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Create an Architecture of Trust with the Latest in AI-Related Data Security

Actionary Research

Create an Architecture of Trust with the Latest in AI-Related Data Security

October 26, 2025 / 7 min read

Summary

Data security and privacy have long been essential in technology. Artificial Intelligence (AI) introduces new, often overlooked risks that require an understanding of new security concepts and a modern approach. Traditional security practices won’t address AI-specific challenges such as adversarial attacks, new data extraction techniques, and regulatory compliance under new laws like the EU AI Act. This research provides insight on the nuances of these issues buyers should be aware of and provides actionable strategies for AI solution providers to mitigate risks and maintain client trust.

Key Take: AI introduces new security risks. Providers must demonstrate a clear understanding and evidence of how AI-specific security measures have been implemented to stay compliant and secure to maintain client trust.

AI’s New and Improved Security and Privacy Challenges

Though the principles of data security and privacy are well understood, AI introduces vulnerabilities that must be approached differently. These include not just the protection of data but the integrity of the AI models themselves, which are susceptible to manipulation in ways traditional systems are not. These vulnerabilities often emerge from the very qualities that make AI so powerful — their dependence on large datasets and the way that they learn.

  • AI systems are uniquely vulnerable to adversarial attacks. The most common fall into three main categories: evasion attacks, where attackers tamper with input data to manipulate model outputs; data poisoning, where training data is altered so models learn incorrect relationships; and model extraction, where black-box models are repeatedly queried to recreate them or to extract the sensitive data they were trained on. Other threats include backdoor attacks, where hidden triggers alter model behavior, inference attacks that expose sensitive training data, and model inversion techniques that reconstruct private inputs. These attacks can lead to severe consequences, ranging from biased decision-making to system failures in critical applications. Evasion attacks can cause facial-recognition systems to misidentify individuals and classify incorrectly leading to security breaches. Data poisoning can corrupt AI-driven diagnostics in healthcare and lead to the misdiagnosis and improper treatments of patients. Model extraction can expose proprietary algorithms or private and confidential information, undermining security and intellectual property protections. Backdoor attacks can allow malicious actors to trigger hidden behaviors, inference attacks can reveal sensitive details about individuals, and model inversion can reconstruct private data, such as medical records or personal images, from model outputs, leading to severe confidentiality breaches.
  • AI’s dependency on vast data sets creates increased privacy concerns. AI systems need large volumes of data in order for them to be trained effectively, which increases the risk of data misuse and breaches. As these datasets often contain sensitive personal information it is crucial that data is handled properly and in compliance with privacy regulations throughout the entire lifecycle. AI models can also inadvertently leak this private information, either from its accidental memorisation or from membership inference attacks, which leverage the difference in generated outputs from data already seen in training, and new, unseen data.
  • The EU AI Act adds new legal obligations. In addition to exisiting regulations like GDPR, the upcoming EU AI Act introduces new requirements, particularly for “high-risk” AI systems. These regulations place a greater responsibility on vendors to demonstrate how their AI models make decisions and ensure they do so in an equitable and non-discriminatory manner. AI models that are trained on biased datasets can learn skewed relationships and produce unfair or discriminatory outcomes, ranging from the perpetuation of stereotypes in recommendation systems to significantly diminishing diagnostic tools that could severely impact someone’s life.

The Subtlety of AI System Specific Attacks that Complicate Things Further and Lead to Overlooked Risks

Use of AI doesn’t just present new risks that traditional measures are unequipped to address, the attacks they’re vulnerable to can be extremely deceptive. These manipulations are very subtle – often going undetected – which continues to complicate any attempts in maintaining model integrity. As AI continues to be integrated into sensitive areas, the potential impact of these attacks grows, and highlights the need for robust defences specially designed to idenitify and mitigate these threats.

  • Adversarial attacks can involve subtleties that are hard to detect. Evasion attacks can be as subtle as changing a few pixels in an image or altering data patterns that are imperceptible to humans, but still cause the AI to misinterpret the input. Data poisoning however, involves injecting harmful data into datasets which disrupts the learning process and leads to the perpetuation of harmful outputs, or to generate “backdoors” that produce specific outputs given certain inputs. Both attacks involve mimicking normal data with only minor discrepancies, and that is what makes them so effective – and so difficult to detect.
  • Model inversion attacks can expose sensitive data. Attackers have various techniques they can use when attempting to reverse-engineer AI models, in an effort to extract private information used during training, even when it has been anonymized. At their core, each strategy involves interacting with these models and studying the outputs generated from each input, and using them as clues. These clues then help adversaries in deciphering the models underlying characteristics which can lead to the inference of architectures, parameter distributions and the patterns in the training data.
  • Bias and fairness concerns can go unaddressed. With the existence of the EU AI Act, vendors must be able to demonstrate that their AI systems are fair and transparent in their predictions. However, this can become particularly problematic as biases can often be deeply embedded in datasets or arise unintentionally during model development, which makes them difficult to detect and even harder to remove. Bias may stem from historical inequalities in data, or from complex interactions within models where it is much harder to spot. This makes balancing fairness with accuracy especially challenging, requiring significant resources and trade-offs, futher amplifying the challenges of compliance and ethical responsibility.

Addressing AI-Specific Security and Privacy Gaps

AI solution providers need to adopt new approaches to protect their AI systems and ensure they comply with emerging regulations. This includes not only defending against external threats like adversarial attacks but also ensuring that internal processes are aligned with regulatory frameworks, such as the EU AI Act. By addressing AI-specific risks and prioritizing transparency, vendors can offer more secure and trustworthy solutions to their clients.

  • Implement security measures tailored to AI vulnerabilities. For evasion attacks, models can undergo adversarial training where they are shown examples during training to increase their resilience against manipulated inputs. Adding these examples can increase cost but will make models more robust. For data poisoning, consider adding outlier detection that can identify patterns in data that deviate from the norm, as well as specific anomaly detection models like isolated forests that can isolate data points that don’t align with the rest of the training data. Since these changes in data can be subtle, it can be wise to fine-tune these models, or add noise to data sets to minimize the influence individual data points can have on generated outputs. This noise injection can limit accuracy slightly, but is an effective strategy at mitigating the effects of data poisoning. Regular testing and validation of all models can add a final layer of protection to help identify vulnerabilities early, ensuring that AI systems can withstand evolving and increasingly sophisticated attacks.
  • Adopt advanced privacy-preserving techniques for sensitive data. Vendors should explore advanced techniques such as federated learning (FL), to minimise the exposure of confidential information. This approach involves training models across multiple devices or servers, without having to move data to a central location. Each device trains the model locally on its own data and then shares these model updates with a central server, aggregating these updates to create a shared model. Since no data has to ever leave a device, this approach can provide very high-level privacy and security. Combining FL with query rate limiting and secure aggregation techniques – to mitigate against black-box and white-box attacks – in conjunction with strategies specially designed to handle adversarial attacks, vendors can create exceptionally robust and resilient frameworks, achieving near-impenetrable security.
  • Prioritize transparency and explainability in AI models. Vendors must make their AI models more transparent to meet EU AI Act requirements, but to also build and maintain client trust. Explainability tools that show how AI reaches decisions can help identity or prevent bias, and ensure the use of AI is in adherence to existing and future ethical regulations. This is especially benefical when using complex models where there decision-making processes are difficult to interpret, referred to as “black-box” models. Tools such as LIME and SHAP are examples of solutions that can offer explainability in how these models generate their outputs, exploring the influence that input data or features have on predictions. Implementing these transparency tools can make it easier to spot any ethical or legal problems early on, helping vendors address issues faster and ensure users and stakeholders have a better understanding of how the AI works.