2016
DOI: 10.3390/s16111813
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An Efficient Method of Sharing Mass Spatio-Temporal Trajectory Data Based on Cloudera Impala for Traffic Distribution Mapping in an Urban City

Abstract: The efficient sharing of spatio-temporal trajectory data is important to understand traffic congestion in mass data. However, the data volumes of bus networks in urban cities are growing rapidly, reaching daily volumes of one hundred million datapoints. Accessing and retrieving mass spatio-temporal trajectory data in any field is hard and inefficient due to limited computational capabilities and incomplete data organization mechanisms. Therefore, we propose an optimized and efficient spatio-temporal trajectory… Show more

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Cited by 7 publications
(5 citation statements)
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References 35 publications
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“…The offering table stores the organization information, including the organization name, phenomenon name and sensor information, and the featureOfInterest table stores the spatial arrangement of observations, including the name and coordinates encoded within the GeoJson data type. The data tables are different from others, such as the data table in The Hadoop Distributed File System [ 33 ] and are shown as follows: UFObservation table: Stores the unfiltered observation information when the sensors finish observation, including the observation time, spatial range of the observation and the observation result. FObservation table: Stores the filtered observation information when the sensors finish observation, including the observation time, spatial range of the observation and the observation result.…”
Section: Methodsmentioning
confidence: 99%
“…The offering table stores the organization information, including the organization name, phenomenon name and sensor information, and the featureOfInterest table stores the spatial arrangement of observations, including the name and coordinates encoded within the GeoJson data type. The data tables are different from others, such as the data table in The Hadoop Distributed File System [ 33 ] and are shown as follows: UFObservation table: Stores the unfiltered observation information when the sensors finish observation, including the observation time, spatial range of the observation and the observation result. FObservation table: Stores the filtered observation information when the sensors finish observation, including the observation time, spatial range of the observation and the observation result.…”
Section: Methodsmentioning
confidence: 99%
“…Araştırmacılar bu ürünü koordinat verilerini almak, Taiyuan'daki trafik veri akışını haritalamak, trafik planlamasını yapmak, planlama ve davranış yönetimi gibi faaliyetler için akıllı toplu taşıma sistemlerinde bu haritalamanın kullanışlılığını arttırmak için kullanmışladır (Zhou, Chen, Yuan ve Chen, 2016). Şekil 2'de klasik ve modern CRISP-DM yaklaşımının gösterimine (veri madenciliği için çapraz endüstri standart süreci) yer verilmiştir.…”
Section: Araştirma Yöntemi̇ Ve Bulgularunclassified
“…The Sensor Observation Service (SOS) standard that has been defined by OGC provides the specifications for the required operations and has been implemented by various programming languages and application frameworks [33]. It should be noted that considerations regarding performance issues emerge when handling mass spatio-temporal data; thus, research interest regarding the use of cutting edge technologies is under discussion (e.g., applications based on NoSQL, MongoDB or the SQL Cloudera Impala engine [34,35]). …”
Section: Sensor Observation Service: Observation Visualizationmentioning
confidence: 99%