Learning Path 1

The AI-Native AppSec Journey

4 lessons 44 mins read AI Security

AI now writes much of your code ‑ and it ships more than twice the critical vulnerabilities of human-written code, replicates flaws from its training data, and hallucinates packages attackers are waiting to register. This path covers the full AI-era foundation: how AI-generated code breaks, where prompts become an attack surface, and how to choose tooling that catches what legacy scanners can’t.

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1. The AI Native AppSec Journey

AI code security is the practice of finding and fixing vulnerabilities in software written by AI coding assistants. As tools like Copilot accelerate engineering, security must evolve past human code review.

  • AI-assisted code introduces more than twice the critical vulnerabilities of human-written code.
  • Coding assistants replicate training-data flaws: hardcoded secrets and hallucinated packages.
  • Blanket bans fail ‑ most developers keep using AI assistants underground, with zero visibility.
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The specific risk classes AI-generated code introduces ‑ and why legacy tools that check code at human speed can't catch them.

  • AI models confidently replicate vulnerable patterns from decades of legacy open-source training data.
  • Hallucinated package names let attackers pre-register malware on public registries.
  • Built-in assistant safety filters optimize for speed and syntax, not deep risk verification.
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Lesson 3

AI Prompt Security

11 mins read

When AI builds software, natural language becomes executable code ‑ and a new attack surface. How to protect against prompt injection, data leakage, and jailbreaking.

  • Prompts act as source code: hackers exploit everyday language to break safety rules and steal data.
  • Traditional tools are blind to these attacks ‑ they match code patterns, not language meaning.
  • Simple banned-word lists don't work; defense needs input sanitization and least model privilege.
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What an AI vulnerability scanner is, how it detects AI-generated risk, and the criteria that separate real platforms from legacy scanners with an AI label.

  • AI scanners use semantic analysis to catch business-logic and intent flaws that pattern-matching misses.
  • Legacy SAST/DAST stall pipelines with high false-positive rates and no runtime context.
  • Reachability analysis filters the noise down to the small fraction of flaws that pose real risk.
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