This German technology company specializes in digital data collection, analysis, and management solutions. Utilizing drone technology and AI-powered object detection, they enable asset-intensive industries (such as energy, telecommunications, construction, and real estate) to conduct faster inspections, better analyze infrastructure conditions, and make data-driven maintenance decisions. Their integrated approach combines aerial data capture with advanced software and machine learning to help clients manage large-scale infrastructure efficiently and safely.
Bird nests on power grid infrastructure pose significant operational risks, including equipment damage, power outages, and fire hazards. Traditional manual inspection methods (to locate these bird nests and evaluate the danger they pose to the power lines) are quite labor-intensive, costly, and dangerous—requiring personnel to work at heights, near high-voltage equipment.
Compounding this challenge, many bird species are legally protected, requiring power companies to balance infrastructure maintenance with wildlife conservation. For example, regulations often prohibit disturbing nesting birds during breeding seasons, creating narrow maintenance windows and compliance complexities.
To address these dual challenges of safety and conservation, the client was developing an automated bird nest detection system that would enable efficient power grid monitoring and proactive maintenance planning—without disturbing natural habitats or putting workers at risk.
Our client needed drone image annotation services, specifically two dedicated resources for:
To deliver the high-quality training data required for the client's AI model, we implemented a systematic data annotation approach that prioritized accuracy, consistency, and scalability. All drone image labeling was conducted using the client's proprietary annotation platform.
We began by developing detailed annotation guidelines in collaboration with the client, establishing clear criteria for identifying bird nests and marking boundaries. These guidelines included visual examples of various nest types, materials, and configurations, as well as edge cases (such as partially obscured nests, debris versus actual nests, and ambiguous scenarios). Our annotation team underwent thorough training on these standards to ensure uniform interpretation across all images.
Each image underwent a two-step annotation process to capture both binary classification data and spatial location data:
To maintain the accuracy standards critical for AI model training, we implemented a rigorous quality assurance process:
For images where nest presence was unclear or debatable, we established an escalation protocol to resolve any discrepancies. Ambiguous cases were flagged and directed to subject matter experts for review, with decisions documented to maintain consistency in similar future scenarios. This approach minimized subjective interpretation while preventing annotation drift across the dataset.
Raw image
Annotated image
With binary classification and bounding box coordinates.
Maintained across the dataset through standardized protocols.
Meeting the accuracy thresholds required for safety-critical applications
Their structured approach meant we got reliable data we could train on immediately, without spending weeks cleaning it up ourselves. Great work.
- Project Manager
If your AI project requires precise annotation with proven quality control, our data annotation company can help. Whether it's aerial imagery, medical scans, satellite data, or something entirely different, our image, text, and video annotation services can be customized to support your goals.
Reach out to our team to know more, or request a free image labeling sample.