A Simple Sinuosity-Based Method using GPS data to Support Mitigation Policies for Public Buses GHG Emissions
William Wills, Joao Meirelles, Vivien Green Baptista, Gabriel Cury,, Pablo Cerdeira

TL;DR
This paper presents a simple, GPS data-driven method using sinuosity to estimate urban bus GHG emissions, enabling detailed spatial-temporal analysis to support climate mitigation policies.
Contribution
It introduces a novel, replicable sinuosity-based algorithm for GHG estimation from GPS data, validated with real-world data from Rio de Janeiro.
Findings
GPS-based estimates align with fuel consumption data
Method provides finer spatial-temporal emission details
Policy insights can be derived from the estimates
Abstract
It is clear by now that climate change mitigation relies on our capacity to guide urban systems towards a low-carbon phase and that the urban transportation sector plays a major role in this transition. It is estimated that around 30% of total CO2 emissions worldwide come from the urban transportation sector. Regardless of its importance, detailed estimations of transport-related emissions in cities are still rare to find, hindering our capacity to understand and reduce them. This work aims to develop a replicable and fast method for GHG estimation from GPS (Global Positioning System) data and to introduce a simple sinuosity-based algorithm for such. We applied the method for 1 year of GPS data in the city of Rio de Janeiro. Our results were compared to top-down estimations from fuel consumption and proved to be valid after a simple data filling process. Our GPS-based approach allowed…
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Taxonomy
TopicsHuman Mobility and Location-Based Analysis · Impact of Light on Environment and Health · Transportation Planning and Optimization
