Aerones is a Latvian robotics company focused on wind turbine inspection, maintenance, and repair. They use drones and crawler robots to check turbine blades inside and out. The systems handle lightning protection tests, drainage hole cleaning, visual inspections, and non-destructive testing. Aerones also provides robotic cleaning for blades and towers, removing dust, bugs, salt, algae, oil, and more. Robots can apply protective coatings, including ice-phobic and leading-edge coatings, directly on-site. A drone can scan a turbine in under 30 minutes with one button press. Data is uploaded to the cloud immediately and analyzed with AI to detect and classify issues. Compared to traditional methods, Aerones cuts downtime by 4–6 times and idle-stay periods by 5–10 times. Their technology is used worldwide by operators such as NextEra, GE, Vestas, Enel, and Siemens Gamesa, on both onshore and offshore turbines.
Ways to Inspect Wind Turbines During Operation
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Summary
Inspecting wind turbines during operation means using advanced tools and technologies to check for problems while the turbines are still running, helping to reduce downtime and prevent unexpected failures. Modern approaches like robotics, drones, and thermal cameras make these inspections faster, safer, and more accurate than traditional manual methods.
- Adopt drone inspections: Use drones equipped with cameras and sensors to quickly scan turbine blades and towers, capturing detailed images and data without stopping the wind turbine.
- Integrate thermal imaging: Deploy thermal cameras to detect overheating or failing electrical components, allowing you to spot hidden issues before they cause a breakdown.
- Utilize robotics and ai: Combine crawler robots and artificial intelligence to clean, test, and analyze turbine parts in real-time, streamlining maintenance and reducing the need for risky manual access.
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I had an interesting conversation this morning with one of the world's largest wind #turbine companies. Everyone’s chasing drones and robots—but field maintenance still hinges on boots, heat, and hard data. ** Equipment failures account for 42% of unplanned downtime (GE Digital). FLIR Systems thermal cameras paired with rugged phones aren’t just nice-to-haves—they're critical for spotting failures before they shut you down. The real edge? ** Thermographic inspections can identify failing electrical components with 98% accuracy under the right conditions. #VisionAI analyzing that imagery post-capture to flag risks faster than any crew ever could. **Vision-based AI cuts time-to-diagnosis in the field by over 40% compared to manual review. At TechBlocks, we don’t just collect data—we help energy, mining, and utility companies use it to act #smarter and earlier. #AI doesn’t replace field crews. It supercharges them. #FLIR #VisionAI #Techblocks #MaintenanceTech #Utilities #Mining #Energy #RuggedTech
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Turbines are offline longer than expected. Solar strings are underperforming, but it's hard to locate the issue. Rising O&M costs are eating into margins. Safety incidents from risky inspections. These aren’t “operational headaches” — they’re profit leaks. And most of them come from how we inspect. The Traditional Model (Pain / Loss Aversion) • Rope access, cherry-pickers, helicopters, boots on the ground. • Costly: labor + equipment rentals stack up quickly. • Slow: 1–2 turbines/day or weeks to cover a solar farm. • Risky: technicians exposed to heights, heat, and accidents. • Blind spots: issues are often missed until they become revenue-draining failures. 👉 Every extra day a turbine is down = thousands in lost generation. 👉 Every safety incident = higher insurance + regulatory headaches. 👉 Every missed defect = compounding performance loss. The Drone Model (Relief + Opportunity) • Speed: 4 turbines/day vs 1–2. Large solar farms mapped in hours, not weeks. • Cost: up to 70% reduction in inspection costs. • Safety: fewer people at height or in confined spaces. • Data Quality: thermal + RGB + LiDAR → early fault detection, predictive maintenance. • Business Impact: faster repairs, less downtime, higher energy yield. Translation for decision-makers: • Lower O&M line item + avoided revenue loss. • Streamlined, repeatable inspections that scale. • Actionable insights, not just raw images. • “Every day you rely on traditional inspections, you’re leaving megawatts (and revenue) on the table.” • “NREL validated drone-based thermography as a proven method to directly tie defects to performance loss.” • “Utilities and IPPs adopting drone inspections are reporting 30–60% O&M savings and faster ROI.” • “Start with one pilot project → measure cost + downtime savings → scale to fleet.” Clean energy is about efficiency and sustainability. Yet if we’re still using inspection methods from 1995, we’re paying 2025 prices for 1995 performance. Drones aren’t just new tech, they’re about protecting revenue, reducing risk, and scaling clean energy faster. If your next quarterly O&M review showed a 40% cost reduction and 50% less downtime, how would that change your project pipeline? 👉 If so, send me a DM to explore your project. #cleanenergy #drones #renewables #assetmanagement #OandM #predictivemaintenance
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