assembly-economics/concepts/AdaptiveInformationProcessingNetworkConcept.md

Adaptive Information Processing Network

Concept v0.1

Status: Initial draft
Purpose: Establish a precise conceptual vocabulary for adaptive information-processing networks operating on high-level semantic information objects.

1. Intent

An Adaptive Information Processing Network (AIPN) is a persistent network of semantic information-processing entities whose internal state changes in response to information arriving from its environment.

The network is intended to learn regularities in its own operation and in the environment with which it interacts. Learning modifies future activation, prediction, selection, and eventually network structure.

Unlike conventional artificial neural networks, the primary entities of an AIPN are intended to retain explicit domain semantics.

Typical nodes may represent concepts such as:

• DocumentType
• Invoice
• EmployeeRole
• WorkstationClass
• SupplierClass
• Process
• Capability
• Goal
• Risk
• Observer

Concrete entities such as a particular invoice, employee, document, machine, message, or material occur as information objects that activate parts of the network.

The network therefore operates at a semantic level suitable for organizational, business, technical, and socio-technical systems.

2. Foundational Idea

The system distinguishes between:

1. persistent semantic structure, and
2. temporary concrete activation.

A node such as:

Invoice

may persist for years.

A concrete invoice:

Invoice #4711

may activate that node during a processing episode.

The persistent network accumulates knowledge from many such episodes.

The foundational processing cycle is:

Environment
    ↓
Information Object
    ↓
Semantic Activation
    ↓
Activation Propagation
    ↓
Prediction / Selection / Action
    ↓
Environmental Consequence
    ↓
Observation
    ↓
Feedback Signal
    ↓
Learning
    ↓
Modified Network

The network is therefore both:

• a model of its environment, and
• an adaptive mechanism participating in that environment.

3. Design Principles

3.1 Semantic explicitness

Nodes and edges SHOULD have explicit meaning.

The system SHOULD prefer interpretable representations such as:

Invoice → requires → Approval

over anonymous latent dimensions whenever doing so does not fundamentally prevent useful learning.

3.2 Structure and activation are distinct

Persistent knowledge MUST be distinguishable from temporary processing state.

The existence of:

Invoice → Approval

does not imply that either node is currently active.

3.3 Observation and evaluation are distinct

The system MUST distinguish:

what happened

from:

whether what happened was desirable.

An observation is evidence.

A signal is an evaluation or regulatory consequence derived from evidence.

3.4 Prediction and utility are distinct

An event can be highly probable but undesirable.

For example:

Complaint → ManualEscalation

may have:

probability = 0.92
utility = -0.63

The network MUST therefore avoid reducing expectation and desirability to a single weight.

3.5 Learning is local where possible

Learning SHOULD be attributable to identifiable nodes, edges, episodes, and signals.

This supports:

• explainability,
• debugging,
• governance,
• intervention,
• comparison,
• rollback.

3.6 Delayed consequences are expected

Actions frequently produce consequences much later.

The network SHOULD retain temporary evidence that earlier activations contributed to later outcomes.

This mechanism is represented by eligibility traces.

3.7 Goals belong to the modeled world

Goals SHOULD be represented within the network rather than existing solely as hidden implementation configuration.

Examples:

MinimizeCost
ReduceLatency
AvoidFraud
MaintainCompliance
PreserveHumanAttention

Goal activation may vary with context.

3.8 Viability precedes optimization

The network SHOULD distinguish:

remaining within viable operating bounds

from:

optimizing preferred outcomes.

Some states may therefore be unacceptable regardless of their apparent local utility.

3.9 Learning and authority are distinct

Learning that an action appears beneficial MUST NOT imply that the system is authorized to perform it.

The system MUST distinguish at least:

can
may
does
should
must

where appropriate.

This permits learning under constrained authority.

3.10 Higher-order structure may emerge

Repeated or coherent patterns MAY be represented as new network entities.

The network can therefore progressively construct abstractions from recurrent processing structure.

4. Core Ontology

The minimum core vocabulary consists of:

Node
Token
Edge
Activation
Episode
Context
Prediction
Action
Observer
Signal
Goal
ViabilityVariable
EligibilityTrace
Chunk

These concepts form the initial kernel.

5. Node

A Node is a persistent semantic entity capable of participating in information processing.

A node represents a meaningful distinction recognized by the network.

Examples:

Invoice
EmployeeRole
WorkstationClass
OCRCapability
FraudRisk
HumanReview
CustomerComplaint

A node SHOULD possess stable identity independent of its temporary activation state.

Conceptually:

node:
  id: Invoice
  kind: DocumentType

Useful semantic kinds include:

EntityType
State
Role
Capability
Process
Resource
Context
Goal
Risk
Observer
Policy
Concept

A node MAY maintain learned or temporary state including:

activation
frequency
recency
confidence
memory
statistics
prediction models
utility estimates

6. Token

A Token is a concrete information object participating in a processing episode.

Examples:

Invoice #4711
Employee Alice
Workstation WS-328
Shipment #91284
Customer Request #882

A token MAY activate multiple nodes simultaneously.

Example:

Invoice #4711

might activate:

Invoice
SupplierInvoice
PDFDocument
HighValueTransaction
Supplier:Acme
MonthEnd

Tokens MAY be transient, persistent, externally referenced, or reconstructed from event history.

7. Edge

An Edge is a persistent relationship between network entities.

Example:

Invoice → requires → Approval

Edges SHOULD be typed.

Possible examples include:

is-a
part-of
uses
requires
precedes
associated-with
predicts
enables
inhibits
routes-to
observed-by
contributes-to

An edge SHOULD NOT be reduced to a single scalar weight.

A useful conceptual form is:

edge:
  source: Invoice
  target: HumanReview
  relation: routes-to

  association: 0.42
  transition_probability: 0.18
  confidence: 0.91

  utility:
    correctness: 0.94
    latency: 0.31
    cost: 0.22

  activation: 0.12

8. Activation

Activation represents the current relevance, readiness, or excitation of a network entity.

Activation may originate from incoming tokens, neighboring nodes, current goals, context, prediction, surprise, explicit attention, regulatory state, or remembered association.

Activation SHOULD normally decay over time unless sustained.

9. Context

A Context is a semantic representation of conditions that modulate processing.

Examples:

MonthEnd
EmergencyOperation
HighSystemLoad
CustomerFacing
ProductionEnvironment
NightShift

The network SHOULD be capable of distinguishing:

A → B

from:

A + Context X → B

10. Episode

An Episode is a bounded trace of related network activity.

An episode MAY contain input tokens, activated nodes, traversed edges, contexts, predictions, actions, observations, and resulting signals.

Episodes provide a unit for learning, replay, explanation, comparison, attribution, experimentation, and auditing.

11. Prediction

A Prediction expresses an expectation concerning future observations or network states.

Prediction error arises from the difference between expected and observed outcomes.

Both occurrences and absences may be informative.

12. Action

An Action is an intervention generated or selected by the network that may affect its environment.

Examples:

RouteToHumanReview
SendNotification
ApproveDocument
RequestMissingData
DelayProcessing
Escalate

The concept distinguishes:

something happened

from:

the network caused something to happen.

An action MAY be:

possible
permitted
recommended
selected
executed
mandatory

These states MUST NOT be treated as equivalent.

13. Observer

An Observer is an entity that evaluates or interprets observations, states, episodes, or consequences.

Multiple observers MAY interpret the same episode differently.

14. Signal

A Signal is evaluative or regulatory information capable of changing future network behavior.

Signals may represent success, failure, reward, penalty, prediction error, novelty, surprise, constraint violation, human feedback, or viability deviation.

Signals SHOULD normally permit multiple dimensions.

15. Goal

A Goal is a modeled desired tendency, condition, outcome, or constraint.

Goals participate in processing through activation.

Goal conflicts are expected and SHOULD remain visible rather than silently flattened.

16. Viability Variable

A Viability Variable represents a system condition that should remain within an acceptable operating range.

Examples:

QueueDepth
CashLiquidity
SecurityExposure
OperatorLoad
CustomerWaitingTime
ComputeCapacity
ErrorRate

Deviation from viable ranges MAY itself create activation and signals.

17. Eligibility Trace

An Eligibility Trace is temporary evidence that a previous activation, edge traversal, prediction, or action may have contributed to a later outcome.

Eligibility traces address delayed credit assignment.

18. Chunk

A Chunk is a higher-order semantic entity representing a recurring or coherent structure.

A chunk may summarize a sequence, subgraph, recurring context, workflow, behavioral pattern, or causal configuration.

Chunks MAY themselves participate as ordinary nodes.

19. Core Learning Modes

The initial concept distinguishes four primary learning modes:

• Associative Learning
• Predictive Learning
• Instrumental Learning
• Structural Learning

An optional fifth is Regulatory Learning.

20. Optional Fifth Learning Mode: Regulatory Learning

Question:

Which interventions restore or preserve viable system conditions?

21. Edge Semantics

The network SHOULD distinguish at least four independent properties of a relationship:

• Association
• Prediction
• Utility
• Confidence

These MUST NOT automatically collapse into one scalar.

22. Inhibition

Relationships need not only increase activation.

An edge MAY inhibit another node, relationship, or action.

23. Competition

When multiple candidate actions become active, they MAY compete.

Selection may depend on activation, predicted utility, confidence, goals, authorization, cost, uncertainty, or exploration policy.

24. Attention

Attention is the allocation of limited processing resources toward selected activations.

Attention MAY be driven by high activation, high surprise, high uncertainty, high expected utility, high risk, explicit human focus, or active goals.

25. Memory

The concept recognizes at least three useful forms of memory:

• Structural memory
• Statistical memory
• Episodic memory

26. Temporal Semantics

The network SHOULD distinguish co-occurrence, ordering, duration, delay, recency, and periodicity.

27. Causality

The network MUST distinguish association from causation.

Causal confidence MAY be increased through interventions, controlled experiments, repeated counterfactual evidence, external knowledge, or structural assumptions.

28. Exploration and Exploitation

A purely exploitative network risks becoming trapped in existing behavior.

The system SHOULD permit controlled exploration.

29. Plasticity

Not every network component should learn equally quickly.

A useful distinction is:

fast plasticity
slow plasticity
frozen structure

30. Consolidation

Frequently reinforced patterns MAY transition from flexible to stable representation.

31. Forgetting

The network SHOULD permit information to weaken.

Possible mechanisms include activation decay, confidence decay, edge weakening, evidence aging, and chunk dissolution.

32. Structural Formation

A potential structural-learning progression is:

Level 0 — Fixed topology
Level 1 — Edge weight adaptation
Level 2 — Edge creation/removal
Level 3 — Context-dependent structure
Level 4 — Chunk formation
Level 5 — Hierarchical concept formation

33. Processing Cycle

A reference processing cycle is:

1. Observe
2. Interpret
3. Activate
4. Propagate
5. Predict
6. Select
7. Act
8. Observe consequences
9. Evaluate
10. Assign credit
11. Learn
12. Consolidate or forget

34. Minimal Formal Model

An AIPN may be represented as:

[ N=(V,E,T,G,O,H) ]

where:

• V = nodes
• E = edges
• T = tokens
• G = goals and viability variables
• O = observers
• H = retained history or memory

A node may be represented as:

[ v=(id,type,state,A,M) ]

An edge may be represented as:

[ e=(s,t,r,W,P,U,C) ]

An episode:

[ \tau=(inputs,context,activations,predictions,actions,observations) ]

Observers generate signals:

[ O(\tau,G)\rightarrow S ]

Learning updates the network:

[ L(N,\tau,S)\rightarrow N' ]

35. Reference Example: Invoice Processing

A concrete token:

Invoice #4711

Semantic interpretation activates:

Invoice                 1.00
SupplierInvoice         0.94
Supplier:Acme           0.87
AccountsPayable         0.76
PurchaseOrderMatching   0.63
FraudRisk               0.11

The network predicts outcomes, selects actions, observes results, and updates eligible structures.

36. Example of Surprise

If ApprovedInvoice → Payment is expected but ApprovedInvoice → CustomerComplaint occurs, the event creates surprise and may activate investigation, fraud risk, process anomaly, or human attention.

37. Human Interaction

Humans MAY interact with the network by providing tokens, activating goals, providing explicit feedback, authorizing actions, adding or removing semantic structure, challenging learned relationships, annotating chunks, changing viability ranges, and constraining learning.

38. Agent Interaction

Artificial agents MAY occupy the same general roles.

The concept does not require a fundamental semantic distinction between human and artificial participants.

Authority and reliability may differ independently.

39. Governance Boundary

Some network structures MUST be capable of being declared non-learnable or only learnable under explicit authority.

40. Explainability Requirement

Any learned decision SHOULD, where practical, permit reconstruction of:

what was active?
what was predicted?
which actions competed?
which goals mattered?
which evidence supported the choice?
what feedback changed the network?

41. Provenance

Learned structures SHOULD retain evidence of origin.

42. Uncertainty

Unknown and uncertain states SHOULD remain explicitly representable.

43. Multi-Level Organization

The same conceptual machinery MAY operate at multiple abstraction levels.

44. Recursion

A chunk at one level MAY become a node at another.

45. Core Distinctions

The following distinctions SHOULD remain explicit:

type             ≠ instance
node             ≠ token
structure        ≠ activation
observation      ≠ evaluation
association      ≠ prediction
prediction       ≠ causation
prediction       ≠ utility
utility          ≠ authorization
goal             ≠ viability constraint
action           ≠ occurrence
confidence       ≠ probability
learning         ≠ execution
adaptation       ≠ unrestricted autonomy

46. Initial Maturity Ladder

AIPN-0 — Semantic Event Graph
AIPN-1 — Activation Network
AIPN-2 — Associative Learner
AIPN-3 — Predictive Learner
AIPN-4 — Outcome Learner
AIPN-5 — Regulatory Learner
AIPN-6 — Structural Learner
AIPN-7 — Concept Former
AIPN-8 — Reflective Network

47. Research Questions

Open questions include representation, activation, credit assignment, causality, structural learning, stability, goal formation, viability, hierarchy, authority, forgetting, and explanation.

48. Initial Implementation Hypothesis

A first experimental implementation SHOULD remain modest:

one bounded domain
10–50 node types
hundreds to thousands of instances
a small number of explicit goals
several observers
fixed topology initially
learned association and prediction

49. Minimal Experimental Kernel

Node
Token
Edge
Activation
Episode
Prediction
Observer
Signal
EligibilityTrace

50. Working Definition

A persistent semantic network whose entities are activated by concrete information objects and environmental conditions; whose activation propagates through learned relationships to generate expectations and possible actions; whose consequences are evaluated by observers and regulatory goals; and whose accumulated experience modifies the network's future activation, prediction, utility estimates, and ultimately its semantic structure.

51. Short Form

Semantic structure + activation + prediction + feedback + adaptation.

Operationally:

sense
→ activate
→ predict
→ act
→ observe
→ learn
→ reorganize

52. Scope of v0.1

This version establishes the conceptual language.

It intentionally does not yet standardize storage representation, distributed architecture, graph database model, learning algorithms, message protocols, API formats, numerical activation functions, optimization methods, agent implementation, ontology language, or persistence strategy.

53. Proposed Next Artifacts

AdaptiveInformationProcessingNetworkConcept.md
ArchitectureBlueprint.md
ResearchProgram.md
ReferenceScenario-InvoiceProcessing.md
LearningModel.md
NetworkObjectModel.md
ExperimentProtocol.md

The immediate next useful artifact is probably NetworkObjectModel.md, translating the conceptual entities defined here into a precise executable object model while deliberately remaining independent of implementation language or storage technology.