'Neural howlround' in large language models: a self-reinforcing bias phenomenon, and a dynamic attenuation solution

Large language model (LLM)-driven AI systems may exhibit an inference failure mode we term `neural howlround,' a self-reinforcing cognitive loop where certain highly weighted inputs become dominant, leading to entrenched response patterns resistant to correction. This paper explores the mechanisms underlying this phenomenon, which is distinct from model collapse and biased salience weighting. We propose an attenuation-based correction mechanism that dynamically introduces counterbalancing adjustments and can restore adaptive reasoning, even in `locked-in' AI systems. Additionally, we discuss some other related effects arising from improperly managed reinforcement. Finally, we outline potential applications of this mitigation strategy for improving AI robustness in real-world decision-making tasks.

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02Human cognitive biases present in artificial intelligenceRIEV
03Perseverative thinking
04The phi function manages mid-range reinforcement, ensuring a gradual reduction of bias without overcorrection
05Cascade failures in reasoning. The distorted salience weights propagate recursively through the inference chain, strengthening resistance to counter-argument and correction
06Overweighting
07A gradual attenuation curve is preferrable to a hard cut-off or a stepwise function
08We should attempt to suppress runaway reinforcement loops as early as possible (but not too early) before fixation sets in
09The mechanism should be able to scale its effect as required based on the severity of bias accumulation
10θ b strengthens mid-range correction, preventing stagnation without abrupt shifts
11Exponential decay provides early-stage attenuation, when reinforcement is beginning to increase
12Context inflexibility

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