void ConditionalScatterPlotCanvas::ResizeSelectableShps(int virtual_scrn_w,
int virtual_scrn_h)
{
// NOTE: we do not support both fixed_aspect_ratio_mode
// and fit_to_window_mode being false currently.
LOG_MSG("Entering ConditionalScatterPlotCanvas::ResizeSelectableShps");
int vs_w=virtual_scrn_w, vs_h=virtual_scrn_h;
if (vs_w <= 0 && vs_h <= 0) GetVirtualSize(&vs_w, &vs_h);
double image_width, image_height;
bool ftwm = GetFitToWindowMode();
// last_scale_trans is only used in calls made to ApplyLastResizeToShp
// which are made in ScaterNewPlotView
GdaScaleTrans **st;
st = new GdaScaleTrans*[vert_num_cats];
for (int i=0; i<vert_num_cats; i++) {
st[i] = new GdaScaleTrans[horiz_num_cats];
}
// Total width height: vs_w vs_h
// Working area margins: virtual_screen_marg_top,
// virtual_screen_marg_bottom,
// virtual_screen_marg_left,
// virtual_screen_marg_right
// We need to increase these as needed for each tile area
double scn_w = vs_w;
double scn_h = vs_h;
double min_pad = 10;
if (display_axes_scale_values) {
min_pad += 20;
}
if (!display_axes_scale_values && display_slope_values) {
min_pad += 4;
}
// pixels between columns/rows
double fac = 0.01;
//if (vert_num_cats >= 4 || horiz_num_cats >=4) fac = 0.05;
double pad_w = scn_w * fac;
double pad_h = scn_h * fac;
if (pad_w < 1) pad_w = 0;
if (pad_h < 1) pad_h = 0;
double pad_bump = GenUtils::min<double>(pad_w, pad_h);
double pad = min_pad + pad_bump;
double marg_top = virtual_screen_marg_top;
double marg_bottom = virtual_screen_marg_bottom;
double marg_left = virtual_screen_marg_left;
double marg_right = virtual_screen_marg_right;
double d_rows = vert_num_cats;
double d_cols = horiz_num_cats;
double tot_width = scn_w - ((d_cols-1)*pad + marg_left + marg_right);
double tot_height = scn_h - ((d_rows-1)*pad + marg_top + marg_bottom);
double del_width = tot_width / d_cols;
double del_height = tot_height / d_rows;
bin_extents.resize(boost::extents[vert_num_cats][horiz_num_cats]);
for (int row=0; row<vert_num_cats; row++) {
double drow = row;
for (int col=0; col<horiz_num_cats; col++) {
double dcol = col;
double ml = marg_left + col*(pad+del_width);
double mr = marg_right + ((d_cols-1)-col)*(pad+del_width);
double mt = marg_top + row*(pad+del_height);
double mb = marg_bottom + ((d_rows-1)-row)*(pad+del_height);
double s_x, s_y, t_x, t_y;
GdaScaleTrans::calcAffineParams(shps_orig_xmin, shps_orig_ymin,
shps_orig_xmax, shps_orig_ymax,
mt, mb, ml, mr,
vs_w, vs_h, fixed_aspect_ratio_mode,
ftwm,
&s_x, &s_y, &t_x, &t_y,
ftwm ? 0 : current_shps_width,
ftwm ? 0 : current_shps_height,
&image_width, &image_height);
st[(vert_num_cats-1)-row][col].scale_x = s_x;
st[(vert_num_cats-1)-row][col].scale_y = s_y;
st[(vert_num_cats-1)-row][col].trans_x = t_x;
st[(vert_num_cats-1)-row][col].trans_y = t_y;
st[(vert_num_cats-1)-row][col].max_scale =
GenUtils::max<double>(s_x, s_y);
wxRealPoint ll(shps_orig_xmin, shps_orig_ymin);
wxRealPoint ur(shps_orig_xmax, shps_orig_ymax);
bin_extents[(vert_num_cats-1)-row][col] = GdaRectangle(ll, ur);
bin_extents[(vert_num_cats-1)-row][col].applyScaleTrans(
st[(vert_num_cats-1)-row][col]);
}
}
BOOST_FOREACH( GdaShape* shp , foreground_shps ) { delete shp; }
foreground_shps.clear();
for (int row=0; row<vert_num_cats; row++) {
for (int col=0; col<horiz_num_cats; col++) {
GdaPolyLine* p = new GdaPolyLine(reg_line[row][col]);
p->applyScaleTrans(st[row][col]);
foreground_shps.push_back(p);
GdaAxis* x_ax = new GdaAxis("", axis_scale_x,
wxRealPoint(0,0), wxRealPoint(100, 0));
if (!display_axes_scale_values) x_ax->hideScaleValues(true);
x_ax->setPen(*GdaConst::scatterplot_scale_pen);
x_ax->applyScaleTrans(st[row][col]);
foreground_shps.push_back(x_ax);
GdaAxis* y_ax = new GdaAxis("", axis_scale_y,
wxRealPoint(0,0), wxRealPoint(0, 100));
if (!display_axes_scale_values) y_ax->hideScaleValues(true);
y_ax->setPen(*GdaConst::scatterplot_scale_pen);
y_ax->applyScaleTrans(st[row][col]);
foreground_shps.push_back(y_ax);
if (display_slope_values && regression[row][col].valid) {
wxString s;
s << GenUtils::DblToStr(regression[row][col].beta);
if (regression[row][col].p_value_beta <= 0.01 &&
stats_x[row][col].sample_size >= 3) {
s << "**";
} else if (regression[row][col].p_value_beta <= 0.05 &&
stats_x[row][col].sample_size >= 3) {
s << "*";
}
GdaShapeText* t = new GdaShapeText(s, *GdaConst::small_font,
wxRealPoint(50, 100), 0,
GdaShapeText::h_center, GdaShapeText::v_center);
t->setPen(*GdaConst::scatterplot_scale_pen);
t->applyScaleTrans(st[row][col]);
foreground_shps.push_back(t);
}
}
}
int row_c;
int col_c;
for (int i=0; i<num_obs; i++) {
row_c = vert_cat_data.categories[var_info[VERT_VAR].time].id_to_cat[i];
col_c = horiz_cat_data.categories[var_info[HOR_VAR].time].id_to_cat[i];
selectable_shps[i]->applyScaleTrans(st[row_c][col_c]);
}
BOOST_FOREACH( GdaShape* shp, background_shps ) { delete shp; }
background_shps.clear();
double bg_xmin = marg_left;
double bg_xmax = scn_w-marg_right;
double bg_ymin = marg_bottom;
double bg_ymax = scn_h-marg_top;
std::vector<wxRealPoint> v_brk_ref(vert_num_cats-1);
std::vector<wxRealPoint> h_brk_ref(horiz_num_cats-1);
for (int row=0; row<vert_num_cats-1; row++) {
double y = (bin_extents[row][0].lower_left.y +
bin_extents[row+1][0].upper_right.y)/2.0;
v_brk_ref[row].x = bg_xmin;
v_brk_ref[row].y = scn_h-y;
}
for (int col=0; col<horiz_num_cats-1; col++) {
double x = (bin_extents[0][col].upper_right.x +
bin_extents[0][col+1].lower_left.x)/2.0;
h_brk_ref[col].x = x;
h_brk_ref[col].y = bg_ymin;
}
int label_offset = 12;
if (display_axes_scale_values) label_offset = 2+25;
GdaShape* s;
int vt = var_info[VERT_VAR].time;
for (int row=0; row<vert_num_cats-1; row++) {
double b;
if (cat_classif_def_vert.cat_classif_type != CatClassification::custom){
if (!vert_cat_data.HasBreakVal(vt, row)) continue;
b = vert_cat_data.GetBreakVal(vt, row);
} else {
b = cat_classif_def_vert.breaks[row];
}
wxString t(GenUtils::DblToStr(b));
s = new GdaShapeText(t, *GdaConst::small_font, v_brk_ref[row], 90,
GdaShapeText::h_center, GdaShapeText::bottom, -label_offset, 0);
background_shps.push_back(s);
}
wxString vert_label;
if (GetCatType(VERT_VAR) != CatClassification::no_theme) {
if (GetCatType(VERT_VAR) == CatClassification::custom) {
vert_label << cat_classif_def_vert.title;
} else {
vert_label << CatClassification::CatClassifTypeToString(
GetCatType(VERT_VAR));
}
vert_label << " vert cat var: ";
vert_label << GetNameWithTime(VERT_VAR);
vert_label << ", ";
}
vert_label << "dep. var: " << GetNameWithTime(DEP_VAR);
s = new GdaShapeText(vert_label, *GdaConst::small_font,
wxRealPoint(bg_xmin, bg_ymin+(bg_ymax-bg_ymin)/2.0), 90,
GdaShapeText::h_center, GdaShapeText::bottom, -(label_offset+18), 0);
background_shps.push_back(s);
int ht = var_info[HOR_VAR].time;
for (int col=0; col<horiz_num_cats-1; col++) {
double b;
if (cat_classif_def_horiz.cat_classif_type!= CatClassification::custom){
if (!horiz_cat_data.HasBreakVal(ht, col)) continue;
b = horiz_cat_data.GetBreakVal(ht, col);
} else {
b = cat_classif_def_horiz.breaks[col];
}
wxString t(GenUtils::DblToStr(b));
s = new GdaShapeText(t, *GdaConst::small_font, h_brk_ref[col], 0,
GdaShapeText::h_center, GdaShapeText::top, 0, label_offset);
background_shps.push_back(s);
}
wxString horiz_label;
if (GetCatType(HOR_VAR) != CatClassification::no_theme) {
if (GetCatType(HOR_VAR) == CatClassification::custom) {
horiz_label << cat_classif_def_horiz.title;
} else {
horiz_label << CatClassification::CatClassifTypeToString(
GetCatType(HOR_VAR));
}
horiz_label << " horiz cat var: ";
horiz_label << GetNameWithTime(HOR_VAR);
horiz_label << ", ";
}
horiz_label << "ind. var: " << GetNameWithTime(IND_VAR);
s = new GdaShapeText(horiz_label, *GdaConst::small_font,
wxRealPoint(bg_xmin+(bg_xmax-bg_xmin)/2.0, bg_ymin), 0,
GdaShapeText::h_center, GdaShapeText::top, 0, (label_offset+18));
background_shps.push_back(s);
GdaScaleTrans::calcAffineParams(marg_left, marg_bottom,
scn_w-marg_right,
scn_h-marg_top,
marg_top, marg_bottom,
marg_left, marg_right,
vs_w, vs_h,
fixed_aspect_ratio_mode,
fit_to_window_mode,
&last_scale_trans.scale_x,
&last_scale_trans.scale_y,
&last_scale_trans.trans_x,
&last_scale_trans.trans_y,
0, 0, &image_width, &image_height);
last_scale_trans.max_scale =
GenUtils::max<double>(last_scale_trans.scale_x,
last_scale_trans.scale_y);
BOOST_FOREACH( GdaShape* ms, background_shps ) {
ms->applyScaleTrans(last_scale_trans);
}
void ConditionalHistogramCanvas::ResizeSelectableShps(int virtual_scrn_w,
int virtual_scrn_h)
{
// NOTE: we do not support both fixed_aspect_ratio_mode
// and fit_to_window_mode being false currently.
//LOG_MSG("Entering ConditionalHistogramCanvas::ResizeSelectableShps");
int vs_w=virtual_scrn_w, vs_h=virtual_scrn_h;
if (vs_w <= 0 && vs_h <= 0) GetVirtualSize(&vs_w, &vs_h);
double image_width, image_height;
bool ftwm = GetFitToWindowMode();
// last_scale_trans is only used in calls made to ApplyLastResizeToShp
// which are made in ScaterNewPlotView
GdaScaleTrans **st;
st = new GdaScaleTrans*[vert_num_cats];
for (int i=0; i<vert_num_cats; i++) {
st[i] = new GdaScaleTrans[horiz_num_cats];
}
// Total width height: vs_w vs_h
// Working area margins: virtual_screen_marg_top,
// virtual_screen_marg_bottom,
// virtual_screen_marg_left,
// virtual_screen_marg_right
// We need to increase these as needed for each tile area
double scn_w = vs_w;
double scn_h = vs_h;
double min_pad = 10;
if (show_axes) {
min_pad += 38;
}
// pixels between columns/rows
double fac = 0.01;
//if (vert_num_cats >= 4 || horiz_num_cats >=4) fac = 0.05;
double pad_w = scn_w * fac;
double pad_h = scn_h * fac;
if (pad_w < 1) pad_w = 0;
if (pad_h < 1) pad_h = 0;
double pad_bump = GenUtils::min<double>(pad_w, pad_h);
double pad = min_pad + pad_bump;
double marg_top = virtual_screen_marg_top;
double marg_bottom = virtual_screen_marg_bottom;
double marg_left = virtual_screen_marg_left;
double marg_right = virtual_screen_marg_right;
double d_rows = vert_num_cats;
double d_cols = horiz_num_cats;
double tot_width = scn_w - ((d_cols-1)*pad + marg_left + marg_right);
double tot_height = scn_h - ((d_rows-1)*pad + marg_top + marg_bottom);
double del_width = tot_width / d_cols;
double del_height = tot_height / d_rows;
bin_extents.resize(boost::extents[vert_num_cats][horiz_num_cats]);
for (int row=0; row<vert_num_cats; row++) {
double drow = row;
for (int col=0; col<horiz_num_cats; col++) {
double dcol = col;
double ml = marg_left + col*(pad+del_width);
double mr = marg_right + ((d_cols-1)-col)*(pad+del_width);
double mt = marg_top + row*(pad+del_height);
double mb = marg_bottom + ((d_rows-1)-row)*(pad+del_height);
double s_x, s_y, t_x, t_y;
GdaScaleTrans::calcAffineParams(shps_orig_xmin, shps_orig_ymin,
shps_orig_xmax, shps_orig_ymax,
mt, mb, ml, mr,
vs_w, vs_h, fixed_aspect_ratio_mode,
ftwm,
&s_x, &s_y, &t_x, &t_y,
ftwm ? 0 : current_shps_width,
ftwm ? 0 : current_shps_height,
&image_width, &image_height);
st[(vert_num_cats-1)-row][col].scale_x = s_x;
st[(vert_num_cats-1)-row][col].scale_y = s_y;
st[(vert_num_cats-1)-row][col].trans_x = t_x;
st[(vert_num_cats-1)-row][col].trans_y = t_y;
st[(vert_num_cats-1)-row][col].max_scale =
GenUtils::max<double>(s_x, s_y);
wxRealPoint ll(shps_orig_xmin, shps_orig_ymin);
wxRealPoint ur(shps_orig_xmax, shps_orig_ymax);
bin_extents[(vert_num_cats-1)-row][col] = GdaRectangle(ll, ur);
bin_extents[(vert_num_cats-1)-row][col].applyScaleTrans(
st[(vert_num_cats-1)-row][col]);
}
}
int i=0;
for (int r=0; r<vert_num_cats; r++) {
for (int c=0; c<horiz_num_cats; c++) {
for (int ival=0; ival<cur_intervals; ival++) {
selectable_shps[i]->applyScaleTrans(st[r][c]);
i++;
}
}
}
BOOST_FOREACH( GdaShape* shp, background_shps ) { delete shp; }
background_shps.clear();
GdaShape* s;
if (show_axes) {
for (int r=0; r<vert_num_cats; r++) {
for (int c=0; c<horiz_num_cats; c++) {
s = new GdaAxis(*x_axis);
s->applyScaleTrans(st[r][c]);
background_shps.push_front(s);
s = new GdaAxis(*y_axis);
s->applyScaleTrans(st[r][c]);
background_shps.push_front(s);
}
}
}
double bg_xmin = marg_left;
double bg_xmax = scn_w-marg_right;
double bg_ymin = marg_bottom;
double bg_ymax = scn_h-marg_top;
std::vector<wxRealPoint> v_brk_ref(vert_num_cats-1);
std::vector<wxRealPoint> h_brk_ref(horiz_num_cats-1);
for (int row=0; row<vert_num_cats-1; row++) {
double y = (bin_extents[row][0].lower_left.y +
bin_extents[row+1][0].upper_right.y)/2.0;
v_brk_ref[row].x = bg_xmin;
v_brk_ref[row].y = scn_h-y;
}
for (int col=0; col<horiz_num_cats-1; col++) {
double x = (bin_extents[0][col].upper_right.x +
bin_extents[0][col+1].lower_left.x)/2.0;
h_brk_ref[col].x = x;
h_brk_ref[col].y = bg_ymin;
}
int bg_shp_cnt = 0;
int label_offset = 25;
if (show_axes) label_offset += 25;
int vt = var_info[VERT_VAR].time;
for (int row=0; row<vert_num_cats-1; row++) {
double b;
if (cat_classif_def_vert.cat_classif_type != CatClassification::custom){
if (!vert_cat_data.HasBreakVal(vt, row)) continue;
b = vert_cat_data.GetBreakVal(vt, row);
} else {
b = cat_classif_def_vert.breaks[row];
}
wxString t(GenUtils::DblToStr(b));
s = new GdaShapeText(t, *GdaConst::small_font, v_brk_ref[row], 90,
GdaShapeText::h_center, GdaShapeText::bottom, -label_offset, 0);
background_shps.push_front(s);
bg_shp_cnt++;
}
if (GetCatType(VERT_VAR) != CatClassification::no_theme) {
wxString vert_label;
if (GetCatType(VERT_VAR) == CatClassification::custom) {
vert_label << cat_classif_def_vert.title;
} else {
vert_label << CatClassification::CatClassifTypeToString(
GetCatType(VERT_VAR));
}
vert_label << " vert cat var: ";
vert_label << GetNameWithTime(VERT_VAR);
s = new GdaShapeText(vert_label, *GdaConst::small_font,
wxRealPoint(bg_xmin, bg_ymin+(bg_ymax-bg_ymin)/2.0), 90,
GdaShapeText::h_center, GdaShapeText::bottom, -(label_offset+15), 0);
background_shps.push_front(s);
bg_shp_cnt++;
}
int ht = var_info[HOR_VAR].time;
for (int col=0; col<horiz_num_cats-1; col++) {
double b;
if (cat_classif_def_horiz.cat_classif_type!= CatClassification::custom){
if (!horiz_cat_data.HasBreakVal(ht, col)) continue;
b = horiz_cat_data.GetBreakVal(ht, col);
} else {
b = cat_classif_def_horiz.breaks[col];
}
wxString t(GenUtils::DblToStr(b));
s = new GdaShapeText(t, *GdaConst::small_font, h_brk_ref[col], 0,
GdaShapeText::h_center, GdaShapeText::top, 0, label_offset);
background_shps.push_front(s);
bg_shp_cnt++;
}
if (GetCatType(HOR_VAR) != CatClassification::no_theme) {
wxString horiz_label;
if (GetCatType(HOR_VAR) == CatClassification::custom) {
horiz_label << cat_classif_def_horiz.title;
} else {
horiz_label << CatClassification::CatClassifTypeToString(
GetCatType(HOR_VAR));
}
horiz_label << " horiz cat var: ";
horiz_label << GetNameWithTime(HOR_VAR);
s = new GdaShapeText(horiz_label, *GdaConst::small_font,
wxRealPoint(bg_xmin+(bg_xmax-bg_xmin)/2.0, bg_ymin), 0,
GdaShapeText::h_center, GdaShapeText::top, 0, (label_offset+15));
background_shps.push_front(s);
bg_shp_cnt++;
}
GdaScaleTrans::calcAffineParams(marg_left, marg_bottom,
scn_w-marg_right,
scn_h-marg_top,
marg_top, marg_bottom,
marg_left, marg_right,
vs_w, vs_h,
fixed_aspect_ratio_mode,
fit_to_window_mode,
&last_scale_trans.scale_x,
&last_scale_trans.scale_y,
&last_scale_trans.trans_x,
&last_scale_trans.trans_y,
0, 0, &image_width, &image_height);
last_scale_trans.max_scale =
GenUtils::max<double>(last_scale_trans.scale_x,
last_scale_trans.scale_y);
int bg_shp_i = 0;
for (std::list<GdaShape*>::iterator it=background_shps.begin();
bg_shp_i < bg_shp_cnt && it != background_shps.end();
bg_shp_i++, it++) {
(*it)->applyScaleTrans(last_scale_trans);
}
layer0_valid = false;
Refresh();
for (int i=0; i<vert_num_cats; i++) delete [] st[i];
delete [] st;
//LOG_MSG("Exiting ConditionalHistogramCanvas::ResizeSelectableShps");
}
