Cambridge University Press 978-1-108-49206-5 — Palaeolithic Europe Jennifer C

Total Page:16

File Type:pdf, Size:1020Kb

Cambridge University Press 978-1-108-49206-5 — Palaeolithic Europe Jennifer C Cambridge University Press 978-1-108-49206-5 — Palaeolithic Europe Jennifer C. French Index More Information INDEX !Kung. See Ju/’hoansi Barranc de la Boella, 94, 116 Barranco León, 94, 100, 102, 105, 106 Abri Blanchard, 182 Basal metabolic rate, 207 Abri Pataud, 204 Base camp, 112, 249 Abric Romaní, 152 Batak, 50 Accidents, 10, 80, 82, 84, 157, 158, 162, 203, 209, Beeches Pit, 125 253, 263 Behavioural modernity, 15, 180, 181, 182, 200, 213 Acculturation, 175, 190–1 Bilzingsleben, 111, 125 Ache, 50, 53, 55, 58, 62, 63, 70, 72, 74, 75, 77, 80, 82 Binford’s group size model, 6, 26, 60–1, 153, 154 Acheulean, 15, 93, 115–20, 130, 131 Birth seasonality, 125, 208, 212 Admixture, 19, 42–2, 44, 115, 166, 199, 204 Birth synchronicity, 125, 212 Adolescents/teenagers, 80, 122, 154, 240 Bogatyri/Sinyaya Balka, 100 Age at first birth, 66, 164, 208 Bohunician, 175, 183, 185, See also Initial Upper Age-at-death distributions, 33, 34, 35–7, 121–3, Palaeolithic 155–6, 262 Bois de Riquet/Lézignan-la-Cèbe, 100 Aggregation sites, 150, 228, 250–2 Boker Tachtit, 183 Agriculturalists, 50, 55, 61 Boserup, Ester, 19 Agta Boxgrove, 111, 127 Casiguran, 55, 58, 77 Brassempouy, 184 San Ildefonso, 50, 63, 73, 80 Breastfeeding, 68, 69, 207, 264 Ahmarian, 183, 184, 187 Brunhes-Matuyama, 100, 108 Alloparenting, 8, 108, 128, 132 Bruniquel, 152 Altai, 137, 166, 167, 168 Buhlen, 152 Alto de Picarazas, 100 Buran-Kaya III, 201 Apidima cave, 173, 175, 184 Burials, 155, 156, 183, 201–2, 203–4, 215, 218, 219, Architecture. See Structures 228, 244, 249, 252–4 Arene Candide, 252, 253, 254 Ariendorf, 125, 152 Cannibalism, 104, 159, 203, 254 Atapuerca, 92, 105, 106, 110, 120, 123, 126 Carrying capacity, 9, 32, 63, 102, 126, 146, 197, 254 Aurignacian, 47, 176–80, 181, 183–4, 186–8, 189, Caucasus, 86, 94, 118, 131, 147 190, 192, 195–6, 201, 210–11, 218, 228, 238, Caune de l’Arago, 111, 116, 129 239, 269 Cave bear, 192–3 Caviglione, 203 Babies, 12, 34, 36, 55–8, 67, 68, 69, 73, 75, 81, 82, Census population (Nc), 46, 102, 113, 147, 181, 269 84, 104, 122, 125, 155, 160, 161–2, 164, 202, Chagyrskaya Cave, 149 207, 252, 263, 264 Champ Grand, 148 Bacho Kiro, 175, 183, 184 Châtelperronian, 177, 184, 185–6, 191, See also Bachokirian, 175, 183, See also Initial Upper Transitional industries Palaeolithic Childbirth, 14, 75, 84, 124, 125, 161–2, 164, 204 Backload model, 67 Childcare, 38, 70, 75, 108, 212, 264, See also Badegoulian, 218, 219, 220, 229, 235, 238 Alloparenting Band, 59, 60 Children, 77, 82, 104, 107, 108, 120, 122, 124, 125, Baousso da Torre, 204 152, 154, 157, 158, 160, 165–8, 171, 202, 205, Barnham, 119 207, 251–2, 264 327 © in this web service Cambridge University Press www.cambridge.org Cambridge University Press 978-1-108-49206-5 — Palaeolithic Europe Jennifer C. French Index More Information 328 Index Cioclovina, 183, 203 Diseases, 10, 18, 39, 52, 74, 82, 84, 106, 159–60, 162, Clactonian, 118–19, 131, See also Lithic modes: 197, 203, 204, 263 Mode 1 Congenital abnormalities, 74, 124, 204 Cognitive group size, 39, 108 Sexually transmitted infections, 9, 73, 159 Cologne Protocol, 26–7, 195, 221, 223, 229, 230, Dispersal, 2, 52, 64, 93, 105, 119, 158, 173–5, 185, 232, 237, See also Settlement demography 187–8, 220, See also Migration Competitive exclusion, 197 Dmanisi, 93, 94, 100, 104, 107, 108 Conception, 69, 123, 125, 132, 264 DNA, 40, 43 Contemporaneity problem, 23, 28, 94, 183, 236 Ancient DNA (aDNA), 44–5, 148 Contraception, 50, 53, 67, 81, 264 Mitochondrial DNA (mtDNA), 40, 43, 147, Cranial capacity, 39, 107, 108, 122, 128, 130 153, 165–6, 167 Cro-Magnon, 201 Nuclear DNA, 40, 43, 146 Cueva del Boquete de Zafarraya, 159, 189 Dolní Vĕ stonice, 202, 203, 204, 205, 249 Cueva Negra del Estrecho del Río Quípar, Dual inheritance theory, 15, 20–3, 118, 181, 267, 94, 116 269 Cultural insulation, 162, 208, 264 Dwellings. See Structures Clothes, 161, 162 Fire, 125, 161, 230 Early Upper Palaeolithic, 173, 176, 181, 182, 187, Shelter, 152, 162, See also Rock-shelter, 195–6, 201, 202, 210–11, 213, 238–9, 261, 269, Structures See also Aurignacian Cultural scaffolding, 17 Ebb and flow model, 140 Cultural transmission, 20, 21, 22, 47, 86, 117–18, Ebro Frontier, 189 120, 191 Eemian (MIS 5e), 143–4 Culture Efe Pygmies, 53, 72 Definition in archaeology, 116, 117–18 Effective population (Ne), 42–2, 46, 102, 113, In HBE models, 65–7 146–7, 168, 269 Link with demography, 13, 15, 17, 22, 23, 47, El Sidrón, 153–4, 162, 163, 165–6, 209 150, 172, 181–2, 267 Encephalisation, 39, 128 Cumulative culture (cultural ratcheting), 20, 22, Endogamy, 166, 253 117–18 Energy budgets, 208, 210 Energy expenditure, 69, 71, 125, 207 Dansgaard-Oescheger (D/O) cycles, 134, 175, Epigravettian, 219–20, 229–38, 244–5, 246–9, 252 See also Greenland Interstadials, Greenland Ethnographic anology, 49, 50, 83 Stadials Ethnographically documented hunter-gatherers, 6, Danube, 118, 187–8 8, 9, 11, 15, 22, 27, 31, 149, 150, 153, 164, 193, Dating, 23, 28, 87–90, 94, 190, 197, 215 208, 215, 262, Chapter 3 Argon-Argon (Ar-Ar), 87 Extinction, 9, 85, 113, 196, 214, 268, 270 Biostratigraphy, 134 Carnivore, 193 Cosmogenic nuclide dating, 90 Neanderthal, 133, 140–1, 146, 147, 151, 164, Electron Spin Resonance, 87, 100 172–3, 182, 189–90, 194, 199, 208, 260 Palaeomagnetism, 90 Extirpation, 114, 119, 189, 233, 258, 266 Potassium-Argon (K-Ar), 87 Radiocarbon dating, 28–9, 182–3, 187, 189, 212, Fecundity, 249, See also Fertility 215 Female figurines, 218, 241, 242–4, 249 Uranium-Lead (U-Pb), 87 Fertility, 2–5, 8–9, 10, 13, 35–6, 39, 49, 53–5, 83–4, Demographic stochasticity, 18, 52, 60, 63, 129, 131, 108, 125, 127, 130, 132, 133, 140, 151, 163–8, 140, 151, 153, 198, 266, 267–8 172, 196, 206, 208, 209, 212, 256–7, 263, Demographic uniformitarianism, 6–8, 9, 23, 34, 264–5, See also Neanderthal:Fertility, Natural 36–7, 49, 63, 83, 121, 156, 202, 261–2, 269 Fertility Population Demography Comparison with agriculturalists, 50, 54–5 Definition, 2 Hunter-gatherers, 54, 67–73 Denisovans, 44, 166, 167–8, 199, 260 Total fertility rate, 53, 54, 164, 206 Dental enamel hypoplasias, 163, 205, 254 Fission-fusion dynamics, 52, 60 Dependency ratio, 123, 154 Fitness, 11, 18, 38, 64, 65, 67, 146, 157, 168, 172, Developmental stress, 160, 205, 254, See also 198–200, 266 Morbidity Forager population paradox, 8–10, 63, 73 Diet breadth, 32, 193, 197, 209, 255 Foragers. See Hunter-gatherers Diffusion, 188 Fournol, 203 © in this web service Cambridge University Press www.cambridge.org Cambridge University Press 978-1-108-49206-5 — Palaeolithic Europe Jennifer C. French Index More Information Index 329 Four-stage demographic model, 3, 259–61 Infanticide, 80, 81 Fuente Nueva, 100, 102, 105 Initial Upper Palaeolithic, 175, 183 Innovation, 20–1, 119, 120, 187, 191, 243, 267 Galerian migration hypothesis, 100 Inter birth interval (IBI), 39, 67, 108, 163, 208, 212 Gender, 209, 265 Interspecific competition Gender archaeology, 13, 14 Hominins, 190, 196, 197–200 Generation length, 12, 43 Hominins with carnivores, 102, 126, 144, 158, Genetics. See DNA 170, 192 Genetic diversity, 18, 40, 42–2, 43, 147, 159, Isernia la Pineta, 126, 127, 129 165, 167, 239, 258 Genetic drift, 2, 41, 42, 43, 146, 239, 240 Jarama VI, 189 Role in palaeodemography, 43 Jaramillo subchron, 90, 100 Gorham’s Cave, 189 Ju/’hoansi, 50, 62, 67, 68, 72–3, 74, 77, 81 Goyet, 159, 238–9 Gran Dolina, 92, 94, 104, 105, 106, 110, 111, 127, Kärlich, 125 See also Atapuerca Keilmessergruppen, 137, 149 Grandmother Hypothesis, 38, 70, 107 Kents Cavern, 184 Gravettian, 201, 218–19, 220, 221–9, 231–2, 238–9, Kermek, 100 240–1, 246–9 Klissoura Cave, 193, 194 Greenland Interstadials, 175, 176, 222 Kostenki, 182, 183, 188, 201, 226, Greenland Stadials, 175, 222 229, 248 Grey ceiling, 108, 128 Krapina, 155–6, 158, 159, 160 Grotta del Cavallo, 184 Ksar Akil, 183, 184 Grotta di Fumane, 148, 184 Kulturpumpe, 188 Grotte du Lazaret, 152, 159 Grotte du Renne (Arcy-sur-Cure), 184, 185, 186, 188 La Chapelle-aux-Saints, 162 Group size, 39, 59–61, 108, 113, 133, 153–4, 210, La Ferrassie, 159, 162 240, See also Binford’s group size model La Folie, 152 La Grande Vallée, 111 La Noira, 116 Hadza, 50, 58, 63, 70, 71, 72, 75, 77 La Quina-Aval, 183, 201 Handedness, 130–1 La Roche-à-Pierrot. See Saint-Césaire Happisburgh, 101, 105, 106 La Terre-des-Sablons/Lunery-Rosières, Health care, 162, 170 105 Heinrich Events, 134, 175 Lactation, 68, 69, 264 High latitudes Lagar Velho, 166 Challenges of living at, 16, 62, 124–5, 160, 228, Lakonis, 151 263, 266 Language, 1, 117, 130–1, 132 Hiwi, 58, 73, 77, 80, 82 Last Glacial Maximum, 214, 226, 229–34, 239–40, Homicide. See Violence 258 Homo Last Interglacial, 133, 139, See also Eemian antecessor, 92, 104, 106–7, 130 (MIS 5e) erectus, 92, 93–4, 107, 108, 120 Late Upper Palaeolithic. See also Epigravettian, heidelbergensis, 93, 114–15, 116, 128 Magdalenian, Chapter Seven neanderthalensis. See Neanderthals Le Rozel, 153, 154 sapiens, 7, 12, 18, 36, 38, 43, 122, Chapter Six, Les Pradelles, 159 Seven Les Rois, 183 Human behavioural ecology, 10–11, 63–7, 83 Levant, 173, 183, 184, 186 Hunting, 70–1, 80, 127, 143, 157, 197, 208, 209, 263 Libben, 37 Hybrids, 166–8 Life expectancy (longevity), 17, 38, 55, 56, 58, 107, Hypothermia, 125, 160–1 122, 128, 155, 156, 157, 202, 262 Life history Iberian Peninsula, 94, 101, 102, 105, 129, 186, 189, Homo antecessor, 107 222, 231, 237 Homo sapiens, 7, 38 Illnesses.
Recommended publications
  • Homo Sapiens Julie Arnaud [email protected] out of Africa 1 Homo Ergaster
    Laurea Magistrale in Quaternario, Preistoria e Archeologia International Master in Quaternary and Prehistory Homo sapiens Julie Arnaud [email protected] Out of Africa 1 Homo ergaster (Cavalli Sforza & Pievani, 2012) Out of Africa 2 Core population? Homo heidelbergensis (Cavalli Sforza & Pievani, 2012) Out of Africa 3 Homo sapiens (Cavalli Sforza & Pievani, 2012) Homo sapiens morphological features Day & Stringer (1982) (paleontological definition of the specie) • Short and elevated cranial vault • Long and curved parietal bones in the sagittal plan • High and wide biparietal vault in the coronal plan • Long and narrow occipital bone, without projection • Elevated frontal bone • Non-continuous supra-orbital complex • Presence of a canine fossa Vandermeersch (1981, 2005) • rounded cranial shape • large cranial capacity • decreased robustness (reduction/disappearance of superstructures) • elevated cranial vault, with parallel or divergent (upward) lateral walls • regularly rounded occipital bone • short face • teeth-size reduction tendency Homo erectus Homo sapiens Sangiran 17 Pataud 1 Short and rounded vault Elevated frontal bone Rounded occipital bone Reduced face, placed under the braincase Global decrease of robustness Elevated and convex frontal bone Reduced supra- orbital relief (separated elements) Reduced relief of nuchal Canine fossa lines Individualized and Dental crowns well developped reduced in size mastoid process (particularly anterior teeth) Mental foramen Marked chin located under the (mental trigone) premolar G: Glabella
    [Show full text]
  • 5 Years on Ice Age Europe Network Celebrates – Page 5
    network of heritage sites Magazine Issue 2 aPriL 2018 neanderthal rock art Latest research from spanish caves – page 6 Underground theatre British cave balances performances with conservation – page 16 Caves with ice age art get UnesCo Label germany’s swabian Jura awarded world heritage status – page 40 5 Years On ice age europe network celebrates – page 5 tewww.ice-age-europe.euLLING the STORY of iCe AGE PeoPLe in eUROPe anD eXPL ORING PLEISTOCene CULtURAL HERITAGE IntrOductIOn network of heritage sites welcome to the second edition of the ice age europe magazine! Ice Age europe Magazine – issue 2/2018 issn 2568­4353 after the successful launch last year we are happy to present editorial board the new issue, which is again brimming with exciting contri­ katrin hieke, gerd­Christian weniger, nick Powe butions. the magazine showcases the many activities taking Publication editing place in research and conservation, exhibition, education and katrin hieke communication at each of the ice age europe member sites. Layout and design Brightsea Creative, exeter, Uk; in addition, we are pleased to present two special guest Beate tebartz grafik Design, Düsseldorf, germany contributions: the first by Paul Pettitt, University of Durham, cover photo gives a brief overview of a groundbreaking discovery, which fashionable little sapiens © fumane Cave proved in february 2018 that the neanderthals were the first Inside front cover photo cave artists before modern humans. the second by nuria sanz, water bird – hohle fels © urmu, director of UnesCo in Mexico and general coor­­­di nator of the Photo: burkert ideenreich heaDs programme, reports on the new initiative for a serial transnational nomination of neanderthal sites as world heritage, for which this network laid the foundation.
    [Show full text]
  • Bibliography
    Bibliography Many books were read and researched in the compilation of Binford, L. R, 1983, Working at Archaeology. Academic Press, The Encyclopedic Dictionary of Archaeology: New York. Binford, L. R, and Binford, S. R (eds.), 1968, New Perspectives in American Museum of Natural History, 1993, The First Humans. Archaeology. Aldine, Chicago. HarperSanFrancisco, San Francisco. Braidwood, R 1.,1960, Archaeologists and What They Do. Franklin American Museum of Natural History, 1993, People of the Stone Watts, New York. Age. HarperSanFrancisco, San Francisco. Branigan, Keith (ed.), 1982, The Atlas ofArchaeology. St. Martin's, American Museum of Natural History, 1994, New World and Pacific New York. Civilizations. HarperSanFrancisco, San Francisco. Bray, w., and Tump, D., 1972, Penguin Dictionary ofArchaeology. American Museum of Natural History, 1994, Old World Civiliza­ Penguin, New York. tions. HarperSanFrancisco, San Francisco. Brennan, L., 1973, Beginner's Guide to Archaeology. Stackpole Ashmore, w., and Sharer, R. J., 1988, Discovering Our Past: A Brief Books, Harrisburg, PA. Introduction to Archaeology. Mayfield, Mountain View, CA. Broderick, M., and Morton, A. A., 1924, A Concise Dictionary of Atkinson, R J. C., 1985, Field Archaeology, 2d ed. Hyperion, New Egyptian Archaeology. Ares Publishers, Chicago. York. Brothwell, D., 1963, Digging Up Bones: The Excavation, Treatment Bacon, E. (ed.), 1976, The Great Archaeologists. Bobbs-Merrill, and Study ofHuman Skeletal Remains. British Museum, London. New York. Brothwell, D., and Higgs, E. (eds.), 1969, Science in Archaeology, Bahn, P., 1993, Collins Dictionary of Archaeology. ABC-CLIO, 2d ed. Thames and Hudson, London. Santa Barbara, CA. Budge, E. A. Wallis, 1929, The Rosetta Stone. Dover, New York. Bahn, P.
    [Show full text]
  • Kents Cavern
    This booklet tells you the history of Kents Cavern. Made by Visitors spend around 2 hours here. At Kents Cavern the reception is called the ticket desk. At the reception desk, you can 1. pay for things from the shop 2. buy your ticket 3. ask for help There is a café where you can buy food and drink. There is an accessible toilet. Kents Cavern is a cave. A cave is a hole in the ground that a person can fit inside. The staff at Kents Cavern will take you on a tour of the cave. At the start of the cave there is a light show. Kents Cavern is always the same temperature. It feels warm on cold days and cool on warm days. The stable temperature makes the cave a good place to live. Is the cave colder or hotter than the weather outside today? Stalactites The cave is made from Devonian Limestone rock, but the rocky formations are made from Calcite. The rocks hanging down from the ceiling are called stalactites. The rocks growing up from the floor are called stalagmites. Stalagmites They are formed by water dripping in the cave and crystals forming. The calcite makes strange shapes. Can you see the rock that looks like a face? A long time ago, people used to live in Kents Cavern. They were called Cave people. They would sleep, make tools and relax in the cave. When the cave people died here, they left their bones in the caves. Cave bears also lived in Kents Cavern. There is a skull in the waiting room that you can see.
    [Show full text]
  • Conservation Analytical Laboratory Research Reports 1993
    Conservation Analytical Laboratory Research Reports 1993 TABLE OF CONTENTS Statement by the Director Archaeometry New World Archaeology • The American Southwest • The Maya Region of Southern Mexico and Central America • Lower Central America Projects Old World Archaeology • Near Eastern Obsidian Exchange Program • Near Eastern Craft Production and Exchange Program • Archaeometric Characterization of Epigraphic and Iconographic Artifacts Materials Science and Ancient Technology Historical Archaeology Technical Studies in Art History Conservation Research The Biogeochemistry Program The Degradation Mechanisms of Traditional Artist's Materials Modern Polymeric Materials Natural History Specimen Preservation Photographic Science Program Analytical Services Group Staff Conservators Research Programs • Furniture • Paper • Paintings • Objects • Textiles CAL Interns and Fellows CAL Publications FY 1993 Statement by the Director Lambertus van Zelst, Director It is a pleasure to introduce this first issue of the CAL Annual Research Reports. This document is intended for the information of our colleagues in the fields of conservation, preservation, analytical and technological studies of cultural materials, as a reference to the research ongoing at CAL. By no means are these reports intended as an alternative to publication; they merely serve to record the nature of the various projects pursued by CAL researchers, together with an indication of actual progress in those projects. Research is major, but certainly not the only activity at CAL. Training and education, as well as various technical/analytical and information support activities, complement research, combining into an integrated environment where individual staff members contribute simultaneously in different functional areas. This report does not reflect these other activities, outside research. In the future, we expect to include those areas as well in what then will be an actual annual CAL report.
    [Show full text]
  • LETTER Doi:10.1038/Nature19365
    LETTER doi:10.1038/nature19365 1 Late Pleistocene climate drivers of early human 2 migration Axel Timmermann1,2 & Tobias Friedrich1 On the basis of fossil and archaeological data it has been (Fig. 1b–d) during the Late Pleistocene (126–11 thousand years ago hypothesized that the exodus of Homo sapiens out of Africa and into (ka)) and the Holocene (11–0 ka). Every ~21 thousand years decreased Eurasia between ~50–120 thousand years ago occurred in several precession (Fig. 1a) and corresponding higher boreal summer insola- orbitally paced migration episodes1–4. Crossing vegetated pluvial tion intensified rainfall in northern Africa, the Arabian Peninsula and corridors from northeastern Africa into the Arabian Peninsula the Levant8, thus generating habitable savannah-type corridors1,2 for and the Levant and expanding further into Eurasia, Australia H. sapiens and a possible exchange pathway between African and and the Americas, early H. sapiens experienced massive time- Eurasian populations, which in turn impacted the subsequent global varying climate and sea level conditions on a variety of timescales. dispersal pattern and gene flow of H. sapiens across Asia, Europe, Hitherto it has remained difficult to quantify the effect of glacial- Australia and into the Americas. and millennial-scale climate variability on early human dispersal Elucidating the response of H. sapiens dispersal to past climate shifts and evolution. Here we present results from a numerical human has been hindered by the sparseness of palaeoenvironmental data in dispersal model, which is forced by spatiotemporal estimates of key regions4 such as northeastern Africa, the Levant and the Arabian climate and sea level changes over the past 125 thousand years.
    [Show full text]
  • Initial Upper Palaeolithic Humans in Europe Had Recent Neanderthal Ancestry
    Article Initial Upper Palaeolithic humans in Europe had recent Neanderthal ancestry https://doi.org/10.1038/s41586-021-03335-3 Mateja Hajdinjak1,2 ✉, Fabrizio Mafessoni1, Laurits Skov1, Benjamin Vernot1, Alexander Hübner1,3, Qiaomei Fu4, Elena Essel1, Sarah Nagel1, Birgit Nickel1, Julia Richter1, Received: 7 July 2020 Oana Teodora Moldovan5,6, Silviu Constantin7,8, Elena Endarova9, Nikolay Zahariev10, Accepted: 5 February 2021 Rosen Spasov10, Frido Welker11,12, Geoff M. Smith11, Virginie Sinet-Mathiot11, Lindsey Paskulin13, Helen Fewlass11, Sahra Talamo11,14, Zeljko Rezek11,15, Svoboda Sirakova16, Nikolay Sirakov16, Published online: 7 April 2021 Shannon P. McPherron11, Tsenka Tsanova11, Jean-Jacques Hublin11,17, Benjamin M. Peter1, Open access Matthias Meyer1, Pontus Skoglund2, Janet Kelso1 & Svante Pääbo1 ✉ Check for updates Modern humans appeared in Europe by at least 45,000 years ago1–5, but the extent of their interactions with Neanderthals, who disappeared by about 40,000 years ago6, and their relationship to the broader expansion of modern humans outside Africa are poorly understood. Here we present genome-wide data from three individuals dated to between 45,930 and 42,580 years ago from Bacho Kiro Cave, Bulgaria1,2. They are the earliest Late Pleistocene modern humans known to have been recovered in Europe so far, and were found in association with an Initial Upper Palaeolithic artefact assemblage. Unlike two previously studied individuals of similar ages from Romania7 and Siberia8 who did not contribute detectably to later populations, these individuals are more closely related to present-day and ancient populations in East Asia and the Americas than to later west Eurasian populations. This indicates that they belonged to a modern human migration into Europe that was not previously known from the genetic record, and provides evidence that there was at least some continuity between the earliest modern humans in Europe and later people in Eurasia.
    [Show full text]
  • 2010 Conference
    1 2 Thursday 8th April Chair: Name 10.00-10.20 Ian Candy Sedimentology and Palaeoenvironments of the Wroxham Formation: The geological context of the earliest humans in Britain 10.20-10.40 Simon Parfitt, Simon Lewis Where the wild things are. New evidence for early & Nick Ashton humans from East Anglia and the North Sea 10.40-11.00 Simon Lewis et al. The Ancestral River Thames in Norfolk: palaeogeography and human presence 11.00-11.10 Questions Chair: Name 11.10-11.40 Coffee 11.40-12.00 Justin Dix and Fraser Sturt Submerged Early Middle Pleistocene Palaeo- landscapes of the Thames Estuary 12.00-12.20 Mike Field Recent work at Happisburgh Site 1 12.20-12.40 Richard Preece & Simon The age of the Middle Pleistocene succession in Parfitt Norfolk and its relevance for Palaeolithic archaeology 12.40-1.00 Kirsty Penkman Dating the early Palaeolithic: the new aminostratigraphy 1.00-1.10 Questions Chair: Name 1.10-2.10 Lunch 2.10-2.30 Andreu Ollé et al. Experimental knapping and butchery: replicating Boxgrove 2.30-2.50 Laura Basell Tony Brown, A mixed assemblage and fluvio-periglacial Phil Toms, Chris Norman & sedimentation at Doniford, North Somerset Rob Hosfield 2.50-3.10 Rob Hosfield & Nick Mapping the human record in the British early Ashton Palaeolithic: evidence from the Solent River system 3.10-3.20 Questions 3.20-3.50 Tea Chair: Name 3.50-4.10 Kathy MacDonald Environmental tolerances of the earliest occupants of Europe: a review of the Leiden workshop and implications for future research 4.10-4.30 Matt Pope Human tool using behaviour and
    [Show full text]
  • Neanderthals and the Modern Human Colonization of Europe
    review article Neanderthals and the modern human colonization of Europe Paul Mellars Department of Archaeology, Cambridge University, Downing Street, Cambridge, CB2 3DZ, UK ........................................................................................................................................................................................................................... The fate of the Neanderthal populations of Europe and western Asia has gripped the popular and scientific imaginations for the past century. Following at least 200,000 years of successful adaptation to the glacial climates of northwestern Eurasia, they disappeared abruptly between 30,000 and 40,000 years ago, to be replaced by populations all but identical to modern humans. Recent research suggests that the roots of this dramatic population replacement can be traced far back to events on another continent, with the appearance of distinctively modern human remains and artefacts in eastern and southern Africa. he most significant contributions to these issues over an entirely separate biological species from modern humans is at the past decade have come from detailed studies of present more controversial1,2. the DNA structure of present-day human populations in different areas of the world, combined with the The archaeological record gradually accumulating recovery of residual traces of One important issue in current research is exactly what patterns of T‘ancient’ DNA extracted from a number of Neanderthal and early culture and technology were associated
    [Show full text]
  • The Microscope and the Caveman
    THE MICROSCOPE • Vol. 60:4, pp 157–165 (2012) C R I T I C A L FOCUS Brian J. Ford The Microscope and the Caveman ad,” asked the boy. whole truth. Humans “D “Where did I come The hunter-gatherer is the accepted would have been too vul- from?”Father knew that concept of our origin, but before humans nerable to survive. With eventually he’d face this thin skin, small teeth, momentous question. And were able to hunt, they exploited the weak muscles, low speed so, with a deep breath he hunting abilities of predatory creatures. and no claws, we would told his son, as gently as have been a victim for he could, about those over- anything larger than a rat. whelming urges and in- Once humans were suffi- stincts, the power of love ciently social to live in and desire, the moist inti- communal colonies, and macies of copulation and smart enough to figure out everything he knew of con- how to hunt for their food, ception in a way that omit- then success would be as- ted nothing. When he fi- sured. But, prior to that, nally accounted for the ex- they would have been prey plosive miracle of child- to any passing carnivore birth, his son looked at him and powerless to survive. with eyes that still grew To me, this poses the great- wider every second. The est question of all: What little lad looked astonished, did humanity do before open-mouthed. There was Three-line caption here. Three-line caption here. Three-line the hunter-gatherer? As silence.
    [Show full text]
  • Cryogenic Fracturing of Calcite Flowstone in Caves: Theoretical Considerations and Field Observations in Kents Cavern, Devon, UK
    International Journal of Speleology 41(2) 307-316 Tampa, FL (USA) July 2012 Available online at scholarcommons.usf.edu/ijs/ & www.ijs.speleo.it International Journal of Speleology Official Journal of Union Internationale de Spéléologie Cryogenic fracturing of calcite flowstone in caves: theoretical considerations and field observations in Kents Cavern, Devon, UK. Joyce Lundberg1 and Donald A. McFarlane2 Abstract: Lundberg J. and McFarlane D. 2012. Cryogenic fracturing of calcite flowstone in caves: theoretical considerations and field observations in Kents Cavern, Devon, UK. International Journal of Speleology, 41(2), 307-316. Tampa, FL (USA). ISSN 0392-6672. http://dx.doi.org/10.5038/1827-806X.41.2.16 Several caves in Devon, England, have been noted for extensive cracking of substantial flowstone floors. Conjectural explanations have included earthquake damage, local shock damage from collapsing cave passages, hydraulic pressure, and cryogenic processes. Here we present a theoretical model to demonstrate that frost-heaving and fracture of flowstone floors that overlie wet sediments is both a feasible and likely consequence of unidirectional air flow or cold-air ponding in caves, and argue that this is the most likely mechanism for flowstone cracking in caves located in Pleistocene periglacial environments outside of tectonically active regions. Modeled parameters for a main passage in Kents Cavern, Devon, demonstrate that 1 to 6 months of -10 to -15° C air flow at very modest velocities will result in freezing of 1 to 3 m of saturated sediment fill. The resultant frost heave increases with passage width and depth of frozen sediments. In the most conservative estimate, freezing over one winter season of 2 m of sediment in a 6-m wide passage could fracture flowstone floors up to ~13 cm thick, rising to ~23 cm in a 12-m wide passage.
    [Show full text]
  • Development, Management and Economy of Show Caves
    In!. J. SpeleoI.. 29 B (1/4) 2000: I - 27 DEVELOPMENT, MANAGEMENT AND ECONOMY OF SHOW CAVES Arrigo A. CIGNA International Show Caves Association Scientific Advisor to the President Ezio BURRI Dept. of Environmental Sciences University of L'Aquila ABSTRACT The problems concerning the development of show caves are here considered by taking into account different aspects of the problem. A procedure to carry out an Environmental Impact Assessment (EIA) has been established in the last decade and it is now currently applied. Such an assessment starts with a pre-opera- tional phase to obtain sufficient information on the undisturbed status of a cave to be devel- oped into a show cave. Successively a programme for its development is established with the scope to optimise the intervention on the cave at the condition that its basic environmental parameters are not irre- versibly modified. The last phase of the assessment is focussed to assure a feedback through a monitoring network in order to detect any unforeseen difference or anomaly between the pro- ject and the effective situation achieved after the cave development. Some data on some of the most important show caves in the world are reported and a tenta- tive evaluation of the economy in connection with the show caves business is eventually made. Introduction Nearly twenty years ago, two great experts of cave management, Russell and Jeanne Gurnee (1981), wrote: "The successful development and operation of a tourist cave depends on a combination of factors, including 1) Scientific investigation 2) Art 3) Technology 4) Management Scientific study is recommended at the beginning of the first phase in order to deter- mine what hydrologic and geologic factors may have an influence on the develop- 2 Arrigo A.
    [Show full text]