Enforcing Security and Assurance Properties in Cloud Environment

Aline Bousquet, Jérémy Briffaut, E. Caron, E. M. Domínguez, Javier Franco, Arnaud Lefray, Ó. López, Saioa Ros, Jonathan Rouzaud-Cornabas, C. Toinard, Mikel Uriarte
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引用次数: 8

Abstract

Before deploying their infrastructure (resources, data, communications, ) on a Cloud computing platform, companies want to be sure that it will be properly secured. At deployment time, the company provides a security policy describing its security requirements through a set of properties. Once its infrastructure deployed, the company want to be assured that this policy is applied and enforced. But describing and enforcing security properties and getting strong evidences of it is a complex task. To address this issue, in [1], we have proposed a language that can be used to express both security and assurance properties on distributed resources. Then, we have shown how these global properties can be cut into a set of properties to be enforced locally. In this paper, we show how these local properties can be used to automatically configure security mechanisms. Our language is context-based which allows it to be easily adapted to any resource naming systems e.g., Linux and Android (with SELinux) or PostgreSQL. Moreover, by abstracting low-level functionalities (e.g., deny write to a file) through capabilities, our language remains independent from the security mechanisms. These capabilities can then be combined into security and assurance properties in order to provide high-level functionalities, such as confidentiality or integrity. Furthermore, we propose a global architecture that receives these properties and automatically configures the security and assurance mechanisms accordingly. Finally, we express the security and assurance policies of an industrial environment for a commercialized product and show how its security is enforced.
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在云环境中执行安全和保证属性
在将基础设施(资源、数据、通信)部署到云计算平台之前,公司希望确保它将得到适当的保护。在部署时,公司通过一组属性提供描述其安全需求的安全策略。一旦部署了基础设施,公司希望确保该策略得到应用和执行。但是描述和执行安全属性并获得强有力的证据是一项复杂的任务。为了解决这个问题,在[1]中,我们提出了一种语言,可以用来表达分布式资源的安全性和保证属性。然后,我们展示了如何将这些全局属性分割成一组属性以在本地执行。在本文中,我们将展示如何使用这些本地属性来自动配置安全机制。我们的语言是基于上下文的,这使得它可以很容易地适应任何资源命名系统,例如Linux和Android(带有SELinux)或PostgreSQL。此外,通过功能抽象底层功能(例如,拒绝写入文件),我们的语言保持独立于安全机制。然后可以将这些功能组合到安全性和保证属性中,以提供高级功能,例如机密性或完整性。此外,我们提出了一个接收这些属性并相应地自动配置安全和保证机制的全局体系结构。最后,我们表达了一个商业化产品的工业环境的安全和保证政策,并展示了它的安全性是如何执行的。
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