Building a Career in AI Security
Essential Skills, Tools, and Strategies
AI security is a dynamic and multidisciplinary field that combines artificial intelligence with cybersecurity principles to ensure safe and ethical AI applications. It demands a broad spectrum of skills, including technical expertise in AI and security, and the ability to work collaboratively across diverse domains. This blog will guide readers looking to enter or grow in AI security, especially those with backgrounds in machine learning, security, or policy.
Understanding the Pillars of AI Security
AI security spans several critical domains and can be categorized into three pillars. There are multiple ways to categorize AI security work; this is one possible framework. Each pillar requires a distinct skill set. Depending on your focus, you may need expertise in areas like application security, adversarial machine learning, or ethical AI.
Application-Focused Testing
This pillar treats AI as a component within a larger software ecosystem, applying traditional security methodologies to assess its interaction with other system components. It addresses risks external to the AI model, such as insecure data handling, API vulnerabilities, and misconfigurations, to prevent system-wide security threats.
Examples: Securing API endpoints with authentication, rate limiting, and anomaly detection. Implementing encryption and access controls to safeguard sensitive data.
Tools: Burp Suite, OWASP ZAP, and Postman support application security testing, particularly for API integrity and web-based AI services. Atheris aids in fuzz testing Python-based ML components, while Nvidia Morpheus helps detect security threats in AI-driven applications. The MITRE ATLAS framework provides a structured taxonomy of adversarial threats against AI systems, helping organizations assess and mitigate risks.
Model-Focused Testing
This pillar shifts focus to vulnerabilities within AI models themselves, uncovering failure modes in AI systems. The goal is to detect weaknesses before attackers can exploit them, thereby improving the robustness and trustworthiness of AI models.
Examples: An adversary manipulates a prompt to make a model generate false but convincing medical advice, or exploits tokenization flaws to extract memorized training data.
Tools: Key tools include garak, PyRIT, the Adversarial Robustness Toolbox, foolbox, and Counterfit for adversarial ML testing. OpenAI’s Eval Framework assesses model robustness against adversarial manipulations.
Intersection with Application-Focused Testing: Model vulnerabilities can be assessed in isolation, but when a model is integrated into an application, those vulnerabilities can introduce broader security risks. For example, adversarial attacks that exploit a model’s weaknesses can also expose API vulnerabilities, leading to system-wide risks.
Output-Focused Assessment
This pillar evaluates the societal, ethical, and reputational risks associated with the outputs generated by AI systems. The focus is on detecting harmful, biased, or unfair AI-generated outputs and assessing their impact on individuals, communities, and society.
Examples: A recommendation system amplifying misinformation or a language model producing harmful or discriminatory content.
Tools: Key tools include IBM AI Fairness 360 for bias detection and mitigation, Fairlearn for fairness interventions and bias mitigation, and aequitas for bias auditing and impact analysis. Perspective API detects toxicity in text-based interactions. LIME, SHAP, and Captum enhance explainability, while TensorFlow Privacy and Opacus support differential privacy. Carla provides counterfactual explainability for robustness evaluation.
Intersection with Model-Focused Testing: Many techniques used in model-focused testing—such as adversarial attacks, perturbation analysis, and explainability methods—can also help identify ethical risks and biases in AI outputs. For example, adversarial prompts used for security testing can also expose how a model generates harmful content in response to manipulative inputs. Similarly, explainability tools help interpret model decisions, revealing robustness weaknesses and potential biases that lead to unfair or misleading outputs.
Key Skills and Competencies for AI Security
AI security requires a blend of technical and interpersonal skills, along with a proactive, multidisciplinary mindset to keep up with its rapid evolution.
Multidisciplinary Expertise: A well-rounded knowledge of AI, cybersecurity, and ethical frameworks provides a strong foundation for this field. Understanding how adjacent fields like data privacy intersect with AI security can set you apart.
Adaptability and Continuous Learning: AI security evolves rapidly, requiring ongoing learning. Following researchers, participating in real-world challenges, and staying engaged with new methodologies will help you keep pace.
Collaboration and Communication: Holistic AI security relies on strong collaboration across disciplines, from engineering to ethics. Strong communication skills are necessary to explain complex security issues to various stakeholders.
Strategies for Upskilling in AI Security
The multidisciplinary nature of AI security can feel overwhelming. Focus on one area at a time, building a strong foundation before diving into specialized topics. Hands-on experience—through CTFs, AI bug bounties, and real-world testing—is one of the most effective ways to build AI security expertise.
AI Fundamentals: Building your AI skills will help you grow and succeed in this field.
3Blue1Brown’s YouTube channel for mathematical concepts and ML fundamentals
Inside Deep Learning, a hands-on textbook that teaches AI fundamentals using Python
Adversarial Machine Learning: Developing skills in adversarial ML helps practitioners understand and mitigate vulnerabilities in AI models.
Useful GitHub repos: Awesome AI Security, Awesome LLM Security
Security Fundamentals: Learning security principles will strengthen your ability to tackle AI security challenges.
Hack The Box and TryHackMe offer labs and CTFs that cater to beginners and experts.
OSCP certification for a deeper dive into offensive security
Other hands-on security resources: https://picoctf.org/ and https://pwn.college/
Tip: Showcase your expertise by documenting projects and findings on GitHub or writing technical blogs.
Policy and compliance:
Opportunities such as the GRT-2 challenge at DEF CON 2024 and the Bias Bounty challenge by Humane Intelligence provide hands-on experience in AI security policy and regulatory challenges.
Building Credibility and Networking
Demonstrating Passion:
Build credibility and contribute to the community by showcasing your work through:
Open-source contributions.
Writing blog posts or presenting at conferences.
Participating in CTFs and bug bounty programs
Engaging with the Community:
Engaging with online forums, mentorship programs, and AI security communities helps expand your network and accelerate your growth.
Peer or cohort mentoring programs, such as WiCyS Security Training Scholarship, can provide valuable support.
Exhibiting Ethical Responsibility: Practicing responsible disclosure and ethical engagement in security research helps build trust and credibility. Avoid gray-area programs that could put your reputation at risk.
Conclusion
A career in AI Security is both challenging and rewarding, offering opportunities to make a significant impact in technology and society. By understanding the key pillars, focusing on practical upskilling, and building credibility, you can carve out a successful path in this dynamic field. Success in AI security starts with curiosity, persistence, and a commitment to continuous learning—one step at a time.