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Trust or Not to Trust: Assignment Mechanisms with Predictions in the Private Graph Model


Kernekoncepter
The authors aim to design strategyproof mechanisms leveraging predictions for improved approximation guarantees in the Generalized Assignment Problem (GAP) within the private graph model.
Resumé

The paper explores designing strategyproof mechanisms using predictions to enhance performance guarantees in GAP variants, focusing on consistency and robustness trade-offs. It introduces a lower bound on achievable consistency and robustness for deterministic strategyproof mechanisms.
The study delves into lexicographic extensions, stable matching theory, and impossibility results, highlighting the challenges of achieving optimal approximation guarantees in strategic environments.

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Statistik
The Bipartite Matching Problem (BMP) requires a mechanism that is (1 + 1/γ)-consistent and (1 + γ)-robust. For BMP, no deterministic strategyproof mechanism can achieve both 1-consistency and bounded robustness. In terms of error parameter η, no deterministic strategyproof mechanism for BMP can be (1+ 1/γ)-consistent and (1/(1-η+ϵ))-approximate for any η ∈ (0, γ/(1+γ)].
Citater
"The challenge here is to devise algorithms that achieve optimal approximation guarantees as the prediction quality varies from perfect to imperfect." "Our goal is to design strategyproof mechanisms that leverage predictions to achieve improved approximation guarantees." "In light of this, we turn towards a slightly more restrictive model for GAP called the private graph model." "We study how to leverage learning-augmented predictions in the domain of mechanism design without money."

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by Ricc... kl. arxiv.org 03-07-2024

https://arxiv.org/pdf/2403.03725.pdf
To Trust or Not to Trust

Dybere Forespørgsler

How can machine learning techniques improve prediction accuracy in mechanism design

Machine learning techniques can improve prediction accuracy in mechanism design by leveraging large datasets to train models that can make more accurate predictions. These techniques can analyze historical data to identify patterns and trends, which can then be used to predict future outcomes. By incorporating machine learning algorithms, mechanisms can better anticipate agent behavior and preferences, leading to more informed decision-making processes. Additionally, machine learning models can adapt and learn from new data, continuously improving their predictive capabilities over time.

What are the ethical implications of leveraging monetary transfers in mechanism design

The ethical implications of leveraging monetary transfers in mechanism design are significant. While monetary transfers can incentivize agents to reveal their true preferences and behaviors, they also raise concerns about fairness and equity. In some cases, the use of monetary incentives may lead to exploitation or coercion of individuals who are economically disadvantaged. Moreover, relying on monetary transfers as a means of incentivizing truthfulness may prioritize financial gain over other ethical considerations such as privacy and autonomy.

How does deep reinforcement learning impact prediction-based mechanisms

Deep reinforcement learning has a profound impact on prediction-based mechanisms by enabling agents to learn optimal strategies through trial-and-error interactions with their environment. This approach allows agents to adapt their behavior based on feedback received from the system, ultimately leading to improved performance over time. Deep reinforcement learning algorithms excel at handling complex decision-making tasks where traditional methods may fall short due to high-dimensional input spaces or non-linear relationships between variables. By integrating deep reinforcement learning into prediction-based mechanisms, organizations can enhance efficiency and effectiveness in various domains such as resource allocation and optimization problems.
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