const Options InPlaceReprojection::getDefaultOptions() const
{
Options options;
Option in_srs("in_srs", std::string(""),"Input SRS to use to override -- fetched from previous stage if not present");
Option out_srs("out_srs", std::string(""), "Output SRS to reproject to");
Option x("x_dim", std::string("X"), "Dimension name to use for 'X' data");
Option y("y_dim", std::string("Y"), "Dimension name to use for 'Y' data");
Option z("z_dim", std::string("Z"), "Dimension name to use for 'Z' data");
Option x_scale("scale_x", 1.0f, "Scale for output X data in the case when 'X' dimension data are to be scaled. Defaults to '1.0'. If not set, the Dimensions's scale will be used");
Option y_scale("scale_y", 1.0f, "Scale for output Y data in the case when 'Y' dimension data are to be scaled. Defaults to '1.0'. If not set, the Dimensions's scale will be used");
Option z_scale("scale_z", 1.0f, "Scale for output Z data in the case when 'Z' dimension data are to be scaled. Defaults to '1.0'. If not set, the Dimensions's scale will be used");
Option x_offset("offset_x", 0.0f, "Offset for output X data in the case when 'X' dimension data are to be scaled. Defaults to '0.0'. If not set, the Dimensions's scale will be used");
Option y_offset("offset_y", 0.0f, "Offset for output Y data in the case when 'Y' dimension data are to be scaled. Defaults to '0.0'. If not set, the Dimensions's scale will be used");
Option z_offset("offset_z", 0.0f, "Offset for output Z data in the case when 'Z' dimension data are to be scaled. Defaults to '0.0'. If not set, the Dimensions's scale will be used");
Option ignore_old_dimensions("ignore_old_dimensions", true, "Mark old, unprojected dimensions as ignored");
Option do_offset_z("do_offset_z", false, "Should we re-offset Z data");
options.add(in_srs);
options.add(out_srs);
options.add(x);
options.add(y);
options.add(z);
options.add(x_scale);
options.add(y_scale);
options.add(z_scale);
options.add(x_offset);
options.add(y_offset);
options.add(z_offset);
options.add(ignore_old_dimensions);
options.add(do_offset_z);
return options;
}
void initialize() override
{
const auto size = windowDimensions();
linear_scale<float, float> window_scale(0, 1000, 0, size.x);
linear_scale<float, float> lower_bottom(0, size.x, 5 * size.y / 6, 5 * size.y / 6);
linear_scale<float, float> lower_top(0, size.x, 2 * size.y / 3, size.y / 6);
linear_scale<float, float> upper_bottom(0, size.x, size.y / 3, 5 * size.y / 6);
linear_scale<float, float> upper_top(0, size.x, size.y / 6, size.y / 6);
linear_scale<float, float> x_scale(0, std::sqrt(size.x), 0, size.x);
linear_color_scale<float> color_scale(0, size.x, sf::Color(128, 128, 128), sf::Color::Black);
linear_scale<float, float> size_scale(0, size.x, 1, 6);
const unsigned num_rects(15);
sf::RectangleShape rect(sf::Vector2f(window_scale(100), window_scale(20)));
rect.setOrigin(window_scale(50), window_scale(10));
rect.setFillColor(sf::Color::Black);
rect.setOutlineColor(sf::Color::White);
rect.setOutlineThickness(window_scale(-1));
sf::Vector2f top_left(0, 0);
sf::Vector2f bottom_right(std::sqrt(size.x), size.y);
maxProgress(num_rects);
for(unsigned i = 0; i < num_rects; ++i)
{
float x = x_scale(randuniform(0, std::sqrt(size.x)));
float scale = size_scale(x);
rect.setScale(scale, scale);
rect.setOutlineThickness(window_scale(-1)/scale);
float y = linear_scale<float, float>(0, size.y, upper_top(x), upper_bottom(x))(randuniform(0, size.y));
rect.setFillColor(color_scale(x));
rect.setPosition(x, y);
rects.push_back(rect);
addProgress(0.5);
y = linear_scale<float, float>(0, size.y, lower_top(x), lower_bottom(x))(randuniform(0, size.y));
rect.setFillColor(sf::Color::Black);
rect.setPosition(x, y);
rects.push_back(rect);
addProgress(0.5);
}
std::sort(rects.begin(), rects.end(), [](const sf::RectangleShape& lhs, const sf::RectangleShape& rhs)
{
return lhs.getPosition().x > rhs.getPosition().x;
});
}
