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This research addresses the computational intractability of sequential resource allocation under stochastic arrivals by introducing a population-level surrogate value function. The proposed method transforms an otherwise complex Bellman recursion into an exact dynamic program with polynomial complexity, offering significant efficiency gains for adaptive network recruitment scenarios. By rigorously bounding errors across single-round and transition dynamics, this work advances the theoretical foundations of planning algorithms in high-dimensional AI environments.
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Adaptive Multi-Round Allocation with Stochastic Arrivals

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arXiv:2605.12111v2 Announce Type: replace Abstract: We study a sequential resource allocation problem motivated by adaptive network recruitment, in which a limited budget of identical resources must be allocated over multiple rounds to individuals with stochastic referral capacity. Successful referrals endogenously generate future decision opportunities while allocating additional resources to an individual exhibits diminishing returns. We first show that the single-round allocation problem admits an exact greedy solution based on marginal survival probabilities. In the multi-round setting, the resulting Bellman recursion is intractable due to the stochastic, high-dimensional evolution of the frontier. To address this, we introduce a population-level surrogate value function that depends only on the remaining budget and frontier size. This surrogate enables an exact dynamic program via truncated probability generating functions, yielding a planning algorithm with polynomial complexity in the total budget. We further analyze robustness under model misspecification, proving a multi-round error bound that decomposes into a tight single-round frontier error and a population-level transition error. Finally, we evaluate our method on real-world inspired recruitment scenarios.

Abstract:We study a sequential resource allocation problem motivated by adaptive network recruitment, in which a limited budget of identical resources must be allocated over multiple rounds to individuals with stochastic referral capacity. Successful referrals endogenously generate future decision opportunities while allocating additional resources to an individual exhibits diminishing returns. We first show that the single-round allocation problem admits an exact greedy solution based on marginal survival probabilities. In the multi-round setting, the resulting Bellman recursion is intractable due to the stochastic, high-dimensional evolution of the frontier. To address this, we introduce a population-level surrogate value function that depends only on the remaining budget and frontier size. This surrogate enables an exact dynamic program via truncated probability generating functions, yielding a planning algorithm with polynomial complexity in the total budget. We further analyze robustness under model misspecification, proving a multi-round error bound that decomposes into a tight single-round frontier error and a population-level transition error. Finally, we evaluate our method on real-world inspired recruitment scenarios.

Artificial Intelligence (cs.AI); Data Structures and Algorithms (cs.DS)

arXiv:2605.12111 [cs.AI]

(or arXiv:2605.12111v2 [cs.AI] for this version)

https://doi.org/10.48550/arXiv.2605.12111 Focus to learn more arXiv-issued DOI via DataCite

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