The transport sector has rarely seen disruptive evolutions after the diffusion of the internal combustion engine, and today the European mobility is still heavily relying on oil derivates and on private cars. However, there is a significant push in cities towards more sustainable mobility paradigms, and digital technologies are playing a major role in unleashing possible alternatives to a car- and fossil-based mobility. Three major digital trends can be highlighted, with different levels of maturity and some potential synergies among them: Mobility as a Service, Shared Mobility and Autonomous Vehicles. The effects of these trends are also related to the strong push towards electric mobility, which currently appears as the most supported solution by companies and regulators to decarbonize the transport sector. This working paper discusses an investigation of the potential effects of digital transition, by means of a data-driven model for the calculation of the impacts of mobility demand in Europe in terms of primary energy consumption and CO2 emissions. The results show that digitalization may have a positive effect on energy consumption and CO2 emissions for passenger transport, given the strong efficiency improvements expected by technological development in the vehicles powertrains. The benefits are maximized if digital technologies are used towards a collective optimization, by increasing the share of available mobility options. Conversely, if digital technologies are limited to increase the quality of private mobility, the environmental benefits will likely remain very limited. Thus, there is a need of tailored policies supporting the right mobility models to fully exploit the potential benefits of digitalization.
[1]
Vincent Mahieu,et al.
Well-to-wheels analysis of future automotive fuels and powertrains in the european context
,
2004
.
[2]
M. Strubegger,et al.
The marker quantification of the Shared Socioeconomic Pathway 2: A middle-of-the-road scenario for the 21st century
,
2017
.
[3]
A. Castro,et al.
Exposure-Adjusted Road Fatality Rates for Cycling and Walking in European Countries
,
2018,
International Transport Forum Discussion Papers.
[4]
Victor R.J.H. Timmers,et al.
Non-exhaust PM emissions from electric vehicles
,
2016
.
[5]
Marco Gambini,et al.
Positive interactions between electric vehicles and renewable energy sources in CO2-reduced energy scenarios: The Italian case
,
2018,
Energy.
[6]
Ernst Worrell,et al.
The hydrogen economy, the creation of the worldwide energy web and the redistribution of power on earth
,
2002
.
[7]
Jeremy Rifkin,et al.
The Hydrogen Economy: The Creation of the World-Wide Energy Web and the Redistribution of Power on Earth
,
2002
.
[8]
M. Balat,et al.
Major Technical Barriers to a “Hydrogen Economy”
,
2010
.