A conforming plane model of an intrinsic replacement graph #
The first intrinsic graph replacement need not be metrically close to the original embedding; its role here is to polygonalize the abstract finite graph once. A common segment arrangement turns all replacement edges into one plane graph complex. The original embedding can then be transferred to that plane complex and the ordinary plane one-skeleton approximation theorem can be applied at an arbitrary tolerance.
A nonempty face of cardinality at most two is the segment between two (possibly equal) vertex positions.
A one- or two-vertex face from one finite complete-edge target complex. These faces form a finite segment cover of the corresponding complete replacement edge.
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First endpoint of a selected replacement segment.
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Second endpoint of a selected replacement segment.
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Union of all selected segment faces over all complete replacement edges.
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The common arrangement used to reconcile every edge's independent finite target complex.
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Restrict the common arrangement to the actual replacement segments.
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The conforming finite plane graph complex of the simultaneous intrinsic replacement.
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Every point of one complete replacement edge has a face of the conforming global graph complex which remains inside that edge.
Each intrinsic face polygon is locally covered by faces of the one global conforming graph complex.
The intrinsic one-skeleton is homeomorphic to the support of its conforming polygonal plane graph model.