Agentic workflow
An agentic workflow is a process in which an AI agent is given an outcome rather than a fixed sequence of steps, plans how to reach it, calls tools and knowledge sources to gather information and take action, and re-evaluates its plan as new information comes in. It replaces the rigid if-X-then-Y logic of traditional automation with something closer to goal-directed execution.
The path taken can change from one run to the next even when the starting request looks identical. That shift matters because most real work does not decompose into a clean decision tree — a refund request, a flight rebooking, or a technical troubleshooting case each branch in ways no engineer can fully anticipate in advance.
Agentic workflows have become the dominant design pattern for automating this kind of open-ended task, replacing the brittle rule engines that preceded them across customer support, IT operations, and back-office processing.
Agentic workflow versus traditional workflow
A traditional workflow is a fixed graph: a specific sequence of steps that runs in a specific order every time, possibly branching on inputs, but with every branch designed in advance by a human. The workflow does not decide anything at runtime — it executes exactly what was configured, which is precisely why it breaks on cases nobody anticipated.
An agentic workflow inverts that relationship. The agent is told what done looks like and decides how to get there, which means two runs of the same workflow can take entirely different paths depending on what the agent discovers along the way. This is a broader claim than the related term agent workflow, and it sits underneath the wider umbrella of AI workflow automation, which includes both agentic and non-agentic approaches.
The stages inside an agentic workflow
Goal specification and planning. The workflow starts from a natural-language outcome — resolve this refund request, book a flight matching these constraints — rather than a list of steps to execute. The agent then breaks that goal into sub-steps, often using chain-of-thought reasoning or an explicit planner-executor split where one component plans and another carries out each step.
Tool use and self-evaluation. The agent calls tools — APIs, databases, retrieval systems — to pull in context it does not already have or to take an action in the world. After each step it checks its own progress: did the tool call return what was expected, is the plan still viable. This loop is what lets the workflow recover from a wrong turn instead of continuing down a broken path.
Completion or handoff. When the goal is met, the agent returns a result. When it is not confident it can close the case correctly, it triggers a human handoff rather than guessing.
Common implementation patterns
Planner-executor. A handful of patterns recur across most production agentic workflows. The planner-executor split uses one model to plan the overall approach and a second, often smaller and faster model to execute each individual step, which keeps cost down without sacrificing planning quality.
ReAct and multi-agent designs. The ReAct pattern interleaves reasoning and acting directly — think, act, observe, think again — inside a single loop rather than separating planning from execution into distinct phases.
More complex deployments move to a multi-agent design, where a team of specialized agents is coordinated by an orchestrator rather than asking a single agent to do everything.
Reflection. A separate reflection pattern has an agent generate a result and then critique its own output before finalizing it, a technique closely related to using an LLM as a judge of its own work.
Why agentic workflows are not free of trade-offs
The same flexibility that makes agentic workflows powerful is also what makes them harder to guarantee. A workflow that plans its own path at runtime is inherently less predictable than a fixed script, which means testing has to cover a much wider space of possible behavior. Teams that skip this step tend to discover the gaps in production rather than before launch.
Production-grade agentic workflows generally share four properties as a result. They ground the agent in a curated knowledge base rather than letting it generate freely. They run full-coverage agent testing against real historical conversations before rollout, and continuous evals afterward to catch regressions when a model or knowledge source changes.
They log every step — the plan, the tool calls, the outputs, the final action — so a failure can be traced after the fact. And they apply guardrails such as hallucination detection and PII redaction at each step rather than only at the final output.
Where agentic workflows fit in an AI stack
Customer experience is one of the clearest fits for this pattern because most support cases are already goal-directed in the way an agentic workflow expects: resolve this issue for this customer, using whatever combination of policy lookups, account checks, and actions that requires.
Rather than hand-coding every branch a support case could take, a platform can define human-readable playbooks that the agent uses to plan and execute, and escalate to a human the moment a case falls outside a known procedure rather than improvising past the edge of what it has been authorized to do. That combination of structured guidance and runtime adaptability is what allows agentic workflows to handle the long tail of support cases that scripted automation never could.

