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2 Responsible:
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4 * {{mention reference="XWiki.msp" style="FULL_NAME" anchor="XWiki-msp-arwCB"/}}
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6 Related Theses:
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8 * Ole Claußen, //Implementing an algorithm for orthogonal graph layout//, September 2010 ([[pdf>>url:http://rtsys.informatik.uni-kiel.de/~~biblio/downloads/theses/ocl-bt.pdf||shape="rect"]])
9 * Christian Kutschmar, //Planarisierung von Hypergraphen//, September 2010 ([[pdf>>url:http://rtsys.informatik.uni-kiel.de/~~biblio/downloads/theses/cku-bt.pdf||shape="rect"]])(% style="color: rgb(0,0,0);" %)
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11 * Paul Klose, //A generic framework for topology-shape-metrics-based layout//, October 2012 ([[pdf>>url:http://rtsys.informatik.uni-kiel.de/~~biblio/downloads/theses/pkl-mt.pdf||shape="rect" class="external-link-new-window"]])
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14 KLay Planar encompasses planarization based layout algorithms. The main approach employed here is the //topology-shape-metrics// approach, which consists of the following phases:
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16 1. Planar subgraph - Remove edges until the resulting subgraph is planar. The goal is to minimize the number of removed edges.
17 1. Edge insertion - Reinsert the previously removed edges and replace all resulting crossings by new dummy nodes. The result is a planar embedding (//topology//). The goal is to minimize the number of introduced dummy nodes.
18 1. Orthogonalization - Find an orthogonal form by computing a series left or right bends for each edge (//shape//). The goal is to minimize the number of bends.
19 1. Compaction - Determine specific coordinates for nodes and edge bend points (//metrics//). The goal is to minimize the length of edge segments.
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21 The implementation is currently in progress...