Introducing Meridian GCS: the ground control station we are building for ourselves first
Building and flying our own drones for Sentrix surfaced a gap: existing ground-control tools are built around flying one aircraft well, not around planning, repeating, and collaborating on inspection missions at scale. Meridian GCS is our answer - a ground-control station in active development, described honestly here as a work in progress, not a shipped product.
Building our own drones for Sentrix meant spending a lot of time inside existing ground-control software, and it surfaced a consistent gap: most of those tools are built around flying one aircraft well on one flight. That is a real and useful thing to be good at. It is not, however, what a repeat-cycle, evidence-driven inspection programme actually needs day to day - planning missions from existing site data, collaborating across a team, scheduling recurring flights, and keeping track of what changed between mission versions.
Meridian GCS is our answer to that gap. It is in active development today, not a shipped product, and this post describes what we are building toward - honestly, without rounding up the current state.
Starting from the data you already have
Most mission planning still starts with someone manually placing waypoints on a map. We're building Meridian GCS to start instead from data a site or network already has - a P&ID, a CSV of asset coordinates, a DXF site drawing - and generate a waypoint mission directly from it. The goal is removing a manual, error-prone step, not adding a new one.
One interface for the aircraft and the compute running on it
A drone increasingly carries a companion computer doing real work - running the models that make sense of what the aircraft is seeing. Today, checking on that companion computer often means a second laptop and a separate connection. We're building Meridian GCS to control and monitor the companion computer directly from inside the ground station itself, so there is one interface for the whole system, not two.
Built for a team, not a single pilot
Mission plans currently tend to live as files passed between people, which does not hold up well once more than one person needs to work on a plan together, or once a plan needs to be revisited months later and someone needs to know what changed and why. We're building collaborative editing, cloud version control for mission plans - the same kind of history and rollback source code gets - and mission scheduling with docking-station integration, aimed squarely at recurring, team-run inspection programmes rather than one-off solo flights.
Testing logic before it flies
Automation scripts and mission logic are safer to get wrong in simulation than in the air. We're building a Python-scriptable simulation environment into Meridian GCS specifically so mission automation can be tested against realistic scenarios before it ever runs against a real aircraft.
Where this stands, and where it's going
None of this is a claim that Meridian GCS today is faster or better than the ground-control tools most teams already use - that is a design goal we are actively building toward, not a benchmarked result. It exists because we needed it for our own drone programme, and building it well seemed more useful than quietly using something that didn't quite fit and never saying anything about the gap. If you fly drones for infrastructure inspection and this is a problem you think about too, we would genuinely like to hear from you - get in touch, or see where Meridian GCS sits today.
Questions this raises
Last updated: 16 July 2026
LeakSonic Research. "Introducing Meridian GCS: the ground control station we are building for ourselves first." LeakSonic Private Limited, 2026. https://leaksonic.com/blog/introducing-meridian-gcs
<a href="https://leaksonic.com/blog/introducing-meridian-gcs" target="_blank" rel="noopener">Introducing Meridian GCS: the ground control station we are building for ourselves first</a> - via LeakSonic
Related reading
View allHow AI-driven inspection is already changing gas pipeline and refinery integrity work
The shift toward AI-assisted inspection in oil and gas is not a future scenario - it is underway now, driven by a structural mismatch between how fast pipeline and refinery assets are growing and ageing and how fast manual inspection review can keep pace. This piece looks at what is actually changing, what remains unsolved, and where LeakSonic's own AI-driven, drone-hardware-backed approach fits into that shift honestly.
What an undetected methane leak actually costs: a free value estimator
A methane leak has two costs that are easy to state separately and rarely put side by side: the commercial value of the gas that never reached a customer, and the climate impact of the methane released. Both scale directly with one variable most operators actually control - how long the leak goes undetected. We built a free Methane Emissions Value Estimator to make that relationship concrete.
Planning a drone inspection mission: what actually drives flight time and battery count
How long a drone survey takes and how many batteries it needs comes down to a small set of variables - distance to cover, required image overlap, cruise speed, and endurance - that most planning still does by rough estimate. We built a free Drone Mission Coverage & Flight Time Planner to make that arithmetic explicit for both pipeline corridors and refinery sites.