Queen Nefertari, the favourite Royal Consort of Pharaoh Ramses II (Ancient Egypt, New Kingdom, 19th Dynasty c. 1250 BC) is famous for her beautifully decorated tomb in the Valley of the Queens. Her burial was plundered in ancient times yet still many objects were found broken in the debris when the tomb was excavated. Amongst the found objects was a pair of mummified legs. They came to the Egyptian Museum in Turin and are henceforth regarded as the remains of this famous Queen, although they were never scientifically investigated. The following multidisciplinary investigation is the first ever performed on those remains. The results (radiocarbon dating, anthropology, paleopathology, genetics, chemistry and Egyptology) all strongly speak in favour of an identification of the remains as Nefertari’s, although different explanations—albeit less likely—are considered and discussed. The legs probably belong to a lady, a fully adult individual, of about 40 years of age. The materials used for embalming are consistent with Ramesside mummification traditions and indeed all objects within the tomb robustly support the burial as of Queen Nefertari.
Citation: Habicht ME, Bianucci R, Buckley SA, Fletcher J, Bouwman AS, Öhrström LM, et al. (2016) Queen Nefertari, the Royal Spouse of Pharaoh Ramses II: A Multidisciplinary Investigation of the Mummified Remains Found in Her Tomb (QV66). PLoS ONE 11(11): e0166571. https://doi.org/10.1371/journal.pone.0166571
Editor: Dong Hoon Shin, Seoul National University College of Medicine, REPUBLIC OF KOREA
Received: July 15, 2016; Accepted: October 30, 2016; Published: November 30, 2016
Copyright: © 2016 Habicht et al. This is an open access article distributed under the terms of the Creative Commons Attribution License, which permits unrestricted use, distribution, and reproduction in any medium, provided the original author and source are credited.
Data Availability: All relevant data are within the paper and its Supporting Information files.
Funding: The study is part of the Swiss National Science Funded "Canopic Jar Project," also including investigation of mummies from Ancient Egypt. The funders had no role in study design, data collection and analysis, decision to publish, or preparation of the manuscript.
Competing interests: The authors have declared that no competing interests exist.
The tomb of Queen Nefertari (QV 66), the second Great Royal Wife of King Ramses II (lifetime ca. 1303–1213 BC), was discovered by Ernesto Schiaparelli (1856–1928) in the Valley of the Queens in 1904. Her burial had been looted in antiquity, so no trace of the original entrance had been preserved. Besides the famous wall paintings, a series of broken remains (e.g. a damaged pink granite sarcophagus, broken furniture, jars, shabtis, other various small items), a pair of sandals and two fragmented mummified legs (parts of tibiae and femora) are preserved. All these items and the human remains are currently housed in the (Museo Egizio Turin, Suppl. 5154 RCGE 14467) [1–3]. (Table A in S1 File).
Nefertari was the most beloved wife of King Ramses II and played an active role in foreign politics. Her ancestry is unknown. Based on the legible/decipherable inscriptions on a fragment of a faience knob head or pommel found in her tomb, speculations were raised [4,5]. The item carries the throne name ‘Kheper-Kheperu-Ra’ and, is, therefore, connected with King Ay , who ruled Egypt for a few years after Tutankhamun (Turin Mus. Egizio Inv. Suppl. 5162) [2,7]. However, Nefertari did not carry the title ‘Daughter of a King’, which suggests that she was probably not from the main royal line. Because of the chronology, it seems quite unlikely that she was King Ay’s daughter, perhaps she was Ay’s grand-daughter [6,8] (Fig 1). Other scholars emphasize that both Ramses II’s royal wives, Isisnofret  and Nefertari, had a non-royal background . Nefertari married Ramses when he was crown prince during the reign of his father Sety I. The age at which Ramses II succeeded to the throne of Egypt is uncertain, possibly around his 25th year . Nefertari was then presumably the same age as her husband or slightly younger (ca. 20–25 years). She gave birth to four sons (Amun-hir-khepeshef, Pa-Ra-wenem-ef, Mery-Ra and Mery-Atum) and four daughters (Baketmut, Nefertari, Merytamun and Henuttaui). Within the succession line, Nefertari’s sons were always preferred to Queen Isisnofret’s although, in the end, the crown went to Merenptah, a son of Queen Isisnofret. Queen Nefertari, as attested by reliefs, attended the opening ceremony of the rock-cut temples of Abu Simbel in the year 24 of Ramses II’s reign (ca. 1255 BC) (Fig 2) . After that event, she disappeared. She was absent at the Sed-festival of Ramses II’s 30th regal year. She probably died around his 25th year of reign . As reconstructed from historical records, Nefertari probably reached an age of about 40 to 50 years (minimum 16 + 24 years or maximum 25 + 25 years) whereas Queen Isisnofret I died later, in year 34. Subsequently Ramses II married three of his daughters: Bint-Anat, Merytamun and Nebettaui .
The aim of the research is to answer—via a multidisciplinary approach to a long historical debate–a complex question. Do the human remains found in the tomb belong to Queen Nefertari’s original burial? (Fig 3). The remains of Nefertari are considered as highly important for History and Egyptology since Nefertari is one of the most famous Queens of Ancient Egypt.
The human remains Suppl. 5154 RCGE 14467 consist of three separate mummified human body parts: A long leg fragment consisting of a distal femur part, patella and a proximal tibia part (Fig 4); a medium sized part of an incomplete proximal tibia (Fig 5) and a short part of a femur (Fig 6).
Ethic clearance was not needed, since the studied remains are older than 3200 years and no living relatives are known.
The permission to investigate was given by the Egyptian Museum in Turin by the director Eleni Vassilika. Permission to perform the radiocarbon dating was given by the new director Christian Greco.
a) Number of specimen: Three parts, probably belonging to one individual. Finding location: Egypt, Valley of the Queens, tomb QV 66 of Queen Nefertari.
b) The remains are on permanent, public display in Turin, Mus. Egizio. S. 05154 RCGE 14467.
c) A detailed permission was not needed.
d) No permits by ethics committee were required for the described study. All investigations were done according to our code of ethics:
IEM Code of Ethics http://www.iem.uzh.ch/en/institute/iemcodeofethics.html
The human remains were X-rayed in situ at Turin’s Museum, using a portable, state-of-the-art mobile digital X-ray (EXAMION PX 60 HF; max. output 3.2 kW, Voltage range 40–100 kV, Exposure range 0.4–100 mAs).
To look for knee sizes, the condyle’s width was compared to modern samples (young females Cape Coloured) and to ancient samples from Metapontum (Italy 700–300 BC) [12,13] (Table A in S1 File). Different body height formulae (for modern and for prehistoric remains) [14–16] were used to investigate the individual’s stature. Comparison of the dimensions of QV 66 knees with those of modern poor Sub-Saharan African females was implemented .
Comparison of knees with ancient and modern samples
Proportionality rule was applied to compare the ancient samples with the knees from QV 66. Testing of z-score (165 cm– 158 cm) / SD 7 = +1 SD (the less favourable data of 3rd Intermediate Period) was implemented. By comparing the condyle’s width to Cape Coloured data, sex dimorphism characteristics were tested (studies from ancient Egyptian samples being wanted). The size of the QV 66 knees was then assessed for sex determination via a measurement of both condyles on scaled X-ray pictures (Table A in S1 File).
Ancillary Egyptological analysis: the Sandals and Other Objects Found in Tomb QV 66
Sandals (also exhibited in the Turin museum) were found among other objects, such as the fragments of a stone sarcophagus of Nefertari bearing an inscription, 34 wooden shabtis bearing her name, two lids of coffers, fabric, broken pottery and fragments of wooden statues in Turin. Mus. Egizio (List B in S1 File). Almost all objects are either inscribed with the name of Nefertari or, at least, their styles link them to the 19th Dynasty. The objects were philologically and epigraphically tested for consistency with the hypothesized time period and foot length can be used for forensic reconstruction of body height [17,18], using the regression equation for female  (87.906 + 3.165 x 24.5 = 165 cm).
Aside the obvious plundering of the tomb and its treasures there is no evidence for intended desecration of the Queen’s body.
Valid for chemical analysis, DNA analysis and radiocarbon dating: Small skin, muscle and textile biopsies (1cm x 1cm) were taken for biochemical analysis (GC-MS), ancient DNA as well as radiocarbon dating investigations.
The amorphous organic residues impregnating the textile samples taken from the knee assemblage were chemically characterized and identified using gas chromatography (GC-MS). After initially grinding samples to a fine powder, a weighed amount of these ground samples (from 10–90 mg) was taken. These samples were then extracted with an appropriate volume (0.5–2 mL) of chloroform-methanol solution (2:1 v/v; 3x60 min sonication). After centrifugation (20 min, 1000 rpm) the supernatant solvent was removed from the residue and placed in a vial. The three extracts were combined and the solvent reduced by rotary evaporation. Following transfer of the combined extracts to a screw-capped vial, the remaining solvent was removed by evaporation under a gentle stream of nitrogen at 40°C. The residue was reweighed to give total lipid extracts (TLE). The TLEs were trimethylsilylated using N,O-bis(trimethylsilyl)trifluoroacetamide (Sigma-Aldrich Chemical Co., St Louis, MO, USA) containing 1% of trimethylchlorosilane (50 μl, 70°C, 1 hour). Excess BSTFA was then removed under a gentle stream of nitrogen and the derivatized sample redissolved in dichloromethane and analyzed by GC-MS. GC-MS analysis of the total lipid extract of each sample was performed on a a Hewlett-Packard 5890 Series II gas chromatograph fitted with a split injector (325°C) interfaced to a Trio 1000 mass spectrometer (electron voltage 70eV, filament current 200 uA, source temperature 170°C, interface temperature 325°C). The acquisition was controlled by Windows based MasSpecII32 Data System, in full scan mode (35–650 amu). Separation was performed on a fused silica capillary column (30 m x 0.25 mm i.d) coated with 0.25 um 5% phenyl methyl polysiloxane (DB-5). Initially the GC was held at 40°C for 5 minutes and then temperature programmed from 40°C-350°C at 8°C min and held at final temperature for 20 minutes (total time 63.75 minutes), with helium as the carrier gas (constant flow 1 ml/min, initial pressure of 45 kPa, splitless injection 1 min). Identification of compounds was achieved on the basis of both their mass spectra (NIST Mass Spectral Database and reference compounds) and relative retention times (relative retention indices (RRIs)).
The analyses were performed at the dedicated ancient DNA laboratory at the Institute of Evolutionary Medicine of the University of Zurich. For genetic analysis the samples were cleaned using a 1% bleach solution to remove contaminating DNA from modern individuals that had handled the mummified remains and samples before air drying and crushed in a SPEX freezer mill (6770) to form a fine powder. The DNA was released from the bone powder by decalcification for 48 hours (12 hours 55°C and 36 hours at room temperature) in a 0.45M EDTA (Ethylenediaminetetraacetic acid) solution with 100mg Proteinase K added to remove excess proteins and inhibit enzymatic activity. The DNA was released from the soft tissue using the extraction buffer (10mM Tris-HCl, 10mM NaCl, 5mM CaCl2, 2,5mM EDTA, 2% SDS, 40mM DTT and 100mg/ml Proteinase K) for 18 hours at 55°C. The supernatant, containing released DNA, was then subjected to a Phenol-Chloroform extraction to remove any further proteins (mixed twice with 25:24:1, phenol:chloroform:isoamyl alcohol, and the DNA containing supernatants removed, final wash with chloroform), before being concentrated with a modified QiaQuick PCR purification method (final elution incubation at 37°C for 5 minutes to maximise DNA yield). DNA extracts were subjected to conventional PCR amplification of the HVRI of the mtDNA D-loop with four overlapping primer sets and to a sexing assay using real-time PCR as previously described  Each extract was analyzed for mtDNA data twice and for sexing data three times, and three non-template extraction controls and reagent blanks were processed in parallel with each PCR.
Original sample of mummified tissue taken from the interior compartment of femura and tibiae contained 108 mg of material. A sample of 79.1 mg was taken for analysis and treated in a soxhlet system. A sequence of solvents (chloroform, hexane, acetone and ethanol) was used to remove resins and waxes . The remaining sample with a mass of 61.7 mg underwent modified acid base treatment . The short treatment in room temperature (instead of 60C) was applied because the material underwent rapid dissolution. Only 20% (i.e. 13.5 mg) of the sample remained after ABA. The remaining material was weight into tin cups for a combustion Elemental Analyser and subsequent graphitization  two targets were prepared from the material: one contained mainly powder of the tissue and the second the remaining of the sample. These were then analysed using MICADAS, which is a dedicated 14C AMS instrument at the AMS facility, ETH Zurich . The measured 14C content (F14C) was normalised to the standard Oxalic Acid 2 corrected for blank values and isotopic fractionation using delta 13C measured on graphite see Hadjas 2008 . Radiocarbon ages were calculated following the convention of Stuiver and Polach 1977 . OxCal program  and INTCAL13  data set were used to calibrate to calendar ages.
The X-rays confirmed the presence of a pair of human knees, with distal part of femur, proximal part of tibia and fibular bone as well as the patella (Figs 7–10). It is sensible and a somewhat likely hypothesis that the remains actually belong to a single individual as also suggested by close visual inspection which, based on colour and texture, shows how the remains appear to be those of a single individual (Figs 3–6). This however cannot be proved with absolute certainty. The remains show massive, probably post mortem, multiple impacted fractures. While the femur does not show any fractures, the tibia on the contrary shows a fracture proximally and is multiply fractured at the distal end. The knee joint shows a narrowed joint space, a finding that is commonly observed in mummies and that does not necessarily imply underlying pathologies. The bandage layers can be differentiated on the X-rays. X-ray of the leg split in two separate parts show a right distal femur with multiple fractures (Fig 7) with surrounding soft tissue as well as bandage layers. This part is only fragmentarily preserved; only the metaphyseal parts of the left tibia and fibula are preserved (Fig 8). Surrounding soft tissue and bandage layers are visible. No prominent bone pathology (e.g. a tumorous lesion) could be spotted. The bone architecture is indeed generally normal (Figs 7–10). All epiphyses are fused, which implies that the remains belong to an adult individual. The X-rays revealed instead a very thin cortical thickness (ca. 1–2 mm) for which several differential interpretations may thus be given: minimal osteoathrosis, osteoporosis, vitamin D deficiency-caused osteomalacia (e.g. if the individual was secluded from sunlight), or disuse osteopaenia from cerebral palsy or other causes. If, in the absence of further clinical evidence, most of these pathologies are excluded and only minimal osteoarthrosis or osteopaenia are considered, then the eventuality that the individual underwent minimal physical labour as a consequence of a high status, characterised by predominantly indoor life can be proposed. No definitive solution however exists to this problem. In addition, in the left knee, it is possible to see what may be a calcification in the arteriae tibiales (anterior and posterior). This finding can be caused by arteriosclerosis or media calcinosis (Mönckeberg’s sclerosis). Both differential diagnosis suggest an elderly person. Thus, we assume as one of the possibilities that the knees belonged to an individual older than 40 years. The accumulated evidence could point to an individual between 40 and 60 years old.
Right: lateral view; the arrow points to the calcification of the arteriae tibiales.
Both knee condyles show a ca. 83–85 mm width if mummified soft tissues are included and ca. 79–80 mm if only the bone is considered. A condyle width of ca 83–84 mm indicates that QV 66 knees were slightly slimmer than those of the younger and poorest women from Sub-Saharan Africa. There is no formula to re-calculate knee width from living to dead, only an estimate the greatest difference would be ca. 1.5 mm in knee width between living and dead persons [12,27,28]. Moreover, it was also possible to determine—acknowledging a certain degree of uncertainty—that the bones found in QV66 belonged to an individual whose stature ranged between 165 cm and 168 cm (Table A in S1 File).
Comparing knees with ancient and modern samples
Assessment of the size of the QV 66 knees revealed them to be female with a 90% likelihood. With a single exception, the knees from QV 66 belong to an individual taller than e.g. the average ancient Greek women’s range (Table A in S1 File). From the size and proportion of the knees, the most likely body height of QV 66 female was determined to be 165 cm (+/- 2.5 cm). Compared with data about women from the New Kingdom (average 156 cm) and 3rd Intermediate Period (average 158 cm), she was taller than the average Egyptian woman . The QV 66 female was approximately one Standard Deviation taller than average (or taller than 84% of the women of her time). The estimated height of ca. 165 cm is confirmed independently by the calculation of foot size and body height reconstruction obtained from the sandals found in the tomb, which, indeed, belonged to an individual of ca. 165 cm (see below). Compared to e.g. ancient Greek females QV 66 female is 95% above the ancient Greek female range and close to the average male (she is equal in height to ancient Greek and Egyptian men) [13,29].
Ancillary Egyptological analysis: the Sandals and Other Objects Found in Tomb QV 66
Only the faience knob with the name of King Ay found in tomb QV 66 belongs to the late 18th Dynasty and predates Ramses II and Nefertari by perhaps two generations. The poor quality of the shabtis was also a matter of speculation as they seemed ill-fitting for a burial of a great Queen . A fragment of a golden object with the name of Nefertari was discovered in 1988 when the tomb was restored . Other fragments of jewellery without a provenance but bearing the name of the queen are also known. They may also come from QV 66 (List B in S1 File) .
The sandals are made of sewn fibre and they belong to the group of type C sandals (Veldmeijer´s classification): type C variation 1; the front strap is Type 3 and back strap is type 2 [30,31]. The style is typical of the 18th– 19th Dynasties [32,33]. The sandals from QV 66 show some wear caused by the movement of the foot on the dorsal (upper) side, the ventral side could not be studied due to mounting on a display panel (neither by Veldmeijer, nor by the authors of the present study). The sandals measure 29 cm in length and 10 cm in width (Fig 11). Type C has a pointed, slightly upturned toe pointing to a modern shoe size of 39–40, if one only counts the length used by the foot, indicated by the imprints and the subtraction of the pointed end . Furthermore the model clearly indicates the position of the big toe, with visible marks of the size, especially on the left sandal: It can be deduced, with a certain reservation, that the sandals’ owner had a body height ranging c. 165 cm using forensic methods . Veldmeijer described the sandals as those of Queen Nefertari . The fine quality manufacture and high quality of the sandals speaks in favour of royal footwear. Thus it is widely accepted, that all objects found in QV 66 seem to be part of the original burial of Queen Nefertari, broken by ancient tomb robbers .
Chemical analysis (data on embalming agents)
The results of the chemistry of the embalming agents suggest a date earlier than the 3rd Intermediate Period, which is consistent with the evidence for the mummification materials and methods detailed below: the absence of bitumen is consistent with a New Kingdom date since it does not appear in balms from mummies until 900 BC [35,36]. The use of bitumen, and more liberal employment of tree resins in the embalming recipes, is seen in 3rd Intermediate Period mummies and later, the use and proportion of both in relation to the plant oil/animal fat base increasing over time with greatest use during the Ptolemaic and Roman Periods [35,37–39]. Bitumen was not detected in any of the samples from the knee assemblage despite selectively monitoring for the presence of hopanes (m/z 191) and steranes (m/z 217) characteristic of a true natural bitumen ; Constituents of coniferous and non-coniferous resins were also not detected. The biomarkers for both these natural products are highly resilient and so can be expected to survive in a burial environment such as QV66 if they were originally present (Fig 12). This is consistent with these samples being largely from the outer layers of wrappings where oils or fats are usually the main or only ‘embalming agent’ during the New Kingdom, and are used to convey religious, political and cultural identities at this time . In this context, it is notable that the samples from the mummified knees all revealed a non-human animal fat as the source of the embalming agents applied liberally to their linen wrappings, with all parts of the knee ‘assemblage’ showing a very similar lipid (fat) profile suggesting a likely common origin, i.e. the same individual. The same non-human animal fat, most likely a ruminant fat, constituting the embalming agent in the outer wrappings from all three parts of the knee assemblage, combined with the absence of evidence for a natron bath being employed and other aspects of the mummification, suggest a 19th or 20th Dynasty date for the mummification. Massive sub-cutaneous stuffing, the characteristic of the 3rd Intermediate Period, is not visible.
Mitochondrial sequences were only obtained from Primer Set 3, and only from the left fibula (bone) and the upper right (bone and soft tissue) samples. All samples showed multiple mtDNA sequences, with the soft and bone tissue from the upper right sampling area showing different sequences from each other. This indicated that there are at least two contamination events in these samples. The sexing assay showed a weak amplification of the X-chromosomal target in the left fibula bone sample (twice) and the left femur soft tissue sample (once), and one strong signal in the upper right soft tissue sample. The clear evidence of allelic drop-out, together with the evidence of contamination from the mtDNA data, means that no conclusions can be drawn on these data. The inappropriate genetic behaviour exhibited in these samples (for example, strong amplification of nuclear DNA with no mtDNA amplification as seen in the upper right soft tissue sample) is further evidence that these samples are not suitable for further DNA analysis.
The radiocarbon ages obtained on the 2 targets are in a very close agreement (ETH-67019.1: 3261±24 BP; ETH-67019.2: 3227±24 BP). The combined age of the sample is 3244±17 BP, X2-Test: df = 1 T = 1.0(5% 3.8). The calibration of this combined radiocarbon age results in a wide range of calendar ages. In some cases due to the shape of the calibration curve in the region of interest, the age of the sample falls into a period, where more precise information about the true age cannot be given . Such is the case of this sample (Fig 13) and all the intervals between 1607BC and 1450 BC (95.4% conf. level) has to be considered.
ETH-67019 R_Combine (3244,17)
68.2% probability 1531BC (65.1%) 1497BC
1469BC (3.1%) 1465BC
95.4% probability 1607BC (9.3%) 1582BC
1561BC (1.2%) 1553BC
1546BC (69.0%) 1491BC
1485BC (15.8%) 1450BC
All results fall in the time of the late 2nd Intermediate Period and the New Kingdom (Fig 13).
Discussion of the Different Hypotheses
The objects and human remains found in tomb QV 66 provide us with information which allows a contextualization of the findings and to access to their likelihood.
Discussion on the radiocarbon dating of the remains
The obtained radiocarbon age is older than historic date of the tomb QV 66 but a discrepancy between 14C based chronology and Egyptian calendar has been debated ever since Minoan Eruption of Thera was dated by 14C (ranging 2σ 1663–1599 B.C.) [41,42]. In addition, fish diet could have possible effect on the 14C age of the tissue as discussed in the study of mummified Ibis . Such discrepancies between 14C dates and assumed chronological models are observable for several time periods . The results appear slightly older than the assumed lifespan of Queen Nefertari (early 19th Dynasty). The potential contamination sources could be older embalming agents used for mummification as well as intruding sediment during the recorded several mudslides in antiquity . Such potential contamination would make the sample appear older. Although the old (stored) conservation agents cannot be excluded the treatment of samples removed potential contamination with carbonates and humic acids, which could originate from sediments. Furthermore, the geography of the valley and the location of tomb QV 66 make it unrealistic that older remains were washed in uphill. Rather a later dating of the remains in QV 66 would be problematic for identification as Nefertari.
Hypothesis 1: The mummified legs belong to Queen Nefertari
Reconstruction is based on ancient Egyptian funerary customs and recorded evidence found in QV 66. Nefertari died aged 40 to 50 years after the 24th year of Ramses II’s reign and was embalmed. Her mummy was decorated with funerary jewellery bearing her name as the deified Osiris (Boston, Museum of Fine Arts Inv. 04.1954, Inv. 04.1955, Inv. 04.1956). Her mummy was placed in gilded wooden coffins (splinters were found in QV 66). The coffins were placed in a stone sarcophagus (Turin, Mus. Egizio S. 5153 RCGE 17494) bearing her name. The niches in the burial chamber were equipped with magical bricks (Turin Mus. Egizio S. 5163 RCGE 14473). Statues of Gods made of black-coated wood were placed in her tomb (Turin Mus. Egizio S. 5202 RCGE 14477) along with other funerary goods, some of which bear her name (coffers: Turin Mus. Egizio S. 5198, RCGE 14474, S. 5199 RCGE 14475). The reason why the faience knob or pommel inscribed with Kheper-Kheperu-Ra’s (= King Ay) name was found in QV 66 remains a mystery. It is possible that Nefertari was a surviving descendant of the 18th Dynasty royal family. The tomb robbers smashed the stone sarcophagus, pulled the coffins out and ripped the mummy into pieces. The remains were thrown on the ground; the funerary equipment was plundered and only the wooden, clay and stone objects were left behind. Some of the funerary jewellery was lost during the looting. Later water intrusions badly damaged the tomb leaving a layer of debris over the objects. The basic anatomical observations and the mummification methods and materials are consistent with a high status burial from the 19th Dynasty.
Hypothesis 2: The remains Nefertari and one of her daughters
Following a second hypothesis, the tomb looters took away all objects belonging to Nefertari´s children and only those of Nefertari remained in the debris. The tomb robbers smashed the stone sarcophagus, pulled the coffins out and ripped the mummies of Nefertari and her children into pieces. As a matter of fact some of Nefertari´s daughters were buried in their own tombs in the Valley of the Queens: Merytamun in QV68 (her broken sarcophagus is preserved in Berlin) and Nebettaui in QV60. Even if one of her daughters, Baketmut or/and Henuttaui may have been buried at the side of their mother, there is no archaeological indication of an additional burial in QV 66. The likelihood of this hypothesis is considerably low.
Hypothesis 3: A secondary burial
The radiocarbon dating, chemistry and archaeology rule out a later burial in the 3rd Intermediate or Late Period entirely.
Hypothesis 4: The remains are washed in from an earlier burial
The results from the radiocarbon dating offer the possibility that remains from a burial of the 17th or 18th Dynasty were washed in the tomb after it was open. Archaeological material found does not support such a hypothesis (e.g. material from other time periods and inscriptions naming other individuals). Tomb QV 66 is on higher ground at the side of the Valley of the Queens, while the burials from the 17th and 18th Dynasty are on lower ground, mostly at the bottom of the valley. Mudslide and heavy rains would have washed remains out of the valley but unlikely upwards and towards the end of the valley.
The first hypothesis seems to be the most credible and realistic and is coherent with the findings of the excavators and with the inscriptions found on the funerary objects. Thus, the most likely scenario is that the mummified knees truly belong to Queen Nefertari. Although this identification is highly likely, no absolute certainty exists. A list of default criteria was made to test the likelihood of the first hypothesis (Table 1). Certain default criteria were not found, which would exclude the identification of the knees as those of Queen Nefertari (default criteria by chemistry or aDNA with reservation). The fitting criteria are in the majority (Table 1).
S1 File. Habicht et al. Nefertari Supplementary Material Online PLOSone.pdf.
- Table A in S1 File: Ancient Greek anthropometric data (Metapontum, Henneberg and Henneberg, 1998) with subsequent proportional calculations of body height as for QV 66.
- List B in S1 File: Objects from tomb QV 66 now in Turin, Mus. Egizio and Boston, Mus. of Fine Arts.
The authors of this manuscript wish to express their gratitude to the Mäxi Foundation, Zurich, Switzerland; Cogito Foundation, Zurich, Switzerland; and The Curator, Registrar and collaborators in the Museo Egizio in Turin, Italy.
The authors of this manuscript also wish to express their gratitude to Dr. Patrick Eppenberger (Institute of Evolutionary Medicine, University of Zurich) for editing the x-ray pictures.
- Conceptualization: MEH EV FJR.
- Data curation: SAB ASB LMÖ RS IH TB MH.
- Formal analysis: MEH RB SAB ASB FMG.
- Funding acquisition: MEH FJR.
- Investigation: MEH RB LMÖ RS FJR.
- Methodology: MEH RB SAB LMÖ RS FMG TB FJR.
- Project administration: MEH RB FMG FJR.
- Resources: FJR.
- Supervision: JF EV FJR.
- Visualization: LMÖ RS.
- Writing – original draft: MEH RB SAB JF LMÖ IH FJR.
- Writing – review & editing: MEH FMG FJR.
- 1. Schiaparelli E. Inventario manoscritto. 1904.
- 2. Vassilika E. Masterpieces of the Museo Egizio in Turin. Firenze: Scala Group; 2012.
- 3. Grilletto R. Materiali antropologici e zoologici provenienti dall’Egitto e conservati nel Museo Egizio di Torino e nel Museo di Anthropologia dell’ Università di Torino, consistenza e collocazione al 1991. Torino; 1991.
- 4. Dodson A, Hilton D. The Complete Royal Families of Ancient Egypt. Thames & Hudson; 2004.
- 5. Leblanc C, Siliotti A. Nefertari e la Valle delle Regine. Florence: Giunti; 1993.
- 6. Hari R. Mout-Nefertari, épouse de Ramsès II: Une descendante de l’héretique Ai? Aegyptus. 1979;59: 3–7.
- 7. McDonald JK. House of eternity: the tomb of Nefertari. Cairo: The American University in Cairo Press; 1996.
- 8. Willeitner J, Schmidt HC. Nefertari. Gemahlin Ramses II. Mainz: Philipp Von Zabern; 1997.
- 9. Leblanc C. Isis-Nofret, grande épouse de Ramsès II. Quelques reflexions sur la reine, sa famille et Nofretari. BIFAO. 1993;93: 313–333.
- 10. Schlögl HA. Ramses II. 3rd ed. Reinbeck bei Hamburg: Rowohlt; 2000.
- 11. Willeitner J. Abu Simbel: die Felsentempel Ramses’ II. von der Pharaonenzeit bis heute. Mainz am Rhein: Verlag Philipp von Zabern; 2010.
- 12. Henneberg M, Louw GJ. Average menarcheal age of higher socioeconomic status urban Cape coloured girls assessed by means of status quo and recall methods. Am J Phys Anthropol. 1995;96: 1–5. pmid:7726292
- 13. Henneberg M, Henneberg RJ. Biological Characteristics of the Population Based on Analysis of Skeletal Remains. In: Carter JC, Morter J, Toxey AP, editors. The Chora of Metaponto The Necropoleis Volume II. Austin, TX: University of Texas Press; 1998. pp. 503–556.
- 14. Trotter M, Gleser GC. A re-evaluation of stature based on measurements of stature taken during life and of long bones after death. Am Journ Phys Anthropol. 1958;16: 79–123.
- 15. Trotter M, Gleser GC. Corrigenda to ‘estimation of stature from long limb bones of American Whites and Negroes,’ American Journal Physical Anthropology (1952). Am J Phys Anthropol. 1977;47: 355–356. pmid:910890
- 16. Pearson K. Mathematical Contributions to the Theory of Evolution. V. On the Reconstruction of the Stature of Prehistoric Races. Philos Trans R Soc London Ser A, Contain Pap a Math or Phys Character. 1899;192: 169–244.
- 17. Krishan K, Kanchan T. Foot length is a functional parameter for assessment of height. Foot (Edinb). 2013;23: 54–5. pmid:23414623
- 18. Pawar RM, Pawar MN. ‘Foot length—A functional parameter for assessment of height’. Foot (Edinb). 2012;22: 31–4. pmid:22280993
- 19. Krüttli A, Bouwman A, Akgül G, Della Casa P, Rühli FJ, Warinner C. Ancient DNA analysis reveals high frequency of European lactase persistence allele (T-13910) in medieval central europe. PLoS One. 2014;9: e86251. pmid:24465990
- 20. Hajdas I. Radiocarbon: Calibration to Absolute Time Scale. In: Turekian K, Holland H, editors. Treatise on Geochemistry. 2nd ed. Oxford: Elsevier; 2014. pp. 37–43.
- 21. Hajdas I. Radiocarbon dating and its applications in Quaternary studies. Eiszeitalter und Gegenwart Quat Sci J. 2008;57.
- 22. Wacker L, Nemec M, Bourquin J. A revolutionary graphitisation system: Fully automated, compact and simple. Nucl Instruments Methods Phys Res Sect B-Beam Interact with Mater Atoms. 2010;268: 931–934.
- 23. Synal HA, Stocker M, Suter M. MICADAS: A new compact radiocarbon AMS system. Nucl Instruments Methods Phys Res Sect B-Beam Interact with Mater Atoms. 2007;259: 7–13.
- 24. Stuiver M, Polach HH. Reporting 14C data. Radiocarbon. 1977;19: 355–363.
- 25. Bronk Ramsey C., Scott M, van der Plicht H. Calibration for Archaeological and Environmental Terrestrial Samples in the Time Range 26–50 ka cal BP. Radiocarbon. 2013;55: 2021–2027. Available: http://www.rug.nl/research/portal/files/2341905/2013RadiocarbonBronkRamsey.pdf
- 26. Reimer PJ, Bard E, Bayliss A, Beck JW, Blackwell PG, Bronk Ramsey C, et al. IntCal13 and Marine13 Radiocarbon Age Calibration Curves 0–50,000 Years cal BP. Radiocarbon. 2013;55.
- 27. Henneberg M, Louw GJ. Cross-sectional Survey of Growth of Urban and Rural ‘“Cape Coloured”‘ School children: Anthropometry and Functional Tests. Am J Phys Anthropol. 1998;10: 73–85.
- 28. Siddiqi N. Comparison of osteometric femoral bone dimensions among the South Africans of different ethnic groups and South African whites. Egypt J Forensic Sci. 2013;3: 8–14.
- 29. Habicht ME, Henneberg M, Öhrström LM, Staub K, Rühli FJ. Body Height of Mummified Pharaohs Supports Historical Suggestions of Sibling Marriages [online]. Am J Phys Anthropol. 2015; pmid:25916977
- 30. Veldmeijer AJ, Clapham AJ. Tutankhamun’s footwear: studies of ancient Egyptian footwear. Leiden: Sidestone Press; 2011.
- 31. Veldmeijer AJ. Studies of Ancient Egyptian Footwear. Technological Aspects. Part VI. Sewn Sandals. In: Ikram S, Dodson A, editors. Beyond the Horizon Studies in Egyptian Art, Archaeology and History in Honour of Barry J Kemp. Cairo: The Supreme Council of Antiquities; 2009. pp. 554–580.
- 32. Zoffili E. Kleidung und Schmuck im Alten Ägypten. Frankfurt am Main: Propyläen Verlag; 1992.
- 33. Vogelsang-Eastwood GM. Die Kleider des Pharaos. Die Verwendung von Stoffen im Alten Ägypten. Hannover: Kestner-Museum; 1995.
- 34. Convert World: Shoe size. In: Convert World [Internet]. 2014. Available: http://www.convertworld.com/en/shoe-size/
- 35. Harrell JA, Lewan MD. Sources of mummy bitumen in ancient Egypt and Palestine. Archaeometry. 2002;44: 285–293.
- 36. Buckley SA, Nissenbaum A. Dead sea asphalt in ancient egyptian mummies-why? Archaeometry. 2013;55: 563–568.
- 37. Buckley S, Evershed RP. Organic chemistry of embalming agents in Pharaonic and Graeco-Roman mummies. Nature. 2001;413: 837–841. pmid:11677605
- 38. Colombini MP, Modugno F, Silvano F, Onor M. Characterization of the balm of an Egyptian mummy from the seventh century B.C. Stud Conserv. 2000;45: 19–29.
- 39. Connan J. Le bitume des momies Égyptiennes, un passport pour l’éternité. Recherche. 1991;238: 1503–1504.
- 40. Rullkötter J, Nissenbaum A. Dead Sea asphalt in Egyptian mummies: molecular evidence. Naturwissenschaften. 1988;75: 618–621. pmid:3237249
- 41. Friedrich WL, Kromer B, Friedrich M, Heinemeier J, Pfeiffer T, Talamo S. Santorini Eruption Radiocarbon Dated to 1627–1600 B.C. Science (80-). 2006;312: 548. pmid:16645088
- 42. Bietak M. Science Versus Archaeology: Problems and Consequences of High Aegean Chronology. The Synchronisation of Civilisations in the Eastern Mediterranean in the Mid Second Millenium. Wien: Oxbow Books; 2003. pp. 22–33.
- 43. Wasef S, Wood R, El Merghani S, Ikram S, Curtis C, Holland B, et al. Radiocarbon dating of Sacred Ibis mummies from ancient Egypt. J Archaeol Sci. 2015;4: 355–361.
- 44. Gautschy R, Habicht ME, Galassi FM, Rutica D, Hannig R, Rühli FJ. A new astronomically based chronological model for the Egyptian Old Kingdom [submitted]. 2016;