Overview
Across the utility industry, aerial inspection programs have become essential for maintaining transmission and distribution networks in the face of aging infrastructure and extreme weather. A utility-focused geospatial analytics provider required a reliable way to process and offload massive volumes of inspection data captured during airborne operations. Premio’s rugged edge computing platform delivered the performance, resilience, and flexibility needed to sustain continuous data acquisition in vibration-prone flight environments.
Challenges
- Insufficient CPU stability to sustain continuous high-throughput data processing under vibration
- Limited high-speed networking to handle multi-camera payload data backhaul
- Lack of secure, removable storage for rapid data rotation and protection in the field
- Constrained aircraft mounting space and variable power conditions during flight operations
- Requirement for environmental durability and UL-certified safety for airborne deployment
Solution
- Premio’s rugged edge computer (RCO-6000-RPL)
- Support for Intel X710 10GbE networking expansion
- Hot-swappable NVMe storage with locking canister bays
- Wide-range 9–48V DC input with ignition control
- Extended temperature operation with shock, vibration, and UL compliance
Benefits
- Faster data turnaround from collection to analysis
- Reliable in-flight operation under vibration and shock
- Simplified airborne integration and power management
Company Overview
The organization specializes in geospatial analytics for utility inspection and vegetation management programs supporting transmission and distribution networks. Advanced aerial imaging workflows combine high-throughput data capture with post-event powerline assessments to improve grid reliability. Ongoing innovation focuses on scaling airborne data operations with rugged, mission-ready computing platforms.
The Challenges
Sustaining CPU Performance in Flight
Continuous data ingestion from multiple camera payloads placed heavy demands on processing stability. Standard systems struggled to maintain consistent performance under constant vibration and turbulence. A more resilient CPU architecture was required to ensure uninterrupted data capture during long flight missions.
Managing High-Throughput Data Backhaul
Multi-stream imaging generated massive datasets that needed to be transferred quickly after each flight. Existing networking interfaces created bottlenecks during offload, slowing analysis workflows. High-bandwidth, fiber-ready networking became critical to keeping inspection timelines on schedule.
Securing and Rotating Field Storage
Operational teams needed to rapidly swap storage media between missions without compromising data security. Traditional fixed storage designs increased downtime and risk during transport. Locking, hot-swappable storage was essential for efficient field operations.
Fitting Within Aircraft Constraints
Aircraft installations offered limited mounting space and inconsistent power availability. Systems had to be compact, power-efficient, and tolerant of wide-range DC input. Ignition-based power control was also required for predictable startup and shutdown behavior.
Meeting Environmental and Safety Requirements
Airborne deployments exposed equipment to temperature swings, shock events, and constant vibration. Enterprise safety certifications were mandatory for operational approval. The platform needed to withstand harsh flight conditions while meeting UL compliance standards.
The Solution
Rugged Edge Computing Foundation
At the core of the deployment is Premio’s rugged edge computer (RCO-6000-RPL). Socketed 12th and 13th Gen Intel Core processors operating at 35W TDP deliver stable, efficient performance for continuous data capture. The ruggedized chassis is engineered to withstand airborne vibration and shock without compromising reliability.
High-Bandwidth 10GbE Connectivity
The system supports Intel X710 10GbE expansion to handle multi-camera data streams in real time. This high-speed pipeline enables rapid ingestion during flight and accelerates post-mission data offload. As a result, large datasets move seamlessly from the edge to downstream storage and analytics platforms.
Hot-Swappable, Secure Storage
Modular NVMe and locking canister bays allow teams to rotate storage media quickly between missions. Sensitive inspection data remains protected during transport and handling. This design significantly reduces turnaround time between flights while maintaining data security.
Aircraft-Ready Power Design
Wide-range 9–48V DC input accommodates fluctuating aircraft power conditions. Integrated power protection and ignition control ensure safe, predictable system behavior during startup and shutdown. This simplifies installation and reduces operational risk in airborne environments.
Environmental Hardening and Compliance
Extended operating temperature support and shock and vibration tolerance enable reliable operation throughout all phases of flight. UL, CE, and FCC compliance provide the safety assurance required for mission-critical airborne deployments. The platform remains dependable even in rapidly changing flight conditions.
The Benefits
Accelerated Inspection Workflows
High-speed networking and hot-swappable NVMe storage dramatically reduce the time from data capture to actionable analysis.
Consistent In-Flight Reliability
Rugged mechanical design and stable processing ensure uninterrupted data acquisition despite vibration and turbulence.
Simplified Deployment and Support
Compact form factor, low power draw, and wide-range DC input streamline aircraft integration, backed by Premio’s engineering support from Los Angeles.
Conclusion
By deploying Premio’s rugged edge computing platform, the geospatial analytics provider transformed how aerial utility inspection data is captured and processed. The solution delivers the performance, durability, and flexibility required for demanding airborne operations. With reliable edge infrastructure in place, inspection teams can scale data-driven insights across utility networks with confidence.