coriolis/anabatic/src/AutoHorizontal.cpp

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// -*- C++ -*-
//
// This file is part of the Coriolis Software.
// Copyright (c) UPMC 2008-2016, All Rights Reserved
//
// +-----------------------------------------------------------------+
// | C O R I O L I S |
// | A n a b a t i c - Routing Toolbox |
// | |
// | Author : Jean-Paul CHAPUT |
// | E-mail : Jean-Paul.Chaput@lip6.fr |
// | =============================================================== |
// | C++ Module : "./AutoHorizontal.cpp" |
// +-----------------------------------------------------------------+
#include <algorithm>
#include "hurricane/Bug.h"
#include "hurricane/Error.h"
#include "hurricane/DebugSession.h"
#include "hurricane/RoutingPad.h"
#include "crlcore/RoutingGauge.h"
#include "anabatic/Configuration.h"
#include "anabatic/AutoContactTerminal.h"
#include "anabatic/AutoContactTurn.h"
#include "anabatic/AutoHorizontal.h"
#include "anabatic/AutoVertical.h"
namespace Anabatic {
using std::min;
using std::max;
using Hurricane::Error;
using Hurricane::Bug;
using Hurricane::DebugSession;
using Hurricane::RoutingPad;
// -------------------------------------------------------------------
// Class : "Anabatic::AutoHorizontal".
Segment* AutoHorizontal::base () { return _horizontal; }
Segment* AutoHorizontal::base () const { return _horizontal; }
Horizontal* AutoHorizontal::getHorizontal () { return _horizontal; }
DbU::Unit AutoHorizontal::getSourceU () const { return _horizontal->getSourceX(); }
DbU::Unit AutoHorizontal::getTargetU () const { return _horizontal->getTargetX(); }
DbU::Unit AutoHorizontal::getDuSource () const { return _horizontal->getDxSource(); }
DbU::Unit AutoHorizontal::getDuTarget () const { return _horizontal->getDxTarget(); }
Interval AutoHorizontal::getSpanU () const { return Interval(_horizontal->getSourceX(),_horizontal->getTargetX()); }
void AutoHorizontal::setDuSource ( DbU::Unit du ) { _horizontal->setDxSource(du); }
void AutoHorizontal::setDuTarget ( DbU::Unit du ) { _horizontal->setDxTarget(du); }
string AutoHorizontal::_getTypeName () const { return "AutoHorizontal"; }
AutoHorizontal::AutoHorizontal ( Horizontal* horizontal )
: AutoSegment(horizontal)
, _horizontal(horizontal)
{
cdebug_log(145,0) << "CTOR AutoHorizontal " << this << endl;
cdebug_log(145,0) << " over " << horizontal << endl;
}
void AutoHorizontal::_postCreate ()
{
AutoSegment::_postCreate ();
AutoContact* source = getAutoSource();
if (source->isTerminal()) source->setY( _horizontal->getY() );
AutoContact* target = getAutoTarget();
if (target->isTerminal()) target->setY( _horizontal->getY() );
_gcell = source->getGCell();
setOptimalMax( getGCell()->getYMax() );
resetNativeConstraints( getGCell()->getYMin(), getGCell()->getConstraintYMax() );
if (getGCell() != target->getGCell()) {
setFlags( SegGlobal );
vector<GCell*> gcells;
getGCells( gcells );
for ( GCell* gcell : gcells ) {
if ( (gcell != getGCell()) and (gcell != target->getGCell()) )
gcell->addHSegment( this );
mergeNativeMin( gcell->getYMin() );
mergeNativeMax( gcell->getConstraintYMax() );
}
}
}
void AutoHorizontal::_preDestroy ()
{
cdebug_log(149,0) << "AutoHorizontal::_preDestroy() - <id:" << getId() << "> " << endl;
cdebug_log(149,0) << " " << _getString() << endl;
cdebug_tabw(145,1);
if (not Session::doDestroyTool()) {
vector<GCell*> gcells;
getGCells( gcells );
for ( GCell* gcell : gcells ) gcell->removeHSegment( this );
}
AutoSegment::_preDestroy ();
cdebug_tabw(145,-1);
}
AutoHorizontal::~AutoHorizontal ()
{
if ( Session::doDestroyBaseSegment() and not Session::doDestroyTool() ) {
cdebug_log(149,0) << "~AutoHorizontal() - " << endl;
_horizontal->destroy ();
}
}
Interval AutoHorizontal::getSourceConstraints ( Flags flags ) const
{
if (flags & Flags::NativeConstraints) {
Box nativeBox ( getAutoSource()->getNativeConstraintBox() );
return Interval ( nativeBox.getYMin(), nativeBox.getYMax() );
}
return Interval ( getAutoSource()->getCBYMin(), getAutoSource()->getCBYMax() );
}
Interval AutoHorizontal::getTargetConstraints ( Flags flags ) const
{
if (flags & Flags::NativeConstraints) {
Box nativeBox ( getAutoTarget()->getNativeConstraintBox() );
return Interval ( nativeBox.getYMin(), nativeBox.getYMax() );
}
return Interval ( getAutoTarget()->getCBYMin(), getAutoTarget()->getCBYMax() );
}
bool AutoHorizontal::getConstraints ( DbU::Unit& constraintMin, DbU::Unit& constraintMax ) const
{
constraintMin = getNativeMin();
constraintMax = getNativeMax();
cdebug_log(144,0) << "Native constraints: ["
Anabatic transient commit 18. Port of Kite (Katana), Yeah, Baby! Yeah! * Bug: In Hurricane, in StaticObservable::getObserver(), if the slot pointer is NULL, do not try to access the owner. Returns NULL, so the caller can be aware of the situation... * Change: In Hurricane, in BreakpointWidget & ExceptionWidget some cosmetic changes (fonts and window sizes). * Bug: In Anabatic, In AutoHorizontal::getConstraints(), take into account the constraints from the source AutoContact, as it holds the constraints transmitted by the RoutingPads and sets up by propageConstraintsFromRp(). It is likely to be a bug affecting the original Katabatic as well. * Change: In Anabatic, in RawGCellsUnder(), check that the segment is not completly oustside the cell abutment box and truncate the coordinates to the part that is inside. Use the "shrink" if we reach the east/north border. * Change: In Anabatic, in Configuration, no more decorator because we will use a true derived relationship. Katana *derives* from *Anabatic* and do not *decorate* it, so the Configuration can do the same. It also implies that we directly create a Katana engine, not an Anabatic one. * Change: In Anabatic, in Session, do not allow the opening of the Session in a standalone fashion (with a static method). Instead it must be opened using the relevant method of the Anabatic/Katana engine. This ensure we are opening the right Session type. * Change: In Anabatic, in AutoSegment_Aligneds() collection the seed segment is not part of the collection by default, but will be included if the Flags::WithSelf is set. * Change: In Configuration, all the flags value are now defined in two steps. Declared in the header and initialized in the module. This is to prevent the fact that on some cases, in relation with the Python "extern C" part modules, we need a true allocated variable. It was causing weird linking problems. A side effect is that they can no longer be used as entry is switches, have to replace them by if/else. * New: In Anabatic, new GCell::getNeighborAt() utility function. * Bug: In Anabatic, in GCell::doGrid(), tag all the GCells of the grid with the grid type... Back annote all the edges capacity (north & east) with the reserved local capacity. * New: Complete portage of Kite over Anabatic. The new engine is christened "Katana" for Kite-Analogic. When it's capabilities and performances will be on a part with Kite, it is to completly replace it (and take back the "Kite" name). Preliminary tests seems to show that, contrary to intuition (because built on a more complex/slower grid), it is even slightly faster than Kite 8-).
2016-08-15 09:30:13 -05:00
<< DbU::getValueString(constraintMin) << ":"
<< DbU::getValueString(constraintMax) << "]"
<< endl;
constraintMin = std::max ( constraintMin, getAutoSource()->getCBYMin() );
constraintMax = std::min ( constraintMax, getAutoSource()->getCBYMax() );
cdebug_log(144,0) << "Merge with source constraints: ["
Anabatic transient commit 18. Port of Kite (Katana), Yeah, Baby! Yeah! * Bug: In Hurricane, in StaticObservable::getObserver(), if the slot pointer is NULL, do not try to access the owner. Returns NULL, so the caller can be aware of the situation... * Change: In Hurricane, in BreakpointWidget & ExceptionWidget some cosmetic changes (fonts and window sizes). * Bug: In Anabatic, In AutoHorizontal::getConstraints(), take into account the constraints from the source AutoContact, as it holds the constraints transmitted by the RoutingPads and sets up by propageConstraintsFromRp(). It is likely to be a bug affecting the original Katabatic as well. * Change: In Anabatic, in RawGCellsUnder(), check that the segment is not completly oustside the cell abutment box and truncate the coordinates to the part that is inside. Use the "shrink" if we reach the east/north border. * Change: In Anabatic, in Configuration, no more decorator because we will use a true derived relationship. Katana *derives* from *Anabatic* and do not *decorate* it, so the Configuration can do the same. It also implies that we directly create a Katana engine, not an Anabatic one. * Change: In Anabatic, in Session, do not allow the opening of the Session in a standalone fashion (with a static method). Instead it must be opened using the relevant method of the Anabatic/Katana engine. This ensure we are opening the right Session type. * Change: In Anabatic, in AutoSegment_Aligneds() collection the seed segment is not part of the collection by default, but will be included if the Flags::WithSelf is set. * Change: In Configuration, all the flags value are now defined in two steps. Declared in the header and initialized in the module. This is to prevent the fact that on some cases, in relation with the Python "extern C" part modules, we need a true allocated variable. It was causing weird linking problems. A side effect is that they can no longer be used as entry is switches, have to replace them by if/else. * New: In Anabatic, new GCell::getNeighborAt() utility function. * Bug: In Anabatic, in GCell::doGrid(), tag all the GCells of the grid with the grid type... Back annote all the edges capacity (north & east) with the reserved local capacity. * New: Complete portage of Kite over Anabatic. The new engine is christened "Katana" for Kite-Analogic. When it's capabilities and performances will be on a part with Kite, it is to completly replace it (and take back the "Kite" name). Preliminary tests seems to show that, contrary to intuition (because built on a more complex/slower grid), it is even slightly faster than Kite 8-).
2016-08-15 09:30:13 -05:00
<< DbU::getValueString(getAutoSource()->getCBYMin()) << ":"
<< DbU::getValueString(getAutoSource()->getCBYMax()) << "]"
<< endl;
constraintMin = std::max ( constraintMin, getUserConstraints().getVMin() );
constraintMax = std::min ( constraintMax, getUserConstraints().getVMax() );
cdebug_log(144,0) << "Merge with user constraints: ["
Anabatic transient commit 18. Port of Kite (Katana), Yeah, Baby! Yeah! * Bug: In Hurricane, in StaticObservable::getObserver(), if the slot pointer is NULL, do not try to access the owner. Returns NULL, so the caller can be aware of the situation... * Change: In Hurricane, in BreakpointWidget & ExceptionWidget some cosmetic changes (fonts and window sizes). * Bug: In Anabatic, In AutoHorizontal::getConstraints(), take into account the constraints from the source AutoContact, as it holds the constraints transmitted by the RoutingPads and sets up by propageConstraintsFromRp(). It is likely to be a bug affecting the original Katabatic as well. * Change: In Anabatic, in RawGCellsUnder(), check that the segment is not completly oustside the cell abutment box and truncate the coordinates to the part that is inside. Use the "shrink" if we reach the east/north border. * Change: In Anabatic, in Configuration, no more decorator because we will use a true derived relationship. Katana *derives* from *Anabatic* and do not *decorate* it, so the Configuration can do the same. It also implies that we directly create a Katana engine, not an Anabatic one. * Change: In Anabatic, in Session, do not allow the opening of the Session in a standalone fashion (with a static method). Instead it must be opened using the relevant method of the Anabatic/Katana engine. This ensure we are opening the right Session type. * Change: In Anabatic, in AutoSegment_Aligneds() collection the seed segment is not part of the collection by default, but will be included if the Flags::WithSelf is set. * Change: In Configuration, all the flags value are now defined in two steps. Declared in the header and initialized in the module. This is to prevent the fact that on some cases, in relation with the Python "extern C" part modules, we need a true allocated variable. It was causing weird linking problems. A side effect is that they can no longer be used as entry is switches, have to replace them by if/else. * New: In Anabatic, new GCell::getNeighborAt() utility function. * Bug: In Anabatic, in GCell::doGrid(), tag all the GCells of the grid with the grid type... Back annote all the edges capacity (north & east) with the reserved local capacity. * New: Complete portage of Kite over Anabatic. The new engine is christened "Katana" for Kite-Analogic. When it's capabilities and performances will be on a part with Kite, it is to completly replace it (and take back the "Kite" name). Preliminary tests seems to show that, contrary to intuition (because built on a more complex/slower grid), it is even slightly faster than Kite 8-).
2016-08-15 09:30:13 -05:00
<< DbU::getValueString(getUserConstraints().getVMin()) << ":"
<< DbU::getValueString(getUserConstraints().getVMax()) << "]"
<< endl;
cdebug_log(145,0) << "Resulting constraints: " << " ["
Anabatic transient commit 18. Port of Kite (Katana), Yeah, Baby! Yeah! * Bug: In Hurricane, in StaticObservable::getObserver(), if the slot pointer is NULL, do not try to access the owner. Returns NULL, so the caller can be aware of the situation... * Change: In Hurricane, in BreakpointWidget & ExceptionWidget some cosmetic changes (fonts and window sizes). * Bug: In Anabatic, In AutoHorizontal::getConstraints(), take into account the constraints from the source AutoContact, as it holds the constraints transmitted by the RoutingPads and sets up by propageConstraintsFromRp(). It is likely to be a bug affecting the original Katabatic as well. * Change: In Anabatic, in RawGCellsUnder(), check that the segment is not completly oustside the cell abutment box and truncate the coordinates to the part that is inside. Use the "shrink" if we reach the east/north border. * Change: In Anabatic, in Configuration, no more decorator because we will use a true derived relationship. Katana *derives* from *Anabatic* and do not *decorate* it, so the Configuration can do the same. It also implies that we directly create a Katana engine, not an Anabatic one. * Change: In Anabatic, in Session, do not allow the opening of the Session in a standalone fashion (with a static method). Instead it must be opened using the relevant method of the Anabatic/Katana engine. This ensure we are opening the right Session type. * Change: In Anabatic, in AutoSegment_Aligneds() collection the seed segment is not part of the collection by default, but will be included if the Flags::WithSelf is set. * Change: In Configuration, all the flags value are now defined in two steps. Declared in the header and initialized in the module. This is to prevent the fact that on some cases, in relation with the Python "extern C" part modules, we need a true allocated variable. It was causing weird linking problems. A side effect is that they can no longer be used as entry is switches, have to replace them by if/else. * New: In Anabatic, new GCell::getNeighborAt() utility function. * Bug: In Anabatic, in GCell::doGrid(), tag all the GCells of the grid with the grid type... Back annote all the edges capacity (north & east) with the reserved local capacity. * New: Complete portage of Kite over Anabatic. The new engine is christened "Katana" for Kite-Analogic. When it's capabilities and performances will be on a part with Kite, it is to completly replace it (and take back the "Kite" name). Preliminary tests seems to show that, contrary to intuition (because built on a more complex/slower grid), it is even slightly faster than Kite 8-).
2016-08-15 09:30:13 -05:00
<< DbU::getValueString(constraintMin) << ":"
<< DbU::getValueString(constraintMax) << "]"
<< endl;
return true;
}
Anabatic transient commit 18. Port of Kite (Katana), Yeah, Baby! Yeah! * Bug: In Hurricane, in StaticObservable::getObserver(), if the slot pointer is NULL, do not try to access the owner. Returns NULL, so the caller can be aware of the situation... * Change: In Hurricane, in BreakpointWidget & ExceptionWidget some cosmetic changes (fonts and window sizes). * Bug: In Anabatic, In AutoHorizontal::getConstraints(), take into account the constraints from the source AutoContact, as it holds the constraints transmitted by the RoutingPads and sets up by propageConstraintsFromRp(). It is likely to be a bug affecting the original Katabatic as well. * Change: In Anabatic, in RawGCellsUnder(), check that the segment is not completly oustside the cell abutment box and truncate the coordinates to the part that is inside. Use the "shrink" if we reach the east/north border. * Change: In Anabatic, in Configuration, no more decorator because we will use a true derived relationship. Katana *derives* from *Anabatic* and do not *decorate* it, so the Configuration can do the same. It also implies that we directly create a Katana engine, not an Anabatic one. * Change: In Anabatic, in Session, do not allow the opening of the Session in a standalone fashion (with a static method). Instead it must be opened using the relevant method of the Anabatic/Katana engine. This ensure we are opening the right Session type. * Change: In Anabatic, in AutoSegment_Aligneds() collection the seed segment is not part of the collection by default, but will be included if the Flags::WithSelf is set. * Change: In Configuration, all the flags value are now defined in two steps. Declared in the header and initialized in the module. This is to prevent the fact that on some cases, in relation with the Python "extern C" part modules, we need a true allocated variable. It was causing weird linking problems. A side effect is that they can no longer be used as entry is switches, have to replace them by if/else. * New: In Anabatic, new GCell::getNeighborAt() utility function. * Bug: In Anabatic, in GCell::doGrid(), tag all the GCells of the grid with the grid type... Back annote all the edges capacity (north & east) with the reserved local capacity. * New: Complete portage of Kite over Anabatic. The new engine is christened "Katana" for Kite-Analogic. When it's capabilities and performances will be on a part with Kite, it is to completly replace it (and take back the "Kite" name). Preliminary tests seems to show that, contrary to intuition (because built on a more complex/slower grid), it is even slightly faster than Kite 8-).
2016-08-15 09:30:13 -05:00
Flags AutoHorizontal::getDirection () const
{ return Flags::Horizontal; }
size_t AutoHorizontal::getGCells ( vector<GCell*>& gcells ) const
{
vector<GCell*>().swap( gcells );
2016-09-22 11:52:53 -05:00
DbU::Unit yprobe = getY();
GCell* gcell = getAutoSource()->getGCell();
GCell* end = getAutoTarget()->getGCell();
cdebug_log(144,0) << "yprobe: " << DbU::getValueString(yprobe) << endl;
2016-09-22 11:52:53 -05:00
if (gcell->getXMin() > end->getXMin()) std::swap( gcell, end );
if (yprobe == gcell->getConstraintYMax()) yprobe--;
gcells.push_back( gcell );
while ( gcell != end ) {
gcell = gcell->getEast( yprobe );
if (not gcell) {
cerr << Error( "AutoHorizontal::getGCells() : NULL GCell under %s\n"
" begin:%s\n"
" end: %s"
, getString(this).c_str()
, getString(getAutoSource()->getGCell()).c_str()
, getString(getAutoTarget()->getGCell()).c_str()
) << endl;
break;
}
gcells.push_back( gcell );
}
return gcells.size();
}
bool AutoHorizontal::_canSlacken () const
{
cdebug_tabw(149,1);
Interval sourceSide = getAutoSource()->getGCell()->getSide( Flags::Vertical );
Interval targetSide = getAutoTarget()->getGCell()->getSide( Flags::Vertical );
Interval sourceConstraints = Interval(getAutoSource()->getCBYMin(),getAutoSource()->getCBYMax());
Interval targetConstraints = Interval(getAutoTarget()->getCBYMin(),getAutoTarget()->getCBYMax());
// Expand by a tiny amount for the "contains" to work for sure.
sourceConstraints.inflate( 1 );
targetConstraints.inflate( 1 );
cdebug_log(149,0) << "source " << getAutoSource() << endl;
cdebug_log(149,0) << "source constraints: " << sourceConstraints
<< " " << DbU::getValueString(sourceConstraints.getSize()) << endl;
cdebug_log(149,0) << "target " << getAutoTarget() << endl;
cdebug_log(149,0) << "target constraints: " << targetConstraints
<< " " << DbU::getValueString(targetConstraints.getSize()) << endl;
if (not sourceConstraints.contains(sourceSide)) { cdebug_tabw(149,-1); return true; }
if (not targetConstraints.contains(targetSide)) { cdebug_tabw(149,-1); return true; }
cdebug_tabw(149,-1);
return false;
}
bool AutoHorizontal::_slacken ( Flags flags )
{
cdebug_log(149,0) << "AutoHorizontal::_slacken() " << this << endl;
if (not isStrongTerminal()) return false;
const Configuration* configuration = Session::getConfiguration();
const Layer* metal2 = configuration->getRoutingLayer( 1 );
bool success = false;
bool isMetal2Source = false;
bool isMetal2Target = false;
DbU::Unit height = 0;
AutoContact* source = getAutoSource();
AutoContact* target = getAutoTarget();
if (source->isTerminal()) {
height = (static_cast<RoutingPad*>(source->getAnchor()))->getBoundingBox().getHeight();
isMetal2Source = (source->getLayer() == metal2);
}
if (target->isTerminal()) {
height = std::min( height, (static_cast<RoutingPad*>(target->getAnchor()))->getBoundingBox().getHeight() );
isMetal2Target = (target->getLayer() == metal2);
}
if (height >= 4*getPitch()) {
if (not (_flags & (SegGlobal|SegWeakGlobal)) and (getLength() < 5*getPitch()))
return false;
}
cdebug_tabw(149,1);
cdebug_log(149,0) << "_flags:" << (_flags & (SegGlobal|SegWeakGlobal)) << endl;
cdebug_log(149,0) << "test:" << (getLength() < 5*getPitch()) << endl;
cdebug_log(149,0) << "length:" << DbU::getValueString(getLength()) << endl;
int lowSlack = (flags & Flags::HalfSlacken) ? 3 : 10;
bool sourceSlackened = false;
bool targetSlackened = false;
bool halfSlackened = false;
DbU::Unit targetPosition = getTargetPosition();
AutoSegment* parallel = this;
if (source->isTerminal()) {
Interval perpandConstraints = getAutoTarget()->getUConstraints(Flags::Horizontal);
Interval constraints = source->getUConstraints (Flags::Vertical|Flags::NoGCellShrink);
Interval nativeConstraints = source->getNativeUConstraints(Flags::Vertical|Flags::NoGCellShrink);
int slack = constraints.getSize() / getPitch();
int nativeSlack = nativeConstraints.getSize() / getPitch();
cdebug_log(149,0) << "Source constraint: " << constraints
<< " slack:" << slack
<< " native slack:" << nativeSlack << endl;
cdebug_log(149,0) << "Perpand constraints on target: " << perpandConstraints << endl;
// Ugly: GCell's track number is hardwired.
if ((nativeSlack < lowSlack) or (nativeSlack - slack < 3)) {
cdebug_log(149,0) << "Slackening from Source: " << source << endl;
_makeDogleg( source->getGCell(), Flags::NoFlags );
sourceSlackened = true;
} else if (slack < 10) {
halfSlackened = true;
}
const vector<AutoSegment*>& doglegs = Session::getDoglegs();
if (sourceSlackened and (doglegs.size() >= 2)) {
cdebug_log(149,0) << "AutoHorizontal::_slacken(): Source @" << DbU::getValueString(getSourcePosition()) << endl;
doglegs[doglegs.size()-2]->setAxis( getSourcePosition() );
success = true;
if (isMetal2Source) {
cdebug_log(149,0) << "Fixing on source terminal contact."
<< doglegs[doglegs.size()-2]->getAutoSource() << endl;
//doglegs[doglegs.size()-2]->getAutoSource()->setFlags( CntFixed );
doglegs[doglegs.size()-2]->getAutoSource()->setConstraintBox( source->getConstraintBox() );
doglegs[doglegs.size()-2]->getAutoSource()->setFlags( CntUserNativeConstraints );
}
parallel = doglegs[ doglegs.size()-1 ];
}
}
if (parallel) target = parallel->getAutoTarget();
if (target->isTerminal()) {
Interval constraints = target->getUConstraints (Flags::Vertical|Flags::NoGCellShrink);
Interval nativeConstraints = target->getNativeUConstraints(Flags::Vertical|Flags::NoGCellShrink);
int slack = constraints.getSize() / getPitch();
int nativeSlack = nativeConstraints.getSize() / getPitch();
// Ugly: GCell's track number is hardwired.
cdebug_log(149,0) << "Target constraint: " << constraints
<< " slack:" << slack
<< " native slack:" << nativeSlack << endl;
if ((nativeSlack < lowSlack) or (nativeSlack - slack < 3)) {
cdebug_log(149,0) << "Slackening from Target: " << target << endl;
parallel->_makeDogleg( target->getGCell(), Flags::NoFlags );
targetSlackened = true;
} else if (slack < 10) {
halfSlackened = true;
}
const vector<AutoSegment*>& doglegs = Session::getDoglegs();
if (targetSlackened and (doglegs.size() >= 2)) {
cdebug_log(149,0) << "AutoHorizontal::_slacken(): Target @" << DbU::getValueString(targetPosition) << endl;
doglegs[doglegs.size()-2]->setAxis( targetPosition );
success = true;
if (isMetal2Target) {
cdebug_log(149,0) << "Fixing on target terminal contact: "
<< doglegs[doglegs.size()-2]->getAutoTarget() << endl;
//doglegs[doglegs.size()-2]->getAutoTarget()->setFlags( CntFixed );
doglegs[doglegs.size()-2]->getAutoTarget()->setConstraintBox( target->getConstraintBox() );
doglegs[doglegs.size()-2]->getAutoTarget()->setFlags( CntUserNativeConstraints );
}
}
}
if (sourceSlackened and targetSlackened) {
setFlags ( SegSlackened );
unsetFlags( SegHalfSlackened );
} else {
if (sourceSlackened or targetSlackened) {
if (halfSlackened) {
setFlags( SegHalfSlackened );
} else {
setFlags ( SegSlackened );
unsetFlags( SegHalfSlackened );
}
}
}
cdebug_tabw(149,-1);
return success;
}
void AutoHorizontal::_setAxis ( DbU::Unit axis )
{
setFlags( SegAxisSet );
if ((axis != getAxis()) and isFixed()) {
cerr << Error( "AutoHorizontal::setAxis(): Cannot move fixed segment to %s.\n"
" (on: %s)"
, DbU::getValueString(axis).c_str()
, _getString().c_str()
) << endl;
}
if (_horizontal->getY() == axis) return;
cdebug_log(144,0) << "_setAxis() @Y " << DbU::getValueString(axis) << " " << this << endl;
_horizontal->setY( axis );
invalidate();
AutoContact* anchor = getAutoSource();
anchor->invalidate();
if (anchor->isTerminal()) anchor->setY( axis );
anchor = getAutoTarget();
anchor->invalidate();
if (anchor->isTerminal()) anchor->setY( axis );
}
void AutoHorizontal::updateOrient ()
{
if (_horizontal->getTargetX() < _horizontal->getSourceX()) {
cdebug_log(145,0) << "updateOrient() " << this << " (before S/T swap)" << endl;
_horizontal->invert();
Katana manage wide wires, and they can also be symmetric. * New: In Anabatic::AutoContact and the derived classes, manages wide wires. The contact self dimension itself according to the segments it is connected to. Special case for the AutoContactTerminal which also read the size of the component it is anchored upon. New refresh method "updateSize()" and flag CntInvalidatedWidth. to compute the size. In AutoContactTerminal, compute the constraint box according to the width of the segment. * New: In Anabatic::AutoSegment, flags are now implemented as "static const" attributes of the class. The flags are stored into a uint64_t as they are more than 32. Added new flag "SegWide" and associated predicates. * Change: In GCellTopology::_doHChannel() and GCellTopology::_doVChannel(), uses the simpler overload of AutoSegment::create() in order to detect the wire width automatically. * New: In Katana::Manipulator, split insertToTrack() and forceToTrack() into a one-track method and a segment level method that iterate over the track span of the segment. * New: In Katana::SegmentFsm, for each cost in the table, now allow access to a specific track. So the base functions have now two parameters: "icost" and "itrack" (has a cost can have multiple tracks in the case of wide segments). * Change: In Katana::TrackElement, remove the index of the element inside it's track, as for a wide segment it will not be meaningful for the non-base track. This means that we have to use the Track::find() method each time instead. Remove the wide flag, as it is a duplicate of the one in AutoSegment. Added a getTrackCount() method to tell the number of track the segment is inserted into. Needed in the Track destroy step to delete a segment only when the last track that refers it is destroyed. Added getSymmetricAxis() to correct the computation of the symmetric base track in case of wide segment as the base track is not centered but the the leftmost one. * Change: In Track::insert() insert wide segments in their whole track span. * Change: In TrackCost, create an array of costs according to the segment track span. * Change: In TrackSegment::create(), now activate the factory and create wide segments. * Bug: In Katana::AutoSegments_Perpandicular, correct the debug indentation problem (ever shifting to the right).
2017-07-28 08:30:22 -05:00
uint64_t spinFlags = _flags & SegDepthSpin;
unsetFlags( SegDepthSpin );
if (spinFlags & SegSourceTop ) setFlags( SegTargetTop );
if (spinFlags & SegSourceBottom) setFlags( SegTargetBottom );
if (spinFlags & SegTargetTop ) setFlags( SegSourceTop );
if (spinFlags & SegTargetBottom) setFlags( SegSourceBottom );
Katana manage wide wires, and they can also be symmetric. * New: In Anabatic::AutoContact and the derived classes, manages wide wires. The contact self dimension itself according to the segments it is connected to. Special case for the AutoContactTerminal which also read the size of the component it is anchored upon. New refresh method "updateSize()" and flag CntInvalidatedWidth. to compute the size. In AutoContactTerminal, compute the constraint box according to the width of the segment. * New: In Anabatic::AutoSegment, flags are now implemented as "static const" attributes of the class. The flags are stored into a uint64_t as they are more than 32. Added new flag "SegWide" and associated predicates. * Change: In GCellTopology::_doHChannel() and GCellTopology::_doVChannel(), uses the simpler overload of AutoSegment::create() in order to detect the wire width automatically. * New: In Katana::Manipulator, split insertToTrack() and forceToTrack() into a one-track method and a segment level method that iterate over the track span of the segment. * New: In Katana::SegmentFsm, for each cost in the table, now allow access to a specific track. So the base functions have now two parameters: "icost" and "itrack" (has a cost can have multiple tracks in the case of wide segments). * Change: In Katana::TrackElement, remove the index of the element inside it's track, as for a wide segment it will not be meaningful for the non-base track. This means that we have to use the Track::find() method each time instead. Remove the wide flag, as it is a duplicate of the one in AutoSegment. Added a getTrackCount() method to tell the number of track the segment is inserted into. Needed in the Track destroy step to delete a segment only when the last track that refers it is destroyed. Added getSymmetricAxis() to correct the computation of the symmetric base track in case of wide segment as the base track is not centered but the the leftmost one. * Change: In Track::insert() insert wide segments in their whole track span. * Change: In TrackCost, create an array of costs according to the segment track span. * Change: In TrackSegment::create(), now activate the factory and create wide segments. * Bug: In Katana::AutoSegments_Perpandicular, correct the debug indentation problem (ever shifting to the right).
2017-07-28 08:30:22 -05:00
uint64_t invalidatedFlags = _flags & (SegInvalidatedSource|SegInvalidatedTarget);
unsetFlags( SegInvalidatedSource|SegInvalidatedTarget );
if (invalidatedFlags & SegInvalidatedSource) setFlags( SegInvalidatedTarget );
if (invalidatedFlags & SegInvalidatedTarget) setFlags( SegInvalidatedSource );
Katana manage wide wires, and they can also be symmetric. * New: In Anabatic::AutoContact and the derived classes, manages wide wires. The contact self dimension itself according to the segments it is connected to. Special case for the AutoContactTerminal which also read the size of the component it is anchored upon. New refresh method "updateSize()" and flag CntInvalidatedWidth. to compute the size. In AutoContactTerminal, compute the constraint box according to the width of the segment. * New: In Anabatic::AutoSegment, flags are now implemented as "static const" attributes of the class. The flags are stored into a uint64_t as they are more than 32. Added new flag "SegWide" and associated predicates. * Change: In GCellTopology::_doHChannel() and GCellTopology::_doVChannel(), uses the simpler overload of AutoSegment::create() in order to detect the wire width automatically. * New: In Katana::Manipulator, split insertToTrack() and forceToTrack() into a one-track method and a segment level method that iterate over the track span of the segment. * New: In Katana::SegmentFsm, for each cost in the table, now allow access to a specific track. So the base functions have now two parameters: "icost" and "itrack" (has a cost can have multiple tracks in the case of wide segments). * Change: In Katana::TrackElement, remove the index of the element inside it's track, as for a wide segment it will not be meaningful for the non-base track. This means that we have to use the Track::find() method each time instead. Remove the wide flag, as it is a duplicate of the one in AutoSegment. Added a getTrackCount() method to tell the number of track the segment is inserted into. Needed in the Track destroy step to delete a segment only when the last track that refers it is destroyed. Added getSymmetricAxis() to correct the computation of the symmetric base track in case of wide segment as the base track is not centered but the the leftmost one. * Change: In Track::insert() insert wide segments in their whole track span. * Change: In TrackCost, create an array of costs according to the segment track span. * Change: In TrackSegment::create(), now activate the factory and create wide segments. * Bug: In Katana::AutoSegments_Perpandicular, correct the debug indentation problem (ever shifting to the right).
2017-07-28 08:30:22 -05:00
uint64_t terminalFlags = _flags & SegStrongTerminal;
unsetFlags( SegStrongTerminal );
if (terminalFlags & SegSourceTerminal) setFlags( SegTargetTerminal );
if (terminalFlags & SegTargetTerminal) setFlags( SegSourceTerminal );
}
}
void AutoHorizontal::updatePositions ()
{
_sourcePosition = _horizontal->getSourceX() - getExtensionCap();
_targetPosition = _horizontal->getTargetX() + getExtensionCap();
}
void AutoHorizontal::updateNativeConstraints ()
{
vector<GCell*> gcells;
getGCells( gcells );
resetNativeConstraints( gcells[0]->getYMin(), gcells[0]->getConstraintYMax() );
for ( GCell* gcell : gcells ) {
mergeNativeMin( gcell->getYMin() );
mergeNativeMax( gcell->getConstraintYMax() );
}
}
bool AutoHorizontal::checkPositions () const
{
bool coherency = true;
DbU::Unit sourcePosition = _horizontal->getSourceX() - getExtensionCap();
DbU::Unit targetPosition = _horizontal->getTargetX() + getExtensionCap();
if ( _sourcePosition != sourcePosition ) {
cerr << Error ( "%s\n Source position incoherency: "
"shadow: %s, real: %s."
, _getString().c_str()
, DbU::getValueString(_sourcePosition).c_str()
, DbU::getValueString( sourcePosition).c_str()
) << endl;
coherency = false;
}
if ( _targetPosition != targetPosition ) {
cerr << Error ( "%s\n Target position incoherency: "
"shadow: %s, real: %s."
, _getString().c_str()
, DbU::getValueString(_targetPosition).c_str()
, DbU::getValueString( targetPosition).c_str()
) << endl;
coherency = false;
}
return coherency;
}
bool AutoHorizontal::checkConstraints () const
{
Interval sourceConstraints = Interval(getAutoSource()->getCBYMin(),getAutoSource()->getCBYMax());
Interval targetConstraints = Interval(getAutoTarget()->getCBYMin(),getAutoTarget()->getCBYMax());
if (not sourceConstraints.intersect(targetConstraints)) {
cerr << Error ( "%s\n Constraints incoherency:\n"
" S:%s %s\n"
" T:%s %s"
, _getString().c_str()
, getString(sourceConstraints).c_str()
, getString(getAutoSource()).c_str()
, getString(targetConstraints).c_str()
, getString(getAutoTarget()).c_str()
) << endl;
return false;
}
return true;
}
bool AutoHorizontal::canMoveULeft ( float reserve ) const
{
#if THIS_IS_DISABLED
//cerr << "canMoveULeft() " << this << endl;
if (not isGlobal()) return false;
if (not getAutoSource()->isTurn() or not getAutoTarget()->isTurn()) return false;
if (not getAutoSource()->getGCell()->getDown()) return false;
AutoContact* autoSource = getAutoSource();
AutoContact* autoTarget = getAutoTarget();
AutoSegment* perpandiculars[2] = { autoSource->getSegment(0), autoTarget->getSegment(0) };
if ( ( (not perpandiculars[0]->isGlobal()) or (perpandiculars[0]->getAutoSource() == autoSource) )
and ( (not perpandiculars[1]->isGlobal()) or (perpandiculars[1]->getAutoSource() == autoTarget) ) )
return false;
GCell* begin = autoSource->getGCell();
GCell* end = autoTarget->getGCell();
unsigned int depth = Session::getRoutingGauge()->getLayerDepth( getLayer() );
float currMaxDensity = 0.0;
float leftMaxDensity = 0.0;
//cerr << "| begin:" << begin << endl;
//cerr << "| end: " << end << endl;
for ( GCell* gcell=begin ; gcell and gcell!=end ; gcell=gcell->getRight() ) {
//cerr << "| gcell:" << gcell << endl;
if (currMaxDensity < gcell->getWDensity(depth)) currMaxDensity = gcell->getWDensity( depth );
}
begin = begin->getDown();
end = end ->getDown();
for ( GCell* gcell=begin ; gcell and gcell!=end ; gcell=gcell->getRight() ) {
if (leftMaxDensity < gcell->getWDensity(depth)) leftMaxDensity = gcell->getWDensity( depth );
}
return (leftMaxDensity + reserve < currMaxDensity);
#endif
return false;
}
bool AutoHorizontal::canMoveURight ( float reserve ) const
{
#if THIS_IS_DISABLED
//cerr << "canMoveURight() " << this << endl;
if (not isGlobal()) return false;
if (not getAutoSource()->isTurn() or not getAutoTarget()->isTurn()) return false;
if (not getAutoSource()->getGCell()->getUp()) return false;
AutoContact* autoSource = getAutoSource();
AutoContact* autoTarget = getAutoTarget();
AutoSegment* perpandiculars[2] = { autoSource->getSegment(0), autoTarget->getSegment(0) };
if ( ( (not perpandiculars[0]->isGlobal()) or (perpandiculars[0]->getAutoTarget() == autoSource) )
and ( (not perpandiculars[1]->isGlobal()) or (perpandiculars[1]->getAutoTarget() == autoTarget) ) )
return false;
GCell* begin = autoSource->getGCell();
GCell* end = autoTarget->getGCell();
unsigned int depth = Session::getRoutingGauge()->getLayerDepth( getLayer() );
float currMaxDensity = 0.0;
float leftMaxDensity = 0.0;
//cerr << "| begin:" << begin << endl;
//cerr << "| end: " << end << endl;
for ( GCell* gcell=begin ; gcell and gcell!=end ; gcell=gcell->getRight() ) {
//cerr << "| gcell: " << gcell << endl;
if (currMaxDensity < gcell->getWDensity(depth)) currMaxDensity = gcell->getWDensity( depth );
}
begin = begin->getUp();
end = end ->getUp();
for ( GCell* gcell=begin ; gcell and gcell!=end ; gcell=gcell->getRight() ) {
if (leftMaxDensity < gcell->getWDensity(depth)) leftMaxDensity = gcell->getWDensity( depth );
}
return (leftMaxDensity + reserve < currMaxDensity);
#endif
return false;
}
bool AutoHorizontal::moveULeft ()
{
#if THIS_IS_DISABLED
if (not getAutoSource()->isTurn() or not getAutoTarget()->isTurn()) return false;
if (not getAutoSource()->getGCell()->getDown()) return false;
AutoContact* autoSource = getAutoSource();
AutoContact* autoTarget = getAutoTarget();
GCell* begin = autoSource->getGCell();
GCell* end = autoTarget->getGCell();
AutoSegment* perpandicular = autoSource->getSegment(2);
if (perpandicular->isLocal()) {
perpandicular->setFlags( Anabatic::SegGlobal );
} else {
if (perpandicular->getAutoSource() == autoSource) {
begin->addVSegment( perpandicular );
} else {
if (begin->getDown() == perpandicular->getAutoSource()->getGCell()) {
perpandicular->unsetFlags( Anabatic::SegGlobal );
} else
begin->getDown()->removeVSegment( perpandicular );
}
}
perpandicular = autoTarget->getSegment(2);
if (perpandicular->isLocal()) {
perpandicular->setFlags( Anabatic::SegGlobal );
} else {
if (perpandicular->getAutoSource() == autoTarget) {
end->addVSegment( perpandicular );
} else {
if (end->getDown() == perpandicular->getAutoSource()->getGCell()) {
perpandicular->unsetFlags( Anabatic::SegGlobal );
} else
end->getDown()->removeVSegment( perpandicular );
}
}
if (begin != end) {
for ( GCell* gcell=begin->getRight() ; gcell and gcell!=end ; gcell=gcell->getRight() )
gcell->removeHSegment( this );
}
begin = begin->getDown();
end = end ->getDown();
autoSource->setGCell( begin );
autoTarget->setGCell( end );
if (begin != end) {
for ( GCell* gcell=begin->getRight() ; gcell and gcell!=end ; gcell=gcell->getRight() )
gcell->addHSegment( this );
}
DbU::Unit y = begin->getSide(Flags::Vertical).getVMax();
setAxis( y );
return true;
#endif
return false;
}
bool AutoHorizontal::moveURight ()
{
#if THIS_IS_DISABLED
//cerr << "moveURight() " << this << endl;
if (not getAutoSource()->isTurn() or not getAutoTarget()->isTurn()) return false;
if (not getAutoSource()->getGCell()->getUp()) return false;
AutoContact* autoSource = getAutoSource();
AutoContact* autoTarget = getAutoTarget();
GCell* begin = autoSource->getGCell();
GCell* end = autoTarget->getGCell();
AutoSegment* perpandicular = autoSource->getSegment(2);
if (perpandicular->isLocal()) {
perpandicular->setFlags( Anabatic::SegGlobal );
} else {
if (perpandicular->getAutoTarget() == autoSource) {
begin->addVSegment( perpandicular );
} else {
if (begin->getUp() == perpandicular->getAutoTarget()->getGCell()) {
perpandicular->unsetFlags( Anabatic::SegGlobal );
} else
begin->getUp()->removeVSegment( perpandicular );
}
}
perpandicular = autoTarget->getSegment(2);
if (perpandicular->isLocal()) {
perpandicular->setFlags( Anabatic::SegGlobal );
} else {
if (perpandicular->getAutoTarget() == autoTarget) {
end->addVSegment( perpandicular );
} else {
if (end->getUp() == perpandicular->getAutoTarget()->getGCell()) {
perpandicular->unsetFlags( Anabatic::SegGlobal );
} else
end->getUp()->removeVSegment( perpandicular );
}
}
//cerr << "| begin:" << begin << endl;
//cerr << "| end: " << end << endl;
//cerr << "* remove" << endl;
if (begin != end) {
for ( GCell* gcell=begin->getRight() ; gcell and gcell!=end ; gcell=gcell->getRight() ) {
//cerr << "| gcell: " << end << endl;
gcell->removeHSegment( this );
}
}
begin = begin->getUp();
end = end ->getUp();
autoSource->setGCell( begin );
autoTarget->setGCell( end );
//cerr << "* add" << endl;
if (begin != end) {
for ( GCell* gcell=begin->getRight() ; gcell and gcell!=end ; gcell=gcell->getRight() ) {
//cerr << "| gcell: " << end << endl;
gcell->addHSegment( this );
}
}
DbU::Unit y = begin->getSide( Flags::Vertical ).getVMin();
setAxis( y );
return true;
#endif
return false;
}
Flags AutoHorizontal::_makeDogleg ( GCell* doglegGCell, Flags flags )
{
DebugSession::open( getNet(), 140, 150 );
cdebug_log(149,0) << "AutoHorizontal::_makeDogleg(GCell*) in " << doglegGCell << endl;
cdebug_tabw(149,1);
//Session::doglegReset();
AutoContact* autoTarget = getAutoTarget();
AutoContact* autoSource = getAutoSource();
GCell* begin = autoSource->getGCell();
GCell* end = autoTarget->getGCell();
DbU::Unit doglegAxis = (doglegGCell->getXMax() + doglegGCell->getXMin()) / 2;
if (isLocal())
doglegAxis = (getSourceX() + getTargetX()) / 2;
cdebug_log(149,0) << "Detaching from Target AutoContact " << autoTarget << "." << endl;
if (doglegGCell == begin) unsetFlags( SegGlobal );
if (doglegGCell != end) {
GCell* gcell = doglegGCell;
do {
if (gcell != begin) {
cdebug_log(149,0) << "| Remove from:" << gcell << endl;
gcell->removeHSegment( this );
}
gcell = gcell->getEast( getNativeMin() );
} while ( gcell and (gcell != end) );
}
size_t depth = Session::getRoutingGauge()->getLayerDepth( _horizontal->getLayer() );
bool upLayer = (depth+1 <= Session::getConfiguration()->getAllowedDepth());
Layer* contactLayer = Session::getRoutingGauge()->getContactLayer( depth + ((upLayer)?0:-1) );
const Layer* doglegLayer = Session::getRoutingGauge()->getRoutingLayer( depth + ((upLayer)?1:-1) );
Session::dogleg( this );
targetDetach();
invalidate( Flags::Topology );
autoTarget->invalidate( Flags::Topology );
AutoContact* dlContact1 = AutoContactTurn::create( doglegGCell, _horizontal->getNet(), contactLayer );
AutoContact* dlContact2 = AutoContactTurn::create( doglegGCell, _horizontal->getNet(), contactLayer );
AutoSegment* segment1 = AutoSegment::create( dlContact1 , dlContact2, Flags::Vertical );
segment1->setLayer( doglegLayer );
segment1->_setAxis( doglegAxis );
segment1->setFlags( SegDogleg|SegSlackened|SegCanonical|SegNotAligned );
cdebug_log(149,0) << "New " << dlContact1 << endl;
cdebug_log(149,0) << "New " << dlContact2 << endl;
Session::dogleg( segment1 );
targetAttach( dlContact1 );
AutoSegment* segment2 = AutoSegment::create( dlContact2 , autoTarget, Flags::Horizontal );
autoTarget->cacheAttach( segment2 );
segment2->setLayer( getLayer() );
segment2->_setAxis( getY() );
segment2->setFlags( (isSlackened()?SegSlackened:0) );
Session::dogleg( segment2 );
if (autoSource->isTerminal()) {
segment1->setFlags( SegWeakTerminal1 );
segment2->setFlags( SegWeakTerminal1 );
autoTarget->unsetFlags( CntWeakTerminal );
dlContact1->setFlags ( CntWeakTerminal );
if (autoTarget->getGCell() == doglegGCell)
dlContact1->migrateConstraintBox( autoTarget );
} else if (autoTarget->isTerminal()) {
unsetFlags( SegTargetTerminal );
setFlags( SegWeakTerminal1 );
segment1->setFlags( SegWeakTerminal1 );
segment2->setFlags( SegTargetTerminal );
autoSource->unsetFlags( CntWeakTerminal );
dlContact2->setFlags ( CntWeakTerminal );
if (autoSource->getGCell() == doglegGCell)
dlContact2->migrateConstraintBox( autoSource );
} else if (isWeakTerminal()) {
segment1->setFlags( SegWeakTerminal1 );
segment2->setFlags( SegWeakTerminal1 );
}
if (isAnalog()) {
segment1->setFlags( SegAnalog );
segment2->setFlags( SegAnalog );
}
cdebug_log(149,0) << "Session::dogleg[x+1] perpand: " << segment1 << endl;
cdebug_log(149,0) << "Session::dogleg[x+2] new paral: " << segment2 << endl;
cdebug_log(149,0) << "Session::dogleg[x+0] original: " << this << endl;
dlContact1->updateCache();
dlContact2->updateCache();
//autoTarget->updateCache();
segment2->canonize( flags );
if (not isCanonical()) canonize( flags );
updateNativeConstraints();
segment2->updateNativeConstraints();
cdebug_tabw(149,-1);
DebugSession::close();
return (upLayer) ? Flags::AboveLayer : Flags::BelowLayer;
}
string AutoHorizontal::_getString () const
{
string s = AutoSegment::_getString();
return s;
}
Record* AutoHorizontal::_getRecord () const
{
Record* record = AutoSegment::_getRecord ();
record->add ( getSlot ( "_horizontal", _horizontal ) );
return record;
}
} // End of Anabatic namespace.