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The chronological and geospatial dynamics of fineware ceramic imports to Late Roman Hispania

Published online by Cambridge University Press:  12 August 2025

Henry Gruber*
Affiliation:
Department of History, University of North Carolina, Chapel Hill
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Abstract

This article maps and analyzes the presence and non-presence of four classes of fineware ceramics in Late Roman Spain. It begins by mapping each of the classes spatially, before comparing their relative frequency in 15 specially constructed regions. It shows the inverse relationship between the presence of African Red Slip Ware and its local Spanish imitators; it then posits possible routes for Gallic imports and demonstrates that eastern Mediterranean imports were primarily restricted to the coast. It then analyzes the chronological pattern of ARSW imports across five horizons, showing a decrease in the number of sites that received these African imports in the mid-5th c. (60%) and the mid-6th c. (40%), especially inland and in the Guadalquivir Valley. The late 5th and early 6th c. was a period of stability and even expansion. By the late 6th c., however, few residents of post-Roman Spain had access to Roman-style dinnerware.

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Article
Copyright
© The Author(s), 2025. Published by Cambridge University Press
Figure 0

Table 1. The four major types of Late Roman fineware found in Hispania. ARS here includes all three major subtypes: A, C, and D. The terminal date 500 CE for DSP represents the end of its importation into Hispania; production at Marseille, but not other production centers, seems to have continued longer. Few of these late forms appear at sites in Hispania.

Figure 1

Fig. 1. Comparative distribution of ARS-A (ca. 100–200 CE) and ARS-C (mostly ca. 225–400 CE), with sites where either ceramic type is found marked with unfilled circles. Although the distributions are fundamentally similar, ARS-C has more of a presence in the interior of the peninsula (both in the central Meseta and around Mérida), although neither of the two classes is widespread beyond the coast. (Map by the author.)

Figure 2

Fig. 2. The distribution of ARS-D, depicted through unfilled circles to show denser clusters. The Mediterranean coastal regions, the southern Atlantic façade up to Lisbon, and the Guadalquivir Valley show deep integration with Africa. Note the recently recognized concentration of African imports in the rural hinterland of Complutum (marked with a square), around what is now Madrid in the very center of the peninsula. This cluster was revealed by intensive survey associated with the expansion of Spain’s capital. (Map by the author.)

Figure 3

Fig. 3. Distribution of late Spanish sigillata (TSHT), differentiating between the northern and southern productions. The northern production is usually the assumed, and therefore unmarked, category in field reports, and the production center is not specified. The southern TSHT-M production (in red), whose distribution is centered in the upper Guadalquivir south of Córdoba, but does not extend along the river to Seville, demonstrates how ceramics could move without riverine or coastal transport. Note the one find-site just to the north of the central system of mountains. (Map by the author.)

Figure 4

Fig. 4. The distribution of the sites where ceramics that have been classified as DSP are found, showing proposed distribution routes both on land and by sea for both the Atlantic and Mediterranean productions. The scattering of sites where this ceramic type has been reported in the center of the peninsula (marked with a square) is the subject of fierce debate: can we differentiate authentic Gallic imports from their Spanish imitators? Could the Romans? (Map by the author.)

Figure 5

Fig. 5. The distribution of LRC/Phocaean Red Slip Ware in Hispania. Of particular note are: the almost exclusively coastal distribution; the high density of finds along the Atlantic coast, somewhat understated in this map due to the dense cluster at Vigo, in the northwest, marked by a star; and finally, the cluster marked with a square near the Pulo de Lobo waterfall on the Guadiana River southwest of Mérida, which shows the point beyond which seagoing ships could not travel. (Map by the author.)

Figure 6

Table 2. The 15 regions of Spain, and the number of sites in each with each type of fineware. The cells are shaded with respect to each region’s own distributions: the darker the shading, the more common that type of ceramic is within a particular region. The data in this chart is most useful for comparison within regions rather than between them.

Figure 7

Table 3. Distribution of fineware types by region, as a percentage of total sites with any form of Late Roman fineware. The shading represents the saturation across the entire dataset, rather than just in each region, and therefore allows for comparison between regions rather than only within them, as in Table 2 above.

Figure 8

Fig. 6. Distribution of four Late Roman ceramic classes by region. Each is shaded according to a 9-division natural breaks (Jenks) classification in QGIS. Observe the inverse densities of ARS and TSHT, the fundamentally Atlantic distribution of LRC, and how the “Ebro Valley” region obscures the multiple distribution routes of DSP, a problem exacerbated when using the province Tarraconensis (which includes both Mediterranean and Atlantic coasts) as an analytical region. (Map by the author.)

Figure 9

Table 4. The forms of ARS-C and ARS-D found at 100 or more sites in Hispania, with rough production dates for each. The most common forms are the Hayes 61A and the Hayes 67, both mid-to-late 4th-c. forms produced into the 5th c. The Hayes 61B, produced from ca. 425, is significantly less common in Hispania than the Hayes 61A, showing the steep drop-off in ARS imports in the early 5th c.

Figure 10

Fig. 7. Mapping the changing import horizons of ARS in space. Note the particularly large drop between the late 4th/early 5th c. horizon and the mid-5th c. horizon in inland areas, as well as the continued, if somewhat diminished, presence of ARS along the coasts. (Map by the author.)

Figure 11

Table 5. Ceramic horizons. The horizons constructed and used by Fernández Fernández, working at Vigo on the Atlantic façade, and by García Vargas and Vásquez Paz, based on their surveys of the lower Guadalquivir near Seville, as well as the three-horizon model used by Paz Peralta at Zarazoga. Note the differences between their treatments of the Hayes 61 and 91 forms. Fernández Fernández does not separate out Hayes 61B, nor does he indicate any subforms for Hayes 91 in his horizons. Disagreement over the Hayes 91A/B chronology is common and reflects the changing views of Hayes and his interlocutors.

Figure 12

Table 6. ARS import horizons. Each horizon seeks to capture a packet of imported ceramics circulating during one 75-year period. These show participation in exchange networks: after, but most likely also during, a given period.

Figure 13

Table 7. Sites with ARS imports, over five successive time horizons. The darkest shade represents, for each region, the period with the highest number of sites reporting ARS. The apogee of imports in each region except the Balearics is in the period ca. 350–425. The total number of sites in each region with any form of Late Roman fineware (a useful proxy for region size) helps calibrate totals between regions.

Figure 14

Table 8. The percentage of sites with any late fineware in each region that has each horizon of ARS. This allows the trans-temporal comparison of ARS penetration by region. Note particularly the saturation of the middle Guadalquivir Valley in the period 350–425 CE, followed by a complete collapse in the percentage of sites with 5th-c. ARS.

Figure 15

Table 9. The rate of change of ARS imports. Those regions that outperformed the peninsular average are marked in bold text; those that underperformed are marked in italics. Note that, within the overall collapse between the ca. 350–425 horizon and the 425–500 horizon, there is a comparatively smaller drop-off in the coastal regions (especially the Mediterranean coasts). The decline in ARS in these coastal regions is most prevalent after ca. 500. The Balearic Islands, though similarly affected by the decline ca. 400–450, demonstrate a recovery in the late 5th c. and through the 6th, confirming their important role in the Mediterranean economy after the end of Roman hegemony.

Figure 16

Fig. 8. Collapse in ARS imports by region. The decline in the percentage of late sites with ARS between the late 4th and mid-5th c., in map form. The darker the shading, the greater the decline. Based on the data in Table 9. Particularly clear here is the outlier represented by the middle Guadalquivir (marked with a black rectangle), which defies the otherwise fairly straightforward link between transport distance from Africa and comparative decline. (Map by the author.)

Figure 17

Fig. 9. Decreasing prevalence of ARS imports upriver from Seville. In the late 4th c., the dispersed landscape of villas between Seville and Córdoba was well-supplied with ARS (marked by white circles). By the later 5th c., only those sites marked by squares, primarily clustered around the port city of Seville, were receiving ARS imports. (Map by the author.)