Escape　routing　is　a　critical　problem　in　PCB　routing,　and　its　quality　greatly　affects　the　PCB　design　cost.　Unlike　the　traditional　escape　routing　that　works　mainly　for　the　BGA　package　with　unique　line　width　and　space,　this　paper　presents　a　high-performance　escape　routing　algorithm　to　handle　problems　with　variable　design　rules　and　manual　constraints,　including　variable　line　widths/spaces,　the　neck　mode　of　wires,　and　the　pad　entry　for　differential　pairs.　We　first　propose　a　novel　obstacle-avoiding　method　to　project　pins　to　the　boundary　and　construct　a　channel　projection　graph.　We　then　construct　a　bi-projection　graph　and　propose　a　matching-based　hierarchical　sequencing　algorithm　to　consider　manual　constraints.　We　perform　global　routing　for　each　pin/differential　pair　by　congestion-avoiding　path　initialization　and　rip-up　and　reroute　path　optimization.　Finally,　we　complete　detailed　routing　in　every　face,　ensuring　the　wire　angle　and　pad　entry　constraints.　Experimental　results　show　that　our　algorithm　can　achieve　100%　routability　without　any　design　rule　violation　for　all　given　industrial　PCB　instances,　while　two　state-of-the-art　routers　cannot　complete　routing.