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      SCIE SCOPUS KCI등재

      Optimization of Energy Consumption in the Mobile Cloud Systems = Optimization of Energy Consumption in the Mobile Cloud Systems

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      https://www.riss.kr/link?id=A103334194

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      다국어 초록 (Multilingual Abstract)

      We investigate the optimization of energy consumption in Mobile Cloud environment in this paper. In order to optimize the energy consumed by the CPUs in mobile devices, we put forward using the asymptotic time complexity (ATC) method to distinguish the computational complexities of the applications when they are executed in mobile devices. We propose a multi-scale scheme to quantize the channel gain and provide an improved dynamic transmission scheduling algorithm when offloading the applications to the cloud center, which has been proved to be helpful for reducing the mobile devices energy consumption. We give the energy estimation methods in both mobile execution model and cloud execution model. The numerical results suggest that energy consumed by the mobile devices can be remarkably saved with our proposed multi-scale scheme. Moreover, the results can be used as a guideline for the mobile devices to choose whether executing the application locally or offloading it to the cloud center.
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      We investigate the optimization of energy consumption in Mobile Cloud environment in this paper. In order to optimize the energy consumed by the CPUs in mobile devices, we put forward using the asymptotic time complexity (ATC) method to distinguish th...

      We investigate the optimization of energy consumption in Mobile Cloud environment in this paper. In order to optimize the energy consumed by the CPUs in mobile devices, we put forward using the asymptotic time complexity (ATC) method to distinguish the computational complexities of the applications when they are executed in mobile devices. We propose a multi-scale scheme to quantize the channel gain and provide an improved dynamic transmission scheduling algorithm when offloading the applications to the cloud center, which has been proved to be helpful for reducing the mobile devices energy consumption. We give the energy estimation methods in both mobile execution model and cloud execution model. The numerical results suggest that energy consumed by the mobile devices can be remarkably saved with our proposed multi-scale scheme. Moreover, the results can be used as a guideline for the mobile devices to choose whether executing the application locally or offloading it to the cloud center.

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      참고문헌 (Reference)

      1 B. Ahmed, "Simulation of 20 GHz Narrow Band Mobile Propagation Data Using N-States Markov Channel Modeling Approach" 2 : 48-53, 1997

      2 P. B. Si, "QoS-aware dynamic resource management in heterogeneous mobile cloud computing networks" 11 (11): 144-159, 2014

      3 T. Burd, "Processor design for portable systems" 13 (13): 203-222, 1996

      4 B. Liu, "Performance analysis of embedded speech recognition system" 29 (29): 52-55, 2008

      5 E. Uysal, "On Adaptive transmission for energy-efficiency in wireless data networks" 50 (50): 3081-3094, 2004

      6 R. Kumer, "Mobile Cloud Computing: Standard Approach to Protecting and Securing of Mobile Cloud Ecosystems" 663-669, 2013

      7 Z. F. Murtaza, "Minimum Energy Transmission over a Wireless Fading Channel with Packet Deadlines" 1148-1155, 2007

      8 Y. Chen, "Fundamental trade-offs on green wireless networks" 49 (49): 30-37, 2011

      9 P. Rong, "Extending the lifetime of a Network of battery-powered mobile devices by remote processing: a Markova decision-based approach" 906-911, 2003

      10 M. Zorzi, "Error statistics in data transmission over fading channels" 46 (46): 1468-1477, 1998

      1 B. Ahmed, "Simulation of 20 GHz Narrow Band Mobile Propagation Data Using N-States Markov Channel Modeling Approach" 2 : 48-53, 1997

      2 P. B. Si, "QoS-aware dynamic resource management in heterogeneous mobile cloud computing networks" 11 (11): 144-159, 2014

      3 T. Burd, "Processor design for portable systems" 13 (13): 203-222, 1996

      4 B. Liu, "Performance analysis of embedded speech recognition system" 29 (29): 52-55, 2008

      5 E. Uysal, "On Adaptive transmission for energy-efficiency in wireless data networks" 50 (50): 3081-3094, 2004

      6 R. Kumer, "Mobile Cloud Computing: Standard Approach to Protecting and Securing of Mobile Cloud Ecosystems" 663-669, 2013

      7 Z. F. Murtaza, "Minimum Energy Transmission over a Wireless Fading Channel with Packet Deadlines" 1148-1155, 2007

      8 Y. Chen, "Fundamental trade-offs on green wireless networks" 49 (49): 30-37, 2011

      9 P. Rong, "Extending the lifetime of a Network of battery-powered mobile devices by remote processing: a Markova decision-based approach" 906-911, 2003

      10 M. Zorzi, "Error statistics in data transmission over fading channels" 46 (46): 1468-1477, 1998

      11 Y. W. Choi, "Energy-optimal distributed algorithms for minimum spanning trees" 27 (27): 1297-1304, 2009

      12 W. H. Yuan, "Energy-efficient soft real-time CPU scheduling for mobile multimedia applications" 24 (24): 292-331, 2003

      13 J. Lee, "Energy-efficient scheduling of delay constrained traffic over fading channels" 8 (8): 1866-1875, 2009

      14 W. W. Zhang, "Energy-Optimal Mobile Cloud Computing under Stochastic Wireless Channel" 12 (12): 4569-4581, 2013

      15 M. Rahman, "Energy saving in mobile cloud computing" 285-291, 2013

      16 A. P. Miettinen, "Energy efficiency of mobile clients in cloud computing"

      17 M. Yang, "Energy Minimization via Dynamic Voltage Scaling for Real-Time Video Encoding on Mobile Devices" 2026-2031, 2012

      18 Z. Jiang, "Energy Delay Tradeoff in Cloud Offloading for Multi-Core Mobile Devices" 3 : 2306-2316, 2015

      19 Z. Jiang, "Energy Delay Trade-Off in Cloud Offloading for Mutli-Core Mobile Devices" 1-6, 2015

      20 S. Moshe, "Dynamic Programming: Foundations and Principles" CRC Press Inc 2010

      21 J. M. Rabaey, "Digital Integrated Circuits" Prentice Hall 1996

      22 S. Barbarossa, "Computation Offloading Strategies based on Energy Minimization under Computational Rate Constraints" 1-5, 2014

      23 R. A. Berry, "Communication over fading channels with delay constraints" 48 (48): 1135-1149, 2002

      24 K. Kumar, "Cloud computing for mobile users : can offloading computation save energy?" 43 (43): 51-56, 2010

      25 W. Lee, "Analyzing Extent and Influence of Mobile Device’s Participation in Mobile Cloud Computing" 767-772, 2013

      26 Q. Li, "An embedded software power model on algorithm complexity using back-propagation neural networks" 454-459, 2010

      27 Clifford A. Shaffer, "A practical introduction to data structures and algorithm analysis, Edition 3.2 (C++ Version)" Blacksburg 2011

      28 H. C. Yang, "A hierarchical Markov model for wireless shadowed fading channels" 2 : 640-644, 2002

      29 D. Dev, "A Review and Research Towards Mobile Cloud Computing" 252-256, 2014

      30 Z. H. Guo, "A Crosslayer Design with power control and AMC for Sub-band Based OFDM System" 1-6, 2006

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      학술지 이력

      학술지 이력
      연월일 이력구분 이력상세 등재구분
      학술지등록 한글명 : KSII Transactions on Internet and Information Systems
      외국어명 : KSII Transactions on Internet and Information Systems
      2023 평가예정 해외DB학술지평가 신청대상 (해외등재 학술지 평가)
      2020-01-01 평가 등재학술지 유지 (해외등재 학술지 평가) KCI등재
      2013-10-01 평가 등재학술지 선정 (기타) KCI등재
      2011-01-01 평가 등재후보학술지 유지 (기타) KCI등재후보
      2009-01-01 평가 SCOPUS 등재 (신규평가) KCI등재후보
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      학술지 인용정보

      학술지 인용정보
      기준연도 WOS-KCI 통합IF(2년) KCIF(2년) KCIF(3년)
      2016 0.45 0.21 0.37
      KCIF(4년) KCIF(5년) 중심성지수(3년) 즉시성지수
      0.32 0.29 0.244 0.03
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