Vibe coding creates nightmare for computer scientists to fix

Vibe coding creates nightmare for computer scientists to fix

"Vibe coding"—using AI agents to generate code based on natural language prompts—can create significant challenges for computer scientists who later need to maintain or fix that code, potentially leading to career-impacting issues if best practices are ignored. Rapid delivery can mask architectural flaws, technical debt, and security vulnerabilities that become career-limiting problems if not proactively managed.

With the rise of AI tools, everyone has now become a programmer without background in disciplined object-oriented design and structured programming. In trying to develop a proof of concept, they take many shortcuts, akin to developing a house and forgetting the main entrance or putting too many windows in the bedroom.

Why Vibe Coding Can Become a Nightmare for Future Maintenance

  • Lack of Structure and Documentation: Vibe coding often produces code that lacks consistent structure, clear documentation, or standardized naming conventions, making it hard for others (or even the original author) to understand and maintain later47.
  • Hidden Technical Debt: Rapid, iterative code generation without thorough review can introduce subtle bugs, security vulnerabilities, and architectural flaws that are not immediately obvious but become major obstacles during future development or debugging.
  • Inconsistent Quality: If developers accept AI-generated code without rigorous testing and code audits, they risk deploying solutions that are fragile, poorly integrated, or incompatible with existing systems.
  • Difficulty in Debugging: When AI-generated code is built incrementally or with vague prompts, it may rely on undocumented dependencies or assumptions, leading to confusing errors that are hard to trace and fix.
  • Career Risks: In extreme cases, inheriting or being responsible for a poorly maintained "vibe-coded" codebase can stall projects, damage reputations, or even lead to job loss if the issues are severe and unfixable within reasonable time or budget constraints.

Real-World Issues

  • Integration Failures: Attempting to add features or fix bugs in a vibe-coded project can reveal that the AI followed outdated or incorrect documentation, resulting in integrations that require extensive rework or never function correctly.
  • Scaling Problems: As projects grow, the lack of modularity and testing in vibe-coded solutions can make scaling or refactoring nearly impossible without a complete rewrite.
  • Organizational Impact: Teams that do not enforce coding standards and reviews for AI-generated code often face mounting technical debt, leading to project delays, increased costs, and internal friction.
  • Someone has to play the janitor and clean up undisciplined code.

Best Practices to Avoid Career-Breaking Vibe Coding Pitfalls

  • Break down tasks and build incrementally: Avoid generating large, monolithic codebases in one go. Instead, work in small, well-defined steps and test each component thoroughly.
  • Enforce code reviews and audits: Regularly review AI-generated code for maintainability, performance, and security.
  • Document everything: Ensure all code, especially that generated by AI, is well-documented and follows organizational standards.
  • Test comprehensively: Implement pre-commit testing and continuous integration to catch issues early.
  • Retain human oversight: Use AI as a tool, not a replacement for sound engineering judgment. Always review and refine AI outputs before merging or committing to main branch and into production16.

"The most effective vibe coders are simply proficient programmers. They leverage AI to accelerate their development process and possess the skills to guide the AI when it hits a snag. This doesn’t mean you need to know everything at all times; it just means you should be capable of steering the AI when it loses its way." {Anonymous)

Here are three case studies illustrating how “vibe coding” (AI-generated code based on prompts and rapid iteration) has led to significant maintenance, security, and career-impacting issues in real-world scenarios:

Case Study 1: Financial Institution Suffers Outages Due to AI-Generated Code

A major financial institution adopted AI coding assistants to accelerate feature development. Initially, releases sped up and productivity metrics looked impressive. However, within months, the company began experiencing frequent outages and security incidents. Investigations revealed that much of the new codebase contained duplicated logic, inconsistent error handling, and unvalidated inputs—issues that had slipped through because teams trusted the AI’s output and reduced code review rigor. When critical bugs and vulnerabilities surfaced, developers struggled to trace the root causes due to the code’s opacity and lack of documentation. The resulting downtime affected customer trust and cost the company millions, with several engineers facing internal disciplinary action for failing to enforce quality controls.

Case Study 2: Startup’s Technical Debt Balloons After Rapid AI Development

A fast-growing SaaS startup used AI to prototype and ship features rapidly, aiming to outpace competitors. Over time, the codebase became riddled with duplicated blocks and architectural inconsistencies, as the AI generated similar solutions for slightly different prompts. This led to an 8x increase in code duplication compared to their pre-AI baseline. When the team needed to implement a regulatory change, they found themselves manually updating dozens of nearly identical code sections, increasing the risk of missed updates and new bugs. The technical debt became so overwhelming that the company had to pause new development for a full quarter to refactor and stabilize the code—delaying product launches and damaging their market position.

Case Study 3: Healthcare App Faces Compliance and Security Risks

A healthcare technology firm integrated AI-generated code into its patient data management system. The AI produced code that was syntactically correct but failed to comply with industry security standards (such as HIPAA). Sensitive data was not properly encrypted, and error handling for edge cases was missing. These flaws went unnoticed until an external audit flagged major compliance violations and potential data exposure. Remediation required a costly, months-long effort to rewrite large portions of the system, and the company’s CTO resigned over the oversight. The incident became a cautionary tale in the industry about the dangers of deploying AI-generated code without thorough human review and domain expertise.

The rapid adoption of AI-powered code generation tools—such as Copilot, Cursor AI, Tabnine, and others—has transformed software development. While these tools promise increased productivity and automation, they have also introduced a new phenomenon: Developer Anxiety Syndrome. This term refers to the unique stressors, anxieties, and mental health challenges experienced by developers as a result of integrating AI code assistants into their daily workflow.

Key Causes of Developer Anxiety Syndrome

  • Job Security and Role Uncertainty 66% of developers worry about AI replacing human programmers, and 92% feel pressure to use AI tools to remain competitive1. Many fear their roles will be diminished to mere supervisors of AI, rather than creators and problem-solvers.
  • Overreliance and Loss of Confidence Heavy dependence on AI-generated code can erode confidence in one’s own skills, especially when AI suggestions introduce bugs or fail to address complex, context-specific problems. Developers may experience imposter syndrome or feel less accomplished when their contributions are mediated by AI.
  • Increased Debugging and Verification Overhead While AI tools can accelerate code production, they often generate code that is syntactically correct but contextually flawed, leading to more time spent on debugging, code review, and remediation. This increased workload can offset perceived productivity gains and contribute to burnout.
  • Non-deterministic and Opaque Outputs The non-deterministic nature of AI-generated code—where outputs can change with minor prompt tweaks—creates unpredictability and frustration, especially when bugs are hard to trace or reproduce.
  • Pressure to Adopt and Keep Up The industry-wide push for AI adoption means developers often feel compelled to use these tools, even if they are skeptical or uncomfortable, leading to chronic stress and anxiety

Lessons Learned:

AI is just one tool in the toolkit of a systems developer. Sound engineering practices cannot be waived away because you have a cool toy for $20/month subscription to write code.



Saravanan Gurusamy PMP

Technical Program Manager for Vimtra ventures group companies (Urpan Technologies, TechAlpha LLC, SacroSanctInfo, Insight Intelli, TechMynds)

1w

Good one prabhu!

Ken Polleck

Delivering value to SaaS and Cloud clients through leadership of Customer Success, Professional Services, and SaaS Ops and Support Teams. Currently innovating with customers with IBM's generative AI solutions.

3w

From my personal experience, AI code generation has dramatically improved my programming efficiency...but not because I trust my natural language prompts as being accurate. For example, I might ask AI for a method to achieve something, but then I make it "my own." In some cases, I make it my own by asking AI to rename or add properties; in other cases, I simple import it into my IDE and make my own changes. ...but the end product is something where I understand each line of code.

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Ken Polleck

Delivering value to SaaS and Cloud clients through leadership of Customer Success, Professional Services, and SaaS Ops and Support Teams. Currently innovating with customers with IBM's generative AI solutions.

3w

I see a loose analogy to the creation of high-level (HLL) programming languages decades ago. Once upon a time, we programmed only in machine language--where we knew exactly what was happening because we were close to the hardware. High-level languages removed the programmers' understanding of what memory locations, registers, ALUs, shift-registers, etc. would be used. This improved productivity but also increased some forms of risk and certainly made debugging harder. Over time, high level languages added protections (e.g. array bounds-checking, garbage collection, etc.) and became more trustworthy so most programmers didn't need to worry that the didn't know what was happening on the hardware. So, is natural language just another level of higher-level programming? It is more efficient and reduces some types of errors (e.g. it probably won't get = vs. == wrong), but it moves further away from the hardware so that we are more uncertain about the fidelity / accuracy of what we "program" vs. what gets executed.

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Dr. Arun B K

IIM, Mumbai (NITIE); Inquisitive Engineer; HR Professional; Passionate Manager; Yoga Practitioner; Conceptual and Applied Researcher; and Professor, MIME, Bengaluru

1mo

Brilliant, as always, Ramesh Yerramsetti!🌻🌼🌺🌼🌻 Clarity about the basic concepts of coding and their documentation are very important for improving the quality of programs and tracing the bugs!

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