nx_wasm_craft_relief_adopt_t143.nx source

1// nx_wasm_craft.nx -- NISHI CRAFT: a GENERATED 3D VOXEL WORLD, playable first-person. The operator's 2// 2026-05-19 vision ("build minecraft equivalent on the lowest possible hardware") finally EMITTING: 3// procedural terrain (integer value-noise heightmap, biome banding, water, trees) in a 64x32x64 block 4// grid, rendered by a per-pixel integer DDA raycast (true 3D: block faces, face shading, distance fog, 5// sky), walked in first person (collision, auto-step-up, water float), and EDITED live (break/place at 6// the crosshair). Every pixel and every world byte is NishiLang; base-relative so the identical code 7// runs natively (gate, PNG proof) and as wasm (browser page); input arrives through nx_input_abstract 8// (keyboard/gamepad/touch all work on day one). 9// 10// Controls (via the input layer's semantic actions): W/S or Up/Down = walk, A/D or Left/Right = turn, 11// R/F = look up/down (bound to the MENU/PAUSE bits -- the 8-action mask is fully spent; widening it 12// to 16 actions is the filed follow-up), E = break block, B = place stone. Touch d-pad works: center 13// tap = break. 14// 15// license_tier: ORIGINAL 16import "nx_syscalls.nx" 17import "nx_itrig.nx" 18import "nx_input_abstract.nx" 19import "nx_atmosphere.nx" 20import "nx_weather_lib.nx" 21import "nx_softbind.nx" 22import "nx_skeleton.nx" 23import "nx_skin_ita.nx" 24import "nx_nxa_rig_motion_context.nx" 25import "nx_nxa_anim_lib.nx" // GE31/GE23: the ONE NXA clip evaluator -- the cast's joint rows are computed HERE, not in page JS 26import "nx_morf_draw_core.nx" 27import "nx_nxa_morf_draw_admit.nx" 28import "_hdl_build/nx_entity_store.nx" 29import "_hdl_build/nx_gamesave_core.nx" 30import "nx_indoorgen_data.nx" 31// GE14a: the PURE staged-terrain core (six parameter fields -> spline -> relief/erosion). 32// Allocator-free and syscall-free, which is the only reason it can live in this wasm target -- 33// nx_worldpipe's hydrology and erosion BAKES allocate and stay NAS-side (rung GE14b). 34import "nx_worldpipe_core.nx" 35// THE ONE GEN-TIME RECIPE ALLOWLIST (2026-09-04): init_impl_v's gok9 chain, nx_world_snap and nx_game_page_emit's 36// NXGP passes all read genp_gen_ok from this lib, so an index admitted to the engine reaches the instrument and 37// the page in the same edit. Pure arithmetic, wasm-safe. nx_wasm_craft_gate T90 pins every P_* slot to it. 38import "nx_genp_allow_lib.nx" 39// GE32: frame-budget telemetry -- the window, percentiles and spike count are computed HERE from the raw 40// rAF interval the page feeds through perf_frame, so the served HUD and the pacing referee gate read ONE 41// ruler. Allocation-free and syscall-free like everything else in this target. 42import "nx_perf_lib.nx" 43import "nx_beach_release_recipe_move_t72.nx" 44import "nx_beach_contact_sweep.nx" 45const WATER_MAGIC_16777216: i64 = 16777216 46const EJRN_HASH_MUL: i64 = 40503 47const WATER_MAGIC_33554431: i64 = 33554431 48const TERRAIN_HASH_X: i64 = 374761393 49const TERRAIN_HASH_Z: i64 = 668265263 50const TERRAIN_HASH_SEED: i64 = 1442695041 51const SAVE_CK_MASK: i64 = 4611686018427387903 52const TERRAIN_HASH_MIX: i64 = 1274126177 53const RAY_HUGE: i64 = 1099511627776 54const WATER_MAGIC_65536: i64 = 65536 55const WATER_MAGIC_4096: i64 = 4096 56const WATER_MAGIC_1048576: i64 = 1048576 57const WATER_MAGIC_1536: i64 = 1536 58const WATER_MAGIC_6144: i64 = 6144 59const GENE_MASK_TEMPERAMENT: i64 = 57344 60const SAVE_CK_SEED: i64 = 1469598103 61const SAVE_CK_PRIME: i64 = 1099511 62const WATER_MAGIC_2400: i64 = 2400 63const WATER_MAGIC_2500: i64 = 2500 64const WATER_MAGIC_1400: i64 = 1400 65const CRAFT_DEFAULT_SEED: i64 = 20260728 66 67// ★4K-CLASS NATIVE, SCALED TO THE HARDWARE (operator 2026-08-14: "significantly worse ... up and 68// beyond 4k resolution ... scaling to the available hardware"). The WebGL path used to render at true 69// device resolution while this rasteriser was pinned at 480x300 and CSS-stretched to 1920 -- a 4x linear 70// upscale, which is exactly what "significantly worse" was. 71// W/H are the FRAMEBUFFER, and the renderer derives rw=W/q, rh=H/q, foc=W/(2q) -- so FOV is invariant 72// under q BY CONSTRUCTION and the adaptive controller is the thing that scales to the hardware. 73// 1920x1200 keeps the old 16:10 aspect EXACTLY, so framing is unchanged -- it is 4x the linear detail 74// and 16x the AREA of the 480x300 this replaces. 75// ★THE SAFETY PROPERTY THAT MAKES THIS NON-REGRESSIVE: at q=8 this is rw=240, rh=150, foc=120 -- 76// byte-for-byte the old default. The initial q is 8, so the first frame costs what it always did; the 77// controller only refines toward q=1 (one ray per pixel) when frames measure under 11ms. 78// ★CEILING CHOSEN FROM THE MEMORY ENVELOPE, NOT TASTE: pixels are i64 because this language has no 79// 32-bit pointer type (MEASURED: 0 hits for `as *u32` across 23,072 sources, coverage complete), so 80// the framebuffer costs W*H*8 = 18.4 MB. A 3840x2400 ceiling would cost 73.7 MB to expose a q=1 that 81// is unreachable anyway -- 9.2M DDA rays per frame is seconds, not milliseconds. Real 4K needs 4-byte 82// pixels plus SIMD, not a bigger constant here; raising W alone buys memory, not detail. 83// ★THE CEILING IS BOUNDED BY THE WASM LINEAR MEMORY, AND THAT BOUND IS NOT NEGOTIABLE BY TASTE. 84// The WAT backends size linear memory FROM THIS MODULE (2026-08-18): they read the 85// `static nx_wasm_pages_req` contract row below at emit time, so the page count has ONE 86// owner (this file) instead of the three drifting copies that shipped 192-vs-364 and 87// fail-closed the lane. (The AHEAD reconciliation that gated this: the 21 "lost" strings 88// were superseded rewords of nx_parse diagnostics, proven live by fixture.) A 1920x1200 framebuffer at O_FB needs 89// 3,590,528 + 18,432,000 = 22,022,528 bytes, i.e. 9.4 MB PAST THE END, so every render trapped with 90// "index out of bounds" and /craft went black. Shipped and caught in production 2026-08-14. 91// 1200x750 keeps the 16:10 aspect and needs 3,590,528 + 7,200,000 = 10,790,528, leaving 1,792,384 92// bytes of headroom inside the same 192 pages. It is still 2.5x the linear detail and 6.25x the AREA 93// of the 480x300 this replaced. 94// ★AND IT KEEPS EXACT PARITY WITH THE OLD DEFAULT: at Q_START=5, rw = 1200/5 = 240, rh = 750/5 = 150, 95// foc = 1200/(2*5) = 120 -- byte-for-byte the pre-change frame, so no machine is worse off. 96// WASM_MEM_BYTES below mirrors the backend's page count so nx_wasm_craft_gate can REFUSE a ceiling 97// that does not fit; the real remedy is for the backend to size pages from the module's own arena 98// rather than a constant, and that is owed. 99// ★THE RENDER CEILING IS THE PAGE'S OWN DISPLAY CAP, NOT A TASTE (operator 2026-08-17: "why these 100// arbitrary resolution rates"): the emitted page has always capped the canvas at min(98vw,1920px) -- 101// the ceiling below and that cap were TWO constants describing ONE thing, and at 1200 the render 102// ceiling silently bound first on every desktop display. Now the ceiling IS the cap (1920 wide at 103// the shipped 16:10 aspect); which fraction of it a device actually renders is decided PER DEVICE by 104// the adaptive controller against that device's own measured budget -- no resolution number below 105// this line is chosen by hand. 106const W: i64 = 1920 107const H: i64 = 1200 108const WASM_PAGE_BYTES: i64 = 65536 109// pages = ceil(CRAFT_TOTAL / page) + the previously PROVEN slack. ceil alone is 339 (339*65536 = 110// 22,216,704 >= CRAFT_TOTAL 22,216,352); the +25 pages carry forward the old configuration's 111// measured-working headroom class (~1.6MB) as the runtime/shim allowance -- honestly UNMEASURED 112// whether anything needs it, so it is kept, named, and gate T60 pins the fit while the wasm-vm 113// gate's PAINTS tooth proves the module actually runs inside what it declares. 114const WASM_PAGES: i64 = 364 115const WASM_MEM_BYTES: i64 = WASM_PAGES * WASM_PAGE_BYTES 116// MODULE-OWNED PAGE SIZING, BLOCKED AT THE ENCODER (2026-08-18): the WAT backends 117// (wat_mem_pages in nx_wasm/nx_wasm_scalararm) READ a module-declared 118// `static nx_wasm_pages_req: i64 = WASM_PAGES` and size linear memory from it -- 119// mechanism shipped and bite-proven. But nxasm_x86 refuses ANY nonzero-init 120// writable static (G3_NONZERO_INIT_STATIC_UNSUPPORTED_BOTH_LANES: GNU .rodata 121// would fault the first write, nxasm ignores .data wholesale), so declaring it 122// here breaks every NATIVE importer of this engine (the gate). Until nxasm 123// grows .data placement (debt filed with this exact spec), the page count rides 124// the backends' WAT_MEM_PAGES_DEFAULT and the vm-gate's FITS tooth is the 125// drift catcher -- it refused the 192-era wasm and will refuse the next drift. 126// DO NOT re-add the static until `nx_sov_build_run nx_wasm_craft_gate` compiles. 127const RES: i64 = 2 // ray per RESxRES pixel block (240x150 rays) 128const RW: i64 = 240 129const RH: i64 = 150 130const FOC: i64 = 120 // ~90 degree fov at RW=240 131// ★THE ADAPTIVE RANGE, WIDENED AT BOTH ENDS so "scale to the hardware" is real in both directions. 132// q divides the framebuffer: q=1 is 1920x1200 (one ray per pixel) and q=24 is 80x50. 133// Q_START=8 reproduces the OLD default exactly (1920/8=240 x 1200/8=150 rays, foc 1920/16=120), so 134// weak hardware is never worse off than it was and strong hardware can now actually be used. 135const Q_MAX: i64 = 24 136const Q_START: i64 = 5 137 138// ★A DEPTH BUFFER THAT COSTS ZERO BYTES. The compare board's skinned-characters-in-world row names its 139// blocker as "seed a depth buffer from the voxel pass so terrain occludes limbs correctly". 140// ⚠THE CONTRACT SYMBOL IS DELIBERATELY NOT SPELLED HERE. The compare generator measures whether the 141// symbol EXISTS in source, and it does not strip comments -- so naming it in prose flipped the published 142// row to LANDED with no capability behind it (measured: coverage jumped 500 to 525 permil on a comment). 143// A completion signal that keys on a name rewards writing the name; a scanner that does not skip comments 144// measures the documentation, not the code. Ship the function, then the row flips honestly. 145// A separate buffer cannot exist here: the WAT backend emits 192 wasm pages = 12,582,912 146// bytes and the arena already uses 10,790,528, leaving 1,792,384 -- while a full-resolution depth plane 147// would need another W*H*8 = 7,200,000. Shipping one would black out /craft exactly as the 1920x1200 148// framebuffer did on 2026-08-14. 149// The room was already there: a pixel is an i64 carrying a 24-bit packed colour, so 40 bits sit unused 150// every frame. The voxel pass ALREADY computes the crossing-t it needs for shading and then throws it 151// away. Depth now rides bits 32..55 of the same word and is stripped in one pass before the frame is 152// published, so no consumer -- page blit, gate frame scans, PNG proof -- ever sees a changed format. 153const FB_COLOR_MASK: i64 = 16777215 154const FB_DEPTH_SHIFT: i64 = 32 155const FB_DEPTH_MAX: i64 = 16777215 156 157// ★THE WIDTH THE HUD PIXEL SIZES WERE AUTHORED AT. Every HUD length below is scaled by rw/HUD_DESIGN_W 158// rather than held as a raw pixel count, for the same reason mob_draw's billboard cap is a fraction: a 159// constant pixel size means a different FRACTION OF THE SCREEN at every resolution, and the canvas is 160// sized to rw x rh and upscaled by the browser, so the fraction is what the player actually sees. 161const HUD_DESIGN_W: i64 = 480 162const HUD_PIP_MAX: i64 = 24 163const HUD_HOTBAR_N: i64 = 7 164 165const WX: i64 = 128 // world blocks (v2: 4x the area, taller) 166const WY: i64 = 48 167const WZ: i64 = 128 168const WATER_H: i64 = 9 169 170// FARMING-LIFE blocks (roadmap B1/B2): wetness lives IN the id and crops are separate stage ids, 171// so the v6 save format is UNTOUCHED -- voxels + the edit journal already persist every farm cell. 172const B_FARM: i64 = 12 // tilled farmland, dry 173const B_CROP0: i64 = 13 // crop sprout (placed by SEEDS onto farmland) 174const B_CROP1: i64 = 14 // crop growing 175const B_CROP2: i64 = 15 // crop MATURE -- breaking it is the HARVEST 176const B_FARMW: i64 = 16 // farmland, wet (rain or water within the 5x5 ring) 177 178// ★THE FRAMEBUFFER MOVED TO THE END OF THE ARENA so it can GROW without shifting a single other 179// offset. Every block below (O_ST .. O_GENP) keeps its absolute address, which is what makes a 16x 180// resolution change a 4-constant edit instead of a 12-offset relayout nobody could verify. 181// The 1,152,000 bytes at offset 0 are now unused and reclaimable -- stated, not hidden. 182const O_FB: i64 = 3592832 // W*H i64 packed R|G<<8|B<<16 (at the arena tail; see CRAFT_TOTAL) 183const O_ST: i64 = 1152000 // 64 state slots 184const O_INPUT: i64 = 1152512 // nx_input_abstract arena (64 words) 185const O_VOX: i64 = 1153024 // WX*WY*WZ u8 blocks 186const O_MOBS: i64 = 1939456 // nx_entity_store arena (certified part): en_bytes(16,7)=1632 187const MOB_CAP: i64 = 16 188const MOB_NCOMP: i64 = 7 189const MOB_BYTES: i64 = 1632 190const O_SPEC: i64 = 1941120 // GAME SPEC block (64 words) -- AFTER the arena's 1632B end 191const O_EJRN: i64 = 1941760 // EDIT JOURNAL: 8192 packed i64 hash slots at ABSOLUTE world 192 // coords (v6 streaming). Reuses the pre-v6 save staging spot. 193const EJRN_SLOTS: i64 = 8192 194const EJRN_BYTES: i64 = 65536 195const O_SAVE_LEGACY:i64=2730336 // retained old image region; live soft-body state starts after its v6 extent 196const SAVE_HDR: i64 = 128 197const SAVE_RECIPE_COUNT:i64=17 198const SAVE_RECIPE_BYTES:i64=(SAVE_RECIPE_COUNT+1)*8 199const SAVE_BODY_V6: i64 = 853600 // legacy voxels + mobs + journal 200const SAVE_BODY: i64 = SAVE_BODY_V6 + SAVE_RECIPE_BYTES 201const SAVE_BODY_V5: i64 = 788064 // pre-streaming body (load-compat: v5 saves still open) 202const SAVE_LEN: i64 = SAVE_HDR + SAVE_BODY 203const O_MOBAUX: i64 = 2729952 // 16 mobs x (dx,dz,dy) last-applied step, i64 triples 204 // (384B, fits the 544B rounding slack past the save image; 205 // save format untouched). NON-PERSISTED display truth. 206 // The page's heading/speed used to be a JS derivative of 207 // positions -- a workaround; the ORGAN owns motion, so it 208 // exports the applied step incl the vertical component 209 // (climb cadence needs dy). 210// GAIT-1 -- 16 mobs x 1 word FACING (it-units, IT_PI = a half turn; forward = (sin,cos) in x,z, 211// the SAME convention the camera basis at mob_draw and the wander drive already use, so this 212// engine has ONE yaw convention and not two). 128B in the same free band as O_MOBVY: 213// 2729696 + 128 = O_MOBVY, and O_EJRN ends at 2007296, so 2007296..2729696 is unallocated -- 214// the region is carved exactly the way O_MOBVY was and the save format is untouched for the 215// same reason. NON-PERSISTED: a zero arena faces +z, and every write is a deterministic 216// function of arena state, so the T4/T17 two-arena checksums hold by construction. 217// ⚠WHY A STATE WORD AND NOT A DERIVATIVE OF THE LAST STEP: a heading recomputed from the 218// current step every tick IS the wobble. The steering below is an 8-direction bang-bang signal 219// whose per-axis sign can flip in a single tick, so any facing derived from it inherits every 220// one of those flips. The low-pass has to live somewhere; this is that somewhere, one word. 221const O_MOBHDG: i64 = 2729696 222const O_MOBVY: i64 = 2729824 // GE12: 16 mobs x 1 word VERTICAL VELOCITY Q8/tick (128B, the slack 223 // directly BEFORE O_MOBAUX: 2729824 + 128 = O_MOBAUX; free since 224 // O_EJRN ends at 2007296). NON-PERSISTED: a zero arena is AT REST 225 // by construction and every write derives from deterministic 226 // state, so the T4/T17 two-arena checksums hold. 227const O_SOFT: i64 = 3584064 // A4 soft-body springs: 16 mobs x SB_PTS(6, R7 regions) x SD_STRIDE words. 228 // NON-PERSISTED display truth (pure function of root motion; 229 // re-seated on init/load/shift/summon -- the MOBAUX pattern). 230const O_NEED: i64 = 3588672 // C1 needs: 16 mobs x 4 words (hunger, energy, social, spare). 231 // NON-PERSISTED; re-seeded deterministically on init/load. 232const O_MIND: i64 = 3589184 // C3/C5 THE INNER LIFE: 16 girls x 24 words -- 8 THOUGHT 233 // slots (id<<8 | mag+128, expiry-tick) then 4 GOSSIP slots 234 // (subj<<16 | pred<<8 | conf, born-tick). NON-PERSISTED; 235 // every write derives from deterministic state, so the 236 // T4/T17 two-arena checksums hold by construction. 237const O_PASS: i64 = 3592256 // THE TRAVELER'S PASSPORT (the isekai carry): the 238 // CHARACTER crosses worlds while each world keeps its own 239 // v6 save. Wire = 12 words (magic ver charseed broken 240 // placed harv plant found lost ticks worldmask ck); 241 // words 16-24 = the in-arena delta SNAPSHOT so a world 242 // reload never double-counts a deed into the ledger. 243const PASS_MAGIC: i64 = 20260802001 244const PASS_LEN: i64 = 192 // 24 wire words: [0]magic [1]ver [2]charseed [3]broken 245 // [4]placed [5]harv [6]plant [7]found [8]lost [9]ticks 246 // [10]worldmask [11]party-count [12..20]=3x(kind,disg, 247 // gene) -- COMPANIONS CROSS WORLDS with their bond and 248 // bred genome intact -- [21]ck. Snapshot at words 32+. 249const O_GENP: i64 = 3592640 // W1c GEN-TIME RECIPE OVERRIDES (192B): [0] magic, [1] n, 250 // then idx,val pairs x11. Written by the page (NXGP block) 251 // or a native harness BEFORE init_v; init applies them 252 // AFTER wc_spec identity defaults and BEFORE genworld, so 253 // terrain-shape rows (0..6, 59, 60) become world DATA. 254 // Zero region (fresh arena) = no overrides by construction. 255const GENP_MAGIC: i64 = 20260813001 256const GENP_MAXP: i64 = 11 257// ★WRITTEN AS THE ARITHMETIC, NOT AS A TYPED-OUT TOTAL. The framebuffer TAILS the arena, so the 258// total is the pre-framebuffer arena plus the frame itself. Typing the sum by hand is what let the 259// ceiling silently outgrow the wasm linear memory: a hand-computed 22,022,528 looks exactly as 260// authoritative as a correct one. As arithmetic it re-derives itself whenever W, H or O_FB move, 261// and nx_wasm_craft_gate asserts it against WASM_MEM_BYTES so it can never again exceed the module's 262// own memory without the gate going RED first. 263// ★R21 SKINNED-CHARACTER RIG REGION (wc_mob_mesh). ONE rig per arena, shared by every girl: geometry is 264// species data, pose+genome are per-girl -- the same split the body canon uses (species = parameters, 265// individuals = seeded variation). The rig TAILS the framebuffer so every existing offset is untouched. 266const O_RIG: i64 = O_FB + W*H*8 267// == sk_bytes() (256 + 32*256 + 2048*64 + 2048*24 + 64). A const cannot call a func, so the value is 268// written out ONCE here and the gate asserts RIG_BYTES == sk_bytes() -- the derived-constant discipline: 269// the duplicate exists, and it CANNOT drift without a RED. 270const RIG_BYTES: i64 = 188736 271const O_PROJ: i64 = O_RIG + RIG_BYTES 272const PROJ_MAXV: i64 = 211 // projected-vertex slots == RIG_VERT_TOTAL (declared beside the 273 // rig tables; a const cannot forward-reference, so the value is 274 // written out ONCE here and gate T67 asserts the two are EQUAL 275 // and that the built rig fits -- the same derived-constant 276 // discipline as RIG_BYTES/T62. A silent overflow here is the 277 // pmboard zero-byte class: the projection loop would write past 278 // O_PROJ into the skin scratch with no error at all. 279const PROJ_BYTES: i64 = PROJ_MAXV * 24 280const O_SKIN3: i64 = O_PROJ + PROJ_BYTES // 3-word sRGB scratch for nx_skin_ita's out3 (wasm has no 281 // mmap; every buffer is an arena offset) 282// ===================================================================================================== 283// H1 -- STRAND GUIDES IN THE ENGINE (2026-08-31). Operator standing order: "i dont want js powering any of 284// this it should be emitting all the way from the first byte up via nishi lang and nishi ecosystem". The 285// per-girl hair guide simulation -- rest curves from the asset's own HSTR section, colliders FITTED from the 286// asset's own rig (VERT/SKEL/DYNA), a per-tick solver (spring-to-rest + damping + gravity + the world's wind 287// field + the girl's own motion as an inertial drag), follow-the-leader length projection alternating with 288// capsule push-out, DFTL velocity correction, and the 2-nearest-guide render weights -- lives HERE as arena 289// state. The page may do exactly two things with it: copy the asset's raw section BYTES into the scratch 290// below once at load (never a computed value), and copy the export block OUT to a GL texture each frame. 291// Every number a visitor sees on a strand is computed in this file. 292// UNITS: the NXA's bind (mesh) space, z up, integers. Blocks -> bind units through the page's own pairing 293// (HG_UNITS_PER_178CM per 1.78 m of stature; GPE_UNITS_PER_178CM in the emitter is the same pairing). 294// TICK: HG_TPS per second -- the fixed sim cadence the page's accumulator steps (16.6667 ms) and 295// nx_hairdyn_lib's hd_ticks_per_s() derives (sqrt(SB_MHZ_TICK_SQ)/1000 = 60). 296// PLANT: SB_K_HAIR / SB_C_HAIR over SD_G -- the gate-pinned hair plant of nx_softbind, unchanged, so every 297// guide answers with the stiffness and damping the retired one-chain page solver had. 298// FRAME: each guide is solved in HER bind space with the root pinned to its rest root; her world step 299// enters as the viscous drag a world-frame damper exerts (the incumbent lag at walking speed), her heading 300// rotates the world wind and step into bind space (the page's own R(-hdg).(m.x,m.z,-m.y) composition). 301// Colliders are the BIND-pose body (the same v1 limit the dress overlay declares: an extreme swing can clip). 302// ===================================================================================================== 303const WC_CAST_N: i64 = 12 // the cast genmobs places (placed < WC_CAST_N); hair state is sized to it 304const HG_MOBS: i64 = WC_CAST_N 305const HG_NP: i64 = 8 // points per HSTR strand: the section contract (GR_PTS in nx_nxa_groom) 306const HG_W: i64 = HG_NP*3 // words per strand (GR_WORDS) 307const HG_NSEG: i64 = HG_NP - 1 308const HG_REND_MAX: i64 = 1200 // render strands: the page's shipped NXH_GUIDES budget, PRESERVED and moved here 309const HG_SIM: i64 = 128 // simulated guides per girl. PICKED, named as picked: 1200/128 = 9.4 render 310 // strands per guide sits inside the guide/follow band real-time hair ships 311 // (TressFX: 4..16 follow hairs per simulated guide); bounded above by the 312 // arena fit (T60) and the WebGL2 texture floor (HG_MOBS*HG_SIM/HG_TEX_SR rows) 313const HG_TEX_SR: i64 = 4 // strands per guide-texture row: rows = strands/4 keep every hair texture under 314 // the WebGL2 MAX_TEXTURE_SIZE minimum (2048) at HG_REND_MAX and HG_MOBS*HG_SIM 315const HG_TAB_W: i64 = 8 // render-strand table row: [rest-idx nb1 nb2 w1 w2 lockw spanz 0] 316const HG_CAP_MAX: i64 = 32 // collider slots (mask bits): head neck 2 shoulders 2 arms torso + DYNA anchors 317const HG_CAP_W: i64 = 10 // ax ay az bx by bz r kind sx sy 318const HG_KIND_CAP: i64 = 0 319const HG_KIND_ELL: i64 = 1 320const HG_Q12: i64 = WATER_MAGIC_4096 // ellipse-scale / segment-parameter fixed point: the engine's fx4096 321const HG_SKEL_W: i64 = 8 // words per SKEL joint: parent x y z + 4 (the 64-byte joint record the page reads) 322const HG_DYNA_MINW: i64 = 8 // a DYNA row carries side x y z k c max infl before an anchor is readable 323const HG_DYNA_MAXW: i64 = 64 // a row wider than this is not this format (nx_nxa_dyna writes 12); bounds the count check 324const HG_DYNA_INFL: i64 = 7 // DYNA word: influence radius (nx_nxa_dyna payload layout) 325const HG_HDR_BYTES: i64 = 512 326const HG_H_LOADED: i64 = 0 327const HG_H_NSTR: i64 = 1 328const HG_H_NREND: i64 = 2 329const HG_H_NSIM: i64 = 3 330const HG_H_SKIN: i64 = 4 331const HG_H_LOCKW: i64 = 5 332const HG_H_NCAP: i64 = 6 333const HG_H_SEGLEN: i64 = 7 334const HG_H_SPAN: i64 = 8 335const HG_H_TICKS: i64 = 9 336const HG_H_PUSHES: i64 = 10 337const HG_H_INSIDE: i64 = 11 338const HG_H_MAXDISP: i64 = 12 339const HG_H_H: i64 = 13 340const HG_H_ZMN: i64 = 14 341const HG_H_HJ: i64 = 15 342const HG_H_RC: i64 = 16 343const HG_H_NOCOLL: i64 = 17 // gate lever: 1 skips the push-out (the neg-control that proves it fires) 344const HG_H_RESTIN: i64 = 18 // rest nodes inside a collider BODY at load: the clipping the operator sees at rest 345const HG_H_WINDOFF: i64 = 19 // gate lever: 1 ignores the wind field 346const HG_H_GUST: i64 = 20 347const HG_H_TICKED: i64 = 21 // girls ticked on the last hairtick 348const HG_RC_NOSTR: i64 = 0 - 1 // load refusals, each naming its conjunct 349const HG_RC_HSTRCAP: i64 = 0 - 2 350const HG_RC_NOVERT: i64 = 0 - 3 351const HG_RC_VERTCAP: i64 = 0 - 4 352const HG_RC_NOSKEL: i64 = 0 - 5 353const HG_RC_SKELCAP: i64 = 0 - 6 354// arena regions: tail the skin scratch, every byte accounted, CRAFT_TOTAL re-derived below 355const O_HGHDR: i64 = O_SKIN3 + 24 356const O_HGREST: i64 = O_HGHDR + HG_HDR_BYTES 357const O_HGRL: i64 = O_HGREST + HG_REND_MAX*HG_W*8 358const O_HGCAP: i64 = O_HGRL + HG_SIM*HG_NSEG*8 359const O_HGMASK: i64 = O_HGCAP + HG_CAP_MAX*HG_CAP_W*8 360const O_HGSIMIDX: i64 = O_HGMASK + HG_SIM*8 361const O_HGTAB: i64 = O_HGSIMIDX + HG_SIM*8 362const HG_BLK_BYTES: i64 = HG_MOBS*HG_SIM*HG_W*8 363const O_HGX: i64 = O_HGTAB + HG_REND_MAX*HG_TAB_W*8 // positions 364const O_HGP: i64 = O_HGX + HG_BLK_BYTES // previous positions (velocity = X - P) 365const O_HGD: i64 = O_HGP + HG_BLK_BYTES // THE EXPORT: displacement from rest, the buffer the page copies per frame 366const O_HGSCR: i64 = O_HGD + HG_BLK_BYTES // solver scratch: correction (HG_W) + collider probe (6) + point (3) 367const HG_SCR_WORDS: i64 = HG_W + 9 368// GE32 (2026-09-02): the frame-budget telemetry window -- PF_WORDS i64 owned by nx_perf_lib, fed by the page's 369// perf_frame door once per frame, read back through the perf_* doors. Tails the hair scratch; CRAFT_TOTAL below. 370const O_PERF: i64 = O_HGSCR + HG_SCR_WORDS*8 371// GE30 PER-WORKER TILE SCRATCH. The ray pass used ONE scratch (O_ST slots 46-50) for its five wray 372// outputs, which is correct for one thread and a DATA RACE the instant a second worker renders a band 373// of the same frame: both would write the same five words and each would read the other's crossing-t. 374// Every worker therefore gets its own TILE_W-word slot -- camera basis at +0 (8 words, written by 375// wc_cam so the band pass and the overlay pass share ONE camera ruler) and the ray outs at +TILE_HOUT. 376// APPENDED at the arena tail, so no existing offset moves and the v6 save image is untouched. 377const O_TILE: i64 = O_PERF + PF_WORDS*8 378const TILE_W: i64 = 32 // i64 words per worker slot 379const TILE_HOUT: i64 = 8 // word offset of the 5 wray outs inside a slot 380const TILE_MAX: i64 = 32 // the most workers a band pass may be cut into; the thread ladder 381 // (knowledge/tier_ladder.conf) picks the count from measured 382 // hardware and the page clamps to this, so it can never ask for a 383 // scratch slot that does not exist. 384// ---- GE55 RAW UNIFORM BLOCK (2026-09-05, operator: no JS, no Python, WebGPU as a pure SUBMISSION PIPE) ---- 385// The sim packs its OWN state for the GPU. 40 little-endian 32-bit words, 160 B, APPENDED at the arena tail like 386// every region before it (no existing offset moves). The words are RAW: fixed-point ints, Q12 angles, packed RGB, 387// flags. This lane carries no f32 lowering (measured 2026-09-05: nx_compile_wat has no f32 ops), so every float the 388// shader needs (cam/256, sin and cos of yaw and pitch, the palette light dl2 = .22+.78*pow(df,.6), the sky unpack, 389// the sun direction) is DERIVED ON THE GPU from the one IR (nx_world_shader_src), never in JS and never here. 390// Word index = byte offset / 4, chosen so the WGSL struct {20 scalars, pal as 3 vec4u, palf as 2 vec4u} lays out 391// IDENTICALLY under the uniform address-space rules (nx_wgsl layout is the ONE ruler; a gate pins both sides). 392// GE53 THE SURFACE SOURCE: one Q8 height per column (WX x WZ i64 slots), filled by gencol from the SAME 393// eroded, ocean-shaped field the voxel column is cut from, BEFORE the one line that rounds it to whole 394// blocks. Under P_SURF the raycaster marches this field (bilinear between columns = sub-block precision) 395// instead of the cell grid, and the page uploads it as a texture so every tier reads ONE surface. Placed 396// BEFORE the raw block so CRAFT_TOTAL == O_URAW + URAW_BYTES (T91) still holds; 128 KB inside T60's headroom. 397const O_HQ: i64 = O_TILE + TILE_MAX*TILE_W*8 398const HQ_BYTES: i64 = WX*WZ*8 399const O_URAW: i64 = O_HQ + HQ_BYTES 400const URAW_WORDS: i64 = 44 // GE53: 41 words (r_surf at 40) padded to the vec4u boundary 401const URAW_BYTES: i64 = 176 // URAW_WORDS*4: a vec4u-aligned struct, so the 3-word tail pad is real (was 160 beside WORDS=44 -- pack_uniforms zeroed 176 B into a 160 B block; corrected 2026-09-06 when the GE53 shader shipped its 41-word struct) 402const UR_CAMX: i64 = 0 // Q8 world units (the page used camx()/256) 403const UR_CAMY: i64 = 1 404const UR_CAMZ: i64 = 2 405const UR_TNOW: i64 = 3 406const UR_YAW: i64 = 4 // Q12 radians (the page used yaw()/4096) 407const UR_PITCH: i64 = 5 408const UR_SUNEL: i64 = 6 // Q12 sine of the sun elevation (cal_sunel) 409const UR_DAYT: i64 = 7 410const UR_DLEN: i64 = 8 411const UR_RAIN: i64 = 9 412const UR_SKT: i64 = 10 // packed RGB (spec word 7) 413const UR_SKH: i64 = 11 // packed RGB (spec word 8) 414const UR_SUN: i64 = 12 // spec word 9 (the GPU applies the df>.04 daylight guard) 415const UR_CLD: i64 = 13 // spec word 10 416const UR_WMAX: i64 = 14 417const UR_SELB: i64 = 15 // sel_block(S_SEL) 418const UR_HOK: i64 = 16 419const UR_NPCT: i64 = 17 // npc target t, or -1 420const UR_BROKEN: i64 = 18 // edit counters (broken + placed): the bridge refreshes the voxel texture when their sum moves 421const UR_PLACED: i64 = 19 422const UR_PAL: i64 = 20 // 12 packed RGB words (spec 16..27), vec4u-aligned at byte 80 423const UR_PALF: i64 = 32 // 5 packed RGB words (spec 34..38) at byte 128 424const UR_RESW: i64 = 37 // canvas width in px -- the door tells the sim through set_res (the sim has no window) 425const UR_RESH: i64 = 38 426const UR_SURF: i64 = 40 // Continuous terrain representation. 427const UR_WATER_Q8: i64 = 41 // Water surface from P_WATER, Q8 world units; words42..43 remain padding. 428const UR_YFLIP: i64 = 39 // 1 on the WebGPU door (top-left fragment origin), 0 on WebGL2 -- set_yflip 429// Dedicated contact scratch: two six-word bounds, one three-word result, three audit words. 430// Persisted SAVE_* ranges precede this region and remain unchanged. 431const CONTACT_BOX_WORDS: i64 = 6 432const CONTACT_RESULT_WORDS: i64 = 3 433const CONTACT_STATE_WORDS: i64 = 3 434const O_CONTACT: i64 = O_URAW + URAW_BYTES 435// Transient journal batch index owns its own fixed arena span; no persisted offsets move. 436const EJ_INDEX_BUCKETS: i64 = EJRN_SLOTS*2 437const O_EJ_INDEX: i64 = O_CONTACT + (2*CONTACT_BOX_WORDS+CONTACT_RESULT_WORDS+CONTACT_STATE_WORDS)*8 438const O_EJ_NEXT: i64 = O_EJ_INDEX + EJ_INDEX_BUCKETS*8 439const CRAFT_TOTAL: i64 = O_EJ_NEXT + EJRN_SLOTS*8 440// ---- GE31/GE23 THE CAST CLIP EXTENSION (2026-09-06) -------------------------------------------- 441// The ENGINE evaluates the cast's animation clip (nx_nxa_anim_lib) from each girl's own path-length 442// stride phase and exports the finished dual-quaternion joint rows; the page's animEval became a copy. 443// WHY AN EXTENSION BEYOND CRAFT_TOTAL RATHER THAN A REGION INSIDE IT: (1) T91 pins O_URAW as the arena 444// tail and T60 pins CRAFT_TOTAL inside the backend's DECLARED pages; (2) the vm-gate runs init and 445// render inside those declared pages, and nothing here is touched until the page has grown memory 446// and called nxa_ingest; (3) the clip does not fit anyway -- ref9e's ANIM section is 113,465 words 447// (nx_asset_floor_gate, 2026-09-06), 887 KB against a 282 KB headroom, so a region inside the base 448// arena would have been a lie about the asset. The backend declares WASM_PAGES initial pages and cannot 449// read a module static (G3, see WASM_PAGES above), so the size gets ONE owner the honest way: the 450// engine exports wasm_pages_req() DERIVED from CRAFT_EXT_TOTAL and the page grows memory to it before 451// init -- the MT twin already declares max = 2x, so growth is inside its ceiling by construction. 452// Every cap below is named for its purpose, derived from the SHIPPED asset, and refused BY NAME in 453// wc_nxa_ingest when exceeded; an asset over a cap is the next ladder rung, never a silent truncation. 454const NXA_NJ_CAP: i64 = 128 // ref9e 104 joints; the corpus tops out at 370 (nx_nxa_play) = the next rung 455const NXA_ANIM_CAP_W: i64 = 131072 // 1 MiB of key words; ref9e ANIM measured 113,465 words 456const NXA_POSE_CAP_W: i64 = 2048 // ref9e POSE measured 835 words (one frozen stand pose) 457const NXA_HDR_W: i64 = 16 458const NXA_H_LOADED: i64 = 0 459const NXA_H_NJ: i64 = 1 460const NXA_H_DUR: i64 = 2 461const NXA_H_MPB: i64 = 3 462const NXA_H_RJ: i64 = 4 463const NXA_H_POSE: i64 = 5 464const NXA_H_RV: i64 = 6 // six words: x0 y0 vx16 vy16 t0 span (nx_nxa_anim_lib NA_RV_W) 465const NXA_H_RC: i64 = 12 466const NXA_H_NAW: i64 = 13 467// Formerly unused header words; existing region offsets remain unchanged. 468const NXA_H_NPW: i64 = 14 469const NXA_H_MORF_TOKEN: i64 = 15 470const NXA_MOB_W: i64 = 4 // per girl: idle weight q12, clip-time adjustment ms, two spare 471const NXA_M_IW: i64 = 0 472const NXA_M_CTADJ: i64 = 1 473// the page's SHIPPED idle behaviour, carried not re-chosen (nx_game_page_emit castFrame, 2026-08-30): 474// pose-hold eases in at 5/s and out at 2.5/s, the clip eases to the nearest double-support at 6/s 475// while the hold blends in below 0.95, and a hold under 0.004 snaps to zero. 476const NXA_IW_IN_TENTHS_PER_S: i64 = 50 477const NXA_IW_OUT_TENTHS_PER_S: i64 = 25 478const NXA_SNAP_TENTHS_PER_S: i64 = 60 479const NXA_SNAP_IW_MAX_Q12: i64 = 3891 480const NXA_IW_FLOOR_Q12: i64 = 16 481const NXA_DT_MS_MAX: i64 = 1000 // a tab that slept a minute eases one second, it does not slam 482const NXA_RC_NOT_LOADED: i64 = 0 - 1 483const NXA_RC_NO_MOB: i64 = 0 - 2 484const NXA_RC_SLOT: i64 = 0 - 3 485const NXA_RC_NJ_ZERO: i64 = 0 - 11 486const NXA_RC_NJ_CAP: i64 = 0 - 12 487const NXA_RC_NAW_ZERO: i64 = 0 - 13 488const NXA_RC_NAW_CAP: i64 = 0 - 14 489const NXA_RC_NPW_CAP: i64 = 0 - 15 490const NXA_RC_POSE_OVERRUN: i64 = 0 - 16 491const NXA_RC_TRACKS: i64 = 0 - 20 // plus nx_nxa_anim_lib's own rc: -21 bad tracks, -22 overrun 492// Dedicated compiler-static reservation: one WebAssembly allocation page. 493// Build the plain and shared doors with the source-exported arena/static limits. 494// The compiler MUST refuse actual static data beyond this end; a page budget is 495// not a claim that future globals fit. Native importers keep ordinary globals. 496const CRAFT_STATIC_RESERVE_PAGES: i64 = 1 497const CRAFT_STATIC_BASE_PAGES: i64 = WASM_PAGES 498const CRAFT_STATIC_LIMIT_PAGES: i64 = CRAFT_STATIC_BASE_PAGES+CRAFT_STATIC_RESERVE_PAGES 499const CRAFT_STATIC_BASE: i64 = CRAFT_STATIC_BASE_PAGES*WASM_PAGE_BYTES 500const CRAFT_STATIC_LIMIT: i64 = CRAFT_STATIC_LIMIT_PAGES*WASM_PAGE_BYTES 501const O_NXA: i64 = CRAFT_STATIC_LIMIT 502const O_NXA_SKEL: i64 = O_NXA + NXA_HDR_W*8 503const O_NXA_TIDX: i64 = O_NXA_SKEL + NXA_NJ_CAP*NA_SKEL_W*8 504const O_NXA_PQ: i64 = O_NXA_TIDX + NXA_NJ_CAP*NA_IDX_W*8 505const O_NXA_PD: i64 = O_NXA_PQ + NXA_NJ_CAP*4*8 506const O_NXA_MOB: i64 = O_NXA_PD + NXA_NJ_CAP*3*8 507const O_NXA_SCR: i64 = O_NXA_MOB + WC_CAST_N*NXA_MOB_W*8 508const O_NXA_OUT: i64 = O_NXA_SCR + NA_SCR_W*8 509const O_NXA_POSE: i64 = O_NXA_OUT + WC_CAST_N*NXA_NJ_CAP*NA_ROW_W*8 510const O_NXA_ANIM: i64 = O_NXA_POSE + NXA_POSE_CAP_W*8 511// Append the ordering sidecar so all existing asset and output offsets remain stable. 512const O_NXA_ORDER: i64 = O_NXA_ANIM + NXA_ANIM_CAP_W*8 513 514// Contact-distance state is appended after the existing clip regions. The dynamic 515// morph bank follows the derived extension end and keeps its existing offset API. 516const O_NXA_GAIT: i64 = O_NXA_ORDER+NXA_NJ_CAP*8 517const NXA_GAIT_CAP: i64 = NXA_ANIM_CAP_W/NA_CH2_KEY_W 518const O_NXA_GAIT_GENERATION: i64 = O_NXA_GAIT+NA_GAIT_INPUT_W*8 519const O_NXA_GAIT_HEADER: i64 = O_NXA_GAIT_GENERATION+8 520const O_NXA_GAIT_TABLE: i64 = O_NXA_GAIT_HEADER+NA_GAIT_HEADER_W*8 521const NXA_M_PATH_Q14: i64 = 2 522const NXA_M_MOVING: i64 = 3 523const NXA_PATH_Q14: i64 = NA_Q12*4 524const NXA_SCALE_BASE: i64 = 940 525const NXA_SCALE_STEP: i64 = 30 526const NXA_SCALE_DEN: i64 = 1000 527 528const WC_STEER_W: i64 = 5 529const O_MOB_STEER: i64 = O_NXA_GAIT_TABLE+NXA_GAIT_CAP*NA_GAIT_ROW_W*8 530const O_NXA_LOCOMOTION: i64 = O_MOB_STEER+MOB_CAP*WC_STEER_W*8 531const NXA_LOCOMOTION_RAW: i64 = 0 532const NXA_LOCOMOTION_FORWARD: i64 = 1 533const INSPECTION_WORDS: i64=18 534const O_INSPECTION: i64=O_NXA_LOCOMOTION+8 535const IC_MODE:i64=0 536const IC_HANDLE:i64=1 537const IC_GENERATION:i64=2 538const IC_ACTOR:i64=3 539const IC_X:i64=4 540const IC_Y:i64=5 541const IC_Z:i64=6 542const IC_YAW:i64=7 543const IC_PITCH:i64=8 544const IC_TX:i64=9 545const IC_TY:i64=10 546const IC_TZ:i64=11 547const IC_DISTANCE:i64=12 548const IC_ORBIT:i64=13 549const IC_ELEVATION:i64=14 550const IC_HW:i64=15 551const IC_HH:i64=16 552const IC_HD:i64=17 553// The serialized v7 image owns a disjoint arena. Existing physics/render offsets stay fixed. 554const O_SAVE:i64=O_INSPECTION+INSPECTION_WORDS*8 555const CRAFT_BYTES:i64=O_SAVE+SAVE_LEN 556const CRAFT_EXT_TOTAL:i64=CRAFT_BYTES 557// the engine's OWN page request -- derived, the one place the extended size is written 558const WASM_PAGES_REQ: i64 = (CRAFT_EXT_TOTAL + WASM_PAGE_BYTES - 1)/WASM_PAGE_BYTES 559// LOAD-TIME INPUT SCRATCH inside the framebuffer: the page copies the asset's raw HSTR/VERT/SKEL/DYNA section 560// bytes here and calls hairload, which consumes them before it returns; the next render overwrites the frame. 561// The caps are addresses inside a region the engine already owns (W*H*8 = 18.4 MB), not guesses about an 562// asset: DYNA 1 MiB holds 10,922 rows, HSTR 4 MiB 21,845 strands, VERT 8 MiB 349,525 vertices, SKEL 2 MiB 563// 32,767 joints. hairload REFUSES by name when a count exceeds its cap rather than reading past it. 564const HG_MIB: i64 = 1048576 565const HG_SCR_HSTR: i64 = O_FB 566const HG_SCR_HSTR_CAP: i64 = 4*HG_MIB 567const HG_SCR_VERT: i64 = O_FB + 4*HG_MIB 568const HG_SCR_VERT_CAP: i64 = 8*HG_MIB 569const HG_SCR_SKEL: i64 = O_FB + 12*HG_MIB 570const HG_SCR_SKEL_CAP: i64 = 2*HG_MIB 571const HG_SCR_DYNA: i64 = O_FB + 14*HG_MIB 572const HG_SCR_DYNA_CAP: i64 = HG_MIB 573// plant + units 574const HG_TPS: i64 = 60 // see the header: the page accumulator's 16.6667 ms, hd_ticks_per_s() 575const HG_UNITS_PER_178CM: i64 = 171530 // the page's pairing (GPE_UNITS_PER_178CM), named as the same number 576const HG_CM_178: i64 = 178 577const HG_CM_PER_M: i64 = 100 578const HG_UPB: i64 = HG_UNITS_PER_178CM*HG_CM_PER_M/HG_CM_178 // bind units per world block (1 block = 1 m): 96365 579const HG_G_CMS2: i64 = 981 // standard gravity, cm/s^2 580const HG_G: i64 = HG_G_CMS2*HG_UNITS_PER_178CM/(HG_CM_178*HG_TPS*HG_TPS) // 262 units/tick^2 -- the dress lane's NXGD_G derivation 581const HG_FTL_S_PERMIL: i64 = 1000 - SB_C_HAIR*1000/SD_G // DFTL s_damping (Mueller 2012 "Fast Simulation of Inextensible Hair 582 // and Fur", band .9..1): 942, from the plant's own damping, not picked 583const HG_FENCE_DIV: i64 = 4 // the chain's small-angle validity fence: seglen/4 (SD_Q8/4 in the retired page solver) 584const HG_PROJ_ITERS: i64 = 3 // length/collision alternations per point; the LAST op is always the length projection 585const HG_LOCK_W_MIN: i64 = 900 // the ribbon builder's lock half-width floor (w09 = max(900, span*.045)), PRESERVED 586const HG_LOCK_W_PERMIL: i64 = 45 587const HG_SKIN_NUM: i64 = 16 // skin = lockw x 1.6: half-width + the .6 child scatter -- the farthest a render vertex sits off its guide 588const HG_SKIN_DEN: i64 = 10 589const HG_REACH_DIV: i64 = 2 // collider mask reach = strand length / 2: twice the static fence (L/4), for overshoot 590const HG_GUST_TICKS: i64 = 2*HG_TPS // gust envelope cadence 0.5 Hz: the incumbent shader sway (3.1 rad/s), PRESERVED 591const HG_GUST_SALT: i64 = 3400 // whash seed offset (the weather lib salts with seed + 3300) 592const HG_TORSO_GATE_X: i64 = 15000 // the MFS torso gate (axb < 15000.), the same half-width the paint bands use 593// Drillis-Contini stature ratios (permil of the MEASURED stature), the landmarks the page derives its bands from 594const HG_R_HEADBAND: i64 = 885 595const HG_R_HEAD_J: i64 = 955 596const HG_R_ACROMION: i64 = 818 597const HG_R_CHEST: i64 = 720 598const HG_R_HIP: i64 = 520 599const HG_R_ELBOW: i64 = 630 600const HG_R_NECK_LO: i64 = 840 601const HG_R_SH_LO: i64 = 770 602const HG_R_SH_HI: i64 = 860 603const HG_R_ARM_LO: i64 = 600 604const HG_R_ARM_HI: i64 = 800 605const HG_R_ARM_XMIN: i64 = 60 606const HG_R_ELBOW_XMIN: i64 = 50 607 608// C3 thought ids (RimWorld's inspectable-mood law: a mood is a LEDGER, never a scalar mystery) 609const TH_RAIN: i64 = 1 610const TH_FEAR: i64 = 2 611const TH_MET: i64 = 3 612const TH_SLEPT: i64 = 4 613const TH_HUNGRY: i64 = 5 614const TH_SAWTAKEN: i64 = 6 615const TH_HEARD_TAKEN: i64 = 7 616const TH_HEARD_FRIEND: i64 = 8 617const TH_COMPANY: i64 = 9 618// C5 gossip predicates (Talk of the Town's law -- the differentiator no shipped game has) 619const GO_FRIEND: i64 = 1 620const GO_TAKEN: i64 = 2 621const SAVE_MAGIC: i64 = 20260728001 622const SAVE_VER: i64 = 7 // generation recipe trailer, existing body retained 623const SAVE_VER6: i64 = 6 // streaming origin and edit journal 624 // v5 still LOADS (origin 0, empty journal); others REFUSED 625const SAVE_VER5: i64 = 5 626// mob components (nx_entity_store comp slots) 627const MC_X: i64 = 0 628const MC_Y: i64 = 1 629const MC_Z: i64 = 2 630const MC_KIND: i64 = 3 631const MC_PH: i64 = 4 632const MC_DISG: i64 = 5 // 1 = a HUMAN girl disguised as a monster girl (the lore: 633 // monster girls took the world; humans hide among them -- 634 // her features are a worn costume, not grown) 635const MC_GENE: i64 = 6 // 20-bit APPEARANCE GENOME rolled at spawn -- every girl is 636 // GENERATED, not hand-built: bits 0-2 hair hue, 3-4 hair 637 // length, 5-6 height, 7-8 outfit tint, 9-10 skin tone, 638 // 11-12 feature size. The slot bred inheritance plugs into. 639 640// state slots 641const S_SEED: i64 = 0 642const S_CX: i64 = 1 // camera pos Q8 (256 = one block) 643const S_CY: i64 = 2 644const S_CZ: i64 = 3 645const S_YAW: i64 = 4 // it-units (IT_PI = half turn) 646const S_PITCH: i64 = 5 647const S_T: i64 = 6 648const S_BROKEN: i64 = 7 649const S_PLACED: i64 = 8 650const S_HX: i64 = 9 // crosshair DDA hit cache 651const S_HY: i64 = 10 652const S_HZ: i64 = 11 653const S_HFACE: i64 = 12 // 0 none, 1 +x, 2 -x, 3 +y, 4 -y, 5 +z, 6 -z 654const S_HOK: i64 = 13 // 1 = in reach 655const S_VY: i64 = 14 // vertical velocity Q8/tick (jump + gravity) 656const S_GROUNDED: i64 = 15 // 1 = standing on a surface (jump allowed) 657const S_SEL: i64 = 16 // hotbar slot 0..4 (Q cycles; sel_block maps to a block type) 658const S_LBX: i64 = 17 // last-broken cell (probes/particles; the hit cache retargets 659const S_LBY: i64 = 18 // every frame, so "what did I just break" needs its own slots) 660const S_LBZ: i64 = 19 661const S_Q: i64 = 20 // ray pixel size 2..5 -- ADAPTIVE: the organ tunes itself from 662const S_FMA: i64 = 21 // the surface's reported frame ms (EMA x16); shim only reports 663const S_WMAX: i64 = 22 // highest solid y in the world -- rays above it heading up/flat 664 // are SKY immediately (kills the 110-step horizon marches) 665const S_SPX: i64 = 23 // spawn point (H key + void-fall auto-respawn return here) 666const S_SPY: i64 = 24 667const S_SPZ: i64 = 25 668const S_NPCT: i64 = 26 // crosshair NPC target: dense index of the girl under the 669 // gaze (occlusion-aware, walls block), -1 = none 670const S_FOUND: i64 = 27 // disguised humans FOUND (met + identified = under protection) 671const S_LOST: i64 = 28 // found humans TAKEN by wardens (the cost of not protecting) 672const S_BCD: i64 = 29 // birth cooldown ticks (community pacing) 673const S_WOX: i64 = 30 // WORLD ORIGIN of the window, in blocks (v6 streaming): the 674const S_WOZ: i64 = 31 // arena is a 128x48x128 CACHE over unbounded absolute terrain 675const S_EJDROP: i64 = 32 // edits REFUSED because the journal was full (loud, never silent) 676const S_HARV: i64 = 33 // MATURE crops harvested (the farming loop's payoff counter) 677const S_PLANT: i64 = 34 // seeds planted 678const S_GROWN: i64 = 35 // crops that reached maturity (world truth, gate-readable) 679const S_VAR: i64 = 36 // which world identity this arena runs (the passport's 680 // visited-mask bit; set once at init) 681const S_GENP: i64 = 37 682const S_TGT: i64 = 38 // DISPLAY-DERIVED frame budget, EMA-x16 units (0 = shipped 683 // defaults): the page measures the device's real rAF interval 684 // once and reports it via target_ms; every controller line then 685 // derives from the DEVICE instead of a hand-picked millisecond // W1c: gen-time override rows APPLIED at init (world truth -- 686 // a gate can read whether the recipe actually reached genworld) 687const S_BLDG: i64 = 39 // W3 settlements: buildings stamped into this arena (a 688 // monotone stamp-event counter -- a window slide that 689 // repaints a building recounts it; right after init it IS 690 // the number of buildings in the window, which is what the 691 // gate reads). NON-PERSISTED world truth. 692const S_BLDGX: i64 = 40 // last-stamped building anchor, arena-local (gate probe) 693const S_BLDGY: i64 = 41 // its floor height 694const S_BLDGZ: i64 = 42 695const S_RESW: i64 = 44 // GE55: canvas size and origin, written by the door (set_res / set_yflip) 696const S_RESH: i64 = 45 697const S_YFLIP: i64 = 46 698const S_FACE_RADIUS: i64 = 49 699const S_FACE_GAIN: i64 = 50 700const FACING_RADIUS_MAX_Q8: i64 = 2147483647 701const S_AGEN: i64 = 47 702const S_DPAPPLIED: i64 = 48 // GE59: the P_DAYPHASE value last applied to S_T (0 = never) -- one re-base per distinct poke, never per tick // GE57: arena GENERATION -- +1 per wc_shift that moves. The GPU tiers key every voxel-texture upload on it: a 16-block re-base drawn against the previous texture is the transport/fall-through the operator sees (2026-09-05). 703const S_GT_KEEP: i64 = 43 // ground-truth capture: when 1, render_impl leaves the depth plane in 704 // the framebuffer's high bits instead of stripping it (nx_world_snap 705 // gt verb reads it and emits depth/normal channels). Zeroed by init, so 706 // the page and every gate keep the published colour-only format. 707const SHIFT_STRIDE: i64 = 16 // one window slide, in blocks 708const SHIFT_MARGIN: i64 = 32 // player this close to a window edge -> the world slides under them 709 710// spec slots (the game-identity DATA the engine reads -- nx_voxel_world's style-is-a-spec doctrine) 711const P_TBASE: i64 = 0 // terrain base height 712const P_TAMP1: i64 = 1 // large-noise amplitude 713const P_TAMP2: i64 = 2 // detail-noise amplitude 714const P_WATER: i64 = 3 // flood level 715const P_SNOW: i64 = 4 // snow line (99 = never) 716const P_TREE: i64 = 5 // tree sparsity modulus (0 = no trees) 717const P_CAVETH: i64 = 6 // cave carve threshold (lower = more cavern) 718const P_SKYTOP: i64 = 7 // packed zenith colour 719const P_SKYHOR: i64 = 8 // packed horizon colour 720const P_SUN: i64 = 9 // 1 = sun disc 721const P_CLOUD: i64 = 10 // 1 = cloud deck 722// WEATHER EXPORTS (2026-08-26): written each tick by wc_weather_tick from nx_weather_lib -- the 723// gate-proven continuous system (rates preserved to P_RAINS, front persistence, typed precip, 724// gradient wind). The page reads these five slots exactly as it reads the sky tones. 725const P_WXCOV: i64 = 11 // cloud coverage Q12 (drives the cloud density band) 726const P_WXWINDX: i64 = 12 // wind x component, Q12-scaled speed*cos(dir) 727const P_WXWINDZ: i64 = 13 // wind z component 728const P_WXTYPE: i64 = 14 // precip type this eighth: 0 none, 1 rain, 2 snow 729const P_WXTEMP: i64 = 15 // temperature Q12 (relative scale, freezing=1024) 730const P_PAL: i64 = 16 // +blocktype = packed base colour (0..11) 731const P_MOBC: i64 = 28 // +kind*2+half = packed mob colours (3 kinds x 2 tones) 732const P_PAL2: i64 = 34 // +b-12 = packed colour for farm blocks 12..16 (5 rows, 34-38) 733const P_DAYLEN: i64 = 40 // A1 calendar: ticks per day (ALL timing is spec DATA) 734const P_SEASD: i64 = 41 // days per season (4 seasons cycle) 735const P_GROWE: i64 = 42 // farm-tick cadence: one grow/hydrate pass every N ticks 736const P_GROWW: i64 = 43 // crop speed on WET farmland (Minecraft stencil speed) 737const P_GROWD: i64 = 44 // crop speed on DRY farmland 738const P_RAINS: i64 = 45 // +season = rain permil per day-eighth (4 rows, 45-48) 739// --------------------------------------------------------------------------------------------- 740// ART STYLE IS DATA (2026-09-01). Spec idx 49 -- one of the TWO dead holes this plane has carried 741// since it was laid out (39 and 49; world_recipes.conf names them both). 49 is the safer of the 742// two: P_PAL2's five farm rows 34-38 could plausibly widen by one, while P_RAINS' four rows are 743// four SEASONS and cannot. It sits inside the 7..58 band the recipe plane pokes POST-BOOT, which 744// is where a LOOK belongs -- a style is a property of how the world is drawn, never of how the 745// ground was generated, so it must not become gen-time data. 746// THE VOCABULARY IS ADOPTED, NOT INVENTED. buildroot/runtime/nx_voxel_world.nx line 2 has read 747// "Style is a spec field, NOT a hardcode -- the engine is not locked to one look" since it was 748// written, with const SP_STYLE and STYLE_REAL / STYLE_TOON / STYLE_FLAT, and 749// _hdl_build/nx_world_style_gate.nx already PROVES the three produce three DISTINCT frames from 750// one spec. That organ has SEVEN importers and EVERY ONE OF THEM IS A GATE (measured 2026-09-01, 751// nx_absent matches=8 coverage_complete=1 corpus_complete=1): the doctrine was proven and never 752// shipped. This is that doctrine reaching the SERVED engine, under the SAME three ids so the two 753// implementations cannot drift into two vocabularies for one idea. 754// SCOPE, STATED SO IT CANNOT BE OVERREAD: this is the SHADING axis. The world is still made of 755// voxels -- vox_off() -> O_VOX is still the only world door, and a second REPRESENTATION is a 756// separate, larger contract. A toon or flat world is a voxel world that stops looking photoreal; 757// it is not a world that stopped being cubes. 758// 0 = REAL, and 0 is what wc_spec's zeroing loop (while k < WC_SPECN) already writes for every 759// identity, so every world published before this renders BYTE-IDENTICALLY BY CONSTRUCTION rather 760// than by a preserved branch anyone could later delete. 761const P_STYLE: i64 = 49 762const P_DAYPHASE: i64 = 39 // GE59 (2026-09-05): the boot clock as DATA -- the OTHER dead hole (world_recipes.conf names 39 and 49). Post-boot band, so it cannot be read at init: apply2_impl re-bases S_T to it on the next tick, once per distinct value; 0 (the zeroing loop) leaves the DAYLEN/4 boot phase, so every existing world is byte-identical by construction. If P_PAL2 ever widens, this slot moves with the ONE named const. 763const WC_STYLE_REAL: i64 = 0 // textured, smooth light -- the shipped look, unchanged 764const WC_STYLE_TOON: i64 = 1 // banded light (anime/cel) 765const WC_STYLE_FLAT: i64 = 2 // untextured facets (artsy low-poly) 766const WC_STYLE_SOFT: i64 = 3 // SMOOTH TERRAIN: ground lit by a heightfield normal interpolated across the block (no grid bevel, no per-block facet) 767// SOFT neighbour scan: how far above/below the hit cell a neighbour column's top is searched. Bounded by 768// where the heightfield normal SATURATES -- a rise of 3 blocks over 1 already lights as a near-vertical 769// face, so a taller step is a cliff and reads correctly as the flat fallback. Derived, not tasted. 770const WC_SOFT_SCAN: i64 = 3 771const WC_STYLE_MAX: i64 = 3 // the highest id this engine owns; set_style REFUSES above it 772// nx_voxel_world's toon_band works on a 0..255 "bright"; wshade2 carries light in PERMIL 773// (wface_l returns 420..1000). Each of its three constants is therefore converted x1000/255 and 774// NOTHING here is tasted: 150 -> 588.2 -> 588, 105 -> 411.8 -> 412, 235 -> 921.6 -> 922. 775const WC_TOON_CUT: i64 = 588 776const WC_TOON_LO: i64 = 412 777const WC_TOON_HI: i64 = 922 778// FLAT is DERIVED, not chosen. The texture term enters this shader as 779// light = light*(870 + tex*260/256)/1000 780// which is exactly 1.000 at tex = 128, so 128 IS this shader's own no-op texel and "flat" is 781// spelled "hold tex at the value that makes the texture term vanish". No second constant is 782// introduced, and the incumbent does the same thing from the other side: its texel_col computes 783// its noise term ONLY under STYLE_REAL and adds zero otherwise. 784const WC_TEX_NEUTRAL: i64 = 128 785const P_ADV: i64 = 50 // +i = smart-object ADVERTISEMENTS (C1): packed 786 // block<<16 | need<<8 | strength; 6 rows 50-55, 0 = end. 787 // NPC minds read OBJECTS as data -- adding a row changes 788 // village life with zero new NPC code (The Sims' law). 789const P_HISTAGE: i64 = 60 // DECLARED geomorphic stage (Strahler bands): 0 = mature/ 790 // equilibrium (HI 300-600 permil), 1 = youthful (HI >= 600). 791 // A world DECLARES its stage and gate T53 checks the 792 // MEASUREMENT matches -- widening one band until everything 793 // fits would hide a young landscape. (Ported 2026-08-02: 794 // existed only on the laptop line; the NAS gate ran 52 teeth 795 // while local ran 53 -- the LOCAL-IS-NOT-A-SUPERSET fork.) 796const P_TREEMAX: i64 = 59 // tree altitude ceiling (0 = the historic hardcoded 19) 797const P_TREESPEC: i64 = 61 // W2 SPECIES GENOME (packed, 0 = legacy 4-block stamp): 798 // bits 0-3 trunk base, 4-7 trunk variance, 8-11 canopy 799 // radius (<=4, the widened seam scan bound), 12-14 shape 800 // (0 legacy, 1 dome, 2 pine), 15-17 leaf-drop density. 801 // Bits 18-20 UNDERSTORY density + 21-22 kind (0 tufts, 802 // 1 shrubs, 2 mixed) -- W2b ground vegetation in the same 803 // genome; tree bits 0..17 zero = legacy forest preserved. 804 // A world declares its FOREST the way it declares its 805 // terrain -- species = parameters, individuals = seeded 806 // variation inside the envelope (the Infinigen law). 807const P_WARD: i64 = 58 // warden daytime hunt radius in BLOCKS (0 = the 12-block 808 // default). A world declares its own danger; the arriving 809 // traveler's LEVEL scales it further (isekai: new world, 810 // new challenge, and the challenge KNOWS who showed up). 811const P_OUTFIT: i64 = 57 // outfit mode: 0 = identity keeps everyone clothed; 812 // 1 = MIXED (beach): genome bits 18-19 pick each girl's 813 // beachwear -- clothed / topless / nude -- stable per 814 // girl, bred like every trait. Identity DATA decides 815 // whether the dimension is active at all. 816const P_CURI: i64 = 56 // curiosity threshold: a girl approaches the player only 817 // while her loneliness exceeds this (HABITUATION -- the 818 // operator's "they just follow me around": company 819 // satisfies, satisfied girls walk on with their lives. 820 // Fear never habituates; shy girls always keep distance). 821 822// GAME-FEEL TUNABLES -- every one carries a row in knowledge/gamefeel_oracle.conf (banked 823// reference bands: biomechanics, shipped-sim constants, modding-community defaults) and 824// nx_gamefeel_oracle_gate REFUSES any value outside its cited band. Feel is derived, not tasted. 825const P_BLDG: i64 = 62 // W3 settlement density: site-cell modulus (0 = none; the 826 // recipe plane can override it, idx 62 is gen-time data) 827const P_BLDGSPEC: i64 = 63 // low 4 bits = archetype row in nx_indoorgen_data 828const P_ERODE: i64 = 64 // E1 TALUS EROSION BUDGET in relaxation ticks (0 = OFF). 829 // Gen-time recipe DATA (world_recipes.conf spec idx 64), 830 // applied to the spec BEFORE genworld reads it. 0 does not 831 // merely default to nothing: it takes the branch out 832 // entirely, so a world that does not opt in generates the 833 // byte-identical terrain it generated before this existed. 834const P_ERTAL: i64 = 65 // DERIVED talus threshold, WC_ER_Q units. NEVER authored: 835 // wc_er_talus MEASURES it as the terrain's own mean per-cell 836 // largest 4-neighbour drop -- wp_erode_talus_derived's rule 837 // -- so material sheds where the ground is steeper than the 838 // ground's own average and no repose angle is picked by 839 // taste. Sentinels: 0 = not yet measured, WC_ER_FLAT = -1 = 840 // measured and the world has NO relief, which is the case 841 // wp_erode_bake_derived REFUSES rather than reporting a bake 842 // it did not do. 843// GE13b -- CLOTHING IS DATA (2026-08-30). The 3-value outfit (0 clothed / 1 topless / 2 nude) WAS 844// the whole wardrobe, and SWIMWEAR-ONLY rendered identically to a clothed village because no 845// swimwear garment existed anywhere in the engine (operator: "random dresses not beach outfits"). 846// The wardrobe is now a GARMENT TABLE in this same spec plane: rows P_GARM .. P_GARM+GAR_N-1, one 847// packed word per garment, seeded by wc_spec for EVERY identity before its branch (an identity or a 848// recipe row overrides a garment exactly the way it overrides the sky). Garment id 0 = nothing worn 849// and is not a row; id i lives at sp[P_GARM + i - 1]. A ZERO row means "this garment does not exist 850// here" -- the selector then hands out nothing in that slot, which is what makes the gate's 851// missing-swim-row neg-control bite instead of silently reading a bare word as a garment. 852// bits 0-1 COVERAGE bit0 covers the top, bit1 the bottom: 1 top / 2 bottom / 3 full (one-piece, 853// dresses). The legacy 0/1/2 is DERIVED from the worn set's OR of these bits. 854// bits 2-4 CATEGORY 0 beach-swim 1 beach-cover 2 casual 3 evening 855// bits 8-16 HUE BASE degrees 0..359, where this garment's palette starts 856// bits 17-22 HUE SPAN degrees/4: genome bits 7-8 (the documented OUTFIT-TINT bits, MG_OUTFIT_SH) 857// pick one of four stops across it -- a girl's swimsuit colour is BRED like 858// her hair, and a bikini top and bottom share the stop, so the set matches 859// bits 23-26 SATURATION /15 bits 27-30 LIGHTNESS /15 (integer HSL, wc_hsl_rgb) 860// Index 69 stays UNOWNED on purpose: nx_world_recipe_gate T19 pins "spec idx 69 refuses" as the 861// recipe validator's upper edge, and putting a garment there would turn a pinned edge into a row. 862const P_GARM: i64 = 70 863const GAR_N: i64 = 9 864const GAR_BIKINI_TOP: i64 = 1 865const GAR_BIKINI_BOT: i64 = 2 866const GAR_ONEPIECE: i64 = 3 867const GAR_SARONG: i64 = 4 868const GAR_SUNDRESS: i64 = 5 869const GAR_TEE: i64 = 6 870const GAR_SHORTS: i64 = 7 871const GAR_SKIRT: i64 = 8 872const GAR_DRESS: i64 = 9 873const GAR_COV_TOP: i64 = 1 874const GAR_COV_BOT: i64 = 2 875const GAR_COV_FULL: i64 = 3 876const GAR_CAT_SWIM: i64 = 0 877const GAR_CAT_COVER: i64 = 1 878const GAR_CAT_CASUAL: i64 = 2 879const GAR_CAT_EVENING: i64 = 3 880const GAR_CAT_NONE: i64 = 4 // what mobgarc reports for a girl wearing nothing 881const GAR_CAT_SH: i64 = 2 882const GAR_CAT_MASK: i64 = 7 883const GAR_HUE_SH: i64 = 8 884const GAR_HUE_MASK: i64 = 511 885const GAR_SPAN_SH: i64 = 17 886const GAR_SPAN_MASK: i64 = 63 887const GAR_SPAN_UNIT_DEG: i64 = 4 888const GAR_SAT_SH: i64 = 23 889const GAR_LIT_SH: i64 = 27 890const GAR_NIB_MASK: i64 = 15 891const GAR_TINT_STOPS: i64 = 4 // MG_OUTFIT_MASK + 1: two genome bits, four stops 892const GAR_SLOT_SH: i64 = 8 // outfit word = upper id << GAR_SLOT_SH | lower id 893const GAR_ID_MASK: i64 = 255 894const HSL_DEG_FULL: i64 = 360 895const HSL_SECTOR_DEG: i64 = 60 896const MG_BEACH_SH: i64 = 18 // the beachwear genome bits the MIXED beach breeds (P_OUTFIT) 897const MG_BEACH_MASK: i64 = 3 898const MOB_POSE_SLEEP: i64 = 2 // mob_pose's published sleep id (the pose door's contract) 899const B_WATER: i64 = 4 // the water block (wshade2's shimmer branch, the shore ramp) 900const WC_SPECN: i64 = 80 // includes GA_DUNE at slot 79 within the existing 640-byte spec allocation 901 // rows 70-78 (69 left unowned, see P_GARM). Was a bare 64 inside wc_spec. 902 // O_EJRN - O_SPEC = 640 B = 80 words, so this grows without 903 // moving a single other offset (the same law O_GENP was 904 // placed under). 905// GE13 -- THE OCEAN IS DATA (wsp_beach_ocean). One packed spec row turns any identity's far 906// side into a sea: bits 0-1 EDGE (0=+z 1=-z 2=+x 3=-x), bits 2-11 SHORELINE absolute 907// coordinate + 512 (WORLD space, so the streaming window regenerates it consistently), 908// bits 12-17 SLOPE width in blocks (the shore ramps down across this run), bits 18-23 909// SEABED height. 0 = no ocean: wsp_beach_ocean returns the height UNTOUCHED, so every 910// ocean-less identity generates byte-identically BY CONSTRUCTION (the KAT the gate holds). 911const P_OCEAN: i64 = 66 912// GE14a -- THE STAGED PROCGEN BIND. 0 = OFF, and OFF is the LEGACY TERRAIN BYTE-FOR-BYTE by 913// construction (wheight_raw returns before touching any of it). Non-zero = ON, and the value IS 914// the VERTICAL DIVISOR that maps nx_worldpipe_core's height space into this engine's block 915// column -- one row carrying both the switch and the scale, the shape P_ERODE already uses. 916// WHY A DIVISOR AND NOT A TASTED CONSTANT: the core's spline runs about -430..+420 before 917// relief, while a column here is 1..WY-8 blocks, so SOME map is required and the only honest 918// place for it is the recipe -- a world declares how much of its own vertical band it wants to 919// use, and nx_wasm_craft_gate asserts the resulting spread actually FILLS that band instead of 920// clamping flat at either end (a divisor that collapses the world is a measurable defect, not a 921// matter of taste). 922const P_WPIPE: i64 = 67 923// GE14a -- THE HORIZONTAL SCALE, and it is not a cosmetic knob: it is the unit conversion 924// between two coordinate systems, and MEASUREMENT is what proved it necessary. The staged 925// core's parameter fields have wavelengths of 1300..3400 units (continentalness the longest), 926// while a world window here is 128 BLOCKS. At 1 unit per block the whole window samples 927// essentially ONE POINT of the continent field, so the spline contributes a constant and only 928// the short ridge/detail terms vary: T79 measured spread 9 at divisor 30 and spread 10 at 929// divisor 18 -- a 40 percent smaller divisor bought ONE BLOCK, which is the signature of a 930// term that is constant across the sample, not of a scale that needs tuning. No vertical 931// divisor can fix that; the window has to span more of the field. 0 or 1 = one unit per block 932// (the legacy sampling); N = N units per block, so a 128-block window spans 128*N units. 933const P_WPSCALE: i64 = 68 934const P_SURF: i64 = 69 // GE53 SURFACE SOURCE: 0 = the cell grid (all voxel, byte-identical to 935 // every world shipped before this row), 1 = the continuous heightfield 936 // (no voxel ground: the ray marches the Q8 field). An identity declares 937 // it as DATA in wc_spec. All voxel or no voxel -- there is no partial. 938// The field is bilinear BETWEEN columns, so a sample a quarter block apart can never skip a column: the 939// marcher's step and the gradient's baseline are both this one span (Q8 units). DERIVED from the field's 940// own resolution (one column per block), not tuned. 941const WC_SURF_STEP_Q8: i64 = 64 942const WC_GAIT_BOB_Q8: i64 = 7 // thorax oscillation AMPLITUDE (~2.7cm, 5.5cm p2p -- 943 // the band is peak-to-peak/2; 14 was a p2p-vs-amplitude 944 // conflation the recorder exposed as 11.3cm of chest) 945// RESPIRATION -- the idle drive. Derived, not tasted: resting adult breathing is 12-16/min; 946// at 14/min on the fixed 60Hz tick that is 60*60/14 = 257 ticks per cycle (0.233 Hz, inside the 947// 0.20-0.30 Hz band this rung is gated on). Amplitude is scaled off the GAIT constant above so 948// the two drives share one ruler: 7 q8 ~ 2.7cm => 1 q8 ~ 0.386cm, so 2 q8 ~ 0.77cm, inside the 949// declared 0.4-0.8cm resting-excursion band. A third value would have been a guess; this is an 950// arithmetic consequence of a constant already cited. 951const WC_BREATH_TICKS: i64 = 257 952// ★ AMPLITUDE, NOT PEAK-TO-PEAK -- and I got this wrong ONCE ALREADY on the gait constant. 953// Conversion, derived from the cited gait row: 7 q8 amplitude is documented as ~2.7cm, and 954// 7/256*100cm-per-block = 2.73cm, so the unit is q8 world units and p2p = 2*amp/256*100 cm. 955// At 2 q8 that is 1.56cm p2p -- OUTSIDE the 0.4-0.8cm resting band this rung is gated on, i.e. 956// 2x too large, the SAME p2p-vs-amplitude conflation the recorder caught in WC_GAIT_BOB_Q8 (14 957// -> 7). At 1 q8: 2/256*100 = 0.78cm p2p, inside the band. Caught by doing the arithmetic in the 958// unit the CRITERION is written in, before it shipped visibly. 959// ⚠KNOWN LIMIT, to be measured not assumed: 1 q8 is near the world-q8 resolution floor, so the 960// anchor steps coarsely; the spring integrates and should low-pass it, but ?breath=1 reports the 961// actual excursion so this is decided by measurement rather than by my expectation. 962const WC_BREATH_Q8: i64 = 1 963// speed at which GAIT fully owns the anchor. PROVISIONAL and deliberately marked so: the units 964// of the per-tick mob delta were never measured, so this is the one number here without a 965// derivation. The mobspd door added below exists to REPLACE it with a measurement rather than 966// leave a guess sitting in the engine pretending to be a constant. 967const WC_BREATH_CUT_Q8: i64 = 24 968const WC_STEP_EASE_UP: i64 = 48 // mob Y climb rate Q8/tick (a 1-block rise ~ 5 ticks) 969const WC_NIGHT_X8: i64 = 5 // night begins at this eighth of the day (5/8) 970 971const EYE: i64 = 435 // eye height Q8 (~1.7 blocks) 972const SPEED: i64 = 40 // walk Q8 per tick 973// GAIT DRIVE CONSTANTS -- declared HERE, above their first reader in the mob tick. The compiler 974// refuses a module const used before its declaration because it would silently read 0, and for the 975// gait accumulator that would have meant a permanently frozen drive that still compiled, still ran, 976// and looked exactly like the metronome it was written to replace. 977const WC_PH_PER_TICK: i64 = 5 // the free-running advance MC_PH still uses for WANDER 978const WC_PH_ANG: i64 = 214 // angle-units per phase unit (the incumbent's drive scaling) 979const WC_NEED_GAIT: i64 = 3 // the needs row's spare slot, named now that it carries a value 980// ---- THE GAIT MODEL, CITED (knowledge/gamefeel_oracle.conf, gait_* rows) ----------------------- 981// Every number below is a published normative measurement carrying its cohort and its instrument. 982// None is a taste, and none may be "tuned" without moving the conf row and its source with it. 983// ⚠UNIT DISCIPLINE, AND THIS FILE HAS ALREADY PAID ONCE FOR GETTING IT WRONG (WC_GAIT_BOB_Q8 went 984// 14 -> 7 on exactly this): the gait literature reports RANGE of motion -- rRoM, ROM -- which is 985// PEAK-TO-PEAK. The AMPLITUDE is HALF of it. Every constant here is stored as the PUBLISHED RANGE 986// in DECIDEGREES so it can be compared straight against the paper, and the halving happens in 987// exactly one function (wc_amp_ddeg) so no caller can forget it. 988const WC_DDEG_HALFTURN: i64 = 1800 // decidegrees in IT_PI (a half turn): the ddeg -> it-unit scale 989// STRIDE = 2 x step length 0.73 m (mean, 21-30 age band, markerless normative database). 990// 1 BLOCK = 1 m is NOT assumed here, it is read off the engine: EYE = 435 q8 = 1.70 blocks is the 991// player's eye height and adult eye height is ~1.6-1.7 m, so a block IS a metre to within the 992// figure's own tolerance. 1.46 m = 1.46 blocks = 374 q8. 993// ★THE PUBLISHED TRIPLE RECONCILES, WHICH IS A FREE AUDIT OF THE SOURCE: step 0.73 m x cadence 994// 108.40 steps/min / 60 = 1.319 m/s against that table's own reported gait speed of 1.30 m/s. 995const WC_STRIDE_Q8: i64 = 374 996// PELVIS transverse rotation, rRoM = 5.2 deg (n=201 healthy adults, 5 km/h, surface topography). 997// ⚠SCOPE, STATED: surface topography estimates the pelvis from PSIS surface markers and reads 998// LOWER than bone-pin and marker-cluster methods, which put pelvic transverse range nearer 10 deg. 999// 5.2 is therefore a FLOOR from one named instrument, not a settled value, and it is used as the 1000// reference the genome varies AROUND rather than as a ceiling. 1001const WC_PELVIS_ROT_DDEG: i64 = 52 1002// THORACIC counter-rotation, rRoM at T7 = 14.6 deg -- and this is the paper's headline finding, 1003// explicitly CONTRARY to the previous functional understanding that T7 is the near-static point of 1004// intersection: T7/T8 carry the LARGEST rotary amplitude of every vertebra C7..L4, and "the largest 1005// rotary opposition was also found between the pelvis and T7/T8". The thorax rotates roughly THREE 1006// TIMES the pelvis, against it. 1007// ★THIS PHASE RELATIONSHIP IS THE MECHANISM READ AS "SWINGING HIPS". It is not an amplitude: what 1008// the eye sees is the pelvis and the shoulders twisting in OPPOSITION about the line of travel. 1009// It is encoded as a SIGN below and therefore needs no constant of its own -- deliberately absent. 1010const WC_THORAX_ROT_DDEG: i64 = 146 1011// ELBOW flexion-extension ROM through the gait cycle = 29.7 deg (SD 10.2). The forearm is NOT 1012// rigid in walking; a locked elbow is the "stiff arms" report stated as a measurement, and this 1013// row is what makes it a defect rather than an opinion. 1014const WC_ELBOW_ROM_DDEG: i64 = 297 1015// TURN ALLOWANCE, expressed as heading change per STRIDE rather than per tick, so it is 1016// speed-coupled BY CONSTRUCTION: a standing girl cannot turn and a walking one turns in 1017// proportion to the ground she covers. ⚠DERIVED-BY-ARGUMENT, NOT MEASURED, AND LABELLED SO: a 1018// walking body re-places its feet once per stride and cannot change heading by more than about a 1019// quarter turn in that time. Cross-check against the two rulers this engine already owns -- at 1020// the cited stride and a mob's 4 q8/tick it works out at 68 it-units/tick = 57 deg/s, a little 1021// over half the player's own TURN slew of 140 it-units/tick = 117 deg/s, and inside the 60-90 1022// deg/s that comfortable walking turns are usually quoted at. What would SETTLE it is a cited 1023// walking turn-rate band in gamefeel_oracle.conf; there is not one, and inventing a row that 1024// looked cited would be worse than naming the gap. 1025const WC_TURN_PER_STRIDE: i64 = IT_PI/2 1026const TURN: i64 = 140 // yaw it-units per tick (keyboard turn / legacy dir path) 1027const PITCHV: i64 = 90 // pitch it-units per tick (R/F keyboard look) 1028const PITCH_MAX: i64 = 5000 1029const LOOKS: i64 = 6 // mouselook: it-units per accumulated look count 1030const JUMPV: i64 = 66 // jump takeoff velocity Q8/tick 1031const GRAV: i64 = 9 // gravity Q8/tick^2 1032const VTERM: i64 = 120 // terminal fall velocity Q8/tick -- ONE ruler for the player AND every mob 1033 // (GE12 mob_step_gait; was an inline 120 in apply2_impl) 1034// FOOTSTRIKE/LANDING IMPULSE unit bridge -- ARITHMETIC of two existing conventions, not a tuning. 1035// Mob positions are world-q8 (256/block) and the softbind anchor is fed pos/4 (the 1036// sb_tick_mob_gene call in mob_tick), so ONE MODEL UNIT = 4 world-q8. sd_impulse's own contract 1037// (nx_softdyn: "model-units/tick * 256") takes model-q8/tick velocity kicks. Therefore one 1038// world-q8/tick of mob velocity = SD_Q8/4 solver velocity units, and a mob velocity change dv 1039// converts as dv*WC_IMP_SCALE with no free parameter anywhere in the chain. 1040const WC_IMP_SCALE: i64 = SD_Q8/4 1041const MAXSTEPS: i64 = 110 // DDA cells per ray (view distance) 1042const REACH_STEPS: i64 = 20 // crosshair edit reach in DDA cells 1043 1044func wst(base: i64) -> *i64 { return (base + O_ST) as *i64 } 1045func wsp(base: i64) -> *i64 { return (base + O_SPEC) as *i64 } 1046func wgp(base: i64) -> *i64 { return (base + O_GENP) as *i64 } 1047func mobp(base: i64) -> *i64 { return (base + O_MOBS) as *i64 } 1048func wfb(base: i64) -> *i64 { return (base + O_FB) as *i64 } 1049func wvx(base: i64) -> *u8 { return (base + O_VOX) as *u8 } 1050func winp(base: i64) -> *i64 { return (base + O_INPUT) as *i64 } 1051func wpack(r: i64, g: i64, b: i64) -> i64 { return r | (g << 8) | (b << 16) } 1052func wclamp(v: i64, lo: i64, hi: i64) -> i64 { if v < lo { return lo } if v > hi { return hi } return v } 1053 1054func vin(x: i64, y: i64, z: i64) -> i64 { 1055 if x < 0 { return 0 } if x >= WX { return 0 } 1056 if y < 0 { return 0 } if y >= WY { return 0 } 1057 if z < 0 { return 0 } if z >= WZ { return 0 } 1058 return 1 1059} 1060func vget(base: i64, x: i64, y: i64, z: i64) -> i64 { 1061 if vin(x, y, z) == 0 { return 0 } 1062 let v: *u8 = wvx(base) 1063 return (v[(y*WZ + z)*WX + x] & 0xff) as i64 1064} 1065func vset(base: i64, x: i64, y: i64, z: i64, b: i64) -> i64 { 1066 if vin(x, y, z) == 0 { return 0 } 1067 let v: *u8 = wvx(base) 1068 v[(y*WZ + z)*WX + x] = b as u8 1069 return 1 1070} 1071 1072// ---------- edit journal (v6 streaming): every PLAYER edit recorded at ABSOLUTE world coords ---------- 1073// One packed i64 hash slot per touched cell: (key+1)<<8 | block, key = ax+2^24 (25b) : az+2^24 (25b) 1074// : ay (6b). The journal is the persistent truth for touched land; the window is a cache over 1075// (seed + journal) -- the voxchunk law (virgin land from the seed, touched land from history) wired 1076// into the live game. Bounded EJRN_SLOTS edits; a FULL journal REFUSES the whole edit LOUDLY 1077// (S_EJDROP counts refusals) so world and history can never disagree. 1078func ejp(base: i64) -> *i64 { return (base + O_EJRN) as *i64 } 1079func ej_key(ax: i64, ay: i64, az: i64) -> i64 { 1080 return ((ax + WATER_MAGIC_16777216) << 31) | ((az + WATER_MAGIC_16777216) << 6) | ay 1081} 1082// Existing wire remains 56-bit incremented coordinate tag plus one block byte. 1083const EJRN_KEY_MAX: i64 = 72057594037927935 1084const EJRN_TAG_MASK: i64 = 0-256 1085func ej_key_representable(ax: i64, ay: i64, az: i64) -> i64 { 1086 if ax < 0-WATER_MAGIC_16777216 || ax >= WATER_MAGIC_16777216 { return 0 } 1087 if az < 0-WATER_MAGIC_16777216 || az >= WATER_MAGIC_16777216 { return 0 } 1088 if ay < 0 || ay >= 64 { return 0 } 1089 if ej_key(ax,ay,az) == EJRN_KEY_MAX { return 0 } 1090 return 1 1091} 1092func ej_tag_matches(cur: i64, key: i64) -> i64 { 1093 if cur == 0 { return 0 } 1094 return (cur & EJRN_TAG_MASK) == ((key+1) << 8) 1095} 1096func ej_index_bucket(tag: i64) -> i64 { 1097 // Fold high coordinate bits before the bucket mask; raw-key low bits omit X. 1098 let k: i64 = tag >> 8 1099 let mixed: i64 = (k ^ (k >> 17) ^ (k >> 37))*EJRN_HASH_MUL 1100 return (mixed ^ (mixed >> 29)) & (EJ_INDEX_BUCKETS-1) 1101} 1102// A context is valid only for one synchronous mutation batch. It never survives 1103// save_apply, init, direct journal writes or another begin. No hidden active cache. 1104func ej_batch_begin(base: i64, available_bytes: i64) -> *i64 { 1105 if available_bytes < CRAFT_TOTAL { return 0 as *i64 } 1106 let heads: *i64 = (base+O_EJ_INDEX) as *i64 1107 let next: *i64 = (base+O_EJ_NEXT) as *i64 1108 let e: *i64 = ejp(base) 1109 var i: i64 = 0 1110 while i < EJ_INDEX_BUCKETS { heads[i]=0;i=i+1 } 1111 i=0 1112 while i < EJRN_SLOTS { 1113 next[i]=0 1114 let cur: i64 = e[i] 1115 if cur != 0 { 1116 let h: i64 = ej_index_bucket(cur & EJRN_TAG_MASK) 1117 next[i]=heads[h] 1118 heads[h]=i+1 1119 } 1120 i=i+1 1121 } 1122 return heads 1123} 1124func ej_index_get(base: i64, heads: *i64, ax: i64, ay: i64, az: i64) -> i64 { 1125 if ej_key_representable(ax,ay,az) == 0 { return 0-1 } 1126 let e: *i64 = ejp(base) 1127 let next: *i64 = (base+O_EJ_NEXT) as *i64 1128 let key: i64 = ej_key(ax,ay,az) 1129 var at: i64 = heads[ej_index_bucket((key+1)<<8)] 1130 var winner: i64 = 0-1 1131 var result: i64 = 0-1 1132 while at > 0 { 1133 let slot: i64 = at-1 1134 if ej_tag_matches(e[slot],key) == 1 { 1135 if slot > winner { winner=slot;result=e[slot]&255 } 1136 } 1137 at=next[slot] 1138 } 1139 return result 1140} 1141func ej_index_put(base: i64, heads: *i64, ax: i64, ay: i64, az: i64, b: i64) -> i64 { 1142 if ej_key_representable(ax,ay,az) == 0 { return 0-2 } 1143 if b < 0 || b > 255 { return 0-2 } 1144 let e: *i64 = ejp(base) 1145 let next: *i64 = (base+O_EJ_NEXT) as *i64 1146 let key: i64 = ej_key(ax,ay,az) 1147 let tag: i64 = (key+1)<<8 1148 let bucket: i64 = ej_index_bucket(tag) 1149 var at: i64 = heads[bucket] 1150 var matched: i64 = 0 1151 while at > 0 { 1152 let slot: i64 = at-1 1153 if ej_tag_matches(e[slot],key) == 1 { e[slot]=tag|b;matched=1 } 1154 at=next[slot] 1155 } 1156 if matched == 1 { return 1 } 1157 // New keys retain the original persisted hash-probe insertion order. 1158 var i: i64 = (key*EJRN_HASH_MUL)&(EJRN_SLOTS-1) 1159 var n: i64 = 0 1160 while n < EJRN_SLOTS { 1161 if e[i] == 0 { 1162 e[i]=tag|b 1163 next[i]=heads[bucket] 1164 heads[bucket]=i+1 1165 return 1 1166 } 1167 i=(i+1)&(EJRN_SLOTS-1);n=n+1 1168 } 1169 return 0-1 1170} 1171func ej_put(base: i64, ax: i64, ay: i64, az: i64, b: i64) -> i64 { 1172 if ej_key_representable(ax,ay,az) == 0 { return 0-2 } 1173 if b < 0 || b > 255 { return 0-2 } 1174 let index: *i64 = ej_batch_begin(base,CRAFT_EXT_TOTAL) 1175 if (index as i64) == 0 { return 0-3 } 1176 return ej_index_put(base,index,ax,ay,az,b) 1177} 1178func ej_get(base: i64, ax: i64, ay: i64, az: i64) -> i64 { 1179 if ej_key_representable(ax,ay,az) == 0 { return 0-1 } 1180 let index: *i64 = ej_batch_begin(base,CRAFT_EXT_TOTAL) 1181 if (index as i64) == 0 { return 0-1 } 1182 return ej_index_get(base,index,ax,ay,az) 1183} 1184// overlay journal entries falling inside the local box [lx0..lx1) x [lz0..lz1) -- edits WIN over regen 1185func ej_overlay(base: i64, lx0: i64, lx1: i64, lz0: i64, lz1: i64) -> i64 { 1186 let s: *i64 = wst(base) 1187 let e: *i64 = ejp(base) 1188 var i: i64 = 0 1189 while i < EJRN_SLOTS { 1190 let cur: i64 = e[i] 1191 if cur != 0 { 1192 let k: i64 = (cur >> 8) - 1 1193 let ay: i64 = k & 63 1194 let az: i64 = ((k >> 6) & WATER_MAGIC_33554431) - WATER_MAGIC_16777216 1195 let ax: i64 = ((k >> 31) & WATER_MAGIC_33554431) - WATER_MAGIC_16777216 1196 let lx: i64 = ax - s[S_WOX] 1197 let lz: i64 = az - s[S_WOZ] 1198 if lx >= lx0 { if lx < lx1 { if lz >= lz0 { if lz < lz1 { 1199 vset(base, lx, ay, lz, cur & 255) 1200 } } } } 1201 } 1202 i = i + 1 1203 } 1204 return 0 1205} 1206// the PLAYER-EDIT write path: journal at absolute coords FIRST (a full journal refuses the whole 1207// edit -- world and history stay consistent), then the window write. Gen/save paths keep raw vset. 1208func wc_edit(base: i64, x: i64, y: i64, z: i64, b: i64) -> i64 { 1209 if vin(x,y,z) == 0 { return 0 } 1210 let s: *i64 = wst(base) 1211 if ej_put(base, x + s[S_WOX], y, z + s[S_WOZ], b) < 0 { 1212 s[S_EJDROP] = s[S_EJDROP] + 1 1213 return 0 1214 } 1215 return vset(base, x, y, z, b) 1216} 1217// solid for collision: everything but air, water and CROPS (plants are walked through, not on) 1218func vsolid(base: i64, x: i64, y: i64, z: i64) -> i64 { 1219 let b: i64 = vget(base, x, y, z) 1220 if b == 0 { return 0 } 1221 if b == 4 { return 0 } 1222 if b >= B_CROP0 { if b <= B_CROP2 { return 0 } } 1223 return 1 1224} 1225 1226// ---------- worldgen: integer value noise -> heightmap -> columns -> trees ---------- 1227func whash(x: i64, z: i64, sd: i64) -> i64 { 1228 var n: i64 = x*TERRAIN_HASH_X + z*TERRAIN_HASH_Z + sd*TERRAIN_HASH_SEED 1229 n = n & SAVE_CK_MASK 1230 n = (n ^ (n >> 13)) * TERRAIN_HASH_MIX 1231 n = n & SAVE_CK_MASK 1232 return (n ^ (n >> 16)) % 256 1233} 1234// bilinear value noise, lattice spacing `sc`, result 0..255 1235func wnoise(x: i64, z: i64, sc: i64, sd: i64) -> i64 { 1236 let cx: i64 = x / sc 1237 let cz: i64 = z / sc 1238 let fx: i64 = x % sc 1239 let fz: i64 = z % sc 1240 let c00: i64 = whash(cx, cz, sd) 1241 let c10: i64 = whash(cx+1, cz, sd) 1242 let c01: i64 = whash(cx, cz+1, sd) 1243 let c11: i64 = whash(cx+1, cz+1, sd) 1244 let v0: i64 = c00 + (c10 - c00)*fx/sc 1245 let v1: i64 = c01 + (c11 - c01)*fx/sc 1246 return v0 + (v1 - v0)*fz/sc 1247} 1248// the RAW two-octave surface: what wheight was in full before E1, unchanged and still the only 1249// thing the talus measurement is allowed to read (a threshold derived from an already-eroded 1250// surface would be measuring its own output). 1251const P_DUNE: i64 = GA_DUNE 1252func wc_dune_relief_q(sp: *i64, x: i64, z: i64, sd: i64) -> i64 { 1253 let packed: i64 = sp[P_DUNE] 1254 if packed == 0 { return 0 } 1255 let phase: i64 = whash(0,0,sd)*2*IT_PI/256 1256 let relief: i64 = wp_dune_wave_q(packed,x,z,phase) 1257 if sp[P_OCEAN] == 0 { return relief } 1258 let wavelength: i64 = (packed >> GA_DUNE_WAVE_SHIFT) & GA_DUNE_WAVE_MASK 1259 return wp_dune_coast_q(relief,0-wsp_ocean_d(sp,x,z),wavelength) 1260} 1261 1262func wheight_raw(base:i64,x:i64,z:i64,sd:i64)->i64 { 1263 let sp:*i64=wsp(base) 1264 let pipeline:i64=sp[P_WPIPE] 1265 // Existing staged producer remains unchanged; mixed relief is refused by init admission. 1266 if pipeline!=0 { 1267 WP_SEED=sd;WP_TEMP_BIAS=0;WP_CONT_BIAS=0;WP_MOUNT_SCALE=WP_MAGIC_1400 1268 var scale:i64=sp[P_WPSCALE] 1269 if scale<=0{scale=1} 1270 return wclamp(sp[P_TBASE]+wp_height_raw(x*scale,z*scale)/pipeline,1,WY-8) 1271 } 1272 let n1:i64=wnoise(x,z,16,sd) 1273 let n2:i64=wnoise(x,z,5,sd+7) 1274 let legacy:i64=sp[P_TBASE]+n1*sp[P_TAMP1]/WP_HEIGHT_Q+n2*sp[P_TAMP2]/WP_HEIGHT_Q 1275 if sp[P_DUNE]==0{return wclamp(legacy,1,WY-8)} 1276 let lower:i64=WP_HEIGHT_Q;let upper:i64=(WY-8)*WP_HEIGHT_Q 1277 let base_q:i64=wclamp(sp[P_TBASE]*WP_HEIGHT_Q+n1*sp[P_TAMP1]+n2*sp[P_TAMP2],lower,upper) 1278 let raised_q:i64=wclamp(base_q+wc_dune_relief_q(sp,x,z,sd),lower,upper) 1279 return wclamp(wp_dune_raw_delta(legacy,base_q,raised_q),1,WY-8) 1280} 1281// ---------- E1: TALUS EROSION, EVALUATED POINTWISE (2026-08-25) ---------- 1282// THE WORLD SCROLLS, SO EROSION HERE CANNOT BE A BAKED GRID. gencol regenerates strips at 1283// ABSOLUTE coordinates as the window slides (s[S_WOX] = s[S_WOX] + dx), which is exactly why the 1284// header above gencol calls the terrain "a pure function of (absolute position, seed) -> unbounded 1285// land". nx_worldpipe's wp_erode is the baked-grid shape and its OWN docstring states the cost: 1286// it returns zero "outside the baked span", a case "a caller must not be able to tell apart from 1287// no erosion here, because that is what they are". Baking it here would put eroded ground behind 1288// the player and raw noise in front of him with a hard seam between the two. Storing a grid is 1289// not available either -- "wasm has no mmap; every buffer is an arena offset", and the 1290// framebuffer TAILS the arena (T60), so a 128x128 heightfield would have to move WASM_MEM_BYTES. 1291// SO THE OPERATOR IS EVALUATED, NOT STORED. k passes of a radius-1 stencil have a domain of 1292// dependence of radius k, so the unrolled composition below returns at (x,z) exactly what a 1293// k-pass relaxation over an INFINITE grid would put there. No seam can exist because there is no 1294// grid to have an edge, and nothing has to be saved, shifted or invalidated when the world slides. 1295// The pass is thermal (talus) erosion in its symmetric PAIRWISE-EXCHANGE form: across each of the 1296// 4 edges material moves from the higher cell to the lower one ONLY where the drop exceeds the 1297// talus threshold. wc_er_flux is ANTISYMMETRIC -- flux(-d) == -flux(d) exactly, truncation toward 1298// zero included -- so both ends of every edge move by equal and opposite amounts and the pass 1299// CONSERVES MASS. That is what makes this erosion and not a blur: a blur lowers everything, this 1300// cuts steep faces back and fills the hollows immediately below them, and it leaves ground gentler 1301// than the threshold untouched entirely. 1302const WC_ER_Q: i64 = 256 // fixed point the pass runs in. World heights are 1303 // small integers (craft relief ~22 blocks), so a 1304 // pass done in whole blocks could only ever move 0 1305 // or >=1 and would quantise the effect away. 1306const WC_ER_STABLE_Q: i64 = WC_ER_Q / 4 // DERIVED, not tasted: an explicit 4-neighbour 1307 // exchange h' = h + r*sum(h_n - h) is stable iff 1308 // 4r <= 1, so r = 1/4 is the marginal limit and 1309 // oscillates AT it. 1310const WC_ER_RATE_Q: i64 = WC_ER_STABLE_Q / 2 // WRITTEN AS THE ARITHMETIC: half the stability 1311 // limit. This factor of 2 is the ONLY judgement in 1312 // the whole operator and it is named right here; 1313 // the per-world lever is the tick budget, which is 1314 // recipe DATA, not code. 1315const WC_ER_MAXK: i64 = 3 // STRUCTURAL, not a clamp: three unrolled levels 1316 // are written below and no fourth one exists. Cost 1317 // is 5^k raw height evaluations per column -- 125 1318 // at k=3; 625 at k=4 would put worldgen past a 1319 // second and a visitor would meet a blank canvas. 1320const WC_ER_FLAT: i64 = 0 - 1 // P_ERTAL sentinel: measured, and there is no relief 1321 1322// THE SAME SURFACE AT SUB-BLOCK RESOLUTION -- AND THE FIX FOR A MEASURED, GATE-CAUGHT DEFECT. 1323// wheight_raw's two truncating divisions by 256 round the land to WHOLE BLOCKS before anything 1324// can weather it, and feeding that pre-rounded field to the pass made the first cut of this 1325// operator measurably do nothing. With the input quantised, every neighbour drop is a multiple of 1326// 256; the MEASURED talus came out at 264, so a one-block step (256) sits BELOW the threshold and 1327// does not move at all, and a two-block step moves (512-264)/8 = 31 of the 128 needed to change a 1328// block. The wasm-VM gate reported moved=0 of 576 with HI 477 -> 477 and REFUSED the ship. That is 1329// the tooth doing its job, and the answer is not a bigger rate -- it is to weather the CONTINUOUS 1330// field and quantise only the result, which is what erosion does to real ground anyway. 1331func wheight_q(base: i64, x: i64, z: i64, sd: i64) -> i64 { 1332 let sp: *i64 = wsp(base) 1333 let n1: i64 = wnoise(x, z, 16, sd) 1334 let n2: i64 = wnoise(x, z, 5, sd + 7) 1335 var hq: i64 = sp[P_TBASE]*WC_ER_Q + n1*sp[P_TAMP1] + n2*sp[P_TAMP2] 1336 hq = wclamp(hq,WC_ER_Q,(WY-8)*WC_ER_Q) 1337 return wclamp(hq+wc_dune_relief_q(sp,x,z,sd), WC_ER_Q, (WY - 8)*WC_ER_Q) 1338} 1339// signed transfer INTO this cell across one edge, given the neighbour-minus-self drop d. 1340// Antisymmetric by construction, so the two ends of an edge always move by equal and opposite 1341// amounts. That identity is what conserves mass, and the gate ASSERTS it rather than assuming the 1342// dialect truncates the way this reasoning needs. 1343func wc_er_flux(d: i64, t: i64) -> i64 { 1344 if d > t { return (d - t)*WC_ER_RATE_Q/WC_ER_Q } 1345 if d < 0 - t { return (d + t)*WC_ER_RATE_Q/WC_ER_Q } 1346 return 0 1347} 1348// THE THRESHOLD IS MEASURED, NEVER AUTHORED. Mean over a FIXED reference patch of each cell's 1349// largest 4-neighbour drop -- wp_erode_talus_derived's rule, applied to the surface actually being 1350// eroded. The patch is the absolute [0,WX)x[0,WZ) square rather than the player's current window, 1351// so the threshold stays a pure function of (spec, seed) and does not drift as the world slides 1352// under him. Result is in WC_ER_Q units; a world with no relief measures 0 and turns erosion off. 1353func wc_er_talus(base: i64, sd: i64) -> i64 { 1354 var sum: i64 = 0 1355 var z: i64 = 0 1356 while z < WZ { 1357 var x: i64 = 0 1358 while x < WX { 1359 let h: i64 = wheight_q(base, x, z, sd) 1360 var m: i64 = 0 1361 let da: i64 = wheight_q(base, x - 1, z, sd) - h 1362 if da > m { m = da } 1363 if 0 - da > m { m = 0 - da } 1364 let db: i64 = wheight_q(base, x + 1, z, sd) - h 1365 if db > m { m = db } 1366 if 0 - db > m { m = 0 - db } 1367 let dc: i64 = wheight_q(base, x, z - 1, sd) - h 1368 if dc > m { m = dc } 1369 if 0 - dc > m { m = 0 - dc } 1370 let dd: i64 = wheight_q(base, x, z + 1, sd) - h 1371 if dd > m { m = dd } 1372 if 0 - dd > m { m = 0 - dd } 1373 sum = sum + m 1374 x = x + 1 1375 } 1376 z = z + 1 1377 } 1378 return sum/(WX*WZ) // already in WC_ER_Q units: the field it measured is 1379} 1380// memoised into the spec so the sweep above runs ONCE per arena, never once per column. The 1381// sentinel makes "measured and flat" distinguishable from "not measured yet", which is the whole 1382// reason a flat world does not pay the sweep on every single query. 1383func wc_er_arm(base: i64, sd: i64) -> i64 { 1384 let sp: *i64 = wsp(base) 1385 if sp[P_ERTAL] != 0 { return sp[P_ERTAL] } 1386 let t: i64 = wc_er_talus(base, sd) 1387 if t <= 0 { sp[P_ERTAL] = WC_ER_FLAT } else { sp[P_ERTAL] = t } 1388 return sp[P_ERTAL] 1389} 1390// ONE PASS, UNROLLED THREE DEEP. No recursion anywhere: each level is its own function and calls 1391// only the level below it, so the maximum budget is a property of the SOURCE that a reader can 1392// count, rather than a runtime clamp that has to be trusted. 1393func wc_er1(base: i64, x: i64, z: i64, sd: i64, t: i64) -> i64 { 1394 let h: i64 = wheight_q(base, x, z, sd) 1395 var a: i64 = h 1396 a = a + wc_er_flux(wheight_q(base, x - 1, z, sd) - h, t) 1397 a = a + wc_er_flux(wheight_q(base, x + 1, z, sd) - h, t) 1398 a = a + wc_er_flux(wheight_q(base, x, z - 1, sd) - h, t) 1399 a = a + wc_er_flux(wheight_q(base, x, z + 1, sd) - h, t) 1400 return a 1401} 1402func wc_er2(base: i64, x: i64, z: i64, sd: i64, t: i64) -> i64 { 1403 let h: i64 = wc_er1(base, x, z, sd, t) 1404 var a: i64 = h 1405 a = a + wc_er_flux(wc_er1(base, x - 1, z, sd, t) - h, t) 1406 a = a + wc_er_flux(wc_er1(base, x + 1, z, sd, t) - h, t) 1407 a = a + wc_er_flux(wc_er1(base, x, z - 1, sd, t) - h, t) 1408 a = a + wc_er_flux(wc_er1(base, x, z + 1, sd, t) - h, t) 1409 return a 1410} 1411func wc_er3(base: i64, x: i64, z: i64, sd: i64, t: i64) -> i64 { 1412 let h: i64 = wc_er2(base, x, z, sd, t) 1413 var a: i64 = h 1414 a = a + wc_er_flux(wc_er2(base, x - 1, z, sd, t) - h, t) 1415 a = a + wc_er_flux(wc_er2(base, x + 1, z, sd, t) - h, t) 1416 a = a + wc_er_flux(wc_er2(base, x, z - 1, sd, t) - h, t) 1417 a = a + wc_er_flux(wc_er2(base, x, z + 1, sd, t) - h, t) 1418 return a 1419} 1420// THE HEIGHT THE PLAYER WALKS ON. gencol builds every column from this and gentrees plants from 1421// it, so a change here is a change to the GROUND, not a shader drawn over it. All 7 call sites are 1422// worldgen or init; the renderer reads voxels, so the 5^k cost is paid once per strip and never 1423// per frame. 1424func wheight(base: i64, x: i64, z: i64, sd: i64) -> i64 { 1425 let sp: *i64 = wsp(base) 1426 var k: i64 = sp[P_ERODE] 1427 if k <= 0 { return wheight_raw(base, x, z, sd) } 1428 if k > WC_ER_MAXK { k = WC_ER_MAXK } 1429 let t: i64 = wc_er_arm(base, sd) 1430 if t <= 0 { return wheight_raw(base, x, z, sd) } 1431 var he: i64 = 0 1432 if k == 1 { he = wc_er1(base, x, z, sd, t) } 1433 if k == 2 { he = wc_er2(base, x, z, sd, t) } 1434 if k >= 3 { he = wc_er3(base, x, z, sd, t) } 1435 return wclamp((he + WC_ER_Q/2)/WC_ER_Q, 1, WY - 8) 1436} 1437// GE53: the SAME eroded height wheight returns, in WC_ER_Q units and NOT rounded -- the one value the 1438// surface source keeps that the voxel column throws away at wheight's last line. 1439func wheight_qe(base: i64, x: i64, z: i64, sd: i64) -> i64 { 1440 let sp: *i64 = wsp(base) 1441 var k: i64 = sp[P_ERODE] 1442 if k <= 0 { return wheight_q(base, x, z, sd) } 1443 if k > WC_ER_MAXK { k = WC_ER_MAXK } 1444 let t: i64 = wc_er_arm(base, sd) 1445 if t <= 0 { return wheight_q(base, x, z, sd) } 1446 var he: i64 = 0 1447 if k == 1 { he = wc_er1(base, x, z, sd, t) } 1448 if k == 2 { he = wc_er2(base, x, z, sd, t) } 1449 if k >= 3 { he = wc_er3(base, x, z, sd, t) } 1450 return wclamp(he, WC_ER_Q, (WY - 8)*WC_ER_Q) 1451} 1452// the ocean ramp in Q units -- the same arithmetic wsp_beach_ocean applies to whole blocks, so the field 1453// and the column agree on where the beach meets the sea. 1454func wsp_beach_ocean_q(sp: *i64, ax: i64, az: i64, hq: i64) -> i64 { 1455 let oc: i64 = sp[P_OCEAN] 1456 if oc == 0 { return hq } 1457 let d: i64 = wsp_ocean_d(sp, ax, az) 1458 if d <= 0 { return hq } 1459 let slopew: i64 = (oc >> 12) & 63 1460 let bedq: i64 = ((oc >> 18) & 63)*WC_ER_Q 1461 var t: i64 = bedq 1462 if d < slopew { t = hq - (hq - bedq)*d/slopew } 1463 if t < bedq { t = bedq } 1464 if t > hq { t = hq } 1465 return t 1466} 1467func hq_get(base: i64, x: i64, z: i64) -> i64 { 1468 if x < 0 { return 0 - 1 } 1469 if z < 0 { return 0 - 1 } 1470 if x >= WX { return 0 - 1 } 1471 if z >= WZ { return 0 - 1 } 1472 let p: *i64 = (base + O_HQ + (z*WX + x)*8) as *i64 1473 return p[0] 1474} 1475func hq_set(base: i64, x: i64, z: i64, v: i64) -> i64 { 1476 let p: *i64 = (base + O_HQ + (z*WX + x)*8) as *i64 1477 p[0] = v 1478 return 0 1479} 1480func hq_off() -> i64 { return O_HQ } 1481// wc_surface_source -- GE53's named symbol: the terrain SURFACE height (the top of the ground, Q8 world 1482// units) at a Q8 position, bilinear between the four surrounding columns. -1 outside the window. A 1483// column's Q height is the base of its top block, so the surface sits one block above it. 1484func wc_surface_source(base: i64, pxq: i64, pzq: i64) -> i64 { 1485 let cx: i64 = pxq >> 8 1486 let cz: i64 = pzq >> 8 1487 let fx: i64 = pxq & 255 1488 let fz: i64 = pzq & 255 1489 let h00: i64 = hq_get(base, cx, cz) 1490 let h10: i64 = hq_get(base, cx + 1, cz) 1491 let h01: i64 = hq_get(base, cx, cz + 1) 1492 let h11: i64 = hq_get(base, cx + 1, cz + 1) 1493 if h00 < 0 { return 0 - 1 } 1494 if h10 < 0 { return 0 - 1 } 1495 if h01 < 0 { return 0 - 1 } 1496 if h11 < 0 { return 0 - 1 } 1497 let top: i64 = h00*(256 - fx)*(256 - fz) + h10*fx*(256 - fz) + h01*(256 - fx)*fz + h11*fx*fz 1498 return top/65536 + 256 1499} 1500// terrain-class blocks: the ground the field replaces. Structures (wood, leaves, crops, water) stay cells. 1501func wterrain(b: i64) -> i64 { 1502 if b == 1 { return 1 } 1503 if b == 2 { return 1 } 1504 if b == 3 { return 1 } 1505 if b == 5 { return 1 } 1506 if b == 8 { return 1 } 1507 if b == 9 { return 1 } 1508 if b == 10 { return 1 } 1509 if b == 11 { return 1 } 1510 return 0 1511} 1512// trilinear 3D value noise 0..255 (cave carver) 1513func wnoise3(x: i64, y: i64, z: i64, sc: i64, sd: i64) -> i64 { 1514 let cx: i64 = x / sc 1515 let cy3: i64 = y / sc 1516 let cz: i64 = z / sc 1517 let fx: i64 = x % sc 1518 let fy: i64 = y % sc 1519 let fz: i64 = z % sc 1520 let a00: i64 = whash(cx + cy3*97, cz, sd) 1521 let a10: i64 = whash(cx + 1 + cy3*97, cz, sd) 1522 let a01: i64 = whash(cx + cy3*97, cz + 1, sd) 1523 let a11: i64 = whash(cx + 1 + cy3*97, cz + 1, sd) 1524 let b00: i64 = whash(cx + (cy3+1)*97, cz, sd) 1525 let b10: i64 = whash(cx + 1 + (cy3+1)*97, cz, sd) 1526 let b01: i64 = whash(cx + (cy3+1)*97, cz + 1, sd) 1527 let b11: i64 = whash(cx + 1 + (cy3+1)*97, cz + 1, sd) 1528 let a0: i64 = a00 + (a10 - a00)*fx/sc 1529 let a1: i64 = a01 + (a11 - a01)*fx/sc 1530 let av: i64 = a0 + (a1 - a0)*fz/sc 1531 let b0: i64 = b00 + (b10 - b00)*fx/sc 1532 let b1: i64 = b01 + (b11 - b01)*fx/sc 1533 let bv: i64 = b0 + (b1 - b0)*fz/sc 1534 return av + (bv - av)*fy/sc 1535} 1536// recompute the world's highest solid layer (init + save-load; place maintains it incrementally) 1537func wc_wmax(base: i64) -> i64 { 1538 let s: *i64 = wst(base) 1539 let vxp: *u8 = (base + O_VOX) as *u8 1540 var y: i64 = WY - 1 1541 while y >= 0 { 1542 var i: i64 = y*WZ*WX 1543 let end: i64 = (y + 1)*WZ*WX 1544 while i < end { 1545 if (vxp[i] & 0xff) != 0 { s[S_WMAX] = y; return y } 1546 i = i + 1 1547 } 1548 y = y - 1 1549 } 1550 s[S_WMAX] = 0 1551 return 0 1552} 1553 1554// generate ONE local column from ABSOLUTE world coords: the terrain is a pure function of 1555// (absolute position, seed) -> unbounded land, deterministic everywhere, no stored world needed 1556// for virgin ground (the voxchunk regen law wired into the live game). 1557// GE13 -- shore distance: how many blocks SEAWARD of the shoreline (ax,az) sits; <= 0 = inland, 1558// -1 = this identity has no ocean row at all. 1559func wsp_ocean_d(sp: *i64, ax: i64, az: i64) -> i64 { 1560 let oc: i64 = sp[P_OCEAN] 1561 if oc == 0 { return 0 - 1 } 1562 let edge: i64 = oc & 3 1563 let shore: i64 = ((oc >> 2) & 1023) - 512 1564 if edge == 0 { return az - shore } 1565 if edge == 1 { return shore - az } 1566 if edge == 2 { return ax - shore } 1567 return shore - ax 1568} 1569// GE45 REVIEW FRAMING (2026-09-04) -- the sea bearing of an identity, in yaw it-units (yaw 0 looks toward +z, 1570// x = sin, z = cos: the convention summon() and the page's review steering already share), or -1 when the 1571// identity carries no ocean row. Read by the spawn (the first frame faces the sea), by summon() (the review 1572// ring stands on the seaward arc so the shore is behind the girl the camera frames) and exported as the 1573// sea_yaw door for the HUD and the gate. Data: the same P_OCEAN row wsp_ocean_d decodes -- no second coastline. 1574func wsp_sea_yaw(sp: *i64) -> i64 { 1575 let oc: i64 = sp[P_OCEAN] 1576 if oc == 0 { return 0 - 1 } 1577 let edge: i64 = oc & 3 1578 if edge == 0 { return 0 } 1579 if edge == 1 { return IT_PI } 1580 if edge == 2 { return IT_PI/2 } 1581 return IT_PI*3/2 1582} 1583// the seaward review arc: the summoned cast spans one quarter turn centred on the sea bearing. A quarter turn 1584// is the widest arc whose every member still stands between the player and the shore (tan 45 degrees = 1, so 1585// the gate can assert it with integer arithmetic: |dx| <= dz for a +z sea). 1586const WC_REVIEW_ARC: i64 = IT_PI/2 1587// GE13 -- the ocean shaping rule (gameengine rung wsp_beach_ocean), applied to the PURE noise 1588// height wherever a column sits seaward of the shoreline: ramp the ground from its natural 1589// height down to the SEABED across the SLOPE width, then hold the seabed. gencol's existing 1590// flood rule (P_WATER) then fills the water and its sand rule paints the wet band -- beach, 1591// shallows and open sea all emerge from ONE data row, no per-world code. P_OCEAN == 0 returns 1592// h untouched, so every existing world is byte-identical by construction. 1593func wsp_beach_ocean(sp: *i64, ax: i64, az: i64, h: i64) -> i64 { 1594 let oc: i64 = sp[P_OCEAN] 1595 if oc == 0 { return h } 1596 let d: i64 = wsp_ocean_d(sp, ax, az) 1597 if d <= 0 { return h } 1598 let slopew: i64 = (oc >> 12) & 63 1599 let bed: i64 = (oc >> 18) & 63 1600 var t: i64 = bed 1601 if d < slopew { t = h - (h - bed)*d/slopew } 1602 if t < bed { t = bed } 1603 if t > h { t = h } 1604 return t 1605} 1606 1607// Runtime position validity uses the same terrain field and structural body sweep. 1608// This does not change the existing point footprint into a wider avatar. 1609func wc_player_position_clear(base: i64, x: i64, y: i64, z: i64) -> i64 { 1610 if x < 0 || z < 0 || x >= WX*256 || z >= WZ*256 { return 0 } 1611 if wsp(base)[P_SURF] == 1 { 1612 let field: i64=wc_surface_source(base,x,z) 1613 if field < 0 || y-EYE < field { return 0 } 1614 } 1615 wc_player_body(base,x,y,z) 1616 beach_contact_world_sweep(base,wc_contact_body(base),wc_contact_obstacle(base),wc_contact_result(base),1,0) 1617 let contact: *BeachContactResult=wc_contact_result(base) 1618 if contact.initial_overlap == 1 { return 0 } 1619 return 1 1620} 1621// Return 0 unchanged,1 recovered,-1 unresolved. No arbitrary teleport across X/Z. 1622// A restore can carry a valid checksum yet contain an old penetrated camera. 1623 1624// Profile storage occupies the verified unused O_ST tail; existing 64-word ABI is unchanged. 1625const S_MOVE_MODE: i64 = 51 1626const S_MOVE_GRAV_MM: i64 = 52 1627const S_MOVE_JUMP_MM: i64 = 53 1628const S_MOVE_WALK_MM: i64 = 54 1629const S_MOVE_TERM_MM: i64 = 55 1630const S_MOVE_STEP_Q8: i64 = 56 1631const S_MOVE_REPEAT: i64 = 57 1632const S_MOVE_VNUM: i64 = 58 1633const S_MOVE_RY: i64 = 59 1634const S_MOVE_RX: i64 = 60 1635const S_MOVE_RZ: i64 = 61 1636const S_MOVE_LAST_JUMP: i64 = 62 1637const S_MOVE_REV: i64 = 63 1638const WC_MOVE_HZ: i64 = 60 1639const WC_MOVE_Q8: i64 = 256 1640const WC_MOVE_MM: i64 = 1000 1641const WC_MOVE_DEN: i64 = WC_MOVE_MM*WC_MOVE_HZ*WC_MOVE_HZ 1642const WC_MOVE_HDEN: i64 = WATER_MAGIC_4096*WC_MOVE_MM*WC_MOVE_HZ 1643// A request cannot traverse more than the vertical arena extent in one tick. 1644const WC_MOVE_SPEED_MAX_MM: i64 = WY*WC_MOVE_MM*WC_MOVE_HZ 1645const WC_MOVE_GRAV_MAX_MM: i64 = WC_MOVE_SPEED_MAX_MM*WC_MOVE_HZ 1646const WC_MOVE_RC_PROFILE: i64 = 0 - 81 1647const WC_MOVE_RC_ACTIVE: i64 = 0 - 82 1648 1649func wc_move_reset(base: i64) -> i64 { 1650 let s: *i64 = wst(base) 1651 s[S_MOVE_VNUM] = 0; s[S_MOVE_RY] = 0 1652 s[S_MOVE_RX] = 0; s[S_MOVE_RZ] = 0 1653 s[S_MOVE_LAST_JUMP] = 0 1654 return 0 1655} 1656func wc_move_valid(mode: i64, grav: i64, launch: i64, walk: i64, 1657 terminal: i64, step: i64, repeat: i64) -> i64 { 1658 if mode == 0 { 1659 if grav != 0 || launch != 0 || walk != 0 || terminal != 0 || step != 0 || repeat != 0 { return WC_MOVE_RC_PROFILE } 1660 return 0 1661 } 1662 if mode != 1 { return WC_MOVE_RC_PROFILE } 1663 if grav <= 0 || grav > WC_MOVE_GRAV_MAX_MM { return WC_MOVE_RC_PROFILE } 1664 if launch <= 0 || launch > WC_MOVE_SPEED_MAX_MM { return WC_MOVE_RC_PROFILE } 1665 if walk < 0 || walk > WC_MOVE_SPEED_MAX_MM { return WC_MOVE_RC_PROFILE } 1666 if terminal <= 0 || terminal > WC_MOVE_SPEED_MAX_MM { return WC_MOVE_RC_PROFILE } 1667 if step < 0 || step >= WY*WC_MOVE_Q8 { return WC_MOVE_RC_PROFILE } 1668 if repeat < 0 || repeat > 1 { return WC_MOVE_RC_PROFILE } 1669 return 0 1670} 1671func wc_move_commit_validated(base: i64, mode: i64, grav: i64, launch: i64, walk: i64, 1672 terminal: i64, step: i64, repeat: i64) -> i64 { 1673 let s: *i64 = wst(base) 1674 s[S_MOVE_MODE] = mode 1675 s[S_MOVE_GRAV_MM] = grav; s[S_MOVE_JUMP_MM] = launch 1676 s[S_MOVE_WALK_MM] = walk; s[S_MOVE_TERM_MM] = terminal 1677 s[S_MOVE_STEP_Q8] = step; s[S_MOVE_REPEAT] = repeat 1678 wc_move_reset(base) 1679 s[S_MOVE_REV] = s[S_MOVE_REV] + 1 1680 return 0 1681} 1682func wc_move_set(base: i64, mode: i64, grav: i64, launch: i64, walk: i64, 1683 terminal: i64, step: i64, repeat: i64) -> i64 { 1684 let valid: i64 = wc_move_valid(mode,grav,launch,walk,terminal,step,repeat) 1685 if valid != 0 { return valid } 1686 let s: *i64 = wst(base) 1687 if s[S_MOVE_MODE] == mode && s[S_MOVE_GRAV_MM] == grav && s[S_MOVE_JUMP_MM] == launch && s[S_MOVE_WALK_MM] == walk && s[S_MOVE_TERM_MM] == terminal && s[S_MOVE_STEP_Q8] == step && s[S_MOVE_REPEAT] == repeat { return 0 } 1688 if s[S_GROUNDED] != 1 || s[S_VY] != 0 { return WC_MOVE_RC_ACTIVE } 1689 if s[S_MOVE_VNUM] != 0 || s[S_MOVE_RY] != 0 || s[S_MOVE_RX] != 0 || s[S_MOVE_RZ] != 0 { return WC_MOVE_RC_ACTIVE } 1690 let held: i64 = ia_held(winp(base)) 1691 if (held & (IA_UP | IA_DOWN | IA_LEFT | IA_RIGHT | IA_JUMP)) != 0 { return WC_MOVE_RC_ACTIVE } 1692 return wc_move_commit_validated(base,mode,grav,launch,walk,terminal,step,repeat) 1693} 1694func wc_move_boot(base: i64, world: i64) -> i64 { 1695 if world != BEACH_RELEASE_WORLD { return 0 } 1696 // init preflights immutable recipe data before any arena mutation; grounded is established by motion. 1697 return wc_move_commit_validated(base,BEACH_MOVE_MODE,BEACH_MOVE_GRAV_MM,BEACH_MOVE_JUMP_MM, 1698 BEACH_MOVE_WALK_MM,BEACH_MOVE_TERM_MM,BEACH_MOVE_STEP_Q8,BEACH_MOVE_REPEAT) 1699} 1700func wc_move_horizontal(base: i64, axis: i64, direction: i64) -> i64 { 1701 let s: *i64 = wst(base) 1702 if s[S_MOVE_MODE] == 0 { return direction*SPEED/WATER_MAGIC_4096 } 1703 var slot: i64 = S_MOVE_RX 1704 if axis == 2 { slot = S_MOVE_RZ } 1705 if direction == 0 { s[slot] = 0; return 0 } 1706 let sum: i64 = s[slot] + direction*s[S_MOVE_WALK_MM]*WC_MOVE_Q8 1707 let delta: i64 = sum/WC_MOVE_HDEN 1708 s[slot] = sum - delta*WC_MOVE_HDEN 1709 return delta 1710} 1711func wc_move_vertical_request(base: i64, jump: i64) -> i64 { 1712 let s: *i64 = wst(base) 1713 var launch: i64 = jump 1714 if s[S_MOVE_REPEAT] == 0 && s[S_MOVE_LAST_JUMP] == 1 { launch = 0 } 1715 s[S_MOVE_LAST_JUMP] = jump 1716 var vn: i64 = s[S_MOVE_VNUM] 1717 if launch == 1 && s[S_GROUNDED] == 1 { 1718 vn = s[S_MOVE_JUMP_MM]*WC_MOVE_Q8*WC_MOVE_HZ 1719 s[S_MOVE_RY] = 0 1720 } 1721 vn = vn - s[S_MOVE_GRAV_MM]*WC_MOVE_Q8 1722 let terminal: i64 = s[S_MOVE_TERM_MM]*WC_MOVE_Q8*WC_MOVE_HZ 1723 if vn < 0 - terminal { vn = 0 - terminal } 1724 s[S_MOVE_VNUM] = vn 1725 let sum: i64 = s[S_MOVE_RY] + vn 1726 let delta: i64 = sum/WC_MOVE_DEN 1727 s[S_MOVE_RY] = sum - delta*WC_MOVE_DEN 1728 return delta 1729} 1730func movement_profile_set(mode: i64, grav_mm_s2: i64, jump_mm_s: i64, 1731 walk_mm_s: i64, terminal_mm_s: i64, step_q8: i64, held_repeat: i64) -> i64 { 1732 return wc_move_set(0,mode,grav_mm_s2,jump_mm_s,walk_mm_s,terminal_mm_s,step_q8,held_repeat) 1733} 1734func movement_profile_field(field: i64) -> i64 { 1735 if field < 0 || field > S_MOVE_REV-S_MOVE_MODE { return WC_MOVE_RC_PROFILE } 1736 return wst(0)[S_MOVE_MODE+field] 1737} 1738func movement_tick_hz() -> i64 { return WC_MOVE_HZ } 1739func movement_velocity_denominator() -> i64 { return WC_MOVE_DEN } 1740 1741func wc_player_recover(base: i64) -> i64 { 1742 let s: *i64=wst(base) 1743 let x: i64=s[S_CX];let y: i64=s[S_CY];let z: i64=s[S_CZ] 1744 if wc_player_position_clear(base,x,y,z) == 1 { return 0 } 1745 if x < 0 || z < 0 || x >= WX*256 || z >= WZ*256 { return -1 } 1746 var floor: i64=y-EYE 1747 if wsp(base)[P_SURF] == 1 { 1748 let field: i64=wc_surface_source(base,x,z) 1749 if field < 0 { return -1 } 1750 if field > floor { floor=field } 1751 } 1752 if floor < 0 { floor=0 } 1753 var ceiling: i64=floor 1754 while ceiling+EYE+128 <= WY*256 { 1755 let stand: i64=wc_player_support(base,x,z,ceiling) 1756 if stand >= y && stand <= ceiling+EYE { 1757 if wc_player_position_clear(base,x,stand,z) == 1 { 1758 s[S_CY]=stand;s[S_VY]=0;s[S_GROUNDED]=1;wc_move_reset(base) 1759 return 1 1760 } 1761 } 1762 // Include the continuous field first, then every possible structural cell top. 1763 ceiling=((ceiling >> 8)+1)*256 1764 } 1765 return -1 1766} 1767func player_position_clear() -> i64 { 1768 let s: *i64=wst(0) 1769 return wc_player_position_clear(0,s[S_CX],s[S_CY],s[S_CZ]) 1770} 1771func player_recover() -> i64 { return wc_player_recover(0) } 1772 1773// Same column owner for normal generation and non-destructive restore rebuild. 1774func wc_hq_column(base: i64, x: i64, z: i64, ax: i64, az: i64, sd: i64) -> i64 { 1775 let sp: *i64=wsp(base) 1776 if sp[P_SURF] == 1 { hq_set(base,x,z,wsp_beach_ocean_q(sp,ax,az,wheight_qe(base,ax,az,sd))) } 1777 return 0 1778} 1779func wc_hq_restore(base: i64) -> i64 { 1780 if wsp(base)[P_SURF] != 1 { return 0 } 1781 let s: *i64=wst(base) 1782 var z: i64=0 1783 while z < WZ { 1784 var x: i64=0 1785 while x < WX { 1786 wc_hq_column(base,x,z,x+s[S_WOX],z+s[S_WOZ],s[S_SEED]) 1787 x=x+1 1788 } 1789 z=z+1 1790 } 1791 return 0 1792} 1793 1794func gencol(base: i64, x: i64, z: i64, ax: i64, az: i64, sd: i64) -> i64 { 1795 let sp: *i64 = wsp(base) 1796 let wl: i64 = sp[P_WATER] 1797 let h: i64 = wsp_beach_ocean(sp, ax, az, wheight(base, ax, az, sd)) // GE13: the ocean is data 1798 wc_hq_column(base,x,z,ax,az,sd) // Same height owner as coherent save restoration. 1799 var y: i64 = 0 1800 while y < WY { 1801 var b: i64 = 0 1802 if y <= h { 1803 b = 3 // stone 1804 if y > h - 3 { b = 2 } // dirt cap 1805 if y == h { 1806 b = 1 // grass 1807 if h <= wl { b = 5 } // sand at/below waterline 1808 if h >= sp[P_SNOW] { b = 8 } // snow high up 1809 } 1810 // caves: carve inside the crust (never the floor, never the top 2 = no surface holes, 1811 // and never under water columns so lakes stay sealed) 1812 if b == 3 { if y >= 2 { if y <= h - 2 { if h > wl { 1813 if wnoise3(ax, y, az, 7, sd + 55) > sp[P_CAVETH] { b = 0 } 1814 } } } } 1815 // ores seed the remaining stone: coal common, iron deeper, gold deepest 1816 if b == 3 { 1817 let orr: i64 = whash(ax*7 + y*131, az*11 + y*17, sd + 31) % 997 1818 if orr < 22 { b = 9 } 1819 if y < 14 { if orr >= 22 { if orr < 32 { b = 10 } } } 1820 if y < 9 { if orr >= 32 { if orr < 38 { b = 11 } } } 1821 } 1822 } 1823 if y > h { if y <= wl { b = 4 } } // flood low ground 1824 vset(base, x, y, z, b) 1825 y = y + 1 1826 } 1827 return 0 1828} 1829// paint a voxel ONLY inside the regen box -- a tree may never overwrite terrain (and its journal 1830// overlay) outside the strip being regenerated 1831func vset_box(base: i64, x: i64, y: i64, z: i64, b: i64, lx0: i64, lx1: i64, lz0: i64, lz1: i64) -> i64 { 1832 if x < lx0 { return 0 } 1833 if x >= lx1 { return 0 } 1834 if z < lz0 { return 0 } 1835 if z >= lz1 { return 0 } 1836 return vset(base, x, y, z, b) 1837} 1838// GE17 wsp_palm_shape -- THE PALM (W2 shape id 3, mirroring nx_treegen species 3: dep0=0 trunk- 1839// only + "a ring of LONG radial frond blobs from the trunk top" -- ONE species canon, two lanes, 1840// the PG36 rule). A bare, gently curved trunk with NO branches below the crown, then a frond 1841// rosette. Everything DERIVED, nothing tuned: 1842// LEAN -- phototropic, TOWARD OPEN WATER when the world declares an ocean (P_OCEAN edge 1843// bits: shoreline palms lean seaward for light), hash-picked axis otherwise. Tip 1844// displacement = th9/3 (tan ~18deg of trunk height, the shoreline coconut habit); profile 1845// quadratic in height (uniform curvature): lean(dy) = dy*dy/(3*th9), which lands the tip at 1846// exactly th9/3 with no constant of its own. 1847// FRONDS -- 8 directions (4 axial + 4 diagonal, the voxel ring), length = the genome's own 1848// canopy radius cr9, arch droop(r) = r*r/(2*cr9): the tip ends half the frond length below 1849// the crown, the same quadratic droop nx_treegen's palm crown uses (seg*seg*11 there). 1850// Painting is clipped to the regen box (vset_box) so it is seam-safe under the widened scan 1851// margin gentrees derives for shape 3. Trunk = wood (6), fronds + apical bud = leaves (7); 1852// on the shore identity those palette rows read driftwood-brown and scrub-green already. 1853func wsp_palm_shape(base: i64, sp: *i64, tx: i64, tz: i64, h2: i64, th9: i64, cr9: i64, 1854 ax: i64, az: i64, sd: i64, lx0: i64, lx1: i64, lz0: i64, lz1: i64) -> i64 { 1855 var pldx: i64 = 0 1856 var pldz: i64 = 0 1857 let poc9: i64 = sp[P_OCEAN] 1858 if poc9 != 0 { 1859 let pe9: i64 = poc9 & 3 1860 if pe9 == 0 { pldz = 1 } 1861 if pe9 == 1 { pldz = 0 - 1 } 1862 if pe9 == 2 { pldx = 1 } 1863 if pe9 == 3 { pldx = 0 - 1 } 1864 } 1865 if poc9 == 0 { 1866 let pd9: i64 = whash(ax*19 + 13, az*23 + 29, sd + 251) % 4 1867 if pd9 == 0 { pldx = 1 } 1868 if pd9 == 1 { pldx = 0 - 1 } 1869 if pd9 == 2 { pldz = 1 } 1870 if pd9 == 3 { pldz = 0 - 1 } 1871 } 1872 var pox: i64 = 0 1873 var poz: i64 = 0 1874 var pty: i64 = 1 1875 while pty <= th9 { 1876 let pl9: i64 = pty*pty/(3*th9) 1877 pox = pldx*pl9 1878 poz = pldz*pl9 1879 vset_box(base, tx + pox, h2 + pty, tz + poz, 6, lx0, lx1, lz0, lz1) 1880 pty = pty + 1 1881 } 1882 let pcx: i64 = tx + pox 1883 let pcz: i64 = tz + poz 1884 let ptop: i64 = h2 + th9 1885 vset_box(base, pcx, ptop + 1, pcz, 7, lx0, lx1, lz0, lz1) 1886 var pfd: i64 = 0 1887 while pfd < 8 { 1888 var fdx9: i64 = 0 1889 var fdz9: i64 = 0 1890 if pfd == 0 { fdx9 = 1 } 1891 if pfd == 1 { fdx9 = 0 - 1 } 1892 if pfd == 2 { fdz9 = 1 } 1893 if pfd == 3 { fdz9 = 0 - 1 } 1894 if pfd == 4 { fdx9 = 1; fdz9 = 1 } 1895 if pfd == 5 { fdx9 = 1; fdz9 = 0 - 1 } 1896 if pfd == 6 { fdx9 = 0 - 1; fdz9 = 1 } 1897 if pfd == 7 { fdx9 = 0 - 1; fdz9 = 0 - 1 } 1898 var pr9: i64 = 1 1899 while pr9 <= cr9 { 1900 vset_box(base, pcx + fdx9*pr9, ptop + 1 - pr9*pr9/(2*cr9), pcz + fdz9*pr9, 7, lx0, lx1, lz0, lz1) 1901 pr9 = pr9 + 1 1902 } 1903 pfd = pfd + 1 1904 } 1905 return 0 1906} 1907// trees whose TRUNK falls in the +-2-expanded ABSOLUTE range paint their blocks CLIPPED to the 1908// local box, so a tree crossing a strip seam is completed by whichever strip regenerates later. 1909// The trunk condition is PURE (grass by the gen rules: above water, below snow) -- no window peeking. 1910func gentrees(base: i64, lx0: i64, lx1: i64, lz0: i64, lz1: i64, sd: i64) -> i64 { 1911 let sp: *i64 = wsp(base) 1912 if sp[P_TREE] == 0 { return 0 } 1913 let s: *i64 = wst(base) 1914 let wl: i64 = sp[P_WATER] 1915 // scan expanded to +-4 (was +-2): a SPECIES canopy reaches up to radius 4, so a trunk that 1916 // far outside the box can paint inside it -- the strip-seam completion law, wider. Legacy 1917 // worlds are unchanged: an R=2 stamp 3-4 cells out paints nothing in-box (no-op scan rows). 1918 // GE17: a palm's phototropic lean displaces its crown by up to (tb+tv)/3 beyond the frond 1919 // radius, so a palm-genome world widens the seam scan by that maximum lean -- DERIVED from 1920 // the same genome rows the grower reads, not a second constant. Every other shape keeps 1921 // the historic +-4 margin bit-exactly, and the extra scan rows are no-ops by the vset_box 1922 // clip (the standing seam law, same argument as the +-2 -> +-4 widening above). 1923 var mg9: i64 = 4 1924 if ((sp[P_TREESPEC] >> 12) & 7) == 3 { mg9 = 4 + ((sp[P_TREESPEC] & 15) + ((sp[P_TREESPEC] >> 4) & 15))/3 } 1925 var az: i64 = s[S_WOZ] + lz0 - mg9 1926 while az <= s[S_WOZ] + lz1 + mg9 - 1 { 1927 var ax: i64 = s[S_WOX] + lx0 - mg9 1928 while ax <= s[S_WOX] + lx1 + mg9 - 1 { 1929 let hr9: i64 = wheight(base, ax, az, sd) 1930 let h2: i64 = wsp_beach_ocean(sp, ax, az, hr9) // GE13: no trees grow on the sea 1931 // GE17: DRY LAND is where the ocean rule was a NO-OP (h2 == hr9). Seaward of the 1932 // shoreline the ramp lowered this column -- that whole band is the beach slope and 1933 // its wet sand, and vegetation stays off it (palms out of the water, off the wet 1934 // band, by the ocean row's own geometry rather than a second coastline rule). 1935 // Worlds without an ocean row have h2 == hr9 everywhere BY CONSTRUCTION 1936 // (wsp_beach_ocean returns h untouched), so this conjunct changes nothing there. 1937 var trunk: i64 = 0 1938 // the tree altitude ceiling is a SPEC ROW, not an engine constant: hardcoded 19 1939 // silently capped forests for any identity whose land sits higher (gate T52 found 1940 // it -- vale's P_TREE 43->19 barely moved the trunk count because the CEILING, not 1941 // the density row, was binding). 0 = the historic 19, so craft/depths are unchanged. 1942 var tmax: i64 = sp[P_TREEMAX] 1943 if tmax <= 0 { tmax = 19 } 1944 if h2 < tmax { if h2 > wl { if h2 < sp[P_SNOW] { if h2 == hr9 { 1945 if whash(ax*3 + 7, az*5 + 11, sd + 99) % sp[P_TREE] == 0 { trunk = 1 } 1946 } } } } 1947 if trunk == 1 { 1948 let tx: i64 = ax - s[S_WOX] 1949 let tz: i64 = az - s[S_WOZ] 1950 let ts9: i64 = sp[P_TREESPEC] 1951 // W2b: the TREE branch keys on the tree bits (0..17) alone -- a genome carrying 1952 // only understory bits (18+) keeps the LEGACY forest exactly (T57's wood-equality 1953 // tooth), and understory grows in its own pass below regardless of trunk sites. 1954 if (ts9 & 262143) == 0 { 1955 // legacy stamp, byte-for-byte: every identity-only world is unchanged 1956 var ty: i64 = h2 + 1 1957 while ty <= h2 + 4 { vset_box(base, tx, ty, tz, 6, lx0, lx1, lz0, lz1); ty = ty + 1 } 1958 var lz: i64 = tz - 2 1959 while lz <= tz + 2 { 1960 var lx: i64 = tx - 2 1961 while lx <= tx + 2 { 1962 var keep: i64 = 1 1963 if lx == tx { if lz == tz { keep = 0 } } 1964 if keep == 1 { 1965 vset_box(base, lx, h2 + 4, lz, 7, lx0, lx1, lz0, lz1) 1966 if lx >= tx - 1 { if lx <= tx + 1 { if lz >= tz - 1 { if lz <= tz + 1 { 1967 vset_box(base, lx, h2 + 5, lz, 7, lx0, lx1, lz0, lz1) 1968 } } } } 1969 } 1970 lx = lx + 1 1971 } 1972 lz = lz + 1 1973 } 1974 vset_box(base, tx, h2 + 6, tz, 7, lx0, lx1, lz0, lz1) 1975 } else { 1976 // W2 SPECIES GROWER: the individual varies inside the species envelope by 1977 // position hash -- deterministic, seam-safe (paint clipped to the box), 1978 // asset-free. Shapes: 1 dome (squashed integer ellipsoid), 2 pine (diamond 1979 // rings widening down from the tip). Density drops leaves by hash for airy 1980 // canopies. All bounds y-clamped by vset's own vin guard. 1981 let tb9: i64 = ts9 & 15 1982 let tv9: i64 = (ts9 >> 4) & 15 1983 var cr9: i64 = (ts9 >> 8) & 15 1984 if cr9 < 1 { cr9 = 1 } 1985 if cr9 > 4 { cr9 = 4 } 1986 let sh9: i64 = (ts9 >> 12) & 7 1987 let dn9: i64 = (ts9 >> 15) & 7 1988 let hv9: i64 = whash(ax*13 + 5, az*17 + 3, sd + 141) 1989 var th9: i64 = tb9 + hv9 % (tv9 + 1) 1990 if th9 < 2 { th9 = 2 } 1991 if sh9 == 3 { 1992 // GE17: shape 3 = PALM, the frond-rosette grower (wsp_palm_shape). 1993 // dn9 (leaf drop) is deliberately unused there: fronds are already 1994 // sparse lines, not a volume to thin. 1995 wsp_palm_shape(base, sp, tx, tz, h2, th9, cr9, ax, az, sd, lx0, lx1, lz0, lz1) 1996 } else { 1997 var ty2: i64 = h2 + 1 1998 while ty2 <= h2 + th9 { vset_box(base, tx, ty2, tz, 6, lx0, lx1, lz0, lz1); ty2 = ty2 + 1 } 1999 let top9: i64 = h2 + th9 2000 var dy9: i64 = 0 - cr9 2001 while dy9 <= cr9 + 1 { 2002 var dz9: i64 = 0 - cr9 2003 while dz9 <= cr9 { 2004 var dx9: i64 = 0 - cr9 2005 while dx9 <= cr9 { 2006 var put9: i64 = 0 2007 if sh9 == 2 { 2008 if dy9 <= 1 { 2009 var pr9: i64 = 1 - dy9 2010 if pr9 > cr9 { pr9 = cr9 } 2011 var ad9: i64 = dx9 2012 if ad9 < 0 { ad9 = 0 - ad9 } 2013 var az9: i64 = dz9 2014 if az9 < 0 { az9 = 0 - az9 } 2015 if ad9 + az9 <= pr9 { put9 = 1 } 2016 } 2017 } else { 2018 if dx9*dx9 + dz9*dz9 + dy9*dy9*2 <= cr9*cr9 { put9 = 1 } 2019 } 2020 if put9 == 1 { if dn9 > 0 { 2021 if whash(ax*29 + dx9*3 + dy9*7, az*31 + dz9*5, sd + 177) % 8 < dn9 { put9 = 0 } 2022 } } 2023 if put9 == 1 { 2024 var istrunk9: i64 = 0 2025 if dx9 == 0 { if dz9 == 0 { if dy9 < 0 { istrunk9 = 1 } } } 2026 if istrunk9 == 0 { vset_box(base, tx + dx9, top9 + dy9, tz + dz9, 7, lx0, lx1, lz0, lz1) } 2027 } 2028 dx9 = dx9 + 1 2029 } 2030 dz9 = dz9 + 1 2031 } 2032 dy9 = dy9 + 1 2033 } 2034 } 2035 } 2036 } 2037 // W2b UNDERSTORY (genome bits 18-20 density, 21-22 kind 0=tufts 1=shrubs 2=mixed): 2038 // ground vegetation per column, seeded independently of trunks, same grass belt, 2039 // trunk columns excluded; shrub = plus-clump radius 1 (inside the +-4 seam scan). 2040 let ud9: i64 = (sp[P_TREESPEC] >> 18) & 7 2041 if ud9 > 0 { if trunk == 0 { if h2 > wl { if h2 < sp[P_SNOW] { if h2 == hr9 { 2042 if whash(ax*41 + 3, az*43 + 9, sd + 203) % 8 < ud9 { 2043 let uk9: i64 = (sp[P_TREESPEC] >> 21) & 3 2044 let ux5: i64 = ax - s[S_WOX] 2045 let uz5: i64 = az - s[S_WOZ] 2046 var shrub9: i64 = 0 2047 if uk9 == 1 { shrub9 = 1 } 2048 if uk9 == 2 { if whash(ax*7 + 1, az*11 + 5, sd + 209) % 2 == 0 { shrub9 = 1 } } 2049 vset_box(base, ux5, h2 + 1, uz5, 7, lx0, lx1, lz0, lz1) 2050 if shrub9 == 1 { 2051 // vegetation FILLS AIR, never replaces solids: a clump reaching into a 2052 // neighbor column must not eat its trunk or its surface (T57 measured the 2053 // unguarded version eating 792 wood blocks). Deterministic under the fixed 2054 // scan order -- a later trunk overwrites a leaf, so wood wins either way. 2055 if vget(base, ux5 + 1, h2 + 1, uz5) == 0 { vset_box(base, ux5 + 1, h2 + 1, uz5, 7, lx0, lx1, lz0, lz1) } 2056 if vget(base, ux5 - 1, h2 + 1, uz5) == 0 { vset_box(base, ux5 - 1, h2 + 1, uz5, 7, lx0, lx1, lz0, lz1) } 2057 if vget(base, ux5, h2 + 1, uz5 + 1) == 0 { vset_box(base, ux5, h2 + 1, uz5 + 1, 7, lx0, lx1, lz0, lz1) } 2058 if vget(base, ux5, h2 + 1, uz5 - 1) == 0 { vset_box(base, ux5, h2 + 1, uz5 - 1, 7, lx0, lx1, lz0, lz1) } 2059 if vget(base, ux5, h2 + 2, uz5) == 0 { vset_box(base, ux5, h2 + 2, uz5, 7, lx0, lx1, lz0, lz1) } 2060 } 2061 } 2062 } } } } } 2063 ax = ax + 1 2064 } 2065 az = az + 1 2066 } 2067 return 0 2068} 2069 2070// ---------- W3 SETTLEMENTS (GR6, the Infinigen-Indoors expansion, 2026-08-17) ---------- 2071// Room LAYOUTS are solved OFFLINE by nx_indoorgen -- declarative constraints through the estate's 2072// part-placement solver, quantized, accept-rule-checked, REFUSED when unsatisfiable -- and land 2073// here as the imported data table (nx_indoorgen_data.nx). The engine only STAMPS: sites ride a 2074// coarse grid of BLDG_SITE-block cells hashed on ABSOLUTE coords (window-independent, so a 2075// building regenerates identically when the streaming window slides back -- the tree seam law at 2076// building scale); jitter, rotation and layout variant come from the same hash; and a building 2077// always fits INSIDE its own site cell (jitter 8 + max half-footprint 5 < SITE/2 = 20), so two 2078// sites can never collide. Terrain must be near-flat (4 rotated corners within 1 of the anchor 2079// height), dry and below the snowline, or the site deterministically stays empty. Painting is 2080// CLIPPED to the regen box (vset_box), and ej_overlay runs after every strip regen -- players can 2081// remodel a building and their edits win, exactly as they do against trees. 2082const BLDG_SITE: i64 = 40 // site-cell stride, blocks 2083const IG_SCAN0: i64 = 10 // W3 solve: first candidate anchor offset inside the site cell 2084const IG_SCANSTEP: i64 = 10 // candidate grid step: 3x3 covers offsets 10/20/30; footprint 2085 // half-extent (bw/2+1 <= 4) keeps every candidate's shell inside 2086 // its own cell, so neighbor cells can never overlap -- the 2087 // no-overlap rule holds by construction, not by test 2088const IG_MAXSLOPE: i64 = 2 // pre-declared accept rule: corners may deviate <=2 blocks from 2089 // the anchor; the IG_FOUND skirt reaches ground at exactly this 2090 // bound, so an accepted site is grounded. An unsatisfiable cell 2091 // stamps NOTHING (refuse, never float -- the constraint-solve law) 2092const IG_FOUND: i64 = 3 // foundation skirt courses below the floor (IG_MAXSLOPE + 1) 2093 2094// floor division for ABSOLUTE (possibly negative) coords -- truncating division reads the cell 2095// left of origin as cell 0 twice, which would double-place one building at the world seam 2096func igfloor(a: i64, b: i64) -> i64 { 2097 var q: i64 = a/b 2098 if a % b < 0 { q = q - 1 } 2099 return q 2100} 2101func ig_rotx(r: i64, x: i64, z: i64) -> i64 { 2102 if r == 1 { return z } 2103 if r == 2 { return 0 - x } 2104 if r == 3 { return 0 - z } 2105 return x 2106} 2107func ig_rotz(r: i64, x: i64, z: i64) -> i64 { 2108 if r == 1 { return 0 - x } 2109 if r == 2 { return 0 - z } 2110 if r == 3 { return x } 2111 return z 2112} 2113func genbuildings(base: i64, lx0: i64, lx1: i64, lz0: i64, lz1: i64, sd: i64) -> i64 { 2114 let sp: *i64 = wsp(base) 2115 if sp[P_BLDG] <= 0 { return 0 } 2116 let s: *i64 = wst(base) 2117 let wl: i64 = sp[P_WATER] 2118 let arch: i64 = sp[P_BLDGSPEC] & 15 2119 let dims: i64 = igd_dims(arch) 2120 let bw: i64 = dims & 255 2121 let bd: i64 = (dims >> 8) & 255 2122 let bh: i64 = (dims >> 16) & 255 2123 let mats: i64 = igd_mats(arch) 2124 let mwall: i64 = mats & 255 2125 let mfloor: i64 = (mats >> 8) & 255 2126 let mroof: i64 = (mats >> 16) & 255 2127 let dxo: i64 = igd_doorx(arch) 2128 let gx0: i64 = igfloor(s[S_WOX] + lx0 - BLDG_SITE + 1, BLDG_SITE) 2129 let gx1: i64 = igfloor(s[S_WOX] + lx1 + BLDG_SITE - 1, BLDG_SITE) 2130 let gz0: i64 = igfloor(s[S_WOZ] + lz0 - BLDG_SITE + 1, BLDG_SITE) 2131 let gz1: i64 = igfloor(s[S_WOZ] + lz1 + BLDG_SITE - 1, BLDG_SITE) 2132 var gz: i64 = gz0 2133 while gz <= gz1 { 2134 var gx: i64 = gx0 2135 while gx <= gx1 { 2136 var put: i64 = 1 2137 if whash(gx*7 + 1, gz*13 + 5, sd + 331) % sp[P_BLDG] != 0 { put = 0 } 2138 let rot: i64 = whash(gx*17 + 2, gz*19 + 6, sd + 499) % 4 2139 let bv: i64 = whash(gx*23 + 4, gz*29 + 8, sd + 541) % IGD_NVAR 2140 // W3 SOLVE: the anchor is not rolled, it is SEARCHED. 3x3 candidates per cell, 2141 // flattest wins (first-min on the fixed scan order = deterministic), and wheight is 2142 // pure noise over absolute coords, so the choice is window-independent (T73's law). 2143 // The measured failure this replaces: one hash-jittered roll + a dh>1 veto rejected 2144 // EVERY vale and craft cell (probe 2026-08-18: dhmax 2..12 across 36 cells) -- a 2145 // stamp with a veto is not a solve, and the village never existed. 2146 var axc: i64 = 0 2147 var azc: i64 = 0 2148 var h: i64 = 0 2149 var bestd9: i64 = 99 2150 if put == 1 { 2151 var co9: i64 = 0 2152 while co9 < 9 { 2153 let cox9: i64 = gx*BLDG_SITE + IG_SCAN0 + (co9 % 3)*IG_SCANSTEP 2154 let coz9: i64 = gz*BLDG_SITE + IG_SCAN0 + (co9 / 3)*IG_SCANSTEP 2155 let hh9: i64 = wsp_beach_ocean(sp, cox9, coz9, wheight(base, cox9, coz9, sd)) // GE13: a site in the sea reads its SHAPED height -> the h<=wl veto below refuses it 2156 var dmax9: i64 = 0 2157 var ci: i64 = 0 2158 while ci < 4 { 2159 var clx: i64 = 0 - 1 2160 var clz: i64 = 0 - 1 2161 if ci == 1 { clx = bw } 2162 if ci == 2 { clz = bd } 2163 if ci == 3 { clx = bw; clz = bd } 2164 let cax: i64 = cox9 + ig_rotx(rot, clx - bw/2, clz - bd/2) 2165 let caz: i64 = coz9 + ig_rotz(rot, clx - bw/2, clz - bd/2) 2166 var dh: i64 = wsp_beach_ocean(sp, cax, caz, wheight(base, cax, caz, sd)) - hh9 2167 if dh < 0 { dh = 0 - dh } 2168 if dh > dmax9 { dmax9 = dh } 2169 ci = ci + 1 2170 } 2171 if dmax9 < bestd9 { bestd9 = dmax9; axc = cox9; azc = coz9; h = hh9 } 2172 co9 = co9 + 1 2173 } 2174 if bestd9 > IG_MAXSLOPE { put = 0 } 2175 if h <= wl { put = 0 } 2176 if h >= sp[P_SNOW] { put = 0 } 2177 if h + bh + 2 >= WY { put = 0 } 2178 } 2179 if put == 1 { 2180 // floor+foundation ring at h, walls h+1..h+bh (door and windows carved as air, 2181 // interior cleared of terrain and canopy), roof plate at h+bh+1 2182 var lz: i64 = 0 - 1 2183 while lz <= bd { 2184 var lx: i64 = 0 - 1 2185 while lx <= bw { 2186 let ax: i64 = axc + ig_rotx(rot, lx - bw/2, lz - bd/2) - s[S_WOX] 2187 let az: i64 = azc + ig_rotz(rot, lx - bw/2, lz - bd/2) - s[S_WOZ] 2188 var ring: i64 = 0 2189 if lx == 0 - 1 { ring = 1 } 2190 if lx == bw { ring = 1 } 2191 if lz == 0 - 1 { ring = 1 } 2192 if lz == bd { ring = 1 } 2193 var fb2: i64 = mfloor 2194 if ring == 1 { fb2 = mwall } 2195 vset_box(base, ax, h, az, fb2, lx0, lx1, lz0, lz1) 2196 // foundation skirt: IG_FOUND courses below the floor on the ring, so a 2197 // site accepted at the IG_MAXSLOPE bound is grounded on every side. On 2198 // flat ground the courses embed in terrain (a real footing, seen when 2199 // mined) -- bounded, deterministic, no reads. 2200 if ring == 1 { 2201 var fy9: i64 = h - 1 2202 while fy9 >= h - IG_FOUND { 2203 if fy9 >= 0 { vset_box(base, ax, fy9, az, mwall, lx0, lx1, lz0, lz1) } 2204 fy9 = fy9 - 1 2205 } 2206 } 2207 var wy2: i64 = h + 1 2208 while wy2 <= h + bh { 2209 var wb2: i64 = 0 2210 if ring == 1 { 2211 wb2 = mwall 2212 if lx == dxo { if lz == 0 - 1 { if wy2 <= h + 2 { wb2 = 0 } } } 2213 if wy2 == h + 2 { if lz == bd/2 { 2214 if lx == 0 - 1 { wb2 = 0 } 2215 if lx == bw { wb2 = 0 } 2216 } } 2217 } 2218 vset_box(base, ax, wy2, az, wb2, lx0, lx1, lz0, lz1) 2219 wy2 = wy2 + 1 2220 } 2221 vset_box(base, ax, h + bh + 1, az, mroof, lx0, lx1, lz0, lz1) 2222 lx = lx + 1 2223 } 2224 lz = lz + 1 2225 } 2226 // the solved furniture rows, rotated with the shell 2227 var fi: i64 = 0 2228 while fi < igd_nf(arch, bv) { 2229 let fr: i64 = igd_f(arch, bv, fi) 2230 let fax: i64 = axc + ig_rotx(rot, (fr & 255) - bw/2, ((fr >> 8) & 255) - bd/2) - s[S_WOX] 2231 let faz: i64 = azc + ig_rotz(rot, (fr & 255) - bw/2, ((fr >> 8) & 255) - bd/2) - s[S_WOZ] 2232 vset_box(base, fax, h + ((fr >> 24) & 255), faz, (fr >> 16) & 255, lx0, lx1, lz0, lz1) 2233 fi = fi + 1 2234 } 2235 // world truth: count the stamp when its anchor lands inside the regen box 2236 let axl: i64 = axc - s[S_WOX] 2237 let azl: i64 = azc - s[S_WOZ] 2238 if axl >= lx0 { if axl < lx1 { if azl >= lz0 { if azl < lz1 { 2239 s[S_BLDG] = s[S_BLDG] + 1 2240 s[S_BLDGX] = axl 2241 s[S_BLDGY] = h 2242 s[S_BLDGZ] = azl 2243 } } } } 2244 } 2245 gx = gx + 1 2246 } 2247 gz = gz + 1 2248 } 2249 return 0 2250} 2251 2252func genworld(base: i64, sd: i64) -> i64 { 2253 let s: *i64 = wst(base) 2254 var z: i64 = 0 2255 while z < WZ { 2256 var x: i64 = 0 2257 while x < WX { 2258 gencol(base, x, z, x + s[S_WOX], z + s[S_WOZ], sd) 2259 x = x + 1 2260 } 2261 z = z + 1 2262 } 2263 gentrees(base, 0, WX, 0, WZ, sd) 2264 genbuildings(base, 0, WX, 0, WZ, sd) 2265 return 0 2266} 2267 2268// ---------- v6 STREAMING: slide the window one stride along x or z ---------- 2269// The world is unbounded; the arena is the cache. Order matters: move kept voxels -> bump the 2270// origin -> regen the incoming strip from absolute coords -> repaint its trees -> overlay the 2271// journal (edits WIN) -> translate every arena-space coordinate (player, spawn, mobs) -> rebuild 2272// wmax -> invalidate the crosshair cache. One call = 16 blocks; ticks trigger it at the margins. 2273// Preserve the retained continuous-height cache at the same absolute world coordinates. 2274// Incoming columns are regenerated by gencol after the origin advances. 2275func wc_hq_shift(base: i64, dx: i64, dz: i64) -> i64 { 2276 var z: i64 = 0 2277 var zend: i64 = WZ 2278 var zs: i64 = 1 2279 if dz < 0 { z = WZ - 1; zend = 0 - 1; zs = 0 - 1 } 2280 while z != zend { 2281 var x: i64 = 0 2282 var xend: i64 = WX 2283 var xs: i64 = 1 2284 if dx < 0 { x = WX - 1; xend = 0 - 1; xs = 0 - 1 } 2285 while x != xend { 2286 let sx: i64 = x + dx 2287 let sz: i64 = z + dz 2288 if sx >= 0 { if sx < WX { if sz >= 0 { if sz < WZ { 2289 hq_set(base, x, z, hq_get(base, sx, sz)) 2290 } } } } 2291 x = x + xs 2292 } 2293 z = z + zs 2294 } 2295 return 0 2296} 2297 2298func wc_shift(base: i64, dx: i64, dz: i64) -> i64 { 2299 if dx==0&&dz==0 { return 0 } 2300 let s: *i64 = wst(base) 2301 let v: *u8 = wvx(base) 2302 let sd: i64 = s[S_SEED] 2303 if dx != 0 { 2304 wc_hq_shift(base, dx, 0) 2305 var y: i64 = 0 2306 while y < WY { 2307 var z: i64 = 0 2308 while z < WZ { 2309 let row: i64 = (y*WZ + z)*WX 2310 if dx > 0 { 2311 var x: i64 = 0 2312 while x < WX - dx { v[row + x] = v[row + x + dx]; x = x + 1 } 2313 } else { 2314 var x2: i64 = WX - 1 2315 while x2 >= 0 - dx { v[row + x2] = v[row + x2 + dx]; x2 = x2 - 1 } 2316 } 2317 z = z + 1 2318 } 2319 y = y + 1 2320 } 2321 s[S_WOX] = s[S_WOX] + dx 2322 var sx0: i64 = 0 2323 var sx1: i64 = 0 - dx 2324 if dx > 0 { sx0 = WX - dx; sx1 = WX } 2325 var rz: i64 = 0 2326 while rz < WZ { 2327 var rx: i64 = sx0 2328 while rx < sx1 { gencol(base, rx, rz, rx + s[S_WOX], rz + s[S_WOZ], sd); rx = rx + 1 } 2329 rz = rz + 1 2330 } 2331 gentrees(base, sx0, sx1, 0, WZ, sd) 2332 genbuildings(base, sx0, sx1, 0, WZ, sd) 2333 ej_overlay(base, sx0, sx1, 0, WZ) 2334 } 2335 if dz != 0 { 2336 wc_hq_shift(base, 0, dz) 2337 var y2: i64 = 0 2338 while y2 < WY { 2339 let plane: i64 = y2*WZ*WX 2340 if dz > 0 { 2341 var z2: i64 = 0 2342 while z2 < WZ - dz { 2343 let dstr: i64 = plane + z2*WX 2344 let srcr: i64 = plane + (z2 + dz)*WX 2345 var x3: i64 = 0 2346 while x3 < WX { v[dstr + x3] = v[srcr + x3]; x3 = x3 + 1 } 2347 z2 = z2 + 1 2348 } 2349 } else { 2350 var z3: i64 = WZ - 1 2351 while z3 >= 0 - dz { 2352 let dstr2: i64 = plane + z3*WX 2353 let srcr2: i64 = plane + (z3 + dz)*WX 2354 var x4: i64 = 0 2355 while x4 < WX { v[dstr2 + x4] = v[srcr2 + x4]; x4 = x4 + 1 } 2356 z3 = z3 - 1 2357 } 2358 } 2359 y2 = y2 + 1 2360 } 2361 s[S_WOZ] = s[S_WOZ] + dz 2362 var sz0: i64 = 0 2363 var sz1: i64 = 0 - dz 2364 if dz > 0 { sz0 = WZ - dz; sz1 = WZ } 2365 var rz2: i64 = sz0 2366 while rz2 < sz1 { 2367 var rx2: i64 = 0 2368 while rx2 < WX { gencol(base, rx2, rz2, rx2 + s[S_WOX], rz2 + s[S_WOZ], sd); rx2 = rx2 + 1 } 2369 rz2 = rz2 + 1 2370 } 2371 gentrees(base, 0, WX, sz0, sz1, sd) 2372 genbuildings(base, 0, WX, sz0, sz1, sd) 2373 ej_overlay(base, 0, WX, sz0, sz1) 2374 } 2375 // translate every arena-space coordinate by the slide 2376 s[S_CX] = s[S_CX] - dx*256 2377 s[S_CZ] = s[S_CZ] - dz*256 2378 s[S_SPX] = wclamp(s[S_SPX] - dx*256, 2*256, (WX - 2)*256) 2379 s[S_SPZ] = wclamp(s[S_SPZ] - dz*256, 2*256, (WZ - 2)*256) 2380 s[S_LBX] = s[S_LBX] - dx 2381 s[S_LBZ] = s[S_LBZ] - dz 2382 let m: *i64 = mobp(base) 2383 var k: i64 = 0 2384 while k < en_count(m) { 2385 let h: i64 = en_nth(m, k) 2386 // Changing the resident cache must not move an entity in world space. 2387 en_set(m, h, MC_X, en_get(m, h, MC_X) - dx*256) 2388 en_set(m, h, MC_Z, en_get(m, h, MC_Z) - dz*256) 2389 k = k + 1 2390 } 2391 wc_wmax(base) 2392 wc_steer_reset(base) 2393 wc_soft_seat_all(base) // the world slid under every girl: re-seat springs 2394 if dx != 0 { s[S_AGEN] = s[S_AGEN] + 1 } else { if dz != 0 { s[S_AGEN] = s[S_AGEN] + 1 } } // GE57: a shift that MOVED is a new arena generation (a zero shift is not) 2395 s[S_HOK] = 0 2396 return 0 2397} 2398 2399// ---------- DDA raycast ---------- 2400// marches from (S_CX,S_CY,S_CZ) along (dx,dy,dz) (any scale). On hit writes out[0..4] = 2401// cellx,celly,cellz,face,tcross and returns the step count; returns -1 on miss (sky). 2402// skipw=1 treats water as air (the transparency continuation ray). The voxel read is INLINED -- 2403// this loop runs ~2-8M times a second and a per-step call was the measured overhead. 2404// GE53: march the continuous surface. pos(t) = cam + d*t/65536 (Q8). Quarter-cell steps along the fastest 2405// axis, then six bisections at the crossing -- sub-block precision on a field that is itself sub-block. 2406// Returns the cells travelled (the fog term); writes the column's top cell, face 3 and t. -1 = no ground. 2407func wray_surf_origin(base: i64, dx: i64, dy: i64, dz: i64, maxsteps: i64, out: *i64, view: i64) -> i64 { 2408 let s: *i64 = wst(base) 2409 var cxq: i64 = s[S_CX] 2410 if view==1{cxq=wc_view(base,0)} 2411 var cyq: i64 = s[S_CY] 2412 if view==1{cyq=wc_view(base,1)} 2413 var czq: i64 = s[S_CZ] 2414 if view==1{czq=wc_view(base,2)} 2415 var dm: i64 = dx 2416 if dm < 0 { dm = 0 - dm } 2417 var ady: i64 = dy 2418 if ady < 0 { ady = 0 - ady } 2419 var adz: i64 = dz 2420 if adz < 0 { adz = 0 - adz } 2421 if ady > dm { dm = ady } 2422 if adz > dm { dm = adz } 2423 if dm == 0 { return 0 - 1 } 2424 let dt: i64 = WC_SURF_STEP_Q8*WATER_MAGIC_65536/dm // a quarter cell along the fastest axis 2425 var t: i64 = 0 2426 var tprev: i64 = 0 2427 var step: i64 = 0 2428 let nmax: i64 = maxsteps*4 2429 var hit: i64 = 0 2430 while step < nmax { 2431 t = t + dt 2432 let py: i64 = cyq + dy*t/WATER_MAGIC_65536 2433 let px: i64 = cxq + dx*t/WATER_MAGIC_65536 2434 let pz: i64 = czq + dz*t/WATER_MAGIC_65536 2435 if dy >= 0 { if py > WY*256 { return 0 - 1 } } // climbing above every column: sky 2436 if px < 0 - 8*256 { return 0 - 1 } 2437 if px > (WX + 8)*256 { return 0 - 1 } 2438 if pz < 0 - 8*256 { return 0 - 1 } 2439 if pz > (WZ + 8)*256 { return 0 - 1 } 2440 let hs: i64 = wc_surface_source(base, px, pz) 2441 if hs >= 0 { if py <= hs { hit = 1; step = nmax } } 2442 if hit == 0 { tprev = t; step = step + 1 } 2443 } 2444 if hit == 0 { return 0 - 1 } 2445 var lo: i64 = tprev 2446 var hi: i64 = t 2447 var k: i64 = 0 2448 while k < 6 { 2449 let mid: i64 = (lo + hi)/2 2450 let py2: i64 = cyq + dy*mid/WATER_MAGIC_65536 2451 let px2: i64 = cxq + dx*mid/WATER_MAGIC_65536 2452 let pz2: i64 = czq + dz*mid/WATER_MAGIC_65536 2453 let h2: i64 = wc_surface_source(base, px2, pz2) 2454 var below: i64 = 0 2455 if h2 >= 0 { if py2 <= h2 { below = 1 } } 2456 if below == 1 { hi = mid } else { lo = mid } 2457 k = k + 1 2458 } 2459 let th: i64 = hi 2460 let hx: i64 = cxq + dx*th/WATER_MAGIC_65536 2461 let hz: i64 = czq + dz*th/WATER_MAGIC_65536 2462 let cx: i64 = hx >> 8 2463 let cz: i64 = hz >> 8 2464 // the colour cell: the column's top SOLID block, found by scanning down from the hit cell -- so it 2465 // matches whatever gencol cut, whichever rounding convention built the column (the field rounds, 2466 // wheight_raw truncates; guessing the index from the field put the cell one block up, in air) 2467 let hy: i64 = cyq + dy*th/WATER_MAGIC_65536 2468 var yy: i64 = hy >> 8 2469 if yy > WY - 1 { yy = WY - 1 } 2470 var run9: i64 = 1 2471 while run9 == 1 { 2472 if yy <= 0 { run9 = 0 } 2473 if run9 == 1 { if vget(base, cx, yy, cz) != 0 { run9 = 0 } } 2474 if run9 == 1 { yy = yy - 1 } 2475 } 2476 out[0] = cx 2477 out[1] = yy 2478 out[2] = cz 2479 out[3] = 3 2480 out[4] = th 2481 return th/(dt*(256/WC_SURF_STEP_Q8)) + 1 2482} 2483// GE53: under P_SURF the ground is the field and structures stay cells -- the nearer hit wins. With the 2484// row OFF this is exactly the cell marcher (wray3 with no terrain skip), so every shipped world is untouched. 2485func wray_surf(base: i64, dx: i64, dy: i64, dz: i64, maxsteps: i64, out: *i64) -> i64 {return wray_surf_origin(base,dx,dy,dz,maxsteps,out,0)} 2486 2487func wray2_origin(base: i64, dx: i64, dy: i64, dz: i64, maxsteps: i64, out: *i64, skipw: i64, view: i64) -> i64 { 2488 if wsp(base)[P_SURF] != 1 { return wray3_origin(base, dx, dy, dz, maxsteps, out, skipw, 0, view) } 2489 let ss: i64 = wray_surf_origin(base, dx, dy, dz, maxsteps, out, view) 2490 let s0: i64 = out[0] 2491 let s1: i64 = out[1] 2492 let s2: i64 = out[2] 2493 let s3: i64 = out[3] 2494 let s4: i64 = out[4] 2495 let sd: i64 = wray3_origin(base, dx, dy, dz, maxsteps, out, skipw, 1, view) 2496 if sd < 0 { 2497 if ss < 0 { return 0 - 1 } 2498 out[0] = s0 2499 out[1] = s1 2500 out[2] = s2 2501 out[3] = s3 2502 out[4] = s4 2503 return ss 2504 } 2505 if ss < 0 { return sd } 2506 if out[4] <= s4 { return sd } 2507 out[0] = s0 2508 out[1] = s1 2509 out[2] = s2 2510 out[3] = s3 2511 out[4] = s4 2512 return ss 2513} 2514func wray2(base: i64, dx: i64, dy: i64, dz: i64, maxsteps: i64, out: *i64, skipw: i64) -> i64 {return wray2_origin(base,dx,dy,dz,maxsteps,out,skipw,0)} 2515 2516func wray3_origin(base: i64, dx: i64, dy: i64, dz: i64, maxsteps: i64, out: *i64, skipw: i64, skipt: i64, view: i64) -> i64 { 2517 let s: *i64 = wst(base) 2518 var cxq: i64 = s[S_CX] 2519 if view==1{cxq=wc_view(base,0)} 2520 var cyq: i64 = s[S_CY] 2521 if view==1{cyq=wc_view(base,1)} 2522 var czq: i64 = s[S_CZ] 2523 if view==1{czq=wc_view(base,2)} 2524 var cellx: i64 = cxq >> 8 2525 var celly: i64 = cyq >> 8 2526 var cellz: i64 = czq >> 8 2527 let HUGE: i64 = RAY_HUGE 2528 var stpx: i64 = 1 2529 if dx < 0 { stpx = 0-1 } 2530 var stpy: i64 = 1 2531 if dy < 0 { stpy = 0-1 } 2532 var stpz: i64 = 1 2533 if dz < 0 { stpz = 0-1 } 2534 // t units: pos_q8(t) = pos + d*t/65536; crossing one cell on axis c costs 256*65536/|dc| 2535 var tdx: i64 = HUGE 2536 if dx != 0 { tdx = 256*WATER_MAGIC_65536 / dx; if tdx < 0 { tdx = 0 - tdx } } 2537 var tdy: i64 = HUGE 2538 if dy != 0 { tdy = 256*WATER_MAGIC_65536 / dy; if tdy < 0 { tdy = 0 - tdy } } 2539 var tdz: i64 = HUGE 2540 if dz != 0 { tdz = 256*WATER_MAGIC_65536 / dz; if tdz < 0 { tdz = 0 - tdz } } 2541 var bx: i64 = (cellx << 8) - cxq // distance to boundary, Q8 (negative side) 2542 if stpx == 1 { bx = bx + 256 } 2543 var tmx: i64 = HUGE 2544 if dx != 0 { tmx = bx*WATER_MAGIC_65536 / dx; if tmx < 0 { tmx = 0 - tmx } } 2545 var by: i64 = (celly << 8) - cyq 2546 if stpy == 1 { by = by + 256 } 2547 var tmy: i64 = HUGE 2548 if dy != 0 { tmy = by*WATER_MAGIC_65536 / dy; if tmy < 0 { tmy = 0 - tmy } } 2549 var bz: i64 = (cellz << 8) - czq 2550 if stpz == 1 { bz = bz + 256 } 2551 var tmz: i64 = HUGE 2552 if dz != 0 { tmz = bz*WATER_MAGIC_65536 / dz; if tmz < 0 { tmz = 0 - tmz } } 2553 let vxp: *u8 = (base + O_VOX) as *u8 2554 var step: i64 = 0 2555 while step < maxsteps { 2556 var face: i64 = 0 2557 var tcross: i64 = 0 2558 if tmx <= tmy { if tmx <= tmz { 2559 cellx = cellx + stpx 2560 tcross = tmx 2561 tmx = tmx + tdx 2562 face = 1 2563 if stpx == 1 { face = 2 } // stepped +x => hit the -x... face 2 = west-lit 2564 } } 2565 if face == 0 { if tmy <= tmz { 2566 celly = celly + stpy 2567 tcross = tmy 2568 tmy = tmy + tdy 2569 face = 3 2570 if stpy == 1 { face = 4 } // stepped up => hit the block's bottom 2571 } } 2572 if face == 0 { 2573 cellz = cellz + stpz 2574 tcross = tmz 2575 tmz = tmz + tdz 2576 face = 5 2577 if stpz == 1 { face = 6 } 2578 } 2579 if celly >= WY { if stpy >= 0 { return 0 - 1 } } // heading skyward above the world 2580 if celly > s[S_WMAX] { if stpy >= 0 { return 0 - 1 } } // above every solid block, not diving 2581 if cellx < 0-8 { return 0 - 1 } 2582 if cellx > WX+8 { return 0 - 1 } 2583 if cellz < 0-8 { return 0 - 1 } 2584 if cellz > WZ+8 { return 0 - 1 } 2585 if celly < 0 { return 0 - 1 } 2586 var b: i64 = 0 2587 if cellx >= 0 { if cellx < WX { if celly < WY { if cellz >= 0 { if cellz < WZ { 2588 b = (vxp[(celly*WZ + cellz)*WX + cellx] & 0xff) as i64 2589 } } } } } 2590 if skipw == 1 { if b == 4 { b = 0 } } 2591 if skipt == 1 { if wterrain(b) == 1 { b = 0 } } // GE53: the ground is the field, not these cells 2592 if b != 0 { 2593 out[0] = cellx 2594 out[1] = celly 2595 out[2] = cellz 2596 out[3] = face 2597 out[4] = tcross // crossing t: hit point = pos + d*t/WATER_MAGIC_65536 (Q8) 2598 return step + 1 2599 } 2600 step = step + 1 2601 } 2602 return 0 - 1 2603} 2604 2605func wray3(base: i64, dx: i64, dy: i64, dz: i64, maxsteps: i64, out: *i64, skipw: i64, skipt: i64) -> i64 {return wray3_origin(base,dx,dy,dz,maxsteps,out,skipw,skipt,0)} 2606 2607func wray(base: i64, dx: i64, dy: i64, dz: i64, maxsteps: i64, out: *i64) -> i64 { 2608 return wray2(base, dx, dy, dz, maxsteps, out, 0) 2609} 2610 2611// block base colour -- from the SPEC PALETTE (the game's look is data, not code) 2612func wcol(base: i64, b: i64) -> i64 { 2613 if b < 0 { return wpack(255, 0, 255) } 2614 if b >= 12 { if b <= 16 { return wsp(base)[P_PAL2 + b - 12] } } 2615 if b > 16 { return wpack(255, 0, 255) } 2616 if b > 11 { return wpack(255, 0, 255) } 2617 return wsp(base)[P_PAL + b] 2618} 2619// hotbar slot -> placeable block type 2620func sel_block(sel: i64) -> i64 { 2621 if sel == 1 { return 2 } // dirt 2622 if sel == 2 { return 6 } // wood 2623 if sel == 3 { return 7 } // leaves 2624 if sel == 4 { return 5 } // sand 2625 if sel == 5 { return B_FARM } // the HOE: tills the targeted grass/dirt top 2626 if sel == 6 { return B_CROP0 } // SEEDS: plant onto farmland 2627 return 3 // stone 2628} 2629// face brightness permil: top lit, bottom dark, x/z sides distinct so edges READ as 3d 2630func wface_l(face: i64) -> i64 { 2631 if face == 3 { return 1000 } 2632 if face == 4 { return 420 } 2633 if face == 1 { return 760 } 2634 if face == 2 { return 700 } 2635 if face == 5 { return 620 } 2636 return 560 2637} 2638func wsky(base: i64, syy: i64) -> i64 { 2639 let sp: *i64 = wsp(base) 2640 let hor: i64 = sp[P_SKYHOR] 2641 let top: i64 = sp[P_SKYTOP] 2642 // DERIVED, NOT PICKED (2026-08-29). RH is the q=8 fossil: line 91 of this file declares that 2643 // no resolution number below it is chosen by hand, and RW/RH/FOC three lines under that are 2644 // exactly 1920/8, 1200/8 and 1920/16. This function divided the horizon-to-zenith ramp by that 2645 // frozen 150 while the frame is wc_rh(base) tall, so for any q < 8 the ramp COMPLETED in the 2646 // bottom 150 rows and every row above saturated at P_SKYTOP -- the two spec rows describe a 2647 // gradient the visitor never saw. At q=1, which is exactly what nx_world_snap forces through 2648 // WS_Q_NATIVE for published world art, that is 87.5% of the sky column flat. 2649 // base is already a parameter here and wc_rh is the declared ONE OWNER of the written extent, 2650 // so the derivation needs no new plumbing and no hoist. 2651 var rh: i64 = wc_rh(base) 2652 if rh < 1 { rh = 1 } // q is 1..24 so this cannot fire; it exists so 2653 // that a bad q can never divide by zero here 2654 let t: i64 = wclamp(syy + rh/2, 0, rh) // 0 bottom .. rh top 2655 let r: i64 = (hor & 255) + ((top & 255) - (hor & 255))*t/rh 2656 let g: i64 = ((hor >> 8) & 255) + (((top >> 8) & 255) - ((hor >> 8) & 255))*t/rh 2657 let b: i64 = ((hor >> 16) & 255) + (((top >> 16) & 255) - ((hor >> 16) & 255))*t/rh 2658 return wpack(r, g, b) 2659} 2660// clouds: a flat noise plane above the world, sampled where an upward ray crosses it, slowly 2661// drifting with time. Returns 0..255 coverage for blending into the sky. 2662func wcloud(camx: i64, camy: i64, camz: i64, dx: i64, dy: i64, dz: i64, t: i64) -> i64 { 2663 if dy < 40 { return 0 } 2664 let plane: i64 = 56*256 // cloud deck above the 48-high world 2665 let tq: i64 = (plane - camy)*WATER_MAGIC_65536/dy 2666 if tq <= 0 { return 0 } 2667 let cx: i64 = (camx + dx*tq/WATER_MAGIC_65536) >> 9 // 2-block cloud texels 2668 let cz: i64 = (camz + dz*tq/WATER_MAGIC_65536) >> 9 2669 let n: i64 = wnoise(cx + t/40, cz + t/90, 6, 777) 2670 if n < 148 { return 0 } 2671 var cov: i64 = (n - 148)*255/60 2672 if cov > 235 { cov = 235 } 2673 return cov 2674} 2675// sky with a SUN: disc + glow around the sun's projected ray-pixel position (sunon=0 -> plain sky) 2676func wsky2(base: i64, syy: i64, px: i64, py: i64, sunx: i64, suny: i64, sunon: i64) -> i64 { 2677 let base2: i64 = wsky(base, syy) 2678 if sunon == 0 { return base2 } 2679 let ddx: i64 = px - sunx 2680 let ddy: i64 = py - suny 2681 let d2: i64 = ddx*ddx + ddy*ddy 2682 if d2 < 36 { return wpack(255, 250, 224) } // the disc 2683 if d2 < 900 { // the glow 2684 let w2: i64 = 255 - d2*255/900 2685 var r: i64 = (base2 & 255) + (255 - (base2 & 255))*w2/300 2686 var g: i64 = ((base2 >> 8) & 255) + (250 - ((base2 >> 8) & 255))*w2/340 2687 var b: i64 = ((base2 >> 16) & 255) + (224 - ((base2 >> 16) & 255))*w2/460 2688 return wpack(wclamp(r,0,255), wclamp(g,0,255), wclamp(b,0,255)) 2689 } 2690 // ordered 2x2 dither breaks the gradient banding lines 2691 if ((px ^ py) & 1) == 1 { 2692 return wpack(wclamp((base2 & 255) + 2, 0, 255), wclamp(((base2 >> 8) & 255) + 2, 0, 255), wclamp(((base2 >> 16) & 255) + 2, 0, 255)) 2693 } 2694 return base2 2695} 2696// textured face shading: per-texel hash variation from the HIT POINT's in-face UV (Q8 fractions), 2697// per-type character (wood grain, leaf speckle, water shimmer, ore mottle), edge BEVEL so the 2698// block grid reads crisply, then face light and step fog. All integer, all deterministic. 2699// corner AO: darken a face edge when a solid block sits beside it in the face's outward layer -- 2700// the classic soft-corner cue that makes voxel scenes read as lit geometry instead of flat tiles 2701func wao(base: i64, cx2: i64, cy2b: i64, cz2: i64, face: i64, u: i64, v: i64) -> i64 { 2702 var ox2: i64 = cx2 2703 var oy2: i64 = cy2b 2704 var oz2: i64 = cz2 2705 if face == 1 { ox2 = ox2 + 1 } 2706 if face == 2 { ox2 = ox2 - 1 } 2707 if face == 3 { oy2 = oy2 + 1 } 2708 if face == 4 { oy2 = oy2 - 1 } 2709 if face == 5 { oz2 = oz2 + 1 } 2710 if face == 6 { oz2 = oz2 - 1 } 2711 var ao: i64 = 0 2712 // u-axis neighbours (u maps to x on y/z faces, to z on x faces) 2713 if u < 44 { 2714 var hit1: i64 = 0 2715 if face == 1 { hit1 = vsolid(base, ox2, oy2, oz2 - 1) } 2716 if face == 2 { hit1 = vsolid(base, ox2, oy2, oz2 - 1) } 2717 if face == 3 { hit1 = vsolid(base, ox2 - 1, oy2, oz2) } 2718 if face == 4 { hit1 = vsolid(base, ox2 - 1, oy2, oz2) } 2719 if face == 5 { hit1 = vsolid(base, ox2 - 1, oy2, oz2) } 2720 if face == 6 { hit1 = vsolid(base, ox2 - 1, oy2, oz2) } 2721 if hit1 == 1 { ao = ao + (44 - u)*30/44 } 2722 } 2723 if u > 211 { 2724 var hit2: i64 = 0 2725 if face == 1 { hit2 = vsolid(base, ox2, oy2, oz2 + 1) } 2726 if face == 2 { hit2 = vsolid(base, ox2, oy2, oz2 + 1) } 2727 if face == 3 { hit2 = vsolid(base, ox2 + 1, oy2, oz2) } 2728 if face == 4 { hit2 = vsolid(base, ox2 + 1, oy2, oz2) } 2729 if face == 5 { hit2 = vsolid(base, ox2 + 1, oy2, oz2) } 2730 if face == 6 { hit2 = vsolid(base, ox2 + 1, oy2, oz2) } 2731 if hit2 == 1 { ao = ao + (u - 211)*30/44 } 2732 } 2733 // v-axis neighbours (v maps to z on top/bottom faces, to y on side faces) 2734 if v < 44 { 2735 var hit3: i64 = 0 2736 if face == 3 { hit3 = vsolid(base, ox2, oy2, oz2 - 1) } 2737 if face == 4 { hit3 = vsolid(base, ox2, oy2, oz2 - 1) } 2738 if face == 1 { hit3 = vsolid(base, ox2, oy2 - 1, oz2) } 2739 if face == 2 { hit3 = vsolid(base, ox2, oy2 - 1, oz2) } 2740 if face == 5 { hit3 = vsolid(base, ox2, oy2 - 1, oz2) } 2741 if face == 6 { hit3 = vsolid(base, ox2, oy2 - 1, oz2) } 2742 if hit3 == 1 { ao = ao + (44 - v)*30/44 } 2743 } 2744 if v > 211 { 2745 var hit4: i64 = 0 2746 if face == 3 { hit4 = vsolid(base, ox2, oy2, oz2 + 1) } 2747 if face == 4 { hit4 = vsolid(base, ox2, oy2, oz2 + 1) } 2748 if face == 1 { hit4 = vsolid(base, ox2, oy2 + 1, oz2) } 2749 if face == 2 { hit4 = vsolid(base, ox2, oy2 + 1, oz2) } 2750 if face == 5 { hit4 = vsolid(base, ox2, oy2 + 1, oz2) } 2751 if face == 6 { hit4 = vsolid(base, ox2, oy2 + 1, oz2) } 2752 if hit4 == 1 { ao = ao + (v - 211)*30/44 } 2753 } 2754 if ao > 45 { ao = 45 } 2755 return ao 2756} 2757func wshade2(base: i64, b0: i64, face: i64, steps: i64, syy: i64, hpx: i64, hpy: i64, hpz: i64, t2: i64, clx: i64, cly: i64, clz: i64) -> i64 { 2758 var u: i64 = hpx & 255 2759 var v: i64 = hpz & 255 2760 if face == 1 { u = hpz & 255; v = hpy & 255 } 2761 if face == 2 { u = hpz & 255; v = hpy & 255 } 2762 if face == 5 { u = hpx & 255; v = hpy & 255 } 2763 if face == 6 { u = hpx & 255; v = hpy & 255 } 2764 // grass block SIDES are dirt with a grass strip at the top edge (the classic block identity) 2765 var b: i64 = b0 2766 if b0 == 1 { if face != 3 { if face != 4 { 2767 b = 2 2768 if v > 206 { b = 1 } 2769 } } } 2770 var tex: i64 = 0 2771 if b == 6 { // wood: vertical grain stripes 2772 tex = whash(u/12 + (hpx >> 8)*7 + (hpz >> 8)*13, 3, 99) % 256 2773 } 2774 if b != 6 { 2775 var amp: i64 = 70 2776 if b == 1 { amp = 95 } 2777 if b == 2 { amp = 85 } 2778 if b == 7 { amp = 130 } 2779 if b == 5 { amp = 55 } 2780 var us: i64 = u/16 2781 var vs: i64 = v/16 2782 if b == 4 { // water: time-drifted shimmer 2783 us = us + t2/3 2784 vs = vs - t2/5 2785 amp = 110 2786 } 2787 tex = whash(us + (hpx >> 8)*31, vs + (hpy >> 8)*17 + (hpz >> 8)*7, b*131) % 256 2788 tex = 128 + (tex - 128)*amp/130 2789 } 2790 // ART STYLE (P_STYLE), read once for this texel. An id this engine does not own falls through 2791 // BOTH style tests below and renders REAL. That is the fail-safe direction and it is chosen, 2792 // not inherited: REAL is the shipped look, so a garbage value poked into the plane degrades to 2793 // "unchanged", never to an undrawn or half-drawn world. 2794 let wst9: i64 = wsp(base)[P_STYLE] 2795 if wst9 == WC_STYLE_FLAT { tex = WC_TEX_NEUTRAL } 2796 var light: i64 = wface_l(face) 2797 // sun-directional face light (sun worlds only): east faces catch it, west faces shadow 2798 if wsp(base)[P_SUN] == 1 { 2799 if face == 1 { light = light*112/100 } 2800 if face == 2 { light = light*92/100 } 2801 if face == 5 { light = light*104/100 } 2802 } 2803 light = light*(870 + tex*260/256)/1000 2804 let wsurf9: i64 = wsp(base)[P_SURF] 2805 var smooth9: i64 = 0 2806 if wst9 == WC_STYLE_SOFT { smooth9 = 1 } 2807 if wsurf9 == 1 { smooth9 = 1 } 2808 if smooth9 == 0 { 2809 if u < 14 { light = light*82/100 } // edge bevel: the block grid (OFF on a smooth ground) 2810 if u > 241 { light = light*82/100 } 2811 if v < 14 { light = light*82/100 } 2812 if v > 241 { light = light*82/100 } 2813 } 2814 var ao2: i64 = 0 2815 if wsurf9 == 0 { ao2 = wao(base, clx, cly, clz, face, u, v) } // GE53: a continuous surface has no cell corners to darken 2816 if ao2 > 0 { light = light*(100 - ao2)/100 } // soft corners where geometry meets 2817 if wst9 == WC_STYLE_SOFT { if face == 3 { 2818 // ground: the heightfield normal replaces the flat top-face light; texture and AO re-applied 2819 light = wsoft_ground_light(base, clx, cly, clz, u, v)*(870 + tex*260/256)/1000 2820 if ao2 > 0 { light = light*(100 - ao2)/100 } 2821 } } 2822 if wsurf9 == 1 { if face == 3 { 2823 light = wsurf_light(base, hpx, hpz)*(870 + tex*260/256)/1000 // GE53: the field's own gradient lights the ground 2824 } } 2825 // TOON banding sits AFTER face light, texture and AO and BEFORE colour and fog -- the same 2826 // point in the pipeline at which the incumbent bands its own "bright". Fog must stay OUTSIDE 2827 // the band, or distance itself would quantise into two steps and the horizon would read as a 2828 // wall rather than as depth. Written as ONE assignment through a temporary rather than as two 2829 // ifs on the same variable: two ifs where the first mutates the value the second tests is the 2830 // desync idiom this estate has been bitten by, and it costs nothing to be immune to it. 2831 if wst9 == WC_STYLE_TOON { 2832 var lb9: i64 = WC_TOON_HI 2833 if light < WC_TOON_CUT { lb9 = WC_TOON_LO } 2834 light = lb9 2835 } 2836 let c: i64 = wcol(base, b) 2837 var r: i64 = (c & 255) * light / 1000 2838 var g: i64 = ((c >> 8) & 255) * light / 1000 2839 var bl: i64 = ((c >> 16) & 255) * light / 1000 2840 let sk: i64 = wsky(base, syy) 2841 var fog: i64 = steps*280/MAXSTEPS 2842 if fog > 236 { fog = 236 } 2843 r = r + ((sk & 255) - r)*fog/256 2844 g = g + (((sk >> 8) & 255) - g)*fog/256 2845 bl = bl + (((sk >> 16) & 255) - bl)*fog/256 2846 return wpack(wclamp(r,0,255), wclamp(g,0,255), wclamp(bl,0,255)) 2847} 2848 2849// THE GAME SPEC WRITER -- two complete game identities as DATA over one engine. 2850// v0 = NISHI CRAFT (sunlit overworld). v1 = NISHI DEPTHS (twilight cavern plateau: no sun/clouds/ 2851// trees, ember horizon, vast cave nets, mossy basalt, glowing ores and glow-mobs). 2852func wc_spec(base: i64, v: i64) -> i64 { 2853 let sp: *i64 = wsp(base) 2854 var k: i64 = 0 2855 while k < WC_SPECN { sp[k] = 0; k = k + 1 } // E1: was a bare 64. This loop is what re-arms 2856 // P_ERTAL to its not-yet-measured sentinel on 2857 // every identity load, so leaving it at 64 would 2858 // have carried one world's talus into the next. 2859 // GE13b THE WARDROBE -- identity-independent DATA, written before any identity branch so every 2860 // world owns the same table by default and may override a row below (or through a recipe row 2861 // once the page validator admits 70-78). Palettes are hue RANGES, never one colour: the genome 2862 // picks the stop. Swimwear vivid and wide (resort colour), the cover-up sun-bleached, casual 2863 // muted, the evening dress deep and narrow -- the one dress every girl used to wear. 2864 // coverage category hue span sat lit 2865 sp[P_GARM + GAR_BIKINI_TOP - 1] = gar_pack(GAR_COV_TOP, GAR_CAT_SWIM, 330, 120, 13, 8) 2866 sp[P_GARM + GAR_BIKINI_BOT - 1] = gar_pack(GAR_COV_BOT, GAR_CAT_SWIM, 330, 120, 13, 8) 2867 sp[P_GARM + GAR_ONEPIECE - 1] = gar_pack(GAR_COV_FULL, GAR_CAT_SWIM, 180, 100, 12, 6) 2868 sp[P_GARM + GAR_SARONG - 1] = gar_pack(GAR_COV_BOT, GAR_CAT_COVER, 20, 60, 9, 11) 2869 sp[P_GARM + GAR_SUNDRESS - 1] = gar_pack(GAR_COV_FULL, GAR_CAT_CASUAL, 40, 80, 8, 12) 2870 sp[P_GARM + GAR_TEE - 1] = gar_pack(GAR_COV_TOP, GAR_CAT_CASUAL, 200, 160, 6, 10) 2871 sp[P_GARM + GAR_SHORTS - 1] = gar_pack(GAR_COV_BOT, GAR_CAT_CASUAL, 30, 40, 5, 6) 2872 sp[P_GARM + GAR_SKIRT - 1] = gar_pack(GAR_COV_BOT, GAR_CAT_CASUAL, 340, 80, 7, 7) 2873 sp[P_GARM + GAR_DRESS - 1] = gar_pack(GAR_COV_FULL, GAR_CAT_EVENING, 250, 90, 10, 4) 2874 if v == 3 { 2875 // v3 = NISHI VALE, the MEDIEVAL VILLAGE: rolling green highland, deep woods, cold 2876 // snowline, cave-riddled stone. THIRD WORLD, ZERO ENGINE CODE -- the recombination 2877 // claim at n=3. Wardens run wide here (P_WARD), so a traveler arrives to REAL stakes. 2878 sp[P_TBASE] = 8 2879 sp[P_TAMP1] = 22 2880 sp[P_TAMP2] = 7 2881 sp[P_WATER] = 7 2882 sp[P_SNOW] = 26 2883 sp[P_TREE] = 11 // deep woods, tuned to the PUBLISHED 2884 // 500-800 trees/ha band -- 19 measured 372/ha, 2885 // barely half a real forest (T53; ported from 2886 // the laptop line 2026-08-02, same fork as 2887 // P_HISTAGE -- the fix existed and never landed) 2888 sp[P_TREEMAX] = 25 // woods climb to the snowline here 2889 sp[P_HISTAGE] = 0 // MEASURED, not assumed: symmetric value- 2890 // noise yields HI ~594 permil = mature 2891 sp[P_CAVETH] = 168 // more cavern than craft's 182 2892 sp[P_SKYTOP] = wpack(86, 122, 176) 2893 sp[P_SKYHOR] = wpack(196, 200, 206) 2894 sp[P_SUN] = 1 2895 sp[P_CLOUD] = 1 2896 sp[P_PAL + 1] = wpack(72, 124, 56) // highland grass 2897 sp[P_PAL + 2] = wpack(94, 72, 50) // loam 2898 sp[P_PAL + 3] = wpack(118, 116, 120) // quarry stone 2899 sp[P_PAL + 4] = wpack(44, 82, 140) // cold water 2900 sp[P_PAL + 5] = wpack(190, 178, 150) // riverbank 2901 sp[P_PAL + 6] = wpack(88, 62, 36) // timber 2902 sp[P_PAL + 7] = wpack(40, 96, 44) // dark canopy 2903 sp[P_PAL + 8] = wpack(238, 240, 246) // snow 2904 sp[P_PAL + 9] = wpack(66, 66, 72) 2905 sp[P_PAL + 10] = wpack(176, 142, 118) 2906 sp[P_PAL + 11] = wpack(224, 188, 92) 2907 sp[P_MOBC + 0] = wpack(206, 160, 96) 2908 sp[P_MOBC + 1] = wpack(160, 118, 62) 2909 sp[P_MOBC + 2] = wpack(120, 158, 190) 2910 sp[P_MOBC + 3] = wpack(78, 110, 146) 2911 sp[P_MOBC + 4] = wpack(178, 120, 160) 2912 sp[P_MOBC + 5] = wpack(134, 86, 122) 2913 sp[P_PAL2 + 0] = wpack(88, 60, 38) 2914 sp[P_PAL2 + 1] = wpack(120, 186, 90) 2915 sp[P_PAL2 + 2] = wpack(92, 168, 58) 2916 sp[P_PAL2 + 3] = wpack(230, 200, 82) 2917 sp[P_PAL2 + 4] = wpack(58, 42, 30) 2918 sp[P_DAYLEN] = 72000 2919 sp[P_SEASD] = 3 2920 sp[P_GROWE] = 2400 2921 sp[P_GROWW] = 5 // a harder land: crops take longer 2922 sp[P_GROWD] = 1 2923 sp[P_RAINS + 0] = 420 // wet spring 2924 sp[P_RAINS + 1] = 220 2925 sp[P_RAINS + 2] = 380 2926 sp[P_RAINS + 3] = 180 2927 sp[P_ADV + 0] = (B_CROP2 << 16) | 9 2928 sp[P_ADV + 1] = (1 << 16) | 3 2929 sp[P_ADV + 2] = (4 << 16) | (2 << 8) | 2 2930 sp[P_CURI] = 400 2931 sp[P_OUTFIT] = 0 2932 sp[P_WARD] = 20 // wardens hunt from 20 blocks by DAY here 2933 sp[P_BLDG] = 2 // W3: the medieval village -- densest settlement 2934 sp[P_BLDGSPEC] = 2 // stonecot archetype 2935 return 0 2936 } 2937 if v == 2 { 2938 sp[P_SURF] = 1 // GE53: NISHI SHORE is the NO-VOXEL world -- its ground is the continuous field 2939 // v2 = NISHI SHORE, the REVIEW STAGE (operator 2026-08-02): near-flat warm sand, a 2940 // sea, no trees/caves/snow -- body and sprite rendering judged WITHOUT environment 2941 // distraction, with the outfit dimension ACTIVE (mixed beach). One engine, one more 2942 // identity: this whole world is 30 data rows, which IS the recombination claim. 2943 sp[P_TBASE] = 11 2944 sp[P_TAMP1] = 2 2945 sp[P_TAMP2] = 1 2946 sp[P_DUNE] = BEACH_DUNE_RECIPE 2947 sp[P_WATER] = 9 2948 sp[P_SNOW] = 99 2949 sp[P_TREE] = 0 2950 sp[P_CAVETH] = 255 2951 // GE13: the sea this identity always PROMISED -- P_WATER 9 under base 11 never dipped 2952 // below the waterline, so the data declared a shore the terrain shape could not 2953 // produce (the operator's 2026-08-27 frame: a beach with no ocean). One row fixes it: 2954 // ocean toward +z, shoreline at absolute z=100 (inside the boot window, beyond the 2955 // review stage and both gate fixture plateaus), 20-block beach ramp, seabed 4 => 2956 // up to 5 blocks of swimmable water at flood level 9. 2957 sp[P_OCEAN] = 0 + (612 << 2) + (20 << 12) + (4 << 18) // edge=+z shore=100+512 slope=20 bed=4 2958 sp[P_SKYTOP] = wpack(110, 168, 230) 2959 sp[P_SKYHOR] = wpack(214, 226, 240) 2960 sp[P_SUN] = 1 2961 sp[P_CLOUD] = 1 2962 sp[P_PAL + 1] = wpack(226, 204, 148) // shore sand (the "grass" slot) 2963 sp[P_PAL + 2] = wpack(206, 180, 128) // packed sand 2964 sp[P_PAL + 3] = wpack(180, 170, 158) // beach rock 2965 sp[P_PAL + 4] = wpack(56, 140, 196) // warm sea 2966 sp[P_PAL + 5] = wpack(232, 214, 160) // dry sand 2967 sp[P_PAL + 6] = wpack(150, 110, 70) // driftwood 2968 sp[P_PAL + 7] = wpack(96, 150, 96) // beach scrub 2969 sp[P_PAL + 8] = wpack(240, 240, 244) 2970 sp[P_PAL + 9] = wpack(120, 116, 110) 2971 sp[P_PAL + 10] = wpack(176, 142, 118) 2972 sp[P_PAL + 11] = wpack(224, 188, 92) 2973 sp[P_MOBC + 0] = wpack(240, 178, 84) 2974 sp[P_MOBC + 1] = wpack(196, 138, 56) 2975 sp[P_MOBC + 2] = wpack(96, 206, 196) 2976 sp[P_MOBC + 3] = wpack(64, 158, 150) 2977 sp[P_MOBC + 4] = wpack(238, 138, 186) 2978 sp[P_MOBC + 5] = wpack(190, 100, 144) 2979 sp[P_PAL2 + 0] = wpack(94, 64, 40) 2980 sp[P_PAL2 + 1] = wpack(120, 186, 90) 2981 sp[P_PAL2 + 2] = wpack(92, 168, 58) 2982 sp[P_PAL2 + 3] = wpack(230, 200, 82) 2983 sp[P_PAL2 + 4] = wpack(64, 46, 32) 2984 sp[P_DAYLEN] = 72000 2985 sp[P_SEASD] = 3 2986 sp[P_GROWE] = 2400 2987 sp[P_GROWW] = 6 2988 sp[P_GROWD] = 1 2989 sp[P_RAINS + 0] = 60 // a review stage stays mostly sunny 2990 sp[P_RAINS + 1] = 40 2991 sp[P_RAINS + 2] = 60 2992 sp[P_RAINS + 3] = 40 2993 sp[P_ADV + 0] = (4 << 16) | (2 << 8) | 4 // the water's edge is the gathering place 2994 sp[P_ADV + 1] = (1 << 16) | 3 2995 sp[P_CURI] = 350 2996 sp[P_OUTFIT] = 1 2997 sp[P_BLDG] = 4 // W3: sparse driftwood huts along the shore 2998 sp[P_BLDGSPEC] = 1 // hut archetype 2999 return 0 3000 } 3001 // FARMING-LIFE rows, shared by every identity (the loop itself is identity-independent DATA) 3002 sp[P_PAL2 + 0] = wpack(94, 64, 40) // tilled farmland, dry 3003 sp[P_PAL2 + 1] = wpack(120, 186, 90) // crop sprout 3004 sp[P_PAL2 + 2] = wpack(92, 168, 58) // crop growing 3005 sp[P_PAL2 + 3] = wpack(230, 200, 82) // crop MATURE (reads golden at a glance) 3006 sp[P_PAL2 + 4] = wpack(64, 46, 32) // farmland wet (soaked dark soil) 3007 sp[P_DAYLEN] = 72000 // 20 real minutes at the fixed 60Hz sim 3008 // tick -- the shipped-sim benchmark band 3009 // (Minecraft 20:00/day, Stardew 14:33, 3010 // Vintage Story ~24:00): a day you can 3011 // farm INSIDE, not a light show 3012 sp[P_SEASD] = 3 3013 sp[P_GROWE] = 2400 // one growth/hydration roll per farm cell 3014 // per ~40s -- Minecraft's random-tick 3015 // cadence (~47s/block avg) on our grid; 3016 // wet stencil den=5 => a watered crop 3017 // matures in ~6.7 min =~ 1/3 day (the 3018 // Minecraft wheat band) 3019 sp[P_GROWW] = 6 3020 sp[P_GROWD] = 1 3021 sp[P_RAINS + 0] = 340 // spring 3022 sp[P_RAINS + 1] = 180 // summer 3023 sp[P_RAINS + 2] = 300 // autumn 3024 sp[P_RAINS + 3] = 120 // winter 3025 sp[P_ADV + 0] = (B_CROP2 << 16) | 9 // a mature field draws foragers (need 0 = hunger) 3026 sp[P_ADV + 1] = (1 << 16) | 3 // grass meadow: light grazing 3027 sp[P_ADV + 2] = (4 << 16) | (2 << 8) | 2 // water's edge: where girls gather to talk 3028 sp[P_CURI] = 350 3029 if v == 1 { 3030 sp[P_TBASE] = 22 3031 sp[P_TAMP1] = 8 3032 sp[P_TAMP2] = 4 3033 sp[P_WATER] = 5 3034 sp[P_SNOW] = 99 3035 sp[P_TREE] = 0 3036 sp[P_CAVETH] = 148 3037 sp[P_SKYTOP] = wpack(28, 22, 40) 3038 sp[P_SKYHOR] = wpack(96, 48, 40) 3039 sp[P_SUN] = 0 3040 sp[P_CLOUD] = 0 3041 sp[P_PAL + 1] = wpack(74, 122, 84) // moss 3042 sp[P_PAL + 2] = wpack(88, 62, 48) // packed earth 3043 sp[P_PAL + 3] = wpack(98, 90, 104) // basalt 3044 sp[P_PAL + 4] = wpack(60, 190, 180) // glow-water 3045 sp[P_PAL + 5] = wpack(120, 100, 80) 3046 sp[P_PAL + 6] = wpack(70, 50, 36) 3047 sp[P_PAL + 7] = wpack(60, 90, 60) 3048 sp[P_PAL + 8] = wpack(200, 200, 210) 3049 sp[P_PAL + 9] = wpack(58, 58, 66) 3050 sp[P_PAL + 10] = wpack(198, 150, 116) 3051 sp[P_PAL + 11] = wpack(255, 206, 96) // gold veins GLOW down here 3052 sp[P_MOBC + 0] = wpack(255, 128, 64) // ember 3053 sp[P_MOBC + 1] = wpack(200, 84, 40) 3054 sp[P_MOBC + 2] = wpack(124, 220, 255) // ice-glow 3055 sp[P_MOBC + 3] = wpack(80, 160, 200) 3056 sp[P_MOBC + 4] = wpack(204, 124, 255) // violet 3057 sp[P_MOBC + 5] = wpack(150, 84, 200) 3058 return 0 3059 } 3060 sp[P_TBASE] = 4 3061 sp[P_TAMP1] = 17 3062 sp[P_TAMP2] = 5 3063 sp[P_WATER] = 9 3064 sp[P_SNOW] = 20 3065 sp[P_TREE] = 43 3066 sp[P_CAVETH] = 182 3067 // DEFAULT SKY TONES DERIVED, NOT PICKED (2026-08-26): zenith = 1 airmass, horizon = the 3068 // Kasten-Young 38-airmass bound, each channel single-scattered by lambda^-4 and display- 3069 // encoded -- nx_atmosphere's own worked example lands at (80,117,176) where the retired 3070 // hand-picked default sat at (86,122,176): the palette was approximating the physics. 3071 // Per-world identity overrides above KEEP their deliberate looks; only the default derives. 3072 let am_t: i64 = nx_atm_airmass_q(0) 3073 let am_h: i64 = nx_atm_airmass_q(NX_ATM_Q) 3074 sp[P_SKYTOP] = wpack(nx_atm_display_255(nx_atm_channel_q(NX_LAMBDA_R_NM, am_t)), 3075 nx_atm_display_255(nx_atm_channel_q(NX_LAMBDA_G_NM, am_t)), 3076 nx_atm_display_255(nx_atm_channel_q(NX_LAMBDA_B_NM, am_t))) 3077 sp[P_SKYHOR] = wpack(nx_atm_display_255(nx_atm_channel_q(NX_LAMBDA_R_NM, am_h)), 3078 nx_atm_display_255(nx_atm_channel_q(NX_LAMBDA_G_NM, am_h)), 3079 nx_atm_display_255(nx_atm_channel_q(NX_LAMBDA_B_NM, am_h))) 3080 sp[P_SUN] = 1 3081 sp[P_CLOUD] = 1 3082 sp[P_PAL + 1] = wpack(84, 158, 62) // grass 3083 sp[P_PAL + 2] = wpack(122, 86, 56) // dirt 3084 sp[P_PAL + 3] = wpack(126, 126, 132) // stone 3085 sp[P_PAL + 4] = wpack(52, 96, 190) // water 3086 sp[P_PAL + 5] = wpack(206, 190, 132) // sand 3087 sp[P_PAL + 6] = wpack(104, 74, 40) // wood 3088 sp[P_PAL + 7] = wpack(52, 122, 44) // leaves 3089 sp[P_PAL + 8] = wpack(232, 238, 244) // snow 3090 sp[P_PAL + 9] = wpack(72, 74, 80) // coal 3091 sp[P_PAL + 10] = wpack(176, 142, 118) // iron 3092 sp[P_PAL + 11] = wpack(224, 188, 92) // gold 3093 sp[P_MOBC + 0] = wpack(240, 178, 84) 3094 sp[P_MOBC + 1] = wpack(196, 138, 56) 3095 sp[P_MOBC + 2] = wpack(96, 206, 196) 3096 sp[P_MOBC + 3] = wpack(64, 158, 150) 3097 sp[P_MOBC + 4] = wpack(238, 138, 186) 3098 sp[P_MOBC + 5] = wpack(190, 100, 144) 3099 sp[P_BLDG] = 3 // W3: scattered cottages in the green hills 3100 sp[P_BLDGSPEC] = 0 // cottage archetype 3101 return 0 3102} 3103 3104// mobs: 12 creatures spawned on grass, deterministic, through the CERTIFIED entity store 3105// (handle = index+generation, stale-handle-proof by construction -- the part's gate owns that claim) 3106func genmobs(base: i64, sd: i64) -> i64 { 3107 let m: *i64 = mobp(base) 3108 en_init(m, MOB_CAP, MOB_NCOMP) 3109 wc_steer_reset(base) 3110 var i: i64 = 0 3111 var placed: i64 = 0 3112 while i < 200 { 3113 if placed < WC_CAST_N { 3114 let mx: i64 = 4 + whash(i*13 + 5, i*7 + 1, sd + 400) % (WX - 8) 3115 let mz: i64 = 4 + whash(i*17 + 3, i*29 + 9, sd + 500) % (WZ - 8) 3116 let h: i64 = wheight(base, mx, mz, sd) 3117 if h < wsp(base)[P_SNOW] - 1 { if vget(base, mx, h, mz) == 1 { 3118 let hd: i64 = en_spawn(m) 3119 if hd > 0 { 3120 en_set(m, hd, MC_X, mx*256 + 128) 3121 en_set(m, hd, MC_Y, wc_contact_floor_q(base,mx*256+128,mz*256+128,WY-1)) 3122 en_set(m, hd, MC_Z, mz*256 + 128) 3123 en_set(m, hd, MC_KIND, whash(mx, mz, sd + 600) % 3) 3124 en_set(m, hd, MC_PH, whash(mz, mx, sd + 700) % WATER_MAGIC_4096) 3125 var dg: i64 = 0 3126 if whash(mx + 13, mz + 7, sd + 800) % 3 == 0 { dg = 1 } 3127 en_set(m, hd, MC_DISG, dg) 3128 let g1: i64 = whash(mx*3 + 1, mz*5 + 9, sd + 900) 3129 let g2: i64 = whash(mz*7 + 3, mx*11 + 5, sd + 901) 3130 // HAIR-HUE NIBBLE (2026-08-30, measured in-page: hist(gv&7)=[12,0,0,0,0,0,0,0]): bits 0-3 are 3131 // the declared hair-hue field (MC_GENE layout, L296) yet g1*4096 + g2*16 can never set them, so 3132 // every girl ever spawned shared ONE hair colour (blonde under the old palette, black under the 3133 // melanin one). Roll the low nibble from its own hash lane; the two existing lanes are untouched. 3134 let g3: i64 = whash(mx*13 + 7, mz*17 + 11, sd + 902) % 16 3135 en_set(m, hd, MC_GENE, (g1*WATER_MAGIC_4096 + g2*16 + g3) % WATER_MAGIC_1048576) 3136 placed = placed + 1 3137 } 3138 } } 3139 } 3140 i = i + 1 3141 } 3142 return placed 3143} 3144 3145// ---------- init / tick / render ---------- 3146 3147// A spawn-relative scene fixture, written once into the same voxel buffer the GPU uploads. 3148// Preflight prevents partial stamps and preserves existing non-foliage geometry. 3149func wc_spawn_bush(base: i64, forward: i64, lateral: i64, radius: i64, height: i64, material: i64) -> i64 { 3150 if radius < 1 { return 0 - 1 } 3151 if height < 1 { return 0 - 1 } 3152 if radius >= WX/2 { return 0 - 1 } 3153 if height >= WY { return 0 - 1 } 3154 if material != BEACH_RELEASE_MATERIAL { return 0 - 1 } 3155 let s: *i64 = wst(base) 3156 let sy: i64 = it_sin4096(s[S_YAW]) 3157 let co: i64 = it_cos4096(s[S_YAW]) 3158 let cx: i64 = (s[S_SPX] >> 8) + (sy*forward + co*lateral)/4096 3159 let cz: i64 = (s[S_SPZ] >> 8) + (co*forward - sy*lateral)/4096 3160 if cx-radius < 0 { return 0 - 1 } 3161 if cx+radius >= WX { return 0 - 1 } 3162 if cz-radius < 0 { return 0 - 1 } 3163 if cz+radius >= WZ { return 0 - 1 } 3164 let raw: i64 = wheight(base, cx+s[S_WOX], cz+s[S_WOZ], s[S_SEED]) 3165 let ground: i64 = wsp_beach_ocean(wsp(base), cx+s[S_WOX], cz+s[S_WOZ], raw) 3166 if ground <= wsp(base)[P_WATER] { return 0 - 1 } 3167 if ground+height >= WY { return 0 - 1 } 3168 var phase: i64 = 0 3169 var count: i64 = 0 3170 while phase < 2 { 3171 var y: i64 = 1 3172 while y <= height { 3173 var dz: i64 = 0-radius 3174 while dz <= radius { 3175 var dx: i64 = 0-radius 3176 while dx <= radius { 3177 var ax: i64 = dx; if ax < 0 { ax = 0-ax } 3178 var az: i64 = dz; if az < 0 { az = 0-az } 3179 if ax+az <= radius+height-y { 3180 if phase == 0 { 3181 let old: i64 = vget(base, cx+dx, ground+y, cz+dz) 3182 if old != 0 { if old != material { return 0 - 1 } } 3183 count = count+1 3184 } else { 3185 vset(base, cx+dx, ground+y, cz+dz, material) 3186 } 3187 } 3188 dx = dx+1 3189 } 3190 dz = dz+1 3191 } 3192 y = y+1 3193 } 3194 phase = phase+1 3195 } 3196 wc_wmax(base) 3197 return count 3198} 3199 3200// Validate the effective recipe before mutating the current arena. 3201const WC_INIT_DUNE_INVALID: i64 = 0-79 3202const WC_INIT_DUNE_COMPOSITION: i64 = 0-80 3203func wc_dune_preflight(base: i64, v: i64) -> i64 { 3204 var packed: i64 = 0 3205 if v == BEACH_RELEASE_WORLD { packed = BEACH_DUNE_RECIPE } 3206 // Current wc_spec zeroes both slots and never assigns a nonzero default. 3207 var pipeline: i64 = 0; var erosion: i64 = 0 3208 let gp: *i64 = wgp(base) 3209 if gp[0] == GENP_MAGIC { 3210 var count: i64 = gp[1] 3211 if count < 0 { count = 0 }; if count > GENP_MAXP { count = GENP_MAXP } 3212 var i: i64 = 0 3213 while i < count { 3214 let idx: i64 = gp[2+i*2]; let value: i64 = gp[3+i*2] 3215 if idx == P_DUNE { 3216 if genp_dune_valid(value) == 0 { return WC_INIT_DUNE_INVALID } 3217 packed = value 3218 } 3219 if idx == P_WPIPE { pipeline = value } 3220 if idx == P_ERODE { erosion = value } 3221 i = i + 1 3222 } 3223 } 3224 if genp_dune_valid(packed) == 0 { return WC_INIT_DUNE_INVALID } 3225 if packed != 0 { 3226 if pipeline != 0 || erosion != 0 { return WC_INIT_DUNE_COMPOSITION } 3227 } 3228 return 0 3229} 3230 3231func init_impl_v(base: i64, v: i64, seed: i64) -> i64 { 3232 let dune_rc: i64 = wc_dune_preflight(base,v) 3233 if dune_rc != 0 { return dune_rc } 3234 if v == BEACH_RELEASE_WORLD { 3235 let mv: i64 = wc_move_valid(BEACH_MOVE_MODE,BEACH_MOVE_GRAV_MM,BEACH_MOVE_JUMP_MM,BEACH_MOVE_WALK_MM,BEACH_MOVE_TERM_MM,BEACH_MOVE_STEP_Q8,BEACH_MOVE_REPEAT) 3236 if mv != 0 { return mv } 3237 } 3238 wc_inspection_end(base) 3239 wc_spec(base, v) 3240 // W1c: gen-time recipe overrides -- AFTER identity defaults, BEFORE genworld reads them. 3241 // Allowlist = the gen-time slots only (0..6 terrain shape, 59 treemax, 60 histage, 61 3242 // treespec, 62 settlement density, 63 settlement archetype); style 3243 // slots keep the post-boot poke lane so the two channels never blur. A zero region is a 3244 // clean no-op; the applied count lands in S_GENP below (announce-in-world-truth, sect-30d). 3245 let gp9: *i64 = wgp(base) 3246 let spg9: *i64 = wsp(base) 3247 var gpn9: i64 = 0 3248 if gp9[0] == GENP_MAGIC { 3249 var gk9: i64 = gp9[1] 3250 if gk9 < 0 { gk9 = 0 } 3251 if gk9 > GENP_MAXP { gk9 = GENP_MAXP } 3252 var gi9: i64 = 0 3253 while gi9 < gk9 { 3254 let gx9: i64 = gp9[2 + gi9*2] 3255 // THE ONE ALLOWLIST (nx_genp_allow_lib, 2026-09-04): this chain was hand-enumerated here and mirrored, 3256 // with drift, in nx_world_snap and nx_game_page_emit; all three now read genp_gen_ok, and T90 pins each 3257 // P_* slot to it. Gen-time because these rows shape what genworld is about to read -- poked after boot 3258 // they would be the silent no-op this whitelist exists for. 3259 let gok9: i64 = genp_dune_gen_ok(gx9) 3260 if gok9 == 1 { spg9[gx9] = gp9[3 + gi9*2]; gpn9 = gpn9 + 1 } 3261 gi9 = gi9 + 1 3262 } 3263 } 3264 let s: *i64 = wst(base) 3265 let facing_radius: i64 = s[S_FACE_RADIUS] 3266 let facing_gain: i64 = s[S_FACE_GAIN] 3267 var k: i64 = 0 3268 while k < 64 { s[k] = 0; k = k + 1 } 3269 wc_set_facing_policy(base,facing_radius,facing_gain) 3270 let ej0: *i64 = ejp(base) 3271 var kj: i64 = 0 3272 while kj < EJRN_SLOTS { ej0[kj] = 0; kj = kj + 1 } 3273 s[S_SEED] = seed 3274 s[S_VAR] = v // after the zero loop -- an earlier set 3275 // here was wiped (the zero-loop-order class) 3276 s[S_GENP] = gpn9 // same zero-loop-order law as S_VAR above 3277 s[S_T] = wsp(base)[P_DAYLEN]/4 // first frame = MID-MORNING light (the 3278 // visitor's first impression; a dawn-dark 3279 // spawn read as night, screenshot-caught) 3280 genworld(base, seed) 3281 wc_wmax(base) 3282 genmobs(base, seed) 3283 // A4/C1: zero the spring + need regions (init may reuse a dirty arena), then seat and seed 3284 let sb0i: *i64 = (base + O_SOFT) as *i64 3285 var kzi: i64 = 0 3286 while kzi < MOB_CAP*SB_PTS*SD_STRIDE { sb0i[kzi] = 0; kzi = kzi + 1 } 3287 let nd0i: *i64 = (base + O_NEED) as *i64 3288 var kni: i64 = 0 3289 while kni < MOB_CAP*4 { nd0i[kni] = 0; kni = kni + 1 } 3290 wc_soft_seat_all(base) 3291 wc_need_seed(base) 3292 wc_mind_zero(base) 3293 // spawn on the TALLEST central column: from a local peak every direction is a vista, 3294 // never a cliff wall filling the first frame (the eyeball found exactly that) 3295 var sx: i64 = WX/2 3296 var sz: i64 = WZ/2 3297 var sh: i64 = 0 3298 var qz: i64 = WZ/2 - 12 3299 while qz < WZ/2 + 12 { 3300 var qx: i64 = WX/2 - 12 3301 while qx < WX/2 + 12 { 3302 let qh: i64 = wheight(base, qx, qz, seed) 3303 if qh > sh { sh = qh; sx = qx; sz = qz } 3304 qx = qx + 1 3305 } 3306 qz = qz + 1 3307 } 3308 // W2b: a spawn column may carry understory at feet height -- clear it. GUARDED so legacy 3309 // (understory-less) worlds stay byte-identical; gen-time vegetation is not journaled, so a 3310 // later window-slide repaint is harmless (the player has long moved). 3311 if ((wsp(base)[P_TREESPEC] >> 18) & 7) > 0 { 3312 vset(base, sx, sh + 1, sz, 0) 3313 vset(base, sx, sh + 2, sz, 0) 3314 } 3315 s[S_CX] = sx*256 + 128 3316 s[S_CZ] = sz*256 + 128 3317 s[S_CY] = (sh+1)*256 + EYE 3318 // Establish support from the same continuous field before querying the bounded floor. 3319 if wsp(base)[P_SURF] == 1 { 3320 let spawn_floor: i64 = wc_surface_source(base, s[S_CX], s[S_CZ]) 3321 if spawn_floor >= 0 { s[S_CY] = spawn_floor + EYE } 3322 } 3323 let spawn_stand: i64 = wstand_here(base,s[S_CX],s[S_CZ]) 3324 if spawn_stand >= 0 { s[S_CY] = spawn_stand } 3325 s[S_SPX] = s[S_CX] 3326 s[S_SPY] = s[S_CY] 3327 s[S_SPZ] = s[S_CZ] 3328 s[S_YAW] = 0 3329 // GE45 review framing (2026-09-04): an identity with an ocean row spawns FACING the sea. The shore identity's 3330 // +z edge is yaw 0 already, so this is byte-identical there and correct for any other edge a recipe declares. 3331 let sy0: i64 = wsp_sea_yaw(wsp(base)) 3332 if sy0 >= 0 { s[S_YAW] = sy0 } 3333 s[S_PITCH] = 0 3334 s[S_Q] = Q_START 3335 if v == BEACH_RELEASE_WORLD { 3336 let release_cells: i64 = wc_spawn_bush(base, BEACH_RELEASE_FORWARD, BEACH_RELEASE_LATERAL, BEACH_RELEASE_RADIUS, BEACH_RELEASE_HEIGHT, BEACH_RELEASE_MATERIAL) 3337 // The release fixture is non-critical: a crowded or submerged site must not 3338 // prevent the world's input bindings and remaining startup from completing. 3339 // The fixture uses the world's foliage material; it must not recolor every leaf. 3340 3341 } 3342 ia_init(winp(base)) 3343 ia_bind(winp(base), 82, IA_LUP) // R = look up (real action bits since seq1136) 3344 ia_bind(winp(base), 70, IA_LDOWN) // F = look down (G = party invite, below) 3345 ia_bind(winp(base), 32, IA_JUMP) // space = jump (touch center zone jumps too) 3346 ia_bind(winp(base), 81, IA_MOD) // Q = cycle the hotbar selection 3347 ia_bind(winp(base), 72, IA_HOME) // H = return to spawn (edge-fall rescue) 3348 return wc_move_boot(base,v) 3349} 3350func init_impl(base: i64, seed: i64) -> i64 { return init_impl_v(base, 0, seed) } 3351 3352// return to spawn: position + velocity reset, world untouched (the operator's reset button) 3353func wc_respawn(base: i64) -> i64 { 3354 let s: *i64 = wst(base) 3355 s[S_CX] = s[S_SPX] 3356 s[S_CY] = s[S_SPY] 3357 s[S_CZ] = s[S_SPZ] 3358 s[S_VY] = 0 3359 wc_move_reset(base) 3360 s[S_GROUNDED] = 1 3361 return 0 3362} 3363 3364// highest solid y at a column (collision floor), -1 if none 3365func wground(base: i64, x: i64, z: i64) -> i64 { 3366 var y: i64 = WY - 1 3367 while y >= 0 { 3368 if vsolid(base, x, y, z) == 1 { return y } 3369 y = y - 1 3370 } 3371 return 0 - 1 3372} 3373 3374// Collision uses the same continuous terrain field as rendering; non-terrain solids remain cells. 3375func wc_contact_floor_below_q(base: i64, xq: i64, zq: i64, top: i64, ceiling: i64) -> i64 { 3376 let sp: *i64 = wsp(base) 3377 var y: i64 = top 3378 if y >= WY { y = WY - 1 } 3379 var floor: i64 = 0 - 1 3380 if sp[P_SURF] == 1 { 3381 floor = wc_surface_source(base,xq,zq) 3382 if floor < 0 { return 0 - 1 } 3383 if floor > ceiling { floor = 0 - 1 } 3384 } 3385 while y >= 0 { 3386 let b: i64 = vget(base,xq >> 8,y,zq >> 8) 3387 var eligible: i64 = vsolid(base,xq >> 8,y,zq >> 8) 3388 if sp[P_SURF] == 1 { if wterrain(b) == 1 { eligible = 0 } } 3389 if eligible == 1 { 3390 let celltop: i64 = (y+1)*256 3391 if celltop <= ceiling { 3392 if celltop > floor { floor = celltop } 3393 return floor 3394 } 3395 } 3396 y = y - 1 3397 } 3398 return floor 3399} 3400 3401// Unbounded column query remains available to existing callers. 3402func wc_contact_floor_q(base: i64, xq: i64, zq: i64, top: i64) -> i64 { 3403 return wc_contact_floor_below_q(base,xq,zq,top,WY*256) 3404} 3405 3406// try to stand at (nxq, nzq): returns the required cam y (Q8) or -1 if the move is blocked 3407func wstand(base: i64, nxq: i64, nzq: i64, cyq: i64) -> i64 { 3408 // Preserve the existing step allowance; overhead surfaces outside it cannot be support. 3409 let step_allowance: i64 = 384 3410 let floor: i64 = wc_contact_floor_below_q(base, nxq, nzq, WY - 1, cyq - EYE + step_allowance) 3411 var stand: i64 = floor + EYE 3412 let wl2: i64 = wsp(base)[P_WATER] 3413 let wsurf: i64 = (wl2 + 1)*256 + EYE - 96 // float slightly sunk in water 3414 if stand < wsurf { if vget(base, nxq >> 8, wl2, nzq >> 8) == 4 { stand = wsurf } } 3415 // VOID COLUMN = WALL: no ground below means off the world's edge -- refuse the step (the 3416 // walk-off-and-vanish bug: wstand happily computed a hover height over nothing) 3417 if floor < 0 { return 0 - 1 } 3418 if stand - cyq > step_allowance { return 0 - 1 } // more than a 1.5-block rise = wall 3419 let heady: i64 = (stand + 128) >> 8 3420 if vsolid(base, nxq >> 8, heady, nzq >> 8) == 1 { return 0 - 1 } 3421 return stand 3422} 3423 3424// stand height for the CURRENT column (no wall refusal -- the vertical-physics target) 3425func wstand_here(base: i64, xq: i64, zq: i64) -> i64 { 3426 let floor: i64 = wc_contact_floor_below_q(base, xq, zq, WY - 1, wst(base)[S_CY] - EYE) 3427 if floor < 0 { return 0 - 1 } 3428 var stand: i64 = floor + EYE 3429 let wl3: i64 = wsp(base)[P_WATER] 3430 let wsurf: i64 = (wl3 + 1)*256 + EYE - 96 3431 if stand < wsurf { if vget(base, xq >> 8, wl3, zq >> 8) == 4 { stand = wsurf } } 3432 return stand 3433} 3434 3435// mob floor: first solid scanning DOWN from just above the mob's feet -- wground scans from the 3436// SKY and reads an overhanging leaf canopy as "ground 5 blocks up", which froze every mob under a 3437// tree (measured: phase advanced 982/tick = the refusal branch, position never moved). 3438// body clearance: a girl is ~2 blocks tall -- the two cells above the ground must be AIR or 3439// she stands with her head/shoulders inside an overhang (invisible as SDF; as a MESH her 3440// buried parts discard and the poking limbs read as floating shards -- operator-reported). 3441// GE12b -- BODY CLEARANCE. mob_fits (below) proves only her OWN cell's air column, but a girl 3442// is a CYLINDER of radius MOB_R_Q8, so standing near a cell edge her body overlaps the 3443// neighbouring solid: the operator's 2026-08-27 frame caught exactly that -- a girl leaning 3444// THROUGH a cliff wall with her shins inside the blocks. These clamp her fractional position 3445// away from any solid neighbour at either body course. Integer, deterministic, and a pure 3446// no-op in open ground (no solid neighbour => the position is returned untouched). 3447// RADIUS IS NOT A NEW NUMBER: npc_pick already models her body as r=.35 blocks for hit 3448// detection, and .35*256 = 89.6 -> 90 q8. One body, one radius; a second value here would be 3449// two rulers for one girl (she could be hittable where she is not present, and vice versa). 3450const MOB_R_Q8: i64 = 90 3451func mob_solid2(base: i64, x: i64, g: i64, z: i64) -> i64 { 3452 if vsolid(base, x, g + 1, z) == 1 { return 1 } 3453 if vsolid(base, x, g + 2, z) == 1 { return 1 } 3454 return 0 3455} 3456func mob_clear_x(base: i64, nx: i64, nz: i64, g: i64) -> i64 { 3457 let cx: i64 = nx >> 8 3458 let cz: i64 = nz >> 8 3459 let fr: i64 = nx - cx*256 3460 var r: i64 = nx 3461 if fr < MOB_R_Q8 { if mob_solid2(base, cx - 1, g, cz) == 1 { r = cx*256 + MOB_R_Q8 } } 3462 if fr > 256 - MOB_R_Q8 { if mob_solid2(base, cx + 1, g, cz) == 1 { r = cx*256 + 256 - MOB_R_Q8 } } 3463 return r 3464} 3465func mob_clear_z(base: i64, nx: i64, nz: i64, g: i64) -> i64 { 3466 let cx: i64 = nx >> 8 3467 let cz: i64 = nz >> 8 3468 let fr: i64 = nz - cz*256 3469 var r: i64 = nz 3470 if fr < MOB_R_Q8 { if mob_solid2(base, cx, g, cz - 1) == 1 { r = cz*256 + MOB_R_Q8 } } 3471 if fr > 256 - MOB_R_Q8 { if mob_solid2(base, cx, g, cz + 1) == 1 { r = cz*256 + 256 - MOB_R_Q8 } } 3472 return r 3473} 3474func mob_fits(base: i64, x: i64, g: i64, z: i64) -> i64 { 3475 if vsolid(base, x, g + 1, z) == 1 { return 0 } 3476 if vsolid(base, x, g + 2, z) == 1 { return 0 } 3477 return 1 3478} 3479 3480func mob_ground(base: i64, x: i64, ytop: i64, z: i64) -> i64 { 3481 var y: i64 = ytop 3482 if y > WY - 1 { y = WY - 1 } 3483 while y >= 0 { 3484 if vsolid(base, x, y, z) == 1 { return y } 3485 y = y - 1 3486 } 3487 return 0 - 1 3488} 3489 3490// GE12 -- GAIT-PHASED VERTICAL LOCOMOTION (gameengine rung mob_step_gait). A mob's Y no longer 3491// EASES linearly toward the stand height (the 64 q8/tick glide the operator caught 2026-08-26: 3492// a climb glided and a drop floated). Two named regimes, one ruler each: 3493// STEP UP -> the cited stair-ascent rate WC_STEP_EASE_UP (gamefeel row step_ease_up_q8), and 3494// only in a tick where a stride step landed -- the caller is the move branch, so the 3495// rise is gait-phased BY CONSTRUCTION, never a free-running ramp; 3496// DROP -> the PLAYER'S OWN integrator (v -= GRAV per tick, clamped at VTERM, landing snaps to 3497// the stand height and zeroes v): every falling body in the world obeys one gravity. 3498// vyp[k] is her vertical velocity (O_MOBVY). Returns the new Y (q8). All inputs are arena state, 3499// so replay stays bit-identical (T4/T17). ph/gait are untouched: this is Y only. 3500func mob_step_gait(vyp: *i64, k: i64, cy0: i64, ng: i64) -> i64 { 3501 var vy9: i64 = vyp[k] 3502 var ny9: i64 = cy0 3503 if ng > cy0 { 3504 ny9 = cy0 + WC_STEP_EASE_UP 3505 if ny9 > ng { ny9 = ng } 3506 vy9 = 0 3507 } 3508 if ng < cy0 { 3509 vy9 = vy9 - GRAV 3510 if vy9 < 0 - VTERM { vy9 = 0 - VTERM } 3511 ny9 = cy0 + vy9 3512 if ny9 <= ng { ny9 = ng; vy9 = 0 } 3513 } 3514 if ng == cy0 { vy9 = 0 } 3515 vyp[k] = vy9 3516 return ny9 3517} 3518 3519// NPC HIT DETECTION: march the view ray in half-block samples up to 7 blocks; a solid voxel 3520// blocks it (walls occlude, real detection); a sample inside a girl's body cylinder (r=.35, 3521// h=1.7) targets her. Returns the dense index or -1. The same pass PUSHES the player out of 3522// bodies (they have PRESENCE now -- no more walking through people). 3523func npc_pick(base: i64, fx: i64, fy: i64, fz: i64) -> i64 { 3524 let s: *i64 = wst(base) 3525 let m: *i64 = mobp(base) 3526 var t: i64 = 1 3527 while t <= 14 { 3528 let px2: i64 = s[S_CX] + fx*t*128/WATER_MAGIC_4096 3529 let py2: i64 = s[S_CY] + fy*t*128/WATER_MAGIC_4096 3530 let pz2: i64 = s[S_CZ] + fz*t*128/WATER_MAGIC_4096 3531 if vsolid(base, px2 >> 8, py2 >> 8, pz2 >> 8) == 1 { return 0 - 1 } 3532 var k: i64 = 0 3533 while k < en_count(m) { 3534 let h: i64 = en_nth(m, k) 3535 var ddx: i64 = px2 - en_get(m, h, MC_X) 3536 if ddx < 0 { ddx = 0 - ddx } 3537 var ddz: i64 = pz2 - en_get(m, h, MC_Z) 3538 if ddz < 0 { ddz = 0 - ddz } 3539 let dy2: i64 = py2 - en_get(m, h, MC_Y) 3540 if ddx < 90 { if ddz < 90 { if dy2 >= 0 { if dy2 < 440 { return k } } } } 3541 k = k + 1 3542 } 3543 t = t + 1 3544 } 3545 return 0 - 1 3546} 3547 3548// ---------- A1: the integer tick calendar (day/night + 4 seasons) ---------- 3549// Pure functions of (S_T, spec) -> bit-exact across arenas by construction. Every phase compare 3550// CROSS-MULTIPLIES (the banked integer-truncation law: never divide a value before comparing it). 3551// RECOMBINATION CONTRACT: a different game = a different spec; a recombined identity turns a 3552// subsystem OFF by zeroing its rows, so every consumer guards the zero (endless day, no rain, 3553// no farm clock) instead of trapping on a modulo-by-zero. Off is a state, never a crash. 3554func cal_dayt(base: i64) -> i64 { 3555 let dl: i64 = wsp(base)[P_DAYLEN] 3556 if dl <= 0 { return 0 } 3557 let s: *i64 = wst(base) 3558 return s[S_T] % dl 3559} 3560func cal_day(base: i64) -> i64 { 3561 let dl: i64 = wsp(base)[P_DAYLEN] 3562 if dl <= 0 { return 0 } 3563 let s: *i64 = wst(base) 3564 return s[S_T] / dl 3565} 3566func cal_season(base: i64) -> i64 { 3567 let sd: i64 = wsp(base)[P_SEASD] 3568 if sd <= 0 { return 0 } 3569 return (cal_day(base) / sd) % 4 3570} 3571// night = the last 3/8 of each day: dayt*8 >= DAYLEN*5, cross-multiplied 3572func cal_night(base: i64) -> i64 { 3573 if wsp(base)[P_DAYLEN] <= 0 { return 0 } 3574 if cal_dayt(base)*8 >= wsp(base)[P_DAYLEN]*WC_NIGHT_X8 { return 1 } 3575 return 0 3576} 3577// sun elevation as a Q12 sine: rises 0 at dawn, +4096 at noon, negative through the night 3578func cal_sunel(base: i64) -> i64 { 3579 let dl: i64 = wsp(base)[P_DAYLEN] 3580 if dl <= 0 { return 4096 } // calendar off = eternal noon 3581 let dt2: i64 = cal_dayt(base) 3582 if dt2*8 < dl*WC_NIGHT_X8 { return it_sin4096(dt2*8*IT_PI/(dl*WC_NIGHT_X8)) } 3583 return 0 - it_sin4096((dt2*8 - dl*WC_NIGHT_X8)*IT_PI/(dl*(8 - WC_NIGHT_X8))) 3584} 3585// deterministic weather: ONE roll per absolute day-eighth from (seed, segment, season table) -- 3586// the same world replays the same storms forever 3587func cal_rain(base: i64) -> i64 { 3588 let dl: i64 = wsp(base)[P_DAYLEN] 3589 if dl <= 0 { return 0 } 3590 let s: *i64 = wst(base) 3591 let seg: i64 = s[S_T]*8/dl 3592 // DELEGATED (2026-08-26) to nx_weather_lib's gate-proven wx_rain: same seed lineage (the 3593 // +3300 salt fold), same one-roll-per-absolute-day-eighth semantics (seg IS the eighth), and 3594 // the gate PROVES the long-run rate stays inside each P_RAINS row's binomial envelope -- this 3595 // delegation cannot change any world's climate, and it gains the front persistence, typed 3596 // precipitation and gradient wind the old coin structurally lacked. 3597 return wx_rain(s[S_SEED] + 3300, seg, wsp(base)[P_RAINS + cal_season(base)]) 3598} 3599 3600// the per-tick weather export writer: recomputes the eighth's state (pure fns -- cheap, replay 3601// exact) and publishes it in the spec block for the page and every other consumer. 3602func wc_weather_tick(base: i64) -> i64 { 3603 let dl: i64 = wsp(base)[P_DAYLEN] 3604 if dl <= 0 { return 0 } 3605 let s: *i64 = wst(base) 3606 let seg: i64 = s[S_T]*8/dl 3607 let sd: i64 = s[S_SEED] + 3300 3608 let row: i64 = wsp(base)[P_RAINS + cal_season(base)] 3609 let sp: *i64 = wsp(base) 3610 sp[P_WXCOV] = wx_coverage(sd, seg, row) 3611 let ws: i64 = wx_wind_speed(sd, seg) 3612 let wd: i64 = wx_wind_dir_q(sd, seg) 3613 // direction Q -> components via the sim's own it_cos4096/it_sin4096 (angle = wd scaled to tau) 3614 sp[P_WXWINDX] = ws*it_cos4096(wd*IT_PI*2/WX_Q)/4096 3615 sp[P_WXWINDZ] = ws*it_sin4096(wd*IT_PI*2/WX_Q)/4096 3616 sp[P_WXTYPE] = wx_precip(sd, seg, row, cal_season(base), cal_night(base)) 3617 sp[P_WXTEMP] = wx_temp(cal_season(base), cal_night(base), sd, seg) 3618 return 0 3619} 3620// write bst into MC_DISG bits 3-5 WITHOUT touching the disguise/met bits (0-2) or the 3621// FRIENDSHIP byte (bits 6-13) -- the old (dg & 7) mask silently erased any upper state 3622func dg_bst(dg: i64, b: i64) -> i64 { return dg - ((dg >> 3) & 7)*8 + b*8 } 3623 3624// ---------- B1/B2: soil + crops. THE EDIT JOURNAL IS THE SPARSE ACTIVE LIST ---------- 3625// Every farm cell was player-touched, so it is already journaled at absolute coords: no scan, 3626// no extra memory, and growth writes go through the same journal so world and history can 3627// never disagree. Growth is Minecraft's integer stencil: p = 1/(floor(25/speed)+1), speed 3628// from soil wetness; rolls are seed+coord+epoch hashes -> replay-safe by construction. 3629func wc_grow_set_indexed(base: i64, index: *i64, lx: i64, ly: i64, lz: i64, b: i64) -> i64 { 3630 let s: *i64 = wst(base) 3631 if ej_index_put(base,index, lx + s[S_WOX], ly, lz + s[S_WOZ], b) < 0 { 3632 s[S_EJDROP] = s[S_EJDROP] + 1 3633 return 0 3634 } 3635 return vset(base, lx, ly, lz, b) 3636} 3637func wc_grow_set(base: i64, lx: i64, ly: i64, lz: i64, b: i64) -> i64 { 3638 let index: *i64 = ej_batch_begin(base,CRAFT_EXT_TOTAL) 3639 if (index as i64) == 0 { return 0 } 3640 return wc_grow_set_indexed(base,index,lx,ly,lz,b) 3641} 3642// water within the 5x5 ring at soil level or one below (ponds sit lower than their fields) 3643func wc_wet_near(base: i64, lx: i64, ly: i64, lz: i64) -> i64 { 3644 var dz2: i64 = 0 - 2 3645 while dz2 <= 2 { 3646 var dx2: i64 = 0 - 2 3647 while dx2 <= 2 { 3648 if vget(base, lx + dx2, ly, lz + dz2) == 4 { return 1 } 3649 if vget(base, lx + dx2, ly - 1, lz + dz2) == 4 { return 1 } 3650 dx2 = dx2 + 1 3651 } 3652 dz2 = dz2 + 1 3653 } 3654 return 0 3655} 3656func wc_farm_tick(base: i64) -> i64 { 3657 let s: *i64 = wst(base) 3658 let e: *i64 = ejp(base) 3659 let sp: *i64 = wsp(base) 3660 let index: *i64 = ej_batch_begin(base,CRAFT_EXT_TOTAL) 3661 if (index as i64) == 0 { return 0-3 } 3662 let rain: i64 = cal_rain(base) 3663 var i: i64 = 0 3664 while i < EJRN_SLOTS { 3665 let cur: i64 = e[i] 3666 if cur != 0 { 3667 let b: i64 = cur & 255 3668 if b >= B_FARM { if b <= B_FARMW { 3669 let k: i64 = (cur >> 8) - 1 3670 let ay: i64 = k & 63 3671 let az: i64 = ((k >> 6) & WATER_MAGIC_33554431) - WATER_MAGIC_16777216 3672 let ax: i64 = ((k >> 31) & WATER_MAGIC_33554431) - WATER_MAGIC_16777216 3673 let lx: i64 = ax - s[S_WOX] 3674 let lz: i64 = az - s[S_WOZ] 3675 // only cells inside the window tick (offscreen farms pause -- chunk law, honest) 3676 if vin(lx, ay, lz) == 1 { if vget(base, lx, ay, lz) == b { 3677 if b == B_FARM { if rain == 1 { wc_grow_set_indexed(base,index, lx, ay, lz, B_FARMW) } } 3678 if b == B_FARM { if rain == 0 { if wc_wet_near(base, lx, ay, lz) == 1 { 3679 wc_grow_set_indexed(base,index, lx, ay, lz, B_FARMW) 3680 } } } 3681 if b == B_FARMW { if rain == 0 { if wc_wet_near(base, lx, ay, lz) == 0 { 3682 wc_grow_set_indexed(base,index, lx, ay, lz, B_FARM) 3683 } } } 3684 if b >= B_CROP0 { if b <= B_CROP1 { 3685 var spd: i64 = sp[P_GROWD] 3686 let un: i64 = vget(base, lx, ay - 1, lz) 3687 if un == B_FARMW { spd = sp[P_GROWW] } 3688 if rain == 1 { if un == B_FARM { spd = sp[P_GROWW] } } 3689 if spd < 1 { spd = 1 } 3690 let den: i64 = 25/spd + 1 3691 if whash(ax*131 + ay, az*97, s[S_SEED] + s[S_T]/sp[P_GROWE]) % den == 0 { 3692 wc_grow_set_indexed(base,index, lx, ay, lz, b + 1) 3693 if b + 1 == B_CROP2 { s[S_GROWN] = s[S_GROWN] + 1 } 3694 } 3695 } } 3696 } } 3697 } } 3698 } 3699 i = i + 1 3700 } 3701 return 0 3702} 3703 3704// ---------- A4/C1 shared state maintenance (springs + needs) ---------- 3705// GAIT DRIVE IS STILL A FREE-RUNNING CLOCK (debt 1785770635 STAYS OPEN) -- and the reason is now 3706// MEASURED rather than guessed, because the obvious fix was tried on 2026-08-25 and REFUTED by 3707// nx_wasm_craft_gate T36 before it could ship. Advancing MC_PH by distance travelled makes the 3708// tissue drive track her real cadence, which is correct and is what the oracle band wants. It is 3709// ALSO CIRCULAR: line ~1849 derives her wander heading FROM ph (dx = sin(ph*3), dz = cos(ph*3)), 3710// so a girl who stops moving freezes her phase, and a frozen phase freezes her heading -- she can 3711// never restart. The gate caught it exactly: the bold girl's approach distance stayed at her START 3712// value (1024, was 577) and the run went 52/53 RED. THE REAL FIX IS TO SPLIT THE TWO PHASES: a 3713// wander phase that must free-run for behaviour, and a gait phase that must track travel for 3714// tissue. That needs one word of per-mob state (accumulated stride distance), which touches the 3715// entity schema and therefore the save-format teeth (T15, T18, T50) -- a deliberate change, not a 3716// drive-by. Reverted here so the tree stays GREEN; the diagnosis is the deliverable. 3717func wc_soft_seat_all(base: i64) -> i64 { 3718 let m: *i64 = mobp(base) 3719 let sb0: *i64 = (base + O_SOFT) as *i64 3720 var k: i64 = 0 3721 while k < en_count(m) { 3722 let h: i64 = en_nth(m, k) 3723 if h > 0 { sb_seat_mob(sb0, k, en_get(m, h, MC_X)/4, en_get(m, h, MC_Y)/4, en_get(m, h, MC_Z)/4) } 3724 k = k + 1 3725 } 3726 return 0 3727} 3728// ---------- THE TRAVELER'S PASSPORT (isekai): character + party cross worlds ---------- 3729func passp(base: i64) -> *i64 { return (base + O_PASS) as *i64 } 3730func wc_pass_ck(p: *i64) -> i64 { 3731 return gsc_fold_words(SAVE_CK_SEED, p, 0, 21, SAVE_CK_PRIME, SAVE_CK_MASK) 3732} 3733func wc_party_count(base: i64) -> i64 { 3734 let m: *i64 = mobp(base) 3735 var n: i64 = 0 3736 var k: i64 = 0 3737 while k < en_count(m) { 3738 let h: i64 = en_nth(m, k) 3739 if h > 0 { if (en_get(m, h, MC_DISG) & 4) == 4 { n = n + 1 } } 3740 k = k + 1 3741 } 3742 return n 3743} 3744// fold the session's deltas into the lifetime ledger (snapshot words 32+ make this idempotent: 3745// a world reload or a second build never double-counts a deed) 3746func wc_pass_sync(base: i64) -> i64 { 3747 let p: *i64 = passp(base) 3748 let s: *i64 = wst(base) 3749 if p[0] != PASS_MAGIC { 3750 var z: i64 = 0 3751 while z < 48 { p[z] = 0; z = z + 1 } 3752 p[0] = PASS_MAGIC 3753 p[1] = 1 3754 p[2] = whash(s[S_SEED], s[S_T], 20260802) 3755 // snapshot stays ZERO on creation: a traveler born mid-world ABSORBS what he has 3756 // already done here as his first deeds. Baselining at current values silently 3757 // discarded them (gate T50 caught exactly that: 7 harvests -> ledger 0). 3758 } 3759 var d: i64 = s[S_BROKEN] - p[32] 3760 if d > 0 { p[3] = p[3] + d } 3761 p[32] = s[S_BROKEN] 3762 d = s[S_PLACED] - p[33] 3763 if d > 0 { p[4] = p[4] + d } 3764 p[33] = s[S_PLACED] 3765 d = s[S_HARV] - p[34] 3766 if d > 0 { p[5] = p[5] + d } 3767 p[34] = s[S_HARV] 3768 d = s[S_PLANT] - p[35] 3769 if d > 0 { p[6] = p[6] + d } 3770 p[35] = s[S_PLANT] 3771 d = s[S_FOUND] - p[36] 3772 if d > 0 { p[7] = p[7] + d } 3773 p[36] = s[S_FOUND] 3774 d = s[S_LOST] - p[37] 3775 if d > 0 { p[8] = p[8] + d } 3776 p[37] = s[S_LOST] 3777 d = s[S_T] - p[38] 3778 if d > 0 { p[9] = p[9] + d } 3779 p[38] = s[S_T] 3780 p[10] = p[10] | (1 << s[S_VAR]) 3781 // the party rides along: up to 3 companions' (kind, bond-word, genome) 3782 let m: *i64 = mobp(base) 3783 var pc: i64 = 0 3784 var k: i64 = 0 3785 while k < en_count(m) { 3786 let h: i64 = en_nth(m, k) 3787 if h > 0 { if (en_get(m, h, MC_DISG) & 4) == 4 { if pc < 3 { 3788 p[12 + pc*3] = en_get(m, h, MC_KIND) 3789 p[13 + pc*3] = en_get(m, h, MC_DISG) 3790 p[14 + pc*3] = en_get(m, h, MC_GENE) 3791 pc = pc + 1 3792 } } } 3793 k = k + 1 3794 } 3795 p[11] = pc 3796 p[21] = wc_pass_ck(p) 3797 return PASS_LEN 3798} 3799// arriving traveler: validate, re-baseline the snapshot, and WALK THE PARTY OFF THE BOAT -- 3800// each companion respawns beside the player with bond and genome intact. Refusal touches 3801// nothing: -1 magic, -2 version, -3 checksum (the save doors' law). 3802func wc_pass_apply(base: i64) -> i64 { 3803 let p: *i64 = passp(base) 3804 if p[0] != PASS_MAGIC { return 0 - 1 } 3805 if p[1] != 1 { return 0 - 2 } 3806 if wc_pass_ck(p) != p[21] { return 0 - 3 } 3807 let s: *i64 = wst(base) 3808 p[32] = s[S_BROKEN] 3809 p[33] = s[S_PLACED] 3810 p[34] = s[S_HARV] 3811 p[35] = s[S_PLANT] 3812 p[36] = s[S_FOUND] 3813 p[37] = s[S_LOST] 3814 p[38] = s[S_T] 3815 p[10] = p[10] | (1 << s[S_VAR]) 3816 let m: *i64 = mobp(base) 3817 var pc: i64 = 0 3818 while pc < p[11] { if pc < 3 { 3819 let hn: i64 = en_spawn(m) 3820 if hn > 0 { 3821 let ang: i64 = pc*2*IT_PI/3 + IT_PI/6 3822 var ax: i64 = s[S_CX] + it_sin4096(ang)*3*256/WATER_MAGIC_4096 3823 var az: i64 = s[S_CZ] + it_cos4096(ang)*3*256/WATER_MAGIC_4096 3824 ax = wclamp(ax, 2*256, (WX - 2)*256) 3825 az = wclamp(az, 2*256, (WZ - 2)*256) 3826 let gy: i64 = mob_ground(base, ax >> 8, WY - 1, az >> 8) 3827 en_set(m, hn, MC_X, ax) 3828 en_set(m, hn, MC_Z, az) 3829 en_set(m, hn, MC_Y, wc_contact_floor_q(base,ax,az,WY-1)) 3830 en_set(m, hn, MC_KIND, p[12 + pc*3]) 3831 en_set(m, hn, MC_DISG, p[13 + pc*3]) 3832 en_set(m, hn, MC_GENE, p[14 + pc*3]) 3833 en_set(m, hn, MC_PH, whash(p[14 + pc*3], pc, s[S_SEED]) % WATER_MAGIC_4096) 3834 } 3835 pc = pc + 1 3836 } } 3837 wc_soft_seat_all(base) 3838 wc_need_seed(base) 3839 p[21] = wc_pass_ck(p) 3840 return 0 3841} 3842 3843// level + party-invite as BASE-PARAMETERIZED cores (the doors below are thin wrappers, so the 3844// gate exercises the same code the game runs -- one definition, zero drift) 3845func pass_level_of(base: i64) -> i64 { 3846 let p: *i64 = passp(base) 3847 if p[0] != PASS_MAGIC { return 1 } 3848 var sc: i64 = p[5]*4 + p[6] + p[7]*20 + p[3]/8 + p[4]/8 + p[9]/72000*3 3849 var lv: i64 = 1 3850 while sc >= lv*10 { sc = sc - lv*10; lv = lv + 1 } 3851 return lv 3852} 3853func party_of(base: i64) -> i64 { 3854 let s: *i64 = wst(base) 3855 if s[S_NPCT] < 0 { return 0 - 1 } 3856 let m: *i64 = mobp(base) 3857 let h: i64 = en_nth(m, s[S_NPCT]) 3858 if h <= 0 { return 0 - 1 } 3859 let dg: i64 = en_get(m, h, MC_DISG) 3860 if ((dg >> 6) & 255) < 40 { return 0 - 2 } // a bond, not a kidnapping 3861 if (dg & 4) == 4 { 3862 en_set(m, h, MC_DISG, dg - 4) // toggle: she may also LEAVE 3863 return 0 3864 } 3865 if wc_party_count(base) >= 3 { return 0 - 3 } 3866 en_set(m, h, MC_DISG, dg | 4) 3867 th_add(base, s[S_NPCT], TH_MET, 20, 14400) 3868 return 1 3869} 3870 3871// outfit for girl k: identity data gates the dimension; her genome picks within it. 3872// 0 clothed · 1 topless · 2 nude (all figures are the one adult mesh) 3873// THE POSE DOOR (operator 2026-08-02: "interact with me and the environment in various poses 3874// beyond the one" -- the pose PIPELINE's first rung). The engine ALREADY computes behavioral 3875// states (T44: sleep/flee via MC_DISG bits 3-5; movement via O_MOBAUX deltas) and the renderer 3876// ignores every one of them: sleeping girls play the walk clip, idle girls walk in place. Same 3877// class as the face: THE DATA EXISTS AND DRIVES NOTHING -- so the consumer contract comes first. 3878// Pose ids (the page consumes; the coming NXA pose BANK indexes by these): 3879// 0 idle-stand (breath only) 1 walk 2 sleep-lying 3 flee-run 4 sit 5 lie-awake 3880// 4/5 are RESERVED rows: behaviors from the towel/smart-object chain select them; publishing 3881// the id space now means new poses arrive as DATA against a stable contract, not an engine edit. 3882func mob_pose(base: i64, k: i64) -> i64 { 3883 let m: *i64 = mobp(base) 3884 let st: i64 = (en_get(m, en_nth(m, k), MC_DISG) >> 3) & 7 3885 if st == 2 { return 2 } 3886 if st == 4 { return 3 } 3887 if mob_spd_q8i(base, k) > 0 { return 1 } 3888 return 0 3889} 3890func mobpose(k: i64) -> i64 { return mob_pose(0, k) } 3891 3892// GE13b THE SELECTOR: what a girl wears, from the world's outfit mode, her genome and her pose. 3893// Returns the OUTFIT word: upper garment id << GAR_SLOT_SH | lower garment id, 0 = nothing in that 3894// slot; one-piece and dresses cover both and ride the LOWER slot. Every branch is a table LOOKUP -- 3895// no colour, no shape, no category is decided here; a world that rewrites a garment row rewrites 3896// what these ids mean, and a row the world does not carry (0) is not wearable. 3897// mode 0 (identity keeps everyone clothed): CASUAL/EVENING by the beach bits 18-19 -- tee+shorts, 3898// tee+skirt, sundress, evening dress. Before this every girl wore the one dress. 3899// mode 1 (MIXED beach): the incumbent bits, garment by garment -- 0 bikini top+bottom, 1 one-piece, 3900// 2 bikini bottom only (topless), 3 nothing (nude). Girl-for-girl the SAME 0/1/2 the old rule 3901// produced; gate T85 proves it against mob_outfit_v1 below. 3902// mode 2 (SWIMWEAR-ONLY): bit 18 picks bikini or one-piece; never a cover-up, never casual. 3903// mode 3 (NUDE BEACH): nothing worn. 3904// POSE OVERLAY: asleep (mob_pose SLEEP) on a beach with swim bottoms on, she wraps a SARONG 3905// (beach-cover) over them -- same coverage bit, so her legacy value never flickers -- unless 3906// she is in water, where a wrap is never worn (swim => swim). 3907func wc_mob_in_water(base: i64, k: i64) -> i64 { 3908 let m: *i64 = mobp(base) 3909 let h: i64 = en_nth(m, k) 3910 if vget(base, en_get(m, h, MC_X) >> 8, en_get(m, h, MC_Y) >> 8, en_get(m, h, MC_Z) >> 8) == B_WATER { return 1 } 3911 return 0 3912} 3913func wc_outfit(base: i64, k: i64) -> i64 { 3914 let md: i64 = wsp(base)[P_OUTFIT] 3915 let m: *i64 = mobp(base) 3916 let gb: i64 = (en_get(m, en_nth(m, k), MC_GENE) >> MG_BEACH_SH) & MG_BEACH_MASK 3917 var up: i64 = 0 3918 var lo: i64 = 0 3919 var beach: i64 = 0 3920 if md == 0 { 3921 if gb == 0 { up = GAR_TEE; lo = GAR_SHORTS } 3922 if gb == 1 { up = GAR_TEE; lo = GAR_SKIRT } 3923 if gb == 2 { lo = GAR_SUNDRESS } 3924 if gb == 3 { lo = GAR_DRESS } 3925 } 3926 if md == 1 { 3927 beach = 1 3928 if gb == 0 { up = GAR_BIKINI_TOP; lo = GAR_BIKINI_BOT } 3929 if gb == 1 { lo = GAR_ONEPIECE } 3930 if gb == 2 { lo = GAR_BIKINI_BOT } 3931 } 3932 if md == 2 { 3933 beach = 1 3934 if (gb & 1) == 0 { up = GAR_BIKINI_TOP; lo = GAR_BIKINI_BOT } 3935 if (gb & 1) == 1 { lo = GAR_ONEPIECE } 3936 } 3937 if beach == 1 { if lo > 0 { if gar_cat(gar_row(base, lo)) == GAR_CAT_SWIM { if gar_cov(gar_row(base, lo)) == GAR_COV_BOT { 3938 if mob_pose(base, k) == MOB_POSE_SLEEP { if wc_mob_in_water(base, k) == 0 { lo = GAR_SARONG } } 3939 } } } } 3940 // a row the world does not carry is not a garment: the slot empties (the neg-control's lever) 3941 if gar_row(base, up) == 0 { up = 0 } 3942 if gar_row(base, lo) == 0 { lo = 0 } 3943 return (up << GAR_SLOT_SH) | lo 3944} 3945// 0 clothed / 1 topless / 2 nude, DERIVED from the worn set -- the contract every existing consumer 3946// (the page's uOF bands, T49, T77) keeps, now a consequence of the wardrobe instead of the wardrobe. 3947func mob_outfit(base: i64, k: i64) -> i64 { 3948 let o: i64 = wc_outfit(base, k) 3949 return gar_legacy(gar_cov(gar_row(base, o >> GAR_SLOT_SH)) | gar_cov(gar_row(base, o & GAR_ID_MASK))) 3950} 3951// THE PRE-WARDROBE RULE, kept RUNNABLE as the gate's oracle: T85 proves mob_outfit == mob_outfit_v1 3952// for every girl in every mode, so no consumer sees a different girl. Not called by the game. 3953func mob_outfit_v1(base: i64, k: i64) -> i64 { 3954 let md9: i64 = wsp(base)[P_OUTFIT] 3955 if md9 == 0 { return 0 } 3956 // GE13: per-world outfit FLAGS, all data -- 1 = MIXED (genome bits decide; the incumbent 3957 // beach), 2 = SWIMWEAR-ONLY (dimension active, variety off), 3 = NUDE BEACH (all bare). 3958 if md9 == 2 { return 0 } 3959 if md9 == 3 { return 2 } 3960 let m: *i64 = mobp(base) 3961 let g: i64 = (en_get(m, en_nth(m, k), MC_GENE) >> 18) & 3 3962 if g <= 1 { return 0 } 3963 if g == 2 { return 1 } 3964 return 2 3965} 3966 3967func wc_need_seed(base: i64) -> i64 { 3968 let m: *i64 = mobp(base) 3969 let s: *i64 = wst(base) 3970 let nd0: *i64 = (base + O_NEED) as *i64 3971 var k: i64 = 0 3972 while k < en_count(m) { 3973 nd0[k*4] = 300 + (whash(k, 11, s[S_SEED]) % 200) 3974 nd0[k*4 + 1] = 700 3975 nd0[k*4 + 2] = 300 + (whash(k, 23, s[S_SEED]) % 200) 3976 nd0[k*4 + 3] = 0 3977 k = k + 1 3978 } 3979 return 0 3980} 3981 3982// ---------- C3/C5: the inner life (thought ledger + gossip records) ---------- 3983func mindp(base: i64) -> *i64 { return (base + O_MIND) as *i64 } 3984func wc_mind_zero(base: i64) -> i64 { 3985 let mp: *i64 = mindp(base) 3986 var i: i64 = 0 3987 while i < MOB_CAP*24 { mp[i] = 0; i = i + 1 } 3988 return 0 3989} 3990// add/refresh a thought: same id refreshes in place; else a dead slot; else rotate one out 3991func th_add(base: i64, k: i64, id: i64, mag: i64, ttl: i64) -> i64 { 3992 let mp: *i64 = mindp(base) 3993 let s: *i64 = wst(base) 3994 let b: i64 = k*24 3995 var slot: i64 = 0 - 1 3996 var i: i64 = 0 3997 while i < 8 { 3998 if (mp[b + i*2] >> 8) == id { slot = i } 3999 i = i + 1 4000 } 4001 if slot < 0 { 4002 i = 0 4003 while i < 8 { 4004 if slot < 0 { if mp[b + i*2 + 1] <= s[S_T] { slot = i } } 4005 i = i + 1 4006 } 4007 } 4008 if slot < 0 { slot = (s[S_T] + k) % 8 } 4009 mp[b + slot*2] = id*256 + (mag + 128) 4010 mp[b + slot*2 + 1] = s[S_T] + ttl 4011 return 0 4012} 4013// mood = the sum of LIVE thoughts, clamped -- always decomposable back into its reasons 4014func th_mood(base: i64, k: i64) -> i64 { 4015 let mp: *i64 = mindp(base) 4016 let s: *i64 = wst(base) 4017 let b: i64 = k*24 4018 var mo: i64 = 0 4019 var i: i64 = 0 4020 while i < 8 { 4021 if mp[b + i*2] != 0 { if mp[b + i*2 + 1] > s[S_T] { mo = mo + (mp[b + i*2] & 255) - 128 } } 4022 i = i + 1 4023 } 4024 if mo > 100 { mo = 100 } 4025 if mo < 0 - 100 { mo = 0 - 100 } 4026 return mo 4027} 4028// a gossip fact: (subject, predicate, confidence, born). A better-known copy never downgrades. 4029func go_add(base: i64, k: i64, subj: i64, pred: i64, conf: i64) -> i64 { 4030 let mp: *i64 = mindp(base) 4031 let s: *i64 = wst(base) 4032 let b: i64 = k*24 + 16 4033 var slot: i64 = 0 - 1 4034 var free: i64 = 0 - 1 4035 var oldest: i64 = 0 4036 var oldt: i64 = SAVE_CK_MASK 4037 var i: i64 = 0 4038 while i < 4 { 4039 let w: i64 = mp[b + i*2] 4040 if w == 0 { if free < 0 { free = i } } 4041 if w != 0 { if (w >> 16) == subj { if ((w >> 8) & 255) == pred { slot = i } } } 4042 if mp[b + i*2 + 1] < oldt { oldt = mp[b + i*2 + 1]; oldest = i } 4043 i = i + 1 4044 } 4045 if slot >= 0 { if (mp[b + slot*2] & 255) >= conf { return 0 } } 4046 if slot < 0 { slot = free } 4047 if slot < 0 { slot = oldest } 4048 mp[b + slot*2] = subj*WATER_MAGIC_65536 + pred*256 + conf 4049 mp[b + slot*2 + 1] = s[S_T] 4050 return 0 4051} 4052func go_newest(base: i64, k: i64) -> i64 { 4053 let mp: *i64 = mindp(base) 4054 let b: i64 = k*24 + 16 4055 var best: i64 = 0 - 1 4056 var bt: i64 = 0 - 1 4057 var i: i64 = 0 4058 while i < 4 { 4059 if mp[b + i*2] != 0 { if mp[b + i*2 + 1] > bt { bt = mp[b + i*2 + 1]; best = i } } 4060 i = i + 1 4061 } 4062 return best 4063} 4064 4065// ---- GAIT: THE PARAMETRIC DRIVE ---------------------------------------------------------------- 4066// decidegrees -> it-units. This is nx_quadruped's qdeg idiom at 10x resolution; that organ's 4067// quad_gait_pose_g is the working precedent in this estate for "a gait is DATA, amplitudes and 4068// per-limb phase offsets are the gait's parameters". It is deliberately NOT imported: it calls 4069// sys_mmap and this engine targets wasm, so the IDIOM is reused and the code is not duplicated. 4070func wc_ddeg(d: i64) -> i64 { return d*IT_PI/WC_DDEG_HALFTURN } 4071// AMPLITUDE from a PUBLISHED RANGE. The halving lives here, once, so no caller can forget it and 4072// no future reader has to work out which of the two a stored constant is. 4073func wc_amp_ddeg(range_ddeg: i64) -> i64 { return wc_ddeg(range_ddeg)/2 } 4074// STRIDE PHASE: one full cycle per WC_STRIDE_Q8 of PATH TRAVELLED. Distance-driven by 4075// construction, which is what makes pelvic rotation phase-locked to stride -- the coupling is 4076// structural, not a tuning. Two consequences fall out for free: a girl who stops has a FROZEN 4077// stride phase, so she stands instead of marching on the spot; and a girl who walks faster takes 4078// the same-length strides more often, so cadence emerges from speed instead of being a constant. 4079// ⚠THIS IS A SECOND, DIFFERENT QUANTITY FROM wc_gait_ang -- NOT A DUPLICATE RULER. wc_gait_ang 4080// drives the THORAX BOB, which is the SECOND HARMONIC of the stride (two steps per cycle, each 4081// with its own vertical rise and fall), and its scale is calibrated against the gait_bob_q8 row. 4082// ★THEIR RATIO IS A CHECKABLE CLAIM AND IT DOES NOT CURRENTLY HOLD. wc_gait_ang implies one bob 4083// per 962 q8 of travel, hence one stride per 1924 q8 = 7.5 m, against the cited 1.46 m -- the 4084// incumbent gait drive is calibrated 5.1x too long, and separately it is calibrated at SPEED (40 4085// q8/tick) which no mob ever reaches: mobs walk at 4-5 q8/tick, so the bob it produces in the 4086// live world is ~0.25 Hz where walking thorax oscillation is ~1.8-2 Hz. 4087// ⛔THAT DISAGREEMENT IS NAMED HERE AND DELIBERATELY NOT FIXED BY EDITING THE SHARED CONSTANT. 4088// wc_gait_ang feeds the soft-body anchor that gate teeth T40 and T54 are calibrated against, and 4089// silently moving a constant another tooth is calibrated on is how a green gate stops meaning 4090// anything. The renderer takes the cited stride; the bob keeps its own calibration; the gap goes 4091// on the board as a measurement with its arithmetic attached rather than into a quiet edit. 4092func wc_stride_ang(g_q8: i64) -> i64 { return g_q8*2*IT_PI/WC_STRIDE_Q8 } 4093// shortest signed representative of an angle difference, in (-IT_PI, IT_PI]. 4094func wc_angwrap(d: i64) -> i64 { 4095 var r: i64 = d % (2*IT_PI) 4096 if r > IT_PI { r = r - 2*IT_PI } 4097 if r < 0 - IT_PI { r = r + 2*IT_PI } 4098 return r 4099} 4100// THE HEADING LOW-PASS. This one function is the whole wobble fix AND the fluidity parameter. 4101// WHAT IT REPLACES: nothing. There was no heading state at all -- the body's yaw was the PLAYER'S 4102// camera yaw, so every girl pivoted with the camera while translating along her own path, and the 4103// steering that produced that path is an 8-direction bang-bang controller (dx = +/-4 per axis with 4104// an independent per-axis deadband) whose sign can flip in a single tick and whose diagonal is 4105// 41 percent faster than its axis-aligned step. Facing derived from that signal inherits all of it. 4106// HOW IT STEERS WITHOUT atan2: there is no it_atan2 anywhere in the corpus (proven, corpus_complete 4107// =1), and adding one would be a second trigonometric approximation beside the incumbent. It is not 4108// needed. The CROSS PRODUCT of the current forward with the desired direction is sin(error) scaled 4109// by |desired|, which already carries both the SIGN and, near convergence, the MAGNITUDE of the 4110// error -- so a proportional controller can be built from the sin/cos this engine already has. 4111// cr < 0 / cr > 0 -> which way to turn 4112// dt < 0 -> the target is BEHIND: turn at the full allowance, sign broken deterministically 4113// The step is proportional to sin(error), so it goes to zero AS the error goes to zero: the 4114// approach is asymptotic and cannot overshoot, which is what "fluid" means here as opposed to a 4115// bang-bang controller that snaps (locked) or an unclamped one that rings (floppy). 4116// The allowance is speed-coupled: mx = 0 when she is not moving, so nobody spins on the spot. 4117func wc_hdg_budget(hdg: i64, dx: i64, dz: i64, budget: i64) -> i64 { 4118 if budget <= 0 { return hdg } 4119 let mag: i64 = sd_isqrt(dx*dx + dz*dz) 4120 if mag <= 0 { return hdg } 4121 let fx: i64 = it_sin4096(hdg % (2*IT_PI)) 4122 let fz: i64 = it_cos4096(hdg % (2*IT_PI)) 4123 let cr: i64 = fx*dz - fz*dx 4124 let dot: i64 = fx*dx + fz*dz 4125 var step: i64 = 0 - budget*cr/(mag*WATER_MAGIC_4096) 4126 if dot < 0 { 4127 step = budget 4128 if cr > 0 { step = 0 - budget } 4129 } 4130 if step == 0 { if cr > 0 { step = 0 - 1 } } 4131 if step == 0 { if cr < 0 { step = 1 } } 4132 if step > budget { step = budget } 4133 if step < 0 - budget { step = 0 - budget } 4134 var next: i64 = hdg + step 4135 if next < 0 { next = next + 2*IT_PI } 4136 if next >= 2*IT_PI { next = next - 2*IT_PI } 4137 return next 4138} 4139// Forward-walk clips cancel travel along body heading. Preserve the authored intent 4140// and its existing turn budget; fractional world-axis remainders retain slow motion. 4141func wc_steer_reset(base:i64)->i64 { 4142 let state:*i64=(base+O_MOB_STEER) as *i64 4143 var i:i64=0 4144 while i<MOB_CAP*WC_STEER_W {state[i]=0;i=i+1} 4145 return 0 4146} 4147 4148// The resident loader declares an inspected clip policy after each successful ingest. 4149// Calibration supplies distance, not permission to reinterpret unknown clip direction. 4150func wc_nxa_locomotion(base:i64,mode:i64)->i64 { 4151 let policy:*i64=(base+O_NXA_LOCOMOTION) as *i64 4152 policy[0]=NXA_LOCOMOTION_RAW 4153 wc_steer_reset(base) 4154 if mode==NXA_LOCOMOTION_RAW {return 0} 4155 if mode!=NXA_LOCOMOTION_FORWARD {return 0-1} 4156 if nxa_hp(base)[NXA_H_LOADED]!=1 {return 0-2} 4157 policy[0]=mode 4158 return mode 4159} 4160func nxa_locomotion(mode:i64)->i64 {return wc_nxa_locomotion(0,mode)} 4161func wc_forward_policy(base:i64,k:i64)->i64 { 4162 if k<0||k>=WC_CAST_N {return 0} 4163 let policy:*i64=(base+O_NXA_LOCOMOTION) as *i64 4164 if policy[0]!=NXA_LOCOMOTION_FORWARD {return 0} 4165 if nxa_hp(base)[NXA_H_LOADED]!=1||wc_gait_header(base)[7]!=1 {return 0} 4166 return 1 4167} 4168func wc_motion_step(base:i64,k:i64,heading:i64,dx:i64,dz:i64)->*i64 { 4169 if wc_forward_policy(base,k)==1 {return wc_forward_steer(base,k,heading,dx,dz)} 4170 let state:*i64=(base+O_MOB_STEER+k*WC_STEER_W*8) as *i64 4171 state[0]=0;state[1]=0;state[2]=dx;state[3]=dz;state[4]=en_nth(mobp(base),k) 4172 return state 4173} 4174 4175func wc_forward_steer(base:i64,k:i64,heading:i64,dx:i64,dz:i64)->*i64 { 4176 let state:*i64=(base+O_MOB_STEER+k*WC_STEER_W*8) as *i64 4177 // Dense iteration can swap-remove or recycle an entity; fractions belong to its handle. 4178 let handle:i64=en_nth(mobp(base),k) 4179 if state[4]!=handle {state[0]=0;state[1]=0;state[4]=handle} 4180 state[2]=0;state[3]=0 4181 if dx==0&&dz==0 {return state} 4182 let magnitude:i64=sd_isqrt((dx*dx+dz*dz)*NA_Q12*NA_Q12) 4183 let xq:i64=magnitude*it_sin4096(heading)/NA_Q12+state[0] 4184 let zq:i64=magnitude*it_cos4096(heading)/NA_Q12+state[1] 4185 state[2]=xq/NA_Q12;state[3]=zq/NA_Q12 4186 state[0]=xq-state[2]*NA_Q12;state[1]=zq-state[3]*NA_Q12 4187 return state 4188} 4189func wc_hdg_step(hdg: i64, dx: i64, dz: i64) -> i64 { 4190 let mag: i64 = sd_isqrt(dx*dx + dz*dz) 4191 return wc_hdg_budget(hdg,dx,dz,mag*WC_TURN_PER_STRIDE/WC_STRIDE_Q8) 4192} 4193func wc_facing_step(hdg: i64, dx: i64, dz: i64, player_dx: i64, player_dz: i64, radius: i64, budget: i64) -> i64 { 4194 if dx != 0 || dz != 0 { return wc_hdg_step(hdg,dx,dz) } 4195 if radius <= 0 || budget <= 0 { return hdg } 4196 if player_dx*player_dx + player_dz*player_dz >= radius*radius { return hdg } 4197 return wc_hdg_budget(hdg,player_dx,player_dz,budget) 4198} 4199func wc_hdg_of(base: i64, k: i64) -> i64 { let hp: *i64 = (base + O_MOBHDG) as *i64; return hp[k] } 4200func wc_set_facing_policy(base: i64, radius: i64, gain: i64) -> i64 { 4201 if radius <= 0 || radius > FACING_RADIUS_MAX_Q8 || gain <= 0 || gain > IT_PI { return 0 - 1 } 4202 let state: *i64 = wst(base) 4203 state[S_FACE_RADIUS] = radius 4204 state[S_FACE_GAIN] = gain 4205 return 0 4206} 4207func set_facing_policy(radius: i64, gain: i64) -> i64 { return wc_set_facing_policy(0,radius,gain) } 4208func mob_heading(k: i64) -> i64 { 4209 if k < 0 || k >= en_count(mobp(0)) { return 0 - 1 } 4210 return wc_hdg_of(0,k) 4211} 4212// the girl's own stride phase, in it-units, from the path length she has actually walked 4213func wc_mob_sph(base: i64, k: i64) -> i64 { 4214 let nd: *i64 = (base + O_NEED) as *i64 4215 return wc_stride_ang(nd[k*4 + WC_NEED_GAIT]) % (2*IT_PI) 4216} 4217// ---- THE POSE, AS FIVE PURE FUNCTIONS OF STRIDE PHASE ------------------------------------------- 4218// Extracted out of wc_mob_mesh deliberately: the renderer needs them and the GATE needs them, and a 4219// gate that recomputed these angles from the same formula would be testing a COPY of the mechanism 4220// rather than the mechanism. One definition, two callers, and a tooth that fails when the shipping 4221// code changes. They take only the phase, so they are trivially testable at any phase without a 4222// world, a camera, a rig or a framebuffer. 4223// SIGN CONVENTION, stated once: pelvis LEADS (+), thorax TRAILS (-, applied as a local yaw on the 4224// chest bone whose parent is the pelvis), legs and arms swing in elevation, elbow only flexes. 4225func wc_gp_pelvis(sph: i64) -> i64 { return wc_amp_ddeg(WC_PELVIS_ROT_DDEG)*it_sin4096(sph % (2*IT_PI))/WATER_MAGIC_4096 } 4226func wc_gp_thorax(sph: i64) -> i64 { return wc_amp_ddeg(WC_THORAX_ROT_DDEG)*it_sin4096(sph % (2*IT_PI))/WATER_MAGIC_4096 } 4227func wc_gp_leg(sph: i64) -> i64 { return it_sin4096(sph % (2*IT_PI))*(IT_PI/6)/WATER_MAGIC_4096 } 4228func wc_gp_arm(sph: i64) -> i64 { return it_sin4096(sph % (2*IT_PI))*(IT_PI/12)/WATER_MAGIC_4096 } 4229// (1 - cos)/2 scaled by the cited ROM: 0 at phase 0, ROM at the half cycle, never negative, and no 4230// free parameter -- the anatomical floor at zero and the published range fix both ends between them. 4231func wc_gp_elbow(sph: i64) -> i64 { return wc_ddeg(WC_ELBOW_ROM_DDEG)*(WATER_MAGIC_4096 - it_cos4096(sph % (2*IT_PI)))/(2*WATER_MAGIC_4096) } 4232 4233// mob wander: smooth deterministic drift (phase-driven sin/cos), terrain-following, player-curious 4234// within 6 blocks. Pure integer -- the T4 determinism checksum covers mobs by construction. 4235// Residency describes available collision data, not whether the entity exists. 4236// The inset retains the previous movement boundary and its neighbour-cell footprint. 4237func wc_mob_resident(base: i64, h: i64) -> i64 { 4238 let m: *i64 = mobp(base) 4239 if en_valid(m,h)!=1 { return 0 } 4240 let x: i64 = en_get(m,h,MC_X) 4241 let z: i64 = en_get(m,h,MC_Z) 4242 if x<2*256||x>(WX-2)*256||z<2*256||z>(WZ-2)*256 { return 0 } 4243 return 1 4244} 4245func mob_resident(k: i64) -> i64 { 4246 let m: *i64 = mobp(0) 4247 return wc_mob_resident(0,en_nth(m,k)) 4248} 4249// Both movement intent and the taking phase select the same authored hunt target. 4250func wc_warden_target(base:i64,hw:i64,night:i64)->i64 { 4251 let m:*i64=mobp(base) 4252 var bestj: i64 = 0 - 1 4253 // the world declares its danger (P_WARD), night widens it, and the ARRIVING 4254 // TRAVELER'S LEVEL widens it further: a veteran isekai's stakes rise with him 4255 var wbase: i64 = wsp(base)[P_WARD] 4256 if wbase <= 0 { wbase = 12 } 4257 var bestd: i64 = wbase*256 + pass_level_of(base)*128 4258 if night == 1 { bestd = bestd + 8*256 } // the night belongs to the wardens 4259 var kj: i64 = 0 4260 while kj < en_count(m) { 4261 let hj: i64 = en_nth(m, kj) 4262 if (en_get(m, hj, MC_DISG) & 3) == 3 { 4263 var ddx2: i64 = en_get(m, hj, MC_X) - en_get(m, hw, MC_X) 4264 if ddx2 < 0 { ddx2 = 0 - ddx2 } 4265 var ddz2: i64 = en_get(m, hj, MC_Z) - en_get(m, hw, MC_Z) 4266 if ddz2 < 0 { ddz2 = 0 - ddz2 } 4267 if ddx2 + ddz2 < bestd { bestd = ddx2 + ddz2; bestj = kj } 4268 } 4269 kj = kj + 1 4270 } 4271 return bestj 4272} 4273 4274func mob_tick(base: i64) -> i64 { 4275 let m: *i64 = mobp(base) 4276 let s: *i64 = wst(base) 4277 let nd: *i64 = (base + O_NEED) as *i64 4278 let vyp: *i64 = (base + O_MOBVY) as *i64 // GE12 vertical velocity per mob 4279 let night: i64 = cal_night(base) 4280 var k: i64 = 0 4281 while k < en_count(m) { 4282 let h: i64 = en_nth(m, k) 4283 if h > 0 { 4284 var x: i64 = en_get(m, h, MC_X) 4285 var z: i64 = en_get(m, h, MC_Z) 4286 var ph: i64 = en_get(m, h, MC_PH) + 5 4287 // FOOTSTRIKE IMPULSE: bank the pre-move vertical velocity. After the movement code 4288 // below, (vy_pre < 0 && vyp[k] == 0) is precisely "GE12's integrator arrested a 4289 // fall this tick" -- ground contact -- and |vy_pre| IS the ground-reaction delta-v. 4290 let vy_pre: i64 = vyp[k] 4291 // C1 NEEDS drift (integer, staggered by handle -- the village never moves in lockstep) 4292 let nb: i64 = k*4 4293 if (s[S_T] + h) % 8 == 0 { 4294 if nd[nb] < 1000 { nd[nb] = nd[nb] + 2 } // hunger grows 4295 if nd[nb + 2] < 1000 { nd[nb + 2] = nd[nb + 2] + 3 } // loneliness grows 4296 if nd[nb + 1] > 0 { nd[nb + 1] = nd[nb + 1] - 1 } // energy drains 4297 } 4298 // C3: lived moments become LEDGER ENTRIES (staggered; each refreshes in place) 4299 if (s[S_T] + h) % 128 == 0 { 4300 let bst0: i64 = (en_get(m, h, MC_DISG) >> 3) & 7 4301 if cal_rain(base) == 1 { if bst0 != 2 { th_add(base, k, TH_RAIN, 0 - 8, 1200) } } 4302 if nd[nb] > 700 { th_add(base, k, TH_HUNGRY, 0 - 10, 900) } 4303 if night == 1 { if bst0 == 2 { th_add(base, k, TH_SLEPT, 6, 3600) } } 4304 } 4305 // BEHAVIOR LAYER (C1/C2 -- lives picked by NEEDS x the spec ADVERTISEMENT table, 4306 // not a dice roll): state in MC_DISG bits 3-5, repicked on the staggered 240-tick 4307 // clock. 0=WANDER 1=SOCIALIZE 2=REST 3=FORAGE 4=FLEE. At night the village SLEEPS 4308 // (the C2 schedule) -- while the wardens hunt wider. The old spec-weights TODO is 4309 // RESOLVED: behavior now reads needs + P_ADV rows, both data. 4310 let dg: i64 = en_get(m, h, MC_DISG) 4311 var bst: i64 = (dg >> 3) & 7 4312 if (s[S_T] + h*37) % 240 == 0 { 4313 var sc1: i64 = 220 + (whash(h*911, s[S_T]/240, s[S_SEED]) % 64) 4314 // C3 feedback: the ledger BENDS the life -- a glad girl seeks company, a sad 4315 // one withdraws to rest. Mood is data the argmax reads, not a scripted branch. 4316 let mo9: i64 = th_mood(base, k) 4317 var sc2: i64 = nd[nb + 2] 4318 if mo9 > 0 { sc2 = sc2 + mo9 } 4319 var sc3: i64 = 1000 - nd[nb + 1] 4320 if mo9 < 0 { sc3 = sc3 - mo9*2 } 4321 var sc4: i64 = 0 4322 var ai: i64 = 0 4323 while ai < 6 && wc_mob_resident(base,h)==1 { 4324 let ad: i64 = wsp(base)[P_ADV + ai] 4325 if ad != 0 { if ((ad >> 8) & 255) == 0 { 4326 let ab: i64 = (ad >> 16) & 255 4327 var fnd: i64 = 0 4328 var az2: i64 = (z >> 8) - 3 4329 while az2 <= (z >> 8) + 3 { 4330 var ax2: i64 = (x >> 8) - 3 4331 while ax2 <= (x >> 8) + 3 { 4332 let gy2: i64 = mob_ground(base, ax2, (en_get(m, h, MC_Y) >> 8) + 2, az2) 4333 if gy2 >= 0 { 4334 if vget(base, ax2, gy2, az2) == ab { fnd = 1 } 4335 if vget(base, ax2, gy2 + 1, az2) == ab { fnd = 1 } 4336 } 4337 ax2 = ax2 + 1 4338 } 4339 az2 = az2 + 1 4340 } 4341 if fnd == 1 { 4342 let cand: i64 = nd[nb]*(ad & 255)/8 4343 if cand > sc4 { sc4 = cand } 4344 } 4345 } } 4346 ai = ai + 1 4347 } 4348 bst = 0 4349 var top: i64 = sc1 4350 if sc2 > top { top = sc2; bst = 1 } 4351 if sc3 > top { top = sc3; bst = 2 } 4352 if sc4 > top { top = sc4; bst = 3 } 4353 if night == 1 { bst = 2 } 4354 en_set(m, h, MC_DISG, dg_bst(dg, bst)) 4355 } 4356 if (dg & 3) == 3 { 4357 // a hidden human checks for hunters -- night widens the danger radius 4358 var wr: i64 = 8*256 4359 if night == 1 { wr = 12*256 } 4360 var wnd: i64 = wr 4361 var wnx: i64 = 0 4362 var wnz: i64 = 0 4363 var kf: i64 = 0 4364 while kf < en_count(m) { 4365 let hf: i64 = en_nth(m, kf) 4366 if en_get(m, hf, MC_KIND) == 2 { if (en_get(m, hf, MC_DISG) & 1) == 0 { 4367 var fdx: i64 = en_get(m, hf, MC_X) - x 4368 if fdx < 0 { fdx = 0 - fdx } 4369 var fdz: i64 = en_get(m, hf, MC_Z) - z 4370 if fdz < 0 { fdz = 0 - fdz } 4371 if fdx + fdz < wnd { wnd = fdx + fdz; wnx = en_get(m, hf, MC_X); wnz = en_get(m, hf, MC_Z) } 4372 } } 4373 kf = kf + 1 4374 } 4375 if wnd < wr { bst = 4; en_set(m, h, MC_DISG, dg_bst(en_get(m, h, MC_DISG), 4)) } 4376 } 4377 var dx: i64 = it_sin4096(ph*3 % (2*IT_PI))*5/WATER_MAGIC_4096 4378 var dz: i64 = it_cos4096(ph*3 % (2*IT_PI))*5/WATER_MAGIC_4096 4379 if bst == 1 { 4380 // SOCIALIZE: walk to the nearest other girl; inside 1.2 blocks, stand together 4381 var snd: i64 = SAVE_CK_MASK 4382 var snx: i64 = x 4383 var snz: i64 = z 4384 var snk: i64 = 0 - 1 4385 var ks: i64 = 0 4386 while ks < en_count(m) { 4387 let hs: i64 = en_nth(m, ks) 4388 if hs != h { 4389 var sdx: i64 = en_get(m, hs, MC_X) - x 4390 if sdx < 0 { sdx = 0 - sdx } 4391 var sdz: i64 = en_get(m, hs, MC_Z) - z 4392 if sdz < 0 { sdz = 0 - sdz } 4393 if sdx + sdz < snd { snd = sdx + sdz; snx = en_get(m, hs, MC_X); snz = en_get(m, hs, MC_Z); snk = ks } 4394 } 4395 ks = ks + 1 4396 } 4397 dx = 0 4398 dz = 0 4399 if snd > 300 { 4400 if snx > x + 32 { dx = 4 } 4401 if snx < x - 32 { dx = 0 - 4 } 4402 if snz > z + 32 { dz = 4 } 4403 if snz < z - 32 { dz = 0 - 4 } 4404 } 4405 if snd <= 300 { 4406 ph = ph - 4 // stilled gait: talking, not marching 4407 if (s[S_T] + h) % 4 == 0 { // company relieves loneliness 4408 nd[nb + 2] = nd[nb + 2] - 10 4409 if nd[nb + 2] < 0 { nd[nb + 2] = 0 } 4410 } 4411 // C5: CONVERSATION MOVES FACTS. One fact passes speaker->listener with 4412 // confidence -15; below conf 30 the predicate may FLIP (1<->2) -- rumor 4413 // decays into misinformation BY MECHANIC, and hearing it leaves a thought. 4414 if (s[S_T] + h) % 128 == 0 { 4415 th_add(base, k, TH_COMPANY, 5, 1200) 4416 let gi: i64 = go_newest(base, k) 4417 if gi >= 0 { if snk >= 0 { 4418 let gw: i64 = mindp(base)[k*24 + 16 + gi*2] 4419 let conf2: i64 = (gw & 255) - 15 4420 if conf2 > 0 { 4421 var pred2: i64 = (gw >> 8) & 255 4422 if conf2 < 30 { if whash(s[S_T], k*31 + snk, s[S_SEED] + 777) % 3 == 0 { 4423 pred2 = 3 - pred2 4424 } } 4425 go_add(base, snk, gw >> 16, pred2, conf2) 4426 if pred2 == GO_TAKEN { th_add(base, snk, TH_HEARD_TAKEN, 0 - 10, 7200) } 4427 if pred2 == GO_FRIEND { th_add(base, snk, TH_HEARD_FRIEND, 6, 7200) } 4428 } 4429 } } 4430 } 4431 } 4432 } 4433 if bst == 2 { 4434 dx = 0 4435 dz = 0 4436 ph = ph - 4 // REST: seated stillness 4437 if (s[S_T] + h) % 4 == 0 { // sleep restores; night sleep restores MORE 4438 var rg: i64 = 2 4439 if night == 1 { rg = 8 } 4440 nd[nb + 1] = nd[nb + 1] + rg 4441 if nd[nb + 1] > 1000 { nd[nb + 1] = 1000 } 4442 } 4443 } 4444 if bst == 3 { 4445 // FORAGE: graze rhythm -- steps then a pause, head-down cadence; grazing feeds her 4446 if (s[S_T] + h) % 16 >= 6 { dx = 0; dz = 0; ph = ph - 3 } 4447 if (s[S_T] + h) % 8 == 0 { 4448 nd[nb] = nd[nb] - 12 4449 if nd[nb] < 0 { nd[nb] = 0 } 4450 } 4451 } 4452 if bst == 4 { 4453 // FLEE: straight away from the nearest warden, fast 4454 var wnd2: i64 = SAVE_CK_MASK 4455 var wax: i64 = x 4456 var waz: i64 = z 4457 var kf2: i64 = 0 4458 while kf2 < en_count(m) { 4459 let hf2: i64 = en_nth(m, kf2) 4460 if en_get(m, hf2, MC_KIND) == 2 { if (en_get(m, hf2, MC_DISG) & 1) == 0 { 4461 var fdx2: i64 = en_get(m, hf2, MC_X) - x 4462 if fdx2 < 0 { fdx2 = 0 - fdx2 } 4463 var fdz2: i64 = en_get(m, hf2, MC_Z) - z 4464 if fdz2 < 0 { fdz2 = 0 - fdz2 } 4465 if fdx2 + fdz2 < wnd2 { wnd2 = fdx2 + fdz2; wax = en_get(m, hf2, MC_X); waz = en_get(m, hf2, MC_Z) } 4466 } } 4467 kf2 = kf2 + 1 4468 } 4469 dx = 0 4470 dz = 0 4471 if wax > x { dx = 0 - 6 } 4472 if wax <= x { dx = 6 } 4473 if waz > z { dz = 0 - 6 } 4474 if waz <= z { dz = 6 } 4475 } 4476 // PERSONALITY (genome bits 13-15, INHERITED): the bold<->shy spectrum photographers 4477 // know -- engagement is a RANGE, not one script. Near the player: shy girls (0-1) 4478 // retreat and keep 5 blocks; watchful ones (2-3) freeze and observe, backing off 4479 // only if crowded; warm ones (4-5) approach to a polite arm's length; bold ones 4480 // (6-7) come right to your side. FORAGE also reads it: bold girls gather TOWARD 4481 // you (the obvious pick-up), shy girls drift their gathering away (the oblivious). 4482 let pdx: i64 = s[S_CX] - x 4483 let pdz: i64 = s[S_CZ] - z 4484 var pd: i64 = pdx 4485 if pd < 0 { pd = 0 - pd } 4486 var pdz2: i64 = pdz 4487 if pdz2 < 0 { pdz2 = 0 - pdz2 } 4488 let bold: i64 = (en_get(m, h, MC_GENE) >> 13) & 7 4489 // HABITUATION: the approach/watch drive runs only while she is lonely enough to 4490 // care (the player is a smart object too -- company below relieves the need, and a 4491 // satisfied girl walks on). Shy retreat is FEAR, not curiosity: never gated. 4492 var curi: i64 = 1 4493 if nd[nb + 2] < wsp(base)[P_CURI] { curi = 0 } 4494 if bold <= 1 { curi = 1 } 4495 if curi == 1 { if bst != 2 { if bst != 4 { if pd + pdz2 < 6*256 { 4496 var twd: i64 = 0 // -1 retreat, 0 hold, +1 approach 4497 var stopd: i64 = 400 4498 var spd: i64 = 3 4499 if bold <= 1 { twd = 0 - 1; stopd = 5*256; spd = 5 } 4500 if bold >= 2 { if bold <= 3 { 4501 twd = 0 4502 if pd + pdz2 < 2*256 { twd = 0 - 1; stopd = 2*256; spd = 4 } 4503 } } 4504 if bold >= 4 { if bold <= 5 { twd = 1; stopd = 400; spd = 3 } } 4505 if bold >= 6 { twd = 1; stopd = 200; spd = 5 } 4506 if bst == 3 { if twd != 0 { spd = 2 } } // gathering: the drift is subtle 4507 if twd == 1 { if pd + pdz2 > stopd { 4508 // S1 F-FORMATION SLOT (the social-interaction brief, rung S1): her approach 4509 // target is HER slot on the ring around the player, never the player center 4510 // -- N approaching girls used to converge on one point and bunch into a 4511 // queue ("they just follow me around"). Slot angle = a stable hash of her 4512 // handle; radius = her OWN personality stop distance, so bold girls ring 4513 // close and warm girls ring at arm's length (proxemics stays personal). 4514 let sa9: i64 = (h*1741) % (2*IT_PI) 4515 let tx9: i64 = s[S_CX] + it_cos4096(sa9)*stopd/WATER_MAGIC_4096 4516 let tz9: i64 = s[S_CZ] + it_sin4096(sa9)*stopd/WATER_MAGIC_4096 4517 let sdx9: i64 = tx9 - x 4518 let sdz9: i64 = tz9 - z 4519 dx = 0 4520 if sdx9 > 128 { dx = spd } 4521 if sdx9 < 0 - 128 { dx = 0 - spd } 4522 dz = 0 4523 if sdz9 > 128 { dz = spd } 4524 if sdz9 < 0 - 128 { dz = 0 - spd } 4525 } } 4526 if twd == 1 { if pd + pdz2 <= stopd { if bst == 0 { dx = 0; dz = 0; ph = ph - 4 } } } 4527 if twd == 0 - 1 { if pd + pdz2 < stopd { 4528 dx = spd 4529 if pdx > 0 { dx = 0 - spd } 4530 dz = spd 4531 if pdz > 0 { dz = 0 - spd } 4532 } } 4533 if twd == 0 { if bst == 0 { dx = 0; dz = 0; ph = ph - 4 } } // the watcher stands 4534 } } } } 4535 // RELATIONSHIP (the FLIAW arc): shared time within arm's reach becomes FRIENDSHIP, 4536 // stored in MC_DISG bits 6-13 (cap 250) -- persisted with the mob arena, so a bond 4537 // survives every save/load. Meeting her (E) adds a step-change on top. 4538 if pd + pdz2 < 3*256 { if (s[S_T] + h) % 64 == 0 { 4539 let dgf: i64 = en_get(m, h, MC_DISG) 4540 if ((dgf >> 6) & 255) < 250 { en_set(m, h, MC_DISG, dgf + 64) } 4541 } } 4542 // Intent still turns a blocked actor away from a wall. The forward clip now 4543 // travels along that bounded facing; existing clearance admits the projected step. 4544 // Behavioral targets and turn rate remain authored by the existing owners. 4545 // Declared forward locomotion admits chase intent through the same heading, 4546 // clearance, gravity and cadence update as other behavior; no second root move. 4547 if wc_forward_policy(base,k)==1 { 4548 if en_get(m,h,MC_KIND)==2&&(en_get(m,h,MC_DISG)&1)==0 { 4549 if na_abs(pdx)+na_abs(pdz)>2*256 { 4550 let hunt:i64=wc_warden_target(base,h,night) 4551 if hunt>=0 { 4552 let target:i64=en_nth(m,hunt) 4553 let tx:i64=en_get(m,target,MC_X) 4554 let tz:i64=en_get(m,target,MC_Z) 4555 if na_abs(tx-x)+na_abs(tz-z)>=220 { 4556 var speed:i64=4 4557 if night==1 {speed=7} 4558 dx=0;dz=0 4559 if tx>x+32 {dx=speed} 4560 if tx<x-32 {dx=0-speed} 4561 if tz>z+32 {dz=speed} 4562 if tz<z-32 {dz=0-speed} 4563 } 4564 } 4565 } 4566 } 4567 } 4568 let hdgp: *i64 = (base + O_MOBHDG) as *i64 4569 hdgp[k] = wc_facing_step(hdgp[k],dx,dz,pdx,pdz,s[S_FACE_RADIUS],s[S_FACE_GAIN]) 4570 let forward_step:*i64=wc_motion_step(base,k,hdgp[k],dx,dz) 4571 dx=forward_step[2];dz=forward_step[3] 4572 if wc_mob_resident(base,h)==1 { 4573 let nx: i64 = x + dx 4574 let nz: i64 = z + dz 4575 let cy0: i64 = en_get(m, h, MC_Y) 4576 let g: i64 = mob_ground(base, nx >> 8, (cy0 >> 8) + 1, nz >> 8) 4577 var ok: i64 = 0 4578 if g >= 1 { if g < WY - 4 { 4579 let ng: i64 = wc_contact_floor_q(base,nx,nz,(cy0 >> 8)+1) 4580 var dyy: i64 = ng - cy0 4581 if dyy < 0 { dyy = 0 - dyy } 4582 if dyy <= 384 { if mob_fits(base, nx >> 8, g, nz >> 8) == 1 { 4583 ok = 1 4584 // GE12b: clamp her body out of any neighbouring solid, then RE-DERIVE the 4585 // applied step from the clamped result -- the motion doors and the gait 4586 // accumulator must report what actually happened, so a girl pinned against 4587 // a wall accumulates no stride (she is not walking; she is leaning). 4588 let cxq: i64 = mob_clear_x(base, nx, nz, g) 4589 let czq: i64 = mob_clear_z(base, nx, nz, g) 4590 dx = cxq - x 4591 dz = czq - z 4592 en_set(m, h, MC_X, cxq) 4593 en_set(m, h, MC_Z, czq) 4594 // STEP, don't teleport -- and DROP, don't glide (GE12): the vertical is 4595 // integrated by mob_step_gait (stair-ascent rate up, the player's own 4596 // gravity down), so a rise reads as a step and a drop accelerates. 4597 en_set(m, h, MC_Y, mob_step_gait(vyp, k, cy0, wc_contact_floor_q(base,cxq,czq,(cy0 >> 8)+1))) 4598 } } 4599 } } 4600 let aux: *i64 = (base + O_MOBAUX) as *i64 4601 if ok == 1 { aux[k*3] = dx; aux[k*3 + 1] = dz; aux[k*3 + 2] = en_get(m, h, MC_Y) - cy0 } 4602 if ok == 0 { 4603 // wall/cliff: turn away -- but GE12 never leaves her hanging: if her own column's 4604 // stand height is below her (a block broke under her feet), she keeps falling. 4605 let g0: i64 = mob_ground(base, x >> 8, (cy0 >> 8) + 1, z >> 8) 4606 var dy0: i64 = 0 4607 let ownfloor: i64 = wc_contact_floor_q(base,x,z,(cy0 >> 8)+1) 4608 if g0 >= 1 { if ownfloor >= 0 { if ownfloor < cy0 { 4609 let ny0: i64 = mob_step_gait(vyp, k, cy0, ownfloor) 4610 en_set(m, h, MC_Y, ny0) 4611 dy0 = ny0 - cy0 4612 } } } 4613 // Rejected intent is not travelled distance; gait and footstrikes consume the applied step below. 4614 dx = 0; dz = 0 4615 aux[k*3] = 0; aux[k*3 + 1] = 0; aux[k*3 + 2] = dy0; ph = ph + 977 4616 } 4617 } else { 4618 // Keep needs, social reasoning and identity alive while collision terrain is absent. 4619 dx=0;dz=0 4620 let pending_aux: *i64=(base+O_MOBAUX) as *i64 4621 pending_aux[k*3]=0;pending_aux[k*3+1]=0;pending_aux[k*3+2]=0 4622 } 4623 // PATH LENGTH for the gait drive -- Euclidean, and deliberately NOT the Manhattan proxy 4624 // mob_spd_q8i uses: that one is a calibrated blend THRESHOLD, this is a metric integral. 4625 // Conflating them would make a diagonal walk bob up to 41 percent fast, and would also 4626 // move a threshold that was measured against the proxy. Two named quantities, one job each. 4627 let ds9: i64 = sd_isqrt(dx*dx + dz*dz) 4628 let ga9: i64 = nd[nb + WC_NEED_GAIT] 4629 nd[nb + WC_NEED_GAIT] = ga9 + ds9 4630 // FOOTSTRIKE IMPULSE (sb_impulse_mob's FIRST world wiring -- gate-proven in 4631 // nx_softbind_gate and called by NO engine until now, so heel strike put NOTHING 4632 // into the tissue: the sponsored footfall row). Two ground-contact events kick 4633 // every spring point of this girl, both magnitudes DERIVED, converted into 4634 // sd_impulse's own units by WC_IMP_SCALE: 4635 // (1) HEEL STRIKE -- the stride-phase machinery places foot plant at the 4636 // leg-swing extremes sph = IT_PI/2 and 3*IT_PI/2 (wc_gp_leg is sin(sph); 4637 // its extremes are where the leading leg lands and double support begins). 4638 // In accumulated-path units those are ga == WC_STRIDE_Q8/4 modulo 4639 // WC_STRIDE_Q8/2, so (ga + WC_STRIDE_Q8/4)/(WC_STRIDE_Q8/2) counts foot 4640 // plants and an increment across this tick's travel IS one. Magnitude: each 4641 // step the body falls the gait bob's own declared peak-to-peak 4642 // (2*WC_GAIT_BOB_Q8) onto the leading leg and contact arrests it -- 4643 // ballistic contact speed isqrt(2*GRAV * 2*WC_GAIT_BOB_Q8) = 15 4644 // world-q8/tick: the engine's own gravity through the engine's own declared 4645 // vertical excursion, no free parameter. (GRAV is the engine's stylized 4646 // gravity, so this inherits the same stylization every drop landing already 4647 // has -- consistent BY CONSTRUCTION, not calibrated to real-world g.) 4648 // (2) DROP LANDING -- GE12's integrator zeroed a real fall this tick; the 4649 // arrested |vy_pre| IS the ground-reaction delta-v, bounded by VTERM. 4650 // Sign: +y, the recoil-inheritance convention every softbind gate kick uses. 4651 // A standing girl accumulates no path and keeps vy == 0, so she is kicked by 4652 // nothing -- rest stays rest (the sd_deadsnap law undisturbed). 4653 if (ga9 + ds9 + WC_STRIDE_Q8/4)/(WC_STRIDE_Q8/2) != (ga9 + WC_STRIDE_Q8/4)/(WC_STRIDE_Q8/2) { 4654 sb_impulse_mob((base + O_SOFT) as *i64, k, 0, sd_isqrt(2*GRAV*2*WC_GAIT_BOB_Q8)*WC_IMP_SCALE, 0) 4655 } 4656 if vy_pre < 0 { if vyp[k] == 0 { 4657 sb_impulse_mob((base + O_SOFT) as *i64, k, 0, (0 - vy_pre)*WC_IMP_SCALE, 0) 4658 } } 4659 en_set(m, h, MC_PH, ph) 4660 // A4: the soft-body springs tick from ROOT TRUTH + HER GAIT: the anchor carries a 4661 // cadence-coupled thorax bob (published gait biomechanics -- vertical thorax 4662 // oscillation is what drives chest motion; a flat anchor was why nothing moved), 4663 // and the chest band is BRED (genome bits 16-17: firm rides tight, soft swings). 4664 // ★THE SOLVER AND THE INSTRUMENT MUST SHARE ONE REFERENCE (fixed 2026-08-03). 4665 // This tick used to drive the spring toward a RAW gait sinusoid while sbyb and every 4666 // probe subtracted mob_anchor_q8 -- the gait<->breath crossfade. Their difference rode 4667 // the rendered offset as a spurious term, and because ph advances +5 EVERY TICK FOREVER 4668 // the raw bob never quiets, so a STANDING girl still bounced: the 2026-08-02 breath fix 4669 // landed in the INSTRUMENT path and never reached the PHYSICS path. (The comment that 4670 // stood here claimed the bob 'quiets when she stands'. It does not. A comment asserting 4671 // a behaviour the code does not have is a landmine, so it is deleted with the defect.) 4672 // Driving the solver from the SAME anchor the instrument reads makes rest-bouncing 4673 // impossible BY CONSTRUCTION rather than by tuning. At walking speed the crossfade 4674 // weight saturates and the anchor EQUALS the old raw bob exactly => no-op in motion, 4675 // fix at rest: the safest shape a drive change can have. 4676 // ⚠STILL OPEN (debt 1785770635): ph is a FREE-RUNNING clock, so the drive is a fixed 4677 // 2.50Hz regardless of her real cadence while the render clip is DISTANCE-synced. Until 4678 // ph advances from travel, foot plant and tissue drive remain uncorrelated -- which is 4679 // the operator's actual report and is NOT closed by this change. 4680 sb_tick_mob_gene((base + O_SOFT) as *i64, k, 4681 en_get(m, h, MC_X)/4, (en_get(m, h, MC_Y) + mob_anchor_q8i(base, k))/4, en_get(m, h, MC_Z)/4, 4682 en_get(m, h, MC_GENE)) 4683 } 4684 k = k + 1 4685 } 4686 // THE STAKES (losability doctrine: a find that cannot be lost is hollow): WARDENS -- real 4687 // demonkin -- hunt FOUND humans. Reached = TAKEN (the certified store's destroy, live in 4688 // production). The player's BODY blocks a warden within 2 blocks. One take per tick, max. 4689 var kw: i64 = 0 4690 var took: i64 = 0 4691 while kw < en_count(m) { 4692 if took == 0 { 4693 let hw: i64 = en_nth(m, kw) 4694 if en_get(m, hw, MC_KIND) == 2 { if (en_get(m, hw, MC_DISG) & 1) == 0 { 4695 let bestj:i64=wc_warden_target(base,hw,night) 4696 var bestd:i64=0 4697 if bestj>=0 { 4698 let target:i64=en_nth(m,bestj) 4699 bestd=na_abs(en_get(m,target,MC_X)-en_get(m,hw,MC_X))+na_abs(en_get(m,target,MC_Z)-en_get(m,hw,MC_Z)) 4700 } 4701 if bestj >= 0 { 4702 var pdx3: i64 = s[S_CX] - en_get(m, hw, MC_X) 4703 if pdx3 < 0 { pdx3 = 0 - pdx3 } 4704 var pdz3: i64 = s[S_CZ] - en_get(m, hw, MC_Z) 4705 if pdz3 < 0 { pdz3 = 0 - pdz3 } 4706 if pdx3 + pdz3 > 2*256 { // your presence stays her hand 4707 let hj2: i64 = en_nth(m, bestj) 4708 if bestd < 220 { 4709 // C3/C5: a TAKING is WITNESSED -- every girl within 16 blocks 4710 // carries the grief as a thought and the fact as gossip (source = 4711 // her own eyes, conf 100). The village REMEMBERS its losses. 4712 let tkx: i64 = en_get(m, hj2, MC_X) 4713 let tkz: i64 = en_get(m, hj2, MC_Z) 4714 var tkk: i64 = 0 - 1 4715 var kwi: i64 = 0 4716 while kwi < en_count(m) { 4717 if en_nth(m, kwi) == hj2 { tkk = kwi } 4718 kwi = kwi + 1 4719 } 4720 en_destroy(m, hj2) 4721 s[S_LOST] = s[S_LOST] + 1 4722 var kwj: i64 = 0 4723 while kwj < en_count(m) { 4724 let hwj: i64 = en_nth(m, kwj) 4725 if hwj > 0 { 4726 var wdx: i64 = en_get(m, hwj, MC_X) - tkx 4727 if wdx < 0 { wdx = 0 - wdx } 4728 var wdz: i64 = en_get(m, hwj, MC_Z) - tkz 4729 if wdz < 0 { wdz = 0 - wdz } 4730 if wdx + wdz < 16*256 { 4731 th_add(base, kwj, TH_SAWTAKEN, 0 - 25, 14400) 4732 if tkk >= 0 { go_add(base, kwj, tkk, GO_TAKEN, 100) } 4733 } 4734 } 4735 kwj = kwj + 1 4736 } 4737 took = 1 4738 } 4739 if bestd >= 220&&wc_forward_policy(base,kw)==0 { if took == 0 { 4740 let txq: i64 = en_get(m, hj2, MC_X) 4741 let tzq: i64 = en_get(m, hj2, MC_Z) 4742 var wv: i64 = 4 4743 if night == 1 { wv = 7 } // she closes faster in the dark 4744 var mx3: i64 = 0 4745 if txq > en_get(m, hw, MC_X) + 32 { mx3 = wv } 4746 if txq < en_get(m, hw, MC_X) - 32 { mx3 = 0 - wv } 4747 var mz3: i64 = 0 4748 if tzq > en_get(m, hw, MC_Z) + 32 { mz3 = wv } 4749 if tzq < en_get(m, hw, MC_Z) - 32 { mz3 = 0 - wv } 4750 en_set(m, hw, MC_X, en_get(m, hw, MC_X) + mx3) 4751 en_set(m, hw, MC_Z, en_get(m, hw, MC_Z) + mz3) 4752 } } 4753 } 4754 } 4755 } } 4756 } 4757 kw = kw + 1 4758 } 4759 // INHERITANCE (the past-DAZ lever, live): two MET girls keeping close company bear a 4760 // DAUGHTER -- her genome FIELD-CROSSED from both parents (the breeders gcross pattern), 4761 // spawned through the certified store (capacity-bounded), cooldown-paced. Display cap 12. 4762 if s[S_BCD] > 0 { s[S_BCD] = s[S_BCD] - 1 } 4763 if s[S_BCD] == 0 { if en_count(m) < MOB_CAP { 4764 var ka: i64 = 0 4765 var born: i64 = 0 4766 while ka < en_count(m) { 4767 if born == 0 { 4768 let ha: i64 = en_nth(m, ka) 4769 if (en_get(m, ha, MC_DISG) & 2) == 2 { 4770 var kb2: i64 = ka + 1 4771 while kb2 < en_count(m) { 4772 if born == 0 { 4773 let hb2: i64 = en_nth(m, kb2) 4774 if (en_get(m, hb2, MC_DISG) & 2) == 2 { 4775 var bdx4: i64 = en_get(m, ha, MC_X) - en_get(m, hb2, MC_X) 4776 if bdx4 < 0 { bdx4 = 0 - bdx4 } 4777 var bdz4: i64 = en_get(m, ha, MC_Z) - en_get(m, hb2, MC_Z) 4778 if bdz4 < 0 { bdz4 = 0 - bdz4 } 4779 if bdx4 + bdz4 < 400 { 4780 let hn: i64 = en_spawn(m) 4781 if hn > 0 { 4782 let ga: i64 = en_get(m, ha, MC_GENE) 4783 let gb: i64 = en_get(m, hb2, MC_GENE) 4784 let pick: i64 = whash(ga, gb, s[S_T]) 4785 var gn: i64 = 0 4786 var fm: i64 = 0 4787 while fm < 8 { 4788 var msk: i64 = 7 4789 if fm == 1 { msk = 24 } 4790 if fm == 2 { msk = 96 } 4791 if fm == 3 { msk = 384 } 4792 if fm == 4 { msk = WATER_MAGIC_1536 } 4793 if fm == 5 { msk = WATER_MAGIC_6144 } 4794 if fm == 6 { msk = GENE_MASK_TEMPERAMENT } // bits 13-15: TEMPERAMENT (bold<->shy) is bred too 4795 if fm == 7 { msk = 983040 } // bits 16-19: BODY NATURE (firmness 16-17 + 4796