A first-person visit to Topcon’s Concordia Training Center near Modena, Italy, reveals a purpose-built center of excellence where place, precision and trust come together.

Near Modena, in northern Italy’s Emilia-Romagna region, it is impossible to separate technology from place. This is Italy’s high-performance automotive heartland, home to Ferrari, Lamborghini, Maserati, Bugatti and Pagani — some of the world’s most admired performance machines. It is also a region of agriculture, vineyards and precision manufacturing. The landscape itself seems to insist that technology should not be abstract. It should be physical, engineered, tested, refined and enjoyed.

That was my first impression arriving at Topcon’s Concordia Training Center. I expected a technology campus. I found something more layered: a purpose-built center of excellence that reflects its region, its mission and its company.

Ivan Di Federico’s first move, before we ever reached a machine, was to point at a piece of art in the reception space and ask what I thought it represented. Then, without waiting long for an answer, he answered it himself by describing the territory around us. “The territory around here is agriculture and technology at the same time,” he said. “This is the area of Motor Valley. We have hydraulics, packaging machinery and medical electronics. It is a very high-technology industrial area, but at the same time there is agriculture — the tractor and the land.”

That combination—machine and field, precision and practicality, Italian hospitality and industrial discipline—defines Concordia. The center is not simply a place where Topcon displays equipment. It is a place where Topcon stages an encounter with precision. Visitors move from classrooms to machines and from machines to fields bordering vineyards planted with Lambrusco and Trebbiano, heritage varietals that have long sustained the region’s viticulture. The comparison is fitting. Like winegrowing, precision requires stewardship: knowledge cultivated patiently, growth carefully nurtured and a harvest ultimately shared. At Concordia, ideas planted in the classroom are tested in machinery and brought to fruition in the field. These are, in a very real sense, fields where Topcon grows dreams of precision—turning aspirations into tangible demonstrations of what can be accomplished. That deep technical culture shapes every part of the experience. The facility is intentionally designed to make precision visible, practical and real.

The Concordia facility is rooted in its region rather than dropped onto it. The property includes a museum tracing the history of Topcon’s products, including a line of vintage radios from the company’s earlier life. The culture, Di Federico told me, allows people to “think big.” It is a relaxed, international, multicultural place, he said, where visitors are given “space for ideas and freedom to express them.” That may sound like a soft observation, but at Concordia it has a hard technical purpose: the facility is designed to change the way customers, dealers, OEMs and employees interact with technology. Dealers from Europe, the Emirates and North Africa cycle through week by week, and the engineer who walked me through the agriculture test fields had spent his career in Moscow before Topcon relocated him and his family to Italy.

And it is unmistakably designed. The training rooms face the fields. The fields are drained so demonstrations can continue even after weather changes. Machines have a place to be cleaned, stored, prepared and protected. OEM prototypes can be kept out of sight when needed. Training spaces can be reconfigured. Visitors are hosted, fed, taught, challenged and then taken into the field to see whether the technology does what it claims.

“This is all our property,” Di Federico said as we walked. “All that you see belongs to Topcon.” He was not boasting. He was explaining the point. Concordia is not improvised. It is built around proof.

Concordia feels like the spiritual home for Topcon’s culture of precision innovation—a place designed not simply to display technology, but to create an encounter with precision itself. By the time the tour reaches the outdoor test fields, the connection between the facility, the technology and the work being done there feels increasingly deliberate.

“Concordia is not improvised. It is built around proof.”

A Place, A Purpose

Every global technology company has facilities. Fewer have places that reveal something fundamental about how the company thinks and works.

Concordia is one such place. It does not try to tell the whole Topcon story; Topcon is a global company, and this center is one node in a broader ecosystem of expertise that includes Livermore and other technical centers around the world. But Concordia is unusually expressive. It shows how a center of excellence can bring training, product development, OEM collaboration, field testing, customer education and technical culture together in a single physical environment.

A center of excellence is not valuable only because of what happens within its property lines. It is valuable because of what moves through it: knowledge, field experience, product feedback, customer confidence, dealer readiness and employee expertise. Livermore, Concordia and other Topcon technical facilities may play different roles, but the larger value comes from connection. A lesson learned in one place can inform training in another. A customer problem can become a product insight. A field test can become a dealer conversation. An OEM integration issue can become a better workflow.

At Concordia, that ecosystem is tangible. The museum and hospitality spaces connect Topcon’s current technology to its history. The training areas connect software to machines. The outdoor fields connect digital models to ground truth. The agriculture equipment and autonomous machines connect precision to real operations.

The place also carries the tone of Emilia-Romagna. The connection to Modena is not decoration; it is part of the story. Performance cars, agricultural machinery, manufacturing precision, local food and deep technical pride all belong to the same cultural landscape. At one point, after a discussion of machines, antennas and measurement, the visit moved into the Museo Ferrari nearby. That did not feel like a detour. It felt like context. In this part of Italy, machinery is not merely equipment. It is expression, memory, discipline, identity and pride.

Concordia reflects that same logic. It is purpose-built, a working facility with a strong and palpable sense of place.

Training as Proof

The heart of Concordia may be its training model.

In one of the classrooms, Di Federico pointed toward the fields and explained how a typical machine-control training session works. The morning may begin with theory, but the learning quickly becomes live. Participants bring their laptops. They access software. They see the machine outside. They see what the operator sees. They can send commands in real time. They can talk with the operator. They can watch the machine respond and then compare the digital representation with what actually happens on the ground.

“They can see the effect of what they change,” Di Federico said. “They can see the representation on the screen, and they can see what reality is.”

That captures much of what makes Concordia powerful. The training is not a slide deck with equipment nearby. It is a controlled relationship between model, machine and measurement. Di Federico called it “the most important training tool.” When I asked whether this kind of experience brings training to life, he pushed the point further. In a normal training environment, he said, a person might stand near a machine, fight noise, try to talk to an operator and barely see a screen while equipment moves around them. At Concordia, the trainee can work from the classroom, see the entire operation, communicate with the operator and understand the effect of each decision. “You need a facility like this to do that,” he said.

The training is especially compelling because it can incorporate the customer’s own work. Di Federico described sessions in which customers bring their own job. Topcon prepares the ground, executes the job and lets the customer see the software, machine and field result come together. “That is not us teaching them,” he said. “It is their design executed with our technology. If they already have the technology, they learn a better way of doing it. If they do not, they say, ‘I need it.’”

That is training as proof. It is also training as customer experience. Dealers and customers spend multiple days on site. They work, learn, socialize, eat, tour and talk. The facility is designed to create understanding, but also memory.

That helped me understand something I noticed months earlier at ConExpo in Las Vegas: the unusual energy around the Topcon booth. Topcon customers were not merely interested; many were passionate. The Concordia experience helped explain why. If a customer has seen technology work in this way — if they have brought a problem, watched it modeled, seen the machine act and verified the result — that experience changes the relationship. Trust is no longer theoretical.

Origo and the Measured Jobsite

The clearest bridge from Concordia to the future of construction is Origo.

Di Federico framed Origo as a first step in a larger shift: bringing survey-grade thinking deeper into the construction process. The point is not simply a new product launch. It is a go-to-market signal that construction needs easier, more accessible and more embedded ways to measure, verify and control work. “We are driving toward the convergence of geomatics and construction,” he said. “Origo is the first step.”

Construction has lived too long with a costly gap between digital intent and field execution. BIM, prefabrication and industrialized construction all depend on the ability to make what happens in the field match what was designed in the office. Yet the jobsite is still often where precision breaks down.

Di Federico put the rework burden at 20 to 30 percent on average, with worse cases significantly higher. The exact number will vary by project and market, but the point is hard to ignore: imprecision is not a technical inconvenience. It is cost, delay, waste, quality loss and risk.

“The mistake happens at field level,” Di Federico said. “Technology is not anywhere near where it needs to be. The only millimeter-level instruments are in the geomatics world, and geomatics and construction did not talk for such a long time. It is our job to encourage — to compel them to talk.”

That statement should not be read as a threat to survey. Quite the opposite. It suggests that survey-grade thinking — control, verification, repeatability, accountability — may become more central to construction, not less. Traditional high-accuracy workflows often require specialized instruments, skilled setup and time. On fast-moving jobsites, that can leave a gap between what precision technology can deliver and what the field can realistically absorb. Origo is part of Topcon’s effort to close that gap by making precision easier to bring directly into the work itself.

Di Federico described a future in which construction becomes less tolerant of approximation. “People will no longer be tolerant when something is placed incorrectly,” he said. “The conversation will become: have you measured? Is it exactly where it should be?” That is the measured jobsite in one sentence.

Concordia does not try to resolve every professional question that follows from this shift. It does not need to. The facility shows why the question matters. If 20 to 30 percent rework is the burden, the business case for better measurement is not abstract. It is built into the economics of construction.

The PNT Field of Dreams

The most striking part of Concordia is outdoors.

Beyond the classrooms and machine-control areas, the site opens into a field of antenna monuments, test structures, agriculture equipment, autonomous machines and weather instrumentation. This is where the phrase “PNT field of dreams” began to feel less like metaphor and more like description. A claim about precision is one thing. A field built to test that claim over years is something else.

“A claim about precision is one thing. A field built to test that claim over years is something else.”

Di Federico walked me through the history of Topcon’s agriculture work, which began in 2006 after the acquisition of an Australian precision-ag technology company. Concordia became the European facility where Topcon could test auto-steering, demonstrate OEM integration and prove performance in front of customers. Some of the original structures remain, not because they are new, but because they carry history. Poles, gravel areas and simulated foliage were used to show how auto-steering systems performed under difficult conditions — a course that could compare systems, demonstrate steering precision and force the technology to behave under stress.

One early breakthrough was reverse-capable steering. “Nobody in the world could do that at the time,” Di Federico said. “All the auto-steering systems were forward only. In reverse, you had to go manual.” He credited the engineer Lev Rappoport, whose mathematical approach came from guidance and control rather than conventional tractor steering. “He modeled the tractor problem like a fighter-jet autopilot problem,” Di Federico said. “Others were using PID loops” — standard feedback controllers that correct against steering error in real time — “but this was a Kalman filter on a 12-degree-of-freedom system from the beginning.” The result was not just a technical achievement. It was a commercial proof point: Topcon could demonstrate the system, reverse through the course, handle degraded conditions and show OEM customers that its positioning and steering stack worked.

That same field-based discipline led to one of Concordia’s most distinctive assets: a rail-based GNSS testing system designed to create repeatable ground truth. The problem, Di Federico explained, was that testing GPS from a van on public roads was never truly repeatable — traffic changes, the vehicle shifts lanes, satellite geometry changes, and a test one day may not be directly comparable to a test the next. So the team asked a more fundamental question: what would real ground truth require? The answer was a rail.

The system is designed to know the position of the antenna platform at millimeter level, using controlled motion, optical encoding, reference instrumentation and a field environment where variables can be studied. Receivers and antennas can be tested against repeatable paths, different constellations, changing conditions and simulated obstructions. “When we say we achieve this performance, that is what we achieve,” Di Federico said. “We can prove it, and we have the ground truth to demonstrate it.”

The field is also instrumented for environmental understanding. Weather stations monitor conditions because tropospheric activity can change GNSS results. Antenna monuments are designed for stability — some structures go meters into the ground, others are isolated and carefully leveled. The point is not only to test equipment but to understand why it behaves as it does.

The most visually memorable area may be what Di Federico called the antenna forest: monuments, reference lines, antenna structures and a 12-degree-of-freedom robot used to calibrate geodetic-grade antennas. Each antenna can require 24 hours of calibration, accounting for constellation, orientation and phase-center behavior. The result is not just an antenna; it is a measured instrument with a calibration history. Nearby, Di Federico pointed out a specialized millimeter GPS antenna used for geodetic-grade monitoring of Earth movement, part of a small global network used to observe land deformation — expansion, contraction, rotation and vertical motion — at sub-millimeter to millimeter scale. “This is for measuring the movement of the Earth,” he said.

The field, in other words, is both practical and profound. It supports construction and agriculture, machine control and firmware testing, customer confidence and geodetic science. It is an outdoor laboratory, a living archive and a statement of intent.

The weathered equipment matters too. The patina on a fifteen-year-old antenna structure is not cosmetic. It is evidence — of how materials age, how systems behave over time, and how a company learns from long exposure to real conditions. As we walked, I told Di Federico that the aged structures reminded me of Bologna itself: the beauty of age, the evidence of use, the way time reveals quality. He understood immediately. “That is exactly it,” he said. “It is what you learn from it. It is how you assure high quality to your customers.”

Living Laboratories

Concordia is not only about GNSS, construction or training. Agriculture and autonomy appear throughout the site as living laboratories for applied precision.

In agriculture, the value of precision is often defined by the work. A rice field being leveled for water management has different needs from a vineyard, an orchard, a row-crop operation or a price-sensitive emerging market. Topcon engineers described a land-leveling approach using the same receiver used for tractor steering, allowing a customer to move between steering and scraper applications with a simpler hardware path. In rice fields, RTK-based height performance around 1.5 centimeters was discussed as sufficient for the application, while fast convergence after a pause could matter directly to productivity. “You do not want to wait again after lunch,” one engineer explained. “You want to be ready to continue.”

In autonomy, the same practical thinking appears. The machines shown at Concordia were smaller, coordinated and built around the idea that multiple machines may one day work together, sharing tasks, exchanging information and reacting predictably in dynamic construction environments. The autonomy team discussed GNSS, cameras, lidar, inertial sensors, obstacle detection, human classification and machine-to-machine coordination. The accuracy discussed in the demonstration was at centimeter level, not yet the millimeter future Di Federico described for construction execution. But the direction was clear: measured machines, communicating machines, machines that operate within a precision framework.

The most important point is that agriculture and autonomy are not separate stories at Concordia. They are examples of the same method: define the operational problem, identify the required accuracy, build the sensor and software stack, test it in the field, train the people who must use it, and improve it. That is how precision becomes usable.

What Concordia Sets in Motion

By the end of the day, Concordia no longer felt like a facility I had toured. It felt like a story I had walked through.

Standing in a field with poles that haven’t moved since 2006, and a rail rig no other commercial company owns, I understood where Topcon’s confidence with customers comes from. It isn’t a slogan. It’s built, tested, weathered and re-tested, in the open air, year after year.

Near the end of the visit, Di Federico reflected on why he had wanted me to see the field in person. “There must be a match between what you say and what you do,” he said. “When customers come here, they know. They know that if they have a problem, they can come to these people and they will fix it.”

The machines, classrooms, antennas, monuments, fields and hospitality all point to the same conclusion. Topcon’s precision story is not only about instruments. It is about proof, place and trust. Concordia is one center of excellence in a larger global ecosystem, but it is an unusually revealing one. It shows how a purpose-built facility can connect training, field testing, OEM collaboration, customer experience, technical depth and regional identity — how survey-grade thinking can move deeper into construction, how training can become a form of proof, and how precision in agriculture, autonomy and positioning all depend on the same discipline: measure, test, verify, teach and trust.

“A center of excellence is not valuable only because of what happens within its property lines. It is valuable because of what moves through it.”

There is more of this story to tell: Origo and the measured jobsite, autonomy’s next steps, agriculture’s quiet innovations, the deeper architecture of Topcon’s global centers of excellence. Concordia is where that larger story starts to become visible. It does not end there.