Origins of Project: Season 1

Archive Report

October 2013

Robert Carter and Daniel Eddisford

Contents List of Illustrations ...... 6 1. Summary ...... 9 2. Acknowledgements ...... 10 3. Organisations, Project and Personnel ...... 10 4. Historical Background to Doha ...... 11 5. Archaeological Investigations in the Heritage Quarter of the Msheireb Development ...... 17 5.1 Introduction ...... 17 5.2 Aims of the Excavation ...... 20 5.3 Methods ...... 20 5.3.1 Trench Locations ...... 20 5.3.2 Excavation Methods ...... 21 5.4 Phased Summary...... 23 5.4.1 Phase 1 – Pre‐architecture ...... 23 5.4.2 Phase 2 – Early architecture ...... 24 5.4.3 Phase 3 – Joining of two compounds ...... 26 5.4.4 Phase 4 – Later architecture ...... 27 5.4.5 Phase 5 – Reconstruction by Private Engineering Office ...... 29 5.5 Technical Report: Excavations in the Radwani House ...... 30 5.5.1 Room 6 ...... 30 5.5.2 Room 8 ...... 32 5.5.3 Room 9 ...... 37 5.5.4 Room 10 ...... 40 5.5.5 Room 12 ...... 43 5.5.6 Trench 1 ...... 46 5.5.7 Trenches 2 and 3 ...... 52 5.5.8 Trench 4 ...... 54 5.6. Watching Brief at Company House ...... 56 5.6.1 Room 1 ...... 57 5.6.2 Room 3 ...... 57 5.6.3 Room 15 ...... 58 5.6.4 Room 21 ...... 59 5.7. Discussion ...... 59

2 5.8. Finds and Analytical Material ...... 60 5.8.1 Miscellaneous Finds ...... 60 5.8.2 Toys ...... 62 5.8.3 Beads and Bangles ...... 63 5.8.4 Textiles ...... 64 5.8.5 Electrics ...... 65 5.8.6 Ceramic Finds (pottery) ...... 65 5.8.7 Glass ...... 69 5.8.8 Metal Finds ...... 70 5.8.9 Animal bone ...... 72 5.8.10 Shell ...... 73 5.8.11 Company House Finds ...... 74 6. Recording Archaeological Deposits Exposed in Section ...... 75 6.1 Introduction ...... 75 6.2 Site ODQ 3 ...... 76 6.2.1 Site location ...... 76 6.2.2 Section 1 ...... 78 Section 2 ...... 79 6.3 ODQ 4 ...... 83 6.3.1 Site location ...... 83 6.3.2 Section 1 ...... 84 6.4 Discussion ...... 87 7. Archaeological Survey of an Abandoned Agricultural Area in Rayyan ...... 89 7.1 Introduction ...... 89 7.2 Site location and scope of work ...... 89 7.3 Archaeological and Historical Background ...... 92 7.4 Results ...... 95 7.4.1 Traditional box well ...... 96 7.4.2 Pump Houses ...... 97 7.4.3 Bore holes ...... 99 7.4.4 Rectangular Tanks ...... 99 7.4.5 Irrigation Features ...... 101 7.4.6 Structures ...... 102 7.5 Discussion ...... 106

3 8. Standing Building Recording in Doha ...... 108 8.1 Introduction ...... 108 8.2 Rationale ...... 108 8.3 Aims ...... 110 8.4 Methodology ...... 110 8.4.1 Desk‐based work ...... 110 8.4.2 Definition of research area ...... 110 8.4.3 Recording ...... 112 8.5 Discussion ...... 113 9. Conclusions ...... 115 10. Bibliography ...... 116 11. Appendix A – Radwani House: Specialist Report on Plaster ...... 118 11.1 Background, Sample Materials and Aims of Analysis ...... 118 11.2 Methodology ...... 118 11.3 Results ...... 119 11.3.1 Type 1 ‐ Hydraulic lime binder with oolitic limestone aggregate...... 119 11.3.2 Type 2 ‐ Gypsum and lime binder without aggregate ...... 121 11.3.3 Type 3 ‐ Lime and gypsum with oolitic limestone aggregate ...... 122 11.3.4 Microstratigraphy ...... 122 11.3.5 Discussion ...... 123 11.3.6 References Cited ...... 125 11.3.7 Tables and Figures ...... 126 12. Appendix B – Radwani House: Preliminary Specialist Report on Bone ...... 138 12.1 Introduction and Methodology ...... 138 12.2 Results ...... 138 12.2.1 Caprines ...... 138 12.2.2 Other mammals ...... 139 12.2.3 Birds ...... 139 12.2.4 Fish ...... 140 12.2.5 Other marine taxa ...... 140 12.2.6 Phase comparison ...... 140 12.3 Discussion ...... 141 12.4 References ...... 141 13. Appendix C – Radwani House: Preliminary Specialist Report on Botanical Remains ...... 145 14. Appendix D – Radwani House: Preliminary Specialist Report on Wood Charcoal ...... 145

4 15. Appendix E – Radwani House: Context List ...... 147 16. Appendix F: Radwani House: Finds List ...... 152

5 List of Illustrations

Figure 4.1: The Turkish fort with Doha in the background, 1904. Figure 4.2: Part of the Hunting Survey of 1957 showing the Radwani House. Figure 5.1: Location of the Msheireb redevelopment project (Google Earth image 2006). Figure 5.2: Location of Radwani House and Company House (Google Earth image 2006). Figure 5.3 : Radwani House prior to reconstruction in 2006 Figure 5.4: Location of Excavation Areas in relation to existing walls of the Radwani House. Figure 5.5: The courtyard of the Radwani House looking southwest, prior to excavation of Trenches 1 and 2. Figure 5.6: Phase 1 features and deposits. Figure 5.7: Phase 2 architecture. Figure 5.8: Phase 3 architecture. Figure 5.9: Phase 4 architecture and features. Figure 5.10: Surfaces (174) and (191) overlain by wall (170). Cut for later soakaway visible at far right. Figure 5.11: Limestone wall (201) and render (239), the metal sewer pipe is a later addition to the building. Figure 5.12: Substantial early wall (15), with earlier postholes [101], [103] and [105] in foreground and pit [109] in background. Looking south. Figure 5.13: External well [126] and associated walls (86) and (15). Photographed in plan. Figure 5.14: Early architecture and internal courtyard floor in Room 8, looking south. Figure 5.15: A section through the floor surfaces associated with Phase 2, looking north. Figure 5.16: Concert or gypsum threshold (113) and surface (87) to north of wall 15 blocking earlier alleyway. Figure 5.17: Metal drain cover, draining into soakaway [118]. Figure 5.18: Walls (46) / (47) in foreground and wall (64) in background ,looking south. Figure 5.19: North facing section at southern end of Room 9. Figure 5.20: Members of the Origins of Doha Project team working in Room 9. Figure 5.21: Phase 2 or Phase 3 limestone wall, constructed on levelling layer (123) sealed reconstructed walls of Radwani House. Looking west. Figure 5.22: Well (143) with bath (140) in background and truncated floors to the left the well. Looking north. Figure 5.23: Concrete baths (140), looking northwest. Figure 5.24: Layer (79) overlain by several superimposed building phases. Looking northeast. Figure 5.25: Archaeological deposits in section in Room 12, looking east. Figure 4.26: West facing through the occupation sequence excavated in Room 12 Figure 5.27: Early architecture (219) and (159) with later enclosure wall (172) in background under scale. Looking south. Figure 5.28: Postholes [215] and [218] adjacent to wall (178). Figure 5.29: Walls (178) and (235) with alleyway and northern compound wall (172) in background. Looking north. Figure 5.30: North facing section through courtyard deposits in Trench 1. Figure 5.31: Courtyard surface (227) cut by drain [185] with limestone capping stones (181) still in place, looking west.

6 Figure 5.32: Courtyard surfaces in Trench 2 and circular Trench 3, looking north. Figure 5.33: Heavily truncated wall in the western end of Trench 2, looking south. Figure 5.34: Wall (192) and partially excavated mortar surface to the south of it. Figure 5.35: Location of archaeological features in Company House. Figure 5.36: Partially exposed well in Room 1, looking east. Figure 5.37: Well and later drain in Room 3, looking west. Figure 5.38: Large circular metal feature in Room 15. Figure 5.39: Part of the oven in Room 21. Figure 5.40: Limestone incense burner. Context 166, with small fragment in 171, Find 55 Figure 5.41: Fragment of probable clay prayer tablet – turba. Context 12, Find 54 Figure 5.42: Saudi Arabian 25 halala coin, probably 1970‐1976 (Context 7, Find 57) Figure 5.43: Unidentified bronze coin (Context 21, Find 60) the 1920s‐1930s) Figure 5.44: Marbles from Radwani House. Top left and top middle: Context 51, Find 1; top right: Context 107, Find 31; bottom left: Context 34, Find 21; bottom right: Context 227, Find 47. Figure 5.45: Small metal allow object from the Radwani House. Perhaps a whistle. Figure 5.46: Beads and Bangle fragments from the Radwani House. Figure 5.47: A mother‐of‐pearl button. Context 41, Find 59 Figure 5.48: Fabric with metallic thread. Context 39, Find 82 Figure 5.49: Electric light fittings and bulbs. Left: Context 174, Finds 63, 61; Right: Context 151, Finds 64, 62 Figure 5.50: Water‐pipe and burner from the well in Room 10 at the Radwani House (Context 300, pot no. 147, 148) Figure 5.51: Earthenwares from the Radwani House (Context 22), including water jar spout (bottom right), storage jar fragment (top right), waterpipe burner (top left) and waterpipe neck (bottom left) Figure 5.52: Porcelains and European "Refined White Wares" from the Radwani House (Context 167) Figure 5.53: Typical coffee cup from the 1920s assemblage (Context 24) Figure 5.54: Small bottles from the Radwani House. Left and middle: Context 160, Find 34; Right: Context 47, Find 27 Figure 5.55: Miniature perfume bottles from the Radwani House (left: Context 21, Find 29; right: Context 180, Find 41) Figure 5.56: Fragmentary glass assemblage from Context 83 (a levelling fill in Room 12) Figure 5.57: Large corroded iron nails (Context 102, Find 118) Figure 5.58: Padlocks (Left: Context 242, Find 147; Right: Context 83, Find 113) Figure 5.59: Copper ring (Context 19, Find 89) Figure 5.60: Cartridge casing (Context 22, Find 90) Figure 5.61: Copper drain cover (Context 87, Find 115) Figure 5.62: Animal bone from the well (Context 300, Find 65) Figure 5.63: Shell from the Radwani House. Top left: Context 160, Find 67; top right: Context 8, Find 68; all below: Context 232, Find 69 Figure 5.64: Chinese saucers from Company House

Figure 6.1: Site locations. Figure 6.2: Location of ODQ3 Sections 1 and 2. Figure 6.3: ODQ3 looking south with occupied house visible. Figure 6.4: Remains of traditional building visible in elevation, looking northeast. Figure 6.5: ODQ3, Section 1. Figure 6.6: ODQ3, Section 1. Figure 6.7: ODQ3, Section 2.

7 Figure 6.8: In‐situ upturned ceramic vessel used as an oven. Figure 6.9: ODQ3, Section 2. Figure 6.10: Location of ODQ4, Section 1. Figure 6.11: ODQ4, Section 1. Figure 6.12: ODQ4, Section 1. Figure 6.13: Limestone wall (005). Figure 6.14: External surfaces and make up (002), and (003).

Figure 7.1: Site overview, looking north. Figure 7.2: Site location. Figure 7.3: Detailed site location. Figure 7.4: Aerial photograph of the site in 1966. Figure 7.5: Aerial photograph of the site in 1971. Figure 7.6: Topographic map of al Rayyan, 1971. Figure 7.7: Agricultural area still in use directly to the east of the site. Figure 7.8: Plan of the site. Figure 7.9: ‘Box well’ (005) with structure (006) behind. Looking to the southeast. Figure 7.10: Pump house (001) looking northwest. Note borehole pipe in front of building. Figure 7.11: Structure (006) looking northwest, with well (005) in background. Figure 7.12: Tank inside structure (006), draining into well (005) to west. Figure 7.13: Bore Hole (008) in background and concrete pump base in foreground, looking west. Figure 7.14: Large tank (007), looking northwest. Figure 7.15: Small tank (015), looking east. Figure 7.16: Peripheral irrigation channel (016), looking east. Figure 7.17: Panoramic view of fields and irrigation channels (009). Figure 7.18: Rectangular fields and irrigation channels (009), looking south. Figure 7.19: Building (003), looking northwest. Figure 7.20: Wooden timbers framing the door of building (003). Figure 7.21: Building (010), looking west. Figure 7.22: Boundary wall (014) at the northern extent of the site, looking north. Figure 7.23: Enclosure (017) with channel visible in background, looking north. Figure 7.24: Window in the eastern wall of enclosure (017), looking west.

Figure 8.1: Map of Old Al‐Ghanim, including Buildings Survey plots Figure 8.2: Example of building material guidance for survey participants. Figure 8.3: Stitched and digitally rectified elevation of building GH01.

8 1. Summary This report was made possible by NPRP grant no. 5‐421‐6‐010 from the National Research Fund (a member of Qatar Foundation). The statements made herein are solely the responsibility of the authors.

The Origins of Doha Project is a University College London based Qatar National Research Fund funded research project. This project aims to explore the foundations and historic growth of Doha, its transformation to a modern city, and the lives and experiences of its people, through a combination of archaeological investigation, historical research and oral testimony.

The project carried out its first season of fieldwork in Doha between November 2012 and February 2013. During this time four major archaeological recording projects were undertaken. Archaeological excavations conducted within the Heritage Quarter of the Msheireb development, located in the historic centre of Doha, identified early 20th century occupation in this area. Apart from yielding detailed information on the lives of the inhabitants of Doha in the 1920s and 1930s, these excavations also revealed the time at which Doha spread westwards towards Bida', a process which culminated in the joining of the towns into a single urban conglomeration in the 1950s. This kind of data is not available from the historical records, and underscores the importance of archaeological investigations.

Non‐intrusive recording of exposed archaeological deposits in the Salata district of the city identified similar early occupation horizons. An archaeological survey of an agricultural area in Rayyan consisted of mapping the site in conjunction with a detailed description and photographic record of the features present. Finally a detailed survey was made of the standing buildings in the Old Al‐ Ghanim area of the city. The purpose of this survey was to record the historic structures present and to identify how many historic structures survive in this part of the city.

The work undertaken by the Origins of Doha Project represents the first systematic study of the origins and development of the city. Archaeological excavation conducted in the centre of Doha identified buried architectural remains and a range of occupation deposits and artefacts. Archaeological deposits exposed in section in the Salata district of Doha also indicated several phases of occupation. These deposits all date to the late 19th or early 20th century and are likely to represent some of the earliest occupation associated with Doha. A survey of the standing buildings in the Old Al‐Ghanim area of the city identified a number of buildings constructed in a traditional style. These buildings probably date to the first half of the 20th century and are an important element of Doha’s cultural heritage. In addition, the modifications and additions to these buildings show how the city was transformed in the second half of the twentieth century, as Qatar’s hydrocarbon deposits began to be exploited.

This report presents the results of the four major areas of fieldwork undertaken by the Origins of Doha Project in its first season. These consist of archaeological excavation in the Msheireb area (Chapter 4), recording exposed archaeological deposits in Salata (Chapter 5), surveying an abandoned agricultural area in Rayyan (Chapter 6) and recording standing buildings in Old Al‐ Ghanim (Chapter 7). A discussion of the results and recommendations for future fieldwork is presented in Chapter 8.

9 2. Acknowledgements This report was made possible by NPRP grant no. 5‐421‐6‐010 from the Qatar National Research Fund (a member of Qatar Foundation). The statements made herein are solely the responsibility of the authors.

The authors would like to thank H.E. Sheikha Al‐Mayassa bint Hamad Al‐Thani and H.E. Sheikh Hassan bin Mohammed Al‐Thani of QMA. Thanks are also due to Mr Faisal Al‐Naimi of the Department of Antiquities, Professor Sultan Al‐Muhesen, Professor Thomas Leisten and Alicia Bianchi, from QMA. From Msheireb Properties and their partners we thank Ms Fatima Fawzy Hassan, Mr Mohammed Ali Abdullah, Mr John McAslan, Mr Fanos Panayides, Mr Mohsin Allarakhia, Ms Nur Alah Valdeolmillos, Mr Timothy Makower and Dr Scott Cooper. The authors would also like to thank the Arabian Construction Company for all their support during our excavations in the Msheireb Project. Finally we would like to thank the UCL Qatar students who worked with us in the field, and all the workmen who laboured so hard alongside us.

3. Organisations, Project and Personnel UCL Qatar is a branch campus of University College London and partner of Hamad bin Khalifa University, a member of Qatar Foundation. Its remit is to research and teach cultural heritage and archaeology in the Arab world and the Islamic world.

The Origins of Doha Project is a QNRF‐funded research project that aims to explore the foundation and historic growth of Doha, its transformation to a modern city, and the lives and experiences of its people, through a combination of archaeological investigation, historical research and oral testimony. The project will apply detailed analytical techniques to the archaeological record of Doha and Bida', according to current best practice in archaeological research. Details about the project and current research are available from: http://originsofdoha.wordpress.com/

Dr. Robert Carter (Director) is a Senior Lecturer at UCL Qatar and is a leading expert in the historical archaeology of the Gulf, the archaeology of the Gulf towns and historic pearl fishing. A CV can be provided on request, or downloaded from: http://ucl.academia.edu/RobertCarter/CurriculumVitae

Daniel Eddisford (Field Director) has been a professional field archaeologist for the last 15 years, working extensively in the Gulf, Anatolia and Britain. He worked at the site of Al Zubarah with a team from Copenhagen University since 2009, undertaking excavation and archaeological survey in the north of Qatar. A CV can be provided on request, or downloaded from: http://independent.academia.edu/DanielEddisford/CurriculumVitae

Michal Michalski has worked as professional archaeologist in Poland, the United Kingdom and the UAE and is currently responsible for surveying and GIS for The Origins of Doha Project. Michal received an MA in Archaeology from the Nicolaus Copernicus University Poland in 2006 and an MSc in Geographic Information Science from the University of Edinburgh in 2012.

All fieldwork was conducted by a team of highly experienced professional archaeologists, consisting of Katie Campbell, Kirk Roberts, Michal Michalski and Colleen Morgan. Details of all project staff are available from: http://originsofdoha.wordpress.com/project‐staff/

10 4. Historical Background to Doha Prior to the Origins of Doha Project’s investigations, there have been no other archaeological excavations in the centre of Doha, and as a result little is known about the earliest occupation of the capital. Despite the a dearth of archaeological investigation, there are a number of documentary sources that provide some background information on the development of Doha.

The first known reference to settlement in the bay of Doha comes from Carsten Niebuhr’s map of the region recorded in 1765. Although lacking detail and containing obvious inaccuracies, Niebuhr records the towns of “Huale” (Huwaila), “Yusofie” (Yusufiya), “Faraha” (Freiha), “Adsjar” (probably Al‐Uqair, Saudi Arabia, misplaced on the map), as well as “Gattar” (probably Bida' or another unknown settlement in the bay where modern Doha is located).

Later sources state that Al‐Bida' (Bidda) was founded before Doha, by members of the Sudan (Al‐ Suwaidi) tribe who had migrated from Abu Dhabi (thus later than 1762, the foundation date of Abu Dhabi). The two settlements co‐existed throughout most of the 19th century, and although locals made a clear distinction between the two towns, outsiders generally referred to the two together as Bida' until the last quarter of the 19th century, when Doha tended to be used. This reflects the shifting location of the seat of power and prosperity during the second half of the century. The first mention of Bida' is from Captain Seton's diaries, which state that he attempted to attack it with the Imam of Muscat in 1802. He noted fortified buildings at "Bedih" either side of a valley, possibly indicating that both Bida' and Doha were already present, either side of the Wadi Msheireb.

One of the first descriptions of Bidda was made by David Seton, the British representative in Oman from 1800 ‐ 1809:

Bedih is Situated in 25.18 N. Lat. and is a large open bay full of Coral banks with very unequal soundings from twelve to three fathoms, the land is low and sandy, hardly to be seen at the distance of ten Miles, on a nearer approach, it seems gradually rising from both extremes towards the centre, where it forms a ridge at the distance of half a Mile from the Shore, under this ridge near the sea, are two hillocks and a Valley between them, off each of the hillocks runs a Shoal with half a fathom at high water and between them a Channel with one and a half fathoms, and at the distance of a Mile and a half three fathoms, on the Northern hillock is a fortified House with a Wall and Square tower, in the Valley a breast Work with two Guns, and on the southern hillock two large huts with some kind of defence, and half a Mile to the Southward near the ridge is another Square building with a flag staff, under the Northern hillock is a sandy beach on which two Buglas, one Dow & one Botella were drawn up with a breast work of Stones, the only direct landing place is in the mouth of the Valley, but it would be attended with great loss without ships to drive the Enemy away as it is flanked by the breast work and boats, in which were a number of Men and ten Guns, and fronted by the two Guns in the Valley, about two Miles to the South is a Sandy beach without cover for the Enemy's snipers, but the Square building with the flagstaff must be stormed before the hillocks can be got at. (Seton 1995: 27)

In 1820 Major Colebrook’s report on the Persian Gulf littoral describes the settlement of Bida' in more detail:

“Ul Budee [al Bida'], once a considerable town, is protected by two square Ghurries near the sea shore; but containing no fresh water they are incapable of

11 defence except against sudden incursions of Bedouins, another Ghurry is situated two miles inland and has fresh water with it. This could contain two hundred men. There are remaining at Ul Budee about 250 men, but the original inhabitants, who may be expected to return from Bahrein, will augment them to 900 or 1,000 men, and if the Doasir tribe, who frequent the place as divers, again settle in it, from 600 to 800 men” (Rahman 2005, 3‐4).

Colebrook observes that the population of al Bida' had recently decreased, a significant proportion of the population having left for following recent insecurities. Either way the movement of relative large tribal groups between settlements in Qatar and the wider Gulf region is a recurring theme in this period.

Subsequent to Nieburh’s map, the first systematic survey of the Arabian Gulf was carried out between 1820 and 1829 by the Offices of the East India Company’s Bombay Marine. The task was completed in 1825 and published in 1829. Captain George Barnes Brucks describes the settlement at Bida' at this time.

“Al Bidder Town is situated at the bottom of a harbour, formed by the reefs before mentioned... This place contains four hundred Arabs of the Nahune, Dooasir, and Abookara Tribes, and is frequented by the Monasir and other wandering tribes. In the pearl season the inhabitants are augmented to about twelve hundred, it being convenient to the banks, and so completely sheltered. The people are mostly fishermen; they have one or two trading boats, and, like all the other inhabitants of this coast, take a large share of the pearl fishery. They are subject to Bahrain. Cattle and poultry are procurable here, but they are very dear. Water, pretty good, can also be procured. The defences are a small Ghuree in the town, two or three towers, indifferent, and a Ghuree a mile to the north‐westward of the town, on the rising ground” (Brucks 1829, 559).

Brucks provided a map which shows two small separate but adjacent settlements, likely to indicate Bida' and Doha.

Instability prevailed in Qatar throughout the mid 19th century and control of Bida' and Doha changed hands repeatedly, with several instances of destruction taking place. In 1848 the al‐Thani family left Fuwairit for al‐Bida', beginning the process of unification of Qatar under the leadership of Sheikh Mohammed bin Thani, continued by his son Jassim bin Mohammed (Rahman 2005, 41‐42). Soon after they moved a couple of kilometers to the east to settle in Doha, marking the beginning of the eclipse of Bida'. In 1867 the Bida' and Doha were destroyed for the final time by forces from Bahrain and Abu Dhabi. The two were once again rebuilt but remained separate towns until the mid 20th century, referred to collectively by western sources as either Doha or Bida' ("Bidder") and sometimes as Qatar ("Gutter"). Burchardt, in 1904, also refers to Salata ("Al‐Solata").

In the 1870s Sheikh Jassim bin Mohammed Al Thani placed himself under Ottoman protection in order to counter the combined pressures from the Bahraini tribes, the British and the Al Sa’ud. Jassim demonstrated his allegiance by flying the Ottoman flag over his residence in Doha, but was also prepared to fight then Ottomans when he felt threatened by their presence, defeating them in battle at Wajba in 1893 (Anscombe 1997, 32; Rahman 2005: 107). An Ottoman presence in Qatar nonetheless continued until the Turkish garrison was evacuated in 1915. The Ottomans based themselves in a large fort in the area of today's Emiri Diwan, strategically located on high ground in the still‐open space between the towns of Bida' and Doha.

12 Continued documentation of the occupation and the architecture of the region comes from travelogues of travellers visiting Doha in the 19th and 20th centuries. Visiting Qatar in 1904, a German traveller Hermann Burchardt stayed as a guest of Sheikh Ahmed bin Mohammed in Doha. He wrote:

“The Sheikh, a portly gentleman of dignified countenance, appeared with a large following... After about two hours the magilis ended and a good meal brought; then I was assigned the hut as a dwelling. I remained here as the guest of the sheikh for six days and was excellently fed.”

To supplement his account of staying in a hut, during Burchardt’s visit he took a number of photos of Doha, including an image with the Turkish fort in the foreground with Doha in the background(Figure 4.1; Nippa et al 2006, 132). This image indicates that Msheireb, the area in the right of the photo, has not yet been developed with standing architecture. The town of Doha, surrounded by a city wall, is clearly visible in the background of the photo.

Figure 4.1: The Turkish fort with Doha in the background, 1904.

From the time of Doha's earliest occupation, the water present in the Msheireb area was an important source of water for the settlement. The wells at Msheireb were significant enough to be mentioned by J.G. Lorimer during his summary of Doha in 1908, and were clearly of strategic importance; Lorimer indicates that the Turkish troops garrisoned in Doha guarded them from a watch tower.

“Dohah itself possesses only one well of brackish water, named Ain Walad Sa'id, which is a half mile to the south of the Dohah quarter, but there is a group of others called Mushairib with fairly good water, at 1 mile to the west of the Dohah quarter. Three miles inland is Bir‐al‐Jadidah, a large masonry well of indifferent water on which the town mainly depends for its supply... The Turkish troops obtain most of their water from Mushairib, where there is a military outpost of 8 men in a

13 tower to watch the wells. The soldiers now have a vegetable garden at this place; and scurvy, which was formerly common among the garrison, has disappeared“ (Lorimer 1986).

In his recollections of Doha in the first half of the 20th century Nasser Othman reinforces the importance of the Msheireb area as a water source for the city. He also mentions a natural pool that collected rainfall, and presumably helped recharge the aquifer in this area.

“Most houses had access to a water well providing brackish water for domestic purposes, such as cleaning and bathing, but the water from such wells was not fit for drinking. Sweet water had to be taken from springs at Muraikh, Nuejjah and Musheirib, where the precious few days of winter rainfall collected in a pool known as al‐Sail. The most frequented public well was the Youssef Ahmad well near the open‐air Eid prayer‐house in Al‐Jassrah.

Water was carried from the spring to houses by donkey, camel or by a water‐ carrier [kandari]. The kandari carried two pails balanced on a wooden yoke across his shoulders and was a familiar sight in those days. Once in the house, water was stored in large earthenware pots. Drinking water was stored in special small pitchers [zir] which kept the water cool and fresh even in the most extreme heat. The taste of the water was improved by adding a little mastic to the pitcher” (Othman 1984).

It appears that Doha continues to expand in the first few decades of the 20th century. It is likely that extension into the Msheireb area, and thus the joining of the two towns of Bida' and Doha into a single city, began soon after the Ottomans left in 1915. The Al Thani ruler moved his seat of power to the area of their fort and established the Emiri Diwan. Soon after this time, according to the archaeological research presented below, settlement began in the previously‐open land between Bida' and Doha.

In 1920 a United States Hydrographical survey of the region gives a description of the now conjoining settlements of Doha and al Bida', with "Little Doha" between them:

“Al Bida or Gutteh is the name of the combined three towns … Doha, Al Bida, and Little Doha. Doha, the eastern town, ½ mile south‐westward of Ras Nessa, is partially walled, with several towers. The Sheikh’s house is at a large round tower, with a flagstaff, on the beach about the middle of town; westward of this tower is a small bight, where boats are hauled up for repair. The reef dries ¼ mile off.

Little Doha, north‐westward of and joining Doha, has a square fort on the rising ground at its south‐western corner. Al Bida joins Little Doha, and the three places extend 1 mile along the shore. Al Bida is situated on the side of the rising ground, and the Sheikh’s flag is flown from the castle. Al Bida fort, which is situated on rising ground, has a large tower and is conspicuous” (US Hydrographical Office 1920, 115‐116).

"Little Doha" refers to Jasra and new adjacent quarters, which were spreading westwards at that time towards Msheireb and the former Ottoman fort (probably the "square fort on the rising ground"). "Al Bida fort" probably refers to the 19th century fortification of Bida', still evident in aerial imagery of the 1950s but since demolished, though sometimes the former Ottoman fort may have been referred to by that name.

14

The Hunting Survey Of Doha was undertaken in 1957, and represents the first detailed survey of the city. By the mid 20th century the Msheireb area has been developed, with a number of buildings including the Radwani House clearly visible (Figure 4.2). The building layout recorded in the Hunting Survey remains largely unchanged until the extensive redevelopment of Suq Waqif and the Msheireb district began in c.2006.

Figure 4.2:Part of the Hunting Survey of 1952 showing the Radwani House.

However, the decades preceding the Hunting Survey had been marked by economic hardship in the region. During the early 20th century, much of Qatar’s economy still depended on fishing and pearling. At about 1900 Doha had a population of around 12,000 and around 350 pearling boats. The introduction of Japanese cultured pearls and the global depression of the 1930s had a disastrous effect on the whole region, and the town of Doha suffered a major downturn. There were shortages of food, while inflation and the crippling debt plaguing most of the population exacerbated the situation. The earliest aerial images of Doha in the late 1940s show large areas of the city apparently abandoned and in ruins. This is reinforced by a description of the city in 1949 by Sir John Arthur Wilton, the first British Political Agent in Qatar.

“Qatar in 1949 was not a particularly agreeable place to be. Decades of poverty and, during the War, near famine had led to mass emigration and endemic diseases of dirt and malnutrition. The appearance of the capital, Doha, suggested the aftermath of an air raid as unoccupied and even occupied houses crumbled into decay. In the countryside, at its best a harsh and barren moonscape of a land, the desert advanced pitilessly against the few patches of cultivation. Walled gardens and date groves bore signs of drought and neglect as the laborious business of irrigation from deep wells by donkey‐power was not sustained.”

15 Not all districts of Doha were in decline in the 1920s and 1930s, as demonstrated by the expanding westwards occupation of Jasra towards Msheireb, and it seems that early revenues from oil exploration concessions were able to sustain the economy to a certain extent. Oil was discovered in the region in the 1930s, and was to be the saviour of Doha. Judging from the date of the finds associated with the earliest layers and buildings beneath the Radwani House (see below), its surroundings were first occupied in the 1920s or 1930s. This extension of the town may have been stimulated by oil revenues, as well as the moving of the Amiri residence to the area following the departure of the Turkish garrison. However, the exploration of oil resources and the extraction process took time and was halted for a number of years due to the Second World War. It was not until 1949 that oil started to flow in commercial amounts, and in December of the same year the first ship left the shores of Qatar bearing a consignment of crude oil. Today the nation as a whole produced over 800,000 barrels of oil daily, making it one of the world’s major oil producers. Not everyone shared the the gloomy impression of Doha given by Wilton at this time, and it is clear that the town had already started to recover. Charles Spencer Denham, later Lord Denham, was then a British merchant who arrived in 1949 and shipped in building materials to construct the first modern buildings in the town:

“I don't remember it as falling down, I remember it as a typical mud building Arab town. There we no fine buildings or anything like that, it was like a rabbit warren with the little narrow streets going through. Our job was to bring in all the building materials for developing the place once they had some oil money. They were building the hospital, and we were largely responsible for that" (interview by Frances Gillespie, 12 February 2010).

Significant social changes occurred as oil wealth began to filter down through the population of Qatar. Wealthier Qatari families began to leave the historic core of the city, preferring to live in newly built, modern villas rather than antiquated 19th to mid 20th century traditional limestone houses. An initial building boom in the 1950s and 1960s saw a rapid expansion of Doha through the widespread construction of largely traditional buildings, along with new concrete architecture. Piped water, electricity, air conditioning and a host of other modern conveniences were added to traditional buldings old and new, which must have drastically altered the day to day experience of city living. Excavations at the Radwani House, built some time between the mid 1920s and the mid 1930s, shows that bit underwent a number of ad‐hoc alterations along these lines in the mid to late 20th century. In addition ever increasing oil and gas revenues combined with rapid development and expansion in Doha resulted in the arrival of large numbers of migrant workers from Asia, Africa, Western Europe, and beyond. As time went by and Qatari families moved out of the old buildings, this migrant labour force occupied many of the now less desirable traditional buildings in the centre of Doha. The new inhabitants often enacted a range of alterations to the buildings, transforming these building to suit their own needs. The inhabitants sub‐divided courtyards in order to create a number of smaller dwellings, they added second stories constructed of modern concrete blocks to the main structure, added walls and rooms and cut openings for air conditioning units into the walls.

16 5. Archaeological Investigations in the Heritage Quarter of the Msheireb Development Daniel Eddisford With contributions from Katie Campbell and Kirk Roberts 5.1 Introduction In December 2012 the Origins of Doha team was asked by Msheireb Properties to undertake an assessment of archaeological deposits encountered during ground works in the Heritage Quarter of the Msheireb development. Archaeological excavation then ensued as part of the Origins project's remit for fieldwork in Doha. The Msheireb redevelopment project covers an area of 31 hectares in the historic core of Doha. The development is located directly to the west of Souq Waqif, and is bounded by Al Rayyan Road to the north, Al Diwan Street to the west and Wadi Msheireb Street to the south (Figure 5.1). The mixed‐use development will comprise more than 100 buildings, with a combination of commercial and residential properties, retail, cultural and entertainment areas. Located in the northeast area of the development, the Heritage Quarter consists of four buildings; Jalmoud House, Company House, Mohamed Bin Jassim House and al Radwani House (Figures 5.1 and 5.2). Extensively rebuilt by the Private Engineering Office in the mid 2000s, these historic structures are currently being turned into cultural centres, four new museums and exhibition buildings.

Figure 5.1: Location of the Msheireb redevelopment project (Google Earth image 2006).

Following the initial assessment archaeological excavation was undertaken between the 9th and the 19th of December 2012 inside four rooms of the Radwani House that had be identified as having high archaeological potential. In addition several archaeological features were recorded in Company House. Between the 3rd and the 21st of February 2013 further excavations took place, focusing on the colonnade and courtyard of the Radwani House.

17

Figure 5.2: Location of Radwani House and Company House (Google Earth image 2006).

Prior to its extensive reconstruction by the Private Engineering Office in 2006 the building looked significantly different than it does today (Figure 5.3). The reconstruction work undertaken involved the demolition of most of the historic fabric of the Radwani House, and the extensive rebuilding of the structure on a similar same floor plan. Original architectural motifs were recreated using a mixture of traditional and modern building techniques.

Figure 5.3 : Radwani House prior to reconstruction in 2006

The excavations revealed an archaeological sequence comprising of an initial occupation of the site that predates any significant architectural remains. This was followed by several phases of buried walls as well as associated floors and occupation deposits. In its earliest phases—probably dating to the early 20th, century—the buildings on the site appear to consist of two houses, separated by an

18 alleyway. These were later combined into a single complex with the closure of the alley. The combined structures were then remodelled to make a single courtyard building. Significant features associated with this building include a unique bath and well complex in one of the rooms. This later phase of building was extensively reconstructed in 2006 to create the current Radwani House.

The archaeological deposits excavated were rich in artefacts, including pottery and glass. Future analyses of other finds such as animal bones and plant remains will allow a clearer picture of traditional life in Doha to be established. Traces of a much older occupation, probably of the Sasanian Period, were identified in the ceramic assemblage, suggesting much earlier occupations in the Doha area.

This archive report provides a technical summary of the results of these archaeological investigations. The stratigraphy of each excavation area is described in detail, followed by a phased summary of the development of the site. Analysis of the artefacts and soil samples from the excavation is ongoing, but where preliminary data is available it has been integrated into the report. Excavations at several contemporary archaeological sites in Qatar are briefly discussed, along with similar urban sites elsewhere in the Arabian Gulf. These comparative sites are used to give context to the excavations in order to place the work in a wider context and highlight the potential importance of this and continued archaeological work in Doha.

19 5.2 Aims of the Excavation The initial aim of the excavation was to assess the potential for buried archaeological deposits in the Radwani House. To this end, two documents were prepared, detailing the nature and extent of visible archaeological remains on the site, and assessing the anticipated impact of the current development these remains (Carter and Eddisford 2012a; 2012b).

Following the initial assessment four areas of high archaeological potential were identified in Room 8, Room 9, Room 10 and Room 12. The archaeological deposits in these four areas were threatened with imminent destruction. In order to mitigate the impact of the development of these areas the first phase of excavation aimed to fully excavate archaeological deposits in order to ensure their preservation by record.

A second phase of excavation focussed on the exteriors of the rooms in the colonnade and courtyard in order to assess the character, date, location and level of preservation of any archaeological remains in this area. This phase of work aimed to provide further information on the development of the Radwani House and allow a better informed decision to be made on how best to mitigate for further intrusive groundworks in the Radwani House.

In addition an intermittent watching brief was maintained in Company House throughout the team’s presence on site. No archaeological excavation was undertaken, but several archaeological features, including two wells, were recorded.

Beyond the need to mitigate the impact of the current development of the Radwani and Company Houses on the buried archaeological remains, the data from the excavation will be incorporated into the ongoing research of the Origins of Doha Project. These data will be used to better understand the foundation and historic growth of Doha, and its transformation to a modern city.

5.3 Methods

5.3.1 Trench Locations The location of all the excavation areas in respect to the standing architecture of the Radwani House is presented below in Figure 5.4. The Site of the Radwani House is centred on Qatar National Grid 231598 382715.

Room 8, Room 9 and Room 10 were ranged along the western side of the courtyard of the Radwani House. The archaeological deposits in Room 9 were fully excavated. The remains in Room 8 were excavated to the earliest phase of architecture, which was left in situ. In Room 10 the architectural remains, consisting of a well and a bath, were recorded and a small trench was excavated through early deposits in the southeast corner of the room. The archaeological deposits at the eastern end of Room 12 were fully excavated, the rest of the deposits having been truncated by the current restoration of the house.

Trench 1 was L‐shaped in plan and located in the southwest corner of the colonnade. The trench was located in an attempt to locate a continuation of an east‐west orientated wall identified by excavations in Room 8.

Trench 2 measured 3.10m by 1.50m and was located on the western side of the courtyard. It was located to assess the survival of deposits in the courtyard area of the house, and relate them to the deposits identified in Trench 1.

20 Trench 3 was located in a modern circular planter in the centre of the courtyard. It was excavated to establish whether there was an early feature in the centre of the courtyard, such as a well or tree planter.

Trench 4 measured 3.00m by 1.80m and was located on the eastern side of the colonnade. It was placed here to assess the archaeological survival in this area of the site, specifically to see whether any architectural features survived on this side of the site.

Figure 5.4: Location of excavation areas in relation to existing walls of the Radwani House

5.3.2 Excavation Methods Where necessary the concrete sealing the excavation trenches was cut and broken out with hand tools, with the assistance of the Arabian Construction Company.

21 All archaeological excavation and recording was carried out in accordance with the Museum of London Archaeology Service archaeological site manual (MOLAS 1994) and where relevant the Code of Approved Practice for fieldwork as set out by the Institute for Archaeologists (IFA revised 2008).

All identified finds, artefacts, and faunal remains were collected and retained.

Environmental sampling during the evaluation targeted a representative range of contexts from each phase and focused contexts with high potential for botanical survival.

The site code ODQ22 has been allocated to all work in the Heritage Quarter of the Msheireb development. This code will be used to label all recording sheets, plans and finds. The work undertaken has been added to the Qatar National Heritage Register, under the Event Number 119.

All archaeological finds from the excavations remain the property of the Qatari state. As agreed at the beginning of the project some of the artefacts and samples recovered are temporarily retained for recording and analysis by UCL Qatar. All archaeological finds and materials currently held within UCL Qatar for this purpose, will be being returned to the appropriate authority after the analysis is complete.

Figure 5.5: The courtyard of the Radwani House looking southwest, prior to excavation of Trenches 1 and 2.

22 5.4 Phased Summary Several major architectural phases, relating to the development of the Radwani House, were identified during the archaeological excavations. A summary of these phases is described below. A more detailed description of the deposits associated with each phase is given in the following section (Section 6). The location of the excavation areas is detailed above in Figure 5.4.

5.4.1 Phase 1 – Pre‐architecture The earliest occupation of the site pre‐dates any architectural remains, and is represented by several postholes, spreads of ashy charcoal rich material, and small pits. These deposits are likely to represent 19th and early 20th century activity on the outskirts of al Bida' and the new settlement of Doha. The deposits associated with Phase 1 activity were relatively extensive across the site. However, this early activity on the site was only exposed in small areas due to a combination of extensive truncation by later features and limited exposure in the lowest levels of our relatively small excavation trenches.

Although no stone architecture is present in this first phase of occupation three postholes [101], [103] and [105] may represent posts associated with an early wooden building or barasti hut. These postholes could also be associated with scaffolding for the construction of the Phase 2 architecture.

In Room 6 and in Trenches 1 and 3 trampled floor deposits (194), (171), (238) and (116) / (106) are likely to represent relatively intensive, although possibly seasonal, activity on the site. Several pits cut into the natural limestone. Pit [109] in Room 8 was relatively large, measuring 1.30m in diameter and 0.60m deep. In Room 9 a series of intercutting pits contained ash rich fills. The function of these features is not entirely clear, however some may be small quarry pits used to excavate limestone and gypsum, then filled in with the ash of raked‐out fires.

Across the site early occupation deposits appear to attest to a range of activities including occupation and dumping of domestic waste. These charcoal rich deposits often survived only in shallow depressions in the natural limestone. However at the southern end of the site these deposits were more extensive and possibly better preserved as the natural limestone dips down towards the southern end of the site.

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Figure 5.6: Phase 1 features and deposits.

5.4.2 Phase 2 – Early architecture The earliest building on the site was a heavily robbed out structure on the western side of the site. A single east‐west aligned wall (46) / (47) in Room 9 was rendered with a hard light pinkish grey plaster (96). The full extent of this building was not clear, as this single wall appeared to be the only surviving element of this structure. It may well have been a relatively small structure, without an associated enclosed compound wall. This earliest building was associated with a thin, lime‐flecked, compact, sandy clay surface (55) / (54) and overlaying loose ashy occupation deposit (45).

The eastern extent of the building may have been truncated by a raised structure, (219) / (159), built over the earlier building. The building was accessed via the narrow plastered stairway, (159). The structure had been vertically truncated by later construction, and as a result any associated floor surfaces have been destroyed. Initially building (219) / (159) was not enclosed by a courtyard wall. However, possibly as a result of increasingly dense surrounding occupation, a courtyard wall, (172) /

24 (64), was built. This created an enclosed compound, presumably with raised building (219) / (159) in the southwest corner. Phase 2 wall (69), located directly beneath the northern wall of the current Radwani House, appears to represent the northern extent of this courtyard. A slightly later addition to this courtyard wall (97), which abutted the northern compound wall, was associated with the subdivision of the courtyard in order to create at least one more room on the northern edge of the courtyard.

At the same time as the northern building is enclosed with a courtyard wall a second compound, (15) / (178) / (201), is constructed directly to the south. A small alleyway created between the two compounds may have provided access to both dwellings. North‐south aligned wall (235) was heavily robbed out, but was associated with wall (178), forming an internal division within the southern compound. Wall (235) probably represents the eastern wall of an internal space, the western extent being defined by wall (15) in Room 8. To the east of wall (235) a large open area would probably have been an external courtyard. A sequence of floors and levelling layers in this space represent an extended period of occupation associated with the southern compound (178) / (235).

Both the northern and southern Phase 2 compounds have wells associated with them, highlighting the availability of water in the Msheireb area. Abutting the western side of the southern compound a circular stone lined well, [126], was set in a raised plinth. Although apparently associated with the southern compound this well appears to be located in an external street area, directly to the west of the compound. In the northern compound a circular cement or gypsum lined well, (143), was surrounded by a similar sub‐rectangular plinth.

On the eastern side of the site an east‐west orientated wall (192) may be associated with the southern compound, or may represent a separate structure located to the east of both compounds.

25

Figure 5.7: Phase 2 architecture.

5.4.3 Phase 3 – Joining of two compounds The two separate compounds that occupied the site in the previous phase were joined together in Phase 3, and the alleyway between them blocked off. Several drainage features and soakaways were also added to the buildings in this phase of use.

A concrete or gypsum threshold (113) was constructed at the western end of the alleyway, closing access from the street to the west. Directly to the east of this feature a concrete or gypsum surface (87) drained through a copper alloy drain cover soakaway [118]. This was one of several stone‐lined oval soakaways constructed in this phase.

This joining of the houses may indicate that a new owner had bought both houses, or the owner of one had bought the other, and decided to join them into a single structure. This somewhat ad hoc

26 fusion of the buildings was soon superseded by the construction of a single unified building (Phase 4, below).

Figure 5.8: Phase 3 architecture.

5.4.4 Phase 4 – Later architecture Phase 4 is associated with an extensive rebuilding of the Radwani House. The two separate compounds associated with the previous architectural phase of use were combined into a single unified building. The southern building was demolished in that process, but the walls of the northern building were incorporated into the new built, or perhaps just their foundations. The alleyway between them was incorporated into the domestic space. This major rebuilding of the Radwani House is represented in a number of the excavation areas by the presence of loose rocky dump layers that seal the earlier architectural phase.

The most striking feature associated with Phase 4 occupation were two concrete baths, (140), This impressive and unique structure consisted of two curved basins divided by a narrow partition. Both ends of the bath had a rounded niche and the western bath was accessed two low steps. The baths

27 were constructed of an extremely hard, light grey, plaster render applied directly over roughly hewn limestone. A significant quantity of large moulded fragments associated with the baths were recovered from the infill of the feature, indicating that the bath could originally have stood 0.50m higher. The baths extend underneath the internal walls of the current Radwani House at their eastern extent. This wall represents part of the 2006 reconstruction of the Radwani House, and the original room that the baths occupied was larger than the current space.

The layout of the rebuilt Phase 4 Radwani House would probably have been similar to the present day structure. A number of earlier limestone walls visible were below the walls of the current structure, often used as foundations for the walls visible today. East‐west wall, (25), was built of unfaced limestone in a linear construction cut. This represents an internal division of the Phase 4 building, that was not replicated in the later Phase 5 restoration work. A heavily truncated north‐ south aligned wall, (226), probably represents the eastern extend of a raised colonnade associated with the Phase 4 house. This colonnade was entirely rebuilt by the Private Engineering Office in Phase 5 using a ring beam of steel reinforced modern concrete.

A compact surface (155) was located to the east of wall (226) and represents an associated Phase 4 occupation level. A sequence of compact cement or gypsum floors and associated bedding layers abutted the southern side of the baths (140). An earlier well, (143), located directly to the south of the baths appears to have been turned into a soakaway. An earlier soakaway [53] was unfilled and sealed by a compact light grey cement floor. Sub‐rectangular stone lined soakaway [169] also well out of use in Phase 4. The introduction of modern drainage, presumably replacing the earlier wells and soakaways, was visible in the form of metal drainage pipe (13), located at the eastern edge of the Room 9.

Other water management additions can been seen in a drainage channel which was constructed in linear a cut, truncating the courtyard surface at the southern end of Trench 1. A cement of gypsum drain (184) would have carried waste water or sewerage. The drain was capped with limestone slabs (181) and covered with sandy silt and limestone rubble (179).

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Figure 5.9: Phase 4 architecture and features.

5.4.5 Phase 5 – Reconstruction by Private Engineering Office In 2006 the Radwani House underwent extensive reconstruction work, under the direction of the Private Engineering Office. This reconstruction involved the extensive demolition of the historic fabric of the building, followed by rebuilding many of the walls on the same ground plan. Earlier walls were used as foundations, with concrete foundations added when necessary. The materials used in the reconstruction were similar to the traditional building fabric, but the limestone is roughly dressed into blocks as opposed to undressed blocks in original house. The reconstructed House represents the Radwani House seen today. A detailed survey of this structure was undertaken prior to the present building works.

29 5.5 Technical Report: Excavations in the Radwani House Details of all archaeological deposits encountered during the excavations are presented below by excavation area. All areas are described stratigraphically, stating with the earliest deposits.

5.5.1 Room 6 Recent construction work in Room 6 had truncated the archaeological deposits to 7.40mOD. In addition the foundations of the 2006 rebuild of the Radwani House had also truncated the archaeology, particularly in the northeast corner of the room. However, the southern extent of the current phase of Radwani House is built directly on older walls; these earlier walls survive to a height of c. 1.2m in the southern wall of Room 6 (Figure 5.11). In addition the lowest courses of several internal walls survived, along with several associated surfaces and a stone lined soakaway.

Phase 1 The natural limestone in Room 6 was sealed by a dirty, compact, trampled surface (194). This was overlain by a second packed earth floor (171). These represent activity predating the construction of the first architecture on the site (Figure 5.10).

Phase 2 Constructed directly on top of the latest surface was an east‐west aligned traditional mud packed limestone wall (201). This wall was directly below, providing a foundation for the southern wall of the current Radwani House. Abutting this wall, although presumably constructed at the same time, was a similar north‐south aligned limestone wall (170). These walls were covered with render (239) and (241) respectively (Figure 5.11). The earliest phase of rendering consisted of a mud render, which was later covered with hard gypsum or cement‐based pale grey render. Wall (201) represents the external wall of a house or compound, and wall (170) represents an internal division within the building.

A mixed dump or levelling layer of loose dark grey ashy material (167) was rich in artefacts and appeared to be re‐deposited midden‐like material. This deposit represents internal levelling within the earliest building (201) / (170) in this area of the site. On top of this deposit another traditional mud packed limestone wall (220) was covered with a hard gypsum or cement‐based pale grey render (240). The wall was heavily truncated by recent construction work, surviving only as a small stub in the northern side of the room. The full original extent of the wall was therefore unclear. This wall represents an addition or alteration to the original building, possibly subdividing a room or courtyard space.

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Figure 5.9: Surfaces (174) and (191) overlain by wall (170). Cut for later soakaway visible at far right.

Figure 5.10:Limestone wall (201) and render (239),The metal sewer pipe is a later addition to the building.

Phase 4 A soakaway was constructed within a sub‐rectangular cut [169], lined with stones (182) and surrounded with a concrete or gypsum apron (175) (Figure 5.10). The primary fill of the soakaway

31 consisted of an organic, rich deposit (176). The top of the soakaway had been truncated by recent construction work, and its stratigraphic relationship to the other deposits in Room 6 destroyed. It is included in Phase 4 as it is similar in appearance and construction to soakaways found in Room 8 and Room 9. However it is possible it is of a slightly earlier date, and may be associated with wall (220).

Phase 5 The upper fills of soakaway [169] consisted of loose limestone rubble (168) and (174) which contained modern artefacts. This infilling appears to be associated with a relatively recent modification to the Radwani House. Linear construction cuts [203] contained a crudely cemented limestone foundation (202). These trenches built for foundations support the existing walls of the Radwani House, defining the eastern, northern and western extent of Room 6. These walls contain ceramic blocks and appear to be of late 20th century date.

5.5.2 Room 8 A substantial wall (15) in Room 8 did not respect the current ground plan of the building, and clearly represents an earlier phase of the building. A series of postholes directly to the west of the wall may represent scaffolding associated with the construction of the building, or a wooden element to the building which does not survive archaeologically. In the southeast corner of Room 8 a circular stone lined well was uncovered, this feature would have been external to the building in this phase of use, probably in a small street or alley directly to the west of the building.

The building exposed below Room 8 would have been accessed through a small alleyway, located at the northern end of wall (15). Later in its life this alleyway appears to have been blocked off. The two earlier buildings were joined together, creating a single larger house. A concrete or gypsum threshold is built, possibly with an associated gate, and a drain excavated in the former alleyway. A stone lined soakaway was observed directly under the walls of the current Radwani House, into which the drain would have emptied.

Phase 1 Natural bedrock, (110), was cut by a small pit or posthole [125] and by a larger sub‐circular pit, [109], measuring 1.55m in diameter and 0.6m deep. This feature may represent a quarry pit for gypsum or limestone. These features were sealed by compacted silty trample layer (116) / (106). This was cut by three postholes [101], [103] and [105], which may represent posts or scaffolding during construction of the earliest architectural phase (Figure 5.12).

Phase 2 The earliest architecture in Room 8 consisted of the northeast corner of a building constructed of unfaced limestone and bonded with coarse mud mortar. The exposed area of wall (15) was L‐shape in plan, and extended beyond the excavation area to the east and south (Figure 5.12). The internal area of the structure exposed in Room 8 measured at least 6.2m by 2m.This space continued in Trench 1 to the east, and probably represents a courtyard in this original phase of use.

32

Figure 5.12:Substantial early wall (15), with earlier postholes [101], [103] and [105] in foreground and pit [109]in background. Looking south.

To the west of wall (15) a less substantial wall of similar construction [84] is keyed into [15] and encloses well [126], with a diameter of 1.4m and measuring at least 2.0m deep (Figure 5.13). The well extended under the walls of the current Radwani House, and was not excavated for safety reasons. The feature represents an external well, constructed at the same time as wall (15), and surrounded by a low wall or raised platform.

Figure 5.13:External well [126] and associated walls (86) and (15). Photographed in plan.

33 A soft ashy silt layer (107) measuring only 20mm thick is the first of a series of internal surfaces and occupation deposits in the courtyard area to the east of wall (15) (Figures 5.14 and 5.15). This is overlain by loose, silty sand (42). Wall 15 is re‐plastered at this point with a very pale grey, soft gypsum plaster (121). Next a crushed lime floor (41) is laid, and then and then wall (15) is again re‐ plastered with a light greyish white smooth lime plaster (32). Thick silty occupation deposit (30) accumulated against the re‐plastered wall, and is sealed by 80mm thick sandy gravel floor (29).

Figure 5.14: Early architecture and internal courtyard floor in Room 8, looking south.

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Figure 5.15: A section through the floor surfaces associated with Phase 2, looking north.

To the west of wall (15), compact sandy silty clay deposit (99)represents an external surface associated with an alleyway adjacent to the building. It was sealed by a thin, loose silty sand layer (49), which represents an accumulation of occupation material in the alleyway, or a brief period of disuse or renovation. A second compact sandy silty clay deposit (37) sealed this deposit.

Linear cut [36] runs parallel to wall [15], truncating surface (37), and is associated with the re‐ plastering of the external face of the wall. The wall was covered with a light grey hard plaster (128).

Phase 3 At this point the Phase 2 building undergoes a major alteration. The alleyway directly to the north of wall (15) is blocked, suggesting the structure to the north is incorporated into a single larger house. A low step (113) appears to represent a threshold associated with the new entrance into the combined building. To the east of the threshold, and inside the new building, a hard gypsum or concrete surface (87) drains through a copper alloy drain cover soakaway [118] (Figures 5.16 and 4.16).

35 Figure 5.16:Concert or gypsum threshold (113) and surface (87) to north of wall 15 and blocking and earlier alleyway.

Figure 5.17: Metal drain cover, draining into soakaway [118].

36 Phase 4 The major rebuilding of the Radwani House in this phase is represented in Room 8 by a 0.2m thick, loose, rocky, silty sand dumps (11), (12) and (17) and are also associated with the demolition of the building associated with wall (15). The walls of the Phase 4 structure were hard to define in Room 8 as they had been entirely truncated by Phase 5 activity. However, it seems likely that the extent of the phase 4 building was similar to that of the existing Radwani House.

Phase 5 A foundation of roughly faced limestone blocks, bonded with soft mud mortar, and measuring at least 5.2 m long was constructed in a linear foundation cut. This feature cut the latest demolition deposit (17) and also truncated the Phase 4 walls in this area of the site. The foundation supports the current western wall of the Radwani House and is likely to be associated with the 2006 rebuilding works undertaken by the Private Engineering Office.

5.5.3 Room 9 A relatively complex sequence of archaeological deposits was excavated in Room 9, with several east‐west oriented walls representing different phases of building and occupation. In addition a stone lined soakaway was located in the south part of the room.

Two parallel, early phase walls are likely to be contemporary with the earliest buildings identified in Room 8. The southern wall may be an external courtyard wall, dividing the house from the alleyway recorded in Room 8. The northern wall was partially truncated by later activity, and represents an internal division within the building.

At the southern end of the Room 9 a series of crushed limestone and gypsum surfaces are associated with an alleyway between two separate buildings in this early phase of occupation. Later concrete or gypsum surfaces are probably associated with the blocking of this alleyway in a later phase. A stone lined soakaway was recorded in the southwest corner of Room 9.

Phase 1 Natural limestone bedrock, (81), was sealed by a patchy, thick levelling deposit of sandy, charcoal rich occupation debris (76), measuring up to 0.15m thick. A heavily truncated pit, [75], measuring 0.50m in diameter and 0.20m deep was filled loose, ashy, silty sand (74). These deposits were sealed by a sandy, charcoal rich levelling layer (65) /(66). This was in turn cut by pit [73], which contained an ashy fill (72). The original size and extent of this feature was unclear as it was heavily truncated by the west wall of the Radwani House. This sequence of occupation activity predates the architecture in this area of the site, and represents the earliest activity recorded in Room 9

Phase 2 The earliest architecture in Room 9 consisted of an east‐west running wall (46) / (47), which survived to a maximum of two courses high (Figure 5.18). The southern face of the wall was rendered with a hard, light pinkish grey plaster (96). The wall was associated with a thin, lime flecked compact sandy clay surface (55) / (54) and was overlaying loose ashy occupation deposit (45). This feature is difficult to relate to any other features, and wall (46) / (47) does not appear to continue to the east in Trench 1. It seems likely that this early structure was rebuilt, and largely destroyed by feature (159), visible directly to the east in Trench 1.

37

Figure 5.18:Walls (46) / (47) in foreground and wall (64) in background ,looking south.

Wall (46) / (47) was heavily truncated by linear robber cut [44]. Following this phase of robbing, there was a second early building phase consisting of an east‐west aligned wall (64). This feature measured 0.50m wide and survived to a length of 2.56m. The western extent of the wall was truncated by a modern intrusion. Wall (64) was constructed of unfaced limestone, with a hard, dark grey cement render on its south face. Wall (64) was contemporary with similarly constructed walls (60) and (61), which were visible only in elevation below the present eastern wall of Room 9.

Phase 3 A series of deposits and features to the south of wall (64) are associated with closing of an earlier alleyway and the addition of a number of drainage features and compact concrete or gypsum surfaces. These deposits are likely a continuation of threshold (113), surface (87) and soakaway [118] recorded directly to the south in Room8.

On the southern side of Room 9,a series of laminated occupation deposits (58) survive. These deposits were cut by a soakaway [53] and a small drain [94]. Construction cut [53] was lined with seven courses of unfaced limestone. (52), to form a sub‐circular soakaway measuring 1.20m by 0.6m and 0.8m deep. The primary fill of the feature, (51), consisted of a coarse sandy silt associated with the use of the feature.

To the south of the soakaway, visible only in section, a grey concrete or gypsum drain (93) was built within construction cut [94] and measured 0.48m wide and 0.46m deep. A similar small rendered channel (59), located slightly to the south, is probably also associated with drainage. A similar small drain (62) was inserted into cut [63], truncating the southern face of wall (64) (Figure 5.19).

38

Figure 5.19: North facing section at southern end of Room 9.

A crushed mortar bedding layer (57) was sealed by truncated hard grey cement or gypsum surface (56), measuring 0.50m by 0.35m.A 0.35m thick levelling dump (92) was in turn sealed by a hard grey cement floor (91); these two deposits are the same as (114) and (87) in directly to the south in Room 8.

Phase 4 The major reconstruction of the Radwani House associated with Phase 4 is represented in Room 9 by an east‐west wall, (25), built of unfaced limestone. The wall was built in a linear construction cut [27], which truncated the earlier occupation deposits in this part of the room.

As in Room 8, most of the Phase 4 architecture was hard to identify as it was either directly below, or truncated by the walls of the existing Radwani House. It seems likely that the Phase 4 structure had a similar floor plan to the existing Building. Wall (25) represents an internal room division, which was presumably removed prior to the 2006 reconstruction of the building.

Soakaway [53] was unfilled by limestone and sand rubble (34) and sealed by a compact light grey cement floor (31), which is probably an external surface. This suggests the feature fell out of use in this phase, possibly no longer required after the introduction of piped water and sewage. The introduction of modern drainage, presumably replacing the earlier wells and soakaways, is visible in the form of metal drainage pipe (13), within cut [14] located at the eastern edge of the Room 9.

Phase 5 Dump layers of poorly sorted loose building rubble (4) and (9) at the northern end of Room 9, and dump (16) in the southern end of the space, represent demolition activity associated with the 2006 restoration of the building.

A levelling deposit (90) is also associated with the modern restoration works. Construction cut [89], contained the foundations for the existing walls of the Radwani House, which were entirely rebuilt in this area as part of the 2006 reconstruction. The foundations, (91), consisted of roughly faced limestone, bonded with sandy light brown mortar.

39

Figure 5.20: Members of the Origins of Doha Project team working in Room 9

5.5.4 Room 10 A well and bath were exposed in Room 10, directly below a modern concrete slab associated with the 2006 restoration of Radwani House by the Private Engineering Office. These architectural features were recorded, and a small trench was excavated in the southeast corner of Room 10 to examine the earlier deposits in this area of the site. The architecture in Room 10 was left in‐situ and unexcavated, so that the remains could be preserved for presentation to the public.

In the centre of Room 10 a rectangular concrete plinth surrounded a circular stone lined well. This is similar in form to the well recorded in Room 8. The deposits overlying the well were removed prior to our arrival on site; however it is likely that a series of partially truncated concrete or gypsum surfaces to the north of the well were associated with its use.

The most striking feature in Room 10 was a sub‐circular bath, with two internal divisions, constructed of a hard grey material. The construction material is currently being analysed to understand its composition. This type of bath has not been found in Qatar before, and further research is required in order to identify any comparable feature in the region.

Phase 1 Natural bedrock (132) was sealed by a sequence of ashy levelling and occupation deposits. Deposits (131) and (130) filled undulations in the natural, and consisted of compact sandy gravel and thin laminated trampled layers. Compact light brown sand and crushed mortar crush, (123), represents a more deliberate levelling layer, possibly used to prepare the area prior to building on the site.

Phase 2 An unfaced limestone wall constructed directly on top of levelling dump (123) was visible in section at the eastern side of the room (Figure 5.21). This wall formed the foundation for the existing Radwani House. It seems likely that the Phase 4 activity in Room 10 described below mostly

40 truncated the earlier activity, or unexcavated architecture seals these earlier deposits in this part of the site.

Located the southern side of Room 10 layers (122) and (199) represent make‐up and levelling deposits and are sealed by a beaten earth floor surface (120). Modern disturbance make it impossible to relate these deposits to the rest of the space, however they probably represent occupation and floor deposits associated with the earlier architectural phases of the site.

Figure 5.21:Phase 2 or Phase 3 limestone wall, constructed on levelling layer (123) and sealed reconstructed walls of Radwani House. Looking west.

A circular cement or gypsum lined well, (143), had an internal diameter of 2.00m, and measured over 4.00m deep. The well was surrounded by a sub‐rectangular plinth, (141), with evidence for multiple re‐plastering and repairs. East‐west aligned wall (142) formed the southern extent of plinth (141) and appears to have reinforced or stabilised the upper part of the well (Figure 5.22). This feature is similar to the well and associated plinth [126] in Room 8.

The absence of floor surfaces directly associated with the well make it difficult to ascertain whether it was located in an external space or inside a room. The central location of the well in Room 10, directly inside the current entrance and approximately 30cm lower than the present colonnade, along with its stratigraphic relationship with the bath structure immediately to the north, indicates that it certainly belongs to an architectural phase which preceded the current layout of the Radwani House.

41

Figure 5.22: Well (143) with bath (140) in background and truncated floors to the left of the well. Looking north.

Phase 4 Directly to the north of well (143) two concrete baths, (140), cut the superstructure of the earlier well. This impressive unique structure consisted of two curved basins divided by a narrow partition. Both ends of the bath had a rounded niche and the western bath was accessed two low steps (Figure 5.23). The baths measured 3.20m east‐west, 2.10m north‐south and 0.90m deep. The baths were constructed of an extremely hard, light grey, concrete or gypsum render applied directly over roughly hewn dolomitic limestone. A significant quantity of large moulded fragments associated with the baths were recovered from the infill of the feature, indicating that the bath would have originally stood at least 0.50m higher. Originally the sides of the baths would have risen above the floor level of the room. The baths both drain through separate outlet holes to the north, presumably into a soak‐away or drain originally located under the adjacent Room 11. Extensive modern disturbance in Room 11 mean that no archaeological remains were preserved in this area. The baths extend underneath the internal walls of the current Radwani House at their eastern extent. This wall represents part of the 2006 reconstruction of the Radwani House, and the original room that the baths occupied was larger than the current space.

42 Figure 5.23: Concrete baths (140), looking north west.

A sequence of compact cement or gypsum floors and associated bedding layers abutt the southern side of baths (140). These surfaces are presumably contemporary with the baths. It seems likely that the floors would have sealed well (143), which appears to have fallen out of use or been turned into a soakaway by this point. The well recorded in Room 3 of Company House was reused as a soakaway in a similar fashion (see section 4.6 of this report). However, the floors had been heavily truncated making it impossible to establish their stratigraphic relationship to the rest of the room. The earliest floor surface, (139),was, sealed by gravel bedding layer (138). Above this bedding deposit was a second cement or gypsum floor surface, (136) / (137). Cement drain setting (135) was a later addition to the floor surfaces, and appears to drain through the western wall of Room 10. The floor surfaces described above also slope slightly towards the west, allowing the entire room to drain efficiently.

5.5.5 Room 12 A sequence of archaeological deposits survived to a depth of 1.5m in Room 12 (Figures 5.24 and 4.25). These deposits represent floor surfaces associated with the current Radwani House, occupation associated with earlier architectural phases of the building, and deposits associated with activity in this location prior to construction on the site. Several phases of architecture were present, the earliest phases associated with a mud rendered limestone wall and later phases with a gypsum rendered wall directly above it.

Phase 1 Natural limestone (80) was sealed by a dark grey ashy silt layer (71). This context consisted of several laminated ash rich occupation deposits, possibly associated with more ephemeral wooden structures or more nomadic occupation pre‐dating the construction of the Radwani House (Figure 5.24).

43

Figure 5.24:Layer (79) overlain by several superimposed building phases. Looking northeast.

Phase 2 Built on top of this deposited was a traditional limestone wall (69), consisting of unworked limestone and mud mortar. The internal face was covered with a mud render (77). A layer of crushed limestone (70) measured up to 0.50m thick, and appears to represent a levelling dump associated with the initial construction of the Radwani house. This was overlain by charcoal rich mixed trample and occupation deposits (67), associated with the earliest occupation of the Radwani House.

These deposits were sealed by a mud rendered limestone wall (97) which abutted wall (69). This later phase of building appears to be associated with the subdivision of the courtyard in order to create at least one more room on the northern edge of the courtyard. The floor of newly created room is initially levelled with brown sandy silt (83). The occupation of the room is represented by a highly laminated deposit (50), consisting of at least four thin floor layers each measuring c. 5mm thick. A second dump of brown sandy silt (39) appears to be another levelling event, and is sealed by laminated ashy grey occupation deposits (38).

Phase 4 The House undergoes a major remodelling, or possibly rebuilding, phase at this point. The external wall in Room 12 is replaced by (78), which uses the earlier wall as a foundation. The new wall is covered with a pale yellow grey render (40), possibly made of gypsum. A thick dump of silty sand (19) was used to level the room and was sealed by ashy occupation deposits (8). A shallow cut [82] / [28] running along the base of the wall of Room 12 is associated with the re‐plastering of the room; and a thin pale yellow render is applied to wall. I series of occupation deposits, some very charcoal rich (6), (3) and (5) are all associated with the later occupation of room 12.

Phase 5 A second rebuilding of the external wall now occurs; a new wall (79) is constructed of roughly faced limestone and a hard pale grey mortar. This wall is probably associated with the reconstruction of the Radwani House by the Private Engineering Office in 2006. Layers of loose silty sand and stones (2) and (1) are levelling deposits associated with a modern concrete slab that formed the latest floor

44 surface in Room 12. This slab would also have been laid as part of the recent reconstruction of the building.

Figure 5.25: Archaeological deposits in section in Room 12, looking east.

Figure 4.25: West facing through the occupation sequence excavated in Room 12

45 5.5.6 Trench 1 Located in the southeast corner of the colonnade, Trench 1 contained a series of well‐preserved walls associated with the earliest architectural phase of the site. Two separate compounds were identified, separated by an alleyway. A series of surfaces and associated levelling deposits were excavated in the southern area of Trench 1, associated with the southern compound.

Later in the building’s life history these two compounds were combined, before being extensively rebuilt into the current form of the Radwani House. Earlier surfaces were truncated by a limestone capped drain, part of several drainage features associated with this slightly later occupation.

Phase 1 Natural limestone in Trench 1 (198) was cut by a series of irregular channels, possibly the product of natural hydrological action. At the southern end of the trench the natural limestone was sealed by loose dark grey sand (233). This deposit contained a small quantity of charcoal and bone, and appears to represent deliberate levelling prior to the first phase of construction in this area of the site. Loose, sterile, silty sand (208) filled a fairly deep depression in the natural and may be the result of natural depositional possess.

At the northern end of the trench natural limestone was sealed by an un‐excavated compact beaten earth surface (238). This represents an occupation deposit predating the earliest architecture in this area, this is likely be associated with an earlier phase of more ephemeral occupation of the site.

Phase 2 At the northern end of the trench, constructed on top of surface (238), wall (219) and steps (159) formed the base of a raised building platform that was filled by rubble infill (207). The building was accessed via the narrow plastered stairway, (159). This structure measured 2.90m by 0.80m and survived to a height of 0.60m (Figure 5.27). The building continues beyond the trench limits to north and west. The area to the north was not excavated, to the west little evidence of the building was recorded in Room 9. The building was constructed of unfaced limestone, with a mud render applied to the east and south faces. The building had been vertically truncated by later construction, and as a result any associated floor surfaces have been removed (Figure 4.29). To the east of the building beaten earth floor surface(158) represents an external courtyard surface associated with the use of this structure.

Initially building (219) / (159) was not enclosed by a courtyard wall. However, possibly as a result of increasingly dense occupation, a courtyard wall, (172), was built, cutting into surface (158). This created an enclosed compound, presumably with raised building (219) / (159) in the southwest corner. Built in a linear construction cut, [210], wall(172) measured 0.50m wide and was again built of unfaced limestone. Initially the external southern face of the wall does not appear to have been rendered, however a thick, hard, light grey render was applied to the wall slightly later.

46

Figure 5.27: Early architecture (219) and (159) with later enclosure wall (172) in background under scale. Looking south.

At the same time the northern building is enclosed with a courtyard wall a second compound is constructed directly to the south, with a small alleyway created between the two compounds. Two small sub‐circular postholes, [215] and [218], possibly represent scaffolding associated with the construction of this southern compound (Figure 5.28). Running parallel to (172) wall (178) measured 0.60m wide and survived to a height of 0.20m (Figure 5.28). Constructed of unfaced limestone and soft mud mortar the northern external face was with very hard, light grey gypsum or concrete render (237).

47

Figure 5.28: Postholes [215] and [218] adjacent to wall (178).

Between walls (178) and (172) a narrow alleyway measured 2.00m across and may have provided access to both compounds. The earliest surface in this alleyway was a compact, silty clay surface(190). This was overlain by a mid grey beaten earth surface (177), which represents a further accumulation of trampled occupation deposits.

North‐south aligned wall (235) was heavily robbed out, but was associated with wall (178), forming an internal division within the southern compound (Figure 5.29). Wall (235) probably represents the eastern wall of an internal space, the western extent being defined by wall (15) in Room 8. To the east wall (235) a large open area would probably have been an external courtyard. A sequence of floors and levelling layers in this space represent an extended period of occupation associated with the southern compound (178) / (235) (Figure 5.30).

48

Figure 5.29: Walls (178) and (235) with alleyway and northern compound wall (172) in background. Looking north

Loose sandy make up (232) was overlain by a similar light grey sandy levelling deposit (231). This was sealed by a compact metalled gravel and sand floor surface, (230). The associated occupation with this floor surface contained a significant quantity of pottery, glass and metal artefacts. Sealing this surface was a further levelling deposit, (229), consisting of a 50mm thick layer of reddish brown sand. This deposit formed a bedding to beaten earth floor surface (228). Above (228) was a further silty beaten earth floor deposit (227) with associated occupation debris.

Deposits (232), (231), (230), (229) and (228) were not fully excavated as a trench measuring 1.20m by 5.00m was excavated through these deposits in the south west corner of Trench 1.

49

Figure 5.30: North facing section through courtyard deposits in Trench 1.

Phase 4 A drainage channel was constructed in linear cut [185], which truncated the latest courtyard surface in the southern end of Trench 1 (Figure 5.31). A cement of gypsum drain (184) would have carried waste water or sewerage to a soakaway similar to those excavated in Rooms 6 and 9. The drain was surrounded by compact sand and gravel (234) construction backfill and infilled by soft sandy silt (183). The drain was capped with limestone slabs (181) and covered with sandy silt and limestone rubble (179).

50

Figure 5.31:Courtyard surface (227) cut by drain [185] with limestone capping stones (181) still in place, looking west.

51 5.5.7 Trenches 2 and 3 Located in the courtyard area, Trenches 2 and 3 exposed a series of compact floor surfaces (Figures 5.32 and 5.33). This area of the site appears to have been heavily truncated by later 20th century reconstruction work; however the lowest course of a wall survived in the western end of Trench 2 (Figure 5.33).

Phase 1 The earliest feature in Trench 2 consisted of a sub‐circular pit cut [163], which extended beyond the trench to the west. The fill of this pit, (162), was sealed by a dirty trampled surface (161).

In Trench 3 a single posthole [200] was filled by (199). This feature may relate to a temporary structure pre‐dating the architectural phases, or to the construction of the first phase of the Radwani House. Sealing this feature sandy deposit (196) and ashy, charcoal‐rich deposits (193), (195) and (197) all appear to be associated with activity that pre‐dates the early phase architecture.

Phase 2 Beaten earth courtyard surface (157) is both at a similar level and has a similar composition to the earliest courtyard surfaces in Trench 1. This deposit appears to be an early surface, associated with the first phase of architecture on the site. There is no evidence of a well or planting feature in the courtyard of the earliest phase of building on the site.

Phase 4 Built in construction cut [225] north‐south aligned wall (226) survived only as a single course of stones in the western extent of Trench 3. The construction cut was filled by (224). This wall was heavily truncated by the reconstruction of the building undertaken by the Private Engineering Office. Wall (226) probably represents the eastern extend of a raised colonnade associated with the Phase 4 buildings on the site. This colonnade was destroyed and rebuilt in concrete in 2006 undertaken by the Private Engineering Office. A compact surface (155) was located to the east of wall (226) and represents an associated occupation level.

Phase 5 Deposits (154) and (151) are mixed levelling layers with modern materials, including plastic, in them. Over these deposits circular concrete planter (150) was built as part of the remodelling of the Radwani House by the Private Engineering Office in 2006. Inside the planter modern deposits (149) and (148) contain very recent material and represent the infilling of the circular planter after the 2006 reconstruction.

52

Figure 5.32:Courtyard surfaces in Trench 2 and circular Trench 3, looking north.

Figure 5.33:Heavily truncated wall in the western end of Trench 2, looking south.

53 5.5.8 Trench 4 The archaeological deposits in Trench 4 had been truncated to a depth of 1m by the extensive reconstruction of the Radwani House undertaken by the Private Engineering Office in 2006. Below this truncation c. 0.30m of archaeological deposits survived.

Phase 1 The earliest archaeological feature in Trench 4 was a shallow pit cut [206], measuring 0.20m deep. The rocky fill (205) of this feature did not contain any dateable artefacts, however it is likely this feature is of late 19th century date and is contemporary with similar pits in excavated in Rooms 7 and 8. The function of these pits is unclear; they may represent opportunistic quarrying of limestone or gypsum.

The pit was sealed by a dark charcoal rich layer (212), which appears to be associated with an early occupation of the site pre‐dating the first building on the site. This may be associated with more ephemeral Bedouin occupation or peripheral activities on the edge of Doha before the town spread to include the Msheireb area.

Phase 2 Constructed on top of (212) an east‐west orientated wall (192) measured 0.60m across and was constructed of sub‐angular unfaced limestone and bonded with red brown packed dirt (Figure 5.34). At its western extent this wall appears to stop, possibly demarking the edge of a doorway. To the south of this wall a series of compact mortar surfaces (211) represent well laid floors. To the north of wall (192) these surfaces are notably absent, suggesting this may represent an external area.

Phase 3/ Phase 4 The wall was sealed by mixed deposits (180) and (187) containing mortar and large pieces of angular limestone. These layers appear to be represent levelling deposits of dumped demolition material, and may be associated with the demolition of wall (192). A charcoal rich deposit (186) was probably dumped rake out from an oven or fire.

54

Figure 5.34: Wall (192) and partially excavated mortar surface to the south of it.

55 5.6. Watching Brief at Company House

Figure 5.35:Location of archaeological features in Company House.

56 An intermittent watching brief was conducted on groundwork within Company House. Two wells, a possible oven and a large circular metal feature were recorded (Figure 5.35). No excavation was undertaken; however some unstratified pottery sherds were collect from groundworks in the area.

5.6.1 Room 1 A traditional, hand dug, circular, stone‐lined well was recorded in Room 1 of Company House (Figure 5.36). The well had been partially truncated by the restoration of Company House undertaken by the Private Engineering Office.

Figure 5.36: Partially exposed well in Room 1, looking east.

5.6.2 Room 3 A similar, circular stone‐lined well was recorded in Room 3 (Figure 5.37). A drain running in two the well indicated that this feature had been reused as a soakaway later in the history of the building.

Figure 5.37: Well and later drain in Room 3, looking west.

57 5.6.3 Room 15 A large metal feature was visible in the exposed section of one of the trenches excavated in Room 15. The feature consisted of a large metal ring measuring 2.00m in diameter and 0.20m high, and was probably part of a cover for a well or drainage feature (Figure 5.38). It appeared to be a relatively recent feature, and is unlikely to be older than mid 20th century in date. It was on top of an associated concrete surface and was sealed by a levelling dump of modern material.

Figure 5.38: Large circular metal feature in Room 15.

58 5.6.4 Room 21 A large possible oven was recorded in Room 21. The feature was built of a hard grey material, probably a gypsum based concrete (Figure 5.39). The feature had been badly damaged by recent groundworks.

Figure 5.39: Part of the oven in Room 21. 5.7. Discussion The archaeological deposits recorded, specifically those in the Radwani House, are of high significance. The study of the buried heritage in the Radwani House is important in both understanding the history of the house and the wider 19th and early 20th century development of Doha. No other detailed archaeological investigations have been conducted in Doha, and the results of this work are therefore of national importance.

These data have the potential to reveal the development of the Radwani House from the time of its initial construction through to the present day. Moreover, the buried remains of earlier buildings and underlying levels will reveal the history of the Msheireb area from the time that it was first settled.

The excavations are providing tangible output, in the form of architecture and finds, which illustrate the lives, economic activities, material culture and diet of the inhabitants of Doha before the coming of oil. Apart from their research value, these finds can be utilized in the museum which will be situated at the Radwani House. The latest archaeological levels also illustrate the changing lives of the inhabitants of Doha in the mid 20th century, as piped water and electricity were introduced to the building.

The excavations reveal that this part of Doha was first occupied after the start of the 20th century, probably some time in the 1920s, judging from the likely date of the pottery at the bottom of the sequence. The first buildings beneath the Radwani House were also likely built some time in the 1920s or 1930s, with the single unified Radwani House likely to have been built some time between the mid 1920s and mid 1930s. The whole area was urbanized by 1937, according to aerial photographs, and the Radwani House itself can be seen in aerial photographs of 1947.

59

The historical context of these building activities can not easily be tied to the growth of Doha during the pearling boom of the late 19th and early 20th century, as the industry was contracting after 1912. The extension of Doha westwards during those decades therefore occurred despite the economic hardships of the time. There was nonetheless a brief recovery of pearl prices in the late 1910s, which might have fuelled some of the expansion in this area. Equally or more signficant, oil exploration concession money began flowing into the Gulf in the 1920s and 1930s, which sustained the ruling families of the region and allowed the towns to continue to function. In the case of the area around the Radwani House (western Jasra and Fareej Mohammed bin Jassim) we might also suggest that the focus of Doha was reorienting around the new seat of the ruler (now on the site of the old Ottoman fort), which encouraged building in an area which had previously been kept empty by the Ottomans.

The full archaeological sequence of Doha will be much longer in the centre of town and in the Bida’ area, going back at least to the start of the 19th century. The presence of probable pre‐Islamic pottery (Sasanian Period) in the assemblage of the Radwani House implies an even older occupation. Further excavations around the old town of Doha and Bida’ would reveal the city’s complete history. 5.8. Finds and Analytical Material Archaeological finds from the excavation include:  Ceramic sherds  Animal and Fish Bone  Glass vessel fragments  Metal objects  Textile fragments  Building material samples (wall plaster, concrete and gypsum surfaces)  Environmental samples

These materials will contribute to a better understanding of the development of the Radwani House site in the later 19th and 20th centuries. The data produced will also contribute to our knowledge of traditional life in Doha and Qatar, including diet, trading relations and everyday life. Preliminary results of specialist analyses are presented below in the Appendices (i.e. animal bones, botanical remains, wood charcoal, plaster composition). A brief report on the other finds is presented here.

In most cases the artefacts recovered from the Radwani House consist of discarded rubbish left during slightly earlier occupation in the area. This rubbish was spread out to level the ground during initial construction and the laying and relaying of floors, and was thus incorporated into the two buildings which underlie the Radwani House.

5.8.1 Miscellaneous Finds Part of an incised conical incense burner in fine white limestone was recovered from Room 6. The largest part was from an unstratified context, but a smaller fragment was found in a lower level, implying that it originated in the 1920s‐1930s layers. It still contains ashes from its last usage. An impressed clay tablet was found, almost certainly a prayer tablet used by some Muslims to press their foreheads against during prayer (known as a turba). It was from a late demolition level. Also found were two coins, one being a Saudi 25 halala coin from the 1970s, the other being unidentifiable. The former suggests that someone was still living in the house as late as the 1970s, though no other clear evidence of this period has been found, perhaps because it was removed during the 2006 reconstruction of the house.

60

Figure 5.40: Limestone incense burner. Context 166, with small fragment in 171, Find 55

Figure 5.41: Fragment of probable clay prayer tablet – turba. Context 12, Find 54

61

Figure 5.42: Saudi Arabian 25 halala coin, probably 1970‐1976 (Context 7, Find 57)

Figure 5.43: Unidentified bronze coin (Context 21, Find 60) the 1920s‐1930s)

5.8.2 Toys A small numbers of toys, namely glass marbles, were found all or mainly in the later levels of the site (1950s onwards). In addition a small bouble‐barrelled metal object resembling a tiny pair of

62 binoculars was found. It is not clear what this. Piercings on one side imply that it might be a whistle, rather than toy binoculars.

Figure 5.44: Marbles from Radwani House. Top left and top middle: Context 51, Find 1; top right: Context 107, Find 31; bottom left: Context 34, Find 21; bottom right: Context 227, Find 47.

Figure 5.45: Small metal allow object from the Radwani House. Perhaps a whistle.

5.8.3 Beads and Bangles Several small beads and glass bangles were recovered, mostly of glass. All were from late contexts (1950s or later) or unstratified (i.e. not found in a layer which could be assigned to the sequence). Also found was a small mother‐of‐pearl button, likewise from a late context.

63

Figure 5.46: Beads and Bangle fragments from the Radwani House.

Figure 5.47: A mother‐of‐pearl button. Context 41, Find 59

5.8.4 Textiles Seven finds of fabric were recovered. One consists of fragments of a tasselled hem or sleeve with a band of woven metallic thread which has corroded to green. All the fabic finds require further conservation work, during and after which closer identifications of the cloth might be possible.

64

Figure 5.48: Fabric with metallic thread. Context 39, Find 82

5.8.5 Electrics Electricity is considered to have been introduced to the Msheireb area in the early 1950s. Two contexts yielded early electrical fittings, both relatively high in the sequence, being located in a soak‐ away drain in Room 6 (Context 174) and a late levelling deposit in the courtyard (Trench 3, Context 151). Together these mark a significant transformation in the lives of the inhabitants of the house.

Figure 5.49: Electric light fittings and bulbs. Left: Context 174, Finds 63, 61; Right: Context 151, Finds 64, 62

5.8.6 Ceramic Finds (pottery) The majority of the pottery from the Radwani House and older underlying buildings was extremely fragmentary, because most of it was redeposited midden material (i.e. rubbish) which had been incorporated into the flooring. One exception is a waterpipe and burner from the well in Room 10 (see fig. below). This is likely to have been used by inhabitants of the house and was presumably

65 thrown into the well when both it and the well had falled out of use. The Qatari term for this kind of waterpipe is gidu.

Most of the pottery dates to the 1920s and perhaps 1930s, and compares well to material in the collection of the National Museum of Qatar, and to excavated material from Muharraq (Bahrain). This material pre‐dates the construction of the buildings, and indicates that the two houses underlying the Radwani House can not have been built before the 1920s. The 1920s to 1930s assemblage gives a broad indication of the time at which Doha expanded to this area of Msheireb. Some of the layers, particularly the courtyard fills, contained later ceramics, dating to the 1930s to 1960s. Further research is required to narrow the date range of this material.

Some of the ceramics may be suitable for display in the museum, as it is indicative of the lifestyle and aesthetics of the earliest inhabitants of Msheireb. The commonest forms were coffee cups (comprising more than a quarter of the assemblage), small water jars and saucers of different types, followed by waterpipes. The 1920s‐1930s assemblage was characterised by a very distinctive kind of porcelain fluted coffee cup decorated with sprays of gold and green, red or blue, with an Arabic motto written inside in gold. For some reason tea‐cups were not clearly identifiable in the ceramic or the glass collections, though saucers were common, and teapots were also found. Moreover, most or all of the cups occurred late in the sequence, perhaps in the 1950s or later. We therefore speculate that tea was taken in coffee‐cups during the 1920s and 1930s.

The place of manufacture of the porcelain coffee cups has not been established. Of the other ceramics, most of the earthenwares are of local origin in the Gulf, including Iran, Bahrain and Iraq. Some of the porcelains (especially saucers and teapots) were from Japan. Colourful painted and transfer‐printed bowls and dishes ("Refined White Wares") mainly originated from the Netherlands.

Percentage of Different Ceramic Forms at the Radwani House 40 30 20 10 0 …

… … … … Lid cup Cup

Dish Bowl Small Large Saucer Teapot Storage Flowerp Waterpi Waterpipe Coffee

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Figure 5.50: Water‐pipe and burner from the well in Room 10 at the Radwani House (Context 300, pot no. 147, 148)

Figure 5.51: Earthenwares from the Radwani House (Context 22), including water jar spout (bottom right), storage jar fragment (top right), waterpipe burner (top left) and waterpipe neck (bottom left)

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Figure 5.52: Porcelains and European "Refined White Wares" from the Radwani House (Context 167)

Figure 5.53: Typical coffee cup from the 1920s assemblage (Context 24)

68 5.8.7 Glass Like most of the ceramics, the glass is highly fragmentary. The considerable variety of colours, forms and techniques implies a very wide range of origins across Europe, the Middle East and Asia. Apart from bottles, typical forms included miniature perfume bottles, a kind of small decorated bottle (also for perfume?) and square bottles (one marked as being from Germany). One fragment is likely to be from an oil lamp. A Japanese bottle was also found in the early levels (Dai Nippon company, which existed between 1906 and 1949).

Figure 5.54: Small bottles from the Radwani House. Left and middle: Context 160, Find 34; Right: Context 47, Find 27

Figure 5.55: Miniature perfume bottles from the Radwani House (left: Context 21, Find 29; right: Context 180, Find 41)

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Figure 5.56: Fragmentary glass assemblage from Context 83 (a levelling fill in Room 12)

5.8.8 Metal Finds Many layers contained numerous fragments of corroded iron, and less commonly copper or copper alloy. Nails of various sizes were frequently identifable, usually very badly corroded. Some were very large and can be assumed to have originated from ships timbers. Other finds include padlocks, a copper ring of unknown function (perhaps a handle), three bullet casings (perhaps .303 rounds) and a heavy copper drain cover.

Figure 5.57: Large corroded iron nails (Context 102, Find 118)

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Figure 5.58: Padlocks (Left: Context 242, Find 147; Right: Context 83, Find 113)

Figure 5.59: Copper ring (Context 19, Find 89)

Figure 5.60: Cartridge casing (Context 22, Find 90)

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Figure 5.61: Copper drain cover (Context 87, Find 115)

5.8.9 Animal bone Plentiful animal bone was recovered from the site mainly fish and medium‐sized mammal (sheep and/or goat). This is currently under study and will reveal details of the diet of the inhabitants of Msheireb from the 1920s/30s into the coming of the oil era.

Figure 5.62: Animal bone from the well (Context 300, Find 65)

72 5.8.10 Shell Shell was not particularly plentiful, but examples of the Black‐Lipped Oyster (Pinctada margaritifera, sadiaifi) and Pearl Oyster (Pinctada radiata, mahhar) were found. The former, a large species, was mainly gathered for mother‐of‐pearl, as pearls occurred only rarely in them, while the latter were the main pearl‐bearing species. Although pearl oysters were normally opened and dumped at sea by the divers, the small examples found at the Radwani House testify to the practice of shore‐gathering, when people would gather examples from the intertidal zone to open on shore.

Figure 5.63: Shell from the Radwani House. Top left: Context 160, Find 67; top right: Context 8, Find 68; all below: Context 232, Find 69

73 5.8.11 Company House Finds There was no systematic recovery of finds at Company House. A collection of unstratified ceramics was made, which indicates that material comparable to that of the Radwani House was present in the area. In addition workmen collected five Chinese‐made saucers with decal transfer decoration, of relatively late date (1950s or later).

Figure 5.64: Chinese saucer from Company House

74 6. Recording Archaeological Deposits Exposed in Section

By Daniel Eddisford 6.1 Introduction During our first season of work the Origins of Doha Project undertook a detailed walkover survey of the centre of Doha. This survey identified a number of potential excavation areas around the centre of the city, with the potential for buried archaeological remains. In addition several locations were identified with exposed archaeological deposits visible in section.

Three sections were recorded; two at site ODQ 3 and one at site ODQ 4 (Figure 6.1). The sections were cleaned by hand and recorded at a scale of 1:10 in accordance with archaeological best practice (MOLAS 1991).

No archaeological excavation was undertaken at ODQ 3 and ODQ 4. However after cleaning one of the sections at ODQ 3, a ceramic vessel was found to be protruding from feature [47]. As the vessel was in immediate threat of eroding out of the section and being destroyed it was careful removed, and its contents sampled. The ceramic sherds are currently held at UCL Qatar for further analysis, prior to their return to the relevant department of the Antiquities Service.

Although not providing as much detailed data as archaeological excavation, the sections recorded provide important information about the depth and nature of the buried archaeological remains at these locations. In addition the data recorded can be used to make generalisations about the potential for intact buried archaeology nearby.

Figure 6.1: Site locations

75 6.2 Site ODQ 3

6.2.1 Site location Located in the Salata district of the city, and to the east of Jabr bin Mohd Street site ODQ3 is centred on QNG 232651E 392829N. The site consists of a substantial area of upstanding archaeology measures c.50m north‐south by 30m east‐west (Figures 6.1 and 6.2).

Figure 6.2:Location of ODQ3 Sections 1 and 2

Ground reduction in the surrounding area has truncated the archaeological deposits surrounding the site. On the site archaeological deposits survive to 2.00m above the current ground level, visible in all the exposed sections of the site (Figure 6.3). A house on the northern side site is constructed of concrete blocks and appears to be of later 20th century date, although elements of the building may be earlier. A second house stood on the southern side of the site until relatively recently. This structure was constructed in a more traditional style using unfaced limestone. The remains of the limestone built walls are visible in elevation against the surviving building (Figure 6.4). The one remaining house on the site is still occupied, and appears to be the reason that this area has, as yet, not been developed.

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Figure 6.3:ODQ3 looking south with occupied house visible

Figure 6.4:Remains of traditional building visible in elevation, looking north east

Two sections were recorded at ODQ3, a shorter section on the eastern side of the site (Section 1) and a longer section on the western side of the site (section 2) (Figure 6.2).

In the east facing section of the site (Section 1, Figure 6.5) at least two archaeological horizons are visible in section, possibly relating to late 19th and mid 20th century occupation. The west facing section of the site (Section 2, Figure 6.7) contains a more complicated sequence with several possible phases of occupation, a possible wall, and a sunken tanūr type oven.

This area of the city has undergone radical changes in the last century. An extensive area has been reclaimed from the sea to the north of the site, and in the 19th century the site of ODQ 3 would have

77 been located directly on the coast (Figure 6.1). More recently ground reduction close to the site has removed most archaeological deposits; development in the form high‐rise buildings continues to truncate the limited surviving areas of archaeological deposits.

6.2.2 Section 1 The eastern side of the site was truncated by a road cut. The exposed section contained two distinct phases of occupation, separated by thick, sterile, poorly sorted dumps of limestone and sand. Two poorly defined walls, running obliquely to the section, may relate to these two phases of activity.

Figure 6.5:ODQ3, Section 1.

Context Description 1 Modern levelling

2 Loose gravel layer

3 Ashy occupation material 4 Loose gravel layer 5 Ashy occupation material 6 Natural gravel accumulation, possibly beach 7 Natural limestone

8 Possible wall

9 Ashy later against wall (8) 10 Natural gravel accumulation 11 Natural gravel accumulation, possibly beach 12 Possible wall

Summary of the deposits in Section 1

The natural limestone (7) was overlain by naturally deposited layers of gravel (11), (10) and (6), probably representing a beach or wadi environment. A poorly defined wall (8) was constructed of

78 unfaced limestone on, and possibly cutting into, these deposits. The wall appeared to run northwest‐ southeast, obliquely to the section, making it hard to define.

Two phases of occupation associated with wall (8) were visible in section. The earliest occupation consists of ashy layers (5) and (9); these deposits possibly represent domestic cooking activities. A small assemblage of ceramics recovered from layer (5) is of late 19th or early 20th century date. This occupation phase is sealed by a layer of poorly sorted small angular limestone (4). This may represent naturally deposited material, associated with a period of abandonment of the site. As second phase of occupation consists of another layer of charcoal rich ash, (3).

A second possible limestone wall (12) was constructed on top of layer (3). This wall was on a similar northwest—southeast alignment, running obliquely to the section. Another layer of loose angular limestone, (2), was deposited against wall (12). This was sealed by modern levelling dumps (1)

Figure 6.6:ODQ3, Section 1

Section 2 The western section at ODQ 3 has a more complicated sequence of deposits; an infilled gully was sealed by at least two phases of occupation and a substantial traditional limestone wall. A modern manhole and drain [25] truncates the archaeological deposits in the centre of the trench, making it hard to associated deposits at northern end of the trench to those at the south (Figure 6.7).

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Figure 6.7:ODQ3, section 2.

Context Description 13 Modern levelling 14 Dump layer with large stones 15 Dump layer with gravel 16 Ashy layer or possible fire pit 17 Thick dump layer 18 Red dump layer 19 Pit or gully with charcoal. Fill of [22] 20 Laminated layer with charcoal, Fill of [23] 21 Natural 22 Small pit or gully 23 Large pit or gully 24 Modern drain / manhole with concrete blocks, fill of 25 Modern drain cut 26 Possible modern layer 27 Dump layer 28 Ashy layer 29 Possible shell rich floor layer 30 Laminated dump or wind blown material 31 Compact dump or naturally deposited layer 32 Ashy layer 33 Poorly sorted sand and limestone fill of [23] 34 Ashy layer, fill of [23] 35 Sand and shell fill of [23] 36 Wall 37 Dump layer with trampled upper surface 38 Rubble layer 39 Ashy layer 40 Thick dump or levelling deposit. 41 Ashy layer 42 Sandy silt with limestone, possibly naturally deposited 43 Ashy layer 44 Homogenous dump of levelling layer 45 Charcoal rich layer 46 Fill of [47], soft ash and upturned pot 47 Cut for oven / tanūr 48 Fill of [49] 49 Small pit cut 50 Fill of [51] 51 Small pit cut 52 Fill of [53] 53 Large pit cut 54 Laminated ashy layers Summary of the deposits in Section 2

A large cut feature, possibly a gully or small wadi channel [23] cuts the natural limestone. This feature is filled by a layer of sand and shell (35) that may have been deposited by alluvial action. A second fill, (34), consists of a dark grey ashy deposit that may represent material being dumped into the gully. This is sealed by poorly sorted sand and limestone (33), indicating further alluvial deposition occurring. The upper fills of the pit consist of possibly naturally deposited sandy silts with limestone inclusions, (31), (30) and (42); again possibly the result of alluvial activity.

The upper fills of gully [23] were truncated by the construction cut for a traditional wall (36), constructed of unfaced limestone and bonded with packed dirt. To the north of this wall a shell surface (29) was sealed by a dark charcoal rich ashy layer, representing occupation associated with wall (36). To the south of the wall an ashy occupation layer (41) may represent an external surface.

At the southern end of the section the natural limestone (21) was overlain by a series of thin laminated ashy deposits (54), representing trampled surfaces or oven rake out deposits. Further to the north, thin lenses of charcoal rich material (45) represents similar early activity on the site. Layer (54) was truncated by a relatively large pit [53], possibly a limestone quarry pit.

Notably, a large, broken ceramic storage jug was placed in a pit [47] cutting the natural limestone to create a tanūr type oven (Figure 6.8). The jug and surrounding cut was filled with a solt, silty ash (46), associated with the use of the oven. The vessel that was reused in this feature had small handles on the shoulder, a flat, squared rim and a gritty fabric. It is of 19th or 20th century date, which suggests that the earliest activity visible on this site is of a similar date. In close proximity to the tanūr was another small pit cut [49] that contained stony fill (48). This feature is also contemporary with early activity on the site, though its function is unclear. These features may be contemporary with wall (36), or may represent an earlier phase of activity—the connection has been obscured by the large modern cut bisecting the stratigraphy of the section.

At the northern end of the section, early activity on the site is represented by a layer of red brown sandy silt with shell lenses, (18). This may be a deliberate levelling deposit or naturally deposited beach sediments. A small pit or gully [19] may also be a natural feature. This is sealed by a thick, homogonous dump of sandy silt (17). This appears to be naturally deposited, and may be the same as (40) at the southern end of the trench. These deposits may represent a period of reduced activity on the site.

Figure 6.8:In‐situ upturned ceramic vessel used as an oven.

At the northern end of the section a second phase of activity is represented by a charcoal rich, ashy occupation layer, (39). This may be associated with a possible tanūr [51], located directly to the

82 north and filled with an ashy burnt fill (50). A similar charcoal rich dump or fire instillation (16) is likely to be contemporary with this second phase of activity.

These occupation deposits are sealed by another phase of ground raising activity. Dump layers (15) and (44) may be associated with the deliberate levelling of this area. A third phase of activity is represented by an ashy occupation layer (43). This is sealed by dump layers (38) and (37), which are possibly associated with the destruction of building (36) and the levelling of the area for the construction of the existing building on the site. At the northern end of the trench levelling dump (14) is probably also associated with this activity.

A modern manhole lined with hollow concrete blocks and an associated drain [25] truncate the archaeological deposits in the centre of the section, and are associated with modern activity on the site. A layer of modern material (13), includes concrete surfaces, and represents the latest phase of modern activity on the site.

Figure 6.9:ODQ3, Section 2. 6.3 ODQ 4

6.3.1 Site location Located 200m to the east of ODQ 3 a large rectangular area has been excavated to provide foundations and a basement for a modern high‐rise development. Site ODQ 4 is centred on QNG 232909E 392771N. Archaeological remains were visible in the exposed northern section of the site (Figure 6.10), including two masonry walls and a number of external surfaces. The open area to the north of the site was a graveyard in the early 20th century.

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Figure 6.10:Location of ODQ4, Section 1.

6.3.2 Section 1 The northern section of the site contained two rendered limestone walls, with a series of external surfaces to the west. A concrete built addition was added to the eastern side of the earlier limestone building, before the entire structure was demolished and the area levelled.

84 Figure 6.11: ODQ4, Section 1

Context Description 1 Hard cement or gypsum surfaces 2 Series of laminated external surfaces 3 Limestone levelling layer 4 Thick dump layer / demolition layer

5 Traditional limestone wall with brown render

6 Traditional limestone wall with brown render 7 Concrete block wall abutting wall (5) 8 Natural

Summary of the deposits in Section 1

At the eastern end of the section two traditionally built limestone walls (5) and (6) were constructed on top of natural limestone (8). These walls represent the opposite sides of a single building and are covered in a hard dark brown render. To the east, wall (7) abuts the earlier structure, and is built of a transitional fabric of shelly concrete blocks. No floor surfaces associated with this building were visible in section (Figure 6.11).

At the western end of the section the natural was overlain by a levelling layer (3) consisting of crushed limestone. This was sealed by a series of external courtyard like surfaces of crushed shell and later lard gypsum or concrete surfaces (2) (Figure 6.14). These surfaces are also visible in the western and northern sections of the site, and appear to represent a large external space. The relationship of these surfaces to wall (6) has been truncated by a modern drain, however it is likely they are contemporary with this building.

The inside of the structure, in‐between walls (5) and (6), is infilled with compact sandy silt (4), with frequent limestone inclusions (Figure 6.13). This represents the demolition of the building, and the levelling of the site for further construction. A number of modern drains and intrusions truncate the archaeological deposits. Modern levelling and a tarmac surface (1) seal the archaeological deposits.

Figure 6.12:ODQ4, Section 1.

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Figure 6.13:Limestone wall (005).

Figure 6.14:External surfaces and make up (002), and (003). 6.4 Discussion Site ODQ3 is located near the historic core of Doha, and in the 19th century would have been very close to the coastline. Site ODQ4 Is located slightly back from the coastline, adjacent to a historic cemetery.

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At least two distinct phases of occupation were identified at ODQ3, associated with several traditional limestone walls and charcoal rich ashy surfaces. The first occupation phase may represent an expansion of Doha in late 19th and early 20th century, associated with a period of relative prosperity. This is followed by a possible hiatus, corresponding to the collapse of the pearling economy. The site is reoccupied, possibly in the mid 20th century as natural energy resources are increasingly exploited in Qatar and the city begins to flourish once more. However, it is important to treat this scenario as hypothetical. Higher resolution data from archaeological excavations would be required to support the details suggested by the exposed archaeological sections.

The archaeological remains recorded in the exposed section at ODQ4 are possibly later in date. The limestone walls visible may represent the expansion of the Salata district in the mid 20th century. A building, probably a domestic structure, was built of limestone in a traditional style. A second phase of building consists of a concrete block built addition to the earlier structure, and is likely to date to the later 1950s or 1960s.

At ODQ 3 archaeological deposits were recorded from a level of c.5.70m OD; at ODQ 4 archaeological deposits were recorded from a level of c.5.50mOD. The archaeological deposits visible in section at these two sites suggest that where archaeological deposits remain undisturbed it is likely that significant archaeological deposits are likely to be present. Although extensive ground reduction has occurred in the Salata area there is the potential for archaeological deposits to survive from c. 5.50mOD to c. 0.20m below the existing ground surface.

All the archaeology within ODQ4 was recently destroyed by the excavations undertaken ahead of the development of the site. Similar high‐rise developments continue have a similar destructive effect on the archaeology of the area. A more considered approach to development is required, that assesses and mitigates for effect of development on buried archaeology that is likely to be present on most new development sites.

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7. Archaeological Survey of an Abandoned Agricultural Area in Rayyan

By Daniel Eddisford 7.1 Introduction As part of the Origins of Doha Project a team of archaeologists from UCL Qatar undertook an archaeological survey of an abandoned agricultural area located to the west of education city in the al Rayyan district of Doha.

The redevelopment of the area meant the site was threatened with imminent destruction, and the aim of the project was to record the site in as much detail as possible. The Origins of Doha Project aims to explore the foundation and historic growth of Doha, and its transformation to a modern city. Agricultural sites such as the one recorded would have played an important economic and social role in the development of the city. 7.2 Site location and scope of work The site is centred at Qatar National Grid 221383N 394809E, and is located directly to the west of Education city (Figures 7.2 and 7.3). The site measures c.420m NE‐SW by 230m NW‐SE and is bounded by a limestone wall. The eastern extent of the site has been truncated by modern activity. Several phases of disturbance by mechanical excavators and the dumping of material on the site have occurred.

The site is threatened by imminent destruction; a development plan has been approved to transform the area into a golf course. Before the site was completely destroyed, a detailed archaeological survey of the area was undertaken to ensure the preservation by record of these early agricultural remains. An initial walkover survey identified a number of features on the site and an initial sketch plan of the site was made. A Leica total station and a Leica differential GPS were used to make a detailed plan of the features identified (Figure 7.9). The features were given unique numbers and a detailed description of each was recorded on pro‐forma context sheets. Finally a detailed photographic record of the site was made.

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Figure 7.1: Site overview, looking north.

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Figure 7.2: Site Location.

Figure 7.3: Detailed Site Location.

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7.3 Archaeological and Historical Background There is a limited amount of historical data about the development of Doha, and even less describing everyday activities such as agriculture. In 1908 J.G. Lorimer visited Doha and mentions several water sources close to the town in his survey of the Gulf:

“Dohah itself possesses only one well of brackish water, named Ain Walad Sa'id, which is a half mile to the south of the Dohah quarter, but there is a group of others called Mushairib with fairly good water, at 1 mile to the west of the Dohah quarter. Three miles inland is Bir‐al‐Jadidah, a large masonry well of indifferent water on which the town mainly depends for its supply.” (Lorimer 1986)

The 1947 aerial photograph of Doha shows an agricultural area directly to the west of Doha. This agricultural area, now known as Msheireb West, was probably originally the one cultivated by the Ottoman garrison, later taken by the British consulate, which made use of the fresh water associated with the main Msheireb wells. The same aerial image also shows an agricultural area to the south east of Doha, which is likely to be the area Lorimer refers to as Bir‐al‐Jididah. This location is now the site of the Al Muntazah Park.

There are no known early historic references to the Rayyan area, but that does not necessarily mean the area was uninhabited until the modern period. The name Rayyan means 'the source of irrigation', and it is clearly a relatively well watered area. The earliest documentary evidence of the site is an aerial photograph from 1966 (Figure 7.4), which shows the Rayyan area to be heavily irrigated, with a large number of well watered farms visible. By this time diesel pumps are likely to be in use, pumping water from a relatively shallow aquifer.

Five years later, in 1971, a similar situation is visible on a second aerial photograph (Figure 7.5). A topographic map of the same date, and likely based on the 1971 aerial photograph clearly shows the extent of the site, although not marked as a green ‘agricultural area’ it seems likely the site is still in use at this time (Figure 7.6). The earliest images available from Google Earth date to 2004, and show the site to be in a similar abandoned state as today.

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Figure 7.4: Aerial photograph of the site in 1966.

Figure 7.5: Aerial photograph of the site in 1971.

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Figure 7.6: Topographic map of al Rayyan, 1971.

Until the late 1950s the groundwater system of Qatar maintained a state of equilibrium in which outflow, including extractions related to agriculture, were balanced by inflow and water levels and salinity remained static (Pike et al., 1976). Research into hydrological changes in Qatar show that by 1979 the level of the fresh water in the water table had fallen as a consequence of increased extraction. This drop in the water table and the associated intrusion of saline water could be observed in the salinity of wells across the country. (Lloyd et al., 1987). While saline intrusion is an obvious source of salinity in the aquifer, another source of salinity occurs from over pumping, which causes the underlying saline water beneath a freshwater lens to ‘upcone’ into the bore and the surrounding freshwater aquifer (Macumber 2009, 93). A recent assessment of the impact of groundwater extractions by Amer et al., (2008), shows that there was a five‐fold increase in producing wells between 1975/76 (660 wells) and 2000/2001 (3400 wells). Amer et al observe the impact of increased salinity and lower groundwater levels causing the abandonment of farms and soil degradation, especially in coastal areas, and the salinization of water sources for coastal towns.

Today the agriculture in the al Rayyan area is almost all abandoned, and it is likely that the processes of over extraction of groundwater resulting in salination are largely responsible. A large part of the al Rayyan area has been re‐developed as Education City, which has resulted in the destruction of all earlier evidence of occupation. However, at least one farm is still in operation in the al Rayyan area. Located 1.3km to the east of the site, this agricultural area uses electric pumps to access water, presumably from a deep aquifer. The fields on the farm are enclosed by low earthen berms and irrigated with shallow canals or water (Figure 7.7).

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Figure 7.7: Agricultural area still in use directly to the east of the site. 7.4 Results The results of the survey of the site are presented below.

Figure 7.8: Plan of the site.

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Context Description Number 1 Cement block pump house structure 2 Concrete block water tank 3 Concrete block building 4 Concrete block water tank 5 Traditional well 6 Concert block structure, possibly a pump house. Addition 7 Concretet (005) block water tank 8 Borehole and pump base 9 Fieldsystem 10 Concrete block building and borehole 11 Borehole 12 Cement block pump house structure 13 Concrete block water tank 14 Limestone wall 15 Concrete block water tank and bore hole 16 Irrigation channel 17 Limestone structure, possibly animal enclosure Summary of archaeological features

7.4.1 Traditional box well One of the features on the site was a substantial stone lined square well, (005), measured c.8.50m across and at least 10m deep. The well contained water that was at least 3m deep, measured by dropping a weighted line into the well. The upper portion of the well was lined with unfaced limestone. The feature was enclosed by a low wall also constructed of unfaced limestone and covered with a hard render.

Well (005) has clear parallels with abandoned wells at a number of other sites in Qatar, such as Murayr and Shwail in northern Qatar (Eddisford 2012). The box wells at these sites provided water to the site of al Zubarah and its surrounding settlements from the Dammam limestone aquifer. These wells are also associated with evidence of agricultural activity. The wells at al Rayyan and the other examples in northern Qatar are hand dug and date to the late 19th century or earlier. The shape and size of this type of well suggests that a relatively thin layer of fresh water was skimmed off the underlying denser saline water (Macumber 2009). In this situation a wide well giving a large surface area is required; a deeper well would just encounter increasingly salinated water.

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Figure 7.9:‘Box well’ (005) with structure (006) behind. Looking to the southeast.

7.4.2 Pump Houses Several rectangular structures constructed of concrete blocks with shell inclusions were recorded. Structures (001) and (012) measured c3.30m long and 3.10m wide and both would have housed diesel water pumps. Both buildings had a similar plan; an internal concrete block with bolts provided a base for the pump. A bore hole in front of each building has an aluminium pipe in the top of it. Structure (001) also had a concrete trough and the base for a smaller pump in front of it (Figure 7.10). The structures would have been roofed with corrugated tin or asbestos, but this has been removed. Crude holes in the walls of the structures appear to be later alterations, possibly associated with changes in the method of pumping water.

Figure 7.10: Pump house (001) looking northwest. Note borehole pipe in front of building.

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Figure 7.11: Structure (006) looking northwest, with well (005) in background.

Figure 7.12: Tank inside structure (006), draining into well (005) to west.

Structure (006) was also built of concrete blocks with shell inclusions and was a later addition, built on the eastern extent of well (005) (Figures 7.10 ‐ 7.12). The northern part of the structure had an external wall similar to (001) and (012), but contained a rendered tank with steps into it, which drained into well (005). The southern part of the structure consisted of a rectangular low wall. The function of this feature is not immediately apparent, it might represent another pump house that incorporates elements of the earlier well (005).

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7.4.3 Bore holes Several isolated boreholes (008) and (011) consisted of concrete casings surrounding a metal pipe. Two concrete pump bases adjacent to (008) measured 1.40m x 0.70m and 0.60m x 1.00m respectively (Figure 7.13). Bore hole (011) was at the base of a large machine dug depression and appeared to be a later addition to the site, possibly after some of the irrigation works had fallen out of use.

Figure 7.13: Bore Hole (008) in background and concrete pump base in foreground, looking west

7.4.4 Rectangular Tanks Several large rectangular tanks were built of concrete blocks with shell inclusions and lined with a hard waterproof grey render. Several large tanks appeared to act as reservoirs, and would have fed into a series of small canals to irrigate the surrounding fields. Tank (002) measured 6.70m by 6.60m and 1.30m high and drained into two smaller tanks to south. This feature is possibly associated with the pump house (001). Tank (004) measured 6.80m by 6.60m and 1.40m high gain. Again a smaller tank to north allowed water to drain into a drainage channel to the east. A very large tank (007) measured 11.00m by 11.80m and was associated with smaller tanks to east and west (Figure 7.13).

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Figure 7.14: Large tank (007), looking northwest

Two smaller tanks were associated with bore holes and pumps. These features appeared to have had a similar function to the larger tanks, acting as temporary storage before distributing water into the irrigation system. Tank (013) measures 5.90m by 8.90m and was associated with a bore hole and concrete pump base. The pump base measured 2.45m by 1.00m and was similar in appearance to feature (008).

A smaller tank (015) measured 3.20m by 3.30m and was associated with a borehole and two pump bases (Figure 7.15). Tank (005) drained directly into an irrigation channel (016), which ran around the perimeter of the site. Directly to the south of (015) a small circular trough also fed directly into channel (016), and was identical in appearance to the trough collecting water on a nearby farm, seen in Figure 7.7.

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Figure 7.15: Small tank (015), looking east.

7.4.5 Irrigation Features Irrigation channel (016) runs around the edge of the site. Most of the channel was lined with limestone; however in places concert blocks are also used (Figure 7.16). The addition of concrete could represent a later repair to the channel. Tank (015) drained directly into this channel; the larger tanks may have also fed into this channel indirectly through small canals or pipes.

Figure 7.16: Peripheral irrigation channel (016), looking east.

A number of rectangular fields (009) survive in the south‐western area of the site. The fields are defined by low mounds and measure 4.00m – 6.00m across and 13.00 – 15.00m long. A number of irrigation channels are also visible (Figures 7.17 and 7.18). A concentration of broken brown ceramic

101 water pipes in this area of the site, and several in‐situ examples indicate that these channels and the external irrigation channel (016) would have been linked to the fields by a network of pipes. These pipes could be blocked off, allowing water to be diverted to specific fields or areas of the site.

Figure 7.17: Panoramic view of fields and irrigation channels (009).

Figure 7.18: Rectangular fields and irrigation channels (009), looking south

7.4.6 Structures A rectangular building (003) measured 9.40m by 3.20m (Figure 7.19). This building had three rooms and was built of concrete blocks with shell inclusions. The external faces of the building were covered with a hard, grey render. No roof or roof timbers survived. Round timbers wrapped in rope were used to support the top of the door and window frames (Figure 7.20), a traditional construction technique that pre‐dates the concrete building material used. Raised windows opened to the east and south of

102 the largest eastern room. A tank directly to the north west of the building was lined with waterproof grey render and measured 1,90m by 3.20m. The function of the building was not obvious, but it could represent a small, low status or possibly seasonal, domestic structure.

Figure 7.19:Building (003), looking northwest.

Figure 7.20:Wooden timbers framing the door of building (003).

Another rectangular building (010), constructed of concrete blocks with shell inclusions, measured 8.00m by 4.00m (Figure 7.21). The northern extent of the building had been truncated by a mechanical excavator, and the area around the building was heavily disturbed. The original asbestos tile roof had collapsed, and as a result a limited examination of the building was undertaken, for health and safety reasons. Inside the building was a borehole and concrete pump base. A table or

103 work bench was built into the wall in the southeast corner of the building. A large doorway opened to the east. Substantially larger than the other pump houses (001) and (012) on the site this building appears to have been a multi‐purpose structure; acting as a pump house, as well as a possible workshop and storage area.

Figure 7.21:Building (010), looking west.

A substantial wall, (014), was constructed of unfaced limestone and survived to a height of 1.70m (Figure 7.22). This feature had been completely truncated by modern activity at the eastern extent of the site, and had be partiality destroyed along the sites southern extent. This wall formed the external boundary of the site.

Figure 7.22:Boundary wall (014) at the northern extent of the site, looking north.

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Built against this external wall, an enclosure (017) consisted of two rectangular spaces. The eastern extent of this enclosure is entirely truncated by modern activity (Figure 7.23). A small rectangular opening in the western wall of the enclosure provided a window into the feature (Figure 7.24). An open water channel or trough crossed the northern side of the enclosure, and probably originally connected to the peripheral irrigation channel (016). The function of the enclosure was not entirely clear; however it might have acted as an animal enclosure with a water trough at its northern side

Figure 7.23:Enclosure (017) with channel visible in background, looking north.

Figure 7.24:Window in the eastern wall of enclosure (017), looking west.

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7.5 Discussion Despite a lack of historical references to al Rayyan, the number of farms in the area in the mid 20th century attests to the availability of water in this location. The development of agriculture proximate to Doha in the 1950s and 60s is clearly linked to the expansion of the city as wealth related to exploitation of oil resources starts to flow into the region. The rapid growth of farming in this period also involves new technological developments, specifically the introduction of diesel powered water pumps.

The presence of a large, traditional box well (005) on the site suggests the area may have been a source of water, and possibly even an agricultural area, before the mid 20th century. This large well would not have been initially been used in conjunction with mechanical water pumps, although may have been adapted with the addition of a later concrete block structure (006). No other evidence of earlier occupation was identified, possibly a result of the extensive alterations made to the site in from the mid 20th century to the present day.

The limestone external wall (014) that defined the extent of the site, a limestone enclosure (017) and elements of the peripheral irrigation channel (016) could all predate the mid 20th century. However, all of these features continued in use until the latest use of the farm in the later 20th century.

Most of the site appears to be of a mid 20th century date. Cement block pump houses (001) and (012) would have contained large diesel powered pumps, lifting water from a relatively shallow aquifer. The water would have been pumped into large rectangular tanks such as (002), (004) and (007). These tanks would have acted as storage tanks, allowed sediment to settle out and would have permitted gravity fed irrigation of surrounding fields. These large tanks drained through smaller adjacent tanks into a network of drainage channels, including a channel running around the periphery of the site, (016). Smaller tanks such as (015) would have been drained directly into this peripheral drainage channel. A series of pipes allowed the water to irrigate specific fields.

The buildings on the site utilise ‘transitional’ architectural style. Concrete blocks are used, but they contain large quantities of shell and are likely to date to the 1950s. More traditional construction techniques, such as rope wrapped beams over doors and windows also suggest an initial construction in the mid 20th century. Documentary evidence, including the earliest aerial imagery of the site, suggests agriculture was expanded in the al Rayyan area in this period.

The introduction of mechanical water pumps in the mid 20th century had a rapid and detrimental impact on the fresh water aquifers in Qatar (Macumber 2009. In northern Qatar the salination of the aquifer led to the abandonment of a large number of villages and newly established agricultural areas. The continuing rapid population growth, and expansion of Doha has led to increased pressure on freshwater and food production; problems that are currently addressed by a reliance on importation and de‐salination. In 1971 the farm was still in use; however it seems likely problems associated with the salination of the fresh water aquifer rapidly had an impact on farming on this site and in the country in general.

A second phase of irrigation on the site may have employed much deeper bore holes and electric pumps, similar to that still in use nearby. This second phase of mechanical irrigation would be associated with bore hole (011), located at the bottom of a large mechanically excavated hole. The alterations to pump houses (001) and (012) would also be associated with this later phase of irrigation. However, attempts to maintain the farm appeared to have failed. It is seems likely the site was largely abandoned at some point the later in the 1970s or in the 1980s.

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Documentary research may be able shed further light on the individuals who owned and ran this farm. It is possible that structure (003) represents a domestic building. If this is the case it is likely to be of low status, and not the primary dwelling of the owner of the farm – lots of investment required to set up an agricultural area on this scale.

This farm is interesting because it shows changing use of water over time, with different technologies used to procure scarce ground water. This site provided insights to a regional pattern on an intimate scale. Investigation of this site allows us to gain a multiscalar perspective on a time of intense change in Qatar and in the Gulf in general. The lived experience of attempting to grow produce in this harsh environment, temporarily mitigated by technology, and then ultimately foiled by this same technology allows archaeologists to gather insights regarding past experiences of living in Qatar that are not part of the nomadic narrative that emphasizes pastoral herding. Finally, recording this farm sheds light onto the historical record of this region and calls into question the primacy of the British Naval record. Archaeological investigation is a valuable tool for decentering colonizing narratives of the past, and further research allows a counter‐narrative regarding the regional importance of Doha to emerge.

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8. Standing Building Recording in Doha

By Kirk Roberts & Katie Campbell 8.1 Introduction This document details the methodology and preliminary results of a survey and mapping project of the historic buildings of old Doha. The work was conducted as part of the UCL Qatar Origins of Doha Project with the support of the Qatar Foundation, during November and December 2012.

The primary aims of the project were to document and record the remaining buildings within the old Al Ghanem district, identify those structures which are most at risk from development or structural decay, and provide a visual record which can be used in order to keep track of changes to the buildings in question. Additionally, the project aims to broadly categorize building types in terms of architectural style, function and construction materials, using these data as a basis for a chronology of construction methods.

At a larger scale, the project proposes further comparative work with buildings in other quarters of Old Doha, as a means of characterising discrete districts in terms of their architectural and socio economic development.

8.2 Rationale The historic buildings of the districts outlined in this document represent the last remaining urban fabric of the pre‐oil era in Doha. These buildings constitute the only architectural evidence for a way of life which is rapidly disappearing, and without work to document and record them, their place in understanding the development of this fast changing city may soon be lost.

The accelerating pace of development in central Doha, combined with the pressure of increasing population, traffic and loosely enforced planning regulation mean that many of the city’s historic buildings are at risk of structural decay and unchecked demolition. Of particular concern is the increasing practice of demolishing buildings in order to make way for increased vehicle parking space. This often involves the unscheduled destruction of entire blocks comprising multiple buildings, with no prior record or assessment of those buildings’ significance, architectural form or structural integrity.

At present little formal work has been undertaken to record and document the architectural heritage of pre‐oil era Doha. The formative period represented by these remaining buildings is the focus of current social and academic study, and represents a key phase in the development of modern Qatar.

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Figure 8.1: Map of Old Al‐Ghanim, including Buildings Survey plots

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8.3 Aims The current project aims to illuminate the early architectural history of Doha, assess the significance of the surviving buildings, and offer recommendations on the appropriateness of potential conservation strategies. A preliminary written and visual record of at risk buildings will be generated, which is intended to be integrated with the information gathered by the UCL Qatar ‘Mapping Living Heritage’ course. The project aims are designed to be broadly consistent with both the research aims of this course, and professional standards in buildings recording. A teaching component will form a core aim of the project, involving postgraduate students from UCL Qatar in the process of buildings recording and archive research.

More generally, the current project is eventually intended to form part of a comparative study of the historic buildings in other districts of Doha, with the aim of illuminating our understanding of the socio‐economic fabric of pre‐oil era Qatar. In so doing, the project will form a valuable component in the current research trend towards understanding the growth of modern Doha, and of the Gulf states in general.

8.4 Methodology The current project is borne out of a broader research context, and is intended to complement research and teaching currently underway at UCL Qatar, as well as conform to professional standards in buildings recording. The project aims to complement the ‘Mapping Living Heritage’ short course, co‐ordinated by UCLQ in conjunction with Msheireb Properties, and to be broadly consistent with the principles set out in the 2006 English Heritage ‘Understanding Historic Buildings’ guidelines. The structure and methodology are intended to be flexible and subject to modification as research questions are refined in future seasons.

8.4.1 Desk‐based work Preliminary desk‐based work consisted of gathering and cataloguing 20th century aerial photographs from a range of sources. Digital copies of these images were then manually scaled and rectified using fixed points of reference (e.g mosques & Doha Fort) to fit the most recent Google Earth image for the same area, from May of 2011. Image regressions, including comparison of satellite imagery from 2008, provided a broad visual indication of the early character and spread of Doha’s urban fabric, as well as the impact of more recent development and demolition. These images formed the basis for defining the survey area and each of the plots within it. Digital map regression using aerial photography and Google Earth indicate that the majority of buildings in the Al Ghanem district were not present in 1947, but that by the early 1960s the current street plan was well established.

8.4.2 Definition of research area Three key geographical research areas (Ghanem, Asmakh and Najada) were defined, identified as historic districts containing a significant amount of surviving traditional style architecture. The primary district selected for standing buildings survey was Al Ghanem,

110 which is bounded by Ali bin Abdullah street to the North, Jabr bin Mohammed street to the East, Al Mahar street to the South and Ibn Malik street to the West. Work involving volunteers and students had already been undertaken in Asmakh, under the guidance of Tim Macower as part of the UCL Qatar ‘Mapping Living Heritage’ Course. The current project aims to generate a corpus of data capable of being integrated with this work. A map of Al Ghanem based on the most recent Google Earth satellite images was produced, and split according to approximate building plots, for use in the field (Fig 7.1).

Figure 8.2: Example of building material guidance for survey participants.

In addition to the detailed work carried out in Al Ghanem, a preliminary walkover survey was completed in the districts of Asmakh and Najada, with the aim of eventually extending the building recording into these areas. Najada lies to the East of Al Ghanem, and is bounded by Ali bin Abdullah Street to the North, Banks Street to the East, Ahmed bin Mohammed al Thani Street to the South and Al Asmakh Street to the West. This area has been heavily redeveloped in recent years and very few historic buildings have survived. The walkover survey showed that the arrea to the North of Al Maymoun Street and West of Al Aasim Street had the greatest density of historic buildings, while the area south of Al Maymoun Street contained few buildings constructed from traditional materials, and was probably developed in the 1960s and later.

The district of Asmakh is bounded by Wadi Musheireb Street to the North, Al Asmakh Street to the East, Ahmed bin Mohammed bin Thani Street to the South and Abdullah bin Thani Street to the West. Initial survey showed that a number of historic buildings survive throughout the district, although

111 many are abandoned or in a poor state of repair. The historic buildings in Asmakh are in general larger and more elaborate than those in Al Ghanem and Najada, hinting at demographic and economic differences between the districts.

A potential area for further investigation is situated behind the Emiri Diwan, North of Al Rayyan Road and East of Al Diwan Street, which contains a number of abandoned historic buildings, however security concerns due to the area’s proximity to the Diwan may potentially hamper recording work. Further to the West of Ghanem, the district of Al Salata may also contain historic buildings which have survived the new National Museum development; the area east of Sheraouh Street between Al Loulou Street and Yafa Street may be appropriate areas for further investigation.

8.4.3 Recording Each plot in the survey area was assigned a unique code, comprising a two letter prefix denoting the district (GH for Al Ghanem) and consecutive numbers within the district. The coded plots were sketched on to a Google earth image of the area, and printed for use in the field.

The written record comprises a pre printed building recording sheet for each plot, including prompts for the recording of architectural attributes, building materials, GPS co‐ordinates and structural modifications. The sheets are aimed at generating a standardised data set, independent of the person responsible for recording, and are accompanied by a handout providing guidance and examples for participants. Since access to the majority of the buildings included in the survey was limited or not possible, the recording methodology is aimed primarily at gathering information on the visible, exterior walls and street frontages. An inherent bias is acknowledged in this approach, however it was felt that the issues involved in obtaining access to properties were beyond the scope of the current project. The written archive was entered into spreadsheet form, in order to be compatible with the range of GIS software employed. These data formed the basis for the map in figure 8.1.

A photographic procedure involving multiple overlapping digital images was adopted, enabling panorama style photographs to be digitally stitched together (Figure 8.3). These photographs currently form the most detailed and systematic visual record of the street frontages of Al Ghanem. Among the suggestions for further work is the possibility of integrating these images into Google Earth, enabling users to navigate detailed street views.

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Figure 8.3: Stitched and digitally rectified elevation of building GH01. 8.5 Discussion Building materials were split into three broad categories, with reference to photographs and descriptions in the Notes on Buildings Recording handout sheet, in an effort to standardise recording. These categories; Historic, Transitional and Modern, were based on the presence of particular characteristic building materials such as Danshal roofing beams, roughly hewn limestone, compacted‐ shell cinder blocks, concrete, and the range of modern materials currently in use, such as steel re‐ enforced cement and corrugated asbestos roofing. Although no specific date range is assigned to each of these categories, they are assumed to represent an approximately chronologically linear development in terms of construction styles and materials. Further documentary research is required in order to be able to assign dates for the introduction of particular materials, and thus refine the interpretations based on these categories. However, some preliminary observations can be made based on the available data.

The majority of modern development has taken place along the major roads, with most of the intact historic buildings located in the central part of Al Ghanem. The exception to this is along Al Ghanim Al Qadeem, where historic building fabric was observed along the majority of the West side, and a portion of the East side of the street. It is worth noting that this implies a bias towards the survival of domestic architecture, with street‐fronting commercial properties either lost, or poorly represented in this district. All of the historic and transitional buildings surveyed had been subjected to some form of modification, usually to accommodate a service such as electricity, or for air‐conditioning. In several properties, blocked doors and windows hinted at a modified internal layout. In general, the corner properties located at the intersection of minor streets were the most susceptible to damage, collapse and demolition, and were assigned the highest conservation priority scores. This is likely a result of the tendency for expanding vehicle parking space where access is available from two sides. One of the recommendations resulting from the project is therefore that where appropriate, any future buildings conservation should prioritise those structures which are most threatened by the trend to demolish corner properties. This observation will enable a more focused and predictive strategy for the protection of Doha’s historic buildings.

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The current street layout of Al Ghanem seems little altered from historic aerial photographs of the district, in spite of the extensive level of redevelopment. This implies an adherence to historically significant plots, and the absence of a centralised effort to redevelop large parts of the urban fabric by, for example, modifying roads. Several of the houses comprise a traditional style courtyard house, with later transitional and modern extensions added within the courtyard. These likely originally represented extended family dwellings. In particular, the layout of buildings around Al Ghanim Al Qadeem and Khalid Bin Al Walid street seems largely unchanged.

Due to the ethical and practical issues involved in gaining access to dwellings and in interviewing their inhabitants, no consistent, rigorous assessment was made of the modern demographic of Al Ghanem. However, casual observation suggests that the vast majority of residents are non‐Qatari, primarily male migrant workers. Living conditions are typically cramped, with heavy pressure on infrastructure and services such as water and electricity provision. A more in depth sociological study of the historic districts of Doha would have merit, and Al Ghanem exemplifies the late 20th Century pattern of Qatari migration from the city centre. A study of the demographic history of Al Ghanem would have implications for our understanding of the changing social and economic development of Qatar, and of the Gulf states in general.

Further buildings recording work is recommended in the Asmakh and Najada districts. It is hoped that a comparative study, bringing together observations and data from each of these districts and from the current study, will enhance our understanding of the early character and later demographic changes of historic Doha. In addition, these data should form a basis for any conservation strategies aimed at the historic architecture of the city, and inform planning decisions relating to the redevelopment of Old Doha.

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9. Conclusions The concept of urban archaeology is new to the Gulf, and few of the inhabitants of todays cities realise that an unwritten, unexplored record of the cities' development and its people lies beneath their feet. Even in countries where the level of archaeological activity is comparatively high, such as Qatar, no archaeological excavation work takes place in urban contexts, even when the opportunity is presented as areas are redeveloped. For example, a range of recent archaeological excavation and survey projects in Qatar have focused on the later Islamic (17th to 19th century) occupation in Northern Qatar, involving excavation at Zubarah (Richter et al 2011), Furayha (Rees at al 2011), al Ruwaydah, (Peterson and Grey 2012) , Ras Ushayriq (Peterson 2011) and Fuwairit (Eddisford 2011). Numerous other sites have been excavated in Qatar in previous decades by teams from the Department of Antiquities, Denmark, UK, France, Germany, Japan and elswhere. This project is the first to explore the archaeology, history and heritage of Doha, one of the major cities of the region.

In future seasons we hope to excavate in the historic town centres of Doha and Doha, and continue to seek permission to work towards those aims.

http://originsofdoha.wordpress.com/

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10. Bibliography

Amer, K.M, Al‐Muraiki, A.A. and Rashid, R. (2008). Management of coastal aquifers – The case of a peninsular – State of Qatar. 20th Salt Water Intrusion Meeting, Naples, June 2008

Anscombe, F.F. (1997) The Ottoman Gulf: The Creation of Kuwait, Saudi Arabia and Qatar. New York: Colombia University Press.

Brucks, G.B. (1829) Memoir descriptive of the Navigation of the Gulf of Persia in R.H. Thomas (ed) Selections from the records of the Bombay Government No XXIV (1985) New York: Oleander press. de Cardi, B. (1978) Qatar Archaeological Report: Excavations 1973. University Oxford: Oxford Press.

Carter, R. (2012) Sea of Pearls. Seven Thousand Years of the Industry that Shaped the Gulf. London: Arabian Publishing.

Carter, R. and Eddisford, E. (2012a) Radwani House ‐ Assessment of Archaeological Potential. Unpublished Report

Carter, R. and Eddisford, E. (2012b) Company House ‐ Assessment of Archaeological Potential. Unpublished Report

Carter, R., and Naranjo‐Santana, J. (2011) Muharraq Excavations 2010. Unpublished Report

Eddisford, D. (2011) Archaeological Survey at Fuwairit and Zarqa. Report produced for the Qatar Islamic Archaeology and Heritage Project, University of Copenhagen.

Eddisford, D. (2012). An Archaeological Survey of Northern Qatar (2011‐2012). Report produced for the Qatar Islamic Archaeology and Heritage Project, University of Copenhagen.

Institute for Archaeologists (1995) Standards and Guidance for Archaeological Excavation. Revised 2008. Availble from: http://www.archaeologists.net/sites/default/files/node‐ files/ifa_standards_excavation.pdf

Jaidah, I. and Bourennane, M. (2010) The History of Qatari Architecture 1800‐1950. Skira

Lloyd, J.W., Pike, J.G., Eccleston, B.L and Chidley, T.R.E. (1987). The hydrology of complex lens conditions in Qatar Journal of Hydrology, 89 (1987); 239‐258

Lorimer , J.G. (1986) Gazetteer of the Persian Gulf, Oman and Central Arabia. Cambridge: Cambridge University Press. (Originally published 1915)

Macumber, P.G. (2009). Preliminary report on the Geomorphology and hydrology of the al Zubarah region Northern Qatar. Unpublished report.

MOLAS (1994) Archaeological Site Manual (3rd edition). London. Available from: http://www.museumoflondonarchaeology.org.uk/NR/rdonlyres/056B4AFD‐AB5F‐45AF‐9097‐ 5A53FFDC1F94/0/MoLASManual94.pdf

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Montigny, A. (1980) Etude Anthrologique au Qatar. In J. Tixier (ed.) Mission Archeologique Francaise a Qatar, Tome 1. CNRS Recherches Anthropologiques, France

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Othman , N. (1984) With Their Bare Hands: The Story of the Oil Industry in Qatar. London: Longman Group

Peterson, A. (2011) Research on an Islamic Period Settlement at Ras Ushayriq in Northern Qatar and some observations on the occurrences of date presses. Proceedings of the Seminar for Arabian Studies 41: 245–256.

Peterson, A. and Grey, T. (2012) Palace, mosque, and tomb at al‐Ruwaydah, Qatar. Proceedings of the Seminar for Arabian Studies 42: 277–290

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Rahman, H. (2005) The Emergence of Qatar: The Turbulent Years 1627‐1916. London: Thames & Hudson

Rees, G., Richter, T., & Walmsley, A. (2011) Investigations in al‐Zubārah hinterland at Murayr and al‐ Furayah, north‐west Qatar. Proceedings of the Seminar for Arabian Studies41: 309–316.

Richter, T., Wordsworth, P. & Walmsley , A. (2011): Pearl fishers, townsfolk, Bedouin, and shaykhs: economic and social relations in Islamic al‐Zubārah. Proceedings of the Seminar for Arabian Studies 41: 1–16

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11. Appendix A – Radwani House: Specialist Report on Plaster Petrographic and SEM‐EDS Analysis of Historic Cementitious Building Materials from Radwani

House, Doha, Qatar

Dr. Patrick Sean Quinn 11.1 Background, Sample Materials and Aims of Analysis Thin section petrographic and SEM‐EDS analysis has been undertaken on 15 samples of ce‐ mentitious building materials from UCLQ excavations at Radwani House (Site ODQ22) in Doha, Qatar. The term cementitious building materials is used here in a general sense to refer to carbonate‐rich substances composed of lime. portland cement, gypsum or ground natural carbonate material, which has been used with or without aggregate and other modifiers to construct, coat or adjoin built structures (Quinn, 2013, p. 224).

Excavation of this early 20th century house has revealed architectural remains that may cover a transitional period from the use of traditional to modern building materials. In order to investigate this hypothesis and answer specific questions about the technology and use of cementitious building materials at the site, such as whether portland cement or other types of hydraulic substances were used in its construction, selected samples from several phases in four rooms of the house were submitted for compositional analysis. Petrographic and SEM‐EDS analysis was conducted in order to characterize the composition, raw materials and technology of the cementitious building materials and reveal compositional patterns that might be related to function or the period of construction. Details of the samples are given in Table 1.

In this report "plaster" refers to an internal wall covering, while "render" refers to an external wall covering (Ingham 2011, p. 137) 11.2 Methodology Small pieces of the 15 cementitious building samples were vacuum impregnated in epoxy resin blocks and prepared as standard 30 µm petrographic thin sections at the Institute of Archaeology, University College London. Samples 22 and 24 were consisted of two separate layers that have been numbered 22A, 22B and 24A, 24B respectively. These were thin sectioned individually. Samples 20 and 23 were composed of two adhered layers. Thin sections were prepared across the layers in order to examine their microstratigraphy. The prepared thin sections were compared to one another under the polarizing light microscope and grouped according to their compositional characteristics. The grouped thin sections were then characterized petrographically and interpreted in terms of their constituent raw materials and manufacturing technology. Photomicrographs of the 15 samples are presented in Figures 1‐6.

Representative samples of the identified petrographic groups were prepared for SEM analysis. The epoxy resin blocks of samples 20, 24B and 25, remaining after thin section preparation were polished with fine silicon carbide paper and diamond paste down to a grade of 1 µm. They were then coated with a thin film of carbon and studied with a Philips XL30 SEM with an Oxford Instruments INCA Wave EDS system at the Institute of Archaeology, University College London. Samples were examined in secondary electron and backscattered electron modes and selected features were analyzed chemically via SEM‐EDS. SEM analysis was conducted with an operating voltage of 20 Kv and a working distance of 10 mm. Calibration of the EDS system was made using a cobalt standard. Elements were calculated as weight percentage oxides using stoichiometry (Table 1). SEM images of the analyzed samples are

118 presented in Figures 7‐11. Using the SEM‐EDS elemental characterization of the selected cementitious building samples, the degree of hydraulicity of the binder matrix was calculated using several alternative formulae. 11.3 Results In thin section, the 15 analysed samples can be divided into three types based on their com‐ position and microstructure. Sample 23 is composed of two layers that correspond to two of the three compositional types. The three types of cementitious building materials are described and interpreted separately below and illustrated in Figures 1‐5. For the definition of specialist terminology and a general introduction to cementitious archaeological materials see Ingham (2011, p. 137‐162), Leslie and Eden (2008), Piovesan et al. (2009) and Quinn (2013, p. 224‐231).

11.3.1 Type 1 ‐ Hydraulic lime binder with oolitic limestone aggregate Samples 15, 16, 17, 20, 23, 25, 28 and 29 The thin sections prepared from samples 15, 16, 17, 20, 25, 28 and 29 are composed of a lime binder with abundant oolitic sand aggregate (Figures 1A,B, 6‐8). The conspicuous oolites are rounded, spherical to prolate calcareous particles, composed of fine micrite, that have concentric layering and in some cases a visible nucleus of quartz or a small shell particle. Many resemble oolites, though others have less visible layering and may be better classified as peloids or ‘coated particles’. These may have originated from the crushing of an oolitic limestone. However, no intact oolitic limestone rock fragments were observed in any of the thin sections, suggesting that the aggregate may have derived from a loose sandy oolitic deposit. The oolitic material was well sorted, with a modal grain size of 0.25 mm. Rounded mono‐ and polycrystalline quartz grains, which reach a diameter of 1 mm, but have a similar modal size to the oolites are also present in smaller amounts (Figure 1B,D). Rare iron‐stained chert also occurs in samples 17 and 26. These non‐carbonate inclusions may have also been part of the same loose sandy deposit. Other aggregate particles include curved shell fragments of brachiopods (e.g. sample 16) (Figure 5C,D) and cephalopods (e.g. sample 28) (Figure 5E,F), benthic foraminifera (e.g. sample 17) and planktonic foraminifera (e.g. sample 29). These contain well preserved wall structure are are therefore likely to have been added as aggregate. It is possible that they were also part of the well‐sorted oolitic sand aggregate, though some of the shell fragments can reach up to 2.5 mm in size. Some shell fragments have micritic coatings (e.g. sample 28). The shell structure and preservation of the foraminifera suggests that they are not fossil forms. Fragments of coral also occur in some samples (e.g. sample 28). Samples 28 and 29 both contain single relatively large crystalline limestone fragments that are associated with gypsum. These may be related to the possible lime lump in sample 25, which is discussed below. All samples contain a relatively high proportion (40‐50%) of aggregate.

The samples contain c. 30‐40% of binder, based on the prepared thin sections. This is composed of fine micritic calcite, as well as clumps of clay minerals. An area of sample 15 which has no aggregate mixed into it reveals the composition of the binder in detail, confirming its clayey nature. This might indicate the mixing of calcareous material with clay. SEM‐EDS analysis of the binder matrix of samples 20 and 25 reveal, in addition to abundant Ca, a significant proportion of Si, Al and Fe (Table 2), confirming its impure nature. A distinct difference exists in several of the thin sections (e.g. samples 15 and 20) between areas of lighter and darker binder. The lighter areas have the typical appearance of micritic calcite and as a result can be difficult to distinguish from the oolites in places. The darker areas are lighter in PPL and have an isotropic appearance in XP. SEM‐EDS analysis of these two areas in sample 20 (Table 2) (Figure 8) reveals a higher proportion of Ca in the lighter areas and a relatively higher percentage of Si, Fe and Al in the darker areas. If the binder in this this group of samples was made by the mixture of calcareous material and clay, then the darker regions

119 could therefore represent areas in which the two were not well mixed parts of the binder that did not receive as much calcareous component. An alternative explanation is that these represent regions of uncarbonated lime. Unreacted lime can have an isotropic appearance in XP, suggesting that the darker areas in XP could be lime that was not wetted and therefore did not recarbonate. However, this is not borne out by the SEM‐EDS data. The rare occurrence of ‘lime lumps’ in sample 25 seems to indicate that the calcareous material used in the binder of this group of samples was true lime. These lumps are lime particles that were not sufficiently hydrated during slaking. The scarcity of lime lumps in most of the samples would suggest that the the lime was finely ground before slaking and mixing with the clay component.

The samples made of this type of cementitious sample are relatively porous (c. 10‐20%). They contain pores that were entrapped and entrained during the production of the cementitious building material, as well as cracks formed during drying or as a result of stress. The latter are easy to identify due to their thin, parallel‐sided shape. However, entrapped and entrained voids are likely to be difficult to distinguish from voids produced during thin section preparation. The loose nature of the samples meant that despite vacuum impregnation, some material was plucked from the thin section as it was ground and polished to 30 µm. Ring voids exist around the oolite particles in some samples (e.g. sample 28). In some cases rounded voids have been left from the removal of ooliths. Some voids contain micritic and dog‐tooth calcite fringes that were formed after the setting of the material. Other deterioration and alteration products include gypsum in sample 28 and a calcareous crust on the outside of sample 25. The gypsum may have derived from the cementitious material described below, as it does not appear to have been present in the binder or aggregate of the first group of samples.

Detailed SEM‐EDS analysis of the binder in samples 20 and 25 revealed the presence of significant Na, Mg, Al, Si, Fe, K and S (Table 2). Using the relative proportions of these elements relative to the abundant Ca, it is possible to assess the hydraulicity of the lime. Hydraulicity is the ability of a cementitious substance to set in moist or wet conditions by the chemical reac¬tions with water. It is related to the presence of calcium silicate and calcium aluminate hydrates. Different formulae are used by different authors to calculate the Hydraulic Index (HI) (Vicat 18125; Piovesan et al. 2009, p. 69) or Cementation Index (C.I.) (Boynton 1980, p. 312). These are given below and applied to the data in Table 2.

Vicat (1812):

HI = SiO2 + Al2O3

CaO

Piovesan et al. (2009) (after Boynton 1966)6:

HI =

Al2O3 + FeO + SiO2

CaO + MgO

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Boynton (1980):

HI = 2.8 x SiO2 + 1.1 x Al2O3 + 0.7 x FeO

CaO + 1.4 x MgO Based on the formulae above, samples 20 and 25 have a HI senso Vicat (1812) of 0.20‐0.90, a HI sensuo Piovesan et al. (2009)/Boynton (1966) of 0.22‐0.96 and a C.I. sensuo Boynton )1980) of 0.49‐2.17. It is not at present clear how to interpret the first HI values. Using only the relative proportion of Al and Si in a Ca‐rich binder, as in the Vicat equation, St John et al. (1998) state that hydraulic limes vary range in Si and Al from as low as 1‐2% (fat limes) to 4 up to 50% (eminently hydraulic limes). The two analysed samples fall somewhere between these extremes and should therefore be considered to have been hydraulic. The calculated HI sensuo Piovesan et al. (2009)/Boynton (1966) of samples 20 and 25 is always <1.2, which Piovesan et al. (2009) state is the upper limit for quick setting limes. They suggest that HI values higher than this are a consequence of the unintentional analysis of fine aggregate particles during SEM‐EDS analysis. This seems to suggest that the measurements recorded in this study analysed only the binder matrix of samples 20 and 25 as required. Unfortunately, Piovesan et al. (2009) do not indicate a lower HI value for hydraulic lime, though they consider samples with a HI of >0.22 in their analysis to be hydraulic. With this in mind, all SEM‐EDS analyses of the lime binder in samples 20 and 25 indicate that the cementitious material used in this group of samples was hydraulic.

Based on the Cementation Index (C.I.), Boynton (1980, p. 313) classifies lime into three types: Feebly Hydraulic (C.I. 0.30‐0.50), Moderately Hydraulic (C.I. 0.50‐0.70) and Eminently Hydraulic (C.I. 0.70‐1.10). In this classification scheme, sample 20 varies from Moderately Hydraulic to Eminently Hydraulic and sample 25 is Eminently Hydraulic. It is not clear how to interpret a C.I of greater than 1.10 in Boynton’s scheme. Nevertheless, the values calculated for the two samples suggest they were made of a hydraulic material.

The variation in the proportion of Si, Al, Fe and Mg relative to Ca within sample 20 implies a variable hydraulicity for this sample. The darker areas of binder referred to above have a considerably higher HI and CI based on all three formulae compared to the lighter areas. This is clearly related to the proportion of non carbonate material in these two different regions of the binder in this and other samples of the same compositional group. It is suggested that the darker areas have a higher concentration of argillaceous clay‐rich material, which it is suspected to have been mixed with lime in the production of the samples of this group. The function of the clay is likely to have been to act as a pozzolanic additive (a substance that when mixed with slaked lime reacts to produce hydraulic compounds). Common pozzolanic additives in traditional cementitious materials include silicate rock and crushed pottery. Its incomplete mixture with the lime has therefore led to variation in the hydraulicity of the binder.

11.3.2 Type 2 ‐ Gypsum and lime binder without aggregate Samples 18, 22A, 22B, 23, 24A, 24B The thin sections of samples 18, 22A, 22B, 24A and 24B are characterized by a heterogeneous gypsum‐rich composition without appreciable aggregate. The five samples have a messier, more heterogeneous composition in thin section than the seven samples described above (Figures 3A,B, 4A,B). They contain rare rounded quartz clasts of up to 1.25 mm in diameter that may or may not have been intentionally added as aggregate. Rare ooliths that resemble those in the other group of samples occur in sample 22A. Limestone fragments are present in small amounts. These can be composed of small calcite spars (sample 24A) or finer micritic material (sample 22A). It is not clear whether these were added as aggregate or whether they represent unburnt limestone fragments

121 from the lime burning process. They can be distinguished from lime lumps that occur in some samples. Large relatively well formed gypsum crystals are a component of all samples (Figure 2A,B). SEM‐EDS analysis of examples of these crystals in sample 24B confirmed that they are gypsum (CaSO4.2H2O) (Table 2). The crystals vary in size but can reach 2.25 mm in sample 24A. In some cases they form agglomerations of several subhedral crystals (e.g. sample 22A) (Figure 3E,F), which have a similar composition to the larger crystals (Table 2). It is suspected that they were incorporated by the insufficient crushing of gypsum during preparation rather than being added as aggregate. Obvious lime lumps with an isotropic appearance and cracked internal microstructure occur in places (e.g. samples 22B and 24B). These suggest the use of lime in this type of cementitious building material.

The binder appears to be a mixture of lime and gypsum. Micritic calcite crystals are visible in thin section, however, it is not possible to make out clearly crystals of the gypsum under the polarizing light microscope. Nevertheless, the presence of larger gypsum crystals and agglomerations as well as the SEM‐EDS analysis of the binder of sample 24B confirms its presence in the binder (Table 2). The binder has a very muddy appearance in places, which may suggest the addition of clay to the mix. SEM‐EDS of the binder of sample 24B reveals the presence of significant Mg and Si, though no Al or Fe (Table 1). As in the first type of cementitious building material, the binder contains compositionally different regions that might indicate the incomplete mixing of two or more components, or perhaps insufficient re‐carbonation of lime in places.

All samples in this group contain a patchy pore pattern. Radiating crystals of gypsum have formed within many of the pores (Figure 3E,F) (Table 2), perhaps during the setting of the material Though some of this could have also formed after setting due to deterioration of the cementitious structures after setting.

11.3.3 Type 3 ‐ Lime and gypsum with oolitic limestone aggregate Samples 26 and 27 These two samples share some similarities to the other types of cementitious material above in that they contain oolitic and quartz aggregate, as well as some gypsum (Figures 4E,F, 5A,B). Oolites are much rarer in samples 26 and 27 compared to samples 15, 16, 17, 20, 25, 28 and 29, though there is a concentration of these rounded particles in one area of sample 27 (Figure 5A,B). The rounded quartz sand is of a similar size and composition of that which was added as aggregate to samples 15, 16, 17, 20, 25, 28 and 29. Prominent lime lumps occur in both samples, which indicate that lime was used for the binder of the cementitious building material. This may have been mixed with an argillaceous component, giving the matrix a muddy appearance. The binder seems to be well carbonated, with the exception of the burnt lime lumps. Sample 26 contains an area of fine micritic calcite several millimeters in size with little argillaceous material and no aggregate. This may be representative of the lime used to prepare the binder in this sample.

11.3.4 Microstratigraphy Sample 23 is composed of two adhered layers (Figure 3C,D). In thin section the inner layer is of the oolitic lime composition and the outer layer is of the gypsum‐rich type described above. Samples 22 and 24 are also composed of two layers, which were presented separately for analysis (22A and 22B and 24A and 24B). In both samples, the two layers are made of similar gypsum‐rich cementitious material, without obvious compositional differences. These

122 Petrographic Analysis of Cementitious Building Material from Radwani House, Doha, Qatar may have been constructed at a similar time, with the second, outer layer added after the first layer had set.

Sample 25 features a c. 0.75 mm thick, undulose, calcareous layer composed of successive layers of calcite crystals, oriented perpendicular to its surface (Figure 4C,D). This is interpreted as a crust built up by successive cycles of calcite precipitation. It might have been produced by water percolating through the bath structure from which it originated, dissolving and depositing calcium carbonate. The morphology of this caliche‐type crust suggests that it is not a finishing layer. SEM‐EDS analysis of this layer (Table 1) (Figure 9) reveals that it is rich in Ca, but also contains significant Mg and S, that may have been leached from the cementitious building material and deposited as salt.

Sample 20 has a 1.25 mm thick outer layer that appears to be some sort of finishing material (Figure 2C,D). This is composed of dense, muddy, micritic calcite with rare oolites. It is well bonded to the material below, but contrasts strongly from it due to its more dense and perhaps muddier composition and a much smaller proportion of oolitic aggregate. SEM‐EDS analysis of the binder of this layer reveals that it contains a high proportion of Si as well as significant Al and Fe. This would have given it a moderately hydraulic behaviour. Sample 26 contains an area of fine micritic calcite several millimeters in size with little argillaceous material and no aggregate (Figure 4E,F).

11.3.5 Discussion Relationship between different types of cementitious building material The two main types of cementitious building material detected in this study differ in terms of both their binder and aggregate composition. The first type was made with a lime binder, whereas the second type is gypsum‐rich. The lime‐rich samples contain as much as 50% oolite sand aggregate, whereas the gypsum‐rich samples do not appear to have had any aggregate added to them. This difference in binder and aggregate technology sets them apart.

Despite the key differences between the two main types of cementitious building material detected in the Radwani House samples analyzed, it is worth noting that the binder of both cementitious building material types contains significant argillaceous material, which may have added in the form of mud or clay. It is not possible to be sure how this material made its way into the binder of both types of samples, though the presence in sample 20 of darker and lighter areas of binder with varying proportions of Ca relative to Si, Al and Fe, suggests the mixing of clay and mud. No such clear distinction was found in the gypsum‐rich cementitious building material samples, though these are more heterogeneous in general. Binder made from natural gypsum can contain clay impurities (Ingham 2011, p. 139), which might explain the argillaceous material in the gypsum‐rich samples. The latter also appear to contain calcite lime in their binder. This can also be natural occurrence, but can be added intentionally in modern finishing gypsum plaster to improve its working properties (Ingham 2011, p. 142).

Samples 26 and 27 appear to have been made using materials from from the other two recipes. They are gypsum based, but contain some calcite as well as lime lumps, suggesting that as in the second group of samples, a mix of gypsum and lime was used. The practice of adding small amounts of gypsum to lime is know 'gauging' (Ratcliffe 1997). This speeds up the set of the lime aggregate mix. Unlike the other gypsum rich material, samples 26 and 27 contain a small, but significant proportion of aggregate that was likely to have been intentionally added. This is composed of oolites and rounded quartzose grains which are identical to the aggregate that was added in much greater amounts in the hydraulic lime material. Samples 26 and 27 provide another link between the two main types of cementitious building material detected in this study.

The two layers in sample 23 are composed of hydraulic lime binder with oolite aggregate and gypsum‐rich binder without aggregate respectively. Though these layers were administered separately, their

123 association on a single architectural feature implies a further link between the two cementitious building material types.

The relationships between the three compositional groups discussed above suggest the use of several common elements (oolite sand, lime, gypsum, clay) in different proportions, perhaps for different purposes.

Relationship between cementitious building material type and function Based on the analysed samples, the different cementitious recipes detected in the present study may be broadly correlated with the construction of specific architectural features at Radwani House. Hydraulic lime binder with oolitic aggregate is used as a render8 and for the construction of floors, a drainage feature and baths at the site. Its hydraulic characteristics would have been well suited to its use in the later two contexts and may also have been beneficial for the construction of floors. Its use as a render might indicate that it was favoured as a coating for surfaces that did not need such a smooth finish. The aggregate might have had a functional advantage by helping the render withstand the heating‐cooling cycle of the Qatari climate.

The gypsum‐rich material without aggregate was used mainly as a plaster for internal walls, but also as a external layer over the first material in the construction of a drain feature.. The fine nature of this material would have provided a smooth finish on interior walls. That it was not used as a render in the analysed samples may be explained by the fact that gypsum is adversely affected by water and damp. Though Qatar has an extremely arid climate, rain does fall in winter months. This hypothesis does not explain the use of this material as surface coating on the drain feature, which would be expected to come in direct contact with water.

The third type of cementitious material, which was detected in samples 26 and 27 was used to construct a floor and render a well in Room 10.

In sample 23, the coarser oolite‐rich lime‐based material seems to have been used for a base coat, onto which the finer gypsum‐rich material was added. Other possible finishing layers were recorded in samples 20 and 26. These indicate the use of a finer material with less aggregate, one with significant argillaceous material and the other composed of lime only. The latter could be a lime wash.

Chronological patterns in cementitious building material type Taking the cemenrtitious building material samples analysed from the four rooms together and viewing the distribution of the detected recipes by excavated phase, a broad chronological pattern is visible. The hydraulic lime samples with oolitic aggregate come from Phases 4 and 3 of Radwani House and the gypsum‐rich samples with no aggregate come from Phase 2 and the lower part of Phase 3. In the analysed samples, the hydraulic lime material with oolitic aggregate does not occur in Phase 2 and the gypsum‐rich material without aggregate is not present in Phase 4. This pattern could perhaps be taken to signify a change in cementitious building material technology over time at the site, from the use of gypsum‐based cementitious material without aggregate in the earlier phases of Radwani House to the use of lime‐based material with aggregate in the later phases. Sample 23. which contains separate layers of both types comes from the middle of Phase 3 and might therefore be seen to correlate roughly to a possible change in building material technology. However, a proportion of lime was used in the binder of the gypsum‐rich samples in Phase 2 and samples 26 and 27, from phase 4. This suggests that lime was being used for the possible switch and gypsum was being used after it had taken place. With this in mind and given the broad correlation between cementitious building material recipe and function described above, it is perhaps unwise to view this chronological pattern strictly in terms of a change in cementitious building material technology at the site.

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A small gypsum factory opened near to Radwani House some time in the mid 20th century. This does not appear to be correlated with the use of gypsum for construction purposes at the site, as this is more prevalent in the earlier phases based on the sample analysed in this study.

Use of cement at the Radwani House One question posed of the analysis, was whether cement/concrete was ever used in the construction of Radwani House. Portland cement was invented in the nineteenth century and has since the 1930s been the favored binder type for a variety of construction purposes in many parts of the world. However, it is thought that this technology did not arrive in the Gulf area until the 1950s.

Portland cement can be identified by the presence of specific unreacted residuals (Walsh 2007, p. 4) composed of three main calcium silicate minerals, alite, belite and ferrite. Alite occurs as colourless, high relief crystals with a six sided shape that have first order grey interference colours (Ingham 2011, Table 19, p. 81). Belite occurs in clusters of crystals, surrounded by brown ferrite that are described as having a ‘bunch of of grapes’ morphology (Walsh 2007, p. 4‐5; Ingham 2011, p. 82‐83, 155‐157). Belite crystals have a colourless, yellow or green colour in PPL and second order birefingence colours in XP.

The Radwani House samples were examined at 200x magnification in order to determine whether these phases are present. Several samples of the first and third types of cementitious building material contained small structures that resemble the bunch of grapes, illustrated by Walsh (2007, p. 5) and Ingham (2011, p. 82‐83, 155‐157) (Figure 6A‐D). In some cases it was possible to make out crystals within these mainly dark brown to black features (Figure 6C, D). However, these did not have second order birefingence colours. Some five or six sided higher relief crystals were seen in some samples from the first cementitious building material type, but these appeared isotropic or highly birefringent (Figure 6E, F), so cannot be positively identified as alite. Walsh (2007, p. 5) states that “small clusters may be detected in small quantities in hydraulic limes” and “What clearly distinguishes portland cement from other historical binders is the presence of alite”. With this in mind, it is not possible in this study to confirm the use of Portland cement in the manufacture of the cementitious building materials used at Radwani House.

11.3.6 References Cited Boyton, R.S. 1980. Chemistry and technology of lime and limestone. 2nd edition. John Wiley & Sons Inc., New York.

Ingham, J.P. 2011 Geomaterials Under the Microscope: A Colour Guide. Manson, London.

Leslie, A. B. and Eden, M. 2008. A Code of Practice for the Petrographic Examination of Mortars, Plasters, Renders and Related Materials. Applied Petrography Group.

Piovesan, R., Curti, E., Grifa, C., Maritan, L. and Mazzoli, C. 2009. Petrographic and microstratigraphic analysis of mortar‐based building materials from the Temple of Venus, Pompeii, In: Quinn, P. S. (Ed.) Interpreting Silent Artefacts: Petrographic Approaches to Archaeological Ceramics. Archaeopress: 65‐79.

St John, D. A., Poole, A. B. and Sims, I. 1998. Concrete Petrography: A Handbook of Investigative Techniques. Arnold, London.

Quinn, P. S. 2013. Ceramic Petrography: The Interpretation of Archaeological Pottery & Related Artefacts in Thin Section. Archaeopress, Oxford.

Walsh, J. J. 1997. Petrography: Distinguishing Natural Cement from Other Binders in Historical 125

Masonry Construction Using Forensic Microscopy Techniques. Journal of American Society for Testing and Materials International, Vol. 4, No. 11‐12.

11.3.7 Tables and Figures Sample Room Phas Contex Description and Comments 15 9 3 91 Render 1 6 9 3 93 Render 1 7 9 3 95 Render 1 8 9 2 96 Render 20 9 3 8 9 Mortar Sample. Two adhered layers. 22 8 2 121 Mortar Sample. Two separate layers (22A and 23 8 3 113 Mortar Sample. Two adhered layers. 24 12 3 68,40 Plaster. Two separate layers (24A and 24B) 25 10 4 140 Wall + Render from Bath 26 10 4 141 Floor 27 10 4 143 Well + Plinth 28 8 3 128 Render on external wall [15] 29 10 4 137 Upper grey floor on well side of bathroom

Table 1. Cementitious building material samples from Radwani House analysed in this report, with accompanying information.

Description Elemen %wt oxide HI1 HI2 CI Na Mg Al Si Ca Fe K S Sample 20 dark binder 1.91 5.39 29.99 40.53 5.40 15.71 0.87 0.96 2.17 Sample 20 dark binder 0.80 0.83 4.93 33.50 42.76 2.19 13.83 0.90 0.93 2.29 Sample 20 light binder 0.96 3.02 15.23 71.22 1.27 8.44 0.26 0.27 0.65 Sample 20 light binder 0.78 2.97 11.59 74.41 1.87 8.14 0.20 0.22 0.49 Sample 20 finishing n1.25der 1.74 4.16 20.96 41.19 3.16 0.77 0.61 0.66 1.50 Sample 25 binder 1.16 1.33 3.38 22.33 40.31 2.45 1.82 0.64 0.68 1.61 Sample 25 binder 0.70 1.59 3.57 24.39 42.61 1.95 3.20 0.66 0.63 1.61 Sample 25 outer crust 1.13 60.25 3.72 Sample 24B binder 1.11 0.83 0.812 42.44 54.14 Sample 24B binder 8.09 5.28 61.01 25.62 Sample 24B gypsum crystal 34.46 50.89 Sample 24B gypsum agglomeration 35.61 52.74 Sample 24B gypsum agglomeration 34.74 51.06

Table 2. Detailed SEM‐EDS analysis of selected features within cementitious building material samples 20, 24B and 25 from Radwani House with hydraulicity index (HI) calculated as per 1. Vicat (1812) and 2. Piovesan et al. (2009), and cementation index calculated as per Boynton (1980). Elements are expressed as %wt oxides. Cl omitted.

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Figure 1. Thin section photomicrographs of cementitious building material samples from Radwani House, Doha. Qatar analyzed in this report. Image width = 2.9 mm. XP = Crossed polars, PPL = Plane polarized light.

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Figure 2. Thin section photomicrographs of cementitious building material samples from Radwani House, Doha. Qatar analyzed in this report. Image width = 2.9 mm. XP = Crossed polars, PPL = Plane polarized light.

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Figure 3. Thin section photomicrographs of cementitious building material samples from Radwani House, Doha. Qatar analyzed in this report. Image width = 2.9 mm. XP = Crossed polars, PPL = Plane polarized light.

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Figure 4. Thin section photomicrographs of cementitious building material samples from Radwani House, Doha. Qatar analyzed in this report. Image width = 2.9 mm. XP = Crossed polars, PPL = Plane polarized light.

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Figure 5. Thin section photomicrographs of cementitious building material samples from Radwani House, Doha. Qatar analyzed in this report. Image width = 2.9 mm. XP = Crossed polars, PPL = Plane polarized light.

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Figure 6. Thin section photomicrographs of cementitious building material samples from Radwani House, Doha. Qatar analyzed in this report. Image width = 0.75, except E, F = 1.45 mm. XP = Crossed polars, PPL = Plane polarized light.

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Figure 7. Scanning electron micrograph of cementitious building material sample 20 (Type 1) from Radwani House, Doha. Qatar analyzed in this report. This image illustrates the thin surface layer applied to the sample, as well as the oolite‐rich material beneath it. Image captured with backscattered electron detector that reveals compositionally different regions within the polished sample.

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Figure 8. Scanning electron micrograph of cementitious building material sample 20 (Type 1) from Radwani House, Doha. Qatar analyzed in this report. This image illustrates the darker (right) and lighter areas (left) within the binder. Image captured with backscattered electron detector that reveals compositionally different regions within the polished sample.

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Figure 9. Scanning electron micrograph of cementitious building material sample 25 (Type 1) from Radwani House, Doha. Qatar analyzed in this report. This image illustrates the thin calcareous crust that has formed on the sample, as well as the oolite‐rich material beneath it. Image captured with backscattered electron detector that reveals compositionally different regions within the polished sample.

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Figure 10. Scanning electron micrograph of cementitious building material sample 24B (Type 2) from Radwani House, Doha. Qatar analyzed in this report. This image illustrates the heterogeneous, gypsum rich composition of this material. A well‐formed crystal of gypsum can be seen in the center of the image. Image captured with backscattered electron detector that reveals compositionally different regions within the polished sample.

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Figure 11. Scanning electron micrograph of cementitious building material sample 24B (Type 2) from Radwani House, Doha. Qatar analyzed in this report. This image illustrates the het‐ erogeneous, gypsum rich composition of this material. In the center of the image is an area of gypsum‐rich binder. Image captured with backscattered electron detector that reveals compositionally different regions within the polished sample.

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12. Appendix B – Radwani House: Preliminary Specialist Report on Bone S. Hamilton‐Dyer 12.1 Introduction and Methodology Excavations at Radwani House in the Heritage Quarter of Doha recovered a small assemblage of animal bones from a variety of deposits. Most of the material is likely to be occupation deposits of early 20th century date.

Taxonomic identifications were made mainly using the author's modern comparative col‐ lections. All fragments were identified to taxon and element with the following exceptions: ribs and vertebrae of the ungulates (other than axis, atlas, and sacrum) were identified only to the level of cattle/horse‐sized and sheep‐sized. Undiagnostic shaft and other fragments were similarly divided. Any fragments that could not be assigned even to this level have been recorded to class only. Where possible sheep and goat were separated using the methods of Boessneck (1969), Payne (1985) and Halstead & Collins (2002). Recently broken fragments were joined where possible and have been counted as single bones. Tooth eruption and wear stages of sheep and cattle mandibles were recorded following Grant (1982). Measurements mainly follow von den Driesch (1976) for mammals and birds and Morales & Rosenlund (1979) for fish and are in millimetres unless otherwise stated. Withers height calculations of the domestic ungulates are based on factors recommended by von den Driesch and Boessneck (1974). The archive includes details of metrical and other data not presented in the text. The individual records give further details of the condition of each specimen. These include erosion, gnawing, burning and other aspects of appearance such as flaking and staining.

12.2 Results An overall total of 2628 specimens was recorded, over half being of fish. These are quite small bones and the bulk of the bone by weight is, however, of mammals. The large mammals are of at least six taxa with caprines the most frequent. Bird bones are relatively common but of only three taxa. The taxa and number of specimens are listed in Table 1 and a summary by context in Table 2. The material is generally in good condition in the limey deposits and few bones are eroded.

12.2.1 Caprines Both sheep and goat are present with 18% of the 210 caprine bones positively identified as goat and 7% as sheep; the majority could not be distinguished. Most of the anatomical elements are represented, with a typical bias in favour of the largest and the sturdiest bones (Table 3a,b). There are relatively few mandibles and pieces of skull or horncores. These are resistant and easily recognisable elements, therefore their relative rarity indicates that the heads were probably used or discarded elsewhere. The most well‐represented element is the tibia at 22 specimens in Phase 1 and a further 11 in Phase 2. These represent at least five different individuals from each phase. Aging data from teeth is limited to just three mandibles; a goat kid from context 29 in room 1, a young adult sheep/goat from context 76 in room 9 and a similar one from context 24 in room 7. There are more bones with epiphyseal fusion data, although still not a large group (Table 4). There are a few bones in the Phase 1 group from animals that died before about 18 months but most bones are from animals that were older than this. Fused and unfused elements are almost equal in the 30‐ 48 month group. Data for the late fusing elements is restricted to just one fused humerus.

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The phase 2 data are insufficient for reliable interpretation but do appear to follow a similar pattern. A female caprine pelvis from context 39 exhibits eburnation of the acetabulum; this pathology may be age related. The aging data taken together thus indicates a spread of ages but with most bones being from young adults/sub adults. Measurements were taken on the fused bones and are given in archive but only one, a sheep metacarpus from 194 in room 6, was sufficiently complete for an estimation of withers height. This was calculated at 78.2 cm, quite a large animal. Butchery marks were observed on several of the bones. Chopping through vertebrae indicates axial (or sometimes sub‐axial) division of the carcase and the ribs were often chopped into small sections. Several of the major limb bones were chopped and/or broken mid‐shaft. Most marks were made by a heavy blade but finer knife cuts are also present on a few of the bones, for example around the proximal humerus where it was removed from the shoulder.

12.2.2 Other mammals One bone from a small goat‐sized animal, from sample 7 in room 12, is the distal part of a gazelle humerus. Bones of larger mammals are few; equid remains are restricted to a deciduous premolar from 194 in room 6, part of an atlas vertebra from 232 in trench 1 and another deciduous premolar from 162 in trench 2. All three are probably of donkey and in the case of the one from 162, a naturally shed tooth. Cattle bones are better represented at ten specimens, although none is a complete bone. These include the rear part of three mandibles, the one from 162 in Trench 2 being from a neonate calf. Another neonate bone, in this case a humerus, is present in trench 1 context 222. This bone has been gnawed at both ends. A gnawed proximal fragment of a femur from context 55 in room six is from a rather small animal with a caput depth of only 34.2 mm. The distal part of a metacarpus from 233 in trench 1 is also quite small and these two bones are probably from females. A proximal fragment of an unfused ulna from context 193 in trench 3 has a rather narrow profile for cattle but would be extremely large for a young sheep or goat, a small and slim cow is probably more likely. There are also fragments of a metatarsus, a humerus, and a chopped astragalus. Several cattle‐sized limb shaft, rib and vertebral fragments were also recorded. The metatarsus fragment from 167 in room 6 is one of the few bones in poor condition, being weathered and cracked, and was probably exposed on the surface before being redeposited.

Camel is represented by an upper molar from 223 in trench 1. A piece of rib and an indeterminate limb shaft fragment are also probably of camel, based on their large size.

No bones of dog or similar carnivores were found but some of the bones do bear gnawing marks, giving indirect evidence of their presence on site.

A few bones of very small mammals were found, one can be identified as rat but the exact species is not determinable.

12.2.3 Birds Bird bones are more frequent than those of the largest mammals; most can be identified as domestic fowl. These include several bones containing medullary deposits, indicative of hens (Driver 1982). A few eggshell fragments were also recovered and it is assumed that these are also from domestic fowl, although they have been recorded only as indeterminate bird. Other unidentified bird elements, such as phalanges and limb bone fragments, are also probably of fowl (Table 5). Two fowl ulnae show knife marks, one where cut from the humerus and the other indicating removal of the lower part of the wing. There are just two bones of other birds; a pigeon (cf. domestic) tibiotarsus from context 194 in room 6 and a

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wing phalanx of a bustard from 45 in room 9. Measurements taken on the bird bones are listed in archive.

12.2.4 Fish Fish remains are numerous, 1923 specimens. The majority of these are indeterminate fin rays and other small fragments, as is typical of material that includes sieved samples, but 457 bones were identified to taxon and include at least 16 species. Several of the fish represented in the material come from families with many similar species, some of the anatomical elements are diagnostic but others are less easily distinguished to species and in some cases the bones have been recorded only to family level. Numerically, the most common remains are of Clupeid fish (herrings, sardinellas and shads) but these small bones are mainly from sieved samples of a deposit in room 8 and another deposit in room 6 (Table 6). There are about 18 Clupeids in the area (Carpenter et al 1997) and it was not possible to identify the exact species. The next most frequent remains are of seabreams and are more evenly distributed across the site in small numbers. At least two different fish are present; Rhabdosargus sp. and Argyrops sp. Rabbitfish, Siganus sp., are also quite well distributed while the more numerous bones of mullets came mostly from a deposit in room 9, and these are probably from a single fish. Other fish that were found in several loci are groupers, mackerels/tunas and emperors. The groupers and emperors were not identified beyond the family level, the majority of the mackerel bones match Scomberomorus sp. A further five Scombrid bones can be identified as being of the related tunas. Several other fish occur as a few bones only; shark, sea catfish, needlefish, flathead, jack, silverbiddies and parrotfish. The bone elements found of the more frequent taxa indicate that most arrived as whole fish (Table 7). Butchery marks are very rare, probably in part because several of the fish species are small enough to be prepared and eaten with no or minimal butchery. Of the larger fish, two Scomberomorus vertebrae had been chopped across and a catfish head had been chopped diagonally across the prefrontal bone. Traces of burning are restricted to one charred fin ray and a small indeterminate vertebra that has been calcined. The fish have all been identified from other sites in Qatar and the Gulf area (Beech 2001, 2002, 2003, Russ & Petersen 2013); seabreams, emperors, groupers and the scombrids are often frequent while the smaller taxa such as the clupeids and silverbiddies are dependant on sieving for their recovery.

12.2.5 Other marine taxa In addition to the fish bones a few remains of crabs were found in room 8 and trench 3, and a fragment of turtle carapace was recovered from room 12.

12.2.6 Phase comparison There are some differences in the assemblage between the two phases, although these are difficult to interpret as the two samples are so different in size. Butchery marks are more frequent in the later phase but other traces, such as gnawing and burning, are so few in either phase that any differences may be artefacts of sample size. The general condition of the bone is better in the later phase and there are fewer fragments that were not identified. Sheep and goat bones, and also the indeterminate material of this size, are more than twice as frequent in the later phase. Bird bones (almost all domestic fowl) are also more common. The larger animals such as cattle are too few to see any true difference but they are also more common in the later phase. These apparent increases are related to the amounts of fish and indeterminate mammal fragments, which are fewer in the later group. The better condition of the later material should result in higher frequencies of the smaller bones, which is true for the caprines and birds but fish are actually less frequent. The sample size is much smaller for the later material and, therefore, presence or absence of taxa in individual small deposits can bias the overall results.

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12.3 Discussion This is a relatively small assemblage but important as it gives the first faunal dataset from the early 20th century development of this part of Doha.

Most archaeozoological assemblages reported from Qatar have been from prehistoric sites (see Beech 2002). Late Islamic material is currently being analysed from recent and ongoing excavations at Rubayqa (Russ & Petersen 2013) and Ruwayda (Russ pers. comm.) in northern Qatar. Results are preliminary but similar taxa have been identified from these sites, though in varying proportions. At Rubayqa for example the bird bones are mainly of cormorant rather than domestic fowl. The fish assemblage there is numerically dominated by seabreams followed by emperors and then groupers, needlefish and sea catfish. There are a few species that are present there and not in the Radwani assemblage and vice‐versa, but both assemblages are quite small and larger assemblages are needed to confirm these differences. The most frequent catches reported in recent data include emperors, groupers, jacks, mullets and mackerels (Sivasubramaniam & Ibrahim 1982, 1983, 1984). These data are from the commercial fleet and do not include small‐scale and personal fishing (Al‐Ansi & Priede 1996), which may explain some differences; rabbitfish for example are mainly caught using intertidal traps.

The majority of the meat supply, as represented by this small sample of bones, was from goat and sheep. A few bones are from very young animals but the majority are from full size but relatively young prime adults, some quite large. The few cattle bones include those of calves and adults, probably including small females. The calves could represent veal or mortalities from cows kept for milk; as the calf bones were not butchered and the cattle bones are few in number their usage is unclear. Some of the cattle‐sized rib and vertebral fragments were chopped, indicating that at least some beef was consumed. None of the rarely found camel and equid remains has butchery marks and so it is not possible to tell whether these were eaten. Some of the chicken bones were cut and the medullary deposits and eggshell fragments indicate that hens were present. The exploitation of wild resources, other than fish, is restricted to one bone of gazelle and one of bustard. Although neither has cut marks it is assumed that these found their way to the site as a result of hunting. Marine resources include a turtle and some crab remains as well as a good variety of fish, all still common in the Arabian Gulf today. The larger fish were probably prepared as portions after removal of the head while the small ones were presumably presented entire, perhaps just gutted. Fish and fishing continue to be an important economic activity and food resource thoughout the area.

12.4 References

Al‐Ansi, M. and Priede, I.G. (1996) Expansion of fisheries in Qatar (1980–1992): growth of an artisanal fleet and closure of a trawling company, Fisheries Research, 26, Issues 1–2, pp 101‐ 111

Beech, M. (2001) In the Land of the Ichthyophagi: Modelling fish exploitation in the Arabian Gulf and Gulf of Oman from the 5th millennium BC to the Late Islamic Period. DPhil thesis ‐ Departments of Archaeology and Biology, University of York, U.K.

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Beech, M. (2002) Fishing in the ‘Ubaid: a Review of Fish‐bone Assemblages from Early Prehistoric Coastal Settlements in the Arabian Gulf. Journal of Oman Studies 12: pp 25‐40

Beech, M. (2003) The development of fishing in the : a zooarchaeological perspective. In (D.T. Potts, H. Naboodah and P. Hellyer), Archaeology of the United Arab Emirates: Proceedings of the First International Conference on the Archaeology of the UAE, Trident Press Ltd., London, pp 289‐308.

Boessneck, J. (1969) Osteological Differences between Sheep (Ovis aries Linné) and Goat (Capra hircus Linné) in (D. Brothwell and E.S. Higgs) Science in Archaeology, London, Thames and Hudson, pp 331‐358

Carpenter, K. E., Krupp, F., Jones, D.A., Zajonz, U. (1997) The living marine resources of Kuwait, Eastern Saudi Arabia, Bahrain, Qatar, and the United Arab Emirates. FAO species identification guide for fishery purposes. Rome, FAO

Driesch, A. von den (1976) A guide to the measurement of animal bones from archaeological sites, Peabody Museum Bulletin 1, Peabody Museum of Archaeology and Ethnology, Harvard University, Cambridge Massachusetts

Driesch, A. von den and Boessneck, J. (1974) Kritische Anmerkungen zur Widerristhöhenberechnung aus Längenmaßen vor‐ und frühgeschichtlicher Tierknochen, Säugetierkundliche Mitteilungen 22, München, pp 325‐348

Driver, J. C. (1982) Medullary bone as an indicator of sex in bird remains from archaeological sites. In (B. Wilson, C. Grigson and S. Payne) Ageing and Sexing Animal Bones from Archaeological Sites, British Archaeological Reports (British series), Oxford, 109, pp 251‐254

Grant, A. (1982) The use of tooth wear as a guide to the age of domestic ungulates. In (B. Wilson, C. Grigson and S. Payne) Ageing and Sexing Animal Bones from Archaeological Sites, British Archaeological Reports (British series), 109, Oxford, p 251‐254

Halstead, P. and Collins, P. (2002) Sorting the Sheep from the Goats: Morphological Distinctions between the Mandibles and Mandibular Teeth of Adult Ovis and Capra, Journal of Archaeological Science, 29, 545‐553

Morales, A. & Rosenlund, K. (1979) Fish Bone Measurements, Steenstrupia, Copenhagen

Moran N.C. and O’Connor T.P. (1994) Age attribution in domestic sheep by skeletal and dental maturation: a study of available sources. International Journal of Osteoarchaeology 4, pp 267‐285

Payne S. (1985) Morphological distinctions between the mandibular teeth of young sheep, Ovis, and goats, Capra. Journal of Archaeological Science, 12, London, p 139‐147

Russ H. and Petersen A. D. (2013) Fish and fishing during the late Islamic period at Rubayqa, northern Qatar: preliminary results. Proceedings of the Seminar for Arabian Studies 43, pp 1‐ 8

Sivasubramaniam K. and Ibrahim, M.A. (1982a) Common Fishes of Qatar. Scientific Atlas of Qatar 1, Doha Modern Printing, Doha, Qatar

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Sivasubramaniam K. and Ibrahim, M.A. (1982b) Demersal fish resources around Qatar, Qatar Univ. Sci. Bull., 2, pp. 305–352

Sivasubramaniam K. and Ibrahim, M.A. (1983) Pelagic fish resources and their fishery around Qatar, Qatar Univ. Sci. Bull., 3, pp. 297–327

Sivasubramaniam K. and Ibrahim, M.A. (1984) Fisheries in Qatar—Past, Present and Future Development Possibilities, Al‐ahlia P. Press, Doha, Qatar

Zeder M.A. (2002) Reconciling Rates of Long Bone Fusion and Tooth Eruption and Wear in Sheep (Ovis) and Goat (Capra). In (Ruscillo D.) Recent Advances in Ageing and Sexing Animal Bones, BAR Oxbow, pp 87‐118

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Taxon NISP equid, cf. donkey, Equus cf. asinus 1 equid, indeterminate, Equus sp. 2 camel, Camelus sp. 1 cattle, Bos taurus 10 sheep/goat, Ovis/Capra 158 sheep, Ovis aries 14 goat, Capra hircus 38 gazelle, Gazella sp. 1 large mammal, cattle‐sized 26 large mammal, camel‐sized 2 large mammal, sheep‐sized 202 mammal, indeterminate 184 rat, Rattus sp. 1 small mammal, indeterminate rat‐sized 7

domestic fowl, Gallus gallus 34 bustard, Chlamydotis undulata 1 pigeon, domestic/rock, Columba livia 1 bird, indeterminate 18

turtle, Chelonia 1

shark/ray, Chondrichthyes 1 herring family, Clupeidae 220 sea catfish, Ariidae, Arias gigas 2 needlefish, Belonidae, Tylosaurus sp. 4 flathead, Platycephalidae, Platycephalus sp. 2 groupers, Serranidae 27 jacks, Carangidae, cf. Scomberoides sp. 1 emperors, Lethrinidae 28 seabream, Sparidae, cf. Rhabdosargus sp. and Argyrops sp. 61 grey mullets, Mugilidae 50 silverbiddies, Gerreidae, Gerres sp. 2 parrotfish, Scaridae 4 tunas, Thunninae, Katsuwonus/Sarda/Thunnus sp. 5 king mackerels, Scomberomorinae 9 rabbitfish, Siganus sp. 41 total identified fish 457 fish, indeterminate 1466

crab, indeterminate 3

Total 2628

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13. Appendix C – Radwani House: Preliminary Specialist Report on Botanical Remains Dr Mary Anne Murray

Botanical samples taken during the Radwani House excavation have yielded evidence of diet, agriculture, imported foods and other uses of organic material in Old Doha. A three‐barreled flotation machine was used to separate the plant remains from soil samples collected from the excavation trenches. The plant remains were then sorted and examined under a microscope.

The botanical study is ongoing but initial results have already yielded dietary data, including evidence for wheat, barley, date, grape and melon, as well as the presence of possible medicinal plants (Cordia myxa – the Egyptian plum).

14. Appendix D – Radwani House: Preliminary Specialist Report on Wood Charcoal Dr Rainer Gerisch

In May 2013, microscopic examinations were begun on samples of wood charcoal, which were obtained from soil samples collected during the excavations at the site of ODQ22 in the city of Doha. They supplement the identifications of plant remains made by M.A. Murray, University College London. Previous works by the author were done at sites in Egypt, on material from Syria, and on woods used for traditional ships and boats along the African and Arabian coast.

The objectives of the study are to determine the taxonomic composition of the samples in order to contribute to the reconstruction of the past woody vegetation, to provide infor‐ mation on the use and selection of wood‐based fuels for domestic fires, assess the human impact on the shrub and tree cover, supplement the history of locally cultivated plants, and to find indications for trade relations in cases of imported wood through re‐used ship and building timbers. With regard to the contextual data, possible differences in the charcoal assemblages of the two occupation phases and between context classes should be observed. The examinations are complemented by the study of old photographs of Doha and written sources.

The charcoal remains were recovered by the use of a flotation machine carried out by M.A. Murray, and in a few cases through hand selection/dry sieving. They were embedded in occupation deposits and fills of the two domestic buildings and comprise 33 samples, which also include a small amount of uncharred wood. The size of the charcoal pieces ranges from medium large to very small and tiny. The stratigraphical assignment shows that two thirds of the samples were obtained from soil units of Phase 1, one third of those from Phase 2. Samples with larger contents are: No. 7, Context 39, Room 12; No. 10, Context 83, Room 8; No. 12, Context 67, Room 8; No. 39, Context 197, Trench 3 from Phase 1 and No. 14, Context 16, Room 9 from Phase 2.

The material is analysed with a Euromex binocular microscope at magnifications of 40 and 80 and with a high power Euromex reflected light microscope (60‐500). Pieces are fractured by hand in the transverse, tangential and radial planes, or already existing breaks are used to observe the wood anatomical features. The charcoal is compared with

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anatomical atlases, databases, and a reference collection. For documentation, the pieces of each taxon in the sample are counted and its volume and weight measured.

Only a few species, which belong to the native flora of Qatar have an arboreal growth form, most of them also occur as shrubs: Acacia ehrenbergiana, A. tortilis subsp. tortilis, Avicennia marina, Calotropis procera, Haloxylon persicum, Leptadenia pyrotechnica, Prosopis cineraria, and Ziziphus nummularia (Lycium shawii, Salvadora persica, Tamarix passerinoides and T. ramosissima in other countries also as small trees) (Batanouny, K.H., Ecology and flora of Qatar, 1981; Norton, J. et al., An illustrated checklist of the flora of Qatar, 2009), many other were introduced in the course of the urban and rural development: fruits trees, Acacia nilotica, Albizia lebbeck, Bauhinia variegata, Casuarina equisetifolia, Conocarpus lancifolius, Delonix regia, Dodonaea viscosa, Nerium oleander, Prosopis juliflora, Sesbania sesban etc. They are distributed together with other woody species and herbs in littoral salt marshes, in wadis and depressions as well as along roadsides, in gardens, parks and on agricultural land. Among charcoal analyses on material from the Arabian Peninsula are those by M. Tengberg (several sites / Oman, United Arab Emirates, Bahrain), R. Gale (Saar / Bahrain), and R. Neef (Tayma oasis / Saudi Arabia).

Preliminary examinations of the charcoal assemblages revealed 20 taxa, among which are: Acacia nilotica, Acacia sp., Avicennia marina, Lycium shawii, Palmae, Pinus sp., Prunus sp., Rhamnus/Phillyrea sp., Rhizophora/Bruguiera sp., Tamarix sp., and Ziziphus sp. The trees and shrubs provide fuel, timber, fruits, shade, and sand protection and served for decorative purposes; well represented is charcoal from acacia wood. Vitis vinifera, which could be identified from seed remains has not been found yet.

Acacia ehrenbergiana and A. tortilis subsp. tortilis are common trees and shrubs which grow in depressions and wadis. Tamarix aphylla, T. passerinoides, and T. ramosissima occur on saline grounds, T. aphylla also around cultivated depressions. Ziziphus nummularia grows wild in depressions, and Z. mauritania and Z. spina‐christi are cultivated. Avicennia marina is the only mangrove species found on the eastern coast of Qatar; Rhizophora mucronata occurs along the shores of East Africa, Saudi Arabia, Yemen, Oman, and India, Bruguiera gymnorrhiza of East Africa and India. Pine species with window‐like tracheid to ray pits are P. nigra and P. sylvestris, which are distributed in Europe and Asia.

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15. Appendix E – Radwani House: Context List

Context number Description Location 1 levelling dump R12 2 floor R12 3 floor R12 4 demolition layer RM9 5 occupation deposits R12 6 occupation deposits R12 7 fill of [82] R12 8 occupation deposits R12 9 demolition layer RM9 10 unstratified finds from Room 8 RM8 11 demolition layer RM8 12 demolition layer RM8 13 fill of [14] RM9 14 cut ‐ probably for modern pipe RM9 15 traditional wall RM8 16 wall collapse RM9 17 rubble layer RM8 18 fill of [28] RM12 19 dump / levelling deposit RM12 20 unstratified finds from Room 9 RM9 21 unstratified finds from Room 10 RM10 22 unstratified finds from Room 12 RM12 23 unstratified finds from Room 14 RM14 24 unstratified finds from Room 7 RM7 25 traditional wall RM9 26 construction backfill associated with wall 26 in cut [27] RM9 27 construction cut for wall 27 RM9 28 cut ‐ possible re‐plastering event RM12 29 internal surface RM8 30 occupation deposits RM8 31 cement floor RM9 32 wall render RM8 33 void ‐ same as (41) RM8 34 fill of soakaway [53] RM9 35 fill of [36] RM8 36 cut ‐ possible re‐plastering event RM8 37 surface RM8 38 occupation deposits RM12 39 make up / levelling dump RM12 40 wall render RM12 41 crushed limestone floor RM8 42 floor RM8 43 fill of 44 RM9 44 robber cut RM9 45 floors / occupation deposits RM9 46 traditional wall RM9 47 traditional wall RM9 48 fill of 127 RM8

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Context number Description Location 49 loose deposit of silty sand RM8 50 series of floors RM12 51 primary fill of soakaway [53] RM9 52 stone lining of soakaway RM9 53 cut for soakaway RM9 54 floor RM9 55 floor ‐ same as 54 RM9 56 cement floor RM9 57 bedding layer for surface 56 RM9 58 laminated floors RM9 59 cement drainage feature RM9 60 traditional wall RM9 61 wall RM9 62 cement drainage feature RM9 63 cut for drain RM9 64 traditional wall RM9 65 levelling dump RM9 66 levelling dump RM9 67 mixed occupation deposit RM12 68 wall render RM12 69 wall RM12 70 limestone dump RM12 71 ashy layer RM12 72 fill of 73 RM9 73 Cut RM9 74 fill of [75] RM9 75 cut RM9 76 occupation deposits RM9 77 wall render RM12 78 wall RM12 79 wall RM12 80 natural RM12 81 natural RM9 82 possible re‐plastering cut RM12 83 floor layer RM12 84 wall RM8 85 wall RM8 86 linear cut RM8 87 concrete surface RM8 88 rubble footing RM9 89 cut RM9 90 make up / levelling dump RM9 91 cement floor RM9 92 rubble make up layer RM9 93 cement render ‐ drain. Fill of [94] RM9 94 cut for drain RM9 95 wall render RM9 96 wall render RM9 97 wall RM12 98 wall render RM12

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Context number Description Location 99 laminated floors RM8 100 fill of [101] RM8 101 posthole RM8 102 fill of [103] RM8 103 posthole RM8 104 fill of [104] RM8 105 small pit cut RM8 106 sandy layer RM8 107 ashy layer RM8 108 fill of [109] RM8 109 pit cut RM8 110 natural RM8 111 threshold? RM8 112 construction packing RM8 113 Concrete step RM8 114 construction packing RM8 115 void RM8 116 levelling layer RM8 117 stone lining of soakaway RM8 118 construction cut for soakaway (117) RM8 119 levelling for surface RM10 120 surface / floor RM10 121 wall render RM8 122 silty sand later RM10 123 make up / levelling dump RM10 124 fill of [125 RM8 125 posthole or small pit RM8 126 well RM8 127 construction cut for well (126) RM8 128 wall render RM8 129 unstratified finds form company house CH 130 charcoal rich layer RM10 131 levelling above natural RM10 132 natural RM10 133 fill of [134] RM10 134 modern cut RM10 135 concrete lined setting for drain RM10 136 concrete floor RM10 137 concrete floor RM10 138 rubble make up layer RM10 139 concrete floor RM10 140 bath RM10 141 concrete floor RM10 142 wall RM10 143 well and plinth RM10 144 drain CH 145 well CH 146 well CH 147 modern gypsum surface TR1 148 modern made ground TR3

149

Context number Description Location 149 modern made ground TR3 150 circular planter TR3 151 made ground ‐ probably modern TR3 152 modern concrete TR1 153 modern concrete TR2 154 made ground ‐ probably modern TR3 155 compact surface TR2 156 demolition layer ‐ same as 160 TR1 157 courtyard surface TR3 158 floor surface TR1 159 wall TR1 160 demolition layer ‐ same as 156 TR1 161 dirty surface over natural TR2 162 fill of [163] TR2 163 pit cut TR2 164 modern levelling TR4 165 modern levelling TR4 166 Unstratified layer in room 6 RM6 167 loose midden like layer ‐ disturbed RM6 168 stony fill of soakaway [169] RM6 169 cut for soakaway RM6 170 wall RM6 171 compact surface RM6 172 wall TR1 173 deposit between walls 172 and 159 TR1 174 fill of soakaway [169] RM6 175 concrete base of soakaway [169] RM6 176 fill of soakaway [169] RM6 177 compact surface TR1 178 wall TR1 179 fill of drain cut [185] TR1 180 demolition rich levelling layer TR4 181 cap of drain [185] TR1 182 stone lining of soakaway [169] RM6 183 fill of drain in cut [185] TR1 184 cement drain in cut [185] TR1 185 Cut for drain TR1 186 charcoal rich layer TR4 187 demolition / levelling TR4 188 fill of [189] TR1 189 probable re‐plastering cut TR1 190 compact surface TR1 191 VOID TR4 192 wall TR4 193 charcoal rich layer TR3 194 compact surface RM6 195 ashy layer TR3 196 coarse make up layer TR3 197 ashy layer TR3 198 natural TR3

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Context number Description Location 199 fill of [200] TR3 200 posthole TR3 201 wall RM6 202 fill of [203] RM6 203 Large modern construction cut for existing walls RM6 204 modern disturbance TR4 205 fill of [206] TR4 206 shallow pit cut TR4 207 rubble make up layer TR1 208 sterile layer over natural TR1 209 fill of [210] TR1 210 construction cut for wall 172 TR1 211 mortar surface TR4 212 black layer TR4 213 fill of [215] TR1 214 fill of [215] TR1 215 posthole TR1 216 fill of [218] TR1 217 fill of [218] TR1 218 posthole TR1 219 wall TR1 220 wall RM6 221 natural TR4 222 fill of [223] TR1 223 robber cut TR1 224 fill of [225] TR2 225 construction cut TR2 226 truncated wall TR2 227 surface TR1 228 surface TR1 229 surface TR1 230 surface TR1 231 surface TR1 232 make up / levelling dump TR1 233 make up / levelling dump TR1 234 fill of drain cut for [185] TR1 235 wall TR1 236 wall render TR1 237 wall render TR1 238 floor surface TR1 239 wall render RM6 240 wall render RM6 241 wall render RM6

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16. Appendix F: Radwani House: Finds List Pottery, bone and botanical remains are not included below but are subjected to specialist study.

left Find or for Context Conservation Photo Object bag Cons Material Quantity Weight Description number number number Type number July 2013 1 51 No IMG_0876 glass marble 2 12.8 two marbles, one green, one milky blue 2 51 No IMG_0877 plastic other 1 red plastic rawl plug coated with white plaster 3 51 No IMG_0878 bone other 1 chicken bone 4 71 No IMG_0879 glass bulk glass 4 3 fragments thin flat clear glass with whitish patina, one fragment green glass 5 76 No 62 IMG_0932 glass bulk glass 7 8.7 2 small fragments of thin clear glass with whitish patina 6 50 No IMG_0881 glass bulk glass 3 3 1 fragment of bottle body or shoulder clear glass with whitish patina, 1 small fragment clear glass with patina, 1 fragment green glass 7 83 No 54 IMG_0908 glass bulk glass 16 135 notable pieces include green bottle top and bottom, a square pale green box frag, a clear turquoise moulded piece in art deco style 8 51 No IMG_0883 glass bead 2 tiny donut shaped bead of pale opaque blue glass; plus small fragments of red tubular bead 9 29 No IMG_0884 ceramic bead 1 small broken bead, originally barrel‐shaped, of ceramic or fine brown stone, glazed or painted in black 10 3 No 67 IMG_0909 glass bulk glass 2 21.1 2 clear glass sherds 11 8 No 45 IMG_0910 glass bulk glass 3 10.7 1 small brown bottle, 1 clear turquoise moulded, 1 white 12 9 No 46 IMG_0912 glass bulk glass 1 10.4 1 clear flat glass 13 10 No 47 IMG_0913 glass bulk glass 1 0.7 blue sherd 14 10 No 47 IMG_0915 glass bangle 1 0.9 blue moulded(?) bangle frag 15 12 No 37 IMG_0916 glass bead 2 0.3 1 red glass tubular section, one opaque orange‐red subcircular bead 16 17 No 48 IMG_0917 glass bulk glass 1 6.3 clear sherd 17 20 No 49‐50 IMG_0918 glass bulk glass 2 11.3 1 clear sherd one moulded turquoise 18 22 No 59 IMG_0919 glass bangle 2 1.4 bangle frag of clear glass with blue backing; plus fine

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left Find or for Context Conservation Photo Object bag Cons Material Quantity Weight Description number number number Type number July 2013 blue bangle frag or poss segment of curved tubular bead 19 22 No 59 IMG_0920 glass bulk glass 5 23.6 mix of clear and green glass; clear glass bottle shoulder with gold 20 24 No 58 IMG_0921 glass bulk glass 1 44.1 green bottle top and neck, quite uneven 21 34 No 63 IMG_0923 glass marble 1 5.6 opaque white and green swirls 22 38 No 66, 69 IMG_0924 glass bulk glass 3 46.8 2 green, 1 clear with moulded shape 23 39 No 70 IMG_0925 glass bulk glass 5 16.1 3 clear, one is top of an oil lamp? 24 41 No 64 IMG_0927 glass bulk glass 4 7.7 2 green, one blue, one brown 25 42 No 65 IMG_0928 glass bulk glass 2 9.2 one clear flat greenish, one thin curved "old looking" 26 45 No 51 IMG_0933 glass bulk glass 29 74.6 mainly thin curved "old looking" but also small green base, clear bottle frags and moulded turquoise lid(?) fragment 27 47 No 60 IMG_0929 glass bulk glass 2 16.3 one clear white moulded, other clear small bottle with gold 28 66 No 61 IMG_0930 glass bulk glass 2 48.3 one small clear frag, one brown bottle with ...PPON BE... (Nippon Beer) 29 21 No 53 IMG_0934 glass perfume 1 16.4 one small clear perfume bottle bottle 30 242 No IMG_0935 glass bulk glass 4 17.2 various enamelled pieces, and a narrow tubular screwtop lid 31 107 No 56 IMG_0936 glass marble 1 5.9 clear green marble, a chunk knocked off 32 108 No 44 IMG_0937 glass bulk glass 7 11.3 opaque white plus various small pieces 33 122 No 57 IMG_0938 glass bulk glass 1 7.8 dark olive green 34 160 No IMG_0939 glass bulk glass 9 164.5 2 small bottle bases, one with indented pattern, turquoise moulded piece, and other bits 35 160 No IMG_0940 glass bangle 1 0.4 fine green glass bangle 36 162 No IMG_0941 glass bulk glass 5 6.8 clear thin frags 37 166 No IMG_0942 glass bulk glass 5 72.9 large brown bottle frag, opaque white and green and clear 54 12 Yes 31 IMG_1025 ceramic stamped 1 14.8 Broken soft brown clay tablet tablet, probably originally arched shape, impressed on one side with delicate

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left Find or for Context Conservation Photo Object bag Cons Material Quantity Weight Description number number number Type number July 2013 design and script. Probably a Shia prayer tablet from somewhere like Karbala 55 166 Yes IMG_1029 stone incense 5 260 incised incense burner of burner soft fine white limestone. One large piece and 5 smaller. Main part is broken at top and bottom, top part is conical and incised. Ashes still adhering to the bowl. Also a sherd of same from context 171, included in this finds record. Recorded weight refers to main piece; total with small pieces is 360 56 83 No IMG_1032 bitumen impressed 1 10.2 thin piece of hard bitumen, bitumen impressed on one side with some kind of fabric or woven surface 57 7 Yes 38 IMG_1035 metal coin 1 4.2 bronze coin, Saudi 25 halala, with near‐legible date, almost certainly 139..., cf. Faisal bin Abdul design not Khalid bin Abdul Aziz so some time between 1970‐1976. Date might be legible after conservation. 58 119 No 41 IMG_1040 metal object 1 2.5 circular metal alloy disc with several component parts. Perhaps the end of a large‐calibre bullet cartidge, less likely the end of a battery 59 41 No 36 IMG_1042 shell button 1 0.4 small mother‐of‐pearl button with double piercing. Nacre visible on one side and white and brown ridging not completely polished off on the other 60 21 Yes 39 IMG_1044 metal coin 1 1.9 small corroded bronze coin 61 174 No IMG_1046 electrics light bulb 1 20.8 broken light bulb with thick glass stem inside 62 151 No IMG_1047 electrics light bulb 2 9.1 thick glass stem of broken bulb, plus the broken bottom part 63 174 No IMG_1048 electrics bakelite 1 6.9 brown disc‐shaped casing, casing probably for light fitting 64 151 No IMG_1049 electrics bakelite 2 4.8 2 parts of black disc‐shaped casing casing, probably for light fitting. Early plastic? Bakelite? Degraded. 65 300 No 29 IMG_1050 bone bulk bone 3 52.4 sheep/goat jaw plus loose tooth and another bone

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left Find or for Context Conservation Photo Object bag Cons Material Quantity Weight Description number number number Type number July 2013 66 30 No 32 botanical mixed 9 2.3 mix of wood charcoal, botanicals wood, husks from date stones(?) 67 160 No IMG_1051 shell bulk shell 2 99.4 large P. margaritifera shell plus small bivavle shell too 68 8 No IMG_1053 shell bulk shell 1 22.9 P. radiata shell ‐ pearl oyster 69 232 No IMG_1054 shell bulk shell 9 64.1 7 small P. radiata shells ‐ pearl oyster, plus another bivalve and sea‐worm cast 70 83 No shell bulk shell 4 73.4 mixed shell 71 162 No shell bulk shell 9 35.4 mixed shell 72 108 No shell bulk shell 3 62.1 mixed shell 73 46 No shell bulk shell 22 4 tiny mixed shell from flotation residue 74 222 No shell bulk shell 3 9.1 small P. radiata 75 194 No shell bulk shell 3 15 mixed shell 76 171 No shell bulk shell 1 3.6 small P. radiata 77 42 No shell bulk shell 1 1.2 shell 78 233 No shell bulk shell 1 26.5 shell 79 39 No shell bulk shell 26 8 tiny mixed shell from flotation residue 80 183 No shell bulk shell 31 1.8 tiny mixed shell from flotation residue 81 108 Yes 43 IMG_1055 textile textile brown textile, many pieces 82 39 Yes 35 IMG_1056 textile textile fine textile with green metal thread, partly conserved 83 8 Yes 33 IMG_1058 textile textile fine dark brown textile, red also visible, also green (from metal thread?) 84 83 Yes 34 IMG_1059 textile textile brown textile 85 188 Yes IMG_1060 textile textile yellow and green textile 86 194 Yes IMG_1061 textile textile red and green textile, woven into a tumb‐shaped lump 87 233 Yes IMG_1062 textile textile belt‐shaped strip of textile 88 1 No 73 metal bulk metal 1000 guessed weight. Large corroded iron stake and pieces 89 19 Yes 40 IMG_1063 metal copper 1 10.5 curved copper object with object polygonal terminal ‐ like a bracelet but also has attachment rings on one side 90 22 Yes 100 IMG_1064 metal gun 1 10.4 most of a gun cartridge, cartridge perhaps .303 94 30 No 76 metal bulk metal 28.4 corroded iron 95 37 No 77 metal bulk metal 2 16 corroded iron ‐ 2 parts of a with nail nail 96 38 No metal bulk metal 4.4 corroded iron

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left Find or for Context Conservation Photo Object bag Cons Material Quantity Weight Description number number number Type number July 2013 97 38 No metal bulk metal 64.1 corroded iron 98 39 No 78 metal bulk metal 1 21 corroded iron ‐ part of a with nail nail 99 41 No 79 metal bulk metal 77.4 corroded iron, incl nails with nail 100 42 No 80 metal bulk metal 53.1 corroded iron, incl nails with nail 101 42 No 99 IMG_1065 metal handle 1 41.6 copper alloy handle for a drawer or similar 102 45 No 81 metal bulk metal 2 8 corroded iron, perhaps part of blade plus small nail end 103 46 No metal bulk metal 2 7.4 corroded iron nail with nail 104 50 No metal bulk metal 2 1.4 corroded iron 105 51 No metal bulk metal 1 corroded iron and copper 106 58 No metal bulk metal 6.2 corroded iron 107 66 No 82 metal bulk metal 15 corroded iron 108 67 No metal bulk metal 7.8 corroded iron 109 70 No 83 metal bulk metal 19.7 corroded iron 110 71 No metal bulk metal 20.2 corroded iron 111 74 Yes 85 IMG_1066 metal bulk metal 3.7 corroded copper fragments ‐ apparently a mesh or textile 112 76 No metal bulk metal 37.9 corroded iron 113 83 Yes 103 IMG_1067 metal padlock 1 31.1 copper alloy padlock 114 83 No 86 metal bulk metal 106.1 corroded iron 115 87 Yes 71 IMG_1070 metal drain 1 2000 copper alloy drain cover, cover dia 19, pierced. Weight is amn estimate 116 35 Yes 42 IMG_1072 metal nail 6 33.6 corroded iron nail, conserved 117 99 No 87 metal bulk metal 11 corroded iron 118 102 No 88 IMG_1073 metal bulk metal 5 58 corroded iron nails with nail 119 8 No metal bulk metal 10.6 corroded iron 120 107 No 89 metal bulk metal 24.1 corroded iron 121 108 No 90 metal bulk metal 36.4 corroded iron 122 174 No metal bulk metal 269.5 corroded iron, including at with nail least 2 tin cans, iron ring, nail 123 151 No metal bulk metal 2 24.4 corroded iron ‐ nails with nail 124 156 Yes IMG_1068 metal copper 1 2.2 thin copper rod rod 125 156 Yes IMG_1069 metal bulk metal 1 169.5 massive iron nail head with nail 126 161 No ?? metal bulk metal 6.2 corroded iron 127 162 Yes IMG_1074 metal gun 1 10.5 heavily encrusted but cartridge whole gun cartridge, resembles .303

156

left Find or for Context Conservation Photo Object bag Cons Material Quantity Weight Description number number number Type number July 2013 128 192 No metal bulk metal 213.2 corroded iron 129 167 No metal bulk metal 15.7 corroded iron ‐ nail with nail 130 171 No metal bulk metal 4.3 corroded iron 131 176 No metal bulk metal 3 15.5 corroded iron nails with nail 132 177 No metal bulk metal 16.5 corroded iron 133 183 No metal bulk metal 4.2 corroded iron 134 186 No metal bulk metal 18.2 corroded iron 135 193 No metal bulk metal 7.4 corroded iron 136 194 No metal bulk metal 72.1 corroded iron 137 197 No metal bulk metal 6.2 corroded iron 138 209 No metal bulk metal 0.3 scraps of copper 139 212 No metal bulk metal 8.7 corroded iron 140 222 No metal bulk metal 11.6 corroded iron and copper 141 230 No metal bulk metal 42 corroded iron ‐ nail with nail 142 232 No metal bulk metal 60.7 corroded iron plus copper loop 143 233 No metal bulk metal 29.6 corroded iron 144 119 No metal bulk metal 337.7 corroded iron ‐ incl large with nail flat pieces, nail head 145 232 Yes IMG_1077 metal object 1 23 2 joined cones of metal alloy, resembling binoculars. Probably a whistle 146 232 Yes IMG_1076 metal gun 1 9.8 most of a gun cartridge cf cartridge .303 147 242 Yes IMG_1075 metal padlock 1 117.1 corroded copper padlock with iron loop 148 242 No metal bulk metal 178 unstratified material ‐ nail, with nail copper wire, part of an iron pipe 91 22 No 74 metal bulk metal 81.5 corroded iron pieces, incl with nail some nails 92 29 No metal nail 1 0.5 small copper tack embeded in plaster 93 29 No 75 metal bulk metal 1 12 corroded iron 38 167 No IMG_0943 glass bulk glass 5 14.3 misc bits, 3 green 39 171 No IMG_0944 glass bulk glass 2 0.3 2 tiny frags 40 177 No IMG_0945 glass bulk glass 2 0.4 2 tiny frags 41 180 No 113 IMG_0946 glass perfume 1 13 one small clear perfume bottle bottle 42 177 No IMG_0947 glass bulk glass 4 23.6 incl cut glass or perhaps moulded 43 207 No IMG_0948 glass bulk glass 1 74 clear rectangular bottle, "Germany" stamped on bottom, plus other letters ("DE..E") 44 106 No IMG_0949 glass bulk glass 1 0.4 1 greenish frag

157

left Find or for Context Conservation Photo Object bag Cons Material Quantity Weight Description number number number Type number July 2013 45 222 No IMG_0950 glass bulk glass 1 16.8 moulded or cut, greenish 46 222 No IMG_0951 glass bangle 1 1.2 thin moulded glass bangle with gold‐ish coating 47 227 No IMG_0953 glass marble 1 7 corroded clear glass marble with blue swirl inside 48 227 No IMG_0954 glass bead 4 0.9 4 small black glass beads 49 227 No IMG_0955 glass bulk glass 2 1.8 1 opaque green handle (?) fragment, one orange‐ brown sherd 50 229 No IMG_0956 glass bulk glass 2 3.4 2 flat, clear 51 230 No IMG_0957 glass bulk glass 2 3.5 1 green, one turquoise 52 231 No IMG_0958 glass bulk glass 2 1.6 1 clear, one turquoise 53 232 No IMG_0959 glass bulk glass 7 18.9 misc bits of different colours

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