Answer extracted from the Digital Construction Podcast — listen to the full episode below.
Reality capture platforms solve two critical construction problems: scan-to-BIM conversion for renovation work (which accounts for 60–70% of U.S. construction) and real-time quality assurance during construction. Small deviations—a few inches off in duct or pipe placement—cascade into major downstream problems requiring deletion and rebuilding. Early visibility into divergences between actual site conditions and design intent prevents these cascading failures and keeps teams on schedule.
The first major use case addresses renovation work. Unlike new construction built on empty land, renovation projects require detailed knowledge of existing conditions—the as-is state of a building—before design can begin. Contractors scan the existing structure with reality capture technology, converting that 3D point cloud data into BIM (Building Information Model) geometry. This scan-to-BIM workflow is essential because renovation represents the bulk of the U.S. construction market.
The second use case is quality assurance during active construction, where teams verify that what is being built matches the BIM design model. As Dominique Pouliquen explains in the episode, issues often appear small at first—a ductwork run sits a few inches off-center, a pipe is routed slightly differently than designed—but these minor deviations become major problems when downstream trades (electrical, mechanical, plumbing) arrive to install their systems in the same space.
A few inches of offset in one trade's work creates a collision with the next trade's installation path. Rather than absorb the deviation, the second trade may refuse to proceed, forcing a halt and rework. This cascade can require tearing out and rebuilding what was already installed, multiplying costs and delays. Early detection through reality capture—comparing the as-built condition to the design intent in real time—allows project managers and superintendents to make fast decisions: adjust the next trade's path, modify the design, or schedule rework while trades are still on-site and flexible.
The value lies in early visibility and decision-making speed. A detailed discussion of how these teams use visualization to track quality issues is covered in the full episode, where Pouliquen describes red and green visualization modes that highlight deviations instantly, enabling faster problem-solving on the job site.
"Everything takes longer than expected, and usually it's three times longer than what you think."
Dominique Pouliquen — Co-founder and CEO of Cintoo. Pouliquen joined Autodesk through the acquisition of RealViz, a photogrammetry spin-off from a French research lab. At Autodesk, he co-led the ReCap team in San Francisco, managing massive point cloud data and scaling access across Revit, AutoCAD, and C3D. He founded Cintoo to build a cloud-native platform that compresses and streams high-resolution 3D mesh data in web browsers, making point cloud intelligence accessible to the entire construction workforce.
Interested in how Cintoo's platform overcame early challenges in making real-time 3D data accessible across large enterprises? Hear the full conversation to learn the technical and business decisions that shaped this reality capture solution.
The platform offers two navigation modes: scan-to-scan navigation (jumping from one scan position to another, similar to Google Street View) and 3D navigation within the point cloud itself, providing flexible ways to explore and verify site conditions.
The founders initially based their business model on tokens, similar to Autodesk's approach, but this created a problem: users felt afraid to consume tokens, limiting adoption. Moving to a subscription model removed barriers and accelerated growth.
While leading ReCap at Autodesk, Pouliquen identified a major headache: the workflow was very desktop-centric and there was no easy way to upload, share, and stream massive point cloud data across teams, driving the vision for a cloud-native solution.