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ToolAccuracy of FindingsDetects Non-Pattern-Based Issues?Coverage of SAST FindingsSpeed of ScanningUsability & Dev Experience
DryRun SecurityVery high – caught multiple critical issues missed by othersYes – context-based analysis, logic flaws & SSRFBroad coverage of standard vulns, logic flaws, and extendableNear real-time PR feedback
Snyk CodeHigh on well-known patterns (SQLi, XSS), but misses other categoriesLimited – AI-based, focuses on recognized vulnerabilitiesGood coverage of standard vulns; may miss SSRF or advanced auth logic issuesFast, often near PR speedDecent GitHub integration, but rules are a black box
GitHub Advanced Security (CodeQL)Very high precision for known queries, low false positivesPartial – strong dataflow for known issues, needs custom queriesGood for SQLi and XSS but logic flaws require advanced CodeQL experience.Moderate to slow (GitHub Action based)Requires CodeQL expertise for custom logic
SemgrepMedium, but there is a good community for adding rulesPrimarily pattern-based with limited dataflowDecent coverage with the right rules, can still miss advanced logic or SSRFFast scansHas custom rules, but dev teams must maintain them
SonarQubeLow – misses serious issues in our testingLimited – mostly pattern-based, code quality orientedBasic coverage for standard vulns, many hotspots require manual reviewModerate, usually in CIDashboard-based approach, can pass “quality gate” despite real vulns
Vulnerability ClassSnyk (partial)GitHub (CodeQL) (partial)SemgrepSonarQubeDryRun Security
SQL Injection
*
Cross-Site Scripting (XSS)
SSRF
Auth Flaw / IDOR
User Enumeration
Hardcoded Token
ToolAccuracy of FindingsDetects Non-Pattern-Based Issues?Coverage of C# VulnerabilitiesScan SpeedDeveloper Experience
DryRun Security
Very high – caught all critical flaws missed by others
Yes – context-based analysis finds logic errors, auth flaws, etc.
Broad coverage of OWASP Top 10 vulns plus business logic issuesNear real-time (PR comment within seconds)Clear single PR comment with detailed insights; no config or custom scripts needed
Snyk CodeHigh on known patterns (SQLi, XSS), but misses logic/flow bugsLimited – focuses on recognizable vulnerability patterns
Good for standard vulns; may miss SSRF or auth logic issues 
Fast (integrates into PR checks)Decent GitHub integration, but rules are a black box (no easy customization)
GitHub Advanced Security (CodeQL)Low - missed everything except SQL InjectionMostly pattern-basedLow – only discovered SQL InjectionSlowest of all but finished in 1 minuteConcise annotation with a suggested fix and optional auto-remedation
SemgrepMedium – finds common issues with community rules, some missesPrimarily pattern-based, limited data flow analysis
Decent coverage with the right rules; misses advanced logic flaws 
Very fast (runs as lightweight CI)Custom rules possible, but require maintenance and security expertise
SonarQube
Low – missed serious issues in our testing
Mostly pattern-based (code quality focus)Basic coverage for known vulns; many issues flagged as “hotspots” require manual review Moderate (runs in CI/CD pipeline)Results in dashboard; risk of false sense of security if quality gate passes despite vulnerabilities
Vulnerability ClassSnyk CodeGitHub Advanced Security (CodeQL)SemgrepSonarQubeDryRun Security
SQL Injection (SQLi)
Cross-Site Scripting (XSS)
Server-Side Request Forgery (SSRF)
Auth Logic/IDOR
User Enumeration
Hardcoded Credentials
VulnerabilityDryRun SecuritySemgrepGitHub CodeQLSonarQubeSnyk Code
1. Remote Code Execution via Unsafe Deserialization
2. Code Injection via eval() Usage
3. SQL Injection in a Raw Database Query
4. Weak Encryption (AES ECB Mode)
5. Broken Access Control / Logic Flaw in Authentication
Total Found5/53/51/51/50/5
VulnerabilityDryRun SecuritySnykCodeQLSonarQubeSemgrep
Server-Side Request Forgery (SSRF)
(Hotspot)
Cross-Site Scripting (XSS)
SQL Injection (SQLi)
IDOR / Broken Access Control
Invalid Token Validation Logic
Broken Email Verification Logic
DimensionWhy It Matters
Surface
Entry points & data sources highlight tainted flows early.
Language
Code idioms reveal hidden sinks and framework quirks.
Intent
What is the purpose of the code being changed/added?
Design
Robustness and resilience of changing code.
Environment
Libraries, build flags, and infra metadata flag, infrastructure (IaC) all give clues around the risks in changing code.
KPIPattern-Based SASTDryRun CSA
Mean Time to Regex
3–8 hrs per noisy finding set
Not required
Mean Time to Context
N/A
< 1 min
False-Positive Rate
50–85 %< 5 %
Logic-Flaw Detection
< 5 %
90%+
AI in AppSec
May 27, 2025

The Rise of AI‑Native SAST

Why retrofitting legacy scanners with language models falls short compared to building with AI at the foundation. 

People ask me what it’s like starting an AppSec company in the AI era… and in short, it's amazing. I really believe this is the most exciting time to be in the industry. If you're interested in code security and software development, then every day there are incredible new possibilities for you. We are solving long-standing problems (e.g. broken auth vulns) and discovering new ways to identify and isolate risk in our codebase. 

I literally wake up every day more excited than the previous day because DryRun Security is getting smarter day-by-day and solving real problems for our customers. Has it been easy? Of course not, but we are having a blast, and if you keep reading, you’ll see why!

Static Analysis Just Got Interesting

—and not just because someone slapped ‘AI’ on the cover.

We’re finally moving past brittle pattern matching and generic scan dumps. The new frontier is AI-native: systems that understand code in context, evolve with your stack, and surface risk with surgical accuracy. Let’s unpack why the difference isn’t just technical—it’s existential.

Software development is evolving rapidly with the widespread adoption of AI-assisted coding tools. Meanwhile, security tools are struggling to keep up. This article clarifies the key differences between two categories of security tooling vying for attention: AI‑Native SAST and SAST augmented with AI. Though they may appear similar, they differ fundamentally in design and capability—much like comparing handcrafted cuisine to processed snacks.

Defining the Two Categories

AI‑Native SAST solutions are built from the ground up with artificial intelligence at their core. Some of these systems analyze code changes in near real time, incorporating multiple contextual layers such as code type, developer intent, architectural design, and runtime environment. This holistic understanding enables them to detect complex logic vulnerabilities like Insecure Direct Object References (IDOR) and privilege escalation. 

These tools continuously learn and improve based on developer interactions, resulting in more precise findings over time. Notable players in this space include DryRun Security with its Contextual Security Analysis, Pixee’s remediation-focused tooling, Mobb’s CI-integrated fix engine, and Corgea’s AI-first detection platform.

In contrast, “SAST + AI” tools are traditional pattern-matching scanners retrofitted with generative AI layers. Detection remains largely dependent on regular expressions or abstract syntax tree (AST) signatures. After the scan, a language model may reword findings or propose generic patches. Because these models lack visibility into broader architectural context or user flows, they often fail to detect deeper risks. Snyk Code with Autofix, Semgrep’s AI Assist, and SonarQube’s Clean Code AI exemplify this retrofit approach.

Why Architecture Matters

The architectural foundations of these tools carry practical implications:

  1. Signal-to-Noise Ratio: Traditional scanners often generate excessive false positives, and some are bolding on AI to reduce them while leaving the real benefits of AI behind. AI-native tools reduce alert fatigue by focusing on the intent and impact of code changes.
  1. Detection of Complex Vulnerabilities: Signature-based tools frequently miss high-risk logic flaws. AI-native solutions can reason across users, data, and permissions—crucial for catching vulnerabilities like IDOR and Broken Object-Level Authorization (BOLA). SAST tools that have been augmented with AI will likely face long-term challenges in dealing with these issues.
  1. Scalability and Performance: Today’s software environments are dynamic, involving microservices, serverless functions, and rapid deployment cycles. Legacy tools built for monolithic applications struggle to operate effectively in these modern settings.

The Limitations of AI Code Assistants

Code-generation tools like Windsurf, Cursor, OpenAI Codex, and GitHub Copilot have transformed software development. They improve developer productivity and reduce syntax errors, but they are not security reviewers. These assistants focus on functional correctness, not threat modeling or risk analysis.

Don’t get us wrong, we love vibe coding, but the fast-paced, results oriented flow is only as good as the prompts and security experience of the assistant. As a result, it can produce clean-looking code that harbors subtle and potentially dangerous security flaws.

DryRun Security and Contextual Security Analysis

DryRun Security leverages a structured and context-aware approach that begins by mapping the scope of each code change and identifying the programming languages involved. It then analyzes developer intent, looking for changes to authentication patterns, session management, and configuration files that might introduce new security issues—not to mention catching classic Top 10 risks that may have slipped into the code along the way. The result is a report that reads like the annotated notes of a seasoned AppSec reviewer.

While many teams begin with generic LLMs—asking tools like ChatGPT to review a repository—they often find those outputs superficial or impractical. DryRun offers a rigorous, scalable alternative tailored to enterprise environments.

The Compounding Benefits of AI‑Native Tools

AI-Native SAST solutions improve over time by learning from developer behavior. Whether fixes are accepted or rejected, the system adapts. Natural Language Code Policies (NLCPs) replace brittle regex-based rules, enabling tools to evolve with development practices. Security reviews become embedded in every code push, infrastructure update, and configuration change—instead of being delayed until release. Meanwhile, retrofit vendors remain trapped in a legacy model, making marginal improvements on outdated platforms.

Practical Advice for Security Leaders

When evaluating security tools, ask:

  • Can it explain why a finding matters within the context of your system architecture?
  • Does it detect complex business logic vulnerabilities like IDOR, BOLA, or privilege escalation?
  • Can it scale across teams and automate both detection and remediation?
  • How are new AI model capabilities integrated and tested?

AI-native solutions offer comprehensive support throughout the development lifecycle, while retrofitted tools typically only enhance output after scanning.

Try It Yourself

Interested in seeing how AI-native SAST performs in your environment? DryRun offers a two-week Proof of Value, including a full Code Risk Assessment. Discover the difference for yourself—and feel free to retire those regex goggles.