kicad/eeschema/sim/sim_model_source.cpp

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/*
* This program source code file is part of KiCad, a free EDA CAD application.
*
* Copyright (C) 2022 Mikolaj Wielgus
* Copyright (C) 2022 KiCad Developers, see AUTHORS.txt for contributors.
*
* 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 3
* 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, you may find one here:
* https://www.gnu.org/licenses/gpl-3.0.html
* or you may search the http://www.gnu.org website for the version 3 license,
* or you may write to the Free Software Foundation, Inc.,
* 51 Franklin Street, Fifth Floor, Boston, MA 02110-1301, USA
*/
#include <sim/sim_model_source.h>
using PARAM = SIM_MODEL::PARAM;
SIM_MODEL_SOURCE::SIM_MODEL_SOURCE( TYPE aType )
: SIM_MODEL( aType ),
m_isInferred( false )
{
for( const PARAM::INFO& paramInfo : makeParamInfos( aType ) )
AddParam( paramInfo );
}
void SIM_MODEL_SOURCE::ReadDataSchFields( unsigned aSymbolPinCount,
const std::vector<SCH_FIELD>* aFields )
{
if( GetFieldValue( aFields, PARAMS_FIELD ) != "" )
SIM_MODEL::ReadDataSchFields( aSymbolPinCount, aFields );
else
inferredReadDataFields( aSymbolPinCount, aFields );
}
void SIM_MODEL_SOURCE::ReadDataLibFields( unsigned aSymbolPinCount,
const std::vector<LIB_FIELD>* aFields )
{
if( GetFieldValue( aFields, PARAMS_FIELD ) != "" )
SIM_MODEL::ReadDataLibFields( aSymbolPinCount, aFields );
else
inferredReadDataFields( aSymbolPinCount, aFields );
}
void SIM_MODEL_SOURCE::WriteDataSchFields( std::vector<SCH_FIELD>& aFields ) const
{
SIM_MODEL::WriteDataSchFields( aFields );
if( m_isInferred )
inferredWriteDataFields( aFields );
}
void SIM_MODEL_SOURCE::WriteDataLibFields( std::vector<LIB_FIELD>& aFields ) const
{
SIM_MODEL::WriteDataLibFields( aFields );
if( m_isInferred )
inferredWriteDataFields( aFields );
}
wxString SIM_MODEL_SOURCE::GenerateSpiceModelLine( const wxString& aModelName ) const
{
return "";
}
wxString SIM_MODEL_SOURCE::GenerateSpiceItemLine( const wxString& aRefName,
const wxString& aModelName,
const std::vector<wxString>& aPinNetNames ) const
{
wxString model;
wxString ac = FindParam( "ac" )->value->ToString( SIM_VALUE_GRAMMAR::NOTATION::SPICE );
wxString ph = FindParam( "ph" )->value->ToString( SIM_VALUE_GRAMMAR::NOTATION::SPICE );
if( ac != "" )
model << wxString::Format( "AC %s %s ", ac, ph );
if( GetSpiceInfo().inlineTypeString != "" )
{
wxString argList = "";
for( const PARAM& param : GetParams() )
{
wxString argStr = param.value->ToString( SIM_VALUE_GRAMMAR::NOTATION::SPICE );
if( argStr != "" )
argList << argStr << " ";
}
model << wxString::Format( "%s( %s)", GetSpiceInfo().inlineTypeString, argList );
}
else
model << GetParam( 0 ).value->ToString( SIM_VALUE_GRAMMAR::NOTATION::SPICE );
return SIM_MODEL::GenerateSpiceItemLine( aRefName, model, aPinNetNames );
}
const std::vector<PARAM::INFO>& SIM_MODEL_SOURCE::makeParamInfos( TYPE aType )
{
static std::vector<PARAM::INFO> vdc = makeDcParamInfos( "v", "V" );
static std::vector<PARAM::INFO> idc = makeDcParamInfos( "i", "A" );
static std::vector<PARAM::INFO> vsin = makeSinParamInfos( "v", "V" );
static std::vector<PARAM::INFO> isin = makeSinParamInfos( "i", "A" );
static std::vector<PARAM::INFO> vpulse = makePulseParamInfos( "v", "V" );
static std::vector<PARAM::INFO> ipulse = makePulseParamInfos( "i", "A" );
static std::vector<PARAM::INFO> vexp = makeExpParamInfos( "v", "V" );
static std::vector<PARAM::INFO> iexp = makeExpParamInfos( "i", "A" );
/*static std::vector<PARAM::INFO> vsfam = makeSfamParamInfos( "v", "V" );
static std::vector<PARAM::INFO> isfam = makeSfamParamInfos( "i", "A" );
static std::vector<PARAM::INFO> vsffm = makeSffmParamInfos( "v", "V" );
static std::vector<PARAM::INFO> isffm = makeSffmParamInfos( "i", "A" );*/
static std::vector<PARAM::INFO> vpwl = makePwlParamInfos( "v", "Voltage", "V" );
static std::vector<PARAM::INFO> ipwl = makePwlParamInfos( "i", "Current", "A" );
static std::vector<PARAM::INFO> vwhitenoise = makeWhiteNoiseParamInfos( "v", "V" );
static std::vector<PARAM::INFO> iwhitenoise = makeWhiteNoiseParamInfos( "i", "A" );
static std::vector<PARAM::INFO> vpinknoise = makePinkNoiseParamInfos( "v", "V" );
static std::vector<PARAM::INFO> ipinknoise = makePinkNoiseParamInfos( "i", "A" );
static std::vector<PARAM::INFO> vburstnoise = makeBurstNoiseParamInfos( "v", "V" );
static std::vector<PARAM::INFO> iburstnoise = makeBurstNoiseParamInfos( "i", "A" );
static std::vector<PARAM::INFO> vrandomuniform = makeRandomUniformParamInfos( "v", "V" );
static std::vector<PARAM::INFO> irandomuniform = makeRandomUniformParamInfos( "i", "A" );
static std::vector<PARAM::INFO> vrandomnormal = makeRandomNormalParamInfos( "v", "V" );
static std::vector<PARAM::INFO> irandomnormal = makeRandomNormalParamInfos( "i", "A" );
static std::vector<PARAM::INFO> vrandomexp = makeRandomExpParamInfos( "v", "V" );
static std::vector<PARAM::INFO> irandomexp = makeRandomExpParamInfos( "i", "A" );
static std::vector<PARAM::INFO> vrandompoisson = makeRandomPoissonParamInfos( "v", "V" );
static std::vector<PARAM::INFO> irandompoisson = makeRandomPoissonParamInfos( "i", "A" );
switch( aType )
{
case TYPE::V_DC: return vdc;
case TYPE::I_DC: return idc;
case TYPE::V_SIN: return vsin;
case TYPE::I_SIN: return isin;
case TYPE::V_PULSE: return vpulse;
case TYPE::I_PULSE: return ipulse;
case TYPE::V_EXP: return vexp;
case TYPE::I_EXP: return iexp;
/*case TYPE::V_SFAM: return vsfam;
case TYPE::I_SFAM: return isfam;
case TYPE::V_SFFM: return vsffm;
case TYPE::I_SFFM: return isffm;*/
case TYPE::V_PWL: return vpwl;
case TYPE::I_PWL: return ipwl;
case TYPE::V_WHITENOISE: return vwhitenoise;
case TYPE::I_WHITENOISE: return iwhitenoise;
case TYPE::V_PINKNOISE: return vpinknoise;
case TYPE::I_PINKNOISE: return ipinknoise;
case TYPE::V_BURSTNOISE: return vburstnoise;
case TYPE::I_BURSTNOISE: return iburstnoise;
case TYPE::V_RANDUNIFORM: return vrandomuniform;
case TYPE::I_RANDUNIFORM: return irandomuniform;
case TYPE::V_RANDNORMAL: return vrandomnormal;
case TYPE::I_RANDNORMAL: return irandomnormal;
case TYPE::V_RANDEXP: return vrandomexp;
case TYPE::I_RANDEXP: return irandomexp;
case TYPE::V_RANDPOISSON: return vrandompoisson;
case TYPE::I_RANDPOISSON: return irandompoisson;
default:
wxFAIL_MSG( "Unhandled SIM_MODEL type in SIM_MODEL_SOURCE" );
static std::vector<PARAM::INFO> empty;
return empty;
}
}
bool SIM_MODEL_SOURCE::SetParamValue( unsigned aParamIndex, const wxString& aValue,
SIM_VALUE_GRAMMAR::NOTATION aNotation )
{
// Sources are special. All preceding parameter values must be filled. If they are not, fill
// them out automatically. If a value is nulled, delete everything after it.
if( aValue == "" )
{
for( unsigned i = aParamIndex; i < GetParamCount(); ++i )
SIM_MODEL::SetParamValue( i, "", aNotation );
}
else
{
for( unsigned i = 0; i < aParamIndex; ++i )
{
if( GetParam( i ).value->ToString() == "" )
SIM_MODEL::SetParamValue( i, "0", aNotation );
}
}
return SIM_MODEL::SetParamValue( aParamIndex, aValue, aNotation );
}
wxString SIM_MODEL_SOURCE::GenerateParamValuePair( const PARAM& aParam, bool& aIsFirst ) const
{
if( aParam.value->ToString() == "0" )
return "";
return SIM_MODEL::GenerateParamValuePair( aParam, aIsFirst );
}
template <typename T>
void SIM_MODEL_SOURCE::inferredReadDataFields( unsigned aSymbolPinCount,
const std::vector<T>* aFields )
{
ParsePinsField( aSymbolPinCount, PINS_FIELD );
if( ( InferTypeFromRefAndValue( GetFieldValue( aFields, REFERENCE_FIELD ),
GetFieldValue( aFields, VALUE_FIELD ) ) == GetType()
&& ParseParamsField( GetFieldValue( aFields, VALUE_FIELD ) ) )
|| GetFieldValue( aFields, VALUE_FIELD ) == DeviceTypeInfo( GetDeviceType() ).fieldValue )
{
m_isInferred = true;
}
}
template <typename T>
void SIM_MODEL_SOURCE::inferredWriteDataFields( std::vector<T>& aFields ) const
{
wxString value = GetFieldValue( &aFields, PARAMS_FIELD );
if( value == "" )
value = GetDeviceTypeInfo().fieldValue;
WriteInferredDataFields( aFields, value );
}
std::vector<wxString> SIM_MODEL_SOURCE::getPinNames() const
{
return { "+", "-" };
}
std::vector<PARAM::INFO> SIM_MODEL_SOURCE::makeDcParamInfos( wxString aPrefix, wxString aUnit )
{
std::vector<PARAM::INFO> paramInfos;
PARAM::INFO paramInfo;
paramInfo.name = "dc";
paramInfo.type = SIM_VALUE::TYPE::FLOAT;
paramInfo.unit = aUnit;
paramInfo.category = SIM_MODEL::PARAM::CATEGORY::PRINCIPAL;
paramInfo.defaultValue = "0";
paramInfo.description = "DC value";
paramInfos.push_back( paramInfo );
appendAcParamInfos( paramInfos, aUnit );
return paramInfos;
}
std::vector<PARAM::INFO> SIM_MODEL_SOURCE::makeSinParamInfos( wxString aPrefix, wxString aUnit )
{
std::vector<PARAM::INFO> paramInfos;
PARAM::INFO paramInfo;
paramInfo.name = "dc";
paramInfo.type = SIM_VALUE::TYPE::FLOAT;
paramInfo.unit = aUnit;
paramInfo.category = SIM_MODEL::PARAM::CATEGORY::PRINCIPAL;
paramInfo.defaultValue = "";
paramInfo.description = "DC offset";
paramInfos.push_back( paramInfo );
paramInfo.name = "ampl";
paramInfo.type = SIM_VALUE::TYPE::FLOAT;
paramInfo.unit = aUnit;
paramInfo.category = SIM_MODEL::PARAM::CATEGORY::PRINCIPAL;
paramInfo.defaultValue = "";
paramInfo.description = "Amplitude";
paramInfos.push_back( paramInfo );
paramInfo.name = "f";
paramInfo.type = SIM_VALUE::TYPE::FLOAT;
paramInfo.unit = "Hz";
paramInfo.category = SIM_MODEL::PARAM::CATEGORY::PRINCIPAL;
paramInfo.defaultValue = "1/tstop";
paramInfo.description = "Frequency";
paramInfos.push_back( paramInfo );
paramInfo.name = "td";
paramInfo.type = SIM_VALUE::TYPE::FLOAT;
paramInfo.unit = "s";
paramInfo.category = SIM_MODEL::PARAM::CATEGORY::PRINCIPAL;
paramInfo.defaultValue = "0";
paramInfo.description = "Delay";
paramInfos.push_back( paramInfo );
paramInfo.name = "theta";
paramInfo.type = SIM_VALUE::TYPE::FLOAT;
paramInfo.unit = "1/s";
paramInfo.category = SIM_MODEL::PARAM::CATEGORY::PRINCIPAL;
paramInfo.defaultValue = "0";
paramInfo.description = "Damping factor";
paramInfos.push_back( paramInfo );
// "phase" is not needed. "td" is enough.
/*paramInfo.name = "phase";
paramInfo.type = SIM_VALUE::TYPE::FLOAT;
paramInfo.unit = "°";
paramInfo.category = SIM_MODEL::PARAM::CATEGORY::PRINCIPAL;
paramInfo.defaultValue = "0";
paramInfo.description = "Phase";
paramInfos.push_back( paramInfo );*/
appendAcParamInfos( paramInfos, aUnit );
return paramInfos;
}
std::vector<PARAM::INFO> SIM_MODEL_SOURCE::makePulseParamInfos( wxString aPrefix, wxString aUnit )
{
std::vector<PARAM::INFO> paramInfos;
PARAM::INFO paramInfo;
paramInfo.name = aPrefix + "1";
paramInfo.type = SIM_VALUE::TYPE::FLOAT;
paramInfo.unit = aUnit;
paramInfo.category = PARAM::CATEGORY::PRINCIPAL;
paramInfo.defaultValue = "";
paramInfo.description = "Initial value";
paramInfos.push_back( paramInfo );
paramInfo.name = aPrefix + "2";
paramInfo.type = SIM_VALUE::TYPE::FLOAT;
paramInfo.unit = aUnit;
paramInfo.category = PARAM::CATEGORY::PRINCIPAL;
paramInfo.defaultValue = "";
paramInfo.description = "Initial value";
paramInfos.push_back( paramInfo );
paramInfo.name = "td";
paramInfo.type = SIM_VALUE::TYPE::FLOAT;
paramInfo.unit = "s";
paramInfo.category = PARAM::CATEGORY::PRINCIPAL;
paramInfo.defaultValue = "0";
paramInfo.description = "Delay";
paramInfos.push_back( paramInfo );
paramInfo.name = "tr";
paramInfo.type = SIM_VALUE::TYPE::FLOAT;
paramInfo.unit = "s";
paramInfo.category = PARAM::CATEGORY::PRINCIPAL;
paramInfo.defaultValue = "tstep";
paramInfo.description = "Rise time";
paramInfos.push_back( paramInfo );
paramInfo.name = "tf";
paramInfo.type = SIM_VALUE::TYPE::FLOAT;
paramInfo.unit = "s";
paramInfo.category = PARAM::CATEGORY::PRINCIPAL;
paramInfo.defaultValue = "tstep";
paramInfo.description = "Fall time";
paramInfos.push_back( paramInfo );
paramInfo.name = "tw"; // Ngspice calls it "pw".
paramInfo.type = SIM_VALUE::TYPE::FLOAT;
paramInfo.unit = "s";
paramInfo.category = PARAM::CATEGORY::PRINCIPAL;
paramInfo.defaultValue = "tstop";
paramInfo.description = "Pulse width";
paramInfos.push_back( paramInfo );
paramInfo.name = "per";
paramInfo.type = SIM_VALUE::TYPE::FLOAT;
paramInfo.unit = "s";
paramInfo.category = PARAM::CATEGORY::PRINCIPAL;
paramInfo.defaultValue = "tstop";
paramInfo.description = "Period";
paramInfos.push_back( paramInfo );
// "phase" is not needed. "td" is enough.
/*paramInfo.name = "phase";
paramInfo.type = SIM_VALUE::TYPE::FLOAT;
paramInfo.unit = "°";
paramInfo.category = PARAM::CATEGORY::PRINCIPAL;
paramInfo.defaultValue = "0";
paramInfo.description = "Phase";
paramInfos.push_back( paramInfo );*/
appendAcParamInfos( paramInfos, aUnit );
return paramInfos;
}
std::vector<PARAM::INFO> SIM_MODEL_SOURCE::makeExpParamInfos( wxString aPrefix, wxString aUnit )
{
std::vector<PARAM::INFO> paramInfos;
PARAM::INFO paramInfo;
paramInfo.name = aPrefix + "1";
paramInfo.type = SIM_VALUE::TYPE::FLOAT;
paramInfo.unit = aUnit;
paramInfo.category = SIM_MODEL::PARAM::CATEGORY::PRINCIPAL;
paramInfo.defaultValue = "";
paramInfo.description = "Initial value";
paramInfos.push_back( paramInfo );
paramInfo.name = aPrefix + "2";
paramInfo.type = SIM_VALUE::TYPE::FLOAT;
paramInfo.unit = aUnit;
paramInfo.category = SIM_MODEL::PARAM::CATEGORY::PRINCIPAL;
paramInfo.defaultValue = "";
paramInfo.description = "Pulsed value";
paramInfos.push_back( paramInfo );
paramInfo.name = "td1";
paramInfo.type = SIM_VALUE::TYPE::FLOAT;
paramInfo.unit = "s";
paramInfo.category = SIM_MODEL::PARAM::CATEGORY::PRINCIPAL;
paramInfo.defaultValue = "0";
paramInfo.description = "Rise delay time";
paramInfos.push_back( paramInfo );
paramInfo.name = "tau1";
paramInfo.type = SIM_VALUE::TYPE::FLOAT;
paramInfo.unit = "s";
paramInfo.category = SIM_MODEL::PARAM::CATEGORY::PRINCIPAL;
paramInfo.defaultValue = "tstep";
paramInfo.description = "Rise time constant";
paramInfos.push_back( paramInfo );
paramInfo.name = "td2";
paramInfo.type = SIM_VALUE::TYPE::FLOAT;
paramInfo.unit = "s";
paramInfo.category = SIM_MODEL::PARAM::CATEGORY::PRINCIPAL;
paramInfo.defaultValue = "td1+tstep";
paramInfo.description = "Fall delay time";
paramInfos.push_back( paramInfo );
paramInfo.name = "tau2";
paramInfo.type = SIM_VALUE::TYPE::FLOAT;
paramInfo.unit = "s";
paramInfo.category = SIM_MODEL::PARAM::CATEGORY::PRINCIPAL;
paramInfo.defaultValue = "tstep";
paramInfo.description = "Fall time constant";
paramInfos.push_back( paramInfo );
appendAcParamInfos( paramInfos, aUnit );
return paramInfos;
}
/*std::vector<PARAM::INFO> SIM_MODEL_SOURCE::makeSfamParamInfos( wxString aPrefix, wxString aUnit )
{
std::vector<PARAM::INFO> paramInfos;
PARAM::INFO paramInfo;
paramInfo.name = "dc";
paramInfo.type = SIM_VALUE::TYPE::FLOAT;
paramInfo.unit = aUnit;
paramInfo.category = SIM_MODEL::PARAM::CATEGORY::PRINCIPAL;
paramInfo.defaultValue = "";
paramInfo.description = "DC offset";
paramInfo.name = "ampl";
paramInfo.type = SIM_VALUE::TYPE::FLOAT;
paramInfo.unit = aUnit;
paramInfo.category = SIM_MODEL::PARAM::CATEGORY::PRINCIPAL;
paramInfo.defaultValue = "";
paramInfo.description = "Amplitude";
paramInfos.push_back( paramInfo );
paramInfo.name = "mo";
paramInfo.type = SIM_VALUE::TYPE::FLOAT;
paramInfo.unit = "";
paramInfo.category = SIM_MODEL::PARAM::CATEGORY::PRINCIPAL;
paramInfo.defaultValue = "";
paramInfo.description = "Modulating signal offset";
paramInfos.push_back( paramInfo );
paramInfo.name = "fc";
paramInfo.type = SIM_VALUE::TYPE::FLOAT;
paramInfo.unit = "Hz";
paramInfo.category = SIM_MODEL::PARAM::CATEGORY::PRINCIPAL;
paramInfo.defaultValue = "";
paramInfo.description = "Carrier frequency";
paramInfos.push_back( paramInfo );
paramInfo.name = "mf";
paramInfo.type = SIM_VALUE::TYPE::FLOAT;
paramInfo.unit = "Hz";
paramInfo.category = SIM_MODEL::PARAM::CATEGORY::PRINCIPAL;
paramInfo.defaultValue = "";
paramInfo.description = "Modulating frequency";
paramInfos.push_back( paramInfo );
appendAcParamInfos( paramInfos, aUnit );
return paramInfos;
}
std::vector<PARAM::INFO> SIM_MODEL_SOURCE::makeSffmParamInfos( wxString aPrefix, wxString aUnit )
{
std::vector<PARAM::INFO> paramInfos;
PARAM::INFO paramInfo;
paramInfo.name = "dc";
paramInfo.type = SIM_VALUE::TYPE::FLOAT;
paramInfo.unit = aUnit;
paramInfo.category = SIM_MODEL::PARAM::CATEGORY::PRINCIPAL;
paramInfo.defaultValue = "";
paramInfo.description = "DC offset";
paramInfos.push_back( paramInfo );
paramInfo.name = "ampl";
paramInfo.type = SIM_VALUE::TYPE::FLOAT;
paramInfo.unit = aUnit;
paramInfo.category = SIM_MODEL::PARAM::CATEGORY::PRINCIPAL;
paramInfo.defaultValue = "";
paramInfo.description = "Amplitude";
paramInfos.push_back( paramInfo );
paramInfo.name = "fc";
paramInfo.type = SIM_VALUE::TYPE::FLOAT;
paramInfo.unit = "Hz";
paramInfo.category = SIM_MODEL::PARAM::CATEGORY::PRINCIPAL;
paramInfo.defaultValue = "1/tstop";
paramInfo.description = "Carrier frequency";
paramInfos.push_back( paramInfo );
paramInfo.name = "mdi";
paramInfo.type = SIM_VALUE::TYPE::FLOAT;
paramInfo.unit = "";
paramInfo.category = SIM_MODEL::PARAM::CATEGORY::PRINCIPAL;
paramInfo.defaultValue = "";
paramInfo.description = "Modulation index";
paramInfos.push_back( paramInfo );
paramInfo.name = "fs";
paramInfo.type = SIM_VALUE::TYPE::FLOAT;
paramInfo.unit = "Hz";
paramInfo.category = SIM_MODEL::PARAM::CATEGORY::PRINCIPAL;
paramInfo.defaultValue = "1/tstop";
paramInfo.description = "Signal frequency";
paramInfos.push_back( paramInfo );
paramInfo.name = "phasec";
paramInfo.type = SIM_VALUE::TYPE::FLOAT;
paramInfo.unit = "°";
paramInfo.category = SIM_MODEL::PARAM::CATEGORY::PRINCIPAL;
paramInfo.defaultValue = "0";
paramInfo.description = "Carrier phase";
paramInfos.push_back( paramInfo );
paramInfo.name = "phases";
paramInfo.type = SIM_VALUE::TYPE::FLOAT;
paramInfo.unit = "°";
paramInfo.category = SIM_MODEL::PARAM::CATEGORY::PRINCIPAL;
paramInfo.defaultValue = "0";
paramInfo.description = "Signal phase";
paramInfos.push_back( paramInfo );
appendAcParamInfos( paramInfos, aUnit );
return paramInfos;
}*/
std::vector<PARAM::INFO> SIM_MODEL_SOURCE::makePwlParamInfos( wxString aPrefix, wxString aQuantity,
wxString aUnit )
{
std::vector<PARAM::INFO> paramInfos;
PARAM::INFO paramInfo;
paramInfo.name = "t";
paramInfo.type = SIM_VALUE::TYPE::FLOAT_VECTOR;
paramInfo.unit = "s";
paramInfo.category = SIM_MODEL::PARAM::CATEGORY::PRINCIPAL;
paramInfo.defaultValue = "";
paramInfo.description = "Time vector";
paramInfos.push_back( paramInfo );
paramInfo.name = aPrefix;
paramInfo.type = SIM_VALUE::TYPE::FLOAT_VECTOR;
paramInfo.unit = aUnit;
paramInfo.category = SIM_MODEL::PARAM::CATEGORY::PRINCIPAL;
paramInfo.defaultValue = "";
paramInfo.description = aQuantity + " vector";
paramInfos.push_back( paramInfo );
paramInfo.name = "repeat";
paramInfo.type = SIM_VALUE::TYPE::BOOL;
paramInfo.unit = "";
paramInfo.category = SIM_MODEL::PARAM::CATEGORY::PRINCIPAL;
paramInfo.defaultValue = "";
paramInfo.description = "Repeat forever";
paramInfos.push_back( paramInfo );
paramInfo.name = "td";
paramInfo.type = SIM_VALUE::TYPE::FLOAT;
paramInfo.unit = "s";
paramInfo.category = SIM_MODEL::PARAM::CATEGORY::PRINCIPAL;
paramInfo.defaultValue = "0";
paramInfo.description = "Delay";
paramInfos.push_back( paramInfo );
appendAcParamInfos( paramInfos, aUnit );
return paramInfos;
}
std::vector<PARAM::INFO> SIM_MODEL_SOURCE::makeWhiteNoiseParamInfos( wxString aPrefix,
wxString aUnit )
{
std::vector<PARAM::INFO> paramInfos;
PARAM::INFO paramInfo;
paramInfo.name = "dc";
paramInfo.type = SIM_VALUE::TYPE::FLOAT;
paramInfo.unit = aUnit;
paramInfo.category = SIM_MODEL::PARAM::CATEGORY::PRINCIPAL;
paramInfo.defaultValue = "";
paramInfo.description = "DC offset";
paramInfos.push_back( paramInfo );
paramInfo.name = "na";
paramInfo.type = SIM_VALUE::TYPE::FLOAT;
paramInfo.unit = aUnit;
paramInfo.category = SIM_MODEL::PARAM::CATEGORY::PRINCIPAL;
paramInfo.defaultValue = "0";
paramInfo.description = "White noise RMS amplitude";
paramInfos.push_back( paramInfo );
paramInfo.name = "nt";
paramInfo.type = SIM_VALUE::TYPE::FLOAT;
paramInfo.unit = "s";
paramInfo.category = SIM_MODEL::PARAM::CATEGORY::PRINCIPAL;
paramInfo.defaultValue = "0";
paramInfo.description = "Time step";
paramInfos.push_back( paramInfo );
appendAcParamInfos( paramInfos, aUnit );
return paramInfos;
}
std::vector<PARAM::INFO> SIM_MODEL_SOURCE::makePinkNoiseParamInfos( wxString aPrefix,
wxString aUnit )
{
std::vector<PARAM::INFO> paramInfos;
PARAM::INFO paramInfo;
paramInfo.name = "dc";
paramInfo.type = SIM_VALUE::TYPE::FLOAT;
paramInfo.unit = aUnit;
paramInfo.category = SIM_MODEL::PARAM::CATEGORY::PRINCIPAL;
paramInfo.defaultValue = "";
paramInfo.description = "DC offset";
paramInfos.push_back( paramInfo );
paramInfo.name = "nalpha";
paramInfo.type = SIM_VALUE::TYPE::FLOAT;
paramInfo.unit = "";
paramInfo.category = SIM_MODEL::PARAM::CATEGORY::PRINCIPAL;
paramInfo.defaultValue = "0";
paramInfo.description = "1/f noise exponent";
paramInfos.push_back( paramInfo );
paramInfo.name = "namp";
paramInfo.type = SIM_VALUE::TYPE::FLOAT;
paramInfo.unit = "";
paramInfo.category = SIM_MODEL::PARAM::CATEGORY::PRINCIPAL;
paramInfo.defaultValue = "0";
paramInfo.description = "1/f noise RMS amplitude";
paramInfos.push_back( paramInfo );
paramInfo.name = "nt";
paramInfo.type = SIM_VALUE::TYPE::FLOAT;
paramInfo.unit = "s";
paramInfo.category = SIM_MODEL::PARAM::CATEGORY::PRINCIPAL;
paramInfo.defaultValue = "0";
paramInfo.description = "Time step";
paramInfos.push_back( paramInfo );
appendAcParamInfos( paramInfos, aUnit );
return paramInfos;
}
std::vector<PARAM::INFO> SIM_MODEL_SOURCE::makeBurstNoiseParamInfos( wxString aPrefix,
wxString aUnit )
{
std::vector<PARAM::INFO> paramInfos;
PARAM::INFO paramInfo;
paramInfo.name = "rtsam";
paramInfo.type = SIM_VALUE::TYPE::FLOAT;
paramInfo.unit = aUnit;
paramInfo.category = SIM_MODEL::PARAM::CATEGORY::PRINCIPAL;
paramInfo.defaultValue = "0";
paramInfo.description = "Burst noise amplitude";
paramInfos.push_back( paramInfo );
paramInfo.name = "rtscapt";
paramInfo.type = SIM_VALUE::TYPE::FLOAT;
paramInfo.unit = "s";
paramInfo.category = SIM_MODEL::PARAM::CATEGORY::PRINCIPAL;
paramInfo.defaultValue = "0";
paramInfo.description = "Burst noise trap capture time";
paramInfos.push_back( paramInfo );
paramInfo.name = "rtsemt";
paramInfo.type = SIM_VALUE::TYPE::FLOAT;
paramInfo.unit = "s";
paramInfo.category = SIM_MODEL::PARAM::CATEGORY::PRINCIPAL;
paramInfo.defaultValue = "0";
paramInfo.description = "Burst noise trap emission time";
paramInfos.push_back( paramInfo );
paramInfo.name = "nt";
paramInfo.type = SIM_VALUE::TYPE::FLOAT;
paramInfo.unit = "s";
paramInfo.category = SIM_MODEL::PARAM::CATEGORY::PRINCIPAL;
paramInfo.defaultValue = "0";
paramInfo.description = "Time step";
paramInfos.push_back( paramInfo );
appendAcParamInfos( paramInfos, aUnit );
return paramInfos;
}
std::vector<PARAM::INFO> SIM_MODEL_SOURCE::makeRandomUniformParamInfos( wxString aPrefix,
wxString aUnit )
{
std::vector<PARAM::INFO> paramInfos;
PARAM::INFO paramInfo;
paramInfo.name = "min";
paramInfo.type = SIM_VALUE::TYPE::FLOAT;
paramInfo.unit = aUnit;
paramInfo.category = SIM_MODEL::PARAM::CATEGORY::PRINCIPAL;
paramInfo.defaultValue = "-0.5";
paramInfo.description = "Min. value";
paramInfos.push_back( paramInfo );
paramInfo.name = "max";
paramInfo.type = SIM_VALUE::TYPE::FLOAT;
paramInfo.unit = aUnit;
paramInfo.category = SIM_MODEL::PARAM::CATEGORY::PRINCIPAL;
paramInfo.defaultValue = "0.5";
paramInfo.description = "Max. value";
paramInfos.push_back( paramInfo );
paramInfo.name = "td";
paramInfo.type = SIM_VALUE::TYPE::FLOAT;
paramInfo.unit = "s";
paramInfo.category = SIM_MODEL::PARAM::CATEGORY::PRINCIPAL;
paramInfo.defaultValue = "0";
paramInfo.description = "Delay";
paramInfos.push_back( paramInfo );
appendAcParamInfos( paramInfos, aUnit );
return paramInfos;
}
std::vector<PARAM::INFO> SIM_MODEL_SOURCE::makeRandomNormalParamInfos( wxString aPrefix,
wxString aUnit )
{
std::vector<PARAM::INFO> paramInfos;
PARAM::INFO paramInfo;
paramInfo.name = "mean";
paramInfo.type = SIM_VALUE::TYPE::FLOAT;
paramInfo.unit = aUnit;
paramInfo.category = SIM_MODEL::PARAM::CATEGORY::PRINCIPAL;
paramInfo.defaultValue = "0";
paramInfo.description = "Mean";
paramInfos.push_back( paramInfo );
paramInfo.name = "stddev";
paramInfo.type = SIM_VALUE::TYPE::FLOAT;
paramInfo.unit = aUnit;
paramInfo.category = SIM_MODEL::PARAM::CATEGORY::PRINCIPAL;
paramInfo.defaultValue = "1";
paramInfo.description = "Standard deviation";
paramInfos.push_back( paramInfo );
paramInfo.name = "td";
paramInfo.type = SIM_VALUE::TYPE::FLOAT;
paramInfo.unit = "s";
paramInfo.category = SIM_MODEL::PARAM::CATEGORY::PRINCIPAL;
paramInfo.defaultValue = "0";
paramInfo.description = "Delay";
paramInfos.push_back( paramInfo );
appendAcParamInfos( paramInfos, aUnit );
return paramInfos;
}
std::vector<PARAM::INFO> SIM_MODEL_SOURCE::makeRandomExpParamInfos( wxString aPrefix,
wxString aUnit )
{
std::vector<PARAM::INFO> paramInfos;
PARAM::INFO paramInfo;
paramInfo.name = "offset";
paramInfo.type = SIM_VALUE::TYPE::FLOAT;
paramInfo.unit = aUnit;
paramInfo.category = SIM_MODEL::PARAM::CATEGORY::PRINCIPAL;
paramInfo.defaultValue = "0";
paramInfo.description = "Offset";
paramInfos.push_back( paramInfo );
paramInfo.name = "mean";
paramInfo.type = SIM_VALUE::TYPE::FLOAT;
paramInfo.unit = aUnit;
paramInfo.category = SIM_MODEL::PARAM::CATEGORY::PRINCIPAL;
paramInfo.defaultValue = "1";
paramInfo.description = "Mean";
paramInfos.push_back( paramInfo );
paramInfo.name = "td";
paramInfo.type = SIM_VALUE::TYPE::FLOAT;
paramInfo.unit = "s";
paramInfo.category = SIM_MODEL::PARAM::CATEGORY::PRINCIPAL;
paramInfo.defaultValue = "0";
paramInfo.description = "Delay";
paramInfos.push_back( paramInfo );
appendAcParamInfos( paramInfos, aUnit );
return paramInfos;
}
std::vector<PARAM::INFO> SIM_MODEL_SOURCE::makeRandomPoissonParamInfos( wxString aPrefix,
wxString aUnit )
{
std::vector<PARAM::INFO> paramInfos;
PARAM::INFO paramInfo;
paramInfo.name = "offset";
paramInfo.type = SIM_VALUE::TYPE::FLOAT;
paramInfo.unit = aUnit;
paramInfo.category = SIM_MODEL::PARAM::CATEGORY::PRINCIPAL;
paramInfo.defaultValue = "0";
paramInfo.description = "Offset";
paramInfos.push_back( paramInfo );
paramInfo.name = "lambda";
paramInfo.type = SIM_VALUE::TYPE::FLOAT;
paramInfo.unit = aUnit;
paramInfo.category = SIM_MODEL::PARAM::CATEGORY::PRINCIPAL;
paramInfo.defaultValue = "1";
paramInfo.description = "Mean";
paramInfos.push_back( paramInfo );
paramInfo.name = "td";
paramInfo.type = SIM_VALUE::TYPE::FLOAT;
paramInfo.unit = "s";
paramInfo.category = SIM_MODEL::PARAM::CATEGORY::PRINCIPAL;
paramInfo.defaultValue = "0";
paramInfo.description = "Delay";
paramInfos.push_back( paramInfo );
appendAcParamInfos( paramInfos, aUnit );
return paramInfos;
}
void SIM_MODEL_SOURCE::appendAcParamInfos( std::vector<PARAM::INFO>& aParamInfos, wxString aUnit )
{
PARAM::INFO paramInfo;
paramInfo.name = "ac";
paramInfo.type = SIM_VALUE::TYPE::FLOAT;
paramInfo.unit = aUnit;
paramInfo.category = SIM_MODEL::PARAM::CATEGORY::AC;
paramInfo.defaultValue = "0";
paramInfo.description = "AC magnitude";
aParamInfos.push_back( paramInfo );
paramInfo.name = "ph";
paramInfo.type = SIM_VALUE::TYPE::FLOAT;
paramInfo.unit = "°";
paramInfo.category = SIM_MODEL::PARAM::CATEGORY::AC;
paramInfo.defaultValue = "0";
paramInfo.description = "AC phase";
aParamInfos.push_back( paramInfo );
}