The increasingly frequent extreme events pose a serious threat to the safe operation of distribution systems. A detailed description of the impact of extreme events on the supply-network-demand status of distribution networks is crucial for scientific disaster prevention of power systems. To this end

this paper proposes a method for generating disaster scenarios by combining conditional generative adversarial networks (CGAN) with Monte Carlo simulation (MCS) and further proposes a quantitative assessment method for the resilience of distribution systems under typhoon conditions. First

an event-triggered resilience assessment framework combining Monte Carlo simulation and generative AI-driven techniques is proposed. Next

a simulation-based disaster scenario-generation algorithm that considers spatiotemporal correlated supply-demand uncertainty and typhoon-affected component vulnerability is developed. Then

a series of event-affected resilience indices are defined

and the impact of a typhoon on distribution network performance is calculated by simulating during-event disaster scenarios and performing post-event restoration strategies. Finally

extensive numerical results validate the effectiveness of our proposed method.