sim_model_ngspice_data.cpp

Go to the documentation of this file.

/*
 * 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 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, you may find one here:
 * http://www.gnu.org/licenses/old-licenses/gpl-2.0.html
 * or you may search the http://www.gnu.org website for the version 2 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_ngspice.h>
 
 
// This script was originally autogenerated using the a bash script called
// generate_ngspice_models.bash, later heavily modified manually. The script can be found in the
// Git history if needed for reference purposes.
 
// We don't use the param flags anymore, so replace them with dummies to save compilation time.
#define U() SIM_MODEL::PARAM::FLAGS()
#define UR() SIM_MODEL::PARAM::FLAGS()
#define P() SIM_MODEL::PARAM::FLAGS()
#define PR() SIM_MODEL::PARAM::FLAGS()
#define A() SIM_MODEL::PARAM::FLAGS()
#define AR() SIM_MODEL::PARAM::FLAGS()
#define AU() SIM_MODEL::PARAM::FLAGS()
#define AP() SIM_MODEL::PARAM::FLAGS()
#define APR() SIM_MODEL::PARAM::FLAGS()
#define AA() SIM_MODEL::PARAM::FLAGS()
#define AAU() SIM_MODEL::PARAM::FLAGS()
#define PAA() SIM_MODEL::PARAM::FLAGS()
#define N() SIM_MODEL::PARAM::FLAGS()
#define R() SIM_MODEL::PARAM::FLAGS()
#define X() SIM_MODEL::PARAM::FLAGS()
#define XR() SIM_MODEL::PARAM::FLAGS()
#define XU() SIM_MODEL::PARAM::FLAGS()
#define Q() SIM_MODEL::PARAM::FLAGS()
#define QR() SIM_MODEL::PARAM::FLAGS()
#define QU() SIM_MODEL::PARAM::FLAGS()
#define Z() SIM_MODEL::PARAM::FLAGS()
#define ZR() SIM_MODEL::PARAM::FLAGS()
#define ZU() SIM_MODEL::PARAM::FLAGS()
#define QO() SIM_MODEL::PARAM::FLAGS()
#define QOR() SIM_MODEL::PARAM::FLAGS()
 
 
struct MODEL_INFO_MAP
{
 using MODEL_TYPE = SIM_MODEL_NGSPICE::MODEL_TYPE;
 using MODEL_INFO = SIM_MODEL_NGSPICE::MODEL_INFO;
 
 std::unordered_map<MODEL_TYPE, MODEL_INFO> modelInfos;
 
 MODEL_INFO_MAP()
 {
 modelInfos[MODEL_TYPE::NONE] = {};
 /*modelInfos[MODEL_TYPE::SWITCH] = { "Switch", "SW", "", { "+", "-", "Ctrl+", "Ctrl-" }, "Ideal voltage controlled switch", {}, {} };
 // Model parameters
 modelInfos[MODEL_TYPE::SWITCH].modelParams.emplace_back( "sw", 101, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_BOOL, U(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "NaN", "", "Switch model" );
 modelInfos[MODEL_TYPE::SWITCH].modelParams.emplace_back( "vt", 104, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, U(), "V", SIM_MODEL::PARAM::CATEGORY::PRINCIPAL, "0", "", "Threshold voltage" );
 modelInfos[MODEL_TYPE::SWITCH].modelParams.emplace_back( "vh", 105, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, U(), "V", SIM_MODEL::PARAM::CATEGORY::PRINCIPAL, "0", "", "Hysteresis voltage" );
 modelInfos[MODEL_TYPE::SWITCH].modelParams.emplace_back( "ron", 102, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, U(), "Ω", SIM_MODEL::PARAM::CATEGORY::PRINCIPAL, "1", "", "Resistance when closed" );
 modelInfos[MODEL_TYPE::SWITCH].modelParams.emplace_back( "gon", 106, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, U(), "", SIM_MODEL::PARAM::CATEGORY::PRINCIPAL, "1", "", "Conductance when closed" );
 modelInfos[MODEL_TYPE::SWITCH].modelParams.emplace_back( "roff", 103, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, U(), "Ω", SIM_MODEL::PARAM::CATEGORY::PRINCIPAL, "1e+12", "", "Resistance when open" );
 modelInfos[MODEL_TYPE::SWITCH].modelParams.emplace_back( "goff", 107, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, U(), "", SIM_MODEL::PARAM::CATEGORY::PRINCIPAL, "1e-12", "", "Conductance when open" );
 // Instance parameters
 modelInfos[MODEL_TYPE::SWITCH].instanceParams.emplace_back( "on", 1, SIM_MODEL::PARAM::DIR_IN, SIM_VALUE::TYPE_BOOL, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Switch initially closed", true );
 modelInfos[MODEL_TYPE::SWITCH].instanceParams.emplace_back( "off", 2, SIM_MODEL::PARAM::DIR_IN, SIM_VALUE::TYPE_BOOL, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Switch initially open", true );
 modelInfos[MODEL_TYPE::SWITCH].instanceParams.emplace_back( "pos_node", 3, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_INT, U(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Positive node of switch", true );
 modelInfos[MODEL_TYPE::SWITCH].instanceParams.emplace_back( "neg_node", 4, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_INT, U(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Negative node of switch", true );
 modelInfos[MODEL_TYPE::SWITCH].instanceParams.emplace_back( "cont_p_node", 5, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_INT, U(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Positive contr. node of switch", true );
 modelInfos[MODEL_TYPE::SWITCH].instanceParams.emplace_back( "cont_n_node", 6, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_INT, U(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Positive contr. node of switch", true );
 modelInfos[MODEL_TYPE::SWITCH].instanceParams.emplace_back( "i", 7, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "A", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Switch current", true );
 modelInfos[MODEL_TYPE::SWITCH].instanceParams.emplace_back( "p", 8, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Switch power", true );
 
 modelInfos[MODEL_TYPE::CSWITCH] = { "CSwitch", "CSW", "", { "+", "-", "Ctrl+", "Ctrl-" }, "Current controlled ideal switch", {}, {} };
 // Model parameters
 modelInfos[MODEL_TYPE::CSWITCH].modelParams.emplace_back( "csw", 101, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_BOOL, U(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "NaN", "", "Current controlled switch model" );
 modelInfos[MODEL_TYPE::CSWITCH].modelParams.emplace_back( "it", 104, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, U(), "A", SIM_MODEL::PARAM::CATEGORY::PRINCIPAL, "0", "", "Threshold current" );
 modelInfos[MODEL_TYPE::CSWITCH].modelParams.emplace_back( "ih", 105, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, U(), "A", SIM_MODEL::PARAM::CATEGORY::PRINCIPAL, "0", "", "Hysterisis current" );
 modelInfos[MODEL_TYPE::CSWITCH].modelParams.emplace_back( "ron", 102, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, U(), "Ω", SIM_MODEL::PARAM::CATEGORY::PRINCIPAL, "1", "", "Closed resistance" );
 modelInfos[MODEL_TYPE::CSWITCH].modelParams.emplace_back( "roff", 103, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, U(), "Ω", SIM_MODEL::PARAM::CATEGORY::PRINCIPAL, "1e+12", "", "Open resistance" );
 modelInfos[MODEL_TYPE::CSWITCH].modelParams.emplace_back( "gon", 106, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, U(), "", SIM_MODEL::PARAM::CATEGORY::PRINCIPAL, "", "", "Closed conductance" );
 modelInfos[MODEL_TYPE::CSWITCH].modelParams.emplace_back( "goff", 107, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, U(), "", SIM_MODEL::PARAM::CATEGORY::PRINCIPAL, "", "", "Open conductance" );
 // Instance parameters
 modelInfos[MODEL_TYPE::CSWITCH].instanceParams.emplace_back( "control", 1, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_STRING /SIM_VALUE::TYPE::INSTANCE/, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Name of controlling source", true );
 modelInfos[MODEL_TYPE::CSWITCH].instanceParams.emplace_back( "on", 2, SIM_MODEL::PARAM::DIR_IN, SIM_VALUE::TYPE_BOOL, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Initially closed", true );
 modelInfos[MODEL_TYPE::CSWITCH].instanceParams.emplace_back( "off", 3, SIM_MODEL::PARAM::DIR_IN, SIM_VALUE::TYPE_BOOL, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Initially open", true );
 modelInfos[MODEL_TYPE::CSWITCH].instanceParams.emplace_back( "pos_node", 4, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_INT, U(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Positive node of switch", true );
 modelInfos[MODEL_TYPE::CSWITCH].instanceParams.emplace_back( "neg_node", 5, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_INT, U(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Negative node of switch", true );
 modelInfos[MODEL_TYPE::CSWITCH].instanceParams.emplace_back( "i", 6, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "A", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Switch current", true );
 modelInfos[MODEL_TYPE::CSWITCH].instanceParams.emplace_back( "p", 7, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Instantaneous power", true );*/
 
 
 modelInfos[MODEL_TYPE::DIODE] = { "Diode", "D", "", { "Anode", "Cathode" }, "Junction Diode model", {}, {} };
 // Model parameters
 modelInfos[MODEL_TYPE::DIODE].modelParams.emplace_back( "level", 100, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_INT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "1", "", "Diode level selector" );
 modelInfos[MODEL_TYPE::DIODE].modelParams.emplace_back( "is", 101, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "A", SIM_MODEL::PARAM::CATEGORY::DC, "1e-14", "", "Saturation current" );
 modelInfos[MODEL_TYPE::DIODE].modelParams.emplace_back( "js", 101, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, R(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "1e-14", "", "n.a." );
 modelInfos[MODEL_TYPE::DIODE].modelParams.emplace_back( "jsw", 118, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "A", SIM_MODEL::PARAM::CATEGORY::DC, "0", "", "Sidewall Saturation current" );
 modelInfos[MODEL_TYPE::DIODE].modelParams.emplace_back( "tnom", 115, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, U(), "°C", SIM_MODEL::PARAM::CATEGORY::TEMPERATURE, "27", "", "Parameter measurement temperature" );
 modelInfos[MODEL_TYPE::DIODE].modelParams.emplace_back( "tref", 115, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, UR(), "°C", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "27", "", "Parameter measurement temperature" );
 modelInfos[MODEL_TYPE::DIODE].modelParams.emplace_back( "rs", 102, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "Ω", SIM_MODEL::PARAM::CATEGORY::DC, "0", "", "Ohmic resistance" );
 modelInfos[MODEL_TYPE::DIODE].modelParams.emplace_back( "trs", 129, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "Ω", SIM_MODEL::PARAM::CATEGORY::TEMPERATURE, "0", "", "Ohmic resistance 1st order temp. coeff." );
 modelInfos[MODEL_TYPE::DIODE].modelParams.emplace_back( "trs1", 129, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, R(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "0", "", "n.a." );
 modelInfos[MODEL_TYPE::DIODE].modelParams.emplace_back( "trs2", 130, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "Ω", SIM_MODEL::PARAM::CATEGORY::TEMPERATURE, "0", "", "Ohmic resistance 2nd order temp. coeff." );
 modelInfos[MODEL_TYPE::DIODE].modelParams.emplace_back( "n", 103, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::DC, "1", "", "Emission Coefficient" );
 modelInfos[MODEL_TYPE::DIODE].modelParams.emplace_back( "ns", 141, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::DC, "1", "", "Sidewall emission Coefficient" );
 modelInfos[MODEL_TYPE::DIODE].modelParams.emplace_back( "tt", 104, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, A(), "s", SIM_MODEL::PARAM::CATEGORY::DC, "0", "", "Transit Time" );
 modelInfos[MODEL_TYPE::DIODE].modelParams.emplace_back( "ttt1", 125, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, A(), "s", SIM_MODEL::PARAM::CATEGORY::TEMPERATURE, "0", "", "Transit Time 1st order temp. coeff." );
 modelInfos[MODEL_TYPE::DIODE].modelParams.emplace_back( "ttt2", 126, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, A(), "s", SIM_MODEL::PARAM::CATEGORY::TEMPERATURE, "0", "", "Transit Time 2nd order temp. coeff." );
 modelInfos[MODEL_TYPE::DIODE].modelParams.emplace_back( "cjo", 105, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, A(), "F", SIM_MODEL::PARAM::CATEGORY::CAPACITANCE, "0", "", "Junction capacitance" );
 modelInfos[MODEL_TYPE::DIODE].modelParams.emplace_back( "cj0", 105, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, AR(), "F", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "0", "", "Junction capacitance" );
 modelInfos[MODEL_TYPE::DIODE].modelParams.emplace_back( "cj", 105, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, AR(), "F", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "0", "", "Junction capacitance" );
 modelInfos[MODEL_TYPE::DIODE].modelParams.emplace_back( "vj", 106, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "V", SIM_MODEL::PARAM::CATEGORY::DC, "1", "", "Junction potential" );
 modelInfos[MODEL_TYPE::DIODE].modelParams.emplace_back( "pb", 106, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, R(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "1", "", "n.a." );
 modelInfos[MODEL_TYPE::DIODE].modelParams.emplace_back( "m_", 107, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::DC, "0.5", "", "Grading coefficient" );
 modelInfos[MODEL_TYPE::DIODE].modelParams.emplace_back( "mj", 107, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, R(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "0.5", "", "n.a." );
 modelInfos[MODEL_TYPE::DIODE].modelParams.emplace_back( "tm1", 127, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "1/°C²", SIM_MODEL::PARAM::CATEGORY::TEMPERATURE, "0", "", "Grading coefficient 1st temp. coeff." );
 modelInfos[MODEL_TYPE::DIODE].modelParams.emplace_back( "tm2", 128, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "1/°C", SIM_MODEL::PARAM::CATEGORY::TEMPERATURE, "0", "", "Grading coefficient 2nd temp. coeff." );
 modelInfos[MODEL_TYPE::DIODE].modelParams.emplace_back( "cjp", 119, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "F", SIM_MODEL::PARAM::CATEGORY::CAPACITANCE, "0", "", "Sidewall junction capacitance" );
 modelInfos[MODEL_TYPE::DIODE].modelParams.emplace_back( "cjsw", 119, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, R(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "0", "", "n.a." );
 modelInfos[MODEL_TYPE::DIODE].modelParams.emplace_back( "php", 120, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "V", SIM_MODEL::PARAM::CATEGORY::DC, "1", "", "Sidewall junction potential" );
 modelInfos[MODEL_TYPE::DIODE].modelParams.emplace_back( "mjsw", 121, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::DC, "0.33", "", "Sidewall Grading coefficient" );
 modelInfos[MODEL_TYPE::DIODE].modelParams.emplace_back( "ikf", 122, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "A", SIM_MODEL::PARAM::CATEGORY::DC, "0", "", "Forward Knee current" );
 modelInfos[MODEL_TYPE::DIODE].modelParams.emplace_back( "ik", 122, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, R(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "0", "", "n.a." );
 modelInfos[MODEL_TYPE::DIODE].modelParams.emplace_back( "ikr", 123, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "A", SIM_MODEL::PARAM::CATEGORY::DC, "0", "", "Reverse Knee current" );
 modelInfos[MODEL_TYPE::DIODE].modelParams.emplace_back( "nbv", 138, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::DC, "1", "", "Breakdown Emission Coefficient" );
 modelInfos[MODEL_TYPE::DIODE].modelParams.emplace_back( "area", 139, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::DC, "1", "", "Area factor" );
 modelInfos[MODEL_TYPE::DIODE].modelParams.emplace_back( "pj", 140, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::DC, "0", "", "Perimeter factor" );
 modelInfos[MODEL_TYPE::DIODE].modelParams.emplace_back( "tlev", 131, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_INT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::TEMPERATURE, "0", "", "Diode temperature equation selector" );
 modelInfos[MODEL_TYPE::DIODE].modelParams.emplace_back( "tlevc", 132, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_INT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::TEMPERATURE, "0", "", "Diode temperature equation selector" );
 modelInfos[MODEL_TYPE::DIODE].modelParams.emplace_back( "eg", 108, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "eV", SIM_MODEL::PARAM::CATEGORY::DC, "1.11", "", "Activation energy" );
 modelInfos[MODEL_TYPE::DIODE].modelParams.emplace_back( "xti", 109, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "A", SIM_MODEL::PARAM::CATEGORY::TEMPERATURE, "3", "", "Saturation current temperature exp." );
 modelInfos[MODEL_TYPE::DIODE].modelParams.emplace_back( "cta", 133, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "°C", SIM_MODEL::PARAM::CATEGORY::TEMPERATURE, "0", "", "Area junction temperature coefficient" );
 modelInfos[MODEL_TYPE::DIODE].modelParams.emplace_back( "ctc", 133, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, R(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "0", "", "n.a." );
 modelInfos[MODEL_TYPE::DIODE].modelParams.emplace_back( "ctp", 134, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "F", SIM_MODEL::PARAM::CATEGORY::TEMPERATURE, "0", "", "Perimeter junction capacitance temperature coefficient" );
 modelInfos[MODEL_TYPE::DIODE].modelParams.emplace_back( "tpb", 135, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "V", SIM_MODEL::PARAM::CATEGORY::TEMPERATURE, "0", "", "Area junction potential temperature coefficient" );
 modelInfos[MODEL_TYPE::DIODE].modelParams.emplace_back( "tvj", 135, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, R(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "0", "", "n.a." );
 modelInfos[MODEL_TYPE::DIODE].modelParams.emplace_back( "tphp", 136, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "V", SIM_MODEL::PARAM::CATEGORY::TEMPERATURE, "0", "", "Perimeter junction potential temperature coefficient" );
 modelInfos[MODEL_TYPE::DIODE].modelParams.emplace_back( "jtun", 142, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "A", SIM_MODEL::PARAM::CATEGORY::DC, "0", "", "Tunneling saturation current" );
 modelInfos[MODEL_TYPE::DIODE].modelParams.emplace_back( "jtunsw", 143, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "A", SIM_MODEL::PARAM::CATEGORY::DC, "0", "", "Tunneling sidewall saturation current" );
 modelInfos[MODEL_TYPE::DIODE].modelParams.emplace_back( "ntun", 144, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::DC, "30", "", "Tunneling emission coefficient" );
 modelInfos[MODEL_TYPE::DIODE].modelParams.emplace_back( "xtitun", 145, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::DC, "3", "", "Tunneling saturation current exponential" );
 modelInfos[MODEL_TYPE::DIODE].modelParams.emplace_back( "keg", 146, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::DC, "1", "", "EG correction factor for tunneling" );
 modelInfos[MODEL_TYPE::DIODE].modelParams.emplace_back( "kf", 116, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::NOISE, "0", "", "flicker noise coefficient" );
 modelInfos[MODEL_TYPE::DIODE].modelParams.emplace_back( "af", 117, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::NOISE, "1", "", "flicker noise exponent" );
 modelInfos[MODEL_TYPE::DIODE].modelParams.emplace_back( "fc", 110, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::DC, "0.5", "", "Forward bias junction fit parameter" );
 modelInfos[MODEL_TYPE::DIODE].modelParams.emplace_back( "fcs", 124, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::DC, "0.5", "", "Forward bias sidewall junction fit parameter" );
 modelInfos[MODEL_TYPE::DIODE].modelParams.emplace_back( "bv", 111, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "V", SIM_MODEL::PARAM::CATEGORY::DC, "0", "", "Reverse breakdown voltage" );
 modelInfos[MODEL_TYPE::DIODE].modelParams.emplace_back( "ibv", 112, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "V", SIM_MODEL::PARAM::CATEGORY::DC, "0.001", "", "Current at reverse breakdown voltage" );
 modelInfos[MODEL_TYPE::DIODE].modelParams.emplace_back( "ib", 112, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, R(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "0.001", "", "n.a." );
 modelInfos[MODEL_TYPE::DIODE].modelParams.emplace_back( "tcv", 137, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "V", SIM_MODEL::PARAM::CATEGORY::TEMPERATURE, "0", "", "Reverse breakdown voltage temperature coefficient" );
 modelInfos[MODEL_TYPE::DIODE].modelParams.emplace_back( "cond", 114, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, U(), "", SIM_MODEL::PARAM::CATEGORY::DC, "0", "", "Ohmic conductance" );
 modelInfos[MODEL_TYPE::DIODE].modelParams.emplace_back( "isr", 152, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "A", SIM_MODEL::PARAM::CATEGORY::DC, "1e-14", "", "Recombination saturation current" );
 modelInfos[MODEL_TYPE::DIODE].modelParams.emplace_back( "nr", 153, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "A", SIM_MODEL::PARAM::CATEGORY::DC, "1", "", "Recombination current emission coefficient" );
 modelInfos[MODEL_TYPE::DIODE].modelParams.emplace_back( "fv_max", 147, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "V", SIM_MODEL::PARAM::CATEGORY::LIMITING_VALUES, "1e+99", "", "maximum voltage in forward direction" );
 modelInfos[MODEL_TYPE::DIODE].modelParams.emplace_back( "bv_max", 148, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "V", SIM_MODEL::PARAM::CATEGORY::LIMITING_VALUES, "1e+99", "", "maximum voltage in reverse direction" );
 modelInfos[MODEL_TYPE::DIODE].modelParams.emplace_back( "id_max", 149, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "A", SIM_MODEL::PARAM::CATEGORY::LIMITING_VALUES, "1e+99", "", "maximum current" );
 modelInfos[MODEL_TYPE::DIODE].modelParams.emplace_back( "te_max", 150, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "°C", SIM_MODEL::PARAM::CATEGORY::LIMITING_VALUES, "1e+99", "", "temperature" );
 modelInfos[MODEL_TYPE::DIODE].modelParams.emplace_back( "pd_max", 151, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::LIMITING_VALUES, "1e+99", "", "maximum power dissipation" );
 modelInfos[MODEL_TYPE::DIODE].modelParams.emplace_back( "rth0", 154, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "Ω", SIM_MODEL::PARAM::CATEGORY::TEMPERATURE, "0", "", "Self-heating thermal resistance" );
 modelInfos[MODEL_TYPE::DIODE].modelParams.emplace_back( "cth0", 155, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::DC, "1e-05", "", "Self-heating thermal capacitance" );
 modelInfos[MODEL_TYPE::DIODE].modelParams.emplace_back( "lm", 156, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "m", SIM_MODEL::PARAM::CATEGORY::DC, "0", "", "Length of metal capacitor (level=3)" );
 modelInfos[MODEL_TYPE::DIODE].modelParams.emplace_back( "lp", 157, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "m", SIM_MODEL::PARAM::CATEGORY::DC, "0", "", "Length of polysilicon capacitor (level=3)" );
 modelInfos[MODEL_TYPE::DIODE].modelParams.emplace_back( "wm", 158, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "m", SIM_MODEL::PARAM::CATEGORY::DC, "0", "", "Width of metal capacitor (level=3)" );
 modelInfos[MODEL_TYPE::DIODE].modelParams.emplace_back( "wp", 159, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "m", SIM_MODEL::PARAM::CATEGORY::DC, "0", "", "Width of polysilicon capacitor (level=3)" );
 modelInfos[MODEL_TYPE::DIODE].modelParams.emplace_back( "xom", 160, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "m", SIM_MODEL::PARAM::CATEGORY::DC, "1e-06", "", "Thickness of the metal to bulk oxide (level=3)" );
 modelInfos[MODEL_TYPE::DIODE].modelParams.emplace_back( "xoi", 161, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "m", SIM_MODEL::PARAM::CATEGORY::DC, "1e-06", "", "Thickness of the polysilicon to bulk oxide (level=3)" );
 modelInfos[MODEL_TYPE::DIODE].modelParams.emplace_back( "xm", 162, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::DC, "0", "", "Masking and etching effects in metal (level=3)" );
 modelInfos[MODEL_TYPE::DIODE].modelParams.emplace_back( "xp", 163, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::DC, "0", "", "Masking and etching effects in polysilicon (level=3)" );
 modelInfos[MODEL_TYPE::DIODE].modelParams.emplace_back( "d", 113, SIM_MODEL::PARAM::DIR_IN, SIM_VALUE::TYPE_BOOL, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Diode model" );
 // Instance parameters
 modelInfos[MODEL_TYPE::DIODE].instanceParams.emplace_back( "off", 3, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_BOOL, U(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Initially off", true );
 modelInfos[MODEL_TYPE::DIODE].instanceParams.emplace_back( "temp", 11, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, U(), "°C", SIM_MODEL::PARAM::CATEGORY::PRINCIPAL, "", "", "Instance temperature", true );
 modelInfos[MODEL_TYPE::DIODE].instanceParams.emplace_back( "dtemp", 23, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, U(), "°C", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Instance delta temperature", true );
 modelInfos[MODEL_TYPE::DIODE].instanceParams.emplace_back( "ic", 2, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, AU(), "V", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Initial device voltage", true );
 modelInfos[MODEL_TYPE::DIODE].instanceParams.emplace_back( "m", 22, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, U(), "", SIM_MODEL::PARAM::CATEGORY::GEOMETRY, "0.5", "", "Multiplier", true );
 modelInfos[MODEL_TYPE::DIODE].instanceParams.emplace_back( "area", 1, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, U(), "", SIM_MODEL::PARAM::CATEGORY::GEOMETRY, "1", "", "Area factor", true );
 modelInfos[MODEL_TYPE::DIODE].instanceParams.emplace_back( "pj", 19, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, U(), "", SIM_MODEL::PARAM::CATEGORY::GEOMETRY, "0", "", "Perimeter factor", true );
 modelInfos[MODEL_TYPE::DIODE].instanceParams.emplace_back( "w", 20, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, U(), "m", SIM_MODEL::PARAM::CATEGORY::GEOMETRY, "", "", "Diode width", true );
 modelInfos[MODEL_TYPE::DIODE].instanceParams.emplace_back( "l", 21, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, U(), "m", SIM_MODEL::PARAM::CATEGORY::GEOMETRY, "", "", "Diode length", true );
 modelInfos[MODEL_TYPE::DIODE].instanceParams.emplace_back( "lm", 25, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, U(), "m", SIM_MODEL::PARAM::CATEGORY::GEOMETRY, "0", "", "Length of metal capacitor (level=3)", true );
 modelInfos[MODEL_TYPE::DIODE].instanceParams.emplace_back( "lp", 26, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, U(), "m", SIM_MODEL::PARAM::CATEGORY::GEOMETRY, "0", "", "Length of polysilicon capacitor (level=3)", true );
 modelInfos[MODEL_TYPE::DIODE].instanceParams.emplace_back( "wm", 27, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, U(), "m", SIM_MODEL::PARAM::CATEGORY::GEOMETRY, "0", "", "Width of metal capacitor (level=3)", true );
 modelInfos[MODEL_TYPE::DIODE].instanceParams.emplace_back( "wp", 28, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, U(), "m", SIM_MODEL::PARAM::CATEGORY::GEOMETRY, "0", "", "Width of polysilicon capacitor (level=3)", true );
 modelInfos[MODEL_TYPE::DIODE].instanceParams.emplace_back( "thermal", 24, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_BOOL, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Self heating mode selector", true );
 modelInfos[MODEL_TYPE::DIODE].instanceParams.emplace_back( "sens_area", 9, SIM_MODEL::PARAM::DIR_IN, SIM_VALUE::TYPE_BOOL, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "flag to request sensitivity WRT area", true );
 modelInfos[MODEL_TYPE::DIODE].instanceParams.emplace_back( "vd", 5, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "V", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Diode voltage", true );
 modelInfos[MODEL_TYPE::DIODE].instanceParams.emplace_back( "id", 4, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "A", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Diode current", true );
 modelInfos[MODEL_TYPE::DIODE].instanceParams.emplace_back( "c", 4, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, R(), "A", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Diode current", true );
 modelInfos[MODEL_TYPE::DIODE].instanceParams.emplace_back( "gd", 8, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Diode conductance", true );
 modelInfos[MODEL_TYPE::DIODE].instanceParams.emplace_back( "cd", 18, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "F", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Diode capacitance", true );
 modelInfos[MODEL_TYPE::DIODE].instanceParams.emplace_back( "charge", 6, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, U(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Diode capacitor charge", true );
 modelInfos[MODEL_TYPE::DIODE].instanceParams.emplace_back( "qd", 6, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, UR(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Diode capacitor charge", true );
 modelInfos[MODEL_TYPE::DIODE].instanceParams.emplace_back( "capcur", 7, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, U(), "A", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Diode capacitor current", true );
 modelInfos[MODEL_TYPE::DIODE].instanceParams.emplace_back( "p", 10, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, U(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Diode power", true );
 modelInfos[MODEL_TYPE::DIODE].instanceParams.emplace_back( "sens_dc", 17, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, U(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "dc sensitivity", true );
 modelInfos[MODEL_TYPE::DIODE].instanceParams.emplace_back( "sens_real", 12, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, U(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "dc sens. and real part of ac sensitivity", true );
 modelInfos[MODEL_TYPE::DIODE].instanceParams.emplace_back( "sens_imag", 13, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, U(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "imag part of ac sensitivity", true );
 modelInfos[MODEL_TYPE::DIODE].instanceParams.emplace_back( "sens_mag", 14, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, U(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "sensitivity of ac magnitude", true );
 modelInfos[MODEL_TYPE::DIODE].instanceParams.emplace_back( "sens_ph", 15, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, U(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "sensitivity of ac phase", true );
 modelInfos[MODEL_TYPE::DIODE].instanceParams.emplace_back( "sens_cplx", 16, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_COMPLEX, U(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "ac sensitivity", true );
 
 
 modelInfos[MODEL_TYPE::BJT] = { "BJT", "NPN", "PNP", { "Collector", "Base", "Emitter" }, "Bipolar Junction Transistor", {}, {} };
 // Model parameters
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "type", 309, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_STRING, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "npn", "pnp", "NPN or PNP" );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "npn", 101, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_BOOL, U(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "NaN", "NaN", "NPN type device" );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "pnp", 102, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_BOOL, U(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "NaN", "NaN", "PNP type device" );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "subs", 204, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_INT, U(), "", SIM_MODEL::PARAM::CATEGORY::DC, "-1721368256", "-514428616", "Vertical or Lateral device" );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "tnom", 151, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "°C", SIM_MODEL::PARAM::CATEGORY::TEMPERATURE, "27", "27", "Parameter measurement temperature" );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "tref", 151, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, R(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "27", "27", "n.a." );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "is", 103, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "A", SIM_MODEL::PARAM::CATEGORY::DC, "1e-16", "1e-16", "Saturation Current" );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "ibe", 104, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "A", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "Base-Emitter saturation Current" );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "ibc", 105, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "A", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "Base-Collector saturation Current" );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "bf", 106, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::DC, "100", "100", "Ideal forward beta" );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "nf", 107, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::DC, "1", "1", "Forward emission coefficient" );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "vaf", 108, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "V", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "Forward Early voltage" );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "va", 108, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, R(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "0", "0", "n.a." );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "ikf", 109, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "A", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "Forward beta roll-off corner current" );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "ik", 109, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, R(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "0", "0", "n.a." );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "ise", 110, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "A", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "B-E leakage saturation current" );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "c2", 110, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, R(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "0", "0", "n.a." );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "ne", 111, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::DC, "1.5", "1.5", "B-E leakage emission coefficient" );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "br", 112, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::DC, "1", "1", "Ideal reverse beta" );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "nr", 113, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::DC, "1", "1", "Reverse emission coefficient" );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "var", 114, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "V", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "Reverse Early voltage" );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "vb", 114, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, R(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "0", "0", "n.a." );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "ikr", 115, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "A", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "reverse beta roll-off corner current" );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "isc", 116, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "A", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "B-C leakage saturation current" );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "c4", 116, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, R(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "0", "0", "n.a." );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "nc", 117, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::DC, "2", "2", "B-C leakage emission coefficient" );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "rb", 118, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "Ω", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "Zero bias base resistance" );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "irb", 119, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "Ω", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "Current for base resistance=(rb+rbm)/2" );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "rbm", 120, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "Ω", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "Minimum base resistance" );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "re", 121, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "Ω", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "Emitter resistance" );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "rc", 122, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "Ω", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "Collector resistance" );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "cje", 123, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, A(), "F", SIM_MODEL::PARAM::CATEGORY::CAPACITANCE, "0", "0", "Zero bias B-E depletion capacitance" );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "vje", 124, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, A(), "V", SIM_MODEL::PARAM::CATEGORY::DC, "0.75", "0.75", "B-E built in potential" );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "pe", 124, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, AR(), "V", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "0.75", "0.75", "B-E built in potential" );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "mje", 125, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, A(), "", SIM_MODEL::PARAM::CATEGORY::DC, "0.33", "0.33", "B-E junction grading coefficient" );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "me", 125, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, AR(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "0.33", "0.33", "B-E junction grading coefficient" );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "tf", 126, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, A(), "s", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "Ideal forward transit time" );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "xtf", 127, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, A(), "", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "Coefficient for bias dependence of TF" );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "vtf", 128, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, A(), "V", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "Voltage giving VBC dependence of TF" );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "itf", 129, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, A(), "A", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "High current dependence of TF" );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "ptf", 130, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, A(), "deg", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "Excess phase" );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "cjc", 131, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, A(), "F", SIM_MODEL::PARAM::CATEGORY::CAPACITANCE, "0", "0", "Zero bias B-C depletion capacitance" );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "vjc", 132, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, A(), "V", SIM_MODEL::PARAM::CATEGORY::DC, "0.75", "0.75", "B-C built in potential" );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "pc", 132, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, AR(), "V", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "0.75", "0.75", "B-C built in potential" );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "mjc", 133, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, A(), "", SIM_MODEL::PARAM::CATEGORY::DC, "0.33", "0.33", "B-C junction grading coefficient" );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "mc", 133, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, AR(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "0.33", "0.33", "B-C junction grading coefficient" );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "xcjc", 134, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, A(), "", SIM_MODEL::PARAM::CATEGORY::DC, "1", "1", "Fraction of B-C cap to internal base" );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "tr", 135, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, A(), "s", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "Ideal reverse transit time" );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "cjs", 136, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, A(), "F", SIM_MODEL::PARAM::CATEGORY::CAPACITANCE, "0", "0", "Zero bias Substrate capacitance" );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "csub", 136, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, AR(), "F", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "0", "0", "Zero bias Substrate capacitance" );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "ccs", 136, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, AR(), "F", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "0", "0", "Zero bias Substrate capacitance" );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "vjs", 137, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, A(), "V", SIM_MODEL::PARAM::CATEGORY::DC, "0.75", "0.75", "Substrate junction built in potential" );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "ps", 137, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, AR(), "V", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "0.75", "0.75", "Substrate junction built in potential" );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "mjs", 138, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, A(), "", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "Substrate junction grading coefficient" );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "ms", 138, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, AR(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "0", "0", "Substrate junction grading coefficient" );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "xtb", 139, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "Forward and reverse beta temp. exp." );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "eg", 140, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "eV", SIM_MODEL::PARAM::CATEGORY::DC, "1.11", "1.11", "Energy gap for IS temp. dependency" );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "xti", 141, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::DC, "3", "3", "Temp. exponent for IS" );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "fc", 142, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::DC, "0.5", "0.5", "Forward bias junction fit parameter" );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "kf", 144, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::NOISE, "0", "0", "Flicker Noise Coefficient" );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "af", 143, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::NOISE, "0", "0", "Flicker Noise Exponent" );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "invearlyvoltf", 301, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, U(), "V", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "Inverse early voltage:forward" );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "invearlyvoltr", 302, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, U(), "V", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "Inverse early voltage:reverse" );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "invrollofff", 303, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, U(), "", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "Inverse roll off - forward" );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "invrolloffr", 304, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, U(), "", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "Inverse roll off - reverse" );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "collectorconduct", 305, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, U(), "", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "Collector conductance" );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "emitterconduct", 306, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, U(), "", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "Emitter conductance" );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "transtimevbcfact", 307, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, U(), "s", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "Transit time VBC factor" );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "excessphasefactor", 308, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, U(), "deg", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "Excess phase fact." );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "iss", 145, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "A", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "Substrate Jct. Saturation Current" );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "ns", 146, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "A", SIM_MODEL::PARAM::CATEGORY::DC, "1", "1", "Substrate current emission coefficient" );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "rco", 147, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "Ω", SIM_MODEL::PARAM::CATEGORY::DC, "0.01", "0.01", "Intrinsic coll. resistance" );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "vo", 148, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "V", SIM_MODEL::PARAM::CATEGORY::DC, "10", "10", "Epi drift saturation voltage" );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "gamma", 149, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::DC, "1e-11", "1e-11", "Epi doping parameter" );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "qco", 150, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "C", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "Epi Charge parameter" );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "tlev", 152, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_INT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::TEMPERATURE, "0", "0", "Temperature equation selector" );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "tlevc", 153, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_INT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::TEMPERATURE, "0", "0", "Temperature equation selector" );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "tbf1", 154, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "°C", SIM_MODEL::PARAM::CATEGORY::TEMPERATURE, "0", "0", "BF 1. temperature coefficient" );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "tbf2", 155, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "°C", SIM_MODEL::PARAM::CATEGORY::TEMPERATURE, "0", "0", "BF 2. temperature coefficient" );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "tbr1", 156, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "°C", SIM_MODEL::PARAM::CATEGORY::TEMPERATURE, "0", "0", "BR 1. temperature coefficient" );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "tbr2", 157, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "°C", SIM_MODEL::PARAM::CATEGORY::TEMPERATURE, "0", "0", "BR 2. temperature coefficient" );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "tikf1", 158, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "°C", SIM_MODEL::PARAM::CATEGORY::TEMPERATURE, "0", "0", "IKF 1. temperature coefficient" );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "tikf2", 159, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "°C", SIM_MODEL::PARAM::CATEGORY::TEMPERATURE, "0", "0", "IKF 2. temperature coefficient" );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "tikr1", 160, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "°C", SIM_MODEL::PARAM::CATEGORY::TEMPERATURE, "0", "0", "IKR 1. temperature coefficient" );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "tikr2", 161, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "°C", SIM_MODEL::PARAM::CATEGORY::TEMPERATURE, "0", "0", "IKR 2. temperature coefficient" );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "tirb1", 162, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "°C", SIM_MODEL::PARAM::CATEGORY::TEMPERATURE, "0", "0", "IRB 1. temperature coefficient" );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "tirb2", 163, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "°C", SIM_MODEL::PARAM::CATEGORY::TEMPERATURE, "0", "0", "IRB 2. temperature coefficient" );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "tnc1", 164, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "°C", SIM_MODEL::PARAM::CATEGORY::TEMPERATURE, "0", "0", "NC 1. temperature coefficient" );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "tnc2", 165, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "°C", SIM_MODEL::PARAM::CATEGORY::TEMPERATURE, "0", "0", "NC 2. temperature coefficient" );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "tne1", 166, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "°C", SIM_MODEL::PARAM::CATEGORY::TEMPERATURE, "0", "0", "NE 1. temperature coefficient" );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "tne2", 167, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "°C", SIM_MODEL::PARAM::CATEGORY::TEMPERATURE, "0", "0", "NE 2. temperature coefficient" );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "tnf1", 168, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "°C", SIM_MODEL::PARAM::CATEGORY::TEMPERATURE, "0", "0", "NF 1. temperature coefficient" );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "tnf2", 169, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "°C", SIM_MODEL::PARAM::CATEGORY::TEMPERATURE, "0", "0", "NF 2. temperature coefficient" );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "tnr1", 170, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "°C", SIM_MODEL::PARAM::CATEGORY::TEMPERATURE, "0", "0", "NR 1. temperature coefficient" );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "tnr2", 171, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "°C", SIM_MODEL::PARAM::CATEGORY::TEMPERATURE, "0", "0", "NR 2. temperature coefficient" );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "trb1", 172, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "°C", SIM_MODEL::PARAM::CATEGORY::TEMPERATURE, "0", "0", "RB 1. temperature coefficient" );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "trb", 172, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, R(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "0", "0", "n.a." );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "trb2", 173, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "°C", SIM_MODEL::PARAM::CATEGORY::TEMPERATURE, "0", "0", "RB 2. temperature coefficient" );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "trc1", 174, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "°C", SIM_MODEL::PARAM::CATEGORY::TEMPERATURE, "0", "0", "RC 1. temperature coefficient" );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "trc", 174, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, R(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "0", "0", "n.a." );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "trc2", 175, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "°C", SIM_MODEL::PARAM::CATEGORY::TEMPERATURE, "0", "0", "RC 2. temperature coefficient" );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "tre1", 176, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "°C", SIM_MODEL::PARAM::CATEGORY::TEMPERATURE, "0", "0", "RE 1. temperature coefficient" );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "tre", 176, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, R(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "0", "0", "n.a." );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "tre2", 177, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "°C", SIM_MODEL::PARAM::CATEGORY::TEMPERATURE, "0", "0", "RE 2. temperature coefficient" );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "trm1", 178, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "°C", SIM_MODEL::PARAM::CATEGORY::TEMPERATURE, "0", "0", "RBM 1. temperature coefficient" );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "trm2", 179, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "°C", SIM_MODEL::PARAM::CATEGORY::TEMPERATURE, "0", "0", "RBM 2. temperature coefficient" );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "tvaf1", 180, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "°C", SIM_MODEL::PARAM::CATEGORY::TEMPERATURE, "0", "0", "VAF 1. temperature coefficient" );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "tvaf2", 181, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "°C", SIM_MODEL::PARAM::CATEGORY::TEMPERATURE, "0", "0", "VAF 2. temperature coefficient" );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "tvar1", 182, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "°C", SIM_MODEL::PARAM::CATEGORY::TEMPERATURE, "0", "0", "VAR 1. temperature coefficient" );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "tvar2", 183, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "°C", SIM_MODEL::PARAM::CATEGORY::TEMPERATURE, "0", "0", "VAR 2. temperature coefficient" );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "ctc", 184, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "°C", SIM_MODEL::PARAM::CATEGORY::TEMPERATURE, "0", "0", "CJC temperature coefficient" );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "cte", 185, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "°C", SIM_MODEL::PARAM::CATEGORY::TEMPERATURE, "0", "0", "CJE temperature coefficient" );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "cts", 186, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "°C", SIM_MODEL::PARAM::CATEGORY::TEMPERATURE, "0", "0", "CJS temperature coefficient" );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "tvjc", 187, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "°C", SIM_MODEL::PARAM::CATEGORY::TEMPERATURE, "0", "0", "VJC temperature coefficient" );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "tvje", 188, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "°C", SIM_MODEL::PARAM::CATEGORY::TEMPERATURE, "0", "0", "VJE temperature coefficient" );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "tvjs", 189, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "°C", SIM_MODEL::PARAM::CATEGORY::TEMPERATURE, "0", "0", "VJS temperature coefficient" );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "titf1", 190, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "°C", SIM_MODEL::PARAM::CATEGORY::TEMPERATURE, "0", "0", "ITF 1. temperature coefficient" );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "titf2", 191, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "°C", SIM_MODEL::PARAM::CATEGORY::TEMPERATURE, "0", "0", "ITF 2. temperature coefficient" );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "ttf1", 192, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "°C", SIM_MODEL::PARAM::CATEGORY::TEMPERATURE, "0", "0", "TF 1. temperature coefficient" );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "ttf2", 193, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "°C", SIM_MODEL::PARAM::CATEGORY::TEMPERATURE, "0", "0", "TF 2. temperature coefficient" );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "ttr1", 194, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "°C", SIM_MODEL::PARAM::CATEGORY::TEMPERATURE, "0", "0", "TR 1. temperature coefficient" );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "ttr2", 195, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "°C", SIM_MODEL::PARAM::CATEGORY::TEMPERATURE, "0", "0", "TR 2. temperature coefficient" );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "tmje1", 196, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "°C", SIM_MODEL::PARAM::CATEGORY::TEMPERATURE, "0", "0", "MJE 1. temperature coefficient" );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "tmje2", 197, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "°C", SIM_MODEL::PARAM::CATEGORY::TEMPERATURE, "0", "0", "MJE 2. temperature coefficient" );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "tmjc1", 198, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "°C", SIM_MODEL::PARAM::CATEGORY::TEMPERATURE, "0", "0", "MJC 1. temperature coefficient" );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "tmjc2", 199, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "°C", SIM_MODEL::PARAM::CATEGORY::TEMPERATURE, "0", "0", "MJC 2. temperature coefficient" );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "tmjs1", 200, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "°C", SIM_MODEL::PARAM::CATEGORY::TEMPERATURE, "0", "0", "MJS 1. temperature coefficient" );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "tmjs2", 201, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "°C", SIM_MODEL::PARAM::CATEGORY::TEMPERATURE, "0", "0", "MJS 2. temperature coefficient" );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "tns1", 202, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "°C", SIM_MODEL::PARAM::CATEGORY::TEMPERATURE, "0", "0", "NS 1. temperature coefficient" );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "tns2", 203, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "°C", SIM_MODEL::PARAM::CATEGORY::TEMPERATURE, "0", "0", "NS 2. temperature coefficient" );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "nkf", 205, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::DC, "0.5", "0.5", "NKF High current beta rolloff exponent" );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "nk", 205, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, R(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "0.5", "0.5", "n.a." );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "tis1", 206, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "°C", SIM_MODEL::PARAM::CATEGORY::TEMPERATURE, "0", "0", "IS 1. temperature coefficient" );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "tis2", 207, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "°C", SIM_MODEL::PARAM::CATEGORY::TEMPERATURE, "0", "0", "IS 2. temperature coefficient" );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "tise1", 208, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "°C", SIM_MODEL::PARAM::CATEGORY::TEMPERATURE, "0", "0", "ISE 1. temperature coefficient" );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "tise2", 209, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "°C", SIM_MODEL::PARAM::CATEGORY::TEMPERATURE, "0", "0", "ISE 2. temperature coefficient" );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "tisc1", 210, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "°C", SIM_MODEL::PARAM::CATEGORY::TEMPERATURE, "0", "0", "ISC 1. temperature coefficient" );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "tisc2", 211, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "°C", SIM_MODEL::PARAM::CATEGORY::TEMPERATURE, "0", "0", "ISC 2. temperature coefficient" );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "tiss1", 212, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "°C", SIM_MODEL::PARAM::CATEGORY::TEMPERATURE, "0", "0", "ISS 1. temperature coefficient" );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "tiss2", 213, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "°C", SIM_MODEL::PARAM::CATEGORY::TEMPERATURE, "0", "0", "ISS 2. temperature coefficient" );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "quasimod", 214, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_INT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::TEMPERATURE, "0", "0", "Temperature equation selector" );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "vg", 215, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "eV", SIM_MODEL::PARAM::CATEGORY::DC, "1.206", "1.206", "Energy gap for QS temp. dependency" );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "cn", 216, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::TEMPERATURE, "2.42", "2.2", "Temperature exponent of RCI" );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "d", 217, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::TEMPERATURE, "0.87", "0.52", "Temperature exponent of VO" );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "vbe_max", 218, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "V", SIM_MODEL::PARAM::CATEGORY::LIMITING_VALUES, "1e+99", "1e+99", "maximum voltage B-E junction" );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "vbc_max", 219, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "V", SIM_MODEL::PARAM::CATEGORY::LIMITING_VALUES, "1e+99", "1e+99", "maximum voltage B-C junction" );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "vce_max", 220, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "V", SIM_MODEL::PARAM::CATEGORY::LIMITING_VALUES, "1e+99", "1e+99", "maximum voltage C-E branch" );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "pd_max", 221, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::LIMITING_VALUES, "1e+99", "1e+99", "maximum device power dissipation" );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "ic_max", 222, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "A", SIM_MODEL::PARAM::CATEGORY::LIMITING_VALUES, "1e+99", "1e+99", "maximum collector current" );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "ib_max", 223, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "A", SIM_MODEL::PARAM::CATEGORY::LIMITING_VALUES, "1e+99", "1e+99", "maximum base current" );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "te_max", 224, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "°C", SIM_MODEL::PARAM::CATEGORY::LIMITING_VALUES, "1e+99", "1e+99", "maximum temperature" );
 modelInfos[MODEL_TYPE::BJT].modelParams.emplace_back( "rth0", 225, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "Ω", SIM_MODEL::PARAM::CATEGORY::TEMPERATURE, "0", "0", "thermal resistance juntion to ambient" );
 // Instance parameters
 modelInfos[MODEL_TYPE::BJT].instanceParams.emplace_back( "off", 2, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_BOOL, U(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Device initially off", true );
 modelInfos[MODEL_TYPE::BJT].instanceParams.emplace_back( "icvbe", 3, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, AU(), "V", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Initial B-E voltage", true );
 modelInfos[MODEL_TYPE::BJT].instanceParams.emplace_back( "icvce", 4, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, AU(), "V", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Initial C-E voltage", true );
 modelInfos[MODEL_TYPE::BJT].instanceParams.emplace_back( "m", 9, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, U(), "", SIM_MODEL::PARAM::CATEGORY::GEOMETRY, "", "", "Parallel Multiplier", true );
 modelInfos[MODEL_TYPE::BJT].instanceParams.emplace_back( "area", 1, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, U(), "", SIM_MODEL::PARAM::CATEGORY::GEOMETRY, "", "", "(Emitter) Area factor", true );
 modelInfos[MODEL_TYPE::BJT].instanceParams.emplace_back( "areab", 10, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, U(), "", SIM_MODEL::PARAM::CATEGORY::GEOMETRY, "", "", "Base area factor", true );
 modelInfos[MODEL_TYPE::BJT].instanceParams.emplace_back( "areac", 11, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, U(), "", SIM_MODEL::PARAM::CATEGORY::GEOMETRY, "", "", "Collector area factor", true );
 modelInfos[MODEL_TYPE::BJT].instanceParams.emplace_back( "ic", 5, SIM_MODEL::PARAM::DIR_IN, SIM_VALUE::TYPE_FLOAT_VECTOR, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Initial condition vector", true );
 modelInfos[MODEL_TYPE::BJT].instanceParams.emplace_back( "sens_area", 6, SIM_MODEL::PARAM::DIR_IN, SIM_VALUE::TYPE_BOOL, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "flag to request sensitivity WRT area", true );
 modelInfos[MODEL_TYPE::BJT].instanceParams.emplace_back( "colnode", 212, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_INT, U(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Number of collector node", true );
 modelInfos[MODEL_TYPE::BJT].instanceParams.emplace_back( "basenode", 213, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_INT, U(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Number of base node", true );
 modelInfos[MODEL_TYPE::BJT].instanceParams.emplace_back( "emitnode", 214, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_INT, U(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Number of emitter node", true );
 modelInfos[MODEL_TYPE::BJT].instanceParams.emplace_back( "substnode", 215, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_INT, U(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Number of substrate node", true );
 modelInfos[MODEL_TYPE::BJT].instanceParams.emplace_back( "colprimenode", 217, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_INT, U(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Internal collector node", true );
 modelInfos[MODEL_TYPE::BJT].instanceParams.emplace_back( "baseprimenode", 218, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_INT, U(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Internal base node", true );
 modelInfos[MODEL_TYPE::BJT].instanceParams.emplace_back( "emitprimenode", 219, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_INT, U(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Internal emitter node", true );
 modelInfos[MODEL_TYPE::BJT].instanceParams.emplace_back( "ic", 222, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "A", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Current at collector node", true );
 modelInfos[MODEL_TYPE::BJT].instanceParams.emplace_back( "ib", 223, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "A", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Current at base node", true );
 modelInfos[MODEL_TYPE::BJT].instanceParams.emplace_back( "ie", 247, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "A", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Emitter current", true );
 modelInfos[MODEL_TYPE::BJT].instanceParams.emplace_back( "is", 248, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, U(), "A", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "1e-16", "1e-16", "Substrate current", true );
 modelInfos[MODEL_TYPE::BJT].instanceParams.emplace_back( "vbe", 220, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "V", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "B-E voltage", true );
 modelInfos[MODEL_TYPE::BJT].instanceParams.emplace_back( "vbc", 221, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "V", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "B-C voltage", true );
 modelInfos[MODEL_TYPE::BJT].instanceParams.emplace_back( "gm", 226, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Small signal transconductance", true );
 modelInfos[MODEL_TYPE::BJT].instanceParams.emplace_back( "gpi", 224, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Small signal input conductance - pi", true );
 modelInfos[MODEL_TYPE::BJT].instanceParams.emplace_back( "gmu", 225, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Small signal conductance - mu", true );
 modelInfos[MODEL_TYPE::BJT].instanceParams.emplace_back( "gx", 236, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Conductance from base to internal base", true );
 modelInfos[MODEL_TYPE::BJT].instanceParams.emplace_back( "go", 227, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Small signal output conductance", true );
 modelInfos[MODEL_TYPE::BJT].instanceParams.emplace_back( "geqcb", 238, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, U(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "d(Ibe)/d(Vbc)", true );
 modelInfos[MODEL_TYPE::BJT].instanceParams.emplace_back( "gcsub", 239, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, U(), "F", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Internal Subs. cap. equiv. cond.", true );
 modelInfos[MODEL_TYPE::BJT].instanceParams.emplace_back( "gdsub", 254, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, U(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Internal Subs. Diode equiv. cond.", true );
 modelInfos[MODEL_TYPE::BJT].instanceParams.emplace_back( "geqbx", 240, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, U(), "F", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Internal C-B-base cap. equiv. cond.", true );
 modelInfos[MODEL_TYPE::BJT].instanceParams.emplace_back( "cpi", 250, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "F", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Internal base to emitter capacitance", true );
 modelInfos[MODEL_TYPE::BJT].instanceParams.emplace_back( "cmu", 251, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "F", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Internal base to collector capacitance", true );
 modelInfos[MODEL_TYPE::BJT].instanceParams.emplace_back( "cbx", 252, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "F", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Base to collector capacitance", true );
 modelInfos[MODEL_TYPE::BJT].instanceParams.emplace_back( "csub", 253, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "F", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "0", "0", "Substrate capacitance", true );
 modelInfos[MODEL_TYPE::BJT].instanceParams.emplace_back( "cqbe", 229, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, U(), "F", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Cap. due to charge storage in B-E jct.", true );
 modelInfos[MODEL_TYPE::BJT].instanceParams.emplace_back( "cqbc", 231, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, U(), "F", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Cap. due to charge storage in B-C jct.", true );
 modelInfos[MODEL_TYPE::BJT].instanceParams.emplace_back( "cqsub", 233, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, U(), "F", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Cap. due to charge storage in Subs. jct.", true );
 modelInfos[MODEL_TYPE::BJT].instanceParams.emplace_back( "cqbx", 235, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, U(), "F", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Cap. due to charge storage in B-X jct.", true );
 modelInfos[MODEL_TYPE::BJT].instanceParams.emplace_back( "cexbc", 237, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, U(), "F", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Total Capacitance in B-X junction", true );
 modelInfos[MODEL_TYPE::BJT].instanceParams.emplace_back( "qbe", 228, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, U(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Charge storage B-E junction", true );
 modelInfos[MODEL_TYPE::BJT].instanceParams.emplace_back( "qbc", 230, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, U(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Charge storage B-C junction", true );
 modelInfos[MODEL_TYPE::BJT].instanceParams.emplace_back( "qsub", 232, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, U(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Charge storage Subs. junction", true );
 modelInfos[MODEL_TYPE::BJT].instanceParams.emplace_back( "qbx", 234, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, U(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Charge storage B-X junction", true );
 modelInfos[MODEL_TYPE::BJT].instanceParams.emplace_back( "p", 249, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, U(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Power dissipation", true );
 modelInfos[MODEL_TYPE::BJT].instanceParams.emplace_back( "sens_dc", 246, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, U(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "dc sensitivity", true );
 modelInfos[MODEL_TYPE::BJT].instanceParams.emplace_back( "sens_real", 241, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, U(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "real part of ac sensitivity", true );
 modelInfos[MODEL_TYPE::BJT].instanceParams.emplace_back( "sens_imag", 242, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, U(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "dc sens. & imag part of ac sens.", true );
 modelInfos[MODEL_TYPE::BJT].instanceParams.emplace_back( "sens_mag", 243, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, U(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "sensitivity of ac magnitude", true );
 modelInfos[MODEL_TYPE::BJT].instanceParams.emplace_back( "sens_ph", 244, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, U(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "sensitivity of ac phase", true );
 modelInfos[MODEL_TYPE::BJT].instanceParams.emplace_back( "sens_cplx", 245, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_COMPLEX, U(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "ac sensitivity", true );
 modelInfos[MODEL_TYPE::BJT].instanceParams.emplace_back( "temp", 7, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, U(), "°C", SIM_MODEL::PARAM::CATEGORY::PRINCIPAL, "", "", "instance temperature", true );
 modelInfos[MODEL_TYPE::BJT].instanceParams.emplace_back( "dtemp", 8, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, U(), "°C", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "instance temperature delta from circuit", true );
 
 
 modelInfos[MODEL_TYPE::VBIC] = { "VBIC", "NPN", "PNP", { "Collector", "Base", "Emitter" }, "Vertical Bipolar Inter-Company Model", {}, {} };
 // Model parameters
 modelInfos[MODEL_TYPE::VBIC].modelParams.emplace_back( "type", 305, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_STRING, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "npn", "pnp", "NPN or PNP" );
 modelInfos[MODEL_TYPE::VBIC].modelParams.emplace_back( "npn", 101, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_BOOL, U(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "NaN", "NaN", "NPN type device" );
 modelInfos[MODEL_TYPE::VBIC].modelParams.emplace_back( "pnp", 102, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_BOOL, U(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "NaN", "NaN", "PNP type device" );
 modelInfos[MODEL_TYPE::VBIC].modelParams.emplace_back( "tnom", 103, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "°C", SIM_MODEL::PARAM::CATEGORY::TEMPERATURE, "27", "27", "Parameter measurement temperature" );
 modelInfos[MODEL_TYPE::VBIC].modelParams.emplace_back( "tref", 103, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, R(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "27", "27", "n.a." );
 modelInfos[MODEL_TYPE::VBIC].modelParams.emplace_back( "rcx", 104, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "Ω", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "Extrinsic coll resistance" );
 modelInfos[MODEL_TYPE::VBIC].modelParams.emplace_back( "rci", 105, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "Ω", SIM_MODEL::PARAM::CATEGORY::DC, "0.1", "0.1", "Intrinsic coll resistance" );
 modelInfos[MODEL_TYPE::VBIC].modelParams.emplace_back( "vo", 106, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "V", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "Epi drift saturation voltage" );
 modelInfos[MODEL_TYPE::VBIC].modelParams.emplace_back( "gamm", 107, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "Epi doping parameter" );
 modelInfos[MODEL_TYPE::VBIC].modelParams.emplace_back( "hrcf", 108, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "A", SIM_MODEL::PARAM::CATEGORY::DC, "1", "1", "High current RC factor" );
 modelInfos[MODEL_TYPE::VBIC].modelParams.emplace_back( "rbx", 109, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "Ω", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "Extrinsic base resistance" );
 modelInfos[MODEL_TYPE::VBIC].modelParams.emplace_back( "rbi", 110, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "Ω", SIM_MODEL::PARAM::CATEGORY::DC, "0.1", "0.1", "Intrinsic base resistance" );
 modelInfos[MODEL_TYPE::VBIC].modelParams.emplace_back( "re", 111, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "Ω", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "Intrinsic emitter resistance" );
 modelInfos[MODEL_TYPE::VBIC].modelParams.emplace_back( "rs", 112, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "Ω", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "Intrinsic substrate resistance" );
 modelInfos[MODEL_TYPE::VBIC].modelParams.emplace_back( "rbp", 113, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "Ω", SIM_MODEL::PARAM::CATEGORY::DC, "0.1", "0.1", "Parasitic base resistance" );
 modelInfos[MODEL_TYPE::VBIC].modelParams.emplace_back( "is", 114, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "A", SIM_MODEL::PARAM::CATEGORY::DC, "1e-16", "1e-16", "Transport saturation current" );
 modelInfos[MODEL_TYPE::VBIC].modelParams.emplace_back( "nf", 115, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::DC, "1", "1", "Forward emission coefficient" );
 modelInfos[MODEL_TYPE::VBIC].modelParams.emplace_back( "nr", 116, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::DC, "1", "1", "Reverse emission coefficient" );
 modelInfos[MODEL_TYPE::VBIC].modelParams.emplace_back( "fc", 117, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "F", SIM_MODEL::PARAM::CATEGORY::CAPACITANCE, "0.9", "0.9", "Fwd bias depletion capacitance limit" );
 modelInfos[MODEL_TYPE::VBIC].modelParams.emplace_back( "cbeo", 118, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "F/m", SIM_MODEL::PARAM::CATEGORY::CAPACITANCE, "0", "0", "Extrinsic B-E overlap capacitance" );
 modelInfos[MODEL_TYPE::VBIC].modelParams.emplace_back( "cje", 119, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "F", SIM_MODEL::PARAM::CATEGORY::CAPACITANCE, "0", "0", "Zero bias B-E depletion capacitance" );
 modelInfos[MODEL_TYPE::VBIC].modelParams.emplace_back( "pe", 120, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "V", SIM_MODEL::PARAM::CATEGORY::DC, "0.75", "0.75", "B-E built in potential" );
 modelInfos[MODEL_TYPE::VBIC].modelParams.emplace_back( "me", 121, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::DC, "0.33", "0.33", "B-E junction grading coefficient" );
 modelInfos[MODEL_TYPE::VBIC].modelParams.emplace_back( "aje", 122, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "F", SIM_MODEL::PARAM::CATEGORY::CAPACITANCE, "-0.5", "-0.5", "B-E capacitance smoothing factor" );
 modelInfos[MODEL_TYPE::VBIC].modelParams.emplace_back( "cbco", 123, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "F/m", SIM_MODEL::PARAM::CATEGORY::CAPACITANCE, "0", "0", "Extrinsic B-C overlap capacitance" );
 modelInfos[MODEL_TYPE::VBIC].modelParams.emplace_back( "cjc", 124, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "F", SIM_MODEL::PARAM::CATEGORY::CAPACITANCE, "0", "0", "Zero bias B-C depletion capacitance" );
 modelInfos[MODEL_TYPE::VBIC].modelParams.emplace_back( "qco", 125, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "C", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "Epi charge parameter" );
 modelInfos[MODEL_TYPE::VBIC].modelParams.emplace_back( "cjep", 126, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "F", SIM_MODEL::PARAM::CATEGORY::CAPACITANCE, "0", "0", "B-C extrinsic zero bias capacitance" );
 modelInfos[MODEL_TYPE::VBIC].modelParams.emplace_back( "pc", 127, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "V", SIM_MODEL::PARAM::CATEGORY::DC, "0.75", "0.75", "B-C built in potential" );
 modelInfos[MODEL_TYPE::VBIC].modelParams.emplace_back( "mc", 128, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::DC, "0.33", "0.33", "B-C junction grading coefficient" );
 modelInfos[MODEL_TYPE::VBIC].modelParams.emplace_back( "ajc", 129, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "F", SIM_MODEL::PARAM::CATEGORY::CAPACITANCE, "-0.5", "-0.5", "B-C capacitance smoothing factor" );
 modelInfos[MODEL_TYPE::VBIC].modelParams.emplace_back( "cjcp", 130, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "F", SIM_MODEL::PARAM::CATEGORY::CAPACITANCE, "0", "0", "Zero bias S-C capacitance" );
 modelInfos[MODEL_TYPE::VBIC].modelParams.emplace_back( "ps", 131, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "V", SIM_MODEL::PARAM::CATEGORY::DC, "0.75", "0.75", "S-C junction built in potential" );
 modelInfos[MODEL_TYPE::VBIC].modelParams.emplace_back( "ms", 132, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::DC, "0.33", "0.33", "S-C junction grading coefficient" );
 modelInfos[MODEL_TYPE::VBIC].modelParams.emplace_back( "ajs", 133, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "F", SIM_MODEL::PARAM::CATEGORY::CAPACITANCE, "-0.5", "-0.5", "S-C capacitance smoothing factor" );
 modelInfos[MODEL_TYPE::VBIC].modelParams.emplace_back( "ibei", 134, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "A", SIM_MODEL::PARAM::CATEGORY::DC, "1e-18", "1e-18", "Ideal B-E saturation current" );
 modelInfos[MODEL_TYPE::VBIC].modelParams.emplace_back( "wbe", 135, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::DC, "1", "1", "Portion of IBEI from Vbei, 1-WBE from Vbex" );
 modelInfos[MODEL_TYPE::VBIC].modelParams.emplace_back( "nei", 136, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::DC, "1", "1", "Ideal B-E emission coefficient" );
 modelInfos[MODEL_TYPE::VBIC].modelParams.emplace_back( "iben", 137, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "A", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "Non-ideal B-E saturation current" );
 modelInfos[MODEL_TYPE::VBIC].modelParams.emplace_back( "nen", 138, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::DC, "2", "2", "Non-ideal B-E emission coefficient" );
 modelInfos[MODEL_TYPE::VBIC].modelParams.emplace_back( "ibci", 139, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "A", SIM_MODEL::PARAM::CATEGORY::DC, "1e-16", "1e-16", "Ideal B-C saturation current" );
 modelInfos[MODEL_TYPE::VBIC].modelParams.emplace_back( "nci", 140, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::DC, "1", "1", "Ideal B-C emission coefficient" );
 modelInfos[MODEL_TYPE::VBIC].modelParams.emplace_back( "ibcn", 141, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "A", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "Non-ideal B-C saturation current" );
 modelInfos[MODEL_TYPE::VBIC].modelParams.emplace_back( "ncn", 142, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::DC, "2", "2", "Non-ideal B-C emission coefficient" );
 modelInfos[MODEL_TYPE::VBIC].modelParams.emplace_back( "avc1", 143, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "B-C weak avalanche parameter 1" );
 modelInfos[MODEL_TYPE::VBIC].modelParams.emplace_back( "avc2", 144, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "B-C weak avalanche parameter 2" );
 modelInfos[MODEL_TYPE::VBIC].modelParams.emplace_back( "isp", 145, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "A", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "Parasitic transport saturation current" );
 modelInfos[MODEL_TYPE::VBIC].modelParams.emplace_back( "wsp", 146, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::DC, "1", "1", "Portion of ICCP" );
 modelInfos[MODEL_TYPE::VBIC].modelParams.emplace_back( "nfp", 147, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::DC, "1", "1", "Parasitic fwd emission coefficient" );
 modelInfos[MODEL_TYPE::VBIC].modelParams.emplace_back( "ibeip", 148, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "A", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "Ideal parasitic B-E saturation current" );
 modelInfos[MODEL_TYPE::VBIC].modelParams.emplace_back( "ibenp", 149, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "A", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "Non-ideal parasitic B-E saturation current" );
 modelInfos[MODEL_TYPE::VBIC].modelParams.emplace_back( "ibcip", 150, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "A", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "Ideal parasitic B-C saturation current" );
 modelInfos[MODEL_TYPE::VBIC].modelParams.emplace_back( "ncip", 151, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::DC, "1", "1", "Ideal parasitic B-C emission coefficient" );
 modelInfos[MODEL_TYPE::VBIC].modelParams.emplace_back( "ibcnp", 152, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "A", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "Nonideal parasitic B-C saturation current" );
  modelInfos[MODEL_TYPE::VBIC].modelParams.emplace_back( "ncnp", 153, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::DC, "2", "2", "Nonideal parasitic B-C emission coefficient" );
 modelInfos[MODEL_TYPE::VBIC].modelParams.emplace_back( "vef", 154, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "V", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "Forward Early voltage" );
 modelInfos[MODEL_TYPE::VBIC].modelParams.emplace_back( "ver", 155, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "V", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "Reverse Early voltage" );
 modelInfos[MODEL_TYPE::VBIC].modelParams.emplace_back( "ikf", 156, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "A", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "Forward knee current" );
 modelInfos[MODEL_TYPE::VBIC].modelParams.emplace_back( "ikr", 157, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "A", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "Reverse knee current" );
 modelInfos[MODEL_TYPE::VBIC].modelParams.emplace_back( "ikp", 158, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "A", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "Parasitic knee current" );
 modelInfos[MODEL_TYPE::VBIC].modelParams.emplace_back( "tf", 159, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "s", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "Ideal forward transit time" );
 modelInfos[MODEL_TYPE::VBIC].modelParams.emplace_back( "qtf", 160, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "m", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "Variation of TF with base-width modulation" );
 modelInfos[MODEL_TYPE::VBIC].modelParams.emplace_back( "xtf", 161, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "Coefficient for bias dependence of TF" );
 modelInfos[MODEL_TYPE::VBIC].modelParams.emplace_back( "vtf", 162, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "V", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "Voltage giving VBC dependence of TF" );
 modelInfos[MODEL_TYPE::VBIC].modelParams.emplace_back( "itf", 163, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "A", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "High current dependence of TF" );
 modelInfos[MODEL_TYPE::VBIC].modelParams.emplace_back( "tr", 164, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "s", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "Ideal reverse transit time" );
 modelInfos[MODEL_TYPE::VBIC].modelParams.emplace_back( "td", 165, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "s", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "Forward excess-phase delay time" );
 modelInfos[MODEL_TYPE::VBIC].modelParams.emplace_back( "kfn", 166, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::NOISE, "0", "0", "B-E Flicker Noise Coefficient" );
 modelInfos[MODEL_TYPE::VBIC].modelParams.emplace_back( "afn", 167, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::NOISE, "1", "1", "B-E Flicker Noise Exponent" );
 modelInfos[MODEL_TYPE::VBIC].modelParams.emplace_back( "bfn", 168, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::NOISE, "1", "1", "B-E Flicker Noise 1/f dependence" );
 modelInfos[MODEL_TYPE::VBIC].modelParams.emplace_back( "xre", 169, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::TEMPERATURE, "0", "0", "Temperature exponent of RE" );
 modelInfos[MODEL_TYPE::VBIC].modelParams.emplace_back( "xrb", 170, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::TEMPERATURE, "0", "0", "Temperature exponent of RB" );
 modelInfos[MODEL_TYPE::VBIC].modelParams.emplace_back( "xrbi", 171, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::TEMPERATURE, "0", "0", "Temperature exponent of RBI" );
 modelInfos[MODEL_TYPE::VBIC].modelParams.emplace_back( "xrc", 172, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::TEMPERATURE, "0", "0", "Temperature exponent of RC" );
 modelInfos[MODEL_TYPE::VBIC].modelParams.emplace_back( "xrci", 173, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::TEMPERATURE, "0", "0", "Temperature exponent of RCI" );
 modelInfos[MODEL_TYPE::VBIC].modelParams.emplace_back( "xrs", 174, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::TEMPERATURE, "0", "0", "Temperature exponent of RS" );
 modelInfos[MODEL_TYPE::VBIC].modelParams.emplace_back( "xvo", 175, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::TEMPERATURE, "0", "0", "Temperature exponent of VO" );
 modelInfos[MODEL_TYPE::VBIC].modelParams.emplace_back( "ea", 176, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "eV", SIM_MODEL::PARAM::CATEGORY::DC, "1.12", "1.12", "Activation energy for IS" );
 modelInfos[MODEL_TYPE::VBIC].modelParams.emplace_back( "eaie", 177, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "eV", SIM_MODEL::PARAM::CATEGORY::DC, "1.12", "1.12", "Activation energy for IBEI" );
 modelInfos[MODEL_TYPE::VBIC].modelParams.emplace_back( "eaic", 178, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "eV", SIM_MODEL::PARAM::CATEGORY::DC, "1.12", "1.12", "Activation energy for IBCI/IBEIP" );
 modelInfos[MODEL_TYPE::VBIC].modelParams.emplace_back( "eais", 179, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "eV", SIM_MODEL::PARAM::CATEGORY::DC, "1.12", "1.12", "Activation energy for IBCIP" );
 modelInfos[MODEL_TYPE::VBIC].modelParams.emplace_back( "eane", 180, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "eV", SIM_MODEL::PARAM::CATEGORY::DC, "1.12", "1.12", "Activation energy for IBEN" );
 modelInfos[MODEL_TYPE::VBIC].modelParams.emplace_back( "eanc", 181, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "eV", SIM_MODEL::PARAM::CATEGORY::DC, "1.12", "1.12", "Activation energy for IBCN/IBENP" );
 modelInfos[MODEL_TYPE::VBIC].modelParams.emplace_back( "eans", 182, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "eV", SIM_MODEL::PARAM::CATEGORY::DC, "1.12", "1.12", "Activation energy for IBCNP" );
 modelInfos[MODEL_TYPE::VBIC].modelParams.emplace_back( "xis", 183, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::TEMPERATURE, "3", "3", "Temperature exponent of IS" );
 modelInfos[MODEL_TYPE::VBIC].modelParams.emplace_back( "xii", 184, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::TEMPERATURE, "3", "3", "Temperature exponent of IBEI,IBCI,IBEIP,IBCIP" );
 modelInfos[MODEL_TYPE::VBIC].modelParams.emplace_back( "xin", 185, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::TEMPERATURE, "3", "3", "Temperature exponent of IBEN,IBCN,IBENP,IBCNP" );
 modelInfos[MODEL_TYPE::VBIC].modelParams.emplace_back( "tnf", 186, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::TEMPERATURE, "0", "0", "Temperature exponent of NF" );
 modelInfos[MODEL_TYPE::VBIC].modelParams.emplace_back( "tavc", 187, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::TEMPERATURE, "0", "0", "Temperature exponent of AVC2" );
 modelInfos[MODEL_TYPE::VBIC].modelParams.emplace_back( "rth", 188, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "Ω", SIM_MODEL::PARAM::CATEGORY::TEMPERATURE, "0", "0", "Thermal resistance" );
 modelInfos[MODEL_TYPE::VBIC].modelParams.emplace_back( "cth", 189, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "Thermal capacitance" );
 modelInfos[MODEL_TYPE::VBIC].modelParams.emplace_back( "vrt", 190, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "V", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "Punch-through voltage of internal B-C junction" );
 modelInfos[MODEL_TYPE::VBIC].modelParams.emplace_back( "art", 191, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::DC, "0.1", "0.1", "Smoothing parameter for reach-through" );
 modelInfos[MODEL_TYPE::VBIC].modelParams.emplace_back( "ccso", 192, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "F", SIM_MODEL::PARAM::CATEGORY::CAPACITANCE, "0", "0", "Fixed C-S capacitance" );
 modelInfos[MODEL_TYPE::VBIC].modelParams.emplace_back( "qbm", 193, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "Select SGP qb formulation" );
 modelInfos[MODEL_TYPE::VBIC].modelParams.emplace_back( "nkf", 194, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "A", SIM_MODEL::PARAM::CATEGORY::DC, "0.5", "0.5", "High current beta rolloff" );
 modelInfos[MODEL_TYPE::VBIC].modelParams.emplace_back( "xikf", 195, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::TEMPERATURE, "0", "0", "Temperature exponent of IKF" );
 modelInfos[MODEL_TYPE::VBIC].modelParams.emplace_back( "xrcx", 196, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::TEMPERATURE, "0", "0", "Temperature exponent of RCX" );
 modelInfos[MODEL_TYPE::VBIC].modelParams.emplace_back( "xrbx", 197, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::TEMPERATURE, "0", "0", "Temperature exponent of RBX" );
 modelInfos[MODEL_TYPE::VBIC].modelParams.emplace_back( "xrbp", 198, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::TEMPERATURE, "0", "0", "Temperature exponent of RBP" );
 modelInfos[MODEL_TYPE::VBIC].modelParams.emplace_back( "isrr", 199, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::DC, "1", "1", "Separate IS for fwd and rev" );
 modelInfos[MODEL_TYPE::VBIC].modelParams.emplace_back( "xisr", 200, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::TEMPERATURE, "0", "0", "Temperature exponent of ISR" );
 modelInfos[MODEL_TYPE::VBIC].modelParams.emplace_back( "dear", 201, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "eV", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "Delta activation energy for ISRR" );
 modelInfos[MODEL_TYPE::VBIC].modelParams.emplace_back( "eap", 202, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "eV", SIM_MODEL::PARAM::CATEGORY::DC, "1.12", "1.12", "Exitivation energy for ISP" );
 modelInfos[MODEL_TYPE::VBIC].modelParams.emplace_back( "vbbe", 203, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "V", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "B-E breakdown voltage" );
 modelInfos[MODEL_TYPE::VBIC].modelParams.emplace_back( "nbbe", 204, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::DC, "1", "1", "B-E breakdown emission coefficient" );
 modelInfos[MODEL_TYPE::VBIC].modelParams.emplace_back( "ibbe", 205, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "A", SIM_MODEL::PARAM::CATEGORY::DC, "1e-06", "1e-06", "B-E breakdown current" );
 modelInfos[MODEL_TYPE::VBIC].modelParams.emplace_back( "tvbbe1", 206, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "°C", SIM_MODEL::PARAM::CATEGORY::TEMPERATURE, "0", "0", "Linear temperature coefficient of VBBE" );
 modelInfos[MODEL_TYPE::VBIC].modelParams.emplace_back( "tvbbe2", 207, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "°C", SIM_MODEL::PARAM::CATEGORY::TEMPERATURE, "0", "0", "Quadratic temperature coefficient of VBBE" );
 modelInfos[MODEL_TYPE::VBIC].modelParams.emplace_back( "tnbbe", 208, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "°C", SIM_MODEL::PARAM::CATEGORY::TEMPERATURE, "0", "0", "Temperature coefficient of NBBE" );
 modelInfos[MODEL_TYPE::VBIC].modelParams.emplace_back( "ebbe", 209, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "exp(-VBBE/(NBBE*Vtv))" );
 modelInfos[MODEL_TYPE::VBIC].modelParams.emplace_back( "dtemp", 210, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "°C", SIM_MODEL::PARAM::CATEGORY::TEMPERATURE, "0", "0", "Locale Temperature difference" );
 modelInfos[MODEL_TYPE::VBIC].modelParams.emplace_back( "vers", 211, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::DC, "1.2", "1.2", "Revision Version" );
 modelInfos[MODEL_TYPE::VBIC].modelParams.emplace_back( "vref", 212, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "Reference Version" );
 modelInfos[MODEL_TYPE::VBIC].modelParams.emplace_back( "vbe_max", 213, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "V", SIM_MODEL::PARAM::CATEGORY::LIMITING_VALUES, "1e+99", "1e+99", "maximum voltage B-E junction" );
 modelInfos[MODEL_TYPE::VBIC].modelParams.emplace_back( "vbc_max", 214, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "V", SIM_MODEL::PARAM::CATEGORY::LIMITING_VALUES, "1e+99", "1e+99", "maximum voltage B-C junction" );
 modelInfos[MODEL_TYPE::VBIC].modelParams.emplace_back( "vce_max", 215, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "V", SIM_MODEL::PARAM::CATEGORY::LIMITING_VALUES, "1e+99", "1e+99", "maximum voltage C-E branch" );
 // Instance parameters
 modelInfos[MODEL_TYPE::VBIC].instanceParams.emplace_back( "m", 8, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, U(), "", SIM_MODEL::PARAM::CATEGORY::GEOMETRY, "", "", "Multiplier", true );
 modelInfos[MODEL_TYPE::VBIC].instanceParams.emplace_back( "area", 1, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, U(), "", SIM_MODEL::PARAM::CATEGORY::GEOMETRY, "", "", "Area factor", true );
 modelInfos[MODEL_TYPE::VBIC].instanceParams.emplace_back( "off", 2, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_BOOL, U(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Device initially off", true );
 modelInfos[MODEL_TYPE::VBIC].instanceParams.emplace_back( "ic", 3, SIM_MODEL::PARAM::DIR_IN, SIM_VALUE::TYPE_FLOAT_VECTOR, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Initial condition vector", true );
 modelInfos[MODEL_TYPE::VBIC].instanceParams.emplace_back( "icvbe", 4, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, AU(), "V", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Initial B-E voltage", true );
 modelInfos[MODEL_TYPE::VBIC].instanceParams.emplace_back( "icvce", 5, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, AU(), "V", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Initial C-E voltage", true );
 modelInfos[MODEL_TYPE::VBIC].instanceParams.emplace_back( "temp", 6, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, U(), "°C", SIM_MODEL::PARAM::CATEGORY::PRINCIPAL, "", "", "Instance temperature", true );
 modelInfos[MODEL_TYPE::VBIC].instanceParams.emplace_back( "dtemp", 7, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, U(), "°C", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "0", "0", "Instance delta temperature", true );
 modelInfos[MODEL_TYPE::VBIC].instanceParams.emplace_back( "collnode", 222, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_INT, U(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Number of collector node", true );
 modelInfos[MODEL_TYPE::VBIC].instanceParams.emplace_back( "basenode", 223, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_INT, U(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Number of base node", true );
 modelInfos[MODEL_TYPE::VBIC].instanceParams.emplace_back( "emitnode", 224, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_INT, U(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Number of emitter node", true );
 modelInfos[MODEL_TYPE::VBIC].instanceParams.emplace_back( "subsnode", 225, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_INT, U(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Number of substrate node", true );
 modelInfos[MODEL_TYPE::VBIC].instanceParams.emplace_back( "collcxnode", 226, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_INT, U(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Internal collector node", true );
 modelInfos[MODEL_TYPE::VBIC].instanceParams.emplace_back( "collcinode", 227, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_INT, U(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Internal collector node", true );
 modelInfos[MODEL_TYPE::VBIC].instanceParams.emplace_back( "basebxnode", 228, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_INT, U(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Internal base node", true );
 modelInfos[MODEL_TYPE::VBIC].instanceParams.emplace_back( "basebinode", 229, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_INT, U(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Internal base node", true );
 modelInfos[MODEL_TYPE::VBIC].instanceParams.emplace_back( "basebpnode", 230, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_INT, U(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Internal base node", true );
 modelInfos[MODEL_TYPE::VBIC].instanceParams.emplace_back( "emiteinode", 231, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_INT, U(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Internal emitter node", true );
 modelInfos[MODEL_TYPE::VBIC].instanceParams.emplace_back( "subssinode", 232, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_INT, U(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Internal substrate node", true );
 modelInfos[MODEL_TYPE::VBIC].instanceParams.emplace_back( "vbe", 233, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "V", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "B-E voltage", true );
 modelInfos[MODEL_TYPE::VBIC].instanceParams.emplace_back( "vbc", 234, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "V", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "B-C voltage", true );
 modelInfos[MODEL_TYPE::VBIC].instanceParams.emplace_back( "ic", 235, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "A", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Collector current", true );
 modelInfos[MODEL_TYPE::VBIC].instanceParams.emplace_back( "ib", 236, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "A", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Base current", true );
 modelInfos[MODEL_TYPE::VBIC].instanceParams.emplace_back( "ie", 237, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "A", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Emitter current", true );
 modelInfos[MODEL_TYPE::VBIC].instanceParams.emplace_back( "is", 238, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "A", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "1e-16", "1e-16", "Substrate current", true );
 modelInfos[MODEL_TYPE::VBIC].instanceParams.emplace_back( "gm", 239, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Small signal transconductance dIc/dVbe", true );
 modelInfos[MODEL_TYPE::VBIC].instanceParams.emplace_back( "go", 240, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Small signal output conductance dIc/dVbc", true );
 modelInfos[MODEL_TYPE::VBIC].instanceParams.emplace_back( "gpi", 241, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Small signal input conductance dIb/dVbe", true );
 modelInfos[MODEL_TYPE::VBIC].instanceParams.emplace_back( "gmu", 242, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Small signal conductance dIb/dVbc", true );
 modelInfos[MODEL_TYPE::VBIC].instanceParams.emplace_back( "gx", 243, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Conductance from base to internal base", true );
 modelInfos[MODEL_TYPE::VBIC].instanceParams.emplace_back( "cbe", 257, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "F", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Internal base to emitter capacitance", true );
 modelInfos[MODEL_TYPE::VBIC].instanceParams.emplace_back( "cbex", 258, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "F", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "External base to emitter capacitance", true );
 modelInfos[MODEL_TYPE::VBIC].instanceParams.emplace_back( "cbc", 259, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "F", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Internal base to collector capacitance", true );
 modelInfos[MODEL_TYPE::VBIC].instanceParams.emplace_back( "cbcx", 260, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "F", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "External Base to collector capacitance", true );
 modelInfos[MODEL_TYPE::VBIC].instanceParams.emplace_back( "cbep", 261, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "F", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Parasitic Base to emitter capacitance", true );
 modelInfos[MODEL_TYPE::VBIC].instanceParams.emplace_back( "cbcp", 262, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "F", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Parasitic Base to collector capacitance", true );
 modelInfos[MODEL_TYPE::VBIC].instanceParams.emplace_back( "p", 263, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Power dissipation", true );
 modelInfos[MODEL_TYPE::VBIC].instanceParams.emplace_back( "geqcb", 253, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, U(), "F", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Internal C-B-base cap. equiv. cond.", true );
 modelInfos[MODEL_TYPE::VBIC].instanceParams.emplace_back( "geqbx", 256, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, U(), "F", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "External C-B-base cap. equiv. cond.", true );
 modelInfos[MODEL_TYPE::VBIC].instanceParams.emplace_back( "qbe", 244, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, U(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Charge storage B-E junction", true );
 modelInfos[MODEL_TYPE::VBIC].instanceParams.emplace_back( "cqbe", 245, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, U(), "F", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Cap. due to charge storage in B-E jct.", true );
 modelInfos[MODEL_TYPE::VBIC].instanceParams.emplace_back( "qbc", 246, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, U(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Charge storage B-C junction", true );
 modelInfos[MODEL_TYPE::VBIC].instanceParams.emplace_back( "cqbc", 247, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, U(), "F", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Cap. due to charge storage in B-C jct.", true );
 modelInfos[MODEL_TYPE::VBIC].instanceParams.emplace_back( "qbx", 248, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, U(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Charge storage B-X junction", true );
 modelInfos[MODEL_TYPE::VBIC].instanceParams.emplace_back( "cqbx", 249, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, U(), "F", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Cap. due to charge storage in B-X jct.", true );
 
 
 modelInfos[MODEL_TYPE::HICUM2] = { "hicum2", "NPN", "PNP", { "Collector", "Base", "Emitter" }, "High Current Model for BJT" , {}, {} };
 // Model parameters
 modelInfos[MODEL_TYPE::HICUM2].modelParams.emplace_back( "type", 305, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_STRING, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "npn", "pnp", "For transistor type NPN(+1) or PNP (-1)" );
 modelInfos[MODEL_TYPE::HICUM2].modelParams.emplace_back( "npn", 101, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_BOOL, U(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "NaN", "NaN", "NPN type device" );
 modelInfos[MODEL_TYPE::HICUM2].modelParams.emplace_back( "pnp", 102, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_BOOL, U(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "NaN", "NaN", "PNP type device" );
 modelInfos[MODEL_TYPE::HICUM2].modelParams.emplace_back( "tnom", 103, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "°C", SIM_MODEL::PARAM::CATEGORY::TEMPERATURE, "300.15", "300.15", "Temperature at which parameters are specified" );
 modelInfos[MODEL_TYPE::HICUM2].modelParams.emplace_back( "tref", 103, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, R(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "300.15", "300.15", "n.a." );
 modelInfos[MODEL_TYPE::HICUM2].modelParams.emplace_back( "version", 104, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_STRING, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::DC, "2.4.0", "2.4.0", "parameter for model version" );
 modelInfos[MODEL_TYPE::HICUM2].modelParams.emplace_back( "c10", 105, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::DC, "2e-30", "2e-30", "GICCR constant" );
 modelInfos[MODEL_TYPE::HICUM2].modelParams.emplace_back( "qp0", 106, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::DC, "2e-14", "2e-14", "Zero-bias hole charge" );
 modelInfos[MODEL_TYPE::HICUM2].modelParams.emplace_back( "ich", 107, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "A", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "High-current correction for 2D and 3D effects" );
 modelInfos[MODEL_TYPE::HICUM2].modelParams.emplace_back( "hf0", 108, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "A", SIM_MODEL::PARAM::CATEGORY::DC, "1", "1", "Weight factor for the low current minority charge" );
 modelInfos[MODEL_TYPE::HICUM2].modelParams.emplace_back( "hfe", 109, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::DC, "1", "1", "Emitter minority charge weighting factor in HBTs" );
 modelInfos[MODEL_TYPE::HICUM2].modelParams.emplace_back( "hfc", 110, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::DC, "1", "1", "Collector minority charge weighting factor in HBTs" );
 modelInfos[MODEL_TYPE::HICUM2].modelParams.emplace_back( "hjei", 111, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::DC, "1", "1", "B-E depletion charge weighting factor in HBTs" );
 modelInfos[MODEL_TYPE::HICUM2].modelParams.emplace_back( "ahjei", 112, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "Parameter describing the slope of hjEi(VBE)" );
 modelInfos[MODEL_TYPE::HICUM2].modelParams.emplace_back( "rhjei", 113, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "V", SIM_MODEL::PARAM::CATEGORY::DC, "1", "1", "Smoothing parameter for hjEi(VBE) at high voltage" );
 modelInfos[MODEL_TYPE::HICUM2].modelParams.emplace_back( "hjci", 114, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::DC, "1", "1", "B-C depletion charge weighting factor in HBTs" );
 modelInfos[MODEL_TYPE::HICUM2].modelParams.emplace_back( "ibeis", 115, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "A", SIM_MODEL::PARAM::CATEGORY::DC, "1e-18", "1e-18", "Internal B-E saturation current" );
 modelInfos[MODEL_TYPE::HICUM2].modelParams.emplace_back( "mbei", 116, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "A", SIM_MODEL::PARAM::CATEGORY::DC, "1", "1", "Internal B-E current ideality factor" );
 modelInfos[MODEL_TYPE::HICUM2].modelParams.emplace_back( "ireis", 117, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "A", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "Internal B-E recombination saturation current" );
 modelInfos[MODEL_TYPE::HICUM2].modelParams.emplace_back( "mrei", 118, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "A", SIM_MODEL::PARAM::CATEGORY::DC, "2", "2", "Internal B-E recombination current ideality factor" );
 modelInfos[MODEL_TYPE::HICUM2].modelParams.emplace_back( "ibeps", 119, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "A", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "Peripheral B-E saturation current" );
 modelInfos[MODEL_TYPE::HICUM2].modelParams.emplace_back( "mbep", 120, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "A", SIM_MODEL::PARAM::CATEGORY::DC, "1", "1", "Peripheral B-E current ideality factor" );
 modelInfos[MODEL_TYPE::HICUM2].modelParams.emplace_back( "ireps", 121, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "A", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "Peripheral B-E recombination saturation current" );
 modelInfos[MODEL_TYPE::HICUM2].modelParams.emplace_back( "mrep", 122, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "A", SIM_MODEL::PARAM::CATEGORY::DC, "2", "2", "Peripheral B-E recombination current ideality factor" );
 modelInfos[MODEL_TYPE::HICUM2].modelParams.emplace_back( "mcf", 123, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::DC, "1", "1", "Non-ideality factor for III-V HBTs" );
 modelInfos[MODEL_TYPE::HICUM2].modelParams.emplace_back( "tbhrec", 124, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "A", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "Base current recombination time constant at B-C barrier for high forward injection" );
 modelInfos[MODEL_TYPE::HICUM2].modelParams.emplace_back( "ibcis", 125, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "A", SIM_MODEL::PARAM::CATEGORY::DC, "1e-16", "1e-16", "Internal B-C saturation current" );
 modelInfos[MODEL_TYPE::HICUM2].modelParams.emplace_back( "mbci", 126, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "A", SIM_MODEL::PARAM::CATEGORY::DC, "1", "1", "Internal B-C current ideality factor" );
 modelInfos[MODEL_TYPE::HICUM2].modelParams.emplace_back( "ibcxs", 127, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "A", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "External B-C saturation current" );
 modelInfos[MODEL_TYPE::HICUM2].modelParams.emplace_back( "mbcx", 128, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "A", SIM_MODEL::PARAM::CATEGORY::DC, "1", "1", "External B-C current ideality factor" );
 modelInfos[MODEL_TYPE::HICUM2].modelParams.emplace_back( "ibets", 129, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "A", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "B-E tunneling saturation current" );
 modelInfos[MODEL_TYPE::HICUM2].modelParams.emplace_back( "abet", 130, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::DC, "40", "40", "Exponent factor for tunneling current" );
 modelInfos[MODEL_TYPE::HICUM2].modelParams.emplace_back( "tunode", 131, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_INT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "Specifies the base node connection for the tunneling current" );
 modelInfos[MODEL_TYPE::HICUM2].modelParams.emplace_back( "favl", 132, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "A", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "Avalanche current factor" );
 modelInfos[MODEL_TYPE::HICUM2].modelParams.emplace_back( "qavl", 133, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "Exponent factor for avalanche current" );
 modelInfos[MODEL_TYPE::HICUM2].modelParams.emplace_back( "kavl", 134, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "Flag/factor for turning strong avalanche on" );
 modelInfos[MODEL_TYPE::HICUM2].modelParams.emplace_back( "alfav", 135, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "Relative TC for FAVL" );
 modelInfos[MODEL_TYPE::HICUM2].modelParams.emplace_back( "alqav", 136, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "Relative TC for QAVL" );
 modelInfos[MODEL_TYPE::HICUM2].modelParams.emplace_back( "alkav", 137, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "Relative TC for KAVL" );
 modelInfos[MODEL_TYPE::HICUM2].modelParams.emplace_back( "rbi0", 138, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "ohm", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "Zero bias internal base resistance" );
 modelInfos[MODEL_TYPE::HICUM2].modelParams.emplace_back( "rbx", 139, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "ohm", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "External base series resistance" );
 modelInfos[MODEL_TYPE::HICUM2].modelParams.emplace_back( "fgeo", 140, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "A", SIM_MODEL::PARAM::CATEGORY::DC, "0.6557", "0.6557", "Factor for geometry dependence of emitter current crowding" );
 modelInfos[MODEL_TYPE::HICUM2].modelParams.emplace_back( "fdqr0", 141, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "Correction factor for modulation by B-E and B-C space charge layer" );
 modelInfos[MODEL_TYPE::HICUM2].modelParams.emplace_back( "fcrbi", 142, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "F", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "Ratio of HF shunt to total internal capacitance (lateral NQS effect)" );
 modelInfos[MODEL_TYPE::HICUM2].modelParams.emplace_back( "fqi", 143, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::DC, "1", "1", "Ration of internal to total minority charge" );
 modelInfos[MODEL_TYPE::HICUM2].modelParams.emplace_back( "re", 144, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "ohm", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "Emitter series resistance" );
 modelInfos[MODEL_TYPE::HICUM2].modelParams.emplace_back( "rcx", 145, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "ohm", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "External collector series resistance" );
 modelInfos[MODEL_TYPE::HICUM2].modelParams.emplace_back( "itss", 146, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "A", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "Substrate transistor transfer saturation current" );
 modelInfos[MODEL_TYPE::HICUM2].modelParams.emplace_back( "msf", 147, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "A", SIM_MODEL::PARAM::CATEGORY::DC, "1", "1", "Forward ideality factor of substrate transfer current" );
 modelInfos[MODEL_TYPE::HICUM2].modelParams.emplace_back( "iscs", 148, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "A", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "C-S diode saturation current" );
 modelInfos[MODEL_TYPE::HICUM2].modelParams.emplace_back( "msc", 149, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "A", SIM_MODEL::PARAM::CATEGORY::DC, "1", "1", "Ideality factor of C-S diode current" );
 modelInfos[MODEL_TYPE::HICUM2].modelParams.emplace_back( "tsf", 150, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "s", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "Transit time for forward operation of substrate transistor" );
 modelInfos[MODEL_TYPE::HICUM2].modelParams.emplace_back( "rsu", 151, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "ohm", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "Substrate series resistance" );
 modelInfos[MODEL_TYPE::HICUM2].modelParams.emplace_back( "csu", 152, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "F", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "Substrate shunt capacitance" );
 modelInfos[MODEL_TYPE::HICUM2].modelParams.emplace_back( "cjei0", 153, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "F", SIM_MODEL::PARAM::CATEGORY::DC, "1e-20", "1e-20", "Internal B-E zero-bias depletion capacitance" );
 modelInfos[MODEL_TYPE::HICUM2].modelParams.emplace_back( "vdei", 154, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "V", SIM_MODEL::PARAM::CATEGORY::DC, "0.9", "0.9", "Internal B-E built-in potential" );
 modelInfos[MODEL_TYPE::HICUM2].modelParams.emplace_back( "zei", 155, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::DC, "0.5", "0.5", "Internal B-E grading coefficient" );
 modelInfos[MODEL_TYPE::HICUM2].modelParams.emplace_back( "ajei", 156, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "F", SIM_MODEL::PARAM::CATEGORY::DC, "2.5", "2.5", "Ratio of maximum to zero-bias value of internal B-E capacitance" );
 modelInfos[MODEL_TYPE::HICUM2].modelParams.emplace_back( "aljei", 156, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, R(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "2.5", "2.5", "n.a." );
 modelInfos[MODEL_TYPE::HICUM2].modelParams.emplace_back( "cjep0", 157, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "F", SIM_MODEL::PARAM::CATEGORY::DC, "1e-20", "1e-20", "Peripheral B-E zero-bias depletion capacitance" );
 modelInfos[MODEL_TYPE::HICUM2].modelParams.emplace_back( "vdep", 158, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "V", SIM_MODEL::PARAM::CATEGORY::DC, "0.9", "0.9", "Peripheral B-E built-in potential" );
 modelInfos[MODEL_TYPE::HICUM2].modelParams.emplace_back( "zep", 159, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::DC, "0.5", "0.5", "Peripheral B-E grading coefficient" );
 modelInfos[MODEL_TYPE::HICUM2].modelParams.emplace_back( "ajep", 160, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "F", SIM_MODEL::PARAM::CATEGORY::DC, "2.5", "2.5", "Ratio of maximum to zero-bias value of peripheral B-E capacitance" );
 modelInfos[MODEL_TYPE::HICUM2].modelParams.emplace_back( "aljep", 160, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, R(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "2.5", "2.5", "n.a." );
 modelInfos[MODEL_TYPE::HICUM2].modelParams.emplace_back( "cjci0", 161, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "F", SIM_MODEL::PARAM::CATEGORY::DC, "1e-20", "1e-20", "Internal B-C zero-bias depletion capacitance" );
  modelInfos[MODEL_TYPE::HICUM2].modelParams.emplace_back( "vdci", 162, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "V", SIM_MODEL::PARAM::CATEGORY::DC, "0.7", "0.7", "Internal B-C built-in potential" );
 modelInfos[MODEL_TYPE::HICUM2].modelParams.emplace_back( "zci", 163, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::DC, "0.4", "0.4", "Internal B-C grading coefficient" );
 modelInfos[MODEL_TYPE::HICUM2].modelParams.emplace_back( "vptci", 164, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "V", SIM_MODEL::PARAM::CATEGORY::DC, "100", "100", "Internal B-C punch-through voltage" );
 modelInfos[MODEL_TYPE::HICUM2].modelParams.emplace_back( "cjcx0", 165, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "F", SIM_MODEL::PARAM::CATEGORY::DC, "1e-20", "1e-20", "External B-C zero-bias depletion capacitance" );
 modelInfos[MODEL_TYPE::HICUM2].modelParams.emplace_back( "vdcx", 166, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "V", SIM_MODEL::PARAM::CATEGORY::DC, "0.7", "0.7", "External B-C built-in potential" );
 modelInfos[MODEL_TYPE::HICUM2].modelParams.emplace_back( "zcx", 167, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::DC, "0.4", "0.4", "External B-C grading coefficient" );
 modelInfos[MODEL_TYPE::HICUM2].modelParams.emplace_back( "vptcx", 168, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "V", SIM_MODEL::PARAM::CATEGORY::DC, "100", "100", "External B-C punch-through voltage" );
 modelInfos[MODEL_TYPE::HICUM2].modelParams.emplace_back( "fbcpar", 169, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "Partitioning factor of parasitic B-C cap" );
 modelInfos[MODEL_TYPE::HICUM2].modelParams.emplace_back( "fbc", 169, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, R(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "0", "0", "n.a." );
 modelInfos[MODEL_TYPE::HICUM2].modelParams.emplace_back( "fbepar", 170, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::DC, "1", "1", "Partitioning factor of parasitic B-E cap" );
 modelInfos[MODEL_TYPE::HICUM2].modelParams.emplace_back( "fbe", 170, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, R(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "1", "1", "n.a." );
 modelInfos[MODEL_TYPE::HICUM2].modelParams.emplace_back( "cjs0", 171, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "F", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "C-S zero-bias depletion capacitance" );
 modelInfos[MODEL_TYPE::HICUM2].modelParams.emplace_back( "vds", 172, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "V", SIM_MODEL::PARAM::CATEGORY::DC, "0.6", "0.6", "C-S built-in potential" );
 modelInfos[MODEL_TYPE::HICUM2].modelParams.emplace_back( "zs", 173, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::DC, "0.5", "0.5", "C-S grading coefficient" );
 modelInfos[MODEL_TYPE::HICUM2].modelParams.emplace_back( "vpts", 174, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "V", SIM_MODEL::PARAM::CATEGORY::DC, "100", "100", "C-S punch-through voltage" );
 modelInfos[MODEL_TYPE::HICUM2].modelParams.emplace_back( "cscp0", 175, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "F", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "Perimeter S-C zero-bias depletion capacitance" );
 modelInfos[MODEL_TYPE::HICUM2].modelParams.emplace_back( "vdsp", 176, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "V", SIM_MODEL::PARAM::CATEGORY::DC, "0.6", "0.6", "Perimeter S-C built-in potential" );
 modelInfos[MODEL_TYPE::HICUM2].modelParams.emplace_back( "zsp", 177, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::DC, "0.5", "0.5", "Perimeter S-C grading coefficient" );
 modelInfos[MODEL_TYPE::HICUM2].modelParams.emplace_back( "vptsp", 178, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "V", SIM_MODEL::PARAM::CATEGORY::DC, "100", "100", "Perimeter S-C punch-through voltage" );
 modelInfos[MODEL_TYPE::HICUM2].modelParams.emplace_back( "t0", 179, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "A", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "Low current forward transit time at VBC=0V" );
 modelInfos[MODEL_TYPE::HICUM2].modelParams.emplace_back( "dt0h", 180, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "m", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "Time constant for base and B-C space charge layer width modulation" );
 modelInfos[MODEL_TYPE::HICUM2].modelParams.emplace_back( "tbvl", 181, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "s", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "Time constant for modeling carrier jam at low VCE" );
 modelInfos[MODEL_TYPE::HICUM2].modelParams.emplace_back( "tef0", 182, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "s", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "Neutral emitter storage time" );
 modelInfos[MODEL_TYPE::HICUM2].modelParams.emplace_back( "gtfe", 183, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::DC, "1", "1", "Exponent factor for current dependence of neutral emitter storage time" );
 modelInfos[MODEL_TYPE::HICUM2].modelParams.emplace_back( "thcs", 184, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "A", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "Saturation time constant at high current densities" );
 modelInfos[MODEL_TYPE::HICUM2].modelParams.emplace_back( "ahc", 185, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "A", SIM_MODEL::PARAM::CATEGORY::DC, "0.1", "0.1", "Smoothing factor for current dependence of base and collector transit time" );
 modelInfos[MODEL_TYPE::HICUM2].modelParams.emplace_back( "alhc", 185, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, R(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "0.1", "0.1", "n.a." );
 modelInfos[MODEL_TYPE::HICUM2].modelParams.emplace_back( "fthc", 186, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "Partitioning factor for base and collector portion" );
 modelInfos[MODEL_TYPE::HICUM2].modelParams.emplace_back( "rci0", 187, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "ohm", SIM_MODEL::PARAM::CATEGORY::DC, "150", "150", "Internal collector resistance at low electric field" );
 modelInfos[MODEL_TYPE::HICUM2].modelParams.emplace_back( "vlim", 188, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "V", SIM_MODEL::PARAM::CATEGORY::DC, "0.5", "0.5", "Voltage separating ohmic and saturation velocity regime" );
 modelInfos[MODEL_TYPE::HICUM2].modelParams.emplace_back( "vces", 189, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "V", SIM_MODEL::PARAM::CATEGORY::DC, "0.1", "0.1", "Internal C-E saturation voltage" );
 modelInfos[MODEL_TYPE::HICUM2].modelParams.emplace_back( "vpt", 190, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "V", SIM_MODEL::PARAM::CATEGORY::DC, "100", "100", "Collector punch-through voltage" );
 modelInfos[MODEL_TYPE::HICUM2].modelParams.emplace_back( "aick", 191, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::DC, "0.001", "0.001", "Smoothing term for ICK" );
 modelInfos[MODEL_TYPE::HICUM2].modelParams.emplace_back( "delck", 192, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "A", SIM_MODEL::PARAM::CATEGORY::DC, "2", "2", "Fitting factor for critical current" );
 modelInfos[MODEL_TYPE::HICUM2].modelParams.emplace_back( "tr", 193, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "s", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "Storage time for inverse operation" );
 modelInfos[MODEL_TYPE::HICUM2].modelParams.emplace_back( "vcbar", 194, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "V", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "Barrier voltage" );
 modelInfos[MODEL_TYPE::HICUM2].modelParams.emplace_back( "icbar", 195, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "Normalization parameter" );
 modelInfos[MODEL_TYPE::HICUM2].modelParams.emplace_back( "acbar", 196, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "V", SIM_MODEL::PARAM::CATEGORY::DC, "0.01", "0.01", "Smoothing parameter for barrier voltage" );
 modelInfos[MODEL_TYPE::HICUM2].modelParams.emplace_back( "cbepar", 197, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "F", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "Total parasitic B-E capacitance" );
 modelInfos[MODEL_TYPE::HICUM2].modelParams.emplace_back( "ceox", 197, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, R(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "0", "0", "n.a." );
 modelInfos[MODEL_TYPE::HICUM2].modelParams.emplace_back( "cbcpar", 198, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "F", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "Total parasitic B-C capacitance" );
 modelInfos[MODEL_TYPE::HICUM2].modelParams.emplace_back( "ccox", 198, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, R(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "0", "0", "n.a." );
 modelInfos[MODEL_TYPE::HICUM2].modelParams.emplace_back( "alqf", 199, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "s", SIM_MODEL::PARAM::CATEGORY::DC, "0.167", "0.167", "Factor for additional delay time of minority charge" );
 modelInfos[MODEL_TYPE::HICUM2].modelParams.emplace_back( "alit", 200, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "A", SIM_MODEL::PARAM::CATEGORY::DC, "0.333", "0.333", "Factor for additional delay time of transfer current" );
 modelInfos[MODEL_TYPE::HICUM2].modelParams.emplace_back( "flnqs", 201, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_INT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "Flag for turning on and off of vertical NQS effect" );
 modelInfos[MODEL_TYPE::HICUM2].modelParams.emplace_back( "kf", 202, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::NOISE, "0", "0", "Flicker noise coefficient" );
 modelInfos[MODEL_TYPE::HICUM2].modelParams.emplace_back( "af", 203, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::NOISE, "2", "2", "Flicker noise exponent factor" );
 modelInfos[MODEL_TYPE::HICUM2].modelParams.emplace_back( "cfbe", 204, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_INT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::NOISE, "0", "0", "Flag for determining where to tag the flicker noise source" );
 modelInfos[MODEL_TYPE::HICUM2].modelParams.emplace_back( "flcono", 205, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_INT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::NOISE, "0", "0", "Flag for turning on and off of correlated noise implementation" );
 modelInfos[MODEL_TYPE::HICUM2].modelParams.emplace_back( "kfre", 206, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "ohm", SIM_MODEL::PARAM::CATEGORY::NOISE, "0", "0", "Emitter resistance flicker noise coefficient" );
 modelInfos[MODEL_TYPE::HICUM2].modelParams.emplace_back( "afre", 207, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::NOISE, "2", "2", "Emitter resistance flicker noise exponent factor" );
 modelInfos[MODEL_TYPE::HICUM2].modelParams.emplace_back( "latb", 208, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "m", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "Scaling factor for collector minority charge in direction of emitter width" );
 modelInfos[MODEL_TYPE::HICUM2].modelParams.emplace_back( "latl", 209, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "m", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "Scaling factor for collector minority charge in direction of emitter length" );
 modelInfos[MODEL_TYPE::HICUM2].modelParams.emplace_back( "vgb", 210, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "V", SIM_MODEL::PARAM::CATEGORY::DC, "1.17", "1.17", "Bandgap voltage extrapolated to 0 K" );
 modelInfos[MODEL_TYPE::HICUM2].modelParams.emplace_back( "alt0", 211, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "First order relative TC of parameter T0" );
 modelInfos[MODEL_TYPE::HICUM2].modelParams.emplace_back( "kt0", 212, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "Second order relative TC of parameter T0" );
 modelInfos[MODEL_TYPE::HICUM2].modelParams.emplace_back( "zetaci", 213, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::TEMPERATURE, "0", "0", "Temperature exponent for RCI0" );
 modelInfos[MODEL_TYPE::HICUM2].modelParams.emplace_back( "alvs", 214, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "m/s", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "Relative TC of saturation drift velocity" );
 modelInfos[MODEL_TYPE::HICUM2].modelParams.emplace_back( "alces", 215, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "Relative TC of VCES" );
 modelInfos[MODEL_TYPE::HICUM2].modelParams.emplace_back( "zetarbi", 216, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::TEMPERATURE, "0", "0", "Temperature exponent of internal base resistance" );
 modelInfos[MODEL_TYPE::HICUM2].modelParams.emplace_back( "zetarbx", 217, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::TEMPERATURE, "0", "0", "Temperature exponent of external base resistance" );
 modelInfos[MODEL_TYPE::HICUM2].modelParams.emplace_back( "zetarcx", 218, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::TEMPERATURE, "0", "0", "Temperature exponent of external collector resistance" );
 modelInfos[MODEL_TYPE::HICUM2].modelParams.emplace_back( "zetare", 219, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::TEMPERATURE, "0", "0", "Temperature exponent of emitter resistance" );
 modelInfos[MODEL_TYPE::HICUM2].modelParams.emplace_back( "zetacx", 220, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::TEMPERATURE, "1", "1", "Temperature exponent of mobility in substrate transistor transit time" );
 modelInfos[MODEL_TYPE::HICUM2].modelParams.emplace_back( "vge", 221, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "V", SIM_MODEL::PARAM::CATEGORY::DC, "1.17", "1.17", "Effective emitter bandgap voltage" );
 modelInfos[MODEL_TYPE::HICUM2].modelParams.emplace_back( "vgc", 222, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "V", SIM_MODEL::PARAM::CATEGORY::DC, "1.17", "1.17", "Effective collector bandgap voltage" );
 modelInfos[MODEL_TYPE::HICUM2].modelParams.emplace_back( "vgs", 223, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "V", SIM_MODEL::PARAM::CATEGORY::DC, "1.17", "1.17", "Effective substrate bandgap voltage" );
 modelInfos[MODEL_TYPE::HICUM2].modelParams.emplace_back( "f1vg", 224, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::DC, "-0.000102377", "-0.000102377", "Coefficient K1 in T-dependent band-gap equation" );
 modelInfos[MODEL_TYPE::HICUM2].modelParams.emplace_back( "f2vg", 225, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::DC, "0.00043215", "0.00043215", "Coefficient K2 in T-dependent band-gap equation" );
 modelInfos[MODEL_TYPE::HICUM2].modelParams.emplace_back( "zetact", 226, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::TEMPERATURE, "3", "3", "Exponent coefficient in transfer current temperature dependence" );
 modelInfos[MODEL_TYPE::HICUM2].modelParams.emplace_back( "zetabet", 227, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::TEMPERATURE, "3.5", "3.5", "Exponent coefficient in B-E junction current temperature dependence" );
 modelInfos[MODEL_TYPE::HICUM2].modelParams.emplace_back( "alb", 228, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "A", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "Relative TC of forward current gain for V2.1 model" );
 modelInfos[MODEL_TYPE::HICUM2].modelParams.emplace_back( "dvgbe", 229, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "Bandgap difference between B and B-E junction used for hjEi0 and hf0" );
 modelInfos[MODEL_TYPE::HICUM2].modelParams.emplace_back( "zetahjei", 230, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "°C", SIM_MODEL::PARAM::CATEGORY::TEMPERATURE, "1", "1", "Temperature coefficient for ahjEi" );
 modelInfos[MODEL_TYPE::HICUM2].modelParams.emplace_back( "zetavgbe", 231, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "°C", SIM_MODEL::PARAM::CATEGORY::TEMPERATURE, "1", "1", "Temperature coefficient for hjEi0" );
 modelInfos[MODEL_TYPE::HICUM2].modelParams.emplace_back( "flsh", 232, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_INT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "Flag for turning on and off self-heating effect" );
 modelInfos[MODEL_TYPE::HICUM2].modelParams.emplace_back( "rth", 233, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "ohm", SIM_MODEL::PARAM::CATEGORY::TEMPERATURE, "0", "0", "Thermal resistance" );
 modelInfos[MODEL_TYPE::HICUM2].modelParams.emplace_back( "zetarth", 234, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "°C", SIM_MODEL::PARAM::CATEGORY::TEMPERATURE, "0", "0", "Temperature coefficient for Rth" );
 modelInfos[MODEL_TYPE::HICUM2].modelParams.emplace_back( "alrth", 235, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "First order relative TC of parameter Rth" );
 modelInfos[MODEL_TYPE::HICUM2].modelParams.emplace_back( "cth", 236, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "F", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "Thermal capacitance" );
 modelInfos[MODEL_TYPE::HICUM2].modelParams.emplace_back( "flcomp", 237, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "Flag for compatibility with v2.1 model (0=v2.1)" );
 modelInfos[MODEL_TYPE::HICUM2].modelParams.emplace_back( "vbe_max", 238, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "V", SIM_MODEL::PARAM::CATEGORY::LIMITING_VALUES, "1e+99", "1e+99", "maximum voltage B-E junction" );
 modelInfos[MODEL_TYPE::HICUM2].modelParams.emplace_back( "vbc_max", 239, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "V", SIM_MODEL::PARAM::CATEGORY::LIMITING_VALUES, "1e+99", "1e+99", "maximum voltage B-C junction" );
 modelInfos[MODEL_TYPE::HICUM2].modelParams.emplace_back( "vce_max", 240, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "V", SIM_MODEL::PARAM::CATEGORY::LIMITING_VALUES, "1e+99", "1e+99", "maximum voltage C-E branch" );
 // Instance parameters
 modelInfos[MODEL_TYPE::HICUM2].instanceParams.emplace_back( "area", 1, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, U(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Area factor", true );
 modelInfos[MODEL_TYPE::HICUM2].instanceParams.emplace_back( "off", 2, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_BOOL, U(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Device initially off", true );
 modelInfos[MODEL_TYPE::HICUM2].instanceParams.emplace_back( "ic", 3, SIM_MODEL::PARAM::DIR_IN, SIM_VALUE::TYPE_FLOAT_VECTOR, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Initial condition vector", true );
 modelInfos[MODEL_TYPE::HICUM2].instanceParams.emplace_back( "m", 6, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, U(), "", SIM_MODEL::PARAM::CATEGORY::GEOMETRY, "", "", "Multiplier", true );
 modelInfos[MODEL_TYPE::HICUM2].instanceParams.emplace_back( "temp", 4, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, U(), "°C", SIM_MODEL::PARAM::CATEGORY::PRINCIPAL, "", "", "Instance temperature", true );
 modelInfos[MODEL_TYPE::HICUM2].instanceParams.emplace_back( "dt", 5, SIM_MODEL::PARAM::DIR_IN, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "°C", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Instance delta temperature", true );
 modelInfos[MODEL_TYPE::HICUM2].instanceParams.emplace_back( "tk", 264, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, U(), "°C", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Actual device temperature", true );
 modelInfos[MODEL_TYPE::HICUM2].instanceParams.emplace_back( "dtsh", 265, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, U(), "°C", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Temperature increase due to self-heating", true );
 modelInfos[MODEL_TYPE::HICUM2].instanceParams.emplace_back( "it", 284, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, U(), "A", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "transfer current", true );
 modelInfos[MODEL_TYPE::HICUM2].instanceParams.emplace_back( "collnode", 251, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_INT, U(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Number of collector node", true );
 modelInfos[MODEL_TYPE::HICUM2].instanceParams.emplace_back( "basenode", 252, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_INT, U(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Number of base node", true );
 modelInfos[MODEL_TYPE::HICUM2].instanceParams.emplace_back( "emitnode", 253, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_INT, U(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Number of emitter node", true );
 modelInfos[MODEL_TYPE::HICUM2].instanceParams.emplace_back( "subsnode", 254, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_INT, U(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Number of substrate node", true );
 modelInfos[MODEL_TYPE::HICUM2].instanceParams.emplace_back( "tempnode", 255, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_INT, U(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Number of temperature node", true );
 modelInfos[MODEL_TYPE::HICUM2].instanceParams.emplace_back( "collcinode", 256, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_INT, U(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Internal collector node", true );
 modelInfos[MODEL_TYPE::HICUM2].instanceParams.emplace_back( "basebpnode", 257, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_INT, U(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "External base node", true );
 modelInfos[MODEL_TYPE::HICUM2].instanceParams.emplace_back( "basebinode", 258, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_INT, U(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Internal base node", true );
 modelInfos[MODEL_TYPE::HICUM2].instanceParams.emplace_back( "emiteinode", 259, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_INT, U(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Internal emitter node", true );
 modelInfos[MODEL_TYPE::HICUM2].instanceParams.emplace_back( "subssinode", 260, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_INT, U(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Internal substrate node", true );
 modelInfos[MODEL_TYPE::HICUM2].instanceParams.emplace_back( "xfnode", 261, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_INT, U(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Internal phase node xf", true );
 modelInfos[MODEL_TYPE::HICUM2].instanceParams.emplace_back( "xf1node", 262, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_INT, U(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Internal phase node xf1", true );
 modelInfos[MODEL_TYPE::HICUM2].instanceParams.emplace_back( "xf2node", 263, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_INT, U(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Internal phase node xf2", true );
 modelInfos[MODEL_TYPE::HICUM2].instanceParams.emplace_back( "vbe", 266, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "V", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "External BE voltage", true );
 modelInfos[MODEL_TYPE::HICUM2].instanceParams.emplace_back( "vbbp", 267, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "V", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "BBP voltage", true );
 modelInfos[MODEL_TYPE::HICUM2].instanceParams.emplace_back( "vbc", 268, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "V", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "External BC voltage", true );
 modelInfos[MODEL_TYPE::HICUM2].instanceParams.emplace_back( "vce", 269, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "V", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "External CE voltage", true );
 modelInfos[MODEL_TYPE::HICUM2].instanceParams.emplace_back( "vsc", 270, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "V", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "External SC voltage", true );
 modelInfos[MODEL_TYPE::HICUM2].instanceParams.emplace_back( "vbiei", 271, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "V", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Internal BE voltage", true );
 modelInfos[MODEL_TYPE::HICUM2].instanceParams.emplace_back( "vbpbi", 272, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "V", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Peripheral Base to internal Base voltage", true );
 modelInfos[MODEL_TYPE::HICUM2].instanceParams.emplace_back( "vbici", 273, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "V", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Internal BC voltage", true );
 modelInfos[MODEL_TYPE::HICUM2].instanceParams.emplace_back( "vciei", 274, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "V", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Internal CE voltage", true );
 modelInfos[MODEL_TYPE::HICUM2].instanceParams.emplace_back( "ic", 275, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "A", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Collector current", true );
 modelInfos[MODEL_TYPE::HICUM2].instanceParams.emplace_back( "iavl", 276, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "A", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Avalanche current", true );
 modelInfos[MODEL_TYPE::HICUM2].instanceParams.emplace_back( "ib", 277, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "A", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Base current", true );
 modelInfos[MODEL_TYPE::HICUM2].instanceParams.emplace_back( "ibei", 280, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "A", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Intenral Base Emitter current", true );
 modelInfos[MODEL_TYPE::HICUM2].instanceParams.emplace_back( "ibci", 281, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "A", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Internal Base Collector current", true );
 modelInfos[MODEL_TYPE::HICUM2].instanceParams.emplace_back( "ie", 278, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "A", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Emitter current", true );
 modelInfos[MODEL_TYPE::HICUM2].instanceParams.emplace_back( "is", 279, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "A", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Substrate current", true );
 modelInfos[MODEL_TYPE::HICUM2].instanceParams.emplace_back( "rcx_t", 282, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "ohm", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "External (saturated) collector series resistance", true );
 modelInfos[MODEL_TYPE::HICUM2].instanceParams.emplace_back( "re_t", 283, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "ohm", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Emitter series resistance", true );
 modelInfos[MODEL_TYPE::HICUM2].instanceParams.emplace_back( "rbi", 285, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "ohm", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Internal base resistance as calculated in the model", true );
 modelInfos[MODEL_TYPE::HICUM2].instanceParams.emplace_back( "rb", 286, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "ohm", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Total base resistance as calculated in the model", true );
 modelInfos[MODEL_TYPE::HICUM2].instanceParams.emplace_back( "betadc", 287, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "A", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Common emitter forward current gain", true );
 modelInfos[MODEL_TYPE::HICUM2].instanceParams.emplace_back( "gmi", 288, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Internal transconductance", true );
 modelInfos[MODEL_TYPE::HICUM2].instanceParams.emplace_back( "gms", 289, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Transconductance of the parasitic substrate PNP", true );
 modelInfos[MODEL_TYPE::HICUM2].instanceParams.emplace_back( "rpii", 290, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "ohm", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Internal base-emitter (input) resistance", true );
 modelInfos[MODEL_TYPE::HICUM2].instanceParams.emplace_back( "rpix", 291, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "ohm", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "External base-emitter (input) resistance", true );
 modelInfos[MODEL_TYPE::HICUM2].instanceParams.emplace_back( "rmui", 292, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "ohm", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Internal feedback resistance", true );
 modelInfos[MODEL_TYPE::HICUM2].instanceParams.emplace_back( "rmux", 293, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "ohm", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "External feedback resistance", true );
 modelInfos[MODEL_TYPE::HICUM2].instanceParams.emplace_back( "roi", 294, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "ohm", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Output resistance", true );
 modelInfos[MODEL_TYPE::HICUM2].instanceParams.emplace_back( "cpii", 295, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "F", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Total internal BE capacitance", true );
 modelInfos[MODEL_TYPE::HICUM2].instanceParams.emplace_back( "cpix", 296, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "F", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Total external BE capacitance", true );
 modelInfos[MODEL_TYPE::HICUM2].instanceParams.emplace_back( "cmui", 297, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "F", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Total internal BC capacitance", true );
 modelInfos[MODEL_TYPE::HICUM2].instanceParams.emplace_back( "cmux", 298, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "F", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Total external BC capacitance", true );
 modelInfos[MODEL_TYPE::HICUM2].instanceParams.emplace_back( "ccs", 299, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "F", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "CS junction capacitance", true );
 modelInfos[MODEL_TYPE::HICUM2].instanceParams.emplace_back( "betaac", 300, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "A", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Small signal current gain", true );
 modelInfos[MODEL_TYPE::HICUM2].instanceParams.emplace_back( "crbi", 301, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "F", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Shunt capacitance across RBI as calculated in the model", true );
 modelInfos[MODEL_TYPE::HICUM2].instanceParams.emplace_back( "tf", 302, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "s", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Forward transit time", true );
 modelInfos[MODEL_TYPE::HICUM2].instanceParams.emplace_back( "ft", 303, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "Hz", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Transit frequency", true );
 modelInfos[MODEL_TYPE::HICUM2].instanceParams.emplace_back( "ick", 304, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "Hz", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Transit frequency", true );
 modelInfos[MODEL_TYPE::HICUM2].instanceParams.emplace_back( "p", 305, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Power dissipation", true );
 
 
 modelInfos[MODEL_TYPE::JFET] = { "JFET", "NJF", "PJF", { "Drain", "Gate", "Source" }, "Junction Field effect transistor", {}, {} };
 // Model parameters
 modelInfos[MODEL_TYPE::JFET].modelParams.emplace_back( "type", 305, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_STRING, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "njf", "pjf", "N-type or P-type JFET model" );
 modelInfos[MODEL_TYPE::JFET].modelParams.emplace_back( "njf", 111, SIM_MODEL::PARAM::DIR_IN, SIM_VALUE::TYPE_BOOL, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "N type JFET model" );
 modelInfos[MODEL_TYPE::JFET].modelParams.emplace_back( "pjf", 112, SIM_MODEL::PARAM::DIR_IN, SIM_VALUE::TYPE_BOOL, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "P type JFET model" );
 modelInfos[MODEL_TYPE::JFET].modelParams.emplace_back( "vt0", 101, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "V", SIM_MODEL::PARAM::CATEGORY::DC, "-2", "-2", "Threshold voltage" );
 modelInfos[MODEL_TYPE::JFET].modelParams.emplace_back( "vto", 101, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, R(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "-2", "-2", "n.a." );
 modelInfos[MODEL_TYPE::JFET].modelParams.emplace_back( "beta", 102, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "A/V²", SIM_MODEL::PARAM::CATEGORY::DC, "0.0001", "0.0001", "Transconductance parameter" );
 modelInfos[MODEL_TYPE::JFET].modelParams.emplace_back( "lambda", 103, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "1/V", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "Channel length modulation param." );
 modelInfos[MODEL_TYPE::JFET].modelParams.emplace_back( "rd", 104, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "Ω", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "Drain ohmic resistance" );
 modelInfos[MODEL_TYPE::JFET].modelParams.emplace_back( "gd", 301, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, U(), "", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "Drain conductance" );
 modelInfos[MODEL_TYPE::JFET].modelParams.emplace_back( "rs", 105, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "Ω", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "Source ohmic resistance" );
 modelInfos[MODEL_TYPE::JFET].modelParams.emplace_back( "gs", 302, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, U(), "", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "Source conductance" );
 modelInfos[MODEL_TYPE::JFET].modelParams.emplace_back( "cgs", 106, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, A(), "", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "G-S junction capactance" );
 modelInfos[MODEL_TYPE::JFET].modelParams.emplace_back( "cgd", 107, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, A(), "", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "G-D junction cap" );
 modelInfos[MODEL_TYPE::JFET].modelParams.emplace_back( "pb", 108, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "V", SIM_MODEL::PARAM::CATEGORY::DC, "1", "1", "Gate junction potential" );
 modelInfos[MODEL_TYPE::JFET].modelParams.emplace_back( "is", 109, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "A", SIM_MODEL::PARAM::CATEGORY::DC, "1e-14", "1e-14", "Gate junction saturation current" );
 modelInfos[MODEL_TYPE::JFET].modelParams.emplace_back( "fc", 110, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::DC, "0.5", "0.5", "Forward bias junction fit parm." );
 modelInfos[MODEL_TYPE::JFET].modelParams.emplace_back( "b", 114, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::DC, "1", "1", "Doping tail parameter" );
 modelInfos[MODEL_TYPE::JFET].modelParams.emplace_back( "tnom", 113, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, U(), "°C", SIM_MODEL::PARAM::CATEGORY::TEMPERATURE, "27", "27", "parameter measurement temperature" );
 modelInfos[MODEL_TYPE::JFET].modelParams.emplace_back( "tcv", 115, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "V", SIM_MODEL::PARAM::CATEGORY::TEMPERATURE, "0", "0", "Threshold voltage temperature coefficient" );
 modelInfos[MODEL_TYPE::JFET].modelParams.emplace_back( "vtotc", 116, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "V", SIM_MODEL::PARAM::CATEGORY::TEMPERATURE, "0", "0", "Threshold voltage temperature coefficient alternative" );
 modelInfos[MODEL_TYPE::JFET].modelParams.emplace_back( "bex", 117, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::TEMPERATURE, "0", "0", "Mobility temperature exponent" );
 modelInfos[MODEL_TYPE::JFET].modelParams.emplace_back( "betatce", 118, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "%/°C", SIM_MODEL::PARAM::CATEGORY::TEMPERATURE, "0", "0", "Mobility temperature exponent alternative" );
 modelInfos[MODEL_TYPE::JFET].modelParams.emplace_back( "xti", 119, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::TEMPERATURE, "3", "3", "Gate junction saturation current temperature exponent" );
 modelInfos[MODEL_TYPE::JFET].modelParams.emplace_back( "eg", 120, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "V", SIM_MODEL::PARAM::CATEGORY::DC, "1.11", "1.11", "Bandgap voltage" );
 modelInfos[MODEL_TYPE::JFET].modelParams.emplace_back( "kf", 121, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::NOISE, "0", "0", "Flicker Noise Coefficient" );
 modelInfos[MODEL_TYPE::JFET].modelParams.emplace_back( "af", 122, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::NOISE, "1", "1", "Flicker Noise Exponent" );
 modelInfos[MODEL_TYPE::JFET].modelParams.emplace_back( "nlev", 123, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_INT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::NOISE, "2", "2", "Noise equation selector" );
 modelInfos[MODEL_TYPE::JFET].modelParams.emplace_back( "gdsnoi", 124, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::NOISE, "1", "1", "Channel noise coefficient" );
 // Instance parameters
 modelInfos[MODEL_TYPE::JFET].instanceParams.emplace_back( "off", 5, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_BOOL, U(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Device initially off", true );
 modelInfos[MODEL_TYPE::JFET].instanceParams.emplace_back( "ic", 4, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT_VECTOR, AU(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Initial VDS,VGS vector", true );
 modelInfos[MODEL_TYPE::JFET].instanceParams.emplace_back( "m", 8, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, U(), "", SIM_MODEL::PARAM::CATEGORY::GEOMETRY, "", "", "Parallel multiplier", true );
 modelInfos[MODEL_TYPE::JFET].instanceParams.emplace_back( "area", 1, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, U(), "", SIM_MODEL::PARAM::CATEGORY::GEOMETRY, "", "", "Area factor", true );
 modelInfos[MODEL_TYPE::JFET].instanceParams.emplace_back( "ic-vds", 2, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, AU(), "V", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Initial D-S voltage", true );
 modelInfos[MODEL_TYPE::JFET].instanceParams.emplace_back( "ic-vgs", 3, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, AU(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Initial G-S volrage", true );
 modelInfos[MODEL_TYPE::JFET].instanceParams.emplace_back( "temp", 6, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, U(), "°C", SIM_MODEL::PARAM::CATEGORY::PRINCIPAL, "", "", "Instance temperature", true );
 modelInfos[MODEL_TYPE::JFET].instanceParams.emplace_back( "dtemp", 7, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, U(), "°C", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Instance temperature difference", true );
 modelInfos[MODEL_TYPE::JFET].instanceParams.emplace_back( "drain-node", 301, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_INT, U(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Number of drain node", true );
 modelInfos[MODEL_TYPE::JFET].instanceParams.emplace_back( "gate-node", 302, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_INT, U(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Number of gate node", true );
 modelInfos[MODEL_TYPE::JFET].instanceParams.emplace_back( "source-node", 303, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_INT, U(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Number of source node", true );
 modelInfos[MODEL_TYPE::JFET].instanceParams.emplace_back( "drain-prime-node", 304, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_INT, U(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Internal drain node", true );
 modelInfos[MODEL_TYPE::JFET].instanceParams.emplace_back( "source-prime-node", 305, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_INT, U(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Internal source node", true );
 modelInfos[MODEL_TYPE::JFET].instanceParams.emplace_back( "vgs", 306, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "V", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Voltage G-S", true );
 modelInfos[MODEL_TYPE::JFET].instanceParams.emplace_back( "vgd", 307, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "V", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Voltage G-D", true );
 modelInfos[MODEL_TYPE::JFET].instanceParams.emplace_back( "ig", 308, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "A", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Current at gate node", true );
 modelInfos[MODEL_TYPE::JFET].instanceParams.emplace_back( "id", 309, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "A", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Current at drain node", true );
 modelInfos[MODEL_TYPE::JFET].instanceParams.emplace_back( "is", 319, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "A", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "1e-14", "1e-14", "Source current", true );
 modelInfos[MODEL_TYPE::JFET].instanceParams.emplace_back( "igd", 310, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "A", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Current G-D", true );
 modelInfos[MODEL_TYPE::JFET].instanceParams.emplace_back( "gm", 311, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Transconductance", true );
 modelInfos[MODEL_TYPE::JFET].instanceParams.emplace_back( "gds", 312, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Conductance D-S", true );
 modelInfos[MODEL_TYPE::JFET].instanceParams.emplace_back( "ggs", 313, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Conductance G-S", true );
 modelInfos[MODEL_TYPE::JFET].instanceParams.emplace_back( "ggd", 314, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Conductance G-D", true );
 modelInfos[MODEL_TYPE::JFET].instanceParams.emplace_back( "qgs", 315, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, U(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Charge storage G-S junction", true );
 modelInfos[MODEL_TYPE::JFET].instanceParams.emplace_back( "qgd", 317, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, U(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Charge storage G-D junction", true );
 modelInfos[MODEL_TYPE::JFET].instanceParams.emplace_back( "cqgs", 316, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, U(), "F", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Capacitance due to charge storage G-S junction", true );
 modelInfos[MODEL_TYPE::JFET].instanceParams.emplace_back( "cqgd", 318, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, U(), "F", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Capacitance due to charge storage G-D junction", true );
 modelInfos[MODEL_TYPE::JFET].instanceParams.emplace_back( "p", 320, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, U(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Power dissipated by the JFET", true );
 
 
 modelInfos[MODEL_TYPE::JFET2] = { "JFET2", "NJF", "PJF", { "Drain", "Gate", "Source" }, "Short channel field effect transistor", {}, {} };
 // Model parameters
 modelInfos[MODEL_TYPE::JFET2].modelParams.emplace_back( "type", 305, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_STRING, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "njf", "pjf", "N-type or P-type JFET2 model" );
 modelInfos[MODEL_TYPE::JFET2].modelParams.emplace_back( "njf", 102, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_BOOL, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "NaN", "NaN", "N type JFET2 model" );
 modelInfos[MODEL_TYPE::JFET2].modelParams.emplace_back( "pjf", 103, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_BOOL, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "NaN", "NaN", "P type JFET2 model" );
 modelInfos[MODEL_TYPE::JFET2].modelParams.emplace_back( "acgam", 107, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "" );
 modelInfos[MODEL_TYPE::JFET2].modelParams.emplace_back( "af", 108, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::NOISE, "1", "1", "Flicker Noise Exponent" );
 modelInfos[MODEL_TYPE::JFET2].modelParams.emplace_back( "beta", 109, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "A/V^2", SIM_MODEL::PARAM::CATEGORY::DC, "0.0001", "0.0001", "Transconductance parameter" );
 modelInfos[MODEL_TYPE::JFET2].modelParams.emplace_back( "cds", 146, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, A(), "F", SIM_MODEL::PARAM::CATEGORY::CAPACITANCE, "0", "0", "D-S junction capacitance" );
 modelInfos[MODEL_TYPE::JFET2].modelParams.emplace_back( "cgd", 110, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, A(), "F", SIM_MODEL::PARAM::CATEGORY::CAPACITANCE, "0", "0", "G-D junction capacitance" );
 modelInfos[MODEL_TYPE::JFET2].modelParams.emplace_back( "cgs", 111, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, A(), "F", SIM_MODEL::PARAM::CATEGORY::CAPACITANCE, "0", "0", "G-S junction capacitance" );
 modelInfos[MODEL_TYPE::JFET2].modelParams.emplace_back( "delta", 113, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "1/W", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "coef of thermal current reduction" );
 modelInfos[MODEL_TYPE::JFET2].modelParams.emplace_back( "hfeta", 114, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "drain feedback modulation" );
 modelInfos[MODEL_TYPE::JFET2].modelParams.emplace_back( "hfe1", 115, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "" );
 modelInfos[MODEL_TYPE::JFET2].modelParams.emplace_back( "hfe2", 116, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "" );
 modelInfos[MODEL_TYPE::JFET2].modelParams.emplace_back( "hfg1", 117, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "" );
 modelInfos[MODEL_TYPE::JFET2].modelParams.emplace_back( "hfg2", 118, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "" );
 modelInfos[MODEL_TYPE::JFET2].modelParams.emplace_back( "mvst", 119, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "A", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "modulation index for subtreshold current" );
 modelInfos[MODEL_TYPE::JFET2].modelParams.emplace_back( "mxi", 120, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "V", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "saturation potential modulation parameter" );
 modelInfos[MODEL_TYPE::JFET2].modelParams.emplace_back( "fc", 121, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::DC, "0.5", "0.5", "Forward bias junction fit parm." );
 modelInfos[MODEL_TYPE::JFET2].modelParams.emplace_back( "ibd", 122, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "A", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "Breakdown current of diode jnc" );
 modelInfos[MODEL_TYPE::JFET2].modelParams.emplace_back( "is", 123, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "A", SIM_MODEL::PARAM::CATEGORY::DC, "1e-14", "1e-14", "Gate junction saturation current" );
 modelInfos[MODEL_TYPE::JFET2].modelParams.emplace_back( "kf", 124, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::NOISE, "0", "0", "Flicker Noise Coefficient" );
 modelInfos[MODEL_TYPE::JFET2].modelParams.emplace_back( "lambda", 125, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "1/V", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "Channel length modulation param." );
 modelInfos[MODEL_TYPE::JFET2].modelParams.emplace_back( "lfgam", 126, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "drain feedback parameter" );
 modelInfos[MODEL_TYPE::JFET2].modelParams.emplace_back( "lfg1", 127, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "" );
 modelInfos[MODEL_TYPE::JFET2].modelParams.emplace_back( "lfg2", 128, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "" );
 modelInfos[MODEL_TYPE::JFET2].modelParams.emplace_back( "n", 129, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::DC, "1", "1", "gate junction ideality factor" );
 modelInfos[MODEL_TYPE::JFET2].modelParams.emplace_back( "p", 130, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::DC, "2", "2", "Power law (triode region)" );
 modelInfos[MODEL_TYPE::JFET2].modelParams.emplace_back( "vbi", 131, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "V", SIM_MODEL::PARAM::CATEGORY::DC, "1", "1", "Gate junction potential" );
 modelInfos[MODEL_TYPE::JFET2].modelParams.emplace_back( "pb", 131, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, R(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "1", "1", "n.a." );
 modelInfos[MODEL_TYPE::JFET2].modelParams.emplace_back( "q", 132, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::DC, "2", "2", "Power Law (Saturated region)" );
 modelInfos[MODEL_TYPE::JFET2].modelParams.emplace_back( "rd", 133, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "ohm", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "Drain ohmic resistance" );
 modelInfos[MODEL_TYPE::JFET2].modelParams.emplace_back( "rs", 134, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "ohm", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "Source ohmic resistance" );
 modelInfos[MODEL_TYPE::JFET2].modelParams.emplace_back( "taud", 135, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "s", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "Thermal relaxation time" );
 modelInfos[MODEL_TYPE::JFET2].modelParams.emplace_back( "taug", 136, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "s", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "Drain feedback relaxation time" );
 modelInfos[MODEL_TYPE::JFET2].modelParams.emplace_back( "vbd", 137, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "V", SIM_MODEL::PARAM::CATEGORY::DC, "1", "1", "Breakdown potential of diode jnc" );
 modelInfos[MODEL_TYPE::JFET2].modelParams.emplace_back( "ver", 139, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "version number of PS model" );
 modelInfos[MODEL_TYPE::JFET2].modelParams.emplace_back( "vst", 140, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "Crit Poten subthreshold conductn" );
 modelInfos[MODEL_TYPE::JFET2].modelParams.emplace_back( "vt0", 141, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "V", SIM_MODEL::PARAM::CATEGORY::DC, "-2", "-2", "Threshold voltage" );
 modelInfos[MODEL_TYPE::JFET2].modelParams.emplace_back( "vto", 141, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, R(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "-2", "-2", "n.a." );
 modelInfos[MODEL_TYPE::JFET2].modelParams.emplace_back( "xc", 142, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "F", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "amount of cap. red at pinch-off" );
 modelInfos[MODEL_TYPE::JFET2].modelParams.emplace_back( "xi", 143, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "m/s", SIM_MODEL::PARAM::CATEGORY::DC, "1000", "1000", "velocity saturation index" );
 modelInfos[MODEL_TYPE::JFET2].modelParams.emplace_back( "z", 144, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "m/s", SIM_MODEL::PARAM::CATEGORY::DC, "1", "1", "rate of velocity saturation" );
 modelInfos[MODEL_TYPE::JFET2].modelParams.emplace_back( "hfgam", 145, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "high freq drain feedback parm" );
 modelInfos[MODEL_TYPE::JFET2].modelParams.emplace_back( "gd", 301, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, U(), "", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "Drain conductance" );
 modelInfos[MODEL_TYPE::JFET2].modelParams.emplace_back( "gs", 302, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, U(), "", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "Source conductance" );
 modelInfos[MODEL_TYPE::JFET2].modelParams.emplace_back( "tnom", 104, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, U(), "°C", SIM_MODEL::PARAM::CATEGORY::TEMPERATURE, "27", "27", "parameter measurement temperature" );
 // Instance parameters
 modelInfos[MODEL_TYPE::JFET2].instanceParams.emplace_back( "off", 5, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_BOOL, U(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Device initially off", true );
 modelInfos[MODEL_TYPE::JFET2].instanceParams.emplace_back( "ic", 4, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT_VECTOR, AU(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Initial VDS,VGS vector", true );
 modelInfos[MODEL_TYPE::JFET2].instanceParams.emplace_back( "m", 8, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, U(), "", SIM_MODEL::PARAM::CATEGORY::GEOMETRY, "", "", "Parallel Multiplier", true );
 modelInfos[MODEL_TYPE::JFET2].instanceParams.emplace_back( "area", 1, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, U(), "", SIM_MODEL::PARAM::CATEGORY::GEOMETRY, "", "", "Area factor", true );
 modelInfos[MODEL_TYPE::JFET2].instanceParams.emplace_back( "ic-vds", 2, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, AU(), "V", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Initial D-S voltage", true );
 modelInfos[MODEL_TYPE::JFET2].instanceParams.emplace_back( "ic-vgs", 3, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, AU(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Initial G-S volrage", true );
 modelInfos[MODEL_TYPE::JFET2].instanceParams.emplace_back( "temp", 6, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, U(), "°C", SIM_MODEL::PARAM::CATEGORY::PRINCIPAL, "", "", "Instance temperature", true );
 modelInfos[MODEL_TYPE::JFET2].instanceParams.emplace_back( "dtemp", 7, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, U(), "°C", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Instance temperature difference", true );
 modelInfos[MODEL_TYPE::JFET2].instanceParams.emplace_back( "drain-node", 301, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_INT, U(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Number of drain node", true );
 modelInfos[MODEL_TYPE::JFET2].instanceParams.emplace_back( "gate-node", 302, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_INT, U(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Number of gate node", true );
 modelInfos[MODEL_TYPE::JFET2].instanceParams.emplace_back( "source-node", 303, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_INT, U(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Number of source node", true );
 modelInfos[MODEL_TYPE::JFET2].instanceParams.emplace_back( "drain-prime-node", 304, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_INT, U(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Internal drain node", true );
 modelInfos[MODEL_TYPE::JFET2].instanceParams.emplace_back( "source-prime-node", 305, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_INT, U(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Internal source node", true );
 modelInfos[MODEL_TYPE::JFET2].instanceParams.emplace_back( "vgs", 306, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "V", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Voltage G-S", true );
 modelInfos[MODEL_TYPE::JFET2].instanceParams.emplace_back( "vgd", 307, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "V", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Voltage G-D", true );
 modelInfos[MODEL_TYPE::JFET2].instanceParams.emplace_back( "ig", 308, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "A", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Current at gate node", true );
 modelInfos[MODEL_TYPE::JFET2].instanceParams.emplace_back( "id", 309, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "A", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Current at drain node", true );
 modelInfos[MODEL_TYPE::JFET2].instanceParams.emplace_back( "is", 319, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "A", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "1e-14", "1e-14", "Source current", true );
 modelInfos[MODEL_TYPE::JFET2].instanceParams.emplace_back( "igd", 310, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "A", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Current G-D", true );
 modelInfos[MODEL_TYPE::JFET2].instanceParams.emplace_back( "gm", 311, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Transconductance", true );
 modelInfos[MODEL_TYPE::JFET2].instanceParams.emplace_back( "gds", 312, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Conductance D-S", true );
 modelInfos[MODEL_TYPE::JFET2].instanceParams.emplace_back( "ggs", 313, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Conductance G-S", true );
 modelInfos[MODEL_TYPE::JFET2].instanceParams.emplace_back( "ggd", 314, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Conductance G-D", true );
 modelInfos[MODEL_TYPE::JFET2].instanceParams.emplace_back( "qgs", 315, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, U(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Charge storage G-S junction", true );
 modelInfos[MODEL_TYPE::JFET2].instanceParams.emplace_back( "qgd", 317, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, U(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Charge storage G-D junction", true );
 modelInfos[MODEL_TYPE::JFET2].instanceParams.emplace_back( "cqgs", 316, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, U(), "F", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Capacitance due to charge storage G-S junction", true );
 modelInfos[MODEL_TYPE::JFET2].instanceParams.emplace_back( "cqgd", 318, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, U(), "F", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Capacitance due to charge storage G-D junction", true );
 modelInfos[MODEL_TYPE::JFET2].instanceParams.emplace_back( "p", 320, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, U(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "2", "2", "Power dissipated by the JFET2", true );
 modelInfos[MODEL_TYPE::JFET2].instanceParams.emplace_back( "vtrap", 321, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, U(), "V", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Quiescent drain feedback potential", true );
 modelInfos[MODEL_TYPE::JFET2].instanceParams.emplace_back( "vpave", 322, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, U(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Quiescent power dissipation", true );
 
 
 modelInfos[MODEL_TYPE::MES] = { "MES", "NMF", "PMF", { "Drain", "Gate", "Source" }, "GaAs MESFET model", {}, {} };
 // Model parameters
 modelInfos[MODEL_TYPE::MES].modelParams.emplace_back( "type", 305, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_BOOL, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "-693161728", "116101380", "N-type or P-type MESfet model" );
 modelInfos[MODEL_TYPE::MES].modelParams.emplace_back( "nmf", 113, SIM_MODEL::PARAM::DIR_IN, SIM_VALUE::TYPE_BOOL, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "N type MESfet model" );
 modelInfos[MODEL_TYPE::MES].modelParams.emplace_back( "pmf", 114, SIM_MODEL::PARAM::DIR_IN, SIM_VALUE::TYPE_BOOL, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "P type MESfet model" );
 modelInfos[MODEL_TYPE::MES].modelParams.emplace_back( "vt0", 101, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "V", SIM_MODEL::PARAM::CATEGORY::DC, "-2", "-2", "Pinch-off voltage" );
 modelInfos[MODEL_TYPE::MES].modelParams.emplace_back( "vto", 101, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, R(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "-2", "-2", "n.a." );
 modelInfos[MODEL_TYPE::MES].modelParams.emplace_back( "alpha", 102, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "V", SIM_MODEL::PARAM::CATEGORY::DC, "2", "2", "Saturation voltage parameter" );
 modelInfos[MODEL_TYPE::MES].modelParams.emplace_back( "beta", 103, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "A/V²", SIM_MODEL::PARAM::CATEGORY::DC, "0.0025", "0.0025", "Transconductance parameter" );
 modelInfos[MODEL_TYPE::MES].modelParams.emplace_back( "lambda", 104, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "1/V", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "Channel length modulation parm." );
 modelInfos[MODEL_TYPE::MES].modelParams.emplace_back( "b", 105, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::DC, "0.3", "0.3", "Doping tail extending parameter" );
 modelInfos[MODEL_TYPE::MES].modelParams.emplace_back( "rd", 106, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "Ω", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "Drain ohmic resistance" );
 modelInfos[MODEL_TYPE::MES].modelParams.emplace_back( "gd", 301, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, U(), "", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "Drain conductance" );
 modelInfos[MODEL_TYPE::MES].modelParams.emplace_back( "rs", 107, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "Ω", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "Source ohmic resistance" );
 modelInfos[MODEL_TYPE::MES].modelParams.emplace_back( "gs", 302, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, U(), "", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "Source conductance" );
 modelInfos[MODEL_TYPE::MES].modelParams.emplace_back( "cgs", 108, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, A(), "F", SIM_MODEL::PARAM::CATEGORY::CAPACITANCE, "0", "0", "G-S junction capacitance" );
 modelInfos[MODEL_TYPE::MES].modelParams.emplace_back( "cgd", 109, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, A(), "F", SIM_MODEL::PARAM::CATEGORY::CAPACITANCE, "0", "0", "G-D junction capacitance" );
 modelInfos[MODEL_TYPE::MES].modelParams.emplace_back( "pb", 110, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "V", SIM_MODEL::PARAM::CATEGORY::DC, "1", "1", "Gate junction potential" );
 modelInfos[MODEL_TYPE::MES].modelParams.emplace_back( "is", 111, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "A", SIM_MODEL::PARAM::CATEGORY::DC, "1e-14", "1e-14", "Junction saturation current" );
 modelInfos[MODEL_TYPE::MES].modelParams.emplace_back( "fc", 112, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::DC, "0.5", "0.5", "Forward bias junction fit parm." );
 modelInfos[MODEL_TYPE::MES].modelParams.emplace_back( "depl_cap", 303, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "F", SIM_MODEL::PARAM::CATEGORY::CAPACITANCE, "0.5", "0.5", "Depletion capacitance" );
 modelInfos[MODEL_TYPE::MES].modelParams.emplace_back( "vcrit", 304, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "V", SIM_MODEL::PARAM::CATEGORY::DC, "0.730289", "0.730289", "Critical voltage" );
 modelInfos[MODEL_TYPE::MES].modelParams.emplace_back( "kf", 115, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::NOISE, "NaN", "NaN", "Flicker noise coefficient" );
 modelInfos[MODEL_TYPE::MES].modelParams.emplace_back( "af", 116, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::NOISE, "NaN", "NaN", "Flicker noise exponent" );
 // Instance parameters
 modelInfos[MODEL_TYPE::MES].instanceParams.emplace_back( "off", 5, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_BOOL, U(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Device initially off", true );
 modelInfos[MODEL_TYPE::MES].instanceParams.emplace_back( "m", 1, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, UR(), "", SIM_MODEL::PARAM::CATEGORY::GEOMETRY, "", "", "Parallel Multiplier", true );
 modelInfos[MODEL_TYPE::MES].instanceParams.emplace_back( "area", 1, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, U(), "", SIM_MODEL::PARAM::CATEGORY::GEOMETRY, "", "", "Area factor", true );
 modelInfos[MODEL_TYPE::MES].instanceParams.emplace_back( "icvds", 2, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, AU(), "V", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Initial D-S voltage", true );
 modelInfos[MODEL_TYPE::MES].instanceParams.emplace_back( "icvgs", 3, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, AU(), "V", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Initial G-S voltage", true );
 modelInfos[MODEL_TYPE::MES].instanceParams.emplace_back( "dnode", 201, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_INT, U(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Number of drain node", true );
 modelInfos[MODEL_TYPE::MES].instanceParams.emplace_back( "gnode", 202, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_INT, U(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Number of gate node", true );
 modelInfos[MODEL_TYPE::MES].instanceParams.emplace_back( "snode", 203, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_INT, U(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Number of source node", true );
 modelInfos[MODEL_TYPE::MES].instanceParams.emplace_back( "dprimenode", 204, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_INT, U(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Number of internal drain node", true );
 modelInfos[MODEL_TYPE::MES].instanceParams.emplace_back( "sprimenode", 205, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_INT, U(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Number of internal source node", true );
 modelInfos[MODEL_TYPE::MES].instanceParams.emplace_back( "vgs", 206, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "V", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Gate-Source voltage", true );
 modelInfos[MODEL_TYPE::MES].instanceParams.emplace_back( "vgd", 207, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "V", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Gate-Drain voltage", true );
 modelInfos[MODEL_TYPE::MES].instanceParams.emplace_back( "cg", 208, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "F", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Gate capacitance", true );
 modelInfos[MODEL_TYPE::MES].instanceParams.emplace_back( "cd", 209, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "F", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Drain capacitance", true );
 modelInfos[MODEL_TYPE::MES].instanceParams.emplace_back( "cgd", 210, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "F", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "0", "0", "Gate-Drain capacitance", true );
 modelInfos[MODEL_TYPE::MES].instanceParams.emplace_back( "gm", 211, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Transconductance", true );
 modelInfos[MODEL_TYPE::MES].instanceParams.emplace_back( "gds", 212, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Drain-Source conductance", true );
 modelInfos[MODEL_TYPE::MES].instanceParams.emplace_back( "ggs", 213, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Gate-Source conductance", true );
 modelInfos[MODEL_TYPE::MES].instanceParams.emplace_back( "ggd", 214, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Gate-Drain conductance", true );
 modelInfos[MODEL_TYPE::MES].instanceParams.emplace_back( "cqgs", 216, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "F", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Capacitance due to gate-source charge storage", true );
 modelInfos[MODEL_TYPE::MES].instanceParams.emplace_back( "cqgd", 218, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "F", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Capacitance due to gate-drain charge storage", true );
 modelInfos[MODEL_TYPE::MES].instanceParams.emplace_back( "qgs", 215, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, U(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Gate-Source charge storage", true );
 modelInfos[MODEL_TYPE::MES].instanceParams.emplace_back( "qgd", 217, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, U(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Gate-Drain charge storage", true );
 modelInfos[MODEL_TYPE::MES].instanceParams.emplace_back( "is", 6, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "A", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "1e-14", "1e-14", "Source current", true );
 modelInfos[MODEL_TYPE::MES].instanceParams.emplace_back( "p", 7, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "", "", "Power dissipated by the mesfet", true );
 
 
 modelInfos[MODEL_TYPE::MESA] = { "MESA", "NMF", "PMF", { "Drain", "Gate", "Source" }, "GaAs MESFET model", {}, {} };
 // Model parameters
 modelInfos[MODEL_TYPE::MESA].modelParams.emplace_back( "type", 165, SIM_MODEL::PARAM::DIR_OUT, SIM_VALUE::TYPE_STRING, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "nmf", "nmf", "N-type or P-type MESfet model" );
 modelInfos[MODEL_TYPE::MESA].modelParams.emplace_back( "vto", 101, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "V", SIM_MODEL::PARAM::CATEGORY::DC, "-1.26", "-1.26", "Pinch-off voltage" );
 modelInfos[MODEL_TYPE::MESA].modelParams.emplace_back( "vt0", 101, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, R(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "-1.26", "-1.26", "n.a." );
 modelInfos[MODEL_TYPE::MESA].modelParams.emplace_back( "lambda", 103, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::DC, "0.045", "0.045", "Output conductance parameter" );
 modelInfos[MODEL_TYPE::MESA].modelParams.emplace_back( "lambdahf", 143, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::DC, "0.045", "0.045", "Output conductance parameter at high frequencies" );
 modelInfos[MODEL_TYPE::MESA].modelParams.emplace_back( "beta", 153, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "A/V^2", SIM_MODEL::PARAM::CATEGORY::DC, "0.0085", "0.0085", "Transconductance parameter" );
 modelInfos[MODEL_TYPE::MESA].modelParams.emplace_back( "vs", 102, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "m/s", SIM_MODEL::PARAM::CATEGORY::DC, "150000", "150000", "Saturation velocity" );
 modelInfos[MODEL_TYPE::MESA].modelParams.emplace_back( "rd", 104, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "ohm", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "Drain ohmic resistance" );
 modelInfos[MODEL_TYPE::MESA].modelParams.emplace_back( "rs", 105, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "ohm", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "Source ohmic resistance" );
 modelInfos[MODEL_TYPE::MESA].modelParams.emplace_back( "rg", 106, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "ohm", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "Gate ohmic resistance" );
 modelInfos[MODEL_TYPE::MESA].modelParams.emplace_back( "ri", 107, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "ohm", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "Gate-source ohmic resistance" );
 modelInfos[MODEL_TYPE::MESA].modelParams.emplace_back( "rf", 108, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "ohm", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "Gate-drain ohmic resistance" );
 modelInfos[MODEL_TYPE::MESA].modelParams.emplace_back( "rdi", 109, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "ohm", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "Intrinsic source ohmic resistance" );
 modelInfos[MODEL_TYPE::MESA].modelParams.emplace_back( "rsi", 110, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "ohm", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "Intrinsic drain ohmic resistance" );
 modelInfos[MODEL_TYPE::MESA].modelParams.emplace_back( "phib", 111, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "°C", SIM_MODEL::PARAM::CATEGORY::TEMPERATURE, "8.01088e-20", "8.01088e-20", "Effective Schottky barrier height at room temperature" );
 modelInfos[MODEL_TYPE::MESA].modelParams.emplace_back( "phib1", 112, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::DC, "0", "0", "" );
 modelInfos[MODEL_TYPE::MESA].modelParams.emplace_back( "tphib", 112, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, R(), "", SIM_MODEL::PARAM::CATEGORY::SUPERFLUOUS, "0", "0", "n.a." );
 modelInfos[MODEL_TYPE::MESA].modelParams.emplace_back( "astar", 113, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::DC, "40000", "40000", "Effective Richardson constant" );
 modelInfos[MODEL_TYPE::MESA].modelParams.emplace_back( "ggr", 114, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "", SIM_MODEL::PARAM::CATEGORY::DC, "40", "40", "Reverse diode conductance" );
 modelInfos[MODEL_TYPE::MESA].modelParams.emplace_back( "del", 115, SIM_MODEL::PARAM::DIR_INOUT, SIM_VALUE::TYPE_FLOAT, SIM_MODEL::PARAM::FLAGS(), "",