Upper Palaeolithic Occupations in The Middle Dnister Valley: Zooarchaeological Studies in the Doroshivtsi III Site (Ukraine) — Campaign 2019

In 2019, new excavations were carried out at Doroshivtsi III site, dated to the Last Glacial Maximum. Ten identifiable archaeological levels belong to the Gravettian technocomplex. In the article, detailed data about the faunal remains is presented. The remains of reindeer, horses, mammoths, a...

Повний опис

Збережено в:
Бібліографічні деталі
Дата:2024
Автори: Demay, L., Połtowicz-Bobak, M., Kulakovska, L., Bobak, D., Usik, V.I., Kononenko, O.M., Łanczont, M., Mroczek, P., Standzikowski, K., Nadachowski, A., Lemanik, A.
Формат: Стаття
Мова:English
Опубліковано: Інститут археології НАН України 2024
Назва видання:Археологія
Теми:
Онлайн доступ:http://dspace.nbuv.gov.ua/handle/123456789/199639
Теги: Додати тег
Немає тегів, Будьте першим, хто поставить тег для цього запису!
Назва журналу:Digital Library of Periodicals of National Academy of Sciences of Ukraine
Цитувати:Upper Palaeolithic Occupations in The Middle Dnister Valley: Zooarchaeological Studies in the Doroshivtsi III Site (Ukraine) — Campaign 2019 / L. Demay, M. Połtowicz-Bobak, L. Kulakovska, D. Bobak, V.I. Usik, O.M. Kononenko, M. Łanczont, P. Mroczek, K. Standzikowski, A. Nadachowski, A. Lemanik // Археологія. — 2024. — № 2. — С. 5-49. — англ.

Репозитарії

Digital Library of Periodicals of National Academy of Sciences of Ukraine
id irk-123456789-199639
record_format dspace
spelling irk-123456789-1996392024-10-19T15:41:46Z Upper Palaeolithic Occupations in The Middle Dnister Valley: Zooarchaeological Studies in the Doroshivtsi III Site (Ukraine) — Campaign 2019 Demay, L. Połtowicz-Bobak, M. Kulakovska, L. Bobak, D. Usik, V.I. Kononenko, O.M. Łanczont, M. Mroczek, P. Standzikowski, K. Nadachowski, A. Lemanik, A. Статтi In 2019, new excavations were carried out at Doroshivtsi III site, dated to the Last Glacial Maximum. Ten identifiable archaeological levels belong to the Gravettian technocomplex. In the article, detailed data about the faunal remains is presented. The remains of reindeer, horses, mammoths, a wolf, a vulpine, and also a crow have been identified. According to the data, the main species for hunting were reindeer, then horses. In comparison with the sector of earlier excavations, in 2007— 2010, the same species are represented on the site as well as a wolf, but the remains are less concentrated in the area, which may indicate a different purpose for the sector of 2019. У прикарпатській зоні, у південній частині басейнів Серету, Прута та Дністра, зокрема на палеолітичних пам’ятках Румунії та Республіки Молдова, засвідчено різноманітну діяльність первісної людини у час останнього льодовикового максимуму (LGM). Північніше, в районі середнього Подністров’я, на заході України, при дослідженні стоянки Дорошівці III було отримано нові результати, які підтвердили попередні дані, а також стали ключовими для відтворення людської діяльності в найбільш холодний відрізок часу. У 2019 році поновилися дослідження верхньопалеолітичної стоянки Дорошівці ІІІ, яка існувала в часи останнього льодовикового максимуму. Зафіксовано десять археологічних шарів з артефактами граветського технокомплексу. У статті представлено результати детального археозоологічного аналізу фауністичних решток. Загалом, можна говорити про добру збереженість кісткового матеріалу. У процесі досліджень було ідентифіковано останки північного оленя, коня, мамонта, вовка та лисиці, а також ворону. Наразі ми маємо небагато даних для шарів 0, 5а, 6 і 8. Фауністичні рештки у шарах 1 та 2 довгий час перебували просто неба. Результати аналізу фауністичних решток свідчать, що основними видами полювання були північні олені та потім — коні. Довгі кістки коней і оленів мають сліди переломів що пов’язано з добуванням кісткового мозку. У археологічних шарах 4 і 5 північний олень був представлений переважно дорослими особинами та дитинчатами. Подібний склад типовий для літніх стад тварин. Коні представлені дорослими особинами та молоддю, що загалом характерно для змішаних табунів. Рештки мамонтів належать також дорослим і молодим особинам. Кістки мамонтів могли бути зібрані із недавно впольованих тварин. Склад фауни тотожний матеріалам із розкопок 2007—2010 рр. (розкоп І). Також варто зауважити, що в колекції 2019 р (розкоп ІІ) вперше ідентифіковано кістки вовка. Щільність кісток у цій частині поселення менша порівняно з розкопом І. Неочікувано з’ясувалося, що у цьому секторі краще представлений мамонт. Імовірно, що тварини помирали на місці. Невелика кількість фауністичних решток та крем’яних артефактів свідчить про відмінне від сусіднього сектора призначення ділянки. 2024 Article Upper Palaeolithic Occupations in The Middle Dnister Valley: Zooarchaeological Studies in the Doroshivtsi III Site (Ukraine) — Campaign 2019 / L. Demay, M. Połtowicz-Bobak, L. Kulakovska, D. Bobak, V.I. Usik, O.M. Kononenko, M. Łanczont, P. Mroczek, K. Standzikowski, A. Nadachowski, A. Lemanik // Археологія. — 2024. — № 2. — С. 5-49. — англ. 0235-3490 DOI: https://doi.org/10.15407/arheologia2024.02.005 http://dspace.nbuv.gov.ua/handle/123456789/199639 [903.4:562/569] (282.247.314-197.4) 632 en Археологія Інститут археології НАН України
institution Digital Library of Periodicals of National Academy of Sciences of Ukraine
collection DSpace DC
language English
topic Статтi
Статтi
spellingShingle Статтi
Статтi
Demay, L.
Połtowicz-Bobak, M.
Kulakovska, L.
Bobak, D.
Usik, V.I.
Kononenko, O.M.
Łanczont, M.
Mroczek, P.
Standzikowski, K.
Nadachowski, A.
Lemanik, A.
Upper Palaeolithic Occupations in The Middle Dnister Valley: Zooarchaeological Studies in the Doroshivtsi III Site (Ukraine) — Campaign 2019
Археологія
description In 2019, new excavations were carried out at Doroshivtsi III site, dated to the Last Glacial Maximum. Ten identifiable archaeological levels belong to the Gravettian technocomplex. In the article, detailed data about the faunal remains is presented. The remains of reindeer, horses, mammoths, a wolf, a vulpine, and also a crow have been identified. According to the data, the main species for hunting were reindeer, then horses. In comparison with the sector of earlier excavations, in 2007— 2010, the same species are represented on the site as well as a wolf, but the remains are less concentrated in the area, which may indicate a different purpose for the sector of 2019.
format Article
author Demay, L.
Połtowicz-Bobak, M.
Kulakovska, L.
Bobak, D.
Usik, V.I.
Kononenko, O.M.
Łanczont, M.
Mroczek, P.
Standzikowski, K.
Nadachowski, A.
Lemanik, A.
author_facet Demay, L.
Połtowicz-Bobak, M.
Kulakovska, L.
Bobak, D.
Usik, V.I.
Kononenko, O.M.
Łanczont, M.
Mroczek, P.
Standzikowski, K.
Nadachowski, A.
Lemanik, A.
author_sort Demay, L.
title Upper Palaeolithic Occupations in The Middle Dnister Valley: Zooarchaeological Studies in the Doroshivtsi III Site (Ukraine) — Campaign 2019
title_short Upper Palaeolithic Occupations in The Middle Dnister Valley: Zooarchaeological Studies in the Doroshivtsi III Site (Ukraine) — Campaign 2019
title_full Upper Palaeolithic Occupations in The Middle Dnister Valley: Zooarchaeological Studies in the Doroshivtsi III Site (Ukraine) — Campaign 2019
title_fullStr Upper Palaeolithic Occupations in The Middle Dnister Valley: Zooarchaeological Studies in the Doroshivtsi III Site (Ukraine) — Campaign 2019
title_full_unstemmed Upper Palaeolithic Occupations in The Middle Dnister Valley: Zooarchaeological Studies in the Doroshivtsi III Site (Ukraine) — Campaign 2019
title_sort upper palaeolithic occupations in the middle dnister valley: zooarchaeological studies in the doroshivtsi iii site (ukraine) — campaign 2019
publisher Інститут археології НАН України
publishDate 2024
topic_facet Статтi
url http://dspace.nbuv.gov.ua/handle/123456789/199639
citation_txt Upper Palaeolithic Occupations in The Middle Dnister Valley: Zooarchaeological Studies in the Doroshivtsi III Site (Ukraine) — Campaign 2019 / L. Demay, M. Połtowicz-Bobak, L. Kulakovska, D. Bobak, V.I. Usik, O.M. Kononenko, M. Łanczont, P. Mroczek, K. Standzikowski, A. Nadachowski, A. Lemanik // Археологія. — 2024. — № 2. — С. 5-49. — англ.
series Археологія
work_keys_str_mv AT demayl upperpalaeolithicoccupationsinthemiddlednistervalleyzooarchaeologicalstudiesinthedoroshivtsiiiisiteukrainecampaign2019
AT połtowiczbobakm upperpalaeolithicoccupationsinthemiddlednistervalleyzooarchaeologicalstudiesinthedoroshivtsiiiisiteukrainecampaign2019
AT kulakovskal upperpalaeolithicoccupationsinthemiddlednistervalleyzooarchaeologicalstudiesinthedoroshivtsiiiisiteukrainecampaign2019
AT bobakd upperpalaeolithicoccupationsinthemiddlednistervalleyzooarchaeologicalstudiesinthedoroshivtsiiiisiteukrainecampaign2019
AT usikvi upperpalaeolithicoccupationsinthemiddlednistervalleyzooarchaeologicalstudiesinthedoroshivtsiiiisiteukrainecampaign2019
AT kononenkoom upperpalaeolithicoccupationsinthemiddlednistervalleyzooarchaeologicalstudiesinthedoroshivtsiiiisiteukrainecampaign2019
AT łanczontm upperpalaeolithicoccupationsinthemiddlednistervalleyzooarchaeologicalstudiesinthedoroshivtsiiiisiteukrainecampaign2019
AT mroczekp upperpalaeolithicoccupationsinthemiddlednistervalleyzooarchaeologicalstudiesinthedoroshivtsiiiisiteukrainecampaign2019
AT standzikowskik upperpalaeolithicoccupationsinthemiddlednistervalleyzooarchaeologicalstudiesinthedoroshivtsiiiisiteukrainecampaign2019
AT nadachowskia upperpalaeolithicoccupationsinthemiddlednistervalleyzooarchaeologicalstudiesinthedoroshivtsiiiisiteukrainecampaign2019
AT lemanika upperpalaeolithicoccupationsinthemiddlednistervalleyzooarchaeologicalstudiesinthedoroshivtsiiiisiteukrainecampaign2019
first_indexed 2024-10-20T04:02:51Z
last_indexed 2024-10-20T04:02:51Z
_version_ 1813404159342280704
fulltext ISSN 0235-3490 (Print), ISSN 2616-499X (Online). Археологія, 2024, № 2 5 Статтi УДК: [903.4:562/569] (282.247.314-197.4) 632 https://doi.org/10.15407/arheologia2024.02.005 *DEMAY Laëtitia — PhD, Research Fellow, Muséum National d’Histoire Naturelle, ORCID: 0000-0003-4930- 7030, laetitia.demay@mnhn.fr POŁTOWICZ-BOBAK Marta — Dr. hab., Institute of Archaeology, University of Rzeszów, ORCID: 0000-0003- 1973-4971, mpoltowicz@lithics.eu KULAKOVSKA Larysa Vitaliivna — PhD, Head of the Department, the Institute of Archaeology of the National Academy of Sciences of Ukraine, Department “Archaeological Museum” of the Institute of Archaeology of the National Academy of Sciences of Ukraine, ORCID: 0000-0002-8704- 8642, larissa.kulakovska@gmail.com BOBAK Dariusz — Foundation for Rzeszów Archaeological Centre, ORCID: 0000-0002-5216-6630, deni@lithics.eu USIK Vitalii Ivanovych — PhD, Senior Research Fellow, the Institute of Archaeology of the National Academy of Sciences of Ukraine; Department “Archaeological Museum” of the Institute of Archaeology of the National Academy of Sciences of Ukraine, Institute of Archaeology Brno, Czech Academy of Sciences Čechyňská́, ORCID: 0000-0002-2671-3485, vitaly.i.usik@gmail.com KONONENKO Olesia Mykolaivna — PhD, Research Fellow, the Institute of Archaeology of the National Academy of UPPER PALAEOLITHIC OCCUPATIONS IN THE MIDDLE DNISTER VALLEY: ZOOARCHAEOLOGICAL STUDIES IN THE DOROSHIVTSI III SITE (UKRAINE) — CAMPAIGN 2019 © L. DEMAY, M. POŁTOWICZ-BOBAK, L. KULAKOVSKA, D. BOBAK, V. I. USIK, O. M. KONONENKO, M. ŁANCZONT, P. MROCZEK, K. STANDZIKOWSKI, A. NADACHOWSKI, A. LEMANIK* 2024 In 2019, new excavations were carried out at Dor- oshivtsi III site, dated to the Last Glacial Maxi- mum. Ten identifiable archaeological levels belong to the Gravettian technocomplex. In the article, detailed data about the faunal remains is present- ed. The remains of reindeer, horses, mammoths, a wolf, a vulpine, and also a crow have been iden- tified. According to the data, the main species for hunting were reindeer, then horses. In comparison with the sector of earlier excavations, in 2007— 2010, the same species are represented on the site as well as a wolf, but the remains are less concen- trated in the area, which may indicate a different purpose for the sector of 2019. K e y w o r d s: Upper Palaeolithic, Last Glacial Maximum, Gravettian, Subsistence, Taphonomy. Sciences of Ukraine, Department “Archaeological Museum” of the Institute of Archaeology of the National Academy of Sciences of Ukraine, ORCID: 0000-0003-1575-1854, olesia.m.kononenko@gmail.com ŁANCZONT Maria — Prof., Dr. hab., Institute of Earth and Environmental Sciences, Maria Curie-Skłodowska University, ORCID: 0000-0002-0459-8658, maria.lanczont@mail.umcs. pl MROCZEK Przemysław — Dr. hab., Institute of Earth and Environmental Sciences, Maria Curie-Skłodowska University, ORCID: 0000-0003-2702-5577, przemyslaw.mroczek@mail. umcs.pl STANDZIKOWSKI Karol — M. Sc., Institute of Earth and Environmental Sciences, Maria Curie-Skłodowska University, ORCID: 0000-0002-1215-0415, karol.standzikowski@mail. umcs.pl NADACHOWSKI Adam — Prof., Dr. hab., Institute of Systematics and Evolution of Animals of the Polish Academy of Sciences, ORCID: 0000-0001-6452-3028, nadachowski@ isez.pan.krakow.pl LEMANIK Anna — Dr., Institute of Systematics and Evolution of Animals of the Polish Academy of Sciences, ORCID: 0000- 0002-2523-0940, lemanik@isez.pan.krakow.pl The archaeological site of Doroshivtsi III is a key site for understanding human occupations in the Dnister River valley during the Last Glacial Maximum. We focus here on the study of faunal remains coming from the new excavations in order to comprehend better the preservation of this sector and the human activities. Introduction During the Last Glacial Maximum (31.0 and 21.5 ka cal BP / 26.0—18.0 ka C14 BP), sever- al occupations are known in the extra-Carpathian area, in the Siret, the Prut and Dnister River ba- sins, mainly in the south part, in Romania and in the Republic of Moldova (Черныш 1959; Borzi- ak 1994; Păunescu 1998; Cârciumaru 1999; Hae- ISSN 0235-3490 (Print), ISSN 2616-499X (Online). Археологія, 2024, № 26 saerts et al. 2003; Chirica, Borziak 2009; Noiret 2009; Anghelinu, Niţă, Murătoreanu 2018; De- may et al. 2021). Further to the north, in the mid- dle Dnister area in Western Ukraine the site of Doroshivtsi III provided key results in this area about human activities during this period (Kulak- ovska et al. 2015). It is also during this period that the technocomplexes evolved from Gravet- tian to Epigravettian features. It is evident from various works that cultur- al aspects in the region are quite homogeneous. These are human groups of small size, with high mobility, using local mineral resources, with hunt- ing strategies focused on the reindeer migrations. Lithic industries are characterised by specif- ic tools, such as truncated elements, then large Gravettian points, and finally points with con- vex backs. These particularities are grouped un- der the same regional facies, as a late stage of the Molodovian, sometimes labelled as Molodo- va-Cosăuți-Cotu Miculinți cultural entity (Borzi- ak et al. 2006) or Eastern Gravettian/Epigravet- tian of Ukraine (Борисковский 1953; Черныш 1954; 1973; 1985; Григорьев 1970; Otte et al. 1996; Борзияк 1998; Борзіяк, Кулаковська 1998; Djindjian 2002; Noiret 2007; Nuzhnyi 2009; Нуж- ний 2015; Kulakovska et al. 2015). Nevertheless, we observe an intensification of bladelets and bone industry producing and the enlargement of the raw materials used (Anghelinu et al. 2019). In this area, the main mammalian species pres- ent in archaeological sites are reindeer, horses and bison, often associated with a few canids. The wool- ly mammoth remains are used as artistic support, for osseous industry, especially ivory, as well as fuel (Demay et al. 2019). Therefore, it is important to specify the role of different species as food and non- food resources in the daily life of these populations. The new excavations carried out in 2019 in Doroshivtsi III have yielded the following data (Połtowicz-Bobak et al. 2022) (fig. 1). Here we present detailed information about faunal remains, in order to describe in detail the faunal spectrum, the anatomical representation, the taphonomic conditions and the human activities. History of research The first prospections in Doroshivtsi were made in 1951 by A. P. Chernysh (1954) and he contin- ued later in the 1960s (Черныш 1985). He discov- ered three open-air archaeological sites named Dor- oshivtsi I, II and III. From 2006 to 2010 new works had been conducted in Doroshivtsi III under the di- rection of L. V. Kulakovska (Кулаковська та ін. 2008). In 2019, a new project to excavate a bigger area was led by M. Połtowicz-Bobak and L. V. Ku- lakovska (fig. 2). Location of the site The site is located 26 m above the river on the terrace II of the Dnister. It was excavated over an area of 22,4 m². Fig. 1. The East European Plain (A) and the localisation of Doroshivtsi III in Ukraine (B) A B ISSN 0235-3490 (Print), ISSN 2616-499X (Online). Археологія, 2024, № 2 7 Stratigraphic data and dating In the first excavations made on around 50 m², seven archaeological layers were discovered in clay-sandy loess. The main layers (3, 6) were dat- ed between around 20.6 and 22.4 ka C14 BP by charcoals (Кулаковська та ін. 2011; Kulakovska et al. 2015; Haesaerts et al. 2020). In 2019, ten lay- ers with artefacts were identified (fig. 3). The fieldwork reassumed in 2019 covered an area immediately to the east of the zone studied earlier. The topographic surface of the explored section is located at 157.86 m a.s.l., i.e. 1 m low- er than the previously investigated profile (Ку- лаковская, Усик, Эзартс 2012). A detailed de- scription of the Doroshivtsi III’s section was pre- pared down to the depth ca. 7.15 m according to palaeopedological criteria (Guidelines for soil description, 2006), and a preliminary examina- tion down to 8.3 m. In the studied sequence six (I—VI) main lithological units have been distin- guished, plus — tentatively — unit VII. Layers with artefacts from A- to 4 are within the limits of litho-pedological subunits 4, 5, and 6 of unit V and in unit VI, while layers with artefacts 5, 5a, and 6 are located in the tri-segmented unit VII (fig. 3). The upper, archaeologically sterile, part of the Doroshivtsi sequence of calcareous, layered sandy-clay sediments can be identified as aeoli- an loess (unit II) and colluvial-solifluction loess (units III—IV). The main layer of carbonate de- bris (unit III) is a record of a single, albeit visi- bly repeated, cycle of more intensive activity of solifluction processes. The OSL ages between 20.1 and 21.9 ka (but with inversions) of sedi- ments within units II—IV suggest that they were formed over a relatively short period. The lack of younger deposits than 20 ka and thus correspond- ing to the main phase of loess sedimentation in the Dnister valley (Łanczont et al. 2021) may be a consequence of the significant activation of slope processes at the end of the Last Glacial period (Starkel et al. 2015). The unit V illustrates a dynamic periglacial slope environment on terrace II in a period of rapid palaeoclimate changes (chiefly an increase in humidity), including — probably short — ep- isodes of weakening of aeolian-slope processes and stabilisation of its surface, occurring between 25.5—23.7 ka BP. Such episodes of landscape stabilisation are evidenced by thin soils devel- oped as weak humus or vegetation horizons with variable — yet always thin — thickness, and ulti- mately fading away. The lateral disappearance of soil horizons should be assigned to the post-pe- dogenic activity of destructive slope processes, spreading the soil material across the slope. The unit VI, formed ca. 27 ka ago, represents a period with relatively cool and wet climate conditions, as evidenced by small cryoturbation structures and gley signs. The preliminary explored soil ho- Fig. 2. Localisation of the excavations of 2006—2010 and 2019 of Doroshivtsi III ISSN 0235-3490 (Print), ISSN 2616-499X (Online). Археологія, 2024, № 28 rizons forming unit VII in the lower part of the section are dated OSL to ca. 27—29 ka; they are continuous, relatively well developed, and testi- fy to the existence of palaeoclimatic conditions more conducive to pedogenesis. However, the gleysol, which is the lowest horizon of unit VII, had developed in a rather cold climate. The set of initial soils at the Doroshivtsi III site with OSL ages of ca. 27—21 ka (fig. 3) is likely to be an environmental response deter- mined by the local lithology and relief in the site (including exposure and inclination etc.) to the hydroclimate variability of MIS 2. For these rea- sons, the soil horizons distinguished during the different excavation seasons at the site are diffi- cult to correlate despite the generally small area surveyed. The differences are smaller in the lower part of the sequence. There is an interstadial cam- bisol (Poltowicz-Bobak et al. 2022), found also in all the previous studies of the site (Кулаковська та ін. 2011; Kulakovska et al. 2015; Haesaerts et al. 2020). It is a horizon probably of stratigraph- ic marker importance, representing the younger part of MIS 3. Environmental data In the previous excavations, typical species of the glacial period were present, such as Mam- muthus primigenius (woolly mammoth) and Ran- gifer tarandus (reindeer) (Demay, Patou-Mathis, Kulakovska 2015). They are also present in the new excavations. Moreover, small mammals were studied in the new excavations coming from the units V, VI and VII. The most represented taxa are Lasiopodomys anglicus (European narrow-headed vole) and Ochotona pusilla (steppe pika). Then are present Alexandromys oeconomus (tundra vole), Dicrostonyx torquatus (Arctic lemming) and Sicis- ta sp. (birch mouse). These species are typical for Fig. 3. Lithopedostratigraphy of the Doroshivtsi III section-2019 (after: Połtowicz-Bobak et al., 2022) ISSN 0235-3490 (Print), ISSN 2616-499X (Online). Археологія, 2024, № 2 9 the steppe-tundra community, living in treeless and bushy environments with a mosaic of grassy veg- etation, quite wet (Połtowicz-Bobak et al. 2022). During the previous excavations, the results were obtained on the malacofauna (Popiuk 2014). The species Succinea oblonga elongata and Succin- ea putris were present. They are eurythermal and can live in very cold environment, although they are hygrophilous; therefore, these species lived near a stream. Freshwater species, including Anisus spiror- bis and Lymnaea palustris, are numerous and testi- fy to the proximity of a calm and constant aqueous environment. A few amphibious species have also been identified. Terrestrial species are mainly repre- sented by cryophilic species (Pupilla loessica, Col- umella columella, Vallonia tenuilabris). Pseudotri- chia rubiginosa is typical for the Pleistocene tundra and Columella columella gredleri of the loess of the Carpathian region. Finally, the presence of Trichia hispida testifies to short periods of warming (see: Alexandrowicz et al. 2014). According to the palynological studies from the preceding excavations (Кулаковська та ін. 2011), the indications are similar. Indeed, the vegetation is of the steppe-tundra type with her- baceous plants, shrubs and bushes adapted to the cold environment, but denoting a certain humidi- ty. During the formation of humus soils, the vege- tation is denser, with the presence of trees (birch, alder, willow, pine, oak), which testifies to an in- crease in temperature and humidity. The archae- ological levels of Doroshivtsi III are character- ised by a steppe-tundra environmental type with the presence of forest corridors and hygrophilous species. Faunal data During the previous excavations we identified a restricted faunal spectrum with few individuals in each layer, mainly dominated by Rangifer tarandus (reindeer), associated with Equus sp. (horse), Mammuthus primigenius (woolly mammoth) and Vulpes vulpes and lagopus (fox) (Demay, Patou- Mathis, Kulakovska 2015). Lithic industry data During the prior excavations, a total of 27920 piec- es were counted (Кулаковская, Усик, Эзартс 2012). Layers 1 and 7 yielded very few pieces and layers 2 and 5 only a few tools, especially burins. Layers 3 and 4, rich in lithic artefacts, were the subject of a techno-typological analysis. Longitudinal and paral- lel longitudinal debitages, by hard and soft percus- sion, were used. The tools are diversified: scrapers, retouched blades, bladelets, backed microblades and burins. Layer 6 is the richest in lithic pieces. Longitu- dinal and parallel longitudinal debitages, by hard per- cussion, were used. End scrapers, blades, bladelets, retouched and backed microblades and shouldered points have been identified. In the excavations of 2019, a total of 67 pieces were discovered, including 62 flint and five stone artefacts. A total of 25 pieces were observed in the layer 2 and between 2 and 15 pieces in the other layers. Surprisingly, we observed an almost com- plete lack of retouched tools and chips. The lithic industry uses local raw material and most of the finds were fragmented (Połtowicz-Bobak et al. 2022). Osseous industry data During the excavations of 2006—2010, lay- er 6 yielded five pieces of osseous industry (Рі- душ 2008; Кулаковська, Усик, Эзартс 2012; Kulakovska et al. 2015; Demay, Patou-Ma- this, Kulakovska 2015). There is an ivory point (116 × 7.9 mm) with an oval cross-section and presenting a series of fine transverse striations in the proximal part. Two pointed ivory frag- ments with deep transverse cutmarks were also found. Two points, probably awls, were made on reindeer metapodials. The first one (120 × 41 × 5.19 mm) has been polished and the second one (104.9 × 6.87 mm) has an oval sec- tion, more triangular at the base. In addition, a mammoth tusk was decorated with engraved pat- terns. It is 150 mm long and 50—20 mm in di- ameter. The surface was decorated with meanders and zoomorphic images made by very fine inci- sions. Structure data During the excavations of 2006—2010, layers 6 and 4 yielded undelineated ash deposits and layer 3 a constructed hearth. In 2019 no structures were identified. Human behaviour data In the previous results, small human groups came at different seasons, used local flint and mainly exploited reindeer for soft tissue, as well ISSN 0235-3490 (Print), ISSN 2616-499X (Online). Археологія, 2024, № 210 as horses and foxes. Bones were used as fuel, also as mammoth ivory as artistic media and to make tools. It is difficult to characterise the status of the woolly mammoth within the levels of Doroshivt- si III. Indeed, mammoth bones are present in all layers, but, no butchering marks were found on the bones. Moreover, these are too scattered to proceed with interpretations based on skeletal preservation. These findings are to be related to the large dimen- sions of this animal. Indeed, a mammoth is charac- terised by a large mass of fat and meat which, dur- ing cutting, generates little or no butchery marks on the bones. Similarly, as a result of the large size of the bones, it is possible that the meat would be cut, without human groups bringing the bones to the site. It is therefore possible that mammoth was con- sumed in Doroshivtsi III. It could be the acquisition of meat by scavenging on fresh carcasses, or only the collection of dry bones. The presence of young adults and juveniles suggests that these individuals came from a matriarchal herd. The low number of individuals makes it impossible to identify popula- tion profiles. We can note that it is relatively rare for young adults to be the most represented in the cata- strophic or attritional mortality profiles, they could be individuals hunted by human groups. However, we cannot be certain about the status of this taxon in terms of acquisition and diet. Occupation interpretation and technocomplexes In the previous results, layers 7 and 1 were too poor in artefacts to allow cultural attribution. Layers 5, 4, 3 and 2 have been attributed to the Gravettian. With regard to layer 6, there are few burins, a frequent tool in the Gravettian, and a predominance of bladelets and microbladelets with a backed edge. This is the third site with Za- mostje (Борисковский 1953; Kozłowski 1998; Noiret 2009) and Molodova V/7 (Kozłowski 1998; Noiret 2009; Кулаковська та ін. 2011) and Molodova 8 (Черныш 1987; Borziac 1998) hav- ing delivered shouldered points. However, those of Doroshivtsi III differ from those known in the Molodovian culture. If this industry has some similarities with those of the Epigravettian sites of Mezyn, Amvrosiivka, Borshchevo 1 and Ko- styonki 21/III, the presence of a bone industry and an engraved defence, in particular meanders, makes it a singular site. It is currently difficult to define with certainty which culture belongs to layer 6 of the Doroshivtsi III/6 site. It would be Gravettian with very ancient Epigravettian fea- tures. In the excavations of 2019, the first nine layers are referred to the Gravettian. The last one cannot be clearly identified. Methods and materials The faunal remains of Doroshivtsi III of 2019 are stored in the Archaeological Museum in Kyiv. We conducted zooarchaeological research on this material. The current study includes palaeontological analyses, the biology and ethology of the species, by means of actual comparisons. In addition, the description and quantitative analysis of the ana- tomical elements associated with taphonomy (cli- mate and edaphic factors and non-human biolog- ical agents) will make it possible to identify the conditions that make up the fossil assemblage. The combination of these analyses in relation to the stigmas that may have been left by humans would lead to a better understanding of the anthropogenic impact on this assemblage (Poplin 1976; Behrens- meyer 1978; 1990; Binford 1979; Lyman 1994; Denys, Patou-Mathis (dir.), 2014; Fernández-Jal- vo, Andrews (eds.) 2016). Taxonomic references and systematics are based on the zoological no- menclature code (ICZN 1999). The vernacular an- atomical terms are used according to the criteria of Barone (1976) taking into account the current nomenclatures. Here we adopt the quantification units defined by Poplin (1976) and Lyman (2008). The skull (cranium and face) is considered as an element. The frontal appendages can also be re- garded as a separate element. The hemi-mandible is counted as an element, except for the mammoth whose mandible is a complete element. A tooth, whether isolated or in place, is counted as an ele- ment. To estimate the Minimal Number of Individ- uals (MNI) we proceeded to reassembling, pairing, associations, according to the criteria of age and sex. Quantitative measures followed by Poplin (1976) and Lyman (2008), where: Qsp: specific coefficient, obtained from the fre- quency of occurrence of an element in the anato- my of species; MAU: Minimum Animal Unit, specifying the degree of preservation of different anatomical el- ements of species, where MAU = MNE/Qsp, and MAU frequency (%) = MAU × 100/MAUmax; Ps: percent survivorship, involving observa- tion on three levels: each element; each anatom- ISSN 0235-3490 (Print), ISSN 2616-499X (Online). Археологія, 2024, № 2 11 ical region; and the overall deficit (total) of the species. It is calculated by elements. It takes into account the MAU which is based on the Mini- mum Number of Individuals evaluated by the cMNI. Ps = MNE × 100/Qsp × MNImax = MAU × 100/MNI max. The rate of determination is: (specifically determined remains/total number of remains)*100 The index of fragmentation is: NR/MNE. For the splinters we determined different size classes: class I (<2 cm), class II (2—5 cm), class III (5—10 cm), class IV (10—20 cm) and class V (20—40 cm). We distinguish different mammal size classes: large-sized mammals (>200 kg, ex: M. primigeni- us, Equus sp.), medium-sized (> 20 kg—200 kg, ex: R. tarandus, C. lupus) and small-sized (< 20 kg, ex: Vulpinae). Osteometric measurements follow the proce- dures of von den Driesch (1976), and concerning mammoth, of Agenbroad (1994), Lister (1996) and Göhlish (1998). We identified the age of horses (Equus sp.) (Bar- one 1966), reindeer (Rangifer tarandus) (Bou- chud 1954; 1966; Miller 1972; 1974; Hufthammer 1995; Enloe 1997) and a wolf (Canis lupus) (Bar- one 1976). For mammoths (Mammuthus primigeni- us), age and sex determination are based on epiphy- seal stages of long bones and eruption and eruption/ wear sequence of the cheek teeth (Osborn 1942; Vaufrey 1955; Coppens 1965; Laws 1966; Haynes 1991) and the morphometry of bones (Haynes 1991; Averianov 1996; Shoshani, Tassy (eds.) 1996; Lis- ter 1999). Concerning a mammoth, the references for os- teometric comparisons are based on well-known specimens from Eurasia (Воллосович 1909; Felix 1912; Toepfer 1957; Siegfried 1959; Koenigswald 1989; Ziegler 1994; 2001; Lister 2009; Kirillova, Shidlovskiy, Titov 2012). Concerning age classes, they are determined as: a juvenile, a young adult, an intermediate adult, a mature adult and an old adult. Patterns in the age at death (mortality profiles) of animals are used to in- Fig. 4. Graphic representation of faunal remains from Doroshivtsi III-2019 in number of remains (NR), minimal number of elements (MNE) and minimal number of individuals (MNI) ISSN 0235-3490 (Print), ISSN 2616-499X (Online). Археологія, 2024, № 212 fer the origins of assemblages (Klein, Cruz-Uribe 1984; Haynes 1987; Stiner 1990). The skeletal preservation on %MAU by anatomical segments related with bones density (from Lam et al. 1998; Lam, Pearson, 2003) are used for reindeer to determine the origin of the assemblage according to the bone dispersion. The correlation testing is used to assess an association of dependence or independence between two variables. The correlation coefficient can be calculated using different methods. The Pearson correlation coefficient r makes it possible to analyse the linear relationships between two continuous quantitative characters. if r is close to 0, there is no linear relationship between X and Y, if r is close to −1, there is a strong negative cor- relation between X and Y, if r is close to 1, there is a strong linear positive correlation between X and Y. The nutritional strategies can be estimated (Binford 1978; 1987; Metcalfe, Jones 1988; Lyman 1994; Faith, Gordon 2007). Fig. 5. Counting of the determined remains of mammals from Doroshivtsi III-2019 by main layers in number of remains (NR) and minimal number of elements (MNE) ISSN 0235-3490 (Print), ISSN 2616-499X (Online). Археологія, 2024, № 2 13 Results Global analysis. We recorded a total of 283 re- mains corresponding to at least 134 elements be- longing to at least 30 individuals. We identified re- mains of reindeer, horses, mammoths, a wolf and a vulpine (table 1), as well as a crow. Layers 2 and 4 are the richest in terms of num- ber of remains, of elements and of individuals, then layers 1, 3 and 5. The layers 0, 5a, 6 and 8 furnished few remains (fig. 4). All the main layers are characterised by the presence of reindeer and mammoths. Horses are present in the layers 1, 3 and 4. A vulpine and a wolf are present in the layer 2. Remains are a bit fragmented, more for mammoths (fig. 5). Analysis by layers. Layer 0. The layer 0 furnished a fragment (class II) of an epiphysis of a relatively young large- or medium-sized mammal. This bone had been affected by weathering and bears deposits of manganese. It is associated with two lithic artefacts (fig. 6). Layer 1. The layer 1 contained 25 remains corresponding to at least 20 elements belonging to 5 individuals, three mammoths, a horse and a reindeer (table 2). The rate of determination is 80%. Bones are relatively lightly fragmented (fracturing index: 1.25). We observed longitudinal, diagonal, step and helicoidal fracturing. Concerning the taphonomic conditions (fig. 7; fig. 8; fig. 9) more than half of the remains are affected by weathering, mainly stages 4 and 5 for all species. Remains of the reindeer are a little bit less affected (stage 3). All remains bear deposits of iron and mainly manganese in large quantity due to percolation water. Remains of the reindeer and the horse bear few dissolution alterations due to run off water. Some bones of mammoths bear plant root marks. The fragments are mainly of size classes IV and V (fig. 10). So, the remains of the layer 1 had stayed in open air for a relatively long time, and were covered not so deep and then were affected by post-depositional percolation water. The fracturing shows fragmentations of dry and fresh bones. Concerning mammoths, we identified 18 remains which correspond to at least 15 elements: cranial elements, ribs, girdle bones and a humerus. Except short bones, all the other anatomical parts are represented (fig. 11; fig. 12). We identified three individuals, a juvenile, a young adult and a mature adult (table 3). Concerning the mandible, the left cheek teeth are characterised by an abnormal shape (fig. 13). Indeed, the teeth can develop malformed due to an unbalanced diet or a lack of fodder (Fowler, Mikota 2006). A horse adult s.l. is represented by a vestigial metapodial. Moreover, a bone fragment of a large-sized mammal was found. A reindeer adult s.l. is represented by a left talus. Furthermore, two fragments of a diaphysis of two different long bones were discovered, belonging to a medium-sized mammal, which Fig. 6. Spatial distribution of the archaeological remains from Doroshivtsi III-2019/0 ISSN 0235-3490 (Print), ISSN 2616-499X (Online). Археологія, 2024, № 214 Table 1. Counting of faunal remains from Doroshivtsi III-2019 in number of remains (NR), minimal number of elements (MNE) and minimal number of individuals (MNI) Species M . p ri m ig en iu s Eq uu s s p. Ra ng ife r t ar an du s C . l up us Vu lp in ae la rg e- si ze d m am m al la rg e- o r m ed iu m - si ze d m am m al m ed iu m -s iz ed m am m al m ed iu m -s iz ed m am m al (R . ta ra nd us ? ) m ed iu m - or s m al l- si ze d m am m al sm al l-s iz ed m am m al A ve s ( C or vu s co ra x) un de te rm in ed T O T A L 0 NR 1 1 MNE 1 1 MNI 1 1 1 NR 18 1 1 1 2 1 1 25 MNE 15 1 1 1 2 20 MNI 3 1 1 5 2 NR 35 3 3 4 11 8 3 6 73 MNE 27 3 3 4 1 1 39 MNI 2 1 2 1 2 5 3 NR 2 2 4 1 3 2 2 3 20 MNE 2 1 4 2 2 2 14 MNI 2 1 1 4 4 NR 25 3 17 22 30 24 9 1 1 1 10 142 MNE 13 3 16 1 3 4 3 1 1 1 45 MNI 1 1 3 1 1 1 7 5 NR 3 3 1 1 4 2 14 MNE 3 3 1 1 8 MNI 1 2 3 5а NR 1 1 1 1 4 MNE 1 1 1 3 MNI 1 1 2 6 NR 1 1 1 3 MNE 1 1 1 3 could be a reindeer. Another fragment of bone of a medium or small-sized mammal was found, also as undetermined fragments of bone. Bones are more or less scattered with lithic artefacts between both both small bone concentrations (fig. 14). Layer 2. The layer 2 furnished 73 remains corresponding to at least 39 elements belonging to 5 individuals, 2 mammoths, a reindeer, a wolf and a fox (table 4). We determined at least specifically 62 % of bone remains. The fragmentation index is 1.9. We observed longitudinal, perpendicular, diagonal, step and helicoidal fracturing. Concerning the taphonomic conditions (fig. 15; fig. 16; fig. 17), almost all the bones were affected by weathering of different stages and percolation water. Mammoths remains were altered by plant root marks. The fragments are mainly of size classes II, III and IV (fig. 18). So, the remains of layer 2 had stayed in open air for a relatively long time and were covered not so deep and then were affected by post- depositional percolation water. The fracturing shows fragmentations of dry and fresh bones. Concerning mammoths, they are represented by 35 remains which correspond to at least 27 elements belonging to 2 individuals. All the anatomical parts are represented, especially the axial skeleton, except the girdles (fig. 19). We identified at least 2 mammoths (table 5), a juvenile (fig. 20) and a young adult (figs. 21, 22, 23, 24). A mammoth rib also has a pathology (fig. 25). Looking at the skeletal preservation in percentage ISSN 0235-3490 (Print), ISSN 2616-499X (Online). Археологія, 2024, № 2 15 Fig. 7. Alterations due to climate-edaphic and non-human biological agents in percentage of number of remains from Doroshivtsi III-2019/1 Fig. 8. Alterations due to weathering according to the different stages by species and categories of remains from Doroshivtsi III- 2019/1 ISSN 0235-3490 (Print), ISSN 2616-499X (Online). Археологія, 2024, № 216 Fig. 9. Alterations due to climate-edaphic and non-human biological agents in percentage of the number of remains by species from Doroshivtsi III-2019/1 Fig. 10. Splinters by size classes from Doroshivtsi III-2019/1 ISSN 0235-3490 (Print), ISSN 2616-499X (Online). Археологія, 2024, № 2 17 Fig. 11. Counting of mammoth bones in number of remains and in minimum number of elements from Doroshivtsi III-2019/1 Fig. 12. Skeletal preservation by elements in percentage survival (Ps%) of mammoths (MNI: 3) from Doroshivtsi III-2019/1 ISSN 0235-3490 (Print), ISSN 2616-499X (Online). Археологія, 2024, № 218 Fig. 13. Mandible of a mammoth with left cheek teeth with abnormal shape from Doroshivtsi III-2019/1 Fig. 14. Spatial distribution of the archaeological remains from Doroshivtsi III-2019/1 ISSN 0235-3490 (Print), ISSN 2616-499X (Online). Археологія, 2024, № 2 19 Fig. 15. Alterations due to climate-edaphic and non-human biological agents in percentage of number of remains from Doroshivtsi III-2019/2 Fig. 16. Alterations due to weathering according to the different stages by species and categories of remains from Doroshivtsi III- 2019/2 survival, cranial elements are the most represented, then limb bones, followed by vertebra, ribs and short bones (fig. 26). Concerning a reindeer, there is a quite complete thoracic vertebra of an adult s.l. and a right radius with a fragment of ulna. The distal end is fused (>38—48 months old), so it is an adult s.l. (> young adult). Concerning a wolf, there are right humerus (fig. 27), ulna and radius which can be paired. The radius and ulna were still in anatomical connection. This individual was 8—9 months old, so it was a juvenile (table 6). Concerning a fox, there are a right hip bone quite complete, a left femur, a right humerus and an I3 very worn of an adult s.l. ISSN 0235-3490 (Print), ISSN 2616-499X (Online). Археологія, 2024, № 220 Fig. 17. Alterations due to climate-edaphic and non-human biological agents in percentage of the number of remains by species from Doroshivtsi III-2019/2 Fig. 18. Splinters by size classes from Doroshivtsi III-2019/2 We also identified a sesamoid of a large-sized mammal, as well as a long bone diaphysis (tibia?) of a large or medium-sized mammal. A fragment of a large-sized mammal rib bears cutmarks of deflashing and impacts which could be due to human activities (fig. 28). Bones are associated with lithic artefacts and stones. They are scattered. Mammoth bones are more concentrated in two areas (fig. 29). Layer 3. The layer 3 contained 20 remains corresponding to at least 14 elements belonging to 4 individuals, 2 mammoths, a horse and a reindeer (table 7). ISSN 0235-3490 (Print), ISSN 2616-499X (Online). Археологія, 2024, № 2 21 Fig. 19. Counting of mammoth bones in number of remains and in minimum number of elements from Doroshivtsi III-2019/2 Fig. 20. Skull of a juvenile mammoth from Doroshivtsi III-2019/2 ISSN 0235-3490 (Print), ISSN 2616-499X (Online). Археологія, 2024, № 222 Fig. 21. Osteometry of humerus of mammoths from Doroshivtsi III-2019/2 and specimens of references Fig. 22. Osteometry of lunatums of mammoths from Doroshivtsi III-2019/2 and reference specimens ISSN 0235-3490 (Print), ISSN 2616-499X (Online). Археологія, 2024, № 2 23 Fig. 23. Osteometry of hamatums of mammoths from Doroshivtsi III-2019/2 and specimens of references Fig. 24. Osteometry of tibias of mammoths from Doroshivtsi III-2019/2 and specimens of references ISSN 0235-3490 (Print), ISSN 2616-499X (Online). Археологія, 2024, № 224 Table 2. Counting of faunal remains from Doroshivtsi III-2019/1 by number of remains (NR), minimal number of elements (MNE) and minimal number of individuals (MNI) Species NR MNE MNI M. primigenius 18 15 3 Equus sp. 1 1 1 Rangifer tarandus 1 1 1 large-sized mammal 1 1 medium-sized mammal (R. tarandus ?) 2 2 medium- or small-sized mammal 1 undetermined 1 TOTAL 25 20 5 Table 3. Bones of mammoths and determination of growth stages and age classes from Doroshivtsi III-2019/1 Number (labels) Bone Lateralisation Stage/ age Age classes Sex 21 skull and left and right DP4 and left and right M1 VIII / 6-8 y.o. juve- nile / 58 mandible and left and right M3 X I V - XV / 4 0 - 5 0 y.o. matu- re adult / 9 undet. molar ≥ M1) / > IX adult s.l. / 3 rib right / adult s.l. / 90 rib right / adult s.l. / 68 rib right / adult s.l. / 1 sca- pula right / adult s.l. / 36 hume- rus (PE unfus) left <XVIa / <18- 26 y.o. young adult / 69 hip bone right / a d u l t s.l. / Table 4. Counting of faunal remains from Doroshivtsi III-2019/2 in number of remains (NR), minimal number of elements (MNE) and minimal number of individuals (MNI) Species NR MNE MNI M. primigenius 35 27 2 Rangifer tarandus 3 3 1 C. lupus 3 3 1 Vulpinae 4 4 1 large-sized mammal 11 1 large- or medium-sized mammal 8 1 medium-sized mammal 3 undetermined 6 TOTAL 73 39 5 We determined at least specifically 40 % of the bone remains. The fragmentation index is 1.4. We observed longitudinal, perpendicular, diagonal, step and helicoidal fracturing. Concerning the taphonomic conditions, all bones (100 %) were affected by weathering (stages 1, 2 and 3) and percolation water (fig. 30). So, the remains of the layer 3 had stayed in open air for a relatively short time and were affected by post- depositional percolation water. The fracturing shows fragmentations of dry and fresh bones. Concerning mammoths, we identified 2 re- mains which correspond to 2 elements (table 8), a fragment of tusk which would correspond to an adult male and a quite complete left scapula that would correlate with a young adult (fig. 31; fig. 32). A horse (adult s.l.) is represented by two fragments of a diaphysis of a left humerus. A reindeer is represented by 4 elements, a left metatarsal, a left radius with a fragment of ulna and a quite complete lumbar vertebra. From the epiphysation stages, this individual was more than 38—48 months old, so an adult s.l. The measurements of the distal end of the radius (46 mm × 29 mm) shows that it was a quite robust individual. Moreover, a cervical vertebra and a fragment of a long bone diaphysis were found, belonging to a medium-sized mammal, which could be a reindeer. A fragment of an epiphysis and a rib head belong to a large-sized mammal. A fragment of a skull and a fragment of a long bone diaphysis ISSN 0235-3490 (Print), ISSN 2616-499X (Online). Археологія, 2024, № 2 25 Fig. 25. Mammoth rib with pathology from Doroshivtsi III-2019/2 Fig. 26. Skeletal preservation by elements in percentage survival (Ps%) of mammoths (MNI: 2) from Doroshivtsi III-2019/2 ISSN 0235-3490 (Print), ISSN 2616-499X (Online). Археологія, 2024, № 226 Table 5. Bones of mammoths and determination of growth stages and age classes of Doroshivtsi III- 2019/2 Number (labels) Bone Lateralisation Stage/age Age classes Sex 108 skull with two tusks and left and right dP3 III / 1 y.o. juvenile / 30 molar / adult s.l. / 106 humerus (DE unfused) / < XVIa si F ou M young adult undet. 45 lunatum right ~young adult undet. 28 hamatum right ~young adult undet. 44 femur (PE and DE fused) left > XVIa-XVIII si F; > XVIII-XX si M adult s.l. undet. 49 tibia (PE unfused) right < XVIa-XVII si F; < XVIIIa-XX si M ~young adult undet. Table 6. Bones of a wolf and determination of growth stage and age classes of Doroshivtsi III- 2019/2 Number (labels) Bone Lateralisation Stage/ age Age classes 33 humerus (DE fused; PE in fusion) right <12-15 months; >7-8 months juvenile 34 ulna (PE fused) right >7-8 months juvenile 34 radius (PE unfused) right <9-10 months juvenile Table 7. Counting of faunal remains from Doroshivtsi III-2019/3 in number of remains (NR), minimal number of elements (MNE) and minimal number of individuals (MNI) Species NR MNE MNI M. primigenius 2 2 2 Equus sp. 2 1 1 Rangifer tarandus 4 4 1 large-sized mammal 2 1 large- or medium- sized mammal 3 2 medium-sized mammal 2 2 medium-sized mammal (R. tarandus ?) 2 2 undetermined 3 TOTAL 20 14 4 which belong to a large- or medium-sized mammal were also discovered. A rib and a long bone or a metapodial belong to a medium-sized mammal. Concerning anthropogenic modifications, a di- aphysis of humerus of the horse bears impacts of fracturation. Furthermore, two remains of a large- or medium-sized mammal were burned, almost totally calcined. Bones are very scattered. They are associated with lithic artefacts and charcoals (fig. 33). Layer 4. The layer 4 furnished 142 remains corresponding to at least 45 elements belonging to 7 individuals, a mammoth, a horse, three reindeer, a small-sized mammal and a crow (table 9). We determined at least specifically 32 % of bone remains. The fragmentation index is 3.4. We observed longitudinal, perpendicular, step and helicoidal fracturing. Concerning the taphonomic conditions (figs. 34—36), almost all the bones were affected by weathering of different stages (mainly stages 1, 2 and 3) and percolation water. The horse remains were altered by run-off water. The fragments are mainly of size classes II, III and IV (fig. 37). So, the remains of the layer 4 had stayed in open air for a relatively short time and were affected by post- ISSN 0235-3490 (Print), ISSN 2616-499X (Online). Археологія, 2024, № 2 27 Fig. 28. Large-sized mammal rib with cutmarks from Doroshivtsi III-2019/2 Fig. 27. Right humerus of C. lupus from Doroshivtsi III-2019/2 Table 8. Bones of mammoths and deter- mination of growth stage and age classes from Doroshivtsi III-2019/3 Number (labels) Bone Laterali- sation Stage/ age Age classes Sex 122 tusk / / adult s.l. male 129 scapula left / young adult / depositional percolation water. The fracturing show fragmentations of dry and fresh bones. Concerning a mammoth, it is represented by 25 remains corresponding to at least 13 elements belonging to 1 individual. All the anatomical parts are represented, especially the axial skeleton, except the girdles (fig. 38). We identified at least one mammoth, probably an adult male not totally mature (table 10; figs. 39 and 40). Concerning a horse, it is represented by 3 remains corresponding to at least 3 elements belonging to 1 individual. There is a fragment of a diaphysis of a left humerus of a young individual. There is also a diaphysis of a right radius with an unfused proximal extremity which means this individual was less than 15—18 months old, so it was a juvenile. There is a vestigial metacarpal of a young individual. Concerning reindeer, they are represented by 17 remains corresponding to at least 16 elements belonging to 3 individuals. Almost all the ISSN 0235-3490 (Print), ISSN 2616-499X (Online). Археологія, 2024, № 228 Table 9. Counting of faunal remains from Doroshivtsi III-2019/4 in number of remains (NR), minimal number of elements (MNE) and minimal number of individuals (MNI) Species NR MNE MNI M. primigenius 25 13 1 Equus sp. 3 3 1 Rangifer tarandus 17 16 3 large-sized mammal 22 1 large- or medium-sized mammal 30 3 medium-sized mammal 24 4 medium-sized mammal (R. tarandus ?) 9 3 small-sized mammal 1 1 1 Aves (Corvus corax) 1 1 1 undetermined 10 TOTAL 142 45 7 Fig. 29. Spatial distribution of the archaeological remains from Doroshivtsi III-2019/2 anatomical parts are represented, particularly cranial remains, except girdles (figs. 41 and 42). We identified a juvenile, a young adult and a more mature adult (table 11). According to the index of density (r = 0,22) there is no correlation between X and Y, we cannot obtain significant statistic interpretation. Concerning the nutritive strategies, we have few remains to obtain a significant model. However, the general curve (fig. 43) is relatively close to a reverse ‘bulk’ strategy, which means that nutrients are least represented. Nevertheless, the richest parts in meat (sternum and femur) are present (fig. 44). Moreover, 3 ribs were found, belonging to a medium-sized mammal, which could be a reindeer. There is also a fragment of the left femur of a crow Corvus corax (fig. 45). A rib of a large-sized mammal was found. We also discovered 3 caudal vertebrae of a large- or medium-sized mammal. Fragments of a phalanx, a thoracic vertebra and 2 ribs belonging to a medium-sized mammal were discovered. A fragment of a long bone diaphysis belongs to a small-sized mammal. A fragment of ivory bears anthropogenic modifications with grooves and an edge was abrased (fig. 46) and bones of different species have traces of fracturing (fig. 47). A fragment of bone is totally calcified. Bones are very scattered. They are associated with lithic artefacts and charcoals (fig. 48). Layer 5. The layer 5 consisted of 14 remains corresponding to at least 8 elements belonging to 3 individuals, a mammoth and reindeer (table 12). We determined at least specifically 40 % of the bone remains. The fragmentation index is 1.75. ISSN 0235-3490 (Print), ISSN 2616-499X (Online). Археологія, 2024, № 2 29 Fig. 30. Alterations due to weathering according to the different stages by species and categories of remains from Doroshivtsi III- 2019/3 Fig. 31. Osteometry of tusks of mammoths from Doroshivtsi III-2019/3 and specimens of references ISSN 0235-3490 (Print), ISSN 2616-499X (Online). Археологія, 2024, № 230 Fig. 32. Osteometry of scapulas of mammoths from Doroshivtsi III-2019/3 and specimens of references Fig. 33. Spatial distribution of the archaeological remains from Doroshivtsi III-2019/3 ISSN 0235-3490 (Print), ISSN 2616-499X (Online). Археологія, 2024, № 2 31 Fig. 34. Alterations due to climate-edaphic and non-human biological agents in percentage of number of remains from Doroshivtsi III-2019/4 Fig. 35. Alterations due to weathering according to the different stages by species and categories of remains from Doroshivtsi III- 2019/4 ISSN 0235-3490 (Print), ISSN 2616-499X (Online). Археологія, 2024, № 232 Fig. 36. Alterations due to climate-edaphic and non-human biological agents in percentage of number of remains by species from Doroshivtsi III-2019/4 Fig. 37. Splinters by size classes from Doroshivtsi III-2019/4 ISSN 0235-3490 (Print), ISSN 2616-499X (Online). Археологія, 2024, № 2 33 Fig. 38. Counting of mammoth bones in number of remains and in minimum number of elements from Doroshivtsi III-2019/4 Fig. 39. Osteometry of ulnas of mammoths from Doroshivtsi III-2019/4 and specimens of references ISSN 0235-3490 (Print), ISSN 2616-499X (Online). Археологія, 2024, № 234 Fig. 40. Osteometry of lunatums of mammoths from Doroshivtsi III-2019/4 and specimens of references Fig. 41. Counting of reindeer bones in number of remains and in minimum number of elements from Doroshivtsi III-2019/4 ISSN 0235-3490 (Print), ISSN 2616-499X (Online). Археологія, 2024, № 2 35 Fig. 42. Skeletal preservation by elements in percentage survival (Ps%) of reindeer (MNI: 3) from Doroshivtsi III-2019/4 Fig. 43. Skeletal preservation of reindeer remains in relation to nutritional values from Doroshivtsi III-2019/4 ISSN 0235-3490 (Print), ISSN 2616-499X (Online). Археологія, 2024, № 236 Table 10. Bones of a mammoth and determination of growth stage and age classes from Doroshivtsi III-2019/4 Number (labels) Bone Latera- lisation Stage/age Age classes Sex 140 ulna left < XVIIIa- XX if female / < 30-35 y.o.; adult s.l. maybe quite young / 201 luna- tum right < XXII- XXX if male / < 36-60 y.o. adult s.l. male Number (labels) Bone Latera- lisation S t a g e / age Age classes 133 maxillar and P2 P3 P4 M1 M2 right F / 15 months old juvenile 249 mandible and M3 right I / 30 months old young adult 188 femur (PE fused) right > 36-48 months old adult s.l. (> young adult) 292 tibia (DE fused) >18-30 months old adult s.l. Table 11. Bones of reindeer and determination of growth stages and age classes from Doroshivtsi III-2019/4 We observed longitudinal, step and helicoidal fracturing. Concerning the taphonomic conditions (figs. 49 and 50), an important part of the bones was affected by weathering of different stages (mainly stages 1, 2 and 3) and percolation water. The fragments are mainly of size classes III (fig. 51). So, the remains of the layer 5 had stayed in open air for a relatively short time and were affected by post-depositional percolation water. The fracturing show fragmentations of dry and fresh bones. Concerning a mammoth there is a fragment of a molar of an adult s.l., a fragment of ivory and another fragment of bone. Reindeer are represented by a femur, a metacarpal and a left radius. They are two individuals, an adult s.l. and a young adult (table 13). There is also a bone of a large- or medium- sized mammal and several bone fragments. A rib of a medium-sized mammal is also present. Two remains of diaphyses of a medium-sized mammal bear anthropogenic impacts of fracturing. Bones are associated with few lithic artefacts and Fig. 44. Skeletal preservation of reindeer bones in percentage of minimum animal unit (%MAU) by anatomical parts, according to indexes “grease”, “meat” and “marrow” from Doroshivtsi III-2019/4 ISSN 0235-3490 (Print), ISSN 2616-499X (Online). Археологія, 2024, № 2 37 Fig. 45. Left femur of C. corax from Doroshivtsi III-2019/4 Fig. 46. Anthropogenic modifications on an ivory fragment from Doroshivtsi III-2019/4 Fig. 47. Anthropogenic modifications on bones from Doroshivtsi III-2019/4 ISSN 0235-3490 (Print), ISSN 2616-499X (Online). Археологія, 2024, № 238 Fig. 48. Spatial distribution of the archaeological remains from Doroshivtsi III-2019/4 Fig. 49. Alterations due to climate-edaphic and non-human biological agents in percentage of number of remains from Doroshivtsi III-2019/5 charcoals. They are concentrated on the east part of the excavation (fig. 52). Layer 5a. The layer 5a furnished 4 remains corresponding to at least 3 elements belonging to 2 individuals (table 14). Bones were affected by weathering effects (stages 2 and 4) and iron and manganese deposits due to percolation water. There is a fragment of a mammoth rib and a fragment of a flat bone of a large-sized mammal. There is also a left talus of an adult s.l. a reindeer (46.8 × 30.0 mm). Bones are concentrated on the east part of the excavation and associated with few lithic artefacts and charcoals (fig. 53). Layer 6. The layer 6 included 3 remains corresponding to at least 3 elements belonging to ISSN 0235-3490 (Print), ISSN 2616-499X (Online). Археологія, 2024, № 2 39 Fig. 50. Alterations due to weathering according to the different stages by species and categories of remains from Doroshivtsi III- 2019/5 Fig. 51. Splinters by size classes from Doroshivtsi III-2019/5 ISSN 0235-3490 (Print), ISSN 2616-499X (Online). Археологія, 2024, № 240 Fig. 52. Spatial distribution of the archaeological remains from Doroshivtsi III-2019/5 2 individuals. There is a fragment of a mammoth bone, a fragment of a bone of a medium-sized mammal and a fragment of a spinal disc of a medium-sized mammal (table 15). These remains are affected by weathering (stage 3) and percolation water (iron and manganese deposits). Bones are associated with few lithic artefacts and charcoals and concentrated on the east part of the excavation (fig. 54). Layer 8. The layer 8 furnished a fragment of a bone of a large-sized mammal. The surface is abraded, affected by weathering and deposits of iron and manganese due to percolation water. Discussion Taphonomy. The bones of Doroshivtsi III-2019 are generally well preserved. In all layers they are affected by post-depositional percolation water. The bones are also affected by weathering sometimes of different stages between bones and/ or species which could be due to different phases of accumulation, various modalities of burying Fig. 53. Spatial distribution of the archaeological remains from Doroshivtsi III-2019/5a ISSN 0235-3490 (Print), ISSN 2616-499X (Online). Археологія, 2024, № 2 41 and due to the size of bones according to the species. We have few data about layers 0, 5a, 6 and 8. In other layers according to the size classes of fragments and the type of fracturing we observed modification due to freeze-thaw actions. The remains of the layer 1 had stayed in open air for long time, also as the layer 2, whereas the others were quite quickly buried (table 16). Some mammoths bones bear plant root marks, which could mean bones were buried in subsurface or were collected in another place. Table 12. Counting of faunal remains from Doroshivtsi III-2019/5 in number of remains (NR), minimal number of elements (MNE) and minimal number of individuals (MNI) Species NR MNE MNI M. primigenius 3 3 1 Rangifer tarandus 3 3 2 large-sized mammal 1 large- or medium-sized mammal 1 1 medium-sized mammal 4 1 undetermined 2 TOTAL 14 8 3 Table 13. Bones of reindeer and determination of growth stages and age classes from Doroshivtsi III-2019/5 Number (labels) Bone Laterali- sation Stage/ age Age classes Sex 236 tusk / / adult s.l. male 311 scapula left / young adult / Table 14. Counting of faunal remains from Doroshivtsi III-2019/5a in number of remains (NR), minimal number of elements (MNE) and minimal number of individuals (MNI) Species NR MNE MNI M. primigenius 1 1 1 Rangifer tarandus 1 1 1 large-sized mammal 1 1 large- or medium-sized mammal 1 TOTAL 4 3 2 Table 15. Counting of faunal remains from Doroshivtsi III-2019/6 in number of remains (NR), minimal number of elements (MNE) and minimal number of individuals (MNI) Species NR MNE MNI M. primigenius 1 1 1 large- or medium-sized mammal 1 1 medium-sized mammal 1 1 1 TOTAL 3 3 2 Fig. 54. Spatial distribution of the archaeological remains from Doroshivtsi III-2019/6 ISSN 0235-3490 (Print), ISSN 2616-499X (Online). Археологія, 2024, № 242 The layers 2 and 3 are hard to distinguish in some places. We identified two radii with different modalities of preservation, but showing exactly the same measurements and anatomical particularities. They could belong to the same individual (fig. 55). Faunal populations. The main species in Doroshivtsi III-2019 are reindeer, horses and mammoths. Reindeer are mainly adults with young individuals (fig. 56). That could correspond for the layers 4 and 5 to the grouping of herds in summer. Horses are represented by adults and a juvenile (fig. 57). It could correspond to mixed herds. Mammoths are represented by adults and young individuals (fig. 58). It could correspond to different groups of mammoths, herds of females with young individuals and herds of male or solitary males. Human behaviours. We identified impacts of fracturing on long bones of horses and reindeer Fig. 55. Radius of reindeer of layers 2 and 3 from Doroshiv- tsi III-2019 Table 16. Main taphonomic processes according to the layers of Doroshivtsi III-2019 Layer Taphonomic processes 0 few remains/no reliable data 1 long time in open open air; freeze-thaw action 2 relatively long time in open open air; freeze- thaw action 3 short-time; freeze-thaw action 4 short-time; freeze-thaw action 5 short-time; freeze-thaw action 5a few remains/no reliable data 6 few remains/no reliable data 8 few remains/no reliable data Fig. 56. Age classes of reindeer from Doroshivtsi III-2019 linked to marrow removal. In the layer 4, a juvenile reindeer could have been slaughtered in summer. Concerning mammoths, we have few data, but the rib in the layer 2 with impacts and cutmarks could belongs to a mammoth. So, the main games are reindeer, then horses. Mammoths remains could have been collected on more or less fresh carcasses. Comparisons with Doroshivtsi III-2007—2010 In comparison with the sector of excavations 2007—2010 (Кулаковська та ін. 2011; Кулаков- ская, Усик, Эзартс 2012; Kulakovska et al. 2015; Demay, Patou-Mathis, Kulakovska 2015), we have ISSN 0235-3490 (Print), ISSN 2616-499X (Online). Археологія, 2024, № 2 43 the same species, but the remains are less dense. We also have few remains of a fox. Moreover, we have remains of a young wolf in layer 2. And mammoths are represented more than expected with idividuals dead in situ. Conclusions The excavations at Doroshivtsi III of 2019 furnished well preserved faunal remains (mainly reindeer, horses and mammoths) associated with lithic remains and few charcoals and burned bones. The density of remains being less compactly arranged than at the previously excavated sector, could correspond to another functional area — the camps. The status of mammoths needs to be better understood. Acknowledgements This research was funded by the Polish National Science Centre (project no. 2018/31/B/HS3/03125, Fig. 57. Age classes of horses from Doroshivtsi III-2019 Fig. 58. Age classes of mammoths from Doroshivtsi III-2019 ISSN 0235-3490 (Print), ISSN 2616-499X (Online). Археологія, 2024, № 244 Борисковский, П. И. 1953. Палеолит Украины, Историко-археологические очерки. Москва; Ленинград: Наука. Борзияк, И. A. 1998. Граветт Поднестровья и его связи с «единством Виллендорф–Павлов–Костенки». В: Амир- ханов, Х. A. (отв. ред.). Восточный Граветт. Москва: На- учный мир, с. 135-141. Борзіяк, I. О., Кулаковська, Л. В. 1998. Гравет Подністров’я. Загальний огляд. Археологія, 4, с. 55-64. Воллосович, K. A. 1909. Раскопки Санга-Юряхско- го мамонта в 1908 г. Известия императорской академии наук, 6 (3), с. 437-458. Григорьев, Г. П. 1970. Верхний палеолит. Материалы и исследования по археологии, 66, с. 43-63. Кулаковська, Л. В., Усик, В. І., Рідуш, Б. Т., Пеан, С. 2008. Палеолітична стоянка Дорошівці III в Середньо- му Подністров’ї (Попереднє повідомлення). В: Кулаков- ська, Л. В. (відп. ред.). Дослідження первісної археоло- гії в Україні (до 50-річчя відкриття палеолітичної стоянки Радомишль). Матеріали міжнародної конференції «Радо- мишль та його історія» — 4, жовтня 2006. Київ: Корвін Пресс, с. 51-53. Кулаковська, Л., Усик, В., Езартс, П., Рідуш, Б., Гера- сименко, Н., Проскурняк, Ю. 2011. Дослідження верхньо- палеолітичної стоянки Дорошівці III. Кам’яна доба Укра- їни, 14, с. 74-87. Кулаковская, Л. В., Усик, В. I., Эзартс, П. 2012. Дорошивцы III – граветтская стоянка в долине Днестра (Украина). Stratum Plus, 1, с. 131-150. Нужний, Д. Ю. 2015. Верхній палеоліт західної і пів- нічної України (техніко-типологічна варіабельність та періодизація). Київ: Видавець Олег Філюк. Рідуш, Б. T. 2008. Нова пам’ятка мобільного верхньо- палеолітичного мистецтва з Подністров’я. Кам’яна доба України, 2, с. 188-190. Черниш, О. П. 1954. Карта палеоліту УРСР. Наукові записки Львівського філіалу АН УРСР, т. ІІ, с. 67-152. Черныш, A. П. 1959. Поздний палеолит Средне- го Поднестровья. В: Громов, В. И., Окладников, А. П. (отв. ред.), Труды Комиссии по изучению Четвертичного периода, 15. Москва: Издательство Академии наук СССР, с. 5-214. Черныш, A. П. 1973. Палеолит и мезолит Приднестро- вья (карта и каталог местонахождений). Москва: Наука. Черныш, A. П. 1985. Верхний палеолит. Археология Украинской ССР, 1, с. 43-63. Черныш, A. П. 1987. Эталонная многослойная сто- янка Молодово V. Археология. В: Иванова, И. K., Цейт- лин, С. М. (отв. ред.). Многослойная палеолитическая стоянка Молодово V. Люди каменного века и окружаю- щая среда. Москва: Наука, с. 7-93. Agenbroad, L. D. 1994. Taxonomy of North American Mammuthus and Biometrics of the Hot Springs Mammoths. In: Agenbroad, L. D., Mead, J. I. (eds.). The Hot Springs Mammoth Site. Rapid City: Fenske Printing, p. 158-207. Alexandrowicz, W. P., Łanczont, M., Boguckyj, A. B., Kulesza, P., Dmytruk, R. 2014. Molluscs and Ostracods of the Pleistocene Loess deposits in the Halych Site (Western Ukraine) and Their Significance for Palaeoenvironmental Reconstructions. Quaternary Science Reviews, 105, p. 162- 180. Anghelinu, M., Niţă, L., Muratoreanu, G. 2018. Le Gravettien et l’Épigravettien de l’Est de la Roumanie: une réévaluation. L’Anthropologie, 122(10), http://doi.org/ 1016/j.anthro.2018.03.002. Anghelinu, M., Popescu, G., Hambach, U., Vereş¸ D., Händel, M., Niţă, L., Cordoş, C., Muratoreanu, G. 2019. Reassessing the Formation Processes of Open-air Paleo- lithic Settlements in the Eastern Carpathians: Case Stud- ies in the Ceahlau Area. In: Cordoş, C., Chirica, V. (eds.). Le Paléolithique supérieur de Roumanie en contexte du Paléolithique supérieur européen. Bibliotheca Archaeologica Iassiensis, XXXIII, p. 96-119. Averianov, A. 1996. Sexual Dimorphism in the Mam- moth Skull, Teeth, and Long Bones. In: Shoshani, J., Tassy, P. (eds.). The Proboscidea. Oxford: Oxford University Press, p. 280-288. Barone, R. 1966. Ostéologie. Tome 1. Anatomie comparée des mammifères domestiques: Lyon: École nationale vétérinaire. Barone, R. 1976. Ostéologie. Tome 1. Anatomie comparée des animaux domestiques. Paris: Vigot Frères. Behrensmeyer, A.K. 1978. Taphonomic and Ecologic Infor- mation from Bone Weathering. Paleobiology, 4(2), p. 150-162. Behrensmeyer, A.K. 1990. Transport/Hydrodynamics of Bones. In: Briggs, D. E. G., Crowther, P. R. (eds.). Palaeobiol- ogy: A Synthesis. Blackwell Scientific Publications, p. 232-235. Binford, L. R. 1978. Nunamiut Ethnoarchaeology. New York: Academic Press. Binford, L. R. 1979. Organization and Formation Pro- cesses: Looking at Curated Technologies. Journal of Anthro- pological Research, 35, p. 255-273. Binford, L. R. 1987. Data, Relativism and Archaeological Science. Man, 22 (3), p. 391-404. Borziak, I. A. 1994. Paleoliticul şi Mezoliticul din spaţiul dintre Prut şi Nistru. Rep. Moldova. Thraco-Dacia, 15 (1–2), pp. 19-40. Borziak, I., Chirica, V., Văleanu, M.-C. 2006. Culture et sociétés pendant le Paléolithique supérieur à travers l’espace carpato-dniestréen, Institut d’Archéologie, Bibliotheca Archaeologica Moldaviae, V. І, aşi: Pim, Bouchud, J. 1954. Dents de Rennes, bois de Rennes et migrations. Bulletin de la Société Préhistorique Française, 51, p. 340-345. Bouchud, J. 1966. Essai sur le Renne et climatologie du Paleolithique moyen et superieur. Périgueux: Imprimerie Magne. Cârciumaru, M. 1999. Le Paléolithique de Roumanie. Сollection “Homme des Origines”, Série Préhistoire d’Europe, 7. Grenoble: Jérôme Millon, Chirica, V., Borziak, I. (eds.) 2009. Gisements du paléolithique supérieur récent entre le Dniestr et la Tissa. Iaşi: Pim. Coppens, Y. 1965. Les élephants du Quaternaire français: dentition, systématique, signification et préhistoire. Actes du XVIe Congrès Préhistorique de France, 28 août- 5 septembre 1959, Monaco, Paris: Société préhistorique française, p. 403-431. Demay, L., Péan, S., Noiret, P., Obadă, T., Kulakovska, L. 2019. Le statut du mammouth au sein des groupes humains du Pléniglaciaire supérieur autour des bassins du Dniestr et du Prout. In: Cordoş, C., Chirica, V. (eds.). La Paléolithique supérieur de Roumanie en contexte du Paléolithique supérieur européen. Actes de Colloque International de Iaşi, 2019, Académie Roumaine – Filiale Iaşi, Institut d’archéologie de Iaşi, Bibliotheca Archaeologica Iassiensis, XXXIII, Editura Pim, Iaşi. p. 59-95. Demay, L., Julien, M. A., Anghelinu, M., Shydlovskyi, P. S., Kulakovska, L. V., Péan, S., Stupak, D. V., Vasyliev, P. M., Obăda, T., Wojtal, P., Belyaeva, V. I. 2021. Study of Environment and Culture of the Gravettian and Epigravettian Gatherers and Hunters in the Middle Dniester Valley). We express our gratitude for the review and to the editors. ISSN 0235-3490 (Print), ISSN 2616-499X (Online). Археологія, 2024, № 2 45 Human Behaviors during the Late Pleniglacial in the East Eu- ropean Plain through Their Relation to the Animal World. Quaternary International, 581–582, p. 258-289. Demay, L., Patou-Mathis, M., Kulakovska, L. 2015. Zooarchaeology of the Layers from Doroshivtsi III. Quaternary International, p. 359-360, 384-405. Denys, C., Patou-Mathis, M. (dir.) 2014. Manuel de Taphonomie. Paris: Éditions Errance, Collection Archéologiques. Driesch, A. von den 1976. A Guide to the Measurement of Animal Bones from Archaeological Sites. Peabody Muse- um of Archaeology and Ethnology, 1, Cambridge: Harvard University. Djindjian, F. 2002. Ruptures et continuités dans les industries du maximum glaciaire en Europe centrale et orientale: la question de l’Epigravettien. In: Sinitsyn, A., Sergin, V., Hoffecker, J. (eds.). Trends in the Evolution of the East European Palaeolithic. Kostienki in the Context of the Palaeolithic of Eurasia, Series Research I, Institute of the History of Material Culture. Saint-Pétersbourg, p. 53-62. Enloe, J. G. 1997. Seasonality and Age Structure in re- mains of Rangifer tarandus: Magdalenian Hunting Strategy at Verberie. Anthropozoologica, 25—26, p. 95-102. Faith, J. T., Gordon, A. D. 2007. Skeletal Element Abun- dances in Archaeofaunal Assemblages: Economic Utility, Sample Size, and Assessment of Carcass Transport Strategies. Journal of Archaeological Science, 34, p. 872-882. Felix, J. P. 1912. Das Mammut von Borna. Leipzig: R. Voigtländer. Fernández-Jalvo, Y. Andrews, P. (eds.). 2016. Atlas of Taphonomic Identifications: 1001+ Images of Fossil and Recent Mammal Bone Modification, Collection “Vertebrate Paleobiology and Paleoanthropology”. Dordrecht: Springer Netherlands. Fowler, M. E., Mikota, S. K. 2006. The Biology, Medicine and Surgery of Elephants. Oxford: Blackwell. Göhlich, U. 1998. Elephantoidea (Proboscidea, Mamma- lia) aus dem Mittel- und Obermiozän der oberen Süßwassermo- lasse Süddeut-schlands: Odontologie und Osteologie. Münch- ner Geowissenschaftliche Abhandlungen, (A) 36, p. 1-245. Haesaerts, P., Borziak, I., Chirica, V., Damblon, F., Kulak- ovska, L. V., van der Plicht, J. 2003. The East Carpathian Loess Record: A Reference for Middle and Late Pleniglacial Stratig- raphy in Central Europe. Quaternaire, 14 (3), p. 163-188. Haesaerts, P., Gerasimenko, N., Damblon, F., Yurchenko, T., Kulakovska, L., Usik, V., Ridush, B. 2020. The Upper Pal- aeolithic Site Doroshivtsi III: A New Chronostratigraphic and Environmental Record of the Late Pleniglacial in the Region- al Context of the Middle Dniester-Prut Loess Domain (West- ern Ukraine). Quaternary International, 546, p. 196-215. Haynes, G. 1987. Proboscidean Die-offs and Die-outs: Age Profiles in Fossil Collections. Journal of Archaeological Science, 14 (6), p. 659-668. Haynes, G. 1991. Mammoths, Mastodonts and Elephants, Biology, Behavior and the Fossil Record. Cambridge: Cam- bridge Press. Hufthammer, A. K. 1995. Age Determination of Reindeer (Rangifer tarandus L.). Archaeozoologia, 7 (2), p. 33-42. Jones, K., Metcalfe, D. 1988. Bare Bones Archaeology: Bone Marrow Indices and Efficiency. Journal of Archaeolog- ical Science, 15, p. 415-423. Kirillova, I. V., Shidlovskiy, F. K., Titov, V. V. 2012. Kastykhtakh Mammoth from Taimyr (Russia). Mammoths and Their Relatives 2: Biotopes, Evolution and Human Im- pact V International Conference, Le Puy-en-Velay, 2010. Quaternary International, 276-277, p. 269-277. Klein, R. G., Cruz-Uribe, K. 1984. The Analysis of Animal Bones from Archaeological Sites. Chicago; London: The University of Chicago Press. Koenigswald, W. V. 1989. Das Mammut von Polch bei Mayen (Eifel). Eiszeitalter und Gegenwart, 39, p. 87-97. Koz1owski, J. K. 1998. “La géochronologie de l’horizon à pointes à cran en Europe orientale.” In: Amirk- ahnov, H. A. (ed.). The Eastern Gravettian, Actes du Col- loque de Moscou-Zaraysk, 1—7 septembre 1997, Institute of Archaeology, Russian Academy of Sciences, Moscou, p. 81-89. Kulakovska, L. V., Usik, V. I., Haesaerts, P., Ridush, B., Uthmeier T., Hauck, T. C. 2015. Upper Paleolithic of Middle Dniester: Doroshivtsi III site. Quaternary International, 359- 360, p. 347-361. Lam, Y. M., Chen, X., Marean, C. W., Frey, C. 1998. Bone Density and Long Bone Representation in Archaeological Faunas: Comparing Results from CT and Photon Densitometry. Journal of Archaeological Science, 25, p. 559-570. Lam, Y. M., Pearson, O. M. 2003. Bone Density Studies and the Interpretation of the Faunal Record. Evolutionary An- thropology, 14, p. 99-108. Laws, R. M. 1966. Age Criteria for the African Elephant Loxodonta a. Africana. East African Wildlife Journal, 4, p. 1-37. Lister, A. M. 1996. Sexual Dimorphism in the Mammoth Pelvis: An Aid to Gender Determination. In: Shoshani, J., Tassy, P. (eds.). The Proboscidea, Oxford University Press, Oxford, p. 254-259. Lister, A. M. 1999. Epiphyseal Fusion and Postcranial Age Determination in the Woolly Mammoth, Mammuthus primigenius (Blum.). Deinsea, 6, p. 79-88. Lister, A. 2009. Late-glacial Mammoth Skeletons (Mam- muthus primigenius) from Condover (Shropshire, UK): Anat- omy, Pathology, Taphonomy and Chronological Significance. Geological Journal, 44, p. 447-479. Lyman, R. L. 1994. Vertebrate Taphonomy. Cambridge: Cambridge University Press. Lyman, R. L. 2008. Quantitative Paleozoology. New York: Cambridge University Press. Metcalfe, D., Jones, K. 1988. A Reconsideration of Animal Body Part Utility Indices. American Antiquity, 53, p. 486-504. Miller, F. L. 1972. Eruption and Attrition of Mandibular Teeth in Barren-ground Caribou. Journal of Wildlife Manage- ment, 36 (2), p. 606-612. Miller, F. L. 1974. Biology of the Kaminuriak Population of Barren Ground Caribou. Part 2. Dentition as an Indicator of Age and Sex; Composition and Socialization of the Popula- tion. Ottawa: Canadian Wildlife Service Reports. Noiret, P. 2007. Le Gravettien de Moldavie (30 000—23 000 BP), Spécial Table ronde (1ère partie): le Gravettien : entités régionales d’une paléoculture européenne, Les Eyzies, juillet 2004. PALEO, 19, p. 159-180. Noiret, P. 2009. Le Paléolithique supérieur de la Moldavie. Essai de synthèse d’une évolution multi-culturelle. ERAUL, 121. Liège: Université de Liège. Nuzhnyi, D. Yu, 2009. The Industrial Variability of the East- ern Gravettian Assemblages of Ukraine. Quärtar, 56, p. 159-174. Osborn, H. F. 1942. Proboscidea: A Monograph of the Discovery, Evolution, Migration and Extinction of the Mas- todonts and Elephants of the World. Vol. II: Stegodontoidea, Elephantoidea. New York: American Museum of Natural History, p. 805-1675. Otte, M., Noiret, P., Chirica, V., Borziak, I. 1996. Rythme évolutif du Gravettien oriental. In: Palma di Cesnola, A., Mon- tet-White, A., Valoch, K. (eds.). XIII Congrès International d’U.I.S.P.P., Section 6: The Upper Palaeolithic. Colloquim XII. The Origin of the Gravettian. Forli (b. v.), p. 213-226. Păunescu, A. 1998. Paleoliticul și epipaleoliticul de pe teritoriul Moldovei cuprins între Carpați și Siret. București: Editura Satya Sai. Połtowicz-Bobak, M., Kulakovska, L., Łanczont, M., Bobak, D., Demay, L., Kononenko, O., Lemanik, A., ISSN 0235-3490 (Print), ISSN 2616-499X (Online). Археологія, 2024, № 246 Mroczek, P., Nadachowski, A., Standzikowski, K., Usik, V. 2022. The Gravettian Occupation in the Middle Dni- ester River Valley (Ukraine) during the Last Glacial Maxi- mum – A Case Study: The Doroshivtsi III Site. Antiquity, 96 (388), p. 998-1007. Popiuk, Y. 2014. Paleoenvironmental Malakofaunistic Records of Late Pleniglacial on the Upper Paleolithic Site Doroshivtsi 3 (the Middle Dniester Basin). In: Mindrescu, M. and Gradinaru, I. (eds.). Late Pleistocene and Holocene Climatic Variability in the Carpathian – Balkan Region 2014. Suceava: Ştefan Cel Mare University Press, p. 145- 148. Poplin, F. 1976. Remarques théoriques et pratiques sur les unités utilisées dans les études d’ostéologie quantitative, particulièrement en archéologie préhistorique. IXe Congrès UISPP, 13—18 septembre 1976, Nice, Thèmes spécialisés, B, Problèmes ethnographiques des vestiges osseux, CNRS, Bulletin signalétique, 31 (2), p. 124-141. Shoshani, J., Tassy, P. (eds.) 1996. The Proboscidea: Evolution and Palaeoecology of Elephants and Their Rela- tives. Oxford: Oxford University Press. Siegfried, P. 1959. Das Mammut von Ahlen, Mammon- teus primigenius (Blumenb.). Palaeontologische Zeitschrift, 33 (3), p. 172-184. Stiner, M. C. 1990. The Use of Mortality Patterns in Ar- chaeological Studies of Hominid Predatory Adaptations. Journal of Anthropological Archaeology, 9, p. 305-351. Toepfer, V. 1957. Die Mammutfunde von Pfännerhall im Geiseltal. Veröffentlichungen des Landesmuseums für Vorg- eschichte in Halle Heft, 16, p. 1-58. Vaufrey, R. 1955. Proboscidiens fossiles. Traité de zoologie, 17, p. 784-875. Ziegler, R. 1994. Das Mammut (Mammuthus primigenius Blumenbach) von Siegsdorf bei Traunstein (Bayern) und seine Begleitfauna. Münchner Geowissenschaftliche Abhandlungen, 26, p. 49-80. Ziegler, R. 2001. An Extraordinary Small Mammoth (Mammuthus primigenius) from SW Germany. Geologie und Palaontologie. Stuttgarter Beitrage zur Naturkunde Series, B 300, p. 1-41. ICZN 1999. International Code of Zoological Nomenclature. (4e ed.). London: International Trust for Zoological Nomenclature. Л. Демей1, М. Полтович-Бобак2, Л. В. Кулаковська3, Д. Бобак4, В. І. Усик5, О. М. Кононенко6, М. Ланчонц7, П. Мрочек8, К. Стандзіковський9, А. Надаховський10, А. Леманік11 1PhD з палеонтології, науковий співробітник,, Національний музей природничої історії, ORCID: 0000-0003- 4930-7030, laetitia.demay@mnhn.fr 2Доктор габілітований, Інститут археології Жешувського університету, ORCID: 0000-0003-1973-4971, mpoltowicz@lithics.eu 3Кандидат історичних наук, завідувач відділу, Археологічний музей, Інститут археології НАН України, ORCID: 0000-0002-8704-8642, larissa.kulakovska@gmail.com 4Фундація Жешувського археологічного центру, ORCID: 0000-0002-5216-6630, deni@lithics.eu 5Кандидат історичних наук, старший науковий співробітник, Інститут археології НАН України, Київ, Україна; Інститут археології Брно, Чеська академія наук Чехинська, ORCID: 0000-0002-2671-3485, vitaly.i.usik@gmail.com 6Кандидат історичних наук, науковий співробітник, Інститут археології НАН України, Київ, Україна. ORCID: 0000-0003-1575-1854, olesia.m.kononenko@gmail.com 7Професор, доктор габілітований, Інститут наук про Землю та навколишнє середовище, Університет Ма- рії Кюрі-Склодовської, ORCID: 0000-0002-0459-8658, maria.lanczont@mail.umcs.pl 8Доктор габілітований, Інститут наук про Землю та навколишнє середовище, Університет Марії Кюрі- Склодовської, ORCID: 0000-0003-2702-5577, przemyslaw.mroczek@mail.umcs.pl 9Магістр, Інститут наук про Землю та навколишнє середовище, Університет Марії Кюрі-Склодовської, ORCID: 0000-0002-1215-0415, karol.standzikowski@mail.umcs.pl 10Професор, доктор габілітований, Інститут систематики та еволюції тварин Польської академії наук, ORCID: 0000-0001-6452-3028, nadachowski@isez.pan.krakow.pl 11PhD, Інститут систематики та еволюції тварин Польської академії наук, ORCID: 0000-0002-2523-0940, lemanik@isez.pan.krakow.pl ВЕРХНЬОПАЛЕОЛІТИЧНІ ПОСЕЛЕННЯ В ДОЛИНІ СЕРЕДНЬОГО ДНІСТРА: ЗООАРХЕОЛОГІЧНІ ДОСЛІДЖЕННЯ НА СТОЯНЦІ ДОРОШІВЦІ III (УКРАЇНА) – РОЗКОПКИ 2019 р. У прикарпатській зоні, у південній частині басейнів Серету, Прута та Дністра, зокрема на палеолітичних пам’ятках Румунії та Республіки Молдова, засвідчено різноманітну діяльність первісної людини у час останнього льодовикового максимуму (LGM). Північніше, в районі середнього Подністров’я, на заході України, при дослідженні стоянки Дорошівці III було отримано нові результати, які підтвердили попередні дані, а також стали ключовими для відтворення людської діяльності в найбільш холодний відрізок часу. У 2019 році поновилися дослідження верхньопалеолітичної стоянки Дорошівці ІІІ, яка існувала в часи останнього льодовикового максимуму. Зафіксовано десять археологічних шарів з артефактами граветського технокомплексу. У статті представлено результати детального археозоологічного аналізу фауністичних решток. Загалом, можна говорити про добру збереженість кісткового матеріалу. У процесі досліджень було ідентифіковано останки північного оленя, коня, мамонта, вовка та лисиці, а також ворону. Наразі ми маємо небагато даних для шарів 0, 5а, 6 і 8. Фауністичні рештки у шарах 1 та 2 довгий час перебували просто неба. Результати аналізу фауністичних решток свідчать, що ISSN 0235-3490 (Print), ISSN 2616-499X (Online). Археологія, 2024, № 2 47 основними видами полювання були північні олені та потім — коні. Довгі кістки коней і оленів мають сліди переломів що пов’язано з добуванням кісткового мозку. У археологічних шарах 4 і 5 північний олень був представлений переважно дорослими особинами та дитинчатами. Подібний склад типовий для літніх стад тварин. Коні представлені дорослими особинами та молоддю, що загалом характерно для змішаних табунів. Рештки мамонтів належать також дорослим і молодим особинам. Кістки мамонтів могли бути зібрані із недавно впольованих тварин. Склад фауни тотожний матеріалам із розкопок 2007—2010 рр. (розкоп І). Також варто зауважити, що в колекції 2019 р (розкоп ІІ) вперше ідентифіковано кістки вовка. Щільність кісток у цій частині поселення менша порівняно з розкопом І. Неочікувано з’ясувалося, що у цьому секторі краще представлений мамонт. Імовірно, що тварини помирали на місці. Невелика кількість фауністичних решток та крем’яних артефактів свідчить про відмінне від сусіднього сектора призначення ділянки. К л ю ч о в і с л о в а: верхній палеоліт, останній льодовиковий максимум, гравет, життєзабезпечення, тафономія. References Boriskovskii, P. I. 1953. Paleolit Ukrainy. Istoriko-arkheologicheskie ocherki. Moskva; Leningrad: Nauka. Borziiak, I. A. 1998. Gravett Podnestrovia i ego sviazi s “edinstvom Villendorf—Pavlov—Kostenki”. In: Amirkhanov, Kh. A. (ed.). Vostochnyi Gravett. Moskva: Nauchnyi mir, р. 135-141. Borziiak, I. O., Kulakovska, L. V. 1998. Hravet Podnistrovia. Zahalnyi ohliad. Arheologia, 4, p. 55-64. Vollosovich, K. A. 1909. Raskopki Sanga-Yuriakhskogo mamonta v 1908 g. Izvestia Imperatorskoi Akademii Nauk, Seriia(Series), 6 (3), p. 437-458. Grigorev, G. P. 1970. Verkhnii paleolit. Materialy i issledosaniia po arkheologii, 66, p. 43-63. Kulakovska, L. V., Usyk, V. I., Ridush, B. T., Pean, S. 2008. Paleolitychna stoianka Doroshivtsi III v Serednomu Podnistrovi (Poperedni povidomlennia). In: Kulakovska, L. V. (ed.). Doslidzhennia pervisnoi arkheolohii v Ukraini (do 50-richchia vidkryttia paleolitychnoi stoianky Radomyshl). Materialy mizhnarodnoi konferentsii ‘‘Radomyshl ta yoho istoriia”, 3—4 zhovtnia 2006. Kyiv: Korvin Press, p. 51-53. Kulakovska, L. V., Usyk, V. I., Ezarts, P., Ridush, B., Herasymenko, N., Proskurniak, Yu. 2011. Investigations of the Dorochi- vzi III Upper paleolithic Site. Kamiana doba Ukrainy, 14, p. 74-87. Kulakovska, L. V., Usik, V. I., Haesaerts, P. 2012. Doroshіvtsy III – Gravettian Site in the Dniester Valley (Ukraine). Stratum Plus, 1, p. 131-150. Nuzhnyi, D. Yu. 2015. Verkhnii paleolit zakhidnoi i pivnichnoi Ukrainy (tekhniko-typolohichna variabelnist ta periodyzatsiia). Kyiv: Vydavets Oleh Filiuk. Ridush, B. T. 2008. New find of Upper Palaeolithic mobile art from Middle Dniester basin. Kamiana doba Ukrainy, 2, p. 188-190. Chernysh, O. P. 1954. Karta paleolitu URSR. Naukovi zapysky Lvivskoho filialu AN URSR, t. II, p. 67-152. Chernysh, A. P. 1959. Pozdnii paleolit Srednego Podnestrovia. In: Gromov, V. I., Okladnikov, A. P. (eds.). Trudy Komissii po izucheniyu Chetvertichnogo perioda, 15. Moskva: Izdatelstvo Akademii nauk SSSR, p. 5–214. Chernysh, A. P. 1973. Paleolit i mezolit Pridnestrovia (karta i katalog mestonakhozhdeniy). Moskva: Nauka. Chernysh, A. P. 1985. Verkhnii paleolit. Arkheologiia Ukrainskoi SSR, 1. p. 43-63. Chernysh. A. P. 1987. Etalonnaia mnogosloynaia stoianka Molodovo V. Arkheologiya. In: Ivanova, I. K., Tseytlin, S. M. (eds.). Mnogosloinaia paleoliticheskaia stoianka Molodovo V. Liudi kamennogo veka i okruzhaiushchaia sreda. Moskva: Nau- ka, p. 7-93. Agenbroad, L. D. 1994. Taxonomy of North American Mammuthus and Biometrics of the Hot Springs Mammoths. In: Agenbroad, L. D, Mead, J. I. (eds.). The Hot Springs Mammoth Site. Rapid City: Fenske Printing, p. 158-207. Alexandrowicz, W. P., Łanczont, M., Boguckyj, A. B., Kulesza, P., Dmytruk, R. 2014. Molluscs and Ostracods of the Pleisto- cene Loess deposits in the Halych Site (Western Ukraine) and Their Significance for Palaeoenvironmental Reconstructions. Quaternary Science Reviews, 105, p. 162-180. Anghelinu, M., Niţă, L., Muratoreanu, G. 2018. Le Gravettien et l’Épigravettien de l’Est de la Roumanie: une réévaluation. L’Anthropologie, 122(10), 1016/j.anthro.2018.03.002. Anghelinu, M., Popescu, G., Hambach, U., Vereş, D., Händel, M., Niţă, L., Cordoş, C., Muratoreanu, G. 2019. Reassessing the Formation Processes of Open-air Paleolithic Settlements in the Eastern Carpathians: Case Studies in the Ceahlau Area. In: Cordos, C., Chirica, V. (eds.). Le Paléolithique supérieur de Roumanie en contexte du Paléolithique supérieur européen. Bibliotheca Archaeologica Iassiensis, XXXIII, p. 96-119. Averianov, A. 1996. Sexual Dimorphism in the Mammoth Skull, Teeth, and Long Bones. In: Shoshani, J., Tassy, P. (eds.). The Proboscidea. Oxford: Oxford University Press, p. 280-288. Barone, R. 1966. Ostéologie. Tome 1. Anatomie comparée des mammifères domestiques. Lyon: École nationale vétérinaire. Barone, R. 1976. Ostéologie. Tome 1. Anatomie comparée des animaux domestiques. Paris: Vigot Frères. Behrensmeyer, A. K. 1978. Taphonomic and Ecologic Information from Bone Weathering. Paleobiology, 4(2), p. 150-162. Behrensmeyer, A. K. 1990. Transport/Hydrodynamics of Bones. In: Briggs, D. E. G , Crowther, P. R. (eds.). Palaeobiology: A Synthesis, Blackwell Scientific Publications, p. 232-235. Binford, L. R. 1978. Nunamiut Ethnoarchaeology. New York: Academic Press. Binford, L. R. 1979. Organization and Formation Processes: Looking at Curated Technologies. Journal of Anthropological Re- search, 35, p. 255-273. Binford, L. R. 1987. Data, Relativism and Archaeological Science. Man, 22 (3), p. 391-404. ISSN 0235-3490 (Print), ISSN 2616-499X (Online). Археологія, 2024, № 248 Borziak, I. A. 1994. Paleoliticul şi Mezoliticul din spaţiul dintre Prut şi Nistru. Rep. Moldova. Thraco-Dacia, 15 (1–2), p. 19-40. Borziak, I., Chirica, V., Văleanu, M.-C. 2006. Culture et sociétés pendant le Paléolithique supérieur à travers l’espace carpato- dniestréen, Institut d’Archéologie, Bibliotheca Archaeologica Moldaviae, VI, Iaşi: Pim. Bouchud, J. 1954. Dents de Rennes, bois de Rennes et migrations. Bulletin de la Société Préhistorique Française, 51, p. 340-345. Bouchud, J. 1966. Essai sur le Renne et climatologie du Paleolithique moyen et superieur. Périgueux: Imprimerie Magne. Cârciumaru, M. 1999. Le Paléolithique de Roumanie. Сollection “L’Homme des Origine”, Série Préhistoire d’Europe, 7. Grenoble: Jérôme Millon, Chirica, V., Borziak, I. (eds.) 2009. Gisements du paléolithique supérieur récent entre le Dniestr et la Tissa. Iaşi: Pim. Coppens, Y. 1965. Les élephants du Quaternaire français: dentition, systématique, signification et préhistoire. Actes du XVIe Congrès Préhistorique de France, 28 août-5 septembre 1959, Monaco, Paris: Société préhistorique française, p. 403-431. Demay, L., Julien, M. A., Anghelinu, M., Shydlovskyi, P. S., Kulakovska, L. V., Péan, S., Stupak, D. V., Vasyliev, P. M., Obăda, T., Wojtal, P., Belyaeva, V. I. 2021. Study of Human Behaviors during the Late Pleniglacial in the East European Plain through Their Relation to the Animal World. Quaternary International, 581–582, p. 258-289. Demay, L., Patou-Mathis, M., Kulakovska, L. 2015. Zooarchaeology of the Layers from Doroshivtsi III. Quaternary International, 359-360, p. 384-405. Demay, L., Péan, S., Noiret, P., Obadă, T., Kulakovska, L. 2019. Le statut du mammouth au sein des groupes humains du Pléniglaciaire supérieur autour des bassins du Dniestr et du Prout. In: Cordoş, C., Chirica, V. (eds.). La Paléolithique supérieur de Roumanie en contexte du Paléolithique supérieur européen. Actes de Colloque International de Iaşi, 2019, Editura Pim, Iaşi, Académie Roumaine – Filiale Iaşi, Institut d’archéologie de Iaşi, Bibliotheca Archaeologica Iassiensis, XXXIII, p. 59-95. Denys, C., Patou-Mathis, M. (dir.) 2014. Manuel de Taphonomie. Paris: Éditions Errance, Collection Archéologiques. Driesch, A. von den. 1976. A Guide to the Measurement of Animal Bones from Archaeological Sites. Peabody Museum of Ar- chaeology and Ethnology, 1, Cambridge: Harvard University. Djindjian, F. 2002. Ruptures et continuités dans les industries du maximum glaciaire en Europe centrale et orientale: la question de l’Epigravettien. In: Sinitsyn, A., Sergin, V., Hoffecker, J. (eds.). Trends in the Evolution of the East European Palaeo- lithic. Kostienki in the Context of the Palaeolithic of Eurasia, Series Research I, Institute of the History of Material Culture. Saint-Pétersbourg, p. 53–62. Enloe, J. G. 1997. Seasonality and Age Structure in remains of Rangifer tarandus: Magdalenian Hunting Strategy at Verberie. Anthropozoologica, 25-26, p. 95-102. Faith, J. T., Gordon, A. D. 2007. Skeletal Element Abundances in Archaeofaunal Assemblages: Economic Utility, Sample Size, and Assessment of Carcass Transport Strategies. Journal of Archaeological Science, 34, p. 872-882. Felix, J. P. 1912. Das Mammut von Borna. Leipzig: R. Voigtländer. Fernández-Jalvo, Y. Andrews, P. (eds.). 2016. Atlas of Taphonomic Identifications: 1001+ Images of Fossil and Recent Mam- mal Bone Modification, Collection “Vertebrate Paleobiology and Paleoanthropology”. Dordrecht: Springer Netherlands. Fowler, M. E., Mikota, S. K. 2006. The Biology, Medicine and Surgery of Elephants. Oxford: Blackwell. Göhlich, U. 1998. Elephantoidea (Proboscidea, Mammalia) aus dem Mittel- und Obermiozän der oberen Süßwassermolasse Süddeut-schlands: Odontologie und Osteologie. Münchner Geowissenschaftliche Abhandlungen, (A) 36, p. 1-245. Haesaerts, P., Borziak, I., Chirica, V., Damblon, F., Kulakovska, L.V., van der Plicht, J. 2003. The East Carpathian Loess Re- cord: A Reference for Middle and Late Pleniglacial Stratigraphy in Central Europe. Quaternaire, 14 (3), p. 163-188. Haesaerts, P., Gerasimenko, N., Damblon, F., Yurchenko, T., Kulakovska, L., Usik, V., Ridush, B. 2020. The Upper Palaeolithic Site Doroshivtsi III: A New Chronostratigraphic and Environmental Record of the Late Pleniglacial in the Regional Con- text of the Middle Dniester-Prut Loess Domain (Western Ukraine). Quaternary International, 546, p. 196-215. Haynes, G. 1987. Proboscidean Die-offs and Die-outs: Age Profiles in Fossil Collections. Journal of Archaeological Science, 14 (6), p. 659-668. Haynes, G. 1991. Mammoths, Mastodonts and Elephants, Biology, Behavior and the Fossil Record. Cambridge: Cambridge Press. Hufthammer, A.K. 1995. Age Determination of Reindeer (Rangifer tarandus L.). Archaeozoologia, 7 (2), p. 33-42. Jones, K., Metcalfe, D. 1988. Bare Bones Archaeology: Bone Marrow Indices and Efficiency. Journal of Archaeological Sci- ence, 15, p. 415-423. Kirillova, I. V., Shidlovskiy, F. K., Titov, V. V. 2012. Kastykhtakh Mammoth from Taimyr (Russia). Mammoths and Their Rel- atives 2: Biotopes, Evolution and Human Impact V International Conference, Le Puy-en-Velay, 2010. Quaternary Inter- national, 276-277, p. 269-277. Klein, R. G., Cruz-Uribe, K. 1984. The Analysis of Animal Bones from Archaeological Sites. Chicago and London: The University of Chicago Press. Koenigswald, W. V. 1989. Das Mammut von Polch bei Mayen (Eifel). Eiszeitalter und Gegenwart, 39, p. 87-97. Kulakovska, L. V., Usik, V. I., Haesaerts, P., Ridush, B., Uthmeier T., Hauck, T. C. 2015. Upper Paleolithic of Middle Dniester: Doroshivtsi III site. Quaternary International, 359-360, p. 347-361. Koz1owski, J. K. 1998. “La géochronologie de l’horizon à pointes à cran en Europe orientale.” In: Amirkahnov, H. A. (ed.). The Eastern Gravettian, Actes du Colloque de Moscou-Zaraysk, 1‒7 septembre 1997, Institute of Archaeology, Russian Acad- emy of Sciences. Moscou, p. 81-89. Lam, Y. M., Chen, X., Marean, C. W., Frey, C. 1998. Bone Density and Long Bone Representation in Archaeological Faunas: Comparing Results from CT and Photon Densitometry. Journal of Archaeological Science, 25, p. 559-570. Lam, Y. M., Pearson, O. M. 2003. Bone Density Studies and the Interpretation of the Faunal Record. Evolutionary Anthropol- ogy, 14, p. 99-108. Laws, R. M. 1966. Age Criteria for the African Elephant Loxodonta a. Africana. East African Wildlife Journal, 4, p. 1-37. ISSN 0235-3490 (Print), ISSN 2616-499X (Online). Археологія, 2024, № 2 49 Lister, A. M. 1996. Sexual Dimorphism in the Mammoth Pelvis: An Aid to Gender Determination. In: Shoshani, J., Tassy, P. (eds.). The Proboscidea. Oxford: Oxford University Press, p. 254-259. Lister, A. M. 1999. Epiphyseal Fusion and Postcranial Age Determination in the Woolly Mammoth, Mammuthus primigenius (Blum.). Deinsea, 6, p. 79-88. Lister, A. 2009. Late-glacial Mammoth Skeletons (Mammuthus primigenius) from Condover (Shropshire, UK): Anatomy, Pa- thology, Taphonomy and Chronological Significance. Geological Journal, 44, p. 447-479. Lyman, R. L. 1994. Vertebrate Taphonomy. Cambridge: Cambridge University Press. Lyman, R. L. 2008. Quantitative Paleozoology. New-York: Cambridge University Press. Metcalfe, D., Jones, K. 1988. A Reconsideration of Animal Body Part Utility Indices. American Antiquity, 53, p. 486-504. Miller, F. L. 1972. Eruption and Attrition of Mandibular Teeth in Barren-ground Caribou. Journal of Wildlife Management, 36 (2), p. 606-612. Miller, F. L. 1974. Biology of the Kaminuriak Population of Barren Ground Caribou. Part 2. Dentition as an Indicator of Age and Sex; Composition andSocialization of the Population. Ottawa: Canadian Wildlife Service Reports. Noiret, P. 2007. Le Gravettien de Moldavie (30 000—23 000 BP), Spécial Table ronde (1ère partie): le Gravettien : entités régionales d’une paléoculture européenne, Les Eyzies, juillet 2004. PALEO, 19, p. 159-180. Noiret, P. 2009. Le Paléolithique supérieur de la Moldavie. Essai de synthèse d’une évolution multi-culturelle. ERAUL, 121. Liège: Université de Liège. Nuzhnyi, D. Yu, 2009. The Industrial Variability of the Eastern Gravettian Assemblages of Ukraine. Quärtar, 56, p. 159-174. Osborn, H. F. 1942. Proboscidea: A Monograph of the Discovery, Evolution, Migration and Extinction of the Mastodonts and Elephants of the World. Vol. II: Stegodontoidea, Elephantoidea, New York: American Museum of Natural History, , p. 805-1675. Otte, M., Noiret, P., Chirica, V., Borziak, I. 1996. Rythme évolutif du Gravettien oriental. In: Palma di Cesnola, A., Mon- tet-White, A., Valoch, K. (eds.). XIII Congrès International d’U.I.S.P.P., Section 6: The Upper Palaeolithic. Colloquim XII. The Origin of the Gravettian. Forli (b. v.), p. 213-226. Păunescu, A. 1998. Paleoliticul și epipaleoliticul de pe teritoriul Moldovei cuprins între Carpați și Siret. București: Editura Satya Sai. Połtowicz-Bobak, M., Kulakovska, L., Łanczont, M., Bobak, D., Demay, L., Kononenko, O., Lemanik, A., Mroczek, P., Nadachowski, A., Standzikowski, K., Usik, V. 2022. The Gravettian Occupation in the Middle Dniester River Valley (Ukraine) during the Last Glacial Maximum – A Case Study: The Doroshivtsi III Site. Antiquity, 96 (388), p. 998-1007. Popiuk, Y. 2014. Paleoenvironmental Malakofaunistic Records of Late Pleniglacial on the Upper Paleolithic Site Doroshivtsi 3 (the Middle Dniester Basin). In: Mindrescu, M. and Gradinaru, I. (eds.). Late Pleistocene and Holocene Climatic Variabil- ity in the Carpathian – Balkan Region 2014, Suceava: Ştefan Cel Mare University Press, p. 145-148. Poplin, F. 1976. Remarques théoriques et pratiques sur les unités utilisées dans les études d’ostéologie quantitative, particulièrement en archéologie préhistorique. IXe Congrès UISPP, 13—18 septembre 1976, Nice, Thèmes spécialisés, B, Problèmes ethnographiques des vestiges osseux, CNRS, Bulletin signalétique, 31 (2), p. 124-141. Shoshani, J., Tassy, P. (eds.) 1996. The Proboscidea: Evolution and Palaeoecology of Elephants and Their Relatives. Oxford: Oxford University Press. Siegfried, P. 1959. Das Mammut von Ahlen, Mammonteus primigenius Blumenb. Palaeontologische Zeitschrift, 33 (3), p. 172- 184. Stiner, M. C. 1990. The Use of Mortality Patterns in Archaeological Studies of Hominid Predatory Adaptations. Journal of Anthropological Archaeology, 9, p. 305-351. Toepfer, V. 1957. Die Mammutfunde von Pfännerhall im Geiseltal. Veröffentlichungen des Landesmuseums für Vorgeschichte in Halle Heft, 16, p. 1-58. Vaufrey, R. 1955. Proboscidiens fossiles. Traité de zoologie, 17, Grassé, Paris Masson, p. 784-875. Ziegler, R. 1994. Das Mammut (Mammuthus primigenius Blumenbach) von Siegsdorf bei Traunstein (Bayern) und seine Begleitfauna. Münchner Geowissenschaftliche Abhandlungen, 26, p. 49-80. Ziegler, R. 2001. An Extraordinary Small Mammoth (Mammuthus primigenius) from SW Germany. Geologie und Palaontologie. Stuttgarter Beitrage zur Naturkunde Series, B 300, p. 1-41. ICZN 1999. International Code of Zoological Nomenclature. (4e ed.). London: International Trust for Zoological Nomen- clature.