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What Security Teams Get Wrong About AI Security

Tejas Dhokane
Tejas K. Dhokane
Marketing Associate
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Updated:
December 23, 2025
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Tejas Dhokane
Written by
Tejas K. Dhokane
, Reviewed by
Vijaysimha Reddy
A black and white photo of a calendar.
Updated:
December 23, 2025
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12
mins read
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AI security is broken. Not because teams lack tools or talent, but because they're solving the wrong problem. Most organizations treat AI security like they treat application security: scan it, patch it, check the compliance box, and move on. But AI doesn't work that way, and that fundamental misunderstanding is creating exposure that won't show up in your vulnerability scanner.

AI Security Is Being Framed as a Tool Problem Instead of a Risk Problem

Walk into any security meeting about AI, and you'll hear the same conversation. Which model are we using? Which vendor did we choose? Did we review their security documentation?

These aren't bad questions. They're just not the right ones.

Security discussions focus on models and vendors, not threat exposure

The real question isn't whether your AI vendor has SOC 2 compliance. It's whether your implementation creates new attack surfaces that traditional security controls can't see. You're not buying a static product. You're deploying a system that learns, adapts, and behaves unpredictably.

AI is treated as a black box instead of an attack surface

Security teams evaluate AI like they evaluate SaaS tools. They review the vendor's certifications, lock down API keys, and call it secure. But AI systems aren't passive databases. They're active inference engines with their own logic, memory, and decision-making capabilities. That makes them fundamentally different from anything you've secured before.

Most failures stem from incorrect assumptions, not missing controls

You already have firewalls, access controls, and monitoring. The problem isn't that you're missing a tool. The problem is that your assumptions about how systems fail don't apply to AI. A breach doesn't need to exploit a CVE when it can simply convince the model to hand over sensitive data through normal operation.

Need a deeper understanding of how generative AI security differs from traditional security models? Start by rethinking your threat model.

Mistake 1: Assuming AI Risk Is the Same as Application Security

If you're treating AI security like application security assessment, you're already behind.

AI systems introduce non-deterministic behavior

Traditional applications are predictable. Given the same input, they produce the same output. AI systems don't. The same prompt can generate different responses depending on context, training data, or even random model behavior. That non-determinism breaks your entire security testing framework.

Traditional AppSec controls fail to capture model misuse

Input validation, output encoding, WAF rules... these controls assume predictable behavior and known attack patterns. But what happens when the threat isn't malicious code injection, but a carefully crafted question that extracts proprietary information through legitimate functionality?

Input, output, and inference layers expand the threat model

You're not just protecting endpoints anymore. You're protecting:

  • The data that goes into prompts
  • The context the model uses to generate responses
  • The inference process itself
  • The output the system produces
  • How that output gets used downstream

Each layer is a potential exposure point. Miss one, and your security posture collapses.

Mistake 2: Treating Prompt Injection as the Only AI Threat

Prompt injection gets all the attention. Blog posts, conference talks, vendor pitches, they all focus on it. And yes, it's real. But it's not your biggest problem.

Prompt injection is visible but not the most damaging risk

Prompt injection makes for great demos. You can show an attacker bypassing instructions, manipulating outputs, making the model do unexpected things. It's tangible. It's demonstrable. It gets budget approved.

But while you're focused on prompt injection, you're missing the attacks that actually matter.

Data leakage, inference abuse, and logic manipulation go unnoticed

The real damage happens quietly:

  • Sensitive data embedded in training sets that can be extracted through targeted queries
  • Business logic bypassed because the AI "helpfully" provides information it shouldn't
  • Gradual data extraction through hundreds of seemingly innocent interactions
  • Authorization boundaries ignored because the model doesn't understand your access control model

These attacks don't look like attacks. They look like normal usage. That's what makes them dangerous.

Over-fixation on prompts blinds teams to deeper flaws

When you only hunt for prompt injection, you build defenses against prompt injection. Meanwhile, attackers are extracting your customer database through iterative questioning, manipulating your AI's decision-making logic, or using your model as a side channel to infer information about your systems.

Want to see how real AI threats extend beyond basic prompt attacks? Our guide to pentesting AI large language models covers the full attack surface.

Mistake 3: Ignoring Training Data and Contextual Data Exposure

Your AI is only as secure as the data it has access to. And most teams have no idea what that actually includes.

Sensitive data embedded into training or retrieval layers

You trained your model on customer support tickets. Great for performance. Terrible for security. Now every customer conversation, every internal note, every piece of PII from those tickets is potentially accessible through the right series of prompts.

Or you're using RAG (Retrieval Augmented Generation) to give your AI access to your knowledge base. Convenient. But did you audit what's in that knowledge base? Are there API keys in old documentation? Customer data in example queries? Internal system details in troubleshooting guides?

Unauthorized access through contextual memory

Modern AI systems maintain context across conversations. User A asks about their account. User B starts a new conversation. But the model still has residual information from User A's session. Or the system stores conversation history without proper isolation. Suddenly you have a data leakage path that doesn't show up in any traditional security scan.

Long-term privacy and compliance fallout

This isn't just a technical problem. It's a compliance nightmare. GDPR, CCPA, HIPAA... these regulations assume you know where data lives and can delete it on request. But can you delete information that's been embedded into a model's weights? Can you guarantee a prompt won't reconstruct data that should have been forgotten?

We've seen this play out in real incidents. Our analysis of Meta AI prompt and generated content leakage shows exactly how contextual data exposure creates lasting risk.

Mistake 4: Trusting AI Outputs as "System Internal"

One of the most dangerous assumptions in AI security: "It's just generating text internally, what's the risk?"

AI outputs treated as safe because they are generated internally

Teams assume that because the AI generated something rather than receiving it from an external user, it must be trustworthy. They pass AI outputs directly into databases, use them to construct queries, feed them into other systems, all without the same validation they'd apply to user input.

Hallucinations and over-privileged responses create security risk

AI doesn't just generate wrong answers. It generates confident, plausible, dangerous wrong answers. It might:

  • Fabricate API endpoints that don't exist, leading to information disclosure
  • Generate SQL queries that include data it shouldn't have access to
  • Create responses that combine information from multiple restricted sources
  • Produce outputs that violate business rules the model was never taught

Output manipulation leads to indirect data exposure

Even if you can't directly prompt inject, you might be able to manipulate what the AI generates. Ask questions that cause it to include sensitive information in its reasoning. Use it as an oracle to confirm or deny hypotheses about your data. Extract information piece by piece through the outputs it creates.

This is similar to business logic vulnerabilities in traditional apps, but harder to detect and easier to exploit.

Mistake 5: Underestimating Abuse Scenarios Unique to AI

AI creates entirely new categories of abuse that don't fit existing security frameworks.

Model misuse without exploitation

Traditional security thinks in terms of exploitation. Find a vulnerability, craft a payload, gain unauthorized access. But AI can be abused without any exploitation:

  • Use an internal AI tool to generate phishing content
  • Extract competitive intelligence through strategic questioning
  • Probe for information about users, systems, or data
  • Automate social engineering at scale

No CVE. No exploit. No patch. Just misuse of intended functionality.

Data extraction through iterative querying

Ask your AI if a specific user exists: "I don't have access to that information." Ask it to generate example user records: it creates plausible data. Ask it to validate an email format: it confirms or denies. Repeat 10,000 times with automation, and you've reconstructed your user database without ever triggering an alert.

Abuse paths that do not trigger traditional alerts

Your SIEM looks for failed login attempts, SQL injection patterns, unusual API calls. It doesn't look for:

  • Subtle shifts in AI behavior that indicate prompt manipulation
  • Gradual extraction of data through normal-looking queries
  • Logic bypasses that don't involve code execution
  • Misuse patterns that unfold over weeks or months

This requires a different approach to security testing, something closer to a modern red team methodology than traditional vulnerability scanning.

Why Traditional Security Testing Misses AI Risk

Your existing security testing pipeline wasn't built for AI. And trying to force AI into that pipeline creates blind spots.

Static testing cannot evaluate model behavior

SAST tools analyze code. DAST tools test endpoints. Both assume deterministic behavior. Neither can evaluate whether an AI system will leak data, manipulate logic, or behave unexpectedly under adversarial conditions.

You can scan the code that calls the AI. You can test the API wrapper around it. But you can't static-analyze your way into understanding how a model will respond to targeted misuse.

Rule-based detection fails against adaptive systems

Traditional security tools rely on signatures and patterns. They know what SQL injection looks like, what XSS looks like, what a credential stuffing attack looks like. But AI attacks don't follow patterns. They adapt to your defenses in real-time. They use natural language that looks identical to legitimate use. They evolve with every interaction.

AI requires adversarial, behavior-driven testing

The only way to secure AI is to attack it. Not with automated scanners, but with real adversarial testing that:

  • Explores how the system behaves under manipulation
  • Identifies data leakage paths through iterative interaction
  • Tests business logic boundaries from an attacker's perspective
  • Validates that security controls actually prevent misuse

This is the core of effective AI penetration testing methodology and why it differs fundamentally from traditional testing approaches.

Understanding the difference between red teaming vs penetration testing becomes critical when securing AI systems.

AI Security Is a Continuous Risk, Not a One-Time Review

You can't "secure" AI once and walk away. The system changes. The risk changes. Your security posture degrades over time.

Models evolve, behavior drifts, exposure changes

You deploy a model. It works great. Six months later, you retrain it with new data. Now it has different behavior, different biases, different exposure to sensitive information. Did you re-test security? Did you even know the behavior changed?

Or you don't retrain, but the model drifts anyway. Users find new ways to interact with it. Edge cases emerge. Guardrails that worked initially start failing under novel conditions.

Security posture degrades without visibility

Every change to your AI system potentially introduces new risk:

  • Adding new data sources to RAG systems
  • Updating system prompts or instructions
  • Changing how outputs are used downstream
  • Modifying access controls or user permissions
  • Integrating with new systems or APIs

Without continuous monitoring and testing, you have no idea if these changes broke your security model.

AI systems demand sustained adversarial validation

This requires a shift from periodic assessments to continuous adversarial validation. Not quarterly pen tests, but ongoing evaluation of how the system behaves, how it can be misused, and whether your controls still work.

This is where an assumed breach strategy becomes essential. Assume your AI will be attacked. Assume attackers will find creative ways to misuse it. Build your security program around that reality.

How AppSecure Approaches AI Security Differently

We don't secure AI systems with checklists and compliance frameworks. We secure them the way attackers break them.

Hacker-led testing focused on misuse, not compliance

Our approach starts with a simple question: If we wanted to break this AI system, how would we do it? Not theoretically. Not based on OWASP lists. But based on real-world attacker behavior and creative misuse scenarios.

We bring offensive security expertise to AI. We think like attackers because many of us were attackers. We know what works, what doesn't, and what most security teams miss.

Real-world abuse simulation against AI systems

We don't just test for prompt injection. We simulate:

  • Data extraction through iterative questioning
  • Logic manipulation through context poisoning
  • Authorization bypasses through clever prompting
  • Training data inference through targeted queries
  • Business logic abuse through misuse of intended functionality

We find the attacks that matter, not just the attacks that are easy to demonstrate.

Security evidence aligned with enterprise risk and audits

Security testing without clear business impact is noise. We translate technical findings into risk language that executives, auditors, and stakeholders understand:

  • What data can be accessed that shouldn't be?
  • What business logic can be bypassed?
  • What compliance violations exist?
  • What's the realistic exploitation scenario?
  • What's the business impact if this is exploited?

This is security testing built for how enterprises actually operate and how audits actually work.

Learn more about our AI security assessment approach and comprehensive offensive security testing services.

FAQs

1. What is the biggest misconception about AI security?

AI security is not about protecting the model alone. It's about protecting how the system can be misused, manipulated, or abused in real-world conditions. Most teams focus on the wrong layer of the stack.

2. Are traditional security controls enough for AI systems?

Traditional controls provide baseline protection but fail to address non-deterministic behavior, misuse scenarios, and inference-based attacks. You need them, but they're not sufficient on their own.

3. Is prompt injection the most critical AI security risk?

Prompt injection is only one visible symptom. The highest risk comes from data leakage, logic manipulation, and uncontrolled output behavior. These happen quietly and cause more damage.

4. How should AI systems be tested for security?

Through adversarial testing that evaluates behavior, abuse paths, and data exposure, not just vulnerabilities. This means AI penetration testing methodology that's fundamentally different from traditional approaches.

5. How often should AI security be reassessed?

Whenever model behavior, data sources, or system usage changes. AI security is an ongoing risk surface, not a point-in-time assessment. Continuous validation is essential.

Ready to Secure Your AI Systems Properly?

Stop treating AI security like application security. Stop focusing on compliance over risk. Stop assuming your existing tools and processes will catch AI-specific threats.

Start with adversarial testing that actually reflects how attackers think and how AI systems fail.

Contact AppSecure to discuss how we can help you identify and address AI security risks before they become incidents.

Tejas Dhokane
Tejas K. Dhokane

Tejas K. Dhokane is a marketing associate at AppSecure Security, driving initiatives across strategy, communication, and brand positioning. He works closely with security and engineering teams to translate technical depth into clear value propositions, build campaigns that resonate with CISOs and risk leaders, and strengthen AppSecure’s presence across digital channels. His work spans content, GTM, messaging architecture, and narrative development supporting AppSecure’s mission to bring disciplined, expert-led security testing to global enterprises.

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