BEHIND THE TECHNOLOGY: TURNING UNDERGROUND DATA INTO DECISION INTELLIGENCE
HOW INTELLIGENT SOFTWARE BRIDGES THE GAP BETWEEN VERIFIED INFRASTRUCTURE DATA & CRITICAL PROJECT DECISIONS
Featuring David Arce, Head of Software Engineering at Intelligent Mapping™
A precise three-dimensional map can reveal exactly where underground conduit exists, but knowing its location is only the beginning. For the engineers, contractors, and infrastructure owners responsible for what happens next, the more consequential questions are whether the conduit was installed correctly, what risks may be hidden along the subsurface path, and whether it is ready for the demands of cable deployment.
Answering those questions requires more than accurate measurements. It demands sophisticated software that can translate complex spatial and geometric data into actionable underground intelligence that guides real-world decisions.
That is the challenge driving David Arce's work at Intelligent Mapping™, where the software behind the company's proprietary PLUM™ technology has evolved from a tool for visualizing underground pathways into a platform for analyzing, organizing, and putting verified infrastructure information to work.
BEYOND THE THREE-DIMENSIONAL MAP
Every mapping run completed with the PLUM™ technology captures a complex set of measurements from inside the conduit. Using sensor fusion and GPS reference coordinates, Intelligent Mapping's software processes those measurements to reconstruct the underground pathway in three dimensions, revealing critical characteristics such as its location, length, depth, and bend radius.
Achieving that level of precision is a complex engineering challenge. Reconstructing an underground route between GPS reference points requires sophisticated processing algorithms and close coordination between the device's sensors, hardware, and software. Years of dedicated development and refinement have been central to improving process accuracy and repeatability.
Yet for David, the resulting 3D visualization represents only the first layer of value.
The software was initially developed to display XYZ positioning and organize individual conduit runs by project. As customers began utilizing the information, a larger opportunity emerged. They needed more than a representation of what existed underground; they needed to evaluate installation quality, identify potential problems, and understand how individual pathways fit within a larger infrastructure network.
That demand helped shape the platform's evolution, prompting capabilities such as bend radius violation analysis, project-level summaries, installation-planning integrations, and the Vault Grid System, which provides a structured view of interconnected conduit pathways.
This shift is especially evident in bend radius analysis, where the software goes beyond showing changes in conduit geometry to present detailed bend characteristics and flag violations that could affect cable installation. What might otherwise require extensive interpretation becomes a finding that project teams can recognize, investigate, and address.
That progression reflects a fundamental distinction between collecting underground data and making it useful. By connecting verified conduit geometry to project context, quality information, and existing digital workflows, Intelligent Mapping™ helps transform individual mapping runs into actionable infrastructure records.
"Intelligent Mapping™ is the difference between a line on a map and a record you make construction or cable decisions on."
THE COMPLEXITY BEHIND SIMPLICITY
David's approach to software development took shape long before he entered the underground infrastructure industry. Drawn to programming from an early age, he progressed from building games and websites to developing embedded software and web applications. At Intelligent Mapping™, those disciplines converge in a technology platform where hardware, software, and real-world performance are inextricably linked.
What surprised him when entering the industry was how teams readily accepted installation problems and their associated costs as part of infrastructure construction. To David, that underscored the need for technology that could make critical information easier to access and act upon before problems escalated.
But making complex information useful presents its own design challenge. The same underground data must serve a field technician completing a mapping run, an analyst evaluating conduit geometry, and a project manager monitoring construction progress. Each needs a different level of detail, yet all depend on the integrity of the same underlying record.
David describes the challenge as delivering the 'same data, just at different altitudes.'
In the field, that means intuitive workflows that support efficient data collection. For analysts, it means access to the details needed to investigate potential violations, while project managers need a clear view of completed work and outstanding issues. The software must accommodate each perspective without allowing its technical sophistication to become an obstacle.
This philosophy guides David's approach to development: complexity should remain behind the scenes, while the information customers need stays within reach.
BUILT AROUND THE DECISIONS THAT MATTER
Customer insight has become a defining influence on Intelligent Mapping's software development, shaping how the team prioritizes new capabilities and refines existing workflows. Rather than treating feature development as an exercise in adding functionality, David and his team use customer feedback to identify where information is difficult to interpret, where workflows can be simplified, and where verified data can deliver greater value.
The Vault Grid System illustrates that approach. Developed from David's original concept, the feature organizes conduit pathways between underground structures, giving associated mapping runs a clearer relationship to the broader network. It addresses a practical challenge: understanding infrastructure as an interconnected system rather than a collection of separate measurements.
The same thinking extends beyond the platform itself. Through integration with CAD, GIS, and installation-planning workflows, verified conduit data becomes part of the information engineers, contractors, and project teams rely on to plan installations, evaluate infrastructure, and make informed decisions.
At the center of that approach is a principle David applies to software development:
"My philosophy is that software is built to empower people to do more with less."
For David and his team, that means measuring progress not simply by the capabilities they introduce, but by how effectively those features help customers navigate complex workflows and solve real-world challenges.
RAISING THE STANDARD BELOW THE SURFACE
The implications extend beyond any single mapping project. Underground infrastructure can contain installation deficiencies, from bend radius violations to damaged conduit, that remain undiscovered until they interfere with cable deployment or future construction. Without accurate records, these conditions can become increasingly difficult and costly to address once problems surface.
For David, the greatest opportunity lies not in what the technology can capture, but in how the industry puts that information to work. Rather than treating underground verification as a response to installation problems, he envisions it becoming a more routine part of infrastructure construction and quality assurance.
That shift would give owners, engineers, and contractors a stronger basis for evaluating installed conditions, addressing potential risks, and maintaining dependable digital records throughout an asset's lifecycle. More importantly, it could establish a higher standard for infrastructure quality, where underground assets are not simply assumed to meet engineered specifications, but verified against their actual installed conditions.
Asked to describe the future of Intelligent Mapping™ in three words, David's answer reflects that ambition: