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Modified source engine (2017) developed by valve and leaked in 2020. Not for commercial purporses
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source-engine/unittests/dmxtest/dmxtest_dmeloglayers.cpp

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//========= Copyright Valve Corporation, All rights reserved. ============//
//
// Purpose:
//
// $NoKeywords: $
//
//=============================================================================//
#include "unitlib/unitlib.h"
#include "datamodel/dmelement.h"
#include "movieobjects/movieobjects.h"
#include "datamodel/idatamodel.h"
#include "movieobjects/dmechannel.h"
#include "movieobjects/dmelog.h"
// memdbgon must be the last include file in a .cpp file!!!
#include "tier0/memdbgon.h"
#define NUM_CHANNELS 1
#define NUM_LOG_ENTRIES 10
enum
{
SPEW_DIFFS = (1<<0),
SPEW_VALUES= (1<<1),
SPEW_KEYS= (1<<2),
};
static void ValidateDataSets( int spew, char const *testname, CUtlVector< CUtlVector< float > >& values, CUtlVector< CUtlVector< float > >& valuesbaked )
{
int i, j;
// Compare baked, unbaked values
Assert( values.Count() == valuesbaked.Count() );
int c = values.Count();
bool differs = false;
bool spewvalues = ( spew & SPEW_VALUES ) ? true : false;
float tol = 0.0001f;
for ( i = 0; i < c; ++i )
{
CUtlVector< float >& v = values[ i ];
CUtlVector< float >& vb = valuesbaked[ i ];
Assert( v.Count() == vb.Count() );
// Now get the values of the samples in the log
for ( j = 0; j < v.Count(); ++j )
{
Assert( vb.IsValidIndex( j ) );
if ( !vb.IsValidIndex( j ) )
continue;
float v1 = v[ j ];
float v2 = vb[ j ];
if ( fabs( v1 - v2 ) > tol )
{
differs = true;
}
if ( spewvalues )
{
Msg( "%d %f %f\n", j, v[ j ], vb[ j ] );
}
}
}
Msg( " %s\n", differs ? "FAILED" : "OK" );
if ( !(spew & SPEW_DIFFS ) )
return;
for ( i = 0; i < c; ++i )
{
CUtlVector< float >& v = values[ i ];
CUtlVector< float >& vb = valuesbaked[ i ];
Assert( v.Count() == vb.Count() );
// Now get the values of the samples in the log
for ( j = 0; j < v.Count(); ++j )
{
Assert( vb.IsValidIndex( j ) );
if ( !vb.IsValidIndex( j ) )
continue;
if ( v[ j ] == vb[ j ] )
{
if ( differs )
{
Msg( "%d found %f to equal %f\n", j, v[ j ], vb[ j ] );
}
continue;
}
Msg( "%d expected %f to equal %f\n", j, v[ j ], vb[ j ] );
}
}
if ( differs )
{
Msg( "End Test '%s'\n---------------\n", testname );
}
}
static void CreateChannels( int num, CUtlVector< CDmeChannel * >& channels, DmFileId_t fileid )
{
CDisableUndoScopeGuard guard;
for ( int i = 0; i < num; ++i )
{
CDmeChannel *channel = NULL;
channel = CreateElement< CDmeChannel >( "channel1", fileid );
channels.AddToTail( channel );
channel->CreateLog( AT_FLOAT ); // only care about float logs for now
channel->SetMode( CM_PLAY );// Make sure it's in playback mode
}
}
struct TestLayer_t
{
enum
{
TYPE_SIMPLESLOPE = 0, // value == time
TYPE_SINE, // sinusoidal
TYPE_CONSTANT,
};
TestLayer_t() :
startTime( 0 ),
endTime( 0 ),
timeStep( 0 ),
usecurvetype( false ),
curvetype( CURVE_DEFAULT ),
type( TYPE_SIMPLESLOPE ),
constantvalue( 0.0f )
{
}
float ValueForTime( DmeTime_t time ) const
{
float t = (float)time.GetSeconds();
switch ( type )
{
default:
case TYPE_SIMPLESLOPE:
return t;
case TYPE_SINE:
return constantvalue * ( 1.0f + sin( ( t * 0.002f ) * 2 * M_PI ) ) * 0.5f;
case TYPE_CONSTANT:
return constantvalue;
}
return t;
}
int type;
DmeTime_t startTime;
DmeTime_t endTime;
DmeTime_t timeStep;
bool usecurvetype;
int curvetype;
float constantvalue;
};
struct TestParams_t
{
TestParams_t() :
testundo( false ),
usecurves( false ),
purgevalues( true ),
testabort( false ),
spew( 0 ),
spewnontopmostlayers( false ),
defaultcurve( CURVE_DEFAULT ),
mintime( DmeTime_t( 0 ) ),
maxtime( DmeTime_t( 100 ) )
{
}
int spew;
bool usecurves;
bool purgevalues;
bool testundo;
bool testabort;
bool spewnontopmostlayers;
int defaultcurve;
DmeTime_t mintime;
DmeTime_t maxtime;
CUtlVector< TestLayer_t > layers;
void Reset()
{
purgevalues = true;
usecurves = false;
testundo = false;
testabort = false;
spewnontopmostlayers = false;
spew = 0;
mintime = DmeTime_t( 0 );
maxtime = DmeTime_t( 100 );
defaultcurve = CURVE_DEFAULT;
layers.RemoveAll();
}
void AddLayer( DmeTime_t start, DmeTime_t end, DmeTime_t step, int curvetype, int valuetype, float constantvalue = 0.0f )
{
TestLayer_t tl;
tl.startTime = start;
tl.endTime = end;
tl.timeStep = step;
tl.curvetype = curvetype;
tl.type = valuetype;
tl.constantvalue = constantvalue;
layers.AddToTail( tl );
}
};
static void RunLayerTest( char const *testname, CUtlVector< CDmeChannel * >& channels, const TestParams_t& params )
{
if ( params.layers.Count() == 0 )
{
Assert( 0 );
return;
}
Msg( "Test '%s'...\n", testname );
g_pDataModel->StartUndo( testname, testname );
int i;
int c = channels.Count();
{
CDisableUndoScopeGuard guard;
for ( i = 0; i < NUM_CHANNELS; ++i )
{
CDmeChannel *channel = channels[ i ];
CDmeTypedLog< float > *pLog = CastElement< CDmeTypedLog< float > >( channel->GetLog() );
Assert( pLog );
pLog->ClearKeys(); // reset it
CDmeCurveInfo *pCurveInfo = NULL;
if ( params.usecurves )
{
pCurveInfo = pLog->GetOrCreateCurveInfo();
pCurveInfo->SetDefaultCurveType( params.defaultcurve );
pCurveInfo->SetMinValue( 0.0f );
pCurveInfo->SetMaxValue( 1000.0f );
}
else
{
if ( pLog->GetCurveInfo() )
{
g_pDataModel->DestroyElement( pLog->GetCurveInfo()->GetHandle() );
}
pLog->SetCurveInfo( NULL );
}
const TestLayer_t& tl = params.layers[ 0 ];
// Now add entries
DmeTime_t logStep = tl.timeStep;
DmeTime_t logStart = tl.startTime;
for ( DmeTime_t t = logStart; t <= tl.endTime + logStep - DmeTime_t( 1 ); t += logStep )
{
DmeTime_t useTime = t;
if ( useTime > tl.endTime )
{
useTime = tl.endTime;
}
float value = tl.ValueForTime( useTime );
if ( tl.usecurvetype )
{
pLog->SetKey( useTime, value, tl.curvetype );
}
else
{
pLog->SetKey( useTime, value );
}
}
}
}
for ( int layer = 1; layer < params.layers.Count(); ++layer )
{
const TestLayer_t& tl = params.layers[ layer ];
// Test creating a layer and collapsing it back down
g_pChannelRecordingMgr->StartLayerRecording( "layer operations" );
for ( i = 0; i < c; ++i )
{
g_pChannelRecordingMgr->AddChannelToRecordingLayer( channels[ i ] ); // calls log->CreateNewLayer()
}
// Now add values to channel logs
for ( i = 0; i < c; ++i )
{
CDmeChannel *channel = channels[ i ];
CDmeTypedLog< float > *pLog = CastElement< CDmeTypedLog< float > >( channel->GetLog() );
Assert( pLog );
// Now add entries
DmeTime_t logStep = tl.timeStep;
DmeTime_t logStart = tl.startTime;
for ( DmeTime_t t = logStart; t <= tl.endTime + logStep - DmeTime_t( 1 ); t += logStep )
{
DmeTime_t useTime = t;
if ( useTime > tl.endTime )
{
useTime = tl.endTime;
}
float value = tl.ValueForTime( useTime );
if ( tl.usecurvetype )
{
pLog->SetKey( useTime, value, tl.curvetype );
}
else
{
pLog->SetKey( useTime, value );
}
}
}
g_pChannelRecordingMgr->FinishLayerRecording( 0.0f, false ); // don't flatten layers here, we'll do it manually
}
// Now sample values
CUtlVector< CUtlVector< float > > values;
CUtlVector< CUtlVector< float > > valuesbaked;
for ( i = 0; i < c; ++i )
{
CDmeChannel *channel = channels[ i ];
CDmeTypedLog< float > *pLog = CastElement< CDmeTypedLog< float > >( channel->GetLog() );
Assert( pLog );
int idx = values.AddToTail();
CUtlVector< float >& v = values[ idx ];
// Now get the values of the samples in the log
for ( DmeTime_t j = params.mintime; j <= params.maxtime; j += DmeTime_t( 1 ) )
{
float fval = pLog->GetValue( j );
v.AddToTail( fval );
}
}
if ( params.spewnontopmostlayers )
{
for ( i = 0; i < c; ++i )
{
CDmeChannel *channel = channels[ i ];
CDmeTypedLog< float > *pLog = CastElement< CDmeTypedLog< float > >( channel->GetLog() );
Assert( pLog );
// Now get the values of the samples in the log
for ( DmeTime_t j = params.mintime; j <= params.maxtime; j += DmeTime_t( 1 ) )
{
float topValue = pLog->GetValue( j );
float underlyingValue = pLog->GetValueSkippingTopmostLayer( j );
Msg( "t(%d) top [%f] rest [%f]\n",
j.GetTenthsOfMS(), topValue, underlyingValue );
}
}
}
// Now test creating a layer and "undo/redo" of the layer
if ( params.testundo )
{
g_pDataModel->FinishUndo();
g_pDataModel->Undo();
g_pDataModel->Redo();
g_pDataModel->StartUndo( testname, testname );
}
{
CUndoScopeGuard guard( "Bake Layers" );
// Now bake down and resample values
for ( i = 0; i < c; ++i )
{
CDmeChannel *channel = channels[ i ];
CDmeTypedLog< float > *pLog = CastElement< CDmeTypedLog< float > >( channel->GetLog() );
Assert( pLog );
pLog->FlattenLayers( 0.0f, params.spew & SPEW_DIFFS );
int idx = valuesbaked.AddToTail();
CUtlVector< float >& v = valuesbaked[ idx ];
// Now get the values of the samples in the log
for ( DmeTime_t j = params.mintime; j <= params.maxtime; j += DmeTime_t( 1 ) )
{
float fval = pLog->GetValue( j );
v.AddToTail( fval );
}
}
}
ValidateDataSets( params.spew, testname, values, valuesbaked );
// Now test creating a layer and "undo/redo" of the layer
if ( params.testundo )
{
g_pDataModel->FinishUndo();
g_pDataModel->Undo();
g_pDataModel->Redo();
g_pDataModel->StartUndo( testname, testname );
}
if ( params.testabort )
{
g_pDataModel->AbortUndoableOperation();
}
else
{
g_pDataModel->FinishUndo();
}
}
static void RunTimeSelectionTest( char const *testname, CUtlVector< CDmeChannel * >& channels,
const TestParams_t& params, DmeTime_t tHeadPosition, DmeLog_TimeSelection_t& ts, float value )
{
if ( params.layers.Count() == 0 )
{
Assert( 0 );
return;
}
Msg( "Test '%s'...\n", testname );
int i, j;
int c = channels.Count();
if ( params.purgevalues )
{
CDisableUndoScopeGuard guard;
for ( i = 0; i < NUM_CHANNELS; ++i )
{
CDmeChannel *channel = channels[ i ];
CDmeTypedLog< float > *pLog = CastElement< CDmeTypedLog< float > >( channel->GetLog() );
Assert( pLog );
pLog->ClearKeys(); // reset it
CDmeCurveInfo *pCurveInfo = params.usecurves ? pLog->GetOrCreateCurveInfo() : pLog->GetCurveInfo();
if ( params.usecurves )
{
pCurveInfo->SetDefaultCurveType( params.defaultcurve );
pCurveInfo->SetMinValue( 0.0f );
pCurveInfo->SetMaxValue( 1000.0f );
}
else if ( !params.usecurves && pCurveInfo )
{
g_pDataModel->DestroyElement( pCurveInfo->GetHandle() );
pLog->SetCurveInfo( NULL );
}
const TestLayer_t& tl = params.layers[ 0 ];
// Now add entries
DmeTime_t logStep = tl.timeStep;
DmeTime_t logStart = tl.startTime;
for ( DmeTime_t t = logStart; t <= tl.endTime + logStep - DmeTime_t( 1 ); t += logStep )
{
DmeTime_t useTime = t;
if ( useTime > tl.endTime )
useTime = tl.endTime;
float value = tl.ValueForTime( useTime );
if ( tl.usecurvetype )
{
pLog->SetKey( useTime, value, tl.curvetype );
}
else
{
pLog->SetKey( useTime, value );
}
}
}
}
// Test creating a layer and collapsing it back down
g_pChannelRecordingMgr->StartLayerRecording( "layer operations", &ts );
for ( i = 0; i < c; ++i )
{
g_pChannelRecordingMgr->AddChannelToRecordingLayer( channels[ i ] ); // calls log->CreateNewLayer()
}
// Now add values to channel logs
for ( i = 0; i < c; ++i )
{
CDmeChannel *channel = channels[ i ];
CDmeTypedLog< float > *pLog = CastElement< CDmeTypedLog< float > >( channel->GetLog() );
Assert( pLog );
pLog->StampKeyAtHead( tHeadPosition, tHeadPosition, ts, value );
}
// Flattens the layers
g_pChannelRecordingMgr->FinishLayerRecording( 0.0f, true );
if ( params.spew & SPEW_VALUES )
{
for ( i = 0; i < c; ++i )
{
CDmeChannel *channel = channels[ i ];
CDmeTypedLog< float > *pLog = CastElement< CDmeTypedLog< float > >( channel->GetLog() );
Assert( pLog );
Assert( pLog->GetNumLayers() == 1 );
for ( DmeTime_t j = params.mintime; j <= params.maxtime; j += DmeTime_t( 1 ) )
{
float fval = pLog->GetValue( j );
Msg( "%d %f\n", j.GetTenthsOfMS(), fval );
}
}
}
if ( params.spew & SPEW_KEYS )
{
for ( i = 0; i < c; ++i )
{
CDmeChannel *channel = channels[ i ];
CDmeTypedLog< float > *pLog = CastElement< CDmeTypedLog< float > >( channel->GetLog() );
Assert( pLog );
Assert( pLog->GetNumLayers() == 1 );
int kc = pLog->GetKeyCount();
for ( j = 0; j < kc; ++j )
{
DmeTime_t time = pLog->GetKeyTime( j );
float fval = pLog->GetValue( time );
Msg( "%d %f %f\n", j, time.GetSeconds(), fval );
}
}
}
// Now test creating a layer and "undo/redo" of the layer
if ( params.testundo )
{
g_pDataModel->Undo();
g_pDataModel->Redo();
}
}
DEFINE_TESTCASE_NOSUITE( DmxTestDmeLogLayers )
{
Msg( "Running CDmeTypedLog<float> layering tests...\n" );
#ifdef _DEBUG
int nStartingCount = g_pDataModel->GetAllocatedElementCount();
#endif
CUtlVector< CDmeChannel * > channels;
DmFileId_t fileid = g_pDataModel->FindOrCreateFileId( "<DmxTestDmeLogLayers>" );
CreateChannels( NUM_CHANNELS, channels, fileid );
TestParams_t params;
{
params.testundo = false;
params.usecurves = false;
params.defaultcurve = CURVE_DEFAULT;
params.AddLayer( DmeTime_t( 0 ), DmeTime_t( 100 ), DmeTime_t( 10 ), CURVE_DEFAULT, TestLayer_t::TYPE_SIMPLESLOPE );
params.AddLayer( DmeTime_t( 5 ), DmeTime_t( 95 ), DmeTime_t( 10 ), CURVE_DEFAULT, TestLayer_t::TYPE_SIMPLESLOPE );
RunLayerTest( "One-Layer", channels, params );
params.Reset();
}
// Single layer using lerp everywhere
// -----------------------
{
params.testundo = false;
params.usecurves = true;
params.defaultcurve = CURVE_LINEAR_INTERP_TO_LINEAR_INTERP;
params.AddLayer( DmeTime_t( 0 ), DmeTime_t( 100 ), DmeTime_t( 10 ), CURVE_LINEAR_INTERP_TO_LINEAR_INTERP, TestLayer_t::TYPE_SIMPLESLOPE );
RunLayerTest( "One-Layer Lerp", channels, params );
params.Reset();
}
// Two layers using lerp
// ----------------------------
// ------------------------
{
params.testundo = false;
params.usecurves = true;
params.defaultcurve = CURVE_LINEAR_INTERP_TO_LINEAR_INTERP;
params.AddLayer( DmeTime_t( 0 ), DmeTime_t( 100 ), DmeTime_t( 10 ), CURVE_LINEAR_INTERP_TO_LINEAR_INTERP, TestLayer_t::TYPE_SIMPLESLOPE );
params.AddLayer( DmeTime_t( 5 ), DmeTime_t( 95 ), DmeTime_t( 10 ), CURVE_LINEAR_INTERP_TO_LINEAR_INTERP, TestLayer_t::TYPE_SIMPLESLOPE );
RunLayerTest( "Two-Layer Lerp (contained)", channels, params );
params.Reset();
}
// Two layers using CURVE_EASE_IN_TO_EASE_OUT, there should be some disparity
// ----------------------------
// ------------------------
{
params.testundo = false;
params.usecurves = true;
params.defaultcurve = CURVE_EASE_IN_TO_EASE_OUT;
params.AddLayer( DmeTime_t( 0 ), DmeTime_t( 100 ), DmeTime_t( 10 ), CURVE_EASE_IN_TO_EASE_OUT, TestLayer_t::TYPE_SIMPLESLOPE );
params.AddLayer( DmeTime_t( 5 ), DmeTime_t( 95 ), DmeTime_t( 10 ), CURVE_EASE_IN_TO_EASE_OUT, TestLayer_t::TYPE_SIMPLESLOPE );
RunLayerTest( "Two-Layer Ease In/Out (contained)", channels, params );
params.Reset();
}
// Two layers using lerp
// ----------------------------
// ---------
{
params.testundo = false;
params.usecurves = true;
params.mintime = DmeTime_t( -20 );
params.defaultcurve = CURVE_LINEAR_INTERP_TO_LINEAR_INTERP;
params.AddLayer( DmeTime_t( 0 ), DmeTime_t( 100 ), DmeTime_t( 10 ), CURVE_LINEAR_INTERP_TO_LINEAR_INTERP, TestLayer_t::TYPE_SIMPLESLOPE );
params.AddLayer( DmeTime_t( -20 ), DmeTime_t( 20 ), DmeTime_t( 10 ), CURVE_LINEAR_INTERP_TO_LINEAR_INTERP, TestLayer_t::TYPE_SIMPLESLOPE );
RunLayerTest( "Two-Layer Lerp (overhang start)", channels, params );
params.Reset();
}
// Two layers using lerp
// ----------------------------
// ------------
{
params.testundo = false;
params.usecurves = true;
params.maxtime = DmeTime_t( 120 );
params.defaultcurve = CURVE_LINEAR_INTERP_TO_LINEAR_INTERP;
params.AddLayer( DmeTime_t( 0 ), DmeTime_t( 100 ), DmeTime_t( 10 ), CURVE_LINEAR_INTERP_TO_LINEAR_INTERP, TestLayer_t::TYPE_SIMPLESLOPE );
params.AddLayer( DmeTime_t( 80 ), DmeTime_t( 120 ), DmeTime_t( 10 ), CURVE_LINEAR_INTERP_TO_LINEAR_INTERP, TestLayer_t::TYPE_SIMPLESLOPE );
RunLayerTest( "Two-Layer Lerp (overhang end)", channels, params );
params.Reset();
}
// Three layers using lerp
// -------------
// ----- -----
{
params.testundo = false;
params.usecurves = true;
params.defaultcurve = CURVE_LINEAR_INTERP_TO_LINEAR_INTERP;
params.mintime = DmeTime_t( -12 );
params.maxtime = DmeTime_t( 115 );
params.AddLayer( DmeTime_t( 0 ), DmeTime_t( 100 ), DmeTime_t( 10 ), CURVE_LINEAR_INTERP_TO_LINEAR_INTERP, TestLayer_t::TYPE_SIMPLESLOPE );
params.AddLayer( DmeTime_t( -12 ), DmeTime_t( 12 ), DmeTime_t( 4 ), CURVE_LINEAR_INTERP_TO_LINEAR_INTERP, TestLayer_t::TYPE_SIMPLESLOPE );
params.AddLayer( DmeTime_t( 85 ), DmeTime_t( 115 ), DmeTime_t( 5 ), CURVE_LINEAR_INTERP_TO_LINEAR_INTERP, TestLayer_t::TYPE_SIMPLESLOPE );
RunLayerTest( "Three-Layer Lerp (overhang start + end)", channels, params );
params.Reset();
}
// Three layers using lerp
// -------------
// -----
// --
{
params.testundo = false;
params.usecurves = true;
params.defaultcurve = CURVE_LINEAR_INTERP_TO_LINEAR_INTERP;
params.AddLayer( DmeTime_t( 0 ), DmeTime_t( 100 ), DmeTime_t( 10 ), CURVE_LINEAR_INTERP_TO_LINEAR_INTERP, TestLayer_t::TYPE_SIMPLESLOPE );
params.AddLayer( DmeTime_t( 25 ), DmeTime_t( 75 ), DmeTime_t( 10 ), CURVE_LINEAR_INTERP_TO_LINEAR_INTERP, TestLayer_t::TYPE_SIMPLESLOPE );
params.AddLayer( DmeTime_t( 40 ), DmeTime_t( 60 ), DmeTime_t( 5 ), CURVE_LINEAR_INTERP_TO_LINEAR_INTERP, TestLayer_t::TYPE_SIMPLESLOPE );
RunLayerTest( "Three-Layer Lerp (layer inside layer)", channels, params );
params.Reset();
}
// Three layers using lerp
// -------------
// -----
// --
{
params.testundo = false;
params.usecurves = true;
params.defaultcurve = CURVE_LINEAR_INTERP_TO_LINEAR_INTERP;
params.AddLayer( DmeTime_t( 0 ), DmeTime_t( 100 ), DmeTime_t( 10 ), CURVE_LINEAR_INTERP_TO_LINEAR_INTERP, TestLayer_t::TYPE_SIMPLESLOPE );
params.AddLayer( DmeTime_t( 25 ), DmeTime_t( 75 ), DmeTime_t( 10 ), CURVE_LINEAR_INTERP_TO_LINEAR_INTERP, TestLayer_t::TYPE_SIMPLESLOPE );
params.AddLayer( DmeTime_t( 70 ), DmeTime_t( 80 ), DmeTime_t( 2 ), CURVE_LINEAR_INTERP_TO_LINEAR_INTERP, TestLayer_t::TYPE_SIMPLESLOPE );
RunLayerTest( "Three-Layer Lerp (first layer contained, second layer overlapping first at end)", channels, params );
params.Reset();
}
// Three layers using lerp
// -------------
// -----
// --
{
params.testundo = false;
params.usecurves = true;
params.defaultcurve = CURVE_LINEAR_INTERP_TO_LINEAR_INTERP;
params.AddLayer( DmeTime_t( 0 ), DmeTime_t( 100 ), DmeTime_t( 10 ), CURVE_LINEAR_INTERP_TO_LINEAR_INTERP, TestLayer_t::TYPE_SIMPLESLOPE );
params.AddLayer( DmeTime_t( 25 ), DmeTime_t( 75 ), DmeTime_t( 10 ), CURVE_LINEAR_INTERP_TO_LINEAR_INTERP, TestLayer_t::TYPE_SIMPLESLOPE );
params.AddLayer( DmeTime_t( 15 ), DmeTime_t( 35 ), DmeTime_t( 5 ), CURVE_LINEAR_INTERP_TO_LINEAR_INTERP, TestLayer_t::TYPE_SIMPLESLOPE );
RunLayerTest( "Three-Layer Lerp (first layer contained, second layer overlapping first at start)", channels, params );
params.Reset();
}
// Four layers using lerp
// ---------------
// -----
// ----
// -------
{
params.testundo = false;
params.usecurves = true;
// params.spewnontopmostlayers = true;
params.defaultcurve = CURVE_LINEAR_INTERP_TO_LINEAR_INTERP;
params.AddLayer( DmeTime_t( 0 ), DmeTime_t( 100 ), DmeTime_t( 10 ), CURVE_LINEAR_INTERP_TO_LINEAR_INTERP, TestLayer_t::TYPE_CONSTANT, 20.0f );
params.AddLayer( DmeTime_t( 15 ), DmeTime_t( 40 ), DmeTime_t( 10 ), CURVE_LINEAR_INTERP_TO_LINEAR_INTERP, TestLayer_t::TYPE_SIMPLESLOPE );
params.AddLayer( DmeTime_t( 60 ), DmeTime_t( 85 ), DmeTime_t( 5 ), CURVE_LINEAR_INTERP_TO_LINEAR_INTERP, TestLayer_t::TYPE_SIMPLESLOPE );
params.AddLayer( DmeTime_t( 35 ), DmeTime_t( 79 ), DmeTime_t( 5 ), CURVE_LINEAR_INTERP_TO_LINEAR_INTERP, TestLayer_t::TYPE_SIMPLESLOPE );
RunLayerTest( "Four-Layer Lerp (top overlapping end of 1st and start of 2nd layer)", channels, params );
params.Reset();
}
// Single layer using lerp everywhere
// -----------------------
{
params.testundo = false;
params.usecurves = true;
params.spew = 0; //SPEW_VALUES | SPEW_KEYS;
params.mintime = DmeTime_t( 0 );
params.maxtime = DmeTime_t( 10000 );
params.defaultcurve = CURVE_LINEAR_INTERP_TO_LINEAR_INTERP;
params.AddLayer( DmeTime_t( 0 ), DmeTime_t( 10000 ), DmeTime_t( 20 ), CURVE_LINEAR_INTERP_TO_LINEAR_INTERP, TestLayer_t::TYPE_SINE, 100.0f );
DmeTime_t tHeadPosition = DmeTime_t( 5000 );
DmeLog_TimeSelection_t ts;
ts.m_nTimes[ TS_LEFT_FALLOFF ] = tHeadPosition + DmeTime_t( -987 );
ts.m_nTimes[ TS_LEFT_HOLD ] = ts.m_nTimes[ TS_RIGHT_HOLD ] = tHeadPosition;
ts.m_nTimes[ TS_RIGHT_FALLOFF ] = tHeadPosition + DmeTime_t( 1052 );
ts.m_nFalloffInterpolatorTypes[ 0 ] = ts.m_nFalloffInterpolatorTypes[ 1 ] = INTERPOLATE_EASE_INOUT;
// Resample at 50 msec intervals
ts.m_bResampleMode = true;
ts.m_nResampleInterval = DmeTime_t( 50 );
///params.spew |= SPEW_KEYS | SPEW_VALUES;
RunTimeSelectionTest( "One-Layer Time Selection at 50, falloff 25, EASE_INOUT interp", channels, params, tHeadPosition, ts, 250 );
params.purgevalues = false;
// params.spew |= SPEW_VALUES;
// Shift the head and do it all again
tHeadPosition = DmeTime_t( 2000 );
ts.m_nTimes[ TS_LEFT_FALLOFF ] = DmeTime_t( 1487 );
ts.m_nTimes[ TS_LEFT_HOLD ] = ts.m_nTimes[ TS_RIGHT_HOLD ] = tHeadPosition;
ts.m_nTimes[ TS_RIGHT_FALLOFF ] = tHeadPosition + DmeTime_t( 631 );
RunTimeSelectionTest( "2nd layer", channels, params, tHeadPosition, ts, 500 );
params.Reset();
}
// Single layer using lerp everywhere
// -----------------------
{
params.testundo = true;
params.usecurves = true;
params.spew = 0; //SPEW_VALUES | SPEW_KEYS;
params.mintime = DmeTime_t( 0 );
params.maxtime = DmeTime_t( 1000 );
params.defaultcurve = CURVE_LINEAR_INTERP_TO_LINEAR_INTERP;
params.AddLayer( DmeTime_t( 0 ), DmeTime_t( 1000 ), DmeTime_t( 20 ), CURVE_LINEAR_INTERP_TO_LINEAR_INTERP, TestLayer_t::TYPE_CONSTANT, 100.0f );
DmeTime_t tHeadPosition = DmeTime_t( 500 );
DmeLog_TimeSelection_t ts;
ts.m_nTimes[ TS_LEFT_FALLOFF ] = tHeadPosition + DmeTime_t( -100 );
ts.m_nTimes[ TS_LEFT_HOLD ] = ts.m_nTimes[ TS_RIGHT_HOLD ] = tHeadPosition;
ts.m_nTimes[ TS_RIGHT_FALLOFF ] = tHeadPosition + DmeTime_t( 100 );
ts.m_nFalloffInterpolatorTypes[ 0 ] = ts.m_nFalloffInterpolatorTypes[ 1 ] = INTERPOLATE_LINEAR_INTERP;
// Resample at 50 msec intervals
ts.m_bResampleMode = true;
ts.m_nResampleInterval = DmeTime_t( 10 );
// params.spew |= SPEW_VALUES;
RunTimeSelectionTest( "Resetting layer", channels, params, tHeadPosition, ts, 200 );
params.purgevalues = false;
//params.spew |= SPEW_VALUES;
// Shift the head and do it all again
//ts.m_nRelativeFalloffTimes[ 0 ] = 1487 - 2000;
//ts.m_nRelativeHoldTimes[ 0 ] = ts.m_nRelativeHoldTimes[ 1 ] = 0;
//ts.m_nRelativeFalloffTimes[ 1 ] = 631;
//ts.SetHeadPosition( 2000 );
RunTimeSelectionTest( "2nd layer", channels, params, tHeadPosition, ts, 110 );
params.Reset();
}
// g_pDataModel->TraceUndo( true );
// Test abort undo stuff
for ( int i = 0; i < 2; ++i )
// Four layers using lerp
// ---------------
// -----
// ----
// -------
{
params.testundo = false;
params.testabort = i != 1 ? true : false;
params.usecurves = false;
// params.spewnontopmostlayers = true;
params.defaultcurve = CURVE_LINEAR_INTERP_TO_LINEAR_INTERP;
params.AddLayer( DmeTime_t( 0 ), DmeTime_t( 10 ), DmeTime_t( 10 ), CURVE_LINEAR_INTERP_TO_LINEAR_INTERP, TestLayer_t::TYPE_CONSTANT, 20.0f );
params.AddLayer( DmeTime_t( 5 ), DmeTime_t( 6 ), DmeTime_t( 1 ), CURVE_LINEAR_INTERP_TO_LINEAR_INTERP, TestLayer_t::TYPE_SIMPLESLOPE );
RunLayerTest( "Four-Layer Lerp (top overlapping end of 1st and start of 2nd layer)", channels, params );
params.Reset();
}
// g_pDataModel->TraceUndo( false );
//DestroyChannels( channels );
g_pDataModel->ClearUndo();
g_pDataModel->RemoveFileId( fileid );
#ifdef _DEBUG
int nEndingCount = g_pDataModel->GetAllocatedElementCount();
AssertEquals( nEndingCount, nStartingCount );
if ( nEndingCount != nStartingCount )
{
for ( DmElementHandle_t hElement = g_pDataModel->FirstAllocatedElement() ;
hElement != DMELEMENT_HANDLE_INVALID;
hElement = g_pDataModel->NextAllocatedElement( hElement ) )
{
CDmElement *pElement = g_pDataModel->GetElement( hElement );
Assert( pElement );
if ( !pElement )
return;
Msg( "[%s : %s] in memory\n", pElement->GetName(), pElement->GetTypeString() );
}
}
#endif
}
DEFINE_TESTCASE_NOSUITE( DmxTestDmeLogLayersUndo )
{
Msg( "Running CDmeTypedLog<float> layering UNDO tests...\n" );
#ifdef _DEBUG
int nStartingCount = g_pDataModel->GetAllocatedElementCount();
#endif
CUtlVector< CDmeChannel * > channels;
DmFileId_t fileid = g_pDataModel->FindOrCreateFileId( "<DmxTestDmeLogLayersUndo>" );
CreateChannels( NUM_CHANNELS, channels, fileid );
TestParams_t params;
// g_pDataModel->TraceUndo( true );
// Test abort undo stuff
for ( int i = 0; i < 2; ++i )
{
params.testundo = false;
params.testabort = true;
params.usecurves = false;
// params.spewnontopmostlayers = true;
params.defaultcurve = CURVE_LINEAR_INTERP_TO_LINEAR_INTERP;
params.AddLayer( DmeTime_t( 0 ), DmeTime_t( 1000 ), DmeTime_t( 10 ), CURVE_LINEAR_INTERP_TO_LINEAR_INTERP, TestLayer_t::TYPE_CONSTANT, 20.0f );
params.AddLayer( DmeTime_t( 100 ), DmeTime_t( 900 ), DmeTime_t( 5 ), CURVE_LINEAR_INTERP_TO_LINEAR_INTERP, TestLayer_t::TYPE_SIMPLESLOPE );
RunLayerTest( "Abort undo", channels, params );
params.Reset();
}
// g_pDataModel->TraceUndo( false );
g_pDataModel->ClearUndo();
g_pDataModel->RemoveFileId( fileid );
#ifdef _DEBUG
int nEndingCount = g_pDataModel->GetAllocatedElementCount();
AssertEquals( nEndingCount, nStartingCount );
if ( nEndingCount != nStartingCount )
{
for ( DmElementHandle_t hElement = g_pDataModel->FirstAllocatedElement() ;
hElement != DMELEMENT_HANDLE_INVALID;
hElement = g_pDataModel->NextAllocatedElement( hElement ) )
{
CDmElement *pElement = g_pDataModel->GetElement( hElement );
Assert( pElement );
if ( !pElement )
return;
Msg( "[%s : %s] in memory\n", pElement->GetName(), pElement->GetTypeString() );
}
}
#endif
}