Flyscan Systems Inc. has published results from blind, independent testing of its aerial hyperspectral methane detection system, conducted May 7–8, 2026, at the Methane Emissions Technology Evaluation Center (METEC) at Colorado State University—the recognized North American standard for calibrated aerial methane detection evaluation.
Across 128 test passes covering 34 controlled releases over two days, the system recorded a sensitivity of 5.9 kg/hour at 90% probability of detection and produced just one false positive.
Flyscan releases METEC blind test results
The two-day test covered emission rates ranging from 60 to 950 standard liters per minute (SLPM)—a range that reflects the variability operators actually encounter in the field, from minor seepage to substantial releases.
METEC is the recognized North American benchmark for this type of evaluation. Its controlled releases use realistic oil and gas equipment: valves, flanges, wellheads, separators, and storage tanks. That equipment fidelity is what makes a METEC result meaningful to pipeline operators rather than a laboratory abstraction.
The single false positive across 128 passes carries real operational weight. False positives translate directly into unnecessary ground crew deployments and inspection costs, so one false alarm across a 34-release, two-day test says something concrete about the system’s discrimination capability under realistic conditions.
Why blind-protocol testing was used
The blind protocol is the critical design element here. Flyscan received no prior knowledge of release location, rate, or timing before each pass—conditions that mirror an actual patrol flight, where the crew has no advance indication of where or whether a leak exists.
Many detection technologies perform well when operators know where to look. Blind testing removes that advantage entirely, which is why pipeline operators treat METEC data as operationally relevant rather than merely academic. Results produced under blind conditions are considered directly comparable to real deployment performance.
Flyscan’s hyperspectral approach also doesn’t require the aircraft to be positioned downwind of a potential leak source. The system captures wide-area spectral data across the full flight path in a single pass, without operator steering—removing a variable that routinely affects detection reliability in wind-dependent systems.
Real-world field performance supports lab findings
Independent validation data rarely exists in isolation. Flyscan’s METEC results are accompanied by field deployment figures from February 2026, when the company conducted a demonstration covering 4,400 miles of US pipeline infrastructure in partnership with a major North American pipeline operator.
Of 13 events identified during that survey, 12 were confirmed as active leaks. One false alarm across the entire operation—a false-positive rate that aligns closely with the METEC result.
The confirmed detections included five underground pipeline leaks with no surface indicators. One was a compressor station valve leak the operator had no prior knowledge of. Another—a pig launcher blow-down valve—was confirmed only through subsequent soap-and-water testing, a method requiring close physical access to the fitting.
Kinder Morgan COO James Holland pointed to the METEC data directly, describing it as providing “a clear, data-grounded basis” for evaluating the technology and calling independent verification the standard the industry should expect from any aerial detection solution.
Single-platform design addresses multi-vendor gap
Beyond methane sensitivity, Flyscan is positioning its system around a capability gap that has persisted in aerial pipeline inspection. No prior aerial platform has combined methane detection, liquid hydrocarbon leak detection, right-of-way threat monitoring, and geohazard assessment in a single pass.
Pipeline operators have historically contracted separate vendors for each of those functions—an approach that creates cost duplication, scheduling complexity, and coverage gaps when vendor timelines don’t align. A single-pass platform addressing all four functions changes the operational calculus for integrity programs.
The system runs on standard Cessna 172, 182, and 206 aircraft with no modifications required. Operators already using those aircraft can integrate the Flyscan service without additional platform investment. Commercial launch is scheduled for Q4 2026.
Evidence points in the same direction
Flyscan’s METEC results establish a verified sensitivity of 5.9 kg/hour at 90% probability of detection under fully blind conditions—the protocol the industry treats as directly comparable to operational performance. One false positive across 128 passes, paired with a matching false-alarm rate across 4,400 miles of field deployment, produces both statistical and operational evidence pointing in the same direction.
The single-pass multi-capability design and compatibility with unmodified standard aircraft are the commercial differentiators Flyscan is bringing to market. For pipeline operators evaluating aerial detection options, the METEC validation offers a third-party performance baseline to work from.
Kelly is an experienced writer with 15 years of experience exploring the big stories that shape our world, from tech breakthroughs and space exploration to climate, energy, and the fascinating quirks of science. She has a talent for turning complex ideas into sharp, memorable insights that stay with readers long after they’ve finished reading.
