Distributed Cognitive Network
Volume IV
Actum Verifiable Cognition Profile 0.1
Part 3A
ExecutionAct and EvaluationAct
80. Purpose
This section defines the two foundational Acts from which all higher cognitive history is derived.
Every PromotionAct, CompilationAct, PublicationAct, and SettlementAct ultimately depends on:
ExecutionAct
EvaluationAct
Execution establishes:
something happened.
Evaluation establishes:
someone measured what happened.
Everything else builds upon those two facts.
81. ExecutionAct
Definition
An ExecutionAct records a single completed realization of a requested cognitive capability together with the authority under which it executed, the evidence supporting it, the resulting state transition, and the commitments necessary for replay-resistant historical reconstruction.
An ExecutionAct does not claim:
- that the answer is objectively correct;
- that the execution should be trusted;
- that the result should become System 1.
It records only:
- the requested capability;
- the execution;
- supporting evidence;
- resulting commitments;
- authority;
- provenance.
82. ExecutionAct Semantics
Conceptually:
Prior State
│
│
Capability Requirement
│
▼
Execution
│
Evidence
│
Authority
│
▼
Proposed State Transition
This is the canonical VSTP specialization.
83. ExecutionAct Lifecycle
An ExecutionAct SHALL progress through:
created
↓
executing
↓
completed
↓
evidence_attached
↓
verified
↓
finalized
Possible terminal failure states:
aborted
expired
invalid_evidence
rejected
superseded
84. Canonical ExecutionAct Schema
{
"schema": "actum.execution.v1",
"version": "1.0.0",
"act_id": "act:execution:...",
"subject": {
"type": "CapabilityExecution",
"id": "execution:..."
},
"intent": {
"capability_requirement": "...",
"objective_commitment": "sha256:..."
},
"authority": {},
"prior_state": {
"commitment": "sha256:..."
},
"result_state": {
"commitment": "sha256:..."
},
"transition_patch": {
"commitment": "sha256:..."
},
"execution": {
"mode": "remote",
"execution_class": "...",
"bindings": []
},
"evidence_graph": {},
"assurance": {},
"nullifier": "...",
"issuer": "...",
"created_at": "...",
"content_hash": "...",
"semantic_hash": "..."
}
85. Prior State
Execution SHALL reference the state that existed before execution.
The state MAY include:
SurrealDB world state
repository state
conversation state
medical state
workflow state
graph state
The state itself SHOULD remain external.
ExecutionAct stores only the commitment.
86. Result State
Likewise:
result_state_commitment
represents the post-execution world.
This permits deterministic auditing without exposing private state.
87. Transition Patch
The semantic difference between states SHOULD be represented separately.
Conceptually:
Before
↓
Patch
↓
After
Patch commitment enables:
- replay
- audit
- verification
- synchronization
88. Capability Binding
Execution SHALL record the concrete realization of abstract capabilities.
Example:
CapabilityRequirement
↓
ExpertBinding
↓
Execution
Example bindings:
reasoning
↓
Verified GPT flagship
critic
↓
local artifact
retrieval
↓
organization search service
These belong to the episode, not the template.
89. Evidence Graph
Execution SHALL reference an EvidenceGraph rather than embedding proof material.
Possible nodes:
TLSNotary
TEE
Evaluation
Human signature
Runtime receipt
ZeroK proof
Benchmark
Certificate
Execution merely references those nodes.
90. Assurance Vector
Execution SHALL expose:
provider
model
authority
execution
request binding
response binding
artifact binding
freshness
privacy
finality
Each dimension SHALL remain independent.
91. Provider Identity
Where provider identity matters commercially,
ExecutionAct SHOULD distinguish:
claimed
verified
cryptographically verified
These are not equivalent.
92. Model Identity
Likewise:
claimed
authenticated
cryptographically evidenced
Execution SHALL avoid implying stronger guarantees than evidence supports.
93. Authority
Authority SHALL reference:
principal
delegation
scope
policy
expiry
Execution without authority is still historically meaningful.
It simply should not authorize side effects.
94. Side Effects
ExecutionAct SHOULD normally represent:
proposal
rather than:
mutation
The mutation occurs only after separate authorization.
95. Execution Modes
Version 1 recognizes:
local
remote
human
hybrid
artifact
Future versions may extend.
96. Hybrid Execution
An execution MAY involve multiple experts.
Example:
Local artifact
↓
Remote reasoning
↓
Human approval
↓
Local synthesis
ExecutionAct records the whole graph.
97. Nested Executions
Execution MAY invoke further executions.
Nested executions SHALL be separate Acts.
The parent references children.
Children reference parent.
98. Failure
Failure is first-class.
Execution SHALL record:
timeout
validation failure
provider unavailable
evidence failure
authority denied
execution rejected
Failures become valuable historical data.
99. Execution Replay
Execution SHALL be replay-resistant.
Execution Nullifier:
Conceptually:
Execution Challenge
+
Evidence Commitment
+
Assignment
+
Execution Result
Changing any element changes the nullifier.
100. Execution Finality
Finality means:
this execution became part of immutable Actum history.
It does NOT imply:
truth.
101. EvaluationAct
Definition
EvaluationAct records an assessment of:
- execution;
- artifact;
- expert;
- template;
- K-line;
- benchmark;
- compilation.
Evaluation never modifies the evaluated object.
It creates additional evidence.
102. Evaluation Philosophy
Execution answers:
What happened?
Evaluation answers:
How well did it satisfy a defined protocol?
103. Evaluation Subject
Evaluation SHALL reference exactly one subject.
Examples:
ExecutionAct
Artifact
Template
Expert
Compilation
Composite evaluations are represented by multiple EvaluationActs.
104. Canonical Evaluation Schema
{
"schema":"actum.evaluation.v1",
"act_id":"...",
"subject":{
"type":"ExecutionAct",
"id":"..."
},
"protocol":{
"id":"evaluation:..."
},
"environment":{},
"distribution":{},
"metrics":{},
"evidence_graph":{},
"assurance":{},
"authority":{},
"issuer":"...",
"created_at":"..."
}
105. Evaluation Protocol
Every evaluation SHALL reference:
Protocol
Version
Environment
Distribution
Without protocol,
evaluation is meaningless.
106. Metrics
Metrics SHOULD remain structured.
Example:
accuracy
precision
recall
latency
energy
cost
calibration
robustness
Avoid free-text scores.
107. Environment
Evaluation SHALL define:
hardware
runtime
software
configuration
dependencies
Environment drift is one reason K-lines decay.
108. Distribution
Evaluations SHALL define:
dataset commitment
sampling
coverage
population
This avoids meaningless universal quality claims.
109. Evaluation Evidence
Evaluation MAY itself possess evidence.
Examples:
benchmark
human review
TLS proof
TEE
ZeroK
external certification
Evaluation therefore participates in the EvidenceGraph.
110. Independent Evaluations
Several EvaluationActs MAY exist for the same subject.
This is expected.
Example:
Hospital A
↓
Evaluation
Hospital B
↓
Evaluation
University C
↓
Evaluation
Promotion policies decide how many independent evaluations are required.
111. Evaluation Finality
Finality means:
the evaluation happened.
Not:
the evaluation is universally correct.
112. Execution → Evaluation
Execution produces:
ExecutionAct
Evaluation produces:
EvaluationAct
The graph:
Execution
↓
Evaluation A
↓
Evaluation B
↓
Evaluation C
is the foundation for promotion.
113. Act Relationships
Execution SHALL support:
SUPPORTED_BY
GENERATED
Evaluation SHALL support:
EVALUATES
SUPPORTED_BY
Later Acts will extend these.
114. Promotion Preconditions
Promotion SHALL NOT reference raw executions directly.
It references:
EvaluationActs
This separates:
execution
from
judgement.
115. Why Separate Evaluation?
Without separation,
future evaluation protocols cannot reinterpret history.
With separate EvaluationActs,
new methodologies can revisit old executions.
That is essential for scientific progress.
116. Strategic Importance
ExecutionActs create the immutable historical record of cognition.
EvaluationActs create the immutable historical record of how that cognition was measured.
Those two layers together form the empirical foundation upon which every future K-line, compilation, artifact, promotion, economic reward, and piece of cognitive capital is built.
Everything else in the architecture is downstream of these two canonical Acts.