Technical rigor
Results should be verifiable, traceable and reproducible before entering an operational workflow.
Developed in Chile
Tunnel Tools grew out of a need identified directly in underground mining: turning photogrammetric surveys and 3D scans into clear, traceable engineering information that supports decision-making.
Who we are
The platform combines hands-on field experience with engineering, photogrammetry, 3D modeling, geometric processing and technology development to reduce manual work and improve geometric control of excavations.
References, cross-sections and results are organized so geometry can be reviewed without replacing the judgment or approval of the responsible professional.
Present · What we do today
Turn geometric data from underground excavations into clear, traceable technical information that supports tunnel control, analysis and decision-making.
Future · Where we want to go
Establish Tunnel Tools as a reference technology platform for geometric analysis and digital tunnel processing, combining geomatics, engineering and automation in an increasingly secure, efficient and connected workflow.
What guides us
Shared criteria for deciding what we build and how we meet our technical responsibilities.
Results should be verifiable, traceable and reproducible before entering an operational workflow.
We adopt technology when it solves a real engineering problem, improves a process or makes information more useful.
Product development considers information protection, process integrity and intellectual property.
We distinguish verified results, illustrative views, known limitations and future capabilities.
We validate, measure and refine every component before incorporating it into the Tunnel Tools workflow.
Our story
Tunnel Tools arose from the need to turn surveys and 3D models into geometric information that could be interpreted consistently and traced to its source.
Development began with tools for generating profiles and comparing as-built geometry with the design. It now includes visualization, longitudinal analysis and continuity across references, cross-sections and results.
Development remains progressive: every new capability must pass controlled testing before it enters the product.
Turn surveys and 3D models into useful tunnel-control information.
Generate profiles and compare as-built geometry with the design.
Visualize cross-sections, chainage continuity and longitudinal trends.
Connect references, analysis and deliverables in a technical review workflow.
Move toward more connected and scalable processing. This is a development direction, not an available service.
Explore the comparison between as-built and design profiles and the tunnel geometric-control approach. Tunnel profiles · Geometric control.
How we develop Tunnel Tools
Identify the source, retain the references, compare against a defined criterion and prepare evidence for review. Releasing a capability is the end of the process, not its starting point.
Define the need and technical scope.
Set inputs, criteria and expected results.
Build a capability bounded by the objective.
Compare results and check for regressions.
Review behaviour in a defined scenario.
Release approved capabilities progressively.
Explore the technology behind Tunnel Tools. Technology.
Developed in Chile
Founder and lead developer
The capabilities behind Tunnel Tools combine field experience, engineering, geometric processing and digital tool development.
Where we are heading · Development vision
Development considers greater automation, secure processing and connected workflows, with more context for longitudinal analysis and traceability across data, analysis and deliverables.
The vision includes connected services that reduce repetitive work and make geometry easier to interpret. These are development goals, not an announcement of an available online service or full autonomy.