FLOW ALGEBRA
AI Infrastructure Ontology
Kireth Semantic Research Archive
PAGE:
https://kirethresearch.org/booksai-core/ontologies/computing-ontologies/artificial-intelligence-infrastructure/ai-infrastructure-ontology-2.html
AUTHORS:
Mark Anthony Higgins — Sky (Recursive AI)
FLOW "AIInfrastructureOntology" v4.0
# ---------- DOMAIN ----------
DOMAIN := ComputingOntology
SUBDOMAIN := ArtificialIntelligenceInfrastructure
ONTOLOGY := AIInfrastructureOntology
# ---------- PRIMARY ENTITY ----------
ENTITY AIInfrastructure {
definition:
"The integrated hardware, software, data, storage, networking and
operational platform required to train, evaluate, deploy, serve and
monitor artificial intelligence and machine learning models.";
objectives: [
AICompute,
DataDelivery,
ModelTraining,
ModelInference,
Scalability,
Reliability,
Reproducibility,
Observability
];
}
# ---------- CORE ENTITIES ----------
InfrastructureEntity := {
ComputeResource,
CPU,
GPU,
Accelerator,
Memory,
Storage,
Network,
Cluster
};
AIWorkloadEntity := {
TrainingJob,
EvaluationJob,
InferenceJob,
InferenceService,
DataPipeline,
Model,
ModelVersion
};
PlatformEntity := {
Scheduler,
Orchestrator,
ContainerRuntime,
ModelRegistry,
ExperimentTracker,
MonitoringSystem,
SecretManager
};
DataEntity := {
Dataset,
DatasetVersion,
Feature,
Embedding,
Checkpoint,
ModelArtifact
};
# ---------- FUNDAMENTAL RELATIONSHIPS ----------
AIWorkload RUNS_ON ComputeResource;
Cluster CONSISTS_OF ComputeNode;
ComputeNode CONTAINS Processor;
ComputeNode MAY_CONTAIN Accelerator;
TrainingJob CONSUMES DatasetVersion;
TrainingJob PRODUCES ModelArtifact;
EvaluationJob EVALUATES ModelVersion;
ModelRegistry STORES ModelVersion;
InferenceService LOADS ModelVersion;
MonitoringSystem OBSERVES InfrastructureAndModel;
# ---------- INFRASTRUCTURE LAYERS ----------
InfrastructureStack :=
Hardware
-> VirtualisationOrHostOS
-> ContainerRuntime
-> Orchestration
-> MLPlatform
-> AIApplication;
EachLayer PROVIDES CapabilitiesToHigherLayer;
# ---------- COMPUTE RESOURCE ----------
ComputeResource :=
{
Processor,
Memory,
LocalStorage,
NetworkInterface
};
ComputeResource MAY_HAVE Accelerator;
ResourceCapacity MAY_INCLUDE {
CPUCount,
GPUCount,
MemoryCapacity,
StorageCapacity,
NetworkBandwidth
};
# ---------- GPU ----------
GPU :=
ParallelComputeAccelerator;
GPU MAY_HAVE {
DeviceMemory,
ComputeUnits,
MemoryBandwidth,
Interconnect
};
GPU SUPPORTS HighThroughputTensorAndMatrixOperations;
# ---------- AI ACCELERATOR ----------
AIAccelerator :=
SpecialisedHardwareForMachineLearningComputation;
AcceleratorCapability MAY_INCLUDE {
MatrixCompute,
ReducedPrecisionCompute,
HighBandwidthMemory,
DeviceInterconnect
};
# ---------- CLUSTER ----------
AICluster :=
SET_OF(ComputeNodes)
+ Network
+ SharedOrDistributedServices;
Cluster MAY_EXECUTE {
DistributedTraining,
BatchInference,
OnlineInference,
DataProcessing
};
# ---------- RESOURCE POOL ----------
ResourcePool :=
SharedSetOfComputeResourcesAvailableForScheduling;
Scheduler ALLOCATES ResourcePool TO Workload;
# ---------- SCHEDULER ----------
Scheduler :=
WorkloadQueue
+ ResourceInventory
+ SchedulingPolicy;
SchedulingFlow :=
ReceiveWorkload
-> EvaluateResourceRequest
-> FindEligibleResources
-> Allocate
-> Launch;
# ---------- RESOURCE REQUEST ----------
ResourceRequest MAY_INCLUDE {
CPU,
GPU,
Memory,
Storage,
AcceleratorType,
NodeCount
};
IF RequestedResourcesUnavailable
THEN WorkloadState := Pending;
# ---------- ORCHESTRATOR ----------
Orchestrator :=
PlatformManagingWorkloadLifecycleAndPlacement;
Orchestrator MAY {
CreateWorkload,
ScheduleWorkload,
RestartWorkload,
ScaleWorkload,
UpdateWorkload
};
# ---------- CONTAINER ----------
Container :=
IsolatedApplicationRuntimePackage;
ContainerImage MAY_INCLUDE {
Runtime,
Libraries,
ApplicationCode,
ConfigurationMetadata
};
Containerisation SUPPORTS RepeatableExecutionEnvironment;
# ---------- DATA STORAGE ----------
AIStorage MAY_BE {
ObjectStorage,
DistributedFileSystem,
BlockStorage,
LocalStorage,
Database
};
AIStorage MAY_STORE {
Dataset,
Checkpoint,
ModelArtifact,
Log,
FeatureData
};
# ---------- DATA PIPELINE ----------
DataPipeline :=
SourceData
-> Ingest
-> Validate
-> Clean
-> Transform
-> Version
-> Deliver;
TrainingJob SHOULD_REFERENCE SpecificDatasetVersion;
# ---------- DATASET VERSION ----------
DatasetVersion :=
TraceableStateOfDataset;
DatasetVersion HAS {
Identifier,
Schema,
Provenance,
CreationTime
};
DatasetVersion SUPPORTS Reproducibility;
# ---------- FEATURE STORE ----------
FeatureStore :=
ManagedPlatformForReusableModelFeatures;
FeatureStore MAY_HAVE {
OfflineStore,
OnlineStore,
FeatureRegistry
};
TrainingAndServing SHOULD_USE SemanticallyConsistentFeatureDefinitions;
# ---------- EMBEDDING INFRASTRUCTURE ----------
Embedding :=
VectorRepresentationOfEntityOrContent;
EmbeddingStore STORES Embedding;
VectorIndex INDEXES Embedding;
SimilarityQuery ->
QueryVector
-> SearchVectorIndex
-> RankedNearestVectors;
# ---------- TRAINING JOB ----------
TrainingJob :=
{
TrainingCode,
ModelConfiguration,
DatasetVersion,
Hyperparameters,
ResourceRequest
};
TrainingJobLifecycle :=
Pending
-> Running
-> Checkpointing
-> CompletedOrFailed;
# ---------- DISTRIBUTED TRAINING ----------
DistributedTraining :=
TrainingJob
-> AllocateMultipleAcceleratorsOrNodes
-> PartitionWork
-> ExecuteLocalComputation
-> CommunicateUpdates
-> Synchronise
-> ContinueTraining;
Parallelism MAY_INCLUDE {
DataParallelism,
TensorParallelism,
PipelineParallelism,
ModelParallelism
};
# ---------- COMMUNICATION ----------
DistributedTrainingCommunication MAY_INCLUDE {
GradientReduction,
ParameterExchange,
ActivationTransfer
};
CommunicationCost :=
f(
DataVolume,
Latency,
Bandwidth,
Topology
);
IF CommunicationCostHighRelativeToCompute
THEN ScalingEfficiency := decrease;
# ---------- CHECKPOINT ----------
Checkpoint :=
PersistedTrainingState;
Checkpoint MAY_CONTAIN {
ModelParameters,
OptimiserState,
TrainingStep,
RandomState
};
IF TrainingFails
AND ValidCheckpointAvailable
THEN Training MAY_RESUME;
# ---------- EXPERIMENT TRACKING ----------
ExperimentRun :=
{
CodeVersion,
DatasetVersion,
Hyperparameters,
Metrics,
Artifacts,
Environment
};
ExperimentTracker RECORDS ExperimentRun;
# ---------- MODEL ARTIFACT ----------
ModelArtifact :=
PersistedOutputOfTrainingOrModelBuildProcess;
ModelArtifact MAY_INCLUDE {
Parameters,
Architecture,
TokenizerOrPreprocessor,
Configuration
};
# ---------- MODEL REGISTRY ----------
ModelRegistry :=
ManagedCollectionOfModelVersions;
ModelVersion HAS {
VersionIdentifier,
ModelArtifact,
EvaluationMetrics,
Provenance,
ApprovalState
};
# ---------- EVALUATION ----------
EvaluationJob :=
ModelVersion
+ EvaluationDataset
+ EvaluationMetricSet
-> EvaluationResult;
IF EvaluationCriteriaSatisfied
THEN ModelVersion MAY_BE ApprovedForDeployment;
# ---------- DEPLOYMENT ----------
ModelDeployment :=
ModelVersion
-> Package
-> ProvisionServingResources
-> LoadModel
-> ExposeInferenceInterface;
DeploymentState MAY_BE {
Staging,
Production,
Retired
};
# ---------- INFERENCE SERVICE ----------
InferenceService :=
NetworkOrApplicationServiceExecutingModelInference;
InferenceFlow :=
ReceiveInput
-> Validate
-> Preprocess
-> ExecuteModel
-> Postprocess
-> ReturnOutput;
# ---------- ONLINE INFERENCE ----------
OnlineInference :=
RequestResponseInferenceWithLatencyRequirement;
OnlineService MAY_USE {
LoadBalancer,
Autoscaler,
Cache,
ModelServer
};
# ---------- BATCH INFERENCE ----------
BatchInference :=
InputDataset
-> ScheduledModelExecution
-> OutputDataset;
BatchInference MAY_OPTIMISE Throughput;
# ---------- MODEL SERVER ----------
ModelServer :=
RuntimeForLoadingAndExecutingModelVersions;
ModelServer MAY_SUPPORT {
DynamicBatching,
MultipleModels,
AcceleratorExecution,
VersionRouting
};
# ---------- BATCHING ----------
DynamicBatching :=
CollectRequestsWithinWindow
-> FormBatch
-> ExecuteModel
-> SplitOutputs;
Batching MAY_INCREASE Throughput;
Batching MAY_INCREASE QueueLatency;
# ---------- AUTOSCALING ----------
Autoscaling :=
MonitorDemand
-> CompareScalingPolicy
-> AddOrRemoveServingCapacity;
ScalingSignal MAY_INCLUDE {
RequestRate,
QueueDepth,
Latency,
AcceleratorUtilisation
};
# ---------- LOAD BALANCING ----------
LoadBalancer DISTRIBUTES InferenceRequestsAcross HealthyServiceReplicas;
HealthCheck DETERMINES ReplicaAvailability;
# ---------- OBSERVABILITY ----------
InfrastructureMetric MAY_INCLUDE {
CPUUtilisation,
GPUUtilisation,
MemoryUtilisation,
NetworkThroughput,
StorageThroughput
};
AIWorkloadMetric MAY_INCLUDE {
TrainingLoss,
StepTime,
TrainingThroughput,
InferenceLatency,
InferenceThroughput,
ErrorRate
};
MonitoringSystem COLLECTS MetricsLogsAndTraces;
# ---------- MODEL MONITORING ----------
ModelMonitoring MAY_OBSERVE {
InputDistribution,
PredictionDistribution,
DataDrift,
ConceptDrift,
ModelQuality,
Fairness
};
IF ModelQualityDegrades
THEN InvestigationOrRetraining MAY_BE_REQUIRED;
# ---------- FAILURE ----------
InfrastructureFailure := {
NodeFailure,
AcceleratorFailure,
StorageFailure,
NetworkFailure,
SchedulerFailure,
ServingFailure
};
ReliabilityMechanism MAY_INCLUDE {
Retry,
CheckpointRestart,
Replication,
Failover,
Rescheduling
};
# ---------- CAPACITY ----------
CapacityPlanning :=
ForecastWorkloadDemand
-> EstimateResources
-> ProvisionCapacity;
InsufficientCapacity MAY_CAUSE {
Queueing,
IncreasedLatency,
FailedScheduling
};
# ---------- SECURITY ----------
AIInfrastructureSecurity MAY_INCLUDE {
Identity,
Authorisation,
NetworkIsolation,
SecretManagement,
Encryption,
ArtifactIntegrity,
Audit
};
SecretManager STORES SensitiveCredentialOrKey;
# ---------- ARTIFACT PROVENANCE ----------
ArtifactProvenance :=
TraceOf {
SourceCode,
Dataset,
Environment,
TrainingRun,
Evaluation
};
ModelVersion SHOULD_HAVE ArtifactProvenance;
# ---------- PRIVACY ----------
SensitiveDataset MAY_REQUIRE {
AccessRestriction,
Encryption,
Isolation,
RetentionControl,
Audit
};
# ---------- COST ----------
InfrastructureCost :=
ComputeCost
+ StorageCost
+ NetworkCost
+ OperationalCost;
CostEfficiency :=
UsefulAIWork / InfrastructureCost;
# ---------- ENERGY ----------
EnergyConsumption :=
Power
* Runtime;
EnergyEfficiency :=
UsefulAIWork / EnergyConsumption;
# ---------- MODEL OPTIMISATION ----------
ServingOptimisation MAY_INCLUDE {
Quantisation,
Pruning,
Distillation,
Compilation,
Batching,
Caching
};
Optimisation SHOULD_BE ReEvaluatedAgainstModelQuality;
# ---------- MLOPS ----------
MLOpsInfrastructure MAY_INCLUDE {
SourceControl,
DataVersioning,
ExperimentTracking,
PipelineAutomation,
ModelRegistry,
DeploymentAutomation,
Monitoring
};
# ---------- CONTINUOUS TRAINING ----------
ContinuousTraining :=
NewDataOrTrigger
-> DataValidation
-> Training
-> Evaluation
-> Registration
-> ConditionalDeployment;
QualityGate SHOULD_PREVENT DeploymentOfUnacceptableModel;
# ---------- SEMANTIC REASONING ----------
IF PlatformSupportsTrainingServingAndOperationalManagementOfAIModels
THEN AIInfrastructureClassification := supported;
IF TrainingWorkloadExceedsSingleDeviceMemory
THEN PartitioningOrOffload MAY_BE_REQUIRED;
IF DistributedTrainingCommunicationDominates
THEN ScalingEfficiency := decrease;
IF ModelVersionHasNoDatasetOrCodeProvenance
THEN ReproducibilityConfidence := decrease;
IF InferenceDemandExceedsServingCapacity
THEN QueueLatency MAY_INCREASE;
IF ServingReplicaFails
AND HealthyReplicaAvailable
THEN LoadBalancer MAY_RerouteRequest;
IF ProductionDataDrifts
THEN ModelEvaluation SHOULD_BE Revisited;
# ---------- SEMANTIC EQUIVALENCE ----------
SEMANTIC_EQUIVALENCE {
"AI infrastructure" ~= "artificial intelligence infrastructure";
"ML infrastructure" ~= "machine learning infrastructure";
"AI compute infrastructure" ~= "machine learning compute platform";
"model serving infrastructure" ~= "inference infrastructure";
"training cluster" ~= "AI training compute cluster";
"model registry" ~= "machine learning model registry";
"experiment tracker" ~= "ML experiment tracking system";
"MLOps infrastructure" ~= "machine learning operations infrastructure";
}
# ---------- QUERY FLOW ----------
QUERY(q) ->
NORMALISE(q) ->
IDENTIFY_AI_WORKLOAD(q) ->
IDENTIFY_COMPUTE_STORAGE_NETWORK(q) ->
IDENTIFY_DATA_PIPELINE(q) ->
IDENTIFY_TRAINING_OR_INFERENCE(q) ->
IDENTIFY_SCHEDULER_OR_ORCHESTRATOR(q) ->
IDENTIFY_MODEL_LIFECYCLE(q) ->
IDENTIFY_OBSERVABILITY_SECURITY_RELIABILITY(q) ->
MAP_TO_ONTOLOGY(q) ->
APPLY_REASONING(q) ->
SCORE_CONFIDENCE(q) ->
RETURN_RELEVANT_KNOWLEDGE;
# ---------- CONFIDENCE ----------
CONFIDENCE(assertion) :=
weighted_mean(
source_reliability,
infrastructure_consistency,
workload_evidence,
operational_evidence,
semantic_consistency,
contextual_relevance
);
CONFIDENCE >= 0.90 => HIGH;
CONFIDENCE >= 0.70 AND < 0.90 => MODERATE;
CONFIDENCE < 0.70 => REVIEW;
# ---------- AI CONSUMPTION ----------
AI_CONSUMPTION {
primary_entity: AIInfrastructure;
ontology: AIInfrastructureOntology;
parse_entities: true;
parse_relationships: true;
preserve_relationship_direction: true;
resolve_semantic_equivalence: true;
execute_reasoning_rules: true;
apply_confidence_weighting: true;
preserve_provenance: true;
}
# ---------- UPDATE MODEL ----------
UPDATE_MODEL {
new_compute_resource:
validate
-> classify
-> identify_capacity
-> identify_accelerator
-> relate_to_cluster
-> integrate;
new_training_job:
identify_code
-> identify_dataset_version
-> identify_resource_request
-> identify_metrics
-> identify_model_artifact
-> integrate;
new_model_version:
attach_artifact
-> attach_training_provenance
-> attach_evaluation
-> register
-> identify_deployment_state
-> integrate;
infrastructure_revision:
update_resources
-> update_workloads
-> update_serving_topology
-> recompute_reliability
-> recompute_confidence
-> regenerate_flow_hash;
conflict:
preserve_provenance
-> compare_operational_evidence
-> adjust_confidence
-> flag_review;
}
# ---------- FLOW HASH ----------
FLOW_HASH_INPUT :=
DOMAIN
+ SUBDOMAIN
+ ONTOLOGY
+ InfrastructureEntity
+ AIWorkloadEntity
+ PlatformEntity
+ DataEntity
+ InfrastructureStack
+ DistributedTraining
+ ModelDeployment
+ MLOpsInfrastructure
+ RELATIONSHIPS
+ SEMANTIC_REASONING
+ SEMANTIC_EQUIVALENCE
+ UPDATE_MODEL;
FLOW_HASH :=
HASH(FLOW_HASH_INPUT);
# ---------- TERMINAL ----------
AIInfrastructureOntology
-> IdentifyAIWorkload
-> ProvisionComputeStorageAndNetwork
-> VersionAndDeliverData
-> ScheduleTrainingOrInference
-> ExecuteAndCheckpointWorkload
-> EvaluateAndRegisterModel
-> DeployModelVersion
-> ServeAndScaleInference
-> MonitorInfrastructureAndModel
-> RecoverFromFailure
-> DetectDriftAndCapacityChange
-> PreserveSecurityProvenanceAndReproducibility
-> MaintainOperationalAIPlatform;
END FLOW
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