Masters degrees in Archaeological Science

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We offer unique Archaeological Science Masters courses that are intended for archaeologists or scientists. The courses are holistic, providing a detailed grounding in the theory and practical experience across all the major applications of science in archaeology.

The Master of Science (1 year) and Master of Studies (9 months) course in Archaeological Science are intended for those who wish to undertake research in archaeological science, or archaeologists who intend to pursue a career in the management of archaeological projects or become policy makers in this area and would like to have a sound understanding of the potential of science to elucidate archaeological problems. The MSc degree also provides key training for doctoral research.

Applicants may have either an archaeological or science degree, and it is advantageous to have some knowledge of both subjects.

The Edward Hall Memorial Fund provides bursaries (typically around £4000) for MSc students. All applicants are automatically considered and these are awarded on academic merit.

Course Director: Associate Professor Victoria Smith


Structure and assessment of MSt and MSc

All students are assigned academic advisors (supervisors) at the start of the course to provide general advice on the course. Your advisor/supervisor is not necessarily your research project supervisor, they will be assigned once you have selected a research project in Hilary term (January-February).

Most students take all three Archaeological Science modules listed below, but it is possible, with the permission of the School of Archaeology's Graduate Studies Committee, to substitute one of the Archaeological Science modules for one of the Schedule B options from either the MSt in Archaeology or the MSt in Classical Archaeology.  In addition, all MSt and MSc candidates will be required to submit a pre-set essay of either 5k or 10k words at the beginning of Trinity Term as well as a 5,000 word project (MSt) or 20,000 word dissertation (MSc) towards the end of their course.

The Archaeological Science options run for the first two terms, Michaelmas and Hilary. The teaching in these options is through a combination of lectures, classes and laboratory sessions requiring regular written work, and is supplemented by a range of graduate seminars. The course benefits from the small size of the cohort (usually about eight, including both MSt and MSc), allowing many opportunities for student contribution. Class presentations are also required, providing valuable experience and the opportunity for feedback from your peers. Each option has a co-ordinator who will be responsible for arranging the teaching within that option.

The two structural options are summarised below:

Option 1

M.St./M.Sc. Archaeological Science Option 1

Option 2

M.St./M.Sc. Archaeological Science Option 2

Useful documents/links

The above links will take you to the most current documents which will be updated throughout the course of the academic year. 

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Scientific analysis of archaeological materials can uncover networks of exchange, reconstruct technological processes, and identify cultural choices and behaviours that are otherwise inaccessible to the archaeologist. This course provides students with a strong understanding of the potential uses and limitations of these methods, with an emphasis on how they help address questions about the human past. Lectures in the first part of the course will focus on methodological approaches to analysing common archaeological materials, covering the fundamentals of material structure, raw materials, and production processes. The second part of the course is organized in discussion-based seminars that centre on key archaeological themes, such as craft production, innovation, and culture contact. These seminars cover both the theoretical approaches to these issues and the ways that materials science can contribute to these discussions. Weekly practicals include both hands-on experimental archaeology sessions and lab-based exercises aimed at introducing various methods of materials analysis. These sessions help students think about how ancient people transformed and manipulated materials, and how those behaviours are translated to the archaeological record.

 

Coordinator: Dr Nathaniel Erb-Satullo

Scientific methods are playing an increasingly important role in archaeological research, and this is particularly true of organic materials. Developments in the analysis of stable isotopes, lipid residues, trace elements and ancient DNA are providing new lines of evidence for a host of central questions, including past subsistence and environmental change, migration and genetic origins. This course provides a detailed, critical overview of these topics, both in terms of the techniques themselves, and their archaeological applications. More traditional bioarchaeological analysis of human, faunal, and plant remains also feature. The course includes a strong practical component, with a series of laboratory-based practicals. It makes use of the ongoing research of both members of staff and research students to present the latest approaches.

 

Coordinator: Associate Professor Rick Schulting

We need to be able to put past events onto a timescale if we are to understand them properly. Scientific dating allows us to explore the relationship between different sites and regions. Furthermore, chronologies built up from dating and other evidence enable us to understand processes at work in the archaeological record. This course looks at the scientific dating methods most commonly applied, including the practical aspects of radiocarbon, luminescence, tephrochronology and dendrochronology. It also provides an introduction to the use of statistical methods for combination of information from direct dating and other archaeological information. There is a strong emphasis on the critical evaluation of dating evidence.

 

Coordinator: Professor Christopher Ramsey

Cities and Ceramics: Exploring pottery production processes in the Danelaw

Distinction through Diet: Assessing the evidence for consumption at late Anglo-Saxon estate centres.

Early farming in the NW Levant: Critically assess the plant remains assemblage from neolithic Ras Shamra (NW Syria).

Discuss how recent developments in the identification of palm (Arecaceae) phytoliths can been applied to archaeological and palaeoecological problems

Whatever happened to the steel age? Looking at the role of steel in the adoption of iron in the Levant

Advancements in Radiocarbon Dating and Their Implications for Human Evolution

Something Blue: Pigment Composition Analysis, History, and the Development of Pyrotechnologies in the Old and New World

Genetic Factors in Understanding the Domestication of Millet across Eurasia

Two Strands Are Not Better Than One: Exploring the Progression of Ancient DNA Sequencing Strategies

The Devil is in the Details: aDNA analyses and chronological integration

How has luminescence dating aided in our quest to find the origins of the Clovis culture, and how can new advances further this?

How reliable is strontium isotope ratio analysis in investigating past human mobility in Mesoamerica?

"The Development of Next Generation Sequencing Technologies and its Applications to the Understanding and Tracking of Ancient Pathogens"

Animal to Script - Provenancing Medieval Manuscripts and New Methods for Retrieving Biological Data from Parchment

Developing the use of supercritical fluids for the characterising Andean colourants and pretreatment of dyed textiles for radiocarbon dating.

An aDNA Analysis of Early "Domestic" Cats in Britain

A Combined Approach of ZooMS Faunal Identification and Stable Isotope Analysis to the Diet and Chronology of Palaeolithic Hominins at Vindija cave, Croatia.

A Framework for the Study of “Mercury Jars” and Other Stoneware from the Temasek Period of Singapore, alongside 12th-Century Stoneware from Kota Cina, Sumatra

The influence of seasonality on radiocarbon dates: investigating an offset with the calibration curve during the medieval period in England.

An investigation into climatic and Paleoenvironmental change across the Late Pleistocene to Early Holocene transition in Lesotho, Southern Africa, through the use of Stable Carbon and Oxygen isotopes.

Divine Provenance: An investigation into the procurement of obsidian during the Late Bronze Age and Early Iron Age at the site of Mtsvane Gora, eastern Georgia.

Exploring the potential use of the CERN Medipix 3 chip as a particle camera for dose rate measurements in luminescence dating 

Sedimentological and geochemical soil analysis of Lazaret Cave to determine post-depositional effects on organic molecule preservation

Stable isotope analyses of oxygen-18 in bone collagen as a means of determining mobility during the Neolithic and Early Bronze Age at Baikal

Molecular clocks and domestication, using rabbits as a model organism.

Must the pot be destroyed? A comparison of approaches to organic residue extraction from ceramic fabrics

* continued or returned to do a doctoral degree in the School of Archaeology, Oxford

Bazgir, B., Ollé, A., Tumung, L., *Becerra-Valdivia, L., Douka, K., Higham, T., van der Made, J., Picin, A., Saladié, P., López-García, J., Blain, H., Allué, E., Fernández-García, M., Rey-Rodríguez, I., Arceredillo, D., Bahrololoumi, F., Azimi, M., Otte, M. and Carbonell, E. 2017. Understanding the emergence of modern humans and the disappearance of Neanderthals: Insights from Kaldar Cave (Khorramabad Valley, Western Iran). Scientific Reports 7: e43460.

 

*Becerra-Valdivia, L., Douka, K., Comeskey, D., Bazgir, B., Conard, N.J., Marean, C.W., Ollé, A., Otte, M., Tumung, L., Zeidi, M. and Higham, T.F.G. 2017. Chronometric investigations of the Middle to Upper Paleolithic transition in the Zagros Mountains using AMS radiocarbon dating and Bayesian age modelling. Journal of Human Evolution 109: 57-69.

 

Devièse, T., Karavanić, I., Comeskey, D., Kubiak, C., Korlević, P., Hajdinjak, M., Radović, S., Procopio, N., Buckley, M., Pääbo, S. and Higham, T. 2017. Direct dating of Neanderthal remains from the site of Vindija Cave and implications for the Middle to Upper Paleolithic transition. Proceedings of the National Academy of Sciences, doi: 10.1073/pnas.1709235114

 

*Matin, M. and Pollard, A.M. 2017. From ore to pigment: a description of the minerals and an experimental study of cobalt ore processing from the Kashan mine, Iran. Archaeometry 59(4): 731–746.

 

Schulting, R.J., *Vaiglova, P., Crozier, R. and Reimer, P.J. 2017. Further isotopic evidence for seaweed-eating sheep from Neolithic Orkney. Journal of Archaeological Science: Reports 11: 463–470.

 

*Brown, S., Higham, T.F.G., Slon, V., Pääbo, S., Meyer, M., Douka, K., Brock, F., Comeskey, D., Procopio, N., Shunkov, M., Derevianko, A. and Buckley, M. 2016. Identification of a new hominin bone from Denisova Cave, Siberia using collagen fingerprinting and mitochondrial DNA analysis. Scientific Reports 6: e23559.

 

*Hopkins, R., Snoeck, C. and Higham, T.F.G. 2016. When dental enamel is put to the acid test: pretreatment effects and radiocarbon dating. Radiocarbon 58(4): 893-904.

 

*Hood, A.G.E. and Schwenninger, J.-L. 2015. The minimum extraction technique: A new sampling methodology for optically stimulated luminescence dating of museum ceramics. Quaternary Geochronology 30: 381-385.

 

*Irving-Pease, E. K., Frantz, L. A. F., Sykes, N., Callou, C., & Larson, G. (2018). Rabbits and the Specious Origins of Domestication. Trends in Ecology & Evolution 33(3): 149–152.

 

*Liu, R., Bray, P.J., Pollard, A.M. and Hommel, P. 2015. Chemical analysis of ancient Chinese copper-based objects: Past, present and future. Archaeological Research in Asia 3: 1-8.

 

*Loftus, E., Stewart, B.A., Dewar, G. and Lee-Thorp, J.A. 2015. Stable isotope evidence of late MIS 3 to middle Holocene palaeoenvironments from Sehonghong Rockshelter, eastern Lesotho. Journal of Quaternary Science 39(8): 805–816.

 

*Matin, M. and Pollard, A.M. 2015. Historical accounts of cobalt ore processing from the Kashan mine, Iran. Iran: Journal of the British Institute of Persian Studies 53: 171-183.

 

*Roberts, P., Henshilwood, C.S., van Niekerk, K.L., Keene, P., Gledhill, A., Reynard, J., Badenhorst, S. and Lee-Thorp, J. 2016. Climate, environment and early human innovation: Stable isotope and faunal proxy evidence from archaeological sites (98-59ka) in the southern Cape, South Africa. PLoS ONE 11(7): e0157408.

 

*Santana-Sagredo, F., Lee-Thorp, J.A., Schulting, R.J. and Uribe, M. 2015. Isotopic evidence for divergent diets and mobility patterns in the Atacama Desert during the Late Intermediate Period (AD 900–1450). American Journal of Physical Anthropology 156(3): 374-387.

 

*Snoeck, C., Brock, F. and Schulting, R.J. 2014. Carbon exchanges between bone apatite and fuels during cremation: impact on radiocarbon dates. Radiocarbon 56(2): 591-602.

 

*Snoeck, C., Lee-Thorp, J.A. and Schulting, R.J. 2014. From bone to ash: compositional and structural studies of burned bone. Palaeogeography Palaeoclimatology Palaeoecology 416: 55-68.

 

*Vaiglova, P., Bogaard, A., Collins, M.J., Cavanagh, W., Mee, C., Renard, J., Lamb, A., Gardeisen, A. and Fraser, R.A. 2014. An integrated stable isotope study of plants and animals from Kouphovouno, southern Greece: a new look at Neolithic farming. Journal of Archaeological Science 42: 201-215.

 

*Wood, R.E., Higham, T., Buzilhova, A., Surorov, A., Heinemeier, J. and Olsen, J. 2013. Freshwater radiocarbon reservoir effects at the burial ground of Minino, northwest Russia. Radiocarbon 55(1): 163-177.

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