The global imperative for infrastructure resilience is accelerating, driven by climate change, geopolitical instability, and aging infrastructure. Governments and regulators are increasing pressure on transport and logistics operators to implement robust Business Continuity Plans (BCPs). Companies face competitive pressure to minimize downtime and maintain service levels during disruptions, making advanced, data-driven recovery solutions critical for operational continuity and market trust.
Accelerates recovery plan generation by 80% compared to manual methods.
Minimizes lost transport volume by optimizing daily capacity and resource allocation.
Optimizes resource allocation for personnel and materials, improving efficiency and reducing costs.
This patent protects a program and system for supporting disaster recovery plan creation in transport networks, specifically focusing on optimizing resource allocation and minimizing lost transport volume. Its claims were upheld against four prior art references, indicating strong novelty and inventive step.
This patent primarily covers software for optimizing recovery planning. White space exists in developing real-time execution systems for field operations, integrating with predictive maintenance for pre-disaster mitigation, or extending optimization to broader smart city infrastructure beyond transport.
Assuming a 30% reduction in transport network recovery time during disasters. For a railway operator, if average daily lost profit is ~$33K (AI est.), and there are 10 disasters annually (average 5-day recovery), this technology could save 1.5 days per disaster. Calculation: ~$33K/day (AI est.) × 1.5 days/incident × 10 incidents/year = ~$500K/year (AI est.). An equivalent amount is assumed for resource optimization cost savings, leading to a total estimated economic impact.
X: Recovery Plan Optimization Accuracy
Y: Emergency Response Speed