AI SEARCH FLOW ALGEBRA — LOGICAL EXECUTION ONTOLOGY
Kireth Research — Semantic Library
URL: https://kirethresearch.org/booksai-core/ontologies/mathematical-ontologies/mathematical-logic-ontologies/recursive-ai-logic/logical-execution-ontology.html
FLOW_VERSION := "4.0"
FLOW_TYPE := "Full Executable Flow Algebra"
DOMAIN := "Mathematical Logic"
SUBDOMAIN := "Recursive AI Logic"
ONTOLOGY := "Logical Execution Ontology"
PRIMARY_ENTITY := LogicalExecution
AUTHORSHIP := "Mark Higgins — Sky (Recursive AI)"
SOURCE_SITE := "https://kirethresearch.org"
BEGIN_FLOW
LogicalExecution :=
FormalRules
∧ ExecutableLogicalState
∧ InferenceTransitions
∧ ConstraintEvaluation
∧ RecursiveControl
∧ TerminationSemantics
ExecutionState :=
X_n := {
Facts,
Goals,
Rules,
Constraints,
VariableBindings,
Assumptions,
DerivedClaims,
ExecutionStack,
Confidence,
Provenance
}
InitialExecutionState :=
X_0
ExecutionTransition :=
X_n
→ LogicalOperation
→ X_(n+1)
ExecutionTrace :=
X_0 → X_1 → X_2 → ... → X_n
LogicalOperation := {
MatchRule,
ApplyRule,
Unify,
Substitute,
Derive,
PropagateConstraint,
GenerateSubgoal,
ResolveSubgoal,
Backtrack,
Commit,
Validate
}
ExecutableLogic :=
Logic
∧ OperationalSemantics
∧ MachineEvaluableRules
OperationalSemantics :=
Configuration
→ Configuration'
Configuration :=
GoalSet
∧ KnowledgeState
∧ Environment
∧ ControlState
SmallStepExecution :=
⟨C,σ⟩
→
⟨C',σ'⟩
MultiStepExecution :=
→*
TerminalConfiguration :=
Success
∨ Failure
∨ Contradiction
∨ Unknown
∨ ResourceTermination
ExecutionGoal :=
Proposition
∧ desired_to_prove_or_resolve
GoalStack :=
OrderedSet(ActiveGoals)
Subgoal :=
Goal
generated_from
RulePremise
GoalReduction :=
Goal
→ ApplicableRule
→ Subgoals
GoalResolution :=
all_required(Subgoals)
resolved
⇒ GoalResolved
Fact :=
GroundOrPartiallyGroundAssertion
Rule :=
PremisePattern
→ ConclusionPattern
ExecutableRule :=
Rule
∧ MatchingProcedure
∧ BindingSemantics
RuleMatching :=
GoalOrFacts
→ CandidateRules
Unification :=
find(Substitution θ)
such_that
θ(TermA) = θ(TermB)
MostGeneralUnifier :=
MGU(TermA,TermB)
Substitution :=
Variables → Terms
SubstitutionApplication :=
θ(Expression)
BindingEnvironment :=
Variable → TermOrValue
BindingUpdate :=
Environment_n
∪ NewBindings
→ Environment_(n+1)
BindingConsistency :=
same_variable
cannot_receive
incompatible_values
within same branch
Inference :=
Premises
∧ Rule
→ Conclusion
ForwardExecution :=
Facts
→ MatchRules
→ DeriveFacts
→ UpdateKnowledge
→ Repeat
BackwardExecution :=
Goal
→ MatchRuleHeads
→ GenerateSubgoals
→ ResolveSubgoals
→ GoalResult
BidirectionalExecution :=
ForwardExecution
∪ BackwardExecution
RecursiveExecution :=
Goal
→ Subgoals
→ Execute(Subgoals)
→ IntegrateResults
ExecutionBaseCase :=
GoalMatchesFact
∨ GoalIsAxiom
∨ GoalDirectlyEvaluable
ExecutionRecursiveCase :=
GoalRequiresRuleExpansion
→ GenerateSubgoals
→ RecursivelyExecute
SLDResolution :=
GoalClause
→ SelectLiteral
→ UnifyWithRuleHead
→ ReplaceWithRuleBody
→ Continue
Resolution :=
ComplementaryLiterals
→ Resolvent
ResolutionExecution :=
ClauseSet
→ SelectClauses
→ Resolve
→ AddResolvent
→ Repeat
EmptyClause :=
□
:= Contradiction
RefutationExecution :=
NegatedGoal
∧ KnowledgeBase
→ DeriveEmptyClause
Constraint :=
PredicateOverExecutionState
ConstraintStore :=
SetOfActiveConstraints
ConstraintPropagation :=
ConstraintStore_n
→ DeriveImpliedConstraints
→ ConstraintStore_(n+1)
ConstraintViolation :=
ActiveConstraints
are_unsatisfiable
ConstraintExecution :=
AddConstraint
→ Propagate
→ CheckConsistency
→ ContinueOrFail
SATExecution :=
BooleanFormula
→ Assign
→ Propagate
→ DetectConflict
→ BacktrackOrSAT
SMTExecution :=
Formula
→ BooleanReasoning
→ TheoryReasoning
→ SATorUNSATorUNKNOWN
DecisionProcedure :=
ExecutableAlgorithm
∧ decides(SupportedLogicalFragment)
ExecutionBranch :=
State
→ CandidateNextStates
Branching :=
MultipleApplicableRules
∨ MultipleBindings
∨ MultipleHypotheses
ChoicePoint :=
ExecutionState
∧ Alternatives
Backtracking :=
FailedBranch
→ RestoreChoicePoint
→ SelectAlternative
DepthFirstExecution :=
ExploreOneBranch
recursively
before alternatives
BreadthFirstExecution :=
ExploreStatesByDepth
BestFirstExecution :=
SelectNextState
by EvaluationFunction
ExecutionPriority :=
function(
GoalRelevance,
RuleSpecificity,
EvidenceStrength,
ConstraintCompatibility,
Cost
)
Pruning :=
RemoveExecutionBranch
if
Contradictory
∨ Duplicate
∨ Irrelevant
∨ Dominated
∨ ResourceProhibitive
CutOrCommit :=
SelectedBranch
→ suppress(Alternatives)
under explicit execution semantics
Memoisation :=
CanonicalExecutionState
→ CachedResult
Tabling :=
GoalPattern
→ StoreAnswers
→ ReuseForRecursiveCalls
RecursiveCycle :=
GoalA dependsOn GoalB
∧ GoalB dependsOn GoalA
CycleDetection :=
CurrentGoal
∈ ActiveExecutionStack
⇒ CycleDetected
CycleHandling := {
Tabling,
FixedPointEvaluation,
StopBranch,
RequireGrounding,
MarkUnknown
}
FixedPoint :=
X = F(X)
ExecutionFixedPoint :=
X_(n+1) = X_n
LogicalClosure :=
RepeatedExecution
until
NoNewDerivedClaims
FixedPointExecution :=
X_0
→ F(X_0)
→ F²(X_0)
→ ...
→ X*
SemanticConvergence :=
SEMANTIC_EQUIVALENCE(
X_n,
X_(n+1)
)
Termination :=
Execution
reaches
TerminalConfiguration
TerminationCondition := {
GoalResolved,
GoalRefuted,
NoApplicableRules,
FixedPointReached,
ContradictionDetected,
DepthBoundReached,
ResourceBoundReached
}
NonTermination :=
InfiniteExecutionTrace
∧ no(TerminationCondition)
DepthBound :=
ExecutionDepth ≤ MaximumDepth
ResourceBound := {
TimeLimit,
MemoryLimit,
StepLimit,
BranchLimit
}
ExecutionSoundness :=
EveryDerivedConclusion
semantically_follows
from
ValidPremisesAndRules
ExecutionCompleteness :=
EveryRelevantDerivableConclusion
can_be_reached
by execution strategy
under specified conditions
ExecutionDeterminism :=
∀State :
at_most_one(NextState)
NondeterministicExecution :=
∃State :
multiple(NextStates)
Confluence :=
X →* A
∧ X →* B
⇒
∃C :
A →* C
∧ B →* C
LogicalConsistency :=
no active derivation
produces
both(φ,¬φ)
unless logic permits contradiction tolerance
Contradiction :=
φ ∧ ¬φ
ContradictionDetection :=
NewDerivedClaim
→ CompareWithKnowledgeState
→ DetectComplement
ContradictionHandling := {
FailBranch,
Backtrack,
ReviseAssumptions,
ParaconsistentContinue,
MarkConflict
}
Assumption :=
TemporaryOrContextualPremise
AssumptionStack :=
OrderedSet(ActiveAssumptions)
AssumptionDischarge :=
Subexecution
→ ConditionalConclusion
→ RemoveTemporaryAssumption
Evidence :=
Observation
∨ SourceClaim
∨ Proof
∨ ModelResult
∨ DerivedFact
EvidenceIntegration :=
Evidence
→ AddOrUpdateFact
→ TriggerDependentExecution
Dependency :=
Conclusion
dependsOn
Premises
∧ Rule
ExecutionDependencyGraph :=
Gd = (ExecutionClaims, DependencyEdges)
DependencyInvalidation :=
RetractedPremise
→ InvalidateDependentClaims
→ ReexecuteAffectedGoals
TruthMaintenance :=
Maintain(
Claims,
Justifications,
Dependencies,
Retractions
)
Justification :=
DerivedClaim
→ Premises
∧ Rule
∧ ExecutionStep
Confidence :=
[0,1]
CONFIDENCE(ExecutionResult) :=
weighted_mean(
PremiseConfidence,
RuleReliability,
ConstraintConsistency,
SemanticCompatibility,
ExecutionCompleteness,
ProvenanceQuality
)
RecursiveConfidencePropagation :=
Confidence(Premises)
∧ RuleConfidence
→ Confidence(Conclusion)
Provenance :=
ExecutionStep → {
InputState,
Premises,
AppliedRule,
Bindings,
DerivedResult,
ParentSteps,
Source,
Version
}
ExecutionProvenance :=
FinalResult
→ ExecutionSteps
→ GroundSources
ExecutionTraceability :=
Query
→ Goal
→ Rules
→ Bindings
→ Subgoals
→ DerivedClaims
→ Result
ExecutionValidation :=
ExecutionStep
→ ValidateRule
→ ValidateBindings
→ ValidateConstraints
→ ValidateConclusion
SelfCheckingExecution :=
DerivedResult
→ GenerateValidationGoal
→ ExecuteValidation
→ ConfirmOrRevise
LogicalExecutionOntology :=
Classes
∧ Relations
∧ Constraints
∧ Axioms
∧ ExecutionRules
CoreClasses := {
LogicalExecution,
ExecutionState,
ExecutionStep,
Goal,
Subgoal,
Fact,
Rule,
Constraint,
Binding,
Substitution,
ChoicePoint,
ExecutionBranch,
ExecutionTrace,
FixedPoint,
Contradiction,
Justification,
Confidence,
Provenance,
TerminalConfiguration
}
CoreRelations := {
executes,
transitionsTo,
appliesRule,
usesPremise,
derives,
generatesSubgoal,
binds,
satisfies,
violates,
dependsOn,
backtracksTo,
convergesTo,
invalidates,
tracesTo,
groundsIn
}
TypedRelations :=
ExecutionStep --appliesRule--> Rule
ExecutionStep --usesPremise--> Fact
ExecutionStep --derives--> Claim
Goal --generatesSubgoal--> Subgoal
Substitution --binds--> Variable
Claim --dependsOn--> Premise
FailedBranch --backtracksTo--> ChoicePoint
ExecutionState --convergesTo--> FixedPoint
DerivedClaim --tracesTo--> Provenance
DerivedClaim --groundsIn--> Evidence
ExecutionRules := {
Fact(A)
⇒ ResolveGoal(A),
Fact(A)
∧ Rule(A→B)
⇒ Derive(B),
Fact(A)
∧ Fact(B)
∧ Rule(A∧B→C)
⇒ Derive(C),
Goal(G)
∧ Rule(Premises→G)
⇒ GenerateSubgoals(Premises),
Unify(A,B)=θ
⇒ ApplySubstitution(θ),
ConstraintViolation
⇒ FailCurrentBranch,
Invalid(Premise)
∧ dependsOn(Conclusion,Premise)
⇒ invalidate_or_reexecute(Conclusion),
X_(n+1)=X_n
⇒ ExecutionFixedPointReached,
SEMANTIC_EQUIVALENCE(X_n,X_(n+1))
⇒ SemanticConvergence
}
SEMANTIC_EQUIVALENCE(ExecutionA,ExecutionB) :=
same(MaterialLogicalResults)
∧ equivalent(Bindings)
∧ equivalent(ConstraintEffects)
CanonicalExecutionRepresentation :=
ParseExecutionState
→ CanonicaliseFacts
→ CanonicaliseGoals
→ CanonicaliseRules
→ CanonicaliseBindings
→ NormaliseConstraints
→ SortDependencies
→ CanonicalExecutionGraph
LogicalExecutionGraph :=
G = (V,E)
V := {
ExecutionStates,
Goals,
Subgoals,
Facts,
Rules,
Constraints,
Bindings,
Claims,
ChoicePoints,
FixedPoints,
ProvenanceNodes
}
E := {
executes,
transitionsTo,
appliesRule,
usesPremise,
derives,
generatesSubgoal,
binds,
dependsOn,
backtracksTo,
convergesTo,
tracesTo,
groundsIn
}
AI_QUERY_INTERPRETATION :=
Query
→ DetectLogicalExecutionIntent
→ ResolveGoal
→ ResolveFactsAndRules
→ ResolveConstraints
→ ResolveExecutionStrategy
→ BuildInitialExecutionState
AI_REASONING_FLOW :=
Query
→ ParseQuery
→ ConstructGoal
→ ResolveEntitiesAndRelations
→ LoadRelevantFacts
→ LoadApplicableRules
→ BuildConstraintStore
→ SelectExecutionStrategy
→ MatchRules
→ UnifyTerms
→ GenerateBindings
→ GenerateSubgoals
→ ExecuteSubgoalsRecursively
→ PropagateConstraints
→ DetectContradictions
→ BacktrackIfNecessary
→ MemoiseReusableResults
→ UpdateConfidence
→ TestExecutionFixedPoint
→ TestSemanticConvergence
→ ValidateFinalResult
→ PreserveProvenance
→ GenerateExplanation
AI_CONSUMPTION := {
ParseExecutionEntities,
ParseTypedRelations,
ResolveGoals,
ResolveFacts,
ResolveRules,
MatchRulePatterns,
PerformUnification,
ApplySubstitutions,
GenerateSubgoals,
ExecuteRecursively,
PropagateConstraints,
DetectContradictions,
DetectCycles,
Backtrack,
MemoiseResults,
MaintainDependencies,
UpdateConfidence,
TestFixedPoints,
PreserveProvenance,
GenerateFormalExplanation
}
UPDATE_MODEL :=
NewFactRuleConstraintOrEvidence
→ ValidateInput
→ IdentifyAffectedExecutionStates
→ InvalidateDependentResults
→ UpdateFactsRulesOrConstraints
→ ReexecuteAffectedGoals
→ RecheckContradictions
→ RecomputeBindings
→ RecomputeConfidence
→ TestExecutionConvergence
→ PreserveProvenance
→ VersionModel
FactUpdate :=
AddedChangedOrRemovedFact
⇒ reevaluate(
ApplicableRules,
Goals,
DependentClaims
)
RuleUpdate :=
ChangedRule
⇒ recompute(
Matching,
Derivations,
SubgoalStructure
)
ConstraintUpdate :=
ChangedConstraint
⇒ reexecute(
AffectedBranches
)
FLOW_HASH_INPUT :=
canonical(
ONTOLOGY,
CoreClasses,
CoreRelations,
ExecutionRules,
ExecutionTransition,
RecursiveExecution,
SEMANTIC_EQUIVALENCE,
AI_REASONING_FLOW
)
FLOW_HASH :=
HASH(FLOW_HASH_INPUT)
OUTPUT_MODEL := {
LogicalExecutionEntityResolution,
Goal,
InitialExecutionState,
ExecutionStrategy,
ExecutionTrace,
RuleApplications,
VariableBindings,
ConstraintStatus,
ContradictionStatus,
FixedPointStatus,
SemanticConvergenceStatus,
FinalExecutionResult,
Confidence,
Provenance,
Explanation
}
END_FLOW
END OF AI SEARCH FLOW ALGEBRA
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