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1215 lines
39 KiB
C++
1215 lines
39 KiB
C++
// Hyperbolic Rogue -- binary tilings
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// Copyright (C) 2011-2019 Zeno Rogue, see 'hyper.cpp' for details
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/** \file binary-tiling.cpp
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* \brief Binary tilings in 2D and 3D
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*/
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#include "hyper.h"
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namespace hr {
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EX namespace bt {
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/** note: nihsolv and kd3 tilings return bt::in(). They are defined elsewhere, although some of bt:: functions are used for them */
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EX bool in() {
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#if CAP_BT
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return cgflags & qBINARY;
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#else
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return false;
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#endif
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}
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#if !CAP_BT
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EX int updir() { return 0; }
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#endif
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#if CAP_BT
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#if HDR
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enum bindir {
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bd_right = 0,
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bd_up_right = 1,
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bd_up = 2,
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bd_up_left = 3,
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bd_left = 4,
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bd_down = 5, /* for cells of degree 6 */
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bd_down_left = 5, /* for cells of degree 7 */
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bd_down_right = 6 /* for cells of degree 7 */
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};
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#endif
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EX int type_of(heptagon *h) {
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return h->c7->type;
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}
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// 0 - central, -1 - left, +1 - right
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EX int mapside(heptagon *h) {
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return h->zebraval;
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}
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#if DEBUG_BINARY_TILING
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map<heptagon*, long long> xcode;
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map<long long, heptagon*> rxcode;
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long long expected_xcode(heptagon *h, int d) {
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auto r =xcode[h];
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if(d == 0) return r + 1;
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if(d == 1) return 2*r + 1;
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if(d == 2) return 2*r;
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if(d == 3) return 2*r - 1;
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if(d == 4) return r-1;
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if(d == 5 && type_of(h) == 6) return r / 2;
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if(d == 5 && type_of(h) == 7) return (r-1) / 2;
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if(d == 6 && type_of(h) == 7) return (r+1) / 2;
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breakhere();
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}
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#endif
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EX heptagon *path(heptagon *h, int d, int d1, std::initializer_list<int> p) {
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static int rec = 0;
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rec++; if(rec>100) exit(1);
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// printf("{generating path from %p (%d/%d) dir %d:", h, type_of(h), mapside(h), d);
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heptagon *h1 = h;
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for(int d0: p) {
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// printf(" [%d]", d0);
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h1 = currentmap->may_create_step(h1, d0);
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// printf(" %p", h1);
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}
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#if DEBUG_BINARY_TILING
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if(xcode[h1] != expected_xcode(h, d)) {
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printf("expected_xcode mismatch\n");
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breakhere();
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}
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#endif
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// printf("}\n");
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if(h->move(d) && h->move(d) != h1) {
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printf("already connected to something else (1)\n");
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breakhere();
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}
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if(h1->move(d1) && h1->move(d1) != h) {
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printf("already connected to something else (2)\n");
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breakhere();
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}
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h->c.connect(d, h1, d1, false);
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rec--;
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return h1;
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}
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EX heptagon *pathc(heptagon *h, int d, int d1, std::vector<std::initializer_list<int>> p) {
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h->cmove(S7-1);
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int z = h->c.spin(S7-1);
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return path(h, d, d1, p[z]);
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}
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EX ld hororec_scale = 0.25;
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EX ld horohex_scale = 0.6;
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EX void make_binary_lands(heptagon *parent, heptagon *h) {
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if(!parent->emeraldval) parent->emeraldval = currentmap->gamestart()->land;
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eLand z = eLand(parent->emeraldval);
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int chance = 0;
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if(ls::no_walls() || parent->emeraldval == laCrossroads4) {
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eLand x = parent->c7->land;
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parent->c7->land = z;
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chance = wallchance(parent->c7, deep_ocean_at(parent->c7, parent->c7));
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parent->c7->land = x;
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}
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if(ls::std_chaos()) chance = 1000;
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if(chance && hrand(40000) < chance)
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h->emeraldval = getNewLand(z);
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else
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h->emeraldval = z;
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}
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EX heptagon *build(heptagon *parent, int d, int d1, int t, int side, int delta) {
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auto h = buildHeptagon1(init_heptagon(t), parent, d, hsA, d1);
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h->distance = parent->distance + delta;
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h->dm4 = parent->dm4 + delta;
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h->c7 = NULL;
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if(parent->c7) h->c7 = newCell(t, h);
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h->zebraval = side;
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switch(geometry) {
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case gBinary4:
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if(d < 2)
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h->emeraldval = gmod(parent->emeraldval * 2 + d, 15015);
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else
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h->emeraldval = gmod((parent->emeraldval - d1) * 7508, 15015);
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break;
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case gTernary:
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if(d < 2)
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h->emeraldval = gmod(parent->emeraldval * 3 + d, 10010);
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else
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h->emeraldval = gmod((parent->emeraldval - d1) * 3337, 10010);
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break;
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case gHoroRec: {
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int x = parent->fieldval & 4095;
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int y = (parent->fieldval >> 12) & 4095;
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if(d < 2) tie(x, y) = make_pair(y, gmod(x * 2 + d, 1155));
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else tie(x,y) = make_pair(gmod((y-d1)*578, 1155), x);
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h->fieldval = x + (y << 12);
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break;
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}
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case gBinary3: {
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int x = parent->fieldval & 4095;
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int y = (parent->fieldval >> 12) & 4095;
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if(d < 4) x = gmod(x * 2 + (d&1), 1155), y = gmod(y * 2 + (d>>1), 1155);
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else x = gmod((x-(d1&1))*578, 1155), y = gmod((y-(d1>>1))*578, 1155);
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h->fieldval = x + (y << 12);
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break;
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}
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default:
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break;
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}
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if(WDIM == 3 && h->c7) make_binary_lands(parent, h);
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#if DEBUG_BINARY_TILING
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xcode[h] = expected_xcode(parent, d);
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if(rxcode.count(xcode[h])) {
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printf("xcode clash\n");
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breakhere();
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}
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rxcode[xcode[h]] = h;
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#endif
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return h;
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}
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#if MAXMDIM==4
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EX heptagon *build3(heptagon *parent, int d, int d1, int delta) {
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int side = 0;
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if(geometry == gBinary3) {
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if(d < 4) side = (parent->zebraval * 2 + d) % 5;
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if(d == S7-1) side = ((5+parent->zebraval-d1) * 3) % 5;
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}
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if(geometry == gHoroHex) {
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if(d < 3) side = (parent->zebraval + d) % 3;
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if(d == S7-1) side = (parent->zebraval + 3 - d1) % 3;
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}
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return build(parent, d, d1, S7, side, delta);
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}
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#endif
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struct hrmap_binary : hrmap {
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heptagon *origin;
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std::mt19937 directions_generator;
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hrmap_binary(heptagon *o) : origin(o) { set_seed(); }
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void set_seed() { directions_generator.seed(137137137); }
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int nextdir(int choices) { return directions_generator() % choices; }
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heptagon *getOrigin() override { return origin; }
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hrmap_binary() {
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set_seed();
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origin = hyperbolic_origin();
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#if DEBUG_BINARY_TILING
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bt::xcode.clear();
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bt::rxcode.clear();
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bt::xcode[&h] = (1 << 16);
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bt::rxcode[1<<16] = &h;
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#endif
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origin->zebraval = 0;
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origin->emeraldval = 0;
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}
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heptagon *create_step(heptagon *parent, int d) override {
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auto h = parent;
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switch(geometry) {
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case gBinaryTiling: {
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switch(d) {
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case bd_right: {
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if(mapside(h) > 0 && type_of(h) == 7)
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return path(h, d, bd_left, {bd_left, bd_down, bd_right, bd_up});
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else if(mapside(h) >= 0)
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return build(parent, bd_right, bd_left, type_of(parent) ^ 1, 1, 0);
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else if(type_of(h) == 6)
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return path(h, d, bd_left, {bd_down, bd_right, bd_up, bd_left});
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else
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return path(h, d, bd_left, {bd_down_right, bd_up});
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}
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case bd_left: {
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if(mapside(h) < 0 && type_of(h) == 7)
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return path(h, d, bd_right, {bd_right, bd_down, bd_left, bd_up});
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else if(mapside(h) <= 0)
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return build(parent, bd_left, bd_right, type_of(parent) ^ 1, -1, 0);
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else if(type_of(h) == 6)
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return path(h, d, bd_right, {bd_down, bd_left, bd_up, bd_right});
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else
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return path(h, d, bd_right, {bd_down_left, bd_up});
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}
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case bd_up_right: {
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return path(h, d, bd_down_left, {bd_up, bd_right});
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}
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case bd_up_left: {
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return path(h, d, bd_down_right, {bd_up, bd_left});
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}
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case bd_up:
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return build(parent, bd_up, bd_down, 6, mapside(parent), 1);
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default:
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/* bd_down */
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if(type_of(h) == 6) {
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if(mapside(h) == 0)
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return build(parent, bd_down, bd_up, 6, 0, -1);
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else if(mapside(h) == 1)
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return path(h, d, bd_up, {bd_left, bd_left, bd_down, bd_right});
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else if(mapside(h) == -1)
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return path(h, d, bd_up, {bd_right, bd_right, bd_down, bd_left});
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}
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/* bd_down_left */
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else if(d == bd_down_left) {
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return path(h, d, bd_up_right, {bd_left, bd_down});
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}
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else if(d == bd_down_right) {
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return path(h, d, bd_up_left, {bd_right, bd_down});
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}
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}
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throw hr_exception("wrong dir");
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}
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case gBinary4: {
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switch(d) {
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case 0: case 1:
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return build(parent, d, 3, 5, d, 1);
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case 3:
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return build(parent, 3, parent->zebraval, 5, nextdir(2), -1);
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case 2:
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if(parent->zebraval == 0)
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return path(h, 2, 4, {3, 1});
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else
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return path(h, 2, 4, {3, 2, 0});
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case 4:
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if(parent->zebraval == 1)
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return path(h, 4, 2, {3, 0});
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else
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return path(h, 4, 2, {3, 4, 1});
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default:
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throw hr_exception("wrong dir");
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}
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}
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case gTernary: {
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switch(d) {
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case 0: case 1: case 2:
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return build(parent, d, 4, 6, d, 1);
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case 4:
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return build(parent, 4, parent->zebraval, 6, nextdir(3), -1);
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case 3:
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if(parent->zebraval < 2)
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return path(h, 3, 5, {4, parent->zebraval + 1});
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else
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return path(h, 3, 5, {4, 3, 0});
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case 5:
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if(parent->zebraval > 0)
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return path(h, 5, 3, {4, parent->zebraval - 1});
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else
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return path(h, 5, 3, {4, 5, 2});
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default:
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throw hr_exception("wrong dir");
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}
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}
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#if MAXMDIM >= 4
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case gBinary3: {
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switch(d) {
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case 0: case 1:
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case 2: case 3:
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return build3(parent, d, 8, 1);
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case 8:
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return build3(parent, 8, nextdir(4), -1);
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case 4:
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parent->cmove(8);
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if(parent->c.spin(8) & 1)
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return path(h, 4, 5, {8, parent->c.spin(8) ^ 1});
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else
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return path(h, 4, 5, {8, 4, parent->c.spin(8) ^ 1});
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case 5:
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parent->cmove(8);
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if(!(parent->c.spin(8) & 1))
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return path(h, 5, 4, {8, parent->c.spin(8) ^ 1});
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else
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return path(h, 5, 4, {8, 5, parent->c.spin(8) ^ 1});
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case 6:
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parent->cmove(8);
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if(parent->c.spin(8) & 2)
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return path(h, 6, 7, {8, parent->c.spin(8) ^ 2});
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else
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return path(h, 6, 7, {8, 6, parent->c.spin(8) ^ 2});
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case 7:
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parent->cmove(8);
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if(!(parent->c.spin(8) & 2))
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return path(h, 7, 6, {8, parent->c.spin(8) ^ 2});
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else
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return path(h, 7, 6, {8, 7, parent->c.spin(8) ^ 2});
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default:
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throw hr_exception("wrong dir");
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}
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}
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case gHoroRec: {
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switch(d) {
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case 0: case 1:
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return build3(parent, d, 6, 1);
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case 6:
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return build3(parent, 6, nextdir(2), -1);
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case 2:
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parent->cmove(6);
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if(parent->c.spin(6) == 0)
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return path(h, 2, 4, {6, 1});
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else
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return path(h, 2, 4, {6, 3, 0});
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case 4:
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parent->cmove(6);
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if(parent->c.spin(6) == 0)
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return path(h, 4, 2, {6, 5, 1});
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else
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return path(h, 4, 2, {6, 0});
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case 3:
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parent->cmove(6);
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return path(h, 3, 5, {6, 4, parent->c.spin(6)});
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case 5:
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parent->cmove(6);
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return path(h, 5, 3, {6, 2, parent->c.spin(6)});
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default:
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throw hr_exception("wrong dir");
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}
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}
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case gHoroTris: {
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switch(d) {
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case 0: case 1: case 2: case 3:
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return build3(parent, d, 7, 1);
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case 7:
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return build3(parent, 7, nextdir(3), -1);
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case 4: case 5: case 6: {
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parent->cmove(7);
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int s = parent->c.spin(7);
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if(s == 0) return path(h, d, d, {7, d-3});
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else if(s == d-3) return path(h, d, d, {7, 0});
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else return path(h, d, d, {7, d, 9-d-s});
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}
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default:
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throw hr_exception("wrong dir");
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}
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}
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case gHoroHex: {
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// the comment is a picture...
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// generated with the help of hexb.cpp
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switch(d) {
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case 0: case 1: case 2:
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return build3(parent, d, 13, 1);
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case 13:
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return build3(parent, 13, nextdir(3), -1);
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case 3:
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return pathc(h, 3, 12, {{13,4,2}, {13,5,2}, {13,3,2}});
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case 4:
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return pathc(h, 4, 12, {{13,6,2,0}, {13,7,0,0}, {13,8,1,0}});
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case 5:
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return pathc(h, 5, 12, {{13,1,1}, {13,2,1}, {13,0,1}});
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case 6:
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return pathc(h, 6, 10, {{13,5}, {13,3}, {13,4}});
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case 7:
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return pathc(h, 7, 11, {{13,2}, {13,0}, {13,1}});
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case 8:
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return pathc(h, 8, 9, {{13,6,0}, {13,7,1}, {13,8,2}});
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case 9:
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return pathc(h, 9, 8, {{13,4}, {13,5}, {13,3}});
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case 10:
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return pathc(h, 10, 6, {{13,6,2}, {13,7,0}, {13,8,1}});
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case 11:
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return pathc(h, 11, 7, {{13,1}, {13,2}, {13,0}});
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case 12: {
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h->cmove(13);
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int z = h->c.spin(13);
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return path(h, 12, (z+1)%3+3, {13, z+6});
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}
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default:
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throw hr_exception("wrong dir");
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}
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}
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#endif
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default:
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throw hr_exception("wrong geometry");
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}
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}
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int shvid(cell *c) override {
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if(geometry == gBinaryTiling)
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return c->type-6;
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else if(geometry == gBinary4 || geometry == gTernary)
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return c->master->zebraval;
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else
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return 0;
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}
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hyperpoint get_corner(cell *c, int cid, ld cf) override {
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if(WDIM == 3) {
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println(hlog, "get_corner_position called");
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return C0;
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}
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return mid_at_actual(bt::get_horopoint(bt::get_corner_horo_coordinates(c, cid)), 3/cf);
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}
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int updir_at(heptagon *h) {
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if(geometry != gBinaryTiling) return updir();
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else if(type_of(h) == 6) return bd_down;
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else if(mapside(h) == 1) return bd_left;
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else if(mapside(h) == -1) return bd_right;
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else throw hr_exception("wrong dir");
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}
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transmatrix relative_matrixh(heptagon *h2, heptagon *h1, const hyperpoint& hint) override {
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if(gmatrix0.count(h2->c7) && gmatrix0.count(h1->c7))
|
|
return inverse_shift(gmatrix0[h1->c7], gmatrix0[h2->c7]);
|
|
transmatrix gm = Id, where = Id;
|
|
while(h1 != h2) {
|
|
if(h1->distance <= h2->distance) {
|
|
int d = updir_at(h2);
|
|
where = iadj(h2, d) * where;
|
|
h2 = may_create_step(h2, d);
|
|
}
|
|
else {
|
|
int d = updir_at(h1);
|
|
gm = gm * adj(h1, d);
|
|
h1 = may_create_step(h1, d);
|
|
}
|
|
}
|
|
return gm * where;
|
|
}
|
|
|
|
ld spin_angle(cell *c, int d) override {
|
|
if(WDIM == 3 || geometry == gBinary4 || geometry == gTernary) {
|
|
return hrmap::spin_angle(c, d);
|
|
}
|
|
if(d == NODIR) return 0;
|
|
if(d == c->type-1) d++;
|
|
return -(d+2) * 45._deg;
|
|
}
|
|
|
|
transmatrix adj(heptagon *h, int dir) override {
|
|
if(geometry == gBinaryTiling) switch(dir) {
|
|
case bd_up: return lxpush(-log(2));
|
|
case bd_left: return parabolic(-2);
|
|
case bd_right: return parabolic(+2);
|
|
case bd_down:
|
|
if(h->type == 6) return lxpush(log(2));
|
|
/* case bd_down_left: */
|
|
return parabolic(-2) * lxpush(log(2));
|
|
case bd_down_right:
|
|
return parabolic(+2) * lxpush(log(2));
|
|
case bd_up_left:
|
|
return lxpush(-log(2)) * parabolic(-2);
|
|
case bd_up_right:
|
|
return lxpush(-log(2)) * parabolic(2);
|
|
default:
|
|
throw hr_exception("unknown direction");
|
|
}
|
|
else if(use_direct_for(dir))
|
|
return cgi.direct_tmatrix[dir];
|
|
else {
|
|
h->cmove(dir);
|
|
return cgi.inverse_tmatrix[h->c.spin(dir)];
|
|
}
|
|
}
|
|
|
|
const transmatrix iadj(heptagon *h, int dir) { heptagon *h1 = h->cmove(dir); return adj(h1, h->c.spin(dir)); }
|
|
|
|
void virtualRebase(heptagon*& base, transmatrix& at) override {
|
|
|
|
while(true) {
|
|
|
|
double currz = at[LDIM][LDIM];
|
|
|
|
heptagon *h = base;
|
|
|
|
heptagon *newbase = NULL;
|
|
|
|
transmatrix bestV;
|
|
|
|
for(int d=0; d<S7; d++) {
|
|
transmatrix V2 = iadj(h, d) * at;
|
|
double newz = V2[LDIM][LDIM];
|
|
if(newz < currz) {
|
|
currz = newz;
|
|
bestV = V2;
|
|
newbase = h->cmove(d);
|
|
}
|
|
}
|
|
|
|
if(newbase) {
|
|
base = newbase;
|
|
at = bestV;
|
|
continue;
|
|
}
|
|
|
|
return;
|
|
}
|
|
}
|
|
|
|
~hrmap_binary() { if(origin) clearfrom(origin); }
|
|
};
|
|
|
|
EX hrmap *new_map() { return new hrmap_binary; }
|
|
|
|
struct hrmap_alternate_binary : hrmap_binary {
|
|
heptagon *origin;
|
|
hrmap_alternate_binary(heptagon *o) { origin = o; }
|
|
~hrmap_alternate_binary() { clearfrom(origin); }
|
|
};
|
|
|
|
EX hrmap *new_alt_map(heptagon *o) { return new hrmap_binary(o); }
|
|
|
|
/** \brief return if ew should use direct_tmatrix[dir] to get the adjacent cell the given direction
|
|
*
|
|
* Otherwise, this is the 'up' direction and thus we should use inverse_tmatrix for the inverse direction
|
|
*/
|
|
EX bool use_direct_for(int dir) {
|
|
return (cgi.use_direct >> dir) & 1;
|
|
}
|
|
|
|
/** \brief which coordinate is expanding */
|
|
EX int expansion_coordinate() {
|
|
if(WDIM == 2) return 0;
|
|
return 2;
|
|
}
|
|
|
|
/** \brief by what factor does the area expand after moving one level in hr::bt::expansion_coordinate() */
|
|
EX ld area_expansion_rate() {
|
|
switch(geometry) {
|
|
case gBinaryTiling: case gBinary4:
|
|
return 2;
|
|
case gTernary:
|
|
return 3;
|
|
case gBinary3: case gHoroTris:
|
|
return 4;
|
|
case gHoroRec:
|
|
return 2;
|
|
case gHoroHex:
|
|
return 3;
|
|
case gNil:
|
|
return 1;
|
|
case gEuclidSquare:
|
|
return 1;
|
|
case gKiteDart3:
|
|
return pow(golden_phi, 2);
|
|
case gSol:
|
|
return 1;
|
|
case gNIH:
|
|
return 6;
|
|
case gSolN:
|
|
return 3/2.;
|
|
case gArnoldCat:
|
|
return 1;
|
|
|
|
default:
|
|
return 0;
|
|
}
|
|
}
|
|
|
|
/** \brief by what factor do the lengths expand after moving one level in hr::bt::expansion_coordinate() */
|
|
EX ld expansion() {
|
|
if(WDIM == 2) return area_expansion_rate();
|
|
else if(mproduct) return PIU( area_expansion_rate() );
|
|
else return sqrt(area_expansion_rate());
|
|
}
|
|
|
|
/** \brief Get a point in the current cell, normalized to [-1,1]^WDIM
|
|
*
|
|
* This function returns the matrix moving point (0,0,0) to the given point in a parallelogram-like box
|
|
* Dimensions of the box are normalized to [-1,1], and directions are the same as usual (i.e., expansion_coordinate() is the correct one)
|
|
*
|
|
* This should works for all geometries which actually have boxes.
|
|
*
|
|
* For binary-based tessellations which are not based on square sections (e.g. gKiteDart3), 'x' and 'y' coordinates are not given in [-1,1], but take binary_width into account
|
|
*
|
|
* Otherwise: just return h
|
|
*
|
|
* See also: in devmods/tests.cpp, -bt-test tests whether this works correctly
|
|
*
|
|
*/
|
|
|
|
EX transmatrix normalized_at(hyperpoint h) {
|
|
ld z2 = -log(2) / 2;
|
|
ld z3 = -log(3) / 2;
|
|
ld bwhn = vid.binary_width / 2;
|
|
ld bwh = vid.binary_width * z2;
|
|
ignore(bwh); ignore(bwhn);
|
|
ld r2 = sqrt(2);
|
|
const ld hs = hororec_scale;
|
|
auto &x = h[0], &y = h[1], &z = h[2];
|
|
switch(geometry) {
|
|
case gBinaryTiling: case gBinary4:
|
|
return bt::parabolic(y) * lxpush(x*z2*2);
|
|
case gTernary:
|
|
return bt::parabolic(y) * lxpush(x*z3*2);
|
|
#if CAP_SOLV
|
|
case gSol:
|
|
return xpush(bwh*x) * ypush(bwh*y) * zpush(z2*z);
|
|
case gSolN: case gNIH:
|
|
return xpush(bwhn*x) * ypush(bwhn*y) * zpush(-z*.5);
|
|
case gArnoldCat:
|
|
return rgpushxto0(asonov::tx*x/2 + asonov::ty*y/2 + asonov::tz*z/2);
|
|
#endif
|
|
case gNil:
|
|
return rgpushxto0(point31(x/2, y/2, z/2));
|
|
case gEuclidSquare:
|
|
return rgpushxto0(hpxy(x, y));
|
|
case gBinary3:
|
|
return parabolic3(x,y) * xpush(z*z2);
|
|
case gHoroRec:
|
|
return parabolic3(r2*hs*x, 2*hs*y) * xpush(z*z2/2);
|
|
case gHoroTris:
|
|
return parabolic3(x,y) * xpush(z*z2);
|
|
case gHoroHex:
|
|
return parabolic3(x,y) * xpush(z*z3/2);
|
|
case gKiteDart3:
|
|
return parabolic3(x,y) * xpush(-z*log_golden_phi/2);
|
|
default:
|
|
return rgpushxto0(h);
|
|
}
|
|
}
|
|
|
|
EX transmatrix normalized_at(ld x, ld y, ld z IS(0)) {
|
|
return normalized_at(point3(x, y, z));
|
|
}
|
|
|
|
EX int updir() {
|
|
if(geometry == gBinary4) return 3;
|
|
if(geometry == gTernary) return 4;
|
|
if(geometry == gBinaryTiling) return 5;
|
|
if(kite::in()) return 0;
|
|
if(!bt::in()) return 0;
|
|
return S7-1;
|
|
}
|
|
|
|
EX int dirs_outer() {
|
|
switch(geometry) {
|
|
case gBinary3: return 4;
|
|
case gHoroTris: return 4;
|
|
case gHoroRec: return 2;
|
|
case gHoroHex: return 6;
|
|
default: return -1;
|
|
}
|
|
}
|
|
|
|
EX int dirs_inner() {
|
|
if(among(geometry, gBinaryTiling, gHoroHex)) return 2;
|
|
return 1;
|
|
}
|
|
|
|
EX void build_tmatrix() {
|
|
if(among(geometry, gBinaryTiling, gSol, gArnoldCat)) return; // unused
|
|
auto& direct_tmatrix = cgi.direct_tmatrix;
|
|
auto& inverse_tmatrix = cgi.inverse_tmatrix;
|
|
auto& use_direct = cgi.use_direct;
|
|
use_direct = (1 << (S7-1)) - 1;
|
|
if(geometry == gBinary4) {
|
|
use_direct = 3;
|
|
direct_tmatrix[0] = lxpush(-log(2)) * parabolic(-1);
|
|
direct_tmatrix[1] = lxpush(-log(2)) * parabolic(+1);
|
|
direct_tmatrix[2] = parabolic(2);
|
|
direct_tmatrix[4] = parabolic(-2);
|
|
use_direct = 1+2+4+16;
|
|
}
|
|
if(geometry == gTernary) {
|
|
direct_tmatrix[0] = lxpush(-log(3)) * parabolic(-2);
|
|
direct_tmatrix[1] = lxpush(-log(3));
|
|
direct_tmatrix[2] = lxpush(-log(3)) * parabolic(+2);
|
|
direct_tmatrix[3] = parabolic(2);
|
|
direct_tmatrix[5] = parabolic(-2);
|
|
use_direct = 1+2+4+8+32;
|
|
}
|
|
if(geometry == gBinary3) {
|
|
direct_tmatrix[0] = xpush(-log(2)) * parabolic3(-1, -1);
|
|
direct_tmatrix[1] = xpush(-log(2)) * parabolic3(1, -1);
|
|
direct_tmatrix[2] = xpush(-log(2)) * parabolic3(-1, 1);
|
|
direct_tmatrix[3] = xpush(-log(2)) * parabolic3(1, 1);
|
|
direct_tmatrix[4] = parabolic3(-2, 0);
|
|
direct_tmatrix[5] = parabolic3(+2, 0);
|
|
direct_tmatrix[6] = parabolic3(0, -2);
|
|
direct_tmatrix[7] = parabolic3(0, +2);
|
|
}
|
|
if(geometry == gHoroTris) {
|
|
ld r3 = sqrt(3);
|
|
direct_tmatrix[0] = xpush(-log(2)) * cspin180(1,2);
|
|
direct_tmatrix[1] = parabolic3(0, +r3/3) * xpush(-log(2));
|
|
direct_tmatrix[2] = parabolic3(-0.5, -r3/6) * xpush(-log(2));
|
|
direct_tmatrix[3] = parabolic3(+0.5, -r3/6) * xpush(-log(2));
|
|
direct_tmatrix[4] = parabolic3(0, -r3*2/3) * cspin180(1,2);
|
|
direct_tmatrix[5] = parabolic3(1, r3/3) * cspin180(1,2);
|
|
direct_tmatrix[6] = parabolic3(-1, r3/3) * cspin180(1,2);
|
|
}
|
|
if(geometry == gHoroRec) {
|
|
ld r2 = sqrt(2);
|
|
ld l = -log(2)/2;
|
|
ld z = hororec_scale;
|
|
direct_tmatrix[0] = parabolic3(0, -z) * xpush(l) * cspin90(2,1);
|
|
direct_tmatrix[1] = parabolic3(0, +z) * xpush(l) * cspin90(2,1);
|
|
direct_tmatrix[2] = parabolic3(+2*r2*z, 0);
|
|
direct_tmatrix[3] = parabolic3(0, +4*z);
|
|
direct_tmatrix[4] = parabolic3(-2*r2*z, 0);
|
|
direct_tmatrix[5] = parabolic3(0, -4*z);
|
|
}
|
|
if(geometry == gHoroHex) {
|
|
// also generated with the help of hexb.cpp
|
|
ld l = log(3)/2;
|
|
auto& t = direct_tmatrix;
|
|
t[0] = parabolic3(horohex_scale, 0) * xpush(-l) * cspin(1, 2, 90._deg);
|
|
t[1] = cspin(1, 2, 120*degree) * t[0];
|
|
t[2] = cspin(1, 2, 240*degree) * t[0];
|
|
auto it = iso_inverse(t[0]);
|
|
|
|
t[5] = it * t[1] * t[1];
|
|
t[6] = it * t[5];
|
|
t[4] = it * t[6] * t[2] * t[0];
|
|
t[3] = it * t[4] * t[2];
|
|
|
|
t[7] = it * t[2];
|
|
t[8] = it * t[6] * t[0];
|
|
t[9] = it * t[4];
|
|
t[10] = it * t[6] * t[2];
|
|
t[11] = it * t[1];
|
|
|
|
if(debugflags & DF_GEOM)
|
|
for(int a=0; a<12; a++)
|
|
println(hlog, t[a]);
|
|
|
|
use_direct >>= 1;
|
|
}
|
|
for(int i=0; i<S7; i++) if(use_direct_for(i))
|
|
inverse_tmatrix[i] = iso_inverse(direct_tmatrix[i]);
|
|
}
|
|
|
|
#if MAXMDIM == 4
|
|
|
|
EX void queuecube(const shiftmatrix& V, ld size, color_t linecolor, color_t facecolor) {
|
|
ld yy = log(2) / 2;
|
|
const int STEP=3;
|
|
const ld MUL = 1. / STEP;
|
|
auto at = [&] (ld x, ld y, ld z) { curvepoint(parabolic3(size*x, size*y) * xpush0(size*yy*z)); };
|
|
for(int a:{-1,1}) {
|
|
for(ld t=-STEP; t<STEP; t++) at(a, 1,t*MUL);
|
|
for(ld t=-STEP; t<STEP; t++) at(a, -t*MUL,1);
|
|
for(ld t=-STEP; t<STEP; t++) at(a, -1,-t*MUL);
|
|
for(ld t=-STEP; t<STEP; t++) at(a, t*MUL,-1);
|
|
at(a, 1,-1);
|
|
queuecurve(V, linecolor, facecolor, PPR::LINE);
|
|
|
|
for(ld t=-STEP; t<STEP; t++) at(1,t*MUL,a);
|
|
for(ld t=-STEP; t<STEP; t++) at(-t*MUL,1,a);
|
|
for(ld t=-STEP; t<STEP; t++) at(-1,-t*MUL,a);
|
|
for(ld t=-STEP; t<STEP; t++) at(t*MUL,-1,a);
|
|
at(1,-1,a);
|
|
queuecurve(V, linecolor, facecolor, PPR::LINE);
|
|
|
|
for(ld t=-STEP; t<STEP; t++) at(1,a,t*MUL);
|
|
for(ld t=-STEP; t<STEP; t++) at(-t*MUL,a,1);
|
|
for(ld t=-STEP; t<STEP; t++) at(-1,a,-t*MUL);
|
|
for(ld t=-STEP; t<STEP; t++) at(t*MUL,a,-1);
|
|
at(1,a,-1);
|
|
queuecurve(V, linecolor, facecolor, PPR::LINE);
|
|
}
|
|
/*for(int a:{-1,1}) for(int b:{-1,1}) for(int c:{-1,1}) {
|
|
at(0,0,0); at(a,b,c); queuecurve(linecolor, facecolor, PPR::LINE);
|
|
}*/
|
|
}
|
|
#endif
|
|
|
|
EX ld xy_mul() { return vid.binary_width * log(2) / 2; }
|
|
|
|
EX transmatrix parabolic(ld u) {
|
|
return parabolic1(u * xy_mul());
|
|
}
|
|
|
|
EX transmatrix parabolic3(ld y, ld z) {
|
|
ld co = xy_mul();
|
|
return hr::parabolic13(y * co, z * co);
|
|
}
|
|
|
|
// on which horocycle are we
|
|
EX ld horo_level(hyperpoint h) {
|
|
h /= (1 + h[LDIM]);
|
|
h[0] -= 1;
|
|
h /= sqhypot_d(GDIM, h);
|
|
h[0] += .5;
|
|
return log(2) + log(-h[0]);
|
|
}
|
|
|
|
/** \brief convert BT coordinates to Minkowski coordinates
|
|
in the BT coordinates, h[2] is vertical; the center of the horosphere in Klein model is (1,0,0)
|
|
*/
|
|
|
|
EX hyperpoint bt_to_minkowski(hyperpoint h) {
|
|
ld yy = log(2) / 2;
|
|
ld co = xy_mul();
|
|
return hr::parabolic13(h[0] * co, h[1] * co) * xpush0(yy*h[2]);
|
|
}
|
|
|
|
/** \brief inverse of bt_to_minkowski */
|
|
EX hyperpoint minkowski_to_bt(hyperpoint h) {
|
|
h = deparabolic13(h);
|
|
ld co = xy_mul();
|
|
ld yy = log(2) / 2;
|
|
h = point31(h[1] / co, h[2] / co, h[0] / yy);
|
|
return h;
|
|
}
|
|
|
|
#if CAP_COMMANDLINE
|
|
auto bt_config = arg::add2("-btwidth", [] {arg::shift_arg_formula(vid.binary_width); });
|
|
#endif
|
|
|
|
EX bool pseudohept(cell *c) {
|
|
if(WDIM == 2)
|
|
return c->type & c->master->distance & 1;
|
|
else if(geometry == gHoroRec)
|
|
return c->c.spin(S7-1) == 0 && (c->master->distance & 1) && c->cmove(S7-1)->c.spin(S7-1) == 0;
|
|
else if(geometry == gHoroTris)
|
|
return c->c.spin(S7-1) == 0 && (c->master->distance & 1);
|
|
else
|
|
return (c->master->zebraval == 1) && (c->master->distance & 1);
|
|
}
|
|
|
|
EX pair<gp::loc, gp::loc> gpvalue(heptagon *h) {
|
|
int d = h->c.spin(S7-1);
|
|
if(d == 0) return make_pair(gp::loc(0,0), gp::loc(-1,0));
|
|
else return make_pair(gp::eudir((d-1)*2), gp::loc(1,0));
|
|
}
|
|
|
|
// distance in a triangular grid
|
|
EX int tridist(gp::loc v) {
|
|
using namespace gp;
|
|
int d = v.first - v.second;
|
|
int d0 = d % 3;
|
|
if(d0 == 1 || d0 == -2) return 1 + min(tridist(v - eudir(0)), min(tridist(v - eudir(2)), tridist(v - eudir(4))));
|
|
if(d0 == 2 || d0 == -1) return 1 + min(tridist(v + eudir(0)), min(tridist(v + eudir(2)), tridist(v + eudir(4))));
|
|
return length(v * loc(1,1)) * 2 / 3;
|
|
}
|
|
|
|
EX int equalize(heptagon*& c1, heptagon*& c2) {
|
|
int steps = 0;
|
|
int d1 = c1->distance;
|
|
int d2 = c2->distance;
|
|
while(d1 > d2) c1 = c1->cmove(S7-1), steps++, d1--;
|
|
while(d2 > d1) c2 = c2->cmove(S7-1), steps++, d2--;
|
|
return steps;
|
|
}
|
|
|
|
EX int celldistance3_tri(heptagon *c1, heptagon *c2) {
|
|
using namespace gp;
|
|
int steps = equalize(c1, c2);
|
|
vector<pair<loc, loc> > m1, m2;
|
|
while(c1 != c2) {
|
|
m2.push_back(gpvalue(c2));
|
|
m1.push_back(gpvalue(c1));
|
|
c1 = c1->cmove(S7-1);
|
|
c2 = c2->cmove(S7-1);
|
|
steps += 2;
|
|
}
|
|
loc T1(0,0), T2(0,0), inv1(1,0), inv2(1,0);
|
|
int xsteps = steps;
|
|
while(isize(m1)) {
|
|
xsteps -= 2;
|
|
inv1 = inv1 * m1.back().second;
|
|
inv2 = inv2 * m2.back().second;
|
|
T1 = T1 + T1 + m1.back().first * inv1;
|
|
T2 = T2 + T2 + m2.back().first * inv2;
|
|
m1.pop_back(); m2.pop_back();
|
|
loc T0 = T2 - T1;
|
|
if(T0.first > 3 || T0.second > 3 || T0.first < -3 || T0.second < -3) break;
|
|
steps = min(steps, xsteps + tridist(T0));
|
|
}
|
|
return steps;
|
|
}
|
|
|
|
EX int celldistance3_rec(heptagon *c1, heptagon *c2) {
|
|
int steps = equalize(c1, c2);
|
|
vector<int> dx;
|
|
while(c1 != c2) {
|
|
dx.push_back(c1->c.spin(S7-1) - c2->c.spin(S7-1));
|
|
c1 = c1->cmove(S7-1);
|
|
c2 = c2->cmove(S7-1);
|
|
steps += 2;
|
|
}
|
|
int xsteps = steps, sx = 0, sy = 0;
|
|
while(isize(dx)) {
|
|
xsteps -= 2;
|
|
tie(sx, sy) = make_pair(-sy, 2 * sx + dx.back());
|
|
dx.pop_back();
|
|
int ysteps = xsteps + abs(sx) + abs(sy);
|
|
if(ysteps < steps) steps = ysteps;
|
|
if(sx >= 8 || sx <= -8 || sy >= 8 || sy <= -8) break;
|
|
}
|
|
return steps;
|
|
}
|
|
|
|
EX int celldistance3_square(heptagon *c1, heptagon *c2) {
|
|
int steps = equalize(c1, c2);
|
|
vector<int> dx, dy;
|
|
while(c1 != c2) {
|
|
dx.push_back((c1->c.spin(S7-1) & 1) - (c2->c.spin(S7-1) & 1));
|
|
dy.push_back((c1->c.spin(S7-1) >> 1) - (c2->c.spin(S7-1) >> 1));
|
|
c1 = c1->cmove(S7-1);
|
|
c2 = c2->cmove(S7-1);
|
|
steps += 2;
|
|
}
|
|
int xsteps = steps, sx = 0, sy = 0;
|
|
while(isize(dx)) {
|
|
xsteps -= 2;
|
|
sx *= 2;
|
|
sy *= 2;
|
|
sx += dx.back(); sy += dy.back();
|
|
dx.pop_back(); dy.pop_back();
|
|
int ysteps = xsteps + abs(sx) + abs(sy);
|
|
if(ysteps < steps) steps = ysteps;
|
|
if(sx >= 8 || sx <= -8 || sy >= 8 || sy <= -8) break;
|
|
}
|
|
return steps;
|
|
}
|
|
|
|
// this algorithm is wrong: it never considers the "narrow gap" moves
|
|
EX int celldistance3_hex(heptagon *c1, heptagon *c2) {
|
|
int steps = equalize(c1, c2);
|
|
vector<int> d1, d2;
|
|
while(c1 != c2) {
|
|
d1.push_back(c1->c.spin(S7-1));
|
|
d2.push_back(c2->c.spin(S7-1));
|
|
c1 = c1->cmove(S7-1);
|
|
c2 = c2->cmove(S7-1);
|
|
steps += 2;
|
|
}
|
|
int xsteps = steps;
|
|
dynamicval<eGeometry> g(geometry, gEuclid);
|
|
transmatrix T = Id;
|
|
while(isize(d1)) {
|
|
xsteps -= 2;
|
|
|
|
T = euscalezoom(hpxy(0,sqrt(3))) * eupush(1,0) * spin(-d2.back() * 120._deg) * T * spin(d1.back() * 2 * M_PI/3) * eupush(-1,0) * euscalezoom(hpxy(0,-1/sqrt(3)));
|
|
|
|
d1.pop_back(); d2.pop_back();
|
|
|
|
hyperpoint h = tC0(T);
|
|
int sx = int(floor(h[0] - h[1] / sqrt(3) + .5)) / 3;
|
|
int sy = int(floor(h[1] * 2 / sqrt(3) + .5)) / 3;
|
|
|
|
int ysteps = xsteps + euc::dist(sx, sy);
|
|
if(ysteps < steps) steps = ysteps;
|
|
if(sx >= 8 || sx <= -8 || sy >= 8 || sy <= -8) break;
|
|
}
|
|
return steps;
|
|
}
|
|
|
|
EX int celldistance3_approx(heptagon *c1, heptagon *c2) {
|
|
int d = 0;
|
|
while(true) {
|
|
if(d > 1000000) return d; /* sanity check */
|
|
if(c1 == c2) return d;
|
|
for(int i=0; i<c1->type; i++)
|
|
if(c1->move(i) == c2) return d + 1;
|
|
for(int i=0; i<c1->type; i++) {
|
|
heptagon *c3 = c1->move(i);
|
|
for(int j=0; j<c3->type; j++)
|
|
if(c3->move(j) == c2) return d+2;
|
|
}
|
|
if(c1->distance > c2->distance) c1=c1->cmove(updir()), d++;
|
|
else c2=c2->cmove(updir()), d++;
|
|
}
|
|
}
|
|
|
|
EX int celldistance3(heptagon *c1, heptagon *c2) {
|
|
switch(geometry) {
|
|
case gBinary3: return celldistance3_square(c1, c2);
|
|
case gHoroTris: return celldistance3_tri(c1, c2);
|
|
case gHoroRec: return celldistance3_rec(c1, c2);
|
|
case gHoroHex: return celldistance3_hex(c1, c2);
|
|
default:
|
|
if(sol || !bt::in()) {
|
|
println(hlog, "called celldistance3 for wrong geometry"); return 0;
|
|
}
|
|
return celldistance3_approx(c1, c2);
|
|
}
|
|
}
|
|
|
|
EX int celldistance3(cell *c1, cell *c2) { return celldistance3(c1->master, c2->master); }
|
|
|
|
EX hyperpoint get_horopoint(ld y, ld x) {
|
|
return bt::parabolic(x*2) * lxpush(-y) * C0;
|
|
}
|
|
|
|
EX hyperpoint get_horopoint(hyperpoint h) {
|
|
return get_horopoint(h[0], h[1]);
|
|
}
|
|
|
|
EX hyperpoint inverse_horopoint(hyperpoint h) {
|
|
hyperpoint h1 = deparabolic13(h);
|
|
h1[1] /= 2 * bt::xy_mul(); h1[0] *= -1;
|
|
return h1;
|
|
}
|
|
|
|
EX hyperpoint get_corner_horo_coordinates(cell *c, int i) {
|
|
ld yy = log(2) / 2;
|
|
ld xx = 1 / 2.;
|
|
switch(geometry) {
|
|
case gBinaryTiling:
|
|
switch(gmod(i, c->type)) {
|
|
case 0: return point2(-yy, xx);
|
|
case 1: return point2(yy, xx);
|
|
case 2: return point2(yy, xx/2);
|
|
case 3: return point2(yy, -xx/2);
|
|
case 4: return point2(yy, -xx);
|
|
case 5: return point2(-yy, -xx);
|
|
case 6: return point2(-yy, 0);
|
|
default: return point2(0, 0);
|
|
}
|
|
|
|
case gBinary4:
|
|
switch(gmod(i, c->type)) {
|
|
case 0: return point2(yy, -xx);
|
|
case 1: return point2(yy, +0*xx);
|
|
case 2: return point2(yy, +xx);
|
|
case 3: return point2(-yy, xx);
|
|
case 4: return point2(-yy, -xx);
|
|
default: return point2(0, 0);
|
|
}
|
|
|
|
case gTernary:
|
|
yy = log(3) / 2;
|
|
switch(gmod(i, c->type)) {
|
|
case 0: return point2(yy, -xx);
|
|
case 1: return point2(yy, -xx/3);
|
|
case 2: return point2(yy, +xx/3);
|
|
case 3: return point2(yy, +xx);
|
|
case 4: return point2(-yy, xx);
|
|
case 5: return point2(-yy, -xx);
|
|
default: return point2(0, 0);
|
|
}
|
|
|
|
default:
|
|
return point2(0, 0);
|
|
}
|
|
return point2(0, 0);
|
|
}
|
|
|
|
vector<hyperpoint> make4(hyperpoint a, hyperpoint b, hyperpoint c) {
|
|
return {a, b, b+c-a, c};
|
|
}
|
|
|
|
vector<hyperpoint> make5(hyperpoint a, hyperpoint b, hyperpoint c) {
|
|
return {a, (a+b)/2, b, b+c-a, c};
|
|
}
|
|
|
|
EX void create_faces() {
|
|
|
|
if(geometry == gBinary3) {
|
|
hyperpoint h00 = point3(-1,-1,-1);
|
|
hyperpoint h01 = point3(-1,0,-1);
|
|
hyperpoint h02 = point3(-1,+1,-1);
|
|
hyperpoint h10 = point3(0,-1,-1);
|
|
hyperpoint h11 = point3(0,0,-1);
|
|
hyperpoint h12 = point3(0,+1,-1);
|
|
hyperpoint h20 = point3(+1,-1,-1);
|
|
hyperpoint h21 = point3(+1,0,-1);
|
|
hyperpoint h22 = point3(+1,+1,-1);
|
|
hyperpoint down = point3(0,0,2);
|
|
|
|
add_wall(0, make4(h11, h01, h10));
|
|
add_wall(1, make4(h11, h21, h10));
|
|
add_wall(2, make4(h11, h01, h12));
|
|
add_wall(3, make4(h11, h21, h12));
|
|
add_wall(4, make5(h00, h02, h00+down));
|
|
add_wall(5, make5(h20, h22, h20+down));
|
|
add_wall(6, make5(h00, h20, h00+down));
|
|
add_wall(7, make5(h02, h22, h02+down));
|
|
add_wall(8, make4(h22+down, h02+down, h20+down));
|
|
}
|
|
|
|
if(GDIM == 3 && bt::in() && geometry == gHoroTris) {
|
|
ld r = sqrt(3)/6;
|
|
ld r1 = r;
|
|
ld r2 = r * 2;
|
|
|
|
hyperpoint t0 = point3(0,-r2,-1);
|
|
hyperpoint t1 = point3(+.5,r1,-1);
|
|
hyperpoint t2 = point3(-.5,r1,-1);
|
|
hyperpoint shift = point3(0,0,-3);
|
|
hyperpoint down = point3(0,0,2);
|
|
hyperpoint d0 = -2 * t0 + shift;
|
|
hyperpoint d1 = -2 * t1 + shift;
|
|
hyperpoint d2 = -2 * t2 + shift;
|
|
|
|
add_wall(0, {t0, t1, t2});
|
|
add_wall(1, {d0, t1, t2});
|
|
add_wall(2, {t0, d1, t2});
|
|
add_wall(3, {t0, t1, d2});
|
|
add_wall(4, make5(d2, d1, d2 + down));
|
|
add_wall(5, make5(d0, d2, d0 + down));
|
|
add_wall(6, make5(d1, d0, d1 + down));
|
|
add_wall(7, {d0+down, d1+down, d2+down});
|
|
}
|
|
|
|
if(geometry == gHoroRec) {
|
|
ld r2 = sqrt(2);
|
|
ld z = bt::hororec_scale;
|
|
|
|
hyperpoint a00 = point3(-r2*z,-2*z,-.5);
|
|
hyperpoint a01 = point3(+r2*z,-2*z,-.5);
|
|
hyperpoint a10 = point3(-r2*z, 0*z,-.5);
|
|
hyperpoint a11 = point3(+r2*z, 0*z,-.5);
|
|
hyperpoint a20 = point3(-r2*z,+2*z,-.5);
|
|
hyperpoint a21 = point3(+r2*z,+2*z,-.5);
|
|
|
|
hyperpoint down = point3(0,0,1);
|
|
|
|
add_wall(0, make4(a00, a01, a10));
|
|
add_wall(1, make4(a10, a11, a20));
|
|
add_wall(2, make5(a01, a21, a01+down));
|
|
add_wall(3, make4(a21, a20, a21+down));
|
|
add_wall(4, make5(a20, a00, a20+down));
|
|
add_wall(5, make4(a00, a01, a00+down));
|
|
add_wall(6, make4(a00+down, a01+down, a20+down));
|
|
}
|
|
|
|
if(geometry == gHoroHex) {
|
|
ld z = log(3) / log(2) / 2;
|
|
ld r3 = sqrt(3) / 2 * bt::horohex_scale;
|
|
ld h = bt::horohex_scale / 2;
|
|
hyperpoint down = point3(0,0,2*z);
|
|
|
|
for(int j=0; j<4; j++) for(int i=0; i<3; i++) {
|
|
transmatrix T = cspin(0, 1, 120._deg * i);
|
|
|
|
hyperpoint hcenter = point3(0,0,-z);
|
|
hyperpoint hu0 = T*point3(+h, +r3,-z);
|
|
hyperpoint hu1 = T*point3(+h*3,+r3,-z);
|
|
hyperpoint hd0 = T*point3(+h, -r3,-z);
|
|
hyperpoint hd1 = T*point3(+h*3,-r3,-z);
|
|
hyperpoint hcn = T*point3(-h*2,0, -z);
|
|
hyperpoint hun = T*point3(-h*3,+r3,-z);
|
|
hyperpoint hdn = T*point3(-h*3,-r3,-z);
|
|
if(j == 0) add_wall(i, {hcenter, hu0, hu1, hd1, hd0});
|
|
if(j == 1) add_wall(i+3, {hcn, hun, hdn});
|
|
if(j == 2) add_wall(i+6, make4(hd1, hu1, hd1+down));
|
|
if(j == 3) add_wall(i+9, make4(hun, hdn, hun+down));
|
|
}
|
|
|
|
add_wall(12, {point3(3*h,r3,z), point3(0,2*r3,z), point3(-3*h,r3,z)});
|
|
add_wall(13, {point3(3*h,r3,z), point3(3*h,-r3,z), point3(0,-2*r3,z), point3(-3*h,-r3,z), point3(-3*h,r3,z)});
|
|
}
|
|
|
|
if(kite::in()) {
|
|
auto kv = kite::make_walls();
|
|
for(auto& v: kv.first) for(auto& h: v) {
|
|
h = minkowski_to_bt(h);
|
|
}
|
|
for(int i=0; i<isize(kv.first); i++) {
|
|
add_wall(i, kv.first[i]);
|
|
}
|
|
get_hsh().weights = kv.second;
|
|
}
|
|
|
|
get_hsh().compute_hept();
|
|
}
|
|
|
|
auto hooksw = addHook(hooks_swapdim, 100, [] {
|
|
if(bt::in()) build_tmatrix();
|
|
});
|
|
#endif
|
|
|
|
}
|
|
|
|
}
|