PNCW Series Synthesis v0.1
投影原生計算世界統合理論：從非序列輸出到軟體時空感知—行動閉環
Projection-Native Computational Worlds:
Series Synthesis from Non-Sequential Output to Software-Spacetime Perception–Action Loops
版本：v0.1 日期：2026-08-28 系列：Projection-Native Computational World Series / 投影原生計算世界系列 定位：Series Synthesis / Canonical Cross-Paper Integration Canonical Repository：kakon77777-commits/PNCW 涵蓋：PNCW Paper 00–08 作者： Neo.K機構： EveMissLab／一言諾科技有限公司
摘要
Projection-Native Computational World（PNCW）系列最初從一個介面問題開始：
AI 的內部計算、記憶、圖結構、向量表示、工具狀態與多模態世界並不天然等於一條人類文字序列；那麼，為什麼主要可見結果必須預設為逐 token、逐段或多條平行序列慢慢輸出？
Paper 00–06 將這個問題拆解為：
Computation ≠ Internal Representation ≠ Projection ≠ Observation ≠ Presentation . \boxed{
\text{Computation}
\neq
\text{Internal Representation}
\neq
\text{Projection}
\neq
\text{Observation}
\neq
\text{Presentation}.
} Computation = Internal Representation = Projection = Observation = Presentation . 並建立：
Sequence is one observation topology, not the universal topology of computation. \boxed{
\text{Sequence is one observation topology, not the universal topology of computation.}
} Sequence is one observation topology, not the universal topology of computation. Paper 07 再修正 source ontology：真正被投影的來源不應只簡化為單一時間點的 W t W_t W t
S = States + Local Times + Events + Causality + Worldlines + Branches + History . \boxed{
\mathfrak S
=
\text{States}
+
\text{Local Times}
+
\text{Events}
+
\text{Causality}
+
\text{Worldlines}
+
\text{Branches}
+
\text{History}.
} S = States + Local Times + Events + Causality + Worldlines + Branches + History . Paper 08 則把原本主要是 read-side 的 projection pipeline 閉合為 perception–cognition–projection–actuation loop，保留：
O b s e r v e d ≠ B e l i e v e d ≠ A u t h o r i z e d ≠ E x e c u t e d ≠ V e r i f i e d . \boxed{
Observed
\neq
Believed
\neq
Authorized
\neq
Executed
\neq
Verified.
} O b ser v e d = B e l i e v e d = A u t h or i z e d = E x ec u t e d = V er i f i e d . 因此，PNCW 的完整定位不再只是「非序列輸出方法」，而是：
Projection-Native Perception–Cognition–Computation–Actuation Architecture . \boxed{
\text{Projection-Native Perception–Cognition–Computation–Actuation Architecture}.
} Projection-Native Perception–Cognition–Computation–Actuation Architecture . 本文將 Paper 00–08 收斂為單一 canonical architecture，並更新工程成熟度。特別是 MRMIC/NVCL Phase 14 PR #16 與 PR #17 已使：
HDSRC → real local process read-only MRMIC/NVCL \boxed{
\text{HDSRC}
\xrightarrow[\text{real local process}]{\text{read-only}}
\text{MRMIC/NVCL}
} HDSRC read-only real local process MRMIC/NVCL 不再只是整合假說，而是已實作並驗證的 real-runtime vertical segment。
目前真實 HDSRC v0.10 → MRMIC/NVCL read-only integration 已包含 real HPCM2 routing、HMR1 resolution、HMBT1 materialization、restart-stable materialization、partial relation block-row read、stale-state rejection、malformed/tampered integrity rejection、full metadata/digest rebinding attack 的 structural fail-closed，以及 HDSRC authority 與 MRMIC authority 分離。
4096D case 的完整 carrier 為 286,313 bytes，而 partial block-row compressed read 為 1,272 bytes，約佔 0.444%。這提供一個跨系統 executable example：
Carrier Exists ≠ Carrier Fully Materialized . \boxed{
\text{Carrier Exists}
\neq
\text{Carrier Fully Materialized}.
} Carrier Exists = Carrier Fully Materialized . 但本文仍保留清楚邊界：PNCW 尚未完成 GCM → Context/ACR → SPET/HDSRC → MRMIC/NVCL → Visibility Commit → Actuation → Independent Verification 的單一 E2E reference runtime；HDSRC → MRMIC/NVCL 目前是 real-runtime read-only integration ，canonical writeback / projected mutation return path 仍屬開放工作。
PNCW 因此進入：
Theory Closure → Runtime Technical Whitepaper → Reference MVP . \boxed{
\text{Theory Closure}
\rightarrow
\text{Runtime Technical Whitepaper}
\rightarrow
\text{Reference MVP}.
} Theory Closure → Runtime Technical Whitepaper → Reference MVP . 1. 系列的真正方法：Non-Collapse First
PNCW Paper 00–08 看似跨越 UI、memory、carrier、Canvas、software spacetime 與 actuation，但九篇其實共享同一個方法：
先把歷史工程慣例混在一起的概念拆開，再定義合法映射。
形式上：
A ≠ B ⇒ define an explicit f : A → B . \boxed{
A\neq B
\quad\Rightarrow\quad
\text{define an explicit }f:A\rightarrow B.
} A = B ⇒ define an explicit f : A → B . 例如：
M e m o r y ≠ C o n t e x t Memory\neq Context M e m or y = C o n t e x t 才需要：
Π C : M e m o r y → C o n t e x t . \Pi_C:
Memory\rightarrow Context. Π C : M e m or y → C o n t e x t . S t a t e ≠ C a r r i e r State\neq Carrier S t a t e = C a r r i er 才需要：
Φ : S t a t e → C a r r i e r . \Phi:
State\rightarrow Carrier. Φ : S t a t e → C a r r i er . C a r r i e r ≠ V i s u a l W o r l d Carrier\neq VisualWorld C a r r i er = V i s u a l W or l d 才需要：
Ψ : C a r r i e r → V i s u a l W o r l d . \Psi:
Carrier\rightarrow VisualWorld. Ψ : C a r r i er → V i s u a l W or l d . P r o p o s a l ≠ C o m m i t Proposal\neq Commit P r o p os a l = C o mmi t 才需要：
A u t h o r i t y G a t e . AuthorityGate. A u t h or i t y G a t e . R e c e i p t ≠ O u t c o m e Receipt\neq Outcome R ece i pt = O u t co m e 才需要：
I n d e p e n d e n t V e r i f i c a t i o n . IndependentVerification. I n d e p e n d e n t V er i f i c a t i o n . 所以 PNCW 的核心不是「把東西變成圖」，而是建立一組不坍縮、可組合、可稽核的 projection contracts 。
2. Canonical Non-Collapse Stack
整個系列最核心的 typed separation 可以寫成：
Software Spacetime ≠ Observation ≠ Evidence ≠ Memory ≠ Active Context ≠ Projection Epoch ≠ Carrier ≠ Visual World ≠ Visible Result ≠ Action Proposal ≠ Authorized Actuation ≠ Verified Outcome . \boxed{
\begin{aligned}
&\text{Software Spacetime}
\neq&\text{Observation}
\neq&\text{Evidence}
\neq&\text{Memory}
\neq&\text{Active Context}
\neq&\text{Projection Epoch}
\neq&\text{Carrier}
\neq&\text{Visual World}
\neq&\text{Visible Result}
\neq&\text{Action Proposal}
\neq&\text{Authorized Actuation}
\neq&\text{Verified Outcome}.
\end{aligned}
} Software Spacetime = Observation = Evidence = Memory = Active Context = Projection Epoch = Carrier = Visual World = Visible Result = Action Proposal = Authorized Actuation = Verified Outcome . 這是整套 Runtime 能否 fail-closed、局部替換、版本化、回放與治理的基礎。
3. Paper 00 — Projection-Native World Foundations
Paper 00 先拆掉：
Sequence = Universal Observation Topology . \boxed{
\text{Sequence}
=
\text{Universal Observation Topology}.
} Sequence = Universal Observation Topology . 並建立：
Sequence is one observation topology, not the universal topology of computation. \boxed{
\text{Sequence is one observation topology, not the universal topology of computation.}
} Sequence is one observation topology, not the universal topology of computation. 因此 observation topology 可以屬於：
T O = { S e q u e n c e , B a t c h , G r a p h , M a t r i x , C a n v a s , H y b r i d , … } . \mathfrak T_O
=
\{
Sequence,
Batch,
Graph,
Matrix,
Canvas,
Hybrid,
\ldots
\}. T O = { S e q u e n ce , B a t c h , G r a p h , M a t r i x , C an v a s , H y b r i d , … } . 這一篇不是反對文字，而是取消文字序列的唯一性。
4. Paper 01 — Computation Completion Is Not Progressive Visibility
Paper 01 將：
T c o m p u t e , T r e a d y , T p r o j e c t , T t r a n s f e r , T v i s i b l e T_{compute},
T_{ready},
T_{project},
T_{transfer},
T_{visible} T co m p u t e , T r e a d y , T p r o j ec t , T t r an s f er , T v i s ib l e 拆開：
T c o m p u t e ≠ T r e a d y ≠ T p r o j e c t ≠ T t r a n s f e r ≠ T v i s i b l e . \boxed{
T_{compute}
\neq
T_{ready}
\neq
T_{project}
\neq
T_{transfer}
\neq
T_{visible}.
} T co m p u t e = T r e a d y = T p r o j ec t = T t r an s f er = T v i s ib l e . 核心：
Atomic Logical Reveal ≠ Instantaneous Physical Generation . \boxed{
\text{Atomic Logical Reveal}
\neq
\text{Instantaneous Physical Generation}.
} Atomic Logical Reveal = Instantaneous Physical Generation . 大型 artifact 可以先完成 identity、structure、manifest、integrity、authority 與 version，再：
∅ → Y a u t h . \boxed{
\varnothing
\rightarrow
Y^{auth}.
} ∅ → Y a u t h . Reveal 後仍可：
ρ Y ( t ) ↑ \rho_Y(t)\uparrow ρ Y ( t ) ↑ 逐步載入 tiles、bytes、panels、portals。
因此：
Logical Completeness ≠ Full Physical Residency . \boxed{
\text{Logical Completeness}
\neq
\text{Full Physical Residency}.
} Logical Completeness = Full Physical Residency . 5. Paper 02 — Virtual Context Projection
Paper 02 把 persistent memory 與 active cognition 分開：
C t a c t i v e ⊆ C t r e s i d e n t ⊆ M t t o t a l . \boxed{
C_t^{active}
\subseteq
C_t^{resident}
\subseteq
\mathcal M_t^{total}.
} C t a c t i v e ⊆ C t r es i d e n t ⊆ M t t o t a l . 所以：
Context Capacity ≠ Memory Capacity . \boxed{
\text{Context Capacity}
\neq
\text{Memory Capacity}.
} Context Capacity = Memory Capacity . 近期工程路線是：
Native Model Context + Context MMU Sidecar . \boxed{
\text{Native Model Context}
+
\text{Context MMU Sidecar}.
} Native Model Context + Context MMU Sidecar . 遠期 Native TCGCT–TCGQT / Gamma 則保留：
R o u t e → P r o j e c t → A t t e n d . \boxed{
Route
\rightarrow
Project
\rightarrow
Attend.
} R o u t e → P r o j ec t → A tt e n d . 但仍屬 experimental target，而不是 production Transformer replacement。
6. Paper 03 — Stable High-Dimensional Projection Carrier
Paper 03 建立：
C q a c t i v e → E k → P k . \boxed{
C_q^{active}
\rightarrow
\mathcal E_k
\rightarrow
P_k.
} C q a c t i v e → E k → P k . 其中 Stable Projection Epoch 要求在 epoch 內：
π ( t ) = π k . \boxed{
\pi(t)=\pi_k.
} π ( t ) = π k . 因為：
State Evolution ≠ Projection Evolution . \boxed{
\text{State Evolution}
\neq
\text{Projection Evolution}.
} State Evolution = Projection Evolution . machine-native carrier：
P k = ⟨ A d d r e s s , V a l u e s , R e l a t i o n s , T i l e s , L o c a l i t y , A t t e n t i o n , H i s t o r y , C a p a b i l i t i e s ⟩ . \boxed{
P_k
=
\langle
Address,
Values,
Relations,
Tiles,
Locality,
Attention,
History,
Capabilities
\rangle.
} P k = ⟨ A dd r ess , V a l u es , R e l a t i o n s , T i l es , L oc a l i t y , A tt e n t i o n , H i s t or y , C a p abi l i t i es ⟩ . 因此：
Image Carrier ≠ Human Image . \boxed{
\text{Image Carrier}
\neq
\text{Human Image}.
} Image Carrier = Human Image . carrier 可以支援：
Q P : P k → Y Q_P:P_k\rightarrow Y Q P : P k → Y 與：
F P : P k → P k ′ . F_P:P_k\rightarrow P_k'. F P : P k → P k ′ . 但必須保留：
Query-Native ≠ Transform-Native ≠ Runtime-Native . \boxed{
\text{Query-Native}
\neq
\text{Transform-Native}
\neq
\text{Runtime-Native}.
} Query-Native = Transform-Native = Runtime-Native . 以及：
Semantic Locality ≠ Physical Commit Locality . \boxed{
\text{Semantic Locality}
\neq
\text{Physical Commit Locality}.
} Semantic Locality = Physical Commit Locality . 7. Paper 04 — Recursive Visual Computational World
Paper 04 建立：
P k → V q , k . \boxed{
P_k\rightarrow V_{q,k}.
} P k → V q , k . 其中：
V = ⟨ P i x e l s , O b j e c t s , R e l a t i o n s , L a y e r s , R e s o u r c e s , T i m e l i n e , P r e s e n c e , P e r m i s s i o n s , H i s t o r y ⟩ . \boxed{
V
=
\langle
Pixels,
Objects,
Relations,
Layers,
Resources,
Timeline,
Presence,
Permissions,
History
\rangle.
} V = ⟨ P i x e l s , O bj ec t s , R e l a t i o n s , L a y er s , R eso u r ces , T im e l in e , P r ese n ce , P er mi ss i o n s , H i s t or y ⟩ . 所以：
Visual State ≠ Raster Image . \boxed{
\text{Visual State}
\neq
\text{Raster Image}.
} Visual State = Raster Image . Infinite Canvas 不代表 full render：
Infinite Canvas ≠ Everything Materialized . \boxed{
\text{Infinite Canvas}
\neq
\text{Everything Materialized}.
} Infinite Canvas = Everything Materialized . 外部 resource 透過 portal：
P o r t a l ( r ) ≠ r . \boxed{
Portal(r)\neq r.
} P or t a l ( r ) = r . 並正式區分：
m o u n t e d ≠ v i s i b l e ≠ f o c u s e d ≠ c o n t r o l O w n e r . \boxed{
mounted
\neq
visible
\neq
focused
\neq
controlOwner.
} m o u n t e d = v i s ib l e = f oc u se d = co n t r o l O w n er . 同時：
Runtime Presence ≠ Durable Canvas Truth . \boxed{
\text{Runtime Presence}
\neq
\text{Durable Canvas Truth}.
} Runtime Presence = Durable Canvas Truth . 以及：
Pixels ≠ Structured State . \boxed{
\text{Pixels}
\neq
\text{Structured State}.
} Pixels = Structured State . 8. Paper 05 — Global Compute / Selective Materialization
Paper 05 把 GCM 拉到上層：
Compute Globally, Materialize Selectively, Observe Relatively . \boxed{
\text{Compute Globally,
Materialize Selectively,
Observe Relatively}.
} Compute Globally, Materialize Selectively, Observe Relatively . Global 不等於 everything everywhere：
Global = coherence relative to a designated World boundary . \boxed{
\text{Global}
=
\text{coherence relative to a designated World boundary}.
} Global = coherence relative to a designated World boundary . 真實 runtime 要：
∣ A t ∣ < ∞ . \boxed{
|A_t|<\infty.
} ∣ A t ∣ < ∞. 同時 world 可以 unboundedly extensible。
而：
Active ≠ Materialized ≠ Visible . \boxed{
\text{Active}
\neq
\text{Materialized}
\neq
\text{Visible}.
} Active = Materialized = Visible . 解析度也必須拆開：
λ c o m p u t e ≠ λ c a r r i e r ≠ λ o b s e r v e ≠ λ r e n d e r . \boxed{
\lambda^{compute}
\neq
\lambda^{carrier}
\neq
\lambda^{observe}
\neq
\lambda^{render}.
} λ co m p u t e = λ c a r r i er = λ o b ser v e = λ r e n d er . Materialization Policy 問：
What representation deserves active realization now? \boxed{
\text{What representation deserves active realization now?}
} What representation deserves active realization now? GCM Phase B 類型 selection：
Constraint → Feasible Plans → Objective Evaluation → Pareto Frontier → Explicit Policy Selection . \boxed{
\text{Constraint}
\rightarrow
\text{Feasible Plans}
\rightarrow
\text{Objective Evaluation}
\rightarrow
\text{Pareto Frontier}
\rightarrow
\text{Explicit Policy Selection}.
} Constraint → Feasible Plans → Objective Evaluation → Pareto Frontier → Explicit Policy Selection . 並保留：
Plan ≠ Execution ≠ Commit . \boxed{
\text{Plan}
\neq
\text{Execution}
\neq
\text{Commit}.
} Plan = Execution = Commit . 9. Paper 06 — Unified Non-Sequential AI Output Architecture
Paper 06 首次把 Paper 00–05 收成：
W t → G C M P P l a n → C o n t e x t C q → S P E T E k → H D S R C P k → M R M I C / N V C L V q , k → V e r i f y Y a u t h → V i s i b i l i t y C o m m i t U . \boxed{
W_t
\xrightarrow{GCM}
PPlan
\xrightarrow{Context}
C_q
\xrightarrow{SPET}
\mathcal E_k
\xrightarrow{HDSRC}
P_k
\xrightarrow{MRMIC/NVCL}
V_{q,k}
\xrightarrow{Verify}
Y^{auth}
\xrightarrow{VisibilityCommit}
U.
} W t GC M P P l an C o n t e x t C q S P E T E k H D S R C P k M R M I C / N V C L V q , k V er i f y Y a u t h V i s ibi l i t y C o mmi t U . 並正式定義：
O u t p u t M o d e ∈ { S T R E A M , B A T C H , A T O M I C , C A N V A S , H Y B R I D } . \boxed{
\mathsf{OutputMode}
\in
\{
STREAM,
BATCH,
ATOMIC,
CANVAS,
HYBRID
\}.
} OutputMode ∈ { S T R E A M , B A T C H , A T O M I C , C A N V A S , H Y B R I D } . PNCW 不淘汰 streaming，只取消其唯一性。
如果後端仍只有 token stream、UI 只是最後一起顯示，那只是：
H i d d e n S t r e a m i n g \boxed{
HiddenStreaming
} H i dd e n S t r e amin g 而不是 projection-native compute。
10. Paper 07 — Projection-Native Software Spacetime
Paper 07 將 source 從 W t W_t W t
S . \boxed{
\mathfrak S.
} S . 每個 software spacetime domain：
D i = ( X i , T i , E i , C i , O i , R i , A i ) . \boxed{
D_i
=
(
X_i,
T_i,
E_i,
C_i,
O_i,
R_i,
A_i
).
} D i = ( X i , T i , E i , C i , O i , R i , A i ) . 包含 state、local time、events、causality、observer、resources、control capabilities。
但：
Software Spacetime ≠ Physical Spacetime . \boxed{
\text{Software Spacetime}
\neq
\text{Physical Spacetime}.
} Software Spacetime = Physical Spacetime . Worldline：
γ x : T i → X i . \boxed{
\gamma_x:T_i\rightarrow X_i.
} γ x : T i → X i . 因此：
State Projection ⊂ Spacetime Projection . \boxed{
\text{State Projection}
\subset
\text{Spacetime Projection}.
} State Projection ⊂ Spacetime Projection . 不同 domains 不要求共享同一 local time：
t i ( τ ) = b i + ∫ 0 τ α i ( s ) d s . t_i(\tau)
=
b_i
+
\int_0^\tau
\alpha_i(s)ds. t i ( τ ) = b i + ∫ 0 τ α i ( s ) d s . 但：
α i ≠ Physical Compute Speed . \boxed{
\alpha_i
\neq
\text{Physical Compute Speed}.
} α i = Physical Compute Speed . 本文也確立：
Serialization Order ≠ Necessary Causal Order . \boxed{
\text{Serialization Order}
\neq
\text{Necessary Causal Order}.
} Serialization Order = Necessary Causal Order . 同一 partial order 可以有多個合法 linearization：
One Causal World → Many Valid Sequences . \boxed{
\text{One Causal World}
\rightarrow
\text{Many Valid Sequences}.
} One Causal World → Many Valid Sequences . 因此 PNCW 可以直接投影 causal cone、critical path、antichain、worldline、replay/live diff、branch ensemble 與 multi-time Canvas。
11. Paper 08 — Projection-Native Perception–Action Loop
Paper 08 把 read-side 閉成完整 loop：
W o r l d → O b s e r v a t i o n → E v i d e n c e → M e m o r y → A t t e n t i o n → C o g n i t i o n → P r o j e c t i o n → P r o p o s a l → R e a d i n e s s → A u t h o r i t y → A c t u a t i o n → N e w O b s e r v a t i o n → I n d e p e n d e n t V e r i f i c a t i o n → W o r l d ′ . \boxed{
World
\rightarrow
Observation
\rightarrow
Evidence
\rightarrow
Memory
\rightarrow
Attention
\rightarrow
Cognition
\rightarrow
Projection
\rightarrow
Proposal
\rightarrow
Readiness
\rightarrow
Authority
\rightarrow
Actuation
\rightarrow
NewObservation
\rightarrow
IndependentVerification
\rightarrow
World'.
} W or l d → O b ser v a t i o n → E v i d e n ce → M e m or y → A tt e n t i o n → C o g ni t i o n → P r o j ec t i o n → P r o p os a l → R e a d in ess → A u t h or i t y → A c t u a t i o n → N e w O b ser v a t i o n → I n d e p e n d e n t V er i f i c a t i o n → W or l d ′ . 同一 world 可以產生 pixel、Accessibility、DOM、runtime、event、audio、network 等多種結構觀察：
Representation ≠ World . \boxed{
\text{Representation}
\neq
\text{World}.
} Representation = World . 同時：
Observe Continuously ≠ Run Large Model Continuously . \boxed{
\text{Observe Continuously}
\neq
\text{Run Large Model Continuously}.
} Observe Continuously = Run Large Model Continuously . Evidence 可先進 Evidence Bus，再由 APR 決定目前缺哪種 evidence。
Memory 與 attention：
Available ≠ Attended . \boxed{
\text{Available}
\neq
\text{Attended}.
} Available = Attended . attention 與 cognition：
Attended ≠ Fully Reasoned . \boxed{
\text{Attended}
\neq
\text{Fully Reasoned}.
} Attended = Fully Reasoned . ContextCapsule 與 ActiveCognitiveDomain：
C o n t e x t C a p s u l e ≠ A c t i v e C o g n i t i v e D o m a i n ≠ H i s t o r i c a l T r u t h . \boxed{
ContextCapsule
\neq
ActiveCognitiveDomain
\neq
HistoricalTruth.
} C o n t e x tC a p s u l e = A c t i v e C o g ni t i v eD o main = H i s t or i c a l T r u t h . Actuation 端：
A P R A L L O W ≠ P H O S P H O R A U T H O R I Z E D . \boxed{
APR_ALLOW
\neq
PHOSPHOR_AUTHORIZED.
} A P R A LL O W = P H O S P H O R A U T H O R I Z E D . 以及：
H d e s i r e d ≠ H r e q u e s t e d ≠ H r e a l i z e d ≠ H o b s e r v e d . \boxed{
H^{desired}
\neq
H^{requested}
\neq
H^{realized}
\neq
H^{observed}.
} H d es i r e d = H r e q u es t e d = H r e a l i z e d = H o b ser v e d . 最終：
R e c e i p t ≠ I n d e p e n d e n t V e r i f i c a t i o n . \boxed{
Receipt
\neq
IndependentVerification.
} R ece i pt = I n d e p e n d e n t V er i f i c a t i o n . 12. PNCW Canonical Architecture
Paper 00–08 收斂後，read-side：
S t → Π i n O t → E v i d e n c e M t P → A P R / A C R C q , t a c t i v e → G C M P P l a n t → S P E T E k → H D S R C P k → M R M I C / N V C L V q , k → V e r i f y Y q , k a u t h → V i s i b i l i t y C o m m i t U q , k . \boxed{
\begin{aligned}
\mathfrak S_t
&\xrightarrow{\Pi^{in}}
O_t
\xrightarrow{Evidence}
M_t^P
\xrightarrow{APR/ACR}
C_{q,t}^{active}
\xrightarrow{GCM}
PPlan_t
\xrightarrow{SPET}
\mathcal E_k
\xrightarrow{HDSRC}
P_k
\xrightarrow{MRMIC/NVCL}
V_{q,k}
\xrightarrow{Verify}
Y_{q,k}^{auth}
\xrightarrow{VisibilityCommit}
U_{q,k}.
\end{aligned}
} S t Π in O t E v i d e n ce M t P A P R / A C R C q , t a c t i v e GC M P P l a n t S P E T E k H D S R C P k M R M I C / N V C L V q , k V er i f y Y q , k a u t h V i s ibi l i t y C o mmi t U q , k . write-side：
U q , k → a p r o p o s a l → R e a d i n e s s → A u t h o r i t y → A c t u a t i o n → S t + 1 . \boxed{
U_{q,k}
\rightarrow
a^{proposal}
\rightarrow
Readiness
\rightarrow
Authority
\rightarrow
Actuation
\rightarrow
\mathfrak S_{t+1}.
} U q , k → a p r o p os a l → R e a d in ess → A u t h or i t y → A c t u a t i o n → S t + 1 . verification-side：
S t + 1 → O p o s t → e p o s t → I n d e p e n d e n t V e r i f i c a t i o n . \boxed{
\mathfrak S_{t+1}
\rightarrow
O_{post}
\rightarrow
e_{post}
\rightarrow
IndependentVerification.
} S t + 1 → O p os t → e p os t → I n d e p e n d e n t V er i f i c a t i o n . 所以：
Read ≠ Write ≠ Verify . \boxed{
\text{Read}
\neq
\text{Write}
\neq
\text{Verify}.
} Read = Write = Verify . 13. PNCW 的中心不是圖像，而是 Projection Contract
PNCW 不主張所有東西最後都變成圖片。
更精確：
Projection = task-relative, observer-relative, authority-aware transformation of world state . \boxed{
\text{Projection}
=
\text{task-relative, observer-relative, authority-aware transformation of world state}.
} Projection = task-relative, observer-relative, authority-aware transformation of world state . 一個通用 contract 至少應包含：
P r o j e c t i o n C o n t r a c t = ⟨ S o u r c e , S c o p e , O b s e r v e r , R e p r e s e n t a t i o n , R e s o l u t i o n , T e m p o r a l A n c h o r , C a u s a l S c o p e , B r a n c h A n c h o r , A u t h o r i t y , I n t e g r i t y , F a l l b a c k ⟩ . \boxed{
\mathsf{ProjectionContract}
=
\langle
Source,
Scope,
Observer,
Representation,
Resolution,
TemporalAnchor,
CausalScope,
BranchAnchor,
Authority,
Integrity,
Fallback
\rangle.
} ProjectionContract = ⟨ S o u r ce , S co p e , O b ser v er , R e p r ese n t a t i o n , R eso l u t i o n , T e m p or a l A n c h or , C a u s a l S co p e , B r an c h A n c h or , A u t h or i t y , I n t e g r i t y , F a l l ba c k ⟩ . 解析度 bundle 可包含：
λ s t a t e , λ t i m e , λ c a u s a l , λ b r a n c h , λ c o m p u t e , λ c a r r i e r , λ o b s e r v e , λ r e n d e r . \boxed{
\lambda^{state},
\lambda^{time},
\lambda^{causal},
\lambda^{branch},
\lambda^{compute},
\lambda^{carrier},
\lambda^{observe},
\lambda^{render}.
} λ s t a t e , λ t im e , λ c a u s a l , λ b r an c h , λ co m p u t e , λ c a r r i er , λ o b ser v e , λ r e n d er . 14. Engineering Amendment — MRMIC/NVCL Phase 14
PNCW Paper 03/04 寫作時，HDSRC → MRMIC/NVCL 還可以被保守描述為整合接口。
現在 MRMIC/NVCL Phase 14 PR #16/#17 已改變這個成熟度。
15. PR #16 — Read-Only HDSRC Materialization Integration
PR #16 建立：
versioned HDSRC integration contracts；
read-only provider-hdsrc；
deterministic fake provider；
fail-closed state/materialization validation；
native_resource_portal_v1 projection；human_preview；structured_manifest；machine_carrier；Canvas/HDSRC authority separation；
protected-lane preauthorization。
因此：
HDSRC Materialization Contract → MRMIC Portal Contract \boxed{
\text{HDSRC Materialization Contract}
\rightarrow
\text{MRMIC Portal Contract}
} HDSRC Materialization Contract → MRMIC Portal Contract 已具 executable integration evidence。
16. PR #17 — Real HDSRC v0.10 Local Process Bridge
PR #17 進一步建立：
LocalProcessHdsrcProvider → JSONL stdio → Production Python Host → Real HDSRC v0.10 . \boxed{
\text{LocalProcessHdsrcProvider}
\rightarrow
\text{JSONL stdio}
\rightarrow
\text{Production Python Host}
\rightarrow
\text{Real HDSRC v0.10}.
} LocalProcessHdsrcProvider → JSONL stdio → Production Python Host → Real HDSRC v0.10 . 4096D real case：
72 nodes；
4096 dimensions；
HPCM2 → oracle_fallback；
reason → outside_current_trust_region；
HMR1 → HMBT1；
logical scale → 32；
spatialization → RCM_PP；
carrier size → 286,313 bytes；
partial relation block-row compressed read → 1,272 bytes。
比例約：
1272 286313 ≈ 0.00444 = 0.444 % . \boxed{
\frac{1272}{286313}
\approx
0.00444
=
0.444\%.
} 286313 1272 ≈ 0.00444 = 0.444%. 這只支持有限工程命題：
A real HDSRC carrier can remain externally authoritative while MRMIC retrieves only a selected machine-readable region. \boxed{
\text{A real HDSRC carrier can remain externally authoritative while MRMIC retrieves only a selected machine-readable region.}
} A real HDSRC carrier can remain externally authoritative while MRMIC retrieves only a selected machine-readable region. 它不證明 universal scaling law。
17. Restart / Stale / Integrity
真實 bridge 亦驗證 restart persistence。
更重要的是：
合法但不同 canonical HDS1：
S T A L E S T A T E , r e t r y a b l e = true . \boxed{
STALE_STATE,
\quad retryable=\text{true}.
} S T A L E S T A T E , r e t r y ab l e = true . malformed/tampered：
I N T E G R I T Y F A I L U R E , r e t r y a b l e = false . \boxed{
INTEGRITY_FAILURE,
\quad retryable=\text{false}.
} I N T E GR I T Y F A I LU R E , r e t r y ab l e = false . 所以：
Stale ≠ Corrupt . \boxed{
\text{Stale}
\neq
\text{Corrupt}.
} Stale = Corrupt . 18. Full Rebinding Negative Control
PR #17 進一步測試：
修改 HMBT1 carrier；
重算 SHA；
重算 deterministic materialization ID；
建匹配 folder；
重寫 machine/preview URI；
persist self-consistent rebound manifest。
metadata rebinding 可被接受，但 machine read 仍因 HMBT1 structural validation：
I N T E G R I T Y F A I L U R E . \boxed{
INTEGRITY_FAILURE.
} I N T E GR I T Y F A I LU R E . 因此：
Digest Agreement ≠ Structural Semantic Validity . \boxed{
\text{Digest Agreement}
\neq
\text{Structural Semantic Validity}.
} Digest Agreement = Structural Semantic Validity . 以及：
Representation Identity ≠ Semantic Authority . \boxed{
\text{Representation Identity}
\neq
\text{Semantic Authority}.
} Representation Identity = Semantic Authority . 19. Authority Boundary
目前仍保持：
HDSRC Canonical Authority ≠ MRMIC Canvas Authority . \boxed{
\text{HDSRC Canonical Authority}
\neq
\text{MRMIC Canvas Authority}.
} HDSRC Canonical Authority = MRMIC Canvas Authority . 而且：
MRMIC Authentication ≠ HDSRC Authorization . \boxed{
\text{MRMIC Authentication}
\neq
\text{HDSRC Authorization}.
} MRMIC Authentication = HDSRC Authorization . 20. Current Integration Status
因此現在正確聲明是：
HDSRC → validated real-runtime read-only MRMIC/NVCL . \boxed{
\text{HDSRC}
\xrightarrow[\text{validated}]{\text{real-runtime read-only}}
\text{MRMIC/NVCL}.
} HDSRC real-runtime read-only validated MRMIC/NVCL . 不能再把整段標成「future adapter」。
但也不能寫成：
HDSRC ↔ MRMIC \boxed{
\text{HDSRC}
\leftrightarrow
\text{MRMIC}
} HDSRC ↔ MRMIC 已完整雙向。
目前仍未完成：
HDSRC canonical writeback；
Canvas pixel edit → HDSRC symbolic mutation；
projected mutation return path；
remote HDSRC transport；
production multi-tenant security certification；
automatic HPCM2 policy writeback。
21. PNCW Component Maturity Matrix
Layer
Current Status
Boundary
PNCW Paper 00–08
Series theory closed at v0.1 conceptual/formal synthesis
GCM Phase A
Validated / sealed reference runtime
GCM B1–B4
Implemented / validated slices deterministic allocation lineage
Context VM hybrid
Prototypeable architecture Context MMU sidecar
Native TCGCT–TCGQT
Experimental target not production replacement
Gamma overlay
Executable bounded prototype canonical + query overlay
ACR Phase 11
Validated reference compaction ContextCapsule
ACR Phase 12 ACD
Candidate milestone implementation not full Phase 12 closure
SPET
Executable validated research runtime stable frame / invariants
HDSRC
Executable carrier research runtime v0.10 lineage
HDSRC → MRMIC
Real-runtime read-only vertical integration validated PR #16/#17
MRMIC/NVCL
Executable visual-world runtime line Canvas / portals / presence
PHOSPHOR/HVAP
Governed actuation architecture with runtime evidence provider authority
Full PNCW E2E
Not yet integrated MVP target
22. Full E2E 還差什麼？
最終整合目標：
S → C S P M F → A P R → A C R → G C M → S P E T → H D S R C → M R M I C / N V C L → V i s i b i l i t y → A c t u a t i o n → V e r i f i c a t i o n . \boxed{
\mathfrak S
\rightarrow
CSPMF
\rightarrow
APR
\rightarrow
ACR
\rightarrow
GCM
\rightarrow
SPET
\rightarrow
HDSRC
\rightarrow
MRMIC/NVCL
\rightarrow
Visibility
\rightarrow
Actuation
\rightarrow
Verification.
} S → C S P M F → A P R → A C R → GC M → S P E T → H D S R C → M R M I C / N V C L → V i s ibi l i t y → A c t u a t i o n → V er i f i c a t i o n . 目前尚不是一個單一 repo / process / conformance suite 的完整 E2E。
23. PNCW Repo 的角色
Canonical repository：
kakon77777-commits/PNCW
PNCW 不應重寫：
HDSRC；
MRMIC；
GCM；
ACR；
PHOSPHOR。
它應擁有：
Coordination + Contracts + Lifecycle + Readiness + Visibility Semantics + Conformance . \boxed{
\text{Coordination}
+
\text{Contracts}
+
\text{Lifecycle}
+
\text{Readiness}
+
\text{Visibility Semantics}
+
\text{Conformance}.
} Coordination + Contracts + Lifecycle + Readiness + Visibility Semantics + Conformance . 因此：
PNCW Repo ≠ HDSRC Repo ≠ MRMIC Repo ≠ GCM Repo . \boxed{
\text{PNCW Repo}
\neq
\text{HDSRC Repo}
\neq
\text{MRMIC Repo}
\neq
\text{GCM Repo}.
} PNCW Repo = HDSRC Repo = MRMIC Repo = GCM Repo . 24. PNCW Runtime 最小職責
第一版 Runtime 只需要：
receive source/result references；
negotiate projection capability；
determine projection readiness；
build projection manifest；
invoke upstream adapters；
verify returned projection；
promote result authority；
perform visibility commit；
preserve lineage；
expose conformance evidence。
25. Projection Readiness Gate
核心 primitive：
P r o j e c t i o n R e a d y = S o u r c e F r e s h ∧ S c o p e B o u n d ∧ F r a m e V a l i d ∧ A u t h o r i t y V a l i d ∧ I n t e g r i t y V a l i d ∧ M a n i f e s t C o m p l e t e . \boxed{
\mathsf{ProjectionReady}
=
SourceFresh
\land
ScopeBound
\land
FrameValid
\land
AuthorityValid
\land
IntegrityValid
\land
ManifestComplete.
} ProjectionReady = S o u r ce F r es h ∧ S co p e B o u n d ∧ F r am e V a l i d ∧ A u t h or i t y V a l i d ∧ I n t e g r i t y V a l i d ∧ M ani f es tC o m pl e t e . 26. Projection Manifest
P r o j e c t i o n M a n i f e s t = ⟨ R I D , S o u r c e R e f s , S c o p e , O b s e r v e r , R e p r e s e n t a t i o n , R e s o l u t i o n , F r a m e , M a t e r i a l i z a t i o n , I n t e g r i t y , A u t h o r i t y , F a l l b a c k ⟩ . \boxed{
\mathsf{ProjectionManifest}
=
\left\langle
RID,
SourceRefs,
Scope,
Observer,
Representation,
Resolution,
Frame,
Materialization,
Integrity,
Authority,
Fallback
\right\rangle.
} ProjectionManifest = ⟨ R I D , S o u r ce R e f s , S co p e , O b ser v er , R e p r ese n t a t i o n , R eso l u t i o n , F r am e , M a t er ia l i z a t i o n , I n t e g r i t y , A u t h or i t y , F a l l ba c k ⟩ . 27. Visibility Commit
V i s i b i l i t y C o m m i t : Y v e r i f i e d → Y v i s i b l e . \boxed{
\mathsf{VisibilityCommit}
:
Y^{verified}
\rightarrow
Y^{visible}.
} VisibilityCommit : Y v er i f i e d → Y v i s ib l e . 但：
Visibility Commit ≠ Canonical World Commit . \boxed{
\text{Visibility Commit}
\neq
\text{Canonical World Commit}.
} Visibility Commit = Canonical World Commit . 28. 第一個 MVP Vertical Slice
第一個 slice 應直接利用現有 strongest executable spine：
Real HDSRC v0.10 → MRMIC/NVCL → PNCW Readiness → Visibility Commit . \boxed{
\text{Real HDSRC v0.10}
\rightarrow
\text{MRMIC/NVCL}
\rightarrow
\text{PNCW Readiness}
\rightarrow
\text{Visibility Commit}.
} Real HDSRC v0.10 → MRMIC/NVCL → PNCW Readiness → Visibility Commit . 不需要一開始就接 CSPMF/ACR/PHOSPHOR。
29. MVP Slice 0 — Contract Foundation
建立：
projection request；
source ref；
projection manifest；
readiness result；
verification result；
visibility state；
error taxonomy。
30. MVP Slice 1 — HDSRC Adapter
不重新實作 HDSRC，只接既有 read-only provider / local process bridge。
31. MVP Slice 2 — MRMIC Adapter
不重新實作 Canvas，只接既有 native_resource_portal_v1 與 observation lanes。
32. MVP Slice 3 — Projection Readiness
驗證：
source identity；
source freshness；
materialization identity；
observer lane；
integrity；
authority；
reveal contract。
33. MVP Slice 4 — Atomic Visibility
測：
R E A D Y → V E R I F I E D → V I S I B L E . \boxed{
READY
\rightarrow
VERIFIED
\rightarrow
VISIBLE.
} R E A D Y → V E R I F I E D → V I S I B L E . 34. MVP Slice 5 — Partial Materialization
在 visual world 已 logical visible 後，再讀 selected carrier region。
驗證：
L o g i c a l V i s i b l e = 1 while ρ c a r r i e r < 1. \boxed{
\mathsf{LogicalVisible}=1
\quad
\text{while}
\quad
\rho_{carrier}<1.
} LogicalVisible = 1 while ρ c a r r i er < 1. 35. MVP Slice 6 — Negative Controls
至少：
stale source；
malformed source；
tampered carrier；
rebound manifest；
unauthorized principal；
unsupported lane；
portal unavailable；
mixed version；
provider restart。
36. 後續 Integration Slices
第二階段加入：
G C M → P N C W \boxed{
GCM
\rightarrow
PNCW
} GC M → P N C W 讓 planner 選 representation / materialization / output mode。
第三階段加入：
A C R → G C M → P N C W . \boxed{
ACR
\rightarrow
GCM
\rightarrow
PNCW.
} A C R → GC M → P N C W . 第四階段加入 CSPMF / APR。
第五階段才接 PHOSPHOR/HVAP，完成：
V i s u a l P r o p o s a l → R e a d i n e s s → A u t h o r i t y → A c t u a t i o n → I n d e p e n d e n t V e r i f i c a t i o n . \boxed{
VisualProposal
\rightarrow
Readiness
\rightarrow
Authority
\rightarrow
Actuation
\rightarrow
IndependentVerification.
} V i s u a l P r o p os a l → R e a d in ess → A u t h or i t y → A c t u a t i o n → I n d e p e n d e n t V er i f i c a t i o n . 37. 為什麼 MVP 必須分 Slice？
因為：
Integration Failure ≠ Subsystem Failure . \boxed{
\text{Integration Failure}
\neq
\text{Subsystem Failure}.
} Integration Failure = Subsystem Failure . 若一次把所有系統接起來，失敗時無法知道是：
context；
planning；
carrier；
portal；
visibility；
authority；
verification；
哪一層出問題。
所以第一版 PNCW 應採 conformance-first integration 。
38. Runtime State Machine
建議 canonical lifecycle：
R E Q U E S T E D → P L A N N E D → C O N T E X T R E A D Y → F R A M E R E A D Y → C A R R I E R R E A D Y → S U R F A C E R E A D Y → V E R I F I E D → V I S I B L E . \boxed{
REQUESTED
\rightarrow
PLANNED
\rightarrow
CONTEXT_READY
\rightarrow
FRAME_READY
\rightarrow
CARRIER_READY
\rightarrow
SURFACE_READY
\rightarrow
VERIFIED
\rightarrow
VISIBLE.
} R E Q U E S T E D → P L A N N E D → C O N T E X T R E A D Y → F R A M E R E A D Y → C A R R I E R R E A D Y → S U R F A C E R E A D Y → V E R I F I E D → V I S I B L E . error states 至少：
{ S T A L E , I N T E G R I T Y F A I L U R E , U N A U T H O R I Z E D , U N S U P P O R T E D , U N A V A I L A B L E , C O N F L I C T , A B O R T E D } . \boxed{
\{
STALE,
INTEGRITY_FAILURE,
UNAUTHORIZED,
UNSUPPORTED,
UNAVAILABLE,
CONFLICT,
ABORTED
\}.
} { S T A L E , I N T E GR I T Y F A I LU R E , U N A U T H O R I Z E D , U N S U P P O R T E D , U N A V A I L A B L E , C O N F L I C T , A B O R T E D } . 真實 HDSRC bridge 已經證明 STALE 與 INTEGRITY_FAILURE 必須分開。
39. Identity Chain
PNCW 應保留：
W o r l d I D → C o n t e x t I D → F r a m e I D → C a r r i e r I D → V i s u a l W o r l d I D → R e s u l t I D . \boxed{
WorldID
\rightarrow
ContextID
\rightarrow
FrameID
\rightarrow
CarrierID
\rightarrow
VisualWorldID
\rightarrow
ResultID.
} W or l d I D → C o n t e x t I D → F r am e I D → C a r r i er I D → V i s u a l W or l d I D → R es u l t I D . 但：
Valid Identity ≠ Valid Authority . \boxed{
\text{Valid Identity}
\neq
\text{Valid Authority}.
} Valid Identity = Valid Authority . 同理：
Valid Digest ≠ Semantic Authority . \boxed{
\text{Valid Digest}
\neq
\text{Semantic Authority}.
} Valid Digest = Semantic Authority . Capability ≠ Authority . \boxed{
\text{Capability}
\neq
\text{Authority}.
} Capability = Authority . Projection ≠ Ownership Transfer . \boxed{
\text{Projection}
\neq
\text{Ownership Transfer}.
} Projection = Ownership Transfer . 40. PNCW 的最終「一口氣看到」定義
PNCW 中「一口氣看到」正式表示：
一個結構完整、版本一致、具有明確 identity、scope、authority 與 integrity 的 projected result，在單一 observer visibility boundary 上成為可尋址、可操作、可驗證的完整 artifact/world；其物理細節可以在之後按 task、viewport、resolution 與 budget 漸進 materialize。
所以：
Atomic World Availability ≠ Full Render . \boxed{
\text{Atomic World Availability}
\neq
\text{Full Render}.
} Atomic World Availability = Full Render . Logical Spacetime Availability ≠ Full Historical Residency . \boxed{
\text{Logical Spacetime Availability}
\neq
\text{Full Historical Residency}.
} Logical Spacetime Availability = Full Historical Residency . Computation Time ≠ Visibility Granularity . \boxed{
\text{Computation Time}
\neq
\text{Visibility Granularity}.
} Computation Time = Visibility Granularity . 41. PNCW 不依賴「模型第一個 token 前已想完整」
PNCW 不要求：
LLM already has the complete answer before token 1 . \boxed{
\text{LLM already has the complete answer before token 1}.
} LLM already has the complete answer before token 1 . 它可以和 autoregressive generation 共存。
真正命題是：
Sequential Computation ⇏ Sequential Visibility . \boxed{
\text{Sequential Computation}
\not\Rightarrow
\text{Sequential Visibility}.
} Sequential Computation ⇒ Sequential Visibility . 42. PNCW 不宣稱 O(1) Physical Output
對 N N N
transfer / storage / rendering cost remains nonzero . \boxed{
\text{transfer / storage / rendering cost remains nonzero}.
} transfer / storage / rendering cost remains nonzero . Atomic 的是 logical/authority transition，而不是把 physical work 宣稱為 O(1)。
43. Series 的八句操作原則
O b s e r v e c o n t i n u o u s l y , R e m e m b e r s t r u c t u r a l l y , A t t e n d s e l e c t i v e l y , R e a s o n p r o p o r t i o n a l l y , P r o j e c t a c c o r d i n g t o o b s e r v e r a n d t a s k , D e l e g a t e n a r r o w l y , A c t u n d e r a u t h o r i t y , V e r i f y i n d e p e n d e n t l y . \boxed{
\begin{aligned}
&Observe\ continuously,\\
&Remember\ structurally,\\
&Attend\ selectively,\\
&Reason\ proportionally,\\
&Project\ according\ to\ observer\ and\ task,\\
&Delegate\ narrowly,\\
&Act\ under\ authority,\\
&Verify\ independently.
\end{aligned}
} O b ser v e co n t in u o u s l y , R e m e mb er s t r u c t u r a l l y , A tt e n d se l ec t i v e l y , R e a so n p r o p or t i o na l l y , P r o j ec t a ccor d in g t o o b ser v er an d t a s k , D e l e g a t e na r r o w l y , A c t u n d er a u t h or i t y , V er i f y in d e p e n d e n tl y . 44. Final Synthesis Proposition
整個 PNCW Series 可濃縮為：
A computational world may remain globally coherent, multi-temporal, causal, persistent and externally authoritative, while only a finite task-relative cognitive domain is active, only selected structures are materialized into stable carriers, only observer-relative surfaces are revealed, and any return action remains proposal-bound, authority-bounded, and independently verified against the world after actuation. \boxed{
\begin{aligned}
&\text{A computational world may remain globally coherent,}\\
&\text{multi-temporal, causal, persistent and externally authoritative,}\\
&\text{while only a finite task-relative cognitive domain is active,}\\
&\text{only selected structures are materialized into stable carriers,}\\
&\text{only observer-relative surfaces are revealed,}\\
&\text{and any return action remains proposal-bound, authority-bounded,}\\
&\text{and independently verified against the world after actuation.}
\end{aligned}
} A computational world may remain globally coherent, multi-temporal, causal, persistent and externally authoritative, while only a finite task-relative cognitive domain is active, only selected structures are materialized into stable carriers, only observer-relative surfaces are revealed, and any return action remains proposal-bound, authority-bounded, and independently verified against the world after actuation. 45. Series Claim Boundary
PNCW Series 不宣稱：
所有 AI 都應取消 streaming；
Transformer / autoregressive generation 已被替代；
PNCW 已是 production-ready general runtime；
HDSRC carrier 可普遍取代所有 canonical representations；
MRMIC Canvas 已是 universal desktop/game/media runtime；
Context VM / TCGCT–TCGQT 已是 native production architecture；
GCM 已解決所有 global optimization；
closed-loop AI 可因此取得 unrestricted authority；
Atomic Reveal 等於 instantaneous physical output。
46. Current Engineering Claim — 2026-08-28
目前正確聲明：
PNCW theory series: Paper 00–08 complete ; canonical repo: created ; HDSRC→MRMIC read-only real-runtime segment: validated ; full PNCW reference runtime: not yet implemented ; next artifact: Runtime Technical Whitepaper v0.1 ; next engineering phase: PNCW Reference MVP . \boxed{
\begin{aligned}
&\text{PNCW theory series: Paper 00–08 complete};\\
&\text{canonical repo: created};\\
&\text{HDSRC→MRMIC read-only real-runtime segment: validated};\\
&\text{full PNCW reference runtime: not yet implemented};\\
&\text{next artifact: Runtime Technical Whitepaper v0.1};\\
&\text{next engineering phase: PNCW Reference MVP}.
\end{aligned}
} PNCW theory series: Paper 00–08 complete ; canonical repo: created ; HDSRC→MRMIC read-only real-runtime segment: validated ; full PNCW reference runtime: not yet implemented ; next artifact: Runtime Technical Whitepaper v0.1 ; next engineering phase: PNCW Reference MVP . 47. Canonical Repo Initial Shape
建議：
PNCW/
├─ README.md
├─ docs/
│ ├─ papers/
│ ├─ synthesis/
│ ├─ whitepaper/
│ ├─ architecture/
│ └─ evidence/
├─ contracts/
│ ├─ projection-request/
│ ├─ projection-manifest/
│ ├─ readiness/
│ ├─ visibility/
│ └─ errors/
├─ packages/
│ ├─ core/
│ ├─ readiness/
│ ├─ visibility-commit/
│ ├─ conformance/
│ └─ adapters/
├─ adapters/
│ ├─ hdsrc/
│ ├─ mrmic/
│ ├─ gcm/
│ ├─ acr/
│ └─ phosphor/
├─ examples/
│ └─ vertical-slice/
└─ tests/
PNCW repo owns：
PNCW contracts；
lifecycle；
visibility semantics；
adapter contracts；
conformance。
它不擁有：
HDSRC canonical state；
MRMIC Canvas canonical state；
GCM semantics；
ACR memory truth；
PHOSPHOR provider authority。
48. 下一份文件：PNCW Runtime Technical Whitepaper v0.1
Technical Whitepaper 不再重複九篇理論，而要直接定義：
module boundaries；
package layout；
protocol schemas；
lifecycle state machines；
readiness contracts；
source/provider adapters；
visibility commit；
error taxonomy；
capability/authority model；
provenance / identity chain；
conformance profiles；
negative controls；
MVP vertical slices；
benchmark harness；
integration evidence matrix。
最重要的是它必須同時寫兩句：
HDSRC→MRMIC/NVCL = implemented and validated real-runtime read-only segment . \boxed{
\text{HDSRC→MRMIC/NVCL}
=
\text{implemented and validated real-runtime read-only segment}.
} HDSRC→MRMIC/NVCL = implemented and validated real-runtime read-only segment . 以及：
Full PNCW E2E = integration target . \boxed{
\text{Full PNCW E2E}
=
\text{integration target}.
} Full PNCW E2E = integration target . 兩句缺一不可。
49. 結論
PNCW Series 從「為什麼 AI 必須逐 token 輸出」這個問題出發，最後建立的不是一個新的聊天 UI，而是一套跨越 software spacetime、perception、memory、attention、cognition、global planning、stable projection、machine-native carrier、visual world、visibility commit、governed actuation 與 independent verification 的 runtime architecture family。
它最核心的原則仍然是：
Do not confuse how a world exists, how it computes, how it is represented, how it is observed, and how it is presented. \boxed{
\text{Do not confuse how a world exists,
how it computes,
how it is represented,
how it is observed,
and how it is presented.}
} Do not confuse how a world exists, how it computes, how it is represented, how it is observed, and how it is presented. Sequence 因此回到：
one projection among many . \boxed{
\text{one projection among many}.
} one projection among many . 而「一口氣看到」也不再是 UI 技巧，而是：
a visibility and authority transition over a structured result . \boxed{
\text{a visibility and authority transition over a structured result}.
} a visibility and authority transition over a structured result . Paper 07 使這個 structured result 不只是一張 state slice，而可以是一個 causal-temporal spacetime projection。
Paper 08 使 projection 不只停在觀看，而完成：
O b s e r v e → U n d e r s t a n d → P r o j e c t → P r o p o s e → A u t h o r i z e → A c t → V e r i f y . \boxed{
Observe
\rightarrow
Understand
\rightarrow
Project
\rightarrow
Propose
\rightarrow
Authorize
\rightarrow
Act
\rightarrow
Verify.
} O b ser v e → U n d er s t an d → P r o j ec t → P r o p ose → A u t h or i z e → A c t → V er i f y . 現在又已有一條真實跨系統 executable spine：
Real HDSRC v0.10 Carrier → MRMIC/NVCL Resource Portal . \boxed{
\text{Real HDSRC v0.10 Carrier}
\rightarrow
\text{MRMIC/NVCL Resource Portal}.
} Real HDSRC v0.10 Carrier → MRMIC/NVCL Resource Portal . 因此 PNCW 現在最合理的下一步不是再增加母理論，而是：
Freeze the synthesis → write the Runtime Technical Whitepaper → implement the Reference MVP . \boxed{
\text{Freeze the synthesis}
\rightarrow
\text{write the Runtime Technical Whitepaper}
\rightarrow
\text{implement the Reference MVP}.
} Freeze the synthesis → write the Runtime Technical Whitepaper → implement the Reference MVP . Canonical Series Index
Paper 00 — Projection-Native Computational Worlds
Paper 01 — Computation Completion Is Not Progressive Visibility
Paper 02 — Virtual Context Projection
Paper 03 — Stable High-Dimensional Projection Carriers
Paper 04 — Images Are Not Merely Pictures
Paper 05 — Compute Globally, Materialize Selectively
Paper 06 — Non-Sequential AI Output Architecture
Paper 07 — Projection-Native Software Spacetime
Paper 08 — Projection-Native Perception–Action Loop
Engineering Evidence Amendment — MRMIC/NVCL Phase 14
PR #16
Phase 14: add read-only HDSRC materialization integration
Engineering significance:
Contract-level HDSRC→MRMIC read-only integration established . \boxed{
\text{Contract-level HDSRC→MRMIC read-only integration established}.
} Contract-level HDSRC→MRMIC read-only integration established . PR #17
Phase 14: bridge real HDSRC v0.10 over local process
Engineering significance:
Real-runtime HDSRC→MRMIC read-only vertical segment validated . \boxed{
\text{Real-runtime HDSRC→MRMIC read-only vertical segment validated}.
} Real-runtime HDSRC→MRMIC read-only vertical segment validated . Upstream PR evidence records:
216 tests；
215 pass；
0 fail；
1 existing skip；
real HDSRC v0.10 source；
no test stub runtime in real validator；
4096D HMBT1 carrier 286,313 bytes；
partial compressed relation read 1,272 bytes；
restart persistence；
stale valid state → STALE_STATE；
malformed/tampered carrier → INTEGRITY_FAILURE；
full metadata/digest rebinding attack → structural fail-closed；
canonical mutation false。
This evidence upgrades one segment of the PNCW architecture without upgrading the entire PNCW chain to integrated status.