
Explore agentic AI as autonomous agents that perceive, reason, and act. Understand multi-agent systems with decentralized intelligence and emergent behavior, and how the agent name service (ans) enables secure discovery.
Contrast traditional DNS with Agent Name Service (ANS) to show how ANS maps identities, including agents' roles, policies, and versions, using cryptographic proofs and signed records for secure, policy-aware discovery.
Explore the ANS architecture and its components—registries, resolvers, adapters, verifiers, and gateways—that enable secure discovery, cryptographic identity resolution, and policy-driven agent interoperability in federated or decentralized ecosystems.
Register agents by submitting a json-based request with name, capabilities, provider, version, and a certificate signing request; the registry ensures renewal and revocation through validated certificates.
Bind agent identities to public keys via CSR, RA, CA, and certificate validation. Store certificates and enable revocation checks via CRLs and OCSP through the registry.
Ans json schema defines data exchange for agent registration and discovery, enabling machine-validated communication, semantic versioning, certificate validation, and protocol extensions for secure identities and capabilities.
The Ans name encodes identity, version, provider and compliance into a structured semantic string, enabling secure, rule-based agent discovery and provenance parsing without full queries.
Discover how the ANS resolution mechanism dynamically resolves an agent’s identity and security data through version negotiation and cryptographic verification, including certificate validation and revocation checks.
Enable secure resolution in ANS by enforcing TTL freshness, cryptographic signature validation from the registration authority, and endpoint verification with TLS checks and heartbeat confirmations.
Explore governance and naming authority for secure AI agent discovery, using ICANN-style registries to prevent collisions, enable federated trust, and manage namespace lifecycle.
Understand how the protocol adapter layer in the agent name service unifies discovery and resolution for A-2a, MCP, and ACP agents, enabling plug-and-play, secure, extensible agent communication.
The A2A adapter uses agent cards, compact signed json passports containing identity, capabilities, policies, and trust metadata, signed by a RA and verifiable by peers, with optional zero knowledge proofs.
Explore the MCP adaptor in Ans for secure, compliant multi-agent orchestration, resolving rich tool metadata, RBAC and ABAC policies, and runtime policy evaluation across tool chains.
Explore the ACP adapter and role-based orchestration framework within the agent compute policy ecosystem, enabling secure execution, delegation with explicit permissions, and policy zone based runtime governance.
Master cross protocol discovery with Ans through its unified naming system and protocol adapter layer, enabling universal resolution of heterogeneous agents; recognize limitations and trust safeguards.
Define agent identity through logical, cryptographic, and protocol-specific facets within the agent name service to enable secure discovery, CSR-based binding, and trust validation in zero-trust ecosystems.
Use zero knowledge proofs to enable secure capability disclosure in multi-agent ecosystems, proving compliance or access without revealing internal details.
Explore how oauth, mutual TLS (mTLS), JSON Web Tokens (JWT), and sandbox security models enforce authentication, authorization, encryption, and constrained execution in ANS ecosystems.
Apply the maestro seven-layer threat modeling framework to intelligent agent environments, analyzing threat vectors across identity, metadata exposure, sandboxing, and cross-agent orchestration. Guides mitigations for defense in depth.
Protect agent discovery by preventing impersonation, registry poisoning, and mitm attacks using PKI-backed identity, certificate signing, mTLS, and signature validation for authentic, tamper-free communication.
Secure the agent name service against DoS/DDoS, side-channel, and deanonymization threats with rate limiting, tokenized access, and metadata obfuscation to maintain availability and privacy.
Explore the agent name service security mechanisms securing discovery, verification, and interaction for intelligent agents through PKI binding, X.509 certificates, signed metadata, mutual TLS, and auditable governance.
Compare centralized registries to distributed models like Cassandra and CockroachDB for secure ai agent discovery, highlighting trade-offs in performance, availability, and resilience.
Explore federated registries in the agent name service for secure cross-domain agent resolution, enabling interoperable and trusted discovery through signed metadata, certificate chains, and global schema standards.
Learn how hybrid agent discovery uses caching layers (Redis, Memcached) with persistent stores (PostgreSQL, Cassandra, CockroachDB) to accelerate reads and reduce latency. Ensure security with TTL, validation, and access controls.
This course offers a comprehensive foundation in Agent Name Service (ANS) for Secure AI Agent Discovery, focusing on how autonomous agents securely identify, verify, and collaborate through the Agent Name Service (ANS) framework. We begin by establishing a clear understanding of Agentic AI and Multi-Agent Systems (MAS), framing how independent, task-oriented agents function within intelligent digital ecosystems. From there, learners explore the core architecture of ANS, diving into components such as agent resolvers, trust authorities, and federated registries. Special emphasis is placed on the Agent Registration Lifecycle, highlighting how agents are registered, renewed, and revoked in a secure, traceable manner using Public Key Infrastructure (PKI) and digital certificates.
The course then examines how agent discovery and interaction are governed through structured semantics, introducing the ANSName format—an intuitive, hierarchical naming system that embeds identity, capability, version, and compliance in each agent name. Key mechanisms such as version negotiation, signature verification, TTL enforcement, and endpoint validation ensure robust, real-time resolution and prevent impersonation or misuse. Students will also learn about governance challenges, including naming collisions and domain ownership, with comparisons to ICANN-style registries.
A full module is devoted to the Protocol Adapter Layer, explaining how ANS supports varied agent interactions (A2A, MCP, ACP) through capability cards, metadata schemas, role-based policies, and secure delegation frameworks. This is paired with deep dives into identity modeling and verification, including the use of Zero-Knowledge Proofs (ZKPs), JWTs, OAuth, mutual TLS, and sandbox enforcement to authenticate and isolate agents at runtime.
Advanced sessions explore security using the MAESTRO 7-Layer Threat Model, analyzing vulnerabilities like registry poisoning, DoS, and side-channel attacks, and presenting ANS-specific mitigation strategies. Finally, learners evaluate implementation options such as centralized vs. distributed registries, federated resolution, and hybrid caching models (Redis, Memcached) to scale ANS securely and efficiently.