AI Security Risks: Comprehensive Assessment Framework

The Growing AI Security Challenge

Artificial Intelligence is rapidly transforming how organizations operate, creating new capabilities but also introducing novel security risks that traditional security frameworks weren't designed to address. From customer-facing chatbots to internal productivity tools leveraging large language models (LLMs), AI implementations create unique vulnerabilities that require specialized assessment approaches.

The challenge is particularly acute because AI adoption has often outpaced security considerations. Many organizations have embraced AI technologies without fully understanding the associated risks or implementing appropriate safeguards. Whether it's unvetted shadow AI usage by employees, customer-facing generative AI applications, or custom AI solutions with access to sensitive data, these technologies introduce security concerns that extend beyond traditional application security boundaries.

Addressing these risks requires a systematic approach that builds on established security principles while incorporating AI-specific considerations.

Understanding AI Security Risk Categories

AI systems introduce several distinct risk categories that organizations must address:

Prompt Injection and Data Extraction

AI systems, particularly large language models, are vulnerable to adversarial inputs designed to manipulate their behavior. Through carefully crafted prompts, attackers can potentially:

  • Bypass security controls and restrictions

  • Extract sensitive information contained in training data

  • Access confidential information from connected data sources

  • Manipulate the AI to perform unauthorized actions

  • Execute code or commands through the AI interface

Training Data Poisoning and Model Theft

The models themselves represent valuable intellectual property and can be compromised through:

  • Adversarial manipulation of training data

  • Unauthorized access to model weights and parameters

  • Model inversion attacks to reconstruct training data

  • Extraction of proprietary algorithms and approaches

  • Supply chain compromises in model development

Integration Vulnerabilities

Many AI risks stem from how systems are integrated with other applications and data sources:

  • Insecure API implementations connecting to AI services

  • Excessive permissions granted to AI systems

  • Inadequate monitoring of AI system behaviors

  • Improper handling of sensitive data during processing

  • Vulnerable third-party libraries and dependencies

Output Manipulation and Misuse

The outputs of AI systems can create risks if not properly validated:

  • Generation of harmful, illegal, or biased content

  • Production of misleading or intentionally false information

  • Unauthorized disclosure of sensitive information in responses

  • Legal and compliance violations in AI-generated content

  • Reputational damage from inappropriate AI responses

Framework-Based Assessment Approaches

To address these complex and evolving risks, organizations need structured frameworks specifically designed for AI security. Two leading frameworks provide comprehensive guidance:

OWASP LLM Top 10 2025

The OWASP LLM Top 10 2025 identifies the most critical security risks for applications utilizing large language models, providing a focused approach to addressing the most urgent concerns.

1. LLM01: Prompt Injection

Adversarial prompts that manipulate the model into performing unintended actions or revealing sensitive information. This includes:

  • Direct Prompt Injection: Where malicious instructions are inserted directly

  • Indirect Prompt Injection: Where the model processes content containing hidden malicious instructions

Effective controls include input validation, context boundary enforcement, and prompt design best practices.

2. LLM02: Insecure Output Handling

Failing to properly validate, sanitize, or handle AI-generated outputs, potentially leading to downstream vulnerabilities like XSS, SSRF, or code injection when outputs are used in application logic.

Mitigation requires output validation, content filtering, and careful integration design.

3. LLM03: Training Data Poisoning

Compromising model behavior through manipulation of training data, potentially introducing backdoors or biases that can be exploited later.

Controls include training data validation, model evaluation for unexpected behaviors, and secure data sourcing practices.

4. LLM04: Model Denial of Service

Crafting inputs that consume excessive resources, potentially degrading service for legitimate users or increasing operational costs.

Protection requires input rate limiting, computational resource constraints, and monitoring for anomalous usage patterns.

5. LLM05: Supply Chain Vulnerabilities

Risks introduced through pre-trained models, third-party components, plugins, or data sources that may contain vulnerabilities or malicious code.

Mitigation requires vendor assessment, model provenance verification, and component security testing.

6. LLM06: Sensitive Information Disclosure

The risk of AI systems revealing confidential information, either from training data or connected data sources.

Controls include data minimization, content filtering for sensitive patterns, and regular testing for information leakage.

7. LLM07: Insecure Plugin Design

Vulnerabilities in how AI systems interact with plugins or extensions, potentially enabling unauthorized actions or data access.

Protection requires strict permission models, input/output validation, and secure plugin architecture design.

8. LLM08: Excessive Agency

Providing AI systems with excessive capabilities or permissions that extend beyond their required functionality, increasing potential impact if compromised.

Mitigation includes implementing least privilege principles, action validation, and clear permission boundaries.

9. LLM09: Overreliance

Placing excessive trust in AI outputs without appropriate verification, potentially leading to security or business decisions based on flawed information.

Controls include output verification, human oversight for critical decisions, and transparency about AI limitations.

10. LLM10: Model Theft

Unauthorized access to proprietary models, potentially compromising intellectual property or enabling adversaries to study the model for vulnerability identification.

Protection requires access controls, monitoring for extraction attempts, and model watermarking where applicable.

NIST AI Risk Management Framework (AI RMF)

The NIST AI Risk Management Framework provides a broader approach to AI risk that extends beyond security to include reliability, fairness, and governance considerations. The framework is structured around four core functions:

1. Govern

Establishing the organizational structures, policies, and processes needed for comprehensive AI risk management:

  • Defining AI governance roles and responsibilities

  • Developing AI-specific policies and standards

  • Establishing oversight mechanisms and review processes

  • Integrating AI risk management with enterprise risk frameworks

  • Ensuring compliance with relevant regulations and standards

2. Map

Identifying and documenting the context, capabilities, and potential impacts of AI systems:

  • Cataloging AI systems and use cases across the organization

  • Documenting data flows and integration points

  • Identifying stakeholders and their concerns

  • Mapping regulatory and compliance requirements

  • Assessing potential impacts on individuals and society

3. Measure

Evaluating and quantifying AI-specific risks using appropriate metrics and methods:

  • Analyzing technical vulnerabilities and security concerns

  • Assessing reliability, robustness, and resilience

  • Evaluating potential for bias and fairness issues

  • Measuring privacy impacts and data protection

  • Determining transparency and explainability levels

4. Manage

Implementing controls and processes to address identified risks:

  • Prioritizing risk treatment based on impact and likelihood

  • Implementing technical and procedural safeguards

  • Establishing monitoring and detection capabilities

  • Developing incident response procedures

  • Creating ongoing assessment and improvement processes

Common AI Implementation Scenarios and Risks

Different AI implementation patterns present distinct risk profiles that require targeted assessment approaches:

Shadow AI Usage

Scenario: Employees using publicly available AI tools like ChatGPT, Claude, or Gemini for work purposes without organizational oversight.

Key Risks:

  • Inadvertent sharing of sensitive information with external AI services

  • Intellectual property exposure through prompt inputs

  • Lack of monitoring or governance over AI interactions

  • Potential regulatory violations for regulated data

  • Inconsistent outputs affecting business decisions

Assessment Focus:

  • Discovery of unauthorized AI tool usage

  • Data handling practices when using external AI services

  • Awareness of security and compliance implications

  • Alternative approved solutions for legitimate use cases

Customer-Facing AI Chatbots

Scenario: Organizations deploying AI chatbots to handle customer inquiries, process requests, or provide product information.

Key Risks:

  • Prompt injection attacks against the chatbot interface

  • Excessive data access by the underlying AI system

  • Generation of inaccurate or harmful responses

  • Handling of sensitive customer information

  • Social engineering facilitated by conversational interfaces

Assessment Focus:

  • Input validation and prompt security controls

  • Authentication and access control mechanisms

  • Output filtering and content safety measures

  • Data handling practices and minimization

  • Monitoring and oversight capabilities

Custom Applications with RAG (Retrieval-Augmented Generation)

Scenario: Internal applications leveraging AI with access to corporate data sources through Retrieval-Augmented Generation techniques.

Key Risks:

  • Unauthorized data access through improper retrieval patterns

  • Inclusion of sensitive information in AI responses

  • Excessive permissions granted to AI components

  • Inadequate validation of retrieved content

  • Data leakage through model interactions

Assessment Focus:

  • Data access controls and permission boundaries

  • Retrieval system security and filtering

  • Output validation and sensitive data detection

  • Logging and monitoring of data access

  • Authentication and authorization models

AI-Enhanced Development Tools

Scenario: Development teams using AI coding assistants and other AI-enhanced development tools.

Key Risks:

  • Introduction of vulnerable code or logic flaws

  • Intellectual property leakage through code sharing

  • Overreliance on AI-generated code without review

  • Supply chain risks from AI-suggested dependencies

  • Exposure of architectural information or security controls

Assessment Focus:

  • Code review processes for AI-generated content

  • Security testing of AI-suggested implementations

  • Guidelines for appropriate prompting and usage

  • Intellectual property protection in development workflows

  • Integration with secure development lifecycle

Conducting an Effective AI Security Assessment

A comprehensive AI security assessment integrates elements from both the OWASP LLM Top 10 and NIST AI RMF, following a structured approach:

1. Discovery and Inventory

  • Identify all AI systems in use or development across the organization

  • Document integration points, data sources, and usage patterns

  • Classify systems based on data sensitivity and business criticality

  • Map technology stack and implementation approaches

  • Identify stakeholders and system owners

2. Risk Assessment

  • Evaluate each system against OWASP LLM Top 10 categories

  • Apply relevant NIST AI RMF measurements and metrics

  • Assess implementation-specific vulnerabilities

  • Consider business context and potential impact

  • Identify regulatory and compliance requirements

3. Controls Evaluation

  • Review existing security controls and their effectiveness

  • Assess governance structures and oversight mechanisms

  • Evaluate incident response capabilities for AI-specific scenarios

  • Review monitoring and detection capabilities

  • Assess supply chain security for models and components

4. Gap Analysis and Recommendations

  • Identify control gaps and deficiencies

  • Develop prioritized recommendations based on risk

  • Propose governance improvements and policy updates

  • Suggest technical controls and implementation approaches

  • Create a roadmap for ongoing improvement

5. Integration with Security Program

  • Align findings with existing security frameworks (e.g., NIST CSF, CIS Controls)

  • Incorporate AI security into broader security processes

  • Develop AI-specific policies and standards

  • Establish ongoing assessment and monitoring protocols

  • Define roles and responsibilities for AI security

6. Optional: Offensive Security Testing

For organizations seeking to validate their defenses beyond a standard gap assessment, we offer offensive security testing that actively tests AI implementations:

  • Prompt injection attacks against production interfaces

  • Data extraction attempt simulation

  • Jailbreak testing and restriction bypass attempts

  • Supply chain compromise simulation

  • Integration vulnerability exploitation

  • API security testing

This hands-on offensive testing provides evidence-based validation of your security controls against real-world attack techniques.

Building Effective AI Security Governance

Beyond point-in-time assessments, organizations need to establish ongoing governance for AI security:

Policy Development

Create AI-specific security policies that address:

  • Acceptable use guidelines for AI technologies

  • Data handling requirements for AI systems

  • Security requirements for AI development and deployment

  • Vendor assessment criteria for AI services

  • Incident response procedures for AI-specific events

Monitoring and Detection

Implement specialized monitoring for AI systems:

  • Anomalous usage patterns or unusual requests

  • Potential data exfiltration or leakage

  • Prompt injection attempts or manipulations

  • Unexpected model behaviors or outputs

  • Resource consumption and potential DoS conditions

Training and Awareness

Develop targeted education programs:

  • AI security awareness for all employees

  • Specialized training for AI developers and operators

  • Executive education on AI risks and governance

  • User guidance for interacting with AI systems

  • Incident recognition and reporting procedures

Moving Forward: Integrating AI Security into Your Program

As AI adoption continues to accelerate, organizations must incorporate AI security into their overall security strategy. Key steps include:

  1. Inventory your AI footprint, including shadow AI usage, vendor solutions, and custom implementations

  2. Assess your current risk using structured frameworks like OWASP LLM Top 10 and NIST AI RMF

  3. Develop AI-specific security controls that address the unique risks these systems present

  4. Integrate AI security into your existing security program and governance structures

  5. Establish ongoing monitoring to detect emerging threats and vulnerabilities

  6. Create clear policies for secure AI development, procurement, and usage

By taking a systematic, framework-based approach to AI security assessment, organizations can continue to leverage the benefits of AI while managing the associated risks.

Contact us today to discuss how a customized AI security assessment can help your organization identify and address the unique risks associated with artificial intelligence technologies.

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