An iterative R* Decision Transformer that predicts an upper-quantile return-to-go and augments its training set with simulator-filtered high-reward trajectories beats DT, BC, and IQL on the AIGB auto-bidding benchmark.
Multi-Platform Budget Management in Ad Markets with Non-IC Auctions
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abstract
In online advertising markets, budget-constrained advertisers acquire ad placements through repeated bidding in auctions on various platforms. We present a strategy for bidding optimally in a set of auctions that may or may not be incentive-compatible under the presence of budget constraints. Our strategy maximizes the expected total utility across auctions while satisfying the advertiser's budget constraints in expectation. Additionally, we investigate the online setting where the advertiser must submit bids across platforms while learning about other bidders' bids over time. Our algorithm has $O(T^{3/4})$ regret under the full-information setting. Finally, we demonstrate that our algorithms have superior cumulative regret on both synthetic and real-world datasets of ad placement auctions, compared to existing adaptive pacing algorithms.
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Optimal Return-to-Go Guided Decision Transformer for Auto-Bidding in Advertisement
An iterative R* Decision Transformer that predicts an upper-quantile return-to-go and augments its training set with simulator-filtered high-reward trajectories beats DT, BC, and IQL on the AIGB auto-bidding benchmark.