Impression Allocation and Policy Search in Display Advertising
Di Wu, Cheng Chen, Xiujun Chen, Junwei Pan, Xun Yang and, Qing Tan, Jian Xu, Kuang-Chih Lee

TL;DR
This paper introduces a novel auction-based framework and a multi-agent reinforcement learning approach to optimize impression allocation between guaranteed contracts and RTB in display advertising, improving revenue and stability.
Contribution
It formulates impression allocation as an auction problem and develops a scalable RL method to adapt bids under traffic fluctuations, achieving optimal outcomes.
Findings
Optimal bidding functions derived for guaranteed contracts.
The RL method effectively adapts to traffic changes.
Experimental results show improved revenue and stability.
Abstract
In online display advertising, guaranteed contracts and real-time bidding (RTB) are two major ways to sell impressions for a publisher. For large publishers, simultaneously selling impressions through both guaranteed contracts and in-house RTB has become a popular choice. Generally speaking, a publisher needs to derive an impression allocation strategy between guaranteed contracts and RTB to maximize its overall outcome (e.g., revenue and/or impression quality). However, deriving the optimal strategy is not a trivial task, e.g., the strategy should encourage incentive compatibility in RTB and tackle common challenges in real-world applications such as unstable traffic patterns (e.g., impression volume and bid landscape changing). In this paper, we formulate impression allocation as an auction problem where each guaranteed contract submits virtual bids for individual impressions. With…
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Taxonomy
TopicsConsumer Market Behavior and Pricing · Auction Theory and Applications · Mobile Crowdsensing and Crowdsourcing
