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mirror of https://github.com/zenorogue/hyperrogue.git synced 2024-11-10 15:59:53 +00:00

an option to generate raycaster map just once

This commit is contained in:
Zeno Rogue 2021-02-18 15:47:45 +01:00
parent e775e7ada0
commit ad2ee6d98f

View File

@ -23,6 +23,9 @@ EX bool comparison_mode;
/** 0 - never use, 2 - always use, 1 = smart selection */ /** 0 - never use, 2 - always use, 1 = smart selection */
EX int want_use = 1; EX int want_use = 1;
/** generate the map for raycasting just once */
EX bool fixed_map = false;
EX ld exp_start = 1; EX ld exp_start = 1;
EX ld exp_decay_exp = 4; EX ld exp_decay_exp = 4;
EX ld exp_decay_poly = 10; EX ld exp_decay_poly = 10;
@ -203,8 +206,6 @@ raycaster::raycaster(string vsh, string fsh) : GLprogram(vsh, fsh) {
shared_ptr<raycaster> our_raycaster; shared_ptr<raycaster> our_raycaster;
EX void reset_raycaster() { our_raycaster = nullptr; }
int deg, irays; int deg, irays;
#ifdef GLES_ONLY #ifdef GLES_ONLY
@ -1363,9 +1364,7 @@ void enable_raycaster() {
full_enable(our_raycaster); full_enable(our_raycaster);
} }
int length, per_row, rows; void bind_array(vector<array<float, 4>>& v, GLint t, GLuint& tx, int id, int length) {
void bind_array(vector<array<float, 4>>& v, GLint t, GLuint& tx, int id) {
if(t == -1) println(hlog, "bind to nothing"); if(t == -1) println(hlog, "bind to nothing");
glUniform1i(t, id); glUniform1i(t, id);
@ -1393,13 +1392,6 @@ void uniform2(GLint id, array<float, 2> fl) {
glUniform2f(id, fl[0], fl[1]); glUniform2f(id, fl[0], fl[1]);
} }
array<float, 2> enc(int i, int a) {
array<float, 2> res;
res[0] = ((i%per_row) * deg + a + .5) / length;
res[1] = ((i / per_row) + .5) / rows;
return res;
}
color_t color_out_of_range = 0x0F0800FF; color_t color_out_of_range = 0x0F0800FF;
transmatrix get_ms(cell *c, int a, bool mirror) { transmatrix get_ms(cell *c, int a, bool mirror) {
@ -1432,198 +1424,110 @@ transmatrix get_ms(cell *c, int a, bool mirror) {
int nesting; int nesting;
EX void cast() { struct raycast_map {
// may call itself recursively in case of bugs -- just in case...
dynamicval<int> dn(nesting, nesting+1);
if(nesting > 10) return;
if(isize(cgi.raywall) > irays) reset_raycaster();
enable_raycaster();
auto& o = our_raycaster;
if(need_many_cell_types() && o->uWallOffset == -1) {
reset_raycaster();
cast();
return;
}
if(comparison_mode)
glColorMask( GL_TRUE,GL_FALSE,GL_FALSE,GL_TRUE );
vector<glvertex> screen = {
glhr::makevertex(-1, -1, 1),
glhr::makevertex(-1, +1, 1),
glhr::makevertex(+1, -1, 1),
glhr::makevertex(-1, +1, 1),
glhr::makevertex(+1, -1, 1),
glhr::makevertex(+1, +1, 1)
};
ld d = current_display->eyewidth();
if(vid.stereo_mode == sLR) d = 2 * d - 1;
else d = -d;
auto& cd = current_display;
cd->set_viewport(global_projection);
cd->set_mask(global_projection);
#if CAP_VR
if(o->uEyeShift != -1) {
transmatrix T = vrhr::eyeshift;
if(nonisotropic)
T = inverse(NLP) * T;
glUniformMatrix4fv(o->uEyeShift, 1, 0, glhr::tmtogl_transpose3(T).as_array());
glUniform1f(o->uAbsUnit, vrhr::absolute_unit_in_meters);
}
if(vrhr::rendering_eye()) {
glUniformMatrix4fv(o->uProjection, 1, 0, glhr::tmtogl_transpose3(vrhr::eyeproj).as_array());
}
#else
if(0) ;
#endif
else {
transmatrix proj = Id;
proj = eupush(-global_projection * d, 0) * proj;
proj = euscale(cd->tanfov / (vid.stereo_mode == sLR ? 2 : 1), cd->tanfov * cd->ysize / cd->xsize) * proj;
proj = eupush(-((cd->xcenter-cd->xtop)*2./cd->xsize - 1), -((cd->ycenter-cd->ytop)*2./cd->ysize - 1)) * proj;
glUniformMatrix4fv(o->uProjection, 1, 0, glhr::tmtogl_transpose3(proj).as_array());
}
if(!callhandlers(false, hooks_rayset, o)) {
length = 4096;
per_row = length / deg;
vector<cell*> lst; vector<cell*> lst;
map<cell*, int> ids;
cell *cs = centerover; vector<transmatrix> ms;
transmatrix T = cview().T; int length, per_row, rows;
vector<array<float, 4>> connections, wallcolor, texturemap, volumetric;
if(global_projection) void apply_shape() {
T = xpush(vid.ipd * global_projection/2) * T; length = 4096;
per_row = length / deg;
if(nonisotropic) T = NLP * T; rows = next_p2((isize(lst)+per_row-1) / per_row);
T = inverse(T); int q = length * rows;
connections.resize(q);
virtualRebase(cs, T); wallcolor.resize(q);
texturemap.resize(q);
volumetric.resize(q);
}
int ray_fixes = 0; void generate_initial_ms(cell *cs) {
auto sa = hybrid::gen_sample_list();
transmatrix msm = stretch::mstretch_matrix;
ms.clear();
back: ms.resize(sa.back().first, Id);
for(int a=0; a<cs->type; a++)
if(hdist0(hybrid::ray_iadj(cs, a) * tC0(T)) < hdist0(tC0(T))) { for(auto& p: sa) {
println(hlog, "ray error"); int id = p.first;
T = currentmap->iadj(cs, a) * T; cell *c = p.second;
if(o->uToOrig != -1) { if(!c) continue;
transmatrix HT = currentmap->adj(cs, a); for(int j=0; j<c->type; j++)
HT = stretch::itranslate(tC0(HT)) * HT; ms[id+j] = hybrid::ray_iadj(c, j);
msm = HT * msm; if(WDIM == 2) for(int a: {0, 1}) {
ms[id+c->type+a] = get_ms(c, a, false);
} }
cs = cs->move(a);
ray_fixes++;
if(ray_fixes > 100) return;
goto back;
} }
// println(hlog, ms);
if(!sol && !nil && (reflect_val || reg3::ultra_mirror_in())) {
if(BITRUNCATED) exit(1);
for(int j=0; j<cs->type; j++) {
transmatrix T = inverse(ms[j]);
hyperpoint h = tC0(T);
ld d = hdist0(h);
transmatrix U = rspintox(h) * xpush(d/2) * MirrorX * xpush(-d/2) * spintox(h);
ms.push_back(U);
}
if(WDIM == 2)
for(int a: {0, 1}) {
ms.push_back(get_ms(cs, a, true));
}
if(reg3::ultra_mirror_in()) {
for(auto v: cgi.ultra_mirrors)
ms.push_back(v);
}
}
if(prod) {
for(auto p: sa) {
int id =p.first;
if(id == 0) continue;
ms[id-2] = Id;
ms[id-1] = Id;
}
}
}
if(true) { void generate_cell_listing(cell *cs) {
manual_celllister cl; manual_celllister cl;
cl.add(cs); cl.add(cs);
bool optimize = !isWall3(cs); bool optimize = !isWall3(cs);
// vector<int> legaldir = { -1 };
for(int i=0; i<isize(cl.lst); i++) { for(int i=0; i<isize(cl.lst); i++) {
cell *c = cl.lst[i]; cell *c = cl.lst[i];
if(racing::on && i > 0 && c->wall == waBarrier) continue; if(racing::on && i > 0 && c->wall == waBarrier) continue;
if(optimize && isWall3(c)) continue; if(optimize && isWall3(c)) continue;
forCellCM(c2, c) { forCellIdCM(c2, d, c) {
// if(reflect_val == 0 && !((1<<d) & legaldir[i])) continue;
if(rays_generate) setdist(c2, 7, c); if(rays_generate) setdist(c2, 7, c);
/* if(!cl.listed(c2))
legaldir.push_back(legaldir[i] &~ (1<<((d+3)%6)) ); */
cl.add(c2); cl.add(c2);
if(isize(cl.lst) >= max_cells) goto finish; if(isize(cl.lst) >= max_cells) goto finish;
} }
} }
finish: finish:
lst = cl.lst; lst = cl.lst;
} ids.clear();
for(int i=0; i<isize(lst); i++) ids[lst[i]] = i;
rows = next_p2((isize(lst)+per_row-1) / per_row);
map<cell*, int> ids;
for(int i=0; i<isize(lst); i++) ids[lst[i]] = i;
glUniform1i(o->uLength, length);
GLERR("uniform mediump length");
glUniformMatrix4fv(o->uStart, 1, 0, glhr::tmtogl_transpose3(T).as_array());
if(o->uLP != -1) glUniformMatrix4fv(o->uLP, 1, 0, glhr::tmtogl_transpose3(inverse(NLP)).as_array());
GLERR("uniform mediump start");
uniform2(o->uStartid, enc(ids[cs], 0));
GLERR("uniform mediump startid");
glUniform1f(o->uIPD, vid.ipd);
GLERR("uniform mediump IPD");
if(o->uITOA != -1) {
glUniformMatrix4fv(o->uITOA, 1, 0, glhr::tmtogl_transpose3(stretch::m_itoa).as_array());
glUniformMatrix4fv(o->uATOI, 1, 0, glhr::tmtogl_transpose3(stretch::m_atoi).as_array());
} }
if(o->uToOrig != -1) { array<float, 2> enc(int i, int a) {
glUniformMatrix4fv(o->uToOrig, 1, 0, glhr::tmtogl_transpose3(msm).as_array()); array<float, 2> res;
glUniformMatrix4fv(o->uFromOrig, 1, 0, glhr::tmtogl_transpose3(inverse(msm)).as_array()); res[0] = ((i%per_row) * deg + a + .5) / length;
} res[1] = ((i / per_row) + .5) / rows;
return res;
if(o->uWallOffset != -1) {
glUniform1i(o->uWallOffset, wall_offset(cs));
glUniform1i(o->uSides, cs->type + (WDIM == 2 ? 2 : 0));
} }
auto sa = hybrid::gen_sample_list(); void generate_connections(cell *c, int id) {
vector<transmatrix> ms(sa.back().first, Id);
for(auto& p: sa) {
int id = p.first;
cell *c = p.second;
if(!c) continue;
for(int j=0; j<c->type; j++)
ms[id+j] = hybrid::ray_iadj(c, j);
if(WDIM == 2) for(int a: {0, 1}) {
ms[id+c->type+a] = get_ms(c, a, false);
}
}
// println(hlog, ms);
if(!sol && !nil && (reflect_val || reg3::ultra_mirror_in())) {
if(BITRUNCATED) exit(1);
for(int j=0; j<cs->type; j++) {
transmatrix T = inverse(ms[j]);
hyperpoint h = tC0(T);
ld d = hdist0(h);
transmatrix U = rspintox(h) * xpush(d/2) * MirrorX * xpush(-d/2) * spintox(h);
ms.push_back(U);
}
if(WDIM == 2)
for(int a: {0, 1}) {
ms.push_back(get_ms(cs, a, true));
}
if(reg3::ultra_mirror_in()) {
for(auto v: cgi.ultra_mirrors)
ms.push_back(v);
}
}
vector<array<float, 4>> connections(length * rows);
vector<array<float, 4>> wallcolor(length * rows);
vector<array<float, 4>> texturemap(length * rows);
vector<array<float, 4>> volumetric(length * rows);
if(1) for(cell *c: lst) {
int id = ids[c];
auto& vmap = volumetric::vmap; auto& vmap = volumetric::vmap;
if(volumetric::on) { if(volumetric::on) {
celldrawer dd; celldrawer dd;
@ -1637,7 +1541,7 @@ EX void cast() {
vcolor = (backcolor << 8); vcolor = (backcolor << 8);
volumetric[u] = glhr::acolor(vcolor); volumetric[u] = glhr::acolor(vcolor);
} }
forCellIdEx(c1, i, c) { forCellIdEx(c1, i, c) {
int u = (id/per_row*length) + (id%per_row * deg) + i; int u = (id/per_row*length) + (id%per_row * deg) + i;
if(!ids.count(c1)) { if(!ids.count(c1)) {
wallcolor[u] = glhr::acolor(color_out_of_range | 0xFF); wallcolor[u] = glhr::acolor(color_out_of_range | 0xFF);
@ -1707,15 +1611,161 @@ EX void cast() {
} }
} }
if(prod) { void generate_connections() {
for(auto p: sa) { int id = 0;
int id =p.first; for(cell* c: lst)
if(id == 0) continue; generate_connections(c, id++);
ms[id-2] = Id;
ms[id-1] = Id;
}
} }
bool gms_exceeded() {
return isize(ms) > gms_array_size;
}
void assign_uniforms(raycaster* o) {
glUniform1i(o->uLength, length);
GLERR("uniform mediump length");
vector<glhr::glmatrix> gms;
for(auto& m: ms) gms.push_back(glhr::tmtogl_transpose3(m));
glUniformMatrix4fv(o->uM, isize(gms), 0, gms[0].as_array());
bind_array(wallcolor, o->tWallcolor, txWallcolor, 4, length);
bind_array(connections, o->tConnections, txConnections, 3, length);
bind_array(texturemap, o->tTextureMap, txTextureMap, 5, length);
if(volumetric::on) bind_array(volumetric, o->tVolumetric, txVolumetric, 6, length);
}
void create_all(cell *cs) {
generate_initial_ms(cs);
generate_cell_listing(cs);
apply_shape();
generate_connections();
}
bool need_to_create(cell *cs) {
if(!fixed_map) return true;
return !ids.count(cs);
}
};
unique_ptr<raycast_map> rmap;
EX void reset_raycaster() { our_raycaster = nullptr; rmap = nullptr; }
EX void cast() {
// may call itself recursively in case of bugs -- just in case...
dynamicval<int> dn(nesting, nesting+1);
if(nesting > 10) return;
if(isize(cgi.raywall) > irays) reset_raycaster();
enable_raycaster();
auto& o = our_raycaster;
if(need_many_cell_types() && o->uWallOffset == -1) {
reset_raycaster();
cast();
return;
}
if(comparison_mode)
glColorMask( GL_TRUE,GL_FALSE,GL_FALSE,GL_TRUE );
vector<glvertex> screen = {
glhr::makevertex(-1, -1, 1),
glhr::makevertex(-1, +1, 1),
glhr::makevertex(+1, -1, 1),
glhr::makevertex(-1, +1, 1),
glhr::makevertex(+1, -1, 1),
glhr::makevertex(+1, +1, 1)
};
ld d = current_display->eyewidth();
if(vid.stereo_mode == sLR) d = 2 * d - 1;
else d = -d;
auto& cd = current_display;
cd->set_viewport(global_projection);
cd->set_mask(global_projection);
#if CAP_VR
if(o->uEyeShift != -1) {
transmatrix T = vrhr::eyeshift;
if(nonisotropic)
T = inverse(NLP) * T;
glUniformMatrix4fv(o->uEyeShift, 1, 0, glhr::tmtogl_transpose3(T).as_array());
glUniform1f(o->uAbsUnit, vrhr::absolute_unit_in_meters);
}
if(vrhr::rendering_eye()) {
glUniformMatrix4fv(o->uProjection, 1, 0, glhr::tmtogl_transpose3(vrhr::eyeproj).as_array());
}
#else
if(0) ;
#endif
else {
transmatrix proj = Id;
proj = eupush(-global_projection * d, 0) * proj;
proj = euscale(cd->tanfov / (vid.stereo_mode == sLR ? 2 : 1), cd->tanfov * cd->ysize / cd->xsize) * proj;
proj = eupush(-((cd->xcenter-cd->xtop)*2./cd->xsize - 1), -((cd->ycenter-cd->ytop)*2./cd->ysize - 1)) * proj;
glUniformMatrix4fv(o->uProjection, 1, 0, glhr::tmtogl_transpose3(proj).as_array());
}
if(!callhandlers(false, hooks_rayset, o)) {
cell *cs = centerover;
transmatrix T = cview().T;
if(global_projection)
T = xpush(vid.ipd * global_projection/2) * T;
if(nonisotropic) T = NLP * T;
T = inverse(T);
virtualRebase(cs, T);
int ray_fixes = 0;
transmatrix msm = stretch::mstretch_matrix;
back:
for(int a=0; a<cs->type; a++)
if(hdist0(hybrid::ray_iadj(cs, a) * tC0(T)) < hdist0(tC0(T))) {
println(hlog, "ray error");
T = currentmap->iadj(cs, a) * T;
if(o->uToOrig != -1) {
transmatrix HT = currentmap->adj(cs, a);
HT = stretch::itranslate(tC0(HT)) * HT;
msm = HT * msm;
}
cs = cs->move(a);
ray_fixes++;
if(ray_fixes > 100) return;
goto back;
}
glUniformMatrix4fv(o->uStart, 1, 0, glhr::tmtogl_transpose3(T).as_array());
if(o->uLP != -1) glUniformMatrix4fv(o->uLP, 1, 0, glhr::tmtogl_transpose3(inverse(NLP)).as_array());
GLERR("uniform mediump startid");
glUniform1f(o->uIPD, vid.ipd);
GLERR("uniform mediump IPD");
if(o->uITOA != -1) {
glUniformMatrix4fv(o->uITOA, 1, 0, glhr::tmtogl_transpose3(stretch::m_itoa).as_array());
glUniformMatrix4fv(o->uATOI, 1, 0, glhr::tmtogl_transpose3(stretch::m_atoi).as_array());
}
if(o->uToOrig != -1) {
glUniformMatrix4fv(o->uToOrig, 1, 0, glhr::tmtogl_transpose3(msm).as_array());
glUniformMatrix4fv(o->uFromOrig, 1, 0, glhr::tmtogl_transpose3(inverse(msm)).as_array());
}
if(o->uWallOffset != -1) {
glUniform1i(o->uWallOffset, wall_offset(cs));
glUniform1i(o->uSides, cs->type + (WDIM == 2 ? 2 : 0));
}
vector<GLint> wallstart; vector<GLint> wallstart;
for(auto i: cgi.wallstart) wallstart.push_back(i); for(auto i: cgi.wallstart) wallstart.push_back(i);
glUniform1iv(o->uWallstart, isize(wallstart), &wallstart[0]); glUniform1iv(o->uWallstart, isize(wallstart), &wallstart[0]);
@ -1757,27 +1807,25 @@ EX void cast() {
glUniform1f(o->uExpStart, exp_start); glUniform1f(o->uExpStart, exp_start);
vector<glhr::glmatrix> gms;
for(auto& m: ms) gms.push_back(glhr::tmtogl_transpose3(m));
glUniformMatrix4fv(o->uM, isize(gms), 0, gms[0].as_array());
if(isize(gms) > gms_array_size) {
gms_array_size = isize(gms);
println(hlog, "changing gms_array_size to ", gms_array_size);
reset_raycaster();
cast();
return;
}
bind_array(wallcolor, o->tWallcolor, txWallcolor, 4);
bind_array(connections, o->tConnections, txConnections, 3);
bind_array(texturemap, o->tTextureMap, txTextureMap, 5);
if(volumetric::on) bind_array(volumetric, o->tVolumetric, txVolumetric, 6);
auto cols = glhr::acolor(darkena(backcolor, 0, 0xFF)); auto cols = glhr::acolor(darkena(backcolor, 0, 0xFF));
if(o->uFogColor != -1) if(o->uFogColor != -1)
glUniform4f(o->uFogColor, cols[0], cols[1], cols[2], cols[3]); glUniform4f(o->uFogColor, cols[0], cols[1], cols[2], cols[3]);
if(!rmap) rmap = (unique_ptr<raycast_map>) new raycast_map;
if(rmap->need_to_create(cs)) {
rmap->create_all(cs);
if(rmap->gms_exceeded()) {
gms_array_size = isize(rmap->ms);
println(hlog, "changing gms_array_size to ", gms_array_size);
reset_raycaster();
cast();
return;
}
rmap->assign_uniforms(&*o);
}
GLERR("uniform mediump start");
uniform2(o->uStartid, rmap->enc(rmap->ids[cs], 0));
} }
#if CAP_VERTEXBUFFER #if CAP_VERTEXBUFFER
@ -2078,6 +2126,7 @@ void addconfig() {
addsaver(max_iter_sol, "ray_max_iter_sol"); addsaver(max_iter_sol, "ray_max_iter_sol");
addsaver(max_cells, "ray_max_cells"); addsaver(max_cells, "ray_max_cells");
addsaver(rays_generate, "ray_generate"); addsaver(rays_generate, "ray_generate");
param_b(fixed_map, "ray_fixed_map");
} }
auto hookc = addHook(hooks_configfile, 100, addconfig); auto hookc = addHook(hooks_configfile, 100, addconfig);
#endif #endif