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      KCI등재 SCIE SCOPUS

      Propagation Loss Model for Neighborhood Area Networks in Smart Grids

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      https://www.riss.kr/link?id=A108510895

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      다국어 초록 (Multilingual Abstract)

      Currently the power sector is striving for theefficient utilization of its generation capabilities in existingdistributed energy networks. In future smart grids, applicationslike automated meter reading, direct load control with demandside management,...

      Currently the power sector is striving for theefficient utilization of its generation capabilities in existingdistributed energy networks. In future smart grids, applicationslike automated meter reading, direct load control with demandside management, and charging points for electric vehicles inmultistory parking plazas will pose a strong communicationchallenge to the RF planners. One of the main objectives isto design a realistic link budget for outdoor-to-deep-indoorwireless communication scenarios while utilizing the existinggrid infrastructure. This paper presents a realistic two-slopeempirical path loss model to predict power requirements for thewireless link between smart meters in prosumer premises andremote utility/grid devices presumably available in near vicinity.
      The proposed model is based on measurements performed overthree sub-gigahertz frequency bands (200 MHz, 434 MHz, and868 MHz) and the 2.4 GHz band. It supports outside, inside andin-basement deployment of the smart meter communication unit.

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      참고문헌 (Reference) 논문관계도

      1 "WINNER II Channel Models - Deliverable 1.1.2, Part I and II"

      2 "Study on channel model for frequencies from 0.5 to 100 GHz" ETSI, 3GPP 2018

      3 B. Holfeld, "Smart grid communications: LTE outdoor field trials at 450 MHz" 2015

      4 R. M. Sandoval, "Radio-channel characterization of smart grid substations in the 2. 4-GHz ISM band" 16 (16): 1294-1307, 2017

      5 C. Sun-Kuk, "Propagation model in indoor and outdoor for the LTE communications" 6-, 2019

      6 J. C. Silva, "Propagation model for path loss through vegetated environments at 700 . 800 MHz band" 17 : 179-187, 2018

      7 "Propagation data and prediction methods for the planning of short-range outdoor radiocommunication systems and radio local area networks in the frequency range 300 MHz to 100 GHz" ITU-R 2019

      8 "Propagation data and prediction methods for the planning of short-range outdoor radiocommunication systems and radio local area networks in the frequency range 300 MHz to 100 GHz" ITU-R 2009

      9 "Propagation data and prediction methods for the planning of indoor radiocommunication systems and radio local area networks in the frequency range 900 MHz to 100 GHz" ITU-R 2003

      10 "Propagation data and prediction methods for the planning of indoor radiocommunication systems and radio local area networks in the frequency range 300 MHz to 450 GHz" ITU-R 2019

      1 "WINNER II Channel Models - Deliverable 1.1.2, Part I and II"

      2 "Study on channel model for frequencies from 0.5 to 100 GHz" ETSI, 3GPP 2018

      3 B. Holfeld, "Smart grid communications: LTE outdoor field trials at 450 MHz" 2015

      4 R. M. Sandoval, "Radio-channel characterization of smart grid substations in the 2. 4-GHz ISM band" 16 (16): 1294-1307, 2017

      5 C. Sun-Kuk, "Propagation model in indoor and outdoor for the LTE communications" 6-, 2019

      6 J. C. Silva, "Propagation model for path loss through vegetated environments at 700 . 800 MHz band" 17 : 179-187, 2018

      7 "Propagation data and prediction methods for the planning of short-range outdoor radiocommunication systems and radio local area networks in the frequency range 300 MHz to 100 GHz" ITU-R 2019

      8 "Propagation data and prediction methods for the planning of short-range outdoor radiocommunication systems and radio local area networks in the frequency range 300 MHz to 100 GHz" ITU-R 2009

      9 "Propagation data and prediction methods for the planning of indoor radiocommunication systems and radio local area networks in the frequency range 900 MHz to 100 GHz" ITU-R 2003

      10 "Propagation data and prediction methods for the planning of indoor radiocommunication systems and radio local area networks in the frequency range 300 MHz to 450 GHz" ITU-R 2019

      11 "Prediction of building entry loss" ITU-R 2019

      12 M. Stotzer, "Potential of demand side integration to maximize use of renewable energy sources in Germany" 146 : 344-352, 2015

      13 H. Klaina, "Narrowband characterization of near-ground radio channel for wireless sensors networks at 5G-IoT bands" 18 (18): 2018

      14 L. Mariam, "Microgrid: Architecture, policy and future trends" 64 : 477-489, 2016

      15 W. Xu, "Measurement, characterization and modeling of LoRa technology in multi-floor buildings" 1-, 2019

      16 S. Rauh, "Long-term LPWAN sub-GHz deep indoor-to-outdoor channel model" 2019

      17 R. El Chall, "LoRaWAN network: Radio propagation models and performance evaluation in various environments in lebanon" 6 (6): 2366-, 2019

      18 K. M. Malarski, "Investigation of deep indoor NB-IoT propagation attenuation" 2019

      19 H. Lieske, "Indoor-to-outdoor radio channel measurements in sub-GHz unlicensed frequency bands" 1-9, 2015

      20 S. Salous, "Inclusive Radio Commun" Academic Press 49-105, 2021

      21 R. M. Sandoval, "Improving RSSI-based path-loss models accuracy for critical infrastructures : A smart grid substation case-study" 14 (14): 2230-2240, 2018

      22 R. Porat, "IEEE P802.11 Wireless LANs:TGah Channel Model . Proposed Text Rev. 4" IEEE 2015

      23 L. d. M. B. A. Dib, "Hybrid PLC/wireless communication for smart grids and internet of things applications" 5 (5): 655-667, 2018

      24 A. Kulmala, "Hierarchical and distributed control concept for distribution network congestion management" 11 (11): 665-675, 2017

      25 F. N. N. Roadmap, "From network to system; 2017 . 2021 network development timetable"

      26 H. Fruh, "Field-test based comparison of LTE and PLC communication technologies for smart grid applications" 2020

      27 J. A. Cortes, "Feasibility study of power line communications for backhauling outdoor small cells" 30 : 30 135-30 153, 2021

      28 Y. S. Meng, "Empirical near ground path loss modeling in a forest at VHF and UHF bands" 57 (57): 1461-1468, 2009

      29 O. N. Anthony, "Empirical model of cellular signal propagation loss for smart grid environment" 5 (5): 272-279, 2016

      30 D.-W. Kim, "Empirical analysis of building entry loss from outside of office building with large lobby into a basement at 1.5 and 3 GHz" 1-, 2021

      31 "Effects of building materials and structures on radiowave propagation above about 100 MHz - P Series - Radiowave propagation" ITU-R 2015

      32 F. Heimgaertner, "Distributed controller communication in virtual power plants using smart meter gateways" 1-6, 2018

      33 "Compilation of measurement data relating to building entry loss" ITU-R 2019

      34 V. S. Abhayawardhana, "Comparison of empirical propagation path loss models for fixed wireless access systems" 2005

      35 European Union, "Communication from the commission to the European parliament - A clean planet for all - A European strategic long-term vision for a prosperous, modern, competitive and climate neutral economy"

      36 L. Ferreira, "Characterisation of signal penetration into buildings for GSM and UMTS" 2006

      37 J. Huang, "Channel measurements and modeling for 400.600-MHz bands in urban and suburban scenarios" 8 (8): 5531-5543, 2021

      38 C. Phillips, "Bounding the practical error of path loss models" 2012 : 1-12, 2012

      39 F. Fuschini, "Analysis of outdoor-to-indoor propagation at 169 MHz for smart metering applications" 63 (63): 1811-1821, 1821

      40 B. Kroposki, "Achieving a 100% renewable grid : Operating electric power systems with extremely high levels of variable renewable energy" 15 (15): 61-73, 2017

      41 M. Pasetti, "A virtual power plant architecture for the demand-side management of smart prosumers" 8 (8): 2018

      42 T. K. Sarkar, "A survey of various propagation models for mobile communication" 45 (45): 51-, 2003

      43 M. Kacou, "A multi-wall and multi-frequency home environment path loss characterization and modeling" 2018

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