klayout/src/db/unit_tests/dbNetlistDeviceExtractorTes...

1152 lines
35 KiB
C++

/*
KLayout Layout Viewer
Copyright (C) 2006-2025 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 "dbNetlistDeviceExtractor.h"
#include "dbLoadLayoutOptions.h"
#include "dbReader.h"
#include "dbRecursiveShapeIterator.h"
#include "dbNetlistDeviceExtractorClasses.h"
#include "dbNetlistDeviceClasses.h"
#include "tlUnitTest.h"
#include "tlFileUtils.h"
#include "tlStream.h"
TEST(1_NetlistDeviceExtractorErrorBasic)
{
db::LogEntryData error;
EXPECT_EQ (error.message (), "");
error.set_message ("x");
EXPECT_EQ (error.message (), "x");
error.set_category_name ("cat");
EXPECT_EQ (error.category_name (), "cat");
error.set_category_description ("cdesc");
EXPECT_EQ (error.category_description (), "cdesc");
error.set_cell_name ("cell");
EXPECT_EQ (error.cell_name (), "cell");
error.set_geometry (db::DPolygon (db::DBox (0, 1, 2, 3)));
EXPECT_EQ (error.geometry ().to_string (), "(0,1;0,3;2,3;2,1)");
error = db::LogEntryData (db::Error, "cell2", "msg2");
EXPECT_EQ (error.severity () == db::Error, true);
EXPECT_EQ (error.cell_name (), "cell2");
EXPECT_EQ (error.message (), "msg2");
EXPECT_EQ (error.category_name (), "");
EXPECT_EQ (error.category_description (), "");
EXPECT_EQ (error.geometry ().to_string (), "()");
error.set_severity (db::Warning);
EXPECT_EQ (error.severity () == db::Warning, true);
}
namespace {
class DummyDeviceExtractor
: public db::NetlistDeviceExtractor
{
public:
DummyDeviceExtractor ()
: db::NetlistDeviceExtractor (std::string ("DUMMY"))
{
error ("msg1");
error ("msg2", db::DPolygon (db::DBox (0, 1, 2, 3)));
error ("cat1", "desc1", "msg1");
error ("cat1", "desc1", "msg3", db::DPolygon (db::DBox (10, 11, 12, 13)));
}
};
}
static std::string error2string (const db::LogEntryData &e)
{
return e.cell_name() + ":" + e.category_name () + ":" + e.category_description () + ":" +
e.geometry ().to_string () + ":" + e.message ();
}
TEST(2_NetlistDeviceExtractorErrors)
{
DummyDeviceExtractor dummy_ex;
EXPECT_EQ (dummy_ex.begin_log_entries () != dummy_ex.end_log_entries (), true);
std::vector<db::LogEntryData> errors (dummy_ex.begin_log_entries (), dummy_ex.end_log_entries ());
EXPECT_EQ (int (errors.size ()), 4);
EXPECT_EQ (error2string (errors [0]), ":device-extract::():msg1");
EXPECT_EQ (error2string (errors [1]), ":device-extract::(0,1;0,3;2,3;2,1):msg2");
EXPECT_EQ (error2string (errors [2]), ":cat1:desc1:():msg1");
EXPECT_EQ (error2string (errors [3]), ":cat1:desc1:(10,11;10,13;12,13;12,11):msg3");
}
namespace {
class MyDeviceClass
: public db::DeviceClassMOS3Transistor
{
public:
MyDeviceClass () : db::DeviceClassMOS3Transistor () { }
};
}
TEST(3_ClassFactoryTest)
{
db::Layout ly;
{
db::LoadLayoutOptions options;
std::string fn (tl::testdata ());
fn = tl::combine_path (fn, "algo");
fn = tl::combine_path (fn, "mos3_1.gds");
tl::InputStream stream (fn);
db::Reader reader (stream);
reader.read (ly, options);
}
db::Cell &tc = ly.cell (*ly.begin_top_down ());
db::DeepShapeStore dss;
dss.set_text_enlargement (1);
dss.set_text_property_name (tl::Variant ("LABEL"));
// original layers
db::Region l1 (db::RecursiveShapeIterator (ly, tc, ly.get_layer (db::LayerProperties(1, 0))), dss);
db::Region l2 (db::RecursiveShapeIterator (ly, tc, ly.get_layer (db::LayerProperties(2, 0))), dss);
db::Region o1 (dss);
db::Region o2 (dss);
db::Region o3 (dss);
// perform the extraction
db::Netlist nl;
db::hier_clusters<db::NetShape> cl;
db::NetlistDeviceExtractorMOS3Transistor ex ("MOS3", false, new db::device_class_factory<MyDeviceClass> ());
db::NetlistDeviceExtractor::input_layers dl;
dl["SD"] = &l1;
dl["G"] = &l2;
dl["tS"] = &o1;
dl["tD"] = &o2;
dl["tG"] = &o3;
ex.extract (dss, 0, dl, nl, cl);
// the generated objects are of MyDeviceClassType
EXPECT_EQ (dynamic_cast<const MyDeviceClass *> (ex.device_class ()) != 0, true);
EXPECT_EQ (dynamic_cast<const MyDeviceClass *> (nl.device_class_by_name ("MOS3")) != 0, true);
}
TEST(10_MOS3DeviceExtractorTest)
{
db::Layout ly;
{
db::LoadLayoutOptions options;
std::string fn (tl::testdata ());
fn = tl::combine_path (fn, "algo");
fn = tl::combine_path (fn, "mos3_1.gds");
tl::InputStream stream (fn);
db::Reader reader (stream);
reader.read (ly, options);
}
db::Cell &tc = ly.cell (*ly.begin_top_down ());
db::DeepShapeStore dss;
dss.set_text_enlargement (1);
dss.set_text_property_name (tl::Variant ("LABEL"));
// original layers
db::Region l1 (db::RecursiveShapeIterator (ly, tc, ly.get_layer (db::LayerProperties(1, 0))), dss);
db::Region l2 (db::RecursiveShapeIterator (ly, tc, ly.get_layer (db::LayerProperties(2, 0))), dss);
db::Region o1 (dss);
db::Region o2 (dss);
db::Region o3 (dss);
// perform the extraction
db::Netlist nl;
db::hier_clusters<db::NetShape> cl;
db::NetlistDeviceExtractorMOS3Transistor ex ("MOS3");
db::NetlistDeviceExtractor::input_layers dl;
dl["SD"] = &l1;
dl["G"] = &l2;
dl["tS"] = &o1;
dl["tD"] = &o2;
dl["tG"] = &o3;
ex.extract (dss, 0, dl, nl, cl);
EXPECT_EQ (nl.to_string (),
"circuit TOP ();\n"
" device MOS3 $1 (S=(null),G=(null),D=(null)) (L=0.3,W=0.8,AS=0.4,AD=0.16,PS=2.6,PD=2);\n"
"end;\n"
);
EXPECT_EQ (o1.to_string (), "(-600,-200;-600,600;-100,600;-100,-200){TERMINAL_ID=>0}");
EXPECT_EQ (o2.to_string (), "(200,-200;200,600;400,600;400,-200){TERMINAL_ID=>2}");
EXPECT_EQ (o3.to_string (), "(-100,-200;-100,600;200,600;200,-200){TERMINAL_ID=>1}");
}
TEST(11_MOS3DeviceExtractorTestNotRectangularGate)
{
db::Layout ly;
{
db::LoadLayoutOptions options;
std::string fn (tl::testdata ());
fn = tl::combine_path (fn, "algo");
fn = tl::combine_path (fn, "mos3_2.gds");
tl::InputStream stream (fn);
db::Reader reader (stream);
reader.read (ly, options);
}
db::Cell &tc = ly.cell (*ly.begin_top_down ());
db::DeepShapeStore dss;
dss.set_text_enlargement (1);
dss.set_text_property_name (tl::Variant ("LABEL"));
// original layers
db::Region l1 (db::RecursiveShapeIterator (ly, tc, ly.get_layer (db::LayerProperties(1, 0))), dss);
db::Region l2 (db::RecursiveShapeIterator (ly, tc, ly.get_layer (db::LayerProperties(2, 0))), dss);
db::Region o1 (dss);
db::Region o2 (dss);
db::Region o3 (dss);
// perform the extraction
db::Netlist nl;
db::hier_clusters<db::NetShape> cl;
db::NetlistDeviceExtractorMOS3Transistor ex ("MOS3");
db::NetlistDeviceExtractor::input_layers dl;
dl["SD"] = &l1;
dl["G"] = &l2;
dl["tS"] = &o1;
dl["tD"] = &o2;
dl["tG"] = &o3;
ex.extract (dss, 0, dl, nl, cl);
EXPECT_EQ (nl.to_string (),
"circuit TOP ();\n"
" device MOS3 $1 (S=(null),G=(null),D=(null)) (L=0.3,W=1,AS=0.32,AD=0.18,PS=2.6,PD=2.4);\n"
"end;\n"
);
EXPECT_EQ (o1.to_string (), "(-600,-200;-600,600;-300,600;-300,200;-100,200;-100,-200){TERMINAL_ID=>0}");
EXPECT_EQ (o2.to_string (), "(200,-200;200,500;0,500;0,600;400,600;400,-200){TERMINAL_ID=>2}");
EXPECT_EQ (o3.to_string (), "(-100,-200;-100,200;-300,200;-300,600;0,600;0,500;200,500;200,-200){TERMINAL_ID=>1}");
}
TEST(12_MOS3DeviceExtractorTestCircular)
{
db::Layout ly;
{
db::LoadLayoutOptions options;
std::string fn (tl::testdata ());
fn = tl::combine_path (fn, "algo");
fn = tl::combine_path (fn, "mos3_3.gds");
tl::InputStream stream (fn);
db::Reader reader (stream);
reader.read (ly, options);
}
db::Cell &tc = ly.cell (*ly.begin_top_down ());
db::DeepShapeStore dss;
dss.set_text_enlargement (1);
dss.set_text_property_name (tl::Variant ("LABEL"));
// original layers
db::Region l1 (db::RecursiveShapeIterator (ly, tc, ly.get_layer (db::LayerProperties(1, 0))), dss);
db::Region l2 (db::RecursiveShapeIterator (ly, tc, ly.get_layer (db::LayerProperties(2, 0))), dss);
db::Region o1 (dss);
db::Region o2 (dss);
db::Region o3 (dss);
// perform the extraction
db::Netlist nl;
db::hier_clusters<db::NetShape> cl;
db::NetlistDeviceExtractorMOS3Transistor ex ("MOS3");
db::NetlistDeviceExtractor::input_layers dl;
dl["SD"] = &l1;
dl["G"] = &l2;
dl["tS"] = &o1;
dl["tD"] = &o2;
dl["tG"] = &o3;
ex.extract (dss, 0, dl, nl, cl);
EXPECT_EQ (nl.to_string (),
"circuit TOP ();\n"
" device MOS3 $1 (S=(null),G=(null),D=(null)) (L=0.3,W=3.8,AS=0.4,AD=4.18,PS=2.6,PD=14.6);\n"
"end;\n"
);
EXPECT_EQ (o1.to_string (), "(200,-200;200,600;700,600;700,-200){TERMINAL_ID=>0}");
EXPECT_EQ (o2.to_string (), "(-600,-1200;-600,1400;1600,1400;1600,-1200/-100,-500;1000,-500;1000,900;-100,900){TERMINAL_ID=>2}");
EXPECT_EQ (o3.to_string (), "(-100,-500;-100,900;1000,900;1000,-500/200,-200;700,-200;700,600;200,600){TERMINAL_ID=>1}");
}
TEST(20_MOS4DeviceExtractorTest)
{
db::Layout ly;
{
db::LoadLayoutOptions options;
std::string fn (tl::testdata ());
fn = tl::combine_path (fn, "algo");
fn = tl::combine_path (fn, "mos4_1.gds");
tl::InputStream stream (fn);
db::Reader reader (stream);
reader.read (ly, options);
}
db::Cell &tc = ly.cell (*ly.begin_top_down ());
db::DeepShapeStore dss;
dss.set_text_enlargement (1);
dss.set_text_property_name (tl::Variant ("LABEL"));
// original layers
db::Region l1 (db::RecursiveShapeIterator (ly, tc, ly.get_layer (db::LayerProperties(1, 0))), dss);
db::Region l2 (db::RecursiveShapeIterator (ly, tc, ly.get_layer (db::LayerProperties(2, 0))), dss);
db::Region l3 (db::RecursiveShapeIterator (ly, tc, ly.get_layer (db::LayerProperties(3, 0))), dss);
db::Region o1 (dss);
db::Region o2 (dss);
db::Region o3 (dss);
db::Region o4 (dss);
// perform the extraction
db::Netlist nl;
db::hier_clusters<db::NetShape> cl;
db::NetlistDeviceExtractorMOS4Transistor ex ("MOS4");
db::NetlistDeviceExtractor::input_layers dl;
dl["SD"] = &l1;
dl["G"] = &l2;
dl["W"] = &l3;
dl["tS"] = &o1;
dl["tD"] = &o2;
dl["tG"] = &o3;
dl["tB"] = &o4;
ex.extract (dss, 0, dl, nl, cl);
EXPECT_EQ (nl.to_string (),
"circuit TOP ();\n"
" device MOS4 $1 (S=(null),G=(null),D=(null),B=(null)) (L=0.3,W=0.8,AS=0.4,AD=0.16,PS=2.6,PD=2);\n"
"end;\n"
);
EXPECT_EQ (o1.to_string (), "(-600,-200;-600,600;-100,600;-100,-200){TERMINAL_ID=>0}");
EXPECT_EQ (o2.to_string (), "(200,-200;200,600;400,600;400,-200){TERMINAL_ID=>2}");
EXPECT_EQ (o3.to_string (), "(-100,-200;-100,600;200,600;200,-200){TERMINAL_ID=>1}");
EXPECT_EQ (o4.to_string (), "(-100,-200;-100,600;200,600;200,-200){TERMINAL_ID=>3}");
}
TEST(21_MOS4DeviceExtractorTestNotRectangularGate)
{
db::Layout ly;
{
db::LoadLayoutOptions options;
std::string fn (tl::testdata ());
fn = tl::combine_path (fn, "algo");
fn = tl::combine_path (fn, "mos4_2.gds");
tl::InputStream stream (fn);
db::Reader reader (stream);
reader.read (ly, options);
}
db::Cell &tc = ly.cell (*ly.begin_top_down ());
db::DeepShapeStore dss;
dss.set_text_enlargement (1);
dss.set_text_property_name (tl::Variant ("LABEL"));
// original layers
db::Region l1 (db::RecursiveShapeIterator (ly, tc, ly.get_layer (db::LayerProperties(1, 0))), dss);
db::Region l2 (db::RecursiveShapeIterator (ly, tc, ly.get_layer (db::LayerProperties(2, 0))), dss);
db::Region l3 (db::RecursiveShapeIterator (ly, tc, ly.get_layer (db::LayerProperties(3, 0))), dss);
db::Region o1 (dss);
db::Region o2 (dss);
db::Region o3 (dss);
db::Region o4 (dss);
// perform the extraction
db::Netlist nl;
db::hier_clusters<db::NetShape> cl;
db::NetlistDeviceExtractorMOS4Transistor ex ("MOS4");
db::NetlistDeviceExtractor::input_layers dl;
dl["SD"] = &l1;
dl["G"] = &l2;
dl["W"] = &l3;
dl["tS"] = &o1;
dl["tD"] = &o2;
dl["tG"] = &o3;
dl["tB"] = &o4;
ex.extract (dss, 0, dl, nl, cl);
EXPECT_EQ (nl.to_string (),
"circuit TOP ();\n"
" device MOS4 $1 (S=(null),G=(null),D=(null),B=(null)) (L=0.3,W=1,AS=0.32,AD=0.18,PS=2.6,PD=2.4);\n"
"end;\n"
);
EXPECT_EQ (o1.to_string (), "(-600,-200;-600,600;-300,600;-300,200;-100,200;-100,-200){TERMINAL_ID=>0}");
EXPECT_EQ (o2.to_string (), "(200,-200;200,500;0,500;0,600;400,600;400,-200){TERMINAL_ID=>2}");
EXPECT_EQ (o3.to_string (), "(-100,-200;-100,200;-300,200;-300,600;0,600;0,500;200,500;200,-200){TERMINAL_ID=>1}");
EXPECT_EQ (o4.to_string (), "(-100,-200;-100,200;-300,200;-300,600;0,600;0,500;200,500;200,-200){TERMINAL_ID=>3}");
}
TEST(22_MOS4DeviceExtractorTestCircular)
{
db::Layout ly;
{
db::LoadLayoutOptions options;
std::string fn (tl::testdata ());
fn = tl::combine_path (fn, "algo");
fn = tl::combine_path (fn, "mos4_3.gds");
tl::InputStream stream (fn);
db::Reader reader (stream);
reader.read (ly, options);
}
db::Cell &tc = ly.cell (*ly.begin_top_down ());
db::DeepShapeStore dss;
dss.set_text_enlargement (1);
dss.set_text_property_name (tl::Variant ("LABEL"));
// original layers
db::Region l1 (db::RecursiveShapeIterator (ly, tc, ly.get_layer (db::LayerProperties(1, 0))), dss);
db::Region l2 (db::RecursiveShapeIterator (ly, tc, ly.get_layer (db::LayerProperties(2, 0))), dss);
db::Region l3 (db::RecursiveShapeIterator (ly, tc, ly.get_layer (db::LayerProperties(3, 0))), dss);
db::Region o1 (dss);
db::Region o2 (dss);
db::Region o3 (dss);
db::Region o4 (dss);
// perform the extraction
db::Netlist nl;
db::hier_clusters<db::NetShape> cl;
db::NetlistDeviceExtractorMOS4Transistor ex ("MOS4");
db::NetlistDeviceExtractor::input_layers dl;
dl["SD"] = &l1;
dl["G"] = &l2;
dl["W"] = &l3;
dl["tS"] = &o1;
dl["tD"] = &o2;
dl["tG"] = &o3;
dl["tB"] = &o4;
ex.extract (dss, 0, dl, nl, cl);
EXPECT_EQ (nl.to_string (),
"circuit TOP ();\n"
" device MOS4 $1 (S=(null),G=(null),D=(null),B=(null)) (L=0.3,W=3.8,AS=0.4,AD=4.18,PS=2.6,PD=14.6);\n"
"end;\n"
);
EXPECT_EQ (o1.to_string (), "(200,-200;200,600;700,600;700,-200){TERMINAL_ID=>0}");
EXPECT_EQ (o2.to_string (), "(-600,-1200;-600,1400;1600,1400;1600,-1200/-100,-500;1000,-500;1000,900;-100,900){TERMINAL_ID=>2}");
EXPECT_EQ (o3.to_string (), "(-100,-500;-100,900;1000,900;1000,-500/200,-200;700,-200;700,600;200,600){TERMINAL_ID=>1}");
EXPECT_EQ (o4.to_string (), "(-100,-500;-100,900;1000,900;1000,-500/200,-200;700,-200;700,600;200,600){TERMINAL_ID=>3}");
}
TEST(30_DMOS3DeviceExtractorTest)
{
db::Layout ly;
{
db::LoadLayoutOptions options;
std::string fn (tl::testdata ());
fn = tl::combine_path (fn, "algo");
fn = tl::combine_path (fn, "dmos3_1.gds");
tl::InputStream stream (fn);
db::Reader reader (stream);
reader.read (ly, options);
}
db::Cell &tc = ly.cell (*ly.begin_top_down ());
db::DeepShapeStore dss;
dss.set_text_enlargement (1);
dss.set_text_property_name (tl::Variant ("LABEL"));
// original layers
db::Region l0 (db::RecursiveShapeIterator (ly, tc, ly.get_layer (db::LayerProperties(0, 0))), dss);
db::Region l1 (db::RecursiveShapeIterator (ly, tc, ly.get_layer (db::LayerProperties(1, 0))), dss);
db::Region l2 (db::RecursiveShapeIterator (ly, tc, ly.get_layer (db::LayerProperties(2, 0))), dss);
db::Region o1 (dss);
db::Region o2 (dss);
db::Region o3 (dss);
// perform the extraction
db::Netlist nl;
db::hier_clusters<db::NetShape> cl;
db::NetlistDeviceExtractorMOS3Transistor ex ("DMOS3", true);
db::NetlistDeviceExtractor::input_layers dl;
dl["S"] = &l0;
dl["D"] = &l1;
dl["G"] = &l2;
dl["tS"] = &o1;
dl["tD"] = &o2;
dl["tG"] = &o3;
ex.extract (dss, 0, dl, nl, cl);
EXPECT_EQ (nl.to_string (),
"circuit TOP ();\n"
" device DMOS3 $1 (S=(null),G=(null),D=(null)) (L=0.3,W=0.8,AS=0.4,AD=0.16,PS=2.6,PD=2);\n"
"end;\n"
);
EXPECT_EQ (o1.to_string (), "(-600,-200;-600,600;-100,600;-100,-200){TERMINAL_ID=>0}");
EXPECT_EQ (o2.to_string (), "(200,-200;200,600;400,600;400,-200){TERMINAL_ID=>2}");
EXPECT_EQ (o3.to_string (), "(-100,-200;-100,600;200,600;200,-200){TERMINAL_ID=>1}");
}
TEST(31_DMOS3DeviceExtractorTestNotRectangularGate)
{
db::Layout ly;
{
db::LoadLayoutOptions options;
std::string fn (tl::testdata ());
fn = tl::combine_path (fn, "algo");
fn = tl::combine_path (fn, "dmos3_2.gds");
tl::InputStream stream (fn);
db::Reader reader (stream);
reader.read (ly, options);
}
db::Cell &tc = ly.cell (*ly.begin_top_down ());
db::DeepShapeStore dss;
dss.set_text_enlargement (1);
dss.set_text_property_name (tl::Variant ("LABEL"));
// original layers
db::Region l0 (db::RecursiveShapeIterator (ly, tc, ly.get_layer (db::LayerProperties(0, 0))), dss);
db::Region l1 (db::RecursiveShapeIterator (ly, tc, ly.get_layer (db::LayerProperties(1, 0))), dss);
db::Region l2 (db::RecursiveShapeIterator (ly, tc, ly.get_layer (db::LayerProperties(2, 0))), dss);
db::Region o1 (dss);
db::Region o2 (dss);
db::Region o3 (dss);
// perform the extraction
db::Netlist nl;
db::hier_clusters<db::NetShape> cl;
db::NetlistDeviceExtractorMOS3Transistor ex ("DMOS3", true);
db::NetlistDeviceExtractor::input_layers dl;
dl["S"] = &l0;
dl["D"] = &l1;
dl["G"] = &l2;
dl["tS"] = &o1;
dl["tD"] = &o2;
dl["tG"] = &o3;
ex.extract (dss, 0, dl, nl, cl);
EXPECT_EQ (nl.to_string (),
"circuit TOP ();\n"
" device DMOS3 $1 (S=(null),G=(null),D=(null)) (L=0.3,W=1,AS=0.32,AD=0.18,PS=2.6,PD=2.4);\n"
"end;\n"
);
EXPECT_EQ (o1.to_string (), "(-600,-200;-600,600;-300,600;-300,200;-100,200;-100,-200){TERMINAL_ID=>0}");
EXPECT_EQ (o2.to_string (), "(200,-200;200,500;0,500;0,600;400,600;400,-200){TERMINAL_ID=>2}");
EXPECT_EQ (o3.to_string (), "(-100,-200;-100,200;-300,200;-300,600;0,600;0,500;200,500;200,-200){TERMINAL_ID=>1}");
}
TEST(32_DMOS3DeviceExtractorTestCircular)
{
db::Layout ly;
{
db::LoadLayoutOptions options;
std::string fn (tl::testdata ());
fn = tl::combine_path (fn, "algo");
fn = tl::combine_path (fn, "dmos3_3.gds");
tl::InputStream stream (fn);
db::Reader reader (stream);
reader.read (ly, options);
}
db::Cell &tc = ly.cell (*ly.begin_top_down ());
db::DeepShapeStore dss;
dss.set_text_enlargement (1);
dss.set_text_property_name (tl::Variant ("LABEL"));
// original layers
db::Region l0 (db::RecursiveShapeIterator (ly, tc, ly.get_layer (db::LayerProperties(0, 0))), dss);
db::Region l1 (db::RecursiveShapeIterator (ly, tc, ly.get_layer (db::LayerProperties(1, 0))), dss);
db::Region l2 (db::RecursiveShapeIterator (ly, tc, ly.get_layer (db::LayerProperties(2, 0))), dss);
db::Region o1 (dss);
db::Region o2 (dss);
db::Region o3 (dss);
// perform the extraction
db::Netlist nl;
db::hier_clusters<db::NetShape> cl;
db::NetlistDeviceExtractorMOS3Transistor ex ("DMOS3", true);
db::NetlistDeviceExtractor::input_layers dl;
dl["S"] = &l0;
dl["D"] = &l1;
dl["G"] = &l2;
dl["tS"] = &o1;
dl["tD"] = &o2;
dl["tG"] = &o3;
ex.extract (dss, 0, dl, nl, cl);
EXPECT_EQ (nl.to_string (),
"circuit TOP ();\n"
" device DMOS3 $1 (S=(null),G=(null),D=(null)) (L=0.3,W=3.8,AS=0.4,AD=4.18,PS=2.6,PD=14.6);\n"
"end;\n"
);
EXPECT_EQ (o1.to_string (), "(200,-200;200,600;700,600;700,-200){TERMINAL_ID=>0}");
EXPECT_EQ (o2.to_string (), "(-600,-1200;-600,1400;1600,1400;1600,-1200/-100,-500;1000,-500;1000,900;-100,900){TERMINAL_ID=>2}");
EXPECT_EQ (o3.to_string (), "(-100,-500;-100,900;1000,900;1000,-500/200,-200;700,-200;700,600;200,600){TERMINAL_ID=>1}");
}
TEST(40_DMOS4DeviceExtractorTest)
{
db::Layout ly;
{
db::LoadLayoutOptions options;
std::string fn (tl::testdata ());
fn = tl::combine_path (fn, "algo");
fn = tl::combine_path (fn, "dmos4_1.gds");
tl::InputStream stream (fn);
db::Reader reader (stream);
reader.read (ly, options);
}
db::Cell &tc = ly.cell (*ly.begin_top_down ());
db::DeepShapeStore dss;
dss.set_text_enlargement (1);
dss.set_text_property_name (tl::Variant ("LABEL"));
// original layers
db::Region l0 (db::RecursiveShapeIterator (ly, tc, ly.get_layer (db::LayerProperties(0, 0))), dss);
db::Region l1 (db::RecursiveShapeIterator (ly, tc, ly.get_layer (db::LayerProperties(1, 0))), dss);
db::Region l2 (db::RecursiveShapeIterator (ly, tc, ly.get_layer (db::LayerProperties(2, 0))), dss);
db::Region l3 (db::RecursiveShapeIterator (ly, tc, ly.get_layer (db::LayerProperties(3, 0))), dss);
db::Region o1 (dss);
db::Region o2 (dss);
db::Region o3 (dss);
db::Region o4 (dss);
// perform the extraction
db::Netlist nl;
db::hier_clusters<db::NetShape> cl;
db::NetlistDeviceExtractorMOS4Transistor ex ("DMOS4", true);
db::NetlistDeviceExtractor::input_layers dl;
dl["S"] = &l0;
dl["D"] = &l1;
dl["G"] = &l2;
dl["W"] = &l3;
dl["tS"] = &o1;
dl["tD"] = &o2;
dl["tG"] = &o3;
dl["tB"] = &o4;
ex.extract (dss, 0, dl, nl, cl);
EXPECT_EQ (nl.to_string (),
"circuit TOP ();\n"
" device DMOS4 $1 (S=(null),G=(null),D=(null),B=(null)) (L=0.3,W=0.8,AS=0.4,AD=0.16,PS=2.6,PD=2);\n"
"end;\n"
);
EXPECT_EQ (o1.to_string (), "(-600,-200;-600,600;-100,600;-100,-200){TERMINAL_ID=>0}");
EXPECT_EQ (o2.to_string (), "(200,-200;200,600;400,600;400,-200){TERMINAL_ID=>2}");
EXPECT_EQ (o3.to_string (), "(-100,-200;-100,600;200,600;200,-200){TERMINAL_ID=>1}");
EXPECT_EQ (o4.to_string (), "(-100,-200;-100,600;200,600;200,-200){TERMINAL_ID=>3}");
}
TEST(41_DMOS4DeviceExtractorTestNotRectangularGate)
{
db::Layout ly;
{
db::LoadLayoutOptions options;
std::string fn (tl::testdata ());
fn = tl::combine_path (fn, "algo");
fn = tl::combine_path (fn, "dmos4_2.gds");
tl::InputStream stream (fn);
db::Reader reader (stream);
reader.read (ly, options);
}
db::Cell &tc = ly.cell (*ly.begin_top_down ());
db::DeepShapeStore dss;
dss.set_text_enlargement (1);
dss.set_text_property_name (tl::Variant ("LABEL"));
// original layers
db::Region l0 (db::RecursiveShapeIterator (ly, tc, ly.get_layer (db::LayerProperties(0, 0))), dss);
db::Region l1 (db::RecursiveShapeIterator (ly, tc, ly.get_layer (db::LayerProperties(1, 0))), dss);
db::Region l2 (db::RecursiveShapeIterator (ly, tc, ly.get_layer (db::LayerProperties(2, 0))), dss);
db::Region l3 (db::RecursiveShapeIterator (ly, tc, ly.get_layer (db::LayerProperties(3, 0))), dss);
db::Region o1 (dss);
db::Region o2 (dss);
db::Region o3 (dss);
db::Region o4 (dss);
// perform the extraction
db::Netlist nl;
db::hier_clusters<db::NetShape> cl;
db::NetlistDeviceExtractorMOS4Transistor ex ("DMOS4", true);
db::NetlistDeviceExtractor::input_layers dl;
dl["S"] = &l0;
dl["D"] = &l1;
dl["G"] = &l2;
dl["W"] = &l3;
dl["tS"] = &o1;
dl["tD"] = &o2;
dl["tG"] = &o3;
dl["tB"] = &o4;
ex.extract (dss, 0, dl, nl, cl);
EXPECT_EQ (nl.to_string (),
"circuit TOP ();\n"
" device DMOS4 $1 (S=(null),G=(null),D=(null),B=(null)) (L=0.3,W=1,AS=0.32,AD=0.18,PS=2.6,PD=2.4);\n"
"end;\n"
);
EXPECT_EQ (o1.to_string (), "(-600,-200;-600,600;-300,600;-300,200;-100,200;-100,-200){TERMINAL_ID=>0}");
EXPECT_EQ (o2.to_string (), "(200,-200;200,500;0,500;0,600;400,600;400,-200){TERMINAL_ID=>2}");
EXPECT_EQ (o3.to_string (), "(-100,-200;-100,200;-300,200;-300,600;0,600;0,500;200,500;200,-200){TERMINAL_ID=>1}");
EXPECT_EQ (o4.to_string (), "(-100,-200;-100,200;-300,200;-300,600;0,600;0,500;200,500;200,-200){TERMINAL_ID=>3}");
}
TEST(42_DMOS4DeviceExtractorTestCircular)
{
db::Layout ly;
{
db::LoadLayoutOptions options;
std::string fn (tl::testdata ());
fn = tl::combine_path (fn, "algo");
fn = tl::combine_path (fn, "dmos4_3.gds");
tl::InputStream stream (fn);
db::Reader reader (stream);
reader.read (ly, options);
}
db::Cell &tc = ly.cell (*ly.begin_top_down ());
db::DeepShapeStore dss;
dss.set_text_enlargement (1);
dss.set_text_property_name (tl::Variant ("LABEL"));
// original layers
db::Region l0 (db::RecursiveShapeIterator (ly, tc, ly.get_layer (db::LayerProperties(0, 0))), dss);
db::Region l1 (db::RecursiveShapeIterator (ly, tc, ly.get_layer (db::LayerProperties(1, 0))), dss);
db::Region l2 (db::RecursiveShapeIterator (ly, tc, ly.get_layer (db::LayerProperties(2, 0))), dss);
db::Region l3 (db::RecursiveShapeIterator (ly, tc, ly.get_layer (db::LayerProperties(3, 0))), dss);
db::Region o1 (dss);
db::Region o2 (dss);
db::Region o3 (dss);
db::Region o4 (dss);
// perform the extraction
db::Netlist nl;
db::hier_clusters<db::NetShape> cl;
db::NetlistDeviceExtractorMOS4Transistor ex ("DMOS4", true);
db::NetlistDeviceExtractor::input_layers dl;
dl["S"] = &l0;
dl["D"] = &l1;
dl["G"] = &l2;
dl["W"] = &l3;
dl["tS"] = &o1;
dl["tD"] = &o2;
dl["tG"] = &o3;
dl["tB"] = &o4;
ex.extract (dss, 0, dl, nl, cl);
EXPECT_EQ (nl.to_string (),
"circuit TOP ();\n"
" device DMOS4 $1 (S=(null),G=(null),D=(null),B=(null)) (L=0.3,W=3.8,AS=0.4,AD=4.18,PS=2.6,PD=14.6);\n"
"end;\n"
);
EXPECT_EQ (o1.to_string (), "(200,-200;200,600;700,600;700,-200){TERMINAL_ID=>0}");
EXPECT_EQ (o2.to_string (), "(-600,-1200;-600,1400;1600,1400;1600,-1200/-100,-500;1000,-500;1000,900;-100,900){TERMINAL_ID=>2}");
EXPECT_EQ (o3.to_string (), "(-100,-500;-100,900;1000,900;1000,-500/200,-200;700,-200;700,600;200,600){TERMINAL_ID=>1}");
EXPECT_EQ (o4.to_string (), "(-100,-500;-100,900;1000,900;1000,-500/200,-200;700,-200;700,600;200,600){TERMINAL_ID=>3}");
}
TEST(50_BJT3DeviceExtractorTest)
{
db::Layout ly;
{
db::LoadLayoutOptions options;
std::string fn (tl::testdata ());
fn = tl::combine_path (fn, "algo");
fn = tl::combine_path (fn, "bjt3_1.gds");
tl::InputStream stream (fn);
db::Reader reader (stream);
reader.read (ly, options);
}
db::Cell &tc = ly.cell (*ly.begin_top_down ());
db::DeepShapeStore dss;
dss.set_text_enlargement (1);
dss.set_text_property_name (tl::Variant ("LABEL"));
// original layers
db::Region l0 (db::RecursiveShapeIterator (ly, tc, ly.get_layer (db::LayerProperties(0, 0))), dss);
db::Region l1 (db::RecursiveShapeIterator (ly, tc, ly.get_layer (db::LayerProperties(1, 0))), dss);
db::Region l2 (db::RecursiveShapeIterator (ly, tc, ly.get_layer (db::LayerProperties(2, 0))), dss);
db::Region o1 (dss);
db::Region o2 (dss);
db::Region o3 (dss);
// perform the extraction
db::Netlist nl;
db::hier_clusters<db::NetShape> cl;
db::NetlistDeviceExtractorBJT3Transistor ex ("BJT3");
db::NetlistDeviceExtractor::input_layers dl;
dl["E"] = &l0;
dl["B"] = &l1;
dl["C"] = &l2;
dl["tE"] = &o1;
dl["tB"] = &o2;
dl["tC"] = &o3;
ex.extract (dss, 0, dl, nl, cl);
EXPECT_EQ (nl.to_string (),
"circuit TOP ();\n"
" device BJT3 $1 (C=(null),B=(null),E=(null)) (AE=0.81,PE=3.6,AB=5,PB=9,AC=5,PC=9,NE=1);\n"
"end;\n"
);
EXPECT_EQ (o1.to_string (), "(700,400;700,1300;1600,1300;1600,400){TERMINAL_ID=>2}");
EXPECT_EQ (o2.to_string (), "(0,0;0,2000;2500,2000;2500,0/700,400;1600,400;1600,1300;700,1300){TERMINAL_ID=>1}");
EXPECT_EQ (o3.to_string (), "(0,0;0,2000;2500,2000;2500,0/700,400;1600,400;1600,1300;700,1300){TERMINAL_ID=>0}");
}
TEST(51_BJT3DeviceExtractorTest)
{
db::Layout ly;
{
db::LoadLayoutOptions options;
std::string fn (tl::testdata ());
fn = tl::combine_path (fn, "algo");
fn = tl::combine_path (fn, "bjt3_2.gds");
tl::InputStream stream (fn);
db::Reader reader (stream);
reader.read (ly, options);
}
db::Cell &tc = ly.cell (*ly.begin_top_down ());
db::DeepShapeStore dss;
dss.set_text_enlargement (1);
dss.set_text_property_name (tl::Variant ("LABEL"));
// original layers
db::Region l0 (db::RecursiveShapeIterator (ly, tc, ly.get_layer (db::LayerProperties(0, 0))), dss);
db::Region l1 (db::RecursiveShapeIterator (ly, tc, ly.get_layer (db::LayerProperties(1, 0))), dss);
db::Region l2 (db::RecursiveShapeIterator (ly, tc, ly.get_layer (db::LayerProperties(2, 0))), dss);
db::Region o1 (dss);
db::Region o2 (dss);
db::Region o3 (dss);
// perform the extraction
db::Netlist nl;
db::hier_clusters<db::NetShape> cl;
db::NetlistDeviceExtractorBJT3Transistor ex ("BJT3");
db::NetlistDeviceExtractor::input_layers dl;
dl["E"] = &l0;
dl["B"] = &l1;
dl["C"] = &l2;
dl["tE"] = &o1;
dl["tB"] = &o2;
dl["tC"] = &o3;
ex.extract (dss, 0, dl, nl, cl);
EXPECT_EQ (nl.to_string (),
"circuit TOP ();\n"
" device BJT3 $1 (C=(null),B=(null),E=(null)) (AE=0.81,PE=3.6,AB=5,PB=9,AC=5,PC=9,NE=1);\n"
"end;\n"
);
EXPECT_EQ (o1.to_string (), "(700,400;700,1300;1600,1300;1600,400){TERMINAL_ID=>2}");
EXPECT_EQ (o2.to_string (), "(0,0;0,2000;2500,2000;2500,0/700,400;1600,400;1600,1300;700,1300){TERMINAL_ID=>1}");
EXPECT_EQ (o3.to_string (), "(-1000,-500;-1000,2500;3000,2500;3000,-500/0,0;2500,0;2500,2000;0,2000){TERMINAL_ID=>0}");
}
TEST(52_BJT3DeviceExtractorTestLateral)
{
db::Layout ly;
{
db::LoadLayoutOptions options;
std::string fn (tl::testdata ());
fn = tl::combine_path (fn, "algo");
fn = tl::combine_path (fn, "bjt3_3.gds");
tl::InputStream stream (fn);
db::Reader reader (stream);
reader.read (ly, options);
}
db::Cell &tc = ly.cell (*ly.begin_top_down ());
db::DeepShapeStore dss;
dss.set_text_enlargement (1);
dss.set_text_property_name (tl::Variant ("LABEL"));
// original layers
db::Region l0 (db::RecursiveShapeIterator (ly, tc, ly.get_layer (db::LayerProperties(0, 0))), dss);
db::Region l1 (db::RecursiveShapeIterator (ly, tc, ly.get_layer (db::LayerProperties(1, 0))), dss);
db::Region l2 (db::RecursiveShapeIterator (ly, tc, ly.get_layer (db::LayerProperties(2, 0))), dss);
db::Region o1 (dss);
db::Region o2 (dss);
db::Region o3 (dss);
// perform the extraction
db::Netlist nl;
db::hier_clusters<db::NetShape> cl;
db::NetlistDeviceExtractorBJT3Transistor ex ("BJT3");
db::NetlistDeviceExtractor::input_layers dl;
dl["E"] = &l0;
dl["B"] = &l1;
dl["C"] = &l2;
dl["tE"] = &o1;
dl["tB"] = &o2;
dl["tC"] = &o3;
ex.extract (dss, 0, dl, nl, cl);
EXPECT_EQ (nl.to_string (),
"circuit TOP ();\n"
" device BJT3 $1 (C=(null),B=(null),E=(null)) (AE=0.81,PE=3.6,AB=5,PB=9,AC=0.8,PC=4.8,NE=1);\n"
"end;\n"
);
EXPECT_EQ (o1.to_string (), "(700,400;700,1300;1600,1300;1600,400){TERMINAL_ID=>2}");
EXPECT_EQ (o2.to_string (), "(0,0;0,2000;2100,2000;2100,0/700,400;1600,400;1600,1300;700,1300){TERMINAL_ID=>1}");
EXPECT_EQ (o3.to_string (), "(2100,0;2100,2000;2500,2000;2500,0){TERMINAL_ID=>0}");
}
TEST(53_BJT3DeviceExtractorTestMultEmitter)
{
db::Layout ly;
{
db::LoadLayoutOptions options;
std::string fn (tl::testdata ());
fn = tl::combine_path (fn, "algo");
fn = tl::combine_path (fn, "bjt3_4.gds");
tl::InputStream stream (fn);
db::Reader reader (stream);
reader.read (ly, options);
}
db::Cell &tc = ly.cell (*ly.begin_top_down ());
db::DeepShapeStore dss;
dss.set_text_enlargement (1);
dss.set_text_property_name (tl::Variant ("LABEL"));
// original layers
db::Region l0 (db::RecursiveShapeIterator (ly, tc, ly.get_layer (db::LayerProperties(0, 0))), dss);
db::Region l1 (db::RecursiveShapeIterator (ly, tc, ly.get_layer (db::LayerProperties(1, 0))), dss);
db::Region l2 (db::RecursiveShapeIterator (ly, tc, ly.get_layer (db::LayerProperties(2, 0))), dss);
db::Region o1 (dss);
db::Region o2 (dss);
db::Region o3 (dss);
// perform the extraction
db::Netlist nl;
db::hier_clusters<db::NetShape> cl;
db::NetlistDeviceExtractorBJT3Transistor ex ("BJT3");
db::NetlistDeviceExtractor::input_layers dl;
dl["E"] = &l0;
dl["B"] = &l1;
dl["C"] = &l2;
dl["tE"] = &o1;
dl["tB"] = &o2;
dl["tC"] = &o3;
ex.extract (dss, 0, dl, nl, cl);
EXPECT_EQ (nl.to_string (),
"circuit TOP ();\n"
" device BJT3 $1 (C=(null),B=(null),E=(null)) (AE=0.5,PE=3,AB=10,PB=14,AC=10,PC=14,NE=1);\n"
" device BJT3 $2 (C=(null),B=(null),E=(null)) (AE=0.5,PE=3,AB=10,PB=14,AC=10,PC=14,NE=1);\n"
"end;\n"
);
EXPECT_EQ (o1.to_string (), "(1000,500;1000,1500;1500,1500;1500,500){TERMINAL_ID=>2};(3500,500;3500,1500;4000,1500;4000,500){TERMINAL_ID=>2}");
EXPECT_EQ (o2.to_string (), "(0,0;0,2000;5000,2000;5000,0/1000,500;1500,500;1500,1500;1000,1500/3500,500;4000,500;4000,1500;3500,1500){TERMINAL_ID=>1};(0,0;0,2000;5000,2000;5000,0/1000,500;1500,500;1500,1500;1000,1500/3500,500;4000,500;4000,1500;3500,1500){TERMINAL_ID=>1}");
EXPECT_EQ (o3.to_string (), "(-500,-500;-500,2500;5500,2500;5500,-500/0,0;5000,0;5000,2000;0,2000){TERMINAL_ID=>0};(-500,-500;-500,2500;5500,2500;5500,-500/0,0;5000,0;5000,2000;0,2000){TERMINAL_ID=>0}");
}
TEST(54_BJT4DeviceExtractorTest)
{
db::Layout ly;
{
db::LoadLayoutOptions options;
std::string fn (tl::testdata ());
fn = tl::combine_path (fn, "algo");
fn = tl::combine_path (fn, "bjt4_1.gds");
tl::InputStream stream (fn);
db::Reader reader (stream);
reader.read (ly, options);
}
db::Cell &tc = ly.cell (*ly.begin_top_down ());
db::DeepShapeStore dss;
dss.set_text_enlargement (1);
dss.set_text_property_name (tl::Variant ("LABEL"));
// original layers
db::Region l0 (db::RecursiveShapeIterator (ly, tc, ly.get_layer (db::LayerProperties(0, 0))), dss);
db::Region l1 (db::RecursiveShapeIterator (ly, tc, ly.get_layer (db::LayerProperties(1, 0))), dss);
db::Region l2 (db::RecursiveShapeIterator (ly, tc, ly.get_layer (db::LayerProperties(2, 0))), dss);
db::Region l3 (db::RecursiveShapeIterator (ly, tc, ly.get_layer (db::LayerProperties(3, 0))), dss);
db::Region o1 (dss);
db::Region o2 (dss);
db::Region o3 (dss);
db::Region o4 (dss);
// perform the extraction
db::Netlist nl;
db::hier_clusters<db::NetShape> cl;
db::NetlistDeviceExtractorBJT4Transistor ex ("BJT4");
db::NetlistDeviceExtractor::input_layers dl;
dl["E"] = &l0;
dl["B"] = &l1;
dl["C"] = &l2;
dl["S"] = &l3;
dl["tE"] = &o1;
dl["tB"] = &o2;
dl["tC"] = &o3;
dl["tS"] = &o4;
ex.extract (dss, 0, dl, nl, cl);
EXPECT_EQ (nl.to_string (),
"circuit TOP ();\n"
" device BJT4 $1 (C=(null),B=(null),E=(null),S=(null)) (AE=0.81,PE=3.6,AB=5,PB=9,AC=5,PC=9,NE=1);\n"
"end;\n"
);
EXPECT_EQ (o1.to_string (), "(700,400;700,1300;1600,1300;1600,400){TERMINAL_ID=>2}");
EXPECT_EQ (o2.to_string (), "(0,0;0,2000;2500,2000;2500,0/700,400;1600,400;1600,1300;700,1300){TERMINAL_ID=>1}");
EXPECT_EQ (o3.to_string (), "(-1000,-500;-1000,2500;3000,2500;3000,-500/0,0;2500,0;2500,2000;0,2000){TERMINAL_ID=>0}");
EXPECT_EQ (o4.to_string (), "(0,0;0,2000;2500,2000;2500,0){TERMINAL_ID=>3}");
}