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DevOps14 min read·July 17, 2026

Before You LaunchProduction Checklist for Vibe-Coded Applications

AI tools build fast. They miss monitoring, backups, rate limiting, and disaster recovery. This 50-point checklist covers everything your vibe-coded application needs before going live.

Shipping a vibe-coded application to production is not the same as shipping it to a staging environment. The gap between a working prototype and a production-ready system is larger than most founders expect, and AI coding tools do not close that gap automatically.

AI-assisted development compresses timelines dramatically. A product that would take a traditional development team three months can be functional in three weeks. But production readiness involves categories of work that AI tools consistently skip: monitoring, backups, disaster recovery, rate limiting, secrets rotation, database optimisation, and dozens of small configuration decisions that determine whether your application holds up under real-world conditions.

This article provides a 50-point production launch checklist for vibe-coded applications, covers what AI tools typically miss, and explains how experienced engineering teams validate readiness before going live.

What Does Production-Ready Actually Mean?

A prototype is working when it does what it is supposed to do. A production-ready system does what it is supposed to do and handles gracefully everything that can go wrong.

That includes users doing unexpected things, third-party services going offline, traffic spikes beyond expected volume, data corruption from failed transactions, disks filling up, SSL certificates expiring, and hundreds of other failure scenarios that happen in real systems running under real conditions.

Vibe-coded applications are frequently functional at launch. They are less frequently resilient. The checklist below covers the gap.

The 50-Point Production Launch Checklist

Authentication and Session Management

  • Passwords are hashed with bcrypt, scrypt, or Argon2 not MD5, SHA-1, or plain SHA-256
  • Login endpoints have rate limiting set to a maximum of 5–10 attempts per minute per IP
  • Password reset tokens are single-use and expire within 15–60 minutes of generation
  • Sessions are invalidated on logout and regenerated after any privilege escalation
  • JWT secrets are a minimum of 256 bits, stored securely, and rotated on a defined schedule
  • MFA is available for all admin accounts and optionally enabled for all users

Authorisation

  • Every data-returning API endpoint verifies the requesting user owns or has explicit permission to access the specific resource
  • Role-based access controls are enforced at the API layer not only through UI visibility
  • Admin routes are inaccessible to non-admin users via both the UI and direct API calls
  • Sensitive operations such as deletion, payments, and account changes require re-authentication or explicit confirmation
  • API endpoints do not expose sequential internal IDs that allow enumeration of other users' resources

Secrets and Environment Configuration

  • No API keys, passwords, or secrets are hardcoded in source files or configuration committed to version control
  • .env files are listed in .gitignore and verified absent from the repository
  • Git history has been scanned for accidentally committed secrets using truffleHog or git-secrets
  • Production secrets differ from development and staging secrets
  • All secrets are stored in a managed secrets service not in a shared document, spreadsheet, or chat message
  • Webhook endpoints verify provider-signed payloads before processing any request

Monitoring and Alerting

  • Application errors are captured and routed to an error tracking service such as Sentry or Datadog
  • Alerts are configured to fire when error rates exceed your defined baseline threshold
  • Uptime monitoring checks critical endpoints every 1–5 minutes and alerts on failure
  • Infrastructure metrics CPU, memory, disk usage, and database connections are tracked continuously
  • All alerts route to a human-monitored channel such as Slack, PagerDuty, or email not only to log files
  • Dashboards exist for key business metrics: active sessions, signups, and conversion events

Logging

  • Application logs are centralised in a log management service with a defined retention period
  • Log entries include sufficient context: timestamps, user IDs, request IDs, endpoint, and HTTP status codes
  • Logs do not capture sensitive data passwords, tokens, payment details, or unmasked personal identifiers
  • Logs are searchable and accessible without requiring direct server or database access

Rate Limiting

  • All public API endpoints have rate limiting configured to prevent abuse
  • Authentication endpoints have stricter rate limits than general API endpoints
  • Rate limits are enforced per authenticated user and per IP address not only per IP
  • Rate limit responses return HTTP 429 status codes with Retry-After headers

Database

  • The database is not publicly accessible connections are restricted to application servers only
  • The application connects using a dedicated database user with minimum required permissions not a root or superadmin account
  • Indexes are in place on all columns used in WHERE clauses and JOIN conditions for your primary query patterns
  • Multi-step operations that must succeed or fail together are wrapped in database transactions
  • All database migrations are tracked in version control and tested in staging before running in production
  • Connection pooling is configured to prevent connection exhaustion under load

Backups and Disaster Recovery

  • Automated database backups run daily at minimum more frequently for applications handling financial or irreplaceable data
  • Backups are stored in a separate location from the primary database, in a different region or with a different provider
  • A full backup restoration has been tested end-to-end not merely confirmed as scheduled
  • Recovery Time Objective and Recovery Point Objective are defined and achievable with the current backup strategy
  • A documented incident response runbook covers the most likely failure scenarios with clear steps to restore service

Infrastructure Security

  • HTTPS is enforced across all endpoints with valid SSL certificates configured for automatic renewal
  • Security headers are set: Content-Security-Policy, X-Frame-Options, X-Content-Type-Options, and Strict-Transport-Security
  • Application processes do not run as root on servers or containers
  • Unused ports and services are disabled across all production servers
  • A dependency audit has been run and all critical and high severity vulnerabilities are resolved before launch

CI/CD and Deployment

  • A CI pipeline runs automated tests before every deployment to production
  • Production deployments require at least one reviewer direct pushes to the production branch are blocked
  • A rollback procedure is documented and tested a failed deployment can be reverted in under 15 minutes
  • Environment variable configuration for production is reviewed and confirmed before each major deployment
  • Post-deployment verification steps are defined and run after every production release

What AI Tools Typically Miss

If you have worked through the checklist above, you may have noticed that many of the items have nothing to do with application code. AI coding tools generate application logic. They do not configure infrastructure, set operational policies, or design for failure. Here are the ten categories where the gap between AI output and production readiness is most consistent:

Monitoring Configuration

AI tools generate code that works. They do not set up the infrastructure to tell you when it stops working. Error tracking services, uptime monitors, and alerting rules are almost always absent from vibe-coded builds. Founders typically discover this gap the first time something breaks in production and they have no idea when it happened or how many users were affected.

Backup Strategy

No AI coding tool will configure automated database backups or test restoration procedures as part of building your application. This is infrastructure work that exists outside the code generation layer. Founders who assume their hosting provider is handling backups adequately are often surprised to discover the defaults if backups are enabled at all do not meet the recovery objectives they assumed.

Rate Limiting Beyond Authentication

AI tools sometimes add rate limiting to login endpoints when explicitly asked. They do not systematically apply rate limiting across all API endpoints as a default behaviour. A vibe-coded API without broad rate limiting is vulnerable to automated abuse scrapers, bots, and credential stuffing attacks from the moment it goes live.

Database Connection Management

AI-generated database code typically works correctly for individual requests but does not configure connection pooling. Under load, an application without connection pooling will exhaust the database's connection limit quickly. The failure mode is abrupt: the database starts refusing connections and the application goes down for all users simultaneously.

Index Optimisation

AI tools generate correct queries without generating the indexes that make those queries fast at scale. A query that returns in 20 milliseconds on a 5,000-row table may take 40 seconds on a 5,000,000-row table without the right index. This is a performance problem that is invisible during development and becomes a production crisis when the user base grows.

HTTP Security Headers

AI tools generate application code, not server or deployment configuration. HTTP security headers, HTTPS enforcement, and certificate management are infrastructure-layer concerns. Vibe-coded applications regularly go to production without Content-Security-Policy, X-Frame-Options, or Strict-Transport-Security headers configured.

Log Hygiene

AI tools generate logging code that captures what is happening in the application. They do not consistently ensure that logs exclude sensitive information. Passwords, session tokens, payment card details, and personal identifiers frequently appear in application logs when the logging code is AI-generated and not reviewed.

Disaster Recovery Planning

No AI tool writes your incident response runbook or helps you define your recovery objectives. These documents require judgment about what your specific business needs when things go wrong. Without them, your team's response to the first serious production incident is improvised under pressure which is the worst possible time to be making those decisions for the first time.

Object-Level Authorisation

AI tools add authentication checks to API endpoints consistently. They miss object-level authorisation the check that confirms the authenticated user has permission to access the specific resource, not just any resource. This is covered in detail in our security article, but it belongs here too because it is consistently among the top issues found in pre-launch reviews of vibe-coded applications.

Environment Parity

AI-generated code often works in development and fails in production due to environment differences missing environment variables, different database configurations, different file system paths, or assumptions that only hold in a local context. A production deployment checklist that includes environment variable review catches most of these before they affect users.

How Engineering Teams Validate Production Readiness

Experienced engineering teams approach production validation differently from founders testing whether their features work. Where a founder typically verifies that the application does what it is supposed to do, a production validation process tests whether the application handles failure as expected.

Load Testing Before Launch

Run a load test that simulates three to five times your expected peak traffic before going live. Tools like k6, Locust, and Artillery make this accessible without specialised infrastructure. Identify where the system breaks before your users do. Common failure points in vibe-coded applications are database connection exhaustion, memory leaks in long-running processes, and slow queries that block the application under concurrent load.

Structured Failure Testing

Deliberately break things in your staging environment to observe how the application responds. Take the database offline. Restart the application server mid-request. Simulate a third-party API returning 500 errors. Document how the system behaves and fix responses that are unacceptable blank screens, silent failures, and corrupted data states are all things users will encounter if you do not encounter them first.

Incident Response Runbook

Write a short runbook covering the five most likely failure scenarios for your specific application: database unreachable, application server crashed, disk full, third-party payment API down, deployment failed and site is broken. Each entry should cover how you detect the problem, how you confirm the root cause, and the steps to restore service. A runbook written before the incident makes your team five times faster when the incident happens.

Production Environment Review

Treat your production environment configuration as something to review, not just deploy. Check security groups and firewall rules, database user permissions, environment variable completeness, SSL certificate validity, and all service configurations before launch. Configuration errors are a common source of production failures in vibe-coded applications because the configuration is rarely reviewed the way application code is.

Post-Deployment Verification

After every production deployment, run a structured set of checks against the live environment not just staging. Verify that critical user flows complete successfully, confirm error rates in your monitoring dashboard have not spiked, and check database connectivity and response times. This takes ten minutes and catches deployment failures that staging tests do not catch.

What Nurture Technologies Recommends

The production readiness gap in vibe-coded applications is consistent and addressable. The founders who launch successfully from AI-generated codebases are the ones who treat the checklist above as a minimum standard rather than a reference document.

Our recommendation is a two-stage approach. First, work through the checklist yourself many items require decisions more than technical implementation, and the decisions are yours to make. Second, bring in an experienced engineer for a pre-launch review that covers the items requiring deeper technical validation: security headers, database configuration, connection pooling, index review, and backup verification.

A pre-launch engineering review for a vibe-coded MVP typically takes one to two days and costs significantly less than the alternatives a production outage, a data breach, or a scaling failure at the moment your product gets its first significant traffic.

Conclusion

AI-assisted development changes what a small team can build and how fast. It does not change what production systems need to run safely and reliably.

The 50 points above cover the categories that determine whether your vibe-coded application holds up after launch. Most of them have nothing to do with whether the AI generated good code. They are infrastructure, operations, and process concerns that exist independently of how the code was written.

Work through each category before you go live. The items you cannot check off tell you exactly what still needs to be done and they are much cheaper to address before launch than after.


Need Help Getting Your Vibe-Coded App Production-Ready?

At Nurture Technologies, we offer pre-launch production readiness reviews specifically designed for AI-assisted and vibe-coded applications. We work through the checklist above with your codebase and infrastructure, identify the gaps, and deliver a prioritised remediation plan with the fixes not just a list of problems.

Get in touch before you ship. It is the fastest way to find out what your application still needs.

Nurture Technologies

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FAQ

FREQUENTLY ASKED QUESTIONS

What is a vibe-coded application?+

A vibe-coded application is one built primarily using AI coding tools such as Claude Code, Cursor, or GitHub Copilot, where the developer gives natural language instructions and the AI generates most of the code. The human steers direction, tests output, and corrects where needed. Vibe-coded applications can be built significantly faster than traditionally coded ones but require structured validation before going to production.

Why do vibe-coded applications need a production checklist?+

AI coding tools optimise for producing code that works as described. They do not produce monitoring configuration, backup strategies, rate limiting policies, database index optimisation, security headers, or disaster recovery plans. A production checklist ensures these categories are addressed before real users and real data are involved. The gap between working and production-ready is real and consistent in AI-generated applications.

What does production-ready mean for a startup?+

Production-ready means the application handles not only the expected happy path but failure scenarios too: third-party services going offline, unusual user behaviour, traffic spikes, data corruption, and infrastructure failures. A functional prototype handles the happy path. A production-ready system handles everything else gracefully with monitoring to detect problems, backups to recover data, and runbooks to guide the response.

What monitoring should I set up before launching a vibe-coded app?+

At minimum: an error tracking service (Sentry has a free tier), uptime monitoring that pings critical endpoints every 1–5 minutes and alerts on failure, and infrastructure metrics for CPU, memory, disk, and database connections. All alerts should route to a human-monitored channel Slack, email, or a paging system not only to a log file that no one checks until after a user reports a problem.

How often should I back up the database for a vibe-coded application?+

Daily automated backups are the minimum standard for any application with real user data. Applications handling financial data, health information, or irreplaceable content should run backups every 4–6 hours to limit the Recovery Point Objective. More important than the frequency: test that you can actually restore from your backups. A backup that has never been restored is an assumption, not a recovery strategy.

What is rate limiting and why do AI tools miss it?+

Rate limiting restricts the number of requests a user or IP address can make within a time window. Without it, login endpoints are vulnerable to brute force attacks, APIs can be flooded to denial of service, and automated credential stuffing can compromise accounts. AI tools sometimes add rate limiting to authentication endpoints when explicitly asked, but they do not apply it systematically across all endpoints as a production default which is where the gap appears.

What security headers should a vibe-coded application set?+

The essential headers are: Content-Security-Policy (controls which resources the browser loads), X-Frame-Options (prevents clickjacking), X-Content-Type-Options (prevents MIME sniffing), and Strict-Transport-Security (forces HTTPS). These are set at the server or CDN layer, not in application code. AI tools generate application code, not server configuration, which is why these headers are consistently missing from vibe-coded applications that have not been through an infrastructure review.

What is object-level authorisation and why does it matter?+

Object-level authorisation means confirming the authenticated user has permission to access the specific resource they are requesting not just that they are logged in. For example: a logged-in user requesting invoice ID 4821 should only receive it if that invoice belongs to them. AI tools check authentication reliably but frequently miss this ownership check, creating vulnerabilities where any logged-in user can access any other user's data by manipulating the resource ID in the request.

What is a Recovery Time Objective and do I need one?+

A Recovery Time Objective (RTO) is the maximum time your business can tolerate your application being unavailable after an incident. Defining it before an incident tells you what your infrastructure, backups, and incident response process need to achieve. Without a defined RTO, you have no basis for deciding whether your current setup is adequate or how quickly your team needs to respond when something goes wrong at 2am on a Saturday.

What should a CI/CD pipeline include for a vibe-coded application?+

At minimum: automated tests that run before every production deployment, a requirement for at least one reviewer before production deployments are approved, and a tested rollback procedure that can revert a failed deployment in under 15 minutes. The rollback requirement is the one most often skipped in early builds. Discovering you have no rollback path during a failed production deployment is among the most stressful situations a small engineering team can face.