A Primal-Dual Approach Toward Resource-Constrained Revenue Management with Demand Learning and Large Action Space

New Algorithms Advance Revenue Management with Demand Learning A new study by Sentao Miao (University of Colorado Boulder), Yining Wang (University of Texas at Dallas), and Jiawei Zhang (New York University) introduces efficient algorithms for revenue management when firms face limited resources and uncertain demand. Revenue management, used in industries such as airlines, hotels, and retail, requires dynamic decisions on pricing and product assortments, whereas resources such as seats or inventory cannot be replenished. Traditional approaches often struggle with complexity or weak theoretical guarantees. The authors propose a primal-dual learning framework that combines optimization with machine learning’s upper confidence bound method. Their approach achieves near-optimal regret bounds, remaining computationally efficient even in large or infinite decision spaces. Applications include dynamic assortment selection, network revenue management with generalized linear demand, and joint pricing–assortment optimization. Numerical experiments show the methods consistently outperform benchmarks, offering practical, scalable solutions for data-driven industries.

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Publication Details

Journal
Operations Research
Published
2025-12-05
DOI
https://doi.org/10.1287/opre.2021.0483
Citations
1
Primary Topic
Supply Chain and Inventory Management
Type
article
Field-Weighted Citation Impact
2.28
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article

A Primal-Dual Approach Toward Resource-Constrained Revenue Management with Demand Learning and Large Action Space

Sentao Miao, Yining Wang, Jiawei Zhang
1 citations
Operations Research
Supply Chain and Inventory Management
2.28
article

A Primal-Dual Approach Toward Resource-Constrained Revenue Management with Demand Learning and Large Action Space

Sentao Miao, Yining Wang, Jiawei Zhang
article en
1 citations

Abstract

New Algorithms Advance Revenue Management with Demand Learning A new study by Sentao Miao (University of Colorado Boulder), Yining Wang (University of Texas at Dallas), and Jiawei Zhang (New York University) introduces efficient algorithms for revenue management when firms face limited resources and uncertain demand. Revenue management, used in industries such as airlines, hotels, and retail, requires dynamic decisions on pricing and product assortments, whereas resources such as seats or inventory cannot be replenished. Traditional approaches often struggle with complexity or weak theoretical guarantees. The authors propose a primal-dual learning framework that combines optimization with machine learning’s upper confidence bound method. Their approach achieves near-optimal regret bounds, remaining computationally efficient even in large or infinite decision spaces. Applications include dynamic assortment selection, network revenue management with generalized linear demand, and joint pricing–assortment optimization. Numerical experiments show the methods consistently outperform benchmarks, offering practical, scalable solutions for data-driven industries.

Operations ResearchVol. 74(2)
The University of Texas at Dallas (US), University of Colorado Boulder (US), New York University (US)
Openalex Percentile: Top 8%
Supply Chain and Inventory Management
2.28
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A Primal-Dual Approach Toward Resource-Constrained Revenue Management with Demand Learning and Large Action Space — Sentao Miao, Yining Wang, et al. · Operations Research (2025) | TGRS Research Map | TGRS