Inferensys

Prompt

Claim Complexity Scoring for Triage Prompt

A practical prompt playbook for using Claim Complexity Scoring for Triage Prompt in production AI workflows.
Developer doing prompt engineering on laptop, prompt variations visible on screen, casual coding session.
PROMPT PLAYBOOK

When to Use This Prompt

Understand the ideal job-to-be-done, user, and operational context for the Claim Complexity Scoring prompt, and when to avoid it.

This prompt is designed for verification pipeline operators and platform engineers who need to estimate the difficulty of verifying a claim before routing it to an automated system or a human reviewer. It produces a structured complexity score that considers claim structure, domain specificity, evidence requirements, and ambiguity. Use this prompt when your triage system must decide how to allocate verification resources, predict reviewer time-to-resolve, or set confidence thresholds for auto-verification.

The output is a pre-verification assessment, not a final verdict. It is most valuable when you need to calibrate routing logic, balance reviewer workloads, or measure whether your complexity estimates correlate with actual resolution effort. For example, you might use it to sort a batch of 500 extracted claims so that high-complexity items are routed to senior reviewers while low-complexity, high-confidence claims are sent to an auto-verification pipeline. The prompt expects a single claim and its surrounding context as input, and it returns a score with contributing factors.

Do not use this prompt for the final verification verdict itself. It does not determine truth or falsehood, and it should not be the sole gate for publishing, blocking, or removing content. Avoid using it on claims that are already fully verified or on claims where the evidence set is complete and a direct match is trivial. If your pipeline already has a deterministic complexity heuristic based on claim length or source count, this prompt may add latency without benefit. Start by running this prompt on a labeled calibration set to validate that its complexity scores correlate with your actual reviewer time-to-resolve before deploying it in a live routing path.

PRACTICAL GUARDRAILS

Use Case Fit

Where the Claim Complexity Scoring prompt fits into a production verification pipeline and where it introduces risk.

01

Good Fit: Pre-Routing Triage

Use when: you need to estimate verification effort before routing a claim to an auto-verification model or a human reviewer. The complexity score acts as a lightweight, upstream signal for queue assignment and SLA estimation. Guardrail: Calibrate the score against actual reviewer time-to-resolve to ensure the score correlates with real operational cost.

02

Good Fit: Cost-Aware Pipeline Decisions

Use when: you need to decide whether to run an expensive, high-capability model on a claim or fall back to a cheaper, faster one. Complexity scores can gate model selection. Guardrail: Set explicit complexity thresholds for model routing and monitor for threshold drift as model capabilities change over time.

03

Bad Fit: Standalone Verdict Replacement

Avoid when: you are tempted to use the complexity score as a proxy for claim truthfulness or verification outcome. A complex claim is not necessarily false, and a simple claim is not necessarily true. Guardrail: Ensure the complexity score is only used for triage and routing, never as an input to the final verification decision logic.

04

Required Inputs: Atomic, Well-Formed Claims

Risk: Scoring complexity on a paragraph of raw text or a multi-sentence assertion produces a meaningless aggregate score. Guardrail: The input must be a single, atomic, decontextualized claim from an upstream extraction step. Validate input format before scoring and reject non-atomic inputs.

05

Operational Risk: Score Inflation on Ambiguous Claims

Risk: The model may assign a high complexity score to claims that are simply vague or poorly written, conflating ambiguity with genuine evidentiary difficulty. Guardrail: Include an 'ambiguity' sub-score or flag in the output schema. Route high-ambiguity, low-complexity claims to a clarification step rather than a deep verification process.

06

Operational Risk: Domain Blindness

Risk: A general-purpose model may underestimate the complexity of claims in specialized domains (legal, medical) where verification requires niche knowledge bases and expert interpretation. Guardrail: Inject domain context into the prompt and maintain domain-specific calibration sets. Compare complexity scores across domains only after normalization.

PROMPT PLAYBOOK

Copy-Ready Prompt Template

A copy-paste prompt for scoring claim verification complexity to drive triage and routing decisions.

This prompt template is designed to be dropped directly into your verification pipeline. It instructs the model to act as a verification triage analyst, scoring a claim's complexity based on its structure, domain, and evidence requirements. The output is a structured JSON object that your application can parse to route the claim to an auto-verification module, a domain expert, or a human review queue. Before using this in production, you must calibrate the scoring thresholds against your actual reviewer time-to-resolve data to ensure the scores correlate with real-world effort.

text
You are a verification triage analyst. Your task is to estimate the complexity of verifying a factual claim. This score will be used to route the claim to an automated system, a domain expert, or a human reviewer.

INPUT CLAIM:
[CLAIM_TEXT]

AVAILABLE CONTEXT (Optional):
[CONTEXT]

ANALYSIS INSTRUCTIONS:
Evaluate the claim on the following four dimensions, each on a scale of 1 (simple) to 5 (highly complex):
1.  **Structural Complexity:** Is the claim atomic, or does it contain multiple nested assertions, comparisons, or conditional statements?
2.  **Domain Specificity:** Does the claim require specialized knowledge (e.g., legal, medical, financial) or is it general knowledge?
3.  **Evidence Accessibility:** How difficult is it to find a definitive, authoritative source to prove or disprove this claim? Consider if the evidence is likely public, proprietary, or experiential.
4.  **Ambiguity Level:** How vague or subjective is the claim's language? Are there quantifiable terms, or is it open to interpretation?

OUTPUT SCHEMA:
You must respond with a single, valid JSON object conforming to this structure:
{
  "claim_summary": "A concise re-statement of the core claim being evaluated.",
  "complexity_score": "An integer from 4 to 20, representing the sum of the four dimension scores.",
  "score_breakdown": {
    "structural_complexity": "Integer 1-5 with a one-sentence justification.",
    "domain_specificity": "Integer 1-5 with a one-sentence justification.",
    "evidence_accessibility": "Integer 1-5 with a one-sentence justification.",
    "ambiguity_level": "Integer 1-5 with a one-sentence justification."
  },
  "recommended_routing": "A suggestion of 'auto_verify', 'expert_review', or 'human_review' based on the score and breakdown.",
  "routing_rationale": "A brief explanation connecting the complexity score to the routing recommendation."
}

CONSTRAINTS:
- Do not attempt to verify the claim. Only score its complexity.
- If the claim is unintelligible, set all scores to 5 and the routing to 'human_review'.
- Base your assessment only on the provided claim and context.

To adapt this template, start by tuning the four complexity dimensions. Your domain might require different axes, such as 'Temporal Sensitivity' for news or 'Numerical Density' for financial claims. The critical calibration step is to run a batch of historical claims through this prompt and compare the complexity_score and recommended_routing against the actual time and expertise required to resolve them. Adjust the scoring scales and routing thresholds until the prompt's output is a reliable predictor of your operational costs. For high-stakes domains, always add a step for human approval on routing decisions that fall near a threshold boundary.

IMPLEMENTATION TABLE

Prompt Variables

Each placeholder must be populated before the prompt is sent to the model. Validation notes describe what the harness should check.

PlaceholderPurposeExampleValidation Notes

[CLAIM_TEXT]

The full text of the claim to be scored for complexity.

The company's revenue grew by 45% in Q3 2024, outpacing all competitors in the S&P 500.

Required. Must be a non-empty string. Harness should reject null or whitespace-only inputs before model call.

[CLAIM_DOMAIN]

The domain or subject area of the claim to contextualize evidence requirements.

financial_reporting

Required. Must match an allowed enum value defined by the system (e.g., legal, medical, technical, financial_reporting). Reject unknown domains before model call.

[AVAILABLE_EVIDENCE_COUNT]

The number of evidence documents or passages retrieved for this claim.

3

Required. Must be a non-negative integer. If 0, the harness should route to human review without scoring complexity, as evidence sufficiency is a prerequisite.

[EVIDENCE_SOURCE_TYPES]

A list of source types for the available evidence to assess authority diversity.

["peer_reviewed_journal", "company_filing", "news_report"]

Required. Must be a valid JSON array of strings. Harness should validate JSON parseability and that array length matches [AVAILABLE_EVIDENCE_COUNT].

[CLAIM_STRUCTURE]

A classification of the claim's logical structure to determine decomposition difficulty.

comparative_numerical

Required. Must match an allowed enum: simple_factual, comparative_numerical, causal, predictive, multi_part_compound. Reject unknown structures before model call.

[PRIOR_VERIFICATION_RESULT]

The outcome of any previous verification attempt on this claim, if it exists.

null

Optional. If provided, must be a valid JSON object with 'verdict' and 'confidence' fields. Harness should allow null for first-pass triage but validate schema if present.

[REVIEWER_TIME_BUDGET_MS]

The maximum milliseconds budgeted for human review to calibrate complexity thresholds.

600000

Required. Must be a positive integer. Harness should enforce a maximum value to prevent unbounded scoring and log a warning if the budget exceeds the system SLA.

PROMPT PLAYBOOK

Implementation Harness Notes

How to wire the complexity scoring prompt into a production verification pipeline with validation, calibration, and fallback controls.

The Claim Complexity Scoring prompt is not a standalone tool—it is a triage gate that determines routing, cost, and latency for downstream verification. Wire it into your pipeline immediately after claim extraction and before any evidence retrieval or human assignment. The prompt output must be treated as a structured signal that feeds a deterministic router, not as a final decision. Store the raw score, the factor breakdown, and the model version with every claim so you can recalibrate thresholds without replaying the entire pipeline.

Build a thin validation layer around the prompt response before routing. Check that the output contains a numeric complexity score within the expected range (e.g., 1–10), that required sub-scores are present (domain specificity, evidence accessibility, ambiguity level, multi-hop requirements), and that the justification field is non-empty. If validation fails, retry once with the same prompt and a stronger format reminder. If the second attempt also fails, route the claim to a human review queue with a validation_failure flag rather than guessing. Log every validation failure for later prompt refinement. For model selection, use a fast, cost-efficient model (such as GPT-4o-mini or Claude Haiku) for this triage step—the goal is low latency and low cost per claim, since this gate runs on every incoming claim before expensive retrieval or human review.

Calibration is the hardest part of this harness. You must measure whether the complexity scores actually correlate with reviewer time-to-resolve, error rates, or verification cost. Instrument your pipeline to capture the complexity score at triage time and the actual resolution metrics (reviewer minutes, number of evidence sources consulted, correctness outcome) at completion. Run a weekly calibration check: if claims scored 1–3 are taking longer than expected or claims scored 8–10 are resolving quickly, your thresholds or the prompt itself need adjustment. Publish a calibration dashboard that tracks score-vs-outcome correlation and flags drift. For high-stakes domains, add a human-in-the-loop sampling rule: every N claims in each complexity bucket get a full manual review regardless of score, so you can detect silent calibration failures before they cause systematic routing errors.

Avoid routing claims directly from the complexity score without a cost-latency budget check. Even if a claim scores low complexity, if your auto-verification pipeline is overloaded or the evidence retrieval latency exceeds your SLA, you may need to route to human review anyway. Implement a circuit breaker: if auto-verification queue depth exceeds a threshold, temporarily route all claims above a minimum complexity to human review to prevent SLA breaches. The complexity score feeds this decision but does not own it. Finally, never expose the raw complexity score to end users or downstream consumers without context—a 'complexity 7' means nothing to a reviewer. Instead, translate it into actionable routing labels like 'standard review,' 'specialist required,' or 'multi-source investigation needed' based on your calibrated thresholds.

IMPLEMENTATION TABLE

Expected Output Contract

Validate every field against this schema before the output touches downstream routing or reviewer queues. Reject or repair any response that does not conform.

Field or ElementType or FormatRequiredValidation Rule

complexity_score

number (0.0-1.0)

Must be a float between 0.0 and 1.0 inclusive. Reject if non-numeric, out of range, or null.

complexity_level

string enum

Must be one of: 'low', 'medium', 'high', 'critical'. Reject on case mismatch or unknown value.

claim_structure

string enum

Must be one of: 'simple_atomic', 'compound', 'multi_part', 'nested_dependency'. Reject on unknown value.

domain_specificity

string enum

Must be one of: 'general_knowledge', 'domain_specific', 'specialist_only'. Reject on unknown value.

evidence_requirements

object

Must contain 'source_count_estimate' (integer >= 0), 'primary_source_types' (array of strings), 'requires_expert_interpretation' (boolean). Reject if any sub-field missing or wrong type.

ambiguity_flags

array of strings

Must be an array. Allowed values: 'vague_language', 'conflicting_definitions', 'missing_temporal_context', 'pronoun_reference_ambiguity', 'quantifier_ambiguity'. Reject if array contains unknown flags.

triage_routing

string enum

Must be one of: 'auto_verify', 'human_review', 'escalate'. Reject if 'escalate' is selected but complexity_level is not 'high' or 'critical'.

routing_rationale

string

Must be non-empty string with minimum 20 characters. Must reference at least one specific field from this output. Reject if generic or placeholder text.

PRACTICAL GUARDRAILS

Common Failure Modes

Complexity scoring prompts fail in predictable ways when deployed in production triage pipelines. These are the most common failure modes and the specific guardrails that prevent them.

01

Score Inflation on Ambiguous Claims

What to watch: The model assigns high complexity scores to claims that are merely vague rather than genuinely complex, inflating human review queues with low-value tasks. This happens when the prompt lacks clear distinction between ambiguity and structural complexity. Guardrail: Include explicit scoring anchors that separate 'ambiguous wording' from 'multi-step verification required.' Calibrate with a labeled set of 50 claims where human reviewers have already distinguished between ambiguity and complexity.

02

Domain Familiarity Bias

What to watch: The model underestimates complexity for domains it has seen frequently in training data (e.g., general news) and overestimates complexity for specialized domains (e.g., regulatory filings, clinical trial data). This skews routing toward human review for niche domains even when auto-verification would suffice. Guardrail: Normalize complexity scores within each domain category rather than comparing raw scores across domains. Track score distributions per domain in production and flag when a domain's mean score drifts beyond two standard deviations of its baseline.

03

Evidence Assumption Leakage

What to watch: The model implicitly assumes evidence availability or quality when scoring complexity, producing low scores for claims where evidence 'should' exist but doesn't in your actual knowledge base. This routes unverifiable claims to auto-verification. Guardrail: Require the prompt to score complexity based only on claim structure and required evidence types, never on assumed evidence availability. Add a post-scoring check: if the claim's evidence sources are empty or low-quality after retrieval, override the complexity score upward regardless of the model's initial assessment.

04

Numerical Claim Misclassification

What to watch: Claims containing numbers, percentages, or statistical assertions are scored as low-complexity because the model treats them as simple fact-checking, when in reality they require tolerance windows, unit normalization, and source comparison logic. Guardrail: Add a specific complexity multiplier for numerical claims in the prompt instructions. Validate by comparing complexity scores for numerical vs. non-numerical claims with equivalent verification difficulty as judged by human reviewers. If numerical claims consistently score lower, adjust the multiplier.

05

Multi-Hop Blind Spot

What to watch: Claims that require chaining multiple evidence sources or inferring connections between documents are scored similarly to single-source claims because the model doesn't recognize the verification path length. Guardrail: Include explicit multi-hop detection in the prompt: ask the model to count how many distinct evidence lookups would be required before assigning a score. In post-processing, flag any claim where the model's stated hop count doesn't match the final complexity score for human review.

06

Temporal Drift in Scoring Behavior

What to watch: The same claim type receives different complexity scores over time as the model's behavior shifts due to provider updates, temperature settings, or context window changes. This breaks routing consistency and makes SLA planning unreliable. Guardrail: Maintain a golden set of 20-30 claims with known complexity scores reviewed by human operators. Run this set through the scoring prompt weekly and alert if mean absolute deviation exceeds 0.5 on your complexity scale. Freeze prompt versions and only promote changes that pass the golden set check.

IMPLEMENTATION TABLE

Evaluation Rubric

Test these criteria against a golden dataset of 50-100 pre-scored claims before deploying any prompt changes. Each criterion targets a specific failure mode in complexity scoring.

CriterionPass StandardFailure SignalTest Method

Complexity Score Correlation

Pearson correlation >= 0.7 between predicted complexity score and actual reviewer time-to-resolve (minutes)

Scores show weak or negative correlation with actual resolution time; high-complexity claims resolve quickly or vice versa

Run prompt on golden dataset; compute correlation between [COMPLEXITY_SCORE] output and logged resolution_time_minutes field

Domain-Specific Inflation

Mean complexity score for [DOMAIN] claims within 0.5 standard deviations of overall mean; no domain systematically scored higher without evidence of higher resolution time

Single domain (e.g., legal, medical) consistently scores >1 SD above mean despite similar resolution times in ground truth

Group golden dataset by [DOMAIN] field; run ANOVA on complexity scores across domains; flag domains with p < 0.01 and effect size > 0.5

Ambiguity Sensitivity

Claims tagged as 'ambiguous' in golden dataset receive complexity scores >= 6 on 1-10 scale in at least 80% of cases

Ambiguous claims frequently receive low complexity scores (<= 4); prompt fails to recognize ambiguity as complexity driver

Filter golden dataset to rows where [AMBIGUITY_FLAG] = true; measure percentage with [COMPLEXITY_SCORE] >= 6; fail if < 80%

Multi-Hop Detection

Claims requiring >= 3 evidence sources receive complexity scores >= 7 in at least 85% of cases

Multi-evidence claims scored as simple; prompt treats evidence count as irrelevant to complexity

Filter golden dataset to rows where [EVIDENCE_SOURCE_COUNT] >= 3; measure percentage with [COMPLEXITY_SCORE] >= 7; fail if < 85%

Numerical Claim Handling

Claims containing quantitative assertions receive complexity scores within 1 point of golden dataset expert scores in at least 90% of cases

Numerical claims systematically underscored; prompt ignores calculation verification burden

Filter golden dataset to rows where [CLAIM_TYPE] = 'numerical'; compute mean absolute error between [COMPLEXITY_SCORE] and [EXPERT_COMPLEXITY_SCORE]; fail if MAE > 1.0

Score Distribution Spread

Complexity scores use full 1-10 range with at least 10% of claims in each tercile (1-3, 4-7, 8-10)

Scores cluster in narrow band (e.g., all 4-6); prompt fails to differentiate claim difficulty

Compute histogram of [COMPLEXITY_SCORE] across full golden dataset; verify each tercile contains >= 10% of claims; fail if any tercile < 10%

Edge Case: Single-Word Claims

Atomic single-word or short-phrase claims (e.g., names, dates) receive complexity scores <= 3 in at least 95% of cases

Trivial claims scored as moderate or high complexity; prompt overweights surface features

Filter golden dataset to rows where [CLAIM_LENGTH_CHARS] <= 50; measure percentage with [COMPLEXITY_SCORE] <= 3; fail if < 95%

Inter-Rater Reliability

Fleiss' Kappa >= 0.6 when comparing complexity score terciles across 3 repeated prompt runs on same golden dataset

High variance in scores across identical inputs; prompt is non-deterministic or sensitive to irrelevant context

Run prompt 3 times on full golden dataset with temperature=0; compute Fleiss' Kappa on tercile assignments; fail if Kappa < 0.6

ADAPTATION OPTIONS

Adapt This Prompt

How to adapt

Use the base prompt with a frontier model and lighter validation. Focus on getting a reasonable complexity score and a short justification. Accept a simple JSON object with complexity_score and rationale fields.

code
System: You are a claim complexity scorer for verification triage.

User: Score the complexity of this claim from 1 (trivial) to 5 (expert required).
Claim: [CLAIM_TEXT]
Context: [OPTIONAL_DOMAIN_CONTEXT]

Return JSON:
{
  "complexity_score": <1-5>,
  "rationale": "<brief explanation>"
}

Watch for

  • Missing schema checks leading to parse failures
  • Overly broad instructions producing inconsistent scores across similar claims
  • No calibration against actual reviewer time-to-resolve
Prasad Kumkar

About the author

Prasad Kumkar

CEO & MD, Inference Systems

Prasad Kumkar is the CEO & MD of Inference Systems and writes about AI systems architecture, LLM infrastructure, model serving, evaluation, and production deployment. Over 5+ years, he has worked across computer vision models, L5 autonomous vehicle systems, and LLM research, with a focus on taking complex AI ideas into real-world engineering systems.

His work and writing cover AI systems, large language models, AI agents, multimodal systems, autonomous systems, inference optimization, RAG, evaluation, and production AI engineering.