<p>Industry is the process by which natural raw materials are processed to manufacture goods required by a population. Mining industries widely practiced in past populations include digging for flint and construction stone in the Neolithic (Bostyn <span>2023</span>; Teather et al. <span>2019</span>), as well as mining salt, copper, tin, and iron ore in the Bronze and Iron Ages (Aslihan <span>2021</span>; Harding <span>2013</span>; Pare <span>2025</span>). Other industries included preparing animal skins, weaving, metalworking, manufacturing ceramics, and fishing (Ferro et al. <span>2009</span>; Knapp <span>2018</span>; Randsborg <span>2011</span>; Wood <span>1990</span>). Archaeological evidence for such activity includes waste from flint knapping, slag from metalworking, and fish bones in middens. However, finding evidence for industrial accidents sustained by those people engaging in these activities is often challenging. Many different activities might lead to the same changes to bone during life, and fractures or other injuries can have plenty of different causes. This means working backwards from changes to skeletal remains to what caused them generally needs a well-defined, plausible context.</p><p>One context where industrial accidents commonly occur today is the process of mining (Ismail et al. <span>2021</span>). If not properly supported, the roofs of mine tunnels can collapse, crushing those below or trapping those further down the tunnel until they suffocate. On other occasions, flammable gases can seep out from seams of coal, and if ignited by a spark, then an explosion can ensue (Cheng <span>2018</span>). Ancient examples where miners have been found trapped in collapsed tunnels include the Iron Age mines of Dürrnberg-bei-Hallein in Austria (Stöllner et al. <span>2003</span>), the Chehrabad salt mines in Iran, which were in use from 500 <span>ce</span> (Nasab et al. <span>2019</span>), and the copper mine of Chuquicamata in Chile, dating from around 600 <span>ce</span> (Bird <span>1979</span>). Working animals too might be involved in mining accidents, as known from recent direct records (Moore <span>1931</span>) and also suggested by osteoarchaeological findings (Diedrich <span>2017</span>).</p><p>In this issue of the <i>International Journal of Osteoarchaeology</i>, Morales and Garrido present their study of a naturally mummified body interred around 900–1000 <span>ce</span>. It was recovered from the immediate proximity of a turquoise mine in the Indio Muerto mountain in the Atacama Desert in Chile (Morales and Garrido <span>2026</span>). Turquoise is a hydrous phosphate of copper and aluminum admired for its vivid blue color and was used for ritual and religious purposes and ornaments such as jewelry (Harbottle and Weigland <span>1992</span>; López et al. <span>2018</span>). The man's skeleton shows evidence for multiple perimortem fractures to the ribs, clavicles, scapulae, an open fracture to the tibia, and multilevel fracture
工业是对天然原料进行加工以制造人们所需产品的过程。在过去的人口中广泛从事的采矿业包括新石器时代挖掘燧石和建筑石材(Bostyn 2023; Teather et al. 2019),以及青铜和铁器时代开采盐、铜、锡和铁矿石(Aslihan 2021; Harding 2013; Pare 2025)。其他行业包括加工动物皮、编织、金属加工、制造陶瓷和捕鱼(Ferro etal . 2009; Knapp 2018; Randsborg 2011; Wood 1990)。这种活动的考古证据包括打火石产生的废物,金属加工产生的炉渣,以及在垃圾堆里发现的鱼骨。然而,寻找从事这些活动的人所遭受的工业事故的证据往往具有挑战性。在生活中,许多不同的活动可能会导致相同的骨骼变化,骨折或其他伤害可能有很多不同的原因。这意味着,从骨骼残骸的变化回溯到导致这些变化的原因,通常需要一个明确的、合理的背景。今天工业事故经常发生的一个背景是采矿过程(Ismail et al. 2021)。如果没有适当的支撑,矿井隧道的顶部可能会坍塌,压死下面的人,或者困住隧道下面的人,直到他们窒息而死。在其他情况下,可燃气体可能从煤层中渗出,如果被火花点燃,则可能发生爆炸(Cheng 2018)。发现矿工被困在坍塌隧道中的古代例子包括奥地利d rrnberg-bei- hallein的铁器时代矿山(Stöllner et al. 2003),伊朗的Chehrabad盐矿,从公元500年开始使用(Nasab et al. 2019),以及智利的Chuquicamata铜矿,可追溯到公元600年左右(Bird 1979)。从最近的直接记录(Moore 1931)和骨骼考古发现(Diedrich 2017)中可以看出,工作动物也可能涉及矿事故。在这一期的《国际骨考古学杂志》上,莫拉莱斯和加里多展示了他们对一具埋葬在公元前900-1000年的自然木乃伊的研究。它是在智利阿塔卡马沙漠Indio Muerto山上的绿松石矿附近发现的(Morales and Garrido 2026)。绿松石是铜和铝的含水磷酸盐,因其鲜艳的蓝色而备受推崇,被用于仪式和宗教目的以及珠宝等装饰品(Harbottle and Weigland 1992; López et al. 2018)。该男子的骨骼显示,肋骨、锁骨、肩胛骨有多处死前骨折,胫骨有一处开放性骨折,脊柱胸段有多处骨折。这种伤害模式表明是高能创伤,当时最合理的原因应该是附近的矿井。由于他的大部分伤都在身体的左侧,所以很可能是这一侧受到了最大的冲击。他被埋在矿外的墓地这一事实表明,在矿井坍塌后,他的尸体被其他人挖出并带到当地的墓地。由于绿松石在古代美洲似乎主要用于珠宝和宗教文物,这位矿工为人类对这种闪亮石头的热情付出了高昂的代价。作者声明无利益冲突。数据共享不适用于本文,因为在当前研究中没有生成或分析数据集。
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Chloe Boucher, Dominique Armelle, Justyna J. Miszkiewicz, Mary Jane Louise A. Bolunia, Alexandra S. De Leon, Antonio L. Peñalosa, Pablo S. Pagulayan, Adan V. Soranio, Marc Oxenham, Melandri Vlok