Imaginaries of Road Transport Automation in Finnish Governance Culture—A Critical Discourse Analysis
Abstract
:1. Introduction
- What are the imagined uses of SDVs in future road passenger transport?
- What are the assumed implications of road passenger transport automation?
- What kind of rhetoric is used to convey these visions?
2. Critical Literature on the Governance of Self-Driving Vehicle Technology
- Positive expectations of SDVs are found to be highly weighted over concerns;
- Governance actions are found to be lagging behind technological development processes;
- Innovation and policy processes related to SDVs are found to be insufficiently inclusive and democratic, as they are driven by economic prospects and the fear of missing out;
- Path dependance, laissez-faire governance, and vested interests are feared to lock countries deeper into the system of automobility through the widespread introduction of SDVs.
3. Overview of Finnish Transport Governance
3.1. Actors and Temporal Change
- The Finnish Transport and Communications Agency (Traficom), which engages in transport system development, digitalisation, and safety matters by issuing permits and participating in experimentation, for example, self-driving shuttle pilots. The agency was formed by merging three former agencies: the Finnish Transport Safety Agency (Trafi), the Finnish Communications Regulatory Authority (FCRA), and parts of the Finnish Transport Agency (FTA);
- The Finnish Transport Infrastructure Agency (Väylä), which was formed from parts of the FTA. The agency is responsible for the maintenance of Finland’s road, rail, and waterway systems;
- Traffic Management Company Fintraffic Ltd., Helsinki, Finland (Fintraffic), which is a state-owned company that participates in the control and management of traffic on the land, in the air, and at sea. The company also seeks to advance the creation of new traffic and smart mobility solutions by providing traffic information to its customers.
3.2. Some Aspects of the Governance Culture
“The development of technology and innovation makes new methods and practices available to us on almost a daily basis, and consequently, we should not attempt to solve tomorrow’s problems with today’s tools.”(p. 16)
4. Methodology
4.1. Analytical Framework
4.2. Sampling
4.3. Document Analysis
5. Findings
5.1. Discursive Practices
“The bus arrives at the bus terminal of the metro station… This time automation was noticeable only due to the absence of “good morning” from the driver. Sometimes in the evening this bus has been a little restless, s/he recalls.”[67] (p. 11)
“Or how does a traffic junction in, for example, Shanghai sound like where hundreds of robotic scooters cross each other’s driving lines without stopping, automatically dodging each other? Maybe the package will soon be delivered to your door by a quadrocopter based on a courier car that has driven to the district.”[76] (p. 11)
“Incorporating an experimentation culture into traditional structures is a goal of the government program and a vital condition for our development and success.”[68] (p. 2)
“The aim of the Ministry of Transport and Communications and its administrative agencies is to enable and promote the development of transport automation. Therefore, the purpose of the roadmap is to be as permissive and experiment-promoting as possible, while taking into account the safety of the transport system.”[68] (p. 2)
“Anything that can reasonably be automated, will be—in transport as well as more generally in society.”[74] (p. 40)
5.2. Textual Practices
5.2.1. Imagined Implementations of Self-Driving Vehicles
“The Finnish car stock is one of the oldest in Europe, and its rate of renewal is slow. The average age of cars used on the roads in Finland at the end of 2014 was 11.4 years, while the corresponding average age in the entire EU area is some 8 years. Consequently, Finland will be one of the last countries to see the benefits of automation realised.”[74] (p. 16)
5.2.2. Anticipated Implications
“The development of automation will create new and innovative alternatives for the customer to meet the need to travel.”[68] (p. 4)
“The gradual increase in traffic automation will enhance and improve the availability of sustainable mobility services.”[61] (p. 21)
“As development progresses, it must be ensured that data security and protection are built into the systems throughout their life cycle.”[68] (p. 6)
“On the other hand, the reduction of jobs in the transport services sector, the growing insecurity of public transport services, and the decline in the number of public transport users are seen as potential challenges.”[85] (p. 101)
5.3. Sociocultural Practice
“The countries on the front line of digitalisation will also stand to benefit from it the most. Consequently, we should actively strive to be on the leading edge of this development if we wish to hold on to the welfare of our country. … In order to promote the rapid adoption of new solutions, we must take risks and accept mistakes.”[74] (p. 8–9)
6. Conclusion
6.1. Discussion of Key Findings
6.2. Governance Development Implications
6.3. Future Research Directions
Supplementary Materials
Author Contributions
Funding
Data Availability Statement
Conflicts of Interest
References
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Private Motoring | Robot Taxi | Public Transport Feeder Service | General Public Transport | |
---|---|---|---|---|
Vehicle | Connected, cooperative, and automated passenger car. | The image of a highly automated passenger car is often invoked [87] (p. 16), [88] (p. 46), but the concept is also mixed with self-driving shuttles [88] (p. 59) and remote control [85] (p. 106). | Automated low-capacity shuttle with a possibility for remote control. | Automated bus [85] (p. 106); [74] (p. 11). |
Service characteristics | Generally, the private motoring imaginary resembles the status quo in terms of vehicle ownership, but it is also, less frequently, connected to the prospect of mobility service bundles [77] (p. 8). | The imaginary draws from the notion of seamless door-to-door mobility and servitisation of transport. Sometimes robot taxis are imagined as a part of the public transport system [66] (p. 65); [85] (p. 106), sometimes as a more conventional taxi service [87] (p. 14); [88] (p. 27), sometimes they are left completely undefined [62]. The possibility of ride-sharing is also mentioned, but generally, the expectation seems to be that only vehicles are shared [87] (p. 28). | The shuttles are mostly imagined as a part of the public transport system, but the concept is also mixed with robot taxis, and even the possibility of personal rapid transit is mentioned [88] (p. 59). | N/A |
Operational design domain | The imagined implementation process starts from limited, relatively simple sections of the road network, such as highways, and eventually expands as wide as possible [62] (p. 19–20). | Robot taxis are expected to eventually operate flexibly on the whole road network [87] (p. 16). | Mostly associated with small, definite areas or short, fixed routes that support a higher capacity public transport connection. Examples include urban [81] (p. 31); [67] (p. 11), suburban and semi-rural areas [74] (p. 16), and areas such as hospitals and campuses [88] (p. 16). | N/A |
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Olin, J.J.; Mladenović, M.N. Imaginaries of Road Transport Automation in Finnish Governance Culture—A Critical Discourse Analysis. Sustainability 2022, 14, 1437. https://doi.org/10.3390/su14031437
Olin JJ, Mladenović MN. Imaginaries of Road Transport Automation in Finnish Governance Culture—A Critical Discourse Analysis. Sustainability. 2022; 14(3):1437. https://doi.org/10.3390/su14031437
Chicago/Turabian StyleOlin, Janne J., and Miloš N. Mladenović. 2022. "Imaginaries of Road Transport Automation in Finnish Governance Culture—A Critical Discourse Analysis" Sustainability 14, no. 3: 1437. https://doi.org/10.3390/su14031437