Strategic Thinking for Sustainability: A Review of 10 Strategies for Sustainable Mobility by Bus for Cities
Abstract
:1. Introduction
2. Objectives and Scope
2.1. Bus-Related Policies and Initiatives—State of Knowledge
2.2. New York (USA): MTA Capital Program 2015–2019
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- Renovation: to improve the security, reliability, and quality of the existing service. It involves the renovation of the bus fleet and vehicle depots. It also includes the introduction of contactless technology, modernizing, and improving the efficiency of the service.
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- Improvement: the accessibility of public transport systems to people with reduced mobility and the implementation of transit schedule information systems.
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- Expansion: incorporating new routes in collaboration with the New York City Department of Transportation (NYCDOT).
2.3. Memphis (USA): Livability 2040
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- Improvements in bus installations: including construction and repair of maintenance, operation, and passenger exchange facilities.
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- Acquisition of new rolling stock: this project provides funding for the purchase of up to 120 buses between the fiscal years of 2016 and 2019. Up to 120 diesel buses, which have completed their lifecycle, will be replaced. These buses generally have a life cycle of 12 years or 500,000 miles. Buses will be renewed according to the FTA’s current policy of rolling stock.
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- Improvement of preventive maintenance: providing funds for materials and supply; inspections and routine maintenance needed to maximize the efficiency of the life cycle, including bus fleets, fix routes, and supply for the demand.
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- New bus lanes and Bus Rapid Transit (BRT): The idea is to boost the public transport in the city of Memphis. Therefore, the action line of the strategic plan is the creation of new routes and the reinforcement of existing ones.
2.4. Montreal (Canada): Strategic Plan 2020
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- Making public transport the most implemented mode of transport.
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- Reducing Greenhouse Gases.
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- Being the first place in North America where public transport is 100% electric.
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- Boosting the economy through the public transport in Quebec.
2.5. Santiago de Chile (Chile): Master Plan 2025
2.6. Bogota (Colombia): Strategic Transport Plan
2.7. London (United Kingdom): Strategic Transport Plan
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- Planning the bus network—Curiously, the bus network has been developed in the last few decades to adapt to changing travel demands, the transport network, and the passengers. The circumstances change constantly and a bigger service development is needed to adapt to these recent changes. In the strategic plan, it is suggested to plan new bus routes to connect new boroughs and support the real estate and employment growth. This flexibility also makes buses the perfect means to offer public transport options to areas of London that are changing. It is essential, that the TfL (Transport for London) buses satisfy the demand of Londoners and visitors and reach their potential to support the future transport of London. It will be important to take maximum advantage of the bus network’s flexibility, to reduce and eliminate existing services when they are no longer needed in the centre of London, and to use this freed capacity to give new and better service in the outskirts of London. This can happen in areas with significant real estate growth or where the transport connection is not adequate. This will play an important role in achieving the strategy’s objective to reduce the harmful effects of the car.
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- Improving bus travelling time and reliability. Focussing on healthy roads in inner and outer London will require a significant increase of trips made by bus instead of by car. Reliable and reasonable bus travelling times through London are essential to make the bus service appealing to existing and potential customers. With adequate resources the contracts are incentives to guarantee reliable trips and the support infrastructure (e.g., bus priority, stops, and counters) is protected and has improved. The priority of the buses is essential, including 24 h bus lanes and corridors for buses and cyclists. Many main ring roads in inner London are bus routes to the centre of London. They transport a large amount of people and it is essential that they keep doing this reliably. The measures to improve the reliability of buses on these routes include timetable revision, bus lane construction, traffic light priority, surveillance and performance, behaviour change initiatives, and priority measures. To improve air quality, new low-emission buses will be acquired.
2.8. Madrid (Spain): Strategic Plan CERCA 2017–2020
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- Developing participative communication channels as management strategy. Creating traceable bidirectional (physical and technological) communication channels that give a vertical and horizontal connection within EMT, as well as with the stakeholders, mainly users.
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- Applying innovation and technology to improve the services. Incorporation projects of ecological vehicles (more than 40 electric and more than 900 CNG), projects to improve the infrastructure (new 100% electric depot) and operation improvements like the citizen service.
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- Enhancing the pride of belonging to the EMT. This objective seeks to put the employees and users in the centre through a diagnosis of the internal organization and reorganization proposals to improve the efficiency and effectiveness of the organization.
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- Having a sustainable economic and financial model, focused on investments in technological innovation.
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- Adapting the organization to be oriented to a service of society taking into account users’ and non-users’ perception.
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- Offering a service with the highest quality standards by adapting buildings, fleet, equipment, and facilities to the service.
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- Maintaining and growing the number of users of the bus system to consolidate the leading position as urban bus operator in Spain and Europe.
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- Exporting the image and knowledge transfer of EMT based on technology-based mobility (e.g., MaaS).
2.9. Oman: Strategic Plan Mwasalat
2.10. Singapore: Master Plan
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- More Connections to public transportation networks. To shorten the waiting time and reduce the congestion, the amount of buses will be increased, improving their reliability and extending the year-round demand. The public transport system also wants to support a high quality and sustainable lifestyle inside a densely built city. Therefore, low-emission and ecological vehicles are promoted. The barriers against construction noise and other efforts to reduce noise levels will also be important.
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- Public transport as an attractive way to travel. Like other big cities with traffic restrictions public transport will be the main mode of travel. In Singapore, approximately 63% of all trips during rush hour are made by public transport. The objective is that 75% of all trips during rush hour are made by public transport in 2030. To make public transport more attractive, the capacity and reliability of the train and bus service will be improved. The capacity of buses during the rush hour will rise by 110% with bus lines and additional vehicles. In addition, the bus network will be adjusted, not only to make connections with the railway system easier, but also to reach more places directly.
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- Improving the bus services: Currently, more than 60% of trips by public transport are done completely or partially by bus. The buses play a fundamental role as connections to the railway network. Given its important role, immediate measures need to be taken to improve the bus service significantly. There will be more buses to improve the service frequency, reliability, and comfort. Moreover, integrated transport centres, bus centres, priority measures, and real time passenger information will be developed. The fleet will increase by 20%, an equivalent of 800 new buses in the next five years. 550 out of these 800 buses will be financed by the government; the rest will be financed by the public bus operators. Travel information is advancing: travellers can see the timetables of all bus services that leave from the bus interchange. Currently, the arrival times are shown on the display panel at 51 bus stops and 31 are adding information panels this year. Another study was about the viability to give information about the congestion level in buses so travellers can make more informed decisions during their trips. Additionally, a new bus infrastructure will be developed that tackles planning, development, and financing of new bus depots and bus parking lots.
2.11. Melbourne (Australia): Strategic Transport Plan
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- Coordinating the transport initiatives of the city of Melbourne: plans, programs, research and fifteen-year programs of main projects.
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- Coordinating the strategic development policy of land use of the city of Melbourne.
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- Defending the position of Melbourne regarding transport and the policy linked to land use.
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- Allowing for the alignment between the city of Melbourne and the investment of the state government in transport infrastructure, improvement of services, programs, and research.
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- Allowing the alignment between the city of Melbourne and other stakeholders, including business people, companies, universities, and neighbours.
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- Installing bus lanes and increasing the frequency of the services.
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- Improving the bus frequency and the bus system’s working speed to avoid being affected by traffic congestion. This could be through bus lanes, traffic sign priority, and safe and efficient stops and bus interchanges.
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- Increasing the bus stops, if necessary eliminating public parking places or undertaking other measures in order to improve the accessibility of the bus stop.
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- Working with the transport department to enhance the bus interchange performance.
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- Improving the NightRider bus service, including smaller and more flexible buses.
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- Reducing Green House Gas emissions and energy costs. The technological innovation of vehicles will continue to provide opportunities to make the buses of Melbourne more efficient in terms of petrol consumption.
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- Introducing a clean fuel bus fleet by 2018.
3. Discussion and Conclusions
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- There is a high participation of the different interest groups, both in the diagnosis and in the action and improvement proposals in most of the analysed cities using different participation methodologies.
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- There is a big importance in positioning the bus as the main mode of public transport with a significantly increased demand (more than 40 or 50% in most of cases).
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- Investments in acquiring a greener fleet (last generation diesel and, mainly, CNG and electric) with an adaptation of the depots as key elements on a short and medium term in all cases. The bus system is the tool for a greater contribution for improving air quality of cities and global climate change (reduction or elimination of emissions and improvement in local health).
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- There are many good practices related with BRT (mainly in North and South America) to improve times, frequencies, and speed, as well as, inclusively, an increase of exclusive or shared bus lanes or bus platforms.
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- Technology and communication are cross-cutting elements that appear constantly in all cases based on the connection with users and non-users (off-board and on-board).
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- Finally, universal accessibility and synergies with local and regional mobility through other modes of transport (mainly with the underground and where appropriate, on foot and by bicycle) appear at the centre of the strategies towards sustainability.
Author Contributions
Funding
Acknowledgments
Conflicts of Interest
References
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Areas | Measures for Improvement |
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Infrastructure and Operations | BRT/BHLS Separated Bus Lanes Restructuration and optimization of lines Modifying the offer Express and limited stop bus services More frequency Bus priority measures Advanced software for operation management Adequation of facilities and depots Human resources (training, sensitivity) Networks connections |
Bus Service Quality—Attractiveness | Bus marketing Passenger information measures (RTI, Real Time Information) Frequency/Regularity Fares Reliability Availability of information for connecting to other public transportation services (MaaS) Easy boarding/Comfort Non-user perception Customer experience |
Vehicles (Buses) | Major new buses (CNG, electrical vehicles, hydrogen) Mini buses Accessibility for all users Adapted Vehicles Hybrid (electric based) Safety and security Technical and economical maintenance Passenger accounting systems |
Areas | Measures for Improvement | New York | Memphis | Montreal | Santiago de Chile | Bogotá | London | Madrid | Oman | Singapore | Melbourne |
---|---|---|---|---|---|---|---|---|---|---|---|
Infrastructure and Operations | BRT/BHLS | X | X | X | X | ||||||
Separated bus lanes | X | X | X | X | X | ||||||
Modifying the offer | X | X | X | X | X | X | X | X | |||
Express and limited stop bus services | X | X | |||||||||
More frequency | X | X | X | X | |||||||
Bus priority measures | X | X | X | ||||||||
Advanced software for operation management | X | X | |||||||||
Adequation of facilities and depots | X | X | X | X | |||||||
Human resources (training, sensitivity) | X | X | |||||||||
Networks connections | |||||||||||
Bus Service Quality-Attractiveness | Bus marketing | X | |||||||||
Passenger information measures (RTI, Real Time Information) | X | X | X | X | |||||||
Frequency/Regularity | X | X | |||||||||
Fares | X | ||||||||||
Reliability | X | X | X | X | X | ||||||
Availability of information for connecting to other public transportation services (MaaS) | X | ||||||||||
Easy boarding/Comfort | X | X | X | X | |||||||
Non-user perception | X | X | |||||||||
Customer experience | X | ||||||||||
Vehicles (Buses) | Major new buses (CNG, electrical vehicles, hydrogen) | X (CNG) | X | X (Electrical) | X (Electrical) | X (CNG + Electrical) | X | X | X (CNG) | ||
Mini buses | X | X | |||||||||
Accessibility for all users | X | X | X | ||||||||
Hybrid (electric based) | X | ||||||||||
Safety and security | X | X | X | X | |||||||
Technical and economical maintenance | X | X | X | ||||||||
Passenger accounting systems | X | X | X |
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Fernandez-Sanchez, G.; Fernandez-Heredia, A. Strategic Thinking for Sustainability: A Review of 10 Strategies for Sustainable Mobility by Bus for Cities. Sustainability 2018, 10, 4282. https://doi.org/10.3390/su10114282
Fernandez-Sanchez G, Fernandez-Heredia A. Strategic Thinking for Sustainability: A Review of 10 Strategies for Sustainable Mobility by Bus for Cities. Sustainability. 2018; 10(11):4282. https://doi.org/10.3390/su10114282
Chicago/Turabian StyleFernandez-Sanchez, Gonzalo, and Alvaro Fernandez-Heredia. 2018. "Strategic Thinking for Sustainability: A Review of 10 Strategies for Sustainable Mobility by Bus for Cities" Sustainability 10, no. 11: 4282. https://doi.org/10.3390/su10114282
APA StyleFernandez-Sanchez, G., & Fernandez-Heredia, A. (2018). Strategic Thinking for Sustainability: A Review of 10 Strategies for Sustainable Mobility by Bus for Cities. Sustainability, 10(11), 4282. https://doi.org/10.3390/su10114282