both databases are a part of the Nature Information Protection System, and will be available to expert community for research and conservation planning.