Technical Debt in the AI Era: New Risks, New Strategies

Alex Arshavski
CTO
December 20, 2025
6 min read
December 20, 2025
6 min read
After 20+ years building software systems, I thought I understood technical debt. Then AI coding assistants arrived and changed the equation entirely. The speed gains are real — but so are the new risks. Here's what I've learned about managing technical debt when AI is writing significant portions of your code.
The New Technical Debt Landscape
Traditional technical debt accumulates slowly through conscious tradeoffs — shipping faster by skipping tests, copying code instead of abstracting, deferring refactoring. AI changes this dynamic in several ways:
- Volume: AI generates code 10x faster, accumulating debt proportionally
- Visibility: AI-generated code often looks clean while hiding architectural problems
- Consistency: Different AI sessions may produce incompatible patterns
- Understanding: Teams may not fully understand code they didn't write
The Core Problem
AI excels at generating locally correct code. But technical debt is often a global problem — it emerges from the interactions between components, not from any single piece of code.
New Forms of AI-Induced Technical Debt
Through extensive use of AI coding tools, I've identified new categories of technical debt unique to AI-assisted development:
1. Pattern Inconsistency Debt
AI doesn't maintain a mental model of your codebase between sessions. Monday's AI might implement authentication one way; Wednesday's AI uses a different pattern. Both work, but inconsistency creates maintenance burden.
Real Example
A team used AI to build an API over several weeks. Error handling followed three different patterns across endpoints — try/catch blocks, result types, and exception throwing. Each worked individually; debugging across them was a nightmare.
2. Comprehension Debt
When developers don't write code, they don't fully understand it. This becomes debt when they need to modify, debug, or explain it later. The code works, but the team's mental model is incomplete.
3. Over-Engineering Debt
AI tends toward comprehensive solutions. Ask for a simple utility, and you might get an abstract factory pattern with dependency injection. This sophistication becomes debt when simpler code would serve better.
4. Dependency Sprawl Debt
AI loves libraries. Every AI session might introduce new dependencies for problems that could be solved with standard library features. Your package.json grows; your attack surface and maintenance burden grow with it.
Mitigation Strategies
Managing technical debt in the AI era requires new practices:
Strategy 1: Pattern Libraries as AI Context
Document your coding patterns explicitly and feed them to AI as context. When AI knows you use Result types for error handling, it won't generate try/catch blocks. Investment in documentation pays off in consistency.
Strategy 2: Mandatory Review for AI Code
All AI-generated code should be reviewed with extra scrutiny for architectural fit, not just correctness. Does this code follow our patterns? Does the team understand it? Is it appropriately simple?
Strategy 3: Regular Architecture Syncs
Weekly or bi-weekly reviews specifically focused on architectural coherence. Look at the codebase holistically, not just individual PRs. AI debt often hides in the spaces between components.
Strategy 4: Dependency Governance
Establish rules about which dependencies are acceptable and which require discussion. When AI suggests adding a library, verify it's necessary and aligns with your stack.
The AI Debt Audit
Periodically audit your codebase for AI-specific debt:
Audit Checklist
- □ How many different patterns exist for the same operation?
- □ Can every team member explain every module?
- □ Are there abstractions that only have one implementation?
- □ How many dependencies were added in the last quarter?
- □ Is error handling consistent across the codebase?
- □ Are there duplicate utilities with different implementations?
When AI Debt Becomes Critical
Technical debt becomes critical when it impedes progress. Watch for these warning signs:
- Debugging takes longer than coding: Team can't trace issues through unfamiliar code
- New features break existing features: Inconsistent patterns create unexpected interactions
- Onboarding slows down: New team members struggle with a patchwork codebase
- Simple changes require extensive changes: Over-engineering makes modification costly
Balancing Speed and Quality
The goal isn't to avoid AI — it's to use it wisely. Here's my framework:
The AI Code Quality Framework
- Prototype Phase: Let AI run free. Speed matters; quality doesn't yet.
- MVP Phase: AI with guardrails. Establish patterns before scaling.
- Growth Phase: AI within constraints. Strict pattern adherence required.
- Scale Phase: AI for implementation only. Architecture decisions are human.
The Human Role
In the AI era, the human role shifts from writing code to:
- Architectural vision: Defining how pieces fit together
- Pattern stewardship: Maintaining consistency across the codebase
- Quality judgment: Knowing when code is "good enough" vs. needs refinement
- Debt management: Deciding when to pay down debt vs. accumulate
AI amplifies human judgment — both good and bad. Technical debt in the AI era is fundamentally a leadership problem, not a tooling problem.
Conclusion
AI coding tools are transformative, but they don't eliminate technical debt — they change its character. Success in the AI era requires adapting your debt management practices: explicit patterns, rigorous review, architectural governance, and human oversight of the big picture.
The companies that thrive will be those that capture AI's speed advantages while maintaining the architectural coherence that enables long-term success.
At INUXO, we help companies establish AI-ready development practices that capture velocity benefits without sacrificing code quality. Whether you're adopting AI tools or struggling with AI-induced technical debt, let's discuss strategies for sustainable AI-assisted development.