static void
pmandoc(struct mparse *mp, int fd, const char *fn, int list)
{
struct roff_man *man;
int line, col;
mparse_readfd(mp, fd, fn);
close(fd);
mparse_result(mp, &man, NULL);
line = 1;
col = 0;
if (man == NULL)
return;
if (man->macroset == MACROSET_MDOC) {
mdoc_validate(man);
pmdoc(man->first->child, &line, &col, list);
} else {
man_validate(man);
pman(man->first->child, &line, &col, list);
}
if ( ! list)
putchar('\n');
}
static void
pmandoc(struct mparse *mp, int fd, const char *fn, int list)
{
struct mdoc *mdoc;
struct man *man;
int line, col;
if (mparse_readfd(mp, fd, fn) >= MANDOCLEVEL_FATAL) {
fprintf(stderr, "%s: Parse failure\n", fn);
return;
}
mparse_result(mp, &mdoc, &man, NULL);
line = 1;
col = 0;
if (mdoc)
pmdoc(mdoc_node(mdoc), &line, &col, list);
else if (man)
pman(man_node(man), &line, &col, list);
else
return;
if ( ! list)
putchar('\n');
}
text::text(const std::string& str, const std::string& font, int size, const SDL_Color& color)
: str_(str), color_(color)
{
profile::manager pman("text::text");
// XXX handle changes and stuff
font_ = font::get_font(font, size);
surface_ptr surf = surface_ptr(TTF_RenderUTF8_Blended(font_.get(), str_.c_str(), color_.as_sdl_color()), SDL_FreeSurface);
ASSERT_LOG(surf != NULL, "Couldn't render text into texture");
tex_ = texture::get(surf);
}
static void
pman(const struct roff_node *p, int *line, int *col, int list)
{
for ( ; p; p = p->next) {
if (MAN_LINE & p->flags)
pline(p->line, line, col, list);
if (ROFFT_TEXT == p->type)
pstring(p->string, p->pos, col, list);
if (p->child)
pman(p->child, line, col, list);
}
}
void world::build_infinite()
{
profile::manager pman("Built voxel::world in");
int x_smoothness = rand() % 480 + 32;
int z_smoothness = rand() % 480 + 32;
// Generates initial chunks
for(int x = 0; x != initial_chunks; ++x) {
for(int y = 0; y != 4; y++) {
for(int z = 0; z != initial_chunks; ++z) {
std::cerr << "Generating chunk: " << x << "," << y << "," << z << std::endl;
std::map<variant,variant> m;
variant_builder rnd;
glm::ivec3 worldspace_pos(x * chunk_size, y * chunk_size, z * chunk_size);
rnd.add("width", chunk_size);
rnd.add("height", chunk_size);
rnd.add("depth", chunk_size);
//rnd.add("noise_height", rand() % chunk_size*2);
rnd.add("noise_height", 128);
rnd.add("type", graphics::color("medium_sea_green").write());
rnd.add("seed", seed_);
rnd.add("x_smoothness", x_smoothness); // 32 is very spiky, 512 is very flat
rnd.add("z_smoothness", z_smoothness);
m[variant("type")] = variant("colored");
m[variant("shader")] = variant(shader_->name());
std::vector<variant> v;
v.push_back(variant(worldspace_pos.x));
v.push_back(variant(worldspace_pos.y));
v.push_back(variant(worldspace_pos.z));
m[variant("worldspace_position")] = variant(&v);
m[variant("random")] = rnd.build();
chunk_ptr cp = voxel::chunk_factory::create(shader_, logical_world_ptr(), variant(&m));
chunks_[position(worldspace_pos.x,worldspace_pos.y,worldspace_pos.z)] = cp;
active_chunks_.push_back(cp);
}
}
}
//get_active_chunks();
}
static void
pmandoc(struct mparse *mp, int fd, const char *fn, int list)
{
struct mdoc *mdoc;
struct man *man;
int line, col;
mparse_readfd(mp, fd, fn);
mparse_result(mp, &mdoc, &man, NULL);
line = 1;
col = 0;
if (mdoc)
pmdoc(mdoc_node(mdoc), &line, &col, list);
else if (man)
pman(man_node(man), &line, &col, list);
else
return;
if ( ! list)
putchar('\n');
}
pathfinding::directed_graph_ptr logical_world::create_directed_graph(bool allow_diagonals) const
{
profile::manager pman("logical_world::create_directed_graph");
std::vector<variant> vertex_list;
std::map<std::pair<int,int>, int> vlist;
for(auto p : heightmap_) {
int x = p.first.first;
int y = p.second;
int z = p.first.second;
if(y < size_y() - 1) {
if(is_solid(x, y+1, z) == false) {
vertex_list.push_back(variant_list_from_position(x,y+1,z));
vlist[std::make_pair(x,z)] = y+1;
}
} else {
vertex_list.push_back(variant_list_from_position(x,y+1,z));
vlist[std::make_pair(x,z)] = y+1;
}
}
pathfinding::graph_edge_list edges;
for(auto p : vertex_list) {
const int x = p[0].as_int();
const int y = p[1].as_int();
const int z = p[2].as_int();
std::vector<variant> current_edges;
auto it = vlist.find(std::make_pair(x+1,z));
if(it != vlist.end() && !is_xedge(x+1) && !is_solid(x+1,it->second,z)) {
current_edges.push_back(variant_list_from_position(x+1,it->second,z));
}
it = vlist.find(std::make_pair(x-1,z));
if(it != vlist.end() && !is_xedge(x-1) && !is_solid(x-1,it->second,z)) {
current_edges.push_back(variant_list_from_position(x-1,it->second,z));
}
it = vlist.find(std::make_pair(x,z+1));
if(it != vlist.end() && !is_zedge(z+1) && !is_solid(x,it->second,z+1)) {
current_edges.push_back(variant_list_from_position(x,it->second,z+1));
}
it = vlist.find(std::make_pair(x,z-1));
if(it != vlist.end() && !is_zedge(z-1) && !is_solid(x,it->second,z-1)) {
current_edges.push_back(variant_list_from_position(x,it->second,z-1));
}
if(allow_diagonals) {
it = vlist.find(std::make_pair(x+1,z+1));
if(it != vlist.end() && !is_xedge(x+1) && !is_zedge(z+1) && !is_solid(x+1,it->second,z+1)) {
current_edges.push_back(variant_list_from_position(x+1,it->second,z+1));
}
it = vlist.find(std::make_pair(x+1,z-1));
if(it != vlist.end() && !is_xedge(x+1) && !is_zedge(z-1) && !is_solid(x+1,it->second,z-1)) {
current_edges.push_back(variant_list_from_position(x+1,it->second,z-1));
}
it = vlist.find(std::make_pair(x-1,z+1));
if(it != vlist.end() && !is_xedge(x-1) && !is_zedge(z+1) && !is_solid(x-1,it->second,z+1)) {
current_edges.push_back(variant_list_from_position(x-1,it->second,z+1));
}
it = vlist.find(std::make_pair(x-1,z-1));
if(it != vlist.end() && !is_xedge(x-1) && !is_zedge(z-1) && !is_solid(x-1,it->second,z-1)) {
current_edges.push_back(variant_list_from_position(x-1,it->second,z-1));
}
}
edges[variant_list_from_position(x, y, z)] = current_edges;
}
return pathfinding::directed_graph_ptr(new pathfinding::directed_graph(&vertex_list, &edges));
}
