Inferensys

Prompt

Dependency-Aware Code Example Prompt

A practical prompt playbook for using Dependency-Aware Code Example 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 job, the reader, and the constraints before generating dependency-aware code examples.

This prompt is for documentation engineers and DevRel teams who need to produce code examples that are guaranteed to build and run against a specific, declared dependency tree. The core job is not just generating a code snippet—it is generating a snippet that includes explicit version pins, correct import statements, and a manifest (such as package.json, requirements.txt, or go.mod) that resolves cleanly. Use this when your documentation pipeline must prevent the most common source of user frustration: examples that fail because of version drift, missing transitive dependencies, or incompatible runtime assumptions.

The ideal user is a technical writer or SDK engineer who maintains multi-version documentation and needs every published example to be reproducible. Required context includes the target language, runtime version, the exact library name and minimum version, and any peer-dependency constraints. You should also provide the API surface being demonstrated and the expected output shape. Do not use this prompt for architectural decision records, high-level conceptual docs, or code that intentionally omits dependency management (such as pseudocode or algorithm sketches). It is also not a substitute for a live CI/CD pipeline that tests examples against a real build environment—it is the prompt that generates the input to that pipeline.

Before wiring this into production, define a validation harness that runs the generated example in an isolated environment matching the declared dependencies. The harness should check that the example compiles, resolves all imports, and produces the expected output without errors. If the example fails, the harness should capture the build log and feed it back into a repair loop. For high-risk or security-sensitive libraries, add a human review step before publication. The next section provides the copy-ready prompt template you can adapt and embed in your documentation generation workflow.

PRACTICAL GUARDRAILS

Use Case Fit

Where the Dependency-Aware Code Example Prompt delivers value and where it introduces risk. Use these cards to decide if this prompt fits your documentation pipeline.

01

Good Fit: Versioned SDK Documentation

Use when: your documentation must produce code examples that match a specific SDK version and its transitive dependency tree. Guardrail: pin the exact version in the prompt's [DEPENDENCIES] block and run the harness build check before publishing.

02

Good Fit: Multi-Language Quickstarts

Use when: generating equivalent examples across Python, Node.js, and Java that each resolve against their own package ecosystems. Guardrail: provide a language-specific dependency manifest per target and validate each example in a clean container image.

03

Bad Fit: Exploratory or Untyped Code

Avoid when: the target language or framework lacks a machine-readable dependency manifest (e.g., bespoke internal scripting environments). Guardrail: fall back to a manual review workflow and flag the example as 'unvalidated' in the published documentation.

04

Bad Fit: Examples with External Side Effects

Avoid when: the code example mutates live resources, sends emails, or charges payments. Guardrail: require human approval and add a # SAFETY: read-only comment block. The harness should execute examples in a sandboxed environment with no network egress.

05

Required Input: Lockfile or Dependency Manifest

Risk: without an explicit dependency tree, the model may hallucinate imports or reference APIs that don't exist in the target version. Guardrail: always supply a requirements.txt, package.json, pom.xml, or equivalent as [DEPENDENCY_CONTEXT] and validate the example resolves cleanly.

06

Operational Risk: Dependency Drift

Risk: a validated example can break silently when upstream packages release new versions. Guardrail: schedule a nightly CI job that rebuilds all published examples against their declared dependencies and alerts on resolution or test failures.

PROMPT PLAYBOOK

Copy-Ready Prompt Template

A reusable prompt template with square-bracket placeholders for generating dependency-aware, buildable code examples.

This section provides the core prompt template for generating code examples that are explicitly tied to a target dependency tree. Unlike generic code generation prompts that might produce syntactically correct but unresolvable code, this template forces the model to declare its assumptions about library versions, language runtimes, and import paths. The output is designed to be fed directly into a validation harness that checks for compilation, dependency resolution, and runtime execution against a lockfile or manifest.

markdown
You are a documentation engineer generating a runnable code example for a specific software library.

Your task is to produce a complete, self-contained code example that demonstrates [FUNCTIONALITY] using the [LIBRARY_NAME] library.

# Required Context
- **Target Language & Version:** [LANGUAGE_RUNTIME]
- **Primary Library & Version:** [LIBRARY_NAME]==[LIBRARY_VERSION]
- **Additional Dependencies:** [DEPENDENCY_LIST]
- **User Goal:** [USER_STORY]

# Output Requirements
1.  **Dependency Manifest:** Start with a code block containing the exact dependency declaration file (e.g., `requirements.txt`, `package.json`, `go.mod`, `Cargo.toml`) that pins all required libraries to specific, compatible versions.
2.  **Complete Source File:** Provide a single, complete source file that can be saved and executed. It must include all necessary import statements that match the declared dependencies.
3.  **Error Handling:** The example must include realistic error handling for [ERROR_CONDITIONS]. Do not use empty catch blocks or silent error suppression.
4.  **Comments:** Use inline comments to explain the 'why' behind non-obvious logic, not the 'what'. Focus on library-specific idioms, configuration choices, and error recovery strategies.
5.  **Output Contract:** The script should print a clear, structured result to standard output that matches [OUTPUT_SCHEMA].

# Constraints
- Do not use placeholder comments like `# ... your code here`.
- Do not reference files or environment variables that are not created within the example itself.
- Ensure the example is idempotent where possible, or clearly documents any side effects.
- Adhere strictly to the security guidelines in [SECURITY_POLICY].

# Example Pair (for style reference)
[FEW_SHOT_EXAMPLE]

To adapt this template, replace the square-bracket placeholders with concrete values from your documentation source of truth. The [DEPENDENCY_LIST] should be derived from your project's actual lockfile to ensure the generated example pins real, tested version combinations. The [ERROR_CONDITIONS] placeholder is critical for steering the model away from happy-path-only examples; specify the exact exception types or HTTP status codes your API surface can return. Before integrating this prompt into a CI/CD pipeline, run the generated output through a validation harness that executes pip install -r requirements.txt (or equivalent) and then runs the script to confirm it exits cleanly and produces output matching [OUTPUT_SCHEMA].

IMPLEMENTATION TABLE

Prompt Variables

Required inputs for the Dependency-Aware Code Example Prompt. Each placeholder must be resolved before the prompt is sent. Validation notes describe how the harness checks the input before generation and after the example is built.

PlaceholderPurposeExampleValidation Notes

[TARGET_LANGUAGE]

Specifies the programming language and version for the code example.

Python 3.11

Must match an entry in the harness language registry. Reject unknown or unsupported versions before generation.

[PACKAGE_MANIFEST]

Declares the exact dependencies, version pins, and package ecosystem for the example.

{"requests": "^2.31.0", "pydantic": "^2.5.0"}

Must be valid JSON with package names and semver constraints. Harness parses and validates against the target ecosystem registry (PyPI, npm, crates.io).

[API_OPERATION]

Describes the specific API call, method, or workflow the example must demonstrate.

GET /users/{id} with Bearer token auth

Must include HTTP method, path, and auth type. Harness checks for completeness before generation and validates the example uses the declared operation.

[ERROR_SCENARIOS]

Lists the error conditions the example must handle explicitly.

["401 Unauthorized", "429 Rate Limited", "503 Service Unavailable"]

Must be a JSON array of HTTP status codes or error types. Harness verifies each listed scenario appears in the generated example's error-handling logic.

[SECURITY_CONSTRAINTS]

Defines security rules the example must not violate.

["no hardcoded credentials", "use environment variables", "validate TLS"]

Must be a JSON array of constraint strings. Harness runs a security linting pass after generation and flags violations.

[OUTPUT_SCHEMA]

Specifies the expected structure of the generated code example.

{"files": [{"path": "string", "content": "string"}], "run_command": "string"}

Must be a valid JSON Schema. Harness validates the generated output against this schema before attempting to build or run the example.

[RUNTIME_IMAGE]

Identifies the base container image or environment where the example will be verified.

python:3.11-slim

Must be a valid, pullable container image tag. Harness attempts to pull the image before generation and aborts if unavailable.

[IMPORT_CONVENTIONS]

Specifies required import style or aliasing rules for the target ecosystem.

{"numpy": "np", "pandas": "pd"}

Must be a JSON object mapping package names to expected aliases. Harness parses the generated code's imports and checks for compliance.

PROMPT PLAYBOOK

Implementation Harness Notes

How to wire the Dependency-Aware Code Example Prompt into a CI pipeline or documentation build system.

This prompt is designed to be called programmatically as part of a documentation generation pipeline, not as a one-off chat interaction. The core job of the harness is to take the model's output—a code block with explicit dependency declarations—and automatically verify that it actually resolves and builds against the specified dependency tree. Without this verification step, the prompt's value collapses to a suggestion rather than a guarantee. The harness should treat the prompt output as a hypothesis to be tested, not a finished artifact to be published.

The implementation should follow a generate → extract → validate → repair → publish loop. First, call the model with the prompt template, injecting the target language, framework, and version constraints into the [TARGET_RUNTIME] and [DEPENDENCY_CONSTRAINTS] placeholders. Parse the model's response to extract the code block and the dependency manifest (e.g., package.json, requirements.txt, go.mod). Write both to a temporary sandbox directory. Execute a build command inside a container that matches the declared runtime version—for example, docker run --rm -v $PWD:/app node:18-alpine sh -c 'cd /app && npm install && npm run build'. Capture the exit code, stdout, and stderr. If the build fails, feed the error output back into the model with a repair prompt: 'The following build error occurred when testing your example. Fix the code and dependency declarations to resolve it.' This retry loop should have a hard limit of 3 attempts before flagging the example for human review.

Logging and artifact storage are critical for auditability. For every generation attempt, persist the prompt input, raw model output, extracted files, build logs, and final pass/fail status. This trace allows documentation engineers to debug why a particular example failed and to detect drift over time—for instance, when a package registry removes a version that was previously valid. In high-stakes environments like security SDK documentation, add a human approval gate after automated validation passes. A reviewer should confirm that the generated example doesn't introduce subtle anti-patterns (e.g., disabling TLS verification for convenience) before it reaches the public docs site. For model selection, prefer models with strong code generation capabilities and deterministic output modes (temperature=0) to maximize reproducibility across runs.

IMPLEMENTATION TABLE

Expected Output Contract

Define the exact shape of the model response so your harness can validate it before the example reaches documentation. Every field maps to a check you can automate.

Field or ElementType or FormatRequiredValidation Rule

dependency_declaration

object

Must contain language, package_manager, and dependencies array. Schema check before code extraction.

dependency_declaration.dependencies[].name

string

Must match a known package registry name pattern. Regex: ^[a-zA-Z0-9_-.]+$

dependency_declaration.dependencies[].version

string

Must be a valid semver constraint or exact pin. Parse with a semver library; reject ranges that resolve to zero versions.

dependency_declaration.dependencies[].reason

string

If present, must be 10-120 characters. Null allowed. No markdown links.

code_block

string

Must be a fenced code block with a language identifier matching dependency_declaration.language. Extract and attempt compilation or syntax check.

import_statements

array of strings

Every import must resolve to a package listed in dependency_declaration.dependencies. Cross-reference with a package resolver. Missing import = fail.

build_or_run_command

string

Must be a single shell command that installs declared dependencies and executes a check on code_block. Validate the command exits 0 in a sandbox.

runtime_version_constraint

string

Must specify a minimum language or runtime version. Parse with a version manager; reject if the declared dependencies require a higher version than stated.

PRACTICAL GUARDRAILS

Common Failure Modes

Dependency-aware code examples break in predictable ways when the prompt, the harness, or the target environment drift. These are the most common failures and how to prevent them before they reach your docs site.

01

Version Drift Between Prompt and Reality

Risk: The prompt specifies a dependency version that is no longer the latest, causing the generated example to use deprecated APIs or fail against a newer runtime. Guardrail: Always inject the target dependency tree from a live lock file or build manifest into the [DEPENDENCIES] variable. Never hardcode version strings in the system prompt.

02

Missing Transitive Dependency Failures

Risk: The generated code imports a sub-package that isn't installed because the prompt only listed the top-level library. The example compiles but fails at runtime with an ImportError. Guardrail: The CI harness must execute the generated code in an isolated environment built strictly from the provided dependency list. Flag any missing imports as a hard failure.

03

Silent Security Anti-Pattern Introduction

Risk: The model generates functionally correct code that includes hardcoded credentials, disables TLS verification, or uses insecure deserialization because the prompt lacked explicit security constraints. Guardrail: Append a mandatory [SECURITY_RULES] block to the prompt that forbids specific patterns. Run a static analysis security scanner as a post-generation validation gate.

04

Incorrect Import Path Resolution

Risk: The model hallucinates an import path that doesn't exist in the specified library version, often confusing major version module structures (e.g., v1 vs v2 paths). Guardrail: Use a verification step that statically analyzes the generated code against the actual installed package's __init__.py exports. Fail the example if any import cannot be resolved.

05

Platform-Specific Code in Cross-Platform Docs

Risk: The prompt generates code with Linux-specific file paths, Windows-only DLLs, or macOS keychain calls when the documentation targets a different or generic platform. Guardrail: Explicitly constrain the [TARGET_PLATFORM] in the prompt. Run the generated example in a matrix of target operating systems defined in the CI harness.

06

Stale Error Handling Patterns

Risk: The model catches a broad Exception or uses a try/except pattern that silently swallows a new exception class introduced in the target library version. Guardrail: The prompt must instruct the model to catch only the specific exception classes documented in the provided API reference. The test harness must inject faults to verify error propagation isn't suppressed.

IMPLEMENTATION TABLE

Evaluation Rubric

Criteria for testing the quality of dependency-aware code examples before publication. Each row defines a pass standard, a failure signal, and a concrete test method that can be automated in a CI harness.

CriterionPass StandardFailure SignalTest Method

Dependency Resolution

Example builds successfully with the declared [DEPENDENCY_VERSIONS] in a clean environment

Build fails with unresolved imports, missing packages, or version conflicts

Run pip install -r requirements.txt or equivalent in a fresh container; verify exit code 0

Version Pin Accuracy

All declared dependency versions match the [TARGET_RUNTIME] specification exactly

A dependency resolves to a different major/minor version than specified in [DEPENDENCY_VERSIONS]

Parse lock file or pip freeze output; diff against [DEPENDENCY_VERSIONS] manifest

Import Statement Validity

Every import statement in the example resolves to a symbol that exists in the declared dependency tree

ImportError or ModuleNotFoundError when executing the example

Execute python -c "import [MODULE]" for each import; check stderr for tracebacks

Runnable Without Modification

The example executes end-to-end with zero code changes when [INPUT_VALUES] are provided

Execution halts with a runtime error, missing variable, or undefined reference

Run the example in a script with [INPUT_VALUES] substituted; assert exit code 0 and no exceptions

Output Schema Match

The example's output conforms to the [OUTPUT_SCHEMA] fields, types, and required constraints

Output is missing a required field, has wrong type, or includes extra fields not in schema

Validate output with jsonschema or pydantic against [OUTPUT_SCHEMA]; assert validation passes

Error Handling Coverage

Example demonstrates handling for the error conditions listed in [ERROR_SCENARIOS]

Example exits without catching a documented error type or swallows the exception silently

Inject each error condition via mock; assert the example logs or handles it as specified in [ERROR_SCENARIOS]

Security Lint Pass

Example passes a security linting scan with zero high-severity findings

Hardcoded credentials, SQL injection vector, or insecure default detected

Run bandit, semgrep, or equivalent security linter; assert zero high-severity results

Idiomatic Language Use

Example follows the conventions in [LANGUAGE_STYLE_GUIDE] for naming, structure, and library usage

Linter reports style violations or reviewer flags non-idiomatic patterns

Run language-specific linter (e.g., ruff, eslint, rubocop) with [LANGUAGE_STYLE_GUIDE] ruleset; assert zero errors

ADAPTATION OPTIONS

Adapt This Prompt

How to adapt

Use the base prompt with a single target language and a simplified [DEPENDENCY_MANIFEST]. Focus on generating a correct import block and a single function. Skip the build verification harness.

Prompt modification

  • Replace [TARGET_LANGUAGE] with a single value like Python 3.11
  • Set [DEPENDENCY_MANIFEST] to a short inline list: requests==2.31.0
  • Add instruction: Generate only the code. Do not include setup instructions or test cases.

Watch for

  • Missing version pins causing ambiguity
  • Import statements that don't match the declared dependency names
  • The model adding extra dependencies not listed in the manifest
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.