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Acqua Vergine

The Acqua Vergine, also known as the Aqua Virgo in , is an ancient constructed in 19 BC by to supply fresh water to the district and public baths in . Spanning approximately 21 kilometers from its source near the Salone area east of , it follows a mostly subterranean course with a gentle gradient of 0.013%, entering the city walls at the Muro Torto and emerging on arches in areas like Via del Nazareno before distributing water through a network that originally delivered around 100,000 cubic meters per day. Uniquely among 's eleven ancient aqueducts, it has remained in continuous operation, though its water was deemed non-potable in 1961 and is now primarily used for irrigating gardens and feeding iconic Baroque fountains such as the , the Fountain of the Four Rivers in , and the Barcaccia at the . The aqueduct's name derives from a legend recounted by ancient sources, in which a young maiden (virgo) revealed its water source to Agrippa's thirsty soldiers during construction, leading to its dedication as a symbol of purity. Initially comprising underground channels and a 1,036-meter elevated section supported by 139 arches reaching up to 9 meters high, it was later repaired by Emperor in 46 AD and Emperor , ensuring its resilience through the fall of the . In the period, as the sole surviving ancient aqueduct in medieval , it underwent significant restorations under papal patronage: initiated repairs in 1453 with advice from architect , funding initial work with 200 ducats; subsequent efforts by Popes Paul II (1466), Sixtus IV (1475 for the ), Paul III (planned in 1535), and Pius V (completed in 1570, extending it back to the Salone source) transformed it into a vital urban lifeline, supplying the and enabling the construction of new public fountains along . Further modernizations in the , including a 1735 extension under to enhance the [Trevi Fountain](/page/Trevi Fountain), and 20th-century works in the 1930s, have preserved its functionality, with the contemporary Acqua Vergine Nuovo—an elevated branch of 13 kilometers—continuing to channel water from the original for ornamental purposes. This enduring infrastructure not only exemplifies prowess but also underscores the aqueduct's cultural significance in shaping Rome's hydraulic heritage and festive traditions.

History

Origins and Construction

The Acqua Vergine, originally known as the Aqua Virgo, was commissioned and completed in 19 BC by , a prominent general and close ally of Emperor . This aqueduct marked the sixth major water conduit built to serve , constructed at Agrippa's personal expense to support the city's expanding infrastructure needs. Its development aligned with Augustus's broader urban renewal efforts following the in 31 BC, which stabilized the Roman Republic's transition to imperial rule and spurred public works to enhance civic life. Planning for the Aqua Virgo likely commenced around 20 BC, coinciding with Agrippa's return from military campaigns in the East and his appointment as in 19 BC. Construction involved meticulous of potential water sources and the initial tapping of springs located near the eighth along the Via Collatina, approximately two miles to the left of the Via Praenestina in the agro Lucullano region. These springs, situated in a marshy area, provided a reliable flow that , the Roman engineer writing in the late 1st century AD, described as originating from multiple small outlets later consolidated into a single channel. The project was dedicated on June 9, 19 BC, as recorded by and , reflecting Agrippa's efficiency in executing large-scale engineering within a short timeframe. The aqueduct was seamlessly integrated into Agrippa's extensive infrastructure initiatives in the , a low-lying district west of the that had previously lacked adequate . It primarily fed the newly constructed —the first large public baths in —as well as sewers, fountains, and other amenities in the area, transforming the into a vibrant urban hub with gardens, porticos, and recreational facilities. By addressing chronic shortages from earlier aqueducts like the Aqua Appia, which struggled to reach higher elevations and newer developments, the Aqua Virgo enabled the distribution of fresh water to these emerging districts, supporting population growth and public hygiene in the late Republic. Spanning approximately 20.5 km in total length, it emphasized subterranean channels to maintain a gentle gradient suitable for the terrain.

Name and Legend

The name Aqua Virgo, later known as Acqua Vergine in Italian, derives from the Latin word virgo, meaning "virgin," which ancient sources attribute to both a legendary event and the perceived purity of its waters. According to the Roman engineer Sextus Julius Frontinus in his treatise De Aquaeductu (ca. 97–100 AD), the aqueduct earned its name from a young maiden who guided thirsty soldiers—sent by Marcus Agrippa during the aqueduct's construction around 19 BC—to a hidden spring in the countryside near Rome. Upon reaching the site and digging, the soldiers discovered an abundant water source; the girl then vanished, prompting the naming in her honor as a symbol of virginal guidance and purity. Frontinus further notes that a painting depicting this scene was housed in a small temple at the spring's location, underscoring the legend's cultural significance in Roman lore. Alternative interpretations of the name emphasize the water's untainted quality rather than the . , in his (ca. 77 AD), describes the Aqua Virgo as exceptionally clear and uncontaminated, suggesting its "virgin" moniker reflects its refusal to mix with impure nearby waters, such as those from a sacred to , which it actively avoided during its course. This view aligns with later accounts, like that of in his Variae (6th century AD), who praised the aqueduct's waters for remaining pristine even after heavy rains, free from the sediment that affected other conduits. These explanations highlight the Romans' admiration for the aqueduct's reliable, "virgin" flow, distinguishing it from more polluted systems. The legend and etymology first appear in literary records during the late AD, with providing the most detailed account in De Aquaeductu, where he catalogs Rome's eleven aqueducts and their origins as part of his role as water commissioner. Pliny's offers an early contemporary mention, embedding the aqueduct within broader discussions of Roman and marvels, though without the maiden narrative. These texts, drawn from official records and eyewitness traditions, preserve the mythological foundations of the Aqua Virgo's identity, blending practical with evocative storytelling.

Restorations and Maintenance

The Aqua Vergine, originally constructed by Marcus Agrippa in 19 BC, experienced its first major restoration in 37 AD under Emperor Tiberius, who addressed damages resulting from prolonged neglect following Agrippa's death. This effort involved minor repairs to the aqueduct's infrastructure, as evidenced by inscribed boundary markers (cippi) placed along its course, which bore Tiberius' name and marked protected zones every 240 Roman feet. Subsequently, in 45–46 AD, Emperor undertook more extensive repairs, including the reinforcement of underground channels and the construction of new ornamental arches to span urban thoroughfares like the Via Lata (modern ). These works restored the aqueduct's functionality after damages possibly inflicted during Caligula's reign, with dedicatory inscriptions commemorating the project, such as one detailing the rebuilding of the "arcus ductus aquae Virginis." Later imperial interventions included restorations in the by , documented in an inscription (CIL VI.31564) highlighting his contributions to the aqueduct's maintenance. By the , under , efforts to conserve Rome's aqueducts were ordered, as recorded in Cassiodorus' Variae (Book III, Letter 31), emphasizing preservation of systems to sustain the city's Roman heritage. During the medieval period, the aqueduct faced intermittent functionality due to challenges such as silting from calcium deposits in its channels, which had earlier noted as a recurring issue requiring regular cleaning, as well as damages from earthquakes and invasions. Notably, in 537 AD, the conduit was cut by Byzantine general during the Gothic War to deny water to besiegers, exacerbating neglect. Basic maintenance was performed by in the (circa 774–786 AD), refurbishing sections including a new terminus near the modern Piazza di Trevi. Further revival came in 1453 under , who partially restored the system and modified its terminal fountain into a single basin, marking a key effort before expansions. These medieval interventions grappled with ongoing silting and structural decay from seismic events, like those in the 5th and 6th centuries, leading to periods of disuse until more comprehensive repairs in the period. As the sole surviving ancient aqueduct in medieval , the Acqua Vergine underwent significant restorations under papal patronage during the . Pope Nicholas V initiated repairs in 1453 with advice from architect , funding initial work with 200 ducats. Subsequent efforts included restorations by in 1466, and by in 1475 to prepare for the Jubilee Year. planned further works in 1535, which were completed under in 1570, extending the aqueduct back to its original Salone source. These projects transformed it into a vital urban lifeline, supplying the and enabling the construction of new public fountains along .

Engineering and Design

Source and Hydrology

The Aqua Vergine, known in antiquity as the Aqua , draws its water from multiple subterranean springs located in a marshy valley near the eighth milestone along the Via Collatina, approximately 20 kilometers east of in the modern Salone area. These springs, situated on the estate of (Ager Lucullanus) at an elevation of about 23 meters above , were enclosed by Marcus in 19 BCE within a structure to contain and direct the issuing waters, as described by the Sextus Julius in his treatise De Aquaeductu Urbis Romae. The primary Virgo spring, augmented by several feeder channels and additional outlets, forms a complex hydrological intake rather than a single source, with each spring historically feeding into its own reservoir before convergence. The springs are fed by an igneous within the Pozzolane hydrogeological complex, composed of basaltic and tufaceous formations typical of the volcanic surrounding , which provide consistent through permeable deposits. This setup yields a reliable total estimated at 100,000 cubic meters per day, supported by the aqueduct's modest of approximately 0.02 percent and predominantly subterranean course that minimizes surface losses. Unlike many other aqueducts reliant on silt-laden river sources, the Virgo's benefits from these channels, ensuring a steady flow without significant at the origin. The water from these springs is renowned for its exceptional clarity and low mineral content, making it ideal for drinking, bathing, and ornamental uses in . Contemporary accounts, such as those by and , praise its cold purity, while later noted that "the runs with delightful purity," distinguishing it from the harder, mineral-rich waters of other systems. This quality stems from the aquifer's through volcanic tuffs, which reduce impurities. Hydrologically, the system exhibits minimal seasonal variations due to the stable recharge from the igneous and karst-like permeability in adjacent formations, providing year-round reliability with low evaporation and no documented dry periods since its . The flow, sustained by rainwater infiltration into the deep subsurface, has allowed the aqueduct to operate continuously for over two , as evidenced by its modern functionality. Periodic maintenance addressed minor impurities, but the natural consistency of the sources has been a key factor in its longevity.

Route and Construction Techniques

The Acqua Vergine, known in as the , followed a circuitous path from its springs near the Via Collatina, north of , traversing low-lying terrain through valleys and agricultural lands before entering the city and crossing the to its primary distribution points. The total length of the aqueduct measured approximately 21 km (13 mi), with the majority—about 18.4 km—consisting of underground channels known as specus, which were covered to protect the flow and prevent or . Only the final 1.8 km was carried above ground on stone arches as it approached , including a notable elevated section of 139 arches spanning 1,036 m and reaching up to 9 m in height near the . This design minimized exposure while navigating urban constraints, as documented by the engineer in his treatise De Aquaeductu, where he records the route's length as 14,105 paces from along the secondary road to Amitinum. To ensure a steady gravitational without mechanical aids, the aqueduct maintained a shallow of approximately 0.02%, equivalent to a total drop of 4 m over its full length, allowing water to descend gradually while following the natural contours of the landscape. This precise leveling was achieved through techniques that prioritized the , thereby avoiding the need for siphons by skirting higher elevations to preserve the minimal slope essential for reliable delivery. The path's wide arc around hills and through shallow depressions exemplified engineering's emphasis on . Construction techniques centered on excavating durable, enclosed channels to convey the securely over long distances. The specus were typically 70–100 cm wide and 1.2–1.6 m high, dimensions sufficient for human access during maintenance while optimizing flow capacity; these were formed by cutting trenches into or earth and lining the interior with , a waterproof hydraulic cement composed of lime, , and crushed or stone for impermeability. For distribution branches within , the main channel connected to secondary lines made of lead pipes (fistulae plumbeae) for high-pressure urban delivery and terracotta pipes for less demanding extensions, enabling flexible routing to public fountains and . Maintenance was facilitated by vertical shafts spaced approximately every 100–150 m along underground sections, providing entry points for cleaning sediment, inspecting leaks, and repairing damage—critical given the aqueduct's exposure to mineral buildup from its spring source. These shafts, often lined with , underscored the Romans' foresight in integrating accessibility into the design, ensuring longevity through routine intervention.

Capacity and Distribution

The Acqua Vergine, constructed in 19 BC under Marcus Agrippa, had a designed capacity of approximately 100,000 cubic meters of water per day, making it the third largest of Rome's aqueducts and sufficient to supply the water needs of 50,000 to 100,000 inhabitants based on contemporary per capita consumption estimates of around 1,000 liters per person daily. This volume was measured by Sextus Julius Frontinus in quinariae units, with the aqueduct delivering about 2,504 quinariae at its intake near the seventh milestone, equivalent to a steady flow that supported both essential public infrastructure and elite private amenities in the city. The network of the Acqua Vergine extended across Rome's 14 administrative regions, branching from a primary terminus at a major adjacent to the in the , where water was allocated through a system of 18 —elevated tanks that regulated pressure and directed flows to prevent surges or stagnation. These branches supplied public fountains for general access, grand baths such as the Thermae Agrippae, private residences of the elite, and ornamental gardens, with roughly 66% of the water directed to the and Transtiberim areas for both utilitarian and luxurious uses, including industrial zones along the via the Euripus canal. According to , the aqueduct's allocation adhered to imperial guidelines, devoting approximately 43% of its capacity to public uses like fountains and baths, while the remaining 57% supported private allocations, including imperial properties and suburban estates, enforced through lead pipes (fistulae) of standardized diameters to ensure equitable yet prioritized . To maintain efficiency, the aqueduct's channels were engineered with a precise of approximately 0.02%, achieving a controlled flow speed of 0.5 to 1 meter per second that minimized buildup and while maximizing delivery volume. Losses were kept under 10% through the use of sealed, lime-lined specus (conduits) that reduced seepage and , a design innovation that praised for its reliability in sustaining the aqueduct's output over long distances with minimal waste.

Modern Legacy

Current Operation and Infrastructure

The Acqua Vergine, originally known as Aqua Virgo, underwent significant restoration during the , culminating in the restoration of the Acqua Vergine in 1570 under . This project involved retrieving water from the original Salone springs and constructing new channels, maintaining the aqueduct's length at approximately 21 km to ensure reliable flow into central . Further modernization occurred between 1932 and 1937 under the fascist regime, when the aqueduct was effectively doubled in capacity through the addition of the parallel Nuovo Acquedotto Vergine Elevato, a 13 km that included a near the springs to boost hydraulic pressure. This enhancement supported increased urban demands during the era's initiatives. Today, the Acqua Vergine is managed by Acea, Rome's primary water utility, which oversees its integration into the city's broader water network while preserving its historical integrity as a separate heritage line. The infrastructure consists primarily of approximately 18 km of underground conduits, drawing from the ancient Salone springs and supplying water exclusively to monumental fountains in Rome's historic districts since 1961, when it was deemed non-potable due to contamination risks. Ongoing maintenance includes periodic desilting to remove sediment buildup and the operation of monitoring stations for real-time flow and quality assessment, with Acea employing remote control systems to regulate valves and detect issues. Technical specifications emphasize minimal modernization to retain the aqueduct's original gravity-fed design, with pressure pumps added only sparingly at key points like the 1937 water tower to maintain flow without altering the natural gradient. Water from the preserved ancient springs undergoes regular purity testing by Acea, focusing on chemical and bacteriological parameters to ensure suitability for ornamental use, though it is not distributed for consumption.

Cultural and Architectural Impact

The Acqua Vergine has left an indelible mark on , serving as the vital water source for several landmark fountains that embody the city's and ingenuity. The most prominent example is the , constructed between 1732 and 1762 under the direction of architect and completed by Giuseppe Pannini, which marks the aqueduct's endpoint with a dramatic facade integrating mythological sculptures of , tritons, and allegorical figures into the Palazzo Poli. This design not only revived ancient hydraulic traditions but also symbolized the harmonious blend of , , and water flow, influencing subsequent urban water features across Europe. Most recently, the underwent a comprehensive restoration from 2023 to 2024, reopening in December 2024 ahead of the 2025 Jubilee, ensuring the continued vitality of the Acqua Vergine's water supply. In the period, the aqueduct's restoration initiated by in 1453—with contributions from architect —spurred a revival of classical engineering principles, directly inspiring new public fountains, such as the constructed in 1575-1576 near the ancient terminus by the . This modest yet elegant fountain highlighted the aqueduct's role in papal and set a precedent for integrating ancient infrastructure into contemporary designs, fostering Rome's expansion toward higher elevations like the . Culturally, the Acqua Vergine reinforces 's identity as the Eternal City, most iconically through the Trevi Fountain's appearances in cinema, such as the iconic nighttime scene in Federico Fellini's (1960), where wades in its waters, captivating global audiences and perpetuating the aqueduct's romantic allure. The enduring tradition of tossing a coin over one's shoulder into the fountain—ensuring a return to , with additional coins promising or —stems from ancient pagan rituals adapted to honor the "virgin" waters of the aqueduct, collecting approximately €1.5 million annually for charitable causes. The aqueduct's contributions extended to , enabling the densification and aesthetic enhancement of 's historic center by providing reliable water for public spaces, gardens, and villas during the , which elevated property values and supported population growth beyond the River. This legacy earned World Heritage status for the Historic Centre of in , recognizing the aqueducts' role in shaping the city's layered urban fabric and its status as a pinnacle of human creative genius under Criteria (i), (ii), (iii), (iv), and (vi). In modern times, the Acqua Vergine serves an educational function in illustrating ancient engineering's longevity, featured in academic studies and tours that highlight its influence on sustainable water systems. Its restoration efforts, including those tied to the of 2000, involved cleaning and maintenance to ensure continued flow to historic fountains, accompanied by celebratory events that underscore its symbolic importance in papal traditions and urban heritage.

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