Thousands of distributed energy resources. Real-time coordination. A control room team of five. The operational engineering that keeps satellite fleets alive is the same engineering your VPP needs.
At 50 assets, you can manage by spreadsheet. At 5,000, you need mission-grade operational engineering. Most energy companies hit the wall somewhere in between.
Monitoring fragmented across manufacturer platforms. No single view of fleet health. Anomalies found by customers before your team sees them. Real-time becomes real-late.
No runbooks. No escalation paths. No post-mortems. Every grid event is handled ad-hoc by whoever happens to be available. Knowledge leaves when people leave.
Grid service commitments require sub-second response. Your ops team isn't sure what the SLAs actually require. Penalties come as surprises. Compliance is a prayer.
The operations that worked for 200 assets collapse at 2,000. New sites added faster than procedures updated. The team that built it can't explain how it works to new hires.
Invested in SCADA, DERMS, or monitoring platforms — but the operational processes around them are manual and inconsistent. Tools are only as good as the workflows feeding them.
One engineer who knows how the bidding algorithm works. One operator who understands the SCADA config. When they're on holiday, the system runs on luck.
"You're coordinating thousands of distributed energy assets in real-time, each with its own telemetry, its own failure modes, its own SLA constraints. That's a satellite constellation. The operational engineering is identical."
Concrete operational engineering engagements adapted from aerospace mission operations to distributed energy systems.
Design a unified fleet health monitoring system across heterogeneous DER assets. Aggregate telemetry from inverters, batteries, and meters into a single operational view with health scoring, anomaly detection, and predictive alerts — the energy equivalent of a satellite ground station display.
MTTR reduced 60% through faster anomaly detection and guided response
Apply FMECA to your distributed fleet. Map every failure mode per asset type — inverter faults, battery degradation, communications loss — score criticality, and design detection and mitigation strategies systematically rather than reactively.
Unplanned downtime reduced 40% within first quarter of implementation
Design the operational architecture for automated grid service delivery — frequency response, demand response, capacity markets. Define autonomy levels, human escalation triggers, fail-safes, and the transition from human-in-the-loop to human-on-the-loop operations.
Grid service response compliance improved from 89% to 99.4%
Design and execute chaos engineering programs for energy operations. What happens when your SCADA connection drops? When 30% of inverters go offline simultaneously? When the balancing market calls and your primary operator is unreachable? Test it before reality does.
Recovery time from major incidents reduced from hours to minutes
Build the operational discipline layer: structured incident response procedures, on-call rotation design, post-incident review process, runbook library, and operational knowledge base. Transform tribal knowledge into institutional capability that scales with the fleet.
New operator onboarding reduced from 6 months to 6 weeks
Every engagement follows the same structured methodology, adapted from aerospace mission assurance processes.
Structured assessment using the MCRF framework across all six reliability pillars. Map your current operational maturity, identify critical gaps, and score against industry benchmarks. 2-3 weeks.
Design the target operational architecture: monitoring topology, incident response flows, automation boundaries, team structure, and tool requirements. Prioritised implementation roadmap. 2-4 weeks.
Hands-on implementation of operational processes, runbooks, dashboards, and team workflows. Training, game days, and operational reviews until the team runs independently. 1-3 months.
We work with companies operating distributed energy infrastructure where operational reliability directly impacts revenue, compliance, or safety.
A structured conversation about where your operational maturity stands — and what it would take to reach mission-critical reliability.
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