Middle Paleolithic
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Language Evolution to Revolution: from a Slowly Developing Finite Communication System with Many Words to Infinite Modern Language
bioRxiv preprint doi: https://doi.org/10.1101/166520; this version posted July 20, 2017. The copyright holder for this preprint (which was not certified by peer review) is the author/funder. All rights reserved. No reuse allowed without permission. Language evolution to revolution: from a slowly developing finite communication system with many words to infinite modern language Andrey Vyshedskiy1,2* 1Boston University, Boston, USA 2ImagiRation LLC, Boston, MA, USA Keywords: Language evolution, hominin evolution, human evolution, recursive language, flexible syntax, human language, syntactic language, modern language, Cognitive revolution, Great Leap Forward, Upper Paleolithic Revolution, Neanderthal language Abstract There is overwhelming archeological and genetic evidence that modern speech apparatus was acquired by hominins by 600,000 years ago. There is also widespread agreement that modern syntactic language arose with behavioral modernity around 100,000 years ago. We attempted to answer two crucial questions: (1) how different was the communication system of hominins before acquisition of modern language and (2) what triggered the acquisition of modern language 100,000 years ago. We conclude that the communication system of hominins prior to 100,000 years ago was finite and not- recursive. It may have had thousands of words but was lacking flexible syntax, spatial prepositions, verb tenses, and other features that enable modern human language to communicate an infinite number of ideas. We argue that a synergistic confluence of a genetic mutation that dramatically slowed down the prefrontal cortex (PFC) development in monozygotic twins and their spontaneous invention of spatial prepositions 100,000 years ago resulted in acquisition of PFC-driven constructive imagination (mental synthesis) and converted the finite communication system of their ancestors into infinite modern language. -
Homo Erectus Infancy and Childhood the Turning Point in the Evolution of Behavioral Development in Hominids
10 Homo erectus Infancy and Childhood The Turning Point in the Evolution of Behavioral Development in Hominids Sue Taylor Parker In man, attachment is mediated by several different sorts of behaviour of which the most obvious are crying and calling, babbling and smiling, clinging, non-nutritional sucking, and locomotion as used in approach, following and seeking. —John Bowlby, Attachment The evolution of hominid behavioral ontogeny can be recon - structed using two lines of evidence: first, comparative neontological data on the behavior and development of living hominoid species (humans and the great apes), and second, comparative paleontolog- ical and archaeological evidence associated with fossil hominids. (Although behavior rarely fossilizes, it can leave significant traces.) 1 In this chapter I focus on paleontological and neontological evi - dence relevant to modeling the evolution of the following hominid adaptations: (1) bipedal locomotion and stance; (2) tool use and tool making; (3) subsistence patterns; (4) growth and development and other life history patterns; (5) childbirth; (6) childhood and child care; and (7) cognition and cognitive development. In each case I present a cladistic model for the origins of the characters in question. 2 Specifically, I review pertinent data on the following widely recog - nized hominid genera and species: Australopithecus species (A. afarensis , A. africanus , and A. robustus [Paranthropus robustus]) , early Homo species (Australopithecus gahri , Homo habilis , and Homo rudolfensis) , and Middle Pleistocene Homo species (Homo erectus , Homo ergaster , and others), which I am calling erectines . Copyrighted Material www.sarpress.org 279 S UE TAYLOR PARKER Table 10.1 Estimated Body Weights and Geological Ages of Fossil Hominids _______________________________________________________________________ Species Geologic Age Male Weight Female Weight (MYA) (kg) (kg) _______________________________________________________________________ A. -
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. -
Homo Heidelbergensis: the Ot Ol to Our Success Alexander Burkard Virginia Commonwealth University
Virginia Commonwealth University VCU Scholars Compass Auctus: The ourJ nal of Undergraduate Research and Creative Scholarship 2016 Homo heidelbergensis: The oT ol to Our Success Alexander Burkard Virginia Commonwealth University Follow this and additional works at: https://scholarscompass.vcu.edu/auctus Part of the Archaeological Anthropology Commons, Biological and Physical Anthropology Commons, and the Biology Commons © The Author(s) Downloaded from https://scholarscompass.vcu.edu/auctus/47 This Social Sciences is brought to you for free and open access by VCU Scholars Compass. It has been accepted for inclusion in Auctus: The ourJ nal of Undergraduate Research and Creative Scholarship by an authorized administrator of VCU Scholars Compass. For more information, please contact [email protected]. Homo heidelbergensis: The Tool to Our Success By Alexander Burkard Homo heidelbergensis, a physiological variant of the species Homo sapien, is an extinct spe- cies that existed in both Europe and parts of Asia from 700,000 years ago to roughly 300,000 years ago (carbon dating). This “subspecies” of Homo sapiens, as it is formally classified, is a direct ancestor of anatomically modern humans, and is understood to have many of the same physiological characteristics as those of anatomically modern humans while still expressing many of the same physiological attributes of Homo erectus, an earlier human ancestor. Since Homo heidelbergensis represents attributes of both species, it has therefore earned the classifica- tion as a subspecies of Homo sapiens and Homo erectus. Homo heidelbergensis, like anatomically modern humans, is the byproduct of millions of years of natural selection and genetic variation. It is understood through current scientific theory that roughly 200,000 years ago (carbon dat- ing), archaic Homo sapiens and Homo erectus left Africa in pursuit of the small and large animal game that were migrating north into Europe and Asia. -
Cave Bear Ecology and Interactions With
CAVEBEAR ECOLOGYAND INTERACTIONSWITH PLEISTOCENE HUMANS MARYC. STINER, Department of Anthropology,Building 30, Universityof Arizona,Tucson, AZ 85721, USA,email: [email protected] Abstract:Human ancestors (Homo spp.), cave bears(Ursus deningeri, U. spelaeus), andbrown bears (U. arctos) have coexisted in Eurasiafor at least one million years, andbear remains and Paleolithic artifacts frequently are found in the same caves. The prevalenceof cave bearbones in some sites is especiallystriking, as thesebears were exceptionallylarge relative to archaichumans. Do artifact-bearassociations in cave depositsindicate predation on cave bearsby earlyhuman hunters, or do they testify simply to earlyhumans' and cave bears'common interest in naturalshelters, occupied on different schedules?Answering these and other questions aboutthe circumstancesof human-cave bear associationsis made possible in partby expectations developedfrom research on modem bearecology, time-scaledfor paleontologicand archaeologic applications. Here I review availableknowledge on Paleolithichuman-bear relations with a special focus on cave bears(Middle Pleistocene U. deningeri)from YarimburgazCave, Turkey.Multiple lines of evidence show thatcave bearand human use of caves were temporallyindependent events; the apparentspatial associations between human artifacts andcave bearbones areexplained principally by slow sedimentationrates relative to the pace of biogenicaccumulation and bears' bed preparationhabits. Hibernation-linkedbehaviors and population characteristics of cave -
K = Kenyanthropus Platyops “Kenya Man” Discovered by Meave Leaky
K = Kenyanthropus platyops “Kenya Man” Discovered by Meave Leaky and her team in 1998 west of Lake Turkana, Kenya, and described as a new genus dating back to the middle Pliocene, 3.5 MYA. A = Australopithecus africanus STS-5 “Mrs. Ples” The discovery of this skull in 1947 in South Africa of this virtually complete skull gave additional credence to the establishment of early Hominids. Dated at 2.5 MYA. H = Homo habilis KNM-ER 1813 Discovered in 1973 by Kamoya Kimeu in Koobi Fora, Kenya. Even though it is very small, it is considered to be an adult and is dated at 1.9 MYA. E = Homo erectus “Peking Man” Discovered in China in the 1920’s, this is based on the reconstruction by Sawyer and Tattersall of the American Museum of Natural History. Dated at 400-500,000 YA. (2 parts) L = Australopithecus afarensis “Lucy” Discovered by Donald Johanson in 1974 in Ethiopia. Lucy, at 3.2 million years old has been considered the first human. This is now being challenged by the discovery of Kenyanthropus described by Leaky. (2 parts) TC = Australopithecus africanus “Taung child” Discovered in 1924 in Taung, South Africa by M. de Bruyn. Raymond Dart established it as a new genus and species. Dated at 2.3 MYA. (3 parts) G = Homo ergaster “Nariokotome or Turkana boy” KNM-WT 15000 Discovered in 1984 in Nariokotome, Kenya by Richard Leaky this is the first skull dated before 100,000 years that is complete enough to get accurate measurements to determine brain size. Dated at 1.6 MYA. -
Homo Aestheticus’
Conceptual Paper Glob J Arch & Anthropol Volume 11 Issue 3 - June 2020 Copyright © All rights are reserved by Shuchi Srivastava DOI: 10.19080/GJAA.2020.11.555815 Man and Artistic Expression: Emergence of ‘Homo Aestheticus’ Shuchi Srivastava* Department of Anthropology, National Post Graduate College, University of Lucknow, India Submission: May 30, 2020; Published: June 16, 2020 *Corresponding author: Shuchi Srivastava, Assistant Professor, Department of Anthropology, National Post Graduate College, An Autonomous College of University of Lucknow, Lucknow, India Abstract Man is a member of animal kingdom like all other animals but his unique feature is culture. Cultural activities involve art and artistic expressions which are the earliest methods of emotional manifestation through sign. The present paper deals with the origin of the artistic expression of the man, i.e. the emergence of ‘Homo aestheticus’ and discussed various related aspects. It is basically a conceptual paper; history of art begins with humanity. In his artistic instincts and attainments, man expressed his vigour, his ability to establish a gainful and optimistictherefore, mainlyrelationship the secondary with his environmentsources of data to humanizehave been nature. used for Their the behaviorsstudy. Overall as artists findings was reveal one of that the man selection is artistic characteristics by nature suitableand the for the progress of the human species. Evidence from extensive analysis of cave art and home art suggests that humans have also been ‘Homo aestheticus’ since their origins. Keywords: Man; Art; Artistic expression; Homo aestheticus; Prehistoric art; Palaeolithic art; Cave art; Home art Introduction ‘Sahityasangeetkalavihinah, Sakshatpashuh Maybe it was the time when some African apelike creatures to 7 million years ago, the first human ancestors were appeared. -
Turkana Boy: a 1.5-Million-Year-Old Skeleton
Turkana Boy: A 1.5-Million-year-old Skeleton The Nariokotome site. Fossil hunters scouring the inhospitable terrain west of Lake Turkana in Kenya in 1984 were lured to the place by the promise of shade and a supply of underground water, not knowing that one of them would discover the almost entire skeleton of an early human. Beating the Odds Chances are stacked against the survival and recovery of the bones of early humans. For a start, they were rare creatures on the African landscape, and they did not bury their dead. Their corpses, even of those who did not succumb to predators, were quickly destroyed by scavengers and trampling animals, and the remaining bones crumbled through weathering and entanglement by vegetation. Occasionally, however, pieces of bone and, particularly, teeth survived long enough to be covered by sediments that protected them from the ravages of the open veld. Over time, minerals from the sediments seeped in and replaced their decaying organic materials until they turned to stone and became the fossil remains of once-living organisms. Then they wait — until their final resting place is exposed by erosion or excavation to the sharp eyes of a paleoanthropologist, a scientist who studies human evolution. The recovery of even a partial early human skeleton is rare; usually the remains are so fragmentary that simply trying to identify them can fuel lively debates among scientists.. Hitting the Jackpot However, luck was on the side of the paleoanthropologists who had pitched camp beside the sandy bed of the Nariokotome River some 3 miles (5 kilometers) west of Lake Turkana in northern Kenya one August day in 65 CHAPTER 2: NATURAL DEATHS RIGHT Working under the hot African sun, the excavation team Identify carefully sifts through the sediments at Nariokotome to KNM-WT recover almost all the bones of a skulls, he 1.5-million-year-old early human: position c only his feet and a few other pieces ancestor: were not found. -
Early Members of the Genus Homo -. EXPLORATIONS: an OPEN INVITATION to BIOLOGICAL ANTHROPOLOGY
EXPLORATIONS: AN OPEN INVITATION TO BIOLOGICAL ANTHROPOLOGY Editors: Beth Shook, Katie Nelson, Kelsie Aguilera and Lara Braff American Anthropological Association Arlington, VA 2019 Explorations: An Open Invitation to Biological Anthropology is licensed under a Creative Commons Attribution-NonCommercial 4.0 International License, except where otherwise noted. ISBN – 978-1-931303-63-7 www.explorations.americananthro.org 10. Early Members of the Genus Homo Bonnie Yoshida-Levine Ph.D., Grossmont College Learning Objectives • Describe how early Pleistocene climate change influenced the evolution of the genus Homo. • Identify the characteristics that define the genus Homo. • Describe the skeletal anatomy of Homo habilis and Homo erectus based on the fossil evidence. • Assess opposing points of view about how early Homo should be classified. Describe what is known about the adaptive strategies of early members of the Homo genus, including tool technologies, diet, migration patterns, and other behavioral trends.The boy was no older than 9 when he perished by the swampy shores of the lake. After death, his slender, long-limbed body sank into the mud of the lake shallows. His bones fossilized and lay undisturbed for 1.5 million years. In the 1980s, fossil hunter Kimoya Kimeu, working on the western shore of Lake Turkana, Kenya, glimpsed a dark colored piece of bone eroding in a hillside. This small skull fragment led to the discovery of what is arguably the world’s most complete early hominin fossil—a youth identified as a member of the species Homo erectus. Now known as Nariokotome Boy, after the nearby lake village, the skeleton has provided a wealth of information about the early evolution of our own genus, Homo (see Figure 10.1). -
The Dates of the Discovery of the First Peking Man Fossil Teeth
The Dates of the Discovery of the First Peking Man Fossil Teeth Qian WANG,LiSUN, and Jan Ove R. EBBESTAD ABSTRACT Four teeth of Peking Man from Zhoukoudian, excavated by Otto Zdansky in 1921 and 1923 and currently housed in the Museum of Evolution at Uppsala University, are among the most treasured finds in palaeoanthropology, not only because of their scientific value but also for their important historical and cultural significance. It is generally acknowledged that the first fossil evidence of Peking Man was two teeth unearthed by Zdansky during his excavations at Zhoukoudian in 1921 and 1923. However, the exact dates and details of their collection and identification have been documented inconsistently in the literature. We reexamine this matter and find that, due to incompleteness and ambiguity of early documentation of the discovery of the first Peking Man teeth, the facts surrounding their collection and identification remain uncertain. Had Zdansky documented and revealed his findings on the earliest occasion, the early history of Zhoukoudian and discoveries of first Peking Man fossils would have been more precisely known and the development of the field of palaeoanthropology in early twentieth century China would have been different. KEYWORDS: Peking Man, Zhoukoudian, tooth, Uppsala University. INTRODUCTION FOUR FOSSIL TEETH IDENTIFIED AS COMING FROM PEKING MAN were excavated by palaeontologist Otto Zdansky in 1921 and 1923 from Zhoukoudian deposits. They have been housed in the Museum of Evolution at Uppsala University in Sweden ever since. These four teeth are among the most treasured finds in palaeoanthropology, not only because of their scientific value but also for their historical and cultural significance. -
Homo Erectus: a Bigger, Faster, Smarter, Longer Lasting Hominin Lineage
Homo erectus: A Bigger, Faster, Smarter, Longer Lasting Hominin Lineage Charles J. Vella, PhD August, 2019 Acknowledgements Many drawings by Kathryn Cruz-Uribe in Human Career, by R. Klein Many graphics from multiple journal articles (i.e. Nature, Science, PNAS) Ray Troll • Hominin evolution from 3.0 to 1.5 Ma. (Species) • Currently known species temporal ranges for Pa, Paranthropus aethiopicus; Pb, P. boisei; Pr, P. robustus; A afr, Australopithecus africanus; Ag, A. garhi; As, A. sediba; H sp., early Homo >2.1 million years ago (Ma); 1470 group and 1813 group representing a new interpretation of the traditionally recognized H. habilis and H. rudolfensis; and He, H. erectus. He (D) indicates H. erectus from Dmanisi. • (Behavior) Icons indicate from the bottom the • first appearance of stone tools (the Oldowan technology) at ~2.6 Ma, • the dispersal of Homo to Eurasia at ~1.85 Ma, • and the appearance of the Acheulean technology at ~1.76 Ma. • The number of contemporaneous hominin taxa during this period reflects different Susan C. Antón, Richard Potts, Leslie C. Aiello, 2014 strategies of adaptation to habitat variability. Origins of Homo: Summary of shifts in Homo Early Homo appears in the record by 2.3 Ma. By 2.0 Ma at least two facial morphs of early Homo (1813 group and 1470 group) representing two different adaptations are present. And possibly 3 others as well (Ledi-Geraru, Uraha-501, KNM-ER 62000) The 1813 group survives until at least 1.44 Ma. Early Homo erectus represents a third more derived morph and one that is of slightly larger brain and body size but somewhat smaller tooth size. -
Paleoanthropology Society Meeting Abstracts, St. Louis, Mo, 13-14 April 2010
PALEOANTHROPOLOGY SOCIETY MEETING ABSTRACTS, ST. LOUIS, MO, 13-14 APRIL 2010 New Data on the Transition from the Gravettian to the Solutrean in Portuguese Estremadura Francisco Almeida , DIED DEPA, Igespar, IP, PORTUGAL Henrique Matias, Department of Geology, Faculdade de Ciências da Universidade de Lisboa, PORTUGAL Rui Carvalho, Department of Geology, Faculdade de Ciências da Universidade de Lisboa, PORTUGAL Telmo Pereira, FCHS - Departamento de História, Arqueologia e Património, Universidade do Algarve, PORTUGAL Adelaide Pinto, Crivarque. Lda., PORTUGAL From an anthropological perspective, the passage from the Gravettian to the Solutrean is one of the most interesting transition peri- ods in Old World Prehistory. Between 22 kyr BP and 21 kyr BP, during the beginning stages of the Last Glacial Maximum, Iberia and Southwest France witness a process of substitution of a Pan-European Technocomplex—the Gravettian—to one of the first examples of regionalism by Anatomically Modern Humans in the European continent—the Solutrean. While the question of the origins of the Solutrean is almost as old as its first definition, the process under which it substituted the Gravettian started to be readdressed, both in Portugal and in France, after the mid 1990’s. Two chronological models for the transition have been advanced, but until very recently the lack of new archaeological contexts of the period, and the fact that the many of the sequences have been drastically affected by post depositional disturbances during the Lascaux event, prevented their systematic evaluation. Between 2007 and 2009, and in the scope of mitigation projects, archaeological fieldwork has been carried in three open air sites—Terra do Manuel (Rio Maior), Portela 2 (Leiria), and Calvaria 2 (Porto de Mós) whose stratigraphic sequences date precisely to the beginning stages of the LGM.