| name | agentic-uncertainty-quantification |
| title | Agentic Uncertainty Quantification |
| version | 0.0.2 |
| engine | skillxiv-v0.0.2-claude-opus-4.6 |
| license | MIT |
| url | https://arxiv.org/abs/2601.15703 |
| keywords | ["uncertainty-quantification","agentic-control","error-prevention","long-horizon-reasoning","confidence"] |
| description | Transform uncertainty estimates into active control signals for agents, combining implicit confidence mechanisms with targeted reflection to prevent error propagation in long-horizon reasoning tasks. Use when building autonomous agents that must navigate complex multi-step problems while managing confidence and uncertainty. |
Agentic Uncertainty Quantification
This skill enables agents to leverage uncertainty estimates as control signals, actively managing confidence levels and triggering reflection when uncertain, preventing cascading errors in long-horizon reasoning.
When to Use
- Multi-step reasoning tasks where early errors cascade
- Autonomous agents making sequential decisions
- Long-horizon planning tasks with uncertainty
- Systems where reflection can improve reasoning (math, code review, analysis)
- Agents needing to decide "should I double-check this step?"
When NOT to Use
- Single-step inference without context-dependent decisions
- Tasks where reflection time/cost is prohibitive
- Simple rule-based systems (uncertainty control not needed)
- Real-time systems requiring immediate responses
- Domains where uncertainty estimates aren't well-calibrated
Key Concept
Agentic Uncertainty Quantification transforms uncertainty from a passive metric (just measuring unreliability) into active control signals. The agent:
- Estimates Confidence: Quantify certainty in each decision
- Monitors Uncertainty: Track cumulative uncertainty across reasoning steps
- Triggers Reflection: When uncertainty exceeds threshold, pause and reflect
- Corrects Course: Use reflection to recover from potential errors
This prevents propagation of early errors through long chains of reasoning.
Implementation Pattern
Implement uncertainty-driven control in agent reasoning loops:
class UncertaintyAwareAgent:
def __init__(self, reasoning_model, uncertainty_threshold=0.5):
self.model = reasoning_model
self.threshold = uncertainty_threshold
def reason_with_uncertainty_control(self, problem):
reasoning_chain = []
cumulative_uncertainty = 0.0
for step (max_steps):
step_output, confidence = .model.generate_with_confidence(
context=reasoning_chain,
problem=problem
)
uncertainty = - confidence
cumulative_uncertainty += uncertainty
reasoning_chain.append(step_output)
uncertainty > .threshold:
reflection = .model.reflect(
context=reasoning_chain,
problem=problem,
focus=
)
reasoning_chain.append()
cumulative_uncertainty *=
cumulative_uncertainty > max_acceptable:
reasoning_chain