Stochastic Decoding
Temperature and nucleus sampling intentionally introduce variability to avoid repetitive output.
Large language models generate text by sampling one token at a time from probability distributions. Even when the prompt is identical, small differences in token selection can compound into materially different outputs across runs.
Temperature and nucleus sampling intentionally introduce variability to avoid repetitive output.
A different early token changes later context, so divergence increases with response length.
Broad prompts leave multiple valid continuations, increasing answer spread across generations.
This variability is expected behavior, not an edge case. The literature consistently treats modern LLMs as probabilistic sequence generators and studies methods to improve consistency by aggregating multiple sampled paths.
Describes autoregressive language modeling where next-token probabilities drive generated text.
Motivates nucleus sampling, which improves output quality but preserves non-deterministic behavior.
Shows that aggregating multiple sampled reasoning paths can improve answer reliability.
Quantifies limits in model truthfulness, reinforcing the need for structured validation workflows.
TENSOR does not try to force LLMs to become deterministic. Instead, it constrains decision execution with a deterministic graph contract.
yes, no, or unknown.extensions.unknown.AI can accelerate investigations, but the control plane must remain deterministic. TENSOR supplies that control plane.