/* KLayout Layout Viewer Copyright (C) 2006-2019 Matthias Koefferlein This program is free software; you can redistribute it and/or modify it under the terms of the GNU General Public License as published by the Free Software Foundation; either version 2 of the License, or (at your option) any later version. This program is distributed in the hope that it will be useful, but WITHOUT ANY WARRANTY; without even the implied warranty of MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the GNU General Public License for more details. You should have received a copy of the GNU General Public License along with this program; if not, write to the Free Software Foundation, Inc., 51 Franklin St, Fifth Floor, Boston, MA 02110-1301 USA */ #include "tlUnitTest.h" #include "dbHierNetworkProcessor.h" #include "dbTestSupport.h" #include "dbShapeRepository.h" #include "dbPolygon.h" #include "dbPath.h" #include "dbText.h" #include "dbLayout.h" #include "dbStream.h" #include "dbCommonReader.h" static std::string l2s (db::Connectivity::layer_iterator b, db::Connectivity::layer_iterator e) { std::string s; for (db::Connectivity::layer_iterator i = b; i != e; ++i) { if (! s.empty ()) { s += ","; } s += tl::to_string (*i); } return s; } static std::string gn2s (db::Connectivity::global_nets_iterator b, db::Connectivity::global_nets_iterator e) { std::string s; for (db::Connectivity::global_nets_iterator i = b; i != e; ++i) { if (! s.empty ()) { s += ","; } s += tl::to_string (*i); } return s; } TEST(1_Connectivity) { db::Connectivity conn; EXPECT_EQ (l2s (conn.begin_layers (), conn.end_layers ()), ""); conn.connect (0); EXPECT_EQ (l2s (conn.begin_layers (), conn.end_layers ()), "0"); EXPECT_EQ (l2s (conn.begin_connected (0), conn.end_connected (0)), "0"); EXPECT_EQ (l2s (conn.begin_connected (1), conn.end_connected (1)), ""); conn.connect (0, 1); EXPECT_EQ (l2s (conn.begin_layers (), conn.end_layers ()), "0,1"); EXPECT_EQ (l2s (conn.begin_connected (0), conn.end_connected (0)), "0,1"); EXPECT_EQ (l2s (conn.begin_connected (1), conn.end_connected (1)), "0"); conn.connect (1); EXPECT_EQ (l2s (conn.begin_connected (1), conn.end_connected (1)), "0,1"); conn.connect (0, 2); conn.connect (2); EXPECT_EQ (l2s (conn.begin_connected (0), conn.end_connected (0)), "0,1,2"); EXPECT_EQ (l2s (conn.begin_connected (1), conn.end_connected (1)), "0,1"); EXPECT_EQ (l2s (conn.begin_connected (2), conn.end_connected (2)), "0,2"); EXPECT_EQ (conn.connect_global (0, "GLOBAL"), size_t (0)); EXPECT_EQ (gn2s (conn.begin_global_connections (2), conn.end_global_connections (2)), ""); EXPECT_EQ (gn2s (conn.begin_global_connections (0), conn.end_global_connections (0)), "0"); EXPECT_EQ (conn.connect_global (2, "GLOBAL2"), size_t (1)); EXPECT_EQ (gn2s (conn.begin_global_connections (2), conn.end_global_connections (2)), "1"); EXPECT_EQ (conn.connect_global (0, "GLOBAL2"), size_t (1)); EXPECT_EQ (gn2s (conn.begin_global_connections (0), conn.end_global_connections (0)), "0,1"); EXPECT_EQ (conn.global_net_name (0), "GLOBAL"); EXPECT_EQ (conn.global_net_name (1), "GLOBAL2"); db::Connectivity conn2 = conn; EXPECT_EQ (l2s (conn2.begin_connected (0), conn2.end_connected (0)), "0,1,2"); EXPECT_EQ (l2s (conn2.begin_connected (1), conn2.end_connected (1)), "0,1"); EXPECT_EQ (l2s (conn2.begin_connected (2), conn2.end_connected (2)), "0,2"); EXPECT_EQ (gn2s (conn2.begin_global_connections (0), conn2.end_global_connections (0)), "0,1"); EXPECT_EQ (conn2.global_net_name (0), "GLOBAL"); EXPECT_EQ (conn2.global_net_name (1), "GLOBAL2"); } TEST(2_ShapeInteractions) { db::Connectivity conn; conn.connect (0); conn.connect (1); conn.connect (0, 1); db::Polygon poly; tl::from_string ("(0,0;0,1000;1000,1000;1000,0)", poly); db::GenericRepository repo; db::PolygonRef ref1 (poly, repo); db::ICplxTrans t2 (db::Trans (db::Vector (0, 10))); db::PolygonRef ref2 (poly.transformed (t2), repo); db::ICplxTrans t3 (db::Trans (db::Vector (0, 2000))); db::PolygonRef ref3 (poly.transformed (t3), repo); EXPECT_EQ (conn.interacts (ref1, 0, ref2, 0), true); EXPECT_EQ (conn.interacts (ref1, 0, ref1, 0, t2), true); // t2*ref1 == ref2 EXPECT_EQ (conn.interacts (ref1, 0, ref2, 1), true); EXPECT_EQ (conn.interacts (ref1, 0, ref1, 1, t2), true); EXPECT_EQ (conn.interacts (ref1, 1, ref2, 0), true); EXPECT_EQ (conn.interacts (ref1, 1, ref1, 0, t2), true); EXPECT_EQ (conn.interacts (ref1, 0, ref3, 0), false); EXPECT_EQ (conn.interacts (ref1, 0, ref1, 0, t3), false); // t3*ref1 == ref3 EXPECT_EQ (conn.interacts (ref1, 0, ref3, 1), false); EXPECT_EQ (conn.interacts (ref1, 0, ref1, 1, t3), false); EXPECT_EQ (conn.interacts (ref1, 1, ref2, 2), false); EXPECT_EQ (conn.interacts (ref1, 1, ref1, 2, t2), false); } TEST(2_ShapeInteractionsRealPolygon) { db::Connectivity conn; conn.connect (0); conn.connect (1); conn.connect (0, 1); db::Polygon poly; tl::from_string ("(0,0;0,1000;500,1000;500,1500;1000,1500;1000,0)", poly); db::GenericRepository repo; db::PolygonRef ref1 (poly, repo); db::ICplxTrans t2 (db::Trans (db::Vector (0, 10))); db::PolygonRef ref2 (poly.transformed (t2), repo); db::ICplxTrans t3 (db::Trans (db::Vector (0, 2000))); db::PolygonRef ref3 (poly.transformed (t3), repo); db::ICplxTrans t4 (db::Trans (db::Vector (0, 1500))); db::PolygonRef ref4 (poly.transformed (t4), repo); EXPECT_EQ (conn.interacts (ref1, 0, ref2, 0), true); EXPECT_EQ (conn.interacts (ref1, 0, ref1, 0, t2), true); // t2*ref1 == ref2 EXPECT_EQ (conn.interacts (ref1, 0, ref2, 1), true); EXPECT_EQ (conn.interacts (ref1, 0, ref1, 1, t2), true); EXPECT_EQ (conn.interacts (ref1, 1, ref2, 0), true); EXPECT_EQ (conn.interacts (ref1, 1, ref1, 0, t2), true); EXPECT_EQ (conn.interacts (ref1, 0, ref3, 0), false); EXPECT_EQ (conn.interacts (ref1, 0, ref1, 0, t3), false); EXPECT_EQ (conn.interacts (ref1, 0, ref4, 0), true); EXPECT_EQ (conn.interacts (ref1, 0, ref1, 0, t4), true); EXPECT_EQ (conn.interacts (ref1, 0, ref3, 1), false); EXPECT_EQ (conn.interacts (ref1, 0, ref1, 1, t3), false); EXPECT_EQ (conn.interacts (ref1, 1, ref2, 2), false); EXPECT_EQ (conn.interacts (ref1, 1, ref1, 2, t2), false); } TEST(10_LocalClusterBasic) { db::GenericRepository repo; db::Polygon poly; tl::from_string ("(0,0;0,1000;1000,1000;1000,0)", poly); db::local_cluster cluster; EXPECT_EQ (cluster.bbox ().to_string (), "()"); EXPECT_EQ (cluster.id (), size_t (0)); cluster.add (db::PolygonRef (poly, repo), 0); cluster.add_attr (1); EXPECT_EQ (cluster.bbox ().to_string (), "(0,0;1000,1000)"); db::local_cluster cluster2; cluster2.add (db::PolygonRef (poly, repo).transformed (db::Trans (db::Vector (10, 20))), 1); cluster2.add_attr (2); cluster.join_with (cluster2); EXPECT_EQ (cluster.bbox ().to_string (), "(0,0;1010,1020)"); EXPECT_EQ (cluster.begin_attr () == cluster.end_attr (), false); db::local_cluster::attr_iterator a = cluster.begin_attr (); EXPECT_EQ (*a++, 1u); EXPECT_EQ (*a++, 2u); EXPECT_EQ (a == cluster.end_attr (), true); } TEST(11_LocalClusterInteractBasic) { db::GenericRepository repo; db::Connectivity conn; conn.connect (0); conn.connect (1); conn.connect (2); conn.connect (0, 1); conn.connect (0, 2); db::Polygon poly; tl::from_string ("(0,0;0,1000;1000,1000;1000,0)", poly); db::local_cluster cluster; db::local_cluster cluster2; EXPECT_EQ (cluster.interacts (cluster2, db::ICplxTrans (), conn), false); cluster.add (db::PolygonRef (poly, repo), 0); EXPECT_EQ (cluster.interacts (cluster2, db::ICplxTrans (), conn), false); cluster2.add (db::PolygonRef (poly, repo), 0); EXPECT_EQ (cluster.interacts (cluster2, db::ICplxTrans (), conn), true); EXPECT_EQ (cluster.interacts (cluster2, db::ICplxTrans (db::Trans (db::Vector (10, 20))), conn), true); EXPECT_EQ (cluster.interacts (cluster2, db::ICplxTrans (db::Trans (db::Vector (0, 1000))), conn), true); EXPECT_EQ (cluster.interacts (cluster2, db::ICplxTrans (db::Trans (db::Vector (0, 1001))), conn), false); EXPECT_EQ (cluster.interacts (cluster2, db::ICplxTrans (db::Trans (db::Vector (0, 2000))), conn), false); cluster.clear (); EXPECT_EQ (cluster.interacts (cluster2, db::ICplxTrans (), conn), false); } TEST(11_LocalClusterInteractDifferentLayers) { db::GenericRepository repo; db::Connectivity conn; conn.connect (0); conn.connect (1); conn.connect (2); conn.connect (0, 1); conn.connect (0, 2); db::Polygon poly; tl::from_string ("(0,0;0,1000;1000,1000;1000,0)", poly); db::local_cluster cluster; db::local_cluster cluster2; EXPECT_EQ (cluster.interacts (cluster2, db::ICplxTrans (), conn), false); cluster.add (db::PolygonRef (poly, repo), 0); EXPECT_EQ (cluster.interacts (cluster2, db::ICplxTrans (), conn), false); cluster2.add (db::PolygonRef (poly, repo), 1); EXPECT_EQ (cluster.interacts (cluster2, db::ICplxTrans (), conn), true); EXPECT_EQ (cluster.interacts (cluster2, db::ICplxTrans (db::Trans (db::Vector (10, 20))), conn), true); EXPECT_EQ (cluster.interacts (cluster2, db::ICplxTrans (db::Trans (db::Vector (0, 1000))), conn), true); EXPECT_EQ (cluster.interacts (cluster2, db::ICplxTrans (db::Trans (db::Vector (0, 1001))), conn), false); EXPECT_EQ (cluster.interacts (cluster2, db::ICplxTrans (db::Trans (db::Vector (0, 2000))), conn), false); cluster.clear (); EXPECT_EQ (cluster.interacts (cluster2, db::ICplxTrans (), conn), false); cluster.add (db::PolygonRef (poly, repo), 2); EXPECT_EQ (cluster.interacts (cluster2, db::ICplxTrans (), conn), false); // not connected cluster.clear (); EXPECT_EQ (cluster.interacts (cluster2, db::ICplxTrans (), conn), false); cluster.add (db::PolygonRef (poly, repo), 1); EXPECT_EQ (cluster.interacts (cluster2, db::ICplxTrans (), conn), true); } static std::string obj2string (const db::PolygonRef &ref) { return ref.obj ().transformed (ref.trans ()).to_string (); } static std::string obj2string (const db::Edge &ref) { return ref.to_string (); } template static std::string local_cluster_to_string (const db::local_cluster &cluster, const db::Connectivity &conn) { std::string res; for (db::Connectivity::layer_iterator l = conn.begin_layers (); l != conn.end_layers (); ++l) { for (typename db::local_cluster::shape_iterator s = cluster.begin (*l); ! s.at_end (); ++s) { if (! res.empty ()) { res += ";"; } res += "[" + tl::to_string (*l) + "]" + obj2string (*s); } } for (typename db::local_cluster::attr_iterator a = cluster.begin_attr (); a != cluster.end_attr (); ++a) { res += "%" + tl::to_string (*a); } for (typename db::local_cluster::global_nets_iterator g = cluster.begin_global_nets (); g != cluster.end_global_nets (); ++g) { res += "+" + conn.global_net_name (*g); } return res; } template static std::string local_clusters_to_string (const db::local_clusters &clusters, const db::Connectivity &conn) { std::string s; for (typename db::local_clusters::const_iterator c = clusters.begin (); c != clusters.end (); ++c) { if (! s.empty ()) { s += "\n"; } s += "#" + tl::to_string (c->id ()) + ":" + local_cluster_to_string (*c, conn); } return s; } TEST(12_LocalClusterSplitByAreaRatio) { db::GenericRepository repo; db::Connectivity conn; conn.connect (0); conn.connect (1); conn.connect (2); db::local_cluster cluster (17); cluster.add (db::PolygonRef (db::Polygon (db::Box (0, 0, 20, 20)), repo), 0); cluster.add (db::PolygonRef (db::Polygon (db::Box (0, 0, 1000, 20)), repo), 0); cluster.add (db::PolygonRef (db::Polygon (db::Box (1000, 0, 1020, 1000)), repo), 1); cluster.add (db::PolygonRef (db::Polygon (db::Box (0, 1000, 1000, 1020)), repo), 2); std::list > out; std::back_insert_iterator > > iout = std::back_inserter (out); size_t n = cluster.split (10.0, iout); EXPECT_EQ (n, size_t (3)); EXPECT_EQ (out.size (), size_t (3)); std::list >::const_iterator i = out.begin (); EXPECT_EQ (local_cluster_to_string (*i, conn), "[0](0,0;0,20;20,20;20,0);[0](0,0;0,20;1000,20;1000,0)"); EXPECT_EQ (i->id (), size_t (17)); ++i; EXPECT_EQ (local_cluster_to_string (*i, conn), "[1](1000,0;1000,1000;1020,1000;1020,0)"); EXPECT_EQ (i->id (), size_t (17)); ++i; EXPECT_EQ (local_cluster_to_string (*i, conn), "[2](0,1000;0,1020;1000,1020;1000,1000)"); EXPECT_EQ (i->id (), size_t (17)); } TEST(20_LocalClustersBasic) { db::Layout layout; db::Cell &cell = layout.cell (layout.add_cell ("TOP")); db::GenericRepository &repo = layout.shape_repository (); db::Connectivity conn; conn.connect (0); conn.connect (1); conn.connect (2); conn.connect (0, 1); conn.connect (0, 2); db::Polygon poly; tl::from_string ("(0,0;0,1000;1000,1000;1000,0)", poly); cell.shapes (0).insert (db::PolygonRef (poly, repo)); db::local_clusters clusters; EXPECT_EQ (local_clusters_to_string (clusters, conn), ""); clusters.build_clusters (cell, db::ShapeIterator::Polygons, conn); EXPECT_EQ (local_clusters_to_string (clusters, conn), "#1:[0](0,0;0,1000;1000,1000;1000,0)"); // one more shape cell.shapes (0).insert (db::PolygonRef (poly.transformed (db::Trans (db::Vector (10, 20))), repo)); clusters.clear (); clusters.build_clusters (cell, db::ShapeIterator::Polygons, conn); EXPECT_EQ (local_clusters_to_string (clusters, conn), "#1:[0](0,0;0,1000;1000,1000;1000,0);[0](10,20;10,1020;1010,1020;1010,20)"); // one more shape creating a new cluster cell.shapes (2).insert (db::PolygonRef (poly.transformed (db::Trans (db::Vector (0, 1100))), repo)); clusters.clear (); clusters.build_clusters (cell, db::ShapeIterator::Polygons, conn); EXPECT_EQ (local_clusters_to_string (clusters, conn), "#1:[0](0,0;0,1000;1000,1000;1000,0);[0](10,20;10,1020;1010,1020;1010,20)\n" "#2:[2](0,1100;0,2100;1000,2100;1000,1100)" ); // one more shape connecting these cell.shapes (2).insert (db::PolygonRef (poly.transformed (db::Trans (db::Vector (0, 1000))), repo)); clusters.clear (); clusters.build_clusters (cell, db::ShapeIterator::Polygons, conn); EXPECT_EQ (local_clusters_to_string (clusters, conn), "#1:[0](0,0;0,1000;1000,1000;1000,0);[0](10,20;10,1020;1010,1020;1010,20);[2](0,1000;0,2000;1000,2000;1000,1000);[2](0,1100;0,2100;1000,2100;1000,1100)" ); // one more shape opening a new cluster cell.shapes (1).insert (db::PolygonRef (poly.transformed (db::Trans (db::Vector (0, 1100))), repo)); clusters.clear (); clusters.build_clusters (cell, db::ShapeIterator::Polygons, conn); EXPECT_EQ (local_clusters_to_string (clusters, conn), "#1:[0](0,0;0,1000;1000,1000;1000,0);[0](10,20;10,1020;1010,1020;1010,20);[2](0,1000;0,2000;1000,2000;1000,1000);[2](0,1100;0,2100;1000,2100;1000,1100)\n" "#2:[1](0,1100;0,2100;1000,2100;1000,1100)" ); } TEST(21_LocalClustersBasicWithAttributes) { db::Layout layout; db::Cell &cell = layout.cell (layout.add_cell ("TOP")); db::GenericRepository &repo = layout.shape_repository (); db::Connectivity conn; conn.connect (0); conn.connect (1); conn.connect (2); conn.connect (0, 1); conn.connect (0, 2); db::Polygon poly; tl::from_string ("(0,0;0,1000;1000,1000;1000,0)", poly); cell.shapes (0).insert (db::PolygonRef (poly, repo)); db::local_clusters clusters; EXPECT_EQ (local_clusters_to_string (clusters, conn), ""); clusters.build_clusters (cell, db::ShapeIterator::Polygons, conn); EXPECT_EQ (local_clusters_to_string (clusters, conn), "#1:[0](0,0;0,1000;1000,1000;1000,0)"); // one more shape cell.shapes (0).insert (db::PolygonRefWithProperties (db::PolygonRef (poly.transformed (db::Trans (db::Vector (10, 20))), repo), 1)); clusters.clear (); clusters.build_clusters (cell, db::ShapeIterator::Polygons, conn); EXPECT_EQ (local_clusters_to_string (clusters, conn), "#1:[0](0,0;0,1000;1000,1000;1000,0);[0](10,20;10,1020;1010,1020;1010,20)%1"); // one more shape creating a new cluster cell.shapes (2).insert (db::PolygonRefWithProperties (db::PolygonRef (poly.transformed (db::Trans (db::Vector (0, 1100))), repo), 2)); clusters.clear (); clusters.build_clusters (cell, db::ShapeIterator::Polygons, conn); EXPECT_EQ (local_clusters_to_string (clusters, conn), "#1:[0](0,0;0,1000;1000,1000;1000,0);[0](10,20;10,1020;1010,1020;1010,20)%1\n" "#2:[2](0,1100;0,2100;1000,2100;1000,1100)%2" ); // one more shape connecting these cell.shapes (2).insert (db::PolygonRefWithProperties (db::PolygonRef (poly.transformed (db::Trans (db::Vector (0, 1000))), repo), 3)); clusters.clear (); clusters.build_clusters (cell, db::ShapeIterator::Polygons, conn); EXPECT_EQ (local_clusters_to_string (clusters, conn), "#1:[0](0,0;0,1000;1000,1000;1000,0);[0](10,20;10,1020;1010,1020;1010,20);[2](0,1000;0,2000;1000,2000;1000,1000);[2](0,1100;0,2100;1000,2100;1000,1100)%1%2%3" ); // one more shape opening a new cluster cell.shapes (1).insert (db::PolygonRefWithProperties (db::PolygonRef (poly.transformed (db::Trans (db::Vector (0, 1100))), repo), 4)); clusters.clear (); clusters.build_clusters (cell, db::ShapeIterator::Polygons, conn); EXPECT_EQ (local_clusters_to_string (clusters, conn), "#1:[0](0,0;0,1000;1000,1000;1000,0);[0](10,20;10,1020;1010,1020;1010,20);[2](0,1000;0,2000;1000,2000;1000,1000);[2](0,1100;0,2100;1000,2100;1000,1100)%1%2%3\n" "#2:[1](0,1100;0,2100;1000,2100;1000,1100)%4" ); } TEST(22_LocalClustersWithGlobal) { db::Layout layout; db::Cell &cell = layout.cell (layout.add_cell ("TOP")); db::GenericRepository &repo = layout.shape_repository (); db::Connectivity conn; conn.connect (0); conn.connect (1); conn.connect (2); conn.connect (0, 1); conn.connect (0, 2); db::Polygon poly; tl::from_string ("(0,0;0,1000;1000,1000;1000,0)", poly); cell.shapes (0).insert (db::PolygonRef (poly, repo)); db::local_clusters clusters; EXPECT_EQ (local_clusters_to_string (clusters, conn), ""); clusters.build_clusters (cell, db::ShapeIterator::Polygons, conn); EXPECT_EQ (local_clusters_to_string (clusters, conn), "#1:[0](0,0;0,1000;1000,1000;1000,0)"); // one more shape cell.shapes (0).insert (db::PolygonRefWithProperties (db::PolygonRef (poly.transformed (db::Trans (db::Vector (10, 20))), repo), 1)); clusters.clear (); clusters.build_clusters (cell, db::ShapeIterator::Polygons, conn); EXPECT_EQ (local_clusters_to_string (clusters, conn), "#1:[0](0,0;0,1000;1000,1000;1000,0);[0](10,20;10,1020;1010,1020;1010,20)%1"); // one more shape creating a new cluster cell.shapes (2).insert (db::PolygonRefWithProperties (db::PolygonRef (poly.transformed (db::Trans (db::Vector (0, 1100))), repo), 2)); clusters.clear (); clusters.build_clusters (cell, db::ShapeIterator::Polygons, conn); EXPECT_EQ (local_clusters_to_string (clusters, conn), "#1:[0](0,0;0,1000;1000,1000;1000,0);[0](10,20;10,1020;1010,1020;1010,20)%1\n" "#2:[2](0,1100;0,2100;1000,2100;1000,1100)%2" ); conn.connect_global (0, "GLOBAL"); clusters.clear (); clusters.build_clusters (cell, db::ShapeIterator::Polygons, conn); EXPECT_EQ (local_clusters_to_string (clusters, conn), "#1:[0](0,0;0,1000;1000,1000;1000,0);[0](10,20;10,1020;1010,1020;1010,20)%1+GLOBAL\n" "#2:[2](0,1100;0,2100;1000,2100;1000,1100)%2" ); conn.connect_global (2, "GLOBAL2"); clusters.clear (); clusters.build_clusters (cell, db::ShapeIterator::Polygons, conn); EXPECT_EQ (local_clusters_to_string (clusters, conn), "#1:[0](0,0;0,1000;1000,1000;1000,0);[0](10,20;10,1020;1010,1020;1010,20)%1+GLOBAL\n" "#2:[2](0,1100;0,2100;1000,2100;1000,1100)%2+GLOBAL2" ); conn.connect_global (0, "GLOBAL2"); // now, GLOBAL2 will connect these clusters clusters.clear (); clusters.build_clusters (cell, db::ShapeIterator::Polygons, conn); EXPECT_EQ (local_clusters_to_string (clusters, conn), "#1:[0](0,0;0,1000;1000,1000;1000,0);[0](10,20;10,1020;1010,1020;1010,20);[2](0,1100;0,2100;1000,2100;1000,1100)%1%2+GLOBAL+GLOBAL2" ); } TEST(23_LocalClustersWithEdges) { db::Layout layout; db::Cell &cell = layout.cell (layout.add_cell ("TOP")); db::Edge edge; tl::from_string ("(0,0;0,500)", edge); cell.shapes (0).insert (edge); tl::from_string ("(0,500;0,1000)", edge); cell.shapes (0).insert (edge); tl::from_string ("(0,1000;2000,1000)", edge); cell.shapes (0).insert (edge); tl::from_string ("(2000,1000;2000,500)", edge); cell.shapes (0).insert (edge); tl::from_string ("(2000,500;1000,250)", edge); cell.shapes (0).insert (edge); tl::from_string ("(1500,375;0,0)", edge); cell.shapes (0).insert (edge); { // edge clusters are for intra-layer mainly db::Connectivity conn; conn.connect (0); db::local_clusters clusters; clusters.build_clusters (cell, db::ShapeIterator::Edges, conn); EXPECT_EQ (local_clusters_to_string (clusters, conn), "#1:[0](0,0;0,500);[0](0,500;0,1000)\n" "#2:[0](2000,500;1000,250);[0](1500,375;0,0)\n" "#3:[0](0,1000;2000,1000)\n" "#4:[0](2000,1000;2000,500)" ); } { // edge clusters are for intra-layer mainly db::Connectivity conn (db::Connectivity::EdgesConnectByPoints); conn.connect (0); db::local_clusters clusters; clusters.build_clusters (cell, db::ShapeIterator::Edges, conn); EXPECT_EQ (local_clusters_to_string (clusters, conn), "#1:[0](0,0;0,500);[0](0,500;0,1000);[0](1500,375;0,0);[0](0,1000;2000,1000);[0](2000,1000;2000,500);[0](2000,500;1000,250)"); } } TEST(30_LocalConnectedClusters) { db::Layout layout; db::cell_index_type ci1 = layout.add_cell ("C1"); db::cell_index_type ci2 = layout.add_cell ("C2"); db::cell_index_type ci3 = layout.add_cell ("C3"); db::Instance i1 = layout.cell (ci1).insert (db::CellInstArray (db::CellInst (ci2), db::Trans ())); db::Instance i2 = layout.cell (ci2).insert (db::CellInstArray (db::CellInst (ci3), db::Trans ())); db::connected_clusters cc; db::connected_clusters::connections_type x; db::connected_clusters::connections_type::const_iterator ix; x = cc.connections_for_cluster (1); EXPECT_EQ (x.size (), size_t (0)); x = cc.connections_for_cluster (2); EXPECT_EQ (x.size (), size_t (0)); // after this: // [#1] -> i1:#1 // -> i2:#2 cc.add_connection (1, db::ClusterInstance (1, db::InstElement (i1))); cc.add_connection (1, db::ClusterInstance (2, db::InstElement (i2))); x = cc.connections_for_cluster (1); EXPECT_EQ (x.size (), size_t (2)); x = cc.connections_for_cluster (2); EXPECT_EQ (x.size (), size_t (0)); // after this: // [#1] -> i1:#1 // -> i2:#2 // [#2] -> i2:#1 cc.add_connection (2, db::ClusterInstance (1, db::InstElement (i2))); x = cc.connections_for_cluster (2); EXPECT_EQ (x.size (), size_t (1)); cc.join_cluster_with (1, 2); x = cc.connections_for_cluster (1); EXPECT_EQ (x.size (), size_t (3)); ix = x.begin (); EXPECT_EQ (ix->id (), size_t (1)); EXPECT_EQ (*ix == db::ClusterInstance (ix->id (), i1.cell_index (), i1.complex_trans (), i1.prop_id ()), true); ++ix; EXPECT_EQ (ix->id (), size_t (2)); EXPECT_EQ (*ix == db::ClusterInstance (ix->id (), i2.cell_index (), i2.complex_trans (), i2.prop_id ()), true); ++ix; EXPECT_EQ (ix->id (), size_t (1)); EXPECT_EQ (*ix == db::ClusterInstance (ix->id (), i2.cell_index (), i2.complex_trans (), i2.prop_id ()), true); x = cc.connections_for_cluster (2); EXPECT_EQ (x.size (), size_t (0)); // after this: // [#1] -> i1:#1 // -> i2:#2 // [#2] -> i2:#1 // -> i1:#3 cc.add_connection (2, db::ClusterInstance (3, db::InstElement (i1))); EXPECT_EQ (cc.find_cluster_with_connection (db::ClusterInstance (3, db::InstElement (i1))), size_t (2)); EXPECT_EQ (cc.find_cluster_with_connection (db::ClusterInstance (2, db::InstElement (i1))), size_t (0)); EXPECT_EQ (cc.find_cluster_with_connection (db::ClusterInstance (2, db::InstElement (i2))), size_t (1)); // after this: // [#1] -> i1:#1 // -> i2:#2 // -> i2:#1 // -> i1:#3 cc.join_cluster_with (1, 2); EXPECT_EQ (cc.find_cluster_with_connection (db::ClusterInstance (3, db::InstElement (i1))), size_t (1)); EXPECT_EQ (cc.find_cluster_with_connection (db::ClusterInstance (1, db::InstElement (i1))), size_t (1)); EXPECT_EQ (cc.find_cluster_with_connection (db::ClusterInstance (2, db::InstElement (i1))), size_t (0)); EXPECT_EQ (cc.find_cluster_with_connection (db::ClusterInstance (2, db::InstElement (i2))), size_t (1)); x = cc.connections_for_cluster (1); EXPECT_EQ (x.size (), size_t (4)); x = cc.connections_for_cluster (2); EXPECT_EQ (x.size (), size_t (0)); } static db::PolygonRef make_box (db::Layout &ly, const db::Box &box) { return db::PolygonRef (db::Polygon (box), ly.shape_repository ()); } TEST(40_HierClustersBasic) { db::hier_clusters hc; db::Layout ly; unsigned int l1 = ly.insert_layer (db::LayerProperties (1, 0)); db::Cell &top = ly.cell (ly.add_cell ("TOP")); top.shapes (l1).insert (make_box (ly, db::Box (0, 0, 1000, 1000))); db::Cell &c1 = ly.cell (ly.add_cell ("C1")); c1.shapes (l1).insert (make_box (ly, db::Box (0, 0, 2000, 500))); top.insert (db::CellInstArray (db::CellInst (c1.cell_index ()), db::Trans ())); db::Cell &c2 = ly.cell (ly.add_cell ("C2")); c2.shapes (l1).insert (make_box (ly, db::Box (0, 0, 500, 2000))); c2.insert (db::CellInstArray (db::CellInst (c1.cell_index ()), db::Trans ())); top.insert (db::CellInstArray (db::CellInst (c2.cell_index ()), db::Trans ())); db::Connectivity conn; conn.connect (l1, l1); hc.build (ly, top, db::ShapeIterator::Polygons, conn); int n, nc; const db::connected_clusters *cluster; // 1 cluster in TOP with 2 connections n = 0; cluster = &hc.clusters_per_cell (top.cell_index ()); for (db::connected_clusters::const_iterator i = cluster->begin (); i != cluster->end (); ++i) { ++n; } EXPECT_EQ (n, 1); EXPECT_EQ (cluster->bbox ().to_string (), "(0,0;1000,1000)") nc = 0; for (db::connected_clusters::connections_iterator i = cluster->begin_connections (); i != cluster->end_connections (); ++i) { nc += int (i->second.size ()); } EXPECT_EQ (nc, 2); // 1 cluster in C1 without connection n = 0; cluster = &hc.clusters_per_cell (c1.cell_index ()); for (db::connected_clusters::const_iterator i = cluster->begin (); i != cluster->end (); ++i) { ++n; } EXPECT_EQ (n, 1); EXPECT_EQ (cluster->bbox ().to_string (), "(0,0;2000,500)") nc = 0; for (db::connected_clusters::connections_iterator i = cluster->begin_connections (); i != cluster->end_connections (); ++i) { nc += int (i->second.size ()); } EXPECT_EQ (nc, 0); // 1 cluster in C2 with one connection n = 0; cluster = &hc.clusters_per_cell (c2.cell_index ()); for (db::connected_clusters::const_iterator i = cluster->begin (); i != cluster->end (); ++i) { ++n; } EXPECT_EQ (n, 1); EXPECT_EQ (cluster->bbox ().to_string (), "(0,0;500,2000)") nc = 0; for (db::connected_clusters::connections_iterator i = cluster->begin_connections (); i != cluster->end_connections (); ++i) { nc += int (i->second.size ()); } EXPECT_EQ (nc, 1); } static std::string path2string (const db::Layout &ly, db::cell_index_type ci, const std::vector &path) { std::string res = ly.cell_name (ci); for (std::vector::const_iterator p = path.begin (); p != path.end (); ++p) { res += "/"; res += ly.cell_name (p->inst_cell_index ()); } return res; } static std::string rcsiter2string (const db::Layout &ly, db::cell_index_type ci, db::recursive_cluster_shape_iterator si, db::cell_index_type ci2skip = std::numeric_limits::max ()) { std::string res; while (! si.at_end ()) { if (si.cell_index () == ci2skip) { si.skip_cell (); continue; } db::Polygon poly = si->obj (); poly.transform (si->trans ()); poly.transform (si.trans ()); if (! res.empty ()) { res += ";"; } res += path2string (ly, ci, si.inst_path ()); res += ":"; res += poly.to_string (); ++si; } return res; } static std::string rciter2string (const db::Layout &ly, db::cell_index_type ci, db::recursive_cluster_iterator si) { std::string res; while (! si.at_end ()) { if (! res.empty ()) { res += ";"; } res += path2string (ly, ci, si.inst_path ()); ++si; } return res; } TEST(41_HierClustersRecursiveClusterShapeIterator) { db::hier_clusters hc; db::Layout ly; unsigned int l1 = ly.insert_layer (db::LayerProperties (1, 0)); db::Cell &top = ly.cell (ly.add_cell ("TOP")); top.shapes (l1).insert (make_box (ly, db::Box (0, 0, 1000, 1000))); db::Cell &c1 = ly.cell (ly.add_cell ("C1")); c1.shapes (l1).insert (make_box (ly, db::Box (0, 0, 2000, 500))); top.insert (db::CellInstArray (db::CellInst (c1.cell_index ()), db::Trans (db::Vector (0, 10)))); db::Cell &c2 = ly.cell (ly.add_cell ("C2")); c2.shapes (l1).insert (make_box (ly, db::Box (0, 0, 500, 2000))); c2.insert (db::CellInstArray (db::CellInst (c1.cell_index ()), db::Trans (db::Vector (0, 20)))); top.insert (db::CellInstArray (db::CellInst (c2.cell_index ()), db::Trans (db::Vector (0, 30)))); db::Connectivity conn; conn.connect (l1, l1); hc.build (ly, top, db::ShapeIterator::Polygons, conn); std::string res; int n = 0; db::connected_clusters *cluster = &hc.clusters_per_cell (top.cell_index ()); for (db::connected_clusters::const_iterator i = cluster->begin (); i != cluster->end (); ++i) { res = rcsiter2string (ly, top.cell_index (), db::recursive_cluster_shape_iterator (hc, l1, top.cell_index (), i->id ())); ++n; } EXPECT_EQ (n, 1); EXPECT_EQ (res, "TOP:(0,0;0,1000;1000,1000;1000,0);TOP/C1:(0,10;0,510;2000,510;2000,10);TOP/C2:(0,30;0,2030;500,2030;500,30);TOP/C2/C1:(0,50;0,550;2000,550;2000,50)"); res.clear (); n = 0; cluster = &hc.clusters_per_cell (top.cell_index ()); for (db::connected_clusters::const_iterator i = cluster->begin (); i != cluster->end (); ++i) { res = rcsiter2string (ly, top.cell_index (), db::recursive_cluster_shape_iterator (hc, l1, top.cell_index (), i->id ()), c1.cell_index ()); ++n; } EXPECT_EQ (n, 1); EXPECT_EQ (res, "TOP:(0,0;0,1000;1000,1000;1000,0);TOP/C2:(0,30;0,2030;500,2030;500,30)"); } TEST(41_HierClustersRecursiveClusterIterator) { db::hier_clusters hc; db::Layout ly; unsigned int l1 = ly.insert_layer (db::LayerProperties (1, 0)); db::Cell &top = ly.cell (ly.add_cell ("TOP")); top.shapes (l1).insert (make_box (ly, db::Box (0, 0, 1000, 1000))); db::Cell &c1 = ly.cell (ly.add_cell ("C1")); c1.shapes (l1).insert (make_box (ly, db::Box (0, 0, 2000, 500))); top.insert (db::CellInstArray (db::CellInst (c1.cell_index ()), db::Trans (db::Vector (0, 10)))); db::Cell &c2 = ly.cell (ly.add_cell ("C2")); c2.shapes (l1).insert (make_box (ly, db::Box (0, 0, 500, 2000))); c2.insert (db::CellInstArray (db::CellInst (c1.cell_index ()), db::Trans (db::Vector (0, 20)))); top.insert (db::CellInstArray (db::CellInst (c2.cell_index ()), db::Trans (db::Vector (0, 30)))); db::Connectivity conn; conn.connect (l1, l1); hc.build (ly, top, db::ShapeIterator::Polygons, conn); std::string res; int n = 0; db::connected_clusters *cluster = &hc.clusters_per_cell (top.cell_index ()); for (db::connected_clusters::const_iterator i = cluster->begin (); i != cluster->end (); ++i) { res = rciter2string (ly, top.cell_index (), db::recursive_cluster_iterator (hc, top.cell_index (), i->id ())); ++n; } EXPECT_EQ (n, 1); EXPECT_EQ (res, "TOP;TOP/C1;TOP/C2;TOP/C2/C1"); } static void normalize_layer (db::Layout &layout, std::vector &strings, unsigned int &layer) { unsigned int new_layer = layout.insert_layer (); for (db::Layout::iterator c = layout.begin (); c != layout.end (); ++c) { const db::Shapes &s = c->shapes (layer); for (db::Shapes::shape_iterator i = s.begin (db::ShapeIterator::Texts | db::ShapeIterator::Polygons | db::ShapeIterator::Paths | db::ShapeIterator::Boxes); !i.at_end (); ++i) { if (! i->is_text ()) { db::Polygon poly; i->polygon (poly); c->shapes (new_layer).insert (db::PolygonRef (poly, layout.shape_repository ())); } else { db::Polygon poly (i->bbox ()); unsigned int attr_id = (unsigned int) strings.size () + 1; strings.push_back (i->text_string ()); c->shapes (new_layer).insert (db::PolygonRefWithProperties (db::PolygonRef (poly, layout.shape_repository ()), attr_id)); } } } layer = new_layer; } static void copy_cluster_shapes (const std::string *&attrs, db::Shapes &out, db::cell_index_type ci, const db::hier_clusters &hc, db::local_cluster::id_type cluster_id, const db::ICplxTrans &trans, const db::Connectivity &conn) { // use property #1 to code the cell name // use property #2 to code the attrs string for the first shape db::PropertiesRepository &pr = out.layout ()->properties_repository (); db::properties_id_type cell_pid = 0, cell_and_attr_pid = 0; db::property_names_id_type pn_id = pr.prop_name_id (tl::Variant (1)); db::PropertiesRepository::properties_set pm; pm.insert (std::make_pair (pn_id, tl::Variant (out.layout ()->cell_name (ci)))); cell_pid = pr.properties_id (pm); if (attrs && ! attrs->empty ()) { db::property_names_id_type pn2_id = pr.prop_name_id (tl::Variant (2)); pm.insert (std::make_pair (pn2_id, tl::Variant (*attrs))); cell_and_attr_pid = pr.properties_id (pm); } const db::connected_clusters &clusters = hc.clusters_per_cell (ci); const db::local_cluster &lc = clusters.cluster_by_id (cluster_id); // copy the shapes from this cell for (db::Connectivity::layer_iterator l = conn.begin_layers (); l != conn.end_layers (); ++l) { for (db::local_cluster::shape_iterator s = lc.begin (*l); ! s.at_end (); ++s) { db::Polygon poly = s->obj ().transformed (trans * db::ICplxTrans (s->trans ())); out.insert (db::PolygonWithProperties (poly, cell_and_attr_pid > 0 ? cell_and_attr_pid : cell_pid)); cell_and_attr_pid = 0; attrs = 0; // used } } out.layout ()->cell_name (ci); // copy the shapes from the child cells too typedef db::connected_clusters::connections_type connections_type; const connections_type &connections = clusters.connections_for_cluster (cluster_id); for (connections_type::const_iterator i = connections.begin (); i != connections.end (); ++i) { db::ICplxTrans t = trans * i->inst_trans (); db::cell_index_type cci = i->inst_cell_index (); copy_cluster_shapes (attrs, out, cci, hc, i->id (), t, conn); } } static void run_hc_test (tl::TestBase *_this, const std::string &file, const std::string &au_file) { db::Layout ly; unsigned int l1 = 0, l2 = 0, l3 = 0, l4 = 0, l5 = 0, l6 = 0; { db::LayerProperties p; db::LayerMap lmap; p.layer = 1; p.datatype = 0; lmap.map (db::LDPair (p.layer, p.datatype), l1 = ly.insert_layer ()); ly.set_properties (l1, p); p.layer = 2; p.datatype = 0; lmap.map (db::LDPair (p.layer, p.datatype), l2 = ly.insert_layer ()); ly.set_properties (l2, p); p.layer = 3; p.datatype = 0; lmap.map (db::LDPair (p.layer, p.datatype), l3 = ly.insert_layer ()); ly.set_properties (l3, p); p.layer = 4; p.datatype = 0; lmap.map (db::LDPair (p.layer, p.datatype), l4 = ly.insert_layer ()); ly.set_properties (l4, p); p.layer = 5; p.datatype = 0; lmap.map (db::LDPair (p.layer, p.datatype), l5 = ly.insert_layer ()); ly.set_properties (l5, p); p.layer = 6; p.datatype = 0; lmap.map (db::LDPair (p.layer, p.datatype), l6 = ly.insert_layer ()); ly.set_properties (l6, p); db::LoadLayoutOptions options; options.get_options ().layer_map = lmap; options.get_options ().create_other_layers = false; std::string fn (tl::testsrc ()); fn += "/testdata/algo/"; fn += file; tl::InputStream stream (fn); db::Reader reader (stream); reader.read (ly, options); } std::vector strings; normalize_layer (ly, strings, l1); normalize_layer (ly, strings, l2); normalize_layer (ly, strings, l3); normalize_layer (ly, strings, l4); normalize_layer (ly, strings, l5); normalize_layer (ly, strings, l6); // connect 1 to 1, 1 to 2 and 1 to 3, but *not* 2 to 3 db::Connectivity conn; conn.connect (l1, l1); conn.connect (l2, l2); conn.connect (l3, l3); conn.connect (l1, l2); conn.connect (l1, l3); conn.connect (l1, l4); conn.connect (l1, l5); conn.connect (l1, l6); conn.connect_global (l4, "BULK"); conn.connect_global (l5, "BULK2"); conn.connect_global (l6, "BULK"); conn.connect_global (l6, "BULK2"); db::hier_clusters hc; hc.build (ly, ly.cell (*ly.begin_top_down ()), db::ShapeIterator::Polygons, conn); std::vector > net_layers; for (db::Layout::top_down_const_iterator td = ly.begin_top_down (); td != ly.end_top_down (); ++td) { const db::connected_clusters &clusters = hc.clusters_per_cell (*td); for (db::connected_clusters::all_iterator c = clusters.begin_all (); ! c.at_end (); ++c) { if (! clusters.is_root (*c)) { continue; } // collect strings std::string attrs; for (db::recursive_cluster_iterator rc (hc, *td, *c); ! rc.at_end (); ++rc) { const db::local_cluster &rcc = hc.clusters_per_cell (rc.cell_index ()).cluster_by_id (rc.cluster_id ()); for (db::local_cluster::attr_iterator a = rcc.begin_attr (); a != rcc.end_attr (); ++a) { if (! attrs.empty ()) { attrs += "/"; } attrs += std::string (ly.cell_name (rc.cell_index ())) + ":" + strings[*a - 1]; } } net_layers.push_back (std::make_pair (0, ly.insert_layer ())); unsigned int lout = net_layers.back ().second; db::Shapes &out = ly.cell (*td).shapes (lout); const std::string *attrs_str = &attrs; copy_cluster_shapes (attrs_str, out, *td, hc, *c, db::ICplxTrans (), conn); db::Polygon::area_type area = 0; for (db::Shapes::shape_iterator s = out.begin (db::ShapeIterator::All); ! s.at_end (); ++s) { area += s->area (); } net_layers.back ().first = area; } } // sort layers by area so we have a consistent numbering std::sort (net_layers.begin (), net_layers.end ()); std::reverse (net_layers.begin (), net_layers.end ()); int ln = 1000; for (std::vector >::const_iterator l = net_layers.begin (); l != net_layers.end (); ++l) { ly.set_properties (l->second, db::LayerProperties (ln, 0)); ++ln; } CHECKPOINT(); db::compare_layouts (_this, ly, tl::testsrc () + "/testdata/algo/" + au_file); } static void run_hc_test_with_backannotation (tl::TestBase *_this, const std::string &file, const std::string &au_file) { db::Layout ly; unsigned int l1 = 0, l2 = 0, l3 = 0, l4 = 0, l5 = 0, l6 = 0; { db::LayerProperties p; db::LayerMap lmap; p.layer = 1; p.datatype = 0; lmap.map (db::LDPair (p.layer, p.datatype), l1 = ly.insert_layer ()); ly.set_properties (l1, p); p.layer = 2; p.datatype = 0; lmap.map (db::LDPair (p.layer, p.datatype), l2 = ly.insert_layer ()); ly.set_properties (l2, p); p.layer = 3; p.datatype = 0; lmap.map (db::LDPair (p.layer, p.datatype), l3 = ly.insert_layer ()); ly.set_properties (l3, p); p.layer = 4; p.datatype = 0; lmap.map (db::LDPair (p.layer, p.datatype), l4 = ly.insert_layer ()); ly.set_properties (l4, p); p.layer = 5; p.datatype = 0; lmap.map (db::LDPair (p.layer, p.datatype), l5 = ly.insert_layer ()); ly.set_properties (l5, p); p.layer = 6; p.datatype = 0; lmap.map (db::LDPair (p.layer, p.datatype), l6 = ly.insert_layer ()); ly.set_properties (l6, p); db::LoadLayoutOptions options; options.get_options ().layer_map = lmap; options.get_options ().create_other_layers = false; std::string fn (tl::testsrc ()); fn += "/testdata/algo/"; fn += file; tl::InputStream stream (fn); db::Reader reader (stream); reader.read (ly, options); } std::vector strings; normalize_layer (ly, strings, l1); normalize_layer (ly, strings, l2); normalize_layer (ly, strings, l3); normalize_layer (ly, strings, l4); normalize_layer (ly, strings, l5); normalize_layer (ly, strings, l6); // connect 1 to 1, 1 to 2 and 1 to 3, but *not* 2 to 3 db::Connectivity conn; conn.connect (l1, l1); conn.connect (l2, l2); conn.connect (l3, l3); conn.connect (l1, l2); conn.connect (l1, l3); conn.connect (l1, l4); conn.connect (l1, l5); conn.connect (l1, l6); conn.connect_global (l4, "BULK"); conn.connect_global (l5, "BULK2"); conn.connect_global (l6, "BULK"); conn.connect_global (l6, "BULK2"); db::hier_clusters hc; hc.build (ly, ly.cell (*ly.begin_top_down ()), db::ShapeIterator::Polygons, conn); std::map lm; lm[l1] = ly.insert_layer (db::LayerProperties (101, 0)); lm[l2] = ly.insert_layer (db::LayerProperties (102, 0)); lm[l3] = ly.insert_layer (db::LayerProperties (103, 0)); lm[l4] = ly.insert_layer (db::LayerProperties (104, 0)); lm[l5] = ly.insert_layer (db::LayerProperties (105, 0)); lm[l6] = ly.insert_layer (db::LayerProperties (106, 0)); hc.return_to_hierarchy (ly, lm); CHECKPOINT(); db::compare_layouts (_this, ly, tl::testsrc () + "/testdata/algo/" + au_file); } TEST(101_HierClusters) { run_hc_test (_this, "hc_test_l1.gds", "hc_test_au1.gds"); run_hc_test_with_backannotation (_this, "hc_test_l1.gds", "hc_test_au1b.gds"); } TEST(102_HierClusters) { run_hc_test (_this, "hc_test_l2.gds", "hc_test_au2.gds"); run_hc_test_with_backannotation (_this, "hc_test_l2.gds", "hc_test_au2b.gds"); } TEST(103_HierClusters) { run_hc_test (_this, "hc_test_l3.gds", "hc_test_au3.gds"); run_hc_test_with_backannotation (_this, "hc_test_l3.gds", "hc_test_au3b.gds"); } TEST(104_HierClusters) { run_hc_test (_this, "hc_test_l4.gds", "hc_test_au4.gds"); run_hc_test_with_backannotation (_this, "hc_test_l4.gds", "hc_test_au4b.gds"); } TEST(105_HierClusters) { run_hc_test (_this, "hc_test_l5.gds", "hc_test_au5.gds"); run_hc_test_with_backannotation (_this, "hc_test_l5.gds", "hc_test_au5b.gds"); } TEST(106_HierClusters) { run_hc_test (_this, "hc_test_l6.gds", "hc_test_au6.gds"); run_hc_test_with_backannotation (_this, "hc_test_l6.gds", "hc_test_au6b.gds"); } TEST(107_HierClusters) { run_hc_test (_this, "hc_test_l7.gds", "hc_test_au7.gds"); run_hc_test_with_backannotation (_this, "hc_test_l7.gds", "hc_test_au7b.gds"); } TEST(108_HierClusters) { run_hc_test (_this, "hc_test_l8.gds", "hc_test_au8.gds"); run_hc_test_with_backannotation (_this, "hc_test_l8.gds", "hc_test_au8b.gds"); } TEST(109_HierClusters) { run_hc_test (_this, "hc_test_l9.gds", "hc_test_au9.gds"); run_hc_test_with_backannotation (_this, "hc_test_l9.gds", "hc_test_au9b.gds"); } TEST(110_HierClusters) { run_hc_test (_this, "hc_test_l10.gds", "hc_test_au10.gds"); run_hc_test_with_backannotation (_this, "hc_test_l10.gds", "hc_test_au10b.gds"); } TEST(111_HierClusters) { run_hc_test (_this, "hc_test_l11.gds", "hc_test_au11.gds"); run_hc_test_with_backannotation (_this, "hc_test_l11.gds", "hc_test_au11b.gds"); } TEST(112_HierClusters) { run_hc_test (_this, "hc_test_l12.gds", "hc_test_au12.gds"); run_hc_test_with_backannotation (_this, "hc_test_l12.gds", "hc_test_au12b.gds"); } TEST(113_HierClusters) { run_hc_test (_this, "hc_test_l13.gds", "hc_test_au13.gds"); run_hc_test_with_backannotation (_this, "hc_test_l13.gds", "hc_test_au13b.gds"); } TEST(114_HierClusters) { run_hc_test (_this, "hc_test_l14.gds", "hc_test_au14.gds"); run_hc_test_with_backannotation (_this, "hc_test_l14.gds", "hc_test_au14b.gds"); } TEST(115_HierClusters) { run_hc_test (_this, "hc_test_l15.gds", "hc_test_au15.gds"); run_hc_test_with_backannotation (_this, "hc_test_l15.gds", "hc_test_au15b.gds"); } TEST(116_HierClusters) { run_hc_test (_this, "hc_test_l16.gds", "hc_test_au16.gds"); run_hc_test_with_backannotation (_this, "hc_test_l16.gds", "hc_test_au16b.gds"); } TEST(117_HierClusters) { run_hc_test (_this, "hc_test_l17.gds", "hc_test_au17.gds"); run_hc_test_with_backannotation (_this, "hc_test_l17.gds", "hc_test_au17b.gds"); }