ZME Science
No Result
View All Result
ZME Science
No Result
View All Result
ZME Science

Home → Science

Entire Roman Town Imaged Using Ground Penetrating Radar

Not a single inch of dirt was dug to reveal the town.

Mihai AndreibyMihai Andrei
June 9, 2020
in Science
A A
Share on FacebookShare on TwitterSubmit to Reddit

Archaeologists revealed a vibrant Roman town in central Italy, complete with a market, temples, and even a pool. Except most of it is still underground and was brought to light using remote sensing tools.

A slice of Ground Penetrating Radar (GPR) data from the Roman city of Falerii Novi (Italy) revealing the outlines of the town’s buildings. Image credits: Verdonck et al.

Falerii Novi was a walled town in the Tiber River valley, about 50 km north of Rome. It was built by the Romans in 241 BC and served as a small and defensible town for some 2,500 inhabitants.

While some of its walls and building foundations are visible on the surface, much still remains hidden. The new study, published today in Antiquity, surveyed 30.5 hectares within the city’s walls, with one scan taken every 12.5 centimeters (about 0.4 feet).

The researchers used a method called Ground Penetrating Radar (or GPR for short). GPR is not a new method, and it has been used successfully multiple times in this type of archaeological study. The radar looks a bit like a lawn-mower. You push or pull it over the area you want to survey, and it sends an electromagnetic signal under the ground (much like a normal radar does). The signal is then reflected back to the antenna, and anything that has physical properties that contrast to the surrounding soil is highlighted — in this case, archaeological structures.

This method can reveal entire structures with relative ease, and it’s non-invasive. All you need is a flat surface to pull it over. To make things even quicker, the research team pulled the antenna with a quad bike (an ATV). They were able to survey the entire town, covering an area of 30.5 hectares (75 acres), revealing the buried features without having to dig once.

A few highlighted structures from GPR data. Image credits: Verdonck et a.

Corresponding author, Professor Martin Millett from the University of Cambridge’s Faculty of Classics, said:

“The astonishing level of detail which we have achieved at Falerii Novi, and the surprising features that GPR has revealed, suggest that this type of survey could transform the way archaeologists investigate urban sites, as total entities.”

Because the team was able to basically image the entire town, they were also able to analyze the urban design. For instance, in the southern parts of town, just within the city’s walls, GPR revealed a large rectangular building connected to a series of water pipes. The pipes lead to the aqueduct.

RelatedPosts

Quarantine Soirées: The world’s best classical music is now available for your self-isolation
1 in 5 vertebrates threatened by extinction
Honda demos technology that could significantly reduce car-pedestrian crashes
Astronauts test handheld 3D printer that makes bandages from their own skin cells

The researchers tracked these pipes across much of Falerii Novi, even beneath its city blocks, and not just along the streets. This led them to believe that the structure formed an open-air pool (a natatio), forming a part of a rather large bathing complex.

Ground Penetrating Radar map of the newly discovered temple in the Roman city of Falerii Novi, Italy. Image credits: Verdonck et al.

Even more surprisingly, near the city’s north gate, the team identified a pair of large structures within a covered passageway with central row of columns. The researchers mention this does not resemble any known structure in Roman architecture, but speculated that these were part of an impressive public monument, contributing to an intriguing sacred landscape on the city’s edge.

In fact, the entire city has a rather unexpected layout, being seemingly much less structured than other known Roman cities — yet featuring remarkably elaborate features that include a temple, market building, and bath complex.

Researchers are now keen to explore other large cities using this approach.

“It is exciting and now realistic to imagine GPR being used to survey a major city such as Miletus in Turkey, Nicopolis in Greece or Cyrene in Libya”, Millett said. “We still have so much to learn about Roman urban life and this technology should open up unprecedented opportunities for decades to come.”

The gate to Falerii Novii, one of the several pieces of architecture that are still standing. Image credits: Howard Hudson / Wikipedia.

Journal Reference: L. Verdonck, A. Launaro, F. Vermeulen & M. Millett, ‘Ground-penetrating radar survey at Falerii Novi: a new approach to the study of Roman cities’, (9 June 2020). DOI: 10.15184/aqy.2020.82

ShareTweetShare
Mihai Andrei

Mihai Andrei

Dr. Andrei Mihai is a geophysicist and founder of ZME Science. He has a Ph.D. in geophysics and archaeology and has completed courses from prestigious universities (with programs ranging from climate and astronomy to chemistry and geology). He is passionate about making research more accessible to everyone and communicating news and features to a broad audience.

Related Posts

Environment

The UK Government Says You Should Delete Emails to Save Water. That’s Dumb — and Hypocritical

byMihai Andrei
12 hours ago
Health

In Denmark, a Vaccine Is Eliminating a Type of Cervical Cancer

byMihai Andrei
13 hours ago
This Picture of the Week shows a stunning spiral galaxy known as NGC 4945. This little corner of space, near the constellation of Centaurus and over 12 million light-years away, may seem peaceful at first — but NGC 4945 is locked in a violent struggle. At the very centre of nearly every galaxy is a supermassive black hole. Some, like the one at the centre of our own Milky Way, aren’t particularly hungry. But NGC 4945’s supermassive black hole is ravenous, consuming huge amounts of matter — and the MUSE instrument at ESO’s Very Large Telescope (VLT) has caught it playing with its food. This messy eater, contrary to a black hole’s typical all-consuming reputation, is blowing out powerful winds of material. This cone-shaped wind is shown in red in the inset, overlaid on a wider image captured with the MPG/ESO telescope at La Silla. In fact, this wind is moving so fast that it will end up escaping the galaxy altogether, lost to the void of intergalactic space. This is part of a new study that measured how winds move in several nearby galaxies. The MUSE observations show that these incredibly fast winds demonstrate a strange behaviour: they actually speed up far away from the central black hole, accelerating even more on their journey to the galactic outskirts. This process ejects potential star-forming material from a galaxy, suggesting that black holes control the fates of their host galaxies by dampening the stellar birth rate. It also shows that the more powerful black holes impede their own growth by removing the gas and dust they feed on, driving the whole system closer towards a sort of galactic equilibrium. Now, with these new results, we are one step closer to understanding the acceleration mechanism of the winds responsible for shaping the evolution of galaxies, and the history of the universe. Links  Research paper in Nature Astronomy by Marconcini et al. Close-up view of NGC 4945’s nucleus
News

Astronomers Find ‘Punctum,’ a Bizarre Space Object That Might be Unlike Anything in the Universe

byTibi Puiu
19 hours ago
News

Drone fishing is already a thing. It’s also already a problem

byMihai Andrei
19 hours ago

Recent news

The UK Government Says You Should Delete Emails to Save Water. That’s Dumb — and Hypocritical

August 16, 2025

In Denmark, a Vaccine Is Eliminating a Type of Cervical Cancer

August 16, 2025
This Picture of the Week shows a stunning spiral galaxy known as NGC 4945. This little corner of space, near the constellation of Centaurus and over 12 million light-years away, may seem peaceful at first — but NGC 4945 is locked in a violent struggle. At the very centre of nearly every galaxy is a supermassive black hole. Some, like the one at the centre of our own Milky Way, aren’t particularly hungry. But NGC 4945’s supermassive black hole is ravenous, consuming huge amounts of matter — and the MUSE instrument at ESO’s Very Large Telescope (VLT) has caught it playing with its food. This messy eater, contrary to a black hole’s typical all-consuming reputation, is blowing out powerful winds of material. This cone-shaped wind is shown in red in the inset, overlaid on a wider image captured with the MPG/ESO telescope at La Silla. In fact, this wind is moving so fast that it will end up escaping the galaxy altogether, lost to the void of intergalactic space. This is part of a new study that measured how winds move in several nearby galaxies. The MUSE observations show that these incredibly fast winds demonstrate a strange behaviour: they actually speed up far away from the central black hole, accelerating even more on their journey to the galactic outskirts. This process ejects potential star-forming material from a galaxy, suggesting that black holes control the fates of their host galaxies by dampening the stellar birth rate. It also shows that the more powerful black holes impede their own growth by removing the gas and dust they feed on, driving the whole system closer towards a sort of galactic equilibrium. Now, with these new results, we are one step closer to understanding the acceleration mechanism of the winds responsible for shaping the evolution of galaxies, and the history of the universe. Links  Research paper in Nature Astronomy by Marconcini et al. Close-up view of NGC 4945’s nucleus

Astronomers Find ‘Punctum,’ a Bizarre Space Object That Might be Unlike Anything in the Universe

August 15, 2025
  • About
  • Advertise
  • Editorial Policy
  • Privacy Policy and Terms of Use
  • How we review products
  • Contact

© 2007-2025 ZME Science - Not exactly rocket science. All Rights Reserved.

No Result
View All Result
  • Science News
  • Environment
  • Health
  • Space
  • Future
  • Features
    • Natural Sciences
    • Physics
      • Matter and Energy
      • Quantum Mechanics
      • Thermodynamics
    • Chemistry
      • Periodic Table
      • Applied Chemistry
      • Materials
      • Physical Chemistry
    • Biology
      • Anatomy
      • Biochemistry
      • Ecology
      • Genetics
      • Microbiology
      • Plants and Fungi
    • Geology and Paleontology
      • Planet Earth
      • Earth Dynamics
      • Rocks and Minerals
      • Volcanoes
      • Dinosaurs
      • Fossils
    • Animals
      • Mammals
      • Birds
      • Fish
      • Amphibians
      • Reptiles
      • Invertebrates
      • Pets
      • Conservation
      • Animal facts
    • Climate and Weather
      • Climate change
      • Weather and atmosphere
    • Health
      • Drugs
      • Diseases and Conditions
      • Human Body
      • Mind and Brain
      • Food and Nutrition
      • Wellness
    • History and Humanities
      • Anthropology
      • Archaeology
      • History
      • Economics
      • People
      • Sociology
    • Space & Astronomy
      • The Solar System
      • Sun
      • The Moon
      • Planets
      • Asteroids, meteors & comets
      • Astronomy
      • Astrophysics
      • Cosmology
      • Exoplanets & Alien Life
      • Spaceflight and Exploration
    • Technology
      • Computer Science & IT
      • Engineering
      • Inventions
      • Sustainability
      • Renewable Energy
      • Green Living
    • Culture
    • Resources
  • Videos
  • Reviews
  • About Us
    • About
    • The Team
    • Advertise
    • Contribute
    • Editorial policy
    • Privacy Policy
    • Contact

© 2007-2025 ZME Science - Not exactly rocket science. All Rights Reserved.