Your developers can now build and deploy a complete web application in under 30 minutes using AI. They generate the code with a prompt, spin up infrastructure with Terraform/CDK, and push it live to AWS, all before lunch. No code review. No security scan. No approval process.
This is vibe coding, and it’s creating a blind spot in your security perimeter.
What Is Vibe Coding?
Vibe coding refers to rapid, AI-assisted software development where natural language prompts produce working applications that are often deployed directly to cloud environments. Tools like Claude Code, Cline, GitHub Copilot, Cursor, and various AI coding platforms can generate full-stack applications—front end, back end, database schemas, and infrastructure-as-code templates—in minutes.
The problem isn’t the AI-generated code itself. The problem is what happens next: these applications deployments often bypass traditional development pipelines, security controls, and governance processes. They’re deployed via:
- Direct infrastructure-as-code (IaC) execution using Terraform or AWS CDK
- Static file uploads to S3 buckets that serve as web hosting
- Direct server updates via AWS Systems Manager or SSH
- Container deployments pushed straight to ECS or Kubernetes without registry scanning
Each deployment path skips the security gates your organization spent years building.
The Australian Reality: Real Breaches from Rapid Deployments
Australian organizations are already experiencing data exposure from misconfigured applications and cloud deployments—many exhibiting the same patterns as vibe coding risks:
Government Data Exposed via Unauthorized Web Publishing
A software developer accidentally published government documents to a public web space on two separate occasions without authorization. The breach was reported to the Office of the Australian Information Commissioner (OAIC) as notifiable due to potential harm to individuals whose data was exposed.
The pattern: Individual developers with direct publishing access, bypassing approval workflows.
Australian Human Rights Commission: 670 Public Document Exposures
Misconfigured web forms publicly exposed approximately 670 uploaded documents, accessible via search engines. The incident demonstrates how quickly internal systems can leak data when proper access controls aren’t implemented.
The pattern: Web applications deployed without security testing or access control validation.
Vinomofo: 17GB Customer Database Exposed
The Australian privacy regulator determined Vinomofo breached the Privacy Act by failing to safeguard a misconfigured cloud database. The database lacked basic protections—no internet isolation, no encryption—exposing approximately 17GB of customer data.
The pattern: Cloud resources deployed with default insecure configurations.
How Vibe Coding Creates Security Blind Spots
Bypassing Security Controls
Traditional CI/CD pipelines include security gates like SAST, DAST, secret scanning, IaC analysis, and peer review. Vibe coding deployments skip all of these—developers generate code with AI and run terraform apply directly, bypassing your entire security tooling stack.
Infrastructure Misconfigurations at Scale
AI-generated IaC templates frequently create resources with dangerous defaults: S3 buckets with public-read ACLs, databases exposed to the internet without encryption, overly permissive IAM roles that any service can assume. These misconfigurations create immediate exposure.
Hardcoded Secrets and Insecure Authentication
AI models routinely generate code with embedded AWS credentials, database passwords, and API keys. Once committed or deployed, these secrets are discoverable within hours. Authentication logic often ends up client-side—easily bypassed by setting a browser flag.
The Shadow IT Multiplication Effect
Vibe coding democratizes development. Marketing builds a customer survey tool. Finance creates an expense analyzer. Operations deploys a ticket trend dashboard. Each team creates applications outside IT oversight that connect to internal databases, process customer data, and expose APIs to the internet.
Security teams discover these only after penetration tests, CloudTrail alerts, or breach notifications.
Real-World Exposure Scenario: The Internal Ticket Analyzer
Consider this common vibe coding scenario:
A product manager wants to understand support ticket trends. They use an AI coding platform to build a simple web dashboard:
- AI generates a Python Flask application that queries the company’s Jira instance
- AI creates an AWS CDK template that deploys:
- An EC2 instance running the Flask app
- An RDS PostgreSQL database for caching
- Security groups with default rules
- The PM runs
cdk deployfrom their laptop - Application goes live at
http://ticket-analyzer.company.com
Problems with this deployment:
- No authentication: Anyone can access the dashboard
- Database exposed: RDS instance is publicly accessible on port 5432
- Jira API key in code: Hardcoded in the Flask application
- No HTTPS: Application serves over HTTP
- No logging: No CloudTrail, no application logs
- No monitoring: No alerts when accessed from unusual locations
The ticket data includes:
- Customer names and email addresses
- Internal employee discussions
- Security vulnerability reports
- Upcoming product features
This unauthenticated application exposes all of it. Security teams don’t know it exists. Attackers find it via automated cloud asset discovery within hours.
Detection: Finding Shadow Deployments
Cloud Asset Discovery: Implement continuous discovery of all cloud resources. Look for resources that don’t match tagging standards, were created outside business hours, lack proper IAM boundaries, or have unusual network configurations.
Infrastructure-as-Code Scanning: Use tools like tfsec, checkov, or cdk-nag to scan IaC templates before deployment. Block deployments that create publicly accessible resources, use overly permissive IAM roles, disable encryption, or skip logging.
External Perimeter Scanning: Use subdomain enumeration and HTTP service discovery to find unknown applications. Investigate applications that lack proper SSL certificates, don’t appear in your CMDB, or have no web application firewall.
Cloud Access Pattern Monitoring: Monitor CloudTrail for resource creation from individual user accounts, API calls from unusual locations, high volume of privilege-granting actions, and infrastructure changes outside change windows.
Prevention: Blocking Insecure Deployments
Restrict Direct Cloud Access: Implement AWS Service Control Policies (SCPs) that deny resource creation actions unless performed by approved deployment roles. Force all deployments through CI/CD pipelines with security gates.
Enforce IaC Security Standards: Create secure Terraform/CDK module templates with security defaults (encryption enabled, public access disabled, logging enabled, required tagging). Require all deployments to use approved modules.
Implement Pipeline Security Gates: Build security into every deployment—secret scanning, IaC security analysis, container vulnerability scanning, and policy enforcement. Only allow deployments that pass all checks.
Educate Development Teams: Establish clear policies: AI-generated code must be reviewed before committing, tested in sandbox environments, and deployed through standard pipelines. Prohibit direct cloud resource creation from individual accounts and storing secrets in code.
Provide Secure Alternatives: Make secure development easier than insecure shortcuts—provide pre-approved templates, self-service platforms with built-in security, sandbox environments for experimentation, and embed security champions in development teams.
Advice for Busienss
Vibe coding represents a fundamental shift in how applications are built and deployed. The speed and accessibility are transformative, but without proper controls, they create significant security blind spots.
Australian privacy regulations demand reasonable security measures. When a vibe-coded application exposes customer data, “we didn’t know it existed” isn’t a valid defense. The OAIC has consistently held organizations accountable for failing to implement appropriate safeguards.
You need:
- Continuous discovery to find shadow deployments
- Security scanning integrated into all deployment paths
- Access controls that prevent direct cloud resource creation
- Education programs that teach secure development practices
The goal isn’t to stop AI-assisted development—it’s to ensure that rapid development doesn’t create rapid breaches.
Take Action
If your organization uses AI coding tools or allows developers to deploy directly to cloud environments:
- Conduct a cloud security assessment to identify unmanaged resources
- Implement cloud security posture management to monitor configurations
- Review IAM permissions and enforce least privilege
- Create secure deployment pipelines that enforce security gates
- Train development teams on secure AI-assisted development practices
Need help securing your cloud environment? Eviant provides cloud security assessments, infrastructure-as-code security reviews, and deployment pipeline hardening. Contact us at security@eviant.com.au to discuss your specific requirements.
This article reflects Eviant’s analysis of emerging security threats in AI-assisted development. All recommendations are based on industry best practices and Australian regulatory requirements.
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