For semiparametric contextual pricing with arbitrary covariates and bounded quantity feedback, a pilot-corrected layered policy achieves the minimax regret exponent (beta+1)/(2beta+1) without concavity, unimodality, or unique optimal prices.
Pricing with Contextual Elasticity and Heteroscedastic Valuation
1 Pith paper cite this work. Polarity classification is still indexing.
abstract
We study an online contextual dynamic pricing problem, where customers decide whether to purchase a product based on its features and price. We introduce a novel approach to modeling a customer's expected demand by incorporating feature-based price elasticity, which can be equivalently represented as a valuation with heteroscedastic noise. To solve the problem, we propose a computationally efficient algorithm called "Pricing with Perturbation (PwP)", which enjoys an $O(\sqrt{dT\log T})$ regret while allowing arbitrary adversarial input context sequences. We also prove a matching lower bound at $\Omega(\sqrt{dT})$ to show the optimality regarding $d$ and $T$ (up to $\log T$ factors). Our results shed light on the relationship between contextual elasticity and heteroscedastic valuation, providing insights for effective and practical pricing strategies.
fields
stat.ML 1years
2026 1verdicts
ACCEPT 1representative citing papers
citing papers explorer
-
Minimax-Optimal Semiparametric Contextual Dynamic Pricing with Multimodal Revenue
For semiparametric contextual pricing with arbitrary covariates and bounded quantity feedback, a pilot-corrected layered policy achieves the minimax regret exponent (beta+1)/(2beta+1) without concavity, unimodality, or unique optimal prices.