Memory answers
What information from the past can be brought back into the current context?
Architecture / NSP
Follow the structures, gates and evidence paths that keep long-horizon work open to verification and correction.
Memory / boundary
A system can retrieve the right context and still misunderstand the task, trust an unchecked assumption or act without a defensible evidence path.
What information from the past can be brought back into the current context?
What does the system currently understand, how certain is it, what must be verified and what should change after the outcome?
Design principles
NSP operates around a model through state, policies and runtime integration; it does not require changing model weights.
Understanding, assumptions and confidence become inspectable before an action with material effects.
Claims and decisions retain source, scope, status and limitations instead of collapsing into an unqualified conclusion.
Outcomes update future state, while provenance keeps accumulated understanding open to challenge and revision.
Pre-action understanding gate
A gate can leave read-only investigation open while requiring structured understanding before configured consequential operations.
Boundary: Which operations are consequential is a runtime policy decision. Completing a form is not proof that the interpretation is correct.
Persistent structured state
The durable state keeps selected cognitive units addressable so later work can inspect what changed and why.
View 01 / functional architecture
This view asks where durable structure, cognitive dynamics, domain translation and outward expression belong. It is the current organizational frame used by Paper III.
Domain-agnostic entities, relations, constraints, evidence and provenance.
Boundary: Stores structure; it does not decide domain meaning.
Belief, attention, plasticity, trace activation and intervention dynamics over that structure.
Boundary: Shapes state change; it does not encode raw domain signals.
Maps domain observations into cognitive primitives the shared engine can consume.
Boundary: This is the explicit domain-specific boundary.
Selects and presents relevant state at the model and audience boundary.
Boundary: Controls expression; it does not make stored claims true.
View 02 / cognitive mechanisms
This view groups the mechanisms by the cognitive function they serve rather than by software package or deployment layer.
Represent what is known, experienced, believed and ruled out.
Use limited context where accumulated state suggests it matters most.
Detect failure conditions and introduce a targeted corrective move.
Boundary: This mechanism view is most fully described for longitudinal research. Individual runtimes may implement only a documented subset or a different integration depth.
View 03 / deployment architecture
The deployment view asks which responsibilities stay shared and which are specialized when NSP is connected to a concrete system.
Provide domain-agnostic state types, lifecycle handling and shared cognitive operations.
No domain vocabulary and no environment-specific tool wiring.
Define the field vocabulary, relations, extraction rules, injection rules and feature selection.
No direct control of the host environment.
Connect events, tools and storage in a particular operating environment.
Runtime presence does not imply equal mechanism coverage or maturity.
Boundary: The arrows show dependency, not a claim that every runtime implements every cognitive mechanism or uses identical verification.
Producer–auditor–verifier pattern
For high-consequence work, NSP can preserve independent roles so a candidate does not become accepted state merely because it was produced fluently.
Creates a candidate result and records its assumptions and supporting path.
Challenges the candidate from an independent frame and searches for drift or missing conditions.
Applies the available truth condition: deterministic check, formal rule, external evidence or explicit human judgment.
The verdict, evidence and unresolved limitations become persistent state for the next cycle.
Independence and verifier coverage must be real. Naming three roles does not by itself prevent correlated error.
Relationship to adjacent systems
Memory, retrieval and orchestration remain useful. NSP addresses a different question at the point where state becomes consequential action.
Known limitations
These boundaries are part of the design record, not fine print.
Protocol complexity must match the model and task. More scaffolding can make a poorly matched system worse.
A stated confidence value is useful state, not proof of calibration or correctness.
A gate is only as strong as its tests, evidence sources, policies and independent review.
Stored interpretations may become stale or wrong; provenance and correction paths are required.
Mechanism coverage, evidence regime and maturity differ by runtime and domain.
What NSP is not
NSP is external scaffolding around model work, not a trained model.
It can coexist with retrieval systems but is not a drop-in embedding store.
Formal checks, tests and external evidence remain authoritative where available.
Self-reported confidence must still be tested against outcomes.
Benefits are not assumed identical across models, tasks, domains or integration depths.
Architecture FAQ
No. Memory supplies retained context; NSP adds explicit interpretation, assumptions, verification and state updates around its use.
No. A runtime defines which operations are consequential. Read-only investigation can remain open while writes or external actions require a completed state.
No. They describe responsibility, cognitive function and deployment integration at different observation scales.
No. Public descriptions should state the subset, integration depth, evidence and maturity for each runtime.
Research links
Paper I frames deployment and pre-action gating; Paper II organizes longitudinal cognitive mechanisms; Paper III presents the current four-layer functional view. Paper I and II are verified public preprints; Paper III remains a working paper.
Deployment layers, understanding gates and action reliability.
State representation, attention allocation and self-regulation.
Functional separation, encoding boundaries and cross-domain architecture.