/***************************************************************************
                               ampere_ac.cpp
                              ---------------
    begin                : Sun May 23 2004
    copyright            : (C) 2003 by Michael Margraf
    email                : michael.margraf@alumni.tu-berlin.de
 ***************************************************************************/

/***************************************************************************
 *                                                                         *
 *   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.                                   *
 *                                                                         *
 ***************************************************************************/

#include "ampere_ac.h"
#include "node.h"
#include "extsimkernels/spicecompat.h"


Ampere_ac::Ampere_ac()
{
  Description = QObject::tr("ideal ac current source");

  Arcs.append(new qucs::Arc(-12,-12, 24, 24,  0, 16*360,QPen(Qt::darkBlue,2)));
  Lines.append(new qucs::Line(-30,  0,-12,  0,QPen(Qt::darkBlue,2)));
  Lines.append(new qucs::Line( 30,  0, 12,  0,QPen(Qt::darkBlue,2)));
  // arrow stem
  Lines.append(new qucs::Line( -8.5,  0,  6,  0,QPen(Qt::darkBlue,3, Qt::SolidLine, Qt::FlatCap)));
  // arrow head
  Polylines.append(new qucs::Polyline(std::vector<QPointF>{{0, -4}, {6, 0}, {0, 4}}, QPen(Qt::darkBlue, 3, Qt::SolidLine, Qt::SquareCap, Qt::MiterJoin)));
  // AC-wave
  Arcs.append(new qucs::Arc( 12,  5,  6,  6,16*270, 16*180, QPen(Qt::darkBlue,2, Qt::SolidLine, Qt::FlatCap)));
  Arcs.append(new qucs::Arc( 12, 11,  6,  6, 16*90, 16*180, QPen(Qt::darkBlue,2, Qt::SolidLine, Qt::FlatCap)));

  Ports.append(new Port( 30,  0));
  Ports.append(new Port(-30,  0));

  x1 = -30; y1 = -14;
  x2 =  30; y2 =  16;

  tx = x1+4;
  ty = y2+4;
  Model = "Iac";
  Name  = "I";
  SpiceModel = "I";

  Props.append(new Property("I", "1 mA", true,
		QObject::tr("peak current in Ampere")));
  Props.append(new Property("f", "1 kHz", false,
		QObject::tr("frequency in Hertz")));
  Props.append(new Property("Phase", "0", false,
		QObject::tr("initial phase in degrees")));
  Props.append(new Property("Theta", "0", false,
		QObject::tr("damping factor (transient simulation only)")));
  Props.append(new Property("IO", "0", false,
                            QObject::tr("offset current (SPICE only)")));
  Props.append(new Property("TD", "0", false,
                            QObject::tr("delay time (SPICE only)")));

  rotate();  // fix historical flaw
}

Ampere_ac::~Ampere_ac()
{
}

Component* Ampere_ac::newOne()
{
  return new Ampere_ac();
}

Element* Ampere_ac::info(QString& Name, char* &BitmapFile, bool getNewOne)
{
  Name = QObject::tr("ac Current Source");
  BitmapFile = (char *) "ac_current";

  if(getNewOne)  return new Ampere_ac();
  return 0;
}


QString Ampere_ac::spice_netlist(spicecompat::SpiceDialect dialect /* = spicecompat::SPICEDefault */)
{
    Q_UNUSED(dialect);

    QString s = spicecompat::check_refdes(Name,SpiceModel);

    QString plus = spicecompat::normalize_node_name(Ports.at(1)->Connection->Name);
    QString minus = spicecompat::normalize_node_name(Ports.at(0)->Connection->Name);
    s += QStringLiteral(" %1 %2 ").arg(plus).arg(minus);

    QString amperes = spicecompat::normalize_value(Props.at(0)->Value);
    QString freq = spicecompat::normalize_value(Props.at(1)->Value);

    QString IO = spicecompat::normalize_value(getProperty("IO")->Value);
    QString TD = spicecompat::normalize_value(getProperty("TD")->Value);

    QString phase = Props.at(2)->Value;
    phase.remove(' ');
    if (phase.isEmpty()) phase = "0";

    QString theta = Props.at(3)->Value;
    theta.remove(' ');
    if (theta.isEmpty()) theta="0";
    s += QStringLiteral(" DC %7 SIN(%7 %1 %2 %8 %3 %4) AC %5 ACPHASE %6\n")
             .arg(amperes).arg(freq).arg(theta).arg(phase).arg(amperes).arg(phase)
             .arg(IO).arg(TD);
    return s;
}