Keeping the Lights On When the Wind Roars
We prepare, harden equipment, and pre-stage crews so we keep power flowing when hurricanes strike — even though a single storm can leave millions dark. We act quickly, communicate clearly, and restore service safely with tested plans and our resilient systems.
Compare this with outage preparedness buying guide / or How to Use an Inverter Generator for Home Backup Power: Our 6 Easy Steps
What We Need Before the Storm
Step 1: Assess and Harden Critical Infrastructure
Can simple inspections really prevent days of blackout? We say yes — fix small vulnerabilities first.Assess critical infrastructure rapidly: substations, feeders, poles, transformers, and control rooms. Inspect for vegetation encroachment, loose connections, corrosion, and water intrusion points.
Prioritize sites serving:
Reinforce where practical: brace or replace weakened poles, tighten or replace conductors, secure transformer fastenings, and elevate gear on concrete pads. Seal and improve drainage around control cabinets; wrap vulnerable enclosures and test backup protective relays. Document vulnerabilities in our emergency database, assign mitigation tasks, and schedule immediate temporary fixes.
Example: when a coastal substation shows water pooling we elevate transformers, add graded drainage, and log the fix so repair crews save hours after the storm.
Step 2: Build Redundancy and Grid Flexibility
Why a single line failure shouldn't leave an entire neighborhood in the dark — our workaround playbook.Design and activate redundancy so outages remain localized. We create switching schemes, sectionalize feeders, and pre-position tie points to reroute power quickly.
Open and tag switches in safe positions before the storm. Stage mobile transformers, sectionalizers, spare conductors, and clearly map alternate feed paths so crews can reconnect service without delay. Pre-configure microgrids or islanding at hospitals, shelters, and water plants—test control logic and communications ahead of time.
Coordinate temporary customer-owned generation where safe and permitted, and rehearse rapid reconfiguration scenarios with dispatchers in simulated outage drills so execution is smooth under pressure.
Step 3: Pre-Stage Crews and Materials Close to Risk Zones
We don't wait for the worst to arrive — we move the toolbox to the storm's path.Pre-stage repair crews, equipment, and materials in strategic locations so we can start work within hours, not days. Consider road access, fuel availability, safety, and crew rest when choosing sites.
Rotate crews to maintain readiness, coordinate traffic control for safe work zones, and stage specialized teams for hazardous conditions. Pre-authorize mutual aid, confirm contractor availability, insurance, and paperwork so assistance can begin immediately. For example, staging teams a few miles from a critical substation has cut restoration times from days to hours.
Step 4: Maintain Clear, Redundant Communications
If we can't talk, we can't fix — here's how we make silence impossible.Maintain clear, redundant communications before, during, and after a hurricane. We operate multiple channels so information flows when one path fails.
Pre-establish contact trees with government partners, emergency responders, and large customers so coordination is seamless. Program radios with talk groups and equip field crews with battery backups; dispatchers practice rapid status updates and require confirmed acknowledgements.
Use a single source of truth in incident command: situational dashboards, prioritized tasking, and timestamped status boards crews can query. Push timely, honest customer messages via SMS, social media, and local media to set expectations and reduce unsafe behavior.
For example, when cell service dropped in a recent storm, we switched to satellite phones and a mesh network to keep crews coordinated.
Step 5: Execute Rapid, Safe Restoration Procedures
Fast doesn't mean reckless—we restore power methodically but at speed.Move quickly but safely to restore service after the storm passes.
Follow preplanned safety protocols, de-energization checklists, and lockout/tagout procedures to protect workers and the public.
Triage damage by combining field reconnaissance, drone imagery, and SCADA alarms to identify priority circuits.
Use restore tactics:
Implement a staged restoration sequence that maximizes customers served per crew hour and restores critical facilities first.
Record each action in real time so dispatch can track progress and pivot as new damage is discovered.
Monitor fatigue and hazardous conditions; halt or adapt work when risks exceed tolerances.
Log customer priorities and coordinate medical needs daily.
Use a quick example: after a recent storm we deployed drones, placed a mobile substation at a hospital, and restored thousands within hours.
Step 6: Learn, Improve, and Share Resilience
We treat every storm as a free course — here's what we grade and teach ourselves next.Conduct thorough after-action reviews to capture lessons learned and quantify performance against objectives. We collect outage timelines, failure modes, crew logs, supply chain notes, and communication records.
Analyze data from smart meters, sensors, drones, and field reports to drive root-cause analysis. For example, after a recent hurricane we identified a recurring transformer failure and adjusted our spare-part strategy, cutting replacement time.
Prioritize fixes—capital upgrades, targeted vegetation management, and procedural changes—based on risk and cost-effectiveness.
Update training, revise pre-storm checklists, and refine staging plans; exercise these plans annually with mutual aid partners.
Share anonymized findings with regulators and community stakeholders and track customer feedback to improve transparency and trust.
Conclusion: Powering Through Together
Our layered approach—assessment, redundancy, staging, communications, safe restoration, and continuous improvement—keeps lights on during hurricanes; we meet each storm with preparation, courage, and community commitment. Try these steps, share your results, and help us strengthen resilience together every future storm.
17 comments
Funny and useful — I laughed at the analogy about keeping lights on being like ‘herding cats in a hurricane.’ Real question: after-action reviews — are those public? I’d love to read what utilities learned after big storms.
Also, tiny typo in the intro: ‘When the Wind Roars’ section header is missing a period? lol nitpick 😅
Ha, we like the cat analogy too. Many utilities publish sanitized after-action reports or resilience plans; some details are withheld for security, but lessons learned are often shared at conferences and in public reports. Thanks for the typo catch — fixed.
Reading Step 5 made me think of volunteer networks. Are unpaid local volunteers ever integrated into restoration plans, or is that a liability nightmare? The guide doesn’t touch much on community-level participation beyond being informed.
Volunteers are valuable but typically used for non-electrical tasks (shelter support, logistics, welfare checks). Direct involvement with power lines is restricted to trained crews for safety reasons. Some utilities run volunteer ambassador programs for neighborhood communication.
My county trains CERT volunteers to assist with coordination and non-technical stuff during outages — that model works well.
Makes sense. Safety first.
Question: For residential-level resilience, what’s realistic for average homeowners to do? The guide focuses on utility-level stuff which is essential, but homeowners want practical tips too. Battery backups? Portable gens? Solar + storage?
Also — any recommended minimum battery kWh for a 2-3 day outage? Numbers would be super helpful.🙂
We don’t endorse brands, but look for systems with good warranty, BMS, and local installer support. Also check for interoperability with future solar.
Great point, Erin. For homeowners: a portable generator (with safe transfer) or a home battery paired with solar are top options. For essentials (fridge, some lights, phone charging) a 5–10 kWh battery can get you through 24–48 hours depending on usage. For more comfortable multi-day outages, 10–20 kWh is common.
Don’t forget to size generators for startup loads (fridges/AC). People undersize and then complain.
I went with a 12kWh system — kept fridge + a couple AC units (on rotation) for 36 hours. Expensive but worth it.
Thanks! That helps — I’ll start budgeting for a 10kWh setup. Any brand recs?
A few practical observations from a lineman friend:
– Pre-staging is only as good as the hub locations; if access roads flood, crews still can’t get in.
– Tree trimming is underrated; most outages there are from falling limbs.
– Redundancy helps, but complexity can introduce new failure modes.
Not trying to be a downer — just emphasizing the messy reality. The guide does a good job though.
Thanks Daniel — those are important real-world constraints. That’s why multi-hazard planning includes access route assessments and vegetation management as ongoing programs.
Tree trimming saved us last season. Municipalities need steady funding for that, not just reactive budgets.
Exactly — redundancy must be designed simply where possible.
Complexity introducing failure modes is a point rarely acknowledged. Good to see it mentioned.