Falsification by Modelling and Simulation for Investigations in Hallstatt Archaeology

J. Tanzler, N. Popper, G. Wurzer, A. Bacher, K. Kowarik, H. Reschreiter, F. Breitenecker
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Abstract

The prehistoric salt mines of Hallstatt in Austria are subject of great interest for archaeologists. Salt mining activities are dated to 1458-1245 B.C. in the Bronze Age. Modelling and simulation as virtual computational experimental archaeology’ can contribute important insights into different areas of archaeology as an addition to traditional experimental methods. In a cooperative project between the Natural History Museum Vienna and the TU Wien, questions regarding prehistoric mining processes, logistic processes, and population growth in the agricultural environment are analysed by modelling and simulation. This contribution presents simulation studies, which allow to study short-term mining processes and long-term population dynamics and agricultural working processes. Moreover, essentially, the simulation studies allow also excluding cases for these working processes. This fact underlines a special property of simulation in the area of archaeology: while classical modelling and simulation aims for verification of a certain assumptions, modelling and simulation in archaeology partly aims for falsification of assumptions of working processes or other historic events. Introduction Figure 1: Schematic reconstruction of the mining halls and shaft structure with rope pull systems (© D. Gröbner, H. Reschreiter, NHM Vienna). Tanzler et al. Falsification by Modelling and Simulation for Hallstatt Archaeology 130 SNE 28(3) – 9/2018 SN 1 Short-time Mining Processes Use of Bronze Picks Figure 2. Bronze pick for salt mining: archaeological reconstruction (left; © A. Rausch, NHM Vienna), pick rigid body model (midst), and supposed trajectories for use of the pick (right). Use of Rope Pull Systems. Tanzler et al. Falsification by Modelling and Simulation for Hallstatt Archaeology SNE 28(3) – 9/2018 131 SN Figure 3. Different design options for the rope pull system with closed rope (left) or open rope (right). Woodchip, Lighting and Air Consumption. Figure 5. Simulation results for air consumption depending on number of woodchips, burning time and workers . 2 Long-time Working Processes and Supply of Population Figure 5: Map of Hallstatt area: at left hill with mining area and mining village, at right valley with agricultural area (lake blue, garden -red, field brown, grass light green, wood dark green, rock –grey). Possible Stable Population. Tanzler et al. Falsification by Modelling and Simulation for Hallstatt Archaeology 132 SNE 28(3) – 9/2018 SN Figure 6. Simulation results with variation of food composition (green: available/used meat, red: available/used beans, blue: available/used grain) Overall Working Processes
哈尔施塔特考古调查的建模和模拟证伪
奥地利哈尔施塔特的史前盐矿引起了考古学家的极大兴趣。盐矿开采活动可以追溯到公元前1458-1245年的青铜器时代。作为传统实验方法的补充,作为虚拟计算实验考古学的建模和模拟可以为考古学的不同领域提供重要的见解。在维也纳自然历史博物馆和维也纳工业大学之间的一个合作项目中,通过建模和模拟分析了有关史前采矿过程、物流过程和农业环境中人口增长的问题。这项贡献提出了模拟研究,可以研究短期采矿过程和长期人口动态和农业工作过程。此外,从本质上讲,模拟研究也允许排除这些工作过程的情况。这一事实强调了考古学领域模拟的一种特殊性质:古典建模和模拟旨在验证某些假设,而考古学中的建模和模拟部分目的是伪造对工作过程或其他历史事件的假设。图1:采用绳拉系统的矿井大厅和竖井结构示意图(©D. Gröbner, H. Reschreiter, NHM Vienna)。Tanzler等人。Hallstatt Archaeology 130 SNE 28(3) - 2018年9月SN 1短时间采矿过程中使用青铜镐的建模和模拟证伪图2。采盐用青铜镐:考古重建(左;©A. Rausch, NHM Vienna), pick刚体模型(中),以及使用pick的假定轨迹(右)。绳拉系统的使用。Tanzler等人。Hallstatt Archaeology SNE 28(3) - 2018年9月131 SN图3。拉绳系统的不同设计选项,有闭绳(左)和开绳(右)。木片,照明和空气消耗。图5。空气消耗的模拟结果取决于木片的数量,燃烧时间和工人。图5:哈尔施塔特地区地图:左边的山丘为矿区和矿区村,右边的山谷为农业区(湖蓝色,花园红色,田野棕色,草浅绿色,木深绿色,岩石灰色)。可能的稳定种群。Tanzler等人。Hallstatt Archaeology 132 SNE 28(3) - 9/2018 SN的建模和模拟证伪食物成分变化的模拟结果(绿色:可用/用过的肉类,红色:可用/用过的豆类,蓝色:可用/用过的谷物
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