2018
DOI: 10.1016/j.ipm.2018.01.010
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A survey towards an integration of big data analytics to big insights for value-creation

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Cited by 302 publications
(161 citation statements)
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“…Big Data characteristics have been originally defined by the 3Vs criteria (Volume, Variety and Veracity), then this vision has been extended over years and now often described using 7 criteria [32,33] that we highlight in the Table 1.…”
Section: Big Data Characteristicsmentioning
confidence: 99%
“…Big Data characteristics have been originally defined by the 3Vs criteria (Volume, Variety and Veracity), then this vision has been extended over years and now often described using 7 criteria [32,33] that we highlight in the Table 1.…”
Section: Big Data Characteristicsmentioning
confidence: 99%
“…The category includes deep learning. Hence, it is a subset of AI in which machine they get improved kind of decision making experience depending upon the training or the data they have and it is based upon deep learning [36]. The main challenges of machine learning are: generative vs discriminative learning, beyond classification and regression, learning from non-vectorial data, machine learning bottlenecks, intelligible models, combining learning methods, distributed data mining, unsupervised learning comes of age, and more informed information access.…”
Section: Challenges and Opportunities Of Big Data And Machine Learninmentioning
confidence: 99%
“…According to literature review, ICT is an essential component in smart city governance to gain necessary intelligence that provides basis for evidence‐based decision‐making. At the core of ICT based solutions are three main components: (i) data collection through sensors, Internet‐of‐Things, smart phones, remote sensing (e.g., satellite or in‐situ) and city databases; (ii) data processing and/or pre‐processing (e.g., filtering, data quality and format translations); (iii) data analysis using machine learning, data mining and other statistical algorithms to generate new knowledge in various cross‐thematic applications such as mobility (Docherty, Marsden, & Anable, ; Peters‐Anders et al, ; Rathore et al,), energy (Antonić, Marjanović, Pripužić, & Žarko, ; Carli, Albino, Dotoli, Mummolo, & Savino, ; Silva, Khan, & Han, ), health (Anisetti et al, ; Farahani et al, ), environment (Antonić et al, ), public services (Pérez‐González & Díaz‐Díaz, ; Zhang et al, ), economy (Chatfield & Reddick, ; Saggi & Jain, ; Zaman et al, ), waste management (Digiesi, Facchini, Mossa, Mummolo, & Verriello, ), social analysis (Kousiouris et al, ; Terroso‐Saenz, Gonzalez‐Vidal, Cuenca‐Jara, & Skarmeta, ), waste water management (Edmondson et al, ), urban planning (Eirinaki et al, ; Pettit et al, ; Rathore, Ahmad, Paul, & Rho, ), tourism and cultural heritage (Sun, Song, Jara, & Bie, ), buildings (Linder, Vionnet, Bacher, & Hennebert, ), agriculture (Kamilaris, Gao, Prenafeta‐Boldu, & Ali, ), emergency response (Abu‐Elkheir, Hassanein, & Oteafy, ), etc. The above three components—with some variations—are common among the most of smart city data analytics literature for example, Zhang et al (); Khan et al (); Rathore et al ().…”
Section: Big Data Analytics In Smart Citiesmentioning
confidence: 99%