Association between land use features and changes in walking patterns from pre-pandemic to post-pandemic: A case study of city of Sydney (2013–2023)

Fatemeh Nourmohammadi

University of New South Wales

Zahra Nourmohammadi

University of New South Wales

Tanapon Lilasathapornkit

University of New South Wales

Meead Saberi

University of New South Wales

DOI: https://doi.org/10.5198/jtlu.2024.2511

Keywords: Pedestrian, Walking, Pandemic, Land use, Sydney


Abstract

While the impact of the pandemic on active mobility patterns is widely studied in several cities, the underlying characteristics that describe the heterogeneity in changes in active mobility are less understood. This is particularly important for post-pandemic active mobility planning. This study aims to investigate and describe the association between urban population and land-use features, as well as changes in the spatio-temporal patterns of walking from pre-pandemic to post-pandemic through a case study of the city of Sydney, Australia, using 11 years of pedestrian count data from 2013 to 2023. The findings indicate that during the pandemic, the average daily pedestrian traffic in Sydney decreased significantly compared to the pre-pandemic period. However, since experiencing the lowest pedestrian traffic in 2020, activities in the study area have shown signs of partial recovery, with a 51% increase observed in 2023. The observed changes in pedestrian activities are, however, spatially heterogeneous. Modeling results reveal that areas with greater commercial land use, more points of interest (POIs), higher population density, and higher network connectivity experienced a significant negative change in the number of walking trips from the pre-pandemic to the pandemic period. Areas with higher percentages of educational and residential use and with higher personal income experienced smaller changes in pedestrian activities during the pandemic compared to the pre-pandemic period. During the post-pandemic recovery, the influential features remain mostly unchanged; however, the association direction is the opposite.


References

Aghabozorgi, Saeed, Ali Seyed Shirkhorshidi, and Teh Ying Wah. 2015. Time-series clustering–a decade review, Information systems, 53: 16-38.

Angel, A., Cohen, A., Dalyot, S., & Plaut, P. 2023. Impact of COVID-19 policies on pedestrian traffic and walking patterns. Environment and Planning B: Urban Ana-lytics and City Science, 50(5): 1178-1193.

Bishop, Christopher M, and Nasser M Nasrabadi. 2006. Pattern recognition and ma-chine learning (Springer).

Borkowski, Przemysław, Magdalena Jażdżewska-Gutta, and Agnieszka Szmelter-Jarosz. 2021. Lockdowned: Everyday mobility changes in response to COVID-19, Journal of Transport Geography, 90: 102906.

Cochran, William T, James W Cooley, David L Favin, Howard D Helms, Reginald A Kaenel, William W Lang, George C Maling, David E Nelson, Charles M Rader, and Peter D Welch. 1967. What is the fast Fourier transform?, Proceedings of the IEEE, 55: 1664-74.

Currie, Graham, Taru Jain, and Laura Aston. 2021. Evidence of a post-COVID change in travel behaviour–Self-reported expectations of commuting in Mel-bourne, Transportation Research Part A: Policy and Practice, 153: 218-34.

Delclòs-Alió, Xavier, Aaron Gutiérrez, Josep Tomàs-Porres, Guillem Vich, and Dan-iel Miravet. 2022. Walking through a pandemic: How did utilitarian walking change during COVID-19?, International Journal of Sustainable Transportation: 1-16.

Doubleday, Annie, Youngjun Choe, Tania Busch Isaksen, Scott Miles, and Nicole A Errett. 2021. How did outdoor biking and walking change during COVID-19?: A case study of three US cities, PLoS one, 16: e0245514.

Enoch, M., Monsuur, F., Palaiologou, G., Quddus, M. A., Ellis-Chadwick, F., Mor-ton, C., & Rayner, R. 2022. When COVID-19 came to town: Measuring the im-pact of the coronavirus pandemic on footfall on six high streets in England. Envi-ronment and Planning B: Urban Analytics and City Science, 49(3): 1091-1111.

Falchetta, Giacomo, and Michel Noussan. 2020. The Impact of COVID-19 on transport demand, modal choices, and sectoral energy consumption in Europe. In IAEE Energy Forum, 48-50.

Fonti, Valeria, and Eduard Belitser. 2017. Feature selection using lasso, VU Amster-dam research paper in business analytics, 30: 1-25.

Fujita, Akihiro, Claudio Feliciani, Daichi Yanagisawa, and Katsuhiro Nishinari. 2019. Traffic flow in a crowd of pedestrians walking at different speeds, Physical Review E, 99: 062307.

Gao, Jie, Carlijn BM Kamphuis, Marco Helbich, and Dick Ettema. 2020. What is neighborhood walkability? How the built environment differently correlates with walking for different purposes and with walking on weekdays and weekends, Journal of Transport Geography, 88: 102860.

Gkiotsalitis, Konstantinos, and Oded Cats. 2021. Public transport planning adaption under the COVID-19 pandemic crisis: literature review of research needs and di-rections, Transport Reviews, 41: 374-92.

Guthold, Regina, Gretchen A Stevens, Leanne M Riley, and Fiona C Bull. 2018. Worldwide trends in insufficient physical activity from 2001 to 2016: a pooled analysis of 358 population-based surveys with 1· 9 million participants, The lan-cet global health, 6: e1077-e86.

Hall, C Michael, and Yael Ram. 2019. Measuring the relationship between tourism and walkability? Walk Score and English tourist attractions, Journal of Sustaina-ble Tourism, 27: 223-40.

Hintermann, Beat, Beaumont Schoeman, Joseph Molloy, Thomas Schatzmann, Christopher Tchervenkov, Kay W. Axhausen. 2023. The impact of COVID-19 on mobility choices in Switzerland, Transportation Research Part A: Policy and Prac-tice, Volume 169, 103582.

Humagain, Prasanna, Patrick A Singleton, 2021. Exploring satisfaction with travel time profiles towards understanding intrinsic utilities of travel time, Travel Be-haviour and Society 24: 22-33.

Hunter, Ruth F, Leandro Garcia, Thiago Herick de Sa, Belen Zapata-Diomedi, Chris-topher Millett, James Woodcock, AlexSandy Pentland, and Esteban Moro. 2021. Effect of COVID-19 response policies on walking behavior in US cities, Nature communications, 12: 3652.

Kang, Myounggu, Yeol Choi, Jeongseob Kim, Kwan Ok Lee, Sugie Lee, In Kwon Park, Jiyoung Park, and Ilwon Seo. 2020. COVID-19 impact on city and region: whats next after lockdown?, International Journal of Urban Sciences, 24: 297-315.

Li, Aoyong, Pengxiang Zhao, He Haitao, Ali Mansourian, Kay W. Axhausen. 2021. How did micro-mobility change in response to COVID-19 pandemic? A case study based on spatial-temporal-semantic analytics, Computers, Environment and Urban Systems, Volume 90, 101703.

Li, Yihang, and Liyan Xu. 2021. The impact of Covid-19 on Pedestrian flow pat-terns in urban Pois—an example from Beijing, ISPRS International Journal of Geo-Information, 10: 479.

Loo, Becky PY. 2021. Walking towards a happy city, Journal of Transport Geogra-phy, 93: 103078.

Mavoa, S., Eagleson, S., Badland, H. M., Gunn, L., Boulange, C., Stewart, J., & Giles-Corti, B. 2018. Identifying appropriate land-use mix measures for use in a national walkability index. Journal of Transport and Land Use, 11(1): 681-700.

Mendiate, Classio Joao, Alphonse Nkurunziza, Constancio Augusto Machanguana, and Roberto Bernardo. 2022. Pedestrian travel behaviour and urban form: Com-paring two small Mozambican cities, Journal of Transport Geography, 98: 103245.

Menze, Bjoern H, B Michael Kelm, Ralf Masuch, Uwe Himmelreich, Peter Bachert, Wolfgang Petrich, and Fred A Hamprecht. 2009. A comparison of random forest and its Gini importance with standard chemometric methods for the feature selec-tion and classification of spectral data, BMC bioinformatics, 10: 1-16.

Möllers, Alessa, Sebastian Specht, Jan Wessel. 2022. The impact of the Covid-19 pandemic and government intervention on active mobility, Transportation Re-search Part A: Policy and Practice, Volume 165: 356-375.

Neter, John, William Wasserman, and Michael H Kutner. 1983. Applied linear re-gression models (Richard D. Irwin).

Neves, Carlos Eduardo Teixeira, Alan Ricardo Da Silva, and Fabiana Serra de Arru-da. 2021. Exploring the link between built environment and walking choice in São Paulo city, Brazil, Journal of Transport Geography, 93: 103064.

Obuchi, Shuichi P, Hisashi Kawai, Manami Ejiri, Kumiko Ito, and Kenji Murakawa. 2021. Change in outdoor walking behavior during the coronavirus disease pan-demic in Japan: a longitudinal study, Gait & posture, 88: 42-46.

OECD. Cities policy responses, Accessed 20 september 2022. https://www.oecd.org/coronavirus/policy-responses/cities-policy-responses-fd1053ff/.

Pareek, Manish, Mansoor N Bangash, Nilesh Pareek, Daniel Pan, Shirley Sze, Jatinder S Minhas, Wasim Hanif, and Kamlesh Khunti. 2020. Ethnicity and COVID-19: an urgent public health research priority, The Lancet, 395: 1421-22.

Power, Dylan, Barry Lambe, and Niamh Murphy. 2023. Trends in recreational walk-ing trail usage in Ireland during the COVID-19 pandemic: Implications for prac-tice, Journal of Outdoor Recreation and Tourism, 41: 100477.

Stier, Andrew J, Marc G Berman, and Luis Bettencourt. 2020. COVID-19 attack rate increases with city size, arXiv preprint arXiv:2003.10376.

Targa, Felipe, and K Clifton. 2005. The built environment and trip generation for non-motorized travel, Journal of Transportation and Statistics, 8: 55-70.

Tian, Xiaojuan, and Mingguang Chen. 2021. Descriptor selection for predicting inter-facial thermal resistance by machine learning methods, Scientific reports, 11: 739.

Tison, Geoffrey H, Robert Avram, Peter Kuhar, Sean Abreau, Greg M Marcus, Mark J Pletcher, and Jeffrey E Olgin. 2020. Worldwide effect of COVID-19 on physical activity: a descriptive study, Annals of internal medicine, 173: 767-70.

Tribby, C. P., Miller, H. J., Brown, B. B., Werner, C. M., & Smith, K. R. 2016. As-sessing built environment walkability using activity-space summary measures. Journal of Transport and Land Use, 9(1): 187–207.

Wang, Xiaoyue, Abdullah Mueen, Hui Ding, Goce Trajcevski, Peter Scheuermann, and Eamonn Keogh. 2013. Experimental comparison of representation methods and distance measures for time series data, Data Mining and Knowledge Discov-ery, 26: 275-309.

Wu, Lun, Ximeng Cheng, Chaogui Kang, Di Zhu, Zhou Huang, and Yu Liu. 2020. A framework for mixed-use decomposition based on temporal activity signatures extracted from big geo-data, International Journal of Digital Earth, 13: 708-26.

Yin, Chun, Jason Cao, Bindong Sun, and Jiahang Liu. 2023. Exploring built envi-ronment correlates of walking for different purposes: Evidence for substitution', Journal of Transport Geography, 106: 103505.