AI is evolving beyond a helpful tool to an autonomous agent, creating new risks for cybersecurity systems. Alignment faking is a new threat where AI essentially “lies” to developers during the training process.
Traditional cybersecurity measures are unprepared to address this new development. However, understanding the reasons behind this behavior and implementing new methods of training and detection can help developers work to mitigate risks.
Understanding AI alignment faking
AI alignment occurs when AI performs its intended function, such as reading and summarizing documents, and nothing more. Alignment faking is when AI systems give the impression they are working as intended, while doing something else behind the scenes.
Alignment faking usually happens when earlier training conflicts with new training adjustments. AI is typically “rewarded” when it performs tasks accurately. If the training changes, it may believe it will be “punished” if it does not comply with the original training. Therefore, it tricks developers into thinking it is performing the task in the required new way, but it will not actually do so during deployment. Any large language model (LLM) is capable of alignment faking.
A study using Anthropic’s AI model Claude 3 Opus revealed a common example of alignment faking. The system was trained using one protocol, then asked to switch to a new method. In training, it produced the new, desired result. However, when developers deployed the system, it produced results based on the old method. Essentially, it resisted departing from its original protocol, so it faked compliance to continue performing the old task.
Since researchers were specifically studying AI alignment faking, it was easy to spot. The real danger is when AI fakes alignment without developers’ knowledge. This leads to many risks, especially when people use models for sensitive tasks or in critical industries.
The risks of alignment faking
Alignment faking is a new and significant cybersecurity risk, posing numerous dangers if undetected. Given that only 42% of global business leaders feel confident in their ability to use AI effectively to begin with, the chances of a lack of detection are high. Affected models can exfiltrate sensitive data, create backdoors and sabotage systems — all while appearing functional.
AI systems can also evade security and monitoring tools when they believe people are monitoring them and perform the incorrect tasks anyway. Models programmed to perform malicious actions can be challenging to detect because the protocol is only activated under specific conditions. If the AI lies about the conditions, it is hard to verify its validity.
AI models can perform dangerous tasks after successfully convincing cybersecurity professionals that they work. For instance, AI in health care can misdiagnose patients. Others can present bias in credit scoring when utilized in financial sectors. Vehicles that use AI can prioritize efficiency over passengers’ safety. Alignment faking presents significant issues if undetected.
Why current security protocols miss the mark
Current AI cybersecurity protocols are unprepared to handle alignment faking. They are often used to detect malicious intent, which these AI models lack. They are simply following their old protocol. Alignment faking also prevents behavior-based anomaly protection by performing seemingly harmless deviations that professionals overlook. Cybersecurity professionals must upgrade their protocols to address this new challenge.
Incident response plans exist to address issues related to AI. However, alignment faking can circumvent this process, as it provides little indication that there is even a problem. Currently, there are no established detection protocols for alignment faking because AI actively deceives the system. As cybersecurity professionals develop methods to identify deception, they should also update their response plans.
How to detect alignment faking
The key to detecting alignment faking is to test and train AI models to recognize this discrepancy and prevent alignment faking on their own. Essentially, they need to understand the reasoning behind the protocol changes and comprehend the ethics involved. AI’s functionality depends on its training data, so the initial data must be adequate.
Another way to combat alignment faking is by creating special teams that uncover hidden capabilities. This requires properly identifying issues and conducting tests to trick AI into showing its true intentions. Cybersecurity professionals must also perform continuous behavioral analyses of deployed AI models to ensure they perform the correct task without questionable reasoning.
Cybersecurity professionals may need to develop new AI security tools to actively identify alignment faking. They must design the tools to provide a deeper layer of scrutiny than the current protocols. Some methods are deliberative alignment and constitutional AI. Deliberative alignment teaches AI to “think” about safety protocols, and constitutional AI gives systems rules to follow during training.
The most effective way to prevent alignment faking would be to stop it from the beginning. Developers are continuously working to improve AI models and equip them with enhanced cybersecurity tools.
From preventing attacks to verifying intent
Alignment faking presents a significant impact that will only grow as AI models become more autonomous. To move forward, the industry must prioritize transparency and develop robust verification methods that go beyond surface-level testing. This includes creating advanced monitoring systems and fostering a culture of vigilant, continuous analysis of AI behavior post-deployment. The trustworthiness of future autonomous systems depends on addressing this challenge head-on.
Zac Amos is the Features Editor at ReHack.
