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A: A stand of the Suaedetum acuminatae on solonchak soils (Russia, Volgograd Region, Kapustin Yar). B: Semi- desert vegetation of the Anabasio salsae - Artemisietum pauciflorae suaedetosum physophorae on solonez soils (Russia, Volgograd Region, along eastern and south-eastern lakesides of the Lake Elton). C: The Anabasio salsae - Artemisietum pauciflorae anabasi- etosum aphyllae on solonez soils (Russia, Volgograd Region, eastern lakeside of the Lake Elton). Photos: T. Lysenko. Slika 1: A: Sestoj asociacije Suaedetum acuminatae na soločaku (Rusija, regija Volgograd, Kapustin Yar). B: Polpuščavska vege- tacija Anabasio salsae - Artemisietum pauciflorae suaedetosum physophorae na soloncu (Rusija, regija Volgograd, ob vzhodni in jugovzhodni obali jezera Elton). C: Subasociacija Anabasio salsae - Artemisietum pauciflorae anabasietosum aphyllae na soloncu (Russia, regija Volgograd, vzhodna obala jezera Elton). Foto: T. Lysenko. 

A: A stand of the Suaedetum acuminatae on solonchak soils (Russia, Volgograd Region, Kapustin Yar). B: Semi- desert vegetation of the Anabasio salsae - Artemisietum pauciflorae suaedetosum physophorae on solonez soils (Russia, Volgograd Region, along eastern and south-eastern lakesides of the Lake Elton). C: The Anabasio salsae - Artemisietum pauciflorae anabasi- etosum aphyllae on solonez soils (Russia, Volgograd Region, eastern lakeside of the Lake Elton). Photos: T. Lysenko. Slika 1: A: Sestoj asociacije Suaedetum acuminatae na soločaku (Rusija, regija Volgograd, Kapustin Yar). B: Polpuščavska vege- tacija Anabasio salsae - Artemisietum pauciflorae suaedetosum physophorae na soloncu (Rusija, regija Volgograd, ob vzhodni in jugovzhodni obali jezera Elton). C: Subasociacija Anabasio salsae - Artemisietum pauciflorae anabasietosum aphyllae na soloncu (Russia, regija Volgograd, vzhodna obala jezera Elton). Foto: T. Lysenko. 

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The paper presents validations of some syntaxon names of the saline vegetation of Eastern Europe (southern Russia and Kazakhstan), namely of the Carici dilutae-Juncion gerardii, Anabasio salsae-Artemision pauciflorae, Carici dilutae-Juncetum gerardii. The names of the Suaedion acuminatae, Climacoptero crassae-Suaedion acuminatae and the Suaedetum a...

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... The EuroVegChecklist provides a short textual definition of each alliance, but the exact floristic delimitation has never been defined for most of them. The concepts of many vegetation types were proposed for the first time in the EuroVegChecklist or in related publications (Čarni & Mucina, 2015;Chytrý et al., 2015;Lysenko & Mucina, 2015;Willner et al., 2015), and the links between these concepts and the data published in previous literature have yet to be established. As a result, it is often difficult to decide where the geographical boundaries lie between pairs or groups of similar alliances. ...
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Aim The first comprehensive checklist of European phytosociological alliances, orders and classes (EuroVegChecklist) was published by Mucina et al. (2016, Applied Vegetation Science , 19 (Suppl. 1), 3–264). However, this checklist did not contain detailed information on the distribution of individual vegetation types. Here we provide the first maps of all alliances in Europe. Location Europe, Greenland, Canary Islands, Madeira, Azores, Cyprus and the Caucasus countries. Methods We collected data on the occurrence of phytosociological alliances in European countries and regions from literature and vegetation‐plot databases. We interpreted and complemented these data using the expert knowledge of an international team of vegetation scientists and matched all the previously reported alliance names and concepts with those of the EuroVegChecklist. We then mapped the occurrence of the EuroVegChecklist alliances in 82 territorial units corresponding to countries, large islands, archipelagos and peninsulas. We subdivided the mainland parts of large or biogeographically heterogeneous countries based on the European biogeographical regions. Specialized alliances of coastal habitats were mapped only for the coastal section of each territorial unit. Results Distribution maps were prepared for 1,105 alliances of vascular‐plant dominated vegetation reported in the EuroVegChecklist. For each territorial unit, three levels of occurrence probability were plotted on the maps: (a) verified occurrence; (b) uncertain occurrence; and (c) absence. The maps of individual alliances were complemented by summary maps of the number of alliances and the alliance–area relationship. Distribution data are also provided in a spreadsheet. Conclusions The new map series represents the first attempt to characterize the distribution of all vegetation types at the alliance level across Europe. There are still many knowledge gaps, partly due to a lack of data for some regions and partly due to uncertainties in the definition of some alliances. The maps presented here provide a basis for future research aimed at filling these gaps.
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The Astrakhan region, one the most arid region of Russia, is mainly a plain territory with the unique mountain Bolshoe Bogdo, where the Bogdinsko-Baskunchaksky natural reserve was founded, including the adjacent plains and Baskunchak Lake. So far syntaxonomy of arid regions of Russia are rather poor, only the Lower Volga valley is described in detail (Golub, 1994; Golub, Maltsev, 2013). The aim of present study was to carry out floristic classification of desert-steppe vegetation of the reserve territory. The study is based on the authors’ 133 relevés, made in 2019, and 41 published ones (Safronova, 2013). Cluster analysis was carried out (Ward’s method, Chekanovsky-Dyce-Sørensen coefficient). Two dendrograms, built on the species presence-absence and their cover, allowed to distibguish phytocenons and determine their differential species. At the first step, the dendrogram based on the species presence-absence was analyzed (Fig. 3). At levels from 2 to 8 clusters, the number of differential species with IV-V class constancy (Table 1) were assess. At the level of 3 clusters all relevés were divided into petrophytic, psammophytic and zonal communities (Table 2). According to large number of differential species two classes (Artemisietea lerchianae V. Golub 1994 — petrophytic desert-steppe communities and Festucetea vaginatae Soó ex Vicherek 1972 — psammophytic steppes) were distinguished. Also desert-steppe communities on fine soils which belong to the first class without own differential species were distinguished and their relevés were included in further analysis. Class Artemisietea lerchianae V. Golub 1994 unites the northern desert and desert steppe communities. Diagnostic species (D. s.): Alyssum turkestanicum, Anabasis aphylla, A. salsa, Artemisia lerchiana, Bassia prostrata, Camphorosma monspeliaca, Nitrosalsola dendroides, Ceratocarpus arenarius, Ceratocephala testiculata agg., Eremopyrum orientale, Ferula caspica, Medicago medicaginoides, Meniocus linifolius, Peganum harmala, Petrosimonia oppositifolia, Poa bulbosa, Zygophyllum fabago. Order Agropyretalia desertorum ord. nov. includes desert steppes, widely spread in the southern part of the steppe zone, with domination of semishrubs and bunchgrasses. Holotypus hoc loco — ass. Artemisio lerchianae–Stipetum sareptanae ass. nov. D. s.: Agropyron desertorum, Allium inderiense, A. tulipifolium, Astragalus pseudotataricus, A. testiculatus, Ephedra distachya, Erysimum leucanthemum, Euphorbia undulata, Galatella tatarica, Prangos odontalgica, Rochelia retorta, Serratula erucifolia, Sterigmostemum caspicum, Stipa lessingiana, S. sareptana, Tanacetum achilleifolium, Tragopogon marginifolius, Tulipa patens, T. biflora. Alliance Agropyrion desertorum all. nov. Holotypus hoc loco — ass. Artemisio lerchianae–Stipetum sareptanae ass. nov. D. s. of the alliance = D. s. of the order. Ass. Artemisio lerchianae–Stipetum sareptanae ass. nov. hoc loco (Table 4, rel.1–34), holotypus hoc loco: Table 4, relevé 1 (field number 19-077), Astrakhan region, Akhtubinskiy district, to the south of the Nizhny Baskunchak village, Bolshoe Bogdo Mt., 48.13294° N, 46.83287° E, convex near-top part of NNE slope, 22.05.2019, author: A. Yu. Korolyuk is central in the alliance. D. s.: Agropyron desertorum, Ephedra distachya, Erysimum leucanthemum, Prangos odontalgica, Stipa lessingiana, S. sareptana, Tanacetum achilleifolium, Tulipa biflora. Сommunities occupy large areas at foothills and gentle slopes of ridges, occasionally occur on moderately steep slopes. Ass. Artemisio pauciflorae–Atraphaxietum replicatae ass. nov. hoc loco (Table 5, rel. 1–13), holotypus hoc loco: Table 5, relevé 1 (field number 19-081), Astrakhan V. Golub 1994, Akhtubinskiy district, to the south of Nizhny Baskunchak village, Bolshoe Bogdo Mt., 48.13597° N, 46.84192° E, plain area, slight depression, 22.05.2019, author: A. Yu. Korolyuk.­ D. s.: Anabasis salsa, Artemisia pauciflora, A. semiarida, Atraphaxis replicata, Atriplex cana, Camphorosma monspeliaca, Catabrosella humilis, Ferula caspica. Communities occur on convex slopes of various exposition, often with active erosion. Ass. Stipo lessingianae–Artemisietum tauricae ass. nov. hoc loco (Table 5, rel. 14–37), holotypus hoc loco: Table 5, relevé 14 (field number 19-085), Astrakhan region, Akhtubinskiy district, to the south of Nizhny Baskunchak village, Bolshoe Bogdo Mt., 48.13558° N, 46.84563° E, gentle foothill of the eastern slope, 22.05.2019 author: A. Yu. Korolyuk. D. s.: Artemisia taurica, Elaeosticta lutea, Galatella villosa, Tulipa gesneriana, Veronica multifida. Relatively closed ommunities are most often common at foothills, also they occur on tops of ridges and their slopes of various steepness and exposition. Order Artemisietalia lerchianae V. Golub 1994, central in the class, unites zonal northern desert communities, at least within the Caspian region. D. s.: Alyssum turkestanicum, Anabasis aphylla, A. salsa, Artemisia lerchiana, Camphorosma monspeliaca, Caroxylon dendroides, Ceratocarpus arenarius, Ceratocephala testiculata agg., Eremopyrum orientale, Ferula caspica, Bassia prostrata, Medicago medicaginoides, Meniocus linifolius, Peganum harmala, Petrosimonia oppositifolia, Poa bulbosa, Zygophyllum fabago. Alliance Artemision lerchianae V. Golub 1994. D. s. of the alliance = D. s. of the class and order. Ass. Poo bulbosae–Artemisietum lerchianae ass. nov. hoc loco (Table 6, rel. 1–39), holotypus hoc loco: Table 6, relevé 34 (field number 19-135), Astrakhan region, Akhtubinskiy district, to the north-west of Nizhny Baskunchak village, 48.23968° N, 46.81434° E, 24.05.2019, author: A. Yu. Korolyuk. D. s.: Alyssum turkestanicum, Anabasis aphylla, Artemisia lerchiana, Ceratocarpus arenarius, Eremopyrum orientale, Meniocus linifolius, Poa bulbosa. Communities dominated by Artemisia lerchiana and Poa bulbosa develop on fine soils within the subzones of northern deserts and desert steppes. Subass. P. b. –A. l. typicum subass. nov. hoc loco (Table 6, rel. 34–39). Communities are widely spread in the northern part of the desert zone and less common in the subzone of desert steppes. Subass. P. b.–A. l. tanacetosum achilleifolii subass. nov. hoc loco (Table 6, rel. 1–33), holotypus hoc loco: Table 6, relevé 12 (field number 19-008), Astrakhan region, Kharabalinskiy district, to the NW from the Volnoe village, the upper part of gentle slope, 47.16164° N, 47.59213° E, 17.05.2019, author: A. Yu. Korolyuk. D. s.: Astragalus dolichophyllus, Gagea bulbifera, Holosteum umbellatum, Medicago orthoceras, Tanacetum achilleifolium, Veronica triphyllos. Within subassociation, which is common within the desert steppe subzone, two variants are distinguished: typica (Table 6, rel.12–33) and Artemisia taurica (Table 6, rel.1–11). Alliance Anabasio salsae–Artemision pauciflorae Lysenko in Lysenko et Mucina 2015 unites communities dominated by Anabasis salsa and Artemisia pauciflora on solonetz soils (Lysenko, Mucina, 2015), common in the subzones of dry and desert steppes as well as in the north of the desert zone. D. s.: Anabasis aphylla, A. salsa, Artemisia pauciflora, Atriplex cana, Leymus ramosus, Suaeda physophora. Community Anabasis salsa (Table 6, rel. 40–45) dominated by nameforming species occur on eroded slopes of clay saline deposits at the territory of Bogdinsko-Baskunchaksky reserve and adjacent landscapes.
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Abstract: Di Pietro, R., Theurillat, J.P., Capelo, J., Fernández-González, F., Terzi, M., Carni, A. & Mucina, L. Nomenclature and syntaxonomic notes on some high-rank syntaxa of the European grassland vegetation. Lazaroa 36:79-106 (2015). We present descriptions of a new order (Ranunculo cortusifolii-Geranietalia reuteri) and of a new alliance (Stachyo lusitanicae- Cheirolophion sempervirentis) for the herbaceous fringe communities of Macaronesia and of the southwestern Iberian Peninsula, respectively. A new alliance, the Polygalo mediterraneae-Bromion erecti (mesophilous post-cultural grasslands), was introduced for the Peninsular Italy. We further validate and typify the Armerietalia rumelicae (perennial grasslands supported by nutrient-poor soils on siliceous bedrocks at elevations characterized by the submediterranean climate of south-central Balkan Peninsula), the Securigero-Dasypyrion villosae (lawn and fallow-land tall-grass annual vegetation of Italy), and the Cirsio vallis-demoni-Nardion (acidophilous grasslands on siliceous substrates of the Southern Italy). Nomenclatural issues (validity, legitimacy, synonymy, formal corrections) have been discussed and clarified for the following names: Brachypodio-Brometalia, Bromo pannonici-Festucion csikhegyensis, Corynephoro-Plantaginion radicatae, Heleochloion, Hieracio-Plantaginion radicatae, Nardetea strictae, Nardetalia strictae, Nardo-Callunetea, Nardo-Galion saxatilis, Oligo-Bromion, Paspalo-Heleochloetalia, Plantagini-Corynephorion and Scorzoneret alia villosae. Keywords: Chenopodietea, International Code of Phytosociological Nomenclature, EuroVegChecklist, Festucetea indigestae, Festuco-Brometea, Nardetea strictae, Phytosociology, Stipo giganteae-Agrostietea castellanae, Trifolio-Geranietea.