WE-TRANSFORM First Stakeholder Workshop

The EU-funded WE-TRANSFORM project aims to address both gaps by leveraging stakeholders’ knowledge and experiences to co-create an action-oriented agenda, targeting EU and non-EU administrations, and to prepare well the automation transition and transformation of the workforce in the transport sector. This workshop will launch this process as the first Stakeholder Forum event to involve the community in the project activities, to inform about its objectives and how to become actively engaged in the long run.

The purpose of this workshop is to collect additional input on the State-of-the-Art (i.e. reports, scientific articles, etc.) from similar activities related to impacts of automation and digitalisation for all modes of transport (both passenger and freight), but also other automation-driven sectors, to find out their best practices and understand if they are transferable to WE-TRANSFORM focus.
We wish to gather in this dialogue all actors and interested stakeholders including research, industrial and social partners, relevant networks and associations, employers’ and workers’ representatives, across all transport modes and countries.

Mark your calendar and join the discussion! More detailed information on the agenda and registration (participation is free of charge) will be circulated shortly. Stay tuned and follow us for all updates.

Contact: Julie Castermans, ERTICO – ITS Europe, j.castermans@mail.ertico.com

Automated vehicles and COVID-19 – what we can learn from it

The COVID-19 pandemic has halted the world nearly to a standstill. There has been a massive economic, social and welfare impact and the common factor is mobility. In LEVITATE, we are investigating the impacts of Connected and Automated Transport Systems (CATS) on our society. COVID-19 has been catastrophic event at world level, but we must learn from this tragedy and understand the implications for CATS era.

Urban Transport
The introduction of point to point, anywhere to anywhere or last-mile automated shuttle services maybe beneficial during a pandemic such as COVID-19 crisis. Highly automated shuttles (level 4 onwards) will remove the need for a driver and hence the risk of infection. Furthemore, a more frequent service may be offered, to accommodate the reduced passenger capacity of vehicles due to social distancing, without the growth in operational costs associated with the driver. In order to minimise the possibility of contamination and the spread of the virus, the supply of antiseptic materials for all users and workers, proper air conditioning and regular disinfection of the shuttles will need to be guaranteed.

Conversely, the reallocation of road space and modal priority, in favour of pedestrians and cyclists, could present a challenge to automated shuttles due to their cautious nature in the presence of these active modes whose movements are hard to predict by automated vehicle technology. This could significantly impact on the speed and overall efficiency of the shuttles, at least until the point where level 5 shuttles offering greater ‘intelligence’ than humans are mature and widely rolled out.

Passenger Transport
A personal passenger car that is manually driven in today’s scenario is no different to a personal automated passenger car in the future scenario. However, in a shared-car model, the vehicle could contribute to the spread COVID-19 if the vehicle is not thoroughly cleaned. Therefore, it will be paramount that the shared cars are cleaned regularly and that it is clear whose responsibility it is to keep the cars clean. It is probable that the shared-car usage will be discouraged in similar circumstances to COVID-19 and perhaps public behavior might shift towards active travel mode and personal car usage. More space allowed for active travel will increase car traffic as capacity for them is reduced. This could be mitigated by introducing staggered shift working pattern (perhaps even combine with alternate days) for those involved in less essential work that cannont be done by staying at home.

As mobility is restricted, there has been natural decline in traffic incidents, but it is arguable that crash severity would increase due to increased speeding. Automated vehicles without ability to alter the speeding behaviours, and associated to reckless driving, will benefit in minimising the safety impacts due to driving behavioural changes resulting from open roads.

Freight transport
During the COVID-19 crisis, major commercial facilities such as shops, markets, restaurants have either shut or people have stayed away due to the health risk. Therefore, demand in e-commerce or food delivery service has increased significantly. For example, Carrefour reported that the delivery of vegetables has increased by 600% during the lockdown period in China [1]. In addition, contactless delivery has become a standard or even requirement in many countries to protect delivery personnel and customers.

This overlaps with the main vision of future logistics concepts, which foresees the automated distribution of goods and even the handover process without human interaction. However, contactless handover requires infrastructure, for example the current state-of-the-art foresees physical internet boxes (supplier side) or white label parcel boxes (customer side). During the COVID-19 crisis, contactless delivery has been performed without either of these. Currently, most people are at home and therefore, the now applied procedure to place the goods in front of the customer’s door, ringing the bell, and walking away works well and (small) failures are accepted by the vendor.

Although the current lockdown and curfew will finally come to an end soon, we are aware that pandemics such as COVID-19 may strike the globe again. Therefore, further developments with respect to automated contactless handover technologies must go on. For a full rollout of automated delivery, we do not know yet who will win the race: automated handover infrastructure or level 5 automated transport. In the end, both will be necessary for automated delivery of goods.

[1] Campaign. COVID-19 media and consumption impacts in China: By the numbers. Retrieved online on 2020-04-28: https://www.campaignasia.com/article/covid-19-media-and-consumption-impacts-in-china-by-the-numbers/458225.





Defining the future of urban, passenger car, and freight transport

LEVITATE is currently building tools to help European cities, regions and national governments prepare for a future with increasing levels of automated vehicles in passenger cars, urban transport services and urban logistics. The project is preparing a new impact assessment framework to enable policy makers to maximise the benefits of connected and automated transport systems (CATS) and utilise the technologies to achieve societal objectives.

Defining the future of urban, passenger car, and freight transport

Recently several reports have been published within the LEVITATE project. A set of three deliverables provide the working framework under which each of the project use cases and its impacts, can be defined. Namely, Defining the future of urban transport (D5.1); Defining the future of passenger car transport (D6.1) and Defining the future of freight transport (D7.1).

Findings were obtained in two ways: through literature review, and through a dedicated stakeholder workshop to gather the views from a group of experts (Stakeholder Reference Group or SRG) on the future of CATS and their application. This workshop was held in Gothenburg on 28th of May 2019 and counted with the participation of 40 experts. An informed list of sub-use cases of possible interest from a CATS perspective was developed for use cases of urban transport, passenger cars and freight transport

Overall, according to workshop experts, CATS are mainly expected to supplement public transport functions. The deployment of cooperative, connected and autonomous vehicles may have considerable impacts on urban transport operations, through advanced city shuttles and other micro-transit vehicles. There are many opportunities that would be available through these new technologies and cities would need to prepare to take full advantage of them. The report aims at defining expected penetration rates, influenced by market forces and technology adoption. In general, the reviewed literature suggests the future of CATS to be positive in terms of their impacts on traffic, safety, environment, economy and mobility. However, their uptake is most likely to be influenced by trust and user’s acceptance.

Initial screening of literature on connected and automated passenger cars suggests that they have potential to increase the capacity of lanes and lead to a reduction in congestion and fuel consumption in the short-term. However, they could increase travel demand due to changes in destination choices (for example, longer journeys), changes in transport mode (shift from public transport) and introduction of new users. Various forecasting studies show that the claimed (by CATS industry) benefits of the widespread use of automated passenger cars for personal use, would only be achieved if we move from a privately owned to a shared-ownership model. In addition, the use of automated passenger cars for personal use is more likely to be lower than their use as mobility services due to the prohibitive initial vehicle purchase costs.

Compared to passenger cars, user acceptance of CATS technology in urban freight is less of an issue. The reason is that these vehicles are acquired and used by freight operators. Freight vehicles can be regarded as tools and driving as a job. Therefore, commercialisation of automated freight vehicles has different driving factors to automated passenger cars. Roadmaps of European associations, however, differentiate between urban freight transport and long-distance freight transport, with CATS having a major role in the latter. A literature search on Advanced Driver Assistance Systems (automation level 1 and 2) show their impacts on traffic, safety, environment, mobility and society. The systems are similar to those of passenger cars, with the exception of a few systems such as speed limiters or automatic electronic tolling system which are more relevant for freight vehicles. The consensus of the SRG was that collaboration between freight operators should be achieved by facilitating data sharing, utilising consolidation centres, and improving last mile solutions.

The findings of these deliverables will be key in the further development of the use cases and provide the foundation for subsequent work to look at short-, medium- and long-term impacts.

You can access all the publications and learn more about the project here.