Roman military engineering

Roman military engineering

The military engineering of Ancient Rome's armed forces was of a scale and frequency far beyond that of any of its contemporaries. Indeed, military engineering was in many ways institutionally endemic in Roman military culture, as demonstrated by the fact that each Roman legionary had as part of his equipment a shovel, alongside his "gladius" (sword) and "pila" (spears).

Fabri were workers, craftsmen or atisans in Roman society and descriptions of early Roman army structure (Legion assumed) attributed to king Servius Tullius describe there being two centuriae of fabri under an officer, the pruefectus fabrum.

Roman military engineering took both routine and extraordinary forms, the former a proactive part of standard military procedure, and the latter of an extra-ordinary or reactionary nature.

Proactive and routine military engineering

The Roman legionary fortified camp

Each Roman legion had a military legionary fort as its permanent base. However, when on the march, particularly in enemy territory, the legion would, after a day's marching, construct a fortified camp or "castra", requiring as raw materials only earth, turf and timber. Camp construction were the responsibility of special engineering units to which specialists of many types belonged, officered by "architecti" (engineers), from a class of troops known as "immunes" since they were excused from or, literally, immune from, regular duties. These engineers would requisition manual labor from the soldiers at large as required. A legion could throw up a camp under enemy attack in as little as a few hours. Judging from the names, they probably used a repertory of camp plans from a set textbook, selecting the one appropriate to the length of time a legion would spend in it: "tertia castra", "quarta castra": "a camp of three days", "four days", etc. They were also known to use machinery that weighed less but had a greater impact.

Bridge building

The engineers also built bridges from both timber and stone depending on required permanence, time available etc. Some Roman stone bridges survive to this day. Stone bridges were made possible by the innovative use of the keystone to allow an arch construction. One of the most notable examples of military bridge-building in the Roman Empire was Julius Caesar's Bridge over the Rhine River. This bridge was completed in only ten days and is conservatively estimated to be more than 100 m (300 feet) long. [Nebel, B. "Julius Cäsars Brücke über den Rhein"] [Voggenreiter, A., "Historischer Rückblick"] The construction was deliberately over-engineered for Caesar's stated purpose of impressing the Germanic tribes [Caesar writes in his "War in Gaul" that he rejected the idea of simply crossing in boats because it "would not be fitting for my own prestige and that of Rome" - at the time, he did not know that the Germanic tribes had already in fact withdrawn from the area upon his arrival] , who had little experience of engineering, and to emphasise that Rome could travel wherever she wished. Caesar was able to cross over the completed bridge and explore the area uncontested, before crossing back over and dismantling the bridge. Caesar relates in his "War in Gaul" that he "sent messengers to the Sugambri to demand the surrender of those who had made war on me and on Gaul, they replied that the Rhine was the limit of Roman power". The bridge was intended to show otherwise.

Engineering siege machines

Although most Roman siege engines were adaptations from earlier Greek designs, the Romans were adept at engineering them swiftly and efficiently, as well as innovating variations such as the repeating ballista. The 1st century BC army engineer Vitruvius describes in detail many of the Roman siege machines in his manuscript De Architectura.

Road making

When invading enemy territories, the Roman army would often construct roads as they went, to allow swift reinforcement and resupply, as well as a path for easy retreat if necessary. Roman road-making skills are such that some Roman roads survive to this day. Grant credits the Roman building of the Via Appia with winning them the Second Samnite War [Michael Grant, The History of Rome, p. 52] .

Civilian engineering by military troops

The Roman army also took part in building projects for civilian use. There was sound reasons for the use of the army in building projects: primarily, that if they weren't directly engaged in military campaigns, the legions were largely unproductive, costing the Roman state large sums of money. But the involvement of the soldiers in building works, kept them not only well accustomed to hard physical labour, but also kept them busy, since it was the widely held belief that busy armies weren't plotting to mutiny, whereas idle armies were.

Of both military and civilian use was the construction of roads within the boundaries of the Empire, in which the army was heavily involved. But so too were soldiers put to use in the construction of town walls, the digging of shipping canals, the drainage of land, aqueducts, harbours, even in the cultivation of vineyards. In some rare cases soldiers were even used in mining work.

Mining operations

They were also skilled in conducting mining operations such as building the many aqueducts needed for prospecting for metal veins, in methods like hydraulic mining, and the building of reservoirs to hold the water at the minehead. It is likely that they were also capable of building and operating mine equipment such as water mills, stamp mills and dewatering machines. It is likely that they were closely involved in exploiting gold resources such as those at Dolaucothi in south west Wales. It was developed soon after conquest of the region under Frontinus, and the local auxiliary troop came from north-west Spain, a country where gold mining developed on a very large scale in the early part of the first century AD.

Reactive and extraordinary engineering

The knowledge and experience learned through such routine engineering lent itself readily to any extra-ordinary engineering projects required by the army, and it is here that the scale of Roman military engineering exceeded that of any of its contemporaries in both imagination and scope.

One of the most famous of such extra-ordinary constructions was the circumvallation of the entire city of Alesia and its Celtic leader Vercingetorix, within a massive length of double-wall - one inward-facing to prevent escape or offensive sallies from the city, and one outward-facing to prevent attack by Celtic reinforcements. This wall is estimated to be over 20 km (13 miles) long

A second example would be the massive ramp built using thousands of tons of stones and beaten earth up to the invested city of Masada in the Jewish Revolt. The siege works and the ramp remain in a remarkable state of preservation today.

Notes

ee also

*Roman architecture
*Roman aqueducts
*Roman engineering
*Trajan's column
*List of Roman Pontoon bridges

References

Primary Sources

(none yet)ok

econdary Sources

(none yet)

External links

* [http://traianus.rediris.es/ Traianus] - Technical investigation of Roman public works

ee also

(no links yet)


Wikimedia Foundation. 2010.

Игры ⚽ Поможем решить контрольную работу

Look at other dictionaries:

  • Military engineering — For soldiers who perform construction and demolition tasks in battle, see Combat engineer. For engineering research and development conducted for the military, see Military technology. Relief map of the Citadel of Lille, designed in 1668 by… …   Wikipedia

  • Military Engineering-Technical University — Военный инженерно технический университет Engineering castle. Main Military Engineering school with 1823, now branch of Russian Museum near VITU Motto Spiritual force and engineering competence …   Wikipedia

  • Roman military diploma — This article is part of the series on: Military of ancient Rome (portal) 753 BC – AD 476 Structural history Roman army (unit types and ranks …   Wikipedia

  • military engineering — Art and practice of designing and building military works and of building and maintaining lines of military transport and communications. It includes both tactical support (see tactics) on the battlefield, including construction of fortifications …   Universalium

  • Campaign history of the Roman military — This article is part of the series on: Military of ancient Rome (portal) 753 BC – AD 476 Structural history Roman army (unit types and ranks …   Wikipedia

  • Military of ancient Rome — This article is part of the series on: Military of ancient Rome (portal) 753 BC – AD 476 Structural history Roman army (unit types and ranks …   Wikipedia

  • Technological history of the Roman military — The technology history of the Roman military covers the development of and application of technologies for use in the armies and navies of Rome from the Roman Republic to the fall of the Western Roman Empire. The rise of Hellenism and the Roman… …   Wikipedia

  • Strategy of the Roman military — The strategy of the Roman Military encompasses its grand strategy (the arrangements made by the state to implement its political goals through a selection of military goals, a process of diplomacy backed by threat of military action, and a… …   Wikipedia

  • Military engineer — A military engineer is primarily responsible for the design and construction of offensive, defensive, and logistical structures for warfare. Other duties include the layout, placement, maintenance and dismantling of defensive minefields and the… …   Wikipedia

  • Roman technology — is the engineering practice which supported Roman civilization and made the expansion of Roman commerce and Roman military possible over nearly a thousand years. The Roman Empire had the most advanced set of technology of their time, some of… …   Wikipedia

Share the article and excerpts

Direct link
Do a right-click on the link above
and select “Copy Link”