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On the steady-state of cache networks

Over the past few years Content-Centric Networking, a networking model in which host-to-content communication protocols are introduced, has been gaining much attention. A central component of such an architecture is a large-scale interconnected caching system. To date, the way these Cache Networks o...

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Main Authors: Rosensweig, Elisha J., Menasche, Daniel S., Kurose, Jim
Format: Conference Proceeding
Language:English
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Menasche, Daniel S.
Kurose, Jim
description Over the past few years Content-Centric Networking, a networking model in which host-to-content communication protocols are introduced, has been gaining much attention. A central component of such an architecture is a large-scale interconnected caching system. To date, the way these Cache Networks operate and perform is still poorly understood. In this work, we demonstrate that certain cache networks are non-ergodic in that their steady-state characterization depends on the initial state of the system. We then establish several important properties of cache networks, in the form of three independently-sufficient conditions for a cache network to comprise a single ergodic component. Each property targets a different aspect of the system - topology, admission control and cache replacement policies. Perhaps most importantly we demonstrate that cache replacement can be grouped into equivalence classes, such that the ergodicity (or lack-thereof) of one policy implies the same property holds for all policies in the class.
doi_str_mv 10.1109/INFCOM.2013.6566874
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subjects Admission control
Delays
Markov processes
Network topology
Routing
Steady-state
Topology
title On the steady-state of cache networks
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