void put_template(char *template_name, int x, int y)
{
printf("Placing \"%s\" template at (%d, %d)\n", template_name, x, y);
int i = 0;
int j = 0;
Template *t = get_template(template_name);
if (t->width > width || t->height > height)
{
printf("The game field is too small to put the \"%s\" template.\n", template_name);
delete_data();
exit(3);
}
for (i = 0; i < t->height; i++)
{
for (j = 0; j < t->width; j++)
{
if (t->picture[i][j])
{
field[(y + i) % height][(x + j) % width] = 1;
}
}
}
delete_template(t);
}
/**
* @brief method for rendering a template
*
* @param tmplate template to render as raw std::string or file path
* @param ctx context object
*
* @return rendered std::string
*/
std::string template_t::render(const std::string& tmplate, const Context& ctx)
{
// get template
std::string tmp = get_template(tmplate);
std::string first = template_t::render_sections(tmp, ctx);
std::string second = template_t::render_tags(first, ctx);
return second;
}
void
test_template_generate_dependencies(void)
{
gchar *tmpl = get_template("foo.html");
gchar *rv = balde_template_generate_dependencies(tmpl);
g_assert_cmpstr(rv, ==, tmpl);
g_free(tmpl);
g_free(rv);
}
void
test_template_generate_source_with_if_and_ws_cleaner(void)
{
gchar *tmpl = get_template("base8.html");
gchar *exp = get_expected_template("base8.c");
gchar *rv = balde_template_generate_source("bola", tmpl);
g_free(tmpl);
balde_assert_template_equal(rv, exp);
g_free(rv);
g_free(exp);
}
void
test_template_generate_source_with_multiple_if(void)
{
gchar *tmpl = get_template("base4.html");
gchar *exp = get_expected_template("base4.c");
gchar *rv = balde_template_generate_source("bola", tmpl);
g_free(tmpl);
balde_assert_template_equal(rv, exp);
g_free(rv);
g_free(exp);
}
void
test_template_generate_source_with_include_with_url_for(void)
{
gchar *tmpl = get_template("base2.html");
gchar *exp = get_expected_template("base2.c");
gchar *rv = balde_template_generate_source("bola", tmpl);
g_free(tmpl);
balde_assert_template_equal(rv, exp);
g_free(rv);
g_free(exp);
}
void
test_template_generate_source_with_percent(void)
{
gchar *tmpl = get_template("foo9.html");
gchar *exp = get_expected_template("foo9.c");
gchar *rv = balde_template_generate_source("bola", tmpl);
g_free(tmpl);
balde_assert_template_equal(rv, exp);
g_free(rv);
g_free(exp);
}
void
test_template_generate_source_multiple_vars_and_lines_with_function_calls_and_single_quotes(void)
{
gchar *tmpl = get_template("foo8.html");
gchar *exp = get_expected_template("foo8.c");
gchar *rv = balde_template_generate_source("bola", tmpl);
g_free(tmpl);
balde_assert_template_equal(rv, exp);
g_free(rv);
g_free(exp);
}
void
test_template_generate_source_multiple_vars_and_lines(void)
{
gchar *tmpl = get_template("foo6.html");
gchar *exp = get_expected_template("foo6.c");
gchar *rv = balde_template_generate_source("bola", tmpl);
g_free(tmpl);
balde_assert_template_equal(rv, exp);
g_free(rv);
g_free(exp);
}
void
test_template_generate_source_single_var_with_single_quoted_imports(void)
{
gchar *tmpl = get_template("foo4.html");
gchar *exp = get_expected_template("foo4.c");
gchar *rv = balde_template_generate_source("bola", tmpl);
g_free(tmpl);
balde_assert_template_equal(rv, exp);
g_free(rv);
g_free(exp);
}
void RxCheckManager::DumpTemplateFull(FILE *fd){
int i;
for (i=0; i<MAX_TEMPLATES_STATS;i++ ) {
CPerTemplateInfo * lp=get_template(i);
fprintf(fd," template_id_%2d , errors:%8llu, jitter: %llu rx : %llu \n",
i,
(unsigned long long)lp->get_error_counter(),
(unsigned long long)lp->get_jitter_usec(),
(unsigned long long)lp->get_rx_counter() );
}
}
uint32_t RxCheckManager::getTemplateMaxJitter(){
uint32_t res=0;
int i;
for (i=0; i<MAX_TEMPLATES_STATS;i++ ) {
CPerTemplateInfo * lp=get_template(i);
uint32_t jitter=lp->get_jitter_usec();
if ( jitter > res ) {
res =jitter;
}
}
return ( res );
}
/**
* @brief method for rendering a template
*
* @param tmplate template to render as raw std::string or filepath
* @param ctx map of values
*
* @return rendered std::string
*/
std::string template_t::render(const std::string& tmplate,
const ObjectType& ctx)
{
// get template
std::string tmp = get_template(tmplate);
Context contxt;
contxt.add(ctx);
std::string first = template_t::render_sections(tmp, contxt);
std::string second = template_t::render_tags(first, contxt);
return second;
}
void
test_template_generate_dependencies_with_include(void)
{
gchar *tmpl = get_template("base2.html");
gchar *rv = balde_template_generate_dependencies(tmpl);
gchar *dir = g_path_get_dirname(tmpl);
gchar *include = g_build_filename(dir, "body2.html", NULL);
g_free(dir);
gchar *dependencies = g_strdup_printf("%s %s", tmpl, include);
g_free(include);
g_free(tmpl);
g_assert_cmpstr(rv, ==, dependencies);
g_free(dependencies);
g_free(rv);
}
bool wpl_value_array::set_strong (wpl_value *value) {
/* This is important to unmask the auto type */
value = value->dereference();
wpl_value_array *value_array =
dynamic_cast<wpl_value_array*>(value);
if (!value_array) {
return false;
}
if (get_template() != value_array->get_template()) {
return false;
}
replace(*value_array);
return true;
}
void RxCheckManager::template_dump_json(std::string & json){
json+="\"template\" : [";
int i;
bool is_first=true;
for (i=0; i<MAX_TEMPLATES_STATS;i++ ) {
CPerTemplateInfo * lp=get_template(i);
if ( is_first==true ){
is_first=false;
}else{
json+=",";
}
json+="{";
json+=add_json("id",(uint32_t)i);
json+=add_json("val",(uint64_t)lp->get_error_counter());
json+=add_json("rx_pkts",(uint64_t)lp->get_rx_counter());
json+=add_json("jitter",(uint64_t)lp->get_jitter_usec(),true);
json+="}";
}
json+="],";
}
void RxCheckManager::DumpTemplate(FILE *fd,bool verbose){
int i;
bool has_template=false;
int cnt=0;
for (i=0; i<MAX_TEMPLATES_STATS;i++ ) {
CPerTemplateInfo * lp=get_template(i);
if (verbose || (lp->get_error_counter()>0)) {
has_template=true;
if (cnt==0){
fprintf(fd,"\n");
}
fprintf(fd,"[id:%2d val:%8llu,rx:%8llu], ",i, (unsigned long long)lp->get_error_counter(), (unsigned long long)lp->get_rx_counter());
cnt++;
if (cnt>5) {
cnt=0;
}
}
}
if ( has_template ){
fprintf(fd,"\n");
}
}
bool wpl_value_array::set_strong (wpl_value *value) {
value = value->dereference();
/*
TODO
create copy_to_array(wpl_value_array *target) or something in wpl_value
*/
if (!value->isArray()) {
return false;
}
wpl_value_array *value_array =
static_cast<wpl_value_array*>(value);
if (get_template() != value_array->get_template()) {
return false;
}
replace(*value_array);
return true;
}
void GstPropertiesModule::show_pad_properties()
{
auto pad = std::dynamic_pointer_cast<PadModel>(controller->get_selected_object());
if (!pad)
{
return;
}
PadPropertyModelColumns cols;
auto model = Gtk::TreeStore::create(cols);
Gtk::TreeView *tree = Gtk::manage(new Gtk::TreeView());
tree->append_column(_("Property Name"), cols.m_col_name);
tree->append_column(_("Property Value"), cols.m_col_value);
tree->set_model(model);
#define APPEND_ROW(name, value) \
do { \
row = *(model->append()); \
row[cols.m_col_name] = name; \
row[cols.m_col_value] = value; \
} while (false);
std::string peer_pad = pad->get_peer() ? ElementPathProcessor::get_object_path(pad->get_peer()) : std::string("NO PEER PAD");
Gtk::TreeModel::Row row;
APPEND_ROW(_("Name"), pad->get_name());
if (pad->get_template())
{
display_template_info(pad->get_template(), model, cols.m_col_name, cols.m_col_value);
}
APPEND_ROW(_("Presence"), get_presence_str(pad->get_presence()));
APPEND_ROW(_("Direction"), get_direction_str(pad->get_direction()));
APPEND_ROW(_("Peer pad"), peer_pad);
if (pad->get_current_caps())
{
APPEND_ROW(_("Current caps"), "");
display_caps(pad->get_current_caps(), model, cols.m_col_name, cols.m_col_value, row);
}
else
{
APPEND_ROW(_("Current caps"), _("unknown"));
}
if (pad->get_allowed_caps())
{
APPEND_ROW(_("Allowed caps"), "");
display_caps(pad->get_allowed_caps(), model, cols.m_col_name, cols.m_col_value, row);
}
else
{
APPEND_ROW(_("Allowed caps"), _("unknown"));
}
#undef APPEND_ROW
tree->show();
properties_box->pack_start(*tree, true, true, 0);
}
template <> bool CBuffer::get<long double>(long double* data, size_t n) { return get_template(data,n) ;}
template <> bool CBuffer::get<float>(float* data, size_t n) { return get_template(data,n) ; }
template <> bool CBuffer::get<ulong>(ulong* data, size_t n) { return get_template(data,n) ; }
template <> bool CBuffer::get<ushort>(ushort* data, size_t n) { return get_template(data,n) ; }
template <> bool CBuffer::get<int>(int* data, size_t n) { return get_template(data,n) ; }
template <> bool CBuffer::get<char>(char* data, size_t n) { return get_template(data,n) ; }
template <> bool CBuffer::get<long double>(long double& data) { return get_template(data) ;}
template <> bool CBuffer::get<float>(float& data) { return get_template(data) ; }
template <> bool CBuffer::get<ulong>(ulong& data) { return get_template(data) ; }
void Fibre::Tractlet::Tensor::add_section_hessian(
const Tractlet& tractlet, const Tractlet::Section& section,
const Strand::BasicSection& gradient, const Strand::BasicSection::Tensor& hessian) {
Fibre::Tractlet d2_intensity = get_template();
Strand pos_gradient = Strand::outer_product(section.position_coeffs,
gradient.position() / section.intensity());
if (has_var_acs())
d2_intensity.set_acs(0.0);
// d2_intensity.set_base_width(0.0);
//Add position gradient.
d2_intensity[0] += pos_gradient;
d2_intensity[1] += pos_gradient * section.ax1_fraction;
d2_intensity[2] += pos_gradient * section.ax2_fraction;
//Add tangent gradient.
Strand tang_gradient = Strand::outer_product(section.tangent_coeffs,
gradient.tangent() * (section.length_fraction / section.intensity()));
d2_intensity[0] += tang_gradient;
d2_intensity[1] += tang_gradient * section.ax1_fraction;
d2_intensity[2] += tang_gradient * section.ax2_fraction;
Fibre::Tractlet acs_gradient = d2_intensity * section.intensity();
if (true) { //Needs some serious rewriting.
throw Exception(
"tied_width hessian needs to be adjusted after accounting for tractlet sheer.");
double norm1 = tractlet[1][0].norm();
double norm2 = tractlet[2][0].norm();
Coord d_intensity_d1 = tractlet.acs()
* ((norm2 / norm1) * tractlet(1, 0) - tractlet(2, 0));
Coord d_intensity_d2 = tractlet.acs()
* ((norm1 / norm2) * tractlet(2, 0) - tractlet(1, 0));
for (size_t dim_i1 = 0; dim_i1 < 3; dim_i1++) {
operator()(1, 0, dim_i1, 2, 0, dim_i1) -= gradient.intensity() * tractlet.acs();
operator()(2, 0, dim_i1, 1, 0, dim_i1) -= gradient.intensity() * tractlet.acs();
operator()(1, 0, dim_i1, 1, 0, dim_i1) += gradient.intensity() * tractlet.acs()
* norm2
/ norm1;
operator()(2, 0, dim_i1, 2, 0, dim_i1) += gradient.intensity() * tractlet.acs()
* norm1
/ norm2;
for (size_t dim_i2 = 0; dim_i2 < 3; dim_i2++) {
operator()(1, 0, dim_i1, 1, 0, dim_i2) -= tractlet.acs()
* gradient.intensity() * tractlet[1][0][dim_i1]
* tractlet[1][0][dim_i2] * (norm2 / MR::Math::pow3(norm1));
operator()(2, 0, dim_i1, 2, 0, dim_i2) -= tractlet.acs()
* gradient.intensity() * tractlet[2][0][dim_i1]
* tractlet[2][0][dim_i2] * (norm1 / MR::Math::pow3(norm2));
operator()(1, 0, dim_i1, 2, 0, dim_i2) += tractlet.acs()
* gradient.intensity() * tractlet[2][0][dim_i2]
* tractlet[1][0][dim_i1]
/ (norm1 * norm2);
operator()(2, 0, dim_i1, 1, 0, dim_i2) += tractlet.acs()
* gradient.intensity() * tractlet[1][0][dim_i2]
* tractlet[2][0][dim_i1]
/ (norm2 * norm1);
for (size_t ax_i = 0; ax_i < 3; ++ax_i)
for (size_t degree_i = 0; degree_i < tractlet.degree(); ++degree_i) {
operator()(ax_i, degree_i, dim_i1, 1, 0, dim_i2) += tractlet.acs()
* d2_intensity(ax_i, degree_i)[dim_i1]
* d_intensity_d1[dim_i2];
operator()(ax_i, degree_i, dim_i1, 2, 0, dim_i2) += tractlet.acs()
* d2_intensity(ax_i, degree_i)[dim_i1]
* d_intensity_d2[dim_i2];
operator()(1, 0, dim_i1, ax_i, degree_i, dim_i2) += tractlet.acs()
* d2_intensity(ax_i, degree_i)[dim_i2]
* d_intensity_d1[dim_i1];
operator()(2, 0, dim_i1, ax_i, degree_i, dim_i2) += tractlet.acs()
* d2_intensity(ax_i, degree_i)[dim_i2]
* d_intensity_d2[dim_i1];
}
}
}
if (has_var_acs()) {
acs_gradient(1, 0) += gradient.intensity() * d_intensity_d1;
acs_gradient(2, 0) += gradient.intensity() * d_intensity_d2;
}
}
if (has_var_acs())
acs() += acs_gradient;
for (size_t degree_i1 = 0; degree_i1 < degree(); degree_i1++)
for (size_t dim_i1 = 0; dim_i1 < 3; dim_i1++) {
Fibre::Tractlet ax0 = row(0, degree_i1, dim_i1);
Fibre::Tractlet ax1 = row(1, degree_i1, dim_i1);
Fibre::Tractlet ax2 = row(2, degree_i1, dim_i1);
if (has_var_acs()) {
ax0.alpha() += acs_gradient.operator()(0, degree_i1)[dim_i1];
ax1.alpha() += acs_gradient.operator()(1, degree_i1)[dim_i1];
ax2.alpha() += acs_gradient.operator()(2, degree_i1)[dim_i1];
}
for (size_t degree_i2 = 0; degree_i2 < degree(); degree_i2++)
for (size_t dim_i2 = 0; dim_i2 < 3; dim_i2++) {
double ax0_ax0 =
section.position_coeffs[degree_i1] * section.position_coeffs[degree_i2]
* hessian.position(dim_i1).position(dim_i2)
+ section.position_coeffs[degree_i1] * section.tangent_coeffs[degree_i2]
* hessian.position(dim_i1).tangent(dim_i2)
* section.length_fraction
+ section.tangent_coeffs[degree_i1] * section.position_coeffs[degree_i2]
* hessian.tangent(dim_i1).position(dim_i2)
* section.length_fraction
+ section.tangent_coeffs[degree_i1] * section.tangent_coeffs[degree_i2]
* hessian.tangent(dim_i1).tangent(dim_i2)
* MR::Math::pow2(section.length_fraction);
ax0[0][degree_i2][dim_i2] += ax0_ax0;
ax0[1][degree_i2][dim_i2] += ax0_ax0 * section.ax1_fraction;
ax1[0][degree_i2][dim_i2] += ax0_ax0 * section.ax1_fraction;
ax0[2][degree_i2][dim_i2] += ax0_ax0 * section.ax2_fraction;
ax2[0][degree_i2][dim_i2] += ax0_ax0 * section.ax2_fraction;
ax1[1][degree_i2][dim_i2] += ax0_ax0
* MR::Math::pow2(section.ax1_fraction);
ax1[2][degree_i2][dim_i2] += ax0_ax0 * section.ax1_fraction
* section.ax2_fraction;
ax2[1][degree_i2][dim_i2] += ax0_ax0 * section.ax1_fraction
* section.ax2_fraction;
ax2[2][degree_i2][dim_i2] += ax0_ax0
* MR::Math::pow2(section.ax2_fraction);
}
}
}
template <> bool CBuffer::get<ushort>(ushort& data) { return get_template(data) ; }