RecursiveInstanceIterator: Doc fixes, tests, instance array iteration.

This commit is contained in:
Matthias Koefferlein 2021-02-20 22:17:43 +01:00
parent a1bae225e3
commit 0f4a10441d
12 changed files with 1323 additions and 277 deletions

View File

@ -115,6 +115,7 @@ SOURCES = \
gsiDeclDbPoint.cc \
gsiDeclDbPolygon.cc \
gsiDeclDbReader.cc \
gsiDeclDbRecursiveInstanceIterator.cc \
gsiDeclDbRecursiveShapeIterator.cc \
gsiDeclDbRegion.cc \
gsiDeclDbShape.cc \

View File

@ -45,8 +45,6 @@ RecursiveInstanceIterator &RecursiveInstanceIterator::operator= (const Recursive
m_max_depth = d.m_max_depth;
m_min_depth = d.m_min_depth;
m_shape_flags = d.m_shape_flags;
m_shape_inv_prop_sel = d.m_shape_inv_prop_sel;
m_overlapping = d.m_overlapping;
m_start = d.m_start;
m_stop = d.m_stop;
@ -91,7 +89,6 @@ RecursiveInstanceIterator::RecursiveInstanceIterator ()
m_overlapping = false;
m_max_depth = std::numeric_limits<int>::max (); // all
m_min_depth = 0;
m_shape_inv_prop_sel = false;
m_needs_reinit = false;
m_inst_quad_id = 0;
m_all_targets = true;
@ -139,7 +136,6 @@ RecursiveInstanceIterator::init ()
m_needs_reinit = true;
m_max_depth = std::numeric_limits<int>::max (); // all
m_min_depth = 0; // from the beginning
m_shape_inv_prop_sel = false;
m_inst_quad_id = 0;
mp_cell = 0;
m_all_targets = true;
@ -390,6 +386,14 @@ RecursiveInstanceIterator::select_all_cells ()
}
}
const RecursiveInstanceIterator::instance_element_type *
RecursiveInstanceIterator::operator-> () const
{
validate (0);
m_combined_instance = db::InstElement (*m_inst, m_inst_array);
return &m_combined_instance;
}
bool
RecursiveInstanceIterator::at_end () const
{
@ -438,9 +442,14 @@ void
RecursiveInstanceIterator::next (RecursiveInstanceReceiver *receiver)
{
if (! at_end ()) {
++m_inst;
new_inst (receiver);
next_instance (receiver);
++m_inst_array;
if (! m_inst_array.at_end ()) {
new_inst_member (receiver);
} else {
++m_inst;
new_inst (receiver);
next_instance (receiver);
}
}
}
@ -474,8 +483,13 @@ RecursiveInstanceIterator::next_instance (RecursiveInstanceReceiver *receiver) c
if (! m_inst.at_end ()) {
if (! needs_visit ()) {
++m_inst;
new_inst (receiver);
++m_inst_array;
if (! m_inst_array.at_end ()) {
new_inst_member (receiver);
} else {
++m_inst;
new_inst (receiver);
}
} else {
break;
}

View File

@ -63,7 +63,9 @@ public:
typedef db::Instances::overlapping_iterator overlapping_instance_iterator;
typedef db::Instances::touching_iterator touching_instance_iterator;
typedef db::Instance instance_type;
typedef db::InstElement instance_element_type;
typedef db::ICplxTrans cplx_trans_type;
typedef instance_element_type value_type;
typedef db::box_tree<db::Box, db::Box, db::box_convert<db::Box>, 20, 20> box_tree_type;
/**
@ -416,7 +418,7 @@ public:
* Returns the instance currently referred to by the recursive iterator.
* This instance is not transformed yet and is located in the current cell.
*/
instance_type instance () const
instance_element_type instance () const
{
return *operator-> ();
}
@ -426,7 +428,7 @@ public:
*
* The access operator is identical to the instance method.
*/
instance_type operator* () const
instance_element_type operator* () const
{
return *operator-> ();
}
@ -436,11 +438,7 @@ public:
*
* The access operator is identical to the instance method.
*/
const instance_type *operator-> () const
{
validate (0);
return m_inst.operator-> ();
}
const instance_element_type *operator-> () const;
/**
* @brief End of iterator predicate
@ -509,7 +507,7 @@ public:
/**
* @brief The instance path
*/
std::vector<db::InstElement> path () const;
std::vector<instance_element_type> path () const;
/**
* @brief Push-mode delivery
@ -541,8 +539,6 @@ public:
private:
int m_max_depth;
int m_min_depth;
unsigned int m_shape_flags;
bool m_shape_inv_prop_sel;
bool m_overlapping;
std::set<db::cell_index_type> m_start, m_stop;
std::set<db::cell_index_type> m_targets;
@ -557,6 +553,7 @@ private:
mutable inst_iterator m_inst;
mutable inst_array_iterator m_inst_array;
mutable instance_element_type m_combined_instance;
mutable std::map<db::cell_index_type, bool> m_empty_cells_cache;
mutable const cell_type *mp_cell;
mutable cplx_trans_type m_trans;

View File

@ -38,6 +38,8 @@
#include "dbCellMapping.h"
#include "dbPCellDeclaration.h"
#include "dbSaveLayoutOptions.h"
#include "dbRecursiveShapeIterator.h"
#include "dbRecursiveInstanceIterator.h"
#include "dbWriter.h"
#include "dbHash.h"
#include "tlStream.h"
@ -1204,6 +1206,56 @@ begin_shapes_rec_overlapping_um (const db::Cell *cell, unsigned int layer, db::D
return db::RecursiveShapeIterator (*layout, *cell, layer, db::CplxTrans (layout->dbu ()).inverted () * region, true);
}
static db::RecursiveInstanceIterator
begin_instances_rec (const db::Cell *cell)
{
const db::Layout *layout = cell->layout ();
if (! layout) {
throw tl::Exception (tl::to_string (tr ("Cell is not inside layout")));
}
return db::RecursiveInstanceIterator (*layout, *cell);
}
static db::RecursiveInstanceIterator
begin_instances_rec_touching (const db::Cell *cell, db::Box region)
{
const db::Layout *layout = cell->layout ();
if (! layout) {
throw tl::Exception (tl::to_string (tr ("Cell is not inside layout")));
}
return db::RecursiveInstanceIterator (*layout, *cell, region, false);
}
static db::RecursiveInstanceIterator
begin_instances_rec_touching_um (const db::Cell *cell, db::DBox region)
{
const db::Layout *layout = cell->layout ();
if (! layout) {
throw tl::Exception (tl::to_string (tr ("Cell is not inside layout")));
}
return db::RecursiveInstanceIterator (*layout, *cell, db::CplxTrans (layout->dbu ()).inverted () * region, false);
}
static db::RecursiveInstanceIterator
begin_instances_rec_overlapping (const db::Cell *cell, db::Box region)
{
const db::Layout *layout = cell->layout ();
if (! layout) {
throw tl::Exception (tl::to_string (tr ("Cell is not inside layout")));
}
return db::RecursiveInstanceIterator (*layout, *cell, region, true);
}
static db::RecursiveInstanceIterator
begin_instances_rec_overlapping_um (const db::Cell *cell, db::DBox region)
{
const db::Layout *layout = cell->layout ();
if (! layout) {
throw tl::Exception (tl::to_string (tr ("Cell is not inside layout")));
}
return db::RecursiveInstanceIterator (*layout, *cell, db::CplxTrans (layout->dbu ()).inverted () * region, true);
}
static void copy_shapes2 (db::Cell *cell, const db::Cell &source_cell, const db::LayerMapping &layer_mapping)
{
cell->copy_shapes (source_cell, layer_mapping);
@ -1833,6 +1885,54 @@ Class<db::Cell> decl_Cell ("db", "Cell",
"\n"
"This variant has been added in version 0.25.\n"
) +
gsi::method_ext ("begin_instances_rec", &begin_instances_rec,
"@brief Delivers a recursive instance iterator for the instances below the cell\n"
"@return A suitable iterator\n"
"\n"
"For details see the description of the \\RecursiveInstanceIterator class.\n"
"\n"
"This method has been added in version 0.27.\n"
) +
gsi::method_ext ("begin_instances_rec_touching", &begin_instances_rec_touching, gsi::arg ("region"),
"@brief Delivers a recursive instance iterator for the instances below the cell\n"
"@param region The search region\n"
"@return A suitable iterator\n"
"\n"
"For details see the description of the \\RecursiveInstanceIterator class.\n"
"This version gives an iterator delivering instances whose bounding box touches the given region.\n"
"\n"
"This method has been added in version 0.27.\n"
) +
gsi::method_ext ("begin_instances_rec_touching", &begin_instances_rec_touching_um, gsi::arg ("region"),
"@brief Delivers a recursive instance iterator for the instances below the cell using a region search, with the region given in micrometer units\n"
"@param region The search region as \\DBox object in micrometer units\n"
"@return A suitable iterator\n"
"\n"
"For details see the description of the \\RecursiveInstanceIterator class.\n"
"This version gives an iterator delivering instances whose bounding box touches the given region.\n"
"\n"
"This variant has been added in version 0.27.\n"
) +
gsi::method_ext ("begin_instances_rec_overlapping", &begin_instances_rec_overlapping, gsi::arg ("region"),
"@brief Delivers a recursive instance iterator for the instances below the cell using a region search\n"
"@param region The search region\n"
"@return A suitable iterator\n"
"\n"
"For details see the description of the \\RecursiveInstanceIterator class.\n"
"This version gives an iterator delivering instances whose bounding box overlaps the given region.\n"
"\n"
"This method has been added in version 0.27.\n"
) +
gsi::method_ext ("begin_instances_rec_overlapping", &begin_instances_rec_overlapping_um, gsi::arg ("region"),
"@brief Delivers a recursive instance iterator for the instances below the cell using a region search, with the region given in micrometer units\n"
"@param region The search region as \\DBox object in micrometer units\n"
"@return A suitable iterator\n"
"\n"
"For details see the description of the \\RecursiveInstanceIterator class.\n"
"This version gives an iterator delivering instances whose bounding box overlaps the given region.\n"
"\n"
"This variant has been added in version 0.27.\n"
) +
gsi::method_ext ("copy_shapes", &copy_shapes1, gsi::arg ("source_cell"),
"@brief Copies the shapes from the given cell into this cell\n"
"@param source_cell The cell from where to copy shapes\n"

View File

@ -1716,9 +1716,11 @@ Class<db::Layout> decl_Layout ("db", "Layout",
"For details see the description of the \\RecursiveShapeIterator class.\n"
"This version is convenience overload which takes a cell object instead of a cell index.\n"
"\n"
"This method is deprecated. Use \\Cell#begin_shapes_rec instead.\n"
"\n"
"This method has been added in version 0.24.\n"
) +
gsi::method_ext ("begin_shapes", &begin_shapes, gsi::arg ("cell_index"), gsi::arg ("layer"),
gsi::method_ext ("#begin_shapes", &begin_shapes, gsi::arg ("cell_index"), gsi::arg ("layer"),
"@brief Delivers a recursive shape iterator for the shapes below the given cell on the given layer\n"
"@param cell_index The index of the initial (top) cell\n"
"@param layer The layer from which to get the shapes\n"
@ -1726,9 +1728,11 @@ Class<db::Layout> decl_Layout ("db", "Layout",
"\n"
"For details see the description of the \\RecursiveShapeIterator class.\n"
"\n"
"This method is deprecated. Use \\Cell#begin_shapes_rec instead.\n"
"\n"
"This method has been added in version 0.18.\n"
) +
gsi::method_ext ("begin_shapes_touching", &begin_shapes_touching, gsi::arg ("cell_index"), gsi::arg ("layer"), gsi::arg ("region"),
gsi::method_ext ("#begin_shapes_touching", &begin_shapes_touching, gsi::arg ("cell_index"), gsi::arg ("layer"), gsi::arg ("region"),
"@brief Delivers a recursive shape iterator for the shapes below the given cell on the given layer using a region search\n"
"@param cell_index The index of the starting cell\n"
"@param layer The layer from which to get the shapes\n"
@ -1738,9 +1742,11 @@ Class<db::Layout> decl_Layout ("db", "Layout",
"For details see the description of the \\RecursiveShapeIterator class.\n"
"This version gives an iterator delivering shapes whose bounding box touches the given region.\n"
"\n"
"This method is deprecated. Use \\Cell#begin_shapes_rec_touching instead.\n"
"\n"
"This method has been added in version 0.18.\n"
) +
gsi::method_ext ("begin_shapes_touching", &begin_shapes_touching2, gsi::arg ("cell"), gsi::arg ("layer"), gsi::arg ("region"),
gsi::method_ext ("#begin_shapes_touching", &begin_shapes_touching2, gsi::arg ("cell"), gsi::arg ("layer"), gsi::arg ("region"),
"@brief Delivers a recursive shape iterator for the shapes below the given cell on the given layer using a region search\n"
"@param cell The cell object for the starting cell\n"
"@param layer The layer from which to get the shapes\n"
@ -1751,9 +1757,11 @@ Class<db::Layout> decl_Layout ("db", "Layout",
"This version gives an iterator delivering shapes whose bounding box touches the given region.\n"
"It is convenience overload which takes a cell object instead of a cell index.\n"
"\n"
"This method is deprecated. Use \\Cell#begin_shapes_rec_touching instead.\n"
"\n"
"This method has been added in version 0.24.\n"
) +
gsi::method_ext ("begin_shapes_overlapping", &begin_shapes_overlapping, gsi::arg ("cell_index"), gsi::arg ("layer"), gsi::arg ("region"),
gsi::method_ext ("#begin_shapes_overlapping", &begin_shapes_overlapping, gsi::arg ("cell_index"), gsi::arg ("layer"), gsi::arg ("region"),
"@brief Delivers a recursive shape iterator for the shapes below the given cell on the given layer using a region search\n"
"@param cell_index The index of the starting cell\n"
"@param layer The layer from which to get the shapes\n"
@ -1763,9 +1771,11 @@ Class<db::Layout> decl_Layout ("db", "Layout",
"For details see the description of the \\RecursiveShapeIterator class.\n"
"This version gives an iterator delivering shapes whose bounding box overlaps the given region.\n"
"\n"
"This method is deprecated. Use \\Cell#begin_shapes_rec_overlapping instead.\n"
"\n"
"This method has been added in version 0.18.\n"
) +
gsi::method_ext ("begin_shapes_overlapping", &begin_shapes_overlapping2, gsi::arg ("cell_index"), gsi::arg ("layer"), gsi::arg ("region"),
gsi::method_ext ("#begin_shapes_overlapping", &begin_shapes_overlapping2, gsi::arg ("cell_index"), gsi::arg ("layer"), gsi::arg ("region"),
"@brief Delivers a recursive shape iterator for the shapes below the given cell on the given layer using a region search\n"
"@param cell The cell object for the starting cell\n"
"@param layer The layer from which to get the shapes\n"
@ -1776,9 +1786,11 @@ Class<db::Layout> decl_Layout ("db", "Layout",
"This version gives an iterator delivering shapes whose bounding box overlaps the given region.\n"
"It is convenience overload which takes a cell object instead of a cell index.\n"
"\n"
"This method is deprecated. Use \\Cell#begin_shapes_rec_overlapping instead.\n"
"\n"
"This method has been added in version 0.24.\n"
) +
gsi::method_ext ("begin_shapes_touching", &begin_shapes_touching_um, gsi::arg ("cell_index"), gsi::arg ("layer"), gsi::arg ("region"),
gsi::method_ext ("#begin_shapes_touching", &begin_shapes_touching_um, gsi::arg ("cell_index"), gsi::arg ("layer"), gsi::arg ("region"),
"@brief Delivers a recursive shape iterator for the shapes below the given cell on the given layer using a region search, the region given in micrometer units\n"
"@param cell_index The index of the starting cell\n"
"@param layer The layer from which to get the shapes\n"
@ -1788,9 +1800,11 @@ Class<db::Layout> decl_Layout ("db", "Layout",
"For details see the description of the \\RecursiveShapeIterator class.\n"
"This version gives an iterator delivering shapes whose bounding box touches the given region.\n"
"\n"
"This method is deprecated. Use \\Cell#begin_shapes_rec_touching instead.\n"
"\n"
"This variant has been added in version 0.25.\n"
) +
gsi::method_ext ("begin_shapes_touching", &begin_shapes_touching2_um, gsi::arg ("cell"), gsi::arg ("layer"), gsi::arg ("region"),
gsi::method_ext ("#begin_shapes_touching", &begin_shapes_touching2_um, gsi::arg ("cell"), gsi::arg ("layer"), gsi::arg ("region"),
"@brief Delivers a recursive shape iterator for the shapes below the given cell on the given layer using a region search, the region given in micrometer units\n"
"@param cell The cell object for the starting cell\n"
"@param layer The layer from which to get the shapes\n"
@ -1801,9 +1815,11 @@ Class<db::Layout> decl_Layout ("db", "Layout",
"This version gives an iterator delivering shapes whose bounding box touches the given region.\n"
"It is convenience overload which takes a cell object instead of a cell index.\n"
"\n"
"This method is deprecated. Use \\Cell#begin_shapes_rec_touching instead.\n"
"\n"
"This variant has been added in version 0.25.\n"
) +
gsi::method_ext ("begin_shapes_overlapping", &begin_shapes_overlapping_um, gsi::arg ("cell_index"), gsi::arg ("layer"), gsi::arg ("region"),
gsi::method_ext ("#begin_shapes_overlapping", &begin_shapes_overlapping_um, gsi::arg ("cell_index"), gsi::arg ("layer"), gsi::arg ("region"),
"@brief Delivers a recursive shape iterator for the shapes below the given cell on the given layer using a region search, the region given in micrometer units\n"
"@param cell_index The index of the starting cell\n"
"@param layer The layer from which to get the shapes\n"
@ -1813,9 +1829,11 @@ Class<db::Layout> decl_Layout ("db", "Layout",
"For details see the description of the \\RecursiveShapeIterator class.\n"
"This version gives an iterator delivering shapes whose bounding box overlaps the given region.\n"
"\n"
"This method is deprecated. Use \\Cell#begin_shapes_rec_overlapping instead.\n"
"\n"
"This variant has been added in version 0.25.\n"
) +
gsi::method_ext ("begin_shapes_overlapping", &begin_shapes_overlapping2_um, gsi::arg ("cell"), gsi::arg ("layer"), gsi::arg ("region"),
gsi::method_ext ("#begin_shapes_overlapping", &begin_shapes_overlapping2_um, gsi::arg ("cell"), gsi::arg ("layer"), gsi::arg ("region"),
"@brief Delivers a recursive shape iterator for the shapes below the given cell on the given layer using a region search, the region given in micrometer units\n"
"@param cell The cell object for the starting cell\n"
"@param layer The layer from which to get the shapes\n"
@ -1826,6 +1844,8 @@ Class<db::Layout> decl_Layout ("db", "Layout",
"This version gives an iterator delivering shapes whose bounding box overlaps the given region.\n"
"It is convenience overload which takes a cell object instead of a cell index.\n"
"\n"
"This method is deprecated. Use \\Cell#begin_shapes_rec_overlapping instead.\n"
"\n"
"This variant has been added in version 0.25.\n"
) +
gsi::method_ext ("#write", &write_options2, gsi::arg ("filename"), gsi::arg ("gzip"), gsi::arg ("options"),

View File

@ -0,0 +1,558 @@
/*
KLayout Layout Viewer
Copyright (C) 2006-2021 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 "gsiDecl.h"
#include "dbRecursiveInstanceIterator.h"
#include "dbRegion.h"
#include "tlGlobPattern.h"
namespace gsi
{
// ---------------------------------------------------------------
// db::RecursiveInstanceIterator binding
static db::RecursiveInstanceIterator *new_si1 (const db::Layout &layout, const db::Cell &cell)
{
return new db::RecursiveInstanceIterator (layout, cell);
}
static db::RecursiveInstanceIterator *new_si2 (const db::Layout &layout, const db::Cell &cell, const db::Box &box, bool overlapping)
{
return new db::RecursiveInstanceIterator (layout, cell, box, overlapping);
}
static db::RecursiveInstanceIterator *new_si2a (const db::Layout &layout, const db::Cell &cell, const db::Region &region, bool overlapping)
{
return new db::RecursiveInstanceIterator (layout, cell, region, overlapping);
}
static db::DCplxTrans si_dtrans (const db::RecursiveInstanceIterator *r)
{
const db::Layout *ly = r->layout ();
tl_assert (ly != 0);
return db::CplxTrans (ly->dbu ()) * r->trans () * db::VCplxTrans (1.0 / ly->dbu ());
}
static void set_targets1 (db::RecursiveInstanceIterator *r, const std::vector<db::cell_index_type> &cells)
{
std::set<db::cell_index_type> cc;
cc.insert (cells.begin (), cells.end ());
r->set_targets (cc);
}
static db::DCplxTrans inst_dtrans (const db::RecursiveInstanceIterator *r)
{
const db::Layout *ly = r->layout ();
tl_assert (ly != 0);
return db::CplxTrans (ly->dbu ()) * (*r)->complex_trans () * db::VCplxTrans (1.0 / ly->dbu ());
}
static db::ICplxTrans inst_trans (const db::RecursiveInstanceIterator *r)
{
return (*r)->complex_trans ();
}
static db::Cell *inst_cell (const db::RecursiveInstanceIterator *r)
{
const db::Layout *ly = r->layout ();
tl_assert (ly != 0);
return const_cast<db::Cell *> (&ly->cell ((*r)->inst_ptr.cell_index ()));
}
static void set_targets2 (db::RecursiveInstanceIterator *r, const std::string &pattern)
{
tl::GlobPattern p (pattern);
std::set<db::cell_index_type> cc;
for (db::Layout::const_iterator ci = r->layout ()->begin (); ci != r->layout ()->end (); ++ci) {
if (p.match (r->layout ()->cell_name (ci->cell_index ()))) {
cc.insert (ci->cell_index ());
}
}
r->set_targets (cc);
}
static void select_cells1 (db::RecursiveInstanceIterator *r, const std::vector<db::cell_index_type> &cells)
{
std::set<db::cell_index_type> cc;
cc.insert (cells.begin (), cells.end ());
r->select_cells (cc);
}
static void select_cells2 (db::RecursiveInstanceIterator *r, const std::string &pattern)
{
tl::GlobPattern p (pattern);
std::set<db::cell_index_type> cc;
for (db::Layout::const_iterator ci = r->layout ()->begin (); ci != r->layout ()->end (); ++ci) {
if (p.match (r->layout ()->cell_name (ci->cell_index ()))) {
cc.insert (ci->cell_index ());
}
}
r->select_cells (cc);
}
static void unselect_cells1 (db::RecursiveInstanceIterator *r, const std::vector<db::cell_index_type> &cells)
{
std::set<db::cell_index_type> cc;
cc.insert (cells.begin (), cells.end ());
r->unselect_cells (cc);
}
static void unselect_cells2 (db::RecursiveInstanceIterator *r, const std::string &pattern)
{
tl::GlobPattern p (pattern);
std::set<db::cell_index_type> cc;
for (db::Layout::const_iterator ci = r->layout ()->begin (); ci != r->layout ()->end (); ++ci) {
if (p.match (r->layout ()->cell_name (ci->cell_index ()))) {
cc.insert (ci->cell_index ());
}
}
r->unselect_cells (cc);
}
static db::Region complex_region (const db::RecursiveInstanceIterator *iter)
{
if (iter->has_complex_region ()) {
return iter->complex_region ();
} else {
return db::Region (iter->region ());
}
}
Class<db::RecursiveInstanceIterator> decl_RecursiveInstanceIterator ("db", "RecursiveInstanceIterator",
gsi::constructor ("new", &new_si1, gsi::arg ("layout"), gsi::arg ("cell"),
"@brief Creates a recursive instance iterator.\n"
"@param layout The layout which shall be iterated\n"
"@param cell The initial cell which shall be iterated (including its children)\n"
"@param layer The layer (index) from which the shapes are taken\n"
"\n"
"This constructor creates a new recursive instance iterator which delivers the instances of "
"the given cell plus its children.\n"
) +
gsi::constructor ("new", &new_si2, gsi::arg ("layout"), gsi::arg ("cell"), gsi::arg ("box"), gsi::arg ("overlapping", false),
"@brief Creates a recursive instance iterator with a search region.\n"
"@param layout The layout which shall be iterated\n"
"@param cell The initial cell which shall be iterated (including its children)\n"
"@param box The search region\n"
"@param overlapping If set to true, instances overlapping the search region are reported, otherwise touching is sufficient\n"
"\n"
"This constructor creates a new recursive instance iterator which delivers the instances of "
"the given cell plus its children.\n"
"\n"
"The search is confined to the region given by the \"box\" parameter. If \"overlapping\" is true, instances whose "
"bounding box is overlapping the search region are reported. If \"overlapping\" is false, instances whose "
"bounding box touches the search region are reported. The bounding box of instances is measured taking all layers "
"of the target cell into account.\n"
) +
gsi::constructor ("new", &new_si2a, gsi::arg ("layout"), gsi::arg ("cell"), gsi::arg ("region"), gsi::arg ("overlapping"),
"@brief Creates a recursive instance iterator with a search region.\n"
"@param layout The layout which shall be iterated\n"
"@param cell The initial cell which shall be iterated (including its children)\n"
"@param region The search region\n"
"@param overlapping If set to true, instances overlapping the search region are reported, otherwise touching is sufficient\n"
"\n"
"This constructor creates a new recursive instance iterator which delivers the instances of "
"the given cell plus its children.\n"
"\n"
"The search is confined to the region given by the \"region\" parameter. The region needs to be a rectilinear region.\n"
"If \"overlapping\" is true, instances whose "
"bounding box is overlapping the search region are reported. If \"overlapping\" is false, instances whose "
"bounding box touches the search region are reported. The bounding box of instances is measured taking all layers "
"of the target cell into account.\n"
) +
gsi::method ("max_depth=", (void (db::RecursiveInstanceIterator::*) (int)) &db::RecursiveInstanceIterator::max_depth, gsi::arg ("depth"),
"@brief Specifies the maximum hierarchy depth to look into\n"
"\n"
"A depth of 0 instructs the iterator to deliver only instances from the initial cell.\n"
"A higher depth instructs the iterator to look deeper.\n"
"The depth must be specified before the instances are being retrieved.\n"
) +
gsi::method ("max_depth", (int (db::RecursiveInstanceIterator::*) () const) &db::RecursiveInstanceIterator::max_depth,
"@brief Gets the maximum hierarchy depth\n"
"\n"
"See \\max_depth= for a description of that attribute.\n"
) +
gsi::method ("min_depth=", (void (db::RecursiveInstanceIterator::*) (int)) &db::RecursiveInstanceIterator::min_depth, gsi::arg ("depth"),
"@brief Specifies the minimum hierarchy depth to look into\n"
"\n"
"A depth of 0 instructs the iterator to deliver instances from the top level.\n"
"1 instructs to deliver instances from the first child level.\n"
"The minimum depth must be specified before the instances are being retrieved.\n"
) +
gsi::method ("min_depth", (int (db::RecursiveInstanceIterator::*) () const) &db::RecursiveInstanceIterator::min_depth,
"@brief Gets the minimum hierarchy depth\n"
"\n"
"See \\min_depth= for a description of that attribute.\n"
) +
gsi::method ("reset", &db::RecursiveInstanceIterator::reset,
"@brief Resets the iterator to the initial state\n"
) +
gsi::method ("reset_selection", &db::RecursiveInstanceIterator::reset_selection,
"@brief Resets the selection to the default state\n"
"\n"
"In the initial state, the top cell and its children are selected. Child cells can be switched on and off "
"together with their sub-hierarchy using \\select_cells and \\unselect_cells.\n"
"\n"
"This method will also reset the iterator.\n"
) +
gsi::method ("layout", &db::RecursiveInstanceIterator::layout,
"@brief Gets the layout this iterator is connected to\n"
) +
gsi::method ("top_cell", &db::RecursiveInstanceIterator::top_cell,
"@brief Gets the top cell this iterator is connected to\n"
) +
gsi::method ("region", &db::RecursiveInstanceIterator::region,
"@brief Gets the basic region that is iterator is using\n"
"The basic region is the overall box the region iterator iterates over. "
"There may be an additional complex region that confines the region iterator. "
"See \\complex_region for this attribute.\n"
) +
gsi::method_ext ("complex_region", &complex_region,
"@brief Gets the complex region that is iterator is using\n"
"The complex region is the effective region (a \\Region object) that the "
"iterator is selecting from the layout. This region can be a single box "
"or a complex region.\n"
) +
gsi::method ("region=", (void (db::RecursiveInstanceIterator::*)(const db::RecursiveInstanceIterator::box_type &)) &db::RecursiveInstanceIterator::set_region, gsi::arg ("box_region"),
"@brief Sets the rectangular region that is iterator is iterating over\n"
"See \\region for a description of this attribute.\n"
"Setting a simple region will reset the complex region to a rectangle and reset the iterator to "
"the beginning of the sequence."
) +
gsi::method ("region=", (void (db::RecursiveInstanceIterator::*)(const db::RecursiveInstanceIterator::region_type &)) &db::RecursiveInstanceIterator::set_region, gsi::arg ("complex_region"),
"@brief Sets the complex region that is iterator is using\n"
"See \\complex_region for a description of this attribute. Setting the complex region will "
"reset the basic region (see \\region) to the bounding box of the complex region and "
"reset the iterator to the beginning of the sequence.\n"
) +
gsi::method ("confine_region", (void (db::RecursiveInstanceIterator::*)(const db::RecursiveInstanceIterator::box_type &)) &db::RecursiveInstanceIterator::confine_region, gsi::arg ("box_region"),
"@brief Confines the region that is iterator is iterating over\n"
"This method is similar to setting the region (see \\region=), but will confine any region (complex or simple) already set. "
"Essentially it does a logical AND operation between the existing and given region. "
"Hence this method can only reduce a region, not extend it.\n"
) +
gsi::method ("confine_region", (void (db::RecursiveInstanceIterator::*)(const db::RecursiveInstanceIterator::region_type &)) &db::RecursiveInstanceIterator::confine_region, gsi::arg ("complex_region"),
"@brief Confines the region that is iterator is iterating over\n"
"This method is similar to setting the region (see \\region=), but will confine any region (complex or simple) already set. "
"Essentially it does a logical AND operation between the existing and given region. "
"Hence this method can only reduce a region, not extend it.\n"
) +
gsi::method ("overlapping?", &db::RecursiveInstanceIterator::overlapping,
"@brief Gets a flag indicating whether overlapping instances are selected when a region is used\n"
) +
gsi::method ("overlapping=", &db::RecursiveInstanceIterator::set_overlapping, gsi::arg ("region"),
"@brief Sets a flag indicating whether overlapping instances are selected when a region is used\n"
"\n"
"If this flag is false, instances touching the search region are returned.\n"
) +
gsi::method ("unselect_all_cells", &db::RecursiveInstanceIterator::unselect_all_cells,
"@brief Unselects all cells.\n"
"\n"
"This method will set the \"unselected\" mark on all cells. The effect is "
"that subsequent calls of \\select_cells will select only the specified cells, not "
"their children, because they are still unselected.\n"
"\n"
"This method will also reset the iterator.\n"
) +
gsi::method ("select_all_cells", &db::RecursiveInstanceIterator::select_all_cells,
"@brief Selects all cells.\n"
"\n"
"This method will set the \"selected\" mark on all cells. The effect is "
"that subsequent calls of \\unselect_cells will unselect only the specified cells, not "
"their children, because they are still unselected.\n"
"\n"
"This method will also reset the iterator.\n"
) +
gsi::method_ext ("unselect_cells", &unselect_cells1, gsi::arg ("cells"),
"@brief Unselects the given cells.\n"
"\n"
"This method will sets the \"unselected\" mark on the given cells. "
"That means that these cells or their child cells will not be visited, unless "
"they are marked as \"selected\" again with the \\select_cells method.\n"
"\n"
"The cells are given as a list of cell indexes.\n"
"\n"
"This method will also reset the iterator.\n"
) +
gsi::method_ext ("unselect_cells", &unselect_cells2, gsi::arg ("cells"),
"@brief Unselects the given cells.\n"
"\n"
"This method will sets the \"unselected\" mark on the given cells. "
"That means that these cells or their child cells will not be visited, unless "
"they are marked as \"selected\" again with the \\select_cells method.\n"
"\n"
"The cells are given as a glob pattern.\n"
"A glob pattern follows the syntax of "
"file names on the shell (i.e. \"A*\" are all cells starting with a letter \"A\").\n"
"\n"
"This method will also reset the iterator.\n"
) +
gsi::method_ext ("select_cells", &select_cells1, gsi::arg ("cells"),
"@brief Unselects the given cells.\n"
"\n"
"This method will sets the \"selected\" mark on the given cells. "
"That means that these cells or their child cells are visited, unless "
"they are marked as \"unselected\" again with the \\unselect_cells method.\n"
"\n"
"The cells are given as a list of cell indexes.\n"
"\n"
"This method will also reset the iterator.\n"
) +
gsi::method_ext ("select_cells", &select_cells2, gsi::arg ("cells"),
"@brief Unselects the given cells.\n"
"\n"
"This method will sets the \"selected\" mark on the given cells. "
"That means that these cells or their child cells are visited, unless "
"they are marked as \"unselected\" again with the \\unselect_cells method.\n"
"\n"
"The cells are given as a glob pattern.\n"
"A glob pattern follows the syntax of "
"file names on the shell (i.e. \"A*\" are all cells starting with a letter \"A\").\n"
"\n"
"This method will also reset the iterator.\n"
) +
gsi::method_ext ("targets=", &set_targets1, gsi::arg ("cells"),
"@brief Specifies the target cells.\n"
"\n"
"If target cells are specified, only instances of these cells are delivered. "
"This version takes a list of cell indexes for the targets. "
"By default, no target cell list is present and the instances of all cells "
"are delivered by the iterator. See \\all_targets_enabled? and \\enable_all_targets for "
"a description of this mode. Once a target list is specified, the iteration is "
"confined to the cells from this list."
"\n"
"The cells are given as a list of cell indexes.\n"
"\n"
"This method will also reset the iterator.\n"
) +
gsi::method_ext ("targets=", &set_targets2, gsi::arg ("cells"),
"@brief Specifies the target cells.\n"
"\n"
"If target cells are specified, only instances of these cells are delivered. "
"This version takes a cell list as a glob pattern. "
"A glob pattern follows the syntax of "
"file names on the shell (i.e. \"A*\" are all cells starting with a letter \"A\").\n"
"Use the curly-bracket notation to list different cells, e.g \"{A,B,C}\" for cells A, B and C.\n"
"\n"
"By default, no target cell list is present and the instances of all cells "
"are delivered by the iterator. See \\all_targets_enabled? and \\enable_all_targets for "
"a description of this mode. Once a target list is specified, the iteration is "
"confined to the cells from this list."
"\n"
"The cells are given as a list of cell indexes.\n"
"\n"
"This method will also reset the iterator.\n"
) +
gsi::method ("targets", &db::RecursiveInstanceIterator::targets,
"@brief Gets the list of target cells\n"
"See \\targets= for a description of the target cell concept. "
"This method returns a list of cell indexes of the selected target cells."
) +
gsi::method ("all_targets_enabled?", &db::RecursiveInstanceIterator::all_targets_enabled,
"@brief Gets a value indicating whether instances of all cells are reported\n"
"See \\targets= for a description of the target cell concept. "
) +
gsi::method ("enable_all_targets", &db::RecursiveInstanceIterator::enable_all_targets,
"@brief Enables 'all targets' mode in which instances of all cells are reported\n"
"See \\targets= for a description of the target cell concept. "
) +
gsi::method ("trans", &db::RecursiveInstanceIterator::trans,
"@brief Gets the accumulated transformation of the current instance parent cell to the top cell\n"
"\n"
"This transformation represents how the current instance is seen in the top cell.\n"
) +
gsi::method_ext ("dtrans", &gsi::si_dtrans,
"@brief Gets the accumulated transformation of the current instance parent cell to the top cell\n"
"\n"
"This transformation represents how the current instance is seen in the top cell.\n"
"This version returns the micon-unit transformation.\n"
) +
gsi::method ("at_end?", &db::RecursiveInstanceIterator::at_end,
"@brief End of iterator predicate\n"
"\n"
"Returns true, if the iterator is at the end of the sequence\n"
) +
gsi::method ("cell", &db::RecursiveInstanceIterator::cell,
"@brief Gets the cell the current instance sits in\n"
) +
gsi::method ("cell_index", &db::RecursiveInstanceIterator::cell_index,
"@brief Gets the index of the cell the current instance sits in\n"
"This is equivalent to 'cell.cell_index'."
) +
gsi::method_ext ("inst_trans", &inst_trans,
"@brief Gets the integer-unit transformation of the current instance\n"
"This is the transformation of the current instance inside its parent.\n"
"'trans * inst_trans' gives the full transformation how the current cell is seen in the top cell.\n"
"See also \\inst_dtrans and \\inst_cell.\n"
) +
gsi::method_ext ("inst_dtrans", &inst_dtrans,
"@brief Gets the micron-unit transformation of the current instance\n"
"This is the transformation of the current instance inside its parent.\n"
"'dtrans * inst_dtrans' gives the full micron-unit transformation how the current cell is seen in the top cell.\n"
"See also \\inst_trans and \\inst_cell.\n"
) +
gsi::method_ext ("inst_cell", &inst_cell,
"@brief Gets the target cell of the current instance\n"
"This is the cell the current instance refers to. It is one of the \\targets if a target list is given.\n"
) +
gsi::method ("current_inst_element", &db::RecursiveInstanceIterator::instance,
"@brief Gets the current instance\n"
"\n"
"This is the instance/array element the iterator currently refers to.\n"
"This is a \\InstElement object representing the current instance and the array element the iterator currently points at.\n"
"\n"
"See \\inst_trans, \\inst_dtrans and \\inst_cell for convenience methods to access the details of the current element.\n"
) +
gsi::method ("next", (void (db::RecursiveInstanceIterator::*) ()) &db::RecursiveInstanceIterator::next,
"@brief Increments the iterator\n"
"This moves the iterator to the next instance inside the search scope."
) +
gsi::method ("path", &db::RecursiveInstanceIterator::path,
"@brief Gets the instantatiation path of the instance addressed currently\n"
"\n"
"This attribute is a sequence of \\InstElement objects describing the cell instance path from the initial "
"cell to the current instance. The path is empty if the current instance is in the top cell.\n"
) +
gsi::method ("==", &db::RecursiveInstanceIterator::operator==, gsi::arg ("other"),
"@brief Comparison of iterators - equality\n"
"\n"
"Two iterators are equal if they point to the same instance.\n"
) +
gsi::method ("!=", &db::RecursiveInstanceIterator::operator!=, gsi::arg ("other"),
"@brief Comparison of iterators - inequality\n"
"\n"
"Two iterators are not equal if they do not point to the same instance.\n"
),
"@brief An iterator delivering instances recursively\n"
"\n"
"The iterator can be obtained from a cell and optionally a region.\n"
"It simplifies retrieval of instances while considering\n"
"subcells as well.\n"
"Some options can be specified in addition, i.e. the hierarchy level to which to look into.\n"
"The search can be confined to instances of certain cells (see \\targets=) or to certain regions. "
"Subtrees can be selected for traversal or excluded from it (see \\select_cells).\n"
"\n"
"This is some sample code:\n"
"\n"
"@code\n"
"# prints the effective instances of cell \"A\" as seen from the initial cell \"cell\"\n"
"iter = cell.begin_instances_rec\n"
"iter.targets = \"A\"\n"
"while !iter.at_end?\n"
" puts \"Instance of #{iter.inst_cell.name} in #{cell.name}: \" + (iter.dtrans * iter.inst_dtrans).to_s\n"
" iter.next\n"
"end\n"
"@/code\n"
"\n"
"Here, a target cell is specified which confines the search to instances of this particular cell.\n"
"'iter.dtrans' gives us the accumulated transformation of all parents up to the top cell. "
"'iter.inst_dtrans' gives us the transformation from the current instance. "
"'iter.inst_cell' finally gives us the target cell of the current instance (which is always 'A' in our case).\n"
"\n"
"\\Cell offers three methods to get these iterators: begin_instances_rec, begin_instances_rec_touching and begin_instances_rec_overlapping.\n"
"\\Cell#begin_instances_rec will deliver a standard recursive instance iterator which starts from the given cell and iterates "
"over all child cells. \\Cell#begin_instances_rec_touching creates a RecursiveInstanceIterator which delivers the instances "
"whose bounding boxed touch the given search box. \\Layout#begin_instances_rec_overlapping gives an iterator which delivers all instances whose bounding box "
"overlaps the search box.\n"
"\n"
"A RecursiveInstanceIterator object can also be created directly, like this:\n"
"\n"
"@code\n"
"iter = RBA::RecursiveInstanceIterator::new(layout, cell [, options ])\n"
"@/code\n"
"\n"
"\"layout\" is the layout object, \"cell\" the \\Cell object of the initial cell.\n"
"\n"
"The recursive instance iterator can be confined to a maximum hierarchy depth. By using \\max_depth=, the "
"iterator will restrict the search depth to the given depth in the cell tree.\n"
"In the same way, the iterator can be configured to start from a certain hierarchy depth using \\min_depth=. "
"The hierarchy depth always applies to the parent of the instances iterated.\n"
"\n"
"In addition, the recursive instance iterator supports selection and exclusion of subtrees. For that purpose "
"it keeps flags per cell telling it for which cells to turn instance delivery on and off. The \\select_cells method "
"sets the \"start delivery\" flag while \\unselect_cells sets the \"stop delivery\" flag. In effect, using "
"\\unselect_cells will exclude that cell plus the subtree from delivery. Parts of that subtree can be "
"turned on again using \\select_cells. For the cells selected that way, the instances of these cells and their "
"child cells are delivered, even if their parent was unselected.\n"
"\n"
"To get instances from a specific cell, i.e. \"MACRO\" plus its child cells, unselect the top cell first "
"and the select the desired cell again:\n"
"\n"
"@code\n"
"# deliver all instances inside \"MACRO\" and the sub-hierarchy:\n"
"iter = RBA::RecursiveInstanceIterator::new(layout, cell)\n"
"iter.unselect_cells(cell.cell_index)\n"
"iter.select_cells(\"MACRO\")\n"
"...\n"
"@/code\n"
"\n"
"The \\unselect_all_cells and \\select_all_cells methods turn on the \"stop\" and \"start\" flag "
"for all cells respectively. If you use \\unselect_all_cells and use \\select_cells for a specific cell, "
"the iterator will deliver only the instances of the selected cell, not its children. Those are still "
"unselected by \\unselect_all_cells:\n"
"\n"
"@code\n"
"# deliver all instance inside \"MACRO\" but not of child cells:\n"
"iter = RBA::RecursiveInstanceIterator::new(layout, cell)\n"
"iter.unselect_all_cells\n"
"iter.select_cells(\"MACRO\")\n"
"...\n"
"@/code\n"
"\n"
"Cell selection is done using cell indexes or glob pattern. Glob pattern are equivalent to the usual "
"file name wildcards used on various command line shells. For example \"A*\" matches all cells starting with "
"an \"A\". The curly brace notation and character classes are supported as well. For example \"C{125,512}\" matches "
"\"C125\" and \"C512\" and \"[ABC]*\" matches all cells starting with an \"A\", a \"B\" or \"C\". \"[^ABC]*\" matches "
"all cells not starting with one of that letters.\n"
"\n"
"To confine instance iteration to instances of certain cells, use the \\targets feature:\n"
"\n"
"@code\n"
"# deliver all instance of \"INV1\":\n"
"iter = RBA::RecursiveInstanceIterator::new(layout, cell)\n"
"iter.targets = \"INV1\"\n"
"...\n"
"@/code\n"
"\n"
"Targets can be specified either as lists of cell indexes or through a glob pattern.\n"
"\n"
"Instances are always delivered depth-first with child instances before their parents. A default recursive instance "
"iterator will first deliver leaf cells, followed by the parent of these cells.\n"
"\n"
"When a search region is used, instances whose bounding box touch or overlap (depending on 'overlapping' flag) will "
"be reported. The instance bounding box taken as reference is computed using all layers of the layout.\n"
"\n"
"The iterator will deliver the individual elements of instance arrays, confined to the search region if one is given. "
"Consequently the return value (\\current_inst_element) is an \\InstElement "
"object which is basically a combination of an \\Instance object and information about the current array element.\n"
"\\inst_cell, \\inst_trans and \\inst_dtrans are methods provided for convenience to access the current array member's transformation "
"and the target cell of the current instance.\n"
"\n"
"The RecursiveInstanceIterator class has been introduced in version 0.27.\n"
);
}

View File

@ -123,89 +123,89 @@ Class<db::RecursiveShapeIterator> decl_RecursiveShapeIterator ("db", "RecursiveS
gsi::constructor ("new", &new_si1, gsi::arg ("layout"), gsi::arg ("cell"), gsi::arg ("layer"),
"@brief Creates a recursive, single-layer shape iterator.\n"
"@param layout The layout which shall be iterated\n"
"@param cell The initial cell which shall be iterated (including it's children)\n"
"@param cell The initial cell which shall be iterated (including its children)\n"
"@param layer The layer (index) from which the shapes are taken\n"
"\n"
"This constructor creates a new recursive shape iterator which delivers the shapes of "
"the given cell plus it's children from the layer given by the layer index in the \"layer\" parameter.\n"
"the given cell plus its children from the layer given by the layer index in the \"layer\" parameter.\n"
"\n"
"This constructor has been introduced in version 0.23.\n"
) +
gsi::constructor ("new", &new_si2, gsi::arg ("layout"), gsi::arg ("cell"), gsi::arg ("layers"),
"@brief Creates a recursive, multi-layer shape iterator.\n"
"@param layout The layout which shall be iterated\n"
"@param cell The initial cell which shall be iterated (including it's children)\n"
"@param cell The initial cell which shall be iterated (including its children)\n"
"@param layers The layer indexes from which the shapes are taken\n"
"\n"
"This constructor creates a new recursive shape iterator which delivers the shapes of "
"the given cell plus it's children from the layers given by the layer indexes in the \"layers\" parameter.\n"
"the given cell plus its children from the layers given by the layer indexes in the \"layers\" parameter.\n"
"While iterating use the \\layer method to retrieve the layer of the current shape.\n"
"\n"
"This constructor has been introduced in version 0.23.\n"
) +
gsi::constructor ("new", &new_si3, gsi::arg ("layout"), gsi::arg ("cell"), gsi::arg ("layer"), gsi::arg ("box"), gsi::arg ("overlapping"),
gsi::constructor ("new", &new_si3, gsi::arg ("layout"), gsi::arg ("cell"), gsi::arg ("layer"), gsi::arg ("box"), gsi::arg ("overlapping", false),
"@brief Creates a recursive, single-layer shape iterator with a region.\n"
"@param layout The layout which shall be iterated\n"
"@param cell The initial cell which shall be iterated (including it's children)\n"
"@param cell The initial cell which shall be iterated (including its children)\n"
"@param layer The layer (index) from which the shapes are taken\n"
"@param box The search region\n"
"@param overlapping If set to true, shapes overlapping the search region are reported, otherwise touching is sufficient\n"
"\n"
"This constructor creates a new recursive shape iterator which delivers the shapes of "
"the given cell plus it's children from the layer given by the layer index in the \"layer\" parameter.\n"
"the given cell plus its children from the layer given by the layer index in the \"layer\" parameter.\n"
"\n"
"The search is confined to the region given by the \"box\" parameter. If \"overlapping\" is true, shapes whose "
"bounding box is overlapping the search region are reported. If \"overlapping\" is false, shapes whose "
"bounding box touches the search region are reported.\n"
"\n"
"This constructor has been introduced in version 0.23.\n"
"This constructor has been introduced in version 0.23. The 'overlapping' parameter has been made optional in version 0.27.\n"
) +
gsi::constructor ("new", &new_si3a, gsi::arg ("layout"), gsi::arg ("cell"), gsi::arg ("layer"), gsi::arg ("region"), gsi::arg ("overlapping"),
gsi::constructor ("new", &new_si3a, gsi::arg ("layout"), gsi::arg ("cell"), gsi::arg ("layer"), gsi::arg ("region"), gsi::arg ("overlapping", false),
"@brief Creates a recursive, single-layer shape iterator with a region.\n"
"@param layout The layout which shall be iterated\n"
"@param cell The initial cell which shall be iterated (including it's children)\n"
"@param cell The initial cell which shall be iterated (including its children)\n"
"@param layer The layer (index) from which the shapes are taken\n"
"@param region The search region\n"
"@param overlapping If set to true, shapes overlapping the search region are reported, otherwise touching is sufficient\n"
"\n"
"This constructor creates a new recursive shape iterator which delivers the shapes of "
"the given cell plus it's children from the layer given by the layer index in the \"layer\" parameter.\n"
"the given cell plus its children from the layer given by the layer index in the \"layer\" parameter.\n"
"\n"
"The search is confined to the region given by the \"region\" parameter. The region needs to be a rectilinear region.\n"
"If \"overlapping\" is true, shapes whose "
"bounding box is overlapping the search region are reported. If \"overlapping\" is false, shapes whose "
"bounding box touches the search region are reported.\n"
"\n"
"This constructor has been introduced in version 0.25.\n"
"This constructor has been introduced in version 0.25. The 'overlapping' parameter has been made optional in version 0.27.\n"
) +
gsi::constructor ("new", &new_si4, gsi::arg ("layout"), gsi::arg ("cell"), gsi::arg ("layers"), gsi::arg ("box"), gsi::arg ("overlapping"),
gsi::constructor ("new", &new_si4, gsi::arg ("layout"), gsi::arg ("cell"), gsi::arg ("layers"), gsi::arg ("box"), gsi::arg ("overlapping", false),
"@brief Creates a recursive, multi-layer shape iterator with a region.\n"
"@param layout The layout which shall be iterated\n"
"@param cell The initial cell which shall be iterated (including it's children)\n"
"@param cell The initial cell which shall be iterated (including its children)\n"
"@param layers The layer indexes from which the shapes are taken\n"
"@param box The search region\n"
"@param overlapping If set to true, shapes overlapping the search region are reported, otherwise touching is sufficient\n"
"\n"
"This constructor creates a new recursive shape iterator which delivers the shapes of "
"the given cell plus it's children from the layers given by the layer indexes in the \"layers\" parameter.\n"
"the given cell plus its children from the layers given by the layer indexes in the \"layers\" parameter.\n"
"While iterating use the \\layer method to retrieve the layer of the current shape.\n"
"\n"
"The search is confined to the region given by the \"box\" parameter. If \"overlapping\" is true, shapes whose "
"bounding box is overlapping the search region are reported. If \"overlapping\" is false, shapes whose "
"bounding box touches the search region are reported.\n"
"\n"
"This constructor has been introduced in version 0.23.\n"
"This constructor has been introduced in version 0.23. The 'overlapping' parameter has been made optional in version 0.27.\n"
) +
gsi::constructor ("new", &new_si4a, gsi::arg ("layout"), gsi::arg ("cell"), gsi::arg ("layers"), gsi::arg ("region"), gsi::arg ("overlapping"),
gsi::constructor ("new", &new_si4a, gsi::arg ("layout"), gsi::arg ("cell"), gsi::arg ("layers"), gsi::arg ("region"), gsi::arg ("overlapping", false),
"@brief Creates a recursive, multi-layer shape iterator with a region.\n"
"@param layout The layout which shall be iterated\n"
"@param cell The initial cell which shall be iterated (including it's children)\n"
"@param cell The initial cell which shall be iterated (including its children)\n"
"@param layers The layer indexes from which the shapes are taken\n"
"@param region The search region\n"
"@param overlapping If set to true, shapes overlapping the search region are reported, otherwise touching is sufficient\n"
"\n"
"This constructor creates a new recursive shape iterator which delivers the shapes of "
"the given cell plus it's children from the layers given by the layer indexes in the \"layers\" parameter.\n"
"the given cell plus its children from the layers given by the layer indexes in the \"layers\" parameter.\n"
"While iterating use the \\layer method to retrieve the layer of the current shape.\n"
"\n"
"The search is confined to the region given by the \"region\" parameter. The region needs to be a rectilinear region.\n"
@ -213,10 +213,10 @@ Class<db::RecursiveShapeIterator> decl_RecursiveShapeIterator ("db", "RecursiveS
"bounding box is overlapping the search region are reported. If \"overlapping\" is false, shapes whose "
"bounding box touches the search region are reported.\n"
"\n"
"This constructor has been introduced in version 0.23.\n"
"This constructor has been introduced in version 0.23. The 'overlapping' parameter has been made optional in version 0.27.\n"
) +
gsi::method ("max_depth=", (void (db::RecursiveShapeIterator::*) (int)) &db::RecursiveShapeIterator::max_depth, gsi::arg ("depth"),
"@brief Specify the maximum hierarchy depth to look into\n"
"@brief Specifies the maximum hierarchy depth to look into\n"
"\n"
"A depth of 0 instructs the iterator to deliver only shapes from the initial cell.\n"
"The depth must be specified before the shapes are being retrieved.\n"
@ -229,7 +229,23 @@ Class<db::RecursiveShapeIterator> decl_RecursiveShapeIterator ("db", "RecursiveS
"\n"
"This method has been introduced in version 0.23.\n"
) +
gsi::method ("reset", &db::RecursiveShapeIterator::reset,
gsi::method ("min_depth=", (void (db::RecursiveShapeIterator::*) (int)) &db::RecursiveShapeIterator::min_depth, gsi::arg ("depth"),
"@brief Specifies the minimum hierarchy depth to look into\n"
"\n"
"A depth of 0 instructs the iterator to deliver shapes from the top level.\n"
"1 instructs to deliver shapes from the first child level.\n"
"The minimum depth must be specified before the shapes are being retrieved.\n"
"\n"
"This method has been introduced in version 0.27.\n"
) +
gsi::method ("min_depth", (int (db::RecursiveShapeIterator::*) () const) &db::RecursiveShapeIterator::min_depth,
"@brief Gets the minimum hierarchy depth\n"
"\n"
"See \\min_depth= for a description of that attribute.\n"
"\n"
"This method has been introduced in version 0.27.\n"
) +
gsi::method ("reset", &db::RecursiveShapeIterator::reset,
"@brief Resets the iterator to the initial state\n"
"\n"
"This method has been introduced in version 0.23.\n"
@ -237,7 +253,7 @@ Class<db::RecursiveShapeIterator> decl_RecursiveShapeIterator ("db", "RecursiveS
gsi::method ("reset_selection", &db::RecursiveShapeIterator::reset_selection,
"@brief Resets the selection to the default state\n"
"\n"
"In the initial state, the top cell and it's children are selected. Child cells can be switched on and off "
"In the initial state, the top cell and its children are selected. Child cells can be switched on and off "
"together with their sub-hierarchy using \\select_cells and \\unselect_cells.\n"
"\n"
"This method will also reset the iterator.\n"
@ -436,7 +452,7 @@ Class<db::RecursiveShapeIterator> decl_RecursiveShapeIterator ("db", "RecursiveS
"@brief Gets the current cell's index \n"
) +
gsi::method ("next", (void (db::RecursiveShapeIterator::*) ()) &db::RecursiveShapeIterator::next,
"@brief Increment the iterator\n"
"@brief Increments the iterator\n"
"This moves the iterator to the next shape inside the search scope."
) +
gsi::method ("layer", &db::RecursiveShapeIterator::layer,
@ -462,12 +478,12 @@ Class<db::RecursiveShapeIterator> decl_RecursiveShapeIterator ("db", "RecursiveS
"\n"
"Two iterators are not equal if they do not point to the same shape.\n"
),
"@brief An iterator delivering shapes that touch or overlap the given region recursively\n"
"@brief An iterator delivering shapes recursively\n"
"\n"
"The iterator can be obtained from a layout, specifying a starting cell, a layer and optionally a region.\n"
"The iterator can be obtained from a cell, a layer and optionally a region.\n"
"It simplifies retrieval of shapes from a geometrical region while considering\n"
"subcells as well.\n"
"Some options can be specified, i.e. the level to which to look into or\n"
"Some options can be specified in addition, i.e. the level to which to look into or\n"
"shape classes and shape properties. The shapes are retrieved by using the \\shape method,\n"
"\\next moves to the next shape and \\at_end tells, if the iterator has move shapes to deliver.\n"
"\n"
@ -475,7 +491,7 @@ Class<db::RecursiveShapeIterator> decl_RecursiveShapeIterator ("db", "RecursiveS
"\n"
"@code\n"
"# print the polygon-like objects as seen from the initial cell \"cell\"\n"
"iter = layout.begin_shapes(cell_index, layer)\n"
"iter = cell.begin_shapes_rec(layer)\n"
"while !iter.at_end?\n"
" if iter.shape.renders_polygon?\n"
" polygon = iter.shape.polygon.transformed(iter.itrans)\n"
@ -485,10 +501,10 @@ Class<db::RecursiveShapeIterator> decl_RecursiveShapeIterator ("db", "RecursiveS
"end\n"
"@/code\n"
"\n"
"\\Layout offers three methods to get these iterators: begin_shapes, begin_shapes_touching and begin_shapes_overlapping.\n"
"\\Layout#begin_shapes will deliver a standard recursive shape iterator which starts from the given cell and iterates "
"over all child cells. \\Layout#begin_shapes_touching delivers a RecursiveShapeIterator which delivers the shapes "
"whose bounding boxed touch the given search box. \\Layout#begin_shapes_overlapping delivers all shapes whose bounding box "
"\\Cell offers three methods to get these iterators: begin_shapes_rec, begin_shapes_rec_touching and begin_shapes_rec_overlapping.\n"
"\\Cell#begin_shapes_rec will deliver a standard recursive shape iterator which starts from the given cell and iterates "
"over all child cells. \\Cell#begin_shapes_rec_touching delivers a RecursiveShapeIterator which delivers the shapes "
"whose bounding boxed touch the given search box. \\Cell#begin_shapes_rec_overlapping delivers all shapes whose bounding box "
"overlaps the search box.\n"
"\n"
"A RecursiveShapeIterator object can also be created explicitly. This allows some more options, i.e. using "
@ -510,7 +526,7 @@ Class<db::RecursiveShapeIterator> decl_RecursiveShapeIterator ("db", "RecursiveS
"sets the \"start delivery\" flag while \\unselect_cells sets the \"stop delivery\" flag. In effect, using "
"\\unselect_cells will exclude that cell plus the subtree from delivery. Parts of that subtree can be "
"turned on again using \\select_cells. For the cells selected that way, the shapes of these cells and their "
"child cells are delivered, even if their parents was unselected.\n"
"child cells are delivered, even if their parent was unselected.\n"
"\n"
"To get shapes from a specific cell, i.e. \"MACRO\" plus its child cells, unselect the top cell first "
"and the select the desired cell again:\n"

View File

@ -41,7 +41,7 @@ std::string collect(db::RecursiveInstanceIterator &s, const db::Layout &layout)
} else {
res += "[]";
}
res += s->to_string (true);
res += s->inst_ptr.to_string (true);
++s;
}
return res;
@ -126,13 +126,13 @@ TEST(1)
x = collect_with_copy(i1_12, g);
EXPECT_EQ (x, "[$1]$2 r0 0,0/[$3]$4 r0 1100,0/[$1]$3 r0 100,-100");
db::RecursiveInstanceIterator i1_22 (g, c0, db::Box (0, 0, 100, 100));
db::RecursiveInstanceIterator i1_22 (g, c0, db::Box (0, 0, 2000, 100));
i1_22.min_depth(1);
i1_22.max_depth(1);
x = collect(i1_22, g);
EXPECT_EQ (x, "");
EXPECT_EQ (x, "[$3]$4 r0 1100,0");
x = collect_with_copy(i1_22, g);
EXPECT_EQ (x, "");
EXPECT_EQ (x, "[$3]$4 r0 1100,0");
db::RecursiveInstanceIterator i1o (g, c0, db::Box (0, 0, 100, 100), true);
x = collect(i1o, g);
@ -350,7 +350,7 @@ TEST(2)
std::set<db::Box> selected_boxes2;
for (db::RecursiveInstanceIterator iter = db::RecursiveInstanceIterator (g, c0, search_box, true); !iter.at_end (); ++iter) {
selected_boxes.insert (iter.trans () * iter->bbox ());
selected_boxes.insert (iter.trans () * iter->inst_ptr.bbox ());
}
for (std::set<db::Box>::const_iterator b = boxes.begin (); b != boxes.end (); ++b) {
@ -382,7 +382,7 @@ TEST(2)
reg.insert (search_box2);
for (db::RecursiveInstanceIterator iter = db::RecursiveInstanceIterator (g, c0, reg, true); !iter.at_end (); ++iter) {
selected_boxes.insert (iter.trans () * iter->bbox ());
selected_boxes.insert (iter.trans () * iter->bbox (db::box_convert<db::CellInst> (g)));
}
for (std::set<db::Box>::const_iterator b = boxes.begin (); b != boxes.end (); ++b) {
@ -451,7 +451,7 @@ TEST(3)
int n = 0;
for ( ; !iter.at_end (); ++iter) {
++n;
selected_boxes.insert (iter.trans () * iter->bbox ());
selected_boxes.insert (iter.trans () * iter->bbox (db::box_convert<db::CellInst> (g)));
}
int nn = 0;
@ -487,7 +487,7 @@ TEST(3)
reg.insert (search_box2);
for (db::RecursiveInstanceIterator iter = db::RecursiveInstanceIterator (g, c0, reg, true); !iter.at_end (); ++iter) {
selected_boxes.insert (iter.trans () * iter->bbox ());
selected_boxes.insert (iter.trans () * iter->bbox (db::box_convert<db::CellInst> (g)));
}
for (std::set<db::Box>::const_iterator b = boxes.begin (); b != boxes.end (); ++b) {
@ -556,7 +556,7 @@ TEST(4)
int n = 0;
for ( ; !iter.at_end (); ++iter) {
++n;
selected_boxes.insert (iter.trans () * iter->bbox ());
selected_boxes.insert (iter.trans () * iter->bbox (db::box_convert<db::CellInst> (g)));
}
int nn = 0;
@ -592,7 +592,7 @@ TEST(4)
reg.insert (search_box2);
for (db::RecursiveInstanceIterator iter = db::RecursiveInstanceIterator (g, c0, reg); !iter.at_end (); ++iter) {
selected_boxes.insert (iter.trans () * iter->bbox ());
selected_boxes.insert (iter.trans () * iter->bbox (db::box_convert<db::CellInst> (g)));
}
for (std::set<db::Box>::const_iterator b = boxes.begin (); b != boxes.end (); ++b) {

View File

@ -106,6 +106,8 @@ RUBYTEST (dbInstElementTest, "dbInstElementTest.rb")
RUBYTEST (dbLayerMapping, "dbLayerMapping.rb")
RUBYTEST (dbLibrary, "dbLibrary.rb")
RUBYTEST (dbLayout, "dbLayout.rb")
RUBYTEST (dbRecursiveShapeIterator, "dbRecursiveShapeIterator.rb")
RUBYTEST (dbRecursiveInstanceIterator, "dbRecursiveInstanceIterator.rb")
RUBYTEST (dbLayoutTest, "dbLayoutTest.rb")
RUBYTEST (dbLayoutDiff, "dbLayoutDiff.rb")
RUBYTEST (dbLayoutQuery, "dbLayoutQuery.rb")

View File

@ -335,212 +335,6 @@ class DBLayout_TestClass < TestBase
end
def test_5
# Recursive shape iterator tests
l = RBA::Layout.new
l.insert_layer_at(0, RBA::LayerInfo.new(1, 0))
l.insert_layer_at(1, RBA::LayerInfo.new(2, 0))
c0 = l.cell(l.add_cell("c0"))
c1 = l.cell(l.add_cell("c1"))
c2 = l.cell(l.add_cell("c2"))
c3 = l.cell(l.add_cell("c3"))
b = RBA::Box.new(0, 100, 1000, 1200)
c0.shapes(0).insert(b)
c1.shapes(0).insert(b)
c2.shapes(0).insert(b)
c3.shapes(0).insert(b)
bb = RBA::Box.new(1, 101, 1001, 1201)
c3.shapes(1).insert(bb)
tt = RBA::Trans.new
c0.insert(RBA::CellInstArray.new(c1.cell_index, tt))
c0.insert(RBA::CellInstArray.new(c2.cell_index, RBA::Trans.new(RBA::Point.new(100, -100))))
c0.insert(RBA::CellInstArray.new(c3.cell_index, RBA::Trans.new(1)))
c2.insert(RBA::CellInstArray.new(c3.cell_index, RBA::Trans.new(RBA::Point.new(1100, 0))))
i1 = l.begin_shapes_touching(c0.cell_index, 0, RBA::Box.new(0, 0, 100, 100))
i1copy = i1.dup
assert_equal(i1copy.overlapping?, false)
assert_equal(collect(i1, l), "[c0](0,100;1000,1200)/[c1](0,100;1000,1200)/[c2](100,0;1100,1100)")
i1.reset
assert_equal(dcollect(i1, l), "[c0](0,0.1;1,1.2)/[c1](0,0.1;1,1.2)/[c2](0.1,0;1.1,1.1)")
assert_equal(collect(i1copy, l), "[c0](0,100;1000,1200)/[c1](0,100;1000,1200)/[c2](100,0;1100,1100)")
i1 = l.begin_shapes_touching(c0.cell_index, 0, RBA::DBox.new(0, 0, 0.100, 0.100))
assert_equal(collect(i1, l), "[c0](0,100;1000,1200)/[c1](0,100;1000,1200)/[c2](100,0;1100,1100)")
i1 = c0.begin_shapes_rec_touching(0, RBA::Box.new(0, 0, 100, 100))
assert_equal(collect(i1, l), "[c0](0,100;1000,1200)/[c1](0,100;1000,1200)/[c2](100,0;1100,1100)")
i1 = c0.begin_shapes_rec_touching(0, RBA::DBox.new(0, 0, 0.100, 0.100))
assert_equal(collect(i1, l), "[c0](0,100;1000,1200)/[c1](0,100;1000,1200)/[c2](100,0;1100,1100)")
i1o = l.begin_shapes_overlapping(c0.cell_index, 0, RBA::Box.new(0, 0, 100, 100));
assert_equal(collect(i1o, l), "");
i1o = l.begin_shapes_overlapping(c0.cell_index, 0, RBA::DBox.new(0, 0, 0.100, 0.100));
assert_equal(collect(i1o, l), "");
i1copy.overlapping = true
assert_equal(i1copy.overlapping?, true)
assert_equal(collect(i1copy, l), "");
i1o = l.begin_shapes_overlapping(c0.cell_index, 0, RBA::Box.new(0, 0, 100, 101));
assert_equal(collect(i1o, l), "[c0](0,100;1000,1200)/[c1](0,100;1000,1200)");
i1o = l.begin_shapes_overlapping(c0.cell_index, 0, RBA::DBox.new(0, 0, 0.100, 0.101));
assert_equal(collect(i1o, l), "[c0](0,100;1000,1200)/[c1](0,100;1000,1200)");
i1copy.region = RBA::Box.new(0, 0, 100, 101)
assert_equal(i1copy.region.to_s, "(0,0;100,101)")
assert_equal(collect(i1copy, l), "[c0](0,100;1000,1200)/[c1](0,100;1000,1200)");
i1copy.region = RBA::Region::new(RBA::Box.new(0, 0, 100, 101))
assert_equal(i1copy.region.to_s, "(0,0;100,101)")
assert_equal(collect(i1copy, l), "[c0](0,100;1000,1200)/[c1](0,100;1000,1200)");
i1copy.region = RBA::Box.new(-1000, -1000, 1100, 1101)
i1copy.confine_region(RBA::Box.new(0, 0, 100, 101))
assert_equal(i1copy.region.to_s, "(0,0;100,101)")
assert_equal(collect(i1copy, l), "[c0](0,100;1000,1200)/[c1](0,100;1000,1200)");
i1copy.region = RBA::Box.new(-1000, -1000, 1100, 1101)
i1copy.confine_region(RBA::Region::new(RBA::Box.new(0, 0, 100, 101)))
assert_equal(i1copy.region.to_s, "(0,0;100,101)")
assert_equal(collect(i1copy, l), "[c0](0,100;1000,1200)/[c1](0,100;1000,1200)");
i1o = l.begin_shapes_overlapping(c0.cell_index, 0, RBA::Box.new(0, 0, 101, 101));
assert_equal(collect(i1o, l), "[c0](0,100;1000,1200)/[c1](0,100;1000,1200)/[c2](100,0;1100,1100)");
i1o = c0.begin_shapes_rec_overlapping(0, RBA::Box.new(0, 0, 101, 101));
assert_equal(collect(i1o, l), "[c0](0,100;1000,1200)/[c1](0,100;1000,1200)/[c2](100,0;1100,1100)");
i2 = l.begin_shapes_touching(c0.cell_index, 0, RBA::Box.new(-100, 0, 100, 100));
assert_equal(collect(i2, l), "[c0](0,100;1000,1200)/[c1](0,100;1000,1200)/[c2](100,0;1100,1100)/[c3](-1200,0;-100,1000)");
i2o = l.begin_shapes_overlapping(c0.cell_index, 0, RBA::Box.new(-100, 0, 100, 100));
assert_equal(collect(i2o, l), "");
i2o = l.begin_shapes_overlapping(c0.cell_index, 0, RBA::Box.new(-101, 0, 101, 101));
assert_equal(collect(i2o, l), "[c0](0,100;1000,1200)/[c1](0,100;1000,1200)/[c2](100,0;1100,1100)/[c3](-1200,0;-100,1000)");
i4 = l.begin_shapes_touching(c0.cell_index, 0, RBA::Box.new(-100, 0, 2000, 100));
i4_copy = l.begin_shapes_touching(c0.cell_index, 0, RBA::Box.new(-100, 0, 2000, 100));
i4.max_depth = 0;
assert_equal(collect(i4, l), "[c0](0,100;1000,1200)");
assert_equal(i4 == i4, true);
assert_equal(i4 != i4, false);
assert_equal(i4 == i4_copy, false);
assert_equal(i4 != i4_copy, true);
i4 = i4_copy.dup;
assert_equal(i4 == i4_copy, true);
assert_equal(i4 != i4_copy, false);
i4.max_depth = 1;
assert_equal(collect(i4, l), "[c0](0,100;1000,1200)/[c1](0,100;1000,1200)/[c2](100,0;1100,1100)/[c3](-1200,0;-100,1000)");
i4.assign(i4_copy);
assert_equal(collect(i4, l), "[c0](0,100;1000,1200)/[c1](0,100;1000,1200)/[c2](100,0;1100,1100)/[c3](1200,0;2200,1100)/[c3](-1200,0;-100,1000)");
i5 = l.begin_shapes(c0.cell_index, 0);
assert_equal(collect(i5, l), "[c0](0,100;1000,1200)/[c1](0,100;1000,1200)/[c2](100,0;1100,1100)/[c3](1200,0;2200,1100)/[c3](-1200,0;-100,1000)");
ii = RBA::RecursiveShapeIterator::new
assert_equal(collect(ii, l), "")
ii = RBA::RecursiveShapeIterator::new(l, c1, 0)
assert_equal(collect(ii, l), "[c1](0,100;1000,1200)")
assert_equal(ii.top_cell.name, "c1")
assert_equal(ii.layout == l, true)
ii = RBA::RecursiveShapeIterator::new(l, c2, [0, 1])
ic = ii.dup
assert_equal(collect(ii, l), "[c2](0,100;1000,1200)/[c3](1100,100;2100,1200)/[c3](1101,101;2101,1201)")
assert_equal(collect(ic, l), "[c2](0,100;1000,1200)/[c3](1100,100;2100,1200)/[c3](1101,101;2101,1201)")
ii = RBA::RecursiveShapeIterator::new(l, c2, 0, RBA::Box.new(-100, 0, 2000, 100), false)
assert_equal(collect(ii, l), "[c2](0,100;1000,1200)/[c3](1100,100;2100,1200)")
ii = RBA::RecursiveShapeIterator::new(l, c2, 0, RBA::Box.new(-100, 0, 2000, 100), true)
assert_equal(collect(ii, l), "")
ii = RBA::RecursiveShapeIterator::new(l, c2, 0, RBA::Box.new(-100, 0, 2000, 101), true)
assert_equal(collect(ii, l), "[c2](0,100;1000,1200)/[c3](1100,100;2100,1200)")
ii = RBA::RecursiveShapeIterator::new(l, c2, [0, 1], RBA::Box.new(-100, 0, 2000, 100), false)
assert_equal(collect(ii, l), "[c2](0,100;1000,1200)/[c3](1100,100;2100,1200)")
ii = RBA::RecursiveShapeIterator::new(l, c2, [0, 1], RBA::Box.new(-100, 0, 2000, 101), false)
assert_equal(collect(ii, l), "[c2](0,100;1000,1200)/[c3](1100,100;2100,1200)/[c3](1101,101;2101,1201)")
ii = RBA::RecursiveShapeIterator::new(l, c2, [0, 1], RBA::Box.new(-100, 0, 2000, 101), true)
assert_equal(collect(ii, l), "[c2](0,100;1000,1200)/[c3](1100,100;2100,1200)")
ii = RBA::RecursiveShapeIterator::new(l, c0, 0)
assert_equal(collect(ii, l), "[c0](0,100;1000,1200)/[c1](0,100;1000,1200)/[c2](100,0;1100,1100)/[c3](1200,0;2200,1100)/[c3](-1200,0;-100,1000)")
ii.reset
ii.unselect_cells("c0")
ii.select_cells("c2")
assert_equal(collect(ii, l), "[c2](100,0;1100,1100)/[c3](1200,0;2200,1100)")
ii.reset_selection
ii.unselect_cells("c*")
ii.select_cells([ c2.cell_index ])
assert_equal(collect(ii, l), "[c2](100,0;1100,1100)")
ii.reset_selection
ii.unselect_all_cells
ii.select_cells("c2")
assert_equal(collect(ii, l), "[c2](100,0;1100,1100)")
ii.reset_selection
ii.select_all_cells
ii.unselect_cells("c2")
assert_equal(collect(ii, l), "[c0](0,100;1000,1200)/[c1](0,100;1000,1200)/[c3](1200,0;2200,1100)/[c3](-1200,0;-100,1000)")
ii.reset_selection
ii.select_cells("c*")
ii.unselect_cells([ c1.cell_index, c2.cell_index ])
assert_equal(collect(ii, l), "[c0](0,100;1000,1200)/[c3](1200,0;2200,1100)/[c3](-1200,0;-100,1000)")
end
def test_5x
# Recursive shape iterator tests
l = RBA::Layout.new
l.insert_layer_at(0, RBA::LayerInfo.new(1, 0))
l.insert_layer_at(1, RBA::LayerInfo.new(2, 0))
c0 = l.cell(l.add_cell("c0"))
c1 = l.cell(l.add_cell("c1"))
c2 = l.cell(l.add_cell("c2"))
c3 = l.cell(l.add_cell("c3"))
b = RBA::Box.new(0, 100, 1000, 1200)
c3.shapes(0).insert(b)
bb = RBA::Box.new(1, 101, 1001, 1201)
c3.shapes(1).insert(bb)
tt = RBA::Trans.new
c0.insert(RBA::CellInstArray.new(c1.cell_index, tt))
c0.insert(RBA::CellInstArray.new(c2.cell_index, RBA::Trans.new(RBA::Point.new(100, -100))))
c0.insert(RBA::CellInstArray.new(c3.cell_index, RBA::Trans.new(1), RBA::Vector::new(10, 20), RBA::Vector::new(11, 21), 2, 3))
c2.insert(RBA::CellInstArray.new(c3.cell_index, RBA::Trans.new(RBA::Point.new(1100, 0))))
res = []
i = l.begin_shapes(c0.cell_index, 0)
while !i.at_end?
res << i.shape.box.transformed(i.trans).to_s + " " + i.path.collect { |e| "[" + l.cell(e.cell_inst.cell_index).name + " #" + e.ia.to_s + "," + e.ib.to_s + " -> " + e.specific_trans.to_s + "]" }.join("")
i.next
end
assert_equal(res.join("\n") + "\n", <<"END")
(1200,0;2200,1100) [c2 #-1,-1 -> r0 100,-100][c3 #-1,-1 -> r0 1100,0]
(-1200,0;-100,1000) [c3 #0,0 -> r90 0,0]
(-1190,20;-90,1020) [c3 #1,0 -> r90 10,20]
(-1189,21;-89,1021) [c3 #0,1 -> r90 11,21]
(-1179,41;-79,1041) [c3 #1,1 -> r90 21,41]
(-1178,42;-78,1042) [c3 #0,2 -> r90 22,42]
(-1168,62;-68,1062) [c3 #1,2 -> r90 32,62]
END
end
def collect_hier(l)
s = ""

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# encoding: UTF-8
# KLayout Layout Viewer
# Copyright (C) 2006-2021 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
if !$:.member?(File::dirname($0))
$:.push(File::dirname($0))
end
load("test_prologue.rb")
class DBLayout_TestClass < TestBase
def collect(s, l)
res = []
while !s.at_end?
r = "[#{s.inst_cell.name}]"
r += (s.trans * s.inst_trans).to_s
res.push(r)
s.next
end
return res.join("/")
end
def dcollect(s, l)
res = []
while !s.at_end?
r = "[#{s.inst_cell.name}]"
r += (s.dtrans * s.inst_dtrans).to_s
res.push(r)
s.next
end
return res.join("/")
end
def test_1
# Recursive instance iterator tests
l = RBA::Layout.new
l.insert_layer_at(0, RBA::LayerInfo.new(1, 0))
l.insert_layer_at(1, RBA::LayerInfo.new(2, 0))
c0 = l.cell(l.add_cell("c0"))
c1 = l.cell(l.add_cell("c1"))
c2 = l.cell(l.add_cell("c2"))
c3 = l.cell(l.add_cell("c3"))
b = RBA::Box.new(0, 100, 1000, 1200)
c0.shapes(0).insert(b)
c1.shapes(0).insert(b)
c2.shapes(0).insert(b)
c3.shapes(0).insert(b)
bb = RBA::Box.new(1, 101, 1001, 1201)
c3.shapes(1).insert(bb)
tt = RBA::Trans.new
c0.insert(RBA::CellInstArray.new(c1.cell_index, tt))
c0.insert(RBA::CellInstArray.new(c2.cell_index, RBA::Trans.new(RBA::Point.new(100, -100))))
c0.insert(RBA::CellInstArray.new(c3.cell_index, RBA::Trans.new(1)))
c2.insert(RBA::CellInstArray.new(c3.cell_index, RBA::Trans.new(RBA::Point.new(1100, 0))))
i1 = c0.begin_instances_rec_touching(RBA::Box.new(0, 0, 100, 100))
i1copy = i1.dup
assert_equal(i1copy.overlapping?, false)
assert_equal(collect(i1, l), "[c1]r0 *1 0,0/[c2]r0 *1 100,-100")
i1.reset
assert_equal(dcollect(i1, l), "[c1]r0 *1 0,0/[c2]r0 *1 0.1,-0.1")
assert_equal(collect(i1copy, l), "[c1]r0 *1 0,0/[c2]r0 *1 100,-100")
i1 = c0.begin_instances_rec_touching(RBA::DBox.new(0, 0, 0.100, 0.100))
assert_equal(collect(i1, l), "[c1]r0 *1 0,0/[c2]r0 *1 100,-100")
i1o = c0.begin_instances_rec_overlapping(RBA::Box.new(0, 0, 100, 100));
assert_equal(collect(i1o, l), "");
i1o = c0.begin_instances_rec_overlapping(RBA::DBox.new(0, 0, 0.100, 0.100));
assert_equal(collect(i1o, l), "");
i1copy.overlapping = true
assert_equal(i1copy.overlapping?, true)
assert_equal(collect(i1copy, l), "");
i1o = c0.begin_instances_rec_overlapping(RBA::Box.new(0, 0, 100, 101));
assert_equal(collect(i1o, l), "[c1]r0 *1 0,0");
i1o = c0.begin_instances_rec_overlapping(RBA::DBox.new(0, 0, 0.100, 0.101));
assert_equal(collect(i1o, l), "[c1]r0 *1 0,0");
i1copy.region = RBA::Box.new(0, 0, 100, 101)
assert_equal(i1copy.region.to_s, "(0,0;100,101)")
assert_equal(collect(i1copy, l), "[c1]r0 *1 0,0");
i1copy.region = RBA::Region::new(RBA::Box.new(0, 0, 100, 101))
assert_equal(i1copy.region.to_s, "(0,0;100,101)")
assert_equal(collect(i1copy, l), "[c1]r0 *1 0,0");
i1copy.region = RBA::Box.new(-1000, -1000, 1100, 1101)
i1copy.confine_region(RBA::Box.new(0, 0, 100, 101))
assert_equal(i1copy.region.to_s, "(0,0;100,101)")
assert_equal(collect(i1copy, l), "[c1]r0 *1 0,0");
i1copy.region = RBA::Box.new(-1000, -1000, 1100, 1101)
i1copy.confine_region(RBA::Region::new(RBA::Box.new(0, 0, 100, 101)))
assert_equal(i1copy.region.to_s, "(0,0;100,101)")
assert_equal(collect(i1copy, l), "[c1]r0 *1 0,0");
i1o = c0.begin_instances_rec_overlapping(RBA::Box.new(0, 0, 101, 101));
assert_equal(collect(i1o, l), "[c1]r0 *1 0,0/[c2]r0 *1 100,-100");
i1o = c0.begin_instances_rec_overlapping(RBA::Box.new(0, 0, 101, 101));
assert_equal(collect(i1o, l), "[c1]r0 *1 0,0/[c2]r0 *1 100,-100");
i2 = c0.begin_instances_rec_touching(RBA::Box.new(-100, 0, 100, 100));
assert_equal(collect(i2, l), "[c1]r0 *1 0,0/[c2]r0 *1 100,-100/[c3]r90 *1 0,0");
i2o = c0.begin_instances_rec_overlapping(RBA::Box.new(-100, 0, 100, 100));
assert_equal(collect(i2o, l), "");
i2o = c0.begin_instances_rec_overlapping(RBA::Box.new(-101, 0, 101, 101));
assert_equal(collect(i2o, l), "[c1]r0 *1 0,0/[c2]r0 *1 100,-100/[c3]r90 *1 0,0");
i4 = c0.begin_instances_rec_touching(RBA::Box.new(-100, 0, 2000, 100));
i4_copy = c0.begin_instances_rec_touching(RBA::Box.new(-100, 0, 2000, 100));
i4.max_depth = 0;
assert_equal(collect(i4, l), "[c1]r0 *1 0,0/[c2]r0 *1 100,-100/[c3]r90 *1 0,0");
assert_equal(i4 == i4, true);
assert_equal(i4 != i4, false);
assert_equal(i4 == i4_copy, false);
assert_equal(i4 != i4_copy, true);
i4 = i4_copy.dup
assert_equal(i4 == i4_copy, true);
assert_equal(i4 != i4_copy, false);
i4.max_depth = 1;
assert_equal(i4.max_depth, 1)
assert_equal(collect(i4, l), "[c1]r0 *1 0,0/[c3]r0 *1 1200,-100/[c2]r0 *1 100,-100/[c3]r90 *1 0,0");
i4.min_depth = 1;
assert_equal(i4.min_depth, 1)
assert_equal(collect(i4, l), "[c3]r0 *1 1200,-100");
i4.assign(i4_copy);
assert_equal(collect(i4, l), "[c1]r0 *1 0,0/[c3]r0 *1 1200,-100/[c2]r0 *1 100,-100/[c3]r90 *1 0,0");
i5 = c0.begin_instances_rec
assert_equal(collect(i5, l), "[c1]r0 *1 0,0/[c3]r0 *1 1200,-100/[c2]r0 *1 100,-100/[c3]r90 *1 0,0");
ii = RBA::RecursiveInstanceIterator::new
assert_equal(collect(ii, l), "")
ii = RBA::RecursiveInstanceIterator::new(l, c2)
assert_equal(collect(ii, l), "[c3]r0 *1 1100,0")
assert_equal(ii.top_cell.name, "c2")
assert_equal(ii.layout == l, true)
ii = RBA::RecursiveInstanceIterator::new(l, c0, RBA::Box.new(-100, 0, 2000, 100), false)
assert_equal(collect(ii, l), "[c1]r0 *1 0,0/[c3]r0 *1 1200,-100/[c2]r0 *1 100,-100/[c3]r90 *1 0,0")
ii = RBA::RecursiveInstanceIterator::new(l, c0, RBA::Box.new(-100, 0, 2000, 100), true)
assert_equal(collect(ii, l), "[c3]r0 *1 1200,-100/[c2]r0 *1 100,-100")
ii = RBA::RecursiveInstanceIterator::new(l, c0, RBA::Box.new(-100, 0, 2000, 101), true)
assert_equal(collect(ii, l), "[c1]r0 *1 0,0/[c3]r0 *1 1200,-100/[c2]r0 *1 100,-100")
ii = RBA::RecursiveInstanceIterator::new(l, c0, RBA::Region::new(RBA::Box.new(-100, 0, 2000, 101)), true)
assert_equal(collect(ii, l), "[c1]r0 *1 0,0/[c3]r0 *1 1200,-100/[c2]r0 *1 100,-100")
ii = RBA::RecursiveInstanceIterator::new(l, c0)
assert_equal(collect(ii, l), "[c1]r0 *1 0,0/[c3]r0 *1 1200,-100/[c2]r0 *1 100,-100/[c3]r90 *1 0,0")
ii.reset
ii.unselect_cells("c0")
ii.select_cells("c2")
assert_equal(collect(ii, l), "[c3]r0 *1 1200,-100")
ii.reset_selection
ii.unselect_cells("c*")
ii.select_cells([ c2.cell_index ])
assert_equal(collect(ii, l), "[c3]r0 *1 1200,-100")
ii.reset_selection
ii.unselect_all_cells
ii.select_cells("c2")
assert_equal(collect(ii, l), "[c3]r0 *1 1200,-100")
ii.reset_selection
ii.select_all_cells
ii.unselect_cells("c2")
assert_equal(collect(ii, l), "[c1]r0 *1 0,0/[c2]r0 *1 100,-100/[c3]r90 *1 0,0")
ii.reset_selection
ii.select_cells("c*")
ii.unselect_cells([ c1.cell_index, c2.cell_index ])
assert_equal(collect(ii, l), "[c1]r0 *1 0,0/[c2]r0 *1 100,-100/[c3]r90 *1 0,0")
ii = RBA::RecursiveInstanceIterator::new(l, c0)
assert_equal(ii.all_targets_enabled?, true)
ii.targets = "c3"
assert_equal(ii.all_targets_enabled?, false)
assert_equal(collect(ii, l), "[c3]r0 *1 1200,-100/[c3]r90 *1 0,0")
ii.enable_all_targets
assert_equal(ii.all_targets_enabled?, true)
assert_equal(collect(ii, l), "[c1]r0 *1 0,0/[c3]r0 *1 1200,-100/[c2]r0 *1 100,-100/[c3]r90 *1 0,0")
ii.targets = [ c3.cell_index, c1.cell_index ]
assert_equal(ii.all_targets_enabled?, false)
assert_equal(collect(ii, l), "[c1]r0 *1 0,0/[c3]r0 *1 1200,-100/[c3]r90 *1 0,0")
end
def test_2
# Recursive instance iterator tests
l = RBA::Layout.new
l.insert_layer_at(0, RBA::LayerInfo.new(1, 0))
l.insert_layer_at(1, RBA::LayerInfo.new(2, 0))
c0 = l.cell(l.add_cell("c0"))
c1 = l.cell(l.add_cell("c1"))
c2 = l.cell(l.add_cell("c2"))
c3 = l.cell(l.add_cell("c3"))
b = RBA::Box.new(0, 100, 1000, 1200)
c3.shapes(0).insert(b)
bb = RBA::Box.new(1, 101, 1001, 1201)
c3.shapes(1).insert(bb)
tt = RBA::Trans.new
c0.insert(RBA::CellInstArray.new(c1.cell_index, tt))
c0.insert(RBA::CellInstArray.new(c2.cell_index, RBA::Trans.new(RBA::Point.new(100, -100))))
c0.insert(RBA::CellInstArray.new(c3.cell_index, RBA::Trans.new(1), RBA::Vector::new(10, 20), RBA::Vector::new(11, 21), 2, 3))
c2.insert(RBA::CellInstArray.new(c3.cell_index, RBA::Trans.new(RBA::Point.new(1100, 0))))
res = []
i = c0.begin_instances_rec
while !i.at_end?
res << i.inst_cell.bbox.transformed(i.trans * i.inst_trans).to_s + " " + (i.path + [ i.current_inst_element ]).collect { |e| "[" + l.cell(e.cell_inst.cell_index).name + " #" + e.ia.to_s + "," + e.ib.to_s + " -> " + e.specific_trans.to_s + "]" }.join("")
i.next
end
assert_equal(res.join("\n") + "\n", <<"END")
() [c1 #-1,-1 -> r0 0,0]
(1200,0;2201,1101) [c2 #-1,-1 -> r0 100,-100][c3 #-1,-1 -> r0 1100,0]
(1200,0;2201,1101) [c2 #-1,-1 -> r0 100,-100]
(-1201,0;-100,1001) [c3 #0,0 -> r90 0,0]
(-1191,20;-90,1021) [c3 #1,0 -> r90 10,20]
(-1190,21;-89,1022) [c3 #0,1 -> r90 11,21]
(-1180,41;-79,1042) [c3 #1,1 -> r90 21,41]
(-1179,42;-78,1043) [c3 #0,2 -> r90 22,42]
(-1169,62;-68,1063) [c3 #1,2 -> r90 32,62]
END
end
end
load("test_epilogue.rb")

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# encoding: UTF-8
# KLayout Layout Viewer
# Copyright (C) 2006-2021 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
if !$:.member?(File::dirname($0))
$:.push(File::dirname($0))
end
load("test_prologue.rb")
class DBRecursiveShapeIterator_TestClass < TestBase
def collect(s, l)
res = []
while !s.at_end?
r = "[#{l.cell_name(s.cell_index)}]"
if s.shape.is_box?
box = s.shape.box
r += box.transformed(s.trans).to_s
else
r += "X";
end
s.next
res.push(r)
end
return res.join("/")
end
def dcollect(s, l)
res = []
while !s.at_end?
r = "[#{l.cell_name(s.cell_index)}]"
if s.shape.is_box?
box = s.shape.dbox
r += box.transformed(s.dtrans).to_s
else
r += "X";
end
s.next
res.push(r)
end
return res.join("/")
end
def test_1
# Recursive shape iterator tests
l = RBA::Layout.new
l.insert_layer_at(0, RBA::LayerInfo.new(1, 0))
l.insert_layer_at(1, RBA::LayerInfo.new(2, 0))
c0 = l.cell(l.add_cell("c0"))
c1 = l.cell(l.add_cell("c1"))
c2 = l.cell(l.add_cell("c2"))
c3 = l.cell(l.add_cell("c3"))
b = RBA::Box.new(0, 100, 1000, 1200)
c0.shapes(0).insert(b)
c1.shapes(0).insert(b)
c2.shapes(0).insert(b)
c3.shapes(0).insert(b)
bb = RBA::Box.new(1, 101, 1001, 1201)
c3.shapes(1).insert(bb)
tt = RBA::Trans.new
c0.insert(RBA::CellInstArray.new(c1.cell_index, tt))
c0.insert(RBA::CellInstArray.new(c2.cell_index, RBA::Trans.new(RBA::Point.new(100, -100))))
c0.insert(RBA::CellInstArray.new(c3.cell_index, RBA::Trans.new(1)))
c2.insert(RBA::CellInstArray.new(c3.cell_index, RBA::Trans.new(RBA::Point.new(1100, 0))))
i1 = l.begin_shapes_touching(c0.cell_index, 0, RBA::Box.new(0, 0, 100, 100))
i1copy = i1.dup
assert_equal(i1copy.overlapping?, false)
assert_equal(collect(i1, l), "[c0](0,100;1000,1200)/[c1](0,100;1000,1200)/[c2](100,0;1100,1100)")
i1.reset
assert_equal(dcollect(i1, l), "[c0](0,0.1;1,1.2)/[c1](0,0.1;1,1.2)/[c2](0.1,0;1.1,1.1)")
assert_equal(collect(i1copy, l), "[c0](0,100;1000,1200)/[c1](0,100;1000,1200)/[c2](100,0;1100,1100)")
i1 = l.begin_shapes_touching(c0.cell_index, 0, RBA::DBox.new(0, 0, 0.100, 0.100))
assert_equal(collect(i1, l), "[c0](0,100;1000,1200)/[c1](0,100;1000,1200)/[c2](100,0;1100,1100)")
i1 = c0.begin_shapes_rec_touching(0, RBA::Box.new(0, 0, 100, 100))
assert_equal(collect(i1, l), "[c0](0,100;1000,1200)/[c1](0,100;1000,1200)/[c2](100,0;1100,1100)")
i1 = c0.begin_shapes_rec_touching(0, RBA::DBox.new(0, 0, 0.100, 0.100))
assert_equal(collect(i1, l), "[c0](0,100;1000,1200)/[c1](0,100;1000,1200)/[c2](100,0;1100,1100)")
i1o = l.begin_shapes_overlapping(c0.cell_index, 0, RBA::Box.new(0, 0, 100, 100));
assert_equal(collect(i1o, l), "");
i1o = l.begin_shapes_overlapping(c0.cell_index, 0, RBA::DBox.new(0, 0, 0.100, 0.100));
assert_equal(collect(i1o, l), "");
i1copy.overlapping = true
assert_equal(i1copy.overlapping?, true)
assert_equal(collect(i1copy, l), "");
i1o = l.begin_shapes_overlapping(c0.cell_index, 0, RBA::Box.new(0, 0, 100, 101));
assert_equal(collect(i1o, l), "[c0](0,100;1000,1200)/[c1](0,100;1000,1200)");
i1o = l.begin_shapes_overlapping(c0.cell_index, 0, RBA::DBox.new(0, 0, 0.100, 0.101));
assert_equal(collect(i1o, l), "[c0](0,100;1000,1200)/[c1](0,100;1000,1200)");
i1copy.region = RBA::Box.new(0, 0, 100, 101)
assert_equal(i1copy.region.to_s, "(0,0;100,101)")
assert_equal(collect(i1copy, l), "[c0](0,100;1000,1200)/[c1](0,100;1000,1200)");
i1copy.region = RBA::Region::new(RBA::Box.new(0, 0, 100, 101))
assert_equal(i1copy.region.to_s, "(0,0;100,101)")
assert_equal(collect(i1copy, l), "[c0](0,100;1000,1200)/[c1](0,100;1000,1200)");
i1copy.region = RBA::Box.new(-1000, -1000, 1100, 1101)
i1copy.confine_region(RBA::Box.new(0, 0, 100, 101))
assert_equal(i1copy.region.to_s, "(0,0;100,101)")
assert_equal(collect(i1copy, l), "[c0](0,100;1000,1200)/[c1](0,100;1000,1200)");
i1copy.region = RBA::Box.new(-1000, -1000, 1100, 1101)
i1copy.confine_region(RBA::Region::new(RBA::Box.new(0, 0, 100, 101)))
assert_equal(i1copy.region.to_s, "(0,0;100,101)")
assert_equal(collect(i1copy, l), "[c0](0,100;1000,1200)/[c1](0,100;1000,1200)");
i1o = l.begin_shapes_overlapping(c0.cell_index, 0, RBA::Box.new(0, 0, 101, 101));
assert_equal(collect(i1o, l), "[c0](0,100;1000,1200)/[c1](0,100;1000,1200)/[c2](100,0;1100,1100)");
i1o = c0.begin_shapes_rec_overlapping(0, RBA::Box.new(0, 0, 101, 101));
assert_equal(collect(i1o, l), "[c0](0,100;1000,1200)/[c1](0,100;1000,1200)/[c2](100,0;1100,1100)");
i2 = l.begin_shapes_touching(c0.cell_index, 0, RBA::Box.new(-100, 0, 100, 100));
assert_equal(collect(i2, l), "[c0](0,100;1000,1200)/[c1](0,100;1000,1200)/[c2](100,0;1100,1100)/[c3](-1200,0;-100,1000)");
i2o = l.begin_shapes_overlapping(c0.cell_index, 0, RBA::Box.new(-100, 0, 100, 100));
assert_equal(collect(i2o, l), "");
i2o = l.begin_shapes_overlapping(c0.cell_index, 0, RBA::Box.new(-101, 0, 101, 101));
assert_equal(collect(i2o, l), "[c0](0,100;1000,1200)/[c1](0,100;1000,1200)/[c2](100,0;1100,1100)/[c3](-1200,0;-100,1000)");
i4 = l.begin_shapes_touching(c0.cell_index, 0, RBA::Box.new(-100, 0, 2000, 100));
i4_copy = l.begin_shapes_touching(c0.cell_index, 0, RBA::Box.new(-100, 0, 2000, 100));
i4.max_depth = 0;
assert_equal(collect(i4, l), "[c0](0,100;1000,1200)");
assert_equal(i4 == i4, true);
assert_equal(i4 != i4, false);
assert_equal(i4 == i4_copy, false);
assert_equal(i4 != i4_copy, true);
i4 = i4_copy.dup;
assert_equal(i4 == i4_copy, true);
assert_equal(i4 != i4_copy, false);
i4.max_depth = 1;
assert_equal(collect(i4, l), "[c0](0,100;1000,1200)/[c1](0,100;1000,1200)/[c2](100,0;1100,1100)/[c3](-1200,0;-100,1000)");
i4.assign(i4_copy);
assert_equal(collect(i4, l), "[c0](0,100;1000,1200)/[c1](0,100;1000,1200)/[c2](100,0;1100,1100)/[c3](1200,0;2200,1100)/[c3](-1200,0;-100,1000)");
i5 = l.begin_shapes(c0.cell_index, 0);
assert_equal(collect(i5, l), "[c0](0,100;1000,1200)/[c1](0,100;1000,1200)/[c2](100,0;1100,1100)/[c3](1200,0;2200,1100)/[c3](-1200,0;-100,1000)");
ii = RBA::RecursiveShapeIterator::new
assert_equal(collect(ii, l), "")
ii = RBA::RecursiveShapeIterator::new(l, c1, 0)
assert_equal(collect(ii, l), "[c1](0,100;1000,1200)")
assert_equal(ii.top_cell.name, "c1")
assert_equal(ii.layout == l, true)
ii.max_depth = 2
assert_equal(ii.max_depth, 2)
ii.min_depth = 1
assert_equal(ii.min_depth, 1)
ii = RBA::RecursiveShapeIterator::new(l, c2, [0, 1])
ic = ii.dup
assert_equal(collect(ii, l), "[c2](0,100;1000,1200)/[c3](1100,100;2100,1200)/[c3](1101,101;2101,1201)")
assert_equal(collect(ic, l), "[c2](0,100;1000,1200)/[c3](1100,100;2100,1200)/[c3](1101,101;2101,1201)")
ii = RBA::RecursiveShapeIterator::new(l, c2, 0, RBA::Box.new(-100, 0, 2000, 100), false)
assert_equal(collect(ii, l), "[c2](0,100;1000,1200)/[c3](1100,100;2100,1200)")
ii = RBA::RecursiveShapeIterator::new(l, c2, 0, RBA::Box.new(-100, 0, 2000, 100), true)
assert_equal(collect(ii, l), "")
ii = RBA::RecursiveShapeIterator::new(l, c2, 0, RBA::Box.new(-100, 0, 2000, 101), true)
assert_equal(collect(ii, l), "[c2](0,100;1000,1200)/[c3](1100,100;2100,1200)")
ii = RBA::RecursiveShapeIterator::new(l, c2, [0, 1], RBA::Box.new(-100, 0, 2000, 100), false)
assert_equal(collect(ii, l), "[c2](0,100;1000,1200)/[c3](1100,100;2100,1200)")
ii = RBA::RecursiveShapeIterator::new(l, c2, [0, 1], RBA::Box.new(-100, 0, 2000, 101), false)
assert_equal(collect(ii, l), "[c2](0,100;1000,1200)/[c3](1100,100;2100,1200)/[c3](1101,101;2101,1201)")
ii = RBA::RecursiveShapeIterator::new(l, c2, [0, 1], RBA::Box.new(-100, 0, 2000, 101), true)
assert_equal(collect(ii, l), "[c2](0,100;1000,1200)/[c3](1100,100;2100,1200)")
ii = RBA::RecursiveShapeIterator::new(l, c0, 0)
assert_equal(collect(ii, l), "[c0](0,100;1000,1200)/[c1](0,100;1000,1200)/[c2](100,0;1100,1100)/[c3](1200,0;2200,1100)/[c3](-1200,0;-100,1000)")
ii.reset
ii.unselect_cells("c0")
ii.select_cells("c2")
assert_equal(collect(ii, l), "[c2](100,0;1100,1100)/[c3](1200,0;2200,1100)")
ii.reset_selection
ii.unselect_cells("c*")
ii.select_cells([ c2.cell_index ])
assert_equal(collect(ii, l), "[c2](100,0;1100,1100)")
ii.reset_selection
ii.unselect_all_cells
ii.select_cells("c2")
assert_equal(collect(ii, l), "[c2](100,0;1100,1100)")
ii.reset_selection
ii.select_all_cells
ii.unselect_cells("c2")
assert_equal(collect(ii, l), "[c0](0,100;1000,1200)/[c1](0,100;1000,1200)/[c3](1200,0;2200,1100)/[c3](-1200,0;-100,1000)")
ii.reset_selection
ii.select_cells("c*")
ii.unselect_cells([ c1.cell_index, c2.cell_index ])
assert_equal(collect(ii, l), "[c0](0,100;1000,1200)/[c3](1200,0;2200,1100)/[c3](-1200,0;-100,1000)")
end
def test_2
# Recursive shape iterator tests
l = RBA::Layout.new
l.insert_layer_at(0, RBA::LayerInfo.new(1, 0))
l.insert_layer_at(1, RBA::LayerInfo.new(2, 0))
c0 = l.cell(l.add_cell("c0"))
c1 = l.cell(l.add_cell("c1"))
c2 = l.cell(l.add_cell("c2"))
c3 = l.cell(l.add_cell("c3"))
b = RBA::Box.new(0, 100, 1000, 1200)
c3.shapes(0).insert(b)
bb = RBA::Box.new(1, 101, 1001, 1201)
c3.shapes(1).insert(bb)
tt = RBA::Trans.new
c0.insert(RBA::CellInstArray.new(c1.cell_index, tt))
c0.insert(RBA::CellInstArray.new(c2.cell_index, RBA::Trans.new(RBA::Point.new(100, -100))))
c0.insert(RBA::CellInstArray.new(c3.cell_index, RBA::Trans.new(1), RBA::Vector::new(10, 20), RBA::Vector::new(11, 21), 2, 3))
c2.insert(RBA::CellInstArray.new(c3.cell_index, RBA::Trans.new(RBA::Point.new(1100, 0))))
res = []
i = l.begin_shapes(c0.cell_index, 0)
while !i.at_end?
res << i.shape.box.transformed(i.trans).to_s + " " + i.path.collect { |e| "[" + l.cell(e.cell_inst.cell_index).name + " #" + e.ia.to_s + "," + e.ib.to_s + " -> " + e.specific_trans.to_s + "]" }.join("")
i.next
end
assert_equal(res.join("\n") + "\n", <<"END")
(1200,0;2200,1100) [c2 #-1,-1 -> r0 100,-100][c3 #-1,-1 -> r0 1100,0]
(-1200,0;-100,1000) [c3 #0,0 -> r90 0,0]
(-1190,20;-90,1020) [c3 #1,0 -> r90 10,20]
(-1189,21;-89,1021) [c3 #0,1 -> r90 11,21]
(-1179,41;-79,1041) [c3 #1,1 -> r90 21,41]
(-1178,42;-78,1042) [c3 #0,2 -> r90 22,42]
(-1168,62;-68,1062) [c3 #1,2 -> r90 32,62]
END
end
end
load("test_epilogue.rb")