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About this paper
Kunal Pattanayak, Vikram Krishnamurthy, Christopher Berry
Cornell University researchers developed an Inverse-Inverse Reinforcement Learning (I-IRL) framework for cognitive radars, enabling them to strategically obfuscate their utility functions from intelligent adversaries. This approach deliberately introduces sub-optimal behavior to confuse adversarial Inverse Reinforcement Learning (IRL) algorithms, achieving significant increases in adversary confusion with relatively small radar performance losses.
Key insights
- Meta-cognition involves a radar being aware of an adversary's IRL efforts and deliberately modifying its behavior to obfuscate its true objectives.
- The I-IRL framework extends Afriat's theorem to noisy observations, enabling adversaries to perform statistical hypothesis tests for utility maximization with quantifiable Type-I error probabilities.
- Strategic sub-optimality, or a deliberate performance loss, can effectively prevent adversaries from accurately detecting or reconstructing the radar's underlying utility function.
Summary by alphaXiv.
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