avtColorTables::avtColorTables()
{
ctAtts = new ColorTableAttributes();
// Set up some pointers.
const float *predef_ct_colors[17];
predef_ct_colors[0] = ct_bluehot;
predef_ct_colors[1] = ct_caleblack;
predef_ct_colors[2] = ct_calewhite;
predef_ct_colors[3] = ct_contoured;
predef_ct_colors[4] = ct_difference;
predef_ct_colors[5] = ct_gray;
predef_ct_colors[6] = ct_hot;
predef_ct_colors[7] = ct_hot_and_cold;
predef_ct_colors[8] = ct_hot_desaturated;
predef_ct_colors[9] = ct_levels;
predef_ct_colors[10] = ct_orangehot;
predef_ct_colors[11] = ct_rainbow;
predef_ct_colors[12] = ct_xray;
predef_ct_colors[13] = ct_jmol_colors;
predef_ct_colors[14] = ct_rasmol_colors;
predef_ct_colors[15] = ct_amino_colors;
predef_ct_colors[16] = ct_shapely_colors;
// Add each colortable.
for(int i = 0; i < 17; ++i)
{
ColorControlPointList ccpl;
const float *fptr = predef_ct_colors[i];
for(int j = 0; j < predef_ct_ncolors[i]; ++j)
{
ColorControlPoint p(fptr[0],
(unsigned char)(fptr[1]*255),
(unsigned char)(fptr[2]*255),
(unsigned char)(fptr[3]*255),
255);
ccpl.AddControlPoints(p);
fptr += 4;
}
ccpl.SetSmoothingFlag(predef_ct_smooth[i] == 1);
ccpl.SetEqualSpacingFlag(predef_ct_equal[i] == 1);
ccpl.SetDiscreteFlag(predef_ct_discrete[i] == 1);
ctAtts->AddColorTable(predef_ct_names[i], ccpl);
}
// Set the active continuous color table to "hot".
ctAtts->SetActiveContinuous("hot");
// Set the active discrete color table to "levels".
ctAtts->SetActiveDiscrete("levels");
}
void
ColorTableAttributes::SetFromNode(DataNode *parentNode)
{
if(parentNode == 0)
return;
DataNode *searchNode = parentNode->GetNode("ColorTableAttributes");
if(searchNode == 0)
return;
// Look for the number of color tables.
DataNode *node = 0;
if((node = searchNode->GetNode("Ntables")) != 0)
{
char tmp[100];
int ntables = node->AsInt();
// Look for ntables color table nodes.
for(int i = 0; i < ntables; ++i)
{
SNPRINTF(tmp, 100, "table%02d", i);
if((node = searchNode->GetNode(tmp)) != 0)
{
DataNode *nameNode = node->GetNode("ctName");
DataNode *pointNode = node->GetNode("controlPts");
// If we have the name node and the pointNode, we can add a
// color table.
if(nameNode && pointNode)
{
ColorControlPointList ccpl;
// Try and set the equal flag.
DataNode *tmpNode;
if((tmpNode = node->GetNode("equal")) != 0)
ccpl.SetEqualSpacingFlag(tmpNode->AsBool());
// Try and set the smooth flag.
if((tmpNode = node->GetNode("smooth")) != 0)
ccpl.SetSmoothingFlag(tmpNode->AsBool());
if((tmpNode = node->GetNode("discrete")) != 0)
ccpl.SetDiscreteFlag(tmpNode->AsBool());
// Set the color control points.
floatVector fvec = pointNode->AsFloatVector();
for(size_t j = 0; j < fvec.size() / 4; ++j)
{
// Create a control point based on the values
// in the float vector.
int index = j * 4;
ColorControlPoint cpt(fvec[index],
(unsigned char)(fvec[index+1]),
(unsigned char)(fvec[index+2]),
(unsigned char)(fvec[index+3]),
255);
ccpl.AddControlPoints(cpt);
}
// If the color table is already in the list, remove it.
// Then add the new color table to the list.
RemoveColorTable(nameNode->AsString());
AddColorTable(nameNode->AsString(), ccpl);
}
}
} // end for i
}
if((node = searchNode->GetNode("activeContinuous")) != 0)
SetActiveContinuous(node->AsString());
if((node = searchNode->GetNode("activeDiscrete")) != 0)
SetActiveDiscrete(node->AsString());
// For older version compatibility...
if((node = searchNode->GetNode("activeColorTable")) != 0)
SetActiveContinuous(node->AsString());
}
void
ColorTableAttributes::SetFromNode(DataNode *parentNode)
{
if(parentNode == 0)
return;
DataNode *searchNode = parentNode->GetNode("ColorTableAttributes");
if(searchNode == 0)
return;
// Look for the number of color tables.
DataNode *node = 0;
if((node = searchNode->GetNode("Ntables")) != 0)
{
char tmp[100];
int ntables = node->AsInt();
// Look for ntables color table nodes.
for(int i = 0; i < ntables; ++i)
{
SNPRINTF(tmp, 100, "table%02d", i);
if((node = searchNode->GetNode(tmp)) != 0)
{
DataNode *nameNode = node->GetNode("ctName");
DataNode *pointNode = node->GetNode("controlPts");
DataNode *colorsHaveOpacity = node->GetNode("colorsHaveOpacity");
bool readAlpha = false;
if (colorsHaveOpacity != NULL)
readAlpha = true;
// If we have the name node and the pointNode, we can add a
// color table.
if(nameNode && pointNode)
{
ColorControlPointList ccpl;
// Try and set the equal flag.
DataNode *tmpNode;
if((tmpNode = node->GetNode("equal")) != 0)
ccpl.SetEqualSpacingFlag(tmpNode->AsBool());
// Try and set the smooth flag. (old way)
if((tmpNode = node->GetNode("smooth")) != 0)
ccpl.SetSmoothing(tmpNode->AsBool()?ColorControlPointList::Linear:ColorControlPointList::None);
// (new way)
if((tmpNode = node->GetNode("smoothing")) != 0)
ccpl.SetSmoothing(static_cast<ColorControlPointList::SmoothingMethod>(tmpNode->AsInt()));
if((tmpNode = node->GetNode("discrete")) != 0)
ccpl.SetDiscreteFlag(tmpNode->AsBool());
if((tmpNode = node->GetNode("category")) != 0)
ccpl.SetCategoryName(tmpNode->AsString());
else
ccpl.SetCategoryName("Standard");
// Set the color control points.
floatVector fvec = pointNode->AsFloatVector();
int nvalsPerColor = 4;
if (readAlpha)
nvalsPerColor = 5;
for(size_t j = 0; j < fvec.size() / nvalsPerColor; ++j)
{
// Create a control point based on the values
// in the float vector.
int index = j * nvalsPerColor;
ColorControlPoint cpt(fvec[index],
(unsigned char)(fvec[index+1]),
(unsigned char)(fvec[index+2]),
(unsigned char)(fvec[index+3]),
(readAlpha
? (unsigned char)(fvec[index+4])
: 255));
ccpl.AddControlPoints(cpt);
}
// If the color table is already in the list, remove it.
// Then add the new color table to the list.
RemoveColorTable(nameNode->AsString());
AddColorTable(nameNode->AsString(), ccpl);
}
}
} // end for i
}
if((node = searchNode->GetNode("activeContinuous")) != 0)
SetActiveContinuous(node->AsString());
if((node = searchNode->GetNode("activeDiscrete")) != 0)
SetActiveDiscrete(node->AsString());
if((node = searchNode->GetNode("groupingFlag")) != 0)
SetGroupingFlag(node->AsBool());
// For older version compatibility...
if((node = searchNode->GetNode("activeColorTable")) != 0)
SetActiveContinuous(node->AsString());
}
