- Department of Cultures, Archaeology
FI-00014 University of Helsinki
Finland
https://blogs.helsinki.fi/elisabethholmqvist/
Elisabeth Holmqvist-Sipilä
University of Helsinki, Archaeology, Faculty Member
- Archaeometry, Ceramic Analysis (Archaeology), Ceramic Technology, Islamic pottery, Pottery (Archaeology), Medieval Pottery, and 29 moreByzantine Pottery, Roman Pottery, Neolithic Europe, Scanning Electron Microscopy, Archaeological Science, portable XRF (PXRF) in Archaeology and Museum Science, X-Ray Fluorescence (XRF) Spectroscopy, Glass, Geoarchaeology, Near Eastern Archaeology, Archaeological Method & Theory, Material Culture Studies, Corded Ware Culture, Archaeological Chemistry, Late Antique and Byzantine Studies, Byzantine Archaeology, Ceramic Glaze Technology, Late Antique Archaeology, Early Medieval Scotland, Viking Age, Viking Age Archaeology, Material Culture of the Viking age, Viking Age Scandinavia, Ceramics (Archaeology), Metallurgy, Early Islamic Archaeology, Archaeology of Jordan, Archaeology of Ancient Israel, and Byzantine history and archaeologyedit
Lyijylasitetut punasaviastiat olivat aikansa muoti-ilmiö, niitä kaupattiin laajalti Itämeren alueella ja niiden suosio käyttöastioina jatkui pitkään. Lyijylasite oli melko edullinen teknologinen innovaatio, joka teki astioista näyttävän... more
Lyijylasitetut punasaviastiat olivat aikansa muoti-ilmiö, niitä kaupattiin laajalti Itämeren alueella ja niiden suosio käyttöastioina jatkui pitkään. Lyijylasite oli melko edullinen teknologinen innovaatio, joka teki astioista näyttävän kiiltäväpintaisia ja vedenpitäviä. Ensimmäiset Suomen alueelle saapuneet lyijylasitetut saviastiat olivat skandinaavista ja mannereurooppalaista tuontia. Kotimainen lyijylasitetun punasavikeramiikan valmistus alkoi Turussa 1400–1500-luvuilla. Arkeologisten esinelöytöjen lasitteita on tutkittu Suomessa vähän. Tässä artikkelissa lasitteiden tutkimuspotentiaalia tuodaan esiin tarkastelemalla varhaisen lasiteteknologian kehitystä Suomenlahden molemmin puolin, Tallinnassa ja Turussa valmistetuissa astioissa. Tulokset pohjautuvat hankkeeseen, jossa lasitteiden ominaispiirteitä tutkittiin 24 keramiikkaesineestä, jotka ovat löytyneet Tallinnan, Turun ja Helsingin alueiden 1300–1600-lukujen konteksteista. Lasitteiden kemiallista koostumusta, rakennetta ja applikaatiotapoja tutkittiin elektronimikroskoopilla ja siihen liitetyllä alkuaineanalysaattorilla. Huomattavaa Tallinnan ja Turun varhaisessa lasitevalmistuksessa on suuri teknologinen variaatio, standardoitujen valmistuskäytäntöjen puute ja valmistuslapsukset. Varhaiset lasiteteknologiat Suomenlahden rannikoilla pyrkivät hyödyntämään kansainvälistä menestysreseptiä, mutta lasitteissa on nähtävissä merkkejä myös uuden teknologian soveltamisen haasteista.
Research Interests:
Sodankylän Juikentän arkeologista kohdetta on tutkittu 1960-luvulta nykypäivään. Kohde tunnetaan keskiaikaisena ja uuden ajan alun saamelaisten asuin-ja palvontapaikkana. Kohteen uhrikerrostumasta löytyneiden kupari-ja rautapohjaisten... more
Sodankylän Juikentän arkeologista kohdetta on tutkittu 1960-luvulta nykypäivään. Kohde tunnetaan keskiaikaisena ja uuden ajan alun saamelaisten asuin-ja palvontapaikkana. Kohteen uhrikerrostumasta löytyneiden kupari-ja rautapohjaisten esineiden alkuainepitoisuuksia selvitettiin kajoamattomalla röntgenfluoresenssianalyysillä (pXRF). Esineiden typologinen ja koostumuksellinen diversiteetti kertoo aluetta käyttäneen yhteisön resursseista, kauppasuhteista ja uhrikäytännöistä.
We present geochemical data of soils sampled from two Late Iron Age (A.D. 550-1050) buildings at Bartsgårda on the Åland Islands, Finland. The houses had different constructions and use-patterns, one being an intensively used dwelling... more
We present geochemical data of soils sampled from two Late Iron Age (A.D. 550-1050) buildings at Bartsgårda on the Åland Islands, Finland. The houses had different constructions and use-patterns, one being an intensively used dwelling house, rich in finds, whereas the other, scarce in finds, had a more specialized character, linked to ceremonial rather than domestic activities. Systematic and targeted feature sampling was carried out to analyze 190 samples using energy dispersive X-ray fluorescence spectrometry (ED-XRF) to 1) identify floor/activity levels in the houses based on vertical and horizontal geochemical anomalies; 2) compare the anthropogenic activity signals of the buildings; and, 3) test a rapid and cost-efficient ex situ analytical strategy for geochemical characterization of archaeological soils. Although the long-term use of the site as a livestock paddock introduced some complexities, based on the geochemical and micromorphological data, the houses had several activity levels and markedly different anthropogenic profiles.
Research Interests:
Scientific ceramic analyses applied in material characterisation of archaeological ceramics can offer unique insights to past resources, technologies, practices, and networks. Scientific ceramic data is generally acquired to approach... more
Scientific ceramic analyses applied in material characterisation of archaeological ceramics can offer unique insights to past resources, technologies, practices, and networks. Scientific ceramic data is generally acquired to approach research questions such as where and how artefacts or materials were manufactured, for what purpose, and when? For instance, ceramic evidence can inform us about technological choices made by individual potters, reveal communal-level organisation of resources, and interregional exchange and mobility. This article reviews scientific studies of archaeological ceramics carried out at the University of Helsinki since the 1990s and discusses the challenges and potential of scientific pottery analysis in archaeology today.
Research Interests:
Research Interests:
Ceramic recycling, that is, using discarded ceramics as raw materials in manufacturing, occurs sporadically in ceramic technologies worldwide. Adding pre-fired, crushed ceramic fragments, known as grog or chamotte, to clay can improve the... more
Ceramic recycling, that is, using discarded ceramics as
raw materials in manufacturing, occurs sporadically in
ceramic technologies worldwide. Adding pre-fired,
crushed ceramic fragments, known as grog or
chamotte, to clay can improve the manufacturing process
and product performance (e.g., thermal-shock
resistance). In ethnographic ceramic traditions, ceramic
recycling also conveys various social meanings relating
to identity, kinship and ancestry. However, ‘foreign’-
origin grog complicates scientific provenancing of
archaeological ceramic fabrics. This study investigates
the geochemical discrimination of grog and grogtempered
Corded Ware Culture pottery (c.2900–
2300 BCE), and the possible social signals produced by
ceramic recycling in the Baltic Sea region.
raw materials in manufacturing, occurs sporadically in
ceramic technologies worldwide. Adding pre-fired,
crushed ceramic fragments, known as grog or
chamotte, to clay can improve the manufacturing process
and product performance (e.g., thermal-shock
resistance). In ethnographic ceramic traditions, ceramic
recycling also conveys various social meanings relating
to identity, kinship and ancestry. However, ‘foreign’-
origin grog complicates scientific provenancing of
archaeological ceramic fabrics. This study investigates
the geochemical discrimination of grog and grogtempered
Corded Ware Culture pottery (c.2900–
2300 BCE), and the possible social signals produced by
ceramic recycling in the Baltic Sea region.
Research Interests:
Over 120 prehistoric pottery sherds from mainland Finland and the Åland Islands in the north Baltic region were studied for their organic residue content. Preserved fat residues found in these vessels indicated that the food procurement... more
Over 120 prehistoric pottery sherds from mainland Finland and the Åland Islands in the north Baltic region were studied for their organic residue content. Preserved fat residues found in these vessels indicated
that the food procurement pattern was broad during the Neolithic and Early Metal periods. Based on previous research and these results, it appears that animal husbandry came to Finland with the Corded Ware culture. Groups using the succeeding Late Neolithic Kiukainen Ware did not, however, practice animal husbandry to any great extent, as there is an indication of dairy fats in only a single sherd. In general, even after dairy farming arrived in the area, prehistoric groups in southern and
south-western Finland continued or returned to a hunter-gatherer lifestyle. During the Early Metal period, animal husbandry increased in importance among the groups living in the area, and the level of
dairying then intensified.
that the food procurement pattern was broad during the Neolithic and Early Metal periods. Based on previous research and these results, it appears that animal husbandry came to Finland with the Corded Ware culture. Groups using the succeeding Late Neolithic Kiukainen Ware did not, however, practice animal husbandry to any great extent, as there is an indication of dairy fats in only a single sherd. In general, even after dairy farming arrived in the area, prehistoric groups in southern and
south-western Finland continued or returned to a hunter-gatherer lifestyle. During the Early Metal period, animal husbandry increased in importance among the groups living in the area, and the level of
dairying then intensified.
Research Interests: Archaeology, Near Eastern Archaeology, Late Antique and Byzantine Studies, Pottery (Archaeology), Ceramic Technology, and 13 moreArchaeological Science, Archaeometry, Byzantine Archaeology, Ceramic Analysis (Archaeology), Ancient Near East, Ceramics (Archaeology), Early Islamic Archaeology, Byzantine Pottery, Islamic pottery, Provenance studies of archaeological material, Ancient Near Eastern History, Pottery technology and function, and Pottery studies
Research Interests: Archaeology, Near Eastern Archaeology, Late Antique and Byzantine Studies, Pottery (Archaeology), Ceramic Technology, and 14 moreArchaeological Science, Archaeometry, Byzantine Archaeology, Ceramic Analysis (Archaeology), Ancient Near East, Ceramics (Archaeology), Early Islamic Archaeology, Ancient Near East (Archaeology), Byzantine Pottery, Islamic pottery, Provenance studies of archaeological material, Ancient Near Eastern History, Pottery technology and function, and Pottery studies
In recent years, a multi-method research environment for materials science artefact studies has been established at the University of Helsinki. A variety of inorganic archaeological materials, including ceramics, plasters, glass, glazes,... more
In recent years, a multi-method research environment for materials science artefact studies has been established at the University of Helsinki. A variety of inorganic archaeological
materials, including ceramics, plasters, glass, glazes, metals, and sediment samples, has been subjected to archaeometric examinations and geochemical analysis by employing different analytical techniques, such as scanning electron microscopy with energy dispersive spectrometry (SEM-EDS), particle induced X-ray emission (PIXE), and portable X-ray fluorescence
spectrometry (pXRF). The analysed materials derive from archaeological contexts both in Finland and abroad, and the analytical work relates to various multi-disciplinary national
and international collaborative projects. Foreign materials, especially from Sweden and Estonia, have been sampled as comparanda for Finnish archaeological finds to carry out interregional comparative analyses for artefact provenancing purposes. The nature of these geochemical studies varies from multi-site provenance-driven investigations to rapid qualitative tests of stray and metal detector finds. This article offers an overview of the archaeological results and the recent methodological developments in archaeometric artefact studies at the University of Helsinki.
materials, including ceramics, plasters, glass, glazes, metals, and sediment samples, has been subjected to archaeometric examinations and geochemical analysis by employing different analytical techniques, such as scanning electron microscopy with energy dispersive spectrometry (SEM-EDS), particle induced X-ray emission (PIXE), and portable X-ray fluorescence
spectrometry (pXRF). The analysed materials derive from archaeological contexts both in Finland and abroad, and the analytical work relates to various multi-disciplinary national
and international collaborative projects. Foreign materials, especially from Sweden and Estonia, have been sampled as comparanda for Finnish archaeological finds to carry out interregional comparative analyses for artefact provenancing purposes. The nature of these geochemical studies varies from multi-site provenance-driven investigations to rapid qualitative tests of stray and metal detector finds. This article offers an overview of the archaeological results and the recent methodological developments in archaeometric artefact studies at the University of Helsinki.
The medieval village site of Gubbacka is situated in the today's Vantaa, Finland. Archaeological investigations were conducted at the site in 2002–2003 and 2008–2010. The aim of this paper is to explore the social and trade contacts and... more
The medieval village site of Gubbacka is situated in the today's Vantaa, Finland. Archaeological investigations were conducted at the site in 2002–2003 and 2008–2010. The aim of this paper is to explore the social and trade contacts and networks the rural inhabitants of Gubbacka had within the Baltic Sea region. In order to examine how these relationships are reflected in the ceramic materials from the site, redware sherds were sampled for micro-structural and compositional characterization by a scanning electron microscope with an energy dispersive spectrometer (SEM-EDS) to study their provenance and technological properties. In addition, redwares from a nearby site Mankby and Tallinn were included in this study as regional and interregional parallels to examine possible shared origins of the pots and technological applications in redware manufacture. Redware is a very common archaeological find material in late medieval contexts, but rather difficult to investigate: the products of the different north European manufacturing centres are practically impossible to distinguish with the naked eye, and even the dating of redware finds is problematic. Hence, this study aims to offer new perspectives for the study of redwares, their technologies and distribution networks in northern Europe.