Smart Cities Big Data Algorithms for Sensors Location

被引:8
|
作者
Estrada, Elsa [1 ]
Martinez Vargas, Martha Patricia [2 ]
Gomez, Judith [2 ]
Perez Negron, Adriana Pena [1 ]
Lara Lopez, Graciela [1 ]
Maciel, Rocio [2 ]
机构
[1] Univ Guadalajara, Comp Sci Dept, CUCEI, Guadalajara 44430, Jalisco, Mexico
[2] Univ Guadalajara, Informat Syst Dept, CUCEA, Guadalajara 45100, Jalisco, Mexico
来源
APPLIED SCIENCES-BASEL | 2019年 / 9卷 / 19期
关键词
smart cities; machine learning; big data; data analysis; sensors; Internet of Things;
D O I
10.3390/app9194196
中图分类号
O6 [化学];
学科分类号
0703 ;
摘要
Featured Application Data sensors for Smart Cities are an important component in the extraction of patterns-thus, they must be placed in strategic locations where they are able to provide information as accurate as possible. Abstract A significant and very extended approach for Smart Cities is the use of sensors and the analysis of the data generated for the interpretation of phenomena. The proper sensor location represents a key factor for suitable data collection, especially for big data. There are different methodologies to select the places to install sensors. Such methodologies range from a simple grid of the area to the use of complex statistical models to provide their optimal number and distribution, or even the use of a random function within a set of defined positions. We propose the use of the same data generated by the sensor to locate or relocate them in real-time, through what we denominate as a 'hot-zone', a perimeter with significant data related to the observed phenomenon. In this paper, we present a process with four phases to calculate the best georeferenced locations for sensors and their visualization on a map. The process was applied to the Guadalajara Metropolitan Zone in Mexico where, during the last twenty years, air quality has been monitored through sensors in ten different locations. As a result, two algorithms were developed. The first one classifies data inputs in order to generate a matrix with frequencies that works along with a matrix of territorial adjacencies. The second algorithm uses training data with machine learning techniques, both running in parallel modes, in order to diagnose the installation of new sensors within the detected hot-zones.
引用
收藏
页数:14
相关论文
共 50 条
  • [1] Big Data for smart cities; [Big Data für Smart Cities]
    Fasel D.
    [J]. Informatik-Spektrum, 2017, 40 (1) : 14 - 24
  • [2] Big Data for smart cities
    Big Data für Smart Cities
    [J]. Fasel, Daniel, 1600, Springer Verlag (40):
  • [3] Big data in smart cities
    LI DeRen
    CAO JianJun
    YAO Yuan
    [J]. Science China(Information Sciences), 2015, 58 (10) : 179 - 190
  • [4] Smart cities, big data
    Batty, Michael
    [J]. ENVIRONMENT AND PLANNING B-PLANNING & DESIGN, 2012, 39 (02): : 191 - 193
  • [5] Big data in smart cities
    Li DeRen
    Cao JianJun
    Yao Yuan
    [J]. SCIENCE CHINA-INFORMATION SCIENCES, 2015, 58 (10) : 1 - 12
  • [6] Big Data Analytics for Smart Cities
    Cerquitelli, Tania
    Migliorini, Sara
    Chiusano, Silvia
    [J]. ELECTRONICS, 2021, 10 (12)
  • [7] Big Data Applications in Smart Cities
    Alshawish, Raja A.
    Alfagih, Salma A. M.
    Musbah, Mohamed S.
    [J]. 2016 INTERNATIONAL CONFERENCE ON ENGINEERING & MIS (ICEMIS), 2016,
  • [8] Smart cities will need big data
    Kramer, David
    [J]. PHYSICS TODAY, 2013, 66 (09) : 19 - 20
  • [9] Applications of big data to smart cities
    Al Nuaimi, Eiman
    Al Neyadi, Hind
    Mohamed, Nader
    Al-Jaroodi, Jameela
    [J]. JOURNAL OF INTERNET SERVICES AND APPLICATIONS, 2015, 6 : 1 - 15
  • [10] Big Data for Smart Grid Operation in Smart Cities
    Nandury, Satyanarayana V.
    Begum, Beneyaz A.
    [J]. 2017 2ND IEEE INTERNATIONAL CONFERENCE ON WIRELESS COMMUNICATIONS, SIGNAL PROCESSING AND NETWORKING (WISPNET), 2017, : 1507 - 1511