virtual void on_draw()
{
pixfmt pixf(rbuf_window());
renderer_base rb(pixf);
renderer_solid r(rb);
rb.clear(agg::rgba(1, 1, 1));
g_rasterizer.clip_box(0, 0, width(), height());
if(m_trans_type.cur_item() == 0)
{
agg::trans_bilinear tr(g_x1, g_y1, g_x2, g_y2, m_quad.polygon());
if(tr.is_valid())
{
//--------------------------
// Render transformed lion
//
agg::conv_transform<agg::path_storage,
agg::trans_bilinear> trans(g_path, tr);
agg::render_all_paths(g_rasterizer, g_scanline, r, trans, g_colors, g_path_idx, g_npaths);
//--------------------------
//--------------------------
// Render transformed ellipse
//
agg::ellipse ell((g_x1 + g_x2) * 0.5, (g_y1 + g_y2) * 0.5,
(g_x2 - g_x1) * 0.5, (g_y2 - g_y1) * 0.5,
200);
agg::conv_stroke<agg::ellipse> ell_stroke(ell);
ell_stroke.width(3.0);
agg::conv_transform<agg::ellipse,
agg::trans_bilinear> trans_ell(ell, tr);
agg::conv_transform<agg::conv_stroke<agg::ellipse>,
agg::trans_bilinear> trans_ell_stroke(ell_stroke, tr);
g_rasterizer.add_path(trans_ell);
r.color(agg::rgba(0.5, 0.3, 0.0, 0.3));
agg::render_scanlines(g_rasterizer, g_scanline, r);
g_rasterizer.add_path(trans_ell_stroke);
r.color(agg::rgba(0.0, 0.3, 0.2, 1.0));
agg::render_scanlines(g_rasterizer, g_scanline, r);
//--------------------------
}
}
else
{
agg::trans_perspective tr(g_x1, g_y1, g_x2, g_y2, m_quad.polygon());
if(tr.is_valid())
{
//--------------------------
// Render transformed lion
//
agg::conv_transform<agg::path_storage,
agg::trans_perspective> trans(g_path, tr);
agg::render_all_paths(g_rasterizer, g_scanline, r, trans, g_colors, g_path_idx, g_npaths);
//--------------------------
//--------------------------
// Render transformed ellipse
//
agg::ellipse ell((g_x1 + g_x2) * 0.5, (g_y1 + g_y2) * 0.5,
(g_x2 - g_x1) * 0.5, (g_y2 - g_y1) * 0.5,
200);
agg::conv_stroke<agg::ellipse> ell_stroke(ell);
ell_stroke.width(3.0);
agg::conv_transform<agg::ellipse,
agg::trans_perspective> trans_ell(ell, tr);
agg::conv_transform<agg::conv_stroke<agg::ellipse>,
agg::trans_perspective> trans_ell_stroke(ell_stroke, tr);
g_rasterizer.add_path(trans_ell);
r.color(agg::rgba(0.5, 0.3, 0.0, 0.3));
agg::render_scanlines(g_rasterizer, g_scanline, r);
g_rasterizer.add_path(trans_ell_stroke);
r.color(agg::rgba(0.0, 0.3, 0.2, 1.0));
agg::render_scanlines(g_rasterizer, g_scanline, r);
//--------------------------
// Testing the reverse transformations
//agg::trans_perspective tr2(m_quad.polygon(), g_x1, g_y1, g_x2, g_y2);
//if(tr2.is_valid())
//{
// double x, y;
// x = m_quad.xn(0); y = m_quad.yn(0); tr2.transform(&x, &y);
// g_rasterizer.move_to_d(x, y);
// x = m_quad.xn(1); y = m_quad.yn(1); tr2.transform(&x, &y);
// g_rasterizer.line_to_d(x, y);
// x = m_quad.xn(2); y = m_quad.yn(2); tr2.transform(&x, &y);
// g_rasterizer.line_to_d(x, y);
// x = m_quad.xn(3); y = m_quad.yn(3); tr2.transform(&x, &y);
// g_rasterizer.line_to_d(x, y);
// r.color(agg::rgba(0.5, 0.0, 0.0, 0.5));
// agg::render_scanlines(g_rasterizer, g_scanline, r);
//}
//else
//{
// message("Singularity...");
//}
}
}
//--------------------------
// Render the "quad" tool and controls
g_rasterizer.add_path(m_quad);
r.color(agg::rgba(0, 0.3, 0.5, 0.6));
agg::render_scanlines(g_rasterizer, g_scanline, r);
agg::render_ctrl(g_rasterizer, g_scanline, rb, m_trans_type);
//--------------------------
}
virtual void on_draw()
{
pixfmt pixf(rbuf_window());
pixfmt_pre pixf_pre(rbuf_window());
renderer_base rb(pixf);
renderer_base_pre rb_pre(pixf_pre);
if(!m_test_flag)
{
rb.clear(agg::rgba(1, 1, 1));
}
if(m_trans_type.cur_item() == 0)
{
// For the affine parallelogram transformations we
// calculate the 4-th (implicit) point of the parallelogram
m_quad.xn(3) = m_quad.xn(0) + (m_quad.xn(2) - m_quad.xn(1));
m_quad.yn(3) = m_quad.yn(0) + (m_quad.yn(2) - m_quad.yn(1));
}
if(!m_test_flag)
{
//--------------------------
// Render the "quad" tool and controls
g_rasterizer.add_path(m_quad);
agg::render_scanlines_aa_solid(g_rasterizer, g_scanline, rb, agg::rgba(0, 0.3, 0.5, 0.6));
//--------------------------
agg::render_ctrl(g_rasterizer, g_scanline, rb, m_trans_type);
}
// Prepare the polygon to rasterize. Here we need to fill
// the destination (transformed) polygon.
g_rasterizer.clip_box(0, 0, width(), height());
g_rasterizer.reset();
g_rasterizer.move_to_d(m_quad.xn(0), m_quad.yn(0));
g_rasterizer.line_to_d(m_quad.xn(1), m_quad.yn(1));
g_rasterizer.line_to_d(m_quad.xn(2), m_quad.yn(2));
g_rasterizer.line_to_d(m_quad.xn(3), m_quad.yn(3));
typedef agg::span_allocator<color_type> span_alloc_type;
span_alloc_type sa;
agg::image_filter<agg::image_filter_hanning> filter;
typedef agg::wrap_mode_reflect_auto_pow2 remainder_type;
typedef agg::image_accessor_wrap<pixfmt,
remainder_type,
remainder_type> img_source_type;
pixfmt img_pixf(rbuf_img(0));
img_source_type img_src(img_pixf);
enum subdiv_shift_e { subdiv_shift = 2 };
switch(m_trans_type.cur_item())
{
case 0:
{
// Note that we consruct an affine matrix that transforms
// a parallelogram to a rectangle, i.e., it's inverted.
// It's actually the same as:
// tr(g_x1, g_y1, g_x2, g_y2, m_triangle.polygon());
// tr.invert();
agg::trans_affine tr(m_quad.polygon(), g_x1, g_y1, g_x2, g_y2);
// Also note that we can use the linear interpolator instead of
// arbitrary span_interpolator_trans. It works much faster,
// but the transformations must be linear and parellel.
typedef agg::span_interpolator_linear<agg::trans_affine> interpolator_type;
interpolator_type interpolator(tr);
typedef span_image_filter_2x2<img_source_type,
interpolator_type> span_gen_type;
span_gen_type sg(img_src, interpolator, filter);
agg::render_scanlines_aa(g_rasterizer, g_scanline, rb_pre, sa, sg);
break;
}
case 1:
{
agg::trans_bilinear tr(m_quad.polygon(), g_x1, g_y1, g_x2, g_y2);
if(tr.is_valid())
{
typedef agg::span_interpolator_linear<agg::trans_bilinear> interpolator_type;
interpolator_type interpolator(tr);
typedef span_image_filter_2x2<img_source_type,
interpolator_type> span_gen_type;
span_gen_type sg(img_src, interpolator, filter);
agg::render_scanlines_aa(g_rasterizer, g_scanline, rb_pre, sa, sg);
}
break;
}
case 2:
{
agg::trans_perspective tr(m_quad.polygon(), g_x1, g_y1, g_x2, g_y2);
if(tr.is_valid())
{
typedef agg::span_interpolator_linear_subdiv<agg::trans_perspective, 8> interpolator_type;
interpolator_type interpolator(tr);
typedef span_image_filter_2x2<img_source_type,
interpolator_type> span_gen_type;
span_gen_type sg(img_src, interpolator, filter);
agg::render_scanlines_aa(g_rasterizer, g_scanline, rb_pre, sa, sg);
}
break;
}
}
}
void roadmap_canvas_agg_configure (unsigned char *buf, int width, int height, int stride) {
roadmap_log( ROADMAP_ERROR, "roadmap_canvas_agg_configure, height =%d width=%d",height, width);
agg_rbuf.attach(buf, width, height, stride);
agg_renb.attach(agg_pixf);
agg_renb.reset_clipping(true);
ras.clip_box(0, 0, agg_renb.width() - 1, agg_renb.height() - 1);
agg::glyph_rendering gren = agg::glyph_ren_outline;
agg::glyph_rendering image_gren = agg::glyph_ren_agg_gray8;
roadmap_config_declare
("preferences", &RoadMapConfigFont, "font.ttf", NULL);
roadmap_config_declare
("preferences", &RoadMapConfigFontNormal, "font_normal.ttf", NULL);
char *font_file = roadmap_path_join(roadmap_path_user(),
roadmap_config_get (&RoadMapConfigFont));
if ((width) && (height))
roadmap_screen_set_screen_type( width, height );
if (!RoadMapCanvasFontLoaded) {
if(m_feng.load_font(font_file, 0, gren) &&
m_image_feng.load_font(font_file, 0, image_gren)) {
m_feng.hinting(true);
if ( roadmap_screen_is_hd_screen() )
{
m_feng.height(22);
m_feng.width(22);
}
else
{
#ifdef _WIN32
m_feng.height(12);
m_feng.width(12);
#else
m_feng.height(15);
m_feng.width(15);
#endif
}
m_feng.flip_y(true);
m_image_feng.hinting(true);
m_image_feng.flip_y(true);
RoadMapCanvasFontLoaded = 1;
} else {
RoadMapCanvasFontLoaded = -1;
char message[300];
snprintf(message, sizeof(message), "Can't load font: %s\n", font_file);
roadmap_messagebox("Error", message);
}
}
RoadMapCanvasFontLoaded = 1;
roadmap_path_free(font_file);
font_file = roadmap_path_join(roadmap_path_user(),
roadmap_config_get (&RoadMapConfigFontNormal));
if(m_feng_nor.load_font(font_file, 0, gren) &&
m_image_feng_nor.load_font(font_file, 0, image_gren)) {
m_feng_nor.hinting(true);
if ( roadmap_screen_is_hd_screen() )
{
m_feng_nor.height(22);
m_feng_nor.width(22);
}
else
{
#ifdef _WIN32
m_feng_nor.height(12);
m_feng_nor.width(12);
#else
m_feng_nor.height(15);
m_feng_nor.width(15);
#endif
}
m_feng_nor.flip_y(true);
m_image_feng_nor.hinting(true);
m_image_feng_nor.flip_y(true);
RoadMapCanvasNormalFontLoaded = 1;
}
}
virtual void on_draw()
{
if(m_gamma.value() != m_old_gamma)
{
m_gamma_lut.gamma(m_gamma.value());
load_img(0, "spheres");
pixfmt pixf(rbuf_img(0));
pixf.apply_gamma_dir(m_gamma_lut);
m_old_gamma = m_gamma.value();
}
pixfmt pixf(rbuf_window());
pixfmt_pre pixf_pre(rbuf_window());
renderer_base rb(pixf);
renderer_base_pre rb_pre(pixf_pre);
renderer_solid r(rb);
rb.clear(agg::rgba(1, 1, 1));
if(m_trans_type.cur_item() < 2)
{
// For the affine parallelogram transformations we
// calculate the 4-th (implicit) point of the parallelogram
m_quad.xn(3) = m_quad.xn(0) + (m_quad.xn(2) - m_quad.xn(1));
m_quad.yn(3) = m_quad.yn(0) + (m_quad.yn(2) - m_quad.yn(1));
}
//--------------------------
// Render the "quad" tool and controls
g_rasterizer.add_path(m_quad);
r.color(agg::rgba(0, 0.3, 0.5, 0.1));
agg::render_scanlines(g_rasterizer, g_scanline, r);
// Prepare the polygon to rasterize. Here we need to fill
// the destination (transformed) polygon.
g_rasterizer.clip_box(0, 0, width(), height());
g_rasterizer.reset();
int b = 0;
g_rasterizer.move_to_d(m_quad.xn(0)-b, m_quad.yn(0)-b);
g_rasterizer.line_to_d(m_quad.xn(1)+b, m_quad.yn(1)-b);
g_rasterizer.line_to_d(m_quad.xn(2)+b, m_quad.yn(2)+b);
g_rasterizer.line_to_d(m_quad.xn(3)-b, m_quad.yn(3)+b);
typedef agg::span_allocator<color_type> span_alloc_type;
span_alloc_type sa;
agg::image_filter_bilinear filter_kernel;
agg::image_filter_lut filter(filter_kernel, true);
pixfmt pixf_img(rbuf_img(0));
typedef agg::image_accessor_clone<pixfmt> source_type;
source_type source(pixf_img);
start_timer();
switch(m_trans_type.cur_item())
{
case 0:
{
agg::trans_affine tr(m_quad.polygon(), g_x1, g_y1, g_x2, g_y2);
typedef agg::span_interpolator_linear<agg::trans_affine> interpolator_type;
interpolator_type interpolator(tr);
typedef image_filter_2x2_type<source_type,
interpolator_type> span_gen_type;
span_gen_type sg(source, interpolator, filter);
agg::render_scanlines_aa(g_rasterizer, g_scanline, rb_pre, sa, sg);
break;
}
case 1:
{
agg::trans_affine tr(m_quad.polygon(), g_x1, g_y1, g_x2, g_y2);
typedef agg::span_interpolator_linear<agg::trans_affine> interpolator_type;
typedef image_resample_affine_type<source_type> span_gen_type;
interpolator_type interpolator(tr);
span_gen_type sg(source, interpolator, filter);
sg.blur(m_blur.value());
agg::render_scanlines_aa(g_rasterizer, g_scanline, rb_pre, sa, sg);
break;
}
case 2:
{
agg::trans_perspective tr(m_quad.polygon(), g_x1, g_y1, g_x2, g_y2);
if(tr.is_valid())
{
typedef agg::span_interpolator_linear_subdiv<agg::trans_perspective> interpolator_type;
interpolator_type interpolator(tr);
typedef image_filter_2x2_type<source_type,
interpolator_type> span_gen_type;
span_gen_type sg(source, interpolator, filter);
agg::render_scanlines_aa(g_rasterizer, g_scanline, rb_pre, sa, sg);
}
break;
}
case 3:
{
agg::trans_perspective tr(m_quad.polygon(), g_x1, g_y1, g_x2, g_y2);
if(tr.is_valid())
{
typedef agg::span_interpolator_trans<agg::trans_perspective> interpolator_type;
interpolator_type interpolator(tr);
typedef image_filter_2x2_type<source_type,
interpolator_type> span_gen_type;
span_gen_type sg(source, interpolator, filter);
agg::render_scanlines_aa(g_rasterizer, g_scanline, rb_pre, sa, sg);
}
break;
}
case 4:
{
typedef agg::span_interpolator_persp_lerp<> interpolator_type;
typedef agg::span_subdiv_adaptor<interpolator_type> subdiv_adaptor_type;
interpolator_type interpolator(m_quad.polygon(), g_x1, g_y1, g_x2, g_y2);
subdiv_adaptor_type subdiv_adaptor(interpolator);
if(interpolator.is_valid())
{
typedef image_resample_type<source_type,
subdiv_adaptor_type> span_gen_type;
span_gen_type sg(source, subdiv_adaptor, filter);
sg.blur(m_blur.value());
agg::render_scanlines_aa(g_rasterizer, g_scanline, rb_pre, sa, sg);
}
break;
}
case 5:
{
typedef agg::span_interpolator_persp_exact<> interpolator_type;
typedef agg::span_subdiv_adaptor<interpolator_type> subdiv_adaptor_type;
interpolator_type interpolator(m_quad.polygon(), g_x1, g_y1, g_x2, g_y2);
subdiv_adaptor_type subdiv_adaptor(interpolator);
if(interpolator.is_valid())
{
typedef image_resample_type<source_type,
subdiv_adaptor_type> span_gen_type;
span_gen_type sg(source, subdiv_adaptor, filter);
sg.blur(m_blur.value());
agg::render_scanlines_aa(g_rasterizer, g_scanline, rb_pre, sa, sg);
}
break;
}
}
double tm = elapsed_time();
pixf.apply_gamma_inv(m_gamma_lut);
char buf[64];
agg::gsv_text t;
t.size(10.0);
agg::conv_stroke<agg::gsv_text> pt(t);
pt.width(1.5);
sprintf(buf, "%3.2f ms", tm);
t.start_point(10.0, 70.0);
t.text(buf);
g_rasterizer.add_path(pt);
r.color(agg::rgba(0,0,0));
agg::render_scanlines(g_rasterizer, g_scanline, r);
//--------------------------
agg::render_ctrl(g_rasterizer, g_scanline, rb, m_trans_type);
agg::render_ctrl(g_rasterizer, g_scanline, rb, m_gamma);
agg::render_ctrl(g_rasterizer, g_scanline, rb, m_blur);
}
virtual void on_draw()
{
typedef agg::pixfmt_gray8 pixfmt_gray8;
typedef agg::renderer_base<pixfmt_gray8> ren_base_gray8;
m_ras.clip_box(0,0, width(), height());
pixfmt_gray8 pixf_gray8(m_gray8_rbuf);
ren_base_gray8 renb_gray8(pixf_gray8);
renb_gray8.clear(agg::gray8(0));
// Testing enhanced compositing operations.
// Uncomment and replace renb.blend_from_* to renb_blend.blend_from_*
//----------------
//typedef agg::comp_op_rgba_minus<color_type, component_order> blender_type;
//typedef agg::comp_adaptor_rgba<blender_type> blend_adaptor_type;
//typedef agg::pixfmt_custom_blend_rgba<blend_adaptor_type, agg::rendering_buffer> pixfmt_type;
//typedef agg::renderer_base<pixfmt_type> ren_base;
//pixfmt_type pixf_blend(rbuf_window());
//agg::renderer_base<pixfmt_type> renb_blend(pixf_blend);
pixfmt pixf(rbuf_window());
agg::renderer_base<pixfmt> renb(pixf);
renb.clear(agg::rgba(1, 0.95, 0.95));
agg::trans_perspective shadow_persp(m_shape_bounds.x1, m_shape_bounds.y1,
m_shape_bounds.x2, m_shape_bounds.y2,
m_shadow_ctrl.polygon());
agg::conv_transform<shape_type,
agg::trans_perspective> shadow_trans(m_shape,
shadow_persp);
start_timer();
// Render shadow
m_ras.add_path(shadow_trans);
agg::render_scanlines_aa_solid(m_ras, m_sl, renb_gray8, agg::gray8(255));
// Calculate the bounding box and extend it by the blur radius
agg::rect_d bbox;
agg::bounding_rect_single(shadow_trans, 0, &bbox.x1, &bbox.y1, &bbox.x2, &bbox.y2);
bbox.x1 -= m_radius.value();
bbox.y1 -= m_radius.value();
bbox.x2 += m_radius.value();
bbox.y2 += m_radius.value();
if(bbox.clip(agg::rect_d(0, 0, width(), height())))
{
// Create a new pixel renderer and attach it to the main one as a child image.
// It returns true if the attachment suceeded. It fails if the rectangle
// (bbox) is fully clipped.
//------------------
pixfmt_gray8 pixf2(m_gray8_rbuf2);
if(pixf2.attach(pixf_gray8, int(bbox.x1), int(bbox.y1), int(bbox.x2), int(bbox.y2)))
{
// Blur it
agg::stack_blur_gray8(pixf2, agg::uround(m_radius.value()),
agg::uround(m_radius.value()));
}
if(m_method.cur_item() == 0)
{
renb.blend_from_color(pixf2,
agg::rgba8(0, 100, 0),
0,
int(bbox.x1),
int(bbox.y1));
}
else
{
renb.blend_from_lut(pixf2,
m_color_lut.data(),
0,
int(bbox.x1),
int(bbox.y1));
}
}
double tm = elapsed_time();
char buf[64];
agg::gsv_text t;
t.size(10.0);
agg::conv_stroke<agg::gsv_text> st(t);
st.width(1.5);
sprintf(buf, "%3.2f ms", tm);
t.start_point(140.0, 30.0);
t.text(buf);
m_ras.add_path(st);
agg::render_scanlines_aa_solid(m_ras, m_sl, renb, agg::rgba(0,0,0));
agg::render_ctrl(m_ras, m_sl, renb, m_method);
agg::render_ctrl(m_ras, m_sl, renb, m_radius);
agg::render_ctrl(m_ras, m_sl, renb, m_shadow_ctrl);
}
virtual void on_draw()
{
typedef agg::renderer_base<agg::pixfmt_bgr24> ren_base;
agg::pixfmt_bgr24 pixf(rbuf_window());
ren_base renb(pixf);
renb.clear(agg::rgba(1, 1, 1));
m_ras.clip_box(0,0, width(), height());
agg::trans_perspective shadow_persp(m_shape_bounds.x1, m_shape_bounds.y1,
m_shape_bounds.x2, m_shape_bounds.y2,
m_shadow_ctrl.polygon());
agg::conv_transform<shape_type,
agg::trans_perspective> shadow_trans(m_shape,
shadow_persp);
// Render shadow
m_ras.add_path(shadow_trans);
agg::render_scanlines_aa_solid(m_ras, m_sl, renb, agg::rgba(0.2,0.3,0));
// Calculate the bounding box and extend it by the blur radius
agg::rect_d bbox;
agg::bounding_rect_single(shadow_trans, 0, &bbox.x1, &bbox.y1, &bbox.x2, &bbox.y2);
bbox.x1 -= m_radius.value();
bbox.y1 -= m_radius.value();
bbox.x2 += m_radius.value();
bbox.y2 += m_radius.value();
if(m_method.cur_item() == 1)
{
// The recursive blur method represents the true Gussian Blur,
// with theoretically infinite kernel. The restricted window size
// results in extra influence of edge pixels. It's impossible to
// solve correctly, but extending the right and top areas to another
// radius value produces fair result.
//------------------
bbox.x2 += m_radius.value();
bbox.y2 += m_radius.value();
}
start_timer();
if(m_method.cur_item() != 2)
{
// Create a new pixel renderer and attach it to the main one as a child image.
// It returns true if the attachment suceeded. It fails if the rectangle
// (bbox) is fully clipped.
//------------------
agg::pixfmt_bgr24 pixf2(m_rbuf2);
if(pixf2.attach(pixf, int(bbox.x1), int(bbox.y1), int(bbox.x2), int(bbox.y2)))
{
// Blur it
if(m_method.cur_item() == 0)
{
// More general method, but 30-40% slower.
//------------------
//m_stack_blur.blur(pixf2, agg::uround(m_radius.value()));
// Faster, but bore specific.
// Works only for 8 bits per channel and only with radii <= 254.
//------------------
agg::stack_blur_rgb24(pixf2, agg::uround(m_radius.value()),
agg::uround(m_radius.value()));
}
else
{
// True Gaussian Blur, 3-5 times slower than Stack Blur,
// but still constant time of radius. Very sensitive
// to precision, doubles are must here.
//------------------
m_recursive_blur.blur(pixf2, m_radius.value());
}
}
}
else
{
// Blur separate channels
//------------------
if(m_channel_r.status())
{
typedef agg::pixfmt_alpha_blend_gray<
agg::blender_gray8,
agg::rendering_buffer,
3, 2> pixfmt_gray8r;
pixfmt_gray8r pixf2r(m_rbuf2);
if(pixf2r.attach(pixf, int(bbox.x1), int(bbox.y1), int(bbox.x2), int(bbox.y2)))
{
agg::stack_blur_gray8(pixf2r, agg::uround(m_radius.value()),
agg::uround(m_radius.value()));
}
}
if(m_channel_g.status())
{
typedef agg::pixfmt_alpha_blend_gray<
agg::blender_gray8,
agg::rendering_buffer,
3, 1> pixfmt_gray8g;
pixfmt_gray8g pixf2g(m_rbuf2);
if(pixf2g.attach(pixf, int(bbox.x1), int(bbox.y1), int(bbox.x2), int(bbox.y2)))
{
agg::stack_blur_gray8(pixf2g, agg::uround(m_radius.value()),
agg::uround(m_radius.value()));
}
}
if(m_channel_b.status())
{
typedef agg::pixfmt_alpha_blend_gray<
agg::blender_gray8,
agg::rendering_buffer,
3, 0> pixfmt_gray8b;
pixfmt_gray8b pixf2b(m_rbuf2);
if(pixf2b.attach(pixf, int(bbox.x1), int(bbox.y1), int(bbox.x2), int(bbox.y2)))
{
agg::stack_blur_gray8(pixf2b, agg::uround(m_radius.value()),
agg::uround(m_radius.value()));
}
}
}
double tm = elapsed_time();
agg::render_ctrl(m_ras, m_sl, renb, m_shadow_ctrl);
// Render the shape itself
//------------------
m_ras.add_path(m_shape);
agg::render_scanlines_aa_solid(m_ras, m_sl, renb, agg::rgba(0.6,0.9,0.7, 0.8));
char buf[64];
agg::gsv_text t;
t.size(10.0);
agg::conv_stroke<agg::gsv_text> st(t);
st.width(1.5);
sprintf(buf, "%3.2f ms", tm);
t.start_point(140.0, 30.0);
t.text(buf);
m_ras.add_path(st);
agg::render_scanlines_aa_solid(m_ras, m_sl, renb, agg::rgba(0,0,0));
agg::render_ctrl(m_ras, m_sl, renb, m_method);
agg::render_ctrl(m_ras, m_sl, renb, m_radius);
agg::render_ctrl(m_ras, m_sl, renb, m_channel_r);
agg::render_ctrl(m_ras, m_sl, renb, m_channel_g);
agg::render_ctrl(m_ras, m_sl, renb, m_channel_b);
}