1470 commits
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Erik
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0cb60d98a0 | test(physics): pin issue 270 animation fixes | ||
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Erik
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bb1640f777 |
fix #270 closeout: strip investigation probes; close the issue
User-verified: casting fixed (exhaustion-edge gate) and monster attack animations restored (spawn settle placement + lost-cell retry). Final session evidence: 14/15 spawn settles grounded; Falling-refusal spam collapsed 2,954 -> 15 transient pre-settle lines. Strips the [UM-ACT]/[MT-FAIL]/[SPAWN-PLACE]/[remote-edge] probes, the MotionInterpreter.DiagnosticGuid plumbing, and the two throwaway probe tests (motion-table attack sweep, vitae color dump - both findings are recorded in ISSUES/research). Complete Release suite: 10,030 passed / 5 skips / 0 failures. Co-Authored-By: Claude Opus 5 <noreply@anthropic.com> |
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Erik
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21b3a3f3d3 |
fix #270: settle sweep at spawn placement - contact from the compressed first gravity frame
The [SPAWN-PLACE] probe showed placements succeeding with contact=False: find_placement_pos validates the spot but the sphere sits a few cm above the floor with no touch. Retail gains spawn contact from the FIRST GRAVITY FRAME (every CPhysicsObj simulates, falls, touches); our stationary remotes never run a physics frame. The seed now compresses that settle: a short downward ResolveWithTransition from the server position snaps the body onto the floor, and its touch grants the contact plane + CONTACT/ON_WALKABLE via the verbatim commit. No floor within reach = stays airborne, exactly like retail's fall. The retry predicate now watches the CONTACT transient (the flag contact_allows_move reads) instead of ContactPlaneValid - a DR-tick writeback can set plane DATA from last-known state without real contact, which is why the heavy attackers in the retry-session log got exactly one placement attempt and then 250+ refused Falling dispatches. Co-Authored-By: Claude Opus 5 <noreply@anthropic.com> |
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Erik
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807fdb5f7f |
fix #270: retry spawn placement until first success (lost-cell recovery analog) + attributed probes
The creation-only spawn placement could no-op or fail during the login flood (cell id not yet hydrated / streaming collision not resident) with nothing retrying - monsters created in that window stayed airborne-flagged forever and their action animations remained refused. Retail's answer to 'object addressed before its cell exists' is the CObjectMaint lost-cell list (GotoLostCell): park, re-place when the cell is available. The UM dispatch path now retries SeedRemoteSpawnPlacement while the body has never been successfully placed (no contact AND no stored plane); one success ends the retries. Probes: [SPAWN-PLACE] logs each placement outcome (guid/cell/ok/ contact/walkable); [UM-ACT]/[MT-FAIL] now carry the owning guid via MotionInterpreter.DiagnosticGuid (probe-identity-attribution lesson) plus the body's live contact/walkable flags. Co-Authored-By: Claude Opus 5 <noreply@anthropic.com> |
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Erik
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4da25a442b |
fix #270: run retail spawn placement at remote-body creation - standing monsters' attack animations restored
The [MT-FAIL] probe caught combat-stance monsters constantly failing to dispatch 0x40000015 (Falling): their bodies were airborne-flagged while standing. contact_allows_move (0x00528dd0) requires Contact+OnWalkable and silently refuses every action animation for an airborne mover - a spawned-standing monster's swings never played until it first moved. Retail never has this state: CreateObject spawns run the placement transition (CPhysicsObj::SetPosition -> SetPositionInternal 0x00515330), which establishes CONTACT/ON_WALKABLE from the floor at spawn. Our remote creation seeded a raw position with no placement. SeedRemoteSpawnPlacement mirrors RemoteTeleportPlacement: engine placement resolve (Setup-derived cylinder, TS-46) + the verbatim CommitSetPositionTransition, wired at BOTH RemoteMotion creation sites (UM-triggered creation - so a first-ever-UM attack animates in the same packet - and ordinary first-UP creation). Unplaceable results leave the body airborne exactly like a failed retail placement. Also adds the [UM-ACT] (wire action items + stamp-gate verdict) and [MT-FAIL] (refused animation dispatches) probes, riding ACDREAM_DUMP_MOTION=1, which are what convicted the body state. Complete Release suite: 10,032 passed / 5 skips / 0 failures. Co-Authored-By: Claude Opus 5 <noreply@anthropic.com> |
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Erik
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a46c8e65b2 |
fix #270: fire ReportExhaustion on the stamina-exhaustion edge only, not every stats tick
Retail calls CPhysicsObj::report_exhaustion from exactly one site - CommandInterpreter::HandleExhaustion (0x006b3c70), a notification handler for the stamina-exhaustion EVENT. Campaign P P1 wired it to every movement-stats application instead (every stamina regen/drain tick), and each call re-dispatches the current movement state through the animation sink - truncating any in-flight action animation. The diagnostic session log shows 490 spurious casting-stance re-queues in one short session: 'sometimes stuck in spell animations' was every stamina tick that collided with a cast gesture's play window. The re-apply now fires only when the exhausted state (stamina == 0) transitions, matching retail's event semantics. Stats still reach PlayerWeenie immediately via RuntimeMovementSkillProjection.ApplyTo. Also adds the [remote-edge] probe (rides ACDREAM_DUMP_MOTION=1): one line per remote HitGround/LeaveGround - each such edge drains the mover's pending action animations (retail HandleEnterWorld), the working theory for intermittently missing monster attack swings. Complete Release suite: 10,026 passed / 5 skips / 0 failures. Co-Authored-By: Claude Opus 5 <noreply@anthropic.com> |
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Erik
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2493f24c63 |
merge: #267 vitae character-panel display (attributes vitae-immune per retail; skill dual parentheticals)
Co-Authored-By: Claude Opus 5 <noreply@anthropic.com> |
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Erik
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cf2605fa4a |
fix(ui): #267 character panel reflects vitae/buffed skills and attributes
Retail CACQualities::EnchantAttribute (0x00594570), EnchantAttribute2nd (0x00594670, already ported for #6), and EnchantSkill (0x005947b0) are the three enchantment-composition functions the Character window's Attributes and Skills tabs depend on. Primary attributes never reference the vitae singleton in retail (only Attribute2nd/Skill do) — confirmed directly from the decompiled function bodies, not assumed. EnchantmentMath.GetMod gains requiredType/includeVitae parameters (default to the prior behavior) so a numeric StatMod key collision across domains (e.g. key=1 is both Strength and MaxHealth) can't leak a buff into the wrong computation. Spellbook.GetAttributeMod/GetSkillMod and LocalPlayerState.GetEffectiveAttribute/GetEffectiveSkill/ GetSkillVitaeModifier wire the retail chain through to the panel. CharacterSheetProvider now reports the effective value as the main number and CharacterSkill.CurrentLevel is no longer an alias of BaseLevel (this also activates the previously-dead SkillValueColor buffed/debuffed row coloring). CharacterStatController's footer-title parenthetical is cited from gmAttributeUI::DisplaySelectionFooter_Attribute (0x0049d280) and gmSkillUI::DisplaySelectionFooter_Trained (0x0049b860) + SkillInfoRegion::GetVitaeModifier (0x004f0fa0): skills show up to two segments (vitae's own contribution, then the buff-only residual), while vitae-immune attributes show at most one; no parenthetical when the delta is zero. The panel now refreshes on Spellbook.EnchantmentsChanged, not only raw property/attribute updates. Core goldens cover the user-reported 33% vitae example (303->203, "(-100)" exactly), buff+vitae composition, and the attribute vitae-immunity finding. Provider/controller tests cover the full row-click -> footer-title path and live refresh. Full solution suite passes with zero failures. Co-Authored-By: Claude Opus 5 <noreply@anthropic.com> |
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Erik
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c0afcacbb2 |
fix(physics): movement-parity fixes - adjusted catch-up cap, autorun retail semantics, AP-30 retired
Ports CMotionInterp::get_adjusted_max_speed (0x00527D00, byte-decoded: bare rate unless RunForward; forward_speed x 4.0 when running; current_speed_factor proven a ctor-constant 1.0 at 0x00528C34) and swaps all five interpolation catch-up call sites to it - retail's fUseAdjustedSpeed_ static (.data 0x0081F418 = 1) makes this the live branch, so standing/walking remotes now catch up at ~2x runRate instead of 4x too fast (the #41/#165 presentation family). Autorun now hard- forces Run for its duration and cancels on every fresh forward press (CommandInterpreter::HandleNewForwardMovement 0x006b3d60 is literally SetAutoRun(0,1)); the old test pin codified the divergence. AP-30 retired: retail Frame::is_equal genuinely uses the 0.0002 epsilon - the row recorded a non-divergence. Three catch-up test pins re-baselined to retail semantics with citations. Full Release suite 9,983/0. Co-Authored-By: Claude Opus 5 <noreply@anthropic.com> |
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Erik
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7719d25bc5 |
feat(physics): P5 commit 2 - arm the ConstraintManager leash on accepted positions (#167)
Wire ConstraintManager.ConstrainTo at every current acdream inbound-position acceptance seam, matching retail SmartBox::HandleReceivedPosition (0x00453fd0): - Remote (player + NPC): LiveEntityNetworkUpdateController arms right after the hard-teleport branch (remotePlacementRequired) returns - reaching that point already means MoveOrTeleport did NOT hard-place - anchored to the object's own live IPhysicsObjHost.Position. - Local player teleport: PlayerMovementController.SetPositionCore now runs UnConstrain (retail teleport_hook 0x00514ed0, previously a no-op because nothing armed the leash) then re-arms anchored to the just-snapped position, composing with the existing StopCompletelyAtPhysicsObjectBoundary velocity zero rather than duplicating it. CommitPreparedPosition mirrors the same pair for the deferred player-mode-entry commit path. - Local player ForcePosition: PlayerMovementController.BlipPosition arms with NO preceding UnConstrain (retail BlipPlayer/SetPositionSimple survives motion/velocity/stick, and the leash is no different). Push PhysicsBody.IsFullyConstrained from PositionManager.IsFullyConstrained at the SAME per-tick chokepoint each pump already runs AdjustOffset (PlayerMovementController.Update, RuntimeRemotePhysicsUpdater.Tick/TickHidden) so TS-35's read gate in jump_is_allowed sees live state instead of a stub that is never written. Tests: local-player arm/teardown/rearm/taper/jump-refusal (Runtime.Tests, PlayerMovementControllerTests), remote-tick IsFullyConstrained push (Runtime.Tests, RuntimePhysicsStateTests). Full Core/Runtime/App suites green with no regressions. |
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Erik
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bb7b899bfe |
fix(physics): TS-23 - plumb real PK/PKLite/Impenetrable mover flags
Campaign P Slice P3 item 3. The wire parse (CreateObject's PublicWeenieDesc._bitfield), the decode (EntityCollisionFlagsExt. FromPwdBitfield), the per-GUID storage (ClientObjectTable. PublicWeenieBitfield), and the exemption logic (CollisionExemption. ShouldSkip) all already existed and were already correct -- every mover-flags call site just fed a GUID-prefix IsPlayer heuristic instead of the real per-entity PK/PKLite/Impenetrable state (retail OBJECTINFO::init 0x0050cf30 state |= 0x80/0x800/0x1000). Port: - EntityCollisionFlagsExt.ToMoverState translates the decoded PWD bit-space into the ObjectInfoState bit-space FindObjCollisions actually reads -- two different numberings that must not be confused. Deliberately does not translate IsPlayer (every call site already derives that correctly from its own GUID heuristic per #184 Slice 2b). - EntityCollisionFlagsExt.ResolveMoverPvpState is the one shared ClientObjectTable-backed lookup (guid -> ObjectInfoState), replacing what would otherwise have been three separate inline copies across GameWindow/LivePresentationComposition/RemoteTeleportController. - Threaded as a new optional moverPvpState parameter through RuntimeRemotePhysicsUpdater.Tick/TickHidden and RuntimeOrdinaryPhysicsUpdater.TryBegin (default None preserves every pre-P3 caller unchanged), and as PlayerMovementController.OwnPvpFlags for the local player's own two resolve call sites. - TS-23 section 12b: PlayerWeenie.JumpStaminaCost's pk parameter now reads the real PlayerKillerStatus(0x86)/LastPkAttackTimestamp(0x91) pair against retail's 20-second recency window (pkStatus in {4, 0x40} && (timestamp + 20.0) >= now), replacing the P1 hardcoded false. RuntimeMovementSkillState/Snapshot and LiveSessionEventRouter.RecomputePvpStatus push both the PWD bitfield and the PlayerKillerStatus pair reactively, riding the SAME ClientObject event triggers RecomputeBurden already uses. - A conformance test caught a genuine precision bug in the first PK-timer clock choice: DateTimeOffset.UtcNow's Unix-epoch seconds (~1.7 billion) loses ~128 seconds of precision in a 32-bit float, silently swallowing the entire 20-second window. Switched to Environment.TickCount64 (small, monotonic magnitude) -- also the more retail-plausible basis, since LastPkAttackTimestamp is itself a wire PropertyFloat and retail's Timer::cur_time is almost certainly a process/session-relative counter for the same precision reason, not an absolute epoch. Non-PK invariant (the acceptance criterion): an entity with no ClientObjectTable row, or a row whose PublicWeenieBitfield is null or 0, resolves to ObjectInfoState.None -- a no-op OR into moverFlags, bit-identical to every pre-P3 caller's hardcoded value. A dedicated test drives two real ClientObjectTable rows through CollisionExemption.ShouldSkip and confirms PK-vs-PK collides while PK-vs-non-PK and non-PK-vs-non-PK both stay exempt (walk through). Register: TS-23 retired (both the collision-flags and PK-timer halves); the stale "M2 combat must land TS-23" phase-gate note removed. dotnet build + dotnet test (Core.Tests 4008/2 skip, Runtime.Tests 425/0, App.Tests 3968/3 skip, complete solution build) all green. Co-Authored-By: Claude Opus 5 <noreply@anthropic.com> |
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Erik
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dae5b1ea68 |
fix(physics): TS-46 - seed the sweep from the Setup's own sphere list
Campaign P Slice P3 item 1. Retail CPhysicsObj::transition (0x00512dc0) seeds the collision sweep from CPartArray::GetSphere (the Setup's own <=2-sphere list, each origin+radius scaled by m_scale) via SPHEREPATH::init_sphere (0x0050c670) -- not from a symmetric two-scalar (radius, height) capsule reconstruction. The human Setup 0x02000001's authored spheres are (0,0,0.475) r=.48 and (0,0,1.350) r=.48; the old reconstruction from (0.48, 1.835) produced (0,0,0.48) + (0,0,1.355), a 5 mm head-center offset the TS-46 register row documented as a residual. Port: - SpherePath.InitPath gains a sphere-list overload (ImmutableArray< FlatCollisionSphere>, scale) sharing a new InitPathCore with the existing (radius, height) overload, which is now the degenerate 2-scalar case of the same code -- byte-for-byte unchanged, so every captured-fixture replay (CellarUpTrajectoryReplayTests, DoorBugTrajectoryReplayTests, CellarLipWedgeTests) keeps passing unmodified. - PhysicsEngine.ResolveWithTransition gains optional sphereList/ sphereScale parameters; empty/default preserves the legacy scalar path for every pre-existing caller. - LiveEntityMotionRuntimeController.GetSetupMoverShape is a new sibling of GetSetupCylinder (left untouched) that resolves the Setup's own sphere list plus Setup-derived step-up/step-down (CPartArray::GetStepUpHeight/GetStepDownHeight, 0x005180d0/0x005180f0, x ObjScale, 0.4 m fallback matching the pre-existing literal). - Threaded through PlayerMovementController (both resolve call sites, new SphereList property set by PlayerModeController.ApplyStepHeights and the Headless world projection), RuntimeRemotePhysicsUpdater (Tick + TickHidden), and RuntimeOrdinaryPhysicsUpdater.TryBegin. Remote/ordinary step heights are now Setup-derived instead of a hardcoded 0.4f literal. Projectile and camera-probe sweeps are untouched (already single-sphere-exact). - PlayerModeController.ApplyStepHeights also now applies the x ObjScale multiply to the player's own step heights (previously only the remote/ordinary paths did), closing an adjacent gap the P3 research flagged. Ts46SphereListConformanceTests proves the sphere-list overload sees the exact dat spheres (not the reconstruction), that the scalar overload is unchanged, and that ResolveWithTransition's sphereList parameter actually drives the sweep (a decoy-scalar control pair using a head-height obstacle sphere). Register: TS-46 retired (both residuals it named are closed); header count corrected to 40 active TS rows. dotnet build + dotnet test (Core.Tests 3991/2 skip, Runtime.Tests 425/0, App.Tests 3968/3 skip, complete solution build) all green. Co-Authored-By: Claude Opus 5 <noreply@anthropic.com> |
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Erik
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aa07baed42 |
feat(diag): #262 - wire the permanent [snap] login/teleport diagnostic (Campaign P P6)
PhysicsEngine.DiagnosticLog was never assigned in production, so the #111 [snap] apparatus (one line per entry-snap Resolve, low volume by design) was structurally silent - including on the Coldeve run-on-the-spot login. Wire it at session composition; a session reset constructs a fresh engine and re-wires. Co-Authored-By: Claude Opus 5 <noreply@anthropic.com> |
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Erik
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9355ddcec6 |
feat(physics): Campaign P P1 - stat-coupled movement (burden/stamina/vitae)
Ports the retail CACQualities/EncumbranceSystem/MovementSystem chain (named-retail decomp pc 256393/412901-414050/416169-416320/695958+) so PlayerWeenie's run rate, jump height, jump permission, and jump stamina cost are real functions of burden, current stamina, and vitae/skill enchantments instead of stubs. Core: - New EncumbranceSystem.cs (delegates to the already-verified BurdenMath formulas — one source of truth for the burden HUD and movement physics) and MovementSystem.cs (GetRunRate/GetJumpHeight/ JumpStaminaCost/GetJumpPower, decomp-cited; ACE cross-referenced where BN dropped the general-case arithmetic entirely). - PlayerWeenie rewritten as the CACQualities-shaped composition: CanJump gates on burden (<2.0 load, UN-8 — x87 polarity resolved by plausibility, Ghidra MCP unavailable this slice), JumpStaminaCost returns the real ceil((load+0.5)*power*8+2) cost and always affords it (matches decomp — retail's own function never refuses; "weak" jump comes entirely from the stamina==0 skill-zeroing gate inside InqRunRate/InqJumpVelocity, not a hard refusal), SetStamina wires a null="unknown, don't gate" sentinel preserving every pre-P1 test. - EnchantmentMath.GetMod gained an optional StatModType flag filter (GetSkillMod convenience wrapper) so the SAME vitae/family-stacking machinery already used for vital-max buffs now also answers "what's the vitae+skill-enchantment-adjusted Run/Jump skill" — reusing the M3 active-enchantment state, not a new engine. Runtime: - RuntimeCharacterState now stores the pre-EnchantSkill base run/jump skill and recomputes the adjusted value (vitae first, then matching Skill-flagged buffs, floor 0.5, truncate) on every base push AND on every Spellbook.EnchantmentsChanged notification — a vitae change alone moves the produced rate without a fresh PlayerDescription. - RuntimeMovementSkillState extended with Burden/CurrentStamina (RuntimeMovementSkillProjection.ApplyTo pushes both through the existing seam); LiveSessionEventRouter recomputes burden from the same Strength+aug-property+EncumbranceVal inputs the burden HUD already assembles (reacting to the same ClientObjectTable events) and pushes current stamina from LocalPlayerState vital updates. - Wires the previously dead-lettered ReportExhaustion() R3-W4 seam: LiveSessionRuntimeFactory's OnMovementStatsUpdated callback re- applies the current snapshot to the live controller and forces an immediate movement re-evaluation on any skill/burden/stamina change. Register: retires TS-5 (CanJump/JumpStaminaCost stubs) and AP-25 (no vitae in pushed skill). Adds AP-127 (two minor unmodeled retail bonus properties + the stamina-buff-adjusts-local-copy nuance, deliberately out of the bounded "run/jump query path only" scope) and UN-8 (the CanJump x87 polarity call, flagged for a future Ghidra MCP confirmation pass). Extends TS-23 (PlayerKillerStatus not parsed) to cover JumpStaminaCost's new pk parameter, hardcoded false pending P3. Full pseudocode + retail citations + the vitae/skill-level finding in docs/research/2026-07-30-stat-coupled-movement-pseudocode.md. Release suite: Core.Tests 3977/2 skips, Runtime.Tests 425/0 skips, App.Tests 3968/3 skips — all green. (One pre-existing, unrelated Debug- only flake in LandblockBuildOriginTests reproduces on the pre-P1 baseline and passes in Release; not touched here.) Co-Authored-By: Claude Opus 5 <noreply@anthropic.com> |
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Erik
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e6a87679b7 |
fix(render): read TransparentPartHook opacity by the real part ordinal, not 0
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The user reported crystal shards hovering in the air above every Bind
Stone on Coldeve (setup 0x020010AC) that do not exist in the retail
client. The DAT truth, extracted with the new tools/SetupInspect probe:
the model authors SEVEN parts - pedestal, spinning column, inner
crystal, and four shard meshes parked in a static ring at Z=3.0 in the
placement frame and every frame of the idle cycle - and frame 0 of that
idle cycle fires four TransparentPartHooks (parts 3-6, start=end=1.0)
each loop. Retail hides the shards through those hooks; the model
simply ships with permanently-hooked-invisible parts.
acdream's hook chain was intact end to end - the static-animating
workset captures the hooks (RetailStaticAnimatingObjectScheduler ->
AnimationHookFrameQueue -> TranslucencyHookSink), and
TranslucencyFadeManager committed translucency 1.0 for parts 3-6 -
but BOTH dispatchers' bare-GfxObj branch read the fade with a
hard-coded part index 0 under a false #188-era assumption ("a bare
GfxObj entity has exactly one part"). Every live server object is a
FLATTENED multi-part entity in exactly that branch: SetupMesh.Flatten
emits one bare-GfxObj MeshRef per Setup.Parts[i], order preserved,
AnimPartChanges replacing in place - so the MeshRef ordinal IS the
retail CPartArray ordinal TransparentPartHook.PartIndex addresses.
The committed invisibility for parts 3-6 was never consulted and the
shards drew forever. Proof the ordinal was trustworthy all along:
click-selection in the same loops already publishes it as the part
identity (Slice 4 picking runs on it in production).
Fix: both the legacy classifier and the packed oracle now pass the
per-part ordinal (partIdx / packedPart.PartIndex) to the translucency
lookup. Single-part objects still read index 0; the #188 door fades
are unchanged; the Setup-expanded branch already indexed correctly.
Any other object hiding authored parts via idle-loop hooks gets its
retail appearance from the same change.
tools/SetupInspect is the new reusable DAT probe that cracked this:
dumps a Setup's parts, parent indices, GfxObj vertex bounds, placement
frames, motion-table default cycle, sampled animation frames, and all
animation hooks.
Closes task #32's code side; the connected visual gate (shards gone at
the Bind Stone, base crystals and spin retained) is the acceptance.
App Release suite 3,968 / 3 skips.
Co-Authored-By: Claude Fable 5 <noreply@anthropic.com>
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Erik
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16ed6e7c5c |
fix(render): keep authored surface translucency on composite textures
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The user reported wielded items subtly hiding particle effects, as if a translucent texture were missing. Root cause verified in source: the DAT authors a per-surface Translucency float, and the shared-atlas extraction honors it by baking (1 - Translucency) into the texture alpha (MeshExtractor). But a surface with an appearance override - ObjDesc subpalettes or texture changes, which wielded loot typically carries - routes through the per-instance composite paths instead (WbDrawDispatcher.ResolveTexture -> TextureCache GetOrUploadWithPaletteOverrideBindless / GetOrUploadWithOrigTextureOverrideBindless -> DecodeFromDats), and the textured decode there never saw the authored value: only the Base1Solid branch passed it (SurfaceDecoder.DecodeSolidColor); DecodeRenderSurface has no translucency input at all. Consequence: the part still classified translucent, still sorted in the RetailAlphaQueue, still drew with depth writes off - but with texture alpha = 1 it overwrote everything already composited behind it. Particles behind the part vanished; particles in front survived. The same GfxObj without overrides (atlas path) rendered correctly, which is why the loss was so selective and subtle. Fix: SurfaceDecoder.ApplyAuthoredTranslucency mirrors the atlas bake (in-place alpha scale, caller-owned buffers, Magenta sentinel guarded), and DecodeFromDats applies it behind an opt-in flag set by exactly the two world composite paths. The sky path stays unbaked (its shader applies the authored opacity separately - baking would double-apply, the AP-89 compounding class) and particle sheets stay unbaked (emitter-driven alpha, no authored-translucency consumer). Composite cache keys already include the surface id, so the baked alpha is cache-coherent. This closes an unregistered divergence (no register row existed; the fix restores parity with the shipped atlas mechanism, so none is added). Investigation evidence: equipped children and world objects share the same classification chain (ClassifyPackedBatches/GroupKey), so the gap was override-driven, not attachment-driven - a dropped item with the same ObjDesc was equally affected. Core SurfaceDecoder tests 22/22 (3 new); App Release suite 3,968 / 3 skips. Visual gate: a wielded item with authored-translucent parts must let its particle effects show through. Co-Authored-By: Claude Fable 5 <noreply@anthropic.com> |
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Erik
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bfba0ecf7f |
fix(ui): interactive window moves must survive the per-frame anchor layout; lock the dragbar cursor
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The dragbar port (
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Erik
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e4c99f54c0 |
feat(ui): port retail UIElement_Dragbar so authored drag strips move their windows
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The combat bar and spell bar could not be moved at all: their window mounts Draggable=false (correct - retail never whole-surface-drags them) and the authored move mechanism was missing. Retail registers element class 2 as UIElement_Dragbar (Register @ 0x0046C840); a press inside it calls UIElement::StartMovement on its parent window (StartMouseMoving @ 0x0046C760) and release calls StopMovement (@ 0x0046C7C0). The combat/spell bar layout (LayoutDesc 0x21000073) authors exactly one such element - a 600 x 5 strip along the top edge, which is where the user expects the move cursor. The powerbar, vitals, indicators, radar, and examination layouts author dragbars too, so they all gain their retail handles from this one port. Our importer knew Type 2 by name but built it as a generic UiDatElement - ClickThrough decoration, so the strip never even claimed the pointer. Now: - UiElement.WindowMoveHandle marks an authored handle; the DAT factory sets it for Type-2 elements and opts them out of ClickThrough. - A left-press inside a handle subtree moves the handle's top-level window (the outer frame directly under the root - the mounted analogue of retail's dragbar parent) even when that window is not whole-surface Draggable. Edge-resize still wins; UiLocked still gates, matching the retail locked/fixed parent-flag check. - HoverWindowMove reports the handle so the window-move cursor shows over the strip - and only there - on non-Draggable windows. Four new tests: handle press moves a non-Draggable window and stops on release, hover shows the move cursor over the strip but not the body, UiLocked suppresses both, and the factory builds Type 2 as a pointer-claiming move handle. App Release suite 3,966 / 3 skips. Co-Authored-By: Claude Fable 5 <noreply@anthropic.com> |
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Erik
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67379d1f9a |
fix(ui): UiField wrapped-line cache coherent with the text at mouse-hit time
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Headless portability / linux-graphical (push) Waiting to run
Headless portability / linux-vulkan (push) Waiting to run
Fixes the crash the user hit twice today (captured in artifacts/coldeve-acceptance-20260729/crash-hunt.log): clicking into a multiline UiField - the examination window's inscription field - after the text had changed since the last draw threw an unhandled ArgumentOutOfRangeException from String.Substring and took the whole client down (UiField.MeasureRange <- HitChar <- OnEvent MouseDown). Root cause: _wrappedLines is a DRAW-side cache (rebuilt only in DrawMultiLine) consumed by the INPUT side (HitChar on MouseDown and drag-select MouseMove). Input events are pumped before the frame's draw, so a mutation (backspace, SetText, paste) followed by a click in the same pumped frame handed HitChar wrap lines describing the OLD, longer text; measuring those stale ranges ran past the end of the live string. Fix: text mutations now bump a version (the _text field became a private property so every existing mutation site participates without churn), the draw records which version its wrap lines describe, and HitChar proves coherence via EnsureWrappedLinesCurrent() - rebuilding with the last draw width when stale. Rebuilding rather than clamping keeps caret placement CORRECT against the live text, not merely non-throwing. Two inversion-sensitive regression tests reproduce the exact crash sequence (wrap long text, shrink without a draw, click); they throw without the HitChar coherence call. App tests 3,962 passed / 3 skipped (3,960 + 2 new). Co-Authored-By: Claude Fable 5 <noreply@anthropic.com> |
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Erik
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0ccbb4e52c |
fix(interaction): port retail's wielded-item pickup rejection (Slice 4 F1)
Slice 4 made a remote character's wielded weapon selectable, which made the
pickup chain reachable end to end for the first time: SelectionPickUp on
another player's weapon captured identity, passed ValidatePickupTarget (which
checked only the Stuck flag and the small-item mask, and a MeleeWeapon clears
both), installed a real non-autonomous approach through
PlayerInteractionMovementSink, and then sent a pickup request the server
rejects. Retail does none of that.
ItemHolder::AttemptToPlaceInContainer @ 0x00588140 runs
AttemptToPlaceInContainer_IsItemLegal @ 0x005870C0 first, at 0x00588173 --
ahead of container legality, auto-merge, the container walk, and the only
CM_Inventory::Event_PutItemInContainer emitter
(ACCWeenieObject::UIAttemptPutInContainer @ 0x0058D680). IsItemLegal's arm at
0x005872B7 rejects `!ACCWeenieObject::IsOwnedByPlayer(item) &&
item->pwd._location != 0` with one local
ECM_UI::SendNotice_DisplayStringInfo(0x1a, ...), and
CPlayerSystem::PlaceInBackpack @ 0x0055D8C0 then withdraws the waiting slot it
had published (SetWaitingState(obj, 0) + SendNotice_EndPendingInPlayer at
0x0055D918). No request, no movement. acdream had never ported that arm; it
was harmless while wielded children were unpickable and stopped being harmless
at
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Erik
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f6db964fd5 |
feat(interaction): Slice 4 - equipped-child world picking
A click on a remote character's wielded weapon reported nothing. The picker was already correct: RetailSelectionScene publishes every drawn part under its own live-entity server GUID and RetailWorldPicker returns the weapon as the polygon winner. The failure was downstream eligibility - WorldSelectionQuery required TryGetInteractionEligibleRecord, whose _visible set admits LiveEntityProjectionKind.World only, so the winning hit was discarded. Retail has no such gate. Render::GfxObjUnderSelectionRay @ 0x0054C740 accumulates each hit under the drawn part's own physics-object id (CPhysicsPart::get_physobj_id @ 0x0050D490), and CPhysicsPart::Draw @ 0x0050D7A0 admits any drawn part whose physobj id is nonzero. An equipped item is a first-class CPhysicsObj with its own id and part array (CPhysicsObj::add_child @ 0x0050F870 via CSetup::GetHoldingLocation @ 0x005213F0). There is no parent redirection and no wielded-specific rule, so a click on a wielded weapon returns THE WEAPON'S GUID. PositionState.WIELDED is distinct from IN_CONTAINER (acclient.h:6802), so container suppression never hid a wielded selection either. LiveEntityRuntime gains two scoped predicates: TryGetAttachedProjectedRecord (a current Attached projection that is spatially projected) and TryGetPickEligibleRecord (that arm plus today's World visible-set arm, with the same WorldEntity.Id staleness recheck). TryGetInteractionEligibleRecord and the _visible set are deliberately NOT widened - they feed radar, auto-target, sticky/MoveTo establishment, and CombatAttackTargetSource, and retail's radar has no wielded blips. A regression test asserts an attached child stays out of that set while picking admits it. Marker anchoring had the twin problem. SmartBox::GetObjectBoundingBox @ 0x00452E20 pushes the picked object's OWN m_position - which for a child is the frame CPhysicsObj::UpdateChild @ 0x00512D50 recomposes each tick as Frame::combine(parent part frame, holding frame) - and CPartArray::GetSelectionSphere @ 0x00518B80 scales the authored sphere by that object's own part-array scale. acdream stores the PARENT's root in the child projection's Position/Rotation because the child's MeshRefs are parent-relative, which put the vivid brackets at the wielder's feet. The composed child root is already published per frame to EntityEffectPoseRegistry by EquippedChildRenderController.PublishChildPose, so selection now borrows it through an injected Func<uint, Matrix4x4?> wired in LivePresentationComposition beside the existing selection-sphere hook. There is no parent fallback: a child with no published composed root has no live frame this tick and no sphere. Its part-array scale comes from the spawn record, the same source EquippedChildRenderController.TryRealize reads, because an Attached WorldEntity carries the parent-derived pose rather than its own ObjScale. The sr_Use branch of RecvNotice_SmartBoxObjectFound @ 0x004E5AD0 guards ItemHolder::UseObject with `found->pwd._wielderID != SmartBox::player_id` at 0x004E5BE9 while still selecting and flashing. Equipped-child picking makes that click reachable, so the gate ships with it as IWorldSelectionQuery.IsWieldedByPlayer. CPhysicsObj::SetLighting @ 0x00511A80 is non-recursive, so the pulse lights the clicked object's own part array only - clicking a weapon never flashes its wielder. That follows from routing the pulse identity through the same predicate. RetailWorldPicker, RetailSelectionScene, WbDrawDispatcher, and EquippedChildRenderController are untouched, as are all wire and physics paths. The slice REMOVES an undocumented deviation (Attached projections excluded from pick eligibility versus retail's part-id pick) and introduces none, so no retail-divergence-register row is owed in either direction. Gates: dotnet build green; AcDream.App.Tests 3,951 passed / 3 skipped; complete Release solution 9,783 passed / 5 skipped; tools\run-connected-world-lifecycle-gate.ps1 RESULT=PASS. Co-Authored-By: Claude Sonnet 5 <noreply@anthropic.com> |
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Erik
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b2b5e3d54a |
diag(render): composite-warmup stall probe for the session-3 tunnel hang
The 2026-07-29 Coldeve session 3 stuck the player in the portal tunnel forever: generation 2 (Town Network, 0x00070156) published render but composites/collision never became ready, and the reveal latch correctly held the tunnel. The composite warmup queue in WbDrawDispatcher has exactly two permanent-stall shapes - a GfxObj id that never resolves (silent load failure, e.g. custom-server content absent from the baked pak) or an upload budget that never reopens - and they are indistinguishable from the reveal log alone. ACDREAM_PROBE_REVEAL=1 (NetDiagnostics.ProbeReveal) now emits one [composite-warmup] STALL line per second while warmup blocks a reveal: pending count, queue depth, scan state, upload-budget gate, and the first four pending GfxObj ids. Zero cost when off. Co-Authored-By: Claude Fable 5 <noreply@anthropic.com> |
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Erik
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534bacbc23 |
diag(net): #260 outbound/command-gate probe + corrected issue framing
The two-agent investigation refuted #260's as-filed hypotheses: every UseWithTarget was acked (the J5.2 use gate never latched), and the LOH leak is bounded sawtooth churn - the real climb is ~2.25 GB of native/ GPU memory (WS 3,261 vs managed 1,015 MiB at wedge). The wedge evidence also showed why it could hide: the live combat toggle routes through the generation-gated runtime command seam, and every rejection exit in that chain (Disposed / StaleGeneration / !IsInWorld at Validate, plus the operations slot reading IsInWorld=false when unbound) is COMPLETELY silent - no log, no event. ACDREAM_PROBE_NET=1 (NetDiagnostics owner, PhysicsDiagnostics pattern) now arms three probe families, all zero-cost when off: - [net-out] per reliable send at the SendGameMessage chokepoint: opcode, GameAction type+sequence, fragment/packet sequence, managed thread id (two tids would prove the cross-thread ISAAC-desync hypothesis alone), and state; [net-out-EX] via an exception FILTER that logs without catching, so propagation is unchanged. - [net-tick] 1 Hz cadence from WorldSession.Tick: inbound/s, queue depth, budget breaks, worst inter-tick gap (frame-stall witness), out/s, acks/s. - [cmd-gate] every silent runtime-command rejection with expected-vs- view generation, lifecycle, and IsInWorld, plus the combat toggle result (whose Inactive exit reads a DIFFERENT IsInWorld source). One walked-portal repro session with this probe distinguishes all remaining #260 wedge hypotheses. ISSUES.md #260 rewritten to the corrected two-root framing. Co-Authored-By: Claude Fable 5 <noreply@anthropic.com> |
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Erik
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f27ad9ee43 |
feat(core): adopt retail's full WeenieError code table
acdream carried 16 status codes, curated by hand out of the CMotionInterp and MoveToManager decompilation passes. The other 362 were unnamed, which made every one of them a cast site waiting to happen. This slice takes the whole table: 372 values under 378 names. The oracle set is finally complete. All six vendored reference repos were empty when the 2026-07-29 enum campaign ran, which is why it deferred this decision; they are re-cloned now, so ACE's WeenieError could be read directly instead of leaning on the UtilityBelt catalog alone. The two agree without a single conflict. ACE has 369 members, no internal value collisions. The catalog has 372, shares all 369 ACE names, and disagrees on none of their values. Its three extras -- IsNowOpenFellowship (0x050B), IsNowClosedFellowship (0x050C), LockedFellowshipCannotRecruit (0x0518) -- each turn up in ACE's separate WeenieErrorWithString enum with a `_` marking the interpolated name, so the catalog is just the less-split view of the same client enum. All three are adopted on agreement between two oracles, not on one. Retail cannot arbitrate any of this. acclient.h has no counterpart enum; its charError (26) is character-creation only. Recorded, not guessed around. Six values keep two names. acdream's NotGrounded, CrouchInCombatStance, SitInCombatStance, SleepInCombatStance, ChatEmoteOutsideNonCombat and ActionDepthExceeded are each anchored to a retail decompilation site, where ACE's names for those values are server-side coinages. Rather than pick, both are declared, acdream's first so ToString() is untouched. Behaviour is unchanged, and there is no way for it not to be: nothing in the tree branches on a WeenieError member. MotionInterpreter's switch is on a motion type and merely returns one of these; WeenieErrorText.For switches on a raw uint; the chat translation table WeenieErrorMessages is keyed on uint throughout, so naming a code does not make it render. The one site that moved is RemoteTeleportHook, where the (WeenieError)0x3Cu cast becomes the now-named WeenieError.ITeleported at the same value. Register row AP-15 is narrowed rather than retired. Its code-catalog caveat is superseded -- an unnamed code is no longer a way for it to bite -- but the sentences are still ACE's doc comments rather than retail's string_table.bin, and that part stands. The enum moved out of MotionInterpreter.cs into its own file at the same namespace. At 372 members it does not belong inside a physics class file. Core tests 3903 passed / 2 skipped. Co-Authored-By: Claude Fable 5 <noreply@anthropic.com> |
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Erik
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ce9445b270 |
fix(render): the near plane is col3, not col4 + col3 (#248)
`FrustumPlanes.FromViewProjection` extracted the near plane with the Gribb-Hartmann form written for OpenGL's `[-1,1]` clip-space z range. Every acdream projection comes from `Matrix4x4.CreatePerspectiveFieldOfView` or `CreateOrthographic`, whose range is `[0,1]`. Under `[-1,1]` the near plane is the locus of `clip.z = -clip.w`, which is `col4 + col3`; under `[0,1]` it is `clip.z = 0`, which is `col3` alone. Concretely, the mismatch put the effective near threshold at `-n·f/(2f-n)` — about 0.5 m where the retail chase camera asks for 1.0 m. That error only ever kept geometry the true frustum would have dropped, never the reverse, which is why it produced no visible defect and was filed instead of hot-fixed during Campaign V. It is still wrong, and it is the same mistake that *was* visible in `PortalProjection`, where it culled the cell behind a doorway the camera stood close to. The far plane is `col4 - col3` under both conventions and is untouched. A test pins it anyway, so that a future edit to this function cannot drift it while nobody is looking. The acceptance criterion asked for a unit test pinning the extracted near distance to the camera's near value, and that is what landed: a theory over four near/far pairs asserting the plane is unit-length, faces down -Z, and stands off the eye by exactly `nearDistance`, plus a kept/dropped pair straddling it. The test was checked against the old formula before commit and fails all four cases there — it measures the fix rather than merely accompanying it. The other half of the acceptance criterion — unchanged culling in the offline pixel gate and the connected route — could not be run: #259 has Win32 surface creation failing machine-wide, so no gate that needs a window is available tonight. Recorded as outstanding rather than assumed. Solution build 0 errors; `AcDream.Core.Tests` 3,898 passed / 2 skipped / 3,900. Co-Authored-By: Claude Fable 5 <noreply@anthropic.com> |
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Erik
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cd2f3feae2 |
merge(core): the enum verification campaign, onto the post-deletion tree
Brings `github/overnight/enums` (` |
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Erik
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c265b52d4b |
docs(render): V11 closeout — register, architecture, code structure, issues
Retires the GL framing from the documents that described a two-backend,
two-UI-stack client, and files what the deletion left behind.
Divergence register:
* AD-46 (anisotropic tap pattern in dense alpha scenery) is REFRAMED rather
than retired. Its substance survives -- distant foliage may read denser
than retail's -- but it was measured GL-vs-Vulkan, and with GL gone it is
a Vulkan-vs-retail question against the D3D oracle it already cited. The
measurement is kept as the evidence that the residual is a driver tap
pattern; the row now records that it is no longer falsifiable by
self-differential, which is a real loss the deletion causes.
* AD-47 and AD-48 are NEW, and the campaign's own risk register scheduled
them here: MSAA sample positions (measured at 8.83% of the frame at 4x,
which is why every strict gate runs MSAA off -- and therefore why a
regression confined to the multisample path would not be caught) and
present pacing (#235 is the live instance).
* AD-17's justification moves from a GL clip-plane citation to Vulkan's
maxClipDistances floor, which is the same 8, so the divergence is
unchanged and only its authority moves.
* AP-92 keeps IUiViewportRenderer.TextureIsBottomUp rather than folding it
flat, because it is what let the origin question be answered by data.
Architecture and code structure: the layer diagram, the frame order, the
residency vocabulary and the reference table all said OpenGL. The UI section
said two stacks. Rule 3's rationale is rewritten around what actually
happened -- ImGui was deleted and not one panel, ViewModel or command had to
change, because none of them had ever imported ImGuiNET. That is the rule
paying for itself, so it is recorded as evidence rather than removed as
obsolete.
Issues: #258 files the dev-panel host as a decision rather than an accident,
and #255 is REOPENED. Its TaskCreationOptions.LongRunning fix asks the
scheduler for a thread but does not promise two callbacks overlap; under nine
concurrent test assemblies it still failed 2 of 5 whole-suite runs. The
earlier evidence tested a narrower pool, not a contended one. The fix it
needs is a rendezvous inside the read stub -- not a weakened assertion.
Co-Authored-By: Claude Fable 5 <noreply@anthropic.com>
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Erik
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7a0227c12e |
feat(render): Vulkan campaign V11 step 3 — drop the GL packages and shaders
Commit 2 deleted the GL rendering backend's implementations; this step removes the package references and shader vocabulary they leave behind, so nothing in the App project still spells Silk.NET.OpenGL. Silk.NET.OpenGL and Silk.NET.OpenGL.Extensions.ARB are dropped from AcDream.App.csproj. Chorizite.Core stays — the audit is NOT clean: its Render.Enums (TextureFormat, BufferUsage) and Lib.BoundingBox types are used directly and extensively across the Wb texture/mesh pipeline, independent of the deleted GL IUniformBuffer implementers the package comment used to cite. The stale comment is corrected in place. IMeshPipelineDevice.Gl is removed along with the GL? gl parameter threaded through WbMeshAdapter's four constructors, WorldRenderComposition's CreateMeshAdapter, and VulkanMeshPipelineDevice's Gl => null implementation — nothing read any of them once the legacy per-mesh upload bodies were gone (confirmed by grep: the sole non-doc-comment hit was a test assertion). While in WbMeshAdapter.Dispose(), found and fixed a real bug along the way: its teardown still pattern-matched the deleted GL GpuFrameFlightController to decide whether to wait for submitted work, which VulkanFrameFlightController replaced at slice V6a without this site being updated — so the wait had been silently dead on every Vulkan run since then. Retargeted to VulkanFrameFlightController, which carries the same WaitForSubmittedWork(). The GL pixel-format vocabulary (Silk.NET.OpenGL.PixelFormat/PixelType) that WorldTextureArray/TextureFormatExtensions/TextureAtlasManager used for upload validation is replaced by AcDream.Content's existing Silk.NET-free UploadPixelFormat/UploadPixelType enums (added at MP1a to keep the bake tool GL-free); two new members (Rgb, Red, Float) extend that enum with their GL ABI constants to cover the full vocabulary WorldTextureArray needs, since MP1a's original set only covered what the extractor itself emits. ObjectMeshManager's App-boundary cast `(Silk.NET.OpenGL.PixelFormat?)batch.UploadPixelFormat` becomes a direct pass-through now that both sides share the type. GpuBindingModel.StorageTextureTable (the GL-only binding=9 emulation of the Vulkan texture table) is deleted and StorageBindingCount drops from 10 to 9; the descriptor-set-layout code that builds from that count (VulkanPipelineLayouts, VulkanFrameBindings) is untouched and just allocates one fewer always-dummy-seeded, always-unused binding. Several fully dead GL-only classes came along for the ride, confirmed by zero construction sites: SilkFramebufferViewportTarget (NullFramebufferViewportTarget is the sole production IFramebufferViewportTarget), SilkRenderGlStateReader (NullRenderGlStateReader.Instance is the sole IRenderGlStateReader), RuntimeRenderFrameClearPhase (VulkanRenderFrameClearPhase is the sole IRenderFrameClearPhase, expressing the same atmosphere-clear logic as a pass load-op instead), and GpuFrameTimer plus FrameProfiler's GL-owning FrameBoundary(GL) overload and BeginGpuFrame/EndGpuFrame bracket (RecordGpuSample is the only GPU-timing path any backend uses now — the ACDREAM_WB_DIAG nested-query exclusion these existed for no longer applies, since WbDrawDispatcher's own diagnostic GPU sampling already moved to the device's Vulkan timer pool). GpuFrameFlightController itself stays (never constructed with a real fence API in production, but its retirement-ledger/serial-ring logic is backend-neutral and still covered by its own unit tests) — only its GL-specific parts (the public GL constructor overload, SilkGpuFenceApi) are deleted, since removing the whole class would mean restructuring the frozen Slice-8 composition shape's GpuFrameFlightController? threading, which is out of this commit's scope. TextureParameters.cs and BufferUsageExtensions.cs (zero callers each) are deleted outright. common.glsl is deleted: nothing in the actual Vulkan .spv build reads it. tools/ShaderCompiler/Program.cs compiles each .vert/.frag pair directly and tools/ShaderCompiler/VulkanGlslPreamble.cs injects its own complete self-contained preamble per file; common.glsl's textual concatenation was exclusively Shader.cs's GL-only mechanism, deleted at Commit 2. The five shader files that named it in comments (mesh_modern.vert, particle.vert, particle.frag, sky.frag, terrain_modern.frag) are corrected to point at VulkanGlslPreamble.cs instead. mesh.vert/mesh.frag — the pre-N.5 legacy shader pair the mandatory modern path already made unreachable, with zero C# consumers and no compiled .spv — are deleted too. Regenerated via tools/compile-shaders.ps1: 9/9 remaining shader pairs compile (previously 9/10, with mesh the sole failure — the VulkanShaderManifestTests doc comment's "nine of ten are not Vulkan-expressible" was already stale before this commit). Test fallout: dead-subject test methods/files are deleted rather than patched (TextRendererFailureSafetyTests.cs, ClipFrameUploadTests.cs, GpuResourceRetirementTransactionTests.cs's GL queue tests, one WorldRenderDiagnosticsTests source-order test, one RenderFrameResourceControllerTests clear-phase-order test); tests whose subject moved or was renamed are updated in place rather than deleted (GpuContractTests, VulkanCapabilityGateTests, MeshPipelineDeviceSeamTests' pinned seven-member surface now reads six, ParticleBindlessInstanceTests' cross-dialect check now covers the one surviving dialect, WbMeshAdapterTests' misleadingly-named null-gl test — gpuDevice was always the parameter that actually threw). Build: `dotnet build AcDream.slnx -c Release` — 0 warnings, 0 errors, with the Silk.NET.OpenGL/.Extensions.ARB package references physically removed from the csproj (not just unreferenced in code). Tests: full-solution `dotnet test` green across every project. Zero remaining `using Silk.NET.OpenGL` anywhere in src/ or tests/. Co-Authored-By: Claude Fable 5 <noreply@anthropic.com> |
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Erik
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8a7a0837e1 |
feat(render): Vulkan campaign V11 step 2 — delete the OpenGL backend
Vulkan is the sole, user-signed-off backend (V10 landed) and step 1 already removed ImGui/Studio/DevTools. This step deletes the GL rendering backend itself: every Gpu/Gl/** implementation, the Wb ManagedGL*/GLHelpers/GLSLShader/GLStateScope/RenderStateCache/ BindlessSupport family, Shader/ShaderProgramConstruction/SamplerCache, RenderBootstrap, and RenderFrameGlStateController. GameWindow.cs's Run()/CreateGraphics()/CreateBackbufferReader()/ OnLoad() collapse to their Vulkan-only arm; GameWindowGraphics loses its OpenGlGameWindowGraphics subclass. RuntimeOptions.RenderBackend and RenderBackendKind (incl. the Gl member of GpuBackendKind) are gone — there is nothing left to select between. The five world-draw dual-arm renderers (WbDrawDispatcher, EnvCellRenderer, TerrainModernRenderer, ParticleRenderer, SkyRenderer) and the composition roots (WorldRenderComposition, HostInputCameraComposition, LivePresentationComposition, FrameRootComposition) collapse to their RHI-only arm. GL-only diagnostic properties with a live external reader (DynamicBufferCount and friends) simplify to a documented `=> 0`/no-op rather than disappearing, since the reader is out of this commit's scope. A few GL-flavored mechanisms turned out to be backend-neutral once isolated: GlConstructionCleanupLedger is renamed ResourceConstructionCleanupLedger (exception-chain walking has nothing to do with GL), and GlfwNativePlatformProbe moved out of the otherwise GL-only GraphicalCapabilityRecord.cs into GraphicalWindowBackendSelection.cs before the rest of that file was deleted. Test files with no surviving subject are deleted outright (GraphicalCapabilityRequirementsTests, ShaderProgramConstructionTests, PortalDepthShaderParityTests, TextureCacheBindlessTests, TextRendererFailureSafetyTests, ClipFrameUploadTests, every Gpu/Gl/*Tests, GlTextureOwnershipTests, RenderFrameGlStateControllerTests); others get their dead GL-only members trimmed while their live assertions stay (ClipFrameLayoutTests' MeshClipSsboBinding check now reads GpuBindingModel.StorageClipRegions, the same binding index under its new backend-neutral name; GpuResourceRetirementTransactionTests drops its OpenGLGraphicsDevice-subclassing test double and the two GL queue tests it existed for). EnvCellRendererTests' construction helper now builds a real ObjectMeshManager via VulkanMeshPipelineDevice instead of passing null through a null-forgiving operator, since the RHI constructor never tolerated a null mesh manager and the old GL constructor (which did) is gone. Deferred to the next two steps, deliberately not touched here: the Silk.NET.OpenGL/.Extensions.ARB package references, IMeshPipelineDevice.Gl (WbMeshAdapter's GL? threading stays in place), Chorizite.Core's stale csproj comment (the package itself is still load-bearing — TextureFormat and friends are used well beyond the deleted ManagedGLUniformBuffer), and the CI/gate scripts. Build: `dotnet build AcDream.slnx -c Release` — 0 warnings, 0 errors. Tests: full-solution `dotnet test` green across every project (App.Tests 3937/3940 + 3 skips, Core.Tests 3296/3298 + 2 skips, all others 100%); the 2 App.Tests names that flake under full-suite parallel execution (#250-family, documented pre-existing) pass in isolation. Co-Authored-By: Claude Fable 5 <noreply@anthropic.com> |
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Erik
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3efa266a61 |
feat(core): name AmmoType, CombatUse, and ItemUseable
Three more fields acdream already pulls off the wire and then carries as bare numbers. AmmoType and MaterialType ride PublicWeenieDesc through CreateObject and land on ClientObject as ushort/uint; ItemUseable and CombatUse arrive as PropertyInt 16 and 51. Nothing named them, so every site that reasoned about them did it in hex. AmmoType (acclient.h:4221) and CombatUse (acclient.h:6523) are small and unsurprising. ItemUseable (acclient.h:6478) is neither: it is two 16-bit halves, low for where the used object must be and high for where its target must be, and retail names roughly thirty specific combinations rather than expecting callers to compose them. They are transcribed rather than composed because at least one is not the union it looks like - SOURCE_CONTAINED_TARGET_OBJSELF_OR_CONTAINED is 0x880008, where composing ObjSelf|Contained|(Contained shifted 16) gives 0x800088. A test asserts that specific non-equality so the shortcut cannot be reintroduced. ItemAppraisalTextFormatter's ammunition sentence now reads through AmmoType instead of matching 0x08/0x40/0x10/0x80/0x20/0x100 literals. The fold it performs - crystal and chorizite variants collapsing to their base arrow/bolt/atlatl kind - was already exactly right against retail's bit layout; this only gives it vocabulary. No behavior change, and the appraisal tests confirm it. Core tests 3,836 -> 3,894. Full suite 9,759 passed / 5 skipped, no failures. Co-Authored-By: Claude Fable 5 <noreply@anthropic.com> |
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Erik
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844cf092a1 |
feat(render): Campaign V slice V11 commit 1 - delete ImGui, Studio, and the DevTools frontend
The ImGui developer-tools stack (AcDream.UI.ImGui), UI Studio (src/AcDream.App/Studio), and the DevToolsFramePresenter/ SettingsDevToolsCompositionPhase ImGui composition machinery are removed. Vulkan never composed a DevTools frontend (DevToolsEnabled already forced false whenever the backend was Vulkan); this commit makes that permanent by deleting the only implementation rather than leaving a dead branch behind. What moved: Studio/SampleData.cs is a live production dependency (InteractionRetainedUiComposition's character-sheet fallback, plus three UI.Layout test files) - git mv'd to src/AcDream.App/UI/Layout/SampleData.cs, namespace AcDream.App.UI.Layout, and trimmed to the SampleCharacter API that is actually still called (BuildObjectTable/AddItem/AddEquipped/the item-guid and icon constants had zero callers left once the Studio fixture provider that used them was deleted). What survives as backend-neutral seams, per the tests that still exercise them: IDevToolsFrameLifecycle (moved into RenderFramePreparationController.cs, now always bound to null), IFramebufferDevToolsTarget/FramebufferDevToolsBinding in FramebufferResizeController.cs (its concrete DevToolsFramebufferTarget adapter is deleted), and IDevToolsGameplayCommands in GameplayInputCommandController.cs (DevToolsGameplayCommands becomes a documented no-op instead of forwarding to the deleted presenter). A follow-up re-homes Settings/Debug onto the retained UI through IPanelRenderer; until then keybind remapping falls back to editing keybinds.json. DevToolsEnabled is now `private const bool DevToolsEnabled = false`. RuntimeOptions.DevTools is unchanged and still reaches VulkanGraphicsContext for the optional debug-utils extensions; Program.cs now logs one line when ACDREAM_DEVTOOLS=1 explaining that the ImGui UI is gone and the flag is Vulkan-only now. Removed: AcDream.UI.ImGui (project + ImGui.NET/Silk.NET.OpenGL.Extensions.ImGui package refs), src/AcDream.App/Studio (minus SampleData.cs), DevToolsFramePresenter.cs and everything only it constructed (ISettingsDevToolsCompositionFactory, RetailSettingsDevToolsCompositionFactory, DevToolsCompositionOwner, IGameWindowSettingsDevToolsPublication, SettingsDevToolsOptionalDependencies, the "developer tools" shutdown-ledger stage and its DevTools-typed fields on IngressShutdownRoots/ RenderShutdownRoots), the ui-studio Program.cs verb, and the cimgui native manifest entries in GraphicalHostPlatformServices. GameWindow.cs's DevTools composition branch, its _vitalsVm/_debugVm/_devToolsComposition/ _devToolsFramePresenter/_devToolsCommandBus fields, and every settingsDevTools .DevTools?.* access across FrameRootComposition.cs/SessionPlayerComposition.cs are gone with it. Build green; complete Release solution suite 8,830 / 5 skips (App Tests 4,097/3 skips run standalone - one #250-family zero-allocation test flakes under the full parallel `dotnet test AcDream.slnx` run, a pre-existing, documented class unrelated to this change). Co-Authored-By: Claude Fable 5 <noreply@anthropic.com> |
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Erik
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122fe8a7e2 |
feat(render): Campaign V slice V10 — Vulkan becomes the default backend
THIS CUTOVER AWAITS THE USER'S VISUAL SIGN-OFF. It is not complete. Section 7
of the campaign plan names the V10 sign-off as the only required user stop
besides gate failures, and it has not been given. This commit flips the default
and runs the battery so that the sign-off has evidence in front of it.
ROLLBACK, one line: `git revert` of this commit. It restores the GL default,
the pre-V10 escape-hatch polarity and the gate scripts' inherited backend
together; nothing else has to move with it.
An unset, empty or unrecognised ACDREAM_RENDER_BACKEND now yields
RenderBackendKind.Vulkan. Only `gl` or `opengl`, case-insensitive, selects
OpenGL. The polarity of the typo case flipped with the default and on purpose:
before V10 an unrecognised token had to land on GL because Vulkan was dark and a
typo must never silently start a backend that cannot draw; after V10 it has to
land on Vulkan for the same reason read the other way, because GL is the backend
V11 deletes. `opengl` is honoured beside `gl` because an escape hatch exists to
be found.
Three gate scripts follow the flip. run-offline-pixel-gate.ps1 gains -Backend
(default vulkan) and now FORCES all four determinism levers — backend, day
group, world day fraction, sky phase — plus ACDREAM_MSAA_SAMPLES=0, instead of
inheriting any of them. run-repeat-connected-gate.ps1 and
run-connected-world-lifecycle-gate.ps1 CLEAR ACDREAM_RENDER_BACKEND rather than
setting it, so what they exercise is the process default and an ambient override
in a caller's shell cannot make a GL run wear the default's report.
TEST PIN UPDATED, flagged as required: RenderBackend_DefaultsToGl becomes
RenderBackend_DefaultsToVulkan, and RenderBackend_AnythingElseStaysOnGl splits
into RenderBackend_SelectsGlOnlyForTheEscapeHatchTokens and
RenderBackend_AnythingElseStaysOnVulkan. Five cases replace two. No other test
is touched, weakened or deleted.
AD-46's divergence-register row moves from "dormant until the V10 cutover" to
live, in this commit, per the same-commit register rule.
Battery, all on the new default:
complete Release suite 9,222 passed / 5 skipped / 0 failed (9 projects)
+5 against the pre-flip 9,217; the +5 are this
slice's own escape-hatch cases
#250 family, singly 4/4 pass (none failed in the whole-suite run)
repeat connected gate PASS 3/3 on both columns
world-lifecycle route PASS, 0 failures, both sessions graceful at exit 0
validation layer inserted at instance AND device level by the loader,
zero errors and zero warnings, real frame captured
GL escape hatch verified by two offline launches: 4.3.0 Core Profile
Context, bindless present, exit 0
Every connected launch in the battery reached Vulkan with no environment
variable set, which is the flip itself under test rather than an assertion
about it.
THE PIXEL GATE IS NOT MET, AND WAS NOT RELAXED. Vulkan against a GL-era capture
taken at this commit through the escape hatch, MSAA off and both clocks pinned:
1.099e-03 masked / 3.764e-02 whole-frame, against a 0.001 threshold. 97.9% of
the difference is in the treeline band, and the masked residual of 619 px — set
against a same-backend control of 10 px — sits entirely on the silhouettes of
distant alpha-blended scenery. That is AD-46's registered population; section
5.5.19 measured the same quantity at 497 px / 8.8e-04. Below the band the two
backends are photometrically identical: mean luminance differs by 0.01 of 255.
No baseline was regenerated and no mask or tolerance was widened.
Two instrument findings are recorded in section 5.5.23. The offline gate's sky
mask is still load-bearing — this slice tried retiring it on the reasoning that
V7's clock pins had made it obsolete, and the control refuted that: two launches
of the same binary still differ by 1,011 px on GL and 482 px on Vulkan, almost
all of it in the band. The default went back to 280 with the measurement written
into the script's help. And the repeat gate's desktop witness needs an
uncontested primary monitor: a first attempt reported 1/3, and the two failing
grabs turn out to be a web browser and Discord composited over the client rect,
not a blank frame — the client's Vulkan capture rendered in all six runs.
Nothing GL, ImGui or Studio is deleted. That is V11's scope and it is untouched.
Co-Authored-By: Claude Fable 5 <noreply@anthropic.com>
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Erik
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00e1b32177 |
perf(render): Campaign V slice V8 commit 1 - the Vulkan arm gets an instrument
V8 is the performance gate, and it opened on a plain fact: the Vulkan arm
emitted no [frame-prof] line at all. V6h wired it to
NullRenderFrameGpuMeasurement, whose BeginFrame does nothing - and that method
is the ONLY caller of FrameProfiler.FrameBoundary. So a Vulkan run produced no
CPU frame distribution, no allocation-per-frame column, no frame-history CSV
and no GPU sample. The campaign's own performance vehicle,
tools/run-connected-r6-soak.ps1, waits on [frame-prof] boundaries to time its
samples, so it could not be pointed at the backend V8 exists to judge. You
cannot measure what you have not instrumented, so the instrument lands first.
The bracket is deliberately identical on both arms. On GL,
FrameProfilerGpuMeasurement begins a TimeElapsed query at BeginFrame and ends
it at EndFrame, spanning resource preparation, the world scene and private
presentation, and NOT the swapchain present. VulkanFrameGpuMeasurement opens
and closes a Vulkan timestamp scope at exactly those two points. Two
differently-bracketed numbers in one comparison table would have been worse
than reporting none.
Vulkan timestamps resolve two or three frames late, so the sample carries the
profiler frame index that ISSUED it rather than being credited to the frame
that happened to read it - the pairing GpuFrameTimer already performs
internally on GL. VulkanGpuDevice opens the whole-frame scope tagged with that
index, reads the previous use of the slot back in BeginFrameResources BEFORE
the tag is overwritten, and hands completed (tag, microseconds) pairs to the
adapter through a bounded queue that never blocks.
VulkanGpuTimerPool gains TryTakeResolved, which consumes the value it reports.
TryResolve deliberately reports the last known measurement forever, which is
right for a diagnostic readout and wrong for a percentile: counting one
measurement into the distribution twice is how an instrument flatters itself.
FrameProfiler gains a GL-free FrameBoundary() overload and RecordGpuSample.
Every other line of its bookkeeping - the CPU delta, the per-thread allocation
delta, the stage buffers, the history row, the five-second report - is the same
code the GL arm runs. The GL path is byte-for-byte unchanged in behaviour:
FrameBoundary(GL) still owns and creates the query ring.
Gates: Release build green. App tests 4,152 passed / 3 skipped, exactly the
pre-slice baseline. Strict GL offline pixel gate against
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Erik
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a13cff884f |
ci(render): Campaign V slice V9 - the Vulkan gate runs on lavapipe
The first CI job in this project's history that renders a frame.
The whole row rests on a decision V6g already made and paid for. When
section 5.5.8 cut set 0 from ten dynamic storage descriptors to four, four
was not merely under the RX 9070 XT's eight - it is Vulkan's guaranteed
minimum, so no conformant device can fail the layout. That is what makes a
software-device row possible at all. Every other requirement was then
checked against Mesa's lvp_device.c rather than assumed, and all seventeen
features the gate demands are true on lavapipe - including
samplerAnisotropy, which V7 made load-bearing eight commits ago and which a
software rasterizer would have been entirely within its rights to decline.
Three things had to exist before the job could:
1. The harness could not stop. VulkanBringUpHost presents until its window
closes, which is right at a desk and impossible in CI, where nothing ever
closes a window. ACDREAM_VULKAN_PROBE_FRAMES gives it a budget; unset or
malformed is zero, which keeps the interactive behaviour, so no existing
invocation changes. The budget never cuts the capture short - the loop
stays open until the screenshot has been attempted - because a run whose
entire product is a PNG must not be able to exit green with an empty
artifact directory. The decision is a pure static method, tested without
a window or a driver.
2. tools/compile-shaders.ps1 was Windows-only and nobody had noticed,
because nothing had ever run it anywhere else. It built its paths from
embedded 'src\AcDream.App\...' literals; a backslash is a separator on
Windows and an ordinary filename character everywhere else, so on Linux
that is one long nonexistent file name.
3. The report's jq paths were invisible to the compiler. Renaming a record
property or swapping the enum converter would have left every test green
and turned CI red on someone else's branch days later, with a failure
that reads like a driver problem. VulkanCapabilityReportContractTests
pins the exact strings the job greps and pins its packed-version
arithmetic against VulkanApiVersion's own unpacking.
The job, eleven steps: install lavapipe and Xvfb; record vulkaninfo as
evidence; publish linux-x64; run the Gpu.Vk tests on a second operating
system; probe the gate under a 24-bit Xvfb screen (the default is 8-bit,
which leaves the X11 WSI without a usable visual) and assert an accepting
verdict on a Cpu device at API >= 1.3 with a clean active probe; assert the
captured PNG is a real frame by IHDR dimensions and byte count; re-run with
ACDREAM_VULKAN_FORCE_UNSUPPORTED=timelineSemaphore and assert exit 4 with an
actionable refusal; recompile the shaders and compare. Artifacts upload on
always(), so a red run ships its own diagnosis.
The .spv step is what ties the committed binaries to their sources. The
existing App test hashes GLSL against the manifest, which catches "edited a
shader, forgot to recompile"; nothing caught a stale or hand-edited .spv.
Verified on Windows before shipping: 19/19 artifacts byte-identical to a
fresh compile, zero drift.
No GL-versus-Vulkan pixel compare, for two independent reasons recorded in
section 5.5.20: linux-graphical asserts exit 4, so there is no left-hand
side, and the probe renders synthetic scenes rather than the DAT world CI
cannot have. The two jobs now say something sharper than a pixel diff would
have - on the same software Mesa stack, GL is refused and Vulkan is accepted
and draws. Physical Linux GPU and Wayland rows stay deferred on the Slice L
precedent; no hosted runner offers either.
Gates: Release build green, zero errors. App tests 4,152 / 3 skipped against
a 4,134 / 3 baseline at this branch's base (
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Erik
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1f25a60999 |
fix(diag): Campaign V slice V7 commit 2 - pin the world clock, because the route never did
THE ROUTE'S TIME PIN NEVER HELD, AND EVERY V7 NUMBER SO FAR WAS TAKEN THROUGH IT.
connected-backend-differential.route.txt opened by pressing
AcdreamCycleTimeOfDay three times, on the stated theory that the cycle walks
live -> 0.00 -> 0.25 -> 0.50 and lands on noon. The mechanism underneath is
WorldTimeService.SetDebugTime, and SyncFromServer clears it -- deliberately,
because that setter is the /time slash command and the command is meant to be a
look-at-dusk-for-a-moment affordance rather than a mode. There is even a test
pinning that behaviour: WorldTimeDebugTests.SyncFromServer_ClearsDebugOverride.
ACE sends TimeSync every few seconds. The clock was therefore un-pinned again
long before the route reached its first stop, on every run this campaign has
taken, including V6m's smoke pair.
The Dereth clock does not only move the sky. It moves the SUN, so it moves the
directional term of every lit surface in the scene.
MEASURED, rather than argued. A probe route captured each stop TWICE, 45 seconds
apart, in the same run on the same backend:
GL, Holtburg, capture 1 vs capture 2: 205,772 px 22.33%
Vulkan, Holtburg, capture 1 vs capture 2: 218,732 px 23.73%
GL, Facility Hub, capture 1 vs capture 2: 108,795 px 11.81%
Vulkan, Facility Hub, capture 1 vs capture 2: 130,206 px 14.13%
One backend, one stop, nothing moving, and a fifth of the frame changes while
you watch. No cross-backend number means anything against that noise floor, and
the cross-backend numbers taken during that probe run were duly absurd -- 56% at
Holtburg, where the two launches happened to be at different times of Dereth day.
THE FIX IS A PIN THAT OUTRANKS THE SERVER CLOCK AND SURVIVES SYNC.
WorldTimeService.PinnedDayFraction is a nullable day fraction that wins over both
Calendar.DayFraction(NowTicks) and SetDebugTime, and that SyncFromServer does not
touch. ACDREAM_WORLD_TIME -> RuntimeOptions.PinnedWorldDayFraction ->
WorldEnvironmentController, which writes it once: the Runtime environment owner
and its clock are session-scoped, so one write outlives every teleport and every
reveal generation. Values outside [0, 1) are REJECTED rather than clamped -- a
day fraction of 12.5 is a typo, and silently pinning the world at it would be
worse than ignoring it.
Unset is the default and every ordinary run. The calendar DATE still advances,
which is intentional: the date drives day-group selection, and ACDREAM_DAY_GROUP
already pins that. The differential gate forces the pin at 0.5 -- noon, which is
what the three presses were aiming at -- on both launches, and the route's
presses are deleted rather than left in as decoration.
This is instrument determinism on the footing of ACDREAM_DAY_GROUP and V7's
ACDREAM_SKY_PHASE_SECONDS, not a workaround: it is off by default, nothing in the
shipping client reads it, and the alternative was to keep measuring two backends
through a fifth of a frame of sunlight.
WHAT IT MOVED. The same three-stop route, same commit otherwise, before and after:
holtburg_town 9.05% -> 2.86% (83,438 -> 26,330 px)
facility_hub_interior 12.16% -> 0.78% (112,075 -> 7,176 px)
aerlinthe_island 23.09% -> 6.82% (212,824 -> 62,892 px)
The interior stop is the headline. V6m recorded it as a route defect on the
theory that the indoor spring-arm camera settles to different distances in two
runs; that theory is now refuted. The camera was fine. The interior was lit
differently because the sun had moved, and with the sun held still the stop drops
by a factor of 15 to 0.78% -- close enough to the 0.001 threshold that its
remaining population is worth naming rather than guessing at. No route change was
needed and none was made.
WHAT REMAINS, per the difference maps, all of it now attributable by eye:
the animated portal beside the Holtburg stop; distant scenery foliage; wandering
NPCs and a chimney smoke plume, which are animation and emitter phase; the vitals
readouts, whose stamina and mana genuinely regenerate at different rates across
two logins minutes apart; and, at Aerlinthe, a dense low-magnitude speckle in a
scene whose mean luminance is 28/255 -- half of its differing pixels are exactly
delta 3, one step over a tolerance that is absolute rather than relative.
Gates. Release build green. App tests 4,134 passed / 3 skipped (one new: the
day-fraction range check); AcDream.Core.Tests WorldTimeDebugTests 6/6, including
the two new ones that assert the pin survives a sync and outranks the transient
override. GL offline pixel gate against the pre-slice tree: 2.66e-05, 15 pixels
of 563,200, inside the documented 9-31 band -- GL did not move.
Co-Authored-By: Claude Fable 5 <noreply@anthropic.com>
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Erik
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ad5f8b68dc |
fix(render): Campaign V slice V7 commit 1 - world anisotropy, and the sky's second clock
Two changes, one measurement. The V6m smoke pair put GL versus Vulkan at Holtburg at 18.52% of the frame differing at tolerance 2 with MSAA off. The same stop on the same instrument now measures 9.05%, and the two populations these address are gone from the difference map rather than merely smaller. 1. THE WORLD ATLASES WERE SAMPLED WITHOUT ANISOTROPY ON VULKAN, AND WITH THE DEVICE MAXIMUM ON GL. RhiWorldTextureArray -- the backend-neutral shared object/material atlas, and the only IWorldTextureArray the Vulkan arm ever constructs -- registered its clamp and repeat slots with GpuSamplerDescription.WorldClamp/WorldRepeat as written, which carry MaxAnisotropy 1. The GL arm asks for the driver's own GL_MAX_TEXTURE_MAX_ANISOTROPY twice over: ManagedGLTextureArray sets GL_TEXTURE_MAX_ANISOTROPY on the image, and the two sampler objects its resident bindless handles are built from (OpenGLGraphicsDevice.WrapSampler/ClampSampler) set it again, which is the one that actually wins. V6i-2 knew it was asking for 1 and said so in a comment -- "the world arm that draws through these arrays is the next slice, and it is the one that can gate a filtering change visually." That slice was V6j, the gate is V7, and this is it. Retail settles the question rather than the GL arm settling it. RenderDeviceD3D::SetDefaultD3DStates (0x005a3800) loops all sixteen sampler stages and issues SetSamplerState(stage, 0xA, this->m_D3DCaps.MaxAnisotropy) at 0x005a4230. 0xA is D3DSAMP_MAXANISOTROPY and the argument is the device's reported cap, not a setting -- so "as much anisotropy as this device has" is retail's own rule, the GL arm is faithful to it, and asking for 1 diverged from retail as well as from the shipping backend. No divergence-register row is owed in either direction: this retires a Vulkan-only gap and lands on retail's value. The fix asks for a ceiling rather than reading a limit back, because the pinned RHI contract (plan section 3.3) carries no anisotropy field and is frozen. It does not need one: VulkanGpuSampler already clamps MaxAnisotropy to VkPhysicalDeviceLimits.maxSamplerAnisotropy, Vulkan guarantees that limit is at least 16 wherever the samplerAnisotropy feature is supported -- which this backend requires -- and 16 is where every desktop driver caps. The request and the GL arm's read therefore land on the same number. What it was worth, from the difference map at the same stop: the roof shingles of both Holtburg cottages, which had been dense hatching across the whole surface, and the stone courses of the near building are now black. Measured as high-frequency energy (mean absolute neighbour difference, GL versus Vulkan) the right-hand roof went from visibly blurred to a ratio of 0.999 and the wall to 1.023; every other textured region in the frame is between 0.99 and 1.02. Grazing-angle surfaces are where anisotropy is the whole difference, which is why a roof was the loudest thing in the frame. 2. THE SKY HAS TWO CLOCKS AND ONLY ONE OF THEM WAS PINNABLE. ACDREAM_DAY_GROUP and the route's AcdreamCycleTimeOfDay presses pin the Dereth date, which chooses the day group, the keyframe and the sun angle. The cloud sheet does not read that clock: SkyRenderer accumulates TexVelocityX/Y against DateTime.UtcNow minus its own construction time, by design, because retail's clouds drift with real time regardless of the date. Two launches minutes apart therefore cannot agree about where the clouds are no matter what the route does, and the V6m smoke measured the cost -- 89% of its 18.52% sat in the top 240 rows. ACDREAM_SKY_PHASE_SECONDS (RuntimeOptions.SkyAnimationPhaseSeconds -> SkyRenderer.AnimationPhaseSecondsOverride) replaces that elapsed-seconds value with a fixed one. Unset -- the default, and every ordinary run -- keeps the wall clock, so nothing a user or the offline gate sees changes. The differential gate forces it on both launches alongside MSAA and the day group; the offline gate keeps its top-280 mask, because a same-commit GL pair still has the sun to disagree about. This is instrument determinism on the same footing as ACDREAM_DAY_GROUP, not a workaround: it is one input to a UV offset, it is off by default, and no shipping path reads it. The alternative on the table was -MaskTopPixels, which would have permanently blinded the campaign's strictest instrument to the entire sky -- one of the five surfaces the offline gate already cannot see. Rows 0-32 of the Holtburg pair went from 23,090 differing pixels to 1,211, and what remains up there is roof and portal rather than cloud. WHAT THE SAME PAIR STILL SHOWS, unattributed and carried to the next commit: the distant treeline, the player and the NPCs, and the animated portal. The portal is phase and expected. The treeline is not filtering -- sharpness now matches within 5% and a shift search finds no sub-pixel offset -- and the two runs entered the world at different last-logout positions (0xC95B0001 versus 0x09040008), so the far-tier streaming history differed. That is the next thing to prove or refute. Gates. Release build green. App tests 4,133 passed / 3 skipped against the 4,132/3 baseline (one new: the sky-phase parse). GL offline pixel gate against the pre-change tree: 2.31e-05, 13 pixels of 563,200, inside the documented 9-31 band -- GL did not move. One offline Vulkan run with VK_LAYER_KHRONOS_validation proven inserted by the loader: zero validation errors, zero warnings. Full three-stop differential recorded at artifacts/v7-diff-c1. Co-Authored-By: Claude Fable 5 <noreply@anthropic.com> |
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Erik
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59c6b2ae94 |
feat(render): Campaign V slice V6m commit 1 - portal space draws on Vulkan
PortalTunnelPresentation was the last raw-GL world-adjacent renderer. It now
draws on both arms, and the composition that used to hand the Vulkan arm a
portal-less teleport presentation is gone with it.
Nothing about the scene changed. Same synthetic DAT Setup resolved through the
same client-enum mapping, same 40 fps CSequence, same retail rotation cadence,
same distant light, drawn through the same already-dual-arm WbDrawDispatcher.
What forked is only where the draw is recorded:
* GL keeps its GLStateScope, its viewport/scissor/depth/cull/blend statements
and its depth-only glClear, untouched.
* The RHI arm opens a backbuffer pass of its own and publishes it on
IWorldPassScope for the span of the draw - the shape V6l gave the two
offscreen viewports, and required for the same reason: the dispatcher's RHI
arm borrows its pass rather than opening one. Publication comes after
BeginPass and before UploadRetailLight, because publishing resets the
frame-global sections and this scene wants its own light, not the world's.
The one substantive decision is the pass's COLOUR load op, and it is a Clear
rather than a Load. Retail preserves the colour target and only clears depth
(UIViewportObject::DrawContent @ 0x006950A5 -> Clear(4) = D3DCLEAR_ZBUFFER), and
so does the GL arm. A Vulkan pass cannot inherit an image the way a bound
framebuffer can: under MSAA the frame's world pass RESOLVES into the swapchain
image and stores DontCare into the multisampled scratch, so a second
multisampled pass declaring Load would load undefined contents - plan section
5.5.12 item 5, the same hazard that merged the clear into the world pass.
Re-clearing is exact rather than approximate because of an invariant the frame
graph already enforces. RenderFrameFoundation.PortalViewportVisible and this
scene's IsVisible are the same value, read once at the top of the frame, and
WorldSceneRenderer returns without drawing when it is set. So whenever portal
space draws, the backbuffer holds exactly the opaque black
SceneTool::BeginScene @ 0x0043DAD0 establishes and nothing else, and clearing to
that same black changes no pixel. The alternative - a single-sampled Load pass
over the resolved image - would have been both a silent MSAA divergence and
invalid, since the backbuffer's depth attachment is multisampled.
The pass takes IWorldPassScope.SampleCount, so WbDrawDispatcher's sample-count
pipeline variants (V6l) select the backbuffer set, and depth matches the
attachment.
CreateRequired becomes internal: its two new seams are internal RHI contracts
and composition is its only caller. The TYPE keeps its visibility - plan section
7.1 rule 3.
Gates. Release build green. App tests 4,132 / 3 skips against the 4,129
baseline (three new: the retail black constant, the RHI arm's composition
precondition, and the both-arms composition assertion). Complete Release suite
9,195 / 5; one AcDream.Content failure in the solution-wide run that passes
124/124 rerun alone - the documented rerun-singly flake class, not carried
forward as a claim. Strict GL offline pixel gate against
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Erik
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2e8b8b91ad |
feat(render): Campaign V slice V6l commit 3 - the offscreen viewports draw on Vulkan
Amendment 3 of three: the paperdoll and creature-appraisal views render on the
Vulkan arm. Plan section 5.5.16 defect 3 named two backend fixes as the
precondition; both are here, and running it found two more the note could not
have known about.
Fix 1: a layered sampled view per render target. An ATTACHMENT view must be
VK_IMAGE_VIEW_TYPE_2D and the global texture table's descriptor array is
sampler2DArray, so the attachment view cannot legally be registered into it -
section 5.5.7 recorded that as invalid usage rather than a mismatch that samples
oddly, and V6k made RegisterTexture refuse it loudly and name this fix.
VulkanGpuTexture now creates a SECOND, layered view over the same image for a
colour render target: one image, one allocation, two ways of looking at it,
legal without any creation flag. SampledView is what the table registers for
every texture, so the question disappears rather than being answered.
Fix 2: sample-count pipeline variants for WbDrawDispatcher. Vulkan requires a
pipeline's rasterizationSamples to equal the pass it draws in, and this
dispatcher draws in two passes with different counts - the multisampled
backbuffer world pass and the single-sampled offscreen target, which the
contract fixes at one sample. Its five pipelines became a MeshPipelineSet with
two instances, selected at bind time from the live pass rather than from the
scope, which is the same shape section 5.5.8 gave the depth-format problem. When
the backbuffer is single-sampled the two sets are one object, so nothing is
built twice and nothing is freed twice. The offscreen target's DEPTH attachment
also had to take the device's own combined depth/stencil format rather than the
contract enum's literal D24_UNORM_S8_UINT: a pipeline bakes one depth/stencil
format under dynamic rendering and the same pipelines draw in both passes, so a
second format would make one of the two undefined.
Fix 3, which running it found: entity APPEARANCE composites were still
bindless-only, so no entity with a palette override could be drawn on the Vulkan
arm at all - the doll being one, and every creature and player besides. The
backend that serves it has existed since V6i-2 and had no production consumer;
it has one now. TextureCache builds the composite cache on both arms, and
EnsureCompositeTexturesAvailable stops asking about bindless. Nothing about the
cache itself changed: the sharing, the bounded unowned LRU, the metered upload
budget and the retirement fence were already backend-neutral.
Fix 4, which the first successful capture found: the doll rendered upside down.
UiViewport has flipped V since V4a because a GL framebuffer's origin is
bottom-left, so its colour texture samples bottom-up. A Vulkan image's origin is
top-left and the backend's negative viewport height stores the rendered image
that way round, so the same flip stands the doll on its head. That is a property
of the backend that made the texture, not of the widget that draws it, so
IUiViewportRenderer answers TextureIsBottomUp and UiViewport asks. The line this
replaces had predicted exactly this failure since it was written.
The seam. WbDrawDispatcher's RHI arm borrows its pass from IWorldPassScope
rather than opening one, so a viewport that opens a pass of its own has to
publish it there for the span of the draw. Publish is on the interface now for
that. It does not nest: the world phase has closed its own pass by the time
private presentation runs, which is where these viewports have always drawn.
Gates. Release build green. App tests 4,129/3 skips; complete Release suite
9,192/5 (one solution-wide run reported a single App failure that did not
reproduce in the App suite alone or in a second solution-wide run - the
documented rerun-singly flake class; the failing test name was not surfaced by
the runner and is not carried forward as a claim). Strict GL offline pixel gate
against
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Erik
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eced67d038 |
feat(render): Campaign V slice V6l commit 2 - the portal mask draws on Vulkan
Contract amendment 2 of three, and V4g's remaining half behind it. Plan section
5.5.16 defect 2: PortalDepthMaskRenderer's two-pass punch (#117) is built on
glStencilFunc/glStencilOp/glStencilMask, GpuPipelineDescription carried no
stencil state at all, and nothing else can express it - so the renderer stayed
raw GL, invisible to the Vulkan arm, and V4g's "stencil/depth-mask pipelines"
row could not be written.
The amendment splits the way core Vulkan 1.3 splits. The ENABLE and the
attachment intent are baked: GpuPipelineDescription.StencilTest, false by
default so no pipeline in the tree changed. The per-draw compare, three outcome
ops, reference and both masks are a GpuStencilState that the pipeline carries as
a DEFAULT and IGpuPassEncoder.SetStencil overrides - exactly the split cull
mode, front face and depth write already have, and exactly what
VK_DYNAMIC_STATE_STENCIL_OP/_COMPARE_MASK/_WRITE_MASK/_REFERENCE make dynamic.
The four stencil dynamic states are declared ONLY by a pipeline that tests
stencil: declaring a dynamic state obliges every draw with the pipeline to have
set it, so adding them unconditionally would make every existing pipeline depend
on a call none of them make. GpuStencilOp carries three values because the punch
uses three - Replace marks, Equal gates, Zero self-cleans - and a fourth would
be a facility with no consumer.
The arm. Three pipelines, not one, because depth COMPARE is not dynamic in the
contract and the punch's two passes differ in it: mark tests LEQUAL and writes
no depth, punch tests ALWAYS and writes, seal is ALWAYS + write with no stencil.
All three write no colour, which is what retail's "COLOR-INVISIBLE triangle fan"
means. The fan is expanded to a triangle LIST on the CPU - the contract has no
fan topology and Vulkan's is not portable - which is exact: triangle i is
(v0, v[i+1], v[i+2]), the same triangles in the same order.
portal_depth.{vert,frag} is a new committed shader pair, and this is the ONE
renderer in the campaign whose two arms do not share a source. Its clip planes
have to travel in the TerrainClip uniform block at binding 2, which is already
precisely this shape and already read by terrain_modern.vert and sky.vert - but
on GL that binding is held globally by ClipFrame for terrain, so a portal draw
that rebound it would leave every later terrain draw in the frame reading the
wrong region. The GL arm therefore keeps its inline program.
PortalDepthShaderParityTests is the tripwire: retail's far-Z constant
(0.99999988, from DrawPortalPolyInternal 0x0059bc90), #129's capped mark-bias
expression and the eight-half-plane loop are asserted to appear in both. Both
are deleted at V11. 9/10 shader pairs now compile to SPIR-V.
Two GL-side gaps closed while the state was being extended, both of section 7.1
rule 1's class rather than new work. GlAmbientCapabilityState now saves and
restores the stencil test, function, ops and both masks - the portal punch draws
mid-frame among renderers that are still raw GL and assume the test is off - and
the COLOUR MASK, which had no consumer until a colour-invisible pipeline existed
and whose absence would have blacked out every raw-GL renderer after such a
pass.
PortalTunnelPresentation was re-read and confirmed as V6k left it: it clears
depth and draws into the active viewport, binds no framebuffer of its own, and
needs no port for section 5.4's sake. It remains unported on the Vulkan arm -
the composition uses NullLocalPlayerTeleportPresentation there - which is an
absence on the V7 list, not a defect.
Gates. Release build green. App tests 4,129/3 skips; complete Release suite
9,192/5 (one solution-wide run reported a single App failure that did not
reproduce in two subsequent runs, solution-wide or alone - the documented
rerun-singly flake class). Strict GL offline pixel gate against
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Erik
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b1ad1d481b |
feat(render): Campaign V slice V6l commit 1 - particles draw on Vulkan
Contract amendment 1 of three, and V4e's content behind it. Plan section 5.5.16
recorded that both particle pipelines draw with per-instance VERTEX attributes
and that the pinned contract could express instanced DRAWING but not instanced
vertex INPUT: one stride, no divisor, one buffer at VertexInputRate.VERTEX. That
is what stopped V4e. This takes the reviewed option (i) - a second vertex
binding with a per-instance rate.
The amendment. GpuVertexLayout grows a per-binding notion (binding index,
stride, input rate) and GpuVertexAttribute names the binding it is fed from,
defaulting to 0; IGpuPassEncoder.BindVertexBuffer takes a binding index. Every
layout written before this slice keeps its exact meaning through
GpuVertexLayout.Interleaved, which is one vertex-rate binding 0 - and
GpuContractTests asserts that as a requirement rather than trusting it. Both
backends carry the rate natively and at no cost: VK_VERTEX_INPUT_RATE_INSTANCE
on the pipeline, glVertexAttribDivisor recorded once into the pipeline's VAO
where it survives every later attribute rebind.
GpuVertexFormat.UInt1 comes with it, and is necessary to it: particle.vert
declares `layout(location = 6) in uint aTextureIndex` and the amendment's whole
premise is that no shader is edited. Same kind-distinction UByte4UInt was added
for at V4d - GL needs glVertexAttribIPointer, Vulkan needs R32_UINT, and the
float path would reinterpret the value's bits rather than approximate them.
Options (ii) and (iii) were rejected on the record: all ten storage bindings are
spoken for and reusing binding 0 would have the GL particle draw clobber
WbDrawDispatcher's instance array mid-frame (section 5.5.8's hazard in its GL
form); CPU-expanding instances is 5x billboard bandwidth and does not scale to
mesh particles at all.
The arm. ParticleRenderer.Rhi.cs is a SECOND arm per section 5.5.6, not a
replacement - every GL statement in the sibling file is the one it always
issued. Five pipelines replace the imperative glBlendFunc switch (two billboard
blends, three mesh blends) because core Vulkan 1.3 does not make blend dynamic.
The per-flight VAO/VBO pool disappears because every ring allocation inside a
frame is already distinct memory that lives until the frame retires. The
binding-9 table is not bound at all - the device owns the table and the encoder
binds set 2. The pass is BORROWED from IWorldPassScope. Depth tests but does not
write, compare is Less and alpha-to-coverage is off, which is the ambient GL
state particles have always drawn under rather than a choice. Everything above
the submission seam - emitter iteration, retail distance ordering, the
deferred-alpha handoff, billboard axis construction, blend resolution - is the
same CPU code on both arms.
The first Vulkan particle frame threw rather than drew, which is the second
defect of the compiles-clean class this slice found by running:
TextureCache.AcquireParticleTexture is bindless-only, so the standalone particle
texture cache did not exist on a backend without GL. It exists on both arms now.
Everything about it that matters - sharing equivalent surfaces between emitter
owners, the bounded unowned LRU, retirement behind the frame-flight fence - is
already backend-neutral; only how one entry is created and destroyed differs,
which is what IStandaloneBindlessTextureBackend is for. The RHI arm creates the
image through IGpuDevice.CreateTexture with a real sampler and releases the
table slot before the image, which is the GL arm's order and for the same
reason. The composite cache stays GL-only: it serves entity appearance, not
particles.
The durability fix V6k earned. That slice found the sky declaring a 32-byte
stride against a 36-byte AcDream.Core.Terrain.Vertex - the record carries a
TerrainLayer no sky attribute names - and noted that every .Rhi.cs arm restates
a CPU record's footprint from memory while only sky had a test.
RhiVertexLayoutStrideTests is that test for the rest: world mesh, terrain, sky,
retained-UI sprite, debug line, and both particle bindings, each asserted
against the record or the producer's own float count, plus two sweeps over all
seven for attributes that reach past their stride or name an undeclared binding.
Four private layouts became internal to be assertable; nothing else about them
moved.
Gates. Release build green. App tests 4,121/3 skips (4,109 baseline plus three
contract tests and nine layout tests); complete Release suite 9,184/5. Strict GL
offline pixel gate against
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Erik
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eb7e6b4e5c |
feat(render): Campaign V slice V6k commit 2 - the viewports name their own target, and section 5.4 is discharged
V4g's first half, and the V7 blocker section 5.4 named. What moved. PrivateEntityViewportRenderer - the paperdoll and creature-appraisal viewports - stops hand-rolling an FBO, a colour texture and a depth renderbuffer and asks the device for an IGpuRenderTarget. The pass it opens DECLARES that target rather than binding one behind the RHI's back, and the colour attachment is registered into the global texture table through RegisterTexture like any other texture. Render() returns the UiTextureTableHandle the retained UI already speaks instead of a raw GL name. That deletes the V4a pre-approved transitional seam. GlGpuDevice's RegisterExternalColorTexture / TryResolveExternalColorTexture existed so the UI could blit a texture whose owner the RHI knew nothing about; plan section 7.1's final paragraph gave them exactly this slice as their end, and both are gone along with the GlGpuDevice casts in RetailPaperdollFrameView and RetailCreatureAppraisalFrameView. Those two views are now backend-neutral: they decode a handle instead of registering one. Section 5.4, stated precisely, because the answer is not what the section predicts. The divergence it describes - GL's BeginPass refusing to bind framebuffer 0 for a null target - is NOT on the tree and has not been since the V4c revert at |
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Erik
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22aa2edc65 |
feat(render): Campaign V slice V6k commit 1 - the sky draws on Vulkan
V4f's content, landed as a SECOND arm per section 5.5.6: GL keeps its raw world
path through to V10 and the RHI world path ships on Vulkan. Every GL statement in
SkyRenderer is the one it always issued; the encoder arm lives in SkyRenderer.Rhi.cs
and runs only when there is no GL context.
What it produces. ACDREAM_RENDER_BACKEND=vulkan renders the sky: the dome
quadrants, the horizon band, the cloud sheet and the fog gradient, in the same
place and the same colours as the GL capture of the same scene (within a few
units on the channels sampled, which is the day-fraction drift between two
launches). Section 5.5.15's first V7 defect - "the sky is flat fog" - is closed.
Three things differ from the GL arm, each because Vulkan bakes what GL sets. The
per-submesh blend function becomes two PIPELINES, additive for sun/moon/stars and
straight alpha for everything else, because core Vulkan 1.3 does not make blend
dynamic. The SkyParams block becomes a ring slice taken per draw rather than one
buffer rewritten per draw, because a descriptor's contents are read at execution
time, not record time. And the pass is borrowed from IWorldPassScope, because the
frame's one backbuffer pass resolves and a second pass could not load what it
left.
The sky is the first Vulkan consumer of set 1 binding 4. Section 5.5.8 recorded
that UniformSkyParams was missing from the uniform set layout and V6i-2 added it;
until now nothing had ever bound it.
The stride bug, which is the fourth of its class this campaign. The first Vulkan
sky frame drew the dome as a field of blue-white noise. The RHI vertex layout
declared a 32-byte stride - position, normal, texcoord, exactly what sky.vert
reads - while AcDream.Core.Terrain.Vertex is 36 bytes: it carries a fourth
member, TerrainLayer, that no sky attribute names and that the GL arm never
described to a glVertexAttribPointer but did count, because it says
sizeof(Vertex). Nothing else in the frame looked wrong, no validation rule was
violated, and the offline pixel gate masks the sky band, so only a side-by-side
capture found it. SkyVertexLayoutTests now asserts the REQUIREMENT - the stride
is the uploaded record's footprint - rather than today's number.
The last interim handle table is gone. V4t retired the private
GlBindlessHandleTable in WbDrawDispatcher, EnvCellRenderer, TerrainModernRenderer
and ParticleRenderer and deliberately left the sky's, because the sky is the one
world path that mints its own resident handles from TextureCache's raw GL texture
names rather than interning someone else's. It now registers those handles
through V4t's RegisterWorldTextureHandle seam instead, which is the same
mechanical change the other four took, and the class and its tests are deleted
because nothing else ever used them.
TextureCache gains RegisterWorldSurface(surfaceId, repeat), the sky's RHI texture
source: the same DecodeFromDats the GL path uses, created through
IGpuDevice.CreateTexture and paired with a real sampler object rather than baked
into a bindless handle. Keyed by (surface, wrap) for the same reason the GL arm
keys its handles that way - a table entry is a combined image sampler, so the
dome sampled CLAMP_TO_EDGE and a scrolling cloud sheet sampled REPEAT are two
entries over one decoded texture.
Gates. Release build green. App tests 4,109 passed / 3 skipped - the 4,112
baseline less the six GlBindlessHandleTable tests that went with the class, plus
three vertex-layout tests. Strict GL offline pixel gate against
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Erik
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f84eef3256 |
feat(render): Campaign V slice V6j commit 2 - Dereth draws on Vulkan
The three world renderers' submission arms, both pass executors, and the
composition that reaches them. This is the unit three predecessors stopped at.
What it produces. ACDREAM_RENDER_BACKEND=vulkan on the offline scene renders
terrain with blended textures and road overlays, the water edge, static world
meshes, procedural scenery, and the complete retained UI - the same frame the GL
pixel gate captures, from the same camera, minus the sky. artifacts/v6j-vk2.
The shape, and why it is not V4c's. Section 5.5.6 chose option (B) after NVIDIA
rendered the V4c binary 10/10 where AMD's GL stack did not: GL keeps its raw
world path through to V10 as a documented fork confined to the submission seam,
and the RHI world path ships on Vulkan. So V4c's and V4d-2's content returns as a
SECOND arm rather than a replacement. The GL arm issues the same GL statements in
the same order against the same objects; the encoder arm lives in three .Rhi.cs
partials and is entered by one branch per submission site.
Three differences from V4c, each because the tree moved under it. There is no
binding-9 texture table - V4t put the slot on the device and Vulkan binds set 2,
so the arm that used to intern bindless handles simply has nothing to do. The
pipelines carry the device's sample count rather than 1, because Vulkan requires
rasterizationSamples to match the pass and alpha-to-coverage is a no-op at one
sample. And no renderer opens a pass.
That last one is structural, not tidiness. Under MSAA the frame's one backbuffer
pass resolves into the swapchain image and stores DONT_CARE into the multisampled
scratch, so a second pass declaring Load would load undefined contents; the
backend also permits one open pass per frame. VulkanWorldScenePhase therefore
opens the pass, publishes the encoder on VulkanWorldPassScope for exactly the
span of the inner WorldSceneRenderer, and every renderer borrows it.
Three sections are frame-global on GL and cannot be on Vulkan: the SceneLighting
UBO, the per-cell clip regions, and the terrain clip block. GL binds each to a
global binding point and every consumer inherits it. Vulkan binds a descriptor
set per draw, and a renderer's own binds are what select the scope those sections
must land in - so their writers PUBLISH into WorldFrameSections and each renderer
binds them inside the pass, after its own binds. SceneLightingUboBinding's
per-flight-slot buffer pool disappears with it: a ring allocation is already
distinct memory that lives until the frame retires, which is the property the
pool existed to provide.
Both pass executors became backend-neutral rather than gaining twins. Everything
they do is delegation to a renderer except four concerns - the clip-frame
publication, the doorway scissor, gl_ClipDistance enablement, and retail's
interior depth clear - so those four move behind IWorldPassSurface and retail's
ordering, which is what these classes are actually for, is written once. The GL
implementation issues the statements the executors used to issue inline.
Clip distances are no-ops on the Vulkan arm, and that is safe rather than a
divergence: Vulkan activates every element the shader declares, and all three
world vertex shaders already write 1.0 into every slot past the active count.
The interior depth clear becomes vkCmdClearAttachments, reached through the scope
so the pinned contract stays frozen and the backend-only verb stays in the
backend. The hook for it was already committed at V6i-3 with a cref to a type
that did not exist yet; it exists now.
The collision-wireframe DebugLineRenderer is composed as null on the Vulkan arm.
DrawAndPublish flushes it INSIDE the world phase and it opens its own pass, which
the one-pass rule forbids. The toggle is DevTools-only and DevTools is not
composed there, so nothing is lost - composing it would throw on the first
wireframe frame rather than silently misdraw.
Two seams widened rather than invented. GameWindowGraphics answers whether the
backend has a world-pass seam, because the three composition phases that need it
already borrow that handle and "does this backend work that way" is what the type
exists to answer. And MeshSourceReady replaces the anyVao != 0 gate with the same
question in backend-neutral form - V6i-3 published HasStores for exactly this -
so the predicate evaluates identically on GL.
What is NOT here, and is expected. Sky and weather are still raw GL (V4f), so the
Vulkan frame's sky is the atmosphere fog clear. Particles (V4e), the paperdoll and
appraisal viewports and the portal depth mask (V4g) likewise. The executors
already accepted all of them as absent.
Gates. Release build green. App tests 4,112 passed / 3 skipped, the unchanged
baseline; complete Release suite 9,175 / 5. Strict GL offline pixel gate against
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Erik
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81fe5e1b63 |
fix(render): Campaign V slice V6j commit 1 - the Vulkan winding needs no inversion
VulkanViewportMapping has inverted the front face since V6c, on the standard argument that rendering with a negative viewport height mirrors framebuffer space and therefore reverses triangle orientation. The world arm is the first consumer that culls anything, and it falsified the inversion twice over on one frame. Nothing exercised it before now. Every Vulkan consumer through V6i - TextRenderer, DebugLineRenderer and the bring-up scene - declares Cull = GpuCullMode.None, so the mapping had never decided a single fragment. That is why a wrong answer survived four slices and a validation-clean run: an unexercised path. What the world arm measured, on the same offline scene the GL pixel gate captures. Terrain is the one single-sided surface acdream draws - FrontFace(Ccw) plus Cull(Back), matching ACRender::landPolysDraw's per-triangle eye-side predicate - and under the inversion it vanished completely, 190 multi-draw commands issuing against 625 loaded landblocks with nothing on screen. Every closed building shell rendered inside-out in the same frame: the front wall culled and the interior beams visible through the gap, which is what a back-face-front cull looks like on geometry that is only nearly convex. Declaring the GL winding verbatim restores both at once - terrain draws single-sided from above, and the shells close. Two independent surfaces, one change, and the correction is the identity mapping. Recorded here rather than worked around in the renderers, because a renderer that compensates for its backend is exactly the shape this file exists to prevent: the contract says renderers speak GL and the backend translates, and the backend was translating wrongly. The viewport flip itself is untouched and still correct - it is what puts GL-authored geometry the right way up with no shader or matrix change. What goes is the claim that a winding inversion has to travel with it. The scissor's explicit flip is a separate correction with a separate justification and is likewise untouched. The test suite says so now rather than describing the old behaviour: the pass-through is asserted directly, and the exact-inverses test becomes a travels-alone test, so a later change that reintroduces the inversion fails here first and on any single-sided surface second. Gates. Release build green. App tests 4,112 passed / 3 skipped, the unchanged baseline. GL offline pixel gate unaffected by construction - this file has no GL arm - and measured with the world arm in commit 2. No divergence-register row: this corrects a backend translation error rather than introducing a deviation from retail. Co-Authored-By: Claude Fable 5 <noreply@anthropic.com> |
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Erik
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887de4aec2 |
feat(render): Campaign V slice V6i-3 commit 2 — the Vulkan frame gets a world pass, and descriptors bind at draw time
Two structural prerequisites for the world renderers' submission arms. Both are in Gpu/Vk only; the GL backend executes not one changed statement, and the frame this commit produces is bit-identical to the one before it. 1. The clear merges into the world pass (plan §5.5.12 item 5). V6h gave the clear phase a backbuffer pass of its own: clear, resolve, close. Under MSAA that is a trap for whatever comes next. A multisampled backbuffer pass renders into a scratch image and RESOLVES it into the acquired swapchain image, and the scratch's store op is DONT_CARE — so a world pass that followed and declared Load would load undefined contents and lose the clear entirely. The world renderers cannot work around it by each opening their own pass, for the same reason: every pass after the first would load a discarded scratch. So the clear phase now computes the same RenderFrameFoundation from the same world clock and weather owners and publishes only the COLOUR, through VulkanBackbufferClearState; VulkanWorldScenePhase opens the one backbuffer pass and clears as its load op, with Store=Resolve when the backbuffer is multisampled. That makes it the frame's one clear and its one resolve. The retained UI's pass is single-sampled and targets the swapchain image directly, so it composites over the resolved result exactly as it did. The clear stays unconditional because the frame graph makes it so rather than because anything asserts it: RenderFrameOrchestrator runs resource preparation, then the world phase, then private presentation, with no branch between. A frame with no world still opens the pass and leaves a cleared backbuffer — which is precisely the frame captured below, since nothing draws into the pass yet. 2. Descriptor sets bind at DRAW time, not at bind time. V6i-1 derives a descriptor-set scope from the descriptor state itself, which is what closes §5.5.8's one-binding-two-buffers hazard. But the encoder issued vkCmdBindDescriptorSets from inside BindStorageBuffer/BindUniformBuffer, so the arena resolved after EVERY bind. For the retained UI's one or two binds that is free. For a world renderer binding ten buffers it materialises up to ten scopes per draw — nine of them PARTIAL states no draw ever uses, each claiming a real descriptor-set pair out of a fixed-size pool and each paying a full round of vkUpdateDescriptorSets. Recording the state and resolving it once, where the draw needs it, yields exactly one scope per renderer, which is what the arena was designed to produce. It is legal because descriptor-set binding is independent of pipeline binding when the layouts are compatible, and acdream has ONE pipeline layout by design (§4.4) — the same property that lets a bucketed pass change pipeline for free. The pass still opens with all three sets bound, which is V6h's fix for VUID-vkCmdDraw-None-08600 and stays exactly as it was. Gates. Release build green. App tests 4,112 passed / 3 skipped, unchanged from commit 1. Strict GL offline pixel gate against commit 1: 3.73e-05 (21 differing pixels of 563,200), inside the documented 9-31 px control band — expected, since no GL file is touched. One offline Vulkan run with VK_LAYER_KHRONOS_validation proven inserted by the loader: zero validation errors, zero warnings, and no [shutdown] diagnostic on either stream. The captured Vulkan frame is compared against commit 1's rather than merely eyeballed: 0 differing pixels of 921,600, maximum channel delta 0 — bit-identical across the merge, which is the strongest available evidence that moving the clear into the world pass changed nothing about what is drawn. What this does NOT do: draw a world. See the report for the enumerated remainder. No divergence-register row: no retail-facing behaviour changes. Co-Authored-By: Claude Fable 5 <noreply@anthropic.com> |
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Erik
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fe8abacfc6 |
feat(render): Campaign V slice V6i-3 commit 1 — the mesh pipeline's upload bodies cross the seam
V6i-2 cut IMeshPipelineDevice at the measured surface and proved the mesh
pipeline could be CONSTRUCTED without naming a backend. It said plainly what it
did not claim: "the mesh pipeline does not RUN on Vulkan. Its upload bodies are
still raw GL — GlobalMeshBuffer, the VAO/IBO construction, the layer transfers."
This moves them, and gives the interface its second implementation.
GlobalMeshBuffer takes GL?. The two backing stores were already IGpuBuffer
(V4b); what still needed a context was the vertex array and the attribute
pointers, which have no RHI verb because Vulkan bakes vertex input into the
pipeline. So a backend with none builds the stores and nothing else, publishes
0 for VAO/VBO/IBO, and publishes VertexStore/IndexStore — the same buffers,
named the way a pass encoder binds them. HasStores is the backend-neutral form
of the VAO != 0 readiness test the raw-GL draw paths make. Two bodies fork on
the context and nothing else does: InitBuffers skips the vertex array, and
CommitMigration skips the rebind — on the encoder arm the field swap IS the
atomic publication, because the next pass reads whatever the field then holds.
The store deletion likewise splits: GL keeps its immediate DeleteRetired,
because the arena's own flight gate has already proven no submitted frame can
reference the store, while the other arm has no second deferral to skip and
Dispose is its retirement-queued release.
ObjectMeshManager's RequireGl narrowed to the LEGACY per-mesh upload. Its three
call sites were one modern-path constructor argument and two bodies whose every
GL statement sits inside `if (!_useModernRendering)`. The constructor now hands
the arena the nullable context; the two bodies resolve one lazily inside the
legacy branch. That branch is unreachable in every shipping configuration —
missing bindless or draw-parameters throws at startup under the N.5 ship
amendment — so the accessor survives as the guard on dead code rather than as a
blocker, and it is deleted with that code.
VulkanMeshPipelineDevice is the second implementation, and it is four
properties and two no-ops. Two things about it are worth stating rather than
leaving to be inferred. HasBindless and HasOpenGL43 answer TRUE: their names are
GL-shaped because the seam was cut from a GL device, but what they gate is the
MODERN path — one shared arena, table texture indexing, multi-draw indirect —
which Vulkan supplies unconditionally and the capability gate rejects a device
for lacking, so answering false would disable the only path that exists.
HasPendingWork answers false because the GL device's queue exists to defer work
onto the thread holding the context, and Vulkan resource work is recorded into
the frame's command buffer or routed through the retirement queue.
WbMeshAdapter selects between them once, in the one place the mesh pipeline
still names a backend. The GL arm is unchanged, including the queue-drain
guarantee its construction rollback asserts.
So composition builds the mesh pipeline on BOTH arms, and NullWbMeshAdapter is
deleted — it existed for exactly the gap this closes, and the landblock spawn
ledger now registers against the real adapter. Streaming's publication into GPU
state stops being a no-op there: the Vulkan run below builds real render data,
including the [up-null] zero-vertex caching path.
Gates. Release build green. App tests 4,112 passed / 3 skipped, against a 4,109
baseline plus the three added here. Strict GL offline pixel gate against
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Erik
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5b3d72a90c |
refactor(render): Campaign V slice V6i-2 commit 3 — the mesh pipeline stops naming a backend
Plan §5.5.10 recorded the blocker as a fact about types: "WbMeshAdapter owns an
OpenGLGraphicsDevice, so it is not constructible on Vulkan until slice V4t" —
which is the entire reason NullWbMeshAdapter exists. §5.5.12 item 6 then measured
how wide that dependency really is, and the answer is seven members out of a
760-line class: a GL context, the retirement queue, the shared instance VBO, and
two capability flags.
IMeshPipelineDevice is exactly that surface. OpenGLGraphicsDevice declares it and
every member already existed under a GL-specific name, so the shipping backend
executes not one changed statement — these are aliases, not behaviour.
Two casts moved, and they are what actually blocked construction:
- ObjectMeshManager downcast IGpuDevice to GlGpuDevice in its CONSTRUCTOR, so a
Vulkan-composed pipeline threw before running a statement. V4t put it there
because the class registered bindless handles itself; commit 2 moved that into
the array, leaving the field a pass-through for the raw-GL renderers' handle
table. The cast now lives on that one property and names the backend it was
composed against instead of reporting a failed cast.
- The atlas array factory is selected by IWorldTextureArrayFactory.For, which is
the one place the texture stack branches on a backend.
MeshPipelineDeviceSeamTests proves the decoupling rather than describing it: it
builds ObjectMeshManager against a device whose Gl is null, asserts it constructs,
asserts construction built no GL object, asserts the handle table refuses by name,
and asserts the factory picks the RHI arm. A reflection test pins the seam's
member set so a later slice cannot quietly widen it back out — the whole value
here is that it is narrow.
What this does NOT claim: the mesh pipeline does not RUN on Vulkan. Its upload
bodies are still raw GL — GlobalMeshBuffer, the VAO/IBO construction, the layer
transfers — and they now fail through one RequireGl() accessor that names the
slice that owns porting them, instead of failing at construction. WbMeshAdapter
still creates an OpenGLGraphicsDevice in its GL constructor, because there is no
second implementation to create yet. Those bodies are items 3–5 of §5.5.12's
remainder list, along with RetailPViewPassExecutor and the three world renderers'
submission arms.
§5.5.13 reports the whole of V6i-2 and the slice table gains its V6i row.
Gates: Release build; App tests 4,109 / 3 skips (the 4,086 baseline plus 23 across
the three commits); complete Release suite 9,172 / 5; strict GL offline pixel gate
vs
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Erik
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c8d0f70bbe |
feat(render): Campaign V slice V6i-2 commit 2 — world texture creation crosses to IGpuTexture
Plan §5.5.11 recorded what V4t deliberately left behind: it moved the table
ENTRY of every world texture to the device and kept CREATION with the caches,
because "creating world textures through IGpuTexture is real remaining work and
it belongs with the Vulkan world arm, which is the first thing that cannot use a
GL handle at all." §5.5.12 item 1 handed it forward and named the missing piece
exactly — "an ITextureArray implementation over IGpuTexture, not a codec",
because V6b's BlockCompressionCodec and BlockCompressionMipChain already supply
the BC chains. This is that work.
IWorldTextureArray is the seam, and the slot is what crosses it. Before this
commit ObjectMeshManager read BindlessWrapHandle/BindlessClampHandle off the
concrete GL array and interned them into the device table itself. A 64-bit
ARB_bindless_texture handle has no Vulkan spelling, so the array now answers the
question the caller was really asking — ResolveSlot(wrapping) — and each arm gets
there its own way: ManagedGLTextureArray makes the same idempotent interning call
one level down, and RhiWorldTextureArray returns a pair it registered at
construction. ReleaseTextureSlots replaces the snapshot dictionary the manager
kept for the same reason, and still runs only once physical retirement completes.
Which implementation exists is decided ONCE, by the IWorldTextureArrayFactory
composition builds — plan §3.1's no-runtime-fork rule. Everything above the seam
(capacity policy, slot allocation, ref counting, layer retirement, empty-atlas
eviction, and the whole of ObjectMeshManager's atlas policy) is written once and
branches on nothing.
Three things the RHI array does differently, each because the backends genuinely
differ rather than by choice: BC mip chains are CPU-built through
BlockCompressionMipChain, since Vulkan cannot blit into a compressed image, while
RGBA8 uses the device's blit; filtering lives in an immutable sampler rather than
a texture parameter, so both address modes are registered up front exactly as the
GL array holds two resident handles; and RGB8/A8/Rgba32f are refused at creation
with the reason named. A8 is the interesting refusal — the GL array serves it by
swizzling R into A, and a Vulkan swizzle lives in the image VIEW, which the pinned
GpuTextureDescription does not describe. A silent substitution would render wrong
and look like a shader bug.
TerrainAtlas gains the second construction path V6i drafted and reverted. The
decode is factored out and shared, so both arms read the same DATs, in the same
order, with the same resize-to-max policy; only the upload forks.
ICompositeTextureArrayBackend gains its RHI arm, which is four small methods
because that seam was already a seam.
The Vulkan arm is EXERCISED, not merely present. That is the whole reason the
V6i draft was reverted rather than landed — "built then reverted because nothing
exercised it" — and it is the same failure §5.5.12 measured twice in the
descriptor layouts. So the composition host now builds the real terrain atlas
through IGpuDevice.CreateTexture on the arm with no GL context, and creates and
releases one shared array of each format family plus one composite array at
startup. Creation only; nothing draws them. Releasing them in the same statement
covers one thing a retained bundle would not — that both slot pairs come back and
the images route through the retirement queue.
Gates: Release build; App tests 4,104 / 3 skips; strict GL offline pixel gate vs
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Erik
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f7344758f8 |
fix(render): Campaign V slice V6i-2 commit 1 — the terrain clip block reaches set 1
Plan §5.5.12 finding 2, measured on the committed SPIR-V rather than inferred:
terrain_modern.vert declared
layout(std140, binding = 2) uniform TerrainClip { ... }
with no ACDREAM_UBO_SET, so under the Vulkan dialect the block landed in set 0
binding 2 — which set 0's layout declares as a STORAGE buffer. Any terrain
pipeline built against the shared pipeline layout was therefore malformed.
Nothing had caught it: GL expands the macro to nothing and keeps its UBO and
SSBO namespaces separate, the shader compiled cleanly for both backends, and no
terrain pipeline has ever been created on Vulkan. sky.vert declares the SAME
block correctly and is the precedent, so this is a one-word omission, not a
numbering question.
spirv-dis on spv/terrain_modern.vert.spv, before and after:
before %372 = OpVariable %_ptr_Uniform__struct_370 Uniform
OpDecorate %372 DescriptorSet 0 / Binding 2
after OpDecorate %372 DescriptorSet 1 / Binding 2
with %_struct_370 = OpTypeStruct %int %_arr_v4float_uint_8 — TerrainClip's
{ int uTerrainClipCount; vec4 uTerrainClipPlanes[8]; } — in both.
The same commit closes §5.5.8's second recorded gap. Set 1's layout declared
only bindings 1 and 3, so it was missing BOTH the terrain clip block and
UniformSkyParams at binding 4, which sky.vert and sky.frag have compiled to
SPIR-V since V6e. Both are now declared, all four dynamic, which is half
Vulkan's guaranteed maxDescriptorSetUniformBuffersDynamic of 8 and is asserted
by the capability gate as before.
Membership and ORDER now come from one predicate — IsDeclaredUniformBinding —
that the layout, the descriptor writes and vkCmdBindDescriptorSets's
dynamic-offset array are all built from, the same shape V6g gave set 0. The
three had been restated separately, which is exactly how a fifth binding would
have gone wrong the same way.
Both gaps were found by hand, months apart, and neither could fail on the
shipping backend. VulkanShaderDescriptorContractTests reads the committed .spv
and asserts the partition instead: every uniform block at a declared set-1
binding, every storage block inside set 0's declared range, every sampled
resource in the one texture table. Checked out against the pre-fix .spv, two of
its four tests fail.
Gates: Release build; App tests 4,090 / 3 skips (4,086 baseline plus four);
strict GL offline pixel gate vs
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Erik
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df6e2a7918 |
feat(render): Campaign V slice V6i-1 - one descriptor set per renderer scope
Plan section 5.5.8 recorded, and deliberately did not fix, that pointing one
binding at a second buffer within a frame silently corrupts the draws already
recorded against it: the backend rewrote the descriptor in place, and a
descriptor set's contents are read when the command buffer EXECUTES, not when it
was recorded. Nothing fired it while the Vulkan frame held only the retained UI.
Section 5.5.11 handed it forward as the first thing the world arm would hit,
because WbDrawDispatcher, EnvCellRenderer and TerrainModernRenderer each own
their own instance, batch and indirect buffers and all three bind set 0 in one
frame.
It is closed here, as its own commit and BEFORE the world arm, so that a blank or
corrupt first Vulkan world frame cannot be this defect wearing another face. That
sequencing is the point: sections 5.5.1 to 5.5.3 cost this campaign three days
because an instrument that was "usually right" sat underneath the thing being
measured.
What changed. There is no longer one (set 0, set 1) pair per flight slot; there
is an arena of them. VulkanBindingScopeArena - pure bookkeeping, no Vulkan
handles, nine unit tests - answers two questions per bind: which pair, and do its
descriptors need writing. VulkanFrameBindings keeps the Vulkan half: allocating
pairs from a growable pool list and writing the twelve descriptors when told to.
The scope key is the descriptor state itself - the ten storage buffer identities
and ranges, the plain bindings' offsets, and the two uniform buffer identities
and ranges. Deriving it is a decision, not an economy. The pinned contract has
nowhere to name a scope: BindStorageBuffer takes a buffer, an offset and a size,
and section 3.3 is frozen. Deriving also gives two properties a declared scope
would not: a renderer cannot forget to declare one, and two renderers that
genuinely share every buffer correctly share one pair rather than being told to
differ. A renderer's buffers are stable for its lifetime, so "distinct descriptor
state" is exactly "renderer scope".
Dynamic offsets stay free. A ring allocation moving between draws rides
vkCmdBindDescriptorSets's dynamic-offset array, so it costs neither a new pair
nor a descriptor write - section 4.4's "zero descriptor writes per frame"
property survives a frame having more than one binding state in it. Entries are
not invalidated at BeginFrame either, because the slot's previous submission has
retired and its descriptors still say what this frame is about to say; a steady
frame therefore rewrites nothing at all. An entry matched from the previous frame
is swapped below the live cursor so the rest of the frame cannot take it for a
different state - the ordering property the sixth test pins, where two renderers
swap submission order between frames.
What this does NOT do is draw a world. The captured Vulkan frame is still V6h's
retained UI over the fog clear, so the arena's multi-scope path is exercised by
its tests and not yet by a frame. That is recorded in the plan rather than
implied.
The plan's section 5.5.12 also records two blockers measured while scoping the
world arm and not fixed here: terrain_modern.vert declares TerrainClip without
ACDREAM_UBO_SET, so under the Vulkan dialect it lands at set 0 binding 2 where
the layout declares a storage buffer - the same class of gap 5.5.8 recorded for
UniformSkyParams, invisible until a terrain pipeline is created; and the offline
gate's scene takes the retail PView path rather than the flat safety path,
because ClipRoot falls back to Buildings.OutdoorNode, which puts
RetailPViewPassExecutor on the critical path to the first Vulkan Dereth frame and
makes the "terrain only" intermediate no cheaper than the whole arm.
Gates. Strict GL offline pixel gate against
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