void SelectWidget::update_model() {
bg.set_scheme(SunkenBoxSchemeRaisedBorders);
bg.update(this, 0, 0, width, height);
label_model = transform2d(padding_left, padding_top);
float icon_h = label.height();
float icon_w = icon_h;
float scale_x = ((float)icon_w) / ((float)arrow_icon_img->width);
float scale_y = ((float)icon_h) / ((float)arrow_icon_img->height);
arrow_icon_model = transform2d(width - padding_right - icon_w - icon_spacing, padding_top, scale_x, scale_y);
}
/**
* \brief RDO function to calculate cost for intra
* \returns cost to code pred block
** Only for luma
*/
uint32_t rdo_cost_intra(encoder_state * const encoder_state, pixel *pred, pixel *orig_block, int width, int8_t mode, int tr_depth)
{
const encoder_control * const encoder = encoder_state->encoder_control;
coefficient pre_quant_coeff[LCU_WIDTH*LCU_WIDTH>>2];
int16_t block[LCU_WIDTH*LCU_WIDTH>>2];
int16_t temp_block[LCU_WIDTH*LCU_WIDTH>>2];
coefficient temp_coeff[LCU_WIDTH*LCU_WIDTH>>2];
int8_t luma_scan_mode = SCAN_DIAG;
int i = 0,x,y;
for (y = 0; y < width; y++) {
for (x = 0; x < width; x++) {
block[i++] = orig_block[x + y*width]- pred[x + y*width];
}
}
// Scan mode is diagonal, except for 4x4 and 8x8, where:
// - angular 6-14 = vertical
// - angular 22-30 = horizontal
if (width <= 8) {
if (mode >= 6 && mode <= 14) {
luma_scan_mode = SCAN_VER;
} else if (mode >= 22 && mode <= 30) {
luma_scan_mode = SCAN_HOR;
}
}
transform2d(encoder, block,pre_quant_coeff,width,0);
if(encoder->rdoq_enable) {
rdoq(encoder_state, pre_quant_coeff, temp_coeff, width, width, 0, luma_scan_mode, CU_INTRA, tr_depth);
} else {
quant(encoder_state, pre_quant_coeff, temp_coeff, width, width, 0, luma_scan_mode, CU_INTRA);
}
dequant(encoder_state, temp_coeff, pre_quant_coeff, width, width, 0, CU_INTRA);
itransform2d(encoder, temp_block,pre_quant_coeff,width,0);
unsigned ssd = 0;
// SSD between original and reconstructed
for (i = 0; i < width*width; i++) {
//int diff = temp_block[i]-block[i];
int diff = orig_block[i] - CLIP(0, 255, pred[i] + temp_block[i]);
ssd += diff*diff;
}
double coeff_bits = 0;
// Simple RDO
if(encoder->rdo == 1) {
// SSD between reconstruction and original + sum of coeffs
int coeff_abs = 0;
for (i = 0; i < width*width; i++) {
coeff_abs += abs((int)temp_coeff[i]);
}
coeff_bits += 1 + 1.5 * coeff_abs;
// Full RDO
} else if(encoder->rdo >= 2) {
coeff_bits = get_coeff_cost(encoder_state, temp_coeff, width, 0, luma_scan_mode);
}
return (uint32_t)(0.5 + ssd + coeff_bits * encoder_state->global->cur_lambda_cost);
}
/**
* \brief RDO function to calculate cost for intra
* \returns cost to code pred block
** Only for luma
*/
uint32_t rdo_cost_intra(encoder_state * const encoder_state, pixel *pred, pixel *orig_block, int width, int8_t mode)
{
const encoder_control * const encoder = encoder_state->encoder_control;
coefficient pre_quant_coeff[LCU_WIDTH*LCU_WIDTH>>2];
int16_t block[LCU_WIDTH*LCU_WIDTH>>2];
int16_t temp_block[LCU_WIDTH*LCU_WIDTH>>2];
coefficient temp_coeff[LCU_WIDTH*LCU_WIDTH>>2];
uint32_t ac_sum;
uint32_t cost = 0;
uint32_t coeffcost = 0;
int8_t luma_scan_mode = SCAN_DIAG;
int i = 0,x,y;
for (y = 0; y < width; y++) {
for (x = 0; x < width; x++) {
block[i++] = orig_block[x + y*width]- pred[x + y*width];
}
}
// Scan mode is diagonal, except for 4x4 and 8x8, where:
// - angular 6-14 = vertical
// - angular 22-30 = horizontal
if (width <= 8) {
if (mode >= 6 && mode <= 14) {
luma_scan_mode = SCAN_VER;
} else if (mode >= 22 && mode <= 30) {
luma_scan_mode = SCAN_HOR;
}
}
transform2d(encoder, block,pre_quant_coeff,width,0);
if(encoder->rdoq_enable) {
rdoq(encoder_state, pre_quant_coeff, temp_coeff, width, width, &ac_sum, 0, luma_scan_mode, CU_INTRA,0);
} else {
quant(encoder_state, pre_quant_coeff, temp_coeff, width, width, &ac_sum, 0, luma_scan_mode, CU_INTRA);
}
dequant(encoder_state, temp_coeff, pre_quant_coeff, width, width, 0, CU_INTRA);
itransform2d(encoder, temp_block,pre_quant_coeff,width,0);
// SSD between original and reconstructed
for (i = 0; i < width*width; i++) {
int diff = temp_block[i]-block[i];
cost += diff*diff;
}
// Simple RDO
if(encoder->rdo == 1) {
// SSD between reconstruction and original + sum of coeffs
for (i = 0; i < width*width; i++) {
coeffcost += abs((int)temp_coeff[i]);
}
cost += (1 + coeffcost + (coeffcost>>1))*((int)encoder_state->global->cur_lambda_cost+0.5);
// Full RDO
} else if(encoder->rdo == 2) {
void TabWidget::update_model() {
show_tab_bar = !auto_hide || tabs.length() >= 2;
if (show_tab_bar) {
widget_top = padding_top + tab_height;
} else {
widget_top = padding_top;
}
tab_bg_model = transform2d(0, 0, width, height);
tab_bottom_line_model = transform2d(0, widget_top - 1, width, 1);
int next_left = padding_left;
for (int i = 0; i < tabs.length(); i += 1) {
TabWidgetTab *tab = tabs.at(i);
tab->index = i;
tab->is_current = (i == current_index);
tab->left = next_left;
tab->right = tab->left + title_padding_left + tab->label->width() + title_padding_right;
next_left = tab->right + tab_spacing;
int tab_top = padding_top;
tab->label_model = transform2d(
tab->left + title_padding_left, tab_top + tab_height / 2 - tab->label->height() / 2);
tab->left_line_model = transform2d(tab->left, tab_top, 1, tab_height);
tab->right_line_model = transform2d(tab->right - 1, tab_top, 1, tab_height);
tab->top_line_model = transform2d(tab->left, tab_top, tab->right - tab->left, 1);
int extra_height = tab->is_current ? 0 : -1;
tab->bg.update(this, tab->left, tab_top, tab->right - tab->left, tab_height + extra_height);
tab->bg.set_scheme(tab->is_current ? SunkenBoxSchemeRaised : SunkenBoxSchemeInactive);
}
if (tabs.length() == 0) {
current_tab = nullptr;
} else {
current_tab = tabs.at(current_index);
current_tab->widget->left = left;
current_tab->widget->top = top + widget_top;
current_tab->widget->width = width;
current_tab->widget->height = height - widget_top;
current_tab->widget->on_resize();
}
}
