TY - RPRT
AU - Myles T Collins
AU - Arthur Mallet Dias
AU - Lisa C Schwartz
AU - Paul De Martini
AB - <p>Electric utilities, regulators, and stakeholders face increasing risks of severe storms, freezes, floods, and heat waves damaging grid infrastructure and causing power outages—and increasing risks of utility equipment igniting wildfires. At the same time, customer electricity rates have risen substantially in recent years, due in part to replacing aging infrastructure and improving resilience to natural hazards and physical threats. To address these challenges, utilities are beginning to move beyond traditional, siloed planning processes to balance resilience with other fundamental grid objectives such as affordability, reliability, safety, and serving new loads.</p><p>This study presents a framework for states and utilities that want to advance integration of resilience and distribution planning processes to improve planning efficiency, better prioritize cost-effective grid expenditures, and balance planning objectives. The framework includes 7 key integration points between these planning processes:</p><ul><li>Strategy process</li><li>Data</li><li>Threat assessments</li><li>Solution identification and prioritization</li><li>Optimization opportunities</li><li>Consideration of other grid needs</li><li>Metrics</li></ul><p>Lawrence Berkeley National Laboratory reviewed utility distribution system plans and interviewed subject matter experts to identify emerging practices for each of the 7 integration points. This report presents these practices, which can be used as a guide toward more holistic planning and cohesive investment strategies. It also includes 3 case studies to provide practical examples of how utilities apply such integrated planning processes: two pole hardening programs and one microgrid planning effort. The report concludes by identifying opportunities for future research.</p>
DA - 04/2026
N1 - <p>A webinar discussing this research was recorded on December 17, 2025. The recording and presentation slides are both available <a href="https://www.nasuca.org/resources/doe-lbnl-grid-training/integrating-resilience-planning-with-distribution-system-planning/">here</a>.&nbsp;</p>
N2 - <p>Electric utilities, regulators, and stakeholders face increasing risks of severe storms, freezes, floods, and heat waves damaging grid infrastructure and causing power outages—and increasing risks of utility equipment igniting wildfires. At the same time, customer electricity rates have risen substantially in recent years, due in part to replacing aging infrastructure and improving resilience to natural hazards and physical threats. To address these challenges, utilities are beginning to move beyond traditional, siloed planning processes to balance resilience with other fundamental grid objectives such as affordability, reliability, safety, and serving new loads.</p><p>This study presents a framework for states and utilities that want to advance integration of resilience and distribution planning processes to improve planning efficiency, better prioritize cost-effective grid expenditures, and balance planning objectives. The framework includes 7 key integration points between these planning processes:</p><ul><li>Strategy process</li><li>Data</li><li>Threat assessments</li><li>Solution identification and prioritization</li><li>Optimization opportunities</li><li>Consideration of other grid needs</li><li>Metrics</li></ul><p>Lawrence Berkeley National Laboratory reviewed utility distribution system plans and interviewed subject matter experts to identify emerging practices for each of the 7 integration points. This report presents these practices, which can be used as a guide toward more holistic planning and cohesive investment strategies. It also includes 3 case studies to provide practical examples of how utilities apply such integrated planning processes: two pole hardening programs and one microgrid planning effort. The report concludes by identifying opportunities for future research.</p>
PY - 2026
TI - Integrating Resilience Planning in Distribution System Planning
ER -