Design and implementation of fault-tolerance on lightweight home networking middleware

Author(s):  
Kwangman Koh ◽  
Minseok Pyo ◽  
Hojae Hyun ◽  
Sunyoung Han
Author(s):  
Edvard Martins Oliveira ◽  
Julio Cezar Estrella ◽  
Bruno Tardiole Kuehne ◽  
Dionisio Machado Leite Filho ◽  
Lucas Junqueira Adami ◽  
...  

2021 ◽  
Vol 2078 (1) ◽  
pp. 012080
Author(s):  
Fukang Xing ◽  
Zheng Zhang ◽  
Bolin Ma ◽  
Bingzheng Li

Abstract In order to solve the increasing attacks on container file system and the IO errors of containers in big data processing scenarios in cloud computing environment, a scheme based on the idea of heterogeneous redundancy in endogenous security and transformation of container union file system was proposed to improve the security and fault tolerance of containers. Based on the above scheme, experiments are carried out on Docker, the most popular container technology, and OverlayFS, the most representative union file system. The experimental results show that this scheme can improve the security and fault tolerance of containers on the premise of ensuring availability, and realize the endogenous security of containers.


Author(s):  
I-LING YEN ◽  
IFTIKHAR AHMED ◽  
RAMANUJAM JAGANNATH ◽  
SREEPARNA KUNDU

While there have been significant advances in fault tolerance research, the effort has focused on the design of individual fault-tolerant systems or methodologies. Recently, some research has been initiated to develop techniques that can provide a spectrum of fault tolerance capabilities. In this paper, we present the design of a fault tolerance framework that can support a wide range of applications with various fault tolerance requirements, various criticality levels, and various system models. The framework is designed to be parameterizable so that the user can configure it to obtain the desired features. Also, the framework is designed to be an off-the-shelf component such that application programs can be integrated within it easily to obtain the fault-tolerant version of the application system. A specialized N-modular redundancy (SNMR) scheme has been developed to serve as the primary approach for achieving efficient and cost-effective fault tolerance for the framework. In most cases, the SNMR scheme yields better performance and lower cost in providing fault tolerance as compared with conventional NMR schemes. It also enhances the scalability and customizability of the general replication method. This paper discusses the main issues in the design and implementation of the SNMR framework, including the major concept of the SNMR framework, various SNMR algorithms that tolerate various types of faults, an object-oriented overall system design and the interface protocol class hierarchy. The interface protocol class hierarchy provides a nice paradigm for the implementation of customizable, highly reusable, and easily extensible SNMR framework.


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