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An arrowhead made of meteoritic iron from the late Bronze Age settlement of Mörigen, Switzerland and its possible source

Bibliographic Data

ID11897129
AuthorsBeda A Hofmann (0000-0003-2738-8466, Natural History Museum of Bern, corresponding author), Sabine Bolliger Schreyer (Natural History Museum of Bern), Sayani Biswas (0009-0004-4886-7532, Paul Scherrer Institute), Lars Gerchow (0000-0002-4972-4419, Paul Scherrer Institute), Daniel Wiebe (University of Freiburg), M Schumann (0000-0002-5036-1256, University of Freiburg), S Lindemann (0000-0002-4501-7231, University of Freiburg), D Ramírez García (0000-0002-5896-2697, University of Freiburg), Pierre Lanari (0000-0001-8303-0771, University of Bern), Frank Gfeller (University of Bern), Carlos Vigo (0000-0002-6389-609X, Paul Scherrer Institute), Debarchan Das (0000-0001-5453-0195, Paul Scherrer Institute), Fabian Hotz (0000-0002-6874-0203, Paul Scherrer Institute), Katharina von Schoeler (0009-0005-2671-5869, ETH Zurich), Kazuhiko Ninomiya (0000-0001-8266-1483, The University of Osaka), M Nııkura (0000-0002-5940-2667, RIKEN Nishina Center), Megumi Niikura, N Ritjoho (0000-0002-3865-3600, Suranaree University of Technology), A Amato (0000-0001-9963-7498, Paul Scherrer Institute)
Year2023
Volume157
Pages105827-105827
Publication date2023-07-25
Open AccessYes
TypeARTICLE
VenueJournal of Archaeological Science (JOURNAL)
Journal identifiersISSN: 0305-4403 • E-ISSN: 1095-9238
PublisherElsevier BV (PUBLISHER)
DOI10.1016/j.jas.2023.105827
OpenAlexW4385250251
LanguageEN
Citations received4
References cited41

A search for artefacts made of meteoritic iron has been performed in archaeological collections in the greater area of the Lake of Biel, Switzerland. A single object made of meteoritic iron has been identified, an arrowhead with a mass of 2.9 g found in the 19th Century in the late Bronze Age (900–800 BCE) lake dwelling of Mörigen, Switzerland. The meteoritic origin is definitely proven by combining methods extended and newly applied to an archaeological artefact. Elemental composition (7.10–8.28 wt% Ni, 0.58–0.86 wt% Co, ∼300 ppm Ge), primary mineralogy consisting of the associated Ni-poor and Ni-rich iron phases kamacite (6.7 wt% Ni) and taenite (33.3 wt% Ni), and the presence of cosmogenic 26Al (1.7−0.4+0.5 dpm/kg). The Ni-rich composition below the oxidized crust and the marked difference to meteorites from the nearby (4–8 km) Twannberg iron meteorite strewn field is confirmed by muon induced X-ray emission spectrometry (8.28 wt% Ni). The Ni-Ge-concentrations are consistent with IAB iron meteorites, but not with the Twannberg meteorite (4.5 wt% Ni, 49 ppm Ge). The measured activity of 26Al indicates derivation from an iron meteorite with a large (2 t minimum) pre-atmospheric mass. The flat arrowhead shows a laminated texture most likely representing a deformed Widmanstätten pattern, grinding marks on the surface and remnants of wood-tar. Among just three large European IAB iron meteorites with fitting chemical composition, the Kaalijarv meteorite (Estonia) is the most likely source because this large crater-forming fall event happened at ∼1500 years BC during the Bronze Age and produced many small fragments. The discovery and subsequent transport/trade of such small iron fragments appears much more likely than in case of buried large meteorite masses. Additional artefacts of the same origin may be present in archaeological collections

Archaeology · Astrobiology · Chondrite · Geochemistry · Geography · Iron meteorite · Kamacite · Meteorite · Mineralogy · Archaeology and ancient environmental studies · Metallurgy and Cultural Artifacts · Paleopathology and ancient diseases · Geology

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Citations per year2
Citation span2024 - 2026 (3)
Highly citedNo

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