Inferensys

Prompt

Verification SLA Classification Prompt

A practical prompt playbook for using the Verification SLA Classification Prompt in production AI workflows to assign service-level targets, deadlines, and escalation triggers to verification tasks.
Product manager reviewing autonomous task execution dashboard on laptop, completed tasks visible, casual work session.
PROMPT PLAYBOOK

When to Use This Prompt

A practical guide for operations teams and platform engineers who need to assign consistent, auditable SLA tiers to incoming verification tasks before they enter a processing queue.

This prompt is designed for the critical handoff point where a new verification task arrives and must be classified before any actual verification work begins. The primary job-to-be-done is to analyze an incoming claim, assess its risk profile, urgency, and complexity, and then produce a structured SLA assignment that dictates the deadline, required review depth, and escalation triggers. The ideal user is a platform engineer or operations lead embedding this classification step into an automated verification pipeline. Required context includes the claim text, its source, any available metadata about the claim's origin, and your organization's SLA tier definitions. Without this context, the model cannot make a calibrated risk assessment and will default to generic, potentially unsafe classifications.

Do not use this prompt for the actual verification of claims—it only handles classification and routing metadata that precedes verification work. It is also not a replacement for a full risk assessment framework; it operationalizes existing SLA policies into consistent decisions. The prompt is most valuable when your pipeline processes heterogeneous claims at volume and you need to prevent high-risk claims from sitting in low-priority queues. For example, a claim about a publicly traded company's earnings made during market hours should receive a higher SLA tier than a claim about a minor product description typo. The prompt enforces this distinction programmatically, producing auditable records that explain why each task received its assigned tier. Before implementing, ensure your SLA tier definitions are documented with clear criteria for deadline windows, review depth requirements, and escalation conditions. Ambiguous tier definitions will produce inconsistent classifications regardless of prompt quality.

After implementing this classification step, the next action is to wire the output into your queue management system so that SLA deadlines are enforced and escalation triggers are monitored. Avoid the common mistake of treating the SLA classification as static—claims may be reclassified if new information about risk or urgency emerges. Build a reclassification path rather than locking the initial assignment. Also avoid using this prompt as a gate that blocks low-priority work entirely; even low-tier tasks need processing, just with appropriate latency expectations. The classification should influence queue priority and resource allocation, not determine whether work happens at all.

PRACTICAL GUARDRAILS

Use Case Fit

Where the Verification SLA Classification Prompt works and where it introduces operational risk. Use these cards to decide if this prompt fits your verification pipeline before integrating it into production routing.

01

Good Fit: Structured Triage Pipelines

Use when: You have a defined verification queue with explicit SLA tiers, and claims arrive with risk metadata, evidence sufficiency scores, and domain tags. Guardrail: The prompt performs best when claim risk levels are pre-scored by an upstream classifier. Do not feed raw, unscored claims directly into SLA classification.

02

Bad Fit: Ad-Hoc or Single-Reviewer Workflows

Avoid when: There is no formal SLA framework, no queue manager, and one reviewer handles everything. Guardrail: SLA classification adds unnecessary overhead without a routing system to consume the output. Use a simpler priority flag instead of a full SLA tier assignment.

03

Required Inputs: Risk, Evidence, and Deadline Context

What to watch: The prompt needs claim risk level, evidence sufficiency indicators, domain sensitivity tags, and any hard deadlines. Missing inputs cause the model to hallucinate SLA tiers. Guardrail: Validate all required fields are present before invoking the prompt. If inputs are incomplete, route to a human triage default instead of guessing.

04

Operational Risk: SLA Breach Cascades

What to watch: Misclassifying a high-risk claim into a low-priority SLA tier can cause deadline misses, compliance violations, and audit failures. Guardrail: Implement a hard floor rule in application code: claims above a risk threshold always receive the highest SLA tier regardless of model output. The prompt suggests; the system enforces.

05

Operational Risk: Deadline-Aware Routing Gaps

What to watch: The prompt may assign an SLA tier without considering current queue depth or reviewer availability, creating assignments that are mathematically impossible to fulfill. Guardrail: Post-process SLA assignments against real-time queue metrics. If the assigned deadline is infeasible, escalate immediately rather than letting the claim sit in an overloaded queue.

06

Variant: Cost-Optimized SLA Assignment

What to watch: Default SLA classification may over-assign high-cost review tiers when cheaper auto-verification would suffice. Guardrail: Add a cost-awareness constraint to the prompt template: 'Prefer auto-verification SLA tiers when confidence exceeds 0.9 and risk is low. Only escalate to human-review SLAs when evidence is insufficient or risk is elevated.'

PROMPT PLAYBOOK

Copy-Ready Prompt Template

A reusable prompt for classifying verification tasks into SLA tiers with deadlines, review depth, and escalation triggers.

This prompt template assigns a service-level agreement (SLA) tier to an incoming verification task. It is designed for operations teams running verification pipelines where cost, latency, and accuracy must be balanced against claim risk. The prompt expects a structured claim and its associated metadata, and it returns a classification that downstream systems can use for queue prioritization, resource allocation, and deadline enforcement. Do not use this prompt for real-time, user-facing decisions without a human-in-the-loop override for high-risk tiers.

text
You are a verification operations classifier. Your task is to assign an SLA tier to the verification request described below. Use only the provided claim details, evidence summary, and organizational policy to make your determination.

INPUT:
Claim: [CLAIM_TEXT]
Claim Domain: [DOMAIN]
Claim Complexity Score: [COMPLEXITY_SCORE]
Available Evidence Count: [EVIDENCE_COUNT]
Evidence Recency (hours): [EVIDENCE_RECENCY_HRS]
Potential Harm if Unverified: [POTENTIAL_HARM_LEVEL]
Request Timestamp: [REQUEST_TIMESTAMP]

ORGANIZATIONAL SLA POLICY:
[SLA_POLICY_DOCUMENT]

OUTPUT_SCHEMA:
{
  "sla_tier": "CRITICAL | HIGH | STANDARD | LOW",
  "deadline_iso8601": "string",
  "review_depth": "DEEP | STANDARD | LIGHT",
  "escalation_triggers": ["string"],
  "routing_instruction": "AUTO_VERIFY | HUMAN_REVIEW | HYBRID",
  "classification_rationale": "string"
}

CONSTRAINTS:
- CRITICAL tier requires HUMAN_REVIEW routing and DEEP review depth.
- Claims with POTENTIAL_HARM_LEVEL of 'HIGH' cannot be classified below STANDARD.
- The deadline must be calculated from REQUEST_TIMESTAMP using the SLA policy durations.
- If EVIDENCE_COUNT is 0, routing must be HUMAN_REVIEW.
- Escalation triggers must reference specific conditions from the SLA policy.
- Do not invent evidence or assume claim veracity.

EXAMPLES:
[FEW_SHOT_EXAMPLES]

Now, classify the verification request.

To adapt this template, replace each square-bracket placeholder with data from your verification pipeline. The [SLA_POLICY_DOCUMENT] should contain the full text of your organization's SLA definitions, including tier criteria, deadline durations, and escalation rules. The [FEW_SHOT_EXAMPLES] placeholder is critical for consistent tier assignment; include at least two examples per tier, covering boundary cases where a claim could reasonably fall into adjacent tiers. Before deploying, validate the output against your schema and run a queue simulation to ensure that deadline-aware routing does not produce SLA breaches under load. For high-stakes domains, always route CRITICAL and HIGH tier classifications through a human approval step before the deadline is committed to a downstream system.

IMPLEMENTATION TABLE

Prompt Variables

Each variable must be validated before the prompt is sent. Missing or malformed inputs are the most common cause of incorrect SLA classifications.

PlaceholderPurposeExampleValidation Notes

[CLAIM_TEXT]

The full text of the claim to be verified

"Q3 revenue increased by 12% year-over-year to $4.2B"

Must be a non-empty string. Reject if null or whitespace only. Length should be between 10 and 2000 characters.

[CLAIM_DOMAIN]

The domain category for the claim

"financial"

Must match an allowed enum value: 'financial', 'legal', 'medical', 'scientific', 'technical', 'news', 'general'. Reject unknown values.

[EVIDENCE_SUFFICIENCY_SCORE]

A pre-computed score indicating how much evidence is available for this claim

0.78

Must be a float between 0.0 and 1.0. If null, the prompt must not assume a default and should request it.

[POTENTIAL_HARM_LEVEL]

A pre-assessed risk level if the claim is false or misleading

"high"

Must match an allowed enum: 'low', 'medium', 'high', 'critical'. Reject null for domains like 'medical' or 'financial'.

[REQUEST_TIMESTAMP]

The ISO 8601 timestamp when the verification request was created

"2024-05-20T14:30:00Z"

Must be a valid ISO 8601 string. Used to calculate SLA deadlines. Reject if unparseable.

[SOURCE_COUNT]

The number of distinct evidence sources available for this claim

3

Must be a non-negative integer. A value of 0 should force a 'low' evidence tier in the SLA classification.

[PREVIOUS_ESCALATION_FLAG]

A boolean indicating if this claim or a related one was previously escalated

Must be a strict boolean (true or false). If true, the SLA tier should not be lower than 'standard'.

PROMPT PLAYBOOK

Implementation Harness Notes

How to wire the Verification SLA Classification Prompt into a production verification pipeline with validation, retries, and deadline-aware routing.

The SLA classification prompt is designed to sit at the entry point of a verification queue, immediately after claim extraction and before evidence retrieval or reviewer assignment. In a production harness, you call this prompt once per verification task, passing the extracted claim, its risk classification, the domain, and any known evidence availability flags as [INPUT]. The model returns a structured SLA tier, deadline, review depth requirements, and escalation triggers. This output must be validated before it touches any routing logic—an incorrect SLA assignment can silently downgrade a high-risk claim to a low-priority queue, causing SLA breaches that compound across the pipeline.

Wire the prompt into your application with a strict validation layer. Before the SLA output reaches your queue router, confirm that: (1) the returned SLA tier exists in your configured tier list, (2) the deadline is a valid ISO 8601 timestamp in the future, (3) the review depth field matches one of your predefined levels (e.g., 'surface', 'standard', 'deep'), and (4) escalation triggers are non-empty for any tier above 'low'. If validation fails, retry once with the same input and a stronger constraint instruction appended to [CONSTRAINTS]. If the second attempt also fails, route the task to a manual SLA assignment queue and log the failure for triage. For model choice, use a fast, cost-effective model (e.g., GPT-4o-mini, Claude Haiku) for this classification step—it's a structured output task that doesn't require deep reasoning, and latency here directly impacts your pipeline's end-to-end SLA budget.

Log every SLA classification decision with the claim ID, input risk level, assigned tier, deadline, and the model's raw response. This log becomes your audit trail when a reviewer misses a deadline and you need to determine whether the SLA was misassigned or the reviewer queue was overloaded. In your queue simulation tests, inject claims with known risk profiles and verify that SLA assignments don't drift under load. The most common production failure mode is SLA tier inflation—the model assigns a lower urgency tier than the claim's actual risk warrants because it overweights evidence availability and underweights potential harm. Mitigate this by running a weekly eval that compares SLA assignments against a golden set of claims with known correct tiers, and tune your [CONSTRAINTS] block to penalize under-classification more heavily than over-classification if your operational cost model supports it.

IMPLEMENTATION TABLE

Expected Output Contract

Defines the exact fields, types, and validation rules for the Verification SLA Classification Prompt output. Use this contract to parse, validate, and route the model response in your verification pipeline before any deadline-aware scheduling occurs.

Field or ElementType or FormatRequiredValidation Rule

sla_tier

enum: [CRITICAL, HIGH, STANDARD, LOW]

Must match one of the defined tiers. Reject any response where tier is missing or not in the enum. Map CRITICAL to immediate escalation, LOW to batch processing.

deadline_utc

ISO-8601 datetime string

Must be a valid future datetime. Parse and verify it is not in the past. If the model outputs a relative time like '2 hours', the application layer must convert it to an absolute UTC timestamp before validation.

review_depth

enum: [FULL, STANDARD, SPOT_CHECK]

Must be present. FULL requires multi-source corroboration. STANDARD requires primary source check. SPOT_CHECK requires random sampling of evidence. Reject if missing or invalid.

escalation_triggers

array of strings

Must be a non-empty array if tier is CRITICAL or HIGH. Each string must be a concise, actionable condition (e.g., 'evidence_contradiction', 'source_unavailable'). Validate array type and minimum length based on tier.

required_evidence_sources

array of objects

Each object must have 'source_type' (string) and 'min_count' (integer) fields. Validate that min_count is a positive integer. For CRITICAL tier, require at least 2 distinct source_types.

claim_risk_category

string

Must be a non-empty string summarizing the primary risk driver (e.g., 'financial_misstatement', 'health_misinformation'). Validate against a predefined allowlist of risk categories to prevent free-form drift.

auto_verification_eligible

boolean

Must be true or false. If true, the validation layer must cross-check that the sla_tier is not CRITICAL and that required_evidence_sources are available. Reject if eligibility contradicts tier constraints.

confidence_score

number (0.0 - 1.0)

If present, must be a float between 0.0 and 1.0 inclusive. If absent, the application should default to null. Use this score for monitoring SLA classification calibration, not for routing decisions directly.

PRACTICAL GUARDRAILS

Common Failure Modes

SLA classification fails silently when risk is misjudged. These are the most common production failure patterns and how to catch them before deadlines are missed.

01

Risk-SLA Mismatch

What to watch: The prompt assigns a low-priority SLA tier to a high-risk claim because the risk signal was buried in complex language or domain jargon. The claim sits in a slow queue while real harm accumulates. Guardrail: Add a pre-check that extracts explicit risk indicators before SLA classification. If risk extraction and SLA classification disagree, force a human review route regardless of confidence scores.

02

Deadline Overrun from Batch Queuing

What to watch: The prompt assigns a reasonable SLA tier but the downstream queue is already saturated. The deadline passes before a reviewer ever sees the task. Guardrail: The SLA prompt must receive current queue depth and estimated wait time as input context. Add a rule that if queue wait exceeds 50% of the SLA window, the task escalates to an overflow reviewer or triggers a queue health alert.

03

Vague Review Depth Instructions

What to watch: The prompt outputs a review depth like 'standard review' without specifying what evidence sources to check, how many sources to corroborate, or what constitutes a passing review. Reviewers waste time or miss critical checks. Guardrail: Bind each SLA tier to a concrete review checklist in the prompt's output schema. Include required evidence types, minimum source count, and explicit pass/fail criteria per tier.

04

Escalation Trigger Silence

What to watch: The prompt correctly classifies the SLA tier but fails to define what conditions should trigger re-escalation during review. A claim that looked low-risk at triage reveals new evidence mid-review and stays in the slow lane. Guardrail: The output must include explicit escalation triggers for each tier, such as 'escalate if reviewer finds contradictory evidence' or 'escalate if claim involves regulated entity.' Reviewers confirm or dismiss triggers at checkpoints.

05

Domain Blindness in SLA Assignment

What to watch: The prompt treats all claims uniformly and assigns the same SLA to a routine product claim and a safety-critical medical claim because it lacks domain-awareness. Guardrail: Provide a domain-to-SLA mapping as part of the prompt's system instructions. If a claim's domain is detected but not in the mapping, default to the highest review tier and flag for domain policy update.

06

Confidence Score Inflation

What to watch: The prompt outputs a high confidence score for its SLA classification even when evidence is thin or the claim is ambiguous. Downstream systems trust the score and skip human review. Guardrail: Require the prompt to output a separate evidence sufficiency score alongside the SLA classification. If evidence sufficiency is low, cap the SLA confidence score and route to human review regardless of the tier assignment.

IMPLEMENTATION TABLE

Evaluation Rubric

Run these checks against a golden dataset of 50-100 labeled verification tasks to test SLA classification quality before shipping.

CriterionPass StandardFailure SignalTest Method

SLA Tier Accuracy

≥ 90% of tasks assigned the correct SLA tier (Critical, High, Standard, Low) compared to expert-labeled ground truth

Systematic misclassification of high-risk claims as Standard or Low tier; confusion between adjacent tiers exceeding 15%

Confusion matrix analysis against golden dataset labels; stratified sampling across all four tiers

Deadline Feasibility

≥ 95% of assigned deadlines are achievable given the claim complexity and evidence availability in queue simulations

Deadlines set shorter than minimum required review time for complex claims; deadline breaches in > 10% of simulated workloads

Queue simulation with historical review duration data; measure deadline breach rate per SLA tier

Risk-Calibrated Escalation Triggers

100% of Critical-tier tasks include at least one specific, actionable escalation trigger; no high-risk claims ship without escalation conditions

Escalation triggers are generic (e.g., 'escalate if needed') or missing entirely for Critical and High tiers

Regex and keyword scan for escalation trigger presence; manual audit of 20 Critical-tier outputs for trigger specificity

Review Depth Specification

≥ 85% of tasks specify review depth requirements (surface, moderate, deep) that match claim complexity and potential harm level

Deep review specified for simple factual claims; surface review specified for claims with regulatory or safety implications

Compare review depth assignments against complexity scores in golden dataset; measure agreement rate

SLA Tier Consistency

Identical or semantically equivalent claims receive the same SLA tier assignment in ≥ 95% of repeated classifications

Same claim classified as Critical in one run and Standard in another; tier flipping exceeds 5% of test cases

Run classification 3 times per claim with temperature=0; measure tier stability across runs

Deadline-Aware Routing

≥ 90% of tasks routed to queues where available reviewer capacity can meet the assigned deadline in simulation

Tasks assigned to queues with known reviewer shortages or timezone mismatches that make deadlines impossible

Queue capacity simulation with staffing models; flag tasks where assigned queue lacks capacity to meet deadline

Confidence Score Calibration

Model confidence scores correlate with actual classification correctness; Expected Calibration Error < 0.10

High confidence (≥ 0.9) on incorrect SLA assignments; low confidence on consistently correct assignments

Reliability diagram plotting confidence bins against accuracy; compute ECE across all tiers

Edge Case Handling

≥ 80% of edge cases (ambiguous claims, mixed risk signals, missing context) classified conservatively (higher tier) rather than optimistically

Ambiguous claims defaulting to Standard or Low tier; missing context treated as low-risk rather than unknown-risk

Curate 15 edge case examples in golden dataset; measure conservative classification rate

ADAPTATION OPTIONS

Adapt This Prompt

How to adapt

Use the base prompt with a single model call and minimal post-processing. Replace the structured output schema with a simpler markdown table or bulleted list to speed up iteration. Focus on getting the SLA tier logic right before adding validation.

code
Classify the following verification task into an SLA tier.

Claim: [CLAIM_TEXT]
Domain: [DOMAIN]
Potential Harm: [HARM_LEVEL]

Return: Tier (Critical/High/Standard/Low), Deadline, and brief justification.

Watch for

  • Inconsistent tier assignments when harm level is ambiguous
  • Deadline suggestions that don't account for business hours
  • Missing escalation triggers entirely
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.