Big Data (R)evolution in Geography: Complexity Modelling in the Last Two Decades

ABSTRACT The use of data and statistics along with computational systems heralded the beginning of a quantitative revolution in Geography. Use of simulation models (Cellular Automata and Agent‐Based Models) followed in the late 1990s, with ontology and epistemology of complexity theory and modelling being defined a little less than two decades ago. We are, however, entering a new era where sensors regularly collect and update large amounts of spatio‐temporal data. We define this ‘Big Data’ as geolocated data collected in sufficiently high volume (exceeding storage capacities of the largest personal hard drives currently available), that is updated at least daily, from a variety of sources in different formats, often without recourse to verification of its accuracy. We then identify the exponential growth in the use of complexity simulation models in the past two decades via an extensive literature review (broken down by application area), but also notice a recent slowdown. Further, a gap in the utilisation of Big Data by modellers to calibrate and validate their models is noted, which we attribute to data availability issues. We contend that Big Data can significantly boost simulation modelling, if certain constraints and issues are managed properly.

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Publication Details

Journal
Geography Compass
Published
2024-11-01
DOI
https://doi.org/10.1111/gec3.70009
Citations
3
Primary Topic
Human Mobility and Location-Based Analysis
Type
article
Field-Weighted Citation Impact
2.05

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article

Big Data (R)evolution in Geography: Complexity Modelling in the Last Two Decades

Liliana Pérez, Raja Sengupta
3 citations
Geography Compass
Human Mobility and Location-Based Analysis
2.05
article

Big Data (R)evolution in Geography: Complexity Modelling in the Last Two Decades

Liliana Pérez, Raja Sengupta
article en
3 citations

Abstract

ABSTRACT The use of data and statistics along with computational systems heralded the beginning of a quantitative revolution in Geography. Use of simulation models (Cellular Automata and Agent‐Based Models) followed in the late 1990s, with ontology and epistemology of complexity theory and modelling being defined a little less than two decades ago. We are, however, entering a new era where sensors regularly collect and update large amounts of spatio‐temporal data. We define this ‘Big Data’ as geolocated data collected in sufficiently high volume (exceeding storage capacities of the largest personal hard drives currently available), that is updated at least daily, from a variety of sources in different formats, often without recourse to verification of its accuracy. We then identify the exponential growth in the use of complexity simulation models in the past two decades via an extensive literature review (broken down by application area), but also notice a recent slowdown. Further, a gap in the utilisation of Big Data by modellers to calibrate and validate their models is noted, which we attribute to data availability issues. We contend that Big Data can significantly boost simulation modelling, if certain constraints and issues are managed properly.

Geography CompassVol. 18(11)
McGill University (CA), Université de Montréal (CA)
Natural Sciences and Engineering Research Council of Canada
Openalex Percentile: Top 13%
Human Mobility and Location-Based Analysis
2.05
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