The reviewer's offline pixel apparatus found a real design defect, not a
test artefact: foliage wind was welded to "directional shadows rendered
this frame." Evidence: offline High preset, sun-shadow-strength=0,
wind-strength 2 + lean/branch 1 m — wind-on vs wind-off at the same
pinned clock differed by only 49-65 px, inside the apparatus's own 22 px
run-to-run noise floor (no measurable motion). A CPU probe independently
confirmed ResolveFoliageWind was correct (first advance snaps to Clear
0.25/0.15, gate 1, one graph) — the correct uniform never reached the
world pass.
Root cause: DirectionalSunShadowRenderer.Render's two early-out paths
(!environment.ShouldRender, ResidentWindowUnavailable) left
_currentFrameBinding at its pure Disabled (no-buffer) default.
WbDrawDispatcher.PipelinesFor and TerrainModernRenderer's matching
selection logic only choose the atmospheric receiver pipeline
(mesh_atmospheric, the only pipeline that #includes foliage_wind.glsl)
when TryGetCurrentFrameBinding returns true; with no buffer it always
returned false, so the world pass silently fell back to the plain
mesh_modern pipeline, which has no wind code at all. Because the shadow
gate is ActiveDayGroupMultiplier = dayGroupPolicy x elevationResponse x
strength, this killed wind every night (elevation response -> 0), at
user sun-shadow-strength 0, and under the portal/login cover.
Fix (decouple, not patch): DirectionalShadowFrameBinding gained
IsBindableFor ("a real current-frame allocation exists") separate from
IsValidFor ("...and it is Enabled with real shadow content" -- kept
exactly as VolumetricShaftRenderer's own gate needs it).
TryGetCurrentFrameBinding now returns IsBindableFor. When the built-in
pack supplies an AtmosphericFrame binding (declared packs never do, so
their receiver shaders -- which never declare set 3 binding 5 -- are
unaffected), Render's two early-out paths call a new
PublishDisabledReceiverBinding: it allocates one real ring slice and
writes a DISABLED DirectionalShadowUniforms block -- every matrix
Identity, every control/bias term zero, TextureAndFlags all zero (bit 0
clear is exactly what directional_shadow_receiver.glsl's
acdreamDirectionalShadowVisibility already reads as "no shadow, full
visibility" via its existing early return 1.0), and a unit light
direction (0,0,1) so a fragment shader's normalize() can never produce
NaN. BindDirectionalShadowReceiver and TerrainModernRenderer's
shadow-buffer bind now check Buffer is not null instead of Enabled, so
the disabled block actually gets bound once it is selected.
PublishDisabledReceiverBinding is internal (not private) specifically so
it is testable without standing up a real WbDrawDispatcher/
TerrainModernRenderer pair -- no test in this suite constructs either.
New tests: (a)/(b) PublishDisabledReceiverBinding is bindable-not-valid
with a bound AtmosphericFrame and a genuine no-op with an unbound one;
(c) BindDirectionalShadowReceiver emits both UniformDirectionalShadow and
UniformAtmosphericFrame binds for a disabled binding; (d)
VolumetricShaftRenderer's gate still reports NoCurrentDirectionalShadow
for a disabled binding. ShouldSelectReceiverPipeline itself is untouched
and its existing tests (parametrized directly on bindingValid) remain
valid; no existing test asserted the old "disabled shadows -> plain
pipeline / no binding" behaviour in a way this fix invalidates -- every
existing caller either bypasses Render (calls RenderPrepared directly)
or uses a stale-serial binding IsBindableFor still correctly rejects.
Verify: Release build 0 warnings/0 errors. App hermetic-lane filter
6,050/0 failed. Core.Tests 4,695/0 failed. Full hermetic-filtered
solution: 15,278/0 failed across 15 projects.
Co-Authored-By: Claude Sonnet 5 <noreply@anthropic.com>
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| .. | ||
| architecture | ||
| audit | ||
| plans | ||
| reference | ||
| render-packs | ||
| reports | ||
| research | ||
| reviews | ||
| superpowers | ||
| bugs.md | ||
| ci-and-releases.md | ||
| ISSUES.md | ||
| README.md | ||
| release-gate.md | ||
acdream documentation map
This page is the entry point for project documentation. It distinguishes current sources of truth from implementation history so an old plan or issue banner cannot silently override the current program state.
Current snapshot — 2026-07-27
- Milestone state: M3, “Cast a spell,” landed 2026-07-21. M4, “Live in the world,” is active.
- M4 gameplay program: resume the pre-M4 world-interaction completion program. Favorite-spell overflow, status Use/Assess, and the complete assessment surface are user-accepted. Equipped-child picking and vendor browse/transactions remain Slices 4–6.
- Structural/runtime state: all eight
GameWindowdecomposition slices, Modern Runtime Slices A–J, and the connected visual/lifecycle gates are complete.GameWindowis a 1,622-line composition/callback shell.AcDream.Runtime.GameRuntimeowns canonical session, entity/object, gameplay, movement, physics, projectile, environment, and portal state; graphical and no-window hosts borrow the same owner graph. - Headless state: Slice K is complete.
AcDream.Headlessis a presentation-free Windows/Linux host with deterministic commands/events, shared immutable content, multi-session isolation, reconnect, resource telemetry, and 1/5/10/30-session gates. The final two-account native-Linux soak completed ten minutes, logged out through ACE, and converged every ownership ledger. - Linux graphical state: Slice L0 and the L1 implementation checkpoint are
complete at
66f114b2and11501d52. Native Windows passes the active modern-GL/audio/window smoke. WSLg X11/Wayland correctly reject their missingGL_ARB_bindless_texture. Physical-Linux validation and L2–L6 are explicitly deferred; resume at the supported AMD/NVIDIA L1 gate. - Completed gameplay gates: R6 locomotion/collision/projectile/teleport/ radar, two-client portal-out/materialization, indoor prepared collision, loot ordering, local/remote ground drops, and selection-marker lifetime.
- Separate visual verification: issue
#225, the shared-alpha lifestone/particle result; its connected resource-lifetime and performance routes pass. - Carried behaviour debt: issue
#153(far teleport onto an unstreamed edge),#116(narrowed slide response),#235(capped/RDP jump cadence), and the active temporary-stopgap rows in the divergence register. - Divergence audit: 189 active rows — IA 18, AD 38, AP 91, TS 38, and UN 4 — plus retained struck/retired historical rows such as TS-37.
- Latest automated baseline: the Release build succeeds with the 17
test-project warnings tracked by issue
#228; 8,826 tests pass and five are intentionally skipped. App passes 3,763 / 3 skips. The L1 Windows supported smoke and WSLg X11/Wayland negative-capability reports all end with zero window/GL/input/audio ownership.
Sources of truth
Read these in this order when deciding what to do next:
plans/2026-05-12-milestones.md— the active playable outcome, freeze boundaries, and visual gates.plans/2026-04-11-roadmap.md— strategic phase ledger: shipped, active, deferred, and future work.ISSUES.md— tactical defects and small follow-ups. The status inside an issue is authoritative; physical order is not.architecture/retail-divergence-register.md— every known place runtime behavior can differ from retail.architecture/acdream-architecture.mdandarchitecture/code-structure.md— ownership, dependency, update-thread, and extraction rules.architecture/worldbuilder-inventory.md— rendering/DAT code already owned in-tree versus mechanisms still ours to port.
If these disagree, milestones control the current outcome, the roadmap controls work ordering, the issue status controls the individual defect, and the architecture documents control implementation shape. Reconcile the stale document in the same change; do not leave both claims standing.
Research and implementation records
research/named-retail/is the primary retail oracle: named pseudo-C, headers, symbols, and types from the Sept 2013 build.research/decompiled/is the older Ghidra fallback.research/contains focused pseudocode, traces, fixtures, and gate reports. A dated research note records evidence; it does not become a new roadmap.superpowers/specs/andsuperpowers/plans/are per-slice design and execution records. Completed plans remain historical.ci-and-releases.mdis the SSOT for the Gitea CI pipeline, the self-hosted runners, and how alpha releases are published. Load-sensitive tests live inLane=Timing; seerelease-gate.mdbefore adding to it.audit/contains completion and conformance audits.reference/ace-commands.mdpreserves the local ACE server's complete in-game command catalog and points to the authoritative per-command help surface.
Durable memory
../claude-memory/MEMORY.mdindexes the live subsystem memories and the render/physics digests. Read a domain digest before changing that subsystem, especially its DO-NOT-RETRY table.../memory/contains stable engineering references such as the modern rendering pipeline, two-tier streaming, and toolchain notes.
Memory accelerates recall; it does not outrank the canonical documents above. When current truth changes, update the relevant canonical document and distill only the durable lesson into memory.
Historical and deprecated documents
bugs.mdis the April 2026 bug snapshot. It is preserved for archaeology and is not an active ledger.- Dated plans and specs describe the decision at that time. Their completion wording is historical unless the current milestone/roadmap explicitly links the item as active.
- Old
R1→R8architecture sequencing is superseded. Current execution comes from the milestones and strategic roadmap.
Documentation maintenance rules
- Update milestone, roadmap, issue, divergence, architecture, and memory claims in the same commit when a shipped change affects them.
- Keep one issue ID per defect. Narrow an issue in place; do not reuse another issue's number as a shorthand.
- Mark automated, connected, and visual gates separately. An automated pass is not a visual acceptance, and an RDP throughput sample is not a local-display visual comparison.
- Preserve research history, but remove stale “current/next” claims from living documents once the state advances.