Combined computed tomography and position-resolved X-ray diffraction of an intact Roman-era Egyptian portrait mummy: Combined computed tomography and position-resolved X-ray diffraction of an intact Roman-era Egyptian portrait mummy

被引:0
作者
Stock S.R. [1 ]
Stock M.K. [2 ,3 ]
Almer J.D. [4 ]
机构
[1] Department of Cell and Developmental Biology, Feinberg School of Medicine, Northwestern University, Chicago, IL
[2] Department of Sociology and Anthropology, Metropolitan State Univ. of Denver, Denver, CO
[3] Department of Exercise Science, High Point University, High Point, NC
[4] Advanced Photon Source, Argonne National Laboratory, Argonne, IL
来源
Stock, S.R. (s-stock@northwestern.edu) | 1600年 / Royal Society Publishing卷 / 17期
关键词
computed tomography; Egypt; mummy; synchrotron X-radiation; X-ray diffraction;
D O I
10.1098/rsif.2020.0686
中图分类号
学科分类号
摘要
Hawara Portrait Mummy 4, a Roman-era Egyptian portrait mummy, was studied with computed tomography (CT) and with CT-guided synchrotron X-ray diffraction mapping. These are the first X-ray diffraction results obtained non-invasively from objects within a mummy. The CT data showed human remains of a 5-year-old child, consistent with the female (but not the age) depicted on the portrait. Physical trauma was not evident in the skeleton. Diffraction at two different mummy-to-detector separations allowed volumetric mapping of features including wires and inclusions within the wrappings and the skull and femora. The largest uncertainty in origin determination was approximately 1.5 mm along the X-ray beam direction, and diffraction- and CT-determined positions matched. Diffraction showed that the wires were a modern dual-phase steel and showed that the 7 × 5 × 3 mm inclusion ventral of the abdomen was calcite. Tracing the 00.2 and 00.4 carbonated apatite (bone's crystalline phase) reflections back to their origins produced cross-sectional maps of the skull and of femora; these maps agreed with transverse CT slices within approximately 1 mm. Coupling CT and position-resolved X-ray diffraction, therefore, offers considerable promise for non-invasive studies of mummies. © 2020 The Author(s).
引用
收藏
相关论文
共 35 条
[21]  
Davey J., Stewart M.E.B., Drummer O.H., The value of CT imaging of Horus in determining the method of mummification and the sex of the mummy, J. Med. Imaging Rad. Oncol., 57, pp. 657-662, (2013)
[22]  
Dill O., Interior and exterior: The function and production of mummy portraits in relation to the mummification process, Portrait of a Child: Historical and Scientific Studies of a Roman Egyptian Mummy, pp. 94-99
[23]  
Seselj M., Relationship between dental development and skeletal growth in modern humans and its implications for interpreting ontogeny in fossil hominins, Am. J. Phys. Anthropol., 150, pp. 38-47, (2013)
[24]  
Vidarsdottir U.S., O'Higgins P., Stringer C., A geometric morphometric study of regional differences in the ontogeny of the modern human facial skeleton, J. Anat., 201, pp. 211-229, (2002)
[25]  
Stull K.E., Godde K., Sex estimation of infants between birth and one year through discriminant analysis of the humerus and femur, J. Forensic Sci., 58, pp. 13-20, (2013)
[26]  
Raven M.J., Taconis W.K., Egyptian Mummies: Radiological Atlas of the Collections in the National Museum of Antiquities in Leiden, (2005)
[27]  
Bolliger S.A., Oesterhelweg L., Spendlove D., Ross S., Thali M.J., Is differentiation of frequently encountered foreign bodies in corpses possible by Hounsfield density measurement?, J. Forensic Sci., 58, pp. 1119-1122, (2009)
[28]  
Breunig T.M., Stock S.R., Antolovich S.D., Kinney J.H., Massey W.N., Nichols M.C., A Framework Relating Macroscopic Measures and Physical Processes of Crack Closure of Al-Li Alloy 2090, pp. 749-761, (1992)
[29]  
Vahey T., Brown D., Comely Wenuhotep: Computed tomography of an Egyptian mummy, J. Comput. Asst. Tomogr., 8, pp. 992-997, (1984)
[30]  
Wade A.D., Nelson A.J., Garvin G.J., A synthetic radiological study of brain treatment in ancient Egyptian mummies, Homo, 62, pp. 248-269, (2011)