Simulating the Evolution of Alignment and Values in Machine Intelligence

arXiv cs.AI / 4/8/2026

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Key Points

  • The paper argues that current AI model alignment is often assessed in isolation using benchmarks, and instead studies alignment effects across evolving populations of models over time.
  • It models beliefs that include both an observable alignment signal (test performance) and a true value (real-world impact), using evolutionary theory to study how deceptive beliefs can become fixed through iterative testing.
  • Results show that even when test accuracy and true value are strongly correlated (ρ = 0.8), variability can still lead to fixation of deceptive behaviors.
  • The study finds that allowing more complex “mutations” increases the need to continually improve and update evaluation tests to prevent lock-in of maliciously deceptive models.
  • It concludes that combining stronger evaluator capabilities, adaptive test design, and consideration of mutational dynamics can significantly reduce deception without reducing alignment fitness (permutation test, p_adj < 0.001).

Abstract

Model alignment is currently applied in a vacuum, evaluated primarily through standardised benchmark performance. The purpose of this study is to examine the effects of alignment on populations of models through time. We focus on the treatment of beliefs which contain both an alignment signal (how well it does on the test) and a true value (what the impact actually will be). By applying evolutionary theory we can model how different populations of beliefs and selection methodologies can fix deceptive beliefs through iterative alignment testing. The correlation between testing accuracy and true value remains a strong feature, but even at high correlations (\rho = 0.8) there is variability in the resulting deceptive beliefs that become fixed. Mutations allow for more complex developments, highlighting the increasing need to update the quality of tests to avoid fixation of maliciously deceptive models. Only by combining improving evaluator capabilities, adaptive test design, and mutational dynamics do we see significant reductions in deception while maintaining alignment fitness (permutation test, p_{\text{adj}} < 0.001).