A stone game board buried for roughly 1,700 years at a Roman fort in northern England is being played again — not the original, which is too fragile and valuable to touch, but a 3D printed stand-in accurate enough to fool a Roman soldier. Engineers at Newcastle University, working with the Vindolanda Charitable Trust, scanned all five stone pieces of a Ludus Latrunculorum board unearthed at the Vindolanda fort in 2019 and printed a playable PLA replica that now lives on permanent display — and in constant use — at Vindolanda's Roman Army Museum.
The project is a tidy case study in how digitization and desktop-scale additive manufacturing are changing museum practice: instead of a "look but don't touch" artifact behind glass, visitors get a physical, handleable object that reproduces the geometry, wear patterns, and playing surface of a genuine Roman antiquity, while the fragile original stays safely out of reach — in this case, on loan across the Atlantic to the Bata Shoe Museum in Toronto.
From Fort Floor to Scan Bed
Ludus Latrunculorum ("game of mercenaries" or "game of little soldiers") was a two-player strategy game played across the Roman world, roughly analogous in spirit to checkers or a simplified chess, with pieces captured by flanking an opponent's tokens rather than jumping them. Vindolanda, a Roman auxiliary fort just south of Hadrian's Wall, has produced an outsized share of the archaeological record for the game: the Trust holds 16 of the surviving Roman game boards recovered in Britain, roughly 15% of the national total, according to Newcastle University's account of the project.
The 2019 find that became the subject of this replica project was made of five separate stone sections, and — notably for what it implies about Roman social life — it turned up outside the fort's military defensive structures, in an area frequented by civilians. 3Dnatives' July 9, 2026 write-up frames that find-spot as evidence the game wasn't confined to soldiers passing time in the barracks: women, children, and other civilians attached to the fort community likely played it too, pushing back on a purely martial reading of Roman leisure.
Reconstructing a playable object from five separate, worn stone fragments is exactly the kind of problem handheld structured-light scanning is good at. The Newcastle team used an Artec 3D Spider — a compact, high-resolution handheld 3D scanner marketed for close-range industrial and cultural-heritage work — to capture each stone section individually. That piece-by-piece capture approach matters here: rather than trying to scan the assembled, incomplete board in situ, digitizing each fragment separately lets conservators handle irregular, damaged surfaces without forcing sections into contact, and lets the resulting meshes be cleaned, aligned, and reassembled digitally before anything gets printed.
Who Built It
The project was led by Paul Watson, Newcastle University's Electrical & Electronic Team Leader, and Dr. Jenny Olsen, a Lecturer in Mechanical Engineering, working alongside Vindolanda's Sophie Westlake and Barbara Birley. Westlake, describing her hands-on role in the digitization process, told Newcastle University: "It was amazing to be involved in the actual scanning process and to see something so complex and historical be realistically recreated."
That collaboration — engineering faculty pairing with on-site archaeological staff rather than an outside vendor doing the work remotely — is worth noting for makers interested in heritage or museum-adjacent 3D printing work. The people who understand the object's condition, provenance, and handling constraints were in the room (or on-site) for the actual scan passes, not just consulted after the fact on a finished file.
What It Means for Makers
The material choice here is unglamorous but instructive: PLA. For a museum piece meant to be picked up, moved, and played with by the public on a rotating basis, PLA's rigidity, dimensional stability, and low cost make it a sensible default over more exotic filaments — this isn't a load-bearing or outdoor part, and replacement or reprinting a worn piece is trivial if the source mesh is preserved. It's a reminder that "interesting project" doesn't have to mean "exotic material"; matching the polymer to the use case, not the prestige of the object being replicated, is still the right call.
The bigger takeaway for the maker community is the workflow itself: handheld structured-light scan of a fragile, irregular original → digital cleanup and reassembly → slice and print in a durable, replaceable material → deploy the physical copy where the original can't safely go. That pipeline is now well within reach of serious hobbyists and small studios, not just university engineering departments with access to an Artec Spider. Cultural institutions large and small have a long backlog of objects too fragile, too valuable, or too contractually tied up in loans to handle directly, and this project is a working proof that a scan-and-print replica can be good enough to serve as a genuine interactive stand-in rather than a static display piece. If you've got scanning hardware and a museum, historical society, or reenactment group nearby, this is the kind of collaboration worth pitching.
A Board With Nowhere to Go
The circumstance that makes the replica necessary rather than merely nice-to-have is mundane and familiar to anyone who works with museums: the original board is currently on loan to the Bata Shoe Museum in Toronto, thousands of miles from Hadrian's Wall. Loan agreements, insurance requirements, and the basic physics of shipping a 1,700-year-old stone artifact mean the genuine object simply cannot also be sitting in a display case — let alone a visitor's hands — at the Roman Army Museum at the same time. The printed replica solves that scheduling conflict outright, giving visitors an object they can actually pick up and play with at the Roman Army Museum rather than view through glass — a hands-on experience both Newcastle University and 3Dnatives describe as central to the replica's purpose.
It's a small, specific example of a pattern that's likely to keep recurring as heritage institutions get more comfortable with digitization: once an object exists as a clean 3D mesh, its physical availability stops being a single point of failure. The stone board can be in Toronto while a faithful, playable copy sits at Vindolanda — and if Newcastle's scans are archived properly, that copy can be reprinted indefinitely, long after the original eventually returns home.
