Kaufman Skill Map
Kaufman-based skill map for learning enterprise-grade stateful multi-agent AI systems in Python, focused on deconstruction, self-correction, practice design, and engineering invariants.
// Kaufman-based skill map for learning enterprise-grade stateful multi-agent AI systems in Python, focused on deconstruction, self-correction, practice design, and engineering invariants.
This track is ordered for sequential learning. Start from the first part if you want the full mental model, or jump directly into a chapter if you already know the foundations.
Ordered progression from foundations to advanced topics
Kaufman-based skill map for learning enterprise-grade stateful multi-agent AI systems in Python, focused on deconstruction, self-correction, practice design, and engineering invariants.
Target performance, skill decomposition, deliberate practice plan, feedback loop, and 20-hour learning path for enterprise-grade stateful multi-agent AI systems in Python.
Build the core mental model for moving from a chatbot mindset to a stateful, auditable, enterprise decision system.
A practical taxonomy for distinguishing workflows, agents, multi-agent systems, copilots, autonomous workers, and enterprise AI platforms.
State machines and agent lifecycle engineering for enterprise-grade stateful multi-agent AI systems in Python.
Control plane versus data plane architecture for enterprise AI agent platforms built with Python.
Orchestration topologies for enterprise-grade stateful multi-agent AI systems: router, supervisor, swarm, graph, pipeline, blackboard, handoff, and hierarchical control.
Determinism versus autonomy in enterprise-grade stateful multi-agent AI systems: autonomy budgets, authority boundaries, guardrails, policy gates, and production control.
Stateful runtime design for enterprise-grade AI agents: sessions, threads, runs, checkpoints, hydration, resume, interrupts, replay, state ownership, and schema evolution.
Python runtime architecture for enterprise-grade stateful multi-agent AI systems: async orchestration, structured concurrency, isolation, backpressure, deadlines, cancellation, and runtime safety.
Domain state, conversation state, and execution state in enterprise-grade stateful multi-agent AI systems: ownership, mutation rules, event logs, state drift, and recovery boundaries.
Agent contracts and typed boundaries for enterprise-grade stateful multi-agent AI systems using Pydantic, JSON Schema, event envelopes, schema versioning, and compatibility rules.
Command, Query, and Event model for enterprise-grade stateful multi-agent AI systems: explicit intent, read models, event envelopes, proposed vs committed events, outbox/inbox, auditability, and agent-safe side effects.
Idempotency, retry, deduplication, and exactly-once illusions in enterprise-grade stateful multi-agent AI systems: safe side effects, retry budgets, outbox/inbox, crash windows, and tool execution safety.
Agent roles and responsibility modeling for enterprise-grade stateful multi-agent AI systems: authority, ownership, RACI, bounded context, capability scope, escalation, accountability, and anti-patterns.
Planner-Executor-Critic pattern for enterprise-grade stateful multi-agent AI systems: typed plans, execution control, critics, verifiers, replanning, failure modes, and governance.
Supervisor-worker and routing patterns for enterprise-grade stateful multi-agent AI systems: delegation, routing, specialist selection, bounded autonomy, task contracts, aggregation, and failure handling.
Consensus, voting, and adjudication for enterprise-grade stateful multi-agent AI systems: disagreement modeling, ensemble patterns, judge design, confidence, evidence weighting, quorum, and human escalation.
Human-in-the-loop control points for enterprise-grade stateful multi-agent AI systems: approval, review, override, escalation, audit, decision packages, interrupts, and governance.
Memory architecture for enterprise-grade stateful multi-agent AI systems: short-term, long-term, episodic, semantic, procedural, working memory, memory governance, retrieval, updates, and forgetting.
Context engineering for enterprise-grade stateful agents: context assembly, relevance, sufficiency, isolation, compression, provenance, token budgets, policy context, and failure modes.
RAG as a system component for enterprise-grade stateful multi-agent AI systems: ingestion, indexing, retrieval, ranking, grounding, freshness, authorization, evaluation, and failure modes.
Knowledge graphs and symbolic state for enterprise-grade stateful multi-agent AI systems: triples, entities, relationships, provenance, temporal validity, graph-RAG, reasoning, and governance.
Memory governance and forgetting for enterprise-grade stateful multi-agent AI systems: retention, consent, deletion, supersession, provenance, privacy, evidence quality, audit, and operational controls.
Tool contract engineering for enterprise-grade stateful multi-agent AI systems: safe, typed, observable, authorized, idempotent, versioned, and governable tool use.
MCP and enterprise tooling for stateful multi-agent AI systems: tools, resources, prompts, authorization, client/server boundaries, registry, security, governance, and runtime integration.
Permissioning and policy enforcement for enterprise-grade stateful multi-agent AI systems: PDP/PEP, RBAC, ABAC, ReBAC, risk policy, tool policy, memory policy, decision logs, and policy-as-code.
Side effects and transaction boundaries in enterprise-grade stateful multi-agent AI systems: commands, sagas, outbox/inbox, idempotency, compensation, approval, reconciliation, and exactly-once illusions.
Threat modeling agentic systems for enterprise-grade stateful multi-agent AI: prompt injection, tool abuse, data exfiltration, memory poisoning, RAG poisoning, supply chain, identity, policy bypass, and excessive agency.
Guardrails and policy runtime for enterprise-grade stateful multi-agent AI systems: input, output, tool, state, workflow, memory, RAG, and human review guards.
AI governance and risk management for enterprise-grade stateful multi-agent AI systems using NIST AI RMF-style governance, risk registers, control catalogs, accountability, evidence packs, and enterprise operating controls.
Evaluation engineering for enterprise-grade stateful multi-agent AI systems: golden sets, simulations, judges, trajectory evals, regression gates, RAG evals, tool evals, and CI/CD quality controls.
Reliability and failure modeling for enterprise-grade stateful multi-agent AI systems: loops, drift, hallucination, deadlocks, cost explosions, retries, circuit breakers, graceful degradation, and chaos testing.
Observability and runtime forensics for enterprise-grade stateful multi-agent AI systems: traces, spans, events, decisions, evidence trails, run manifests, audit, replay, and incident reconstruction.
Reference architecture and capstone for an enterprise-grade stateful multi-agent AI case management system: runtime, state, orchestration, tools, memory, RAG, policy, human review, evaluation, reliability, observability, deployment, and operating model.