Typhoon,　as　a　high-impact　and　low-probability　extreme　event,　can　damage　the　components　in　power　networks,　thereby　resulting　in　power　outages　or　blackouts.　To　enhance　the　distribution　network　resilience　against　typhoon　attacks,　this　paper　proposes　a　resilience-oriented　two-stage　robust　optimization　model,　in　which　resilience-constrained　unit　commitment　schemes　and　planning-operational　restoration　measures　are　incorporated　into　a　prevention　and　emergency　response　framework.　In　the　prevention　response　stage,　line　hardening,　flexible　devices　deployment,　and　unit　commitment　are　performed　before　the　typhoon　attacks.　During　the　typhoons,　the　emergency　response　is　conducted　to　mitigate　power　outages　by　regulating　soft　open　points,　battery　storage　systems,　and　generation　units.　Moreover,　considering　the　time-varying　behaviors　of　typhoon　path,　the　simulation　technique　for　a　sequential　typhoon　attack　is　developed　to　construct　the　spatially　and　temporally　extended　N-k　uncertainty　set　for　overhead　line　status.　Thereafter,　a　tight　approximation　method　is　introduced　to　allow　the　proposed　model　to　be　a　tractable　mixed-integer　linear　programming　problem,　which　can　be　easily　solved　by　a　nested　column-and-constraint　generation　algorithm.　Numerical　results　show　that　the　comprehensive　resilience-oriented　strategies　can　respond　rapidly　to　the　worst-case　scenario　of　typhoon　attacks　with　cost-effective　performance.