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hyperrogue/pattern2.cpp
Zeno Rogue 81003949af fixes to translations
2025-07-09 18:00:00 +02:00

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// Hyperbolic Rogue -- patterns
// Copyright (C) 2011-2019 Zeno Rogue, see 'hyper.cpp' for details
/** \file pattern2.cpp
* \brief various functions computing the standings of individual cells with respect to various patterns
*
* Patterns include simple ones (hexagon or heptagon, three-colorings, Chessboard)
* as well as more complex ones (Emerald, Palace, Field Pattern)
*/
#include "hyper.h"
namespace hr {
#if HDR
enum cpatterntype {
cpFootball, cpThree, cpChess, cpSingle, cpSingleSym, cpOddEven, cpLarge, cpZebra, cpUnknown
};
#endif
EX void enable_canvas() {
firstland = specialland = laCanvas;
randomPatternsMode = false;
land_structure = lsSingle;
}
EX int ctof(cell *c) {
#if CAP_IRR
if(IRREGULAR) return irr::ctof(c);
#endif
if(PURE) return 1;
// if(meuclid) return 0;
if(!c) return 1;
if(bt::in()) return c->type == 7;
return ishept(c) ? 1 : 0;
// c->type == 6 ? 0 : 1;
}
EX int ctof012(cell *c) {
return ishept(c)?1:ishex1(c)?0:2;
}
int gp_threecolor() {
if(cgflags & qPORTALSPACE) return 0;
if(!GOLDBERG) return 0;
#if CAP_GP
if(S3 == 3 && (gp::param.first - gp::param.second) % 3 == 0) return 2;
#endif
return 1;
}
int eupattern(cell *c) {
if(cgflags & qPORTALSPACE) return 0;
auto co = euc2_coordinates(c);
int x = co.first, y = co.second;
if(a4)
return ((x&1) + 2*(y&1)) % 3;
else
return gmod(y-x, 3);
}
int eupattern4(cell *c) {
auto co = euc2_coordinates(c);
int x = co.first, y = co.second;
return (x&1) + ((y&1)) * 2;
}
EX bool ishept(cell *c) {
if(cgflags & qPORTALSPACE) return 0;
// EUCLIDEAN
if(euc::in() && PURE) return eupattern(c) == 0;
else if(mhybrid) { cell *c1 = hybrid::get_where(c).first; return c1 == c1->master->c7; }
else return c == c->master->c7;
}
EX bool ishex1(cell *c) {
if(cgflags & qPORTALSPACE) return 0;
// EUCLIDEAN
if(euc::in() && PURE) return eupattern(c) == 1;
#if CAP_GP
else if(GOLDBERG) return c->master->c7 != c && !pseudohept(c->move(0));
#endif
else return c->master->c7 != c;
}
bool ishex2(cell *c) {
if(cgflags & qPORTALSPACE) return 0;
// EUCLIDEAN
if(euc::in() && PURE) return eupattern(c) == 1;
#if CAP_GP
else if(GOLDBERG) return c->master->c7 != c && gp::pseudohept_val(c) == 1;
#endif
else return c->master->c7 != c;
}
EX int chessvalue(cell *c) {
if(cgflags & qPORTALSPACE) return 0;
#if CAP_ARCM
if(arcm::in())
return arcm::chessvalue(c);
else
#endif
#if CAP_GP
if(WARPED)
return gp::untruncated_shift(c) == 2;
else if(UNRECTIFIED && a4) {
auto li = gp::get_local_info(c);
bool odd_a = gp::param.first & 1;
bool odd_b = gp::param.second & 1;
// odd-odd
if(odd_a && odd_b)
return (li.relative.second & 1) ^ (li.last_dir & 1) ^ (c->master->dm4 & 1) ^ ((c->master->emeraldval & 1) ? 1 : 0);
else if(odd_a || odd_b) {
/* int swapped = 0;
cellwalker cw(c, 0);
while((li.relative.first ^ li.relative.second) & 1) {
cw += wstep; cw += 2; swapped ^= 1;
} */
if((li.relative.first ^ li.relative.second) & 1)
return (li.relative.first & 1) ^ ((c->master->cmove(0)->emeraldval & 4) ? 1 : 0);
else
return (li.relative.first & 1) ^ ((c->master->emeraldval & 4) ? 1 : 0);
}
else
return (li.relative.second & 1) ^ (li.last_dir & 1) ^ ((c->master->emeraldval & 1) ? 1 : 0);
}
else
#endif
return celldist(c) & 1;
}
EX int emeraldval(heptagon *h) { return h->emeraldval >> 3; }
EX int emeraldval(cell *c) {
if(meuclid) return eupattern(c);
if(msphere) return 0;
if(ctof(c))
return emeraldval(c->master);
else {
auto ar = gp::get_masters(c);
return emerald_hexagon(
emeraldval(ar[0]),
emeraldval(ar[1]),
emeraldval(ar[2])
);
}
}
// === FIFTYVALS ===
unsigned bitmajority(unsigned a, unsigned b, unsigned c) {
return (a&b) | ((a^b)&c);
}
int eufifty(cell *c) {
auto co = euc2_coordinates(c);
int x = co.first, y = co.second;
int ix = x + 99999 + y;
int iy = y + 99999;
if(c->land == laWildWest)
return (ix + iy * 26 + 28) % 37;
else {
ix += (iy/3) * 3;
iy %= 3; ix %= 9;
return iy * 9 + ix;
}
}
int fiftyval(cell *c) {
if(meuclid) return eufifty(c) * 32;
if(msphere || S7>7 || S6>6) return 0;
if(ctof(c))
return c->master->fiftyval;
else {
auto ar = gp::get_masters(c);
return bitmajority(
ar[0]->fiftyval,
ar[1]->fiftyval,
ar[2]->fiftyval) + 512;
}
}
EX int cdist50(cell *c) {
if(meuclid && S3 == 4) {
auto co = euc2_coordinates(c);
int x = co.first, y = co.second;
return abs(szgmod(x, 5)) + abs(zgmod(y, 5));
}
if(msphere || S7>7 || S6>6) return 0;
if(meuclid) {
if(c->land == laWildWest)
return "0123333332112332223322233211233333322"[eufifty(c)] - '0';
else return "012333321112322232222321123"[eufifty(c)] - '0';
}
if(ctof(c)) return cdist50(c->master->fiftyval);
auto ar = gp::get_masters(c);
int a0 = cdist50(ar[0]->fiftyval);
int a1 = cdist50(ar[1]->fiftyval);
int a2 = cdist50(ar[2]->fiftyval);
if(a0 == 0 || a1 == 0 || a2 == 0) return 1;
return a0+a1+a2-5;
}
int land50(cell *c) {
if(msphere || meuclid) return 0;
else if(ctof(c)) return land50(fiftyval(c));
else {
auto ar = gp::get_masters(c);
for(int i=0; i<3; i++)
if(cdist50(ar[i]->fiftyval) < 3) return land50(ar[i]->fiftyval);
return 0;
}
}
EX bool polara50(cell *c) {
if(msphere || meuclid || S7>7 || S6>6) return false;
else if(NONSTDVAR) return polara50(fiftyval(c->master->c7));
else if(ctof(c)) return polara50(fiftyval(c));
else {
auto ar = gp::get_masters(c);
for(int i=0; i<3; i++)
if(cdist50(ar[i]->fiftyval) < 3) return polara50(ar[i]->fiftyval);
return false;
}
}
EX bool polarb50(cell *c) {
if(meuclid) return true;
if(msphere || meuclid || S7>7 || S6>6) return true;
else if(NONSTDVAR) return polarb50(fiftyval(c->master->c7));
else if(ctof(c)) return polarb50(fiftyval(c));
else {
auto ar = gp::get_masters(c);
for(int i=0; i<3; i++)
if(cdist50(ar[i]->fiftyval) < 3) return polarb50(ar[i]->fiftyval);
return false;
}
}
int elhextable[28][3] = {
{0,1,2}, {1,2,9}, {1,9,-1}, {1,8,-1}, {1,-1,-1}
};
EX int fiftyval049(heptagon *h) {
int i = h->fiftyval / 32;
if(i <= 7) return i;
if(quotient) return 0;
vector<int> allcodes;
for(int k=0; k<7; k++) {
heptagon *h2 = createStep(h, k);
if(polara50(h2->fiftyval) == polara50(h->fiftyval) && polarb50(h2->fiftyval) == polarb50(h->fiftyval))
allcodes.push_back(fiftyval049(h2));
}
int d = allcodes[1] - allcodes[0];
if(d == -1 || d == 6) swap(allcodes[0], allcodes[1]);
// printf("%d,%d: %d\n", allcodes[0], allcodes[1], allcodes[0] + 7);
return allcodes[0] + 7;
}
EX int fiftyval049(cell *c) {
if(meuclid) return fiftyval(c) / 32;
else if(ctof(c)) return fiftyval049(c->master);
else if(msphere) return 0;
else {
int a[3], qa=0;
bool pa = polara50(c);
bool pb = polarb50(c);
auto ar = gp::get_masters(c);
for(int i=0; i<3; i++)
if(polara50(ar[i]->fiftyval) == pa && polarb50(ar[i]->fiftyval) == pb)
a[qa++] = fiftyval049(ar[i]);
// somehow sort(a, a+qa) produces a warning in gcc 12.1.0, so we sort manually
if(qa == 1) return 43+a[0]-1;
// sort the two elements
if(a[0] > a[1]) swap(a[0], a[1]);
if(qa == 2 && a[1] == a[0]+7) return 36+a[0]-1;
if(qa == 2 && a[1] != a[0]+7) return 29+a[0]-1;
// sort the three elements
if(a[1] > a[2]) swap(a[1], a[2]);
if(a[0] > a[1]) swap(a[0], a[1]);
// 168:
if(a[1] == 1 && a[2] == 7)
return 15 + 6; // (polarb50(c) ? 0 : 6);
if(a[2] >= 1 && a[2] <= 7) {
return 15 + a[1] - 1; // (polarb50(c) ? a[1]%7 : a[1]-1);
}
if(a[0] == 1 && a[1] == 7 && a[2] == 8)
return 22;
if(a[0] == 1 && a[1] == 7 && a[2] == 14)
return 22;
if(a[1] <= 7 && a[2] >= 8)
return 22 + a[1]-1;
return 0;
}
}
EX int fiftyval200(cell *c) {
int i = fiftyval049(c);
i *= 4;
if(polara50(c)) i|=1;
if(polarb50(c)) i|=2;
return i;
}
/*
{0,1,2} 15+0..15+6
{1,2,9},22+0..22+6
{1,9} 29+0..29+6
{1,8} 36+0..36+6
{1} 43+0..43+6
*/
// zebraval
int dir_bitrunc457(cell *c) {
if(GOLDBERG_INV) return c->master->zebraval / 10;
int wset = 0;
int has1 = 0;
for(int i=0; i<4; i++) {
int z = zebra40(createMov(c, i*2));
if(z&1) has1 = 1;
if(z&2) wset |= (1<<i);
}
if(wset == 0) return -8-has1;
if(wset == 15) return -10-has1;
if(wset == 3) return 1;
if(wset == 6) return 3;
if(wset == 12) return 5;
if(wset == 9) return 7;
return 0;
}
int val46(cell *c);
EX int zebra40(cell *c) {
if(meuclid) return pattern_threecolor(c);
else if(IRREGULAR) return c->master->zebraval/10;
else if(INVERSE) {
cell *c1 = gp::get_mapped(c);
return UIU(zebra40(c1));
}
else if(a46) {
int v = val46(c);
if(v<4) return v;
else return 4+(v-4)/2;
}
else if(ctof(c)) return (c->master->zebraval/10);
else if(a4) {
if(GOLDBERG) return zebra40(c->master->c7);
int ws = dir_bitrunc457(c);
if(ws < 0) return -ws;
int tot = 0;
array<int, 4> zebras;
for(int i=0; i<4; i++) {
zebras[i] = zebra40(createMov(c, i*2));
tot += zebras[i];
}
// break cycles
int cod = 0;
int mo = 0; for(int i=0; i<4; i++) if(zebras[i] < zebras[mo]) mo = i;
for(int i=0; i<4; i++) for(int j=1; j<i; j++)
if(zebras[(mo+i)&3] < zebras[(mo+j)&3]) cod ^= 4;
if(tot == 0+2+4+6) return 16+cod;
if(tot == 1+3+5+7) return 19+cod;
if(tot == 0+1+2+3) return 18+cod;
if(tot == 4+5+6+7) return 17+cod;
return 24;
}
else if(msphere) return 0;
else if(S3 == 4 && S7 == 6) {
return 8 + ((c->master->zebraval / 10 + c->c.spin(0))%2) * 2;
}
else if(reg3::in()) return 0;
else {
int ii[3], z;
auto ar = gp::get_masters(c);
ii[0] = (ar[0]->zebraval/10);
ii[1] = (ar[1]->zebraval/10);
ii[2] = (ar[2]->zebraval/10);
for(int r=0; r<2; r++)
if(ii[1] < ii[0] || ii[2] < ii[0])
z = ii[0], ii[0] = ii[1], ii[1] = ii[2], ii[2] = z;
for(int i=0; i<28; i++)
if(zebratable6[i][0] == ii[0] && zebratable6[i][1] == ii[1] &&
zebratable6[i][2] == ii[2]) {
int ans = 16+i;
// if(ans >= 40) ans ^= 2;
// if(ans >= 4 && ans < 16) ans ^= 2;
return ans;
}
return 0;
}
}
EX int zebra3(cell *c) {
if(meuclid) return 0;
else if(ctof(c)) return (c->master->zebraval/10)/4;
else if(meuclid || msphere || S7>7 || S6>6) return 0;
else {
int ii[3];
auto ar = gp::get_masters(c);
ii[0] = (ar[0]->zebraval/10)/4;
ii[1] = (ar[1]->zebraval/10)/4;
ii[2] = (ar[2]->zebraval/10)/4;
if(ii[0] == ii[1]) return ii[0];
if(ii[1] == ii[2]) return ii[1];
if(ii[2] == ii[0]) return ii[2];
return 0;
}
}
#if CAP_FIELD
EX namespace fieldpattern {
EX pair<int, bool> fieldval(cell *c) {
if(WDIM == 3) return make_pair(currfp.inverses[int(c->master->fieldval) * currfp.local_group], false);
else if(ctof(c)) return make_pair(int(c->master->fieldval), false);
else return make_pair(btspin(c->master->fieldval, c->c.spin(0)), true);
}
EX int fieldval_uniq(cell *c) {
return currentmap->pattern_value(c);
}
EX int fieldval_uniq_rand(cell *c, int randval) {
if(mhybrid) {
auto c1 = hybrid::get_where(c).first;
return PIU ( fieldval_uniq_rand(c1, randval) );
}
if(msphere || meuclid || NONSTDVAR)
// we do not care in these cases
return fieldval_uniq(c);
if(ctof(c)) return currfp.gmul(c->master->fieldval, randval)/7;
else {
int z = 0;
for(int u=0; u<6; u+=2)
z = max(z, btspin(currfp.gmul(createMov(c, u)->master->fieldval, randval), c->c.spin(u)));
return -1-z;
}
}
pair<int, int> subval(cell *c, int _subpathid = subpathid, int _subpathorder = subpathorder) {
if(_subpathid == -1)
_subpathid = currfp.matcode[currfp.strtomatrix("RRRPRRRRRPRRRP")];
if(_subpathorder == -1)
_subpathorder = currfp.order(currfp.matrices[subpathid]);
if(!ctof(c)) {
auto m = subval(createMov(c, 0));
for(int u=2; u<S6; u+=2)
m = min(m, subval(createMov(c, u)));
return m;
}
else {
pair<int, int> pbest, pcur;
pcur.first = c->master->fieldval;
pcur.second = 0;
pbest = pcur;
for(int i=0; i<_subpathorder; i++) {
pcur.first = currfp.gmul(pcur.first, _subpathid);
pcur.second++;
if(pcur < pbest) pbest = pcur;
}
return pbest;
}
}
EX }
#endif
EX int getHemisphere(heptagon *h, int which) {
int id = h->fiftyval;
if(S7 == 5) {
int hemitable[3][12] = {
{ 6, 3, 3, 3, 3, 3,-6,-3,-3,-3,-3,-3},
{ 6, 3, 6, 3, 0, 0,-6,-3,-6,-3, 0, 0},
{-3, 0, 3, 0,-6,-6, 3, 0,-3, 0, 6, 6}
};
return hemitable[which][id];
}
else if(S7 == 4 && which < 6) {
int hemitable[3][6] = {
{ 2, 2, 2,-1,-1,-1},
{ 2,-1, 2, 2,-1,-1},
{ 2,-1,-1, 2, 2,-1},
};
return hemitable[which][id];
}
else if(S7 == 3) {
int hemitable[3][4] = {
{ 2, 2,-1,-1},
{ 2,-1, 2,-1},
{ 2,-1,-1, 2},
};
return hemitable[which][id];
}
else return 0;
}
EX int getHemisphere(cell *c, int which) {
if(meuclid && quotient) return 0;
if(mhybrid) { auto d = hybrid::get_where(c); return PIU(getHemisphere(d.first, which)); }
if(WDIM == 3 && !mhybrid) {
hyperpoint p = tC0(calc_relative_matrix(c, currentmap->gamestart(), C0));
return int(p[which] * 6 + 10.5) - 10;
}
if(which == 0 && GOLDBERG && has_nice_dual()) {
set<cell*> visited;
vector<cell*> q;
vector<int> type;
auto visit = [&] (cell *c, int t) {
if(visited.count(c)) return;
visited.insert(c);
q.push_back(c);
type.push_back(t);
};
cellwalker cw(currentmap->gamestart(), 0);
int ct = 1;
visit(cw.at, ct);
do {
cw = cw + wstep;
visit(cw.at, -ct);
cw = cw + (2*ct) + wstep + ct;
ct = -ct;
}
while(cw.at != currentmap->gamestart());
for(int i=0; i<isize(q); i++)
forCellCM(c2, q[i])
if(pseudohept(q[i]) || pseudohept(c2))
visit(c2, type[i]);
for(int i=0; i<isize(q); i++) if(q[i] == c) return type[i];
return 0;
}
if(ctof(c))
return getHemisphere(c->master, which);
else {
int score = 0;
if(0) ;
#if CAP_GP
else if(GOLDBERG) {
auto li = gp::get_local_info(c);
gp::be_in_triangle(li);
auto corner = cgi.gpdata->corners * gp::loctoh_ort(li.relative);
ld scored =
corner[0] * getHemisphere(c->master->c7, which)
+ corner[1] * getHemisphere(c->master->move(li.last_dir)->c7, which)
+ corner[2] * getHemisphere(c->master->modmove(li.last_dir+1)->c7, which);
int score = int(scored + 10.5) - 10;
ld error = scored - score;
if(score == 0 && error > .001) score++;
if(score == 0 && error < -.001) score--;
return score;
}
else if(INVERSE) {
return UIU(getHemisphere(c, which));
}
#endif
#if CAP_IRR
else if(IRREGULAR) {
auto m = irr::get_masters(c);
for(int i=0; i<3; i++)
score += getHemisphere(m[i], which);
return score / 3;
}
#endif
else {
for(int i=0; i<6; i+=2)
score += getHemisphere(c->move(i), which) * (c->c.mirror(i) ? -1 : 1);
return score/3;
}
}
}
/** \brief Various functions related to map patterns. */
EX namespace patterns {
#if HDR
enum ePattern : char {
PAT_NONE = 0,
PAT_TYPES = 'T',
PAT_ZEBRA = 'z',
PAT_EMERALD = 'f',
PAT_PALACE = 'p',
PAT_FIELD = 'F',
PAT_DOWN = 'H',
PAT_COLORING = 'C',
PAT_SIBLING = 'S',
PAT_CHESS = 'c',
PAT_SINGLETYPE = 't'
};
static constexpr int SPF_ROT = 1;
static constexpr int SPF_SYM01 = 2;
static constexpr int SPF_SYM02 = 4;
static constexpr int SPF_SYM03 = 8;
static constexpr int SPF_CHANGEROT = 16;
static constexpr int SPF_TWOCOL = 32;
static constexpr int SPF_EXTRASYM = 64;
static constexpr int SPF_ALTERNATE = 128;
static constexpr int SPF_FOOTBALL = 256;
static constexpr int SPF_FULLSYM = 512;
static constexpr int SPF_DOCKS = 1024;
static constexpr int SPF_NO_SUBCODES = 2048;
static constexpr int SPF_SYM0123 = SPF_SYM01 | SPF_SYM02 | SPF_SYM03;
struct patterninfo {
int id;
int dir;
bool reflect;
/** 1 if all symmetries, c->type if no symmetries */
int symmetries;
};
#endif
void valSibling(cell *c, patterninfo& si, int sub, int pat) {
if(ctof(c)) {
int d = c->master->fieldval;
si.id = (d < siblings[d]) ? 0 : 1;
if(sub & SPF_ROT) si.id = 0;
for(int i=0; i<S7; i++) {
int di = c->master->move(i)->fieldval;
if(di == siblings[d]) si.dir = i;
}
si.reflect = false;
}
else {
int ids = 0, td = 0;
for(int i=0; i<S3; i++) {
int d = c->move(2*i)->master->fieldval;
ids |= (1<<d);
}
for(int i=0; i<S3; i++) {
int d = c->move(2*i)->master->fieldval;
if(ids & (1<<siblings[d])) td += d;
}
if(td) {
si.id = 4;
for(int i=0; i<S3; i++) {
int d = c->move(2*i)->master->fieldval;
if(!(ids & (1<<siblings[d]))) si.dir = 2*i;
}
/* if(!(sub & SPF_ROT)) {
int d0 = c->modmove(si.dir+2)->master->fieldval;
if(d0 < siblings[d0]) si.id += 8;
} */
si.reflect = false;
}
else {
si.id = 8;
si.dir = 0; // whatever
patterninfo si2;
valSibling(c->move(0), si2, sub, pat);
int di = si2.dir - c->c.spin(0);
di %= S7;
if(di<0) di += S7;
if(pat == PAT_SIBLING) si.reflect = di > S7/2;
if(sub & SPF_ROT) si.symmetries = 2;
}
}
}
EX int downdir(cell *c, const cellfunction& cf) {
return parent_id(c, 1, cf) + 1;
}
void applySym0123(int& i, int sub) {
bool sym01 = sub & SPF_SYM01;
bool sym02 = sub & SPF_SYM02;
bool sym03 = sub & SPF_SYM03;
if((sym01?1:0)+(sym02?1:0)+(sym03?1:0) >= 2) i &= ~3;
if(sym01 && (i&1)) i ^= 1;
if(sym02 && (i&2)) i ^= 2;
if(sym03 && (i&2)) i ^= 3;
}
void applyAlt(patterninfo& si, int sub, int pat) {
if(sub & SPF_ALTERNATE) {
si.id += 4;
si.id %= 12;
}
if(pat == PAT_COLORING && (sub & SPF_FOOTBALL)) {
if(si.id == 4) si.dir++;
si.id = !si.id;
if(si.id && (sub & SPF_EXTRASYM))
si.symmetries = si.id ? 1 : 2;
return;
}
}
void val46(cell *c, patterninfo &si, int sub, int pat) {
if(ctof(c)) {
si.id = c->master->emeraldval >> 1;
applySym0123(si.id, sub);
if(sub & SPF_CHANGEROT)
si.dir = (c->master->emeraldval&1);
else
si.dir = (c->master->emeraldval&1) ^ (c->master->emeraldval>>1);
si.symmetries = 2;
applyAlt(si, sub, pat);
/* printf("[%3d] ", c->master->emeraldval);
for(int i=0; i<6; i++) printf("%2d", val46(createMov(c, i)));
printf("\n"); */
}
else {
si.id = ((c->master->emeraldval & 1) ^ ((c->master->emeraldval & 2)>>1) ^ (c->c.spin(0)&1)) ? 8 : 4;
si.dir = ((c->move(0)->master->emeraldval + c->c.spin(0)) & 1) ? 2 : 0;
if(createMov(c, si.dir)->master->emeraldval & 4)
si.dir += 4;
if((sub & SPF_TWOCOL) && (pat == PAT_COLORING)) si.id = 4;
else if(pat == PAT_COLORING && si.id == 4) si.dir++;
if(sub & SPF_SYM01) si.symmetries = 2;
else if(sub & SPF_SYM03) si.symmetries = 2;
else if(sub & SPF_SYM02) si.symmetries = 4;
applyAlt(si, sub, pat);
}
}
// if(a46) return patterndir46(c, w == PAT_ZEBRA ? 3 : w == PAT_PALACE ? 2 : 1);
int inr(int a, int b, int c) { return a >= b && a < c; }
void val457(cell *c, patterninfo &si, int sub) {
si.id = zebra40(c);
if(inr(si.id, 8, 12)) si.symmetries = 4;
applySym0123(si.id, sub);
if(sub & SPF_ROT) {
if(si.id >= 4 && si.id < 7) si.id -= 4;
if(si.id >= 20 && si.id < 23) si.id -= 4;
}
if(ctof(c)) {
for(int i=0; i<c->type; i++)
if((zebra40(createStep(c->master, i + S7/2)->c7)&2) == (zebra40(createStep(c->master, i + 1 + S7/2)->c7)&2))
si.dir = i;
}
else {
int d = dir_bitrunc457(c);
if(d >= 0) si.dir = d;
else si.dir = (zebra40(createMov(c, 0)) & 4) ? 2 : 0;
}
}
EX void val38(cell *c, patterninfo &si, int sub, int pat) {
bool symRotation = sub & SPF_ROT;
if(ctof(c)) {
if(!symRotation)
si.id = (c->master->fiftyval >> 1) & 3;
else
si.id = 0;
if(!BITRUNCATED && gp_threecolor() != 2)
si.id *= 4;
else
si.id += 4;
si.dir = (pat == PAT_COLORING && BITRUNCATED ? 1 : 0) + (c->master->fiftyval | (c->master->fiftyval & 8 ? 0 : 2));
si.symmetries = 2;
si.id += 8;
si.id %= 12;
applyAlt(si, sub, pat);
if((sub & SPF_DOCKS) && (c->master->fiftyval & 32))
si.id += 16, si.symmetries = 4;
}
else {
int sp = c->c.spin(0);
#if CAP_GP
if(GOLDBERG) {
sp = gp::last_dir(c);
sp ^= int(ishex2(c));
}
#endif
if(geometry == gBolza2 && (!GOLDBERG || gp_threecolor() == 2)) {
patterninfo si0;
patterninfo si1;
#if CAP_GP
if(GOLDBERG) {
auto li = gp::get_local_info(c);
val38(c->master->c7, si0, 0, PAT_COLORING);
val38(c->master->move(li.last_dir)->c7, si1, 0, PAT_COLORING);
}
else
#endif
{
val38(c->move(0), si0, 0, PAT_COLORING);
val38(c->move(2), si1, 0, PAT_COLORING);
}
if((si0.id+1) % 3 == (si1.id) % 3)
si.id = 8;
else
si.id = 0;
}
else
si.id = 8 * ((c->master->fiftyval & 1) ^ (sp & 1));
#if CAP_GP
if(GOLDBERG && pseudohept(c)) si.id = 4;
#endif
bool dock = false;
for(int i=0; i<c->type; i+=2) {
int fiv = createMov(c, i)->master->fiftyval;
int fv = (fiv >> 1) & 3;
if(fv == 0) {
si.dir = (si.id == 8 && pat == PAT_COLORING ? 1 : 0) + i;
if(fiv & 32) dock = true;
}
}
if(symRotation) si.symmetries = 2;
si.id += 8;
si.id %= 12;
#if CAP_GP
if(GOLDBERG && pat == PAT_COLORING)
for(int i=0; i<c->type; i++) {
cell *c2 = createMov(c, i);
int id2 = 4;
if(!pseudohept(c2)) {
int sp2 = c2->c.spin(0);
if(GOLDBERG) {
sp2 = gp::last_dir(c2);
sp2 ^= int(ishex2(c2));
}
id2 = 8 * ((c2->master->fiftyval & 1) ^ (sp2 & 1));
}
// printf("%p %2d : %d %d\n", c, si.id, i, id2);
if((id2+4) % 12 == si.id) si.dir = i;
}
#endif
applyAlt(si, sub, pat);
if(dock && (sub & SPF_DOCKS)) si.id += 16;
}
}
void valEuclid6(cell *c, patterninfo &si, int sub) {
bool symRotation = sub & SPF_ROT;
si.id = ishept(c) ? 4 : ishex1(c) ? 8 : 0;
if(sub & SPF_CHANGEROT) {
si.dir = (zebra40(c)*4) % 6;
}
if(symRotation) si.id = 1;
if(euc::in(2,6) && (sub & SPF_FULLSYM))
si.symmetries = 1;
}
void valEuclid4(cell *c, patterninfo &si, int sub) {
si.id = eupattern4(c);
applySym0123(si.id, sub);
if(sub & SPF_CHANGEROT) {
int dirt[] = {0,1,3,2};
si.dir = dirt[si.id];
if(c->type == 8) si.dir *= 2;
}
if(sub & SPF_SYM03) {
si.id *= 4;
applyAlt(si, sub, PAT_COLORING);
}
else
si.symmetries = (sub & SPF_EXTRASYM) ? c->type/4 : c->type;
}
void val_all(cell *c, patterninfo &si, int sub, int pat) {
if(IRREGULAR || arcm::in() || bt::in() || arb::in() || WDIM == 3 || currentmap->strict_tree_rules()) si.symmetries = c->type;
else if(a46) val46(c, si, sub, pat);
else if(a38) val38(c, si, sub, pat);
else if(S7 < 6 && S3 == 3 && !INVERSE && !aperiodic) valSibling(c, si, sub, pat);
else if(euc::in(2,4)) valEuclid4(c, si, sub);
else if(euc::in(2,6)) valEuclid6(c, si, sub);
else if(a4) val457(c, si, sub);
else si.symmetries = ctof(c) ? 1 : 2;
}
void val_warped(cell *c, patterninfo& si) {
int u = ishept(c)?1:0;
if(S3 != 3 || S7 != 7 || NONSTDVAR) {
si.id = u;
si.dir = 1;
return;
}
int qhex = 0;
for(int v=0; v<c->type; v++) if(c->move(v) && !isWarped(c->move(v))) {
u += 2;
if(!ishept(c->move(v))) qhex++;
}
if(u == 8 && qhex == 2) u = 12;
else if(u == 2 && qhex == 1) u = 8;
else if(u == 6 && qhex == 2) u = 10;
si.id = u;
if(u == 6) {
for(int i=1; i<c->type; i+=2) if(!isWarped(createMov(c,i)))
si.dir = i;
}
else if(u == 2 || u == 3 || u == 8) {
for(int i=0; i<c->type; i++) if(!isWarped(createMov(c,i)))
si.dir = i;
}
else if(u == 4 || u == 10) {
for(int i=0; i<c->type; i+=2) if(!isWarped(createMov(c,i)))
si.dir = i;
if(u == 4)
si.reflect = !isWarped(createMov(c, (si.dir+1)%S6));
}
else if(u == 6) {
for(int i=1; i<c->type; i+=2) if(!isWarped(createMov(c,i)))
si.dir = i;
}
else if(u == 5) {
for(int i=0; i<c->type; i++) if(!isWarped(createMov(c,(i+S7/2)%S7)) && !isWarped(createMov(c,(i+(S7+1)/2)%S7)))
si.dir = i;
}
else if(u == 9) {
for(int i=0; i<c->type; i++) if(!isWarped(createMov(c,(i+2)%S7)) && !isWarped(createMov(c,(i+S7-2)%S7)))
si.dir = i;
}
else if(u == 11) {
for(int i=0; i<c->type; i++) if(isWarped(createMov(c,(i)%S7)) && isWarped(createMov(c,(i+1)%S7)))
si.dir = i;
}
else if(u == 12) {
for(int i=0; i<c->type; i+=2) if(isWarped(createMov(c,i))) {
si.dir = i;
si.reflect = !isWarped(createMov(c, (i+1)%S6));
}
}
else if(u == 7) {
for(int i=0; i<c->type; i++) if(!isWarped(createMov(c,(i+1)%S7)) && !isWarped(createMov(c,(i+S7-1)%S7)))
si.dir = i;
}
}
void val_nopattern(cell *c, patterninfo& si, int sub) {
// use val_all for nicer rotation
val_all(c, si, 0, 0);
// get id:
if((GOLDBERG? (S3==3) : !weirdhyperbolic) && isWarped(c))
val_warped(c, si);
else {
si.id = pseudohept(c) ? 1 : 0;
if(euc::in()) {
si.dir = ishex1(c) ? 0 : 3;
if(ctof(c)) si.symmetries = 3;
if(subpattern_flags & SPF_EXTRASYM)
si.symmetries /= 3;
if(subpattern_flags & SPF_FULLSYM)
si.symmetries = 1;
}
if(msphere && BITRUNCATED && !(S7 == 3))
si.symmetries = ctof(c) ? 1 : 2;
if(msphere && (sub & SPF_EXTRASYM)) {
si.symmetries = ctof(c) ? 1 : 2;
}
if(a38)
si.symmetries = (ctof(c) && BITRUNCATED) ? 1 : 2;
if(a457) {
si.symmetries = ctof(c) ? 1 : 2;
if(!ctof(c)) si.dir = 0;
}
if(a46) {
si.symmetries = ctof(c) ? 1 : 2;
}
}
if(GOLDBERG && has_nice_dual() && !ishept(c) && ishex1(c)) si.dir = gmod(si.dir+3, S6);
}
EX ePattern whichPattern = PAT_NONE;
EX int subpattern_flags;
void val_threecolors(cell *c, patterninfo& si, int sub) {
int pcol = pattern_threecolor(c);
si.id = pcol * 4;
pcol = (pcol+1) % 3;
si.dir = -1;
for(int i=0; i<c->type; i++)
if(pattern_threecolor(createMov(c, i)) == pcol) {
if(si.dir == -1) si.dir = i;
else {
si.symmetries = i - si.dir;
break;
}
}
if(euc::in(2,6) && (sub & SPF_CHANGEROT)) {
if(GOLDBERG) {
auto li = gp::get_local_info(c);
if(li.first_dir >= 0)
si.dir = gmod(zebra40(c)*4 - li.total_dir - li.last_dir, 6);
else
si.dir = gmod(zebra40(c)*4, 6);
}
else if(c == c->master->c7)
si.dir = (zebra40(c)*4) % 6;
else
si.dir = (zebra40(c)*4 + 9 - c->c.spin(0)) % 6;
}
if(sub & SPF_ROT) si.id = 1;
if(euc::in(2,6) && !(sub & SPF_EXTRASYM)) {
si.symmetries = 6;
}
if(euc::in(2,6) && (sub & SPF_FULLSYM))
si.symmetries = 1;
applyAlt(si, sub, PAT_COLORING);
}
EX patterninfo getpatterninfo(cell *c, ePattern pat, int sub) {
if(fake::in()) return FPIU(getpatterninfo(c, pat, sub));
if(!(sub & SPF_NO_SUBCODES)) {
auto si = getpatterninfo(c, pat, sub | SPF_NO_SUBCODES);
if(1) ;
#if CAP_IRR
else if(IRREGULAR)
si.id += irr::cellindex[c] << 8;
#endif
#if CAP_ARCM
else if(arcm::in())
si.id += (arcm::id_of(c->master) << 8) + (arcm::parent_index_of(c->master) << 16);
#endif
#if CAP_GP
else if(GOLDBERG) {
if(c == c->master->c7) si.id += (c->c.fix(si.dir) << 8);
else si.id += (get_code(gp::get_local_info(c)) << 16) | (c->c.fix(si.dir) << 8);
}
#endif
return si;
}
bool symRotation = sub & SPF_ROT;
// bool sym0 = sub & (SPF_SYM01 | SPF_SYM02 | SPF_SYM03);
patterninfo si;
si.dir = 0; si.reflect = false; si.id = ctof(c);
si.symmetries = c->type;
if(bt::in()) {
if(pat == PAT_SINGLETYPE) si.id = 0;
else si.id = c->type & 1;
si.dir = 2;
return si;
}
if(pat == PAT_SINGLETYPE) {
si.id = 0; si.symmetries = 1;
if(sub & SPF_TWOCOL) si.id = c->type & 1;
if(sub & SPF_EXTRASYM) si.reflect = true;
return si;
}
if(currentmap->strict_tree_rules()) return si;
if(arb::in()) {
si.id = arb::id_of(c->master);
si.dir = 0;
si.symmetries = c->type / arb::current.shapes[si.id].repeat_value;
si.reflect = false;
return si;
}
#if CAP_ARCM
if(arcm::in() && pat == 0) {
if(sub & SPF_FOOTBALL) {
val_threecolors(c, si, sub);
return si;
}
int id = arcm::id_of(c->master);
auto& ca = arcm::current;
si.id = ca.tilegroup[id];
si.symmetries = ca.periods[si.id];
si.dir = ca.groupoffset[id];
if((sub & SPF_EXTRASYM) && ca.have_symmetry && ca.tilegroup[id^1] < ca.tilegroup[id])
si.id = ca.tilegroup[id^1],
si.reflect = true;
return si;
}
#endif
if(pat == PAT_ZEBRA && stdhyperbolic) {
si.id = zebra40(c); // 4 to 43
int t4 = si.id>>2, tcdir = 0;
if(PURE) tcdir = si.id^1;
else if(t4 == 10) tcdir = si.id-20;
else if(t4 >= 4 && t4 < 7) tcdir = 40 + (si.id&3);
else if(t4 >= 1 && t4 < 4) tcdir = si.id+12;
else if(t4 >= 7 && t4 < 10) tcdir = si.id-24;
for(int i=0; i<c->type; i++) if(c->move(i) && zebra40(c->move(i)) == tcdir)
si.dir = i;
applySym0123(si.id, sub);
if(symRotation) {
if(si.id >= 8 && si.id < 12) si.id -= 4;
if(si.id >= 12 && si.id < 16) si.id -= 8;
if(si.id >= 20 && si.id < 24) si.id -= 4;
if(si.id >= 24 && si.id < 28) si.id -= 8;
if(si.id >= 32 && si.id < 36) si.id -= 4;
if(si.id >= 36 && si.id < 40) si.id -= 8;
}
if(si.id >= 40 && si.id < 44 && symRotation)
si.symmetries = 2;
if(si.id >= 40 && si.id < 44 && (sub & (SPF_SYM02 | SPF_SYM03)))
si.symmetries = 2;
}
else if(pat == PAT_EMERALD && (stdhyperbolic || a38)) {
si.id = emeraldval(c); // 44 to 99
if(!meuclid) {
int tcdir = 0, tbest = (si.id&3);
for(int i=0; i<c->type; i++) {
cell *c2 = c->move(i);
if(c2) {
int t2 = emeraldval(c2);
if((si.id&3) == (t2&3) && t2 > tbest)
tbest = t2, tcdir = i;
}
}
si.dir = tcdir;
}
applySym0123(si.id, sub);
if(si.id >= 44 && si.id < 48)
si.symmetries = 2;
}
else if(pat == PAT_PALACE && stdhyperbolic) {
si.id = fiftyval200(c);
si.reflect = polara50(c);
int look_for = -1;
int shft = 0;
if(inr(si.id, 0, 4)) {
look_for = si.id + (PURE ? 4 : 60);
if(symRotation) si.symmetries = 1;
}
else if(inr(si.id, 4, 32)) look_for = si.id + (PURE ? 28 : 168);
else if(inr(si.id, 32, 60)) look_for = si.id + (PURE ? -28 : 112);
else if(inr(si.id, 60, 88)) look_for = si.id - 56, shft = si.reflect ? 1 : 5;
else if(inr(si.id, 88, 116)) look_for = si.id - 84, shft = 3;
else if(inr(si.id, 116, 144)) look_for = si.id + 56;
else if(inr(si.id, 144, 172)) look_for = si.id + 28;
else if(inr(si.id, 172, 200)) look_for = si.id - 28;
si.dir = -1;
for(int i=0; i<c->type; i++) {
cell *c2 = createMov(c, i);
if(fiftyval200(c2) == look_for)
si.dir = (i + shft) % c->type;
}
if(si.dir == -1) {
si.dir = 0;
if(c->cpdist <= 1) printf("Not found for ID = %d (lf=%d)\n", si.id, look_for);
c->item = itBuggy;
}
applySym0123(si.id, sub);
if(symRotation && si.id >= 4)
si.id -= ((si.id/4-1) % 7) * 4;
}
else if(pat == PAT_PALACE && meuclid) {
si.id = fiftyval049(c);
si.symmetries = 6;
}
else if(pat == PAT_PALACE) {
val_nopattern(c, si, sub);
si.id = c->master->fiftyval;
}
else if(pat == PAT_DOWN) {
si.id = towerval(c, coastvalEdge);
si.dir = downdir(c, coastvalEdge);
}
#if CAP_FIELD
else if(pat == PAT_FIELD) {
if(meuclid)
// use the torus ID
si.id = fieldpattern::fieldval_uniq(c);
else if(PURE && standard_tiling())
// use the actual field codes
si.id = fieldpattern::fieldval(c).first;
else
// use the small numbers from windmap
si.id = windmap::getId(c);
// todo dir
}
#endif
else if(msphere && pat == PAT_SIBLING) {
val_all(c, si, sub, pat);
}
else if(a457 && pat == PAT_ZEBRA) {
val_all(c, si, sub, pat);
}
else if(GOLDBERG) {
bool football = (pat == PAT_COLORING && (sub & SPF_FOOTBALL)) || pat == 0;
if(football) val_nopattern(c, si, sub);
else val_threecolors(c, si, sub);
}
else if(pat == PAT_COLORING && (S7 == 4 || meuclid || (a38 && gp_threecolor() == 1) || arcm::in())) {
val_threecolors(c, si, sub);
}
else if(pat == PAT_COLORING && (a46 || a38)) {
val_all(c, si, sub, pat);
}
else if(pat == PAT_CHESS) {
val_nopattern(c, si, sub);
si.id = chessvalue(c);
}
else
val_nopattern(c, si, sub);
return si;
}
#if HDR
inline patterninfo getpatterninfo0(cell *c) {
return getpatterninfo(c, whichPattern, subpattern_flags);
}
#endif
EX }
EX bool geosupport_chessboard() {
return
#if CAP_ARCM
(arcm::in() && PURE) ? arcm::current.support_chessboard() :
(arcm::in() && DUAL) ? arcm::current.support_threecolor_bitruncated() :
#endif
WARPED ? true :
INVERSE ? false :
(bt::in() || aperiodic) ? 0 :
(S3 >= OINF) ? true :
(valence() % 2 == 0);
}
EX int geosupport_threecolor() {
if(IRREGULAR) return 0;
if(aperiodic || bt::in()) return 0;
#if CAP_ARCM
if(arcm::in() && PURE) return arcm::current.support_threecolor();
if(arcm::in() && BITRUNCATED) return arcm::current.support_threecolor_bitruncated();
if(arcm::in() && DUAL) return 0; // it sometimes does support threecolor, but it can be obtained in other ways then
#endif
if(INVERSE) return 0;
if(BITRUNCATED && S3 == 3) {
if(S7 % 2) return 1;
return 2;
}
if(S3 >= OINF) return 0;
if((S7 % 2 == 0) && (S3 == 3))
return 2;
if(a46 && PURE)
return 1;
return 0;
}
EX int geosupport_football() {
// always works in bitrunc geometries
if(BITRUNCATED) return 2;
if(INVERSE) return 0;
if(bt::in() || aperiodic) return 0;
#if CAP_ARCM
if(arcm::in() && DUAL) return false;
// it sometimes does support football, but it can be obtained in other ways then
if(arcm::in() /* PURE */) return arcm::current.support_football();
#endif
if(arb::in()) return arb::current.have_ph;
#if CAP_IRR
if(IRREGULAR) return irr::bitruncations_performed ? 2 : 1;
#endif
// always works in patterns supporting three-color
int tc = max(geosupport_threecolor(), gp_threecolor());
if(tc) return tc;
if(S3 == 3 && S7 == 7) return 1;
// nice chessboard pattern, but not the actual Graveyard
if(S3 == 4 && !(S7&1)) return 1;
if(S3 == 4 && GOLDBERG) return 1;
return 0;
}
EX int pattern_threecolor(cell *c) {
#if CAP_ARCM
if(arcm::in()) {
if(PURE)
return arcm::threecolor(c);
else /* if(BITRUNCATED) */
return c->master->rval1;
}
#endif
if(arb::in()) return arb::id_of(c->master) % 3;
if(IRREGULAR || bt::in()) return !pseudohept(c);
#if CAP_GP
if(S3 == 3 && !(S7&1) && gp_threecolor() == 1 && c->master->c7 != c) {
auto li = gp::get_local_info(c);
int rel = gmod(li.relative.first - li.relative.second, 3);
int par = gmod(gp::param.first - gp::param.second, 3);
if(rel == 0)
return pattern_threecolor(c->master->c7);
else if(rel == par)
return pattern_threecolor(c->master->cmove(li.last_dir)->c7);
else
return pattern_threecolor(c->master->cmodmove(li.last_dir+1)->c7);
}
#endif
if(a38) {
// if(GOLDBERG && gp_threecolor() == 2 && gp::pseudohept_val(c) == 0) return 0;
patterns::patterninfo si;
patterns::val38(c, si, !BITRUNCATED ? 0 : patterns::SPF_ROT, patterns::PAT_COLORING);
return si.id >> 2;
}
if(euc::in(2,6) && gp_threecolor() == 2) {
auto li = gp::get_local_info(c);
int rel = gmod(li.relative.first - li.relative.second, 3);
if(rel && (li.last_dir&1)) rel = 3 - rel;
return rel;
}
#if CAP_GP
if(a4 && GOLDBERG) {
patterns::patterninfo si;
auto li = gp::get_local_info(c);
if(S7 & 1) return (li.relative.first&1) + (li.relative.second&1)*2;
patterns::val46(c->master->c7, si, 0, patterns::PAT_COLORING);
int i = si.id;
if(i&2) i ^= 1;
patterns::val46(createStep(c->master, li.last_dir)->c7, si, 0, patterns::PAT_COLORING);
if(si.id&2) si.id ^= 1;
int i2 = i ^ si.id;
int i3 = 3 - i2;
if(gp::param.first % 2 == 0 && gp::param.second % 2 == 0) i = 0;
if(li.relative.first & 1) i ^= i3;
if(li.relative.second & 1) i ^= i2;
return i;
}
#endif
if(a46 && BITRUNCATED) {
patterns::patterninfo si;
patterns::val46(c, si, 0, patterns::PAT_COLORING);
int i = si.id;
return i >> 2;
}
if(meuclid) {
if(a4 && PURE) return eupattern4(c);
if(euc::in(2,6) && !BITRUNCATED) return eupattern(c) % 3;
return c == c->master->c7 ? 0 : (c->c.spin(0)&1) ? 1 : 2;
}
if(S3 >= OINF) return c->master->distance % 3;
if(S7 == 4 && S3 == 3) {
int codesN[6] = {0,1,2,1,2,0};
#if CAP_GP
if(gp_threecolor() == 2) {
auto li = gp::get_local_info(c);
int sp = gmod(li.relative.first + 2 * li.relative.second, 3);
if(sp != 0) {
if(li.last_dir & 1)
sp = 3 - sp;
if(among(c->master->fiftyval, 1, 3, 5))
sp = 3 - sp;
}
return sp;
}
#endif
if(PURE)
return codesN[c->master->fiftyval];
if(ctof(c))
return 0;
else for(int i=0; i<3; i++) {
cell *c2 = c->move(i);
if(c2->master->fiftyval == 0)
return 1 + (c->c.spin(i)&1);
if(c2->master->fiftyval == 5)
return 2 - (c->c.spin(i)&1);
}
}
if(stdhyperbolic && PURE) {
int z = zebra40(c);
if(z == 5 || z == 8 || z == 15) return 0;
if(c->land == laSnakeNest) {
if(z == 10 || z == 12 || z == 7) return 2;
if(z == 6 || z == 9) return 3;
if(z == 14 || z == 11) return 4;
}
return 1;
}
if(a46 && !BITRUNCATED) {
patterns::patterninfo si;
patterns::val46(c, si, 0, patterns::PAT_COLORING);
return si.id;
}
if(S7 == 5 && PURE && S3 == 3) {
const int codes[12] = {1, 2, 0, 3, 2, 0, 0, 1, 3, 1, 2, 3};
return codes[c->master->fiftyval];
}
if(S7 == 3 && PURE)
return c->master->fiftyval;
#if CAP_GP
if(gp_threecolor() && (S7&1))
return gp::pseudohept_val(c) > 0;
#endif
return !ishept(c);
}
// returns ishept in the normal tiling;
// in the 'pure heptagonal' tiling, returns true for a set of cells
// which roughly corresponds to the heptagons in the normal tiling
EX bool pseudohept(cell *c) {
#if CAP_IRR
if(IRREGULAR) return irr::pseudohept(c);
#endif
if(mhybrid) { auto d = hybrid::get_where(c); return ((!mproduct) || (d.second & 1)) && PIU(pseudohept(d.first)); }
#if CAP_BT
if(nil) return c->master->zebraval & c->master->emeraldval & c->master->fieldval & 1;
if(sol) return (c->master->emeraldval % 3 == 2) && (c->master->zebraval % 3 == 2) && (c->master->distance % 2);
if(nih) return c->master->zebraval % 3 == 2 && c->master->emeraldval % 2 == 1 && (c->master->distance % 2);
if(kite::in()) return kite::getshape(c->master) == kite::pDart;
if(hat::in()) return hat::pseudohept(c);
if(bt::in()) return bt::pseudohept(c);
#endif
if(S3 >= OINF) return c->master->distance % 3 == 1;
#if MAXMDIM == 4
if(WDIM == 3) {
if(geometry == gField435) return false;
else if(euc::in()) return euc::pseudohept(c);
else return reg3::pseudohept(c);
}
#endif
#if CAP_ARCM
if(arcm::in()) return arcm::pseudohept(c);
#endif
if(arb::in()) return arb::pseudohept(c);
#if CAP_GP
if(INVERSE) return gp::inverse_pseudohept(c);
if(GOLDBERG && gp_threecolor() == 2)
return gp::pseudohept_val(c) == 0;
if(GOLDBERG && gp_threecolor() == 1 && (S7&1) && (S3 == 3))
return gp::pseudohept_val(c) == 0;
#endif
return pattern_threecolor(c) == 0;
}
/** like pseudohept, but return randomly if no pseudohept is available */
EX bool pseudohept_r(cell *c) {
if(UNTRUNCATED || UNRECTIFIED)
return hrand(100) < 20;
return pseudohept(c);
}
// while Krakens movement is usually restricted to non-pseudohept cells,
// there is one special case when this does not work (because non-pseudohept cells have varying degrees)
EX bool kraken_pseudohept(cell *c) {
if(0);
#if CAP_GP
else if(!meuclid && S3 == 4 && GOLDBERG && (gp::param.first % 2 || gp::param.second % 2 || S7 % 2))
return ishept(c);
#endif
#if CAP_IRR
else if(IRREGULAR)
return c->type != 6;
#endif
#if CAP_ARCM
else if(arcm::in() && PURE)
return c->type != isize(arcm::current.triangles[0]);
else if(arcm::in() && BITRUNCATED)
return pseudohept(c);
else if(arcm::in() && DUAL)
return false;
#endif
else if(!meuclid && S3 == 3 && !(S7&1) && gp_threecolor() == 1)
return ishept(c);
else
return pseudohept(c);
}
EX bool warptype(cell *c) {
if(geosupport_chessboard())
return chessvalue(c);
else if(NONSTDVAR)
return pseudohept(c);
else
return pattern_threecolor(c) == 0;
}
EX namespace ccolor {
#if HDR
struct data;
using color_function = std::function<color_t(cell *c, data& cco)>;
struct data {
string name;
bool_reaction_t available;
color_function f;
colortable ctab;
data(string name, bool_reaction_t av, color_function f, const colortable& ctab) : name(name), available(av), f(f), ctab(ctab) {}
color_t operator () (cell *c) { return f(c, *this); }
};
#endif
EX color_t apeirogonal_color = 0xFFFFFFFF;
EX ld rwalls = 50;
EX bool live_canvas;
EX void edit_rwalls() {
dialog::editNumber(rwalls, 0, 100, 10, 50, XLAT("probability of a wall (%)"), "");
dialog::get_di().extra_options = [] {
dialog::addSelItem(XLAT("no walls"), "0", 'N');
dialog::add_action([] { rwalls = 0; stop_game(); start_game(); popScreen(); });
};
dialog::get_di().reaction = [] { stop_game(); start_game(); };
}
EX hookset<int(cell*)> hooks_generate_canvas;
EX int generateCanvas(cell *c) {
int i = callhandlers(-1, hooks_generate_canvas, c);
if(i != -1) return i;
if(arb::apeirogon_consistent_coloring && arb::is_apeirogonal(c)) {
for(cell *c1: {c->move(c->type-1), c->move(c->type-2), c->cmove(c->type-1)->move(c->type-1), c->cmove(c->type-2)->move(c->type-2)})
if(c1 && c1->mpdist <= BARLEV) return c1->landparam;
}
return (*which)(c);
}
EX bool always_available() { return true; }
#define CCO [] (cell *c, data& cco) -> color_t
bool is_mirrored(cell *c) {
#if CAP_ARCM
if(arcm::in()) {
int id = arcm::id_of(c->master);
int tid = arcm::current.tilegroup[id];
int tid2 = arcm::current.tilegroup[id^1];
return (id&1) && (tid != tid2);
}
#endif
if(arb::in()) {
int id = shvid(c);
auto& sh = arb::current.shapes[id];
return c->master->emeraldval || sh.is_mirrored;
}
return false;
}
EX data shape = data("shape", always_available, CCO {
#if CAP_ARCM
if(arcm::in()) {
return cco.ctab[arcm::get_graphical_id(c)];
}
#endif
if(arb::in()) {
int id = shvid(c);
auto& sh = arb::current.shapes[id];
int oid = sh.orig_id;
return cco.ctab[oid];
}
return cco.ctab[shvid(c)];
}, {
0xF04040, 0x40F040, 0x4040F0,
0xD0D000, 0xD000D0, 0x00D0D0,
0xC0C0C0, 0x404040, 0x808080,
0xF08040, 0xF04080, 0x40F080,
0x4080F0, 0x8040F0, 0x80F040,
0xFFD500 }
);
EX data shape_mirror = data("shape (mirror)", [] { return arcm::in() || arb::in(); }, CCO {
return shape.f(c, is_mirrored(c) ? cco : shape);
}, {
0xF04080, 0x40F080, 0x3030D0,
0xA0A060, 0xA000F0, 0x00A060,
0xC0C0F0, 0x404070, 0x8080C0,
0xF08080, 0xF040C0, 0x40F0C0,
0x3060D0, 0x6030D0, 0x80F080,
0xFFD580 });
EX data sides = data("sides", always_available, CCO {
if(arb::is_apeirogonal(c)) return apeirogonal_color;
return cco.ctab[c->type];
}, {
// trying to get colors as in Wikipedia [ https://en.wikipedia.org/wiki/Euclidean_tilings_by_convex_regular_polygons#k-uniform_tilings ]
0, 0x40C040, 0xFFFFFF, 0xFFFF00,
0xFF0000, 0xC000C0 /* unknown5 */, 0x00FF00, 0x00C0C0 /* unknown7 */, 0xFF8000,
0xFFFF80, 0xC040C0, 0xFFD500, 0x000080,
0x404040, 0x606060, 0x808080
});
EX map<cell*, pair<int, ld>> percentages;
auto pct_hook = addHook(hooks_clearmemory, 40, [] { percentages = {}; });
EX data plain = data("single color", always_available, CCO {
if(!percentages.count(c)) {
percentages[c].first = hrand(1000000);
percentages[c].second = c == cwt.at ? 100 : hrand(10000) / 100.;
}
auto& p = percentages[c];
color_t r = cco.ctab[gmod(p.first, cco.ctab.size())];
if(p.second < rwalls) r |= 0x1000000;
return r;
},
{linf[laCanvas].color >> 2});
EX ld random_bright = 0;
EX data random = data("random", always_available, CCO {
color_t r = hrand(0xFFFFFF + 1);
if(hrand(100) < rwalls) r |= 0x1000000;
if(random_bright) r = gradient(r, 0xFFFFFF, 0, random_bright, 1);
if(c == cwt.at && rwalls <= 100) r &= 0xFFFFFF;
return r;
}, {0, 0xFFFFFF});
EX string color_formula = "rgb(to01(x),to01(y),to01(z))";
EX data formula = data("formula", always_available, CCO {
color_t col = patterns::compute_map_function(c, color_formula);
bool wall = (col & 0xFF);
col >>= 8; if(wall) col |= 0x1000000;
return col;
}, {});
EX data threecolor = data("threecolor", [] { return geosupport_threecolor(); }, CCO {
return cco.ctab[pattern_threecolor(c)];
}, { 0x7C0000, 0x007C00, 0x00007C, 0x404040, 0x700070, 0x007070, 0x707000, 0x606060 });
EX data football = data("football", [] { return geosupport_football(); }, CCO {
return cco.ctab[pseudohept(c)];
}, {0xC0C0C0, 0x202020});
EX data chessboard = data("chessboard", [] { return geosupport_chessboard(); }, CCO {
return cco.ctab[chessvalue(c)];
}, {0x202020, 0xC0C0C0});
EX data landscape = data("rainbow landscape", [] { return geometry_supports_cdata(); }, CCO {
return random_landscape(c, 3, 1, 17, 0x808080);
}, {});
EX data landscape_dark = data("dark landscape", [] { return geometry_supports_cdata(); }, CCO {
return random_landscape(c, 6, 8, 2, 0x101010);
}, {});
EX data seven = data("seven-coloring", [] { return euc::in(2, 6); },
CCO { return cco.ctab[patterns::sevenval(c)]; },
{0xC00000, 0xC08000, 0xC0C000, 0x00C000, 0xC0C0, 0x00C0, 0xC000C0});
#if CAP_CRYSTAL
EX data crystal_colors = data("Crystal coordinates", [] { return cryst; },
CCO { return crystal::colorize(c, 'K'); }, {});
EX data crystal_cage = data("Crystal cage", [] { return cryst; },
CCO { return crystal::colorize(c, '#'); }, {});
EX data crystal_hyperplanes = data("Crystal hyperplanes", [] { return cryst; },
CCO { return crystal::colorize(c, '='); }, {});
EX data crystal_honeycomb = data("Crystal honeycomb", [] { return cryst; },
CCO { return crystal::colorize(c, 'O'); }, {});
EX data crystal_diagonal = data("Crystal diagonal", [] { return cryst; },
CCO { return crystal::colorize(c, '/'); }, {});
#endif
EX data nil_penrose = data("Nil staircase", [] { return nil; },
CCO { return nilv::colorize(c, '/'); }, {});
EX data distance = data("distance from origin", always_available,
CCO {
int d = celldist(c);
color_t res = gradient(cco.ctab[0], cco.ctab[1], 0, min(1.8/(1+d), 1.), 1);
if(d > 3) res |= 0x1000000;
return res;
},
{0, 0xFFFFFF}
);
EX data randbw = data("random black-and-white", always_available, CCO {
return cco.ctab[randpattern(c, patterns::subcanvas) ? 1 : 0];
}, {0x303030, 0x1C0C0C0});
auto non_sphere = [] { return !msphere; };
#if CAP_FIELD
EX data field_c = data("field pattern C", non_sphere, CCO {
if(!hyperbolic) return plain(c);
using namespace fieldpattern;
int z = currfp.getdist(fieldval(c), make_pair(0,false));
if(z < currfp.circrad) return 0x00C000;
int z2 = currfp.getdist(fieldval(c), make_pair(currfp.otherpole,false));
if(z2 < currfp.disthep[currfp.otherpole] - currfp.circrad)
return 0x3000;
return 0x6000;
}, {});
EX data field_d = data("field pattern D", non_sphere, CCO {
if(!hyperbolic) return plain(c);
using namespace fieldpattern;
int z = currfp.getdist(fieldval(c), make_pair(0,false));
return 255 * (currfp.maxdist+1-z) / currfp.maxdist;
}, {});
EX data field_n = data("field pattern N", non_sphere, CCO {
if(!hyperbolic) return plain(c);
using namespace fieldpattern;
int z = currfp.getdist(fieldval(c), make_pair(0,false));
int z2 = currfp.getdist(fieldval(c), make_pair(currfp.otherpole,false));
if(z < z2) return 0x00C000;
if(z > z2) return 0xC00000;
return 0xCCCC00;
}, {});
EX data field_s = data("field pattern S", non_sphere, CCO {
if(!hyperbolic) return plain(c);
return 0x3F1F0F * fieldpattern::subval(c).second + 0x000080;
}, {});
#endif
EX data zebra_pattern = data("zebra", [] { return stdhyperbolic || a4; }, CCO {
return cco.ctab[zebra40(c)];
}, {0x1C0C0C0, 0x1E0E0E0, 0x404040, 0x606060 });
EX data zebra_triangles = data("four triangles", [] { return stdhyperbolic; }, CCO {
int fv = zebra40(c);
if(fv/4 == 4 || fv/4 == 6 || fv/4 == 5 || fv/4 == 10) fv ^= 2;
return cco.ctab[fv];
}, {0x804040, 0x1408040, 0x404080, 0x1808040 });
EX data zebra_stripes = data("three stripes", [] { return stdhyperbolic; }, CCO {
return cco.ctab[zebra3(c)];
}, {0xC0C0C0, 0x1800000, 0x1008000, 0x000080 });
// e,b,a
EX data emerald_pattern = data("emerald pattern", [] { return stdhyperbolic; }, CCO {
return cco.ctab[emeraldval(c)];
}, {0x404040, 0x1800000, 0x1008000, 0x000080 });
EX data palace_elements = data("four elements", [] { return stdhyperbolic; }, CCO {
return cco.ctab[polara50(c) + 2 * polarb50(c)];
}, {0x404040, 0x1800000, 0x1008000, 0x000080 });
EX data palace_domains = data("eight domains", [] { return stdhyperbolic; }, CCO {
color_t col = cco.ctab[land50(c)];
if(polara50(c)) col += 0x181818;
return col;
}, {0x800000, 0x503000, 0x206000, 0x202020, 0x004040, 0x001070, 0x606060, 0x500030});
EX data masters = data("masters", always_available, CCO {
return cco.ctab[c == c->master->c7];
}, {0xA0FFA0, 0x60C060});
EX data hat_in_cluster = data("hat in cluster", [] { return hat::in(); }, CCO {
if(!cco.available()) return plain(c);
return hat::hatcolor(c, 6);
}, {});
EX data hat_clusters = data("hat clusters", [] { return hat::in(); }, CCO {
if(!cco.available()) return plain(c);
return hat::hatcolor(c, 7);
}, {});
EX data hat_superclusters = data("hat superclusters", [] { return hat::in(); }, CCO {
if(!cco.available()) return plain(c);
return hat::hatcolor(c, 8);
}, {});
EX data manifold_nearer = data("nearer end", [] { return closed_manifold; }, CCO {
return patterns::nearer_map(c);
}, {});
EX data manifold_furthest = data("furthest from start", [] { return closed_manifold; }, CCO {
return patterns::furthest_map(c, 0); // what about 1 and 2?
}, {});
EX vector<data*> all = {
&plain, &random, &sides, &formula,
&shape, &shape_mirror,
&threecolor, &football, &chessboard,
&landscape, &landscape_dark, &seven, &randbw, &distance,
#if CAP_CRYSTAL
&crystal_colors, &crystal_cage, &crystal_hyperplanes, &crystal_honeycomb, &crystal_diagonal,
#endif
&nil_penrose,
&zebra_pattern, &zebra_triangles, &zebra_stripes, &emerald_pattern, &palace_elements, &palace_domains,
#if CAP_FIELD
&field_c, &field_d, &field_n, &field_s,
#endif
&masters,
&hat_in_cluster, &hat_clusters, &hat_superclusters, &manifold_furthest, &manifold_nearer,
};
EX data *which = &plain;
EX void set_plain(color_t col) { which = &plain; plain.ctab = {col}; }
EX void set_plain_nowall(color_t col) { which = &plain; plain.ctab = {col}; if(GDIM == 2) rwalls = 0; }
EX void set_random(int r) { which = &random; rwalls = r; }
EX void set_formula(const string& s) { which = &formula; color_formula = s; }
EX void set_colors(data& d, const colortable& tab) { which = &d; d.ctab = tab; }
void config_plain(bool instant) {
static unsigned c = (plain.ctab[0] << 8) | 0xFF;
static unsigned canvasbacks[] = {
6, 0xFFFFFFFF, 0x101010FF, 0x404040FF, 0x808080FF, 0x800000FF, unsigned(linf[laCanvas].color >> 2) << 8
};
dialog::openColorDialog(c, canvasbacks);
dialog::get_di().reaction = [instant] () {
if(instant) {
stop_game();
set_plain(c >> 8);
enable_canvas();
start_game();
}
else {
set_plain(c >> 8);
}
};
dialog::get_di().reaction_final = edit_rwalls;
return;
}
EX void config_formula(bool instant) {
string s = XLAT(
"This lets you specify the color pattern as a function of the cell.\n");
s += XLAT("rgb(r,g,b)\n");
s += XLAT("indexed(f) (where f is a function of p, p=1 for red, 2 for green, 3 for blue)");
s += XLAT(
"Available parameters:\n\n"
"x, y, z (hyperboloid/sphere/plane coordinates in non-crystal geometries)\n"
"ex, ey, ez (in Euclidean geometries)\n"
"x0, x1, x2... (crystal geometry only)\n"
);
if(MDIM == 4) s += XLAT(
"w (fourth coordinate)\n"
"wallif(condition, color)\n"
);
s += XLAT("see compute_map_function in pattern2.cpp for more\n");
dialog::edit_string(ccolor::color_formula, "formula", s);
dialog::get_di().extra_options = dialog::parser_help;
dialog::get_di().reaction_final = [instant] () {
if(instant) stop_game();
ccolor::which = &formula;
if(instant) {
enable_canvas();
start_game();
}
};
}
void list(bool instant) {
dialog::start_list(900, 900, 'a');
for(auto p: ccolor::all) if(p->available()) {
dialog::addBoolItem(XLAT(p->name), p == which, dialog::list_fake_key++);
dialog::add_action([instant, p] {
if(p == &plain) {
config_plain(instant);
return;
}
if(p == &formula) {
config_formula(instant);
return;
}
if(p == &random) {
ccolor::edit_rwalls();
}
if(instant) stop_game();
ccolor::which = p;
patterns::subcanvas = rand();
if(instant) {
enable_canvas();
start_game();
}
using namespace patterns;
if(among(p, &zebra_pattern, &zebra_stripes, &zebra_triangles))
whichPattern = PAT_ZEBRA, subpattern_flags = SPF_SYM0123 | SPF_ROT;
if(p == &zebra_pattern && a46)
whichPattern = PAT_COLORING, subpattern_flags = SPF_CHANGEROT | SPF_SYM0123;
if(p == &emerald_pattern)
whichPattern = PAT_EMERALD, subpattern_flags = SPF_SYM0123 | SPF_ROT;
if(p == &palace_domains)
whichPattern = PAT_PALACE, subpattern_flags = SPF_SYM0123 | SPF_ROT;
});
}
dialog::end_list();
}
#undef CCO
EX }
EX color_t random_landscape(cell *c, int mul, int div, int step, color_t base) {
int col[4];
for(int j=0; j<4; j++) {
col[j] = getCdata(c, j);
col[j] *= mul;
col[j] %= 240;
if(col[j] > 120) col[j] = 240 - col[j];
if(col[j] < -120) col[j] = -240 - col[j];
}
col[0] /= div;
col[1] /= div;
col[2] /= div;
if(ISWEB) for(int a=0; a<3; a++) col[a] = (col[a] + step/2) / step * step;
color_t res = base + col[0] + (col[1] << 8) + (col[2] << 16);
if(WDIM == 3 && (getBits(c) & 1)) res |= 0x1000000;
return res;
}
EX namespace patterns {
EX int subcanvas;
EX bool displaycodes;
EX char whichShape = 0;
EX bool innerwalls;
EX int sevenval(cell *c) {
if(!meuclid) return 0;
auto p = euc2_coordinates(c);
return gmod(p.first - p.second * 2, 7);
}
map<cell*, color_t> computed_nearer_map;
EX color_t nearer_map(cell *c) {
if(computed_nearer_map.count(c)) return computed_nearer_map[c];
if(!closed_manifold) return 0;
cell *sc = currentmap->gamestart();
auto ac = currentmap->allcells();
vector<int> bydist(100, 0);
vector<int> bynei(FULL_EDGE+1, 0);
int maxd = 0;
for(cell *d: ac) {
int di = celldistance(sc, d);
if(di<100) bydist[di]++;
maxd = max(maxd, di);
}
auto& cnm = computed_nearer_map;
for(cell *d: ac) cnm[d] = 0x101010;
for(cell *d: ac) if(celldistance(sc, d) == maxd) {
for(cell *e: ac) if(celldistance(sc, e) > celldistance(d, e)) {
cnm[e] = 0x1FF4040;
int nei = 0;
forCellEx(f, e) if(celldistance(sc, f) > celldistance(d, f)) nei++;
bynei[nei]++;
if(nei == 6) cnm[e] = 0x1FFFF80;
if(nei == S7) cnm[e] = 0x404040;
}
if(0) for(cell *e: ac) if(celldistance(sc, e) == celldistance(d, e))
cnm[e] = 0x140FF40;
break;
}
println(hlog, "bydist = ", bydist, " bynei = ", bynei);
return cnm[c];
}
map<cell*, color_t> computed_furthest_map;
EX color_t furthest_map(cell *c, int reduce) {
auto& cfm = computed_furthest_map;
if(cfm.count(c)) return cfm[c];
if(!closed_manifold) return 0;
cell *sc = currentmap->gamestart();
auto ac = currentmap->allcells();
vector<int> bydist(100, 0);
vector<int> bynei(FULL_EDGE+1, 0);
int maxd = 0;
for(cell *d: ac) {
int di = celldistance(sc, d);
if(di<100) bydist[di]++;
maxd = max(maxd, di);
}
for(cell *d: ac) cfm[d] = 0x101010;
for(cell *d: ac) if(celldistance(sc, d) == maxd - reduce)
cfm[d] = 0x1FFFF80;
println(hlog, "bydist = ", bydist);
return cfm[c];
}
EX color_t compute_map_function(cell *c, const string& formula) {
exp_parser ep;
hyperpoint h = calc_relative_matrix(c, currentmap->gamestart(), C0) * C0;
ep.extra_params["x"] = h[0];
ep.extra_params["y"] = h[1];
ep.extra_params["z"] = h[2];
#if MAXMDIM >= 4
ep.extra_params["w"] = h[3];
#endif
ep.extra_params["z40"] = zebra40(c);
ep.extra_params["z3"] = zebra3(c);
ep.extra_params["ev"] = emeraldval(c);
ep.extra_params["fv50"] = fiftyval(c);
ep.extra_params["pa"] = polara50(c);
ep.extra_params["pb"] = polarb50(c);
ep.extra_params["pd"] = cdist50(c);
ep.extra_params["fu"] = fieldpattern::fieldval_uniq(c);
ep.extra_params["threecolor"] = pattern_threecolor(c);
ep.extra_params["chess"] = chessvalue(c);
ep.extra_params["ph"] = pseudohept(c);
ep.extra_params["kph"] = kraken_pseudohept(c);
ep.extra_params["windmap"] = windmap::at(c) / 256.;
ep.extra_params["cdata0"] = getCdata(c, 0);
ep.extra_params["cdata1"] = getCdata(c, 1);
ep.extra_params["cdata2"] = getCdata(c, 2);
ep.extra_params["cdata3"] = getCdata(c, 3);
ep.extra_params["sides"] = c->type;
ep.extra_params["shape"] = shvid(c);
if(true) {
ep.extra_params["md"] = c->master->distance;
ep.extra_params["me"] = c->master->emeraldval;
ep.extra_params["mf"] = c->master->fieldval;
ep.extra_params["mz"] = c->master->zebraval;
}
if(msphere) {
ep.extra_params["h0"] = getHemisphere(c, 0);
ep.extra_params["h1"] = getHemisphere(c, 1);
ep.extra_params["h2"] = getHemisphere(c, 2);
}
if(euclid) {
auto co = euc2_coordinates(c);
int x = co.first, y = co.second;
ep.extra_params["ex"] = x;
ep.extra_params["ey"] = y;
if(S7 == 6) ep.extra_params["ez"] = -x-y;
}
#if CAP_CRYSTAL
if(cryst) {
crystal::ldcoord co = crystal::get_ldcoord(c);
for(int i=0; i<crystal::MAXDIM; i++)
ep.extra_params["x"+its(i)] = co[i];
}
#endif
#if CAP_SOLV
if(asonov::in()) {
auto co = asonov::get_coord(c->master);
ep.extra_params["ax"] = szgmod(co[0], asonov::period_xy);
ep.extra_params["ay"] = szgmod(co[1], asonov::period_xy);
ep.extra_params["az"] = szgmod(co[2], asonov::period_z);
}
#endif
if(nil) {
auto co = nilv::get_coord(c->master);
ep.extra_params["nx"] = szgmod(co[0], nilv::nilperiod[0]);
ep.extra_params["ny"] = szgmod(co[1], nilv::nilperiod[1]);
ep.extra_params["nz"] = szgmod(co[2], nilv::nilperiod[2]);
}
if(mhybrid)
ep.extra_params["level"] = hybrid::get_where(c).second;
if(geometry_supports_cdata()) {
ep.extra_params["d0"] = getCdata(c, 0);
ep.extra_params["d1"] = getCdata(c, 1);
ep.extra_params["d2"] = getCdata(c, 2);
ep.extra_params["d3"] = getCdata(c, 3);
}
ep.s = formula;
try {
return ep.parsecolor();
}
catch(hr_parse_exception&) {
return 0;
}
}
void showPrePatternP(bool instant) {
cmode = sm::SIDE | sm::MAYDARK;
gamescreen();
dialog::init("predesigned patterns");
ccolor::list(instant);
dialog::addBreak(100);
dialog::addBoolItem_action(XLAT("display the inner walls"), innerwalls, '1');
auto select_whichShape = [] (string s, char key) {
dialog::addBoolItem(s, (whichShape == key), key);
dialog::add_action([key] {
if(whichShape == key) whichShape = 0;
else whichShape = key;
});
};
if(geosupport_threecolor() == 2) {
select_whichShape(XLAT("display only hexagons"), '6');
select_whichShape(XLAT("display only heptagons"), '7');
select_whichShape(XLAT("display the triheptagonal grid"), '8');
}
if(geosupport_chessboard()) {
select_whichShape(XLAT("display only chessboard white"), '6');
select_whichShape(XLAT("display only chessboard black"), '7');
}
select_whichShape(XLAT("display full floors"), '9');
select_whichShape(XLAT("display small floors"), '5');
add_edit(global_boundary_ratio);
dialog::addSelItem(XLAT("floor type"), XLATN(winf[canvas_default_wall].name), 'i');
dialog::add_action([instant] {
if(instant)
stop_game();
vector<eWall> choices = {waNone, waInvisibleFloor, waChasm, waEternalFire, waStone, waSea, waBarrier, waCavewall};
for(int i=0; i<isize(choices); i++)
if(canvas_default_wall == choices[i]) {
canvas_default_wall = choices[(i+1) % isize(choices)];
break;
}
if(instant) {
enable_canvas();
start_game();
}
});
dialog::addBack();
dialog::display();
}
EX void showPrePattern() { showPrePatternP(true); }
EX void showPrePatternNoninstant() { showPrePatternP(false); }
#if CAP_TEXTURE
#define REMAP_TEXTURE texture::config.remap()
#else
#define REMAP_TEXTURE (void)0
#endif
EX void showPattern() {
cmode = sm::SIDE | sm::MAYDARK;
{
dynamicval<bool> dc(displaycodes, whichPattern);
gamescreen();
}
dialog::init();
dialog::addBoolItem(XLAT("cell types"), (whichPattern == PAT_TYPES), PAT_TYPES);
if(stdhyperbolic || a4)
dialog::addBoolItem(XLAT("Zebra Pattern"), (whichPattern == PAT_ZEBRA), PAT_ZEBRA);
if(stdhyperbolic)
dialog::addBoolItem(XLAT("Emerald Pattern"), (whichPattern == PAT_EMERALD), PAT_EMERALD);
else if(a38)
dialog::addBoolItem(XLAT("broken Emerald Pattern"), (whichPattern == PAT_EMERALD), PAT_EMERALD);
if(stdhyperbolic || meuclid)
dialog::addBoolItem(XLAT("Palace Pattern"), (whichPattern == PAT_PALACE), PAT_PALACE);
if(geosupport_chessboard())
dialog::addBoolItem(XLAT("chessboard"), (whichPattern == PAT_CHESS), PAT_CHESS);
if(geosupport_threecolor() == 2)
dialog::addBoolItem(XLAT("coloring"), (whichPattern == PAT_COLORING), PAT_COLORING);
if(sphere_narcm)
dialog::addBoolItem(XLAT("siblings"), (whichPattern == PAT_SIBLING), PAT_SIBLING);
if(meuclid)
dialog::addBoolItem(XLAT("torus"), (whichPattern == PAT_FIELD), PAT_FIELD);
else if(msphere)
dialog::addBoolItem(XLAT("single cells"), (whichPattern == PAT_FIELD), PAT_FIELD);
else
dialog::addBoolItem(XLAT("field pattern"), (whichPattern == PAT_FIELD), PAT_FIELD);
dialog::addBoolItem(XLAT("single type"), (whichPattern == PAT_SINGLETYPE), PAT_SINGLETYPE);
dialog::addBreak(50);
if(
(whichPattern == PAT_EMERALD && (stdhyperbolic || a38)) ||
(whichPattern == PAT_PALACE && stdhyperbolic) ||
(whichPattern == PAT_ZEBRA && stdhyperbolic) ||
(whichPattern == PAT_SIBLING && msphere) ||
(whichPattern == PAT_ZEBRA && a457)) {
dialog::addBoolItem(XLAT("rotational symmetry"), subpattern_flags & SPF_ROT, '0');
}
if((meuclid && whichPattern == PAT_COLORING) ||
(a38 && whichPattern == PAT_COLORING) ||
(a4 && !BITRUNCATED && whichPattern == PAT_COLORING && !a46))
dialog::addBoolItem(XLAT("edit all three colors"), subpattern_flags & SPF_ROT, '0');
if(meuclid && whichPattern == PAT_COLORING)
dialog::addBoolItem(XLAT("rotate the color groups"), subpattern_flags & SPF_CHANGEROT, '4');
if(a46 && whichPattern == PAT_COLORING)
dialog::addBoolItem(XLAT("rotate the color groups"), subpattern_flags & SPF_CHANGEROT, '4');
if(a46 && whichPattern == PAT_COLORING && BITRUNCATED)
dialog::addBoolItem(XLAT("edit both bitrunc colors"), subpattern_flags & SPF_TWOCOL, '5');
if(
(whichPattern == PAT_EMERALD && (stdhyperbolic || a38)) ||
(whichPattern == PAT_PALACE && stdhyperbolic) ||
(whichPattern == PAT_ZEBRA && stdhyperbolic) ||
(whichPattern == PAT_COLORING && a46) ||
(whichPattern == PAT_ZEBRA && a457)
) {
dialog::addBoolItem(XLAT("symmetry 0-1"), subpattern_flags & SPF_SYM01, '1');
dialog::addBoolItem(XLAT("symmetry 0-2"), subpattern_flags & SPF_SYM02, '2');
dialog::addBoolItem(XLAT("symmetry 0-3"), subpattern_flags & SPF_SYM03, '3');
}
if(meuclid && among(whichPattern, PAT_COLORING, PAT_TYPES) && !arcm::in())
dialog::addBoolItem(XLAT("extra symmetries"), subpattern_flags & SPF_EXTRASYM, '=');
#if CAP_ARCM
if(arcm::in() && arcm::current.have_symmetry && whichPattern == PAT_TYPES)
dialog::addBoolItem(XLAT("extra symmetries"), subpattern_flags & SPF_EXTRASYM, '=');
#endif
if(whichPattern == PAT_SINGLETYPE) {
dialog::addBoolItem(XLAT("odd/even"), subpattern_flags & SPF_TWOCOL, '5');
dialog::addBoolItem(XLAT("extra symmetries"), subpattern_flags & SPF_EXTRASYM, '=');
}
if(meuclid && among(whichPattern, PAT_COLORING, 0))
dialog::addBoolItem(XLAT("full symmetry"), subpattern_flags & SPF_FULLSYM, '!');
if(a38 && PURE && whichPattern == PAT_TYPES) {
dialog::addBoolItem(XLAT("extra symmetries"), subpattern_flags & SPF_EXTRASYM, '=');
}
if(a46 && PURE && whichPattern == PAT_COLORING) {
dialog::addBoolItem(XLAT("extra symmetries"), subpattern_flags & SPF_EXTRASYM, '=');
}
if((whichPattern == PAT_COLORING) || (whichPattern == PAT_TYPES && arcm::in())) {
dialog::addBoolItem(XLAT("alternate coloring"), subpattern_flags & SPF_ALTERNATE, '\'');
dialog::addBoolItem(XLAT("football"), subpattern_flags & SPF_FOOTBALL, '*');
}
if(a38 && whichPattern == PAT_COLORING)
dialog::addBoolItem(XLAT("Docks pattern"), subpattern_flags & SPF_DOCKS, '@');
if(whichPattern && (IRREGULAR || GOLDBERG || arcm::in()))
dialog::addBoolItem(XLAT("remove complete classification"), subpattern_flags & SPF_NO_SUBCODES, '#');
dialog::addBreak(50);
dialog::addBoolItem(XLAT("display pattern codes (full)"), displaycodes, 'd');
if(!needConfirmation()) dialog::addItem(XLAT("predesigned patterns"), 'r');
else dialog::addInfo("start a new game to use predesigned patterns");
dialog::display();
keyhandler = [] (int sym, int uni) {
dialog::handleNavigation(sym, uni);
if(among(uni, PAT_EMERALD, PAT_PALACE, PAT_ZEBRA, PAT_DOWN, PAT_FIELD, PAT_COLORING, PAT_SIBLING, PAT_CHESS, PAT_SINGLETYPE, PAT_TYPES)) {
if(whichPattern == uni) whichPattern = PAT_NONE;
else whichPattern = ePattern(uni);
#if CAP_EDIT
mapeditor::modelcell.clear();
#endif
REMAP_TEXTURE;
}
else if(uni >= '0' && uni <= '5') {
subpattern_flags ^= (1 << (uni - '0'));
REMAP_TEXTURE;
}
else if(uni == '=') {
subpattern_flags ^= SPF_EXTRASYM;
REMAP_TEXTURE;
}
else if(uni == '\'') {
subpattern_flags ^= SPF_ALTERNATE;
// subpattern_flags &= ~SPF_FOOTBALL;
REMAP_TEXTURE;
}
else if(uni == '*') {
subpattern_flags ^= SPF_FOOTBALL;
// subpattern_flags &= ~SPF_ALTERNATE;
REMAP_TEXTURE;
}
else if(uni == '!') {
subpattern_flags ^= SPF_FULLSYM;
REMAP_TEXTURE;
}
else if(uni == '@') {
subpattern_flags ^= SPF_DOCKS;
REMAP_TEXTURE;
}
else if(uni == '#') {
subpattern_flags ^= SPF_NO_SUBCODES;
REMAP_TEXTURE;
}
else if(uni == 'd') displaycodes = !displaycodes;
else if(uni == 'r' && !needConfirmation()) pushScreen(showPrePattern);
else if(doexiton(sym, uni)) popScreen();
};
}
EX bool compatible(cpatterntype oldp, cpatterntype newp) {
// larges are not incompatible between themselves
if(newp == cpLarge || newp == cpZebra)
return false;
// other cps are compatible with themselves
if(newp == oldp) return true;
// Single can be upgraded to everything
if(oldp == cpSingle) return true;
// Football can be upgraded to Three colors
if(oldp == cpFootball) return newp == cpThree;
// incompatible otherwise
return false;
}
#if HDR
struct changeable_pattern_geometry {
eGeometry geo;
eVariation var;
ePattern whichPattern;
int subpattern_flags;
};
struct changeable_pattern {
string name;
vector<changeable_pattern_geometry> geometries;
};
#endif
EX vector<changeable_pattern> cpatterns = {
{"football", {
{gNormal, eVariation::bitruncated, PAT_TYPES, 0},
{gSphere, eVariation::bitruncated, PAT_TYPES, 0},
{gEuclid, eVariation::bitruncated, PAT_TYPES, SPF_EXTRASYM},
{gOctagon, eVariation::bitruncated, PAT_TYPES, 0},
{gOctagon, eVariation::pure, PAT_COLORING, SPF_FOOTBALL | SPF_EXTRASYM},
{g45, eVariation::bitruncated, PAT_TYPES, 0},
{g46, eVariation::bitruncated, PAT_TYPES, SPF_EXTRASYM},
{g47, eVariation::bitruncated, PAT_TYPES, 0},
{gSmallSphere, eVariation::bitruncated, PAT_TYPES, 0},
{gSmallSphere, eVariation::pure, PAT_COLORING, SPF_FOOTBALL | SPF_EXTRASYM},
{gTinySphere, eVariation::bitruncated, PAT_TYPES, SPF_EXTRASYM},
{gEuclidSquare, eVariation::bitruncated, PAT_TYPES, SPF_EXTRASYM},
}},
{"three colors", {
{gEuclid, eVariation::bitruncated, PAT_COLORING, SPF_SYM0123 | SPF_EXTRASYM},
{gSmallSphere, eVariation::bitruncated, PAT_COLORING, 0},
{gSmallSphere, eVariation::bitruncated, PAT_COLORING, SPF_ALTERNATE},
{gSmallSphere, eVariation::pure, PAT_COLORING, 0},
{gOctagon, eVariation::bitruncated, PAT_COLORING, SPF_ROT | SPF_EXTRASYM},
{gOctagon, eVariation::bitruncated, PAT_COLORING, SPF_ROT | SPF_EXTRASYM | SPF_ALTERNATE},
{gOctagon, eVariation::pure, PAT_COLORING, 0},
{gEuclidSquare, eVariation::bitruncated, PAT_COLORING, SPF_SYM03 | SPF_EXTRASYM},
{gEuclidSquare, eVariation::bitruncated, PAT_COLORING, SPF_SYM03 | SPF_EXTRASYM | SPF_ALTERNATE},
{g46, eVariation::bitruncated, PAT_COLORING, SPF_SYM0123},
{g46, eVariation::bitruncated, PAT_COLORING, SPF_SYM0123 | SPF_EXTRASYM | SPF_ALTERNATE}
}},
{"chessboard", {
{gEuclidSquare, eVariation::pure, PAT_CHESS, SPF_EXTRASYM},
{g45, eVariation::pure, PAT_CHESS, 0},
{g46, eVariation::pure, PAT_CHESS, 0},
{g47, eVariation::pure, PAT_CHESS, 0}
}},
{"single type", {
{gNormal, eVariation::pure, PAT_SINGLETYPE, 0},
{gSphere, eVariation::pure, PAT_SINGLETYPE, 0},
{gEuclid, eVariation::bitruncated, PAT_SINGLETYPE, 0},
{gOctagon, eVariation::pure, PAT_SINGLETYPE, 0},
{g45, eVariation::pure, PAT_SINGLETYPE, 0},
{g46, eVariation::pure, PAT_SINGLETYPE, 0},
{g47, eVariation::pure, PAT_SINGLETYPE, 0},
{gSmallSphere, eVariation::pure, PAT_SINGLETYPE, 0},
{gTinySphere, eVariation::pure, PAT_SINGLETYPE, 0},
{gEuclidSquare, eVariation::pure, PAT_SINGLETYPE, 0},
}},
{"single type+symmetry", {
{gNormal, eVariation::pure, PAT_SINGLETYPE, SPF_EXTRASYM},
{gSphere, eVariation::pure, PAT_SINGLETYPE, SPF_EXTRASYM},
{gEuclid, eVariation::bitruncated, PAT_SINGLETYPE, SPF_EXTRASYM},
{gOctagon, eVariation::pure, PAT_SINGLETYPE, SPF_EXTRASYM},
{g45, eVariation::pure, PAT_SINGLETYPE, SPF_EXTRASYM},
{g46, eVariation::pure, PAT_SINGLETYPE, SPF_EXTRASYM},
{g47, eVariation::pure, PAT_SINGLETYPE, SPF_EXTRASYM},
{gSmallSphere, eVariation::pure, PAT_SINGLETYPE, SPF_EXTRASYM},
{gTinySphere, eVariation::pure, PAT_SINGLETYPE, SPF_EXTRASYM},
{gEuclidSquare, eVariation::pure, PAT_SINGLETYPE, SPF_EXTRASYM},
}},
{"odd/even", {
{gNormal, eVariation::bitruncated, PAT_SINGLETYPE, SPF_TWOCOL},
{gSphere, eVariation::bitruncated, PAT_SINGLETYPE, SPF_TWOCOL},
{g45, eVariation::pure, PAT_SINGLETYPE, SPF_TWOCOL},
{g47, eVariation::pure, PAT_SINGLETYPE, SPF_TWOCOL}
}},
{"large picture", {
{gNormal, eVariation::bitruncated, PAT_PALACE, SPF_SYM0123},
{gNormal, eVariation::pure, PAT_PALACE, SPF_SYM0123},
{gSphere, eVariation::bitruncated, PAT_FIELD, 0},
{gSphere, eVariation::pure, PAT_FIELD, 0},
{gElliptic, eVariation::bitruncated, PAT_FIELD, 0},
{gElliptic, eVariation::pure, PAT_FIELD, 0},
{gEuclid, eVariation::bitruncated, PAT_PALACE, 0}
}},
{"periodic patterns", {
{gNormal, eVariation::bitruncated, PAT_ZEBRA, SPF_SYM0123 | SPF_ROT},
{gNormal, eVariation::bitruncated, PAT_PALACE, SPF_SYM0123 | SPF_ROT},
{gNormal, eVariation::bitruncated, PAT_EMERALD, SPF_SYM0123 | SPF_ROT},
{g46, eVariation::pure, PAT_COLORING, SPF_SYM0123 | SPF_CHANGEROT},
{g45, eVariation::pure, PAT_ZEBRA, SPF_SYM0123 | SPF_ROT},
{g47, eVariation::pure, PAT_ZEBRA, SPF_SYM0123 | SPF_ROT},
{gOctagon, eVariation::pure, PAT_COLORING, SPF_DOCKS},
}}
};
EX cpatterntype cgroup, old_cgroup;
void showChangeablePatterns() {
cmode = sm::SIDE | sm::MAYDARK;
{
dynamicval<bool> dc(displaycodes, true);
gamescreen();
}
dialog::init();
for(int i=0; i<isize(cpatterns); i++) {
dialog::addBoolItem(XLAT(cpatterns[i].name), cgroup == i, '0'+i);
#if CAP_TEXTURE
if(texture::config.tstate == texture::tsActive && !compatible(texture::cgroup, (cpatterntype) i))
dialog::lastItem().value = XLAT("BAD");
#endif
}
dialog::addBreak(100);
if(cgroup != cpUnknown && cgroup < isize(cpatterns))
for(int j=0; j<isize(cpatterns[cgroup].geometries); j++) {
auto &g = cpatterns[cgroup].geometries[j];
string s = XLAT(ginf[g.geo].tiling_name);
s += bitruncnames[int(g.var)];
if(g.subpattern_flags & SPF_ALTERNATE) s += " (alt)";
if(g.subpattern_flags & SPF_DOCKS) s += " (Docks)";
if(cgroup == cpZebra) {
if(g.whichPattern == PAT_PALACE) s += " (Palace)";
else if(g.whichPattern == PAT_EMERALD) s += " (Emerald)";
else s += " (Zebra)";
}
dialog::addBoolItem(s, geometry == g.geo && variation == g.var && whichPattern == g.whichPattern && subpattern_flags == g.subpattern_flags, 'a'+j);
}
bool have_goldberg = (S3 == 3 && among(cgroup, cpFootball, cpThree) && !meuclid);
bool have_variations = (among(cgroup, cpSingle, cpSingleSym) && !meuclid);
if(!(S7&1) && BITRUNCATED) have_goldberg = false; // always start from pure
if(have_goldberg) {
dialog::addBoolItem(XLAT("Goldberg"), GOLDBERG, 'G');
dialog::lastItem().value = gp::operation_name();
}
if(have_variations) {
dialog::addBoolItem(XLAT("variations"), GOLDBERG, 'G');
dialog::lastItem().value = gp::operation_name();
}
else dialog::addBreak(100);
dialog::addItem(XLAT("more tuning"), 'r');
dialog::addBack();
dialog::display();
keyhandler = [have_goldberg, have_variations] (int sym, int uni) {
if(uni == 'r')
pushScreen(showPattern);
else if(uni >= '0' && uni < '0' + isize(cpatterns))
cgroup = cpatterntype(uni - '0');
else if(cgroup != cpUnknown && uni >= 'a' && uni < 'a' + isize(cpatterns[cgroup].geometries)) {
auto &g = cpatterns[cgroup].geometries[uni - 'a'];
if(g.geo != geometry) set_geometry(g.geo);
if(g.var != variation) set_variation(g.var);
whichPattern = g.whichPattern;
subpattern_flags = g.subpattern_flags;
bool not_restarted = game_active;
start_game();
if(not_restarted) REMAP_TEXTURE;
}
#if CAP_GP
else if(uni == 'G' && (have_goldberg || have_variations))
gp::configure();
#endif
else if(doexiton(sym, uni))
popScreen();
};
}
EX void computeCgroup() {
if(fake::in()) { FPIU(computeCgroup()); return; }
cgroup = cpUnknown;
if(whichPattern == PAT_SINGLETYPE) {
cgroup = cpSingle;
return;
}
if(arcm::in()) {
if(whichPattern == PAT_COLORING && geosupport_threecolor()) {
if(subpattern_flags & SPF_FOOTBALL) cgroup = cpFootball;
else cgroup = cpThree;
}
else if(whichPattern == PAT_CHESS && geosupport_chessboard()) cgroup = cpChess;
else if(whichPattern == PAT_TYPES && (subpattern_flags & SPF_FOOTBALL) && geosupport_football()) cgroup = cpFootball;
return;
}
for(int i=0; i<isize(cpatterns); i++)
for(int j=0; j<isize(cpatterns[i].geometries); j++) {
auto &g = cpatterns[i].geometries[j];
eVariation xvar = variation;
if(GOLDBERG && gp_threecolor()) xvar = eVariation::pure;
if(geometry == g.geo && xvar == g.var && whichPattern == g.whichPattern && subpattern_flags == g.subpattern_flags)
cgroup = cpatterntype(i);
}
old_cgroup = cgroup;
}
EX void pushChangeablePatterns() {
pushScreen(showChangeablePatterns);
computeCgroup();
}
EX }
EX bool is_master(cell *c) {
if(euc::in(2)) return pseudohept(c);
else return c->master->c7 == c;
}
EX namespace linepatterns {
#if HDR
struct linepattern {
string lpname;
color_t color;
ld multiplier;
function<bool()> is_available;
function<void(linepattern*)> renderer;
linepattern(string _lpname, color_t _color, function<bool()> _av, function<void(linepattern*)> _rend) :
lpname(_lpname), color(_color), multiplier(1), is_available(_av), renderer(_rend) {}
};
#endif
bool always_available() { return true; }
bool stdhyp_only() { return stdhyperbolic; }
bool needs_valence_3() { return valence() == 3 && geosupport_football(); }
bool horo_only() { return horo_ok() && mod_allowed(); }
bool if_pseudohept() { return geosupport_football(); }
color_t lessalpha(color_t col, int m) {
part(col, 0) /= m;
return col;
}
color_t lessalphaif(color_t col, bool b) {
return b?lessalpha(col, 4):col;
}
color_t lessalphaif(color_t col, bool b1, bool b2) {
if(b1) col = lessalpha(col, 2);
if(b2) col = lessalpha(col, 2);
return col;
}
void gridlinef(const shiftmatrix& V1, const hyperpoint& h1, const shiftmatrix& V2, const hyperpoint& h2, color_t col, int par) {
if(!elliptic)
gridline(V1, h1, V2, h2, col, par);
else {
hyperpoint vh1 = V1.T * h1;
hyperpoint vh2 = unshift(V2, V1.shift) * h2;
ld cros = vh1[0]*vh2[0] + vh1[1]*vh2[1] + vh1[2]*vh2[2];
if(cros > 0)
gridline(V1, h1, V2, h2, col, par),
gridline(V1, -1*h1, V2, -1*h2, col, par);
else
gridline(V1, h1, V2, -1*h2, col, par),
gridline(V1, -1*h1, V2, h2, col, par);
}
}
void gridlinef(const shiftmatrix& V, const hyperpoint& h1, const hyperpoint& h2, color_t col, int par) { gridlinef(V, h1, V, h2, col, par); }
#define ALLCELLS(R) \
[] (linepattern *lp) { auto& col = lp->color; for(auto& p: current_display->all_drawn_copies) for(auto& V: p.second) { cell *c = p.first; R } }
#define ATCENTER(T) \
[] (linepattern *lp) { auto& col = lp->color; shiftmatrix V = gmatrix[cwt.at]; T}
/** for functions drawing edges, ensure that the edge is drawn only in one direction */
template<class T> bool way(T*c, int i) {
T* c2 = c->move(i);
if(c == c2)
return i <= c->c.spin(i);
return c2 > c;
}
EX ld dual_length = 0;
EX trans23 dual_angle;
hyperpoint dualpoint(cell *c) {
if(!aperiodic) return tile_center();
if(dual_length && c->master->c7 == c)
return MirrorX * dual_angle.get() * xpush0(dual_length);
if(dual_length)
return dual_angle.get() * xpush0(dual_length);
return tile_center();
}
linepattern patDual("dual grid", 0xFFFFFF00, always_available,
ALLCELLS(
forCellIdEx(c2, i, c) if(way(c,i)) {
if((patTriTree.color & 0xFF) || (PURE && (patTree.color & 0xFF))) {
cell *parent = ts::right_parent(c, curr_dist);
if(c2 == parent) continue;
cell *parent2 = ts::right_parent(c2, curr_dist);
if(c == parent2) continue;
}
if((patTriRings.color & 0xFF)) {
if(curr_dist(c2) == curr_dist(c)) continue;
}
gridlinef(V, dualpoint(c), V * currentmap->adj(c, i), dualpoint(c->cmove(i)), col, 2 + vid.linequality);
}
)
);
linepattern patHepta("Gray Raider moves", 0xC0C0C000, if_pseudohept,
ALLCELLS(
forCellIdEx(c2, i, c) if(way(c,i)) if(pseudohept(c) == pseudohept(c2))
gridlinef(V, C0, V * currentmap->adj(c, i), C0, col, 2 + vid.linequality);
)
);
linepattern patRhomb("Green Raider moves", 0x00FF0000, if_pseudohept,
ALLCELLS(
forCellIdEx(c2, i, c) if(way(c,i)) if(pseudohept(c) != pseudohept(c2))
gridlinef(V, C0, V * currentmap->adj(c, i), C0, col, 2 + vid.linequality);
)
);
linepattern patTrihepta("triheptagonal tessellation", 0x0000C000, needs_valence_3,
ALLCELLS(
if(pseudohept(c)) for(int t=0; t<c->type; t++)
gridline(V, get_warp_corner(c, t%c->type),
get_warp_corner(c, (t+1)%c->type),
col, 1 + vid.linequality);
)
);
linepattern patNormal("normal tessellation", 0x0000C000, always_available,
ALLCELLS(
for(int t=0; t<c->type; t++)
if(c->move(t) && way(c,t))
gridline(V, get_corner_position(c, t),
get_corner_position(c, (t+1)%c->type),
col, 1 + vid.linequality);
)
);
linepattern patBigTriangles("big triangular grid", 0x00606000, always_available,
ALLCELLS(
if(c->master->c7 == c) for(int i=0; i<S7; i++)
if(c->master->move(i) && c->master->move(i) < c->master) {
gridlinef(V, C0, V, currentmap->master_relative(c, true) * currentmap->adj(c->master, i) * C0, col, 2 + vid.linequality);
}
)
);
linepattern patBigRings("big triangles: rings", 0x00606000, [] { return standard_tiling() && S3 == 3 && mod_allowed(); },
ALLCELLS(
if(is_master(c) && !meuclid) for(int i=0; i<S7; i++)
if(c->master->move(i) && way(c->master, i) && c->master->move(i)->dm4 == c->master->dm4)
gridlinef(V, C0, xspinpush0(-TAU*i/S7 - master_to_c7_angle(), cgi.tessf), col, 2 + vid.linequality);
)
);
EX ld tree_starter = 0.25;
EX linepattern patTree = linepattern("underlying tree", 0x00d0d000, [] { return bt::in() || (trees_known() && mod_allowed()); },
ALLCELLS(
if(is_master(c)) {
int dir = updir(c->master);
if(dir == -1) continue;
hyperpoint end = currentmap->master_relative(c, true) * currentmap->adj(c->master, dir) * C0;
hyperpoint start = normalize(C0 + tree_starter * (end - C0));
gridlinef(V, start, V, end, col, 2 + vid.linequality);
}
)
);
linepattern patAltTree("circle/horocycle tree", 0xd000d000, horo_only,
ALLCELLS(
if(is_master(c)) {
int dir = updir_alt(c->master);
if(dir == -1) continue;
hyperpoint end = currentmap->master_relative(c, true) * currentmap->adj(c->master, dir) * C0;
hyperpoint start = normalize(C0 + tree_starter * (end - C0));
gridlinef(V, start, V, end, col, 2 + vid.linequality);
}
)
);
linepattern patHeawood("seven-colorable torus", 0x40FF4000, [] { return euc::in(2, 6); },
ALLCELLS(
if(c != c->master->c7 || patterns::sevenval(c)) break;
gridline(V, C0, tC0(euc::eumove(gp::loc(-1, +3))), col, 3 + vid.linequality);
gridline(V, C0, tC0(euc::eumove(gp::loc(-3, +2))), col, 3 + vid.linequality);
gridline(V, C0, tC0(euc::eumove(gp::loc(-2, -1))), col, 3 + vid.linequality);
gridline(V, C0, tC0(euc::eumove(gp::loc(+1, -3))), col, 3 + vid.linequality);
gridline(V, C0, tC0(euc::eumove(gp::loc(+3, -2))), col, 3 + vid.linequality);
gridline(V, C0, tC0(euc::eumove(gp::loc(+2, +1))), col, 3 + vid.linequality);
)
);
EX linepattern patZebraTriangles = linepattern("zebra triangles", 0x40FF4000, stdhyp_only,
ALLCELLS(
if(zebra40(c) / 4 == 10) {
bool all = true;
shiftmatrix tri[3];
for(int i=0; i<3; i++)
tri[i] = V * currentmap->adj(c, i*2);
if(all) for(int i=0; i<3; i++)
gridline(tri[i], C0, tri[(i+1)%3], C0, col, 3 + vid.linequality);
}
)
);
EX linepattern patZebraLines = linepattern("zebra lines", 0xFF000000, stdhyp_only,
ALLCELLS(
if(!pseudohept(c)) for(int i=0; i<c->type; i+=2) {
cell *c2 = createMov(c, i);
int fv1 = zebra40(c);
if(fv1/4 == 4 || fv1/4 == 6 || fv1/4 == 5 || fv1/4 == 10) fv1 ^= 2;
int fv2 = zebra40(c2);
if(fv2/4 == 4 || fv2/4 == 6 || fv2/4 == 5 || fv2/4 == 10) fv2 ^= 2;
if((fv1&1) == (fv2&1)) continue;
double x = cgi.hexhexdist / 2; // msphere?.3651:meuclid?.2611:.2849;
gridlinef(V, ddspin(c,i,-M_PI/S3) * xpush0(x),
ddspin(c,i,M_PI/S3) * xpush0(x),
col, 1 + vid.linequality);
}
)
);
linepattern patGoldbergTree("Goldberg tree", 0x8438A400, [] { return GOLDBERG || INVERSE; },
ALLCELLS(
if(c->master->c7 != c)
gridlinef(V, C0, V*currentmap->adj(c,0), C0,
darkena(backcolor ^ 0xFFFFFF, 0, col),
2 + vid.linequality);
)
);
linepattern patIrregularMaster("irregular master", 0x8438A400, [] { return IRREGULAR; },
ALLCELLS(
if(c->master->c7 != c) if(gmatrix.count(c->master->c7))
gridlinef(V, C0, V*currentmap->master_relative(c, true), C0,
darkena(backcolor ^ 0xFFFFFF, 0, col),
2 + vid.linequality);
)
);
linepattern patVine("vineyard pattern", 0x8438A400, stdhyp_only,
ALLCELLS(
int p = emeraldval(c);
double hdist = hdist0(cgi.heptmove[0] * cgi.heptmove[2] * C0);
if(pseudohept(c) && (p/4 == 10 || p/4 == 8))
for(int i=0; i<S7; i++) if(c->move(i) && emeraldval(c->move(i)) == p-4) {
gridlinef(V, C0, tC0(cgi.heptmove[i]), col, 2 + vid.linequality);
gridlinef(V, C0, xspinpush0(-i * TAU / S7, -hdist/2), col, 2 + vid.linequality);
}
)
);
linepattern patPalacelike("firewall lines", 0xFF400000, stdhyp_only,
ALLCELLS(
if(pseudohept(c)) for(int i=0; i<7; i++)
gridlinef(V, ddspin(c,i,A_PI*5/7) * xpush0(cgi.tessf/2),
ddspin(c,i,A_PI*9/7) * xpush0(cgi.tessf/2),
col, 1 + vid.linequality);
)
);
EX linepattern patPalace = linepattern("firewall lines: Palace", 0xFFD50000, stdhyp_only,
ALLCELLS(
bool a = polarb50(c);
if(pseudohept(c)) for(int i=0; i<7; i++) {
cell *c1 = createMov(c, (i+3) % 7);
cell *c2 = createMov(c, (i+4) % 7);
if(polarb50(c1) != a && polarb50(c2) != a)
gridlinef(V, ddspin(c,i,A_PI*5/7) * xpush0(cgi.tessf/2),
ddspin(c,i,A_PI*9/7) * xpush0(cgi.tessf/2),
col, 1 + vid.linequality);
}
)
);
linepattern patGoldbergSep("Goldberg", 0xFFFF0000, [] { return GOLDBERG || INVERSE; },
ALLCELLS(
forCellIdEx(c2, i, c) if(c2->master != c->master && way(c, i))
gridlinef(V, C0, V*currentmap->adj(c, i), C0,
col,
1 + vid.linequality);
)
);
linepattern patArcm("Archimedean", 0xFFFF0000, [] { return arcm::in(); },
ALLCELLS(
if(!pseudohept(c)) forCellIdEx(c2, i, c) if(way(c, i) && !pseudohept(c2))
gridlinef(V, C0, V*currentmap->adj(c, i), C0,
col,
1 + vid.linequality);
)
);
linepattern patPower("firewall lines: Power", 0xFFFF0000, stdhyp_only,
ALLCELLS(
int a = emeraldval(c);
if(pseudohept(c) && a/4 == 8) for(int i=0; i<7; i++) {
heptagon *h1 = c->master->modmove(i+1);
heptagon *h2 = c->master->modmove(i-1);
if(!h1 || !h2) continue;
if(emeraldval(h1->c7)/4 == 8 && emeraldval(h2->c7)/4 == 8)
gridlinef(V, ddspin(c,i,A_PI*5/7) * xpush0(cgi.tessf/2),
ddspin(c,i,A_PI*9/7) * xpush0(cgi.tessf/2),
col, 1 + vid.linequality);
}
)
);
linepattern patHorocycles("horocycles", 0xd060d000, horo_only,
ALLCELLS(
if(c->master->alt) {
int d = celldistAlt(c);
forCellIdEx(c2, i, c) if(c2 > c && c2->master->alt && celldistAlt(c2) == d)
gridlinef(V, C0, V * currentmap->adj(c, i), C0,
darkena(backcolor ^ 0xFFFFFF, 0, col),
2 + vid.linequality);
}
)
);
bool trees_legal() {
return (bt::in() || trees_known()) && distances_legal(nullptr);
}
EX linepattern patTriRings = linepattern("lines of equal distance", 0xFFFFFF00, trees_legal,
ALLCELLS(
if(valence() == 3) {
forCellIdEx(c2, i, c) {
if(c2 > c) if(curr_dist(c) == curr_dist(c2))
gridlinef(V, C0, V * currentmap->adj(c, i), C0, col, 2 + vid.linequality);
}
}
else {
dynamicval<int> dmar(mine_adjacency_rule, 1);
int d = curr_dist(c);
for(auto p: adj_minefield_cells_full(c))
if(p.c < c && d == curr_dist(p.c))
gridlinef(V, C0, V, tC0(p.T), col, 2 + vid.linequality);
}
)
);
EX linepattern patTriTree = linepattern("tessellation tree", 0xFFFFFF00, trees_legal,
ALLCELLS(
cell *parent = ts::right_parent(c, curr_dist);
if(gmatrix.count(parent)) {
hyperpoint end = tC0(currentmap->adj(c, neighborId(c, parent)));
hyperpoint start = normalize(C0 + tree_starter * (end - C0));
gridlinef(V, start, V, end, col, 2 + vid.linequality);
}
)
);
EX linepattern patTriWalls = linepattern("tessellation walls", 0xFF000000, trees_legal,
ALLCELLS(
if(gmatrix.count(c)) {
celldrawer cd;
cd.c = c;
cd.V = V;
for(int t=0; t<c->type; t++) {
cell *c1 = c->move(t);
if(!c1) continue;
if(c1 == ts::right_parent(c, curr_dist)) continue;
if(c == ts::right_parent(c1, curr_dist)) continue;
cd.draw_grid_edge(t, col, 2 + vid.linequality);
}
}
)
);
linepattern patCircles("circles", 0xFFFFFF00, always_available,
ATCENTER(
for(int i=15; i<=180; i+=15) {
for(int j=0; j<360; j+=15) {
for(int k=0; k<=15; k++)
curvepoint(xspinpush0((j+k) * degree, i * degree));
queuecurve(shiftless(Id), col, 0, PPR::LINE).V=V;
}
}
)
);
linepattern patRadii("radii", 0xFFFFFF00, always_available,
ATCENTER(
for(int i=0; i<360; i+=15) {
for(int j=0; j<180; j+=15) {
for(int k=0; k<=15; k++)
curvepoint(xspinpush0(i * degree, (j+k) * degree));
queuecurve(shiftless(Id), col, 0, PPR::LINE).V=V;
}
}
)
);
EX ld mp_ori = 0;
EX ld meridian_max = 180._deg;
EX ld meridian_count = 12;
EX ld meridian_length = 90._deg;
EX ld meridian_prec = 12;
EX ld meridian_prec2 = 15;
EX linepattern patMeridians = linepattern("meridians", 0xFFFFFF00, always_available,
ATCENTER(
for(int j=0; j<meridian_count; j++) {
ld mj = meridian_max * (j * 2. / meridian_count - 1);
for(int i=0; i<meridian_prec; i++) {
for(int k=0; k<=meridian_prec2; k++) {
ld mi = i + k * 1. / meridian_prec2;
mi = mi * 2. / meridian_prec - 1;
mi *= meridian_length;
curvepoint(spin(mp_ori * degree) * xpush(mj) * ypush0(mi));
}
queuecurve(V, col, 0, PPR::LINE).V=V;
}
}
)
);
EX ld parallel_count = 6;
EX ld parallel_max = 90._deg;
EX ld parallel_length = M_PI;
linepattern patParallels("parallels", 0xFFFFFF00, always_available,
ATCENTER(
for(int i=-int(parallel_count); i<=parallel_count; i ++) {
ld phi = i * parallel_max / parallel_count;
ld xbase = 0;
if(!sphere) xbase = asin_auto((inverse(unshift(V)) * C0)[0]);
println(hlog, "xbase = ", xbase);
for(int j=-180; j<180; j+=15) {
for(int k=0; k<=15; k++)
curvepoint(spin(mp_ori * degree) * xpush(xbase + (j+k) * degree) * ypush0(phi));
queuecurve(V, col, 0, PPR::LINE).V=V;
}
}
)
);
linepattern patSublines("sub-lines", 0xFFFFFF00, arb::in,
ALLCELLS(
int i = arb::id_of(c->master);
auto& sh = arb::current.shapes[i];
for(auto p: sh.sublines)
gridlinef(V, sh.vertices[p.first], sh.vertices[p.second], col, 2 + vid.linequality);
)
);
linepattern patUltra("ultra-connection", 0xFFFF8000, [] { return cgflags & qULTRA; },
ALLCELLS(
ignore(c);
color_t col2 = col;
if(col2 == 0xFF)
col2 = darkena(c->landparam, 0, 0xFF);
for(auto U: cgi.ultra_mirrors)
gridlinef(V, C0, V, mid(C0, U*C0), col2, 2 + vid.linequality);
)
);
linepattern patWallHighlight("Great Wall highlight", 0xFFFFFF00, always_available,
ALLCELLS(
if(c->bardir < 0 || c->bardir >= c->type) continue;
if(c->land == laHauntedWall && !cheater) continue;
if(GDIM != 2) continue;
if(c->barleft == NOWALLSEP_USED) continue;
hyperpoint ends[2];
for(int i=0; i<2; i++) {
cellwalker cw(c, c->bardir);
if(i == 1 && (c->type & 1)) {
cw += c->type/2;
hyperpoint a = tC0(currentmap->adj(cw.at, cw.spin));
cw++;
hyperpoint b = tC0(currentmap->adj(cw.at, cw.spin));
ends[i] = mid(a, b);
break;
}
if(i == 1) cw += c->type/2;
transmatrix T = currentmap->adj(cw.at, cw.spin);
cw += wstep;
if(cw.at->bardir == cw.spin) ends[i] = mid(C0, tC0(T));
else if(cw.at->type % 2 == 0) {
cw += rev;
transmatrix U = currentmap->adj(cw.at, cw.spin);
ends[i] = T * mid(C0, tC0(U));
}
}
gridlinef(V, ends[0], V, ends[1], col, grid_prec());
)
);
#if HDR
extern linepattern patTriTree, patTriRings, patTriWalls, patDual;
#endif
EX vector<linepattern*> patterns = {
&patDual, &patHepta, &patRhomb, &patTrihepta, &patNormal, &patBigTriangles,
&patTree, &patAltTree, &patZebraTriangles, &patZebraLines,
&patVine, &patPalacelike, &patPalace, &patPower, &patHorocycles,
&patTriRings, &patTriTree, &patTriWalls,
&patGoldbergTree, &patIrregularMaster, &patGoldbergSep, &patHeawood, &patArcm,
&patCircles, &patRadii, &patMeridians, &patParallels, &patSublines, &patUltra,
&patWallHighlight
};
EX void clearAll() {
for(auto& lp: patterns) lp->color &= ~255;
}
EX ld width = 1;
EX void drawAll() {
if(!width) return;
vid.linewidth *= width;
for(auto lp: patterns) if((lp->color & 255) && lp->multiplier && lp->is_available()) {
vid.linewidth *= lp->multiplier;
lp->renderer(lp);
vid.linewidth /= lp->multiplier;
}
vid.linewidth /= width;
}
int numpat = 0;
bool indiv;
EX void showMenu() {
cmode = sm::SIDE | sm::MAYDARK;
gamescreen();
dialog::init(XLAT("line patterns"));
int id = 0;
for(auto lp: patterns) {
string name = XLAT(lp->lpname);
if(lp->is_available()) {
if(!indiv) {
dialog::addColorItem(name, lp->color, 'a'+(id++));
dialog::add_action([lp] () {
dialog::openColorDialog(lp->color, NULL);
dialog::get_di().dialogflags |= sm::MAYDARK | sm::SIDE;
});
}
else {
dialog::addSelItem(name, fts(lp->multiplier), 'a'+(id++));
dialog::add_action([lp] () { dialog::editNumber(lp->multiplier, 0.001, 10, 0.1, 1, XLAT("line width"), ""), dialog::scaleLog(); });
}
}
else {
cheater++;
if(lp->is_available()) {
dialog::addSelItem(name, XLAT("cheat"), 'a'+(id++));
dialog::add_action(enable_cheat);
}
cheater--;
}
}
dialog::addBreak(50);
dialog::addBack();
dialog::addSelItem("line width", fts(width), 'W');
dialog::add_action([] () {
dialog::editNumber(width, 0, 10, 0.1, 1, XLAT("line width"), "");
});
add_edit(tree_starter);
dialog::addBoolItem_action("edit widths individually", indiv, 'I');
if(GDIM == 3)
dialog::addBoolItem_action("fat edges", fat_edges, 'F');
dialog::addBreak(50);
dialog::addInfo("change the alpha parameter to show the lines");
dialog::display();
}
}
int val46(cell *c) {
patterns::patterninfo si;
patterns::val46(c, si, 0, 0);
return si.id;
}
#if CAP_COMMANDLINE
int read_pattern_args() {
using namespace arg;
if(argis("-pattern")) {
PHASEFROM(2);
shift();
const char *c = argcs();
using namespace patterns;
subpattern_flags = 0;
whichPattern = PAT_NONE;
while(*c) {
if(*c >= '0' && *c <= '9') subpattern_flags ^= 1 << (*c - '0');
else if(*c == '@') subpattern_flags ^= 1 << 10;
else if(*c == '-') subpattern_flags ^= 1 << 11;
else if(*c == '~') subpattern_flags ^= 1 << 12;
else whichPattern = ePattern(*c);
c++;
}
}
else if(argis("-wsh")) { start_game(); shift(); patterns::whichShape = args()[0]; }
else if(argis("-pal")) {
PHASEFROM(2); cheat();
shift(); string ss = args();
shift();
for(auto& lp: linepatterns::patterns)
if(appears(lp->lpname, ss))
lp->color |= argi();
}
else if(argis("-palrgba")) {
PHASEFROM(2); cheat();
shift(); string ss = args();
shift();
for(auto& lp: linepatterns::patterns)
if(appears(lp->lpname, ss))
lp->color = argcolor(32);
}
else if(argis("-fat-edges")) {
PHASEFROM(2); shift(); fat_edges = argi();
}
else if(argis("-palw")) {
PHASEFROM(2);
shift(); string ss = args();
for(auto& lp: linepatterns::patterns)
if(appears(lp->lpname, ss)) {
shift_arg_formula(lp->multiplier);
return 0;
}
println(hlog, "linepattern not found in -palw: ", ss);
shift();
}
else if(argis("-palgw")) shift_arg_formula(linepatterns::width);
else if(argis("-noplayer")) mapeditor::drawplayer = false;
else if(argis("-drawplayer")) { shift(); mapeditor::drawplayer = argi(); }
else if(argis("-pcol")) {
shift();
colortable *ct = &(ccolor::which->ctab);
if(args()[0] > '9') {
char c = args()[0];
if(c == 't') ct = &nestcolors;
else if(c == 'd') ct = &distcolors;
else if(c == 'm') ct = &minecolors;
else if(c == 'E') { shift(); int d = argi(); shift(); expcolors[d] = argcolor(24); return 0; }
else if(c == 'P') {
shift(); int d = argi(); shift();
color_t h = argcolor(32);
if(d >= 0 && d < 7)
((color_t*)(&vid.cs.skincolor)) [d] = h;
return 0;
}
else throw hr_exception("cannot understand color pattern by character");
shift();
}
int d = argi();
ct->allocate(d+1);
shift(); (*ct)[d] = argcolor(24);
}
else if(argis("-canvas")) {
PHASEFROM(2);
stop_game();
enable_canvas();
shift();
if(args() == "i") canvas_default_wall = waInvisibleFloor;
else {
bool found = false;
for(auto p: ccolor::all) if(appears(p->name, args())) {
found = true;
ccolor::which = p;
break;
}
if(!found) { ccolor::set_plain_nowall(argcolor(24)); }
}
stop_game_and_switch_mode(rg::nothing);
}
else if(argis("-canvas-random")) {
PHASEFROM(2);
stop_game();
enable_canvas();
shift(); ccolor::set_random(argi());
}
else if(argis("-cformula")) {
PHASEFROM(2);
stop_game();
enable_canvas();
ccolor::which = &ccolor::formula;
shift(); ccolor::set_formula(args());
}
else if(argis("-d:line"))
launch_dialog(linepatterns::showMenu);
else if(argis("-d:reg"))
launch_dialog(patterns::showPrePattern);
else if(argis("-d:pattern"))
launch_dialog(patterns::showPattern);
else return 1;
return 0;
}
auto ah_pattern = addHook(hooks_args, 0, read_pattern_args) + addHook(hooks_clearmemory, 100, [] { patterns::computed_nearer_map.clear(); patterns::computed_furthest_map.clear(); });
#endif
}
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