UN@ est une plateforme d'édition de livres numériques pour les presses universitaires de Nouvelle-Aquitaine

Continuity of the Early Dynastic and Old Kingdom plant economy in Egypt? A comparison of the archaeobotanical assemblages of Tell el-Iswid, Deir el-Bersha and el-Sheikh Sa’id/Wādī Zabayda

by

Introduction

Since the introduction and establishment of agriculture in ancient Egypt during the 4th millennium BC it seems that an overall conservative, but also stable agricultural economy was established. Already during the Predynastic and Early Dynastic period its main elements were present and well pronounced, including the same inventory of staple cereal crops (hulled barley and emmer), pulses (mostly lentil and pea), vegetables like chate melon,1 fibre crops like flax and at least some condiments like dill.2 The coherence of the economic footprint of the ancient Egyptian plant economy during Early Dynastic and later Pharaonic times is also traceable by the very uniform crop weed assemblages3 and the persistently important interrelation of fodder and fuel resources.4

The majority of Early Dynastic and Old Kingdom sites which have yielded archaeobotanical assemblages are concentrated in the Nile Delta or Lower Egypt. They reflect the plant economy of these important periods when social and economic stratification, “urbanisation” and various cultural influences were introduced in Egypt. This archaeobotanical evidence also bears witness to the practice of agriculture affected by the processes of specialization and hierarchy during the formation of the ancient Egyptian state. Most of our knowledge of Old Kingdom agriculture and plant-related economy in Egypt comes from Upper and Lower Egypt,5 while much less is known about its development in Middle Egypt.

Evaluation of representative, quantified archaeobotanical assemblages from different types of features could help to recognise possible differences or continuous trends in the plant economy of the Early Dynastic period and the Old Kingdom. While for later dynastic periods (2181–1069 BC) the hypothesis of an overall continuity of the major elements of the Old Kingdom plant economy was rejected, at least concerning fodder and fuel,6 it is still not clear if certain continuity of the plant economy is traceable in the archaeobotanical assemblages from the preceding periods (3300–2181 BC).

The Old Kingdom archaeobotanical assemblages obtained in the framework of the Deir el-Bersha project undertaken in Middle Egypt by KU Leuven and the Netherlands-Flemish Institute in Cairo (NVIC) provide a quantified dataset of plants cultivated, consumed and discarded at the 3rd/4th and 5th/6th Dynasty cemeteries of Deir el-Bersha and at the 4th Dynasty industrial site at el-Sheikh Sa’id/Wādī Zabayda (fig. 1). The fully quantified archaeobotanical assemblages and the archaeobotanical evidence from the Naqada IIIA–D period from Tell el-Iswid (fig. 1), previously studied by the first two authors,7 are taken in the current paper as a case study. Here, these archaeobotanical assemblages will be interpreted in terms of recognising possible common elements and differences of the plant economy of Egypt during the formation and establishment of dynastic rule. Moreover, the study will also pay attention on the specific natural circumstances and constraints typical for both considered regions, thereby seeking to overcome the spatial and, related with it, environmental discrepancies between the Delta and Middle Egypt.

Fig. 1. Map of Egypt, with the study sites.

Material and methods

Deir el-Bersha is located in Middle Egypt about 300 km south of Cairo, on the east bank of the Nile. The current research on the site and its surroundings started already in 1988 under the direction of Harco Willems and focused on the various cemeteries and settlements in Deir el-Bersha and the surrounding region.8 The main aim was to understand better the spatial organization of the burial sites from the Old Kingdom, the First Intermediate Period and the Middle Kingdom and to gain insights into the social stratification of the community buried there.

Various parts of an early Old Kingdom cemetery, containing rock circle tombs on the escarpment (in zone 8), were investigated between 2009 and 2013.9 It concerns small, simple near-surface burials, surrounded and covered with stones and boulders, ranging in date between the late 2nd and the early 4th Dynasties. During the excavation, black ash spots were observed, which usually contained lots of burned plant remains. Most of the samples derive from poorly fired clay coffins made of Nile clay tempered with abundant plant fragments (Nile C fabric), eroded to very small particles. The rich organic tempering of the pottery coffins yielded numerous, well preserved, mostly charred plant remains. Another source of archaeobotanical finds were the contents of beer jars and Maidum bowls, containing beside charred also desiccated plant remains.

A second area at Deir el-Bersha that is considered here is the late Old Kingdom necropolis on the south hill of the site (zone 7). Here, several well-preserved funerary deposits were found, some of which were rich in plant material. The first one is a deposit of 6th Dynasty beer jars (F3377) filled with Nile mud or a combination of Nile mud and limestone debris. A large concentration of such jars was found in front of the door of a rock-cut tomb. Charred plant remains and charcoal seem to be indicative of a funerary pire that once took place here. Close to this deposit of beer jars, a late Old Kingdom embalming deposit (F3380) was encountered, consisting of a shallow structure on top of the bedrock filled almost entirely with broken red-slipped plates. Based on the ceramic material, this deposit too can be dated to the 6th Dynasty. Both deposits are clearly the result of funerary practices that took place in the necropolis at the end of the Old Kingdom.

Some 5 km further south, between Deir el-Bersha and Amarna, lies the site of el-Shaykh Sa’īd/Wādī Zabayda, where during the 4th Dynasty (reign of king Khufu) a quarry and stone-processing site existed.10 The Old Kingdom archaeobotanical assemblages used in the current study were collected in the framework of the Deir el-Bersha project and comprise mainly charred plant remains and a small amount of mineralized and desiccated plant remains, covering the time span of ca. 2589–2566 BC.

This entire dataset comprises in total 56 samples from 42 different archaeological contexts, referred to below as “features” (32 samples from the burials of Deir el-Bersha, zones 7 and 8, as well as 26 samples from el-Shaykh Saʻīd/Wādī Zabayda, sectors 1 and 4). The features sampled from Deir el-Bersha all coming from burial contexts were classified as “pottery coffin”, “beer jar/vessel content” and “embalming deposit”, while the feature type from el-Shaykh Saʻīd/Wādī Zabayda was classified as “dump deposit” (tab. 2).

For a comparison with the Old Kingdom plant economy, a quantitative Early Dynastic archaeobotanical assemblage of Tell el-Iswid was chosen. This dates to the Naqada IIIA–D period (3300–2900 BC) and was largely already published elsewhere.11 The predynastic site of Tell el-Iswid is located in the Eastern Nile Delta, 120 km north-east of Cairo, in the province of Sharqīya. The excavations are part of an archaeological research project of the Institut Français d’Archéologie Orientale (IFAO), which began in 2006 and is still ongoing.12 The study of the site provided an important contribution to the understanding of the processes of homogenization of the material culture which took place during the formation of the Egyptian State.13 Its recent archaeobotanical evidence reflects the general trends and variability in space and time of the long-term predynastic occupation (covering the 4th millennium BC) of the site and contributed to the understanding of the diachronic evolution of plant subsistence representative of the Nile Delta region. In this study, we choose to focus on the Predynastic and Early Dynastic period, because it is an important period for understanding the genesis of the dynastic period and the societal and technological innovations associated with it. The studied material includes charred and mineralised plant macrofossils coming from soil samples taken during the 2013–2023 excavation seasons. The dataset comprises in total 39 samples from 37 different archaeological contexts. Sediments were mostly collected from the following feature types: ovens (15) and cultural layers (20), but also silos (2).

At all of the sites presented in this paper, the sediment samples, taken from the corresponding cultural layers, were treated on-site by manual flotation to extract the plant macrofossils. The sieve meshes for flotation included 2 mm, 1 mm and 0.3 mm, aiming to capture even the smallest plant macro remains. The plant remains extracted by flotation were then studied in the field laboratories of each respective excavation. The laboratory work included the sorting and identification of the plant remains preserved in the samples, and the identification of the plant remains was finalized using the reference collections of the IFAO, Cairo. This work was carried out using a low-magnification stereomicroscope (from 10x to 70x).

After primary identification, all the archaeobotanical data (tab. 1 and 2) were stored in the archaeobotanical database program ArboDat14 and thus in a format suitable for subsequent analyses and comparisons. To assess the archaeobotanical assemblages we consider primarily the charred plant macro remains as the most numerous components of the studied assemblages. The datasets were evaluated by applying basic qualitative and quantitative approaches (such as calculations of concentration, diversity and frequency of plant remains). The identified plant taxa were grouped into the main ecological and economic groups, then the proportions between the sums of these groups were calculated. In addition, the contextual information available on the various structures from which the plant remains originated was used to interpret the archaeobotanical evidence obtained. Multivariate analysis of the dataset was performed with the PAST,15 applying correspondence analysis (CA) on all the samples classified by feature type and containing more than 15 identifiable charred items and at least 6 different taxa and transforming the absolute values in logarithmic. The desiccated plant remains were excluded as they were available only in the assemblages from Deir el-Bersha and thus represent a find category which is not common for both study areas. We applied CA analysis to explore the variation among crops, arable weeds, and other wild plants within the feature types and to reveal the possible similarity or dissimilarity trends in samples composition according to feature type for the two considered periods. 

PeriodNaqada III A/DOld Kingdom 3, 4,5/6
Sample Volume (l)32454
Number of Samples3956
Feature number3742
Sum plant remains757815195
sumubiquity in %sumubiquity in %
Cereal crops
Hordeum vulgare undiff.seed/fruitcharred285628433
Hordeum vulgare hulledseed/fruitcharred7823740
Hordeum vulgare undiff.seed/fruitmineralised1300
Hordeum vulgare undiff.seed/fruitdessicated00242
Hordeum vulgare undiff.rachis segmentcharred2194162167
Hordeum vulgare undiff.rachis segmentmineralised1300
Hordeum vulgare undiff.rachis segmentdessicated004812
Triticum dicoccumseed/fruitcharred13738156152
Triticum dicoccumglume basecharred6918636260
Cerealia indet.seed/fruitcharred1657864833
Pulses
Lathyrus cicera/sativusseed/fruitcharred003517
Lens culinarisseed/fruitcharred411910
Pisum sativumseed/fruitcharred253587
Fabaceae (kult.)seed/fruitcharred373545
Oil/fiber cropsseed/fruitcharred382717
Linum usitatissimumseed/fruitcharred38912
Linum usitatissimumcapsulecharred0045
Linum usitatissimumcapsule dentcharred0045
Linum usitatissimumcapsule dentdessicated00107
Garden/Imported Plants
cf. Anethum graveolensseed/fruitcharred9512
Beta vulgarisseed/fruitcharred0065
Cucumis meloseed/fruitcharred3375133
Cucumis meloseed/fruitmineralised8361629
Ficus caricaseed/fruitcharred006612
Ficus caricaseed/fruitmineralised2312
Ficus sycomorusseed/fruitcharred1332
Ficus sycomorusseed/fruitdessicated0075
Ficus sp.seed/fruitcharred4500
cf. Origanumseed/fruitcharred2500
cf. Vitis viniferaseed/fruitcharred2500
Potential field weeds
Anthemis pseudocotulaseed/fruitcharred78137
Avena spec.seed/fruitcharred0035
Bromus spec.seed/fruitcharred151413533
Cuscuta spec.stem/culm fragm.charred002012
Lathyrus hirsutus/Vicia (klein)seed/fruitcharred185598219
Lolium temulentumseed/fruitcharred112692158164
Lolium spec.seed/fruitcharred1284619
Lolium spec.seed/fruitmineralised1300
Phalaris minor/paradoxaseed/fruitcharred7798934260
Phalarisseed/fruitmineralised1300
Rumex crispus/dentatusseed/fruitcharred3948128350
Scorpiurus sp.seed/fruitcharred001910
Sherardia arvensisseed/fruitcharred1300
Veronica politaseed/fruitdessicated0032
Vicia hirsuta/tetraspermaseed/fruitcharred7627277
Ruderals/Segetals undiff.
Ammi cf. visnagaseed/fruitcharred1300
Chenopodium ficifolium/polyspermumseed/fruitcharred00352
Chenopodium muraleseed/fruitcharred001112
Chenopodium spec.seed/fruitcharred71435
Digitaria sanguinalisseed/fruitcharred25810
Echinochloa crus-galliseed/fruitcharred0000
Echinochloa/Setariaseed/fruitcharred1119510
Heliotropiumseed/fruitdessicated0012
Medicago/Trifoliumseed/fruitcharred232219
Oryzopsis milliaceumseed/fruitcharred8500
Phleum spec.seed/fruitcharred43
Poa spec.seed/fruitcharred95
Polypogonseed/fruitcharred98125
Portulaca oleracea s.l.seed/fruitcharred2341921
Portulaca oleracea s.str.whole fruitcharred00127
Setaria verticillata/viridisseed/fruitcharred1357
Setaria spec.seed/fruitcharred121622
Setaria spec.seed/fruitmineralised1300
Trifolium spec.seed/fruitcharred55541710
Verbena officinalisseed/fruitdessicated0042
Riparian/Floodplain Vegetation7948652569
Aeluropus littoralisseed/fruitcharred4300
cf. Berula erectaseed/fruitcharred2300
Bolboschoenusseed/fruitcharred71100
cf. Bolboschoenusseed/fruitcharred2500
Carex spec.seed/fruitcharred1365
Coronopus cf. niloticusseed/fruitcharred00142
Cyperus cf. rotundusrhizomecharred8500
Cyperusrhizomecharred43587
Cyperusrhizomemineralised0052
cf. Cyperusseed/fruitcharred0085
Cyperaceaeseed/fruitcharred64271421
Cyperaceaeseed/fruitmineralised4300
Cyperaceaestem/culm fragm.charred352785
cf. Cyperaceaestem/culm fragm.charred0022
Eleocharisseed/fruitcharred53271412
Eleocharisseed/fruitmineralised532262
Fimbristylisseed/fruitcharred0087
Glinus lotoidesseed/fruitcharred1300
Isolepisseed/fruitcharred281600
Isolepisseed/fruitmineralised1300
Persicaria lanigera/lapatifoliaseed/fruitcharred854612
Phragmitesstem/culm fragm.charred4122407
Ranunculus aquatilis agg.seed/fruitcharred0012
Desert242257362
Acacia sp.seed/fruitcharred002629
Acacia sp.leaf/needlecharred002110
Acacia sp.whole fruitcharred0029624
Acacia sp.infructescencecharred0042
Anabasisseed/fruitcharred0022
Anabasisstem/culm fragm.dessicated00157
Arnebiastem/culm fragm.charred2300
cf. Capparisseed/fruitcharred3500
Echium rauwolfiiseed/fruitcharred0077
cf. Ornithogalumseed/fruitcharred3300
Pulicariaseed/fruitcharred111113224
Pulicariainfructescencecharred333417
Tamarixseed/fruitcharred2382
Tamarixtwig/branchetdessicated0032
Zilla spinosaseed/fruitcharred0012
Varia6678632562
Other10147032148
Tab. 1. Summary of the results of the archaeobotanical studies from both considered periods and study areas.
12345678910111213141516171819202122232425262728293031323334353637sumubiquity in %123456789101112131415161718192021222324252627282930313233343536373839404142sumubiquity in %
PeriodNeoNeoNeoNeoNeoNeoNeoNeoNeoNeoNeoNeoNeoNeoNeoNeoNeoNeoNeoNeoNeoNeoNeoNeoNeoNeoNeoNeoNeoNeoNeoNeoNeoNeoNeoNeoNeoBABABABABABABABABABABABABABABABABABABABABABABABABABABABABABABABABABABABABABABABABABA
Archaeological DatingNGD3 CDNGD3 CDNGD3 CDNGD3 CDNGD3 CDNGD3 ABNGD3 ABNGD3 ABNGD3 ABNGD3 ABNAGD3NAGD3NAGD3NAGD3NAGD3NAGD3NAGD3NAGD3NAGD3NAGD3NAGD3NAGD3NAGD3NAGD3NAGD3NAGD3NAGD3NAGD3NAGD3NAGD3NGDNGDNGDNGDNGDNGDNGDOK 5/6OK 3OK 3OK 3OK 3OK 3OK 3OK 3OK 3OK 3OK 3OK 3OK 3OK 3OK 3OK 4OK 4OK 4OK 4OK 4OK 4OK 4OK 4OK 4OK 4OK 4OK 4OK 4OK 4OK 4OK 4OK 4OK 5/6OK 5/6OK 5/6OK 5/6OK 5/6OK 5/6OK 5/6OK 5/6OK 5/6OK 5/6
SiteIswid ISWIswid ISWIswid ISWIswid ISWIswid ISWIswid ISWIswid ISWIswid ISWIswid ISWIswid ISWIswid ISWIswid ISWIswid ISWIswid ISWIswid ISWIswid ISWIswid ISWIswid ISWIswid ISWIswid ISWIswid ISWIswid ISWIswid ISWIswid ISWIswid ISWIswid ISWIswid ISWIswid ISWIswid ISWIswid ISWIswid ISWIswid ISWIswid ISWIswid ISWIswid ISWIswid ISWIswid ISWIswid ISWBarsha DALBBarsha DALBBarsha DALBBarsha DALBBarsha DALBBarsha DALBBarsha DALBBarsha DALBBarsha DALBBarsha DALBBarsha DALBBarsha DALBBarsha DALBBarsha DALBShaykhSaid SouthShaykhSaid SouthShaykhSaid SouthShaykhSaid SouthShaykhSaid SouthShaykhSaid SouthShaykhSaid SouthShaykhSaid SouthShaykhSaid SouthShaykhSaid SouthShaykhSaid SouthShaykhSaid SouthShaykhSaid SouthShaykhSaid SouthShaykhSaid SouthShaykhSaid SouthShaykhSaid SouthBarsha_S DALB (south hill)Barsha_S DALB (south hill)Barsha_S DALB (south hill)Barsha_S DALB (south hill)Barsha_S DALB (south hill)Barsha_S DALB (south hill)Barsha_S DALB (south hill)Barsha_S DALB (south hill)Barsha_S DALB (south hill)Barsha_S DALB (south hill)
Site TypeTellTellTellTellTellTellTellTellTellTellTellTellTellTellTellTellTellTellTellTellTellTellTellTellTellTellTellTellTellTellTellTellTellTellTellTellTellTellburial groundburial groundburial groundburial groundburial groundburial groundburial groundburial groundburial groundburial groundburial groundburial groundburial groundburial groundindustrial siteindustrial siteindustrial siteindustrial siteindustrial siteindustrial siteindustrial siteindustrial siteindustrial siteindustrial siteindustrial siteindustrial siteindustrial siteindustrial siteindustrial siteindustrial siteindustrial siteburial groundburial groundburial groundburial groundburial groundburial groundburial groundburial groundburial groundburial ground
Feature Typecult.layercult.layercult.layercult.layercult.layercult.layercult.layercult.layerovenovencult.layerovencult.layerovenovencult.layerpitcult.layercult.layercult.layercult.layercult.layercult.layercult.layercult.layercult.layerovenovenovenovencult.layercult.layerovenovencult.layerSiloSilocult.layervessel contentbeer jarbeer jarbeer jarpottery coffinpottery coffinpottery coffinpottery coffinvessel contentpottery coffinbeer jarvessel contentcultural layerbeer jardump depositdump depositdump depositdump depositdump depositdump depositdump depositdump depositdump depositdump depositdump depositdump depositdump depositdump depositdump depositdump depositdump depositbeer jarbeer jarbeer jarbeer jarbeer jarbeer jarbeer jarembalming deposit embalming deposit beer jar
Sample Volume (l)979335876689815121281866106.5891.59828718888168883240.50.80.20.60.50.50.50.40.50.50.50.40.20.30.20.70.416.250.30.50.555.550.50.70.50.20.20.250.20.50.410.510.71.330.30.2553.8
Number of Samples11111111111211111111111111121111111113911112111111111112125111131211111112111231156
FeatureUS 6810US 6712US 6773US 6803US 9519US 13099US 6863US 9200US 9036US 14078US 14038US 14131US 14418US 15071US 15108US 15140US 14050foyer 2174US 9321US 9404_foyer 2093US 9859/9860US 9870_foyer2163US 9880_foyer 2166US 10610US 11012US 14021US 10503US 13017US 13066US 13145US 22200US '23024US '23040US '21212 fondUS '22234US '23046US '23046 fondUS 150674992_4_z8_s864513_3_z8_s154517_3_z8_s154518_3_z8_s154527_1/2_z8_s164527_1_z8_s164527_3_z8_s164590_4_z8_s184884_3_z8_s784958_24_z8_s864971_64_z8_s864992_3_z8_s8610803_1_z8_s934971_61_z8_s86S6BS9S13S54S54AS57S58S59S64S65S117S120S122S123S124S127S1283377_2_z7_s123377_36_z7_s123377_38_z7_s123377_39_z7_s123377_40_z7_s123377_43_z7_s123377_44_z7_s123380_2_z7_s123380_14_z7_s123380_4_z7_s12
Sum plant remains23819950435413314314425111158308218155221191078182602117544366164225332861815430210890269299133148329916667578789167501400300314125180248639017610510027874188686424171221220415172921266589361266212116023297919654571471620915195
Concentration per liter26285611844491836191039242351091021435134410212522322327012111343783603720834.0844128895855133462620005006282503606201278035226350092737026917064266773744083034638313012772630310484800467379386564551653836402
RTypPres.
Cereal crops
Hordeum vulgare undiff.seed/fruitcharred5943735126141174219211151411222856221782323622971118433
Hordeum vulgare hulledseed/fruitcharred1247882895112481412022371514323740
Hordeum vulgare undiff.seed/fruitmineralised11300
Hordeum vulgare undiff.seed/fruitdessicated0024242
Hordeum vulgare undiff.rachis segmentcharred4371254826881130212721941197848434728466491434386821247910333111333262167
Hordeum vulgare undiff.rachis segmentmineralised11300
Hordeum vulgare undiff.rachis segmentdessicated001361374812
Triticum dicoccumseed/fruitcharred26444101212264265413738913712146118607355191584371612867156152
Triticum dicoccumglume basecharred5638239612191456077123789244276212628464013779111969186562528181841847428311654371416231121136260
Cerealia indet.seed/fruitcharred743415234132823222631323772674678110027397180309165786926812551141214833
Pulses311552152141282843866511273221222121735633
Lathyrus cicera/sativusseed/fruitcharred00122202173517
Lens culinarisseed/fruitcharred11114112232910
Pisum sativumseed/fruitcharred1112211118141253515287
Fabaceae (kult.)seed/fruitcharred233142311181737351345
Oil/fiber crops1113843256522717
Linum usitatissimumseed/fruitcharred1113831221912
Linum usitatissimumcapsulecharred001345
Linum usitatissimumcapsule dentcharred002245
Linum usitatissimumcapsule dentdessicated00352107
Garden/Imported Plants221212111931244131143539531811463513131194514294145150
cf. Anethum graveolensseed/fruitcharred1895112
Beta vulgarisseed/fruitcharred004265
Cucumis meloseed/fruitcharred333101333034955629326441275133
Cucumis meloseed/fruitmineralised883325144769372877922661629
Ficus caricaseed/fruitcharred0031362156612
Ficus caricaseed/fruitmineralised223112
Ficus sycomorusseed/fruitcharred113332
Ficus sycomorusseed/fruitdessicated003475
Ficus sp.seed/fruitcharred224500
cf. Origanumseed/fruitcharred112500
cf. Vitis viniferaseed/fruitcharred112500
Potential field weeds834512743529111257151694294164311512926428967532672375114971152860212615721961002001573581114430450349127231930151436931746552043038105726142112227183
Anthemis pseudocotulaseed/fruitcharred14278292137
Avena spec.seed/fruitcharred002135
Bromus spec.seed/fruitcharred212191514130221111383111221213533
Cuscuta spec.stem/culm fragmentcharred00842422012
Lathyrus hirsutus/Vicia (klein)seed/fruitcharred62436419331341184141112364612185592271614318118219
Lolium temulentumseed/fruitcharred46311683977162152211929172815125630134437161289587121153143
Lolium cf. temulentumseed/fruitcharred73347383314171038720121965315111632028266549117059862424465024
Lolium spec.seed/fruitcharred62412811616182114619
Lolium spec.seed/fruitmineralised11300
Phalaris minorseed/fruitcharred362184342111313910143411481350433475
Phalaris minor/paradoxaseed/fruitcharred105363414672781588487221541443552752415611166520626
Phalarisseed/fruitcharred341881223622371415241212931
Phalarisseed/fruitmineralised11300
Scorpiurus sp.seed/fruitcharred00310241910
Sherardia arvensisseed/fruitcharred11300
Veronica politaseed/fruitdessicated00332
Vicia hirsuta/tetraspermaseed/fruitcharred146394314413676274194277
Ruderals/Segetals undiff.279245141022171216231237685121247014551351031712244789583217461555650
Ammi cf. visnagaseed/fruitcharred11300
Chenopodium ficifolium/polyspermumseed/fruitcharred0035352
Chenopodium muraleseed/fruitcharred00222231112
Chenopodium spec.seed/fruitcharred112217142135
Digitaria sanguinalisseed/fruitcharred11253221810
Echinochloa crus-galliseed/fruitcharred0000
Echinochloa/Setariaseed/fruitcharred222111211191121510
Heliotropiumseed/fruitdessicated00112
Medicago/Trifoliumseed/fruitcharred223211431912219
Oryzopsis milliaceumseed/fruitcharred178500
Phleum spec.seed/fruitcharred443
Poa spec.seed/fruitcharred7295
Polypogonseed/fruitcharred2169884125
Portulaca oleracea s.l.seed/fruitcharred2234523367645254341921
Portulaca oleracea s.str.whole fruitcharred00192127
Setaria verticillata/viridisseed/fruitcharred11321257
Setaria spec.seed/fruitcharred1131421216222
Setaria spec.seed/fruitmineralised11300
Trifolium spec.seed/fruitcharred2312111912112421114515554123111710
Trifolium spec.seed/fruitmineralised0000
Verbena officinalisseed/fruitdessicated00442
Riparian/Floodplain Vegetation17243373601533018264972810078397381510138163676237422794862510636111117121841327148958112284620812252569
Aeluropus lithoralisseed/fruitcharred44300
cf. Berula erectaseed/fruitcharred22300
Bolboschoenusseed/fruitcharred212271100
cf. Bolboschoenusseed/fruitcharred112500
Carex spec.seed/fruitcharred1132465
Coronopus cf. niloticusseed/fruitcharred0014142
Cyperus cf. rotundusrhizomecharred268500
Cyperusrhizomecharred44325825587
Cyperusrhizomemineralised00552
Cyperusrhizomedessicated0000
Cyperusstem/culm fragmentcharred5538634487
cf. Cyperusseed/fruitcharred001785
Cyperaceaeseed/fruitcharred2123452311464271222311111421
Cyperaceaeseed/fruitmineralised44300
Cyperaceaeseed/fruitdessicated0000
Cyperaceaerhizomedessicated00112
Cyperaceaestem/culm fragmentcharred1131224335135275385
cf. Cyperaceaestem/culm fragmentcharred00222
Desmostachya bipinnatastem/culm fragmentcharred0000
Eleocharisseed/fruitcharred212443665115327223431412
Eleocharisseed/fruitmineralised1284139435322662
Fimbristylisseed/fruitcharred0015287
Glinus lotoidesseed/fruitcharred11300
Glinus lotoidesseed/fruitdessicated0000
Isolepisseed/fruitcharred1221121281600
Isolepisseed/fruitmineralised11300
Persicaria lanigera/lapatifoliaseed/fruitcharred1412212265311112238546112
Phragmitesstem/culm fragmentcharred34543173241223082407
Ranunculus aquatilis agg.seed/fruitcharred00112
Rumex crispus/dentatusseed/fruitcharred77233521492363417282313151935671332742373183948110331697124123248848292841928350
Rumex spec.seed/fruitmineralised22300
Rumex spec.pericarpcharred0015287
14 Desert32342613242221067733104712127185124513214119417313784157362
Acacia sp.seed/fruitcharred001111211632432629
Acacia sp.seed/fruitdessicated00112
Acacia sp.leaf/needlecharred0045482110
Acacia sp.whole fruitcharred001106673244761231829624
Acacia sp.infructescencecharred00442
Acacia sp.infructescencedessicated0023232
Anabasisseed/fruitcharred00222
Anabasisstem/culm fragmentdessicated00735157
Arnebiastem/culm fragmentcharred22300
cf. Capparisseed/fruitcharred213500
Echium rauwolfiiseed/fruitcharred0021477
cf. Ornithogalumseed/fruitcharred33300
Pulicariaseed/fruitcharred3224111152114118268412513224
Pulicariainfructescencecharred33334478533417
Tamarixseed/fruitcharred223882
Tamarixtwig/branchetdessicated00332
Zilla spinosaseed/fruitcharred00112
11 Varia84115184285418633527101211631452946111121113556678615502111595491832221311123161911552032562
Amaranthaceaeseed/fruitcharred66300
Apiaceaeseed/fruitcharred11248112
Asteraceaeseed/fruitcharred21421151619112
Asteraceaeleaf/needleücharred11300
Asteraceaeinfructescencecharred11300
Brassicaceaeseed/fruitcharred1113800
Fabaceaeseed/fruitcharred1121016718114211212914
Lamiaceaeseed/fruitcharred112500
Lamiaceaeseed/fruitmineralised113
Poaceaeseed/fruitcharred211115210111691943011141111914
Poaceaebasal part of plantcharred24652355
Poaceaedessicated00552
Poaceaeawncharred0050502
Poaceaeclumcharred178550146707
Poaceaeclumdessicated009342193712
Poaceaehalm nodecharred2641283583467
Poaceaehalm nodedessicated0033177
Poaceaerhizomedessicated0023497
Poaceaestem/culm fragmentcharred610111741541563151871063424421935715244437
Poaceaestem/culm fragmentmineralised3030300
Poaceaestem/culm fragmentdessicated0014142
Polygonaceaeseed/fruitcharred88300
Solanaceaeseed/fruitcharred11300
Zygophyllaceaeseed/fruitcharred008195
20 Other1312111721353460823221055811792057473761154481014701032455082101893217214295173032148
Indeterminataseed/fruitcharred43235512147205115345459353523211614
Indeterminataseed/fruitmineralised7178882100241562400
Indeterminataseed/fruitdessicated00442
Indeterminatastem/culm fragmentcharred2126342151741012224242
Indeterminatastem/culm fragmentdessicated005017675
Indeterminataleaf/needleücharred00992
Indeterminataporridge/(flat) bread/pulpcharred35053500
Indeterminatapulpcharred22300
Indeterminataleaf/needledessicated0030302
Indeterminatabasal part of plant: nodules, tubercles, bulbis, rhizomes, ...charred0000
Indeterminatarhizomecharred66300
Indeterminatarhizomemineralised361201565
IndeterminataFischcharred12324500
IndeterminataFischothers113772
IndeterminataInsekcharred00163195
IndeterminataInsekothers00222
Indeterminatabones/teethcharred11300
Indeterminatabones/teethothers112500
Indeterminatacoprolitescharred1018313211100821023142214321
Indeterminatacoprolitesmineralised1713218
Semi-quantified
Angiospermae Monocotyledonaerhizomecharred213124132
Angiospermae Monocotyledonaestem/culm fragmentcharred2
Cerealia indet.awncharred1001010100
Angiospermae Monocotyledonaestem/culm fragmentdessicated
Cerealia indet.awnmineralised100010001000100100010001001000100
Cerealia indet.glumedessicated10010050100
Indeterminatastem/culm fragmentmineralised1000
IndeterminataKoprmineralised100101001000
IndeterminataMollothers10
IndeterminataTextdessicated2000
Indeterminatasonstmineralised101000100
Indeterminatasonstothers17
Indeterminataunbek.charred10
Indeterminataunbek.mineralised100100
Tab. 2.
Available for download here.

Results

The Old Kingdom archaeobotanical assemblages from Middle Egypt yielded 15195 plant macro remains, with average concentrations of ca. 400 identifiable items per litre and 75 different taxa identified. Most of the samples from pottery coffins and beer jars, show a high concentration of plant remains and this is related not only to crop remains, but also to numerous and various field weeds as well as plants belonging to the desert habitat. The dump contexts also have a high concentration of plant remains and a more variable composition, including several concentrations of emmer grains and melon seeds.

For the site of Tell el-Iswid, a total of 7578 identifiable plant remains were found, with average concentrations of 34 identifiable items per litre and 78 different taxa. The overall impression is that the samples from the Naqada IIIA–D period have a rather variable composition and in many cases are dominated by cereal chaff (mostly emmer), potential crop weeds and small seeds which pass the digestive tract of herbivores and are often connected with dung fuel.

The archaeobotanical study of both macrobotanical assemblages here considered (tab. 1) suggests that the main annual crops used in both study areas were cereals (emmer and barley, presented by grains and chaff remains (fig. 3) and pulses (lentil and pea) known as principal crops in the study area already from the beginning of the Neolithic. Further elements of the plant economy were flax, fig and eventually some condiments like dill. The most common weeds typical generally for the Predynastic and Dynastic periods, like Lolium cf. temulentum and Phalaris minor/paradoxa, occur also frequently in the dataset. Apart from the cultivated fields, also plants from the wetlands and desert contribute to the plant economy of the sites, providing fodder, fuel, construction materials and food resources (fig. 2). Looking at the overall amount of plant remains per studied feature type, it seems that features that are the richest in samples (clay coffin DALB, dump deposit DALB, cult. layer ISW, oven ISW) from both study areas have comparable amounts of plant remains per sample (fig. 4A), but concerning concentration the sites from Middle Egypt show higher values than Tell el-iswid (fig. 4B), while the taxonomic diversity is lower than the site from the Nile Delta (fig. 4C).

Fig. 2. Percentage proportions of the main economic and ecological groups of the identifiable plant macrofossils. Based on 1. Tell el-Iswid (Naqada IIIA-D) 37 features, with total volume 377,8 L floated sediment and 7578 plant remains and 2. Deir el-Bersha-Project (Old Kingdom) 42 features, with total volume 54 L floated sediment and 15195 plant remains.
Fig. 3. A. Percentage proportions of the chaff and grains of Cerealia indet., Triticum sp., Triticum dicoccum and Hordeum vulgare during both studied periods (abbreviation ISW=Tell el-Iswid; DALB=Deir el-Bersha-Project, vc=vessel content) B. Sum of chaff per feature (abbreviation after feature type: DALB=Deir el-Bersha-Project, ISW=Tell el-Iswid). Deir el-Bersha: 42 features (5 pottery coffin; 17 beer jar/vessel content, 2 embalming deposit, 1 cultural layer; el-Sheikh Sa’id/Wādī Zabayda: 17 dump deposit), Tell el-Iswid: 37 features (20 cultural layers; 15 ovens; 2 silos).
Fig. 4. A. Sum of plant remains (NRT) B. Concentration and C. Plant diversity, of the archaeobotanical assemblages according to period and feature type (the same features as listed in Fig. 3), abbreviation after feature type: ISW=Tell el-Iswid, DALB=Deir el-Bersha-Project; vc=vessel content.

Preservation

The concentration of remains per litre is much greater in the Old Kingdom samples (coming from Deir el-Bersha and el-Shaykh Sa’īd/Wādī Zabayda), than in those from the Naqada IIIA–D period, (coming from Tell el-Iswid) comprising on average 400 and 34 remains per litre respectively. The assemblage, obtained in the framework of the Deir el-Bersha-Project from burial and dump disposal contexts (tab. 2) shows in general a very good preservation. In many cases fine surface structures on the seed/fruit remains are intact and well observable, suggesting that the plant remains once deposited were not exposed to changing conditions or re-deposition. Plant diversity is more or less the same for both study areas (fig. 3C), although the preservation of the remains in many of the Tell el-Iswid samples is much poorer. This rather variable to poor preservation can be explained by the fragmentation and abraded surfaces of many of the plant remains, leading subsequently to the missing of recognisable morphological and anatomical features and hence to identifications at only very broad taxonomic level (like family or even higher taxonomic group). A poorer preservation of the macroremains in them is attested by much higher proportions of the “Cerealia”, “Varia” and “Indeterminate” categories (fig. 3A).

Proportions of the main economic and ecological groups

The same plant categories were found in both sites (fig. 2). Cereal crops are slightly more abundant at Tell el-Iswid, but the same two species are present at all three sites, namely barley (Hordeum vulgare) and emmer (Triticum dicoccum). In the cereal category, emmer grains dominated the Old Kingdom samples from Middle Egypt, while barley chaff was more abundant among the found chaff remains. The reverse is true for the Naqada assemblage from Tell el-Iswid (fig. 3A). Overall, the sites studied in the framework of Deir el-Bersha-Project show higher concentrations of chaff remains in the studied structures (fig. 3B), compared to Tell el-Iswid, where only few samples from silo-contexts contain numerous chaff remains. Pulses reach similar proportions and the same species dominate (lentils, Lens culinaris and peas, Pisum sativum) at both study areas. Lathyrus cicera/sativus was only identified at el-Sheikh Sa’id/Wādī and not at Tell el-Iswid. Potential field weeds and riparian and floodplain vegetation are also more important in Tell el-Iswid assemblages. The assemblages of el-Sheikh Sa’id/Wādī Zabadya especially, but partly also those of Deir el-Bersha (zone 7), show a clear abundance of garden and imported plants, notably Cucumis melo and Ficus carica, but also Beta vulgaris. However, while few specimens of Origanum sp. and Vitis vinifera were identified in the Tell el-Iswid samples, this was not the case in the Middle Egypt samples studied in this paper. Beta vulgaris is only identified in the el-Sheikh Sa’id/Wādī Zabadya assemblages. Ruderal/segetal and desert plants are much more abundant in the samples obtained by the Deir el-Bersha project, than in the Tell el-Iswid samples.

Ubiquity

Pulses seem to be less ubiquitous (fig. 5) in the Middle Egypt assemblage if we include the features from zone 7, related with highly specialised ritual. Without the samples from zone 7, the assemblage from Dayr el- Barshā and el-Sheikh Sa’id/Wādī Zabayda shows pulses ubiquity comparable with the one from Tell el-Iswid. The different categories of weeds (both potential field weeds and ruderals/segetal species) and species of riparian and flood plain vegetation occur more frequently in the Tell el-Iswid samples. On the contrary, garden and possible imported plants as well as species from the desert were more frequent in the assemblages from Middle Egypt, especially due to the site of el-Sheikh Sa’id/Wādī Zabayda (tab. 1).

Fig. 5. Ubiquity per feature.

Multivariate analysis

The correspondence analysis (fig. 6) of the sample compositions between the two considered study areas and three case study sites shows that they mostly overlap. However, in the samples from the Deir el-Bersha-Project there is a clear difference between the archaeobotanical assemblages from Deir el-Bersha zone 7 (beer jar) and zone 8 (pottery coffins), and from the dump deposits at el-Sheikh Sa’id/Wādī Zabayda, confirming the distinct archaeobotanical composition between them.16 The most highly mixed samples, i.e. those coming from the features assigned to the feature type “cultural layer” from Tell el-Iswid (indicated in fig. 6 by orange crosses) are spread the widest in the plot and fit overall within the range of the majority of the el-Sheikh Sa’id/Wādī Zabayda assemblages, suggesting similar trends in the composition of the archaeobotanical samples from both periods.

Fig. 6. Multivariate statistics – CA per feature types. orange color for Tell el-Iswid, plus=cultural layer, square=oven, circle=silo; black color for Deir el-Bersha-Project: circle=pottery coffin; diamond=beer jar/vessel content, triangle=dump deposit.

Discussion

Formation of the archaeobotanical assemblages

The preservation of the plant assemblages from Deir el-Bersha and el-Sheikh Sa’id/Wādī Zabayda contexts is very good, a fact that is reflected also in the well-observable fine cell structures in many of the archaeobotanical finds, as mentioned above. This is also visible when considering the quantitative proportions of the cereal grains. For example, in the assemblages from Tell el-Iswid for nearly 80% of the cereal grains no more specific identification could be proposed than “Cerealia”, a category that can also be considered as proxy for poor preservation (fig. 3A), as the abrasion and fragmentation are too strong to reach a better identification level. In archaeobotanical assemblages from Middle Egypt, such grains represent only 6% of the total number of cereal grain identifications. However, while considering the taxonomic diversity of both assemblages, it seems that the differences between them are negligible (fig. 4C). The high concentration of plant remains in the Middle Egypt features (fig. 4B) is mostly related to several samples with higher concentrations of chaff remains (fig. 3B) from the pottery coffins and beer jars from Deir el-Bersha and emmer grains and melon seeds in the dump deposit of el-Sheikh Sa’id/Wādī Zabayda (tab. 1). The correspondence analysis (fig. 6) also suggests that both assemblages overlap at large in their major composition. Thus, it seems that concerning general trends and patterns in their components both assemblages are more or less comparable.

For the macro-botanical remains deposited in the Naqada IIIA–D structures from Tell el-Iswid, the overall composition of the studied archaeobotanical assemblages suggests that dung fuel was the main source.17 Therefore, they probably reflect a variety of plant economy resources, like dung, fodder, threshing remains, etc. which according to ethnographic observations and previous studies are usually incorporated in the dung cakes used as fuel in the ovens.18 The samples obtained in the framework of the Deir el-Bersha-Project derive mainly from three types of deposits i.e. features: 1) pottery coffins (3rd Dynasty), 2) beer jars/vessel contents (6th Dynasty) and 3) dump deposits from a settlement context (early 4th Dynasty) (tab. 2). All those feature types could surely also contain remains of disposed fuel and this is visible in the correspondence analysis result on sample, resp. feature composition (fig. 6), where several of the “dump deposit” samples overlap with the “oven” and “cultural layer” samples from Tell el-Iswid. Therefore, apart from the primary components like threshing remains, waste of food processing and consumption and vegetal construction elements, they contain also remains of fuel disposal and should have a rather mixed character. The composition of plant remains found in Old Kingdom pottery coffins, which originate from the tempering used in the pottery fabric, is quite distinct. Although it also shows a very high diversity of plant taxa, like the Naqada cultural layer samples from Tell el-Iswid, they also contain the highest amount of barley chaff remains compared to all the sample types (fig. 3B). Thus, for the tempering in the clay fabric used for the coffin construction, cereal threshing remains played a very important role, and this makes their composition so distinctive within the studied assemblage. High participation of chaff threshing remains as tempering is a common pattern in clay constructions, like for example those described in the predynastic pisé tempering.19 Here as well, like in the studied pottery coffins, the chaff of barley is an essential component of the tempering material (tab. 2).

Another group of feature type concerns the contents of ceramic vessels deposited during funerary rites (beer jars or Maidum bowls). Here, the major plant components are related with primary food remains considering that they are dominated by barley (as part of brewing residues) as well as grains of barley and emmer, seeds of lentil, seeds and fruit capsules of flax, vegetables like melon (Cucumis melo), and fruits like fig (Ficus cp.) and christ´s thorn (Ziziphus spina-christi). Further, few seeds of arable weeds occur as well as desiccated remains the desert vegetation, which could have entered the matrix later, for example blown by wind. Beside this, in zone 7, two features from an embalming deposit proved to be rather poor in archaeobotanical remains (apart from few representatives of desert vegetation, which obviously came into the samples by accident) and their main organic content consisted of remains of textiles. Thus, those contexts stand somehow aside from the rest of the studied material, but also reflect the plant economy of the site, even if seen through the lens of a ritual.

The similarity patterns observed in the archaeobotanical assemblages from both study areas suggest that these assemblages originate not only from similar principal ingredients, but also from similar economic activities performed at the sites.20 Thus, most probably the sites from the two different regions and periods also share common elements of agriculture, fodder and fuel procurement, as well as food consumption and waste disposal.

Common elements and differences

The main categories of cultivated plants for both study areas overlap clearly. The same principal cereal crops (barley and emmer), pulses (lens and pea), fibre crops (flax) and vegetables/spices (Cucumis melo, Anethum graveolens) occur in both areas and all three considered sites. The poorer preservation of the Tell el-Iswid assemblage does not allow to estimate if hulled barley was the main type, but this is to be assumed considering the evidence from other contemporary sites in the area.21 Similarly, hulled barley is the main barley variety in the considered Old Kingdom sites. The concentrations of emmer grains (n=3) at el-Sheikh Sa’id/Wādī Zabayda could reflect the consumption of emmer food products, as those finds were also associated with bread moulds deposited in the same layers.22 Looking at the group of garden/imported plants for the Old Kingdom sites, i.e. Deir el-Bersha and el-Sheikh Sa’id/Wādī Zabayda, it seems that those plants play a more important role than in earlier material, occurring in 60% of the studied samples, while at Tell el-Iswid they occur in 24% of the studied samples. The bigger concentrations (n=4) of melon seeds, suggest direct evidence of the consumption of melon at the workmen’s site of el-Sheikh Sa’id/Wādī Zabayda (tab. 2). That melon (Cucumis melo) and dill played a certain role in the plant economy since the very beginning of the formation of the ancient Egyptian state is also visible in studies at several other predynastic sites.23 However, it seems that in the Deir el-Bersha-Project assemblages, the fig plays a more significant role, occurring in 12% of the studied contexts, well in accordance with the iconographic and archaeobotanical data from the period.24 The single finds of Beta vulgaris, occurring only in the samples from el-Sheikh Sa’id/Wādī Zabayda, should probably be considered not as an indicator of crop cultivation, but rather as an element of the weed flora typical for the early pharaonic period.25 Of interest are the finds of Origanum sp. and cf. Vitis vinifera present only in the Tell el-Iswid samples but not identified in the samples from the Deir el-Bersha project. Considering the geographic location of Tell el-Iswid, these plants seem to reflect the connections with the adjacent Levantine region. Similarly, due to natural geographic circumstances, the desert vegetation is much more present in the Old Kingdom assemblages from Middle Egypt (Deir el-Bersha and el-Sheikh Sa’id/Wādī Zabayda), where the proximity of the desert creates locally specific conditions amenable to the presence of this vegetation type. The two Old Kingdom assemblages certainly show a very similar composition to the one found in predynastic Ma’ādī,26 including also the evidence on the used wood fuel (mostly Acacia and Tamarix). Obviously, the sites in the Delta27 relied more on dung fuel, while those close to desert wadis had access also to wood fuel,28 independent of the period (Predynastic or Old Kingdom) to which they belong.

Thus, despite differences in preservation and regionally specific features, the qualitative and quantitative comparison of the two archaeobotanical datasets presented here, point strongly to a continuity in the agricultural practices and in general plant economy of both considered regions and periods. Moreover, the observed notable similarities over a long duration of time and in spite of vastly different natural environments suggest structural similarities in the Naqada IIIA–D and Old Kingdom plant economy over the longue durée of those periods.

Conclusions

The quantitative analyses of the archaeobotanical assemblages from Tell el-Iswid and Deir el-Bersha/el-Sheikh Sa’id/Wādī Zabayda indicate that the plant economy of the Predynastic and Early Dynastic period (Naqada IIIA–D) and Old Kingdom (3rd–6th Dynasty) share many common features. The taphonomic analyses and comparisons of the two study areas have shown very common trends in the quantity, diversity and concentration of the considered charred plant remains found in the different feature types. These observations were confirmed also by multivariate statistical analyses.

The staple crops in both cases are hulled barley and emmer, followed by pulses (lentil, pea and grass pea). The oil/fibre crop, flax, is represented with few finds in both cases, probably due to its underrepresentation in a charred state, as from written sources and textile finds it is known that the plant played an important role at least in the Old Kingdom economy as a source of fibres for textiles. Regarding the vegetables and spices, the most common are Cucumis melo and Anethum graveolens, found in both study areas. The most commonly identified potential weeds (Lolium temulentum, Phalaris minor/paradoxa, Lathyrus hirsutus/Vicia, Trifolium sp., Rumex crispis/dentatus) are identical for both study areas, suggesting common agricultural practices in both the Early Dynastic period and the Old Kingdom.

Thus, the considered case studies suggest that the tendencies of specialisation and standardisation typical for the pharaonic periods in Egypt were already well developed from its very beginning. Therefore, the plant-based ancient Egyptian economy, which was the foundation of stable nutritional resources through the pharaonic era (nearly three millennia), was already available at its beginning as recorded in the archaeobotanical evidence from Tell el-Iswid.

Acknowledgments

This contribution is dedicated to Natalie Buchez, with cordial thanks for inspiring and fruitful scientific exchange and cooperation.

The KU Leuven Special Research Fund and FWO-Vlaanderen are acknowledged for funding the research in the framework of the Deir el-Bersha project.


Bibliography

Bajeot, J. and Buchez, N. (2021): “The evolution of Lower Egyptian Culture during the formative stages of the Egyptian state at Tell el-Iswid: The contribution of ceramic technology”, African Archaeological Review, 38, 113-146 [https://doi.org/10.1007/s10437-020-09421-7].

Cappers, R. T. J. (2006): “The reconstruction of agricultural practices in Ancient Egypt: An ethnoarchaeological approach”, Palaeohistoria, 47/48, 429-446.

Cappers, R. T. J. (2016): “Modelling shifts in cereal cultivation in Egypt from the start of agriculture until modern times », in: Thanheiser, U., ed.: News from the past: Progress in African archaeobotany, Advances in Archaeobotany 3, Groningen, 27-36.

Hammer, Ø., Harper, D.A.T. and Ryan, P.D. (2001): “PAST: Paleontological statistics software package for education and data analysis”, Palaeontologia Electronica 4/1, [http://palaeo-electronica.org/2001_1/past/issue1_01.htm].

Fahmy, A. G. (1997): “Evaluation of the weed flora of Egypt from Predynastic to Graeco-Roman times”, Vegetation History and Archaeobotany, 6, 241-247.

Fahmy, A. G. (2001): “Plant remains in gut contents of ancient Egyptian predynastic mummies (3750-3300 BC)”, Online Journal of Biological Sciences 1, 772-774 [https://doi.org/10.3923/jbs.2001.772.774].

Fahmy, A. G. (2005): “Missing plant macro remains as indicators of plant exploitation in Predynastic Egypt”, Vegetation History and Archaeobotany, 14, 287-294.

Kreuz, A. and Schäfer, E. (2002): “A new archaeobotanical database program », Vegetation History and Archaeobotany, 11, 177-180.

Malleson, C. (2016): “Informal intercropping of legumes with cereals? A re-assessment of clover abundance in ancient Egyptian cereal processing by-product assemblages: Archaeobotanical investigations at Khentkawes town, Giza (2300-2100 BC)”, Vegetation History and Archaeobotany, 25, 431-442.

Marinova, E., Preiss, S., Attia, E. A. E., Buchez, N. and Midant-Reynes, B. (2024): “Predynastic and Early Dynastic plant economy in the Nile Delta: Archaeobotanical evidence from Tell el-Iswid”, Vegetation History and Archaeobotany, 33, 103-110 [https://doi.org/10.1007/s00334-023-00958-6].

Midant-Reynes, B. and Buchez, N., ed. (2014): Tell el-Iswid 2006-2009, FIFAO 73, Cairo.

Midant-Reynes, B. and Buchez, N., ed. (2024): Tell el-Iswid 2010-2018: Les occupations Naqadiennes du Secteur 4, FIFAO  95, Cairo.

Moens, M.-F. and Wetterstrom, W. (1988): “The agricultural economy of an Old Kingdom town in Egypt’s West Delta: Insights from the plant remains”, Journal of Near Eastern Studies, 47, 159-173.

Moustafa, A., Fahmy, A. G. and Hamdy, R. S. (2018): “Archaeobotanical study at the Early Dynastic cemetery in Helwan (3100-2600 BC), Egypt: Plant diversity at Early Dynastic Memphis”, in: Mercuri, A. M., D’Andrea, A. C., Fornaciari, R. and Höhn, A., ed.: Plants and people in the African past: Progress in African archaeobotany, Cham, 3-39.

Murray, M. A. (2000a): “Cereal production and processing”, in: Nicholson & Shaw, ed. 2000, 505-536.

Murray, M. A. (2000b): “Fruits, vegetables, pulses and condiments”, in: Nicholson & Shaw, ed. 2000, 609-655.

Murray, M. A. (2004): “Provisions for the pyramid builders: New evidence from the ancient Egyptian site of Giza”, Archaeology International, 8, 38-42.

Murray, M. A. (2005): “Feeding the town: New evidence from the complex of the Giza pyramid builders”, General Anthropology, 12/1-2, 1-9.

Murray, M. A. (2009): “Questions of continuity: Fodder and fuel use in Bronze Age Egypt”, in: Fairbairn, A. S., Weiss, E. and Hillman, G. C., ed.: From foragers to farmers: Papers in honour of Gordon C. Hillman, Oxford UK-Oakville CT, 254-267.

Murray, M. A. and el-Gendy, R. (2015): “A report on the Khentkawes Town-House E archaeobotanical remains”, in: Sadarangani, F. and Witsell, A., ed.: Settlement and cemetery at Giza: Ancient Egypt Research Associates (AERA) (Papers from the 2010 AERA–ARCE Field School), 237-252.

Newton, C. (2004): “Plant tempering of Predynastic pisé at Adaïma in Upper Egypt: Building material and taphonomy”, Vegetation History and Archaeobotany, 13, 55-64.

Newton, C. (2007): “Growing, gathering and offering: Predynastic plant economy at Adaïma (Upper Egypt)”, in: Cappers, R. T. J., ed.: Fields of change. Proceedings of the 4th International Workshop of African Archaeobotany, 139-155.

Nicholson, P. and Shaw, I., ed. (2000): Ancient Egyptian materials and technology, Cambridge.

Vanthuyne, B. (2016): “Early Old Kingdom rock circle cemeteries in Deir el-Bersha and Deir Abu Hinnis”, in: Adams, M.D., Midant-Reynes, B., Ryan, E.M. and Tristant, Y. ed.: Egypt at its Origins 4: Proceedings of the Fourth International Conference “Origin of the State. Predynastic and Early Dynastic Egypt », New York, 26th30th July 2011, Orientalia Lovaniensia Analecta 252, Leuven, 427-459.

Vanthuyne, B. (2017): Early Old Kingdom rock circle cemeteries in the 15th and 16th nomes of Upper Egypt: A socio-archaeological investigation of the cemeteries in Dayr al-Barshā, Dayr Abū Ḥinnis, Banī Ḥasan al-Shurūq and Nuwayrāt, KU Leuven, these de doctorat, PhD thesis, university KU Leuven.

van Zeist, W. and de Roller, G. J. (1993): “Plant remains from Maadi, a Predynastic site in Lower Egypt”, Vegetation History and Archaeobotany, 2, 1-14.

Willems, H. (2013): “Deir el‐Bersha”, in: Bagnall, R. S., Brodersen, K., Champion, C. B., Erskine, A. and Huebner, S. R. ed.: The Encyclopedia of Ancient History, Wiley, 1967-1969 [https://doi.org/10.1002/9781444338386.wbeah15100].

Willems, H., De Meyer, M., Depraetere, D., Peeters, C., Hendrickx, S., Herbich, T., Klemm, D., Klemm, R., Op de Beeck, L. and Depauw, M. (2004): “Preliminary report of the 2002 campaign of the Belgian mission to Deir al-Barsha”, Mitteilungen des Deutschen Archäologischen Instituts Abt. Kairo, 60, 238-240.

Willems, H., Vereecken, S., Kuijper, L., Vanthuyne, B., Marinova, E., Linseele, V., Verstraeten, G., Hendrickx, S., Eyckerman, M., van den Broeck, A., van Neer, W., Bourriau, J., French, P., Peeters, C., de Laet, V., Mortier, S. and de Kooning, Z. (2009): “An industrial site at al Shaykh Sa’id/Wadi Zabayda”, Ägypten und Levante: Zeitschrift für Ägyptische Archäologie und deren Nachbargebiete, 19, 293-331.

Notes

  1. The variety of melon used as vegetable and which according to depictions was the variety used during the Old Kingdom in Egypt, see Murray 2000b.
  2. van Zeist & de Roller 1993; Murray 2000a, b; Fahmy 2005; Cappers 2016.
  3. Fahmy 1997.
  4. Moens & Wetterstrom 1988; Murray 2009.
  5. See Malleson 2016; Moens & Wetterstrom 1988; Moustafa et al. 2018; Murray 2004; 2005; Murray & Gendy 2015; Newton 2004; 2007.
  6. Murray 2009.
  7. Marinova et al. 2024.
  8. Willems 2013.
  9. Vanthuyne 2016; 2017; Willems et al. 2004.
  10. Willems et al. 2009.
  11. Marinova et al. 2024.
  12. Midant-Reynes & Buchez 2014; 2024.
  13. Bajeot & Buchez 2021.
  14. Kreuz & Schäfer 2002.
  15. Hammer et al. 2001.
  16. In el-Sheikh Sa’id/Wādī Zabayda, the material is from an early 4th Dynasty settlement context, whereas the Beer jars and coffins are from the 3rd and 6th Dynasties respectively, and were part of the mud paste from which the coffins were made. Here a factor not encountered in the settlement material could be the paste recipe of the potter.
  17. Marinova et al. 2024.
  18. Cappers 2006.
  19. Newton 2004.
  20. Cappers 2006.
  21. See the discussion on the topic in Moustafa et al. 2018.
  22. Willems et al. 2009.
  23. See Fahmy 2001; 2005; van Zeist & de Roller 1993.
  24. Murray 2000b.
  25. Fahmy 1997.
  26. see Van Zeist & de Roller 1993.
  27. Moens & Wetterstrom 1988; Marinova et al. 2024.
  28. see Van Zeist & de Roller 1993; Murray 2009.
ISBN html : 978-2-35613-663-3
Rechercher
Chapitre de livre
Posté le 15/12/2025
EAN html : 9782356136633
ISBN html : 978-2-35613-663-3
ISBN pdf : 978-2-35613-664-0
ISSN : 2741-1508
16 p.
Code CLIL : 4117; 3494;
licence CC by SA

Comment citer

Marinova, Elena, Preiss, Sidonie, Vanthuyne, Bart, De Meyer, Marleen, Kuijper, Lucia, Willems, Harco, “Continuity of the Early Dynastic and Old Kingdom plant economy in Egypt? A comparison of the archaeobotanical assemblages of Tell el-Iswid, Deir el-Bersha and el-Sheikh Sa’id/Wādī Zabayda”, in : Bajeot, Jade, Guérin, Samuel, Minotti, Mathilde, éd. (2025), L’archéologie au-delà des frontières. Sur les pas de Nathalie Buchez, Pessac, Ausonius Éditions, collection DAN@ 14, 2025, 121-136. [URL] https://una-editions.fr/continuity-of-the-early-dynastic-and-old-kingdom-plant-economy-in-egypt
doi.org/10.46608/dana14.9782356136633.11
Illustration de couverture • Montage constitué d’une vue générale de Tell el-Iswid (R. El hajaoui) et d’une vue aérienne du cercle funéraire de Jaulne, Le Bas des Haut de Champs (photo : R. Peack). Création du visuel par Francesco Stefanini.
Publié le 15/12/2025
Retour en haut