Models

What Is Robotic Process Automation?

The use of software bots to mimic human actions inside business applications and automate rule-based, repetitive work.

What Is Robotic Process Automation?

Robotic process automation (RPA) is the use of software bots to mimic human actions inside business applications — clicking buttons, copying fields, moving data between systems — to automate rule-based, repetitive work. Traditional RPA platforms (UiPath, Blue Prism, Automation Anywhere) record or script workflows against UI elements or APIs and replay them at scale. The 2026 evolution is agentic RPA: replacing or augmenting the rule-based bot with an LLM-driven agent that can read the screen, reason about the goal, and adapt when the UI changes. FutureAGI evaluates the LLM and agent layer of these modern systems.

Why It Matters in Production LLM and Agent Systems

Classic RPA’s brittleness is its defining problem. A bot trained on a vendor portal breaks the day the vendor ships a UI redesign. A claims-processing bot that worked perfectly for two years stalls when a single field moves. The cost of maintenance often exceeds the savings.

Agentic RPA — bots powered by LLM-driven agents — promises a fix. An agent that reads the screen instead of relying on hard-coded selectors can adapt when the layout changes. A planner that decides “click the new approval button” instead of executing “click element X at coordinates Y” survives small UI shifts. But this flexibility introduces new failure modes: hallucinated clicks, wrong-tab actions, runaway loops on confusing screens, and security risks when the agent has elevated permissions.

The pain shifts. A backend engineer sees a runaway-cost incident when an RPA agent loops on a CAPTCHA-protected page. An SRE watches a payroll bot complete 95% of records and silently drop 5% because the agent decided one row was “ambiguous.” A compliance lead is asked, “did the bot enter the right data in the right field?” and has no auditable trail. End users discover that an “automated” process produced wrong outputs that took weeks to find.

In 2026 stacks, RPA is no longer a separate category from AI agents — it is one surface where agents act on enterprise software. That makes step-level evaluation and full trajectory traces non-negotiable.

How FutureAGI Handles Agentic RPA Evaluation

FutureAGI’s approach is to instrument and evaluate every step the RPA agent takes. At the trace level, traceAI integrations such as traceAI-openai-agents, traceAI-langgraph, and traceAI-anthropic emit OpenTelemetry spans for every action — read screen, decide, click, type. Each span carries agent.trajectory.step and the tool name. At the step level, ToolSelectionAccuracy scores whether the agent picked the right action given the screen state. At the goal level, TaskCompletion returns whether the user’s actual goal — process this invoice, refund this order — was reached, and GoalProgress quantifies partial credit when the agent stalled.

Concretely: an RPA team running an invoice-processing agent on the OpenAI Agents SDK instruments it with OpenAIAgentsInstrumentor, samples production traces into an eval cohort, runs TaskCompletion and ToolSelectionAccuracy on each, and dashboards eval-fail-rate-by-cohort. When fail rate spikes after a vendor portal update, the trace view points to a planner step where the agent started clicking a deprecated button. Without per-step evaluation, the team would only see “RPA fail rate up” and have nowhere to look.

For pre-production safety, the ActionSafety evaluator runs on agent actions before they execute, blocking destructive actions on high-stakes workflows. That turns an offline metric into an online safety net.

How to Measure or Detect It

Agentic RPA failures surface across multiple signals — pick the ones that map to your task:

  • TaskCompletion: returns 0–1 for whether the agent finished the user’s actual goal.
  • ToolSelectionAccuracy: returns whether each click or action was correct given the screen state.
  • GoalProgress: partial-credit score across the trajectory; useful when binary success is too coarse.
  • ActionSafety: gates destructive actions before they execute.
  • agent.trajectory.step (OTel attribute): canonical span attribute on every RPA agent step.
  • Step-count anomaly: dashboard signal — an agent doing 3x normal steps usually means it is looping.
from fi.evals import TaskCompletion, ToolSelectionAccuracy

task = TaskCompletion()
tool = ToolSelectionAccuracy()

result = task.evaluate(
    input="Process invoice INV-9876",
    trajectory=trace_spans,
)

Common Mistakes

  • Treating agentic RPA like classic RPA. Hard-coded selectors break on UI change; agentic flexibility is the point. Evaluate goal completion, not selector matches.
  • Only running end-to-end success evals. A 70% TaskCompletion rate hides whether the failures are wrong tool, wrong field, or runaway loop.
  • Letting the bot run unbounded. No max-iteration cap turns a single bug into a runaway-cost incident.
  • Ignoring action safety. An agent with payment or delete permissions can cause real damage; gate destructive actions through ActionSafety.
  • Skipping audit trails. Compliance reviews require step-level traces; trace every action, not just the final outcome.

Frequently Asked Questions

What is robotic process automation (RPA)?

RPA is the use of software bots to mimic human actions inside business applications — clicking, typing, copying — to automate rule-based work. The 2026 evolution layers LLM-driven agents on top so the bot can adapt to UI changes.

How is RPA different from AI agents?

Classic RPA follows hard-coded scripts; AI agents reason about the goal and pick actions dynamically. Modern stacks combine the two — an LLM agent decides what to do, RPA tools execute the click.

How do you evaluate an AI-driven RPA bot?

FutureAGI scores agent-driven RPA with TaskCompletion for end-to-end success, ToolSelectionAccuracy for the right action at each step, and GoalProgress for partial credit across the trajectory.