自动化机构设计:紧凑和分解线性规划模型

B. Jaumard, Kia Babashahi Ashtiani, Nicolas Huin
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引用次数: 0

摘要

在多智能体系统背景下,自动机制设计(Automated Mechanism Design, AMD)是一种基于计算机的机制规则设计,尽管智能体可能是自私的,并对自己的偏好撒谎,但该机制仍能达到平衡。虽然已经证明AMD可以建模为线性程序,但它具有指数数量的变量,因此,没有已知的有效算法。我们回顾了针对AMD问题提出的后一种线性规划模型,并引入了一种具有多项式变量数的新模型。我们证明了后一个模型对应于第二个模型的dantzigg - wolfe分解,并设计了两个模型在多项式时间内的有效解方案。数值实验比较了两种模型的求解效率,并表明我们可以在大约35秒内解决比以前大得多的数据实例,最多可解决2,000个代理或2,000个资源。
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Automated Mechanism Design: Compact and Decomposition Linear Programming Models
In the context of multi-agent systems, Automated Mechanism Design (AMD) is the computer-based design of the rules of a mechanism, which reaches an equilibrium despite the fact that agents can be selfish and lie about their preferences. Although it has been shown that AMD can be modelled as a linear program, it is with an exponential number of variables and consequently, there is no known efficient algorithm. We revisit the latter linear program model proposed for the AMD problem and introduce a new one with a polynomial number of variables. We show that the latter model corresponds to a Dantzig-Wolfe decomposition of the second one and design efficient solution schemes in polynomial time for both two models. Numerical experiments compare the solution efficiency of both models and show that we can solve very significantly larger data instances than before, up to 2,000 agents or 2,000 resources in about 35 seconds.
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