35 ChatGPT Prompts for Coding & Programming

35 ChatGPT Prompts for Coding & Programming

Whether you’re debugging a production issue at 2 AM or planning the architecture for a new feature, ChatGPT can be a surprisingly capable coding assistant — if you know how to talk to it. The difference between getting usable code and getting garbage comes down to how you structure your prompts.

This guide covers 35 prompts organized by the tasks developers actually deal with: debugging, code review, architecture decisions, algorithm design, writing documentation, testing, and refactoring. Each prompt is designed to produce output you can work with, not just generic boilerplate.

A few ground rules before we start: always review AI-generated code before shipping it. Test everything. And never paste proprietary code or secrets into any AI tool without your company’s approval.

How to Write Better Coding Prompts

Provide full context, not fragments. Including the language, framework version, surrounding code, and error messages gives ChatGPT enough to work with. A bare “fix this bug” produces bare results.

State your constraints. Performance requirements, coding standards, compatibility needs, and file structure matter. “Write a function” and “Write a function that processes 10M records with O(n) time complexity using Python 3.12 and follows PEP 8″ are wildly different requests.

Ask for explanations, not just code. When you understand why the solution works, you can modify it, debug it, and learn from it. Blind copy-paste is a fast road to technical debt.

Iterate naturally. Your first prompt rarely produces perfect output. Follow up with “That’s close, but also handle the edge case where…” or “Can you refactor this using the strategy pattern instead?” Treat it like working with a colleague, not placing an order.


Debugging Prompts (1-7)

1. Error Diagnosis

I'm getting this error in my [language/framework] application:

Error message: [paste the full error message and stack trace]

Here's the relevant code: [paste the code — include enough context, not just one line]

What I expected to happen: [describe expected behavior] What actually happens: [describe actual behavior]

Diagnose the root cause. Explain:

  • Why this error occurs
  • The fix, with corrected code
  • How to prevent this type of error in the future
  • Any related issues in the code I should check for
  • 2. Logic Bug Finder

    This [language] function should [describe expected behavior] but it's producing
    incorrect results for certain inputs.
    
    

    [paste the function]

    Test cases that fail:

    • Input: [input] → Expected: [expected] → Got: [actual result]
    • Input: [input] → Expected: [expected] → Got: [actual result]
    Test cases that pass:
    • Input: [input] → Expected: [expected] → Got: [expected] (correct)
    Walk me through the logic step by step for a failing test case. Identify where the logic breaks down and provide a corrected version.

    3. Performance Debugging

    This [language] code runs too slowly. It processes [describe data volume]
    and currently takes [time]. Target is [time].
    
    

    [paste the code]

    Profile this code conceptually:

  • Identify the performance bottlenecks (which operations are expensive and why)
  • Analyze the time and space complexity of the current approach
  • Suggest optimized alternatives with their complexity analysis
  • Provide the refactored code with comments explaining each optimization
  • Estimate the expected improvement
  • Environment: [language version, runtime, any relevant hardware constraints]. Data characteristics: [describe — sorted, random, sparse, etc.].

    4. Memory Leak Investigation

    I suspect a memory leak in my [language/framework] application.
    Symptoms: [describe — growing memory usage, OOM crashes, degraded performance over time]
    
    

    Here's the relevant code section: [paste code]

    Help me investigate:

  • Common memory leak patterns in [language/framework] — which apply here?
  • Identify specific lines or patterns in my code that could cause leaks
  • Suggest diagnostic steps (profiling tools, monitoring approaches)
  • Provide fixes for the identified issues
  • Best practices to prevent memory leaks in this type of application
  • 5. Concurrency Bug Helper

    I have a concurrency issue in my [language] application.
    The bug manifests as: [describe — race condition, deadlock, data corruption, etc.]
    It happens intermittently, roughly [frequency].
    
    

    Here's the code: [paste the concurrent/async code]

    Analyze this for concurrency problems:

  • Identify potential race conditions, deadlocks, or thread-safety issues
  • Explain the specific sequence of events that causes the bug
  • Provide a thread-safe version of the code
  • Explain the synchronization mechanism you chose and why
  • Suggest how to write a test that reproduces this type of bug
  • 6. API Integration Debugging

    I'm integrating with [API name] and getting unexpected responses.
    
    

    My request: [paste the request — method, URL, headers, body]

    Expected response: [describe or paste] Actual response: [paste the actual response]

    API documentation says: [paste relevant docs snippet]

    Help me figure out:

  • What's wrong with my request
  • Common mistakes developers make with this API
  • The corrected request with proper formatting
  • How to add error handling for common failure modes
  • A retry strategy for transient failures
  • 7. Environment and Configuration Debugging

    My [language/framework] project works in [environment A — e.g., local development]
    but fails in [environment B — e.g., production, Docker, CI/CD].
    
    

    Error: [paste error]

    My configuration: [paste relevant config files — docker-compose, env files (redact secrets), package.json, etc.]

    Differences between environments that I know of: [list known differences — OS, versions, network, etc.]

    Help me identify:

  • What environment-specific factors could cause this
  • How to diagnose the difference (specific commands to run)
  • The likely fix
  • How to prevent environment-specific bugs (best practices)

  • Code Review Prompts (8-13)

    8. Comprehensive Code Review

    Review this [language] code as a senior developer. Be thorough but constructive.
    
    

    [paste the code]

    Evaluate these aspects:

  • Correctness: Does the logic handle all cases? Any bugs?
  • Readability: Is it clear? Would a new team member understand it?
  • Performance: Any unnecessary operations or scalability concerns?
  • Security: Any vulnerabilities (injection, XSS, auth issues, etc.)?
  • Error handling: Are errors handled gracefully?
  • Naming: Are variables, functions, and classes named clearly?
  • Design patterns: Is the overall structure sound? Better approaches?
  • Test coverage: What tests should exist for this code?
  • For each issue found:

    • Severity: critical / major / minor / nit
    • Line reference
    • Explanation of the problem
    • Suggested fix with code

    9. Security-Focused Review

    Perform a security review of this [language/framework] code.
    This code handles [describe — user auth, payment processing, file upload, API endpoints, etc.].
    
    

    [paste the code]

    Check for:

  • Injection vulnerabilities (SQL, NoSQL, command, XSS)
  • Authentication and authorization flaws
  • Sensitive data exposure (logging, error messages, responses)
  • Input validation gaps
  • CSRF/CORS issues
  • Insecure dependencies or configurations
  • Rate limiting and abuse prevention
  • Cryptographic weaknesses
  • For each finding:

    • Severity (critical/high/medium/low)
    • Attack scenario (how an attacker would exploit this)
    • Fix with code sample
    • Reference to relevant security standard (OWASP, CWE)

    10. Pull Request Review Simulation

    I'm about to submit this code as a pull request. Review it as if you were
    my team's most thorough reviewer.
    
    

    PR title: [title] PR description: [describe what this change does and why]

    Files changed: [paste the diff or new code]

    Related context:

    • This is part of [feature/project]
    • It needs to work with [existing code/system]
    • Performance requirement: [if any]
    Give me:
  • Overall assessment (approve, request changes, or needs discussion)
  • Blocking issues (must fix before merging)
  • Non-blocking suggestions (improvements for future)
  • Questions you'd ask the author
  • Anything missing (error handling, tests, docs, edge cases)
  • 11. Code Style and Consistency Check

    Review this [language] code for style and consistency issues.
    Our team follows [style guide — e.g., Airbnb JavaScript, PEP 8, Google Java].
    
    

    [paste the code]

    Check for:

  • Naming convention violations
  • Inconsistent formatting or indentation
  • Function/method length (flag any over [X] lines)
  • Complexity issues (deeply nested logic, long parameter lists)
  • Comment quality (missing, outdated, or unnecessary comments)
  • Import organization
  • Dead code or unused variables
  • Provide the cleaned-up version with changes annotated.

    12. API Design Review

    Review the design of this REST API (or GraphQL schema):
    
    

    [paste your API endpoints, request/response formats, or schema]

    Evaluate:

  • RESTful conventions: Are resources and methods used correctly?
  • Naming: Are endpoints/fields clear and consistent?
  • Versioning strategy
  • Error response format and consistency
  • Pagination approach for list endpoints
  • Authentication and authorization model
  • Rate limiting and throttling
  • Documentation completeness
  • Suggest improvements for:

    • Developer experience (easy to understand and use)
    • Forward compatibility (won't break when we add features)
    • Performance (any N+1 queries, over-fetching, etc.)

    13. Database Schema Review

    Review this database schema for a [type of application]:
    
    

    [paste the schema — tables, columns, types, constraints, indexes]

    Evaluate:

  • Normalization: Is it appropriately normalized (or denormalized if justified)?
  • Data types: Are they appropriate and efficient?
  • Indexes: Are they sufficient for expected query patterns?
  • Constraints: Are there proper foreign keys, unique constraints, NOT NULL where needed?
  • Naming conventions: Are they consistent and clear?
  • Scaling considerations: Will this perform well at [expected scale]?
  • Missing tables or relationships
  • Expected query patterns: [describe the most common reads and writes]. Expected data volume: [describe growth expectations].


    Architecture & Design Prompts (14-19)

    14. System Architecture Design

    I need to design the architecture for [system description].
    
    

    Requirements:

    • Functional: [list what it needs to do]
    • Non-functional: [performance, scalability, availability, security requirements]
    • Users: [expected number and type of users]
    • Scale: [expected traffic/data volume]
    • Budget: [infrastructure budget constraints]
    Existing tech stack: [list current technologies]

    Provide:

  • High-level architecture diagram description (components and their relationships)
  • Technology recommendations for each component with justification
  • Data flow: How information moves through the system
  • API design: Key endpoints/interfaces between components
  • Database strategy: SQL vs NoSQL, schema approach, caching layer
  • Deployment architecture: Cloud services, containers, serverless considerations
  • Trade-offs: What we're optimizing for and what we're sacrificing
  • 15. Microservices vs. Monolith Decision

    Help me decide whether to build [project description] as a monolith or microservices.
    
    

    Context:

    • Team size: [number of developers]
    • Team experience: [skill levels and experience with distributed systems]
    • Complexity: [describe the domain complexity]
    • Scale requirements: [expected load and growth]
    • Deployment frequency: [how often we need to ship]
    • Timeline: [when it needs to be production-ready]
    Analyze both approaches against our context:
  • Development speed and complexity
  • Operational overhead
  • Scaling characteristics
  • Team autonomy and productivity
  • Risk and failure modes
  • Migration path (can we start one way and evolve?)
  • Give a clear recommendation with reasoning, not just "it depends."

    16. Database Design Decision

    I'm designing the data layer for [application description].
    
    

    Data characteristics:

    • Types of data: [describe — structured, semi-structured, time-series, graph, etc.]
    • Read vs write ratio: [estimate]
    • Consistency requirements: [strong consistency, eventual consistency, or mixed]
    • Query patterns: [describe the most common queries]
    • Expected data volume: [initial and 12-month projection]
    • Relationships: [describe key data relationships]
    Help me choose:
  • Database type(s) with justification (SQL, NoSQL document, key-value, graph, time-series)
  • Specific database recommendations and why
  • Schema design approach
  • Indexing strategy
  • Caching strategy (when and what to cache)
  • Backup and disaster recovery approach
  • Migration strategy if we outgrow the initial choice
  • 17. API Architecture Design

    Design the API architecture for [application/feature].
    
    

    Requirements:

    • Clients: [web app, mobile app, third-party integrations, etc.]
    • Authentication: [describe auth requirements]
    • Key operations: [list the main things the API needs to do]
    • Performance: [latency and throughput requirements]
    • Team: [number of teams consuming/building the API]
    Design:
  • REST vs GraphQL vs gRPC: Recommendation with justification
  • Resource/endpoint design: Key endpoints with methods and response shapes
  • Authentication and authorization flow
  • Error handling strategy (error codes, messages, format)
  • Pagination strategy
  • Rate limiting approach
  • Versioning strategy
  • Documentation approach
  • Provide example request/response for 3 key endpoints.

    18. Event-Driven Architecture Design

    Help me design an event-driven architecture for [use case].
    
    

    Events that need to be handled: [list the events — e.g., "user signs up," "order placed," "payment processed"]

    For each event:

  • Event schema (what data the event carries)
  • Producers: What creates this event
  • Consumers: What reacts to this event and what they do
  • Delivery guarantees needed: at-most-once, at-least-once, exactly-once
  • Also design:

    • Message broker selection: [Kafka, RabbitMQ, SQS, etc.] with justification
    • Event schema evolution strategy
    • Error handling: Dead letter queues, retry policies
    • Monitoring: How to track event flow and detect problems
    • Testing strategy for event-driven flows
    Current infrastructure: [describe].

    19. Technical Debt Assessment

    Help me assess and prioritize technical debt in our [language/framework] codebase.
    
    

    Here are the known technical debt items: [list items — e.g., outdated dependencies, legacy code, missing tests, etc.]

    For each item, evaluate:

  • Risk level: What could go wrong if we don't address it? (security, reliability, productivity)
  • Cost of delay: Does it get worse over time?
  • Effort to fix: T-shirt size (S/M/L/XL) with explanation
  • Dependencies: Does this block other work?
  • Business impact: How does it affect customers, velocity, or hiring?
  • Then:

    • Create a prioritized roadmap (what to tackle first, second, third)
    • Suggest a framework for managing ongoing technical debt
    • Recommend how much engineering time to allocate to debt reduction
    • Identify items that could be addressed opportunistically alongside feature work


    Algorithm & Data Structure Prompts (20-24)

    20. Algorithm Design

    I need to solve this problem:
    [describe the problem clearly — input, expected output, constraints]
    
    

    Constraints:

    • Time complexity target: [specify]
    • Space complexity target: [specify]
    • Input size: [expected range]
    • Edge cases to handle: [list any]
    • Language: [specify]
    Provide:
  • Approach analysis: What algorithm or technique fits here? (and why)
  • Step-by-step algorithm walkthrough with a small example
  • Time and space complexity analysis
  • Clean implementation in [language]
  • Edge case handling
  • 3 test cases with expected outputs
  • Alternative approaches and when you'd choose them instead
  • 21. Data Structure Selection

    I need to choose a data structure for the following use case:
    
    

    Operations I need to perform (with frequency):

    • [operation 1]: [frequent/occasional/rare]
    • [operation 2]: [frequent/occasional/rare]
    • [operation 3]: [frequent/occasional/rare]
    Data characteristics:
    • Expected size: [number of elements]
    • Data type: [describe what's being stored]
    • Ordering requirements: [sorted, insertion order, none]
    • Duplicate handling: [allowed, not allowed]
    Compare the top 3 candidate data structures:
  • Time complexity for each operation
  • Space overhead
  • Implementation complexity
  • Real-world performance considerations (cache behavior, constant factors)
  • When each is the right choice
  • Recommend one and provide a clean implementation in [language].

    22. Algorithm Optimization

    I have this working algorithm, but it's too slow for my use case:
    
    

    [paste the current code]

    Current complexity: [what you think it is] Performance: [current execution time on typical input] Target: [needed execution time or complexity] Input size: [typical and maximum]

    Walk me through:

  • Confirm the current time and space complexity
  • Identify the specific bottleneck
  • What algorithmic technique could improve this? (dynamic programming, binary search,
  • two pointers, sliding window, memoization, etc.)
  • Provide the optimized solution with explanation
  • Show the complexity improvement
  • Any trade-offs in the optimized version (readability, space usage)
  • 23. Coding Interview Problem Guide

    I'm preparing for coding interviews and need to practice this problem:
    
    

    [paste or describe the problem]

    Don't give me the solution right away. Instead:

  • Help me understand the problem: What are the key inputs, outputs, and constraints?
  • Guide me to the right approach: Ask me questions that lead me toward the solution
  • After I attempt a solution, review it for correctness, efficiency, and edge cases
  • If I'm stuck, give progressively more specific hints:
  • - Hint 1: Category of approach (e.g., "Think about sliding window") - Hint 2: Key insight - Hint 3: Pseudocode outline
  • After we solve it, show me the optimal solution and explain variations
  • interviewers might ask about

    I'm preparing for [company type] interviews. My strongest language is [language].

    24. Complexity Analysis Teacher

    Help me analyze the time and space complexity of this code:
    
    

    [paste the code]

    Walk me through the analysis like a textbook:

  • Identify each operation and its cost
  • Analyze loops: How many iterations? What changes between iterations?
  • Analyze recursive calls: What's the recurrence relation?
  • Handle any tricky parts (amortized operations, hidden costs in library functions)
  • Derive the final Big O for time and space
  • Explain best case, worst case, and average case if they differ
  • What input would trigger the worst case?
  • I want to understand the methodology, not just the answer.


    Documentation Prompts (25-28)

    25. README Generator

    Generate a README.md for my [type of project] repository.
    
    

    Project name: [name] What it does: [describe in 2-3 sentences] Language/framework: [specify] Key features: [list 4-6 features]

    Include these sections:

  • Project title and brief description
  • Features (with brief explanations)
  • Prerequisites and installation steps
  • Quick start guide (get running in 5 minutes)
  • Configuration options
  • Usage examples (3 common use cases with code)
  • API reference (if applicable — key endpoints/methods)
  • Contributing guidelines
  • License
  • Troubleshooting (common issues and fixes)
  • Write it for an audience of [beginner/intermediate/senior] developers.

    26. Code Documentation Writer

    Add comprehensive documentation to this [language] code:
    
    

    [paste the code]

    For each function/method:

    • Docstring explaining purpose, parameters, return values, and exceptions
    • Inline comments only where the logic is non-obvious (don't over-comment)
    • Usage example showing typical invocation
    For each class:
    • Class-level docstring explaining its purpose and when to use it
    • Document relationships with other classes
    • Provide a usage example
    Follow [documentation standard — e.g., JSDoc, Google Python docstring, Javadoc]. Don't change the code logic — only add documentation.

    27. API Documentation

    Write API documentation for these endpoints:
    
    

    [paste endpoint definitions — routes, parameters, request/response bodies]

    For each endpoint, document:

  • HTTP method and URL
  • Description: What it does and when to use it
  • Authentication requirements
  • Request parameters (path, query, body) with types and required/optional
  • Request example (curl and one programming language)
  • Response format with field descriptions
  • Response examples (success and error cases)
  • Rate limits
  • Error codes specific to this endpoint
  • Format as clean Markdown suitable for a developer portal. Include a quick start section showing a common workflow using multiple endpoints.

    28. Architecture Decision Record (ADR)

    Write an Architecture Decision Record for this decision:
    
    

    Decision: [describe what we're choosing — e.g., "Use PostgreSQL instead of MongoDB for the user service"]

    Context: [describe the situation and requirements that led to this decision]

    Write the ADR with these sections:

  • Title: A short noun phrase
  • Status: [Proposed/Accepted/Deprecated/Superseded]
  • Context: Business and technical context driving this decision
  • Decision: What we decided and key details
  • Alternatives Considered: Other options we evaluated (at least 2) with pros and cons
  • Consequences: What changes as a result (positive and negative)
  • Compliance: How this aligns with our architecture principles
  • Keep it concise — ADRs should be scannable. Target length: 1 page.


    Testing Prompts (29-32)

    29. Unit Test Generator

    Write unit tests for this [language] code using [testing framework]:
    
    

    [paste the code to test]

    Requirements:

  • Cover all public methods/functions
  • Test happy paths with normal inputs
  • Test edge cases:
  • - Empty/null/undefined inputs - Boundary values - Large inputs - Invalid inputs
  • Test error handling paths
  • Group tests logically with descriptive names
  • Use [AAA pattern / Given-When-Then] structure
  • For each test, add a brief comment explaining what it verifies and why. Aim for [X]% code coverage. Note any parts that are hard to test and suggest how to refactor for better testability.

    30. Integration Test Design

    Design integration tests for [feature/system] that involves:
    
    • Components: [list the components that interact]
    • External services: [APIs, databases, message queues, etc.]
    • Key workflows: [describe the end-to-end flows]
    For each test:
  • Test name and description
  • Preconditions and setup (test data, service state)
  • Steps to execute
  • Assertions (what to check at each step)
  • Cleanup after test
  • Mock vs real services: What should be mocked and what should use real services?
  • Also provide:

    • Test environment setup requirements
    • How to handle flaky tests in this integration
    • Recommended CI/CD pipeline integration

    31. Test-Driven Development Starter

    I'm building [feature description] using TDD in [language] with [testing framework].
    
    

    Requirements: [list the requirements for the feature]

    Walk me through the TDD process:

  • Start with the simplest test case (Red phase — the test should fail)
  • Write the minimum code to make it pass (Green phase)
  • Refactor if needed
  • Move to the next test case
  • Do this for the first 5 test cases, showing how the implementation evolves incrementally. At each step, explain your reasoning for which test to write next.

    Show the full test file and implementation file after all 5 iterations.

    32. Test Data Generator

    Generate test data for my [type of application] that covers these scenarios:
    
    

    Data model: [describe the entities and their relationships]

    Generate:

  • Happy path data: [X] records representing normal, valid data
  • Edge case data: Records that test boundaries (max/min values, special characters,
  • unicode, very long strings)
  • Invalid data: Records that should fail validation (with notes on which validation)
  • Relationship testing: Data that tests referential integrity
  • Performance testing: A script/factory to generate [large number] records
  • Format: [JSON, SQL INSERT statements, factory functions, CSV, etc.] Language/framework: [specify if factory functions needed].


    Refactoring Prompts (33-35)

    33. Code Smell Detector and Fixer

    Analyze this [language] code for code smells and refactor it:
    
    

    [paste the code]

    Identify and fix:

  • Long methods (break into smaller, focused functions)
  • Duplicated code (extract shared logic)
  • Large classes (split responsibilities)
  • Complex conditionals (simplify with guard clauses, polymorphism, or strategy pattern)
  • Magic numbers/strings (extract to constants)
  • Deep nesting (flatten with early returns)
  • Feature envy (methods that use another class's data excessively)
  • Dead code (identify and remove unused code)
  • For each refactoring:

    • What the smell is and why it's a problem
    • The specific change you made
    • Before and after comparison for complex changes
    Keep the refactored code functionally identical. Include tests if the refactoring is non-trivial.

    34. Design Pattern Application

    I have this [language] code that works but has structural problems:
    
    

    [paste the code]

    The problems I'm seeing: [describe — e.g., hard to extend, lots of if/else, duplicated logic, tight coupling, etc.]

    Suggest a design pattern that would improve this. Then:

  • Explain why this pattern fits the problem
  • Show the refactored code using the pattern
  • Explain how it's better (specifically, what's easier now)
  • Show a concrete example of extending the code in a way that would have
  • been hard before the refactoring
  • Mention any trade-offs (added complexity, more files, etc.)
  • When this pattern would be overkill (so I know when NOT to use it)
  • 35. Legacy Code Modernization

    Help me modernize this legacy [language/framework] code:
    
    

    [paste the code]

    Current state:

    • Written for [old version/framework]
    • Known issues: [list problems — deprecated APIs, security vulnerabilities, poor performance]
    • This code is in production and serving [describe usage]
    Modernize it:
  • Update to [target version/framework] idioms and best practices
  • Replace deprecated APIs with current alternatives
  • Improve error handling (the legacy code probably swallows errors)
  • Add type safety where applicable
  • Improve performance using modern language features
  • Make it testable (if it isn't currently)
  • Provide a migration plan:

    • Changes that can be made safely in isolation
    • Changes that require coordinated deployment
    • How to verify nothing breaks (testing strategy)
    • Rollback plan if issues arise


    Good vs. Bad Prompt Examples

    Example 1: Debugging

    Bad prompt:

    My code doesn't work. Fix it.

    [pastes 200 lines of code]

    Why it fails: No error message, no description of expected vs. actual behavior, no indication of what was tried.

    Good prompt:

    My Python Flask endpoint returns a 500 error when processing POST requests
    with JSON bodies larger than 1MB. It works fine for smaller payloads.

    Error: "MemoryError" at line 47 in process_upload.py

    Here's the relevant code: [paste the specific function and its caller]

    I'm running Flask 3.0 on Python 3.12 with a 512MB memory limit in Docker. I've already tried increasing the memory limit to 1GB but it only delays the issue.

    Example 2: Code Review

    Bad prompt:

    Is this code good?

    [pastes code]

    Good prompt:

    Review this Python function that handles user authentication for our API.
    It's called on every request (approximately 10,000 requests/minute).
    Focus on security vulnerabilities and performance issues. We follow
    PEP 8 and use type hints. Flag anything that wouldn't pass a security audit.

    [paste the function with its imports and dependencies]

    Example 3: Architecture

    Bad prompt:

    How should I build a chat app?
    

    Good prompt:

    I'm designing a real-time chat application for internal company use.
    Requirements: 500 concurrent users, message persistence, read receipts,
    file sharing up to 50MB, and integration with our existing SSO (Okta).
    Tech stack: React frontend, Node.js backend, currently on AWS.
    Team: 3 backend developers, 2 frontend developers, 4-month timeline.

    Compare WebSocket vs. Server-Sent Events for the real-time component, and recommend a message storage strategy that handles full-text search.


    Frequently Asked Questions

    Should I trust code that ChatGPT generates?

    Never deploy AI-generated code without review and testing. ChatGPT produces code that compiles and often works correctly for common patterns, but it can introduce subtle bugs, use deprecated APIs, or miss edge cases. Treat it like code from a junior developer — the structure and approach may be sound, but verify the details. Always run tests and have a human review before merging.

    Which programming languages does ChatGPT handle best?

    ChatGPT performs strongest with popular languages that have large amounts of training data: Python, JavaScript/TypeScript, Java, C#, Go, Rust, and SQL. It handles frameworks like React, Django, Spring, and Express well. For niche languages or very new frameworks, the quality drops. When working with less common tools, provide more context and examples in your prompts.

    Can ChatGPT help me learn programming from scratch?

    ChatGPT is a good supplementary learning tool but shouldn’t be your only resource. It excels at explaining concepts, providing examples, and helping you debug code while you learn. However, it can’t replace structured curriculum, hands-on projects, and the struggle of solving problems yourself. Use it to get unstuck, not to avoid getting stuck in the first place.

    How does ChatGPT compare to GitHub Copilot for coding?

    They serve different purposes. Copilot integrates directly into your editor and excels at autocomplete-style suggestions as you type — it’s best for accelerating code you already know how to write. ChatGPT is better for longer conversations: debugging complex issues, discussing architecture, explaining concepts, and generating larger code blocks with context. Many developers use both.

    Is it safe to paste my company’s code into ChatGPT?

    Check your company’s AI usage policy first. Code entered into ChatGPT’s free and Plus tiers may be used for model training unless you opt out. Enterprise plans (ChatGPT Enterprise, API with data controls) offer stronger privacy guarantees. Never paste API keys, secrets, credentials, or highly proprietary algorithms regardless of the plan. When in doubt, anonymize the code or use your company’s approved AI tools.

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