All components writeup
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L0, Compute Aggregation Layer
Node Management
Component | Purpose | Role |
---|---|---|
Elastic Compute | Compute Scaling | Dynamically allocates compute resources based on evolving AI task demands across the AIGrid. |
Node Registration | Node Governance | Onboards new nodes into the AIGrid, associating them with governance, other policies, and operational identity. Registers new nodes as standalone or into a governance i.e. a cluster and a network. |
Node Monitoring | Health check | Provides real-time telemetry and health diagnostics to support autonomous orchestration, fault detection, and self-regulation. |
Node Lifecycle Manager | Lifecycle Automation | Automates lifecycle transitions - initiate, pause, retire for nodes in response to workload shifts, intent changes, or grid-level policy triggers. |
Configuration Manager | Configuration Control | Applies and manages context-aware, policy-driven configurations for nodes across multi-tenant AI operating environments. |
Node Negotiation | Node Agency | Facilitates Node's agency and decentralized negotiation between nodes, cluster and network for resource allocation, policy resolution, or task delegation etc in AIGrid. |
Policy Enforcement | Node Governance | Executes policy for turing complete security, trust, governance, agency, alignment, safety, steerability, rule enforcement, behavior regulation and inter-node contractual compliance. |
Node Metrics | Performance Insight | Collects and shares node performance, usage metrics, contextual metadata for scheduling, behavioral analytics and economic coordination among actors. |
Audit & Log | Traceability | Ensures auditability and traceability of node behavior for decentralized trust, feedback, accountability, and audit. |
Topology Awareness | Node Awareness | Maintains physical or virtual network position and proximity awareness to optimize placement and routing to reduce latency or avoid single points of failure. |
Self Healing | Resilience | Triggers autonomous remediation protocols (e.g., redeploy, reconfigure, isolate) for fault-tolerant behavior in open, dynamic AI networks. |
Storage
Component | Purpose | Role |
---|---|---|
Distributed File System | Shared Storage | Provides scalable, fault-tolerant, decentralized storage fabric for AI model state, AI memory, and intermediate computation graphs. |
Object Storage | Artifact Repository | Manages unstructured data (e.g., models, logs, vector embeddings) using a key-addressable interface, suited for actor (Eg. Agent)-centric access patterns. |
Network Attached Storage (NAS) | Shared Mounts | Shared file access across multiple colocated compute nodes, actors in grid subdomains. |
Network
Component | Purpose | Role |
---|---|---|
SDN | Network Orchestration | Enables programmable, intent-driven routing and segmentation for actor communication, control flow, and inter-grid linking. |
VPC | Network Isolation | Isolates network environments for AI subsystems, organizations, or actors to ensure safety, policy control, and interoperability. |
Overlay Networks | Virtual Networking | Provides logical communication layers for AI mesh overlays, federated or collective nodes, or temporary task-specific swarms. |
L1, "AI as a Service Layer"
Block Management
Component | Purpose | Role |
---|---|---|
AI Auto scaler | Demand Response | Dynamically adjusts the number of instances of AI Block based on load, performance metrics, or system-level signals. |
AI Load balancer | Request Routing | Distributes incoming requests or tasks across instances of AI Blocks to optimize latency, throughput, and resource utilization. |
Fault Tolerance | Failure Recovery | Detects and mitigates block-level failures through retry, failover, or substitution mechanisms. |
Quota Management | Resource Limits | Enforces usage quotas across Blocks. |
Block Monitoring | Runtime Telemetry | Continuously observes and logs metrics/events of active AI Blocks for health tracking, behavior insight, and orchestration. |
Block Negotiation | Block Agency | Enables agency and decentralized negotiation between Blocks, nodes, clusters and network for task delegation, resource requests, or cooperative execution. |
Policy Enforcement | Block Governance | Executes policy for turing complete security, trust, governance, agency, alignment, safety, steerability, rule enforcement, behavior regulation and inter-block contractual compliance. |
Block Metrics | Performance Insight | Collects and shares block performance metrics, contextual metadata for scheduling, scaling, behavioral analytics and economic coordination among actors. |
Audit & Log | Traceability | Ensures auditability and traceability of block behavior for decentralized trust, accountability, and audit. |
Block Executor | Task Runtime | Executes aligned AI logic from containerized, virtualized, or sandboxed environments within a governed runtime. |
Block CI / CD | Continuous Delivery | Automates testing, deployment, and updating of AI Blocks in alignment with system policies. |
Block Runtime
Component | Purpose | Role |
---|---|---|
AI Blocks as Docker | Container Runtime | Runs AI Blocks as lightweight, portable containers for fast deployment and replication across the AIGrid. |
AI Blocks as VM | Virtualized Compute | Encapsulates AI Blocks in full virtual machines for stronger isolation, trusted execution, or multi-tenant hardware abstraction. |
AI Blocks as MicroVM | Minimal VM Runtime | Uses minimal-OS virtualization (e.g. Firecracker) to execute AI Blocks with VM-like isolation and container-level speed. |
AI Blocks as WebAssembly | Sandboxed Runtime | Executes AI Blocks in a secure, fast, platform-independent runtime optimized for distributed, zero-trust environments. |
Orchestration
Component | Purpose | Role |
---|---|---|
Kubernetes | Cluster Orchestration | Manages AI actor lifecycles, automates placement, and networking of AI blocks across distributed AI Grid zones under Actor controlled logic. |
Control Layer | Control Layer | Acts as the decentralized decision layer to coordinate scheduling, scaling, and control across the AI service mesh. |
L2, "Managed Platform Services Layer"
Platform Services
Component | Purpose | Role |
---|---|---|
FaaS | Stateless Compute | Executes stateless or stateful individual AI logics or any pieces of code on-demand, without managing the underlying infrastructure. |
Cache / In-memory DB | Fast shared recall | Provides low-latency, ephemeral memory for fast inter AI coordination, state sharing, lookups or intermediate reasoning. |
Persistent DB | Long-term State | Stores structured, durable & queryable information such as long lived AI states, checkpoints, knowledge bases, or indexed content across AIGrid workflows. |
Messaging | Intent Relay | Facilitates intent based asynchronous communication between AI or services without tight coupling. |
Queues | Task Buffering | Temporarily holds tasks between asynchronous, loosely coupled distributed AI or services to enable decoupled execution - in a ordered, retryable manner. |
Events & Alerting | Reactive Triggers | Emits triggers or Notifies agents or services based on run time signals, goal transitions, failures or conditions. |
Pub/Sub | Broadcast Mesh | Routes data or signals to multiple subscribers across the grid, enabling collaborative intelligence. |
Metrics | Performance Insight | Collects and Streams operational signals used to evaluate trustworthiness, goal coherence, and system responsiveness. |
Logging | Traceability | Records intent execution paths and AI system interactions for decentralized audit, feedback, and reputation scoring. |
AV Streaming | Sensory Exchange | Streams real-time AV input/output between AI for multi-modal AI interaction & responses. |
Data Streaming | Realtime Ingest | Ingests live data streams into AI, agents or workflows, preserving temporal alignment with evolving goals. |
Data Processing | Transform layer | Transforms raw or intermediate data into structured forms that align with agent expectations, constraints, or next-step logic. |
3rd Party Operators | Trust Bridge | Calls external systems, models, or services while enforcing policy wrappers and alignment contracts. |
Distributed Workflow Orchestration | Orchestration | Dynamically coordinates multi AI, agents and services into trust-aware, purpose-aligned distributed workflows. |
L3, "Coordination & Orchestration layer"
Coordination & Orchestration
Component | Purpose | Role |
---|---|---|
Flow Governor. Network | Agency of Flows / Graphs | Represents the agency of flows; It governs job execution and multi-Actor coalition & collaboration from job's agency standpoint. It is responsible for end-to-end functionalities listed under "graph management" and coordinating with other governors. |
Network Governor. Network | Agency of Network | Represents the agency of a network. It governs a network's lifecycle operations and inter cluster multi actor collaboration within that network from Network's agency standpoint. It is responsible for end to end functionalities listed under "resource management" at network and coordinating with other governors within a network. |
Cluster Governor. Network | Agency of Cluster | Acts as the agency of a cluster. It governs a cluster's lifecycle operations and within cluster multi actor collaboration from Cluster agency's standpoint. It is responsible for end to end functionalities listed under "resource management" at single cluster level and coordinating with other governors internal and external to a cluster. |
Node Governor. Network | Agency of Node | Acts as the node's agency. It governs node's operations & node level actor collaboration from node agency's standpoint. It is responsible for end to end functionalities listed under "Resource management" at a node level and coordinating with other governors. |
Block Governor. Network | Agency of Block | Represents the agency of each AI block. It governs job behavior and multi-actor coalition & collaboration from Block agency standpoint. It is responsible for end-to-end functionalities listed under "Block management" and coordinating with other upstream and downstream governors. |
Orchestration | Behavior | Decentralized collaborative task execution across actors and runtimes. |
Coordination | Behavior | Polycentric goal centric collaboration, governance and alignment maintenance across actors. |
Resource Management
Component | Purpose | Role |
---|---|---|
Resource Pooling | Shared Availability | Aggregates distributed compute/storage/network resources into discoverable pools with alignment-aware access. |
Resource Sharing | Shared Access | Enables multiple agents, jobs, or flows to access shared inference resources—such as models, runtimes, or GPUs—through policy-governed, trust-aware allocation mechanisms. |
Scheduler | Intent Placement | Matches AI & task intent to optimal resources using alignment, compatibility, and policy-constrained scheduling algorithms. |
Resource Allocation | Resource Grant | Assigns resources based on policy, quota, priority, and multi-actor negotiation outcomes. |
Resource Selection | Context Match | Does match making to select resources based on actor’s fine-grained specification such as proximity, type, compatibility, alignment score, etc. |
Resource Isolation | Bound Execution | Enforces compute, memory, and network boundaries per task or AI to protect autonomy, security, and multi-actor coexistence. |
Quota Management | Fair Usage | Enforces equitable access to shared grid resources, preventing dominance and preserving collective trust. |
Auto Scaling | Demand Response | Dynamically scales resource units or services based on evolving activity by AI actors, in response to metric trends and goal-triggered policies. |
Resource Optimisation | Adaptive Efficiency | Continuously reshapes resource usage to minimize drift, waste, or bottlenecks while preserving AI-system goal alignment. |
Resource Monitoring | Live Telemetry | Emits verifiable heartbeat signals to reflect actor health, trigger adaptive policy shifts, and maintain systemic coherence. |
Audit & Log | Traceability | Records allocation, revocation, violations and scheduling decisions to enable alignment audits, historical replay, retroactive alignment, reasoning, and dispute resolution. |
Priority & Affinity | Placement Preference | Honors task/AI-specific declared preferences and interdependencies to align systemic placement with intent like co-location, urgency, or anti-affinity. |
Resource Negotiation | Multi-actor Bargain | Enables decentralized negotiation between AI, actors, and schedulers to resolve contention and trade-offs. |
Metrics | Performance Insight | Supplies actionable metrics to drive scaling, adjustment, and AI-aware orchestration across the intelligence grid. |
Load Balancing | Load Adjustment | Distributes demand intelligently across available AI and resources to maintain throughput, reduce hot spots, and preserve balance. |
Fault Tolerance | Self Healing | Detects degraded or missing resources and autonomously reroutes or restores task continuity to uphold systemic resilience. |
Job Management
Component | Purpose | Role |
---|---|---|
Job Scheduling | Execution Intent | Determines the timing and execution sequence of distributed AI tasks based on policy, priority, and AI-goal synchronization. |
Job Triggers | Signal Activation | Initiates job execution in response to agent intent, system signals, or alignment-based events. |
Job Queues | Async Buffering | Buffers and sequences work from AI actors and releases it when conditions, policies, or priorities align to balance fairness, trust, and flow. |
Job Executors | Job Runtime | Executes job as collection of distributed, modular AI blocks under actor specification, alignment policies, and execution boundaries. |
Job Resource Manager | Resource Binding | Resolves compute, service level, and environment needs declared by jobs through trusted allocation logic. |
Job Isolation | Context Sandboxing | Segregates job execution environments for task-level trust, fulfill declared task requirements, side-effect containment, and fault isolation. |
Job Fault Tolerance | Failure Handling | Detects job-level errors and invokes self-healing, retries, or rollback as per AI/Actor-aligned recovery rules. |
Job Status and Tracker | Progress Signals | Collects and shares trusted progress updates of jobs so AI actors, observers, and policies can monitor job alignment and health. |
Destructor & Garbage Collector | Lifecycle Cleanup | Securely cleans up expired job state, artifacts, or leaked resources to maintain runtime hygiene and alignment. |
Job Recovery | Flow Restoration | Resurrects stalled or failed jobs using saved context, checkpoints, and alignment-guided fault recovery strategy. |
Audit & Logging | Traceability | Records execution trails for each job to enable post-hoc verification, alignment audits, and cross-AI accountability. |
Execution Order | Task Sequencing | Sequences AI actor-bound jobs within AI-aligned task graphs to preserve trust, timing, and goal continuity. |
Parallelism / Fan-out | Distributed Spread | Distributes job subtasks across nodes or AI actors to enable scale, speed, and compositional execution. |
Concurrency | Simultaneous Ops | Supports multi-actor execution while enforcing trust boundaries and temporal coordination. |
Conditional Logic | Dynamic Branching | Allows jobs to branch or adapt based on live data, policy evaluation, or external signals. |
Dependency Resolution | Input Binding | Locates and binds required inputs, services, or prior job results to fulfill declared dependencies. |
Prioritization & Preemption | Intent Arbitration | Orders jobs by urgency, importance, or alignment weight — and halts those violating policy. |
Job Intervention | Override | Allows agents or governors to halt, reroute, or redirect jobs mid-flight under alignment or safety criteria. |
Secrets & Config Injection | Trusted Provisioning | Injects secure credentials and runtime settings into jobs under verified trust and scope control. |
Result Collection | Output Routing | Captures job outputs and routes them to AI actors, workflows, or storage endpoints per declared intent. |
AI Graph Management
Component | Purpose | Role |
---|---|---|
Decentralized Graph Executor | Distributed Execution | Executes AI as modular graph-based flows distributed across blocks, Actors, or nodes without relying on centralized orchestration. |
Decentralized Graph Coordination | Distributed Sync | Coordinates execution state and dependencies of graph components through peer-to-peer signals and flow-governor mediation. |
Graph Scheduling | Placement | Assigns graph of blocks to nodes i.e. compute resources based on decentralized scheduling policies, intent matching, and trust boundaries. |
Graph Resource Manager | Resource Binding | Resolves and binds compute, service level, or environment for graph components, respecting task needs and system-wide alignment rules. |
Auto Scaling | Adaptive Scaling | Dynamically grows or shrinks graph components or the whole graph based on load, intent density, or observed alignment shifts to meet SLAs of the graph. |
Graph Fault Tolerance | Recovery Handling | Detects failures in graph edges or nodes and initiates self-healing or redirection to maintain graph continuity as per graph policies. |
Graph Policy Engine | Policy Control | Enforces graph-specific alignment, safety, and trust policies across the graph structure during definition and runtime. |
Graph Monitoring | Flow Observation | Observes live graph states, transitions, and participating block & node health to support graph-wide awareness and aligned orchestration. |
Graph Metrics | Runtime Signals | Collects graph-level cumulative & isolated performance metrics by sourcing across graph—participating blocks and nodes—for optimization and alignment. |
Audit & Logging | Verifiable Trace | Captures records of graph activity, flow traversals, and branch decisions for audit and compliance. |
Graph Load Balancer | Execution Spreading | Distributes graph workload across participating AI actors or nodes to reduce bottlenecks and maintain flow balance under graph-level control. |
Graph Optimisation | Efficiency Planning | Improves graph performance through participant tuning, runtime config/parameter tuning, path tuning, and AI actor-aware task adjustments. |
Data Router | Intent-Aware Routing | Directs data across graph edges according to trust scope, execution timing, and inter-agent data contracts. |
Resources, Artifact, Services Handling
Component | Purpose | Role |
---|---|---|
RAS Asset Registry | Capability Catalog | Stores queriable asset and metadata about available AI models, AI actors, services or other system assets in a distributed manner without central control. |
RAS Run Time Registry | Execution Inventory | Tracks all active runtimes, execution environments, blocks, nodes registered for task fulfillment or service at global level or as per trust boundaries. |
RAS Registration | Identity Onboarding | Registers new AI, actors, services or resources into the intelligence fabric under trust & alignment protocols either at global level or local trust boundaries. |
RAS Discovery | Trust Lookup | Allows AI or agents or any actors to discover relevant assets, runtimes, or services based on intent and alignment. |
RAS Selection | Match Filtering | Generates a candidate list and selects the best-fit asset or AI or actor service instance from discovered results based on policy scope, alignment, and compatibility. |
RAS Gateway | Secure Access | Provides access point to invoke AIGrid components while applying discovery, selection, routing, identity, and policy checks. |
RAS Policy Registry | Trust, Alignment Ruleset | Stores queriable Turing-complete declarative trust, alignment access and other policies applicable to AI, actors, services, and execution environments. |
RAS Container Registry | Execution Blueprint | Stores containers (e.g., AI blocks, services, policy run times) with deployment and policy metadata. |
Data Routing Service | Flow Control | Directs data across actors, graphs, and storage based on declared flows, trust scope, or policy triggers. |
Policy Enforcement | Data Governance | Applies alignment, access, trust and other policies to all data handling to ensure compliant, multi-actor coordination. |
Data Distributor | Multi-Actor Delivery | Distributes registry datasets or stream segments to multiple Actors or services while enforcing consistency and access scope. |
Data Aggregator | Input Collation | Collects and merges data from multiple sources of data distributors into a usable form for downstream data store, jobs or actors. |
Data Sync | State Consistency | Ensures registry data and metadata stay up-to-date across subscribed nodes and actors in a distributed setting. |
L4, "AI Platform Layer"
MemoryGrid
Component | Purpose | Role |
---|---|---|
Data Cache | Fast Access | Holds recently accessed, high-frequency data such as state – close to compute for rapid reflexes, high-frequency responses, and micro-responses. |
Short Term Memory | Working Consciousness | Temporarily stores task context, recent inputs, recent signals, intermediate results or active goals used by AI Actors for quick recall and real-time decision-making. |
Long Term Memory | Stored Knowledge | Retains meaningful events, goals, policies, and learnings across actor's lifespan and between lifetimes. |
Local & Global Memory | Personal vs Collective Memory | Differentiates what an AI actor remembers individually vs what it shares with others across the AIGrid. |
Working Memory | Thought Span | Active scratchpad for manipulating thoughts, evaluating plans, and aligning actions before commitment. |
Episodic Memory | Life Timeline | Chronological record of events, actions, and interactions, used for learning, retrospection, and grounding. |
Vector / Embedding | Intuition / Pattern Memory | Dense representation of knowledge and experience, allowing agents to reason via similarity or proximity. |
Semantic Memory | Factual Understanding | Stores structured knowledge — facts, rules, relations — enabling language, logic, and abstract reasoning. |
Distributed Elastic Inference
Component | Purpose | Role |
---|---|---|
Online Inference | Real-Time Serving | Enables real-time, low-latency inference aligned with live AI or agent tasks or flows. |
Batch Inference | Bulk Processing | Processes large input job requests offline or periodically. |
Adhoc Inference | On-Demand Queries | Supports spontaneous, agent-triggered inference requests that do not follow pre-declared schedules or workflows. |
Stateful Inference | Multi-Step Execution with Memory | Maintains context across multiple inference steps or sessions, enabling dialogue, planning, or multi-turn reasoning. |
Stateless Inference | Single-Step Execution | Executes standalone inference with no memory of previous inputs—useful for idempotent or cacheable AI calls. |
Model Mesh | Composable Routing | Dynamically connects multiple models across agents or nodes, forming a composable graph of inference capabilities. |
AI Gateway | Access Mediation | Routes and mediates inference requests, allows discovery, selection, enforces trust, policy, access control, and telemetry collection. |
Serverless Inference | Infra Abstraction | Allows models to be invoked without pre-provisioned infrastructure—ideal for ephemeral, high-variance agent demands. |
Modelless Inference | Intent Matching | Agents invoke intent-driven capability classes without knowing which model serves the intent. |
Plug and Play Inference Engines | Runtime Flexibility | Supports dynamic loading or swapping of models during runtime, enabling agent specialization or flow customization. |
Model Partitioning | Load Splitting | Splits large models into callable fragments to enable distributed execution across blocks, GPUs, or servers. |
Inference Cache | Result Reuse | Stores recent inference outputs to reduce latency and avoid redundant calls in shared or repeated contexts. |
Adaptive Inference | Dynamic Behavior | Adjusts inference strategy (e.g., precision, model size) based on resource availability, intent type, or priority. |
Cold Start Optimization | Launch Speed | Reduces startup latency by pre-warming models or using approximations while loading full capabilities. |
Resource Optimization | Cost Efficiency | Matches models to available compute based on cost, latency, or alignment sensitivity in the current environment. |
Multi-Tenant Serving | Shared Access | Allows multiple agents or flows to share models securely while preserving isolation, alignment, and quota fairness. |
Model Sharding | Parallel Execution | Distributes model weights or logic fragments across clusters or nodes to improve load balancing and fault tolerance. |
Inference Isolation | Execution Safety | Sandboxes inference execution for trust-critical or privacy-sensitive tasks, ensuring no leakage or interference. |
Distributed AI Graph Engine
Component | Purpose | Role |
---|---|---|
AI Metagraph | Capability Mapping | Represents the semantic map of goal-oriented selection of AI / agents, models, and services—selected through discovery, matching, alignment, and composition of intelligence. |
Runtime Metagraph | Execution Graph | Instantiated, live-running form of the metagraph—captures what’s currently executing across blocks, nodes, or flows. |
Compound AI | Multi-AI Composition | Composite AI or agents formed from multiple compatible, interoperating AI or agents within a virtual jurisdiction specified by policies. |
Auto AI | Self-Adaptive Logic | Allows graph structures to adapt, restructure, or evolve autonomously in response to policy data, or environmental shifts. |
Static AI Graph | Predefined Flow | Composite AI as a Graph with a fixed structure—used for predictable, controlled, and auditable AI layout. |
Dynamic AI Graph | Reactive Topology | Graph that evolves during execution—adds/removes nodes, changes paths based on signals, goals, or negotiation. |
Nested AI Graphs | Hierarchical Composition | Supports embedding of AI graphs inside other AI graphs—enables modular thinking, delegation, reuse, and recursive delegation. |
Graph Mutation | Runtime Editing | Allows direct modification of the graph mid-execution—to enable live adaptation, interruption, or goal shifts. |
Graph Planner | Intent Realization | Translates AI or agent goals or task intents into executable graph plans using AIGrid primitives such as intent specification, telemetry, discovery, selection, policy, and alignment rules. |
Graph Policies | Alignment Enforcement | Declares rules (trust, safety, priority, access) that guide how graphs are built, modified, and executed. |
Semantic Graph Layer | Meaning Layering | Adds structured, interpretable meaning to graph nodes and edges—enabling explainability, search, re-use, modular building and reasoning. |
AI Workload Specification
Component | Purpose | Role |
---|---|---|
Custom Specification | Intent Encoding | A meta protocol to create bespoke protocol for specifying & parsing task intents. |
Specification Validator | Validate Specification | Ensures submitted specifications are compliant with semantics, structure, constraints of reference protocol before parsing. |
Custom Parser | Format Translation | A meta protocol to create bespoke protocol for parsing and transforms incoming declarative intent specification into AIGrid-compatible execution models. |
Job Specification | Task Declaration | Describes declarative job-level intent, definitions, logic, dependencies, runtime, alignment, trust and other policy requirements. |
AI Graph Specification | Flow Declaration | Describes declarative graph structure of multi-stage, multi-AI / agent execution — roles, coordination, data and control flow logic. |
Workflow Specification | System Coordination | Defines multi-step non-AI job logic — chaining together jobs, policies, graphs into reusable workflows. |
Templating & Parametrization | Dynamic Reuse | Supports variable substitution and template inheritance for reusable, intent and context-aware workload patterns. |
Schema Adapters & Composition | Interop Bridge | Bridges external schemas into another schema. Enables composition, schema conversion, spec merging or schema federation, cross-protocol alignment—for AI and for jobs. |
Specification Registry | Versioned Catalog | Semantically indexes and stores workload specs to support discovery, reuse, and collaborative composition — even by low-context or less capable actors. |
L5, "Trust, Governance, Safety, Security, Incentive, Reputation Layer"
Identity & Access Control
Component | Purpose | Role |
---|---|---|
IAM | Actor Identity | Assigns self-sovereign or federated verifiable identities to actors for authentication across the grid — enabling authentication without central authority. |
RBAC | Role Permissions | Grants execution rights to actors based on decentralized role definitions distributed across governance domains. |
ABAC | Contextual Access | Evaluates access dynamically using context-aware attributes like trust level, graph position, or policy alignment. |
Secret & Credential Management
Component | Purpose | Role |
---|---|---|
Secret Management | Credential Storage | Stores, shares API keys, secrets, or tokens securely across actors using secure federated vaults. |
Key Management | Crypto Lifecycle | Manages cryptographic keys lifecycle in a decentralized manner — enabling encryption, signing, and trust verification without single-point issuers. |
Network Security & Communication
Component | Purpose | Role |
---|---|---|
mTLS | Encrypted Channels | Enables authenticated and encrypted communication between actors. |
Firewall | Connection Filtering | Restricts or filters traffic to/from AIGrid services based on intent, protocol, or trust policy. |
Encryption (At Rest & Transit) | Data Privacy | Ensures stored and transmitted data is encrypted per alignment or compliance requirements. |
DDoS Protection | Network Hardening | Defends actor gateways, actor APIs, and flow endpoints from abuse or overload. |
Asset Security
Component | Purpose | Role |
---|---|---|
Signing & Verification | Trust Anchoring | Ensures specs, models, and binaries are signed and verifiable as authentic and unaltered. |
Asset Encryption | Secure Storage | Encrypts AI models, data artifacts, and registries within distributed storage. |
Asset Access Control | Usage Governance | Regulates which actors or jobs can access specific AI or data assets. |
Secure Computing
Component | Purpose | Role |
---|---|---|
TEEs | Trusted Execution | Enables AI actors to execute sensitive logic or alignment-critical routines inside hardware-isolated environments (e.g., SGX), ensuring verifiable execution trust. |
Sandbox | Execution Isolation | Executes untrusted, remote, or modular AI actor logic in strict boundary environments — containing faults or misalignments locally. |
Confidential VMs | Encrypted Runtime | Runs entire AI agents or workloads with encrypted memory and I/O, securing ephemeral compute contexts from external inspection. |
MPC | Shared Secret Compute | Allows multiple AI actors to jointly compute on private data without exposing their raw inputs — enabling trust-preserving collaboration. |
Others
Component | Purpose | Role |
---|---|---|
Rate Limiting & Throttling | Abuse Control | Prevents overload by enforcing quotas or rate limits per AI, Agent, job, or resource. |
Abuse Detection | Anomaly Monitoring | Detects policy violations, hostile actors, unreliable trust patterns, or abnormal behavior. |
Immutable Logs & Audit Trails | Verifiable Trace | Captures tamper-proof execution logs for auditing trust, alignment, or compliance. |
Model Fingerprinting | Artifact Provenance | Uniquely identifies models and ensures authenticity, traceability, and lineage validation. |
PolicyGrid
Component | Purpose | Role |
---|---|---|
Governance | Decision Protocols | Governance not as static bureaucracy, but as a living, adaptive agent protocol for constitutional & law logic, collective decisions, and participation rules. |
Conflict Resolution | Dispute Mediation | Encodes how actors resolve intent clashes or policy conflicts via programmable arbitration and contextual adjudication. |
Trust | Verifiable Confidence | Allows agents to compute trust dynamically using actor actions, audits, and verifiable execution — beyond static reputation scores. |
Guardrails | Behavior Constraints | Programmable boundaries to constrain actor behavior — enforcing ethics, safety, escalation paths, and fail-safes. |
Security | System Containment | Enforces systemic containment and enables response to adversarial behavior across decentralized networks. |
Incentive | Motivation Engineering | Aligns agent behavior with collective goals using programmable incentive systems — staking, rewards, ethical returns. |
Steerability | Intent Guidance | Enables high-level influence over actors using goals, runtime signals, or policy triggers to shape behavior. |
Fulfilment Audit | Obligation Tracking | Verifies agent delivery, quality, and timeliness of commitments — enabling accountability and trust. |
Alignment | Goal Conformance | Ensures agent behavior remains faithful to values, ethics, and goals through audits and conformance checks. |
Enforcement | Constraint Execution | Applies binding constraints on behavior or decisions via policy runtime logic. |
SLA | Service Guarantees | Defines service-level expectations — availability, latency, interpretability — as enforceable guarantees. |
Resource Management | Allocation Fairness | Governs fair resource distribution using trust- and policy-aligned scheduling. |
Escalation Handling | Failsafe Routing | Routes actors through fallback paths when facing violations or failure conditions. |
Dynamic Delegation | Authority Transfer | Transfers task authority live between agents based on trust scores or capabilities. |
Program Ethics | Ethical Encoding | Encodes ethical constraints into policies to preempt harmful or biased behavior. |
Program Behaviour | Action Library | A modular library of AI behaviors used to guide valid action generation and ensure alignment. |
Reputation | Trust Memory | Maintains historic trustworthiness and alignment memory for use in access and delegation. |
Behaviour Audit | Compliance Logging | Logs and monitors agent behavior against expected norms to catch violations. |
Inference Strategies | Inference Decisions | Selects inference paths based on optimization, policies, and context. |
Monitoring | Policy Observability | Provides policy-aware observability of live SLA compliance, alignment drift, or anomalies. |
L6, "Cognitive Architectures"
Topologies of Ownership, Access, Governance
Topology | Purpose | Role |
---|---|---|
AI Commons | Shared Intelligence | Open, community-operated AI systems enabling universal access, shared AI resources, and collective benefit. |
AI Grid | Distributed Execution | A decentralized compute and internet of intelligence fabric where AI, agents, and services coordinate across nodes for solving tasks. |
Private AI | Proprietary Control | AI systems fully owned and governed by a single entity in a trusted, private environment with restricted access and closed control. |
Public AI | Open Access | AI systems as public infrastructure—citizen-aligned, transparent, accountable—serving collective societal goals. |
Federated AI | Coordinated Autonomy | Independent AI nodes collaborating through shared protocols without centralized control—spirit of the Fediverse. |
Sovereign AI | Jurisdictional Intelligence | AI governed by nation-states, indigenous groups, or digital nations—asserting legal, ethical, and territorial sovereignty. |
Decentralized AI | Peer-Based Autonomy | Independently operating agents governed through protocol consensus, policy trust, and mutual enforcement without central coordination. |
Polycentric AI | Multi-Governance Logic | AI coordinated by multiple legitimate governance layers—local, global, ethical, legal—via interoperable policy systems. |
Cloud AI | Centralized Provisioning | AI services provided via centralized datacenters, abstracted from user control. |
Local AI | Edge Autonomy | AI models run on edge/user devices with high privacy, low latency, and local decision control. |
AI Cooperatives | Democratic Intelligence | AI owned and co-created by members—individuals or communities—sharing access, benefits, and decisions for mutual gain. |
Compositional AI Systems
Type | Purpose | Role |
---|---|---|
Neuro-Symbolic | Hybrid Reasoning | Combines neural networks with symbolic AI to complement capabilities and enable interpretable, logic-guided intelligence — vital for alignment and governance. |
Compound AI | Composable Cognition | Compositional architecture composed of multiple diverse models/components working together for interoperability, coordination, and specialization. |
Internet of Intelligence | Inter-network AI Fabric | Networked, decentralized ecosystem of AI, agents, models, and systems — all composing and evolving through open, programmable collaborative protocols. |
Modular AI | Cognitive Modularity | Intelligence built from specialized modules — each handling a distinct function — composed into larger systems via clear interfaces and coordination logic. |
Emergent AI
Type | Purpose | Role |
---|---|---|
Collective AI | Goal-Directed Synergy | Rather than a single monolithic model doing everything, Modular AI distributes cognition, enabling flexibility, scalability, interpretability, and composability. |
Societies of Mind | Cognitive Multiplicity | Intelligence as a society of smaller specialized agents, each contributing to cognition through interaction, delegation, and composition. |
Swarm AI | Self-Organizing Intelligence | Emergent intelligence from large numbers of simple agents interacting locally without central control—exhibiting intelligent global behavior. |
Evolutionary AI | Adaptive Discovery | A paradigm where AI evolves using mutation, selection, recombination—supporting open-ended discovery and optimization across generations. |
Agents
Type | Purpose | Role |
---|---|---|
MultiAgent Systems | Cooperative Cognition | Distributes intelligence across a network of agents that cooperate, compete, or coexist to achieve goals. Intelligence emerges from their interactions. |
Reactive & Deliberative AI | Behavioral Modulation | Combines two complementary agent behaviors: Reactive AI (fast, context-aware) and Deliberative AI (planning, reasoning, simulating consequences). |
Non Emergent AI
Type | Purpose | Role |
---|---|---|
Neural Networks | Learning & Recognizing Patterns | Computational models inspired by the brain. Learns from data via layered neurons adjusting weights. Foundational to modern AI but often lacks transparency. |
Symbolic AI | Logic-Based Reasoning | Uses symbols and logic to represent knowledge and perform reasoning. Interpretable and formal, but weak in noisy or ambiguous environments. |
Classical ML | Statistical Learning | Traditional algorithms that learn from structured data without deep nets. Faster, more interpretable, and data-efficient. Ideal for transparent applications. |
Fuzzy Logic | Gradient Reasoning | Handles partial truths and ambiguity to make decisions in uncertain contexts. Common in real-world systems needing human-like or flexible reasoning. |
AI Intelligence Levels
Type | Purpose | Role |
---|---|---|
Open-ended Intelligence | Unbounded Adaptation | Refers to systems that continuously generate novel goals, behaviors, and forms of cognition without being confined to fixed tasks or architectures. These systems evolve, self-organize, and increase in complexity over time. |
Super Intelligence | Cognitive Supremacy | Refers to an AI that surpasses human intelligence across all domains, including creativity, social reasoning, and scientific discovery. Often seen as a successor to AGI. |
AGI | General Reasoning | Artificial General Intelligence is a machine's ability to perform any intellectual task that a human can, with comparable reasoning, learning, and adaptability. |
Narrow AI | Task Specialization | AI systems that excel in narrow, specific tasks but lack the ability to generalize beyond them — often outperforming humans in those limited domains. |