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mirror of https://github.com/MaSzyna-EU07/maszyna.git synced 2026-07-20 07:59:18 +02:00

varying scale cab control animation types, basic shunt mode power slider cab control, minor ai logic tweaks, minor bug fixes

This commit is contained in:
tmj-fstate
2018-04-18 15:04:04 +02:00
parent db9d34aa6b
commit bb87a63eed
7 changed files with 224 additions and 159 deletions

275
Gauge.cpp
View File

@@ -21,46 +21,54 @@ http://mozilla.org/MPL/2.0/.
#include "logs.h"
#include "renderer.h"
void TGauge::Init(TSubModel *NewSubModel, TGaugeType eNewType, double fNewScale, double fNewOffset, double fNewFriction, double fNewValue)
void TGauge::Init(TSubModel *Submodel, TGaugeType Type, float Scale, float Offset, float Friction, float Value, float const Endvalue, float const Endscale, bool const Interpolatescale )
{ // ustawienie parametrów animacji submodelu
if (NewSubModel) {
// warunek na wszelki wypadek, gdyby się submodel nie podłączył
fFriction = fNewFriction;
fValue = fNewValue;
fOffset = fNewOffset;
fScale = fNewScale;
SubModel = NewSubModel;
eType = eNewType;
if (eType == gt_Digital) {
SubModel = Submodel;
m_value = Value;
m_type = Type;
m_scale = Scale;
m_offset = Offset;
m_friction = Friction;
m_interpolatescale = Interpolatescale;
m_endvalue = Endvalue;
m_endscale = Endscale;
TSubModel *sm = SubModel->ChildGet();
do {
// pętla po submodelach potomnych i obracanie ich o kąt zależy od cyfry w (fValue)
if (sm->pName.size())
{ // musi mieć niepustą nazwę
if (sm->pName[0] >= '0')
if (sm->pName[0] <= '9')
sm->WillBeAnimated(); // wyłączenie optymalizacji
}
sm = sm->NextGet();
} while (sm);
}
else // a banan może być z optymalizacją?
NewSubModel->WillBeAnimated(); // wyłączenie ignowania jedynkowego transformu
// pass submodel location to defined sounds
auto const offset { model_offset() };
m_soundfxincrease.offset( offset );
m_soundfxdecrease.offset( offset );
for( auto &soundfxrecord : m_soundfxvalues ) {
soundfxrecord.second.offset( offset );
}
if( Submodel == nullptr ) {
// warunek na wszelki wypadek, gdyby się submodel nie podłączył
return;
}
if( m_type == gt_Digital ) {
TSubModel *sm = SubModel->ChildGet();
do {
// pętla po submodelach potomnych i obracanie ich o kąt zależy od cyfry w (fValue)
if( sm->pName.size() ) { // musi mieć niepustą nazwę
if( sm->pName[ 0 ] >= '0' )
if( sm->pName[ 0 ] <= '9' )
sm->WillBeAnimated(); // wyłączenie optymalizacji
}
sm = sm->NextGet();
} while( sm );
}
else // a banan może być z optymalizacją?
Submodel->WillBeAnimated(); // wyłączenie ignowania jedynkowego transformu
// pass submodel location to defined sounds
auto const offset{ model_offset() };
m_soundfxincrease.offset( offset );
m_soundfxdecrease.offset( offset );
for( auto &soundfxrecord : m_soundfxvalues ) {
soundfxrecord.second.offset( offset );
}
};
bool TGauge::Load( cParser &Parser, TDynamicObject const *Owner, TModel3d *md1, TModel3d *md2, double mul ) {
std::string submodelname, gaugetypename;
double scale, offset, friction;
float scale, endscale, endvalue, offset, friction;
endscale = -1;
endvalue = -1;
bool interpolatescale { false };
Parser.getTokens();
if( Parser.peek() != "{" ) {
@@ -72,6 +80,14 @@ bool TGauge::Load( cParser &Parser, TDynamicObject const *Owner, TModel3d *md1,
>> scale
>> offset
>> friction;
if( ( gaugetypename == "rotvar" )
|| ( gaugetypename == "movvar" ) ) {
interpolatescale = true;
Parser.getTokens( 2, false );
Parser
>> endvalue
>> endscale;
}
}
else {
// new, block type config
@@ -83,6 +99,14 @@ bool TGauge::Load( cParser &Parser, TDynamicObject const *Owner, TModel3d *md1,
>> scale
>> offset
>> friction;
if( ( gaugetypename == "rotvar" )
|| ( gaugetypename == "movvar" ) ) {
interpolatescale = true;
Parser.getTokens( 2, false );
Parser
>> endvalue
>> endscale;
}
// new, variable length section
while( true == Load_mapping( Parser ) ) {
; // all work done by while()
@@ -97,11 +121,10 @@ bool TGauge::Load( cParser &Parser, TDynamicObject const *Owner, TModel3d *md1,
}
scale *= mul;
TSubModel *submodel = md1->GetFromName( submodelname );
if( scale == 0.0 ) {
ErrorLog( "Bad model: scale of 0.0 defined for sub-model \"" + submodelname + "\" in 3d model \"" + md1->NameGet() + "\". Forcing scale of 1.0 to prevent division by 0", logtype::model );
scale = 1.0;
if( interpolatescale ) {
endscale *= mul;
}
TSubModel *submodel = md1->GetFromName( submodelname );
if (submodel) // jeśli nie znaleziony
md2 = nullptr; // informacja, że znaleziony
else if (md2) // a jest podany drugi model (np. zewnętrzny)
@@ -111,7 +134,10 @@ bool TGauge::Load( cParser &Parser, TDynamicObject const *Owner, TModel3d *md1,
}
std::map<std::string, TGaugeType> gaugetypes {
{ "rot", gt_Rotate },
{ "rotvar", gt_Rotate },
{ "mov", gt_Move },
{ "movvar", gt_Move },
{ "wip", gt_Wiper },
{ "dgt", gt_Digital }
};
@@ -119,8 +145,9 @@ bool TGauge::Load( cParser &Parser, TDynamicObject const *Owner, TModel3d *md1,
auto const type = (
lookup != gaugetypes.end() ?
lookup->second :
gt_Rotate );
Init(submodel, type, scale, offset, friction);
gt_Unknown );
Init( submodel, type, scale, offset, friction, 0, endvalue, endscale, interpolatescale );
return md2 != nullptr; // true, gdy podany model zewnętrzny, a w kabinie nie było
};
@@ -151,51 +178,27 @@ TGauge::Load_mapping( cParser &Input ) {
return true; // return value marks a key: value pair was extracted, nothing about whether it's recognized
}
void TGauge::PermIncValue(double fNewDesired)
{
fDesiredValue = fDesiredValue + fNewDesired * fScale + fOffset;
if (fDesiredValue - fOffset > 360 / fScale)
{
fDesiredValue = fDesiredValue - (360 / fScale);
fValue = fValue - (360 / fScale);
}
};
void TGauge::IncValue(double fNewDesired)
{ // używane tylko dla uniwersali
fDesiredValue = fDesiredValue + fNewDesired * fScale + fOffset;
if (fDesiredValue > fScale + fOffset)
fDesiredValue = fScale + fOffset;
};
void TGauge::DecValue(double fNewDesired)
{ // używane tylko dla uniwersali
fDesiredValue = fDesiredValue - fNewDesired * fScale + fOffset;
if (fDesiredValue < 0)
fDesiredValue = 0;
};
void
TGauge::UpdateValue( double fNewDesired ) {
TGauge::UpdateValue( float fNewDesired ) {
return UpdateValue( fNewDesired, nullptr );
}
void
TGauge::UpdateValue( double fNewDesired, sound_source &Fallbacksound ) {
TGauge::UpdateValue( float fNewDesired, sound_source &Fallbacksound ) {
return UpdateValue( fNewDesired, &Fallbacksound );
}
// ustawienie wartości docelowej. plays provided fallback sound, if no sound was defined in the control itself
void
TGauge::UpdateValue( double fNewDesired, sound_source *Fallbacksound ) {
TGauge::UpdateValue( float fNewDesired, sound_source *Fallbacksound ) {
auto const desiredtimes100 = static_cast<int>( std::round( 100.0 * fNewDesired ) );
if( static_cast<int>( std::round( 100.0 * ( fDesiredValue - fOffset ) / fScale ) ) == desiredtimes100 ) {
if( desiredtimes100 == static_cast<int>( 100.0 * m_targetvalue ) ) {
return;
}
fDesiredValue = fNewDesired * fScale + fOffset;
m_targetvalue = fNewDesired;
// if there's any sound associated with new requested value, play it
// check value-specific table first...
if( desiredtimes100 % 100 == 0 ) {
@@ -224,115 +227,137 @@ TGauge::UpdateValue( double fNewDesired, sound_source *Fallbacksound ) {
}
};
void TGauge::PutValue(double fNewDesired)
void TGauge::PutValue(float fNewDesired)
{ // McZapkie-281102: natychmiastowe wpisanie wartosci
fDesiredValue = fNewDesired * fScale + fOffset;
fValue = fDesiredValue;
m_targetvalue = fNewDesired;
m_value = m_targetvalue;
};
double TGauge::GetValue() const {
float TGauge::GetValue() const {
// we feed value in range 0-1 so we should be getting it reported in the same range
return ( fValue - fOffset ) / fScale;
return m_value;
}
double TGauge::GetDesiredValue() const {
float TGauge::GetDesiredValue() const {
// we feed value in range 0-1 so we should be getting it reported in the same range
return ( fDesiredValue - fOffset ) / fScale;
return m_targetvalue;
}
void TGauge::Update() {
if( fValue != fDesiredValue ) {
if( m_value != m_targetvalue ) {
float dt = Timer::GetDeltaTime();
if( ( fFriction > 0 ) && ( dt < 0.5 * fFriction ) ) {
if( ( m_friction > 0 ) && ( dt < 0.5 * m_friction ) ) {
// McZapkie-281102: zabezpieczenie przed oscylacjami dla dlugich czasow
fValue += dt * ( fDesiredValue - fValue ) / fFriction;
if( std::abs( fDesiredValue - fValue ) <= 0.0001 ) {
m_value += dt * ( m_targetvalue - m_value ) / m_friction;
if( std::abs( m_targetvalue - m_value ) <= 0.0001 ) {
// close enough, we can stop updating the model
fValue = fDesiredValue; // set it exactly as requested just in case it matters
m_value = m_targetvalue; // set it exactly as requested just in case it matters
}
}
else {
fValue = fDesiredValue;
m_value = m_targetvalue;
}
}
if( SubModel )
{ // warunek na wszelki wypadek, gdyby się submodel nie podłączył
TSubModel *sm;
switch (eType)
{
case gt_Rotate:
SubModel->SetRotate(float3(0, 1, 0), fValue * 360.0);
break;
case gt_Move:
SubModel->SetTranslate(float3(0, 0, fValue));
break;
case gt_Wiper:
SubModel->SetRotate(float3(0, 1, 0), fValue * 360.0);
sm = SubModel->ChildGet();
if (sm)
{
sm->SetRotate(float3(0, 1, 0), fValue * 360.0);
sm = sm->ChildGet();
if (sm)
sm->SetRotate(float3(0, 1, 0), fValue * 360.0);
switch (m_type) {
case gt_Rotate: {
SubModel->SetRotate( float3( 0, 1, 0 ), GetScaledValue() * 360.0 );
break;
}
break;
case gt_Digital: // Ra 2014-07: licznik cyfrowy
sm = SubModel->ChildGet();
/* std::string n = FormatFloat( "0000000000", floor( fValue ) ); // na razie tak trochę bez sensu
*/ std::string n( "000000000" + std::to_string( static_cast<int>( std::floor( fValue ) ) ) );
if( n.length() > 10 ) { n.erase( 0, n.length() - 10 ); } // also dumb but should work for now
do
{ // pętla po submodelach potomnych i obracanie ich o kąt zależy od cyfry w (fValue)
if( sm->pName.size() ) {
// musi mieć niepustą nazwę
if( ( sm->pName[ 0 ] >= '0' )
&& ( sm->pName[ 0 ] <= '9' ) ) {
sm->SetRotate(
float3( 0, 1, 0 ),
-36.0 * ( n[ '0' + 9 - sm->pName[ 0 ] ] - '0' ) );
}
case gt_Move: {
SubModel->SetTranslate( float3( 0, 0, GetScaledValue() ) );
break;
}
case gt_Wiper: {
auto const scaledvalue { GetScaledValue() };
SubModel->SetRotate( float3( 0, 1, 0 ), scaledvalue * 360.0 );
auto *sm = SubModel->ChildGet();
if( sm ) {
sm->SetRotate( float3( 0, 1, 0 ), scaledvalue * 360.0 );
sm = sm->ChildGet();
if( sm )
sm->SetRotate( float3( 0, 1, 0 ), scaledvalue * 360.0 );
}
sm = sm->NextGet();
} while (sm);
break;
break;
}
case gt_Digital: {
// Ra 2014-07: licznik cyfrowy
auto *sm = SubModel->ChildGet();
/* std::string n = FormatFloat( "0000000000", floor( fValue ) ); // na razie tak trochę bez sensu
*/ std::string n( "000000000" + std::to_string( static_cast<int>( std::floor( GetScaledValue() ) ) ) );
if( n.length() > 10 ) { n.erase( 0, n.length() - 10 ); } // also dumb but should work for now
do { // pętla po submodelach potomnych i obracanie ich o kąt zależy od cyfry w (fValue)
if( sm->pName.size() ) {
// musi mieć niepustą nazwę
if( ( sm->pName[ 0 ] >= '0' )
&& ( sm->pName[ 0 ] <= '9' ) ) {
sm->SetRotate(
float3( 0, 1, 0 ),
-36.0 * ( n[ '0' + 9 - sm->pName[ 0 ] ] - '0' ) );
}
}
sm = sm->NextGet();
} while( sm );
break;
}
default: {
break;
}
}
}
};
void TGauge::AssignFloat(float *fValue)
{
cDataType = 'f';
m_datatype = 'f';
fData = fValue;
};
void TGauge::AssignDouble(double *dValue)
{
cDataType = 'd';
m_datatype = 'd';
dData = dValue;
};
void TGauge::AssignInt(int *iValue)
{
cDataType = 'i';
m_datatype = 'i';
iData = iValue;
};
void TGauge::UpdateValue()
{ // ustawienie wartości docelowej z parametru
switch (cDataType)
switch (m_datatype)
{ // to nie jest zbyt optymalne, można by zrobić osobne funkcje
case 'f':
fDesiredValue = (*fData) * fScale + fOffset;
m_targetvalue = (*fData);
break;
case 'd':
fDesiredValue = (*dData) * fScale + fOffset;
m_targetvalue = (*dData);
break;
case 'i':
fDesiredValue = (*iData) * fScale + fOffset;
m_targetvalue = (*iData);
break;
}
};
float TGauge::GetScaledValue() const {
return (
( false == m_interpolatescale ) ?
m_value * m_scale + m_offset :
m_value
* interpolate(
m_scale, m_endscale,
clamp(
m_value / m_endvalue,
0.f, 1.f ) )
+ m_offset );
}
// returns offset of submodel associated with the button from the model centre
glm::vec3
TGauge::model_offset() const {