Jonas Reith
aa32e38dad
Adds the slow real-time "Live World" mode (key W on a settled world) that runs the finished planet on an hours->weeks/months clock (liveTime/liveRate, [ / ] ramp the rate) with geology frozen. Everything new is a derived per-cell field flowed over the fixed grid. Day/night & seasons (PlanetLive.cpp): a raylib-free per-cell insolation field (computeInsolation) drives a moving day/night terminator (N) from time-of-day rotation + seasonal declination (axialTilt); a live seasonal temperature cycles the static summer/winter fields over the year (computeLiveSeason); a moving snow/sea-ice line tracks it. Day/night + snow are render overlays over any colour mode (3D + 2D). Save v8 stores the live clock. Sky & tides (PlanetOcean.cpp): 1-3 random moons (separate RNG, saved v9) orbit on the clock and, with the now small/distant sun, raise an equilibrium tide (computeTides -> sTide), shown as a tide-coloured coastline (T, buildCoastline + tideColor). Moons render with sun-lit phases, orbit rings and eclipses (solar shadow spot in the day/night overlay, lunar dimming). The 2D map is left-aligned; the freed space holds a Live-World "Sky & tides" panel (per-moon phase + a selected coastal tile's tidal phase). Ocean currents + climate feedback (PlanetOcean.cpp): computeOceanCurrents builds a per-ocean-cell tangent velocity from wind stress + Coriolis deflection + coast-following (gyres); computeClimate feeds warm (poleward) / cold (equatorward) currents back into sTemp as a bounded coastal anomaly (climateCurrentFactor) before seasons, so biomes shift. Rendered as warm/cold current arrows (O). Config: dayLengthHours/yearLengthDays/snowTemp/seaIceTemp/tideAmplitude/tideSunFactor/ climateCurrentFactor. Save header v7->v9 (version-gated; older saves load fine). Headless test_live.cpp + test_ocean.cpp; test_logic/test_biota still pass; GUI build clean. Docs updated. Co-Authored-By: Claude Opus 4.8 <noreply@anthropic.com>
243 lines
13 KiB
C++
243 lines
13 KiB
C++
#include "Panels.hpp"
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#include "Colors.hpp" // elevationColor (subtile grid)
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#include "PlanetBiota.hpp" // organismName / sizeName / roleName
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#include "Projection.hpp" // dirToLonLat
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#include <algorithm>
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#include <cmath>
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#include <string>
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#include <vector>
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#include <sstream>
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// Draw `text` word-wrapped to `maxW` pixels starting at (x,y); continuation lines
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// are indented. Returns the y after the last line; stops drawing past `maxY` (but
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// keeps advancing y so callers can detect the overflow). Long biota lists would
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// otherwise run off the right edge of the cell-info panel.
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static int drawWrapped(const std::string& text, int x, int y, int font, Color col,
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int maxW, int lineH, int maxY) {
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std::istringstream iss(text);
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std::string word, line;
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int indent = 0;
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auto flush = [&]() {
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if (!line.empty()) { if (y + lineH <= maxY) DrawText(line.c_str(), x + indent, y, font, col);
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y += lineH; line.clear(); indent = 14; }
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};
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while (iss >> word) {
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std::string test = line.empty() ? word : line + " " + word;
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if (MeasureText(test.c_str(), font) > maxW - indent && !line.empty()) { flush(); line = word; }
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else line = test;
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}
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flush();
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return y;
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}
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// elev/age come from the display snapshot so the readout matches what is drawn.
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static std::vector<std::string> cellInfo(const Planet& p, int i, double elev, double age) {
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const Cell& c = p.cells[i];
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double lon, lat; dirToLonLat(c.unit, lon, lat);
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const Plate& pl = p.plates[c.plateId];
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const int n = (int)p.cells.size();
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auto sized = [&](const std::vector<double>& v) { return (int)v.size() == n; };
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std::vector<std::string> L;
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L.push_back(std::string(TextFormat("Cell #%d", i)));
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L.push_back(std::string(TextFormat("lat %+6.1f lon %+6.1f", lat * 180.0 / M_PI, lon * 180.0 / M_PI)));
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L.push_back(std::string(TextFormat("elev %.0f m (%s)", elev,
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elev < p.cfg.seaLevel ? "ocean" : "land")));
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L.push_back(std::string(TextFormat("plate %d (%s) crust %s", c.plateId,
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pl.type == PlateType::Oceanic ? "Oceanic" : "Continental",
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c.oceanic ? "Oceanic" : "Continental")));
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L.push_back(std::string(TextFormat("biome: %s", biomeName(c.biome))));
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// Climate (derived; present once computeClimate() has run).
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if (sized(p.temperature()) && sized(p.moisture()))
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L.push_back(std::string(TextFormat("temp %.1f C precip %.0f%%",
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p.temperature()[i], p.moisture()[i] * 100.0)));
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if (sized(p.summerTemp()) && sized(p.winterTemp()))
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L.push_back(std::string(TextFormat(" summer %.0f C / winter %.0f C",
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p.summerTemp()[i], p.winterTemp()[i])));
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// Live World: current-season temperature + whether it's day or night + snow cover.
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if (sized(p.liveTemp())) {
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bool day = sized(p.insolation()) && p.insolation()[i] > 0.05;
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bool snow = (elev > p.cfg.seaLevel) ? (p.liveTemp()[i] < p.cfg.snowTemp)
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: (p.liveTemp()[i] < p.cfg.seaIceTemp);
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L.push_back(std::string(TextFormat("live %.1f C %s%s", p.liveTemp()[i],
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day ? "day" : "night", snow ? " snow" : "")));
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}
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if (sized(p.tide()))
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L.push_back(std::string(TextFormat("tide %+.2f m (%s)", p.tide()[i],
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p.tide()[i] >= 0.0 ? "high" : "low")));
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L.push_back(std::string(TextFormat("geoAge %.0f My neighbors %d", age, (int)c.neighbors.size())));
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// Hydrology (derived; present once routeFlow()/hydrology() has run).
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if (sized(p.discharge()) && p.discharge()[i] > p.cfg.riverThreshold)
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L.push_back(std::string(TextFormat("river: discharge %.0f", p.discharge()[i])));
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if (sized(p.lakeDepth()) && p.lakeDepth()[i] > p.cfg.biomeLakeMinDepth && elev > p.cfg.seaLevel)
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L.push_back(std::string(TextFormat("lake: depth %.0f m", p.lakeDepth()[i])));
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// Biota: density scalars (present after computeBiotaDensity()) + the discrete
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// population list (present once generateBiota()/L has run).
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if (sized(p.floraDensity()) && sized(p.faunaDensity()) && sized(p.fungaDensity()))
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L.push_back(std::string(TextFormat("flora %.0f%% fauna %.0f%% funga %.0f%%",
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p.floraDensity()[i] * 100.0, p.faunaDensity()[i] * 100.0, p.fungaDensity()[i] * 100.0)));
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if (p.biotaPopulated() && i < (int)p.biota().size()) {
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const CellBiota& cb = p.biota()[i];
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// Each organism reads as Family (Size, Role) -- proper taxonomy, never an
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// informal common name; generalists carry a biome adjective ("Forest Felidae").
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// Identical archetypes in a cell aggregate to "... xN" so the list stays clean.
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auto listKind = [&](const char* tag, const std::vector<Organism>& v) {
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if (v.empty()) return;
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std::vector<std::pair<Organism, int>> uniq; // representative + count, first-seen order
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for (const Organism& o : v) {
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bool found = false;
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for (auto& u : uniq) if (u.first.archetype == o.archetype) { ++u.second; found = true; break; }
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if (!found) uniq.push_back({o, 1});
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}
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std::string s = tag;
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int shown = (int)std::min<size_t>(uniq.size(), 6);
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for (int k = 0; k < shown; ++k) {
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const BiotaArchetype& a = biotaArchetypes()[uniq[k].first.archetype];
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s += (k ? ", " : " ") + organismName(uniq[k].first) +
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" (" + sizeName(a.size) + ", " + roleName(a.role) + ")";
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if (uniq[k].second > 1) s += TextFormat(" x%d", uniq[k].second);
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}
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if ((int)uniq.size() > shown) s += TextFormat(", +%d more", (int)uniq.size() - shown);
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L.push_back(s);
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};
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listKind("Flora:", cb.flora);
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listKind("Fauna:", cb.fauna);
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listKind("Funga:", cb.funga);
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}
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return L;
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}
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void drawDetailPanel(const Planet& p, const std::shared_ptr<SubGrid>& sg,
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int macro, double macroElev, double macroAge,
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Rectangle panel, Rectangle grid, int hoveredSub) {
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DrawRectangleRec(panel, Color{12, 14, 22, 235});
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DrawRectangleLinesEx(panel, 1, Color{120, 120, 150, 255});
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int tx = (int)panel.x + 10, ty = (int)panel.y + 8;
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DrawText(TextFormat("Tile #%d", macro), tx, ty, 20, RAYWHITE);
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DrawText("C: close", (int)(panel.x + panel.width) - 78, ty + 4, 14, Color{170, 170, 185, 255});
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ty += 28;
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// Cramped above the subtile grid -> stop before overlapping it (the full list is
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// always shown in the top-right hover panel, which has room).
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int infoMaxW = (int)(panel.x + panel.width) - tx - 10;
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for (auto& s : cellInfo(p, macro, macroElev, macroAge)) {
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if (ty + 16 > (int)grid.y) break;
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ty = drawWrapped(s, tx, ty, 14, Color{210, 210, 220, 255}, infoMaxW, 16, (int)grid.y);
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}
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if (!sg || sg->res < 2) return;
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int R = sg->res;
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float cw = grid.width / R, ch = grid.height / R;
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DrawText(TextFormat("Subtiles %dx%d (elevation; dim = neighbor)", R, R),
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(int)grid.x, (int)grid.y - 18, 14, Color{200, 200, 210, 255});
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for (int j = 0; j < R; ++j)
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for (int i = 0; i < R; ++i) {
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const SubCell& s = sg->sub[(size_t)j * R + i];
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Color col = elevationColor(s.elevation, p.cfg.seaLevel);
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if (s.nearestMacro != macro) { // territory of a neighbor
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col.r = (unsigned char)(col.r * 0.55); col.g = (unsigned char)(col.g * 0.55);
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col.b = (unsigned char)(col.b * 0.55);
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}
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DrawRectangle((int)(grid.x + i * cw), (int)(grid.y + j * ch),
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(int)std::ceil(cw), (int)std::ceil(ch), col);
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}
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DrawRectangleLinesEx(grid, 1, Color{90, 90, 110, 255});
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int by = (int)(grid.y + grid.height) + 6;
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if (hoveredSub >= 0) {
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int i = hoveredSub % R, j = hoveredSub / R;
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DrawRectangleLinesEx(Rectangle{grid.x + i * cw, grid.y + j * ch, cw, ch}, 2, WHITE);
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const SubCell& s = sg->sub[hoveredSub];
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double lon, lat; dirToLonLat(s.unit, lon, lat);
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DrawText(TextFormat("subtile [%d,%d] elev %.0f m", i, j, s.elevation),
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(int)panel.x + 10, by, 15, RAYWHITE);
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DrawText(TextFormat("under macro #%d lat %+.2f lon %+.2f",
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s.nearestMacro, lat * 180.0 / M_PI, lon * 180.0 / M_PI),
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(int)panel.x + 10, by + 18, 14, Color{200, 200, 210, 255});
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} else {
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DrawText("hover a subtile for detail", (int)panel.x + 10, by, 14, Color{170, 170, 185, 255});
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}
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}
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void drawHoverPanel(const Planet& p, Rectangle r, int hovered, int selected) {
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DrawRectangleRec(r, Color{12, 14, 22, 235});
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DrawRectangleLinesEx(r, 1, Color{120, 120, 150, 255});
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int x = (int)r.x + 18, y = (int)r.y + 14;
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DrawText("Cell info", x, y, 24, RAYWHITE);
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y += 46;
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int shown = (hovered >= 0) ? hovered : selected;
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if (shown < 0) {
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DrawText("hover the 3D globe or the 2D map", x, y, 20, Color{170, 170, 185, 255});
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return;
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}
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if (hovered < 0) { DrawText("(selected tile)", x, y, 18, Color{210, 180, 120, 255}); y += 30; }
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int maxW = (int)(r.x + r.width) - x - 14; // wrap to the panel's inner width
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int maxY = (int)(r.y + r.height) - 10; // clamp to the panel bottom
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for (auto& s : cellInfo(p, shown, p.cells[shown].elevation, p.cells[shown].geoAge)) {
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y = drawWrapped(s, x, y, 20, Color{215, 220, 230, 255}, maxW, 26, maxY);
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if (y > maxY) break;
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}
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}
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void drawStats(const Planet& p, Rectangle r, double elapsedMy, bool drifting,
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bool live, double liveHours) {
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DrawRectangleRec(r, Color{12, 14, 22, 235});
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DrawRectangleLinesEx(r, 1, Color{120, 120, 150, 255});
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int x = (int)r.x + 16, y = (int)r.y + 12;
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DrawText("World statistics", x, y, 22, RAYWHITE); y += 38;
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int N = (int)p.cells.size(), np = (int)p.plates.size();
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double Rkm = p.cfg.radius / 1000.0;
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double surfKm2 = 4.0 * M_PI * Rkm * Rkm, cellKm2 = surfKm2 / std::max(1, N);
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std::vector<int> pc(np, 0), pl(np, 0);
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double seaLvl = p.cfg.seaLevel;
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int landGeo = 0, cont = 0; double mn = 1e30, mx = -1e30, sum = 0;
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for (const auto& c : p.cells) {
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if (c.plateId >= 0 && c.plateId < np) { pc[c.plateId]++; if (!c.oceanic) pl[c.plateId]++; }
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if (c.elevation > seaLvl) ++landGeo; // geographic land (above sea level)
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if (!c.oceanic) ++cont; // continental crust
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mn = std::min(mn, c.elevation); mx = std::max(mx, c.elevation); sum += c.elevation;
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}
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// Real plates vs. baby (young spreading-ridge) plates are counted separately.
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int contPlates = 0, used = 0, babyPlates = 0, babyCells = 0;
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for (int q = 0; q < np; ++q) {
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if (pc[q] == 0) continue;
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if (p.plates[q].baby) { ++babyPlates; babyCells += pc[q]; continue; }
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++used;
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if (pl[q] * 2 > pc[q]) ++contPlates;
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}
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auto L = [&](const char* s) { DrawText(s, x, y, 17, Color{210, 215, 225, 255}); y += 23; };
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L(TextFormat("Cells: %d cell area %.1fk km2 R %.0f km", N, cellKm2 / 1000.0, Rkm));
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L(TextFormat("Surface area: %.0f M km2", surfKm2 / 1.0e6));
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L(TextFormat("Plates: %d active %d continental / %d oceanic", used, contPlates, used - contPlates));
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L(TextFormat("Young ridges: %d strips %d cells", babyPlates, babyCells));
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L(TextFormat("Moons: %d", (int)p.getMoons().size()));
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int water = N - landGeo;
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double wlRatio = landGeo > 0 ? (double)water / landGeo : 0.0;
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L(TextFormat("Land %.0f%% Ocean %.0f%% (water:land %.2f:1)",
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100.0 * landGeo / N, 100.0 * water / N, wlRatio));
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L(TextFormat("Sea level: %+.0f m", seaLvl));
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L(TextFormat("Crust: %.0f%% continental / %.0f%% oceanic", 100.0 * cont / N, 100.0 * (N - cont) / N));
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L(TextFormat("Elevation: %.0f .. %.0f m mean %.0f m", mn, mx, sum / N));
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if (live) L(TextFormat("Live World: year %ld, day %.1f",
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(long)(liveHours / p.cfg.dayLengthHours / p.cfg.yearLengthDays) + 1,
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std::fmod(liveHours / p.cfg.dayLengthHours, p.cfg.yearLengthDays)));
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else if (drifting) L(TextFormat("Sim time: %.0f My", elapsedMy));
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y += 8;
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DrawText("plate cells size area speed land", x, y, 15, Color{150, 155, 170, 255}); y += 21;
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std::vector<int> idx(np); for (int q = 0; q < np; ++q) idx[q] = q;
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std::sort(idx.begin(), idx.end(), [&](int a, int b){ return pc[a] > pc[b]; });
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int rows = 0, rowMax = 13;
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for (int q : idx) {
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if (pc[q] == 0 || p.plates[q].baby) continue; // baby ridges summarised above
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if (rows++ >= rowMax) break;
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const char* ty = (pl[q] * 2 > pc[q]) ? "cont" : "ocn ";
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DrawText(TextFormat("P%-2d %s %5dc %4.1f%% %6.1fM %4.1fcm/y %3.0f%%", q, ty, pc[q],
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100.0 * pc[q] / N, pc[q] * cellKm2 / 1.0e6, p.plates[q].speedCmYr, 100.0 * pl[q] / pc[q]),
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x, y, 16, Color{200, 205, 220, 255});
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y += 21;
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}
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DrawText("click a tile to inspect its subtiles",
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x, (int)(r.y + r.height) - 24, 14, Color{150, 150, 165, 255});
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}
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