This prompt is designed for maintainers and build engineers who need to evaluate a specific dependency upgrade before merging it into the main branch. The core job-to-be-done is producing a structured, risk-scored impact report that maps the full blast radius of a version change. You should use this prompt when you have a concrete package to upgrade, access to the repository's dependency manifest (e.g., package.json, Cargo.toml) and lockfile, and the ability to resolve the actual import graph. The ideal output is not a generic changelog summary but a surgical analysis that traces every affected package, transitive dependent, and API surface change back to a real import or call site in your codebase.
Prompt
Dependency Graph Impact Analysis Prompt

When to Use This Prompt
Understand the ideal conditions, required inputs, and boundaries for the Dependency Graph Impact Analysis Prompt before integrating it into your upgrade review workflow.
To get a reliable report, you must provide the model with the exact package name, the current and target versions, and the raw content of your dependency manifest and lockfile. The prompt is most effective when you also supply a pre-computed dependency graph or a tool that allows the model to query it. Without this data, the model will be forced to hallucinate dependency relationships, which renders the risk scores useless. The prompt includes placeholders like [DEPENDENCY_GRAPH] and [LOCKFILE_CONTENT] specifically to enforce this data grounding. You should also set a [RISK_LEVEL] threshold to filter out low-impact noise, ensuring the report focuses on modules that actually require human review and testing.
Do not use this prompt for general code review, diagnosing a failing build, or when you lack the actual import graph data. It is also the wrong tool if you are simply curious about a package's changelog; this prompt is for active upgrade evaluation. Before running it, ensure you have a way to validate the output. A critical next step is to run an eval that verifies every claimed impact traces to a real file path and import statement. If the model cannot ground a finding in the provided graph or manifest, treat that section of the report as a hallucination and remove it before sharing with the team.
Use Case Fit
Where the Dependency Graph Impact Analysis prompt delivers reliable value and where it introduces unacceptable risk. Use these cards to decide whether this prompt fits your current upgrade scenario.
Good Fit: Planned Major Version Upgrades
Use when: you are evaluating a semver-major dependency bump with a published changelog and access to the full repository source. The prompt excels at tracing API surface changes to actual call sites and ranking affected modules by blast radius. Guardrail: always provide the lockfile, the dependency's changelog, and a list of direct import statements as input context.
Bad Fit: Greenfield Dependency Selection
Avoid when: you are choosing a new dependency from scratch with no existing codebase to analyze. This prompt is designed for impact analysis on an existing graph, not for evaluating candidate libraries against requirements. Guardrail: use a dedicated technical comparison or vendor due diligence prompt for initial selection, then run impact analysis after integration.
Required Inputs: Lockfile, Changelog, and Import Map
What to watch: the prompt produces unreliable or hallucinated impact claims when it lacks concrete dependency resolution data. Without a lockfile, transitive version changes are guesswork. Without a changelog, breaking change detection relies on model priors. Guardrail: require three inputs at minimum—the resolved lockfile, the upstream changelog or release notes, and a grep of all import statements referencing the target package.
Operational Risk: Silent Transitive Breakage
What to watch: the prompt may correctly identify direct API changes but miss breaking behavior in transitive dependencies that are re-exported or whose types flow through the upgraded package's public surface. Guardrail: include a transitive dependency tree dump and instruct the prompt to flag any sub-dependency that changes major version as a result of the upgrade, even if no direct import exists.
Operational Risk: Test Order Blindness
What to watch: the prompt may recommend a test execution order based on static import analysis alone, missing runtime coupling through DI containers, feature flags, or dynamic imports. Guardrail: supplement the prompt's recommended test order with your existing integration test suite and smoke tests. Treat the prompt's ordering as a starting hypothesis, not a release gate.
Operational Risk: Changelog Misinterpretation
What to watch: the prompt may misclassify a non-breaking deprecation as a breaking change, or vice versa, when the changelog uses ambiguous language or when the model fills gaps with plausible but incorrect assumptions. Guardrail: require the prompt to cite the exact changelog line for every claimed breaking change. Add an eval step that verifies each citation exists in the source text before accepting the impact report.
Copy-Ready Prompt Template
A copy-ready prompt for generating a dependency graph impact analysis report from a package upgrade request.
This prompt template is designed to be pasted directly into your AI coding agent or LLM interface. It instructs the model to act as a build engineer and produce a structured impact analysis report for a proposed dependency upgrade. The model is expected to reason across the full dependency graph, identify affected packages and API surfaces, and assign risk scores based on actual import and call-site evidence.
codeYou are a senior build engineer analyzing a dependency upgrade. Your task is to produce a Dependency Graph Impact Analysis Report for the upgrade described below. ## Inputs - [PACKAGE_NAME]: The name of the package being upgraded. - [CURRENT_VERSION]: The currently installed version. - [TARGET_VERSION]: The proposed new version. - [CHANGELOG]: The full changelog or release notes between [CURRENT_VERSION] and [TARGET_VERSION]. - [DEPENDENCY_GRAPH]: A representation of the project's full dependency graph, including direct and transitive dependents of [PACKAGE_NAME]. - [REPOSITORY_CONTEXT]: Relevant source files, import statements, and API usage examples for [PACKAGE_NAME] within the project. ## Constraints - [CONSTRAINTS]: - Every claimed impact must be traceable to a specific import or call site in [REPOSITORY_CONTEXT]. - Do not invent breaking changes not present in [CHANGELOG]. - If information is insufficient to determine impact, mark it as "Uncertain" and state what is missing. ## Output Schema Produce a JSON object conforming to this [OUTPUT_SCHEMA]: { "upgrade_summary": { "package": "string", "from_version": "string", "to_version": "string", "risk_level": "LOW | MEDIUM | HIGH | CRITICAL", "recommendation": "PROCEED | PROCEED_WITH_CAUTION | DELAY | REJECT" }, "breaking_changes": [ { "change_description": "string", "severity": "LOW | MEDIUM | HIGH", "affected_files": ["string"], "migration_action": "string" } ], "affected_modules": [ { "module_path": "string", "dependency_type": "DIRECT | TRANSITIVE", "risk_score": "number (1-10)", "impact_rationale": "string", "recommended_test_order": "number" } ], "transitive_dependents": ["string"], "test_plan": { "recommended_order": ["string"], "critical_tests": ["string"], "regression_risk_areas": ["string"] }, "uncertainties": ["string"] }
To adapt this template, replace each square-bracket placeholder with the actual data from your repository. The [DEPENDENCY_GRAPH] can be a parsed package-lock.json, yarn.lock, Cargo.lock, or output from a tool like npm ls --all. The [REPOSITORY_CONTEXT] should be a grep or static analysis dump showing how the target package is used. For high-risk upgrades, always route the final report for human review before merging any automated PR. A common failure mode is the model hallucinating API changes not present in the changelog; mitigate this by strictly enforcing the constraint that every finding must cite evidence from the provided [CHANGELOG] or [REPOSITORY_CONTEXT].
Prompt Variables
Each variable the prompt requires, its purpose, an example value, and validation notes to ensure reliable output.
| Placeholder | Purpose | Example | Validation Notes |
|---|---|---|---|
[DEPENDENCY_NAME] | The package or library being upgraded or evaluated for impact | react@18.3.1 | Must match an actual package name in package.json, requirements.txt, or equivalent manifest. Parse check: regex for valid package name format. |
[CURRENT_VERSION] | The currently installed version of the dependency in the repository | 17.0.2 | Must match the exact version string from the lockfile or manifest. Parse check: semver format validation. Null allowed if not currently installed. |
[TARGET_VERSION] | The proposed or target version for the upgrade | 18.3.1 | Must be a valid semver string. Compare against [CURRENT_VERSION] to confirm it is a different version. Parse check: semver format validation. |
[DEPENDENCY_GRAPH] | The full dependency graph showing direct and transitive dependents | JSON object from npm ls --json or pipdeptree --json | Must be valid JSON with a dependency tree structure. Schema check: top-level keys must include package names; each node must have version and dependencies fields. Null allowed for flat dependency structures. |
[CHANGELOG_CONTENT] | The changelog or release notes for versions between current and target | Raw markdown text from CHANGELOG.md or GitHub releases | Must contain version headers or date stamps. Parse check: confirm the text includes at least one version reference between [CURRENT_VERSION] and [TARGET_VERSION]. Null allowed if changelog is unavailable. |
[API_USAGE_MAP] | A mapping of which files import or call the dependency's API surface | JSON array of {file, imports, callSites} objects | Must be valid JSON. Schema check: each entry must have a file path and at least one import or call site. Parse check: file paths must be relative to repository root. Null allowed for unused dependencies. |
[REPOSITORY_CONTEXT] | The root directory or repository identifier for file path resolution | /home/runner/work/my-project | Must be a valid absolute path or repository slug. Parse check: path must exist in the execution environment or slug must match known repository format. Required for resolving relative file paths in [API_USAGE_MAP]. |
[TEST_SUITE_RESULTS] | Recent test suite execution results for the affected code paths | JSON output from jest --json or pytest --json | Must be valid JSON with pass/fail counts and per-test details. Schema check: must include test name, status, and file path. Null allowed if no test results are available. Retry condition: if results are stale relative to last commit, request fresh run. |
Implementation Harness Notes
How to wire the dependency graph impact analysis prompt into a CI/CD pipeline or developer CLI with validation, retries, and review gates.
This prompt is designed to be called programmatically as part of a dependency update review workflow, not as a one-off chat interaction. The typical integration point is a CI job triggered by a Dependabot/Renovate PR or a manual dep-review CLI command. The harness must supply structured inputs—the package name, current and target versions, a parsed dependency graph (from npm ls --json, pipdeptree --json, or equivalent), and the repository's import/call-site search results—so the model has grounded data to analyze rather than hallucinating from training memory.
Input assembly: Before calling the prompt, the harness should: (1) extract the full transitive dependency graph from the lockfile; (2) run a grep or static analysis pass to find every file that imports or calls the affected package; (3) fetch the changelog or release notes for the target version; (4) diff the package's exported API surface between versions if available. These become the [DEPENDENCY_GRAPH], [AFFECTED_FILES], [CHANGELOG], and [API_DIFF] placeholders. Model selection: Use a model with strong structured output support and a large context window (GPT-4o, Claude 3.5 Sonnet, or equivalent) since dependency graphs can be large. For smaller graphs, a fast model like Claude 3 Haiku with constrained output works. Validation layer: The harness must validate the JSON output against a schema that requires every affected_module to reference a real file path present in [AFFECTED_FILES], every risk_score to be an integer 1-10, and every recommended_test_order entry to map to an existing test target. Reject outputs that cite files or packages not present in the input graph.
Retry and fallback: If validation fails, retry once with the validation errors injected as [PREVIOUS_ERRORS] in the prompt. If the second attempt also fails, fall back to a deterministic static analysis path (e.g., npm outdated + grep for imports) and flag the PR for mandatory human review. Human review gate: For high-risk upgrades (semver major, security patches, or risk_score >= 7 on any module), the harness should post the impact report as a PR comment and block merge until a maintainer approves. The report should include a clear review_required: true field and a summary suitable for a PR comment. Logging: Log the prompt version, model, input sizes, validation pass/fail, and review decision for auditability. This makes it possible to tune the prompt over time and detect drift in model behavior across dependency review runs.
Expected Output Contract
The fields, data types, and validation rules the output must satisfy before it can be used downstream in a dependency update pipeline or review queue.
| Field or Element | Type or Format | Required | Validation Rule |
|---|---|---|---|
impact_report_id | string (UUID v4) | Must be a valid UUID v4 string. Parse check. | |
target_package | object | Must contain 'name' (string), 'current_version' (semver string), and 'target_version' (semver string). Schema check. | |
affected_modules | array of objects | Each object must have 'module_path' (string), 'impact_type' (enum: direct, transitive), and 'call_sites' (array of strings). Every 'module_path' must resolve to a real file or package in the repository context. Source grounding check. | |
api_surface_changes | array of objects | Each object must have 'symbol' (string), 'change_type' (enum: removed, deprecated, signature_changed, added), and 'source_evidence' (string). 'source_evidence' must be a direct quote or reference from the upstream changelog or diff. Citation check. | |
risk_assessment | object | Must contain 'overall_risk_score' (number, 0.0-10.0), 'risk_factors' (array of strings), and 'per_module_risk' (array of objects with 'module_path' and 'risk_score'). 'risk_score' must be reproducible from the same inputs. Confidence threshold: if overall_risk_score > 7.0, human approval required. | |
recommended_test_order | array of strings | Each string must be a fully qualified test target or file path. Order must respect dependency graph topology: dependents tested after their dependencies. Topological sort check. | |
breaking_change_summary | string or null | If non-null, must summarize breaking changes in 1-3 sentences. Null allowed if no breaking changes detected. Null check. | |
migration_actions | array of objects | Each object must have 'action' (string), 'affected_file' (string), and 'effort_estimate' (enum: trivial, moderate, significant). 'affected_file' must resolve to a real file in the repository. Source grounding check. Empty array allowed if no migration needed. |
Common Failure Modes
Dependency graph impact analysis is inherently complex. The model must trace transitive relationships, interpret changelogs, and map API surface changes to actual call sites. These are the most common failure modes when running this prompt in production and how to guard against them.
Hallucinated Dependency Paths
What to watch: The model invents import relationships or transitive dependencies that do not exist in the actual lockfile or source code. It may claim a package depends on another when no such edge exists in the dependency graph. Guardrail: Require every reported dependency path to cite a specific lockfile entry or import statement. Run a post-generation verification step that parses the lockfile and cross-references every claimed edge. Reject any impact claim that cannot be traced to a real file.
False Breaking Change Classification
What to watch: The model misclassifies non-breaking changes as breaking, inflating the risk score and triggering unnecessary migration work. This often happens when the model misreads semantic versioning conventions or over-interprets changelog language. Guardrail: Pair the impact analysis with a dedicated breaking change detection prompt that cross-references the changelog against actual API usage in the repository. Require the model to cite a specific API surface change and a matching call site before flagging an impact as breaking.
Stale or Incomplete Context Drift
What to watch: The model generates an impact report based on outdated lockfile data, a partial dependency tree, or missing source files. The output looks plausible but reflects a repository state that does not match reality. Guardrail: Always pass the current lockfile, package manifest, and relevant source files as explicit context in the prompt. Include a context freshness timestamp and instruct the model to flag any dependency it cannot resolve. Run the analysis only after a fresh dependency resolution step in CI.
Risk Score Instability Across Runs
What to watch: Running the same prompt on the same inputs produces different risk scores or impact rankings, making the output unreliable for automated gating decisions. This is common when the scoring rubric is underspecified. Guardrail: Define explicit, deterministic scoring criteria in the prompt template. For example, tie risk levels to concrete signals: major version bump, deprecated API usage detected, test coverage below threshold. Run the prompt multiple times and require score reproducibility within a tolerance before accepting the output.
Missed Transitive Impact on Downstream Consumers
What to watch: The model correctly identifies direct dependency impacts but fails to trace effects through the full transitive chain, missing packages that will break due to a change two or three levels deep. Guardrail: Explicitly instruct the model to traverse the full dependency graph to a specified depth. Include a structured output field for the dependency path trace from the changed package to each affected consumer. Validate that every leaf consumer in the report has a complete, verifiable path back to the changed dependency.
Overconfident Migration Recommendations
What to watch: The model recommends a migration or upgrade path without verifying that the target version is compatible with the repository's runtime, other dependencies, or build constraints. It may suggest a version that introduces its own breaking changes or conflicts. Guardrail: Require the model to check peer dependency constraints, engine requirements, and known incompatibilities before recommending a target version. Include a compatibility pre-check step that validates the recommended version against the full dependency graph. Flag any recommendation that cannot be verified.
Evaluation Rubric
Run these checks against a golden dataset of known dependency upgrades with verified impact reports. Each criterion targets a specific failure mode observed in dependency graph analysis prompts.
| Criterion | Pass Standard | Failure Signal | Test Method |
|---|---|---|---|
Impact Source Grounding | Every claimed impact traces to a real import, require(), or build file reference in the repository | Impact listed without a file path or symbol reference; hallucinated dependency relationship | For each impact in the output, grep the repository for the claimed import or call site. Fail if any impact lacks a matching source reference |
Transitive Dependency Accuracy | All transitive dependents are correctly identified from the lockfile or dependency graph | Missing transitive dependents that are reachable; included dependents that are not in the dependency tree | Build the actual dependency graph from the lockfile. Compare the output's transitive dependent list against the ground-truth graph. Fail if precision or recall drops below 0.95 |
API Surface Change Completeness | All breaking API changes from the changelog or diff are captured with affected call sites | Breaking change listed in the source changelog but missing from the output; non-breaking change misclassified as breaking | Parse the upstream changelog or API diff for breaking changes. Cross-reference each against the output. Fail if any documented breaking change is omitted or any non-breaking change is flagged as breaking |
Risk Score Reproducibility | Risk scores are deterministic given the same inputs and scoring rubric | Same input produces different risk scores across runs; risk score not traceable to a defined formula | Run the prompt three times on the same golden input. Fail if risk scores vary by more than one level or if the output cannot explain the score derivation |
Test Order Correctness | Recommended test order respects the dependency graph: dependents tested after their dependencies | Test order suggests testing a dependent before its dependency; circular ordering recommendation | Topological sort the dependency graph. Verify the output's test order is a valid topological ordering. Fail if any dependent appears before its dependency |
False Positive Rate on Safe Upgrades | Zero false positives when evaluating a patch or minor upgrade with no breaking changes | Output flags impacts or risks for a version bump that has no API changes and passes all existing tests | Use a golden case: a patch bump with no changelog entries and a green CI run. Fail if the output reports any medium or high risk or lists any impacted modules |
Hallucinated Package Attribution | No package, version, or maintainer name appears in the output that is not present in the input sources | Output references a package version not in the lockfile; invents a maintainer or CVE not in the advisory data | Extract all package names and versions from the output. Diff against the lockfile and advisory sources. Fail if any entity is not found in the input data |
Confidence Calibration | Low-confidence findings are explicitly marked and do not drive high-risk recommendations | High-confidence language used for a finding with no source evidence; merge/delay/reject recommendation based on a low-confidence signal | For each finding, check if the evidence field is populated. Fail if a finding marked as high confidence lacks a source citation or if a critical recommendation rests on a finding marked low confidence |
Enabling Efficiency, Speed & Accuracy
Intelligent Analysis, Decision & Execution
We build AI systems for teams that need search across company data, workflow automation across tools, or AI features inside products and internal software.
Talk to Us
Search across company data
Give teams answers from docs, tickets, runbooks, and product data with sources and permissions.
Useful when people spend too long searching or get different answers from different systems.

Automate internal workflows
Use AI to route work, draft outputs, trigger actions, and keep approvals and logs in place.
Useful when repetitive work moves across multiple tools and teams.

Add AI to products and internal tools
Build assistants, guided actions, or decision support into the software your team or customers already use.
Useful when AI needs to be part of the product, not a separate tool.
Adapt This Prompt
How to adapt
Use the base prompt with a single [DEPENDENCY_NAME] and [CURRENT_VERSION] → [TARGET_VERSION] pair. Skip transitive analysis and risk scoring. Ask only for a flat list of affected packages and a short migration note.
codeAnalyze the upgrade of [DEPENDENCY_NAME] from [CURRENT_VERSION] to [TARGET_VERSION] in [REPO_PATH]. List every package that imports this dependency and note any deprecated API calls visible in the source.
Watch for
- Hallucinated imports that don't exist in the codebase
- Missing distinction between direct and dev dependencies
- Overly broad claims about "breaking changes" without source evidence

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.
Partnered with leading AI, data, and software stack.
How We Work
Custom AI workflows for your Business
One-fit-all AI don't work for modern businesses. At Inferensys, we aim to understand your business & custom requirements; which we use to define most efficient agentic workflows, the data, and the tools for your business.
01
Review the use case
We understand the task, the users, and where AI can actually help.
Read more02
Pick the right approach
We define what needs search, automation, or product integration.
Read more03
Build the first useful version
We implement the part that proves the value first.
Read more04
Improve from there
We add the checks and visibility needed to keep it useful.
Read moreThe first call is a practical review of your use case and the right next step.
Talk to Us