Truthful Generalized Linear Models

Yuan Qiu, Jinyan Liu, Di Wang
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Abstract

In this paper we study estimating Generalized Linear Models (GLMs) in the case where the agents (individuals) are strategic or self-interested and they concern about their privacy when reporting data. Compared with the classical setting, here we aim to design mechanisms that can both incentivize most agents to truthfully report their data and preserve the privacy of individuals' reports, while their outputs should also close to the underlying parameter. In the first part of the paper, we consider the case where the covariates are sub-Gaussian and the responses are heavy-tailed where they only have the finite fourth moments. First, motivated by the stationary condition of the maximizer of the likelihood function, we derive a novel private and closed form estimator. Based on the estimator, we propose a mechanism which has the following properties via some appropriate design of the computation and payment scheme for several canonical models such as linear regression, logistic regression and Poisson regression: (1) the mechanism is $o(1)$-jointly differentially private (with probability at least $1-o(1)$); (2) it is an $o(\frac{1}{n})$-approximate Bayes Nash equilibrium for a $(1-o(1))$-fraction of agents to truthfully report their data, where $n$ is the number of agents; (3) the output could achieve an error of $o(1)$ to the underlying parameter; (4) it is individually rational for a $(1-o(1))$ fraction of agents in the mechanism ; (5) the payment budget required from the analyst to run the mechanism is $o(1)$. In the second part, we consider the linear regression model under more general setting where both covariates and responses are heavy-tailed and only have finite fourth moments. By using an $\ell_4$-norm shrinkage operator, we propose a private estimator and payment scheme which have similar properties as in the sub-Gaussian case.
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真实的广义线性模型
在本文中,我们研究广义线性模型(GLMs)在代理(个体)是战略性的或自利的,并且他们在报告数据时关心他们的隐私的情况下的估计。与经典设置相比,这里我们的目标是设计一种机制,既能激励大多数代理如实报告数据,又能保护个人报告的隐私,同时它们的输出也应该接近底层参数。在本文的第一部分中,我们考虑了协变量是亚高斯的,响应是重尾的情况,其中它们只有有限的第四阶矩。首先,利用似然函数最大值的平稳条件,推导出一种新的私有封闭估计量。在此估计量的基础上,通过对线性回归、逻辑回归和泊松回归等几种典型模型的计算和支付方案的适当设计,提出了一种具有以下性质的机制:(1)该机制为$ 0(1)$-联合差分私有(概率至少为$1-o(1)$);(2)对于一个$(1- 0(1))$分数的智能体如实报告其数据的$ 0 (\frac{1}{n})$-近似贝叶斯纳什均衡,其中$n$为智能体的数量;(3)输出对底层参数的误差可以达到$ 0 (1)$;(4)对于机制中$(1- 0(1))$部分的agent,它是单独有理的;(5)分析师运行该机制所需的支付预算为$ 0(1)$。在第二部分中,我们考虑了更一般情况下的线性回归模型,其中协变量和响应都是重尾的,只有有限的第四阶矩。通过使用$\ell_4$范数收缩算子,我们提出了一个与亚高斯情况相似的私有估计器和支付方案。
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