Special Volume 6 (2016): Space and Knowledge. Topoi Research Group Articles,
ed. by Gerd Graßhoff and Michael Meyer, pp. 250–305.
Hagan Brunke – Evelyne Bukowiecki – Eva CancikKirschbaum – Ricardo Eichmann – Margarete van Ess
– Anton Gass – Martin Gussone – Sebastian Hageneuer
– Svend Hansen – Werner Kogge – Jens May – Hermann
Parzinger – Olof Pedersén – Dorothée Sack – Franz
Schopper – Ulrike Wulf-Rheidt – Hauke Ziemssen
Thinking Big. Research in Monumental
Constructions in Antiquity
Edited by Gerd Graßhoff and Michael Meyer,
Excellence Cluster Topoi, Berlin
eTopoi ISSN 2192-2608
http://journal.topoi.org
Except where otherwise noted,
content is licensed under a Creative Commons
Attribution 3.0 License:
http://creativecommons.org/licenses/by/3.0
Hagan Brunke – Evelyne Bukowiecki – Eva Cancik-Kirschbaum –
Ricardo Eichmann – Margarete van Ess – Anton Gass – Martin Gussone – Sebastian Hageneuer – Svend Hansen – Werner Kogge – Jens
May – Hermann Parzinger – Olof Pedersén – Dorothée Sack – Franz
Schopper – Ulrike Wulf-Rheidt – Hauke Ziemssen
Thinking Big. Research in Monumental
Constructions in Antiquity
Ancient civilizations have passed down to us a vast range of monumental structures. Monumentality is a complex phenomenon that we address here as ‘XXL’. It encompasses a
large range of different aspects, such as sophisticated technical and logistical skills and
the vast economic resources required. This contribution takes a closer look at the special
interdependence of space and knowledge represented by such XXL projects. We develop
a set of objective criteria for determining whether an object qualifies as ‘XXL’, in order
to permit a broadly framed study comparing manifestations of the XXL phenomenon in
different cultures and describing the functional and conceptional role of the phenomenon
in antiquity. Finally, we illustrate how these criteria are being applied in the study of large
construction projects in ancient civilisations through six case studies.
Monumentality; XXL architecture; large technical infrastructure; Mesopotamia; Eurasia;
Rome.
1 Introduction1
What significance did extraordinary size – what we call the ‘XXL’ phenomenon – have for
the societies of the ancient world? This was the question that the scholars who initiated the
project XXL – Monumentalized Knowledge. Extra-Large Projects in Ancient Civilizations decided
to explore inspired by the vast temple complex at Baalbek (Lebanon). In many cases,
the monumentality that characterizes XXL projects is not confined to physical scale: the
creation of these unique phenomena involves a combination of great technical ingenuity, extraordinarily high levels of skill, the devotion of vast amounts of time to building
them, the type and range of the resources invested and the sheer size of the task. These
projects exceed, no, they explode through the normal dimensions, and by doing so they
evoke with exceptional clarity the engagement with space and materiality, with feasibility
and innovation in overcoming the apparent limits of the possible. Thus, XXL projects,
according to our thesis, embody the mutual interdependence of space and knowledge
in quite a special way. Two sets of questions guide our analyses: 1. Knowing How: What
factors define the different stages of the realization of XXL projects – both in terms of
their development within space and with respect to the mobilization and development
of technical and systematic knowledge – and how do they tie in with the history of ideas?
2. Knowing Why: What is it that leads a society to invest the vast amount of energy and
resources needed for a megaproject?
1
The present manuscript was submitted in summer 2014 as a preliminary summary of our research results
at that time. We have been unable to incorporate more recent results of the ongoing project.
Thinking Big. Research in Monumental Constructions in Antiquity
251
Our research group is investigating the XXL phenomenon with methodologies drawn
from archaeology, philology, the history of technology, cultural anthropology and historical scholarship – in a project that encompasses very different cultural spaces and very
different societies in the ancient world. The definition of the attribute ‘of extraordinary
size’ from the perspective of modern researchers is therefore of central importance for our
comparative approach. We have chosen to use the abbreviation ‘XXL’ as a way to express
the fact that in addition to being ‘large’ in a neutral sense, the phenomena in question
convey an impression of monumentality that hinges on other factors as well, such as their
proportions and the perspectives from which they are viewed. ‘XXL’ also allows us to avoid
a premature commitment to one genre classification, such as ‘monumental buildings’, and
therefore does not beg the question of what role an architectural structure played in its
culture.
This contribution focuses on the development of a common approach to the study of
XXL phenomena in the (re)construction of historical spaces. After providing an outline of
the terminological, conceptual and methodological premises and requirements, we will
turn to a description of the range of the XXL phenomenon in the ancient world with
regard to their functions and types of structures. We then discuss six case studies in order
to illustrate the way our research group is implementing the criteria it has developed
within our investigation of large architectural structures from antiquity.
2 Reflections on method, terminology and the concept of
monumentality
One recognition from the field of hermeneutics is that new knowledge is defined not
only by the object of knowledge itself, but also by the interpretational background against
which newly acquired information is positioned and understood. Part of what shapes our
understanding of ancient large structures is the way in which terms such as ‘monumentality’, ‘gigantism’, ‘colossal scale’ and ‘vastness’ relate to each other and how these terms
have been interwoven throughout their reception history (Wirkungsgeschichte). Below, we
examine the term ‘monumentality’ as a case in point.
People using the term ‘monumentality’who wish to distinguish it from ‘gigantism’, for
instance, often emphasize relational and proportional aspects to do so.2 A linguistic usage
that was quite common well into the 18th century continues to influence our reception of
this term today: the word ‘monument’(from the Latin monere: to admonish,warn,remind)
referred to memorials and sites of remembrance – initially with no connotation of size,
and not necessarily in relation to an architectural structure. Extraordinarily large structure
and classical perfection were not encompassed within the definition of ‘monumentality’
until the 19th century, when those aspects were introduced in the context of national
representation and historical legitimization. The aspect of the sacred3 , which is now also
2
3
“True monumentality is indeed not expressed in the size, but in the relationship to the figure of the
observer and, put in highly emotive terms, the inner imbuement [Durchdrungenheit ] of a work.” Küster
2009.
See Kuhlenkampff 1991; c.f. as an example, the formulation in Meyer 1938, 123: “Rather, the difference
between the monumental and the non-monumental is, across the board, of the same nature as the more
specific difference between the sacred and the profane. It is a difference in the tone, in the aspiration expressed in the composition, i.e., in the purely aesthetic, and one which has nothing to do with the external
material expenditure per se and does not depend on complexity in the use of forms [Formenaufwand ].
No matter how large silos and factory buildings: they may inspire feelings of awe, be overwhelming or
colossal, but by no means monumental for that reason, and conversely, the black serpentine paperweight
on the table of the director general can be monumental without being big. And the giant stadium or the
Hudson Bridge only become monumental when they manifest themselves externally as expressions of
state ideology, in addition to and outside the scope of their technical achievement, in other words, when
252
Hagan Brunke et al.
connoted by the term, relates to the concept of the ‘sublime’ developed in the aesthetics of
Kant, Herder, Paul and Schiller: in Kant’s definition, that “which is beyond all comparison
great”4 , and as “awe-inspiring greatness.”5
As ‘monuments’, the commemorative structures of the 19th century AD conveyed
national symbolism. The motif of the transcendence of temporal and spatial restrictions
implicit in this use of the term ‘monument’ was carried over into archaeological and art
historical research on large structures from the ancient world, and has therefore continued to be one of the most influential aspects affecting the reception of the word up to
the present day.6 Writing in 1943, Sigfried Giedion was able to summarize the modern
understanding of ‘monument’ in his Nine Points on Monumentality as follows:
Monuments are human landmarks, which men have created as symbols for their
ideals, for their aims, and for their actions. They are intended to outlive the period which
originated them, and constitute a heritage for future generations. As such, they form a
link between the past and the future.7
A great many of the national commemorative structures erected in the 19th century
were directly inspired by structures from antiquity, such as the Parthenon in the case of
the Walhalla memorial (1830–1842) in Bavaria. Thus, ‘monumentality’ was at first firmly
linked with the classical architectural form – to the direct reference to ‘monuments’, in
most cases of ancient Greek or Roman origin. In this respect, the relationship between
contemporary structures and the study of antiquity was always apparent:8 architecture
reflected the contemporary interest in the remains of large structures from the ancient
world. This interest was also expressed in the reconstructions of Roman, Greek and Egyptian ruins and the detailed views depicting such ruins.9 The situation was more complex
in the case of architecture though: new architecture drew inspiration from antiquity,
certainly, but it also entered into direct rivalry with the ancient ‘monuments’ and transplanted them to new urban contexts – for example, Washington, D.C., garbed in the
image of the Roman Capriccio, in the 19th century,10 or the design of Rome’s center,
where structures from antiquity were presented as monuments in ruins, set apart from
their urban context.11 In Rome one also encounters antique monuments juxtaposed to
modern monuments – at the Monumento Nazionale (‘il Vittoriano’, 1885–1927), which
was positioned directly adjacent to remains from the Roman era.12 In the 20th century,
monumental architecture opened itself up to new influences, whose origins lay outside
of the classical tradition – in architecture from the ancient Near East or pre-Columbian
America for instance13 – while expressionism elevated the monumental aspect and abstracted it, stripping it of its references to the past.14
4
5
6
7
8
9
10
11
12
13
14
they are emotionalized beyond their purely functional character by means of special activities, when they
are transposed into a quasi-sacred tone.”
Kant 1990, § 25.
Kant 1995, § 65.
See Ruhl 2011b.
Giedion, Léger, and Sert 1993.
Meyers 2012, 12–13.
For the Roman monuments, see Medici, beaux-arts, and Francia 1985.
Gampp 2011, 237–243.
Altekamp 2011.
Atkinson and Cosgrove 1998, 35.
The American architect H. W. Corbett took the Tower of Babel as a comparison for designs of highrises
in New York in the 1920s; in the same period he also planned the reconstruction of the Temple of
King Solomon, drawing on architectural historical studies of construction techniques in the ancient
Near East; E.J. Kahn, drew inspiration from Mayan step pyramids, which in his eyes symbolized an
indigenous American culture as a counterpole to European culture, also relying on information from
in-depth archaeological architectural studies: Magnago Lampugnani 2011, 165–16.
Ruhl 2011b, 27–29.
Thinking Big. Research in Monumental Constructions in Antiquity
253
Giedion’s 1943 manifesto, quoted above, marked a final break with the close connection between ancient and modern monumentality. It came toward the end of a period
in which the dictatorial regimes in Germany, Italy and the Soviet Union drew extensively
on a neoclassical, monumental language of forms. Mussolini devoted massive resources
to urban redesign, using ruins from antiquity as set-piece elements in the creation of his
fascist Rome;15 seven Stalinist skyscrapers erected in central Moscow during the 1940s and
1950s fundamentally transformed the cityscape;16 and Speer, planning to redesign Berlin,
envisaged an oversized domed structure at the northern end of a central military parade
axis.17 As a result of this instrumentalization of monumentality for political purposes and
the incorporation of monumental structures in designs intended to showcase totalitarian
power, the classical monument as an expression of architecture largely fell out of favor
after 1945. Giedion himself speaks of a pseudo-monumentality of the past that must be
replaced.18 A distinct ambivalence had entered into people’s view of monumentality in
architecture, even where there was no evocation of antiquity. It is true that some architects
– following Giedion’s manifesto – had begun searching for a ‘new monumentality’ in the
1940s. Indeed, in the 1950s, new monuments that adhered to Giedion’s principles were
created in three planned cities built to serve as national capitals – Chandigarh, Brasilia
and Dhaka. These are highly expressive landmarks standing as symbols for the state communities whose political centers they formed.19 However, the majority of the architects
of the post-war modernist era no longer saw the creation of symbolic architectures as
their role. Starting in the 1960s, ‘old monumentality’ approaches began to come under
fire from fierce criticism.20 This shift came hand in hand with another, as scholars of
antiquity began turning their focus away from large architectural structures, which once
broadly dominated the study of ancient architecture, and started to concentrate more on
the analysis of smaller architectural complexes and urban building contexts instead. When
researchers did study large structures from the era of the Roman Empire, they tended
to investigate the political-ideological function those structures may have served rather
than their direct material form and impact: it was the social rather than the architectural
phenomena that attracted their attention.21
It appears that in recent years another shift has been taking place, one that is again
manifesting itself both in modern day architecture and in the study of architectural
history. The change emerges with striking clarity in the Federal Republic of Germany
after World War II. A definite reluctance to erect large state buildings was apparent there,
in no small part as a consequence of the political use of architecture of the 1930s. There has
been no sign of that reluctance since reunification though:22 a monumental chancellery
now stands unabashed opposite the 19th century Reichstag building, a far cry from the
Kanzlerbungalow in Bonn, which seemed to shy away from the attention of passers-by.23
In the USA, Daniel Libeskind’s design for the new World Trade Center building is a highly
expressive monumental structure packed with symbolic references which intends to fulfill
the landmark’s function of creating community, in the sense expressed by Giedion. The
15
16
17
18
19
20
21
22
23
Altekamp 2011.
Ikonnikov 1994.
Bärnreuther 2000, 204–208.
Giedion 1944, 550.
Magnago Lampugnani 2011, 721–751. On the ‘new monumentality’ see Ksiazek 1993, 417–420; Tallack
1994, 162–166; James-Chakraborty 2011; Moravánszky 2011.
An example is the famous document by R. Venturi and D. Scott Brown “Learning from Las Vegas”; see
Stierli 2011.
This is in the context of the linguistic turn (Bachmann-Medick 2006, 33–37) and applies e.g. to the
investigation of imperial architecture in Rome: see the works by R. H. Darwall-Smith 1996 on the Flavian
period and by F. Coarelli 1986 on Maxentius.
Bartetzko 2004/2005.
Maak 2004/2005.
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Hagan Brunke et al.
monument – even if no longer in its classical form – is again shifting into the focus of
attention. As the tension that once marked this field dissipates, scholars of culture, for
their part, are now able to pursue new avenues in their investigation of the monumental
structures of the past.24 Turning away from the glorification of ‘monuments’ and the
concentration on stylistic and formal aspects (the dominant approach well into the first
half of the 20th century), they are seeking to understand the architecture of oversized
structures not in isolation, but as part and parcel of the broader social fabric of their
time.25
This turn has also resulted in the bridging of a longstanding and crucial divide: it
has become possible to integrate the motif of political, aesthetic, existential and religious
glorification dominant in the 19th century with decisively ‘modern’ 20th century attributions, such as functionality, democratization and a focus on utility, into a broader spectrum
of possible interpretations. This spectrum includes the function of community-building
through communal activity, the motif of social pacification through the harnessing of an
unoccupied workforce, the representation of power and social status, the embodiment of
wealth and technical skill, the function of deterrence in sense of military psychology, and
the motif – already prominent in antiquity – of the hubris of tyrannical rule.26
3 Three major types of monumental constructions – Case
studies
Realizing that preconceptions of the modern viewer can be the source of an impression
of monumentality, our research group decided on a specific methodological approach
intended to at least minimize that risk. We examine (1.) how the object’s size relates to
the surrounding buildings; (2.) the relationship between the human, natural and other
resources required to build an object and the economic capacities available; (3.) whether
there is evidence of antique attributions of monumentality, in the form, for example, of
inclusion in the list of wonders of the world (this would be revealed solely in written
sources or other explicit contemporary evidence; in many instances such sources are
unavailable however); and (4.) the conceptual and scientific premises underlying our
modern attributions.
These efforts to objectivize the attribution of monumentality substantiate, at least
in some way, the suspicion that an architectural structure that appears monumental to
the modern viewer was also a structure of ‘extraordinary size’ in the antique cultural
context. The research group has defined a set of criteria intended to permit a comparative
24 On the focus on the monumental in archaeology: Vol. 22.2 (1990) of World Archaeology on “Monuments
and the Monumental”; Thomas 2007; Meyers 2012. Monumentality in cultural studies: ring lecture
“Dimensions of the Monumental” at the Humboldt-Universität Berlin (winter semester 2007/2008,
http://www.kunstgeschichte.hu-berlin.de/2007/10/ringvorlesung-im-wintersemester-2007-2008/ (visited
on 04/05/2016)) and the conference “Mythos Monument” at the Art History Institute of the Ruhr
University Bochum (January 2010; cf. Ruhl 2011a). Issue no. 755 (April 2005) of the Swiss cultural
magazine “du” focuses on “Architektur und Macht. Eine monumentale Verführung” (“Architecture and
Power. A Monumental Temptation”).
25 See the DFG focal programme begun in 2009: “Early Monumentality and Social Differentiation”
(http://www.monument.ufg.uni-kiel.de/schwerpunktprogramm/ (visited on 04/05/2016)). The performative function of large-scale structures is coming under increasing attention, as one can see, for instance,
in the discussion on the architecture of the Cathedral of St. Denis in papers presented at congresses in
Rome (“Art and Liturgy in the Middle Ages,” 1997) and Lausanne-Fribourg (“Art, Céremonial et Liturgie
au Moyen Age,” 2000).
26 See the representation of the backgrounds and incentives in the construction of the pyramids in Herodot
1971, II, §§ 124–134.
Thinking Big. Research in Monumental Constructions in Antiquity
255
cultural investigation of antique ‘XXL buildings’. We consider an object to be XXL when
the majority of the following criteria are met:
Size: the spatial dimensions of the object cause it to stand out significantly vis-à-vis
the surrounding norm.
Position: the object’s exposed position relative to the surrounding buildings causes it
to stand out, e.g. it was sited on a mound or hill or in the center of a settlement, or at a
location, possibly even a peripheral location, that developed into a center as a result of the
object’s presence.
Permanence: the object dominated the surrounding area over a long period of time.
Investment: construction of the object involved abnormally large investment relative
to the technical or economic potential (skills, knowledge, tools, cultural techniques) of the
population and/or its size; construction may even have involved investments and hence
risks on a level disproportionate to the population’s capacities.
Complexity of the project: the technical knowledge, the artisanal skills and the organizational and logistical effort required to construct the object exceed both qualitatively and
quantitatively the levels entailed in construction of a structure reflecting the norm for the
surrounding area. Thus, for example, an object that is ‘large’ in terms of its dimensions but
that was formed through the agglomeration of many smaller objects, which themselves
reflect the norm for the surrounding area, may not necessarily be ‘large’ in terms of the
complexity of the project object, its impressive size notwithstanding.
3.1 Large ‘special buildings’ and the architecture of power:
Oversized architecture (case studies 1, 2, 3)
The creation of an architectural space is preceded by decision-making processes concerning, for instance, the dimensions of the space to be constructed and the selection of
resources (building materials) to be used. From the perspective of cultural anthropology,
an investigation of the parameters that may have influenced the size and/or design of a
building and its fixtures and furnishings can be a rewarding endeavor.
Recent excavations have ruled out the notion of a long-term linear evolution from
small to large, or from sparsely to elaborately furnished architectural structures, replacing
it with the recognition that architectural scale is influenced by culturally specific and/or
social factors. We now know that as early as the Neolithic period the architectural spectrum already encompassed a wide range of structural sizes, as well as very large complexes.
In the Near East, we see this in what are called the ‘special buildings’ (Sonderbauten), such
as those at Göbekli Tepe in south-eastern Turkey.27 Size was used as a distinguishing
characteristic in later periods as well, and it seems to have been influenced both by
contemporaneous residential architecture and by its architectural predecessors.
In the Neolithic Near East and Europe, household communities already tended to
follow a single plan typical for the entire settlement (buildings of a standard design)28
when they erected structures. Modifications to the building ground plans affecting size,
and therefore floor space, indicate that the household communities that built them had a
variety of needs.Modifications of this type are probably related to the size of those communities and the intended uses of the structure. Social factors, such as family size, functions
related to assemblies, social and economic hierarchies and the needs of the community
with respect to housing, production or storage facilities have all been discussed in this
context.
27 Kurapkat 2010.
28 Eichmann 1991, 3. 73–82.
256
Hagan Brunke et al.
Occasionally, the largest buildings at a site featured special, exclusive architectural
design elements which set them apart from other structures in the area. Some of these
elements are motivated by structural concerns (supporting pillars and walls of double
thickness); some serve to meet particular spatial requirements (rooms that are subsequently added, or the inclusion of an additional series of rooms during the planning
stage).29 In the Near East, the modification of standardized buildings tends to increase
with increasing diversification of socio-economic conditions; in some instances, the alterations are so extensive that it is no longer possible to discern the standard design in them.
Sometimes special architectural features distinguish structures of the standard design. The
articulation of facades by pilasters and niches,30 a feature typical in the Near East, has
structural origins, but it also reflects the solidity and special character of the building, and
it is possible that we should understand this feature as a reflection of the strength of a social
group. Structural features of a building may have become architectural symbols of social
identity in this way. Over the next millennia of Mesopotamian history, this articulation is
a consistent design feature of temples, and in some instances of palaces as well.
One way of determining the investment associated with (what is posited to be) an
extra-large construction project is to quantify the difference between the amount of work
involved in the construction of a residential structure and that invested in the ‘special
building’. The detailed information contained in texts written by the state administration
from the end of the 3rd millennium BC onwards are highly illuminating in this respect.
These texts contain information on the incoming and outgoing goods, on prices and value
equivalencies, wages and the provisioning of workers, etc. Such texts provide evidence of
the existence of knowledge, but they do so implicitly. They are a detailed reflection of
the application of knowledge, and are similar in this sense to archaeological remains. By
contrast, the surviving mathematical-metrological texts (known from approximately the
18th century BC onwards) do convey knowledge explicitly: these texts served specifically to
store and communicate the knowledge in question. The information these texts contain
includes parameters that are highly relevant to our investigations, such as information
about average workloads. Several of the parameters reported in the economic records are
also reported in the theoretical mathematical-metrological texts, suggesting that we would
be justified in assuming that even those parameters as yet only evidenced in theoretical
texts had some basis in reality. In many respects, the interplay between pragmatic and theoretical texts creates a quite precise quantitative picture of economic and administrative
processes in many fields.
Case study 1: Extra-large tripartite buildings
A standard ground plan, called the ‘tripartite building’, emerged as the characteristic type
for monumental structures built at a central location in urban settlements, primarily
in the 4th millennium BC. Several large-scale excavations of these ‘tripartite building’
have been conducted, particularly in Uruk-Warka (Iraq). Noteworthy elements of these
structures include, e.g., pilasters, thick walls, a special wall design (paintings, mosaics,
carved ornaments) and unusual building materials. They could also feature large enclosed
courtyards and special installations.
Monumentalized ‘tripartite building’ far exceed the sizes found in the spectrum of
urban residential buildings. There can be no doubt that these structures served a function
different from that of residential buildings, and they can certainly be understood as
‘special buildings’. These are structures well beyond that which could have been built by
29 Pessedzik-Depe (Djeitun Culture): Eichmann 1991, pl. 15, fig. 52; Bouqras/Syria, 8th/7th millennium BC:
Akkermans and Schwartz 2003, 122–124; Choga Mami and Tell Songor A, 6th millennium BC: Eichmann
1991, pl. 62–64; Tell Abada/Iraq, 5th millennium BC: Eichmann 1991, 101, pl. 71, fig. 261. 262.
30 First in Tell Abada: Eichmann 1991, 101, pl. 71, fig. 261. 262.
Thinking Big. Research in Monumental Constructions in Antiquity
257
members of one family or one neighborhood; specialist artisans and a large number of
workers must have participated in their construction.
Since the only buildings in Uruk from the second half of the 4th millennium BC
that have been excavated are ‘special buildings’ – no residential areas from this time have
been uncovered – we use a representative residential house from Habuba Kabira/Syria
for reference purposes.31 The Habuba Kabira structure consists of a tripartite building
(approx. 148 m2 ), some additional rooms and a central courtyard (Fig. 1), which, taken
together, cover a total area of 500 m2 . Although generously proportioned for a house, it is
not so large that it could not have been built by, for instance, members of one household
assisted by relations or neighbors, i.e. without requiring centrally organized labor.
Fig. 1 | Reconstruction of
residential building H in
Habuba Kabira, southern
perspective.
Fig. 2 | Reconstruction of the stone-cone building in Uruk, southern perspective.
31 Building H, also known as the ‘Great House’ (Frank and Ludwig 1973) and ‘East House’ (Strommenger
1980, fig. 16).
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Hagan Brunke et al.
Fig. 3 | The construction materials from the stone-cone building (without surrounding wall) in Uruk
(above left) and from the central hall section of residential building H in Habuba Kabira (below right).
The building known as the ‘Steinstiftgebäude’ (a.k.a. ‘Stone-Cone Building’), discovered
in Uruk, by comparison, features a tripartite structure with a base area of approx. 569 m2 .32
The tripartite building stood on an elaborately constructed foundation terrace, upon
which the building was created by applying layers of a white mortar which, once set, was
as hard as concrete. The building’s interior and exterior walls were coffered with a mosaic
facade made of stone cones in three different colors. The excavators also unearthed an
enclosure wall circling the building, the inner side of which was decorated with greenish
and black clay cones (Fig. 2). The difference between the Steinstiftgebäude and the residential structure is not limited to the larger area of the former and the quantities of materials
used; the variety and value of the materials are also key parameters (Fig. 3). Clearly, the
creation of the Steinstiftgebäude involved a broader social context. It represents only one of
multiple special buildings in the center of Uruk, some of which were significantly larger
and very elaborately decorated. They were all razed at the end of the 4th millennium
BC, and a sanctuary to Uruk’s city god was erected in the city center. That sanctuary is
thought to have survived into the 2nd century BC. It underwent renovations on multiple
occasions during that period, and extensive new construction work was carried out from
time to time.
Case study 2: Central urban sanctuaries
King Ur-Namma (2112–2095 BC), the first king of the Third Dynasty of Ur (Ur III), undertook a fundamental restructuring of the main sanctuaries in southern Mesopotamia. The
construction design developed for that purpose at the king’s behest became canonical and
was used both in Uruk and in many other locations in southern Mesopotamia.33 In terms
of size, the Eanna sanctuary in Uruk surpassed its predecessors, the scale and prominence
of which had already caused them to dominate the center of the city. The Eanna sanctuary
occupied an area of at least 140 000 m2 in this period.34 Its central element was the
32 Eichmann 2007, 364–386.
33 Van Ess 2001, 310–322; Nissen 2006, 64.
34 It is unclear how many courtyards there were. There may have been two additional, as yet unexcavated,
courtyards connected to the ziggurat in the south-east and east.
Thinking Big. Research in Monumental Constructions in Antiquity
259
ziggurat, made up of two stacked high terraces of massive brickwork, on top of which
stood a temple, to which an elaborate system of stairs provided access. The ziggurat was
surrounded by several courtyards serving different functions.
Height becomes a special criterion in this complex, erected on an elevated site and
rendered even more potent by the oversized dimensions of its various structural elements.
The lower ziggurat terrace, at 11.2 m tall,35 is transmuted into a raised terrace. A total
height of 28 m can be reconstructed for the sanctuary as a whole. Larger than every
other building, it towered over the entire city; the monumental complex would have
been visible from far and wide in the flat landscape of southern Mesopotamia. Its visual
prominence was increased by the niche-and-buttress articulation of its outer facades and
gates, and probably also through particularly light-colored plaster that made it seem to
sparkle.36 Table 1 provides a summary of the dimensions; only the figures for the clay
bricks, the main building material, have been compiled.
A comparison with contemporary residential architecture is illuminating with respect
to expenditure on construction. Peter Miglus has analyzed house floor plans from the 2nd
and 1st millennia BC with regard to room functions, construction processes and average
sizes of houses. For the Isin-Larsa and Old Babylonian period – not so long after the
Ur III period – there is evidence of houses featuring rooms grouped around a courtyard
(courtyard houses) with a reception room on one side. The majority of these houses are
less than 100 m2 in size,37 although a large number of 100–200 m2 houses have also been
documented. Taking as our reference House 2, Straight Street, from the Isin-Larsa period
in Ur, a well-preserved 10-room, 185 m2 -house,38 we can estimate a required outlay of
400 m3 of construction material – clay bricks (assuming a room-height on the ground
floor of 4 meters39 and the existence of one upper floor with an area equivalent to 50% of
the house’s base area40 and a room height of 3 m).
Thanks to the mathematical-metrological texts, we can assign figures for the logistical
and technical outlay with a high degree of confidence. These texts include information
about characteristic standards, such as materials constants and average workloads. On the
basis of that information, we have calculated the amount of time required to produce the
bricks needed for this house at 467 man-days.41
Approx. 800 man-days would be required to transport the bricks to the construction
site over a fictional distance of 360 m, with an additional 160 man-days necessary for the
actual masonry work.43 At this point, the time and effort demanded for roof construction
and plastering the house need to be determined empirically; the requisite reed mats and
bitumen also had to be procured. We are assuming a total of 223 man-days, a rough
estimate, for that work. That would mean that building the house required an investment
of approximately 1600 man-days, i.e. about half a year with 10 workers drawn from the
family and/or the neighborhood. These are maximum values: most houses could have
been completed using only half the quantities of material.
35
36
37
38
39
40
41
42
43
The same heights were ascertained for the ziggurat in Ur.
Van Ess 2013, 204–205.
Miglus 1999, 78.
Miglus 1999, 282, pl. 33.
Evidence has been found of a height of up to 3.85 m, without the start of the roof structure being
detectable: Miglus 1999, 19–20 and 65. This would not necessarily have been the case for all rooms in the
house.
Reasons for assuming the existence of upper floors are given by Miglus 1999, 76. He estimates a maximum
of 50% of the living area as an upper floor. The height of the room is arbitrarily selected.
The calculations draw essentially on Robson 1999, 75, adapted by text evidence in Heimpel 2009, 223–224
and ethnographic data.
The high terraces differ in size and height, the facades are banked. The areas and volumes must therefore
be calculated separately for each partial building element. A detailed breakdown is not given here.
Robson 1999, 165.
260
Hagan Brunke et al.
Building element
Dimensions/Area
Building
volume overall
Number of clay
bricks required
Ziggurat
Base area:
56 m x 48 m
on a foundation
platform with
side lengths
61.2 m, 68 m,
74.5 m, 61 m42
41 540 m3
12 217 470
Inner zingel
3827 m2
24 876 m3
7 316 323
Surrounding zingel
of the pillared
courtyard
1896 m2
12 324 m3
3 624 706
Encompassing zingel
of the fore-courtyard
731 m2
4752 m3
1 397 500
Outer zingel around
the south-eastern
and north-western
courtyard
6110 m2
39 715 m3
11 680 882
Balustrades on the ziggurat and zingel, hypothetical reconstruction
4816 m2
1204 m3
354 118
124 409 m3
36 591 000
Total
Tab. 1 | Uruk. Dimensions of the Ziggurat built by king Urnamma (2112–2095 BC) and calculation of the
mud bricks required for its construction (calculation by Judith Ramadan).
Materials similar to those used in constructing residential structures have been archaeologically documented for the Eanna sanctuary in Uruk. Original sources also contain
references to luxury materials, such as special varieties of stone, metals and hardwoods
used in individual parts of the building and movable fixtures. Almost all of these materials
were imported, and they were, as a rule, provided by the king. Although long-distance
trade was a part of the state economy, as was all of the other work performed, it can be
classified as a special provision by the crown to a greater extent, and will therefore be
assessed separately.
So far, the analyses of buildings in the major southern Mesopotamian cities of Uruk
and Ur have provided us with quantitative estimates for the material and human resources
involved. Below, we present several aspects of the work involved in constructing the
ziggurat of Uruk, taking those estimates as our basis. Additional aspects, such as the
procurement, production and processing of materials typically used in the construction
of large structures, e.g. ropes, mats, bitumen and wood, will be calculated elsewhere.
According to our calculations, around 12 217 000 clay bricks were used in the ziggurat,
with a total structure volume of 41 540 m3 . Each brick weighed approximately 5 kg. For
the sake of greater transparency, we use these same figures in the calculations below. This
Thinking Big. Research in Monumental Constructions in Antiquity
261
transparency comes at the cost of inaccuracies caused by estimation errors and of results
that appear over-precise; we have decided not to estimate error margins for the purposes
of this paper. Given an average workload of 1.5 m3 per man-day for brick production, we
arrive at a total labor investment of 27 693 1/3 man-days for brick production. Texts from
Ur III Garšana document the fabrication of bricks with a wage of 5 liters of barley per
person per day,44 i.e. per man-day. This wage is well documented elsewhere as well. Thus,
a total of 138 466 2/3 liters of barley would have been expended on brick production.
Clay, the main raw material involved, was sourced from clay pits. Field plans show
units identified as clay pits located at the edge of areas used for agricultural purposes (i.e.
outside of the city), see Fig. 4 and Fig. 5. The fields were usually quite large but the clay pits
were situated close to a canal, and the other raw materials required for brick production,
such as water and chaff, were sourced directly from the fields. Although the texts do
not specify whether actual fabricated bricks or just the clay mixture were transported
into the city, we can assume, along with Wolfgang Heimpel, that the production of the
bricks took place close to the fields.45 Evidence from a text from Girsu46 corroborates
that assumption. The obverse of the tablet has a field plan showing two directly adjacent
areas, one identified as ‘ka-al’, clay pit, and the other as ‘dúl’, water hole or basin: these are
entered together as ‘dúl ka-al’in the booking entries on the reverse side, implying that they
comprised a single unit even in administrative terms.47 If we assume that boats were used
to transport bricks to the construction site, then costs arise for transportation during brick
production, for transportation of the dried bricks to a stacking site or directly to the boat,
and again from the boat to the construction site/stacking site. The daily workload for one
brick-carrier is 486 000 kg m. To elucidate: that means that one worker could carry 100
bricks, at 5 kg per brick, over a distance of 972 m over the course of one day. In the Garšana
example, the distances to be covered between the assumed production site of the bricks
and the construction site were between c. 420 and c. 720 m.48 Garšana was quite a small
settlement and, significantly, one which did not engage in agriculture, according to the
written sources. Nevertheless, we are taking these values as representative, because we are
assuming that boats were used to transport the bricks from the vicinity of the production
site to the construction area. The standard wage for the female carriers was three liters
of barley per day. Assuming a transport route from the boat to the construction site of
600 m, and another 50 m from the brick production site to the nearby canal, transporting
the 12 217 000 bricks for the ziggurat required approx. 81 700 worker-days at a total cost
of about 245 100 liters of barley.
There is an Old Babylonian mathematical problem text49 that includes an exercise for
calculating the volume of a wall with a trapezoidal profile, for instance a dam with sloping
sides, (length 360 m, height 3 m, lower width 6 m, upper width 3 m) and the number of
workers/amount of work required to complete it (more precisely: the number of workers
required and the portion of the total wall length whose construction would fall to one
worker). For this wall, which has a volume of 4860 m3 (corresponding to 437 000 bricks
of the type above), 1620 workers are required, with each worker expected to complete an
approx. 0.22 m length of wall. The calculation of the amount of work required is based
on a standardized workload, one of 3 m3 per worker, per day. Therefore, the construction
of a brick wall with a construction volume of 41 540 m3 required c. 13 850 man-days for
a total cost of c. 20 775 liters of barley, given an average wage of 1,5 liters of barley per
44
45
46
47
48
49
Heimpel 2009, 223.
Heimpel 2009, 222.
HSM 1659 (Edzard 1962, 81).
Brunke 2012, 42.
Heimpel 2009, 226.
BM 85194. Discussion in Neugebauer 1935a, 142–193; photo in Neugebauer 1935b, plates 5,6.
262
Hagan Brunke et al.
Fig. 4 | Ur III-era field plan
JON 40 from southern
Mesopotamia (approx.
76 mm x 103 mm).
Fig. 5 | Schematic illustration
of the field area portions, in
particular the clay pit portions
(ka-al) on the JON 40 field plan.
day per bricklayer. These rough calculations, which do not include the other activities
involved, such as the mixing and transportation of mortar, cutting and transporting of
straw for thinning and (in the case of fired bricks) of reeds for burning, yield aggregate
costs of approximately 405 000 liters of barley for wages for the clay brick structure of the
ziggurat alone.
Thinking Big. Research in Monumental Constructions in Antiquity
263
Added to the wage costs are the costs for feeding the workers on site. According to
the findings from Garšana, average worker rations consisted half-liter portions of bread,
beer and soup,50 presumably with larger rations going to those doing heavier work, such
as brick carrying, or holding positions of greater authority. Then, too, this isolated find
from Garšana may not be representative: according to the mission reports from Iri-Saĝrig,
rations containing at least one liter of soup and fish, as well as two-liter rations of bread
and beer, were allotted to simple laborers there.51 The expenditure, including production
costs, for every ration containing half a liter of bread, beer and soup, corresponds to that of
approximately one and three quarters to two liters of barley. Therefore calculating with the
approx. 123 250 laborer days for the masonry construction of a ziggurat obtained from the
considerations above, the minimum food costs for workers alone again come to around
250 000 liters of barley, over and above the wage costs. This means that the total laborrelated expenses for the clay brick structure of the ziggurat can be estimated at approx.
0.65 million liters of barley.
Fluctuation in field yield rates was relatively high, but we can take approximately
900–1 350 liters of barley per hectare as a reference value. With two harvests per year, and
assuming a construction period of 10 years, this would mean that an average of around
46 cultivated hectares were required to pay and feed the laborers. It would be difficult to
ascertain what percentage of the total barley cultivation that figure represented. Forty-six
hectares would probably have been a negligible amount in large centers such as Umma
or Girsu, however. We can also assume that large-scale projects received contributions
from the central government drawn from the substantial tax revenues it received from all
provinces.
The analysis of the expenditure on labor and, in particular, the assessment of those
costs in relation to the total (agricultural) production of the Sumerian state suggest that
the construction of a ziggurat did not represent a significant burden on the economy and
thus that it was not ‘monumental’ from an economic standpoint. However, the ziggurat
does qualify as a monumental structure from the standpoint of the investment of material,
in comparison with the material input for a normal building, the logistics on site and
the existence of special architectural features. A similar picture emerges from descriptions
from antiquity of a hymnal and literary nature. These texts emphasize the sovereign’s duty
to carry out construction projects of appropriate grandeur, and hold out the promise of
monumental prestige as a reward for erecting such architecture of power. However, that
it was the hubris of rulers that was expressed in monumental forms was already a widely
used topos in the ancient world. The question arises, then, as to how far the construction
of architecture of power, for example, the palaces of the Roman emperors on the Palatine
Hill in Rome, represented a special logistical challenge in the eyes of the community.
Case study 3: The Palatine Hill in Rome
To date, no investigation of the question of the labor expenses relative to the society’s total
potential capacity has been conducted for the architecture of Roman palaces. However
Janet DeLaine’s recent research52 on the Baths of Caracalla and the even more recent
research by Rita Volpe53 on the Baths of Trajan have clearly established the Romans’
ability to complete large-scale construction projects of that sort within very short spaces
of time. Flavian-period construction of the new complex of palaces, the main phase of
which can be dated to the reign of Emperor Domitian (81–96 AD), must also have been
driven forward at a relatively fast pace. New research looking specifically at construction
50
51
52
53
Brunke 2011, 195–196.
Brunke 2013, 223.
DeLaine 1997.
Volpe 2002; Volpe 2010, Volpe and Rossi 2012.
264
Hagan Brunke et al.
techniques and brick stamps54 has shown that construction work commenced roughly
simultaneously over an area of approx. 96 000 m2 . Although clear evidence has emerged
indicating that not all sections of the Flavian complex of palaces had been completed
by the time of Domitian’s death in AD 96, it is also evident that large parts must have
been completed by the official opening in AD 92, i.e. within ten years of the start of
construction. This could not have been accomplished without a continually replenished
supply of construction materials, in addition to the necessary manpower,55 including
both skilled and unskilled workers, and a sufficient supply of working animals to meet
transportation needs. To keep construction moving forward at a rapid pace, materials for
building the basic structure, e.g. bricks, stones and the water and aggregates for mixing
mortar (sand, chalk, pozzolana), had to be on hand in large quantities at all times, as
did material for temporary structures at the site, such as the enormous quantities of wood
required, primarily for formwork for foundations and arches but also for the vast amounts
of scaffolding (Fig. 6).
Fig. 6 | Attempt at
reconstructing the building site
of the Flavian imperial palace
on the Palatine Hill in Rome
(end of 1st century AD).
The supply of building materials on such a scale was a gigantic project in its own right,
one which could not have failed to leave an enduring mark on the Roman cityscape.
Some of the materials, such as travertine, brick and basalt, had to be brought in from the
surrounding area over distances of up to 60 km, and fairly recent research56 tells us that
the wood used had to be transported from present-day Umbria, over 100 km from Rome.
Thus the ability to use the Tiber and its tributaries, none of which were easily navigable,57
was of key importance for the procurement of matériel throughout the urbs. Ensuring
the possibility of efficient use of waterways as traffic arteries for bringing the building
materials demanded that an authority be in place to supervise and regulate shipping
traffic. It is probable that a large proportion of the incoming material was unloaded into
temporarily storage facilities close to the river (Fig. 7) before it was taken to the individual
construction sites, in order to keep unloading times at a minimum. This means that
54 Bukowiecki 2008.
55 Janet DeLaine (DeLaine 1997, 175–194) calculated the manpower necessary to build the Baths of Caracalla, the central block of which covers an area of 24 000 m2 . For the 4-year construction period, she
calculated an average of 7200 laborers per day to produce the materials and perform the building work,
plus 1800 laborers and ox carts to transport the material from the environs of Rome, a figure which could
even be doubled during periods of more intense activity. DeLaine 1997, 193.
56 Dionoso 2008, 251–283.
57 Le Gall 1953; Quilici 1986.
Thinking Big. Research in Monumental Constructions in Antiquity
265
Fig. 7 | Area of the imperial Neroic and Flavian palace in the city of ancient Rome.
supplies then had to be shifted again, this time from the warehouses in the south-west
of the city to the construction site on the Palatine Hill, a distance of over a kilometer. It
is clear, then, that a smooth, efficiently operating logistical system was needed to supply
the enormous quantities of building materials for construction of the imperial palaces.58
The increasing influence of the emperor on the acquisition of building materials played
an important role in that regard. The trend towards increasing use of fired bricks in largescale imperial construction projects is a case in point: this was certainly not a coincidence
but a deliberate choice representing both a technological and a symbolic change in the
Roman building tradition. The manufacturing process used to make fired bricks was
substantially more complex than the excavation of tuff, for example. It is very probable
that the introduction of fired bricks was associated with a desire to manage the smooth
procurement of supplies by setting up manufacturing facilities. With the introduction
of masonry bricks in Roman construction, we also see the start of a process of brick-size
standardization. Three standard sizes are rapidly established: bessalis (approx. 20 x 20 cm),
sesqipedalis (approx. 43 x 43 cm) and bipedalis (approx. 60 x 60 cm).59 This standardized
manufacturing was the job of the figlinae (brickyards), situated by the clay pits in the upper
Tiber Valley on large estates owned for the most part by families of great influence, even
from the senatorial class.60 Thus securing a stable supply of bricks was not the only result
of the creation of a monopoly in production of the key building material: the switch to
standardized bricks created a major source of industrial power in the Roman construction
58 According to DeLaine, material transportation costs alone accounted for approx. 24% of the total
construction costs of the Baths of Caracalla (DeLaine 1997, 219–220 fig. 88).
59 Bukowiecki 2010.
60 See e.g. Andreau 2009; Setälä 1977; Steinby 1974/1975.
266
Hagan Brunke et al.
sector. By the start of the 3rd century AD if not before, the imperial family had an outright
monopoly on brick production.61
We can obtain a clearer picture of the quantity of materials used in the Flavian-period
construction through a close examination of the materials used to build the new parts of
the complex62 and the progress of construction work. On the basis of a detailed calculation
of the number of bricks used in the ‘garden stadium’, which was part of the Flavian
complex (Fig. 7), we performed an initial calculation to give us an approximate value
for the brick requirements associated with construction of the complex as a whole. The
result: a minimum requirement of 150 000 bipedalis and 640 000 sesquipedalis. Assuming
loads of 150 sesquipedalis or 100 bipedalis per kiln, which seems realistic, we find that
at least 5000 kiln-loads were needed to manufacture the brick supplies for the wall
shells and door and window lintels. For the production of the basic structural elements
alone, around 7500 m3 of brick supplies, requiring a storage area of about 6080 m2 and
weighing a total of 15 000 metric tons, had to be brought from the brickyards by the
Tiber to the Palatine Hill, where some were stored before being transported to where
they were needed on the construction site.63 Bricks account for only a small portion of
the total construction materials used however. Logistical feats of an even greater order
were required to procure the vast numbers of decorative elements in the buildings and
their fittings, which were made of marble from quarries throughout the empire. Clearly,
only a highly streamlined, efficient and smoothly operating building industry could carry
out large-scale construction projects like these within what were, in some cases, relatively
short spaces of time.
We cannot assume that level of material investment alone constitutes a defining
factor for the monumentality of any object, or group of objects, palaces included. On
the subject of Nero’s imperial palace, the Domus Aurea (mid-1st century AD), Tacitus
(ca. AD 58–120) noted: “Nero […] erected a mansion in which the jewels and gold, long
familiar objects, quite vulgarized by our extravagance, were not so marvelous as the fields
and lake, with woods on one side to resemble a wilderness, and, on the other, open spaces
and extensive views. The directors and contrivers of the work were Severus and Celer, who
had the genius and the audacity to attempt by art even what nature had refused, and to
fool away an emperor’s resources.”64 Here we can see that Tacitus does not measure the
monumentality of the Domus Aurea in terms of the costly materials used in it or the
luxurious appointment of its rooms. Instead, the emphasis is on the vast expanse of land
claimed for the project in the densely built-up city of Rome and on the sums expended to
reshape the grounds; these were clearly perceived as deviating from the norm. Obviously,
it would not be appropriate to take statements like this one by writers from antiquity
as representing the contemporary opinion,65 however they do tell us that contemporary
observers could understand the expansion of Nero’s palace complex to be monumental
in a negative sense.66
This has led many scholars over the centuries to see political considerations as at
least partially motivating the abandonment of large parts of the Domus Aurea by the
subsequent dynasty, the Flavians, who ascended to power in AD 69. The new complex
of palaces was comprised ‘only’ of the Palatine Hill area, taking up a mere 180 000 m2 .
61
62
63
64
Bukowiecki 2010.
Consisting of Domus Flavia, Domus Augustana, the garden stadium and the Domus Severiana (see Fig. 7).
Bukowieki 2012.
Ann. 15,42. English trans. Church, Jackson Brodribb, and Bryant 1942. Originally quoted from Bergmann
1993, 18–19.
65 They were decisively influenced by opinions about the emperor and criticism of the senatorial aristocracy,
see e.g. Winterling 1999, 76–77.
66 On the Domus Aurea, its expansion, its characterization as a ‘landscape villa’ and contemporary opinion,
see Bergmann 1993, 18–25; Winterling 1999, 65–70; Beste 2012, 74–75.
Thinking Big. Research in Monumental Constructions in Antiquity
In comparison
with Forum of
Augustus (as
quotient thereof)
267
Site
Size, in sq m
Forum of Augustus
11 500
Domus Aurea
800 000
53.3
Flavian complex of
palaces
180 000
15.6
New buildings in
Flavian complex of
palaces
96 000
8
0.5
Colosseum
22 000
1.6
0.12
Thermae of Trajan
90 000
6
0.5
Circus Maximus
82 000
5.5
0.45
In comparison with
Flavian complex of
palaces (as quotient
thereof)
0.06
4.4
Tab. 2 | Comparison of the size of important sacral and public structures of ancient Rome.
This means that the area occupied by the Flavian complex was less than one fourth that
of Nero’s palace (approximately 800 000 m2 ). Can we take this to mean that the Flavian
palace complex was no longer monumental, and not an XXL project? Again, sources from
antiquity suggest otherwise. Here is the Roman poet Publius Papinius Statius describing
the palace of his patron Emperor Domitian in his Silvae, a collection of poems, in the late
1st century AD: “… so do not hasten your ascent to heaven. So great a massive structure
opens up, a spacious hall more boundless than a plain extends and vaults much sky in its
embrace: only its master dwarfs it.”67 Even bearing in mind that boundless exaggeration
and flattery was typical of such panegyrics to the emperor,Statius’s emphasis of the palace’s
dizzying heights is striking. Again, it is the physical dimensions of the complex which, this
time in a positive sense, are perceived as monumental (Fig. 7).68 Nero’s palace complex was
more than fifty times larger in area than the Forum of Augustus, and almost 10 times the
size of the Circus Maximus. Despite the reduction in size, the Flavian complex of palaces
still occupied an area twice as large as that of the Circus Maximus or the Baths of Trajan,
completed not much later under Emperor Trajan to become the largest thermae in Rome
in the 2nd century AD (Table 2). In view of the immense area taken up by the complex
within the territory of the city compared to that of other sacred structures and important
public structures, we can conclude that the imperial palaces must have been perceived by
contemporaries as monumental.
The location of the complex in the centre of Rome conferred an additional distinction
on it which was the result of the historical significance of the site. At the end of the 1st
century BC, Augustus had already made skillful use of long-revered sacred sites on Palatine
Hill to create a quite special aura and a distinctive, public and yet also sacred character
67 Stat. Silv. 4, 2, 18. Nagle 2004 (English translation). Cf. also Winterling 1999, 71.
68 On the development of the palace overall: Winterling 1999, 47–75, Wulf-Rheidt 2002/2003; Wulf-Rheidt
2011.
268
Hagan Brunke et al.
for his residence there, primarily through the newly erected Temple to Apollo and the
proximity to Casa Romuli, and thus to the mythical founder of Rome.69
However, the centrality of the imperial palaces also manifested itself in architectural
terms in their prominent location within the city: ‘monumentalization’ is a continually
recurring theme running right through history of the imperial palaces on the Palatine
Hill. The Palatine is situated between three important sites: the Forum Romanum, the
administrative center, the Circus Maximus, one of the most important crystallization
points in public life, and the Capitol, the religious focal point of the city. The architecture
of Palatine Hill took skillful advantage of that position: tall substructures created a raised
platform, elevating the entire imperial palace above the surrounding structures, and
thereby putting it at ‘eye level’ with the Capitol. This required a major feats of construction, involving the erection of high terracing walls and of multi-story substructures of up
to 30 m high, as well as the shifting of vast quantities of earth. Atop this platform, the
main floor of the palace was built, itself containing rooms with ceilings as high as 20 to
30 m. The inhabitants of Rome would surely have been aware of, and amazed by the sheer
scale of the construction underway in the center of their city. Indeed, within a period of
about one hundred years, the natural shape of the hill was so completely transformed that
by the end of the 1st century AD it was possible for its architecture to present impressive
facades both to the Circus Maximus and to the Forum Romanum, transforming in their
turn the appearance of the city.70 Given that, and the monumental physical scale of the
palaces within the city, it is highly probable that the Palatine Hill, and particularly the
constantly evolving facade that faced the Circus Maximus, would have been understood in
the ancient world as the monumentalized image-like staging of imperial power (Fig. 8).71
3.2 Funerary monumental structures: Size in the landscape (case
studies 4, 5)
The display of power and wealth in monumentalized form finds a distinctive expression in
funerary structures: in many instances, permanence and timelessness, two of the aspects
of manifold monumentality, are grounded in religious beliefs. The phenomena in the
case studies presented in this section arose in societies whose circumstances differed
fundamentally from those of the early state in the Near East (4th – 3rd millennium BC)
or imperial Rome (1st – 3rd century AD). In case study 4, the funerary monumentality
of the King’s Grave of Seddin is an exceptional phenomenon in a chiefdom, and the
Skythian-era kurgans in the Eurasian steppes examined in case study 5 are an example
of funerary monumentality manifested in a widespread phenomenon associated with a
society of mounted nomads
Case study 4: The King’s Grave of Seddin
The burial mound known as the ‘King’s Grave’ of Seddin (Fig. 9) is located in the Prignitz
district of Brandenburg, an area in which, to date, around 1000 Bronze Age and early Iron
Age burial mounds have been discovered at approximately 350 sites. Most of the burial
mounds were probably created during the later Bronze Age or early Iron Age, between
1100 and 530/520 BC.72 Most of the mounds are 10–30 m in diameter and 1.50– 2.50 m
in height.
In the period from the 10th to 8th century BC, the area around the middle reaches of the
Stepenitz River, in the environs of the present-day town of Seddin, was a center of power
69
70
71
72
See Wulf-Rheidt 2012 for a detailed treatment of this aspect.
On the Flavian new construction and extension phases, see Pflug 2013; Wulf-Rheidt and Sojc 2009.
On the semiotics of the facades, see Beste, Thaler, and Wulf-Rheidt 2013, 84–91.
May and Hauptmann 2012, 94.
Thinking Big. Research in Monumental Constructions in Antiquity
269
Fig. 8 | The development of the
imperial palaces on the Palatine
Hill in Rome. Virtual
reconstruction models. Flavian
(end of the 1st century AD),
Trajan/Hadrian (mid-2nd
century AD), Severian
(beginning of the 3rd century
AD), Maxentian (beginning of
the 4th century AD).
and wealth of enormous significance. It is here that the greatest numbers of burial mounds
in the Prignitz district and the greatest numbers burials containing swords and/or high-
270
Hagan Brunke et al.
quality bronze vessels in the North have been found.73 Scholars believe that a chiefdom
existed in this area.74
The King’s Grave of Seddin (Fig. 9) is the clearest manifestation of this accumulation
of wealth and power. In the 9th century BC, a 30–40-year-old man, and probably two
women as well, was interred in a slab-lined burial chamber plastered in red-painted clay.
Above the chamber, a monumental burial mound was constructed. The costs and work
involved were extraordinary in every respect. In no prior or subsequent period was a tomb
of such immensity constructed in the Prignitz district. The King’s Grave is regarded as
a prime example of a “splendorous, princely, élite or chieftain tomb” on the threshold
of the Iron Age in the North.75 As we demonstrate below, the King’s Grave of Seddin
meets all the standards of monumentality proposed by Furholt:76 the size and visibility
of the monument in the landscape, the large expenditure in terms of craftsmanship in its
construction, the unique nature of the form and situation in the landscape, and finally,
the permanence of the complex.
Part of the burial mound was destroyed as a result of its use as a quarry in the late 19th
century. The burial chamber was discovered in September of 1899, and approximately 40
objects were recovered from it.77 The original height of the mound was probably between
9 and 10 m and the ring of stones (Fig. 12) encircling it is roughly 62 m in diameter. The
King’s Grave is one of the largest Bronze Age or Hallstatt period burial mounds in central
and northern Europe.78 Standing as the only mound on a plateau, its physical size ensures
that it can be seen from afar, from any direction.
At present we are not in a position to quantify the expenditure involved in constructing the burial chamber and burial mound to our satisfaction with respect to either
materials or labor. It is obvious, however, that an immense amount of work went into the
monument’s construction: the ring of stones encircling it covers an area of approximately
3000 m2 , and past estimates place the mound’s volume at around 16 000 m3 .79 In addition
to the actual construction work, the supply of building materials and the ‘builders’
themselves, erecting the object must have required a streamlined organization and a
planning process, regardless of whether the burial mound was erected over a short or
long period of time. The period involved must have been relatively long though, perhaps
Fig. 9 | Photo of the ‘royal
tomb’ from the west.
73
74
75
76
77
78
79
May and Hauptmann 2011, 136–137.
Wüstemann 1974, 95.
Hänsel 2003, 61.
Furholt 2012, 116.
May and Hauptmann 2005, 4–5, fig. 1.
Thrane 2013, 329–337.
May and Hauptmann 2001, 26.
Thinking Big. Research in Monumental Constructions in Antiquity
271
Fig. 10 | Vertical layer plan of
the ‘royal tomb’ with
surrounding stone circle and
burial chamber (below).
Fig. 11 | Three-dimensional
model of the ‘royal tomb’.
stretching over years or subject to intermittent interruption, which seems likely to have
resulted in to even more challenges and higher costs.
Constructing the polygonal stone chamber with its false vault must have been a particularly challenging task. Only a small number of sites with stone structures of this type have
only been found.80 The Seddin chamber has a diameter of around 2.35 m and an interior
height of approximately 1.60 m (Fig. 13). That makes it 2.5–3 times larger by volume than
any of the very few other chambers of this construction that have been found. It is the
largest Bronze or Iron Age stone structure forming a hollow chamber in Brandenburg,
or anywhere in the wider region. It could not have been constructed without the help of
experienced specialists. It is not clear where this expertise came from. The extremely large
burial chamber is concealed under an immense burial mound. The former is dwarfed by
the comparison, since the area of the base of the burial mound is about 700 times larger
than the interior area of the chamber (Fig. 14). Archaeological investigations carried out in
2013 determined that the eastern side of the burial mound is made up of individual layers
of sand, which were sealed with smaller stones, probably covering their entire surface. It
is probable that the Bronze-Age surface of the burial mound had a similar stone covering,
creating the impression of an immense stone structure.
80 Krause 1891, 262–276; Götze 1912, 82–89; Breddin 1983, 63.
272
Hagan Brunke et al.
Fig. 12 | Magnetogram of the royal tomb (orange circle) and the row of pits (red arrows).
Fig. 13 | Current model of the
interior of the burial chamber
of the ‘royal tomb’ – automatic
multiple image photogrammetry.
Evidence of a 290-meter long row made up of approximately 150 pits (Fig. 12) was found
just 50 m to the north of the burial mound. The pits are round to oval in shape, 0.6–1.0 m
in diameter and as deep as 0.8 m. The pits contained partially scorched stones and burnt
earth with a small amount of charcoal, but no other contents have been detected. The
‘Seddin row’ is aligned on a roughly east-west axis.81 It is possible that it was created at
about the same time as the burial mound as its origins probably lie between 950 and 800
BC.82 Although linearly arranged pits at many sites have been interpreted as cooking
pits, this possibility has been discounted in Seddin83 since analyses indicate that it is
improbable that fires ever burned in the Seddin pits. One possibility is that the remains of
fires elsewhere were buried and concealed in the pits for ritual purposes. In all probability,
81 Schenk and Goldmann 2004, 57–59.
82 May and Hauptmann 2012, 87.
83 Honeck 2009, 43–45; Schmidt 2012, 37–39; Meier 2013, 228–229.
Thinking Big. Research in Monumental Constructions in Antiquity
273
Fig. 14 | Schematic east-west
profile through the royal tomb
and the burial chamber (red
arrow) – photorealistic laser
scan with added graphics.
this phenomenon belongs in the same context, both spatial and ritual/functional, as the
burial, thus making the ensemble unique. The row of pits was probably largely invisible
as a structure on the upper edge of the site.
Pollen analyses suggest that open grassland existed on a scale unmatched in any other
period of prehistory during the golden age of the center around Seddin.84 Someone
standing on the summit of the King’s Grave would therefore have been able to see the
other burial sites in the vicinity, and this effect must have been in the minds of the burial
mound’s planners. Otherwise, the monumentality on display at the King’s Grave would
have served no purpose. The closest burial mounds are 500 to 900 m away. About one kilometer to the north is a contemporaneous cemetery (group of burial mounds). Further to
the north, cemeteries are spaced at regular intervals like beads on a string. Approximately
one kilometer to the south-east of the King’s Grave is another large cemetery (Fig. 15). Due
to the morphology of the landscape, visual contact between the two cemeteries closest
to the King’s Grave would have been impossible. However, it certainly must have been
possible to see both from the King’s Grave. This free-standing burial mound probably
comprised a monumental link in a ‘chain’ of cemeteries. If this is the case, then the
deliberate choice to site the tomb in a position of prominence within the surrounding
space must be understood as comprising an important feature of monumentalization.
Having stood for three thousand years, the King’s Grave in Seddin has adequately
demonstrated its permanence, despite major encroachments during its use as stone quarry
in the 19th century. Certainly, this endurance can be put down to a large extent to the
sheer size of the mound, but its internal structure also played a role, probably consisting
of alternating layers of sand and stone, further secured by a ring of stones and an outer
stone shell.
Case study 5: Large kurgans of the Scythian era – Early mounted-nomad ritual as architecture85
When the use of horses as saddle animals began to take off at the beginning of the 1st
millennium BC in Inner Asia (southern Siberia and the northern regions of China),
causing the people living in those regions to adopt a far more mobile way of life, the level
of communication grew considerably. Increased mobility brought with it the exchange of
both materials and ideas. In the 9th/8th century BC a temporary period of aridization in
the Eurasian steppe and the increasing use of iron86 resulted in a new mode of life and
subsistence, in which a highly mobile form of pastoralism took on a leading role. In the
period from the 8th to the 3rd century BC, a huge swathe of Eurasia, from the Yenisei in
southern Siberia to the central Danube in eastern central Europe, was inhabited by groups
characterized by mounted nomadism.These groups shared a similar lifestyle and economy
and held comparable religious beliefs. Another commonality was the extraordinary social
importance of their leading élites, which is reflected in monumental burial sites and the
84 Conveyed verbally, S. Jahns, BLDAM, March 2014.
85 Our warm thanks go to Dr. Sergei Polin (Kiev, Ukraine) for an exciting discussion and valuable information.
86 Parzinger 2006, 541; Попов 2006, 17; ref. Nagler 1996, 3–4.
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Hagan Brunke et al.
Fig. 15 | Distribution of burial
mound fields (larger black
circles) and position of the royal
tomb (small black circle) in the
Seddin core zone.
costly grave goods. Wherever these features are found, we speak of a Scythian cultural
group.87
An enormous amount of knowledge about building materials, building planning and
building logistics was required for the construction of this type of large-scale tomb for
mounted nomadic élites. These tombs, known as ‘kurgans’,88 were not created simply by
heaping up a pile of earth; they were constructed according to a specific plan as a ritual
transposed into architecture. At over 10 m high and more than 200 m in diameter, some
of the kurgans are visible for great distances across the flat landscape of the steppe. For
that reason, these particular kurgans are regarded as monumental burial sites.89
Until well into the 1950s, the excavators who worked on large kurgans focused solely
on the burials and grave goods they contained. Scholars evinced little interest in the
structure of the kurgans, regarding them as merely a heap of earth, unworthy of any
particular attention.90 The 1954 excavation of a large kurgan of Melitopol (Ukraine) was
an exception. The excavator in question, A.I. Terenozhkin, noticed that various colors in
the profiles of the mound, which led to the recognition that they should be interpreted
87
88
89
90
Parzinger 2013, 539–540.
‘Kurgan’ is an old Turkic name for a mound or burial mound (acc. to Радлов 1893, 570, 920, 940).
Gass 2011a, 65–67.
Полин 2011, 208–211.
Thinking Big. Research in Monumental Constructions in Antiquity
275
as clay blocks or pieces of sod. Accompanying that realization came the recognition that
the kurgan was not just a heap of earth, but a carefully constructed structure.91
Another milestone in the understanding of Scythian-era large kurgans came with the
investigation of the large-scale kurgan of Baikara in northern Kazakhstan (height 7 m;
diameter 85 m). The publication of those excavations in 2003 led to a fundamental shift
in the way scholars understood kurgan structures.92 They became aware that the structures
could provide an enormous amount of information about the rituals that had taken
place there.93 The core of the mound in Baikara was made up of blocks of turf, roughly
rectangular in form, and fairly comparable in size (0.3–0.7 x 0.3–0.4 m). Once dry, the
blocks exhibited a variety of colorations, ranging from light brown to deep black; in some
places, a white powder from the decayed grass was detected on their upper edges (Fig. 16).
Pieces of sod were used to construct the kurgan analogously to dried clay bricks. This
observation contributed to the realization that the kurgan structure can be understood
as a form of architecture.94 Evidence of a similar use of sod blocks has been found in
the Scythian-era large kurgan (height 9 m; with a square base of 75–77 m on each side)
of Barsuchii Log (Khakassia), which belonged to the southern Siberian Tagar culture
(Saragash Period, 5th – 3rd century BC). The sod and the clay blocks suggest (reveal?)
the existence of a linear structure in the kurgan’s construction.95 Building techniques of
this sort were used throughout the Eurasian steppe during the 5th – 4th century BC,
as comparable finds from eastern Kazakhstan (kurgans of Chilikty), the southern Urals
(kurgans of Filippovka), Ukraine (the kurgans of Babina Mogila, Chertomlyk) and the
north Caucasus (kurgans of Kelermes) have shown.96
Fig. 16 | Grass sod structure
and clay packing of the Baikara
large kurgan. Western section of
profile 3A. View from the
north-west.
Variations should be interpreted locally specific features. For instance, the site that would
become the entire interior area of the kurgan of Baikara was covered with birch bark
before the kurgan was built. This covering had at least two effects: a whitish-yellow
coloration, and the protection of the kurgan’s substructure from humidity and decay.97
Birch bark was also used in the large kurgans of Khakassia (southern Siberia). For instance,
91
92
93
94
95
96
97
Тереножкин and Мозолевский 1988, 19.
Parzinger, Zajbert, et al. 2003.
Мозолевский and Полин 2005, 241–252, 264–265; Gass 2011b, 215–216, 224.
Parzinger, Zajbert, et al. 2003, 50–51.
Parzinger, Nagler, and Gotlib 2010, 181, fig. 17–25.
Nagler 2013, 610.
Parzinger, Zajbert, et al. 2003, 42–44, fig. 43–44, appendices 1–6.
276
Hagan Brunke et al.
in the kurgan of Barsuchii Log, multiple layers of birch bark, in some cases reaching an
aggregate thickness of 5–8 cm, were wound around each of the larch beams used in the
dromos and the burial pit, forming an insulating layer (Fig. 17).
Fig. 17 | Barsuchii Log kurgan.
Birch bark layers on the domos
covering.
Fig. 18 | Sketch of the
Krasnoye Znamya kurgan.
Some of the large kurgans from the Tagar era have an unusual pyramid-like shape featuring rectangular stone facade with a megalithic appearance. It is highly probable that the
origins of this structural form, which is characteristic only for the central Yenisei region,
Thinking Big. Research in Monumental Constructions in Antiquity
277
lie in the local Bronze Age cultures.98 The stone facade was made up of stone slabs stacked
in layers in dry-stone construction. The outer side of the facade consisted of enormous,
vertically arranged steles spaced at irregular intervals.99 In the case of the Salbyk kurgan,
these steles were 4–5 m high and weighed 30–40 metric tons.100
Stone played a major role as a building material for the large kurgans in the northern
Caucasus. In the case of the kurgan of Krasnoye Znamya (height approx. 11 m; diameter
71 m), for instance, the section of the kurgan built above ground consisted of multiple
consecutive layers of black earth, stone and reeds, which were then covered by a protective
stone shell. Below the mound, excavators uncovered multiple different structures (Fig. 18),
which had been erected at ancient walking level: a stone krepis wall (diameter just under
42 m; width 0.75 m; height approx. 1.5 m) with four wattle fences and three burial
chambers, as well as a dromos that led to the central chamber (length 18 m; width 1.5 m).
A circular enclosure (27.6 m wide and up to 3.2 deep) surrounded the mound. The spoil
from the enclosure was used in the kurgan’s construction.Both the inner and outer sides of
the circular enclosure were reinforced with a dry-stone wall made of stone slabs. Finally,
another wall was erected about 4.5 m beyond the circular enclosure, encircling an area
with a diameter of 140 m. This kurgan has been dated to the 7th – 6th century BC.101
3.3 Large technical infrastructure systems (case study 6)
Ancient cities were not made up only of the structures that meet the eye, which are
generally perceived as architectural monuments: far greater resources were expended
on their physical infrastructure.102 Several of the monumental structures in Resafa, the
pilgrimage city on the edge of the Syrian semi-desert, are neither representative nor
sacred buildings but serve instead a more basic purpose, the supply of water. Due to their
XXL size, they are not purely infrastructural structures, but large technical infrastructure
systems.103
Case study 6: The water supply system of Resafa
Resafa-Sergiupolis, set in an inhospitable region at the site of a limes fort, 25 km south
of the Euphrates arose in the period between the mid 5th and very early the 6th century
AD. An important pilgrimage site,104 it attracted huge crowds of first Christian, and later
Muslim pilgrims.105 Environmental conditions in the Resafa area made it a poor choice
as the site of a large city. The area has an average annual rainfall of only around 150 mm,
minimum annual rainfall is 100 mm.106 Resafa had no natural source of potable water; at
best, there were a few wells with brackish water, rendered unsuitable for drinking by the
area’s gypsiferous soils. The site does have one potentially useful feature though, a natural
depression that accumulates water on a seasonal basis.107
Several primary sources describe the city as impressive in appearance, and its wall, which
still towers above the site at heights up to 15 m,108 enclosed an area of 210 000 m2 .109
98
99
100
101
102
103
104
105
106
107
108
109
Nagler 2013, 613; ref. Parzinger and Nagler 2007, 62–65.
Parzinger, Nagler, and Gotlib 2010, 216–233, fig. 16, 97–132.
Parzinger, Nagler, and Gotlib 2010, 255, fig. 142–147.
Петренко 2006, 18–34, 108; tab. 2–20.
On the term ‘infrastructure’ see van Laak 1999, esp. 290-292; concerning the efforts for water storage on
an urban scale see Ohlig 2007.
On large technical systems see Joergens 1988, 9–36.
Ulbert 2008; Brands 2002, esp. 212–235; see also Konrad 1992, 313–402.
See Fowden 1999; Sack, Gussone, and Kurapkat 2014, 257–274; Sack 2014.
Wirth 1971, 88 –93; Berking, Beckers, and Schütt 2010, 819 –820; see also Sack and Gussone 2011, 58–65.
Wirth 1971, 150. 442; ref. Garbrecht 1991, 239.
Karnapp 1976, 1. The city wall (according to Karnapp 1976, 8) measures 350–411 x 536–549 m.
Karnapp 1976, 8–9; Garbrecht 1991, 239; see also Hof 2016.
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Fig. 19 | Resafa, aerial image from the north-west.
The impression of monumentality is underlined by Resafa’s position on the crest of the
bank (approx. 6 m high) of a wadi, which runs along a tectonic fault line110 (Fig. 19).
In addition to the city wall and the five large churches in the city that were certainly
perceived to be ‘large-scale construction projects’ at the time of their construction,111 the
city’s complement of monumental structures included four large cisterns, which have
been characterized as ‘masterpieces of late Roman engineering’112 (Fig. 20).
How, though, was this city supplied with water, that most basic of necessities?
The first systematic investigation of Resafa’s water supply systems, with their monumental
cisterns and the inflows that fed those reservoirs, were conducted by Günther Garbrecht
and Werner Brinker.113 However, there were no definitive answers to the questions of
where water came from and in what quantities and at what intervals it could be used for
the city’s water supply (Fig. 21 and Fig. 22) until Brian Beckers conducted his study of
the surrounding region with a view to the water supply as part of his dissertation work,
which was funded by Topoi.114
The four large cistern complexes, which still stand today, provide the starting point for
considerations about the infrastructure projects. These cisterns are monumental structures, mostly subsurface, of differing sizes and structural types. Three of the large cisterns
stand adjacent to each other in the south-west of the city. They are known as the domed
110
111
112
113
Ref. Beckers, Berking, and Schütt 2012/2013, esp. 32.
Hof 2013, 33.
Wirth 1971, 150.
Garbrecht 1991, 239; see also Brinker and Garbrecht 2007. During its florescence, the city had a population of between 5000 and 10 000, including soldiers stationed there and temporary visitors, e.g. travelling
merchants and pilgrims. The first mention of the monumental water supply facilities was already made
by the first scholars to visit Resafa, Spanner and Guyer 1926, 45–47. Plate 1; Musil 1928, 161, fig. 91.
114 Beckers, Berking, and Schütt 2012; Beckers 2013; Beckers and Schütt 2013; Beckers, Berking, and Schütt
2012/2013.
Thinking Big. Research in Monumental Constructions in Antiquity
279
Fig. 20 | Resafa, location of the
cisterns in the city.
Fig. 21 | Resafa, water runoff in the wadi and inflow.
cistern, the small cistern and the double cistern – or the great cistern. The fourth cistern,
also a ‘small’ cistern, stands in the north-western corner just inside the city wall. All four
cisterns were supplied through a single, interconnected system of channels, which came
from the west, entering the city through openings in the wall and then fed into the
cisterns.115 (Fig. 23).
The water itself was runoff from the heavy spring rains. A dam retained water flowing
toward the city wall from the west and directed it through a monumental ‘water gate’.
A sediment basin was constructed on the western side of the water gate (Fig. 24). Thus
115 Brinker 1991, 137–141; Garbrecht 1991, 241–245; see also Brinker and Garbrecht 2007.
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Fig. 22 | Resafa, catchment area
of the Resafa basin with
potential water system network.
purified, the water was conducted through inlets built into the city wall, which were
initially large but were reduced in size116 shortly after their initial construction was
complete. The inlets led to the cistern inside the city wall, which was the connection
point for the water distribution system within the city.
In addition to the large cisterns, which were built specifically for the water engineering
system, there is evidence that small pear- or bottle-shaped cisterns (not connected to
the system) were also used in the city. These had a capacity of around 20–30 m3 , which
corresponds to a year’s supply of drinking water for a family of six. The wells mentioned
above can also be detected in the fabric of the city, however the brackish water they
provided would have been suitable only for cleaning purposes. To date, 27 small cisterns
and 12 wells have been identified in the city, which is buried under large amounts of
rubble.117 (Fig. 25 and Fig. 26).
116 Hof 2010, esp. 242–244.
117 Brinker 1991, 124.
Thinking Big. Research in Monumental Constructions in Antiquity
Fig. 23 | Resafa, water supply system in the south-west of the city.
Fig. 24 | Resafa, dam and inflow on the western side of the city.
281
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Hagan Brunke et al.
Fig. 25 | Large cistern, view to
the east.
Fig. 26 | Bottle-shaped small
cistern.
Investigations by Stephan Westphalen and Peter Knötzele118 have shown that the domed
cistern119 and the small cistern120 adjacent to it were built in quick succession during an
initial phase of construction – probably in the early 6th century AD. The large double cistern121 and the northern cistern122 were not erected until later in that century. According
118
119
120
121
Westphalen and Knötzele 2004, 346–347.
Domed cistern: volume 3400 m3 , dimensions: 40.40 x 9.35 m, height up to water inflow: 8.90 m.
Small cistern: volume 2050 m3 , dimensions: 26.8 x 24 m, height up to water inflow: 8.72 m.
Double cistern/large cistern: volume 14 600 m3 , dimensions 64.3 x 21.77 m, height up to water inflow:
approx. 10 m.
122 North-western cistern: volume 770 m3 , dimensions: 15.80 x 6.65 m, height up to water inflow: 6.80 m.
Thinking Big. Research in Monumental Constructions in Antiquity
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to the calculations performed by Brinker and Garbrecht, the large cisterns alone could
provide the city with 20 777 m3 of drinking water.123
The large cistern, or double cistern, appears to have remained in use until the city’s
demise (c. 1269): the imposing and fascinating structure exhibits indications of multiple
construction phases, which can be associated with activities during the 6th/7th century
and the 2nd quarter of the 8th century. Ceramic finds uncovered during the excavation of
the water distribution system124 indicate that maintenance work continued to be carried
out right up to the time of the city’s abandonment, with the latest maintenance work
dated by a coin from 1236.125 The monumentality of the double cistern, as well as of that
of the adjacent complexes of the cupola and small cistern, can still be perceived today.
Written sources contain only relatively brief descriptions of the buildings in Resafa. It
is therefore noteworthy that the city’s water supply system is mentioned regularly, which
is probably explained by Resafa’s position “in a desert without water”.126 Written sources
generally identify the rulers as being the initiators or as responsible for the water supply
system construction projects, which underlines the significance and representative nature
of these infrastructure projects. This applies to both the Byzantine rulers, like Justinian
I (rgn. 527–565),127 and the Arab federates such as the Ghassanids/Jafnid an-Numan b.
al-Harit b. al-Aiham.128 The Umayyad caliph Hisham b. Abd al-Malik (reign 724–743)
is also recorded as having initiated construction and repair works on the city wall and
to the water supply.129 The fact that the water supply system does not consist only of
large cisterns in the city, but also incorporates the surrounding area130 testifies to the large
spatial scale of the projects as well.
4 Preliminary results, perspectives, questions
As we use the term, ‘XXL projects’ describes projects that involve disproportionate levels
of investment, risk, spatial impact and relevance to the society as a whole, irrespective
of temporal, spatial or culturally specific variations. Therefore field of inquiry into XXL
projects is very broad, encompassing a number of systematic approaches and posing
unusual methodological challenges.
In the ancient world, the phenomenon of XXL projects as such was conceptualized
with the terms ‘thaumasta’ or ‘mirabilia’, on the basis of a limited number of examples.
Only a few of those examples, famous in their own time and in the post-classical era, are
still in existence; many of them are known to us only through descriptions or depictions
in the historical record. For all their differences, they are all, in essence, great works of
architecture or art, profane or sacred in nature. The list of ancient XXL projects is actually
123 In calculating the volumes of the cisterns used as to store drinking water, the decisive factor is the
distance between the floor of the cisterns and the level of the crossbar of the barrel vault, since this point
corresponds to the position of the filling pipe and thus indicates the maximum height of the inflow.
124 Logar 1991.
125 Brinker 1991, 146.
126 Ibn as-Sihna, quoted from Kellner-Heinkele 1996, 153.
127 Procopius, de Aedificiis II, 9, quoted from Procopius et al. 1954, 157: “He stored up a great quantity of
water and thus provided the inhabitants with a bountiful supply”.
128 Yakut, quoted from Kellner-Heinkele 1996, 146; the identity of the ruler is not made unequivocally
clear, see Kellner-Heinkele 1996, 146, note 114. Yakut claims for this ruler that he “had the cisterns of
Resafa renovated and the most impressive of its cisterns built.” For the differentiation between the tribe
(Ghassanids) and the Jafnids (dynasty) see Fisher 2011, 3–7.
129 Ibn Saddad quoted from Kellner-Heinkele 1996, 151, “Hisham b. Abd al-Malik b. Marwan built [arRusafa]. [The city] has walls made of stone and a large cistern for rainwater in its interior, from which
the inhabitants drink.”
130 As is already stated in the written sources: anonymous source, quoted from Kellner-Heinkele 1996, 154,
“Cisterns were set up for them and a route [for transporting] the water from the other end of the desert.”
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far longer than the canon of wonders of the world suggests: there were many works
comparable in type and ambition in the ancient world that never found their way into
those catalogs. There were a variety of reasons for those omissions. The earliest lists of
wonders of the world are known to have been compiled in the late Hellenistic period.
The entries on those lists and their subsequent amendments reflect the interests of those
who compiled them, or of those who commissioned them. At least in the earliest lists, the
selection criteria exhibit a clear bias towards common ancient itineraries, and the lists were
never intended to serve as encyclopedic inventories. Not surprisingly, the concentration
on mirabilia in the eastern Mediterranean region and the Near East from the late 3rd
century BC onwards also contributed to the omission of important cultural areas in the
ancient world, to say nothing of other limiting parameters, such as the typology of projects
included.
The aim of our research group in its initial stages was to place a modern concept
of monumentality alongside this antique approach, in order to permit a comparative
cultural investigation of monumentality’s social function. The primary emphasis in that
investigation is on quantifiable aspects. The analysis of the investment in logistics and
labor, and in particular of the costs and their relation to the total agricultural/economic
total output of the Sumerian state, shows that the building of a ziggurat and the entire
sacred infrastructure associated with it was comparatively ‘cheap,’ and did not place a
significant burden on the state’s economy. Such complexes, therefore, are not monumental
in this respect. The monumentality of as feats of construction stems from their sheer size
and central (or center-building) position in relation to their architectural surroundings.
Other aspects come to the fore in the case of the imperial palace complex on the
Palatine Hill in Rome. Monumentality there is manifest in the immense area that the
palace complex claimed for itself within the crowded city, but also in the dominating
effect within the urban context of the equaling imposing height of the structural complex,
which towers over the city, and in the sumptuousness of the appointments in its interiors.
The logistical feats involved in construction of the complex, the increasing monopolization in the production and supply of building materials, such as the bricks needed to build
the walls, and, of course, the mobilization of an enormous workforce: these are dimensions
of monumentality which no longer meet the eye, but would have engendered awe and
admiration in the ancient world. The immense construction project would have made
itself seen and felt not only in the growing dimensions of the buildings taking shape on
the Palatine Hill, but also in the thousands of materiel-laden ships sailing up and down the
Tiber and the endless procession of carts snaking through the already densely built city
to bring supplies to the construction site. Economically, such large-scale projects would
certainly have represented an engine for growth in the construction industry. It is quite
likely therefore that they held considerable propaganda value for the imperial dynasty
and would have had a stabilizing effect on the structure of Roman society. Thus, in this
example we can detect another dimension of monumentality our research must assess:
that of the ‘work in progress’.
The King’s Grave in Seddin adds another dimension to monumentality: here, both
‘overt’ and ‘covert’ forms can be perceived. The enormous burial mound exhibits its
monumentality both to those in its immediate vicinity and far beyond, through its visual
impact over an area extending as far as the eye can see. ‘Covert monumentality’ can
only be discovered by taking a ‘closer look’. The structure concerned here is the stone
burial chamber. After being built, presumably by a relatively small group of people, the
chamber was concealed under the gigantic burial mound. This means that knowledge of
its imperturbable grandeur would have been passed along mainly by word of mouth. Concealed as it was, its size could not be verified by personal observation. Thus unhindered, it
might well have grown beyond measure. Something similar may have occurred with the
290 m-long row of pits. It was probably designed as a spatially expansive and continuously
Thinking Big. Research in Monumental Constructions in Antiquity
285
growing geometric object; it existed in its totality, however, only in the minds of the people
who knew about it. Should evidence come to light to confirm the indications suggesting
some form of larger spatial structuring in the Seddin area, then there were even more
covert aspects of monumentality involved as well. If the King’s Grave, the sole large-scale
burial mound in an area stretching further than the eye could see, indeed took on the
position in space and ritual-functional significance of an entire cemetery that would be
monumental indeed.
Ritual was eternalized as architecture in the early Iron Age large kurgans of the warlike
mounted nomads in the Scythian cultural group. These kurgans have dominated the
Eurasian steppe landscape for 2500 years. The complexes should be classified as monumental large-scale structures built by nomads on the basis of the huge amount of work
entailed in their construction131 and their considerable size. All of the examples underline
the enormous amounts of work required in advance of (acquisition of materials) and
during construction of the large kurgans of the Scythians.
A third group of monumental projects comes into focus in the area of large technical
infrastructure. These are projects designed to supply the demand for basic necessities.
The monumentality of the city of Resafa and its water supply system arises from the
combination of the system’s specific, quantitative size and city’s remote location. The
amount of work invested in building the system and maintaining its monumental cisterns
was great enough to justify the assumption that it involved central planning and higherlevel organizational structures. Each new cistern built was larger than the previous one,
and there is evidence that they were maintained and kept in repair for as long as the
city was inhabited. This indicates a continuing transfer of engineering knowledge and
construction experience uninterrupted by multiple changes in the system of rule, and
testifies to the vital importance of the water supply for the pilgrimage city and caliphal
residence in the semi-arid desert steppe.
XXL projects are exceptional in the ways in which they occupy,shape and control space
through monumental interventions in natural or cultural landscapes. The relationships
between these projects and the forms of states and societies within which they took
shape are distinctive, particularly with respect to the organization they entailed. Based on
examples representing a wide range of XXL projects, our research group is investigating
the socio-economic environments of such projects, as well as incentives created by their
success – or their failure. Another focus in our investigation has to do with the processes
of transformation in space that are, to some extent, subject to active control in XXL
projects. These processes can act as powerful catalysts for the creation or advancement of
knowledge in a wide variety of fields: this too is coming under study. Our research group
intends to build on the systematic approaches presented here to pursue these inquiries
further.
131 Грязнов 1950, 13–15, 68; Мозолевський 1979, 167; Rolle, Murzin, and Alekseev 1998, 60–64; Мозолевский and Полин 2005, 252–258, 270–272.
286
Hagan Brunke et al.
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Illustration and table credits
figures: 1 © artefacts-berlin.de; Material: Kay Kohlmeyer. 2 © artefacts-berlin.de;
Material: Deutsches Archäologisches Institut. 3 © artefacts-berlin.de. 4 Brunke 2012,
54 fig. 5. 5 Brunke 2012, 53 fig. 4. 6 J. Denkinger, Department of Architecture of the
German Archaeological Institute. 7 Plan: Palombi 2013, 24 fig. 1 with entries by U.
Wulf-Rheidt. 8 Lengyel Toulouse Architekten, scientific reconstruction and basis for
the 3D model, U. Wulf-Rheidt, J. Pflug, A. Müller, Department of Architecture of the
German Archaeological Institute. 9 Photo: J. May. 10 Th. Hauptmann; Geographic
base data: © GeoBasis-DE/LGB 2013 digital terrain model: R. Hesse. 11 3-D-Modell:
J.May. 12 Geomagnetic data: E.Lück,U.Spangenberg,Th.Schenk,Th.Goldmann; Plan:
Th.Schenk; Added graphics: J.May. 13 M.Lehmann,M.Koch,Labor für Photogrammetrie, Beuth Hochschule für Technik in Berlin. 14 Laser scan and profile: FIAK- Cottbus;
added graphics: A. Kühne, J. May. 15 Geographic base data: © GeoBasis-DE/LGB 2013;
digital terrain model: R. Hesse; Archaeological interpretation and graphic design: J. May;
graphic: R. Hesse. 16 From Parzinger, Zajbert, et al. 2003, fig. 52. 17 From Parzinger,
Nagler, and Gotlib 2010, fig. 60. 18 From Петренко 2006, table 2; graphical reworking
of M.-R. Boroffka. 19 Brinker 1991, fig. 2. 20 From Collart, Abdul-Hak, and Dillon
1954. 21 Brinker 1991, fig. 1. 22 2009 by B. Beckers on raised digital terrain model by
G. Hell (2009). 23 2010 by B. Beckers. 24 Brinker 1991, fig. 3. 25 Photo: 2006 by M.
Gussone. 26 Brinker 1991, fig. 15. tables: 1 Table 1: Hagan Brunke et al. 2 Table
2: Hagan Brunke et al.
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Hagan Brunke
Dr. rer. nat. (Munich 1998), Dr. phil. (Munich 2008), is a member of the research
staff at the Institute of Ancient Near Eastern Languages and Civilizations of the Freie
Universität Berlin. His work focuses on the study of the Sumerian economy as well as
Mesopotamian mathematics.
Dr. Dr. Hagan Brunke
Freie Universität Berlin
Institut für Altorientalistik
Fabeckstr. 23–25
14195 Berlin, Germany
E-Mail: brunke@zedat.fu-berlin.de
Evelyne Bukowiecki
Dr. phil. (Aix en Provence 2009), has been a postdoctoral fellow at the Excellence
Cluster Topoi from 2012 to 2015 in the B2 research group XXL – Monumentalized
Knowledge. Extra-Large Projects in Ancient Civilizations. Rome’s Size. Since 2016 she is a
scientific member of the École française de Rome. The focus of her research is Roman
building construction with a particular focus on brick architecture.
Dr. Evelyne Bukowiecki
École française de Rome
Via dei Delfini, 14
00186 Roma, Italy
E-Mail: evelyne.bukowiecki@efrome.it
Eva Cancik-Kirschbaum
Dr. phil. habil., is a professor for Ancient Oriental Studies at the Freie Universität
Berlin. Her work focuses on the history of the early state, and the economic and social
history of the 2nd and 1st millennia, the history and culture of the Assyrians, and
the history of the sciences and ideas among ancient Oriental cultures. She integrates
research on the 19th and early 20th centuries AD through issues relating to reception
history and the history of scholarship in her field.
Prof. Dr. Eva Cancik-Kirschbaum
Institut für Altorientalistik
Freie Universität Berlin
Fabeckstr. 23–25
14195 Berlin, Germany
Ricardo Eichmann
Dr. phil. (Heidelberg 1984), University Professor for Middle Eastern Archaeology
(Tübingen 1995–1996), has served as professor at and the director of the Orient
Department of the German Archaeological Institute (DAI) since 1996, where he heads
research projects in Saudi Arabia and Qatar. His current work focuses on oases on the
Arabian peninsula, archaeological building research and music archaeology.
Thinking Big. Research in Monumental Constructions in Antiquity
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Prof. Dr. Ricardo Eichmann
Deutsches Archäologisches Institut
Orient-Abteilung
Podbielskiallee 69–71
14195 Berlin, Germany
E-Mail: ricardo.eichmann@dainst.de
Margarete van Ess
Dr. phil. (Berlin 1996), is Scientific Director of the Orient Department of the German
Archaeological Institute (DAI) and Ancient Near Eastern Archaeologist. She heads
archaeological research projects in Lebanon and Iraq. Her research focuses on the
building history of Mesopotamian architecture, landscape archaeology and ceramics
research.
Dr. Dr. h.c. Margarete van Ess
Deutsches Archäologisches Institut – Orient-Abteilung
Podbielskiallee 69–71
14195 Berlin, Germany
E-Mail: orient@dainst.de
Anton Gass
Dr. phil (Berlin 2012), has been a member of the research staff at Stiftung Preußischer
Kulturbesitz since 2012. His work focuses on the cultural development of early Bronze
Age societies in southern Siberia, cultural change from the Bronze to the Iron Age
in Central Asia, and the origins and social structure of the early mounted nomads
(Scythians) during the 1st millennium BC in the Eurasian steppe.
Dr. Anton Gass
Stiftung Preußischer Kulturbesitz
Archäologisches Zentrum
Geschwister-Scholl-Str. 6
10117 Berlin, Germany
E-Mail: a.gass@smb.spk-berlin.de
Martin Gussone
Dipl.-Ing. Architektur (Berlin 1998), is member of the scientific technical staff at
the department ‘Archaeology of Buildings’ of the Berlin Institute of Technology.
Since 2006, he has served as technical director of the project Resafa-Sergiupolis/Rusafat
Hisham. Pilgrimage City and Residence of the Caliphs (general director Dorothée Sack).
Dissertation project: Resafa-Rusafat Hisham, Syria. A comparative assessment of the results
of archaeological prospections. In Resafa, he is also involved in the Archaeological Map
and Survey III working groups, and in a study on the recent village and its inhabitants.
Dipl.-Ing. Martin Gussone
Technische Universität Berlin
FG Historische Bauforschung, A 58
Str. des 17. Juni 152
10623 Berlin, Germany
E-Mail: martin.gussone@tu-berlin.de
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Sebastian Hageneuer
M.A. (Berlin 2010), is the managing director of the graphics bureau Artefacts and also
doctoral candidate at the Freie Universität Berlin. His work focuses on the archaeological reconstruction of antique architecture and the visual language of Middle
Eastern archaeology as well as its research history. His dissertation focuses on the
development history of architecture reconstruction in the image media of Middle
Eastern archaeology.
Sebastian Hageneuer, M.A.
Herderstr. 10
12163 Berlin, Germany
E-Mail: s.hageneuer@fu-berlin.de
Svend Hansen
Born in Darmstadt in 1962, studied prehistoric and classical archaeology, and religious
studies at Freie Universität Berlin (FU). He earned his PhD in 1991 with a thesis
on Bronze Age hoards and his Habilitation in 1999 at Ruhr-Universität Bochum
with a study on Neolithic sculpture. In 2003, he became the director of the Eurasia
Department of the German Archaeological Institute (DAI) and, in 2004, honorary
professor at FU. Since 2005, he has been one of the spokespersons for the research
cluster Innovationen: technisch, sozial of which he is also a co-founder.
Prof. Dr. Svend Hansen
Eurasien-Abteilung des Deutschen Archäologischen Instituts
Im Dol 2–6
14195 Berlin, Germany
E-Mail: svend.hansen@dainst.de
Werner Kogge
Dr. phil. habil., is responsible for theoretical and methodological linkages at the
Excellence Cluster Topoi (Topoi Lab, Area B). He teaches at the Institute of Philosophy
at the Freie Universität Berlin. His research ranges from linguistic and cultural theory
through to the philosophy of science and technology.
PD Dr. Werner Kogge
Freie Universität Berlin
Exzellenzcluster Topoi
Hittorfstraße 18
14195 Berlin, Germany
E-Mail: werner.kogge@topoi.org
Jens May
Diplom-Prähistoriker (Halle, Sa. 1989), is head lecturer for Practical Archaeology at
Brandenburgisches Landesamt für Denkmalpflege und Archäologisches Landesmuseum (Brandenburg State Authorities for Heritage Management and State Museum
of Archaeology) and a member of the research staff in the Topoi research project B25: The Ritual Landscape in the Area of the Royal Tomb of Seddin in the Prignitz. His work
focuses on the Nordic Bronze Age, the Roman Empire and metrology.
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Dipl.- Prähist. Jens May
Brandenburgisches Landesamt für Denkmalpflege und Archäologisches
Landesmuseum
Dezernat Bodendenkmalpflege
Referat Praktische Archäologie
Gebietsbodendenkmalpflege Prignitz-Havelland
Wünsdorfer Platz 4-5
15806 Zossen OT Wünsdorf, Germany
E-Mail: jens.may@bldam-brandenburg.de
Hermann Parzinger
Dr. phil. (Munich 1985), Habilitation (Munich 1991), has been a honorary professor
for prehistoric archaeology at the Freie Universität Berlin since 1996. He served as
the president of the German Archaeological Institute (DAI) in Berlin (2003–2008)
and has been the president of the Stiftung Preußischer Kulturbesitz (Prussian Cultural Heritage Foundation) since 2008. Current research interests: origins and social
structure of early mounted nomads (Scythians) in the Eurasian steppe during the 1st
millennium BC, the rise of élites in societies in prehistory and early history, the loss
of cultural artifacts in German and Russian museums during World War II.
Prof. Dr. Dr. h.c. mult. Hermann Parzinger
Stiftung Preußischer Kulturbesitz
Präsident
Von-der-Heydt-Str. 16–18
10785 Berlin, Germany
E-Mail: parzinger@hv.spk-berlin.de
Olof Pedersén
Fil. Dr. (Uppsala 1985), is professor of Assyriology at Uppsala Universitet in Sweden.
He has been collaborating for many years with Ancient Oriental Studies faculty at
the Freie Universität Berlin and the Vorderasiatisches Museum, Stiftung Preußischer
Kulturbesitz (Prussian Cultural Heritage Foundation). His current work focuses on
a reconstruction of Babylon thereby using ancient texts and archaeological material
in order to create a new interpretation, including a digital model of the city divided
according to main attested periods.
Prof. Olof Pedersén
Uppsala University
Department of Linguistics and Philology
P.O. Box 635
75126 Uppsala, Sweden
E-Mail: olof.pedersen@lingfil.uu.seail
Dorothée Sack
Dipl.-Ing. Architektur (Karlsruhe 1975), Dr.-Ing. (Karlsruhe 1982), Habilitation
(Frankfurt/Main 1994), is professor for Archaeology of Buildings and has headed the
masters study program Heritage Conservation at the Berlin Institute of Technology
since 1998. Since 2006, she has headed the project Resafa-Sergiupolis/Rusafat Hisham,
Syria. Pilgrimage City and Residence of the Caliph at the German Archaeological Institute
(DAI). Her field of work is ‘Archaeology of Buildings’, and one research focus is the
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early Islamic residence of the caliph Hisham b. Abd al-Malik in Resafa, Syria. She also
heads several research projects in Berlin – Brandenburg and Wittenberg.
Prof. Dr.-Ing. Dorothée Sack
Technische Universität Berlin
FG Historische Bauforschung, A 58
Str. des 17. Juni 152
10623 Berlin, Germany
E-Mail: dorothee.sack@tu-berlin.de
Franz Schopper
Dr. phil. (Regensburg 1995), served from 2004 to 2012 as museum director and professor at the Brandenburgisches Landesamt für Denkmalpflege und Archäologisches
Landesmuseum (Brandenburg State Authorities for Heritage Management and State
Museum of Archaeology), where he has served as director since 2012. He has been
an honorary professor for prehistory at the Freie Universität Berlin since 2014. His
work focuses on Late Bronze Age and Early Iron Age in Central Europe as well as on
medieval archaeology in Brandenburg.
Prof. Dr. Franz Schopper
Direktor
Landesarchäologe und Museumsdirektor
Brandenburgisches Landesamt für Denkmalpflege
und Archäologisches Landesmuseum
Wünsdorfer Platz 4–5
15806 Zossen, OT Wünsdorf, Germany
E-Mail: franz.schopper@bldam-brandenburg.de
Ulrike Wulf-Rheidt
Dr.-Ing. (Karlsruhe 1997), Prof. (FU Berlin 2009) is the head of the Department of
Architecture at the German Archaeological Institute at Berlin and heads the research
project The Development of Roman Imperial Palaces on the Palatine Hill in Rome. Her work
focuses on Hellenistic and Roman architecture with a focus on residential and palace
architecture, as well as urban development.
Prof. Dr.-Ing. Ulrike Wulf-Rheidt
Deutsches Archäologisches Institut
Architekturreferat
Podbielskiallee 69–71
14195 Berlin, Germany
E-Mail: ulrike.wulf-rheidt@dainst.de
Hauke Ziemssen
Dr. phil. (Hamburg 2006), a classical archaeologist and the executive secretary of
the Excellence Cluster Topoi at the Freie Universität Berlin. His work focuses on
the archaeology and cultural history of the Roman Empire and in particular on the
architecture of late antiquity.
Thinking Big. Research in Monumental Constructions in Antiquity
Dr. Hauke Ziemssen
Exzellenzcluster 264 Topoi
Freie Universität Berlin
Hittorfstraße 18
14195 Berlin, Germany
E-Mail: hauke.ziemssen@fu-berlin.de
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