π° Originally published on Securityelites β AI Red Team Education β the canonical, fully-updated version of this article.
Yes β AI tools can assist in generating malicious code, and security researchers have been documenting this capability since 2022. My assessment after tracking this research closely: the threat is real, the defensive adaptations are working, and the honest picture is more nuanced than most headlines suggest. The important nuances: what AI produces still requires human expertise to weaponise effectively, existing defences are adapting, and the documented threat looks different from the sensationalised version in headlines. Here is what the published research actually shows, what it means specifically for defenders trying to protect organisations in 2026, and why calibrated understanding is more useful than exaggeration in either direction.
What Youβll Learn
What published research documents about AI and malicious code generation
Why AI-generated threats challenge traditional detection approaches
The documented real-world incidents and research findings
How defenders are adapting their detection and response capabilities
What this means for organisations and security teams right now
β±οΈ 12 min read ### Can AI write malware β AI-Generated Malware β Defenderβs Guide 2026 1. What Published Research Shows 2. Why Detection Is Harder 3. Documented Real-World Incidents 4. How Defenders Are Responding 5. What Organisations Should Do Now I wrote this for defenders and security-aware users who want to understand the threat landscape. The technical detail on AV evasion methodology from a red team perspective is in the AI-Generated Malware and AV Bypass guide. The broader AI vulnerability landscape is in the 10 AI Vulnerabilities overview.
What Published Research Shows
My starting point for any discussion of AI-generated malware is always the published research record, not speculation. Several credible security research firms and academic groups have documented specific capabilities, all of which are publicly available. Here is what the evidence actually shows.
PUBLISHED RESEARCH β DOCUMENTED FINDINGSCopy
CyberArk Research (2023) β key findings
Demonstrated: using commercial LLMs to generate malware code variants iteratively
Key finding: AI can generate numerous functional variants rapidly β overwhelming signature detection
Implication: the βsignature per variantβ defence model becomes less effective at scale
Publication: CyberArk Blog, publicly available
Recorded Future research findings
Documented: threat actors discussing and sharing AI-generated code on dark web forums
Finding: LLM-generated scripts appearing in criminal forums from late 2022 onward
Context: most were basic automation scripts, not sophisticated targeted malware
Check Point Research (2023)
Documented: ChatGPT bypassed by threat actors to create basic infostealer code
Finding: safety guardrails on commercial AI can be bypassed for code generation tasks
Context: researchers alerted OpenAI, who improved content filters
What the research does NOT show
AI autonomously creating sophisticated nation-state-grade malware without human expertise
AI replacing skilled malware developers for complex targeted attacks
AI creating novel attack techniques that humans couldnβt develop manually
Why Detection Is Harder
The detection challenge created by AI-assisted malware development is not primarily about sophistication of individual samples β it is about volume and variety at a scale that outpaces traditional signature-based defences. Traditional signature-based detection works by matching known patterns. AI enables rapid generation of functional variants with no matching signatures. My explanation of why this changes the defenderβs calculus.
DETECTION CHALLENGES β WHY AI CHANGES THE CALCULUSCopy
How signature detection works
AV vendors: identify malicious code patterns β add to signature database
Works when: the same code pattern is used repeatedly
Limitation: new variants with different byte patterns evade existing signatures
How AI changes the variant generation equation
Manual variant generation: skilled developer creates 5β10 variants per day
AI-assisted variant generation: LLM generates hundreds of syntactically different versions
Impact: signature-per-variant approach cannot keep pace with AI generation speed
What still works for detection
Behaviour-based detection: what the code DOES, not what it looks like (bytes/patterns)
Sandboxing: detonate the file in isolation, observe behaviour regardless of surface appearance
ML-based classifiers: trained on behaviour patterns rather than static signatures
Network-layer detection: C2 communication patterns are harder to vary than code patterns
Documented Real-World Incidents
My review of incident reports and threat intelligence from 2023β2026: documented AI-generated malware in real attacks has mostly appeared in lower-sophistication attacks β script kiddies and low-skill actors producing code they could not previously write, rather than nation-state actors replacing their sophisticated manual development processes.
AI MALWARE β DOCUMENTED THREAT ACTOR USECopy
What threat intelligence firms have documented (2023β2026)
Dark web forum discussions: AI-generated scripts shared as attack tools (lower-skill actors)
Infostealer variants: AI-generated code variants deployed in commodity malware campaigns
Phishing kit improvements: AI-generated convincing phishing page HTML and JavaScript
Script automation: AI-written automation scripts reducing attack operational burden
Who benefits most from AI code generation (honest assessment)
Lower-skill actors: AI lets them produce code they couldnβt write manually
Speed: more experienced actors work faster with AI assistance
NOT primarily: nation-state groups whose manual capabilities exceed what AI currently produces
The threat actor AI toolkit (as documented in public threat intel)
Commercial LLMs with jailbreaks for initial code generation
Private/local models without safety filters for more targeted use
Specialised underground AI tools marketed to criminal communities
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