Abstract:Mobile communications are a powerful contributor to social and economic development worldwide, including in less developed or remote parts of the world. However they are large users of electricity through their base stations, backhaul networks and Cloud servers, so that they have a large environmental impact when they use the electric grid. On the other hand, they could operate with renewable energy sources and thus reduce their CO2 impact and be accessible even in areas where the electric grid is unavailable … Show more
“…In addition, the EPN paradigms use each EP to represent the fixed amount of energy in Joules, which can also be viewed as a pulse of power that lasts a certain time [36]. The amount of energy in such an EP can be small enough to be close to the smallest energy needs of consumers [36,39,41,84], or large enough to be a significant quantity to power large energy consumers [115]. In the latest research [63,117,118], the number of jobs or data packets that can be executed by one single EP is a random variable.…”
Section: Energy Packet Network Derived From G-networkmentioning
confidence: 99%
“…The EPN approach has been used for system analysis of a backhaul multi-hop connection of a wireless mobile network with energy harvesting [39]. The data or other traffic are carried out as data packets (DPs) rather than jobs.…”
Section: The Epn Used For Mobile Network With Energy Harvestingmentioning
confidence: 99%
“…The energy packet networks (EPN) [35,39,41,63,81,84,118] is a discrete state-space modeling framework that can analyze the interaction between discrete energy flows and job flows (or packets) in a single system. Energy packets (EPs), jobs and data packets are the customer classes in the EPN.…”
As a consequence of developing information and communication technology that is playing a significant role in our society and has changed our life dramatically, we witnessed a significant increase in energy consumption in computer systems and networks. Subsequently, energy harvesting technologies with renewable energy are of great interest in the field of computer systems and networks, and thus lead to abundant research which has been carried out to address energy harvesting from different aspects. However, the majority of them focuses on wireless or small-scale networks, which left wired networks with a general structure neglected. We first present a comprehensive systemic review of the trends of overall energy consumption, and energy and quality of service optimization in computer systems and networks. Then, this paper reviews the recent research progress in G-networks and energy packet networks with renewable and intermittent energy from both the system paradigms and the performance optimization and energy reduction algorithms for the wired networks.
“…In addition, the EPN paradigms use each EP to represent the fixed amount of energy in Joules, which can also be viewed as a pulse of power that lasts a certain time [36]. The amount of energy in such an EP can be small enough to be close to the smallest energy needs of consumers [36,39,41,84], or large enough to be a significant quantity to power large energy consumers [115]. In the latest research [63,117,118], the number of jobs or data packets that can be executed by one single EP is a random variable.…”
Section: Energy Packet Network Derived From G-networkmentioning
confidence: 99%
“…The EPN approach has been used for system analysis of a backhaul multi-hop connection of a wireless mobile network with energy harvesting [39]. The data or other traffic are carried out as data packets (DPs) rather than jobs.…”
Section: The Epn Used For Mobile Network With Energy Harvestingmentioning
confidence: 99%
“…The energy packet networks (EPN) [35,39,41,63,81,84,118] is a discrete state-space modeling framework that can analyze the interaction between discrete energy flows and job flows (or packets) in a single system. Energy packets (EPs), jobs and data packets are the customer classes in the EPN.…”
As a consequence of developing information and communication technology that is playing a significant role in our society and has changed our life dramatically, we witnessed a significant increase in energy consumption in computer systems and networks. Subsequently, energy harvesting technologies with renewable energy are of great interest in the field of computer systems and networks, and thus lead to abundant research which has been carried out to address energy harvesting from different aspects. However, the majority of them focuses on wireless or small-scale networks, which left wired networks with a general structure neglected. We first present a comprehensive systemic review of the trends of overall energy consumption, and energy and quality of service optimization in computer systems and networks. Then, this paper reviews the recent research progress in G-networks and energy packet networks with renewable and intermittent energy from both the system paradigms and the performance optimization and energy reduction algorithms for the wired networks.
“…Motivated by these considerations, recent work has developed the energy packet network (EPN) paradigm [30]- [32], which is a discrete state-space modeling framework based on G-networks [33], which have a broad range of applications [34], [35] and can be used for evaluating both performance and energy consumption in a system where computer jobs, data in the form of packets, and energy represented by energy packets (EPs), interact in a complex, interconnected computer-communication system. This approach uses queuing theory, so that the joint behavior of discretized energy flows and the flows of computer jobs and data are analyzed within a single model.…”
Section: Introductionmentioning
confidence: 99%
“…This approach uses queuing theory, so that the joint behavior of discretized energy flows and the flows of computer jobs and data are analyzed within a single model. It was recently used for the analysis of the backhaul of mobile networks operating with intermittent renewable energy [36]. In previous work [37]- [39] optimization algorithms were developed on the basis of queuing networks, to dispatch network packets and minimize composite cost functions combining overall network energy consumption and QoS.…”
We investigate how the flow of energy and the flow of jobs in a service system can be used to minimize the average response time to jobs that arrive according to random arrival processes at the servers. An interconnected system of workstations (WSs) and energy storage (ES) units that are fed with randomly arriving harvested energy is analyzed by means of the energy packet network (EPN) model. The system state is discretized and uses discrete units to represent the backlog of jobs at the WSs and the amount of energy that is available at the ES units. An energy packet (EP), which is the unit of energy, can be used to process one or more jobs at a WS, and an EP can also be expended to move a job from one WS to another one. The system is modeled as a probabilistic network that has a product-form solution for the equilibrium probability distribution of system state. The EPN model is used to solve two problems related to using the flow of energy and jobs in a multiserver system, so as to minimize the average response time experienced by the jobs that arrive at the system.
This article summarizes briefly the contributions presented in this EuroCyberSecurity Workshop 2021 which is organized as part of the series of International Symposia on Computer and Information Sciences (ISCIS), with the support of the European Commission funded IoTAC Project, that was held on November and in NIce, France, and sponsored by the Institute of Teoretical and Applied Informatics of the Polish Academy of Sciences. It also summarizes some of the research contributions of several EU Projects including NEMESYS, GHOST, KONFIDO, SDK4ED and IoTAC, primarily with a cybersecurity and Machine Learning orientation. Thus subjects covered include the cybersecurity of Mobile Networks and of the Internet of Things (IoT), the design of IoT Gateways and their performance, the security of networked health systems that provide health services to individuals across the EU Member states, as well as the issues of energy consumption by ICT which are becoming increasingly important, including in the cybersecurity perspective, as we focus increasingly on climate change and the needed transition towards highly reduced emissions. Many of the techniques and results discussed in this article are based either on Machine Learning (ML) methods, or on methods for the performance modeling and optimization of networked and distributed computer systems.
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