Independent AI methods, including sparsemax attention, Tsallis-entropy reinforcement learning, Student-t generative models, and robust losses, are instances of a single 'q-dial' deformation of Boltzmann-Gibbs statistics, with q best treated as a learnable parameter.
Robust Bi-Tempered Logistic Loss Based on Bregman Divergences
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abstract
We introduce a temperature into the exponential function and replace the softmax output layer of neural nets by a high temperature generalization. Similarly, the logarithm in the log loss we use for training is replaced by a low temperature logarithm. By tuning the two temperatures we create loss functions that are non-convex already in the single layer case. When replacing the last layer of the neural nets by our bi-temperature generalization of logistic loss, the training becomes more robust to noise. We visualize the effect of tuning the two temperatures in a simple setting and show the efficacy of our method on large data sets. Our methodology is based on Bregman divergences and is superior to a related two-temperature method using the Tsallis divergence.
fields
cs.AI 1years
2026 1verdicts
CONDITIONAL 1representative citing papers
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Perspectives on Tsallis Statistics for Artificial Intelligence
Independent AI methods, including sparsemax attention, Tsallis-entropy reinforcement learning, Student-t generative models, and robust losses, are instances of a single 'q-dial' deformation of Boltzmann-Gibbs statistics, with q best treated as a learnable parameter.