Full-array thermal flight
Radiometric scan of every module across the array. Hotspot map produced in O&M-ready format with panel-level coordinates.
Tens of hectares. Hundreds of thousands of panels. Manual inspection is impractical at scale. Failed panels reduce output for months before detection.
Panel-level thermal diagnostics, tracker alignment audits, vegetation and fire-risk surveys, across utility-scale arrays. IEC 62446 aligned.
Automated solar farm inspection with AI-driven thermal hotspot detection. Scheduled flights capture high-resolution thermal imagery across entire arrays. AI identifies defective panels, shading patterns, and soiling. Maintenance teams receive prioritized work orders with exact panel coordinates, before output dips show in inverter telemetry.
Radiometric scan of every module across the array. Hotspot map produced in O&M-ready format with panel-level coordinates.
RGB sweep with module-level diff against last reference. Surfaces cracks, soiling, and shading silently degrading performance.
Switchgear, combiner box, and inverter station thermal scan. Surfaces wiring faults before they become outages.
Visual confirmation that single-axis trackers are in correct stow and track position. Flags stuck or misaligned tilts.
Fenceline and access-road sweep. Theft and vandalism deterrent posture with timestamped evidence capture.
Vegetation-height map under and around the array. Triggers cut requests before shading erodes yield, and flags dry biomass build-up that raises fire-risk near rows and combiner stations.
Daily progress capture across the build site. Pre-burial documentation of underground cabling and trench routing, with a commissioning handoff package for owner and EPC contractor sign-off.
Rapid post-storm sweep across the array within hours of an event. Surfaces shattered modules, displaced trackers, and structural damage with georeferenced evidence for insurer claims and repair triage.
For arrays within 10km of an Aerion node. Multi-customer node infrastructure. Standard panel-thermal, tracker, and vegetation cadence. Faster onboarding.
Dedicated node for utility-scale arrays requiring per-cycle thermal diagnostics, daily tracker audits, and rapid storm-damage assessment. 8-12 week deployment.
Per-module thermal baseline across the array. Flags hotspots, hot cells, and underperforming strings against ambient ΔT.
Bypass diode failure pattern recognition from radiometric thermal. Per-module fault classification at scale.
Microcrack signatures from thermal contrast. Per-module trend over consecutive inspections detects deterioration early.
Multispectral soiling estimation per row. Schedules cleaning crews against measured loss, not arbitrary calendars.
Per-tracker tilt and azimuth check. Flags stuck or misaligned single-axis trackers vs solar position and neighbours.
Multispectral growth tracking across rows. Shading risk scored per kWp affected with cut-priority ranking, plus dry-biomass flagging for fire-risk clearing near rows and stations.
Cross-references thermal pattern against SCADA and inverter strings. Surfaces wiring or combiner faults early.
Person and vehicle classification on perimeter and access roads. Alert with thumbnail and last-known track.
Tartu, Estonia operates the EU's only fully-operational U-space regulatory sandbox. Aerion operates inside this framework. That compresses BVLOS approval cycles that take 12-24 months elsewhere in Europe to weeks for our customers.
We're accepting design partners and pilot customers for 2026-2027 deployments. Tell us about your facility, fleet, corridor, or operation.
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