Use this prompt when assembling a single coherent record from multiple extracted fields where the value of one field constrains or determines the valid values of another. The primary job-to-be-done is resolving these cross-field dependencies—such as a state field restricting valid zip_code formats, or a product_type field dictating which specifications sub-schema to apply—before the record is inserted into a downstream system. The ideal user is an integration engineer or data pipeline builder who already has raw field extractions and needs a dependency-aware assembly step that catches impossible combinations, computes derived fields, and flags conflicts rather than silently producing a structurally valid but logically broken record.
Prompt
Cross-Field Dependency Resolution Prompt

When to Use This Prompt
Define the job, reader, and constraints for the Cross-Field Dependency Resolution Prompt.
This prompt is not a replacement for initial field extraction. It assumes you already have a set of candidate fields with their raw values and optional confidence scores. Do not use this prompt when you need to extract fields from unstructured text for the first time; start with a strict schema extraction prompt instead. It is also not a general-purpose record normalization tool—use a dedicated normalization prompt if your primary need is date formatting, unit conversion, or identifier canonicalization without dependency logic. Avoid this prompt when your dependency rules are simple enough to encode in application-level JSON Schema validation or a few if statements; the prompt adds latency and cost that is only justified when the dependency graph is complex, conditional, or requires reasoning across multiple fields simultaneously.
Before using this prompt, you must define your dependency rules explicitly. Provide a [DEPENDENCY_RULES] block that specifies which fields constrain others, what the valid combinations are, and what should happen when a constraint is violated (flag, repair, or escalate). Include a [TARGET_SCHEMA] so the model knows the final record shape. Wire the prompt into a harness that validates the output against both structural schema compliance and dependency rule satisfaction. For high-stakes pipelines—financial reporting, clinical data, legal records—always route records with unresolved conflicts or low-confidence resolutions to a human review queue. Start with a small set of known dependency rules and expand as you observe failure modes in production traces.
Use Case Fit
Where the Cross-Field Dependency Resolution Prompt works, where it fails, and the operational prerequisites for production use.
Good Fit: Structured Records with Known Constraints
Use when: assembling records where one field's value logically constrains another (e.g., start_date must precede end_date, country restricts valid state values). Why it works: The prompt can enforce constraint rules, compute derived fields, and flag violations before ingestion.
Bad Fit: Open-Ended Narrative Assembly
Avoid when: the goal is to produce a fluent summary or narrative from extracted fields. Risk: The prompt's constraint-checking logic adds overhead and rigidity that degrades prose quality. Guardrail: Use a dedicated synthesis prompt for narratives and keep this prompt for structured record construction only.
Required Inputs: Field Inventory with Constraint Map
What to watch: The prompt cannot resolve dependencies it doesn't know about. Guardrail: Always provide an explicit constraint map (e.g., field_a < field_b, field_x in [values derived from field_y]) alongside the extracted fields. Missing constraint definitions lead to silent acceptance of invalid records.
Operational Risk: Circular Dependencies
Risk: Two or more fields that depend on each other (e.g., discount_rate depends on final_price, but final_price depends on discount_rate) can cause infinite loops or nonsensical resolutions. Guardrail: Include a cycle-detection pre-check in your harness. If a cycle is found, flag the record for human review and do not attempt automated resolution.
Operational Risk: Missing Prerequisite Fields
Risk: A dependent field cannot be resolved because its prerequisite field is null or missing from the extraction. Guardrail: Define explicit null-propagation rules. If state depends on country and country is null, the prompt should set state to null with a reason code, not hallucinate a value or default to a guess.
Scale Risk: Batch Processing Without Validation
Risk: Running dependency resolution on thousands of records without post-resolution validation can silently propagate constraint violations into downstream systems. Guardrail: Always pair this prompt with a validation harness that checks resolved records against the original constraint map before insertion. Flag and quarantine records that fail re-validation.
Copy-Ready Prompt Template
A reusable prompt template for resolving cross-field dependencies, computing derived values, and flagging constraint violations in assembled records.
This template is designed to be dropped into an extraction or assembly pipeline where one field's value constrains another. It expects a set of partially assembled fields, a dependency map, and a set of validation rules. The model resolves dependencies, computes derived fields where possible, and flags conflicts or missing prerequisites. Use this when you have already extracted raw fields and need to enforce business logic before ingestion.
textYou are a record assembly validator. Your job is to resolve cross-field dependencies, compute derived fields, and flag constraint violations in a partially assembled record. ## INPUT - Partial record: [PARTIAL_RECORD] - Dependency map: [DEPENDENCY_MAP] - Validation rules: [VALIDATION_RULES] - Target schema: [OUTPUT_SCHEMA] ## INSTRUCTIONS 1. For each field in the target schema, determine its value using the following priority: a. Use the value from the partial record if present and valid. b. If the field is derivable from other fields using the dependency map, compute it. c. If the field is required but missing and cannot be derived, mark it as null with a reason code. 2. For each dependency rule in the dependency map, verify that the prerequisite fields are present and valid before computing the dependent field. 3. For each validation rule, check whether the resolved record satisfies the constraint. If not, add a violation entry with severity, field path, and description. 4. Detect circular dependencies. If found, break the cycle by marking all fields in the cycle as unresolved and add a circular_dependency flag. 5. If a field's value changes because of dependency resolution, record the original value, the resolved value, and the rule that triggered the change. ## OUTPUT FORMAT Return a JSON object with this structure: { "resolved_record": { ... }, "derived_fields": [ { "field_path": "string", "derived_value": "any", "rule_applied": "string", "prerequisite_fields_used": ["string"] } ], "violations": [ { "severity": "error | warning", "field_path": "string", "rule": "string", "description": "string" } ], "unresolved_fields": [ { "field_path": "string", "reason": "missing_prerequisite | circular_dependency | invalid_input | computation_error", "detail": "string" } ], "circular_dependencies_detected": [ { "cycle": ["field_path"], "description": "string" } ], "resolution_metadata": { "total_fields_resolved": 0, "total_violations": 0, "total_unresolved": 0, "resolution_complete": true } } ## CONSTRAINTS - Do not hallucinate values for fields not present in the partial record or derivable from the dependency map. - If a prerequisite field is missing or invalid, do not attempt to compute the dependent field. - Preserve all original values in the resolved record unless a dependency rule explicitly overrides them. - For date fields, normalize to ISO 8601 format. - For currency fields, preserve the original currency code; do not convert unless a rule specifies it.
To adapt this template, replace the square-bracket placeholders with your actual data and rules. The [PARTIAL_RECORD] should be a JSON object containing the fields extracted so far. The [DEPENDENCY_MAP] should define which fields depend on which others and how to compute them—for example, "total_price": "[quantity] * [unit_price]". The [VALIDATION_RULES] should specify constraints like "end_date must be after start_date" or "discount cannot exceed total_price". The [OUTPUT_SCHEMA] defines the final shape of the resolved record. If your dependency rules involve complex logic, consider expressing them as a structured array of rule objects with field, depends_on, and compute properties rather than free-text descriptions. This makes the model's job more predictable and reduces ambiguity in rule interpretation.
Before deploying this prompt into a production pipeline, build a test harness with at least these cases: a record with all fields present and no dependencies triggered, a record with a missing prerequisite that blocks derivation, a record with a circular dependency, a record where a validation rule is violated, and a record where a derived field overwrites an existing value. For each test case, assert that the resolved record matches expectations, violations are correctly flagged, and unresolved fields carry the right reason codes. In high-stakes ingestion pipelines where incorrect dependency resolution could corrupt downstream data, route records with severity: error violations or unresolved required fields to a human review queue before insertion.
Prompt Variables
Each placeholder must be populated before the prompt is sent. Validation rules are designed for pre-flight checks in the application harness, not just manual review.
| Placeholder | Purpose | Example | Validation Notes |
|---|---|---|---|
[EXTRACTED_FIELDS_JSON] | Raw field extractions with per-field confidence scores and source spans | {"total_amount": {"value": "150.00", "confidence": 0.92, "span": "line 12"}, "tax_amount": {"value": null, "confidence": 0.0, "span": null}} | Must be valid JSON. Each field object requires value, confidence (0.0-1.0), and span keys. Null values allowed for missing fields. Schema check before prompt assembly. |
[FIELD_DEPENDENCY_RULES] | Declared constraints where one field's value determines validity or computation of another | {"rule_id": "R1", "prerequisite_field": "subtotal", "dependent_field": "total_amount", "constraint": "total_amount >= subtotal", "action_on_violation": "flag"} | Must be valid JSON array of rule objects. Each rule requires rule_id, prerequisite_field, dependent_field, constraint, and action_on_violation. Constraint must be evaluable as boolean expression. Parse check required. |
[DERIVED_FIELD_FORMULAS] | Computation rules for fields that should be calculated from prerequisite fields rather than extracted | {"target_field": "tax_amount", "formula": "subtotal * tax_rate", "prerequisite_fields": ["subtotal", "tax_rate"], "output_type": "decimal"} | Must be valid JSON array. Each formula requires target_field, formula string with prerequisite field references, prerequisite_fields array, and output_type. Formula must reference only fields present in EXTRACTED_FIELDS_JSON. Reference integrity check required. |
[TARGET_SCHEMA] | Expected output record structure with field types, required flags, and constraints | {"fields": {"invoice_total": {"type": "decimal", "required": true, "min": 0}, "tax_category": {"type": "enum", "required": false, "values": ["standard", "reduced", "exempt"]}}} | Must be valid JSON schema definition. Each field requires type and required boolean. Optional min, max, enum values, and pattern keys. Schema must be parseable by downstream validator. Dry-run validation against schema parser required. |
[CONFLICT_RESOLUTION_STRATEGY] | Policy for resolving contradictory field values or dependency violations | {"strategy": "prerequisite_wins", "fallback": "flag_for_review", "confidence_threshold": 0.8} | Must be valid JSON object. Required keys: strategy (one of prerequisite_wins, dependent_wins, highest_confidence, flag_all), fallback (one of flag_for_review, reject_record, use_default), and confidence_threshold (0.0-1.0). Enum check on strategy and fallback values. |
[NULL_PROPAGATION_POLICY] | Rules for handling null prerequisite fields when computing dependent or derived fields | {"policy": "propagate_null", "null_reason_code": "PREREQUISITE_MISSING", "allow_partial_computation": false} | Must be valid JSON object. Required keys: policy (one of propagate_null, skip_dependent, use_default, attempt_imputation), null_reason_code string, and allow_partial_computation boolean. Enum check on policy. Null reason code must match approved code list. |
[CIRCULAR_DEPENDENCY_HANDLING] | Instructions for detecting and resolving circular field dependencies | {"max_resolution_depth": 3, "on_circular": "break_and_flag", "flag_code": "CIRCULAR_DEPENDENCY_DETECTED"} | Must be valid JSON object. Required keys: max_resolution_depth (integer >= 1), on_circular (one of break_and_flag, reject_record, resolve_by_confidence), and flag_code string. Integer range check on depth. Enum check on on_circular. |
[OUTPUT_CONFIDENCE_THRESHOLD] | Minimum aggregate confidence for auto-accepting resolved records without human review | {"record_threshold": 0.85, "field_threshold": 0.7, "derived_field_penalty": 0.1} | Must be valid JSON object. Required keys: record_threshold (0.0-1.0), field_threshold (0.0-1.0), and derived_field_penalty (0.0-1.0). All values must be within range. Record threshold must be >= field threshold. Range and comparison checks required. |
Implementation Harness Notes
How to wire the Cross-Field Dependency Resolution Prompt into a production data pipeline with validation, retries, and audit trails.
The Cross-Field Dependency Resolution Prompt is not a standalone utility—it is a processing stage that sits between raw field extraction and downstream record ingestion. In a typical pipeline, you first extract individual fields from unstructured text using extraction prompts, then pass those extracted fields into this dependency resolution stage. The prompt expects a structured input containing the extracted fields, a dependency map that defines how fields constrain each other, and a target output schema. The output is a resolved record where dependent fields are validated, derived fields are computed, and any conflicts or missing prerequisites are flagged with explicit markers.
To wire this into an application, build a harness that constructs the prompt payload from three sources: the extracted fields from the previous pipeline stage, a dependency configuration stored as code or configuration (not inline in every prompt), and the target record schema. The dependency configuration should define constraint rules such as if field_a == X then field_b must be in [Y, Z], derivation rules like field_c = field_a + field_b, and prerequisite rules such as field_d requires field_e to be present. Before sending the prompt, validate that all required inputs are present—if prerequisite fields are missing, the harness should either abort with a clear error or route to a partial-record completion stage instead. After receiving the model response, validate the output against the target schema, check that all dependency flags are properly structured, and verify that no hallucinated fields appear that were not in the input or derivation rules.
For production reliability, implement a retry layer with a maximum of two retry attempts. On the first failure—whether from schema validation errors, malformed JSON, or missing required fields—construct a repair prompt that includes the original input, the failed output, and the specific validation error messages. If the second attempt also fails, log the full input-output-error trace and escalate to a human review queue rather than silently ingesting broken records. Model choice matters here: use a model with strong structured output capabilities and low hallucination rates for schema-constrained generation. For high-throughput pipelines, consider batching multiple records into a single prompt call with clear delimiters, but keep batch sizes small (3-5 records) to avoid cross-record contamination. Always log the dependency configuration version, model version, and prompt template version alongside each resolved record for auditability.
The most common production failure mode is circular dependencies in the configuration. Before any prompt call, run a static analysis pass on the dependency map to detect cycles—if field A depends on B and B depends on A, the prompt cannot resolve this and will produce inconsistent results. Build this check into your CI/CD pipeline for dependency configuration changes. Another failure mode is ambiguous constraint resolution where multiple valid interpretations exist; the prompt is instructed to flag these rather than guess, so your harness must handle ambiguity flags by routing to a review queue or applying a deterministic tie-breaking rule from your business logic layer. Finally, never use the resolved output as ground truth without human review when the conflict flags are non-empty or when derived fields involve financial, legal, or clinical calculations—these should always pass through a human approval step before ingestion.
Expected Output Contract
Defines the exact shape, types, and validation rules for the dependency-resolved record produced by the Cross-Field Dependency Resolution Prompt. Use this contract to build downstream parsers and validation harnesses.
| Field or Element | Type or Format | Required | Validation Rule |
|---|---|---|---|
resolved_record | object | Top-level object must be present and non-null | |
resolved_record.fields | object | Must contain all fields from [INPUT_FIELDS] with resolved values; keys must match input field names exactly | |
resolved_record.fields.[FIELD_NAME] | string | number | boolean | null | Type must match [FIELD_TYPE_MAP] for each field; null allowed only if [NULLABLE_FIELDS] includes this field | |
dependency_graph | array of objects | Each object must have source_field, target_field, and constraint_type properties; constraint_type must be one of [CONSTRAINT_TYPES] | |
dependency_graph[].source_field | string | Must match a field name present in [INPUT_FIELDS] | |
dependency_graph[].target_field | string | Must match a field name present in [INPUT_FIELDS]; cannot equal source_field | |
dependency_graph[].constraint_type | string | Must be one of: requires, forbids, derives, limits_range, enforces_enum; validate against [CONSTRAINT_TYPE_MAP] | |
conflict_flags | array of objects | If present, each object must have field_pair, conflict_description, and resolution_choice; empty array allowed when no conflicts detected | |
conflict_flags[].field_pair | array of two strings | Must contain exactly two field names from [INPUT_FIELDS]; order does not matter | |
conflict_flags[].conflict_description | string | Must be non-empty string describing the detected dependency violation | |
conflict_flags[].resolution_choice | string | Must be one of: keep_source, apply_constraint, flag_for_review, use_default; validate against [RESOLUTION_STRATEGIES] | |
derived_fields | object | If present, keys must match [DERIVED_FIELD_NAMES]; values must pass type check against [DERIVED_FIELD_TYPES] | |
assembly_metadata | object | Must contain resolver_version, resolution_timestamp, and fields_resolved_count | |
assembly_metadata.resolver_version | string | Must match [RESOLVER_VERSION] exactly; semver format recommended | |
assembly_metadata.resolution_timestamp | string (ISO 8601) | Must parse as valid ISO 8601 datetime; UTC offset required | |
assembly_metadata.fields_resolved_count | integer | Must equal the count of keys in resolved_record.fields; minimum 1 |
Common Failure Modes
Cross-field dependency resolution breaks silently when constraints are implicit, fields are missing, or the model assumes relationships that don't exist in the source. These are the most common production failure patterns and how to guard against them.
Silent Constraint Violation
What to watch: The model resolves fields without checking that the resolved values satisfy stated constraints. For example, end_date is set before start_date, or a derived total doesn't match the sum of line items. The output looks plausible but is logically broken. Guardrail: Add an explicit constraint-validation step after assembly. Include a constraint_violations array in the output schema and require the model to check each dependency rule before finalizing the record.
Hallucinated Dependency Chains
What to watch: When a prerequisite field is missing from the source, the model invents a value to satisfy the dependency rather than flagging the gap. For instance, fabricating a primary_diagnosis so it can populate treatment_plan. Guardrail: Require explicit null propagation rules. If field_a is null and field_b depends on field_a, field_b must also be null with a dependency_missing reason code. Test with deliberately incomplete inputs.
Circular Dependency Deadlock
What to watch: Two or more fields reference each other in their constraints, creating a loop the model cannot resolve consistently. The output oscillates between contradictory values or the model picks an arbitrary resolution without signaling the circularity. Guardrail: Pre-process the dependency graph before prompting. Detect cycles and either break them with explicit precedence rules or flag the record for human review. Include a circular_dependency flag in the output schema.
Implicit Assumption Drift
What to watch: The model applies real-world assumptions that aren't present in the source document. For example, inferring a shipping_address from a billing_address when the document only contains one address and doesn't specify the relationship. Guardrail: Require explicit source grounding for every resolved dependency. Each derived or constrained field must cite the source span that justifies the relationship. If no source span exists, the field must be marked as assumed with low confidence.
Type Coercion Breaking Constraints
What to watch: A field is coerced to satisfy a type constraint but the coercion destroys the dependency relationship. Converting a string "Q3 2024" to a date range for comparison with another date field can produce a range that doesn't match the original intent. Guardrail: Preserve original values alongside coerced values. Include original_value and coerced_value fields. Run constraint checks on coerced values but flag any record where coercion was required for resolution.
Partial Resolution with Silent Omissions
What to watch: The model resolves some dependencies correctly but silently skips others, producing a record that passes basic schema validation but is incomplete. This is common when the prompt lists many dependency rules and the model attends to the first few. Guardrail: Include a dependency_coverage field that lists every expected dependency rule and whether it was applied, skipped, or unresolvable. Run a post-processing check that every declared dependency appears in the coverage list.
Evaluation Rubric
Criteria for testing cross-field dependency resolution output quality before shipping. Each criterion targets a specific failure mode in constraint validation, derived field computation, or conflict flagging.
| Criterion | Pass Standard | Failure Signal | Test Method |
|---|---|---|---|
Constraint Satisfaction | All [CONSTRAINT_RULES] are applied; no output field violates a declared dependency | Output contains a field value that contradicts a prerequisite field's value or type constraint | Schema validator checks each output field against its dependency rule; any violation fails the test |
Derived Field Accuracy | Every [DERIVED_FIELD] is computed correctly from its source fields using the specified formula or rule | A derived field shows a value inconsistent with manual recalculation from source fields | Golden dataset with known source values and expected derived outputs; compare programmatically |
Circular Dependency Detection | Prompt returns a [CIRCULAR_DEPENDENCY] flag with the cycle path when fields reference each other in a loop | Output attempts to resolve a circular dependency silently or returns values without flagging the cycle | Inject test cases with known circular chains; check for flag presence and correct cycle identification |
Missing Prerequisite Handling | When a required source field is null or absent, the dependent field is set to null with a [MISSING_PREREQUISITE] reason code | Dependent field contains a hallucinated or default value when its prerequisite is missing | Remove prerequisite fields from test inputs; verify dependent fields are null with correct reason codes |
Conflict Flagging | All contradictory field combinations are surfaced in [CONFLICT_FLAGS] array with field pairs and conflict descriptions | Conflicting fields appear in output without any flag, or flags reference non-existent fields | Seed inputs with known contradictions; assert [CONFLICT_FLAGS] contains expected entries with correct field references |
Type Coercion Correctness | Fields coerced to match dependency types follow [TYPE_COERCION_RULES] exactly; no silent truncation or rounding | A coerced value loses precision, changes meaning, or violates the target type's domain | Boundary-value test cases for each coercion rule; compare coerced output to expected values |
Resolution Trace Completeness | Every dependency resolution decision appears in [RESOLUTION_TRACE] with field, rule applied, input values, and output value | Trace is empty, missing decisions, or contains entries that don't match actual output values | Parse [RESOLUTION_TRACE] and replay each decision against input; all must be consistent with final output |
Order Independence | Output is identical regardless of the order fields appear in [INPUT_FIELDS]; dependency resolution is order-agnostic | Reordering input fields produces different output values or different conflict flags | Shuffle input field order across multiple runs; diff outputs and assert equality |
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Adapt This Prompt
How to adapt
Use the base prompt with a simplified [DEPENDENCY_RULES] block. Start with 2-3 linear dependencies before introducing branching or conditional logic. Skip the [OUTPUT_SCHEMA] validation layer and accept raw JSON output. Test with hand-crafted documents where dependencies are obvious.
Prompt modification
code[DEPENDENCY_RULES] - If [FIELD_A] is present, [FIELD_B] must be constrained to [CONSTRAINT] - If [FIELD_A] is missing, set [FIELD_B] to null with reason_code "PREREQUISITE_MISSING"
Watch for
- Circular dependencies that cause infinite resolution loops
- Model silently dropping fields when constraints fail instead of flagging them
- Overly broad constraint language that the model interprets inconsistently across runs

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.
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