fix(world+streaming): trees-in-sky Z, O(1) anim, teleport near-ring + immediate unloads
Three apparatus-confirmed fixes from the world-load/FPS deep-dive (all live-verified).
1. trees-in-sky — scenery ground-Z now samples THIS landblock's OWN heightmap
(TerrainSurface.SampleZFromHeightmap, lock-step with the physics terrain) instead
of the global PhysicsEngine.SampleTerrainZ query. At build time the landblock isn't
registered in physics yet, so that query could only return null OR a STALE
neighbour's height — the previous location's terrain, still registered after a
teleport recenter — planting scenery at the old altitude (+250..500m, confirmed via
the [scenery-z-stale] probe). Own-heightmap is correct in every case; the query is
removed. (GameWindow.BuildSceneryEntitiesForStreaming)
2. FPS per-hop — TickAnimations recovered each animated entity's server guid via an
O(N) ReferenceEquals reverse scan over ALL _entitiesByServerGuid (which never
evicts, so N climbs every teleport — the drops-with-each-hop sink). Replaced with
ae.Entity.ServerGuid: O(1), exact-equivalent (the dict key IS entity.ServerGuid).
(GameWindow.TickAnimations)
3. teleport arrival + bulk floating terrain — two streaming fixes:
- Near-ring eager-apply: a teleport applies the destination's 3x3 surroundings
(StreamingController.PriorityRadius) and holds the fade until they're resident
(PhysicsEngine.IsNeighborhoodTerrainResident), so the player arrives in a loaded,
collidable world instead of one landblock in the void.
- Immediate unloads: DrainAndApply no longer throttles UNLOADS at the per-frame
load budget — they're cheap (free GPU buffers, no upload). A teleport produced
~600 unloads draining at 4/frame, leaving the previous region resident for
seconds (floating terrain) and accumulating across rapid hops (951 resident vs a
625 window). Only GPU-upload LOADS are metered now. Cut out-of-window resident
650 -> 63 and resident 951 -> 688 (live-verified via [resid-audit]).
Includes gated-off diagnostic probes (ACDREAM_PROBE_SCENERY_FRAME / _BLDG_REACH /
_STREAM_RESID) used to root-cause the above — zero-cost when unset, same pattern as
the committed tp-probe.
The pre-existing teleport-induced "terrain arcs in the sky" (present in the dd2eb8b
baseline too, with NONE of this work) are a SEPARATE bug — investigated next.
Co-Authored-By: Claude Opus 4.8 (1M context) <noreply@anthropic.com>
This commit is contained in:
parent
8fbde99441
commit
15e320490d
6 changed files with 382 additions and 61 deletions
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@ -805,6 +805,18 @@ public sealed class GameWindow : IDisposable
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private int _liveCenterY;
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private uint _liveEntityIdCounter = 1_000_000u; // well above any dat-hydrated id
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// Trees-in-sky probe (2026-06-22 — REMOVABLE apparatus, see
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// PhysicsDiagnostics.ProbeSceneryFrameEnabled). The streaming worker records
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// here, per landblock, the _liveCenter it baked scenery against at BUILD time;
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// ApplyLoadedTerrainLocked reads it back to compare against the APPLY-time
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// center. Written/read only when the probe is on, so this stays empty in
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// normal play.
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private readonly System.Collections.Concurrent.ConcurrentDictionary<uint, (int Cx, int Cy)>
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_sceneryBuildCenterByLandblock = new();
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// Floating-terrain probe throttle (REMOVABLE, see PhysicsDiagnostics.ProbeStreamResidEnabled).
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private int _residAuditTick;
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// K-fix1 (2026-04-26): cached at startup so per-frame branches are
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// single-flag reads instead of env-var lookups. True iff
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// ACDREAM_LIVE=1 was set when the window came up.
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@ -5476,8 +5488,14 @@ public sealed class GameWindow : IDisposable
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_teleportHoldSeconds = 0f;
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_teleportForced = false;
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if (_streamingController is not null)
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{
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_streamingController.PriorityLandblockId =
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AcDream.App.Streaming.StreamingRegion.EncodeLandblockId(lbX, lbY);
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// Eager-apply the destination's IMMEDIATE SURROUNDINGS (the near ring), not
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// just the one landblock the player stands on — so they arrive in a loaded,
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// collidable world instead of a single landblock in the void.
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_streamingController.PriorityRadius = TeleportNearRingRadius;
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}
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AcDream.Core.Physics.PhysicsDiagnostics.LogTeleport(
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"AIM", p.LandblockId,
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$"lb={lbX},{lbY} indoor={((p.LandblockId & 0xFFFFu) >= 0x0100u)} diffLb={differentLandblock}");
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@ -5504,6 +5522,14 @@ public sealed class GameWindow : IDisposable
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// Now rarely fires because priority-apply makes residency fast.
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private const float TeleportMaxHoldSeconds = 10f;
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// 2026-06-22: how many landblocks of the player's IMMEDIATE SURROUNDINGS to eager-apply
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// (and to hold the fade for) on a teleport. radius 1 = the 3×3 around the destination —
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// the player's own landblock + its 8 neighbours, ~576 m across — enough that they arrive
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// standing on loaded ground with wall collision and a non-empty immediate view. The far
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// ring (out to the streaming window) still drains at the per-frame budget after the fade
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// lifts. Bigger = a more complete arrival but a longer (still hidden) loading fade.
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private const int TeleportNearRingRadius = 1;
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// #145: the LANDBLOCK-relative (cell-local) position used to SEED the player
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// body's cell-relative CellPosition. This is the ONE place the streaming center
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// (_liveCenter) is allowed to touch the physics frame — at the placement seam,
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@ -5523,10 +5549,14 @@ public sealed class GameWindow : IDisposable
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/// <summary>
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/// worldReady for the TAS transit: is the player's teleport destination resident so we
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/// can materialize? Indoor (sealed dungeon / building interior) gates on the EnvCell
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/// struct hydrating (#135); outdoor gates on the destination terrain landblock being
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/// registered (priority-applied). An impossible claim (indoor cell id outside the dat's
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/// NumCells) returns true so the TAS stops holding and the forced placement surfaces the
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/// failure loudly rather than holding forever.
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/// struct hydrating (#135); outdoor gates on the destination's NEAR RING (the 3×3 around
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/// the player, <see cref="TeleportNearRingRadius"/>) being registered — not just the
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/// single destination landblock — so the fade only lifts onto a loaded, collidable world
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/// (the player's cell-walk can root into neighbour cells; no walk-through-walls and no
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/// "only one landblock loaded"). The streaming controller priority-applies that same ring,
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/// so it flips fast. An impossible claim (indoor cell id outside the dat's NumCells)
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/// returns true so the TAS stops holding and the forced placement surfaces the failure
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/// loudly rather than holding forever.
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/// </summary>
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private bool TeleportWorldReady(uint destCell)
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{
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@ -5534,7 +5564,7 @@ public sealed class GameWindow : IDisposable
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bool indoor = (destCell & 0xFFFFu) >= 0x0100u;
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return indoor
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? _physicsEngine.IsSpawnCellReady(destCell)
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: _physicsEngine.IsLandblockTerrainResident(destCell);
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: _physicsEngine.IsNeighborhoodTerrainResident(destCell, TeleportNearRingRadius);
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}
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// The deferred snap (the original OnLivePositionUpdated steps 2-5), now run only
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@ -6003,6 +6033,13 @@ public sealed class GameWindow : IDisposable
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(lbY - _liveCenterY) * 192f,
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0f);
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// Trees-in-sky probe (REMOVABLE): stamp the streaming center this scenery
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// was baked against. ApplyLoadedTerrainLocked compares it to the apply-time
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// center; a delta is the frame split that floats trees. Capture is the exact
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// _liveCenter used in lbOffset above (the worker-thread read).
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if (AcDream.Core.Physics.PhysicsDiagnostics.ProbeSceneryFrameEnabled)
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_sceneryBuildCenterByLandblock[lb.LandblockId] = (_liveCenterX, _liveCenterY);
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// Per-landblock id namespace. Landblock IDs are formatted 0xXXYYFFFF
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// where XX = landblock X coord (bits 24-31), YY = Y coord (bits 16-23).
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// Both must go into our ID so landblocks don't collide.
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@ -6012,6 +6049,7 @@ public sealed class GameWindow : IDisposable
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uint lbYByte = (lb.LandblockId >> 16) & 0xFFu;
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uint sceneryIdBase = 0x80000000u | (lbXByte << 16) | (lbYByte << 8);
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uint localIndex = 0;
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bool loggedStaleZ = false; // trees-in-sky probe: one [scenery-z-stale] line per lb
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foreach (var spawn in spawns)
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{
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@ -6074,11 +6112,36 @@ public sealed class GameWindow : IDisposable
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// fall back to the local bilinear sample.
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var worldPx = localX + lbOffset.X;
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var worldPy = localY + lbOffset.Y;
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float? maybePhysicsZ = _physicsEngine.SampleTerrainZ(worldPx, worldPy);
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float groundZ = maybePhysicsZ
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?? SampleTerrainZ(lb.Heightmap, _heightTable, localX, localY);
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// FIX (trees-in-sky, 2026-06-22): scenery ground-Z comes from THIS
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// landblock's OWN heightmap — the same triangle-aware Z the player walks on
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// (TerrainSurface.SampleZFromHeightmap, lock-step with physics per #48),
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// scoped to the landblock being built. The former global
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// _physicsEngine.SampleTerrainZ(worldPx) query was structurally racy: at
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// build time this landblock is NOT registered in physics yet, so that query
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// could only return null (→ this same own-heightmap) or a STALE neighbor's
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// height — the previous location's terrain, still registered after a teleport
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// recenter (which drops only the single stale CENTER landblock, GameWindow
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// :5444) until streaming unloads it — planting scenery at the old location's
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// altitude (trees-in-sky, deltaZ up to +500m; confirmed via the
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// [scenery-z-stale] probe 2026-06-22). Own-heightmap is correct in every
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// case, so the global query is removed (also drops its per-spawn cost).
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float groundZ = SampleTerrainZ(lb.Heightmap, _heightTable, localX, localY);
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float finalZ = groundZ + spawn.LocalPosition.Z;
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// Trees-in-sky probe (REMOVABLE — strip after verification). Proves the fix:
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// compute what the OLD global physics query WOULD have returned and compare
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// to the own-heightmap groundZ we now use. A large divergence is the stale-
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// neighbor altitude the old code floated scenery to — and no longer does.
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if (!loggedStaleZ
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&& AcDream.Core.Physics.PhysicsDiagnostics.ProbeSceneryFrameEnabled
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&& _physicsEngine.SampleTerrainZ(worldPx, worldPy) is { } wouldBePhysicsZ
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&& System.MathF.Abs(wouldBePhysicsZ - groundZ) > 5f)
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{
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AcDream.Core.Physics.PhysicsDiagnostics.LogSceneryZStale(
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lb.LandblockId, worldPx, worldPy, wouldBePhysicsZ, groundZ);
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loggedStaleZ = true;
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}
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// Issue #48 diagnostic. One log line per (spawn, rendered-mesh)
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// disambiguates H1 (BaseLoc.Z / mesh-zMin per-species), H2
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// (physics-vs-bilinear sampler drift), and H3 (DIDDegrade slot 0).
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@ -6086,7 +6149,9 @@ public sealed class GameWindow : IDisposable
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// line by world coords + gfx id, the data picks the hypothesis.
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if (_options.DumpSceneryZ)
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{
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string source = maybePhysicsZ.HasValue ? "physics" : "bilinear";
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// groundZ now always comes from THIS landblock's own heightmap (the
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// global physics query was removed — see the trees-in-sky fix above).
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string source = "heightmap";
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foreach (var mr in meshRefs)
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{
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var dgfx = _dats.Get<DatReaderWriter.DBObjs.GfxObj>(mr.GfxObjId);
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@ -6627,6 +6692,33 @@ public sealed class GameWindow : IDisposable
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(lbY - _liveCenterY) * 192f,
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0f);
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// Trees-in-sky probe (REMOVABLE): compare the streaming center this
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// landblock's SCENERY was baked against (worker, build time) to the center
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// its TERRAIN is being placed against here (render, apply time). A non-zero
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// deltaLB is the frame split that floats scenery off its terrain.
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if (AcDream.Core.Physics.PhysicsDiagnostics.ProbeSceneryFrameEnabled)
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{
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var bc = _sceneryBuildCenterByLandblock.TryGetValue(lb.LandblockId, out var c)
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? c : (_liveCenterX, _liveCenterY);
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AcDream.Core.Physics.PhysicsDiagnostics.LogSceneryFrame(
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lb.LandblockId, bc.Item1, bc.Item2, _liveCenterX, _liveCenterY);
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_sceneryBuildCenterByLandblock.TryRemove(lb.LandblockId, out _);
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}
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// Floating-terrain probe (REMOVABLE): this landblock is being APPLIED at the
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// current center; if its Chebyshev distance from the center exceeds the streaming
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// window, it's an in-flight load from a PREVIOUS center applying against the new
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// one — it will render far off at the horizon (a floating "terrain trace").
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if (AcDream.Core.Physics.PhysicsDiagnostics.ProbeStreamResidEnabled
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&& _streamingController is not null)
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{
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int applyCheby = System.Math.Max(
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System.Math.Abs(lbX - _liveCenterX), System.Math.Abs(lbY - _liveCenterY));
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if (applyCheby > _streamingController.FarRadius)
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AcDream.Core.Physics.PhysicsDiagnostics.LogApplyOob(
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lb.LandblockId, applyCheby, _streamingController.FarRadius, origin.X, origin.Y);
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}
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// Phase A.5 T15/T16: route through AddLandblockWithMesh — the named
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// two-tier entry point. Delegates to AddLandblock internally; both
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// paths share one GPU upload path.
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@ -7575,6 +7667,25 @@ public sealed class GameWindow : IDisposable
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foreach (var entity in rescued)
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_worldState.AppendLiveEntity(centerLb, entity);
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}
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// Floating-terrain probe (REMOVABLE): ~2×/sec, list resident landblocks sitting
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// OUTSIDE the streaming window (Chebyshev > FarRadius from the current center) —
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// stale old-location terrain that never unloaded. Same thread as the Tick above,
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// so LoadedLandblockIds is stable. Zero cost when the probe is off.
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if (AcDream.Core.Physics.PhysicsDiagnostics.ProbeStreamResidEnabled
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&& (++_residAuditTick % 30 == 0))
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{
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var oob = new List<uint>();
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foreach (var id in _worldState.LoadedLandblockIds)
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{
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int lx = (int)((id >> 24) & 0xFFu), ly = (int)((id >> 16) & 0xFFu);
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if (System.Math.Max(System.Math.Abs(lx - _liveCenterX), System.Math.Abs(ly - _liveCenterY))
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> _streamingController.FarRadius)
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oob.Add(id);
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}
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AcDream.Core.Physics.PhysicsDiagnostics.LogResidentAudit(
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_liveCenterX, _liveCenterY, _worldState.LoadedLandblockIds.Count, oob);
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}
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}
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// Drain pending live-session traffic AFTER streaming so any incoming
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@ -7615,7 +7726,10 @@ public sealed class GameWindow : IDisposable
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case AcDream.Core.World.TeleportAnimEvent.Place:
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PlaceTeleportArrival(_pendingTeleportPos, _pendingTeleportCell, _teleportForced);
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if (_streamingController is not null)
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{
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_streamingController.PriorityLandblockId = 0u;
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_streamingController.PriorityRadius = 0;
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}
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break;
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case AcDream.Core.World.TeleportAnimEvent.FireLoginComplete:
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if (_playerController is not null)
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@ -9247,14 +9361,18 @@ public sealed class GameWindow : IDisposable
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{
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var ae = kv.Value;
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// Locate the server guid for this entity once per tick — needed
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// for dead-reckoning. O(N) reverse lookup; for player populations
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// < 100 the cost is negligible.
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uint serverGuid = 0;
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foreach (var esg in _entitiesByServerGuid)
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{
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if (ReferenceEquals(esg.Value, ae.Entity)) { serverGuid = esg.Key; break; }
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}
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// The server guid is carried on the entity itself
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// (WorldEntity.ServerGuid, set == the _entitiesByServerGuid key at
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// construction — see OnLiveEntitySpawnedLocked: `ServerGuid = spawn.Guid`
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// and `_entitiesByServerGuid[spawn.Guid] = entity`). Read it directly —
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// O(1) — instead of the former reverse ReferenceEquals scan over ALL of
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// _entitiesByServerGuid, which made this loop O(animated × all-entities).
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// That super-linear cost is the FPS-drops-per-teleport sink: world
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// entities accumulate without bound (pruned only on DeleteObject, and ACE
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// does not re-send / clear KnownObjects across a teleport), so N climbs
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// every hop. ServerGuid defaults to 0 for entities not server-tracked,
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// exactly matching the old scan's miss case.
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uint serverGuid = ae.Entity.ServerGuid;
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// ── Dead-reckoning: smooth position between UpdatePosition bursts.
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// The server broadcasts UpdatePosition at ~5-10Hz for distant
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@ -107,6 +107,21 @@ public sealed class StreamingController
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/// </summary>
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public uint PriorityLandblockId { get; set; }
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/// <summary>
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/// 2026-06-22: the radius (in landblocks, Chebyshev) around
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/// <see cref="PriorityLandblockId"/> that <see cref="DrainAndApply"/> eager-applies
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/// ahead of the per-frame budget. 0 (default) = only the single center landblock — the
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/// original priority behaviour. A teleport sets this to the near ring so the player's
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/// IMMEDIATE SURROUNDINGS (terrain + collision + scenery) are resident on arrival, not
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/// just the one landblock they stand on. Without it, only the destination landblock
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/// applies immediately and everything around it drains at <see cref="MaxCompletionsPerFrame"/>,
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/// so the player arrives to a near-empty world (the "Fort Tethana only one landblock
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/// loaded" symptom) and their cell-walk can't root into neighbour cells yet (the
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/// transient walk-through-walls). The far ring still drains at the budget. The eager
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/// apply runs during the teleport hold (behind the fade), so the GPU spike is hidden.
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/// </summary>
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public int PriorityRadius { get; set; }
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// Completions that were drained past a priority item get buffered here
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// so they still apply over subsequent frames without loss.
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private readonly List<LandblockStreamResult> _deferredApply = new();
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@ -293,6 +308,17 @@ public sealed class StreamingController
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return Math.Max(Math.Abs(ax - bx), Math.Abs(ay - by));
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}
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/// <summary>
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/// True when <paramref name="id"/> is the priority center or within
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/// <see cref="PriorityRadius"/> landblocks of it (Chebyshev) — i.e. inside the teleport
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/// near ring that <see cref="DrainAndApply"/> eager-applies. With the default radius 0
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/// this reduces to an exact match on <see cref="PriorityLandblockId"/> (the original
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/// single-landblock priority behaviour).
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/// </summary>
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private bool IsWithinPriorityRing(uint id)
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=> PriorityLandblockId != 0u
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&& ChebyshevLandblocks(id, PriorityLandblockId) <= PriorityRadius;
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/// <summary>
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/// Dungeon-exit edge (portal to outdoors / teleport): rebuild the full
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/// two-tier window at the new center and unload anything resident from the
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@ -319,62 +345,49 @@ public sealed class StreamingController
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}
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/// <summary>
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/// Drain up to N completions per frame so a big diff doesn't spike GPU
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/// upload time. Remaining completions wait for the next frame.
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///
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/// <para>
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/// When <see cref="PriorityLandblockId"/> is set (non-zero), the priority
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/// landblock is applied immediately even if it sits past position N in the
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/// outbox. Non-priority completions drained past it are buffered in
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/// <see cref="_deferredApply"/> and applied over subsequent frames
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/// (no loss, no GPU spike).
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/// </para>
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/// Apply streamed completions for this frame. LOADS (terrain mesh GPU uploads) are the
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/// expensive part, so they are metered at <see cref="MaxCompletionsPerFrame"/> to avoid a
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/// GPU-upload spike; the overflow buffers in <see cref="_deferredApply"/> and drains over
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/// subsequent frames. UNLOADS are cheap (they free GPU buffers — no upload) and are applied
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/// IMMEDIATELY, never throttled: a teleport produces a whole window of unloads (~600), and
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/// metering them at the load rate left the previous location's terrain resident for seconds
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/// (rendering at its old world position as "floating terrain at the horizon"), and rapid
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/// hops accumulated them faster than they cleared — a runaway resident count (951 observed
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/// vs a 625 window) that also dragged FPS. Loads inside the teleport near ring
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/// (<see cref="PriorityRadius"/>, applied behind the fade) likewise bypass the budget so the
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/// player materialises in a loaded world.
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/// </summary>
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private void DrainAndApply()
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{
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// --- Step 1: priority hunt FIRST and UNCONDITIONALLY (when a destination is set).
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// The teleport destination must apply the frame the worker finishes building it,
|
||||
// ahead of any deferred/outbox backlog — otherwise a big dungeon-exit expand
|
||||
// (hundreds of completions) buries it and the arrival times out into the skybox.
|
||||
// CRITICAL: this must NOT be gated behind the per-frame budget. The prior version
|
||||
// ran the deferred drain first and returned when the budget hit 0, so once
|
||||
// _deferredApply held >= MaxCompletionsPerFrame items the hunt (and the outbox
|
||||
// drain) were skipped entirely — the destination never priority-applied. The hunt
|
||||
// drains the outbox in bounded chunks; the priority is applied on match, every
|
||||
// non-priority item is buffered in _deferredApply (no loss).
|
||||
if (PriorityLandblockId != 0u)
|
||||
// --- Step 1: drain the outbox in bounded chunks. Apply unloads + priority near-ring
|
||||
// loads immediately; defer every other (budget-metered) load. Draining the whole
|
||||
// outbox each frame (bounded by MaxDrainIterations) is what lets unloads flush
|
||||
// promptly regardless of the load backlog — the throttle is on GPU UPLOADS, not on
|
||||
// freeing them. The drain cap must NOT be gated behind the per-frame load budget
|
||||
// (the prior version returned once the budget hit 0, stranding the outbox).
|
||||
const int MaxDrainIterations = 64; // cap at 64 * MaxCompletionsPerFrame drained/frame
|
||||
int iter = 0;
|
||||
while (iter++ < MaxDrainIterations)
|
||||
{
|
||||
const int MaxHuntIterations = 64; // cap at 64 * MaxCompletionsPerFrame drained/frame
|
||||
int hunted = 0;
|
||||
while (hunted < MaxHuntIterations)
|
||||
var chunk = _drainCompletions(MaxCompletionsPerFrame);
|
||||
if (chunk.Count == 0) break;
|
||||
foreach (var result in chunk)
|
||||
{
|
||||
var chunk = _drainCompletions(MaxCompletionsPerFrame);
|
||||
if (chunk.Count == 0) break;
|
||||
foreach (var result in chunk)
|
||||
{
|
||||
hunted++;
|
||||
if (ResultLandblockId(result) == PriorityLandblockId)
|
||||
ApplyResult(result); // applied immediately, ahead of the budget
|
||||
else
|
||||
_deferredApply.Add(result);
|
||||
}
|
||||
if (result is LandblockStreamResult.Unloaded
|
||||
|| IsWithinPriorityRing(ResultLandblockId(result)))
|
||||
ApplyResult(result); // free (unload) or behind-the-fade near ring
|
||||
else
|
||||
_deferredApply.Add(result); // a GPU-upload load — meter it in step 2
|
||||
}
|
||||
}
|
||||
|
||||
// --- Step 2: apply up to MaxCompletionsPerFrame this frame — the deferred backlog
|
||||
// first (FIFO), then fresh outbox completions. Caps GPU upload per frame so a big
|
||||
// diff doesn't spike. While a priority is set, Step 1 has already moved the outbox
|
||||
// into _deferredApply, so this drains that backlog at the budget rate.
|
||||
// --- Step 2: apply the deferred LOAD backlog at the per-frame budget (FIFO, so
|
||||
// earlier-queued landblocks win). Caps GPU upload per frame so a big diff doesn't
|
||||
// spike. _deferredApply now only ever holds loads — unloads were applied in step 1.
|
||||
int budget = MaxCompletionsPerFrame;
|
||||
int i = 0;
|
||||
while (i < budget && i < _deferredApply.Count) { ApplyResult(_deferredApply[i]); i++; }
|
||||
if (i > 0) _deferredApply.RemoveRange(0, i);
|
||||
budget -= i;
|
||||
if (budget <= 0) return;
|
||||
|
||||
var drained = _drainCompletions(budget);
|
||||
foreach (var result in drained)
|
||||
ApplyResult(result);
|
||||
}
|
||||
|
||||
/// <summary>
|
||||
|
|
|
|||
|
|
@ -859,6 +859,27 @@ public static class CellTransit
|
|||
if (PhysicsDiagnostics.ProbeCellSetEnabled)
|
||||
PhysicsDiagnostics.LogCellSetBuild(currentCellId, worldSphereCenter, candidates);
|
||||
|
||||
// Lost-collision probe (REMOVABLE): in a landblock that HAS cached buildings,
|
||||
// report which of them are reachable from the player's swept candidate set.
|
||||
// reachable=NO while standing at a wall ⇒ the building IS cached but the
|
||||
// post-teleport cell resolution excludes its landcell (#145); empty cachedInLb
|
||||
// ⇒ the landblock's CacheBuilding never ran. One line per walk, near buildings.
|
||||
if (PhysicsDiagnostics.ProbeBuildingReachEnabled)
|
||||
{
|
||||
uint prefix = currentCellId & 0xFFFF0000u;
|
||||
var cachedInLb = new List<uint>();
|
||||
foreach (var bid in cache.BuildingIds)
|
||||
if ((bid & 0xFFFF0000u) == prefix) cachedInLb.Add(bid);
|
||||
var inSet = new List<uint>();
|
||||
for (int ci = 0; ci < candidates.Count; ci++)
|
||||
{
|
||||
uint cid = candidates.OrderedIds[ci];
|
||||
if ((cid & 0xFFFFu) < 0x0100u && cache.GetBuilding(cid) is not null)
|
||||
inSet.Add(cid);
|
||||
}
|
||||
PhysicsDiagnostics.LogBuildingReach(currentCellId, candidates.Count, cachedInLb, inSet);
|
||||
}
|
||||
|
||||
// THE PICK — verbatim CObjCell::find_cell_list containing-cell pick
|
||||
// (pseudo_c:308788-308825): iterate the array IN ORDER from index 0; for each
|
||||
// cell, point_in_cell; set the running result on ANY containing cell;
|
||||
|
|
|
|||
|
|
@ -441,6 +441,12 @@ public sealed class PhysicsDataCache
|
|||
public void CacheBuilding(uint landcellId, IReadOnlyList<BldPortalInfo> portals, Matrix4x4 worldTransform,
|
||||
uint modelId = 0u)
|
||||
{
|
||||
// Lost-collision probe (REMOVABLE): record every cache attempt + whether it
|
||||
// actually took (first-wins) so we can see if/when a landblock's buildings
|
||||
// get cached after a teleport.
|
||||
AcDream.Core.Physics.PhysicsDiagnostics.LogBuildingCache(
|
||||
landcellId, cached: !_buildings.ContainsKey(landcellId));
|
||||
|
||||
if (_buildings.ContainsKey(landcellId)) return;
|
||||
Matrix4x4.Invert(worldTransform, out var inverse);
|
||||
_buildings[landcellId] = new BuildingPhysics
|
||||
|
|
|
|||
|
|
@ -448,6 +448,138 @@ public static class PhysicsDiagnostics
|
|||
$"[tp-probe] {point,-6} id=0x{id:X8} t={Environment.TickCount64} {extra}"));
|
||||
}
|
||||
|
||||
/// <summary>
|
||||
/// Trees-in-sky frame-split probe (2026-06-22 — REMOVABLE apparatus). The
|
||||
/// streaming worker bakes each landblock's SCENERY world position against the
|
||||
/// <c>_liveCenter</c> that is current when it BUILDS the landblock, while the
|
||||
/// render thread positions that landblock's TERRAIN against the
|
||||
/// <c>_liveCenter</c> that is current when it APPLIES it. A teleport recenters
|
||||
/// <c>_liveCenter</c> between those two moments, so a landblock built before the
|
||||
/// recenter and applied after it has its scenery offset from its terrain by
|
||||
/// <c>deltaLB × 192m</c> in XY — the "arc of trees floating in the sky" after a
|
||||
/// teleport. When enabled, <c>BuildSceneryEntitiesForStreaming</c> records the
|
||||
/// build-time center and <c>ApplyLoadedTerrainLocked</c> emits one
|
||||
/// <c>[scenery-frame]</c> line per landblock comparing build vs apply center; a
|
||||
/// non-zero <c>deltaLB</c> on a misplaced landblock confirms the mechanism.
|
||||
/// Initial state from <c>ACDREAM_PROBE_SCENERY_FRAME=1</c>. Zero cost when off.
|
||||
/// </summary>
|
||||
public static bool ProbeSceneryFrameEnabled { get; set; } =
|
||||
Environment.GetEnvironmentVariable("ACDREAM_PROBE_SCENERY_FRAME") == "1";
|
||||
|
||||
/// <summary>
|
||||
/// One <c>[scenery-frame]</c> line. Self-guards on
|
||||
/// <see cref="ProbeSceneryFrameEnabled"/>. A non-zero <c>deltaLB</c> means this
|
||||
/// landblock's scenery was baked against a different streaming center than its
|
||||
/// terrain was applied against — the trees-in-sky frame split.
|
||||
/// </summary>
|
||||
public static void LogSceneryFrame(
|
||||
uint landblockId, int buildCx, int buildCy, int applyCx, int applyCy)
|
||||
{
|
||||
if (!ProbeSceneryFrameEnabled) return;
|
||||
int dx = buildCx - applyCx, dy = buildCy - applyCy;
|
||||
Console.WriteLine(System.FormattableString.Invariant(
|
||||
$"[scenery-frame] lb=0x{landblockId:X8} build=({buildCx},{buildCy}) apply=({applyCx},{applyCy}) deltaLB=({dx},{dy}) offsetM=({dx * 192f:F1},{dy * 192f:F1})"));
|
||||
}
|
||||
|
||||
/// <summary>
|
||||
/// One <c>[scenery-z-stale]</c> line (self-guards on
|
||||
/// <see cref="ProbeSceneryFrameEnabled"/>). Emitted when, at scenery build, the
|
||||
/// physics-engine terrain sample (<c>SampleTerrainZ</c>, which searches ALL
|
||||
/// registered landblocks) disagrees materially with the landblock's OWN
|
||||
/// heightmap. That divergence means the physics query resolved the world point
|
||||
/// into a STALE neighbor landblock — the previous location's terrain, still
|
||||
/// registered after a teleport recenter (which removes only the single stale
|
||||
/// center landblock) until streaming unloads it — and returned ITS height. The
|
||||
/// scenery is then planted at the old location's altitude: trees-in-sky. The
|
||||
/// own-heightmap value (<paramref name="ownZ"/>) is the correct Z.
|
||||
/// </summary>
|
||||
public static void LogSceneryZStale(
|
||||
uint landblockId, float worldX, float worldY, float physicsZ, float ownZ)
|
||||
{
|
||||
if (!ProbeSceneryFrameEnabled) return;
|
||||
Console.WriteLine(System.FormattableString.Invariant(
|
||||
$"[scenery-z-stale] lb=0x{landblockId:X8} world=({worldX:F1},{worldY:F1}) physicsZ={physicsZ:F2} ownZ={ownZ:F2} deltaZ={physicsZ - ownZ:F2}"));
|
||||
}
|
||||
|
||||
/// <summary>
|
||||
/// Lost-building-collision probe (2026-06-22 — REMOVABLE apparatus). Building
|
||||
/// WALL collision is the dat-baked <c>PhysicsDataCache.CacheBuilding</c> channel
|
||||
/// (first-wins, never removed), reached at resolve time only when a candidate
|
||||
/// landcell in the player's swept cell-walk hits <c>GetBuilding(cellId)</c>. When
|
||||
/// enabled: <c>[bldg-cache]</c> logs each CacheBuilding (CACHED vs first-wins
|
||||
/// skip) so we can see whether/when a landblock's buildings cache; and
|
||||
/// <c>[bldg-reach]</c> logs, per cell-walk in a landblock that HAS cached
|
||||
/// buildings, which of them landed in the player's candidate set
|
||||
/// (<c>reachable=YES/NO</c>). NO while standing at a wall ⇒ the building is cached
|
||||
/// but the player's post-teleport cell resolution excludes it (#145 family);
|
||||
/// empty <c>cachedInLb</c> ⇒ the landblock's CacheBuilding never ran (apply
|
||||
/// backlog). Initial state from <c>ACDREAM_PROBE_BLDG_REACH=1</c>.
|
||||
/// </summary>
|
||||
public static bool ProbeBuildingReachEnabled { get; set; } =
|
||||
Environment.GetEnvironmentVariable("ACDREAM_PROBE_BLDG_REACH") == "1";
|
||||
|
||||
public static void LogBuildingCache(uint landcellId, bool cached)
|
||||
{
|
||||
if (!ProbeBuildingReachEnabled) return;
|
||||
Console.WriteLine(System.FormattableString.Invariant(
|
||||
$"[bldg-cache] landcell=0x{landcellId:X8} {(cached ? "CACHED" : "skip(first-wins)")}"));
|
||||
}
|
||||
|
||||
public static void LogBuildingReach(
|
||||
uint seedCell, int candidateCount,
|
||||
IReadOnlyCollection<uint> cachedInLb, IReadOnlyCollection<uint> inCandidateSet)
|
||||
{
|
||||
if (!ProbeBuildingReachEnabled) return;
|
||||
if (cachedInLb.Count == 0) return; // only interesting in a landblock with buildings
|
||||
Console.WriteLine(System.FormattableString.Invariant(
|
||||
$"[bldg-reach] seed=0x{seedCell:X8} cands={candidateCount} cachedInLb=[{HexList(cachedInLb)}] inSet=[{HexList(inCandidateSet)}] reachable={(inCandidateSet.Count > 0 ? "YES" : "NO")}"));
|
||||
}
|
||||
|
||||
private static string HexList(IReadOnlyCollection<uint> ids)
|
||||
{
|
||||
var sb = new System.Text.StringBuilder();
|
||||
bool first = true;
|
||||
foreach (var id in ids)
|
||||
{
|
||||
if (!first) sb.Append(',');
|
||||
sb.Append(System.FormattableString.Invariant($"0x{id:X8}"));
|
||||
first = false;
|
||||
}
|
||||
return sb.ToString();
|
||||
}
|
||||
|
||||
/// <summary>
|
||||
/// Floating-terrain probe (2026-06-22 — REMOVABLE apparatus). The thin terrain
|
||||
/// "traces" at the horizon after rapid multi-hop teleporting are landblocks rendering
|
||||
/// at a STALE world position — their Chebyshev distance from the current streaming
|
||||
/// center exceeds the window (FarRadius), so their world origin is off by the teleport
|
||||
/// distance. When enabled: <c>[apply-oob]</c> fires when a landblock is APPLIED while
|
||||
/// out-of-window (an in-flight load from a PREVIOUS center, applied against the new one);
|
||||
/// <c>[resid-audit]</c> (throttled) lists every RESIDENT landblock sitting out-of-window
|
||||
/// (un-cleared old-location terrain that never unloaded). A persistent non-zero
|
||||
/// <c>outOfWindow</c> count is the floating terrain; whether it arrives via apply-oob or
|
||||
/// lingers as residents tells us which mechanism. Initial state from
|
||||
/// <c>ACDREAM_PROBE_STREAM_RESID=1</c>.
|
||||
/// </summary>
|
||||
public static bool ProbeStreamResidEnabled { get; set; } =
|
||||
Environment.GetEnvironmentVariable("ACDREAM_PROBE_STREAM_RESID") == "1";
|
||||
|
||||
public static void LogApplyOob(uint landblockId, int cheby, int farRadius, float ox, float oy)
|
||||
{
|
||||
if (!ProbeStreamResidEnabled) return;
|
||||
Console.WriteLine(System.FormattableString.Invariant(
|
||||
$"[apply-oob] lb=0x{landblockId:X8} cheby={cheby} (>{farRadius}) origin=({ox:F0},{oy:F0}) — applied OUTSIDE the streaming window (in-flight stale-location apply)"));
|
||||
}
|
||||
|
||||
public static void LogResidentAudit(
|
||||
int centerX, int centerY, int residentTotal, IReadOnlyCollection<uint> outOfWindow)
|
||||
{
|
||||
if (!ProbeStreamResidEnabled) return;
|
||||
if (outOfWindow.Count == 0) return; // only interesting when stale terrain is resident
|
||||
Console.WriteLine(System.FormattableString.Invariant(
|
||||
$"[resid-audit] center=({centerX},{centerY}) resident={residentTotal} outOfWindow={outOfWindow.Count} oob=[{HexList(outOfWindow)}]"));
|
||||
}
|
||||
|
||||
/// <summary>
|
||||
/// A6.P3 issue #98 step-walk investigation (2026-05-23). When true,
|
||||
/// emits one <c>[step-walk]</c> line at selected points in the transition
|
||||
|
|
@ -575,6 +707,9 @@ public static class PhysicsDiagnostics
|
|||
ProbeSweptEnabled = false;
|
||||
ProbeStepWalkEnabled = false;
|
||||
ProbeTeleportEnabled = false;
|
||||
ProbeSceneryFrameEnabled = false;
|
||||
ProbeBuildingReachEnabled = false;
|
||||
ProbeStreamResidEnabled = false;
|
||||
|
||||
// Side-channel fields
|
||||
LastBspHitPoly = null;
|
||||
|
|
|
|||
|
|
@ -45,6 +45,34 @@ public sealed class PhysicsEngine
|
|||
return false;
|
||||
}
|
||||
|
||||
/// <summary>
|
||||
/// True once EVERY in-bounds landblock within Chebyshev <paramref name="radius"/> of the
|
||||
/// landblock covering <paramref name="cellOrLandblockId"/> has had its terrain registered.
|
||||
/// This is the teleport "surroundings are loaded" gate: holding the fade until the player's
|
||||
/// own landblock AND its immediate neighbours are resident means they arrive standing on a
|
||||
/// loaded, collidable world (their cell-walk can root into neighbour cells) instead of a
|
||||
/// single landblock floating in the void. Off-map neighbours (coords outside 0..254) are
|
||||
/// skipped — they never load, so requiring them would hang the hold until the wall-clock
|
||||
/// timeout. radius 0 is equivalent to <see cref="IsLandblockTerrainResident"/>.
|
||||
/// </summary>
|
||||
public bool IsNeighborhoodTerrainResident(uint cellOrLandblockId, int radius)
|
||||
{
|
||||
var resident = new HashSet<uint>();
|
||||
foreach (var key in _landblocks.Keys) resident.Add(key & 0xFFFF0000u);
|
||||
|
||||
int cx = (int)((cellOrLandblockId >> 24) & 0xFFu);
|
||||
int cy = (int)((cellOrLandblockId >> 16) & 0xFFu);
|
||||
for (int dx = -radius; dx <= radius; dx++)
|
||||
for (int dy = -radius; dy <= radius; dy++)
|
||||
{
|
||||
int nx = cx + dx, ny = cy + dy;
|
||||
if (nx < 0 || nx > 254 || ny < 0 || ny > 254) continue; // off-map: skip
|
||||
uint prefix = ((uint)nx << 24) | ((uint)ny << 16);
|
||||
if (!resident.Contains(prefix)) return false;
|
||||
}
|
||||
return true;
|
||||
}
|
||||
|
||||
/// <summary>
|
||||
/// Cell-based spatial index for static object collision.
|
||||
/// Populated during landblock streaming; queried by the Transition system.
|
||||
|
|
|
|||
Loading…
Add table
Add a link
Reference in a new issue