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The survey monitored the time, frequency and type of transport used by urban travellers, and found that the private car accounted for 40.5% of journeys, followed by pedestrian mobility at 28.5%, public transport on 24% and cycling and motorcycles on 6.8%

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Evaluating congestion in urban areas: The case of Seville

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Evaluating congestion in urban areas: The case of Seville

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''Traffic congestion reduces the productivity of urban agglomerations everywhere, but the consequences in developing-country megacities are greater. ... Moreover, reducing congestion will also reduce automobile emissions and thus urban air pollution, which is currently a major health problem in most megacities.''

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There are rivers that separate the city so this poses a bottleneck for traffic but also an opportunity to be use for transport along its banks. 

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There are rivers that separate the city so this poses a bottleneck for traffic but also an opportunity to be use for transport along its banks. 

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The population of seville will have aged greatly by 2050

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The population of seville will have aged greatly by 2050

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The Donana national park area poses a challenge for connecting the local cities as we cant build railways and motorways through this region

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The Donana national park area poses a challenge for connecting the local cities as we cant build railways and motorways through this region

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"Transportation in developing country mega-cities (i.e., cities with a population of 10 million or more) is in a state of crisis. Extreme congestion, long commute times, choking air pollution, deadly traffic accidents, and inadequate public transport are the norm"

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In 2019, we have revealed the world's first VoloPort in Singapore. A major milestone in Volocopter history.

Our VoloPort prototype enabled real-life testing of the full customer journey to perfect the passenger experience. It showcased everything from the planned customer services to pre-flight checks, passenger lounges, and boarding procedures.

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VoloPort - the home of electric Urban Air Mobility

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In 2019, we have revealed the world's first VoloPort in Singapore. A major milestone in Volocopter history. Our VoloPort prototype enabled real-life testing of the full customer journey to perfect the passenger experience. It showcased everything from the planned customer services to pre-flight checks, passenger lounges, and boarding procedures.

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German electric vertical take-off and landing (eVTOL) aircraft maker Volocopter completed a crewed test flight of its 2X aircraft in Seoul, South Korea on Thursday.

According to a Nov. 11 press release, this was the "first ever crewed public test flight of a fully electric vertical takeoff and landing air taxi in South Korea." The test flight lasted five minutes, covering a distance of approximately 3 kilometers and reaching a maximum altitude of "50 meters and maximum speeds of 45 km/h," the company said in the release.

The test flight occurred at Gimpo International Airport, as part of the Republic of Korea's Ministry for Land, Infrastructure, and Transport (MoLIT) Urban Air Mobility (UAM) demonstration event, "Open the Urban Sky."

Volocopter is also scheduled to conduct a public test flight at Incheon Airport on Nov. 16, during the upcoming K-UAM Confex 2021 event.

"With MOLIT's comprehensive K-UAM roadmap, South Korea is well positioned to achieve the goal of commercializing UAM by 2025. We are extremely honored to conduct the nation's first crewed public eVTOL test flight today and prove yet again that the future of air taxis is here and now with Volocopter's aircraft," Florian Reuter, CEO, Volocopter said in the release. "As the pioneers of the UAM industry, we look forward to working closely with friends and partners from both the government agencies and private sectors to make UAM a reality in South Korea."

Check out the video of Volocopter's 2X completing the test flight in Seoul below:

Receive the latest avionics news right to your inbox

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WATCH: Volocopter 2X eVTOL Completes Test Flight in Seoul - Aviation Today

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German electric vertical take-off and landing (eVTOL) aircraft maker Volocopter completed a crewed test flight of its 2X aircraft in Seoul, South Korea on Thursday. According to a Nov. 11 press release, this was the "first ever crewed public test flight of a fully electric vertical takeoff and landing air taxi in South Korea."

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The earliest patents for electromagnetic transportation systems date back to the beginning of the 20th century. Hermann Kemper, a German inventor, filed a series of patents in the late ’30s for a technology that uses magnetic levitation trains propelled by linear motors. The maglev prototypes were t…

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5 Solutions to Urban Mobility Challenges

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5 Solutions to Urban Mobility Challenges

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Global megatrends of increasing urbanization significantly impact the already complex mobility environments, and the growing commuter population is being strained by inefficient transportation networks and congested roads on a daily basis. More cars are on the roads, poor synchronization of traffic lights, and unexpected events, such as accidents, severe weather conditions, urban construction sites and even road hailing are the major contributors to today's increasingly congested roads. Municipalities need to address these urban mobility challenges and worsening conditions.

During the Smart City Challenge of the US Department of Transportation (DOT), mid-sized city mayors across America were asked to identify their most pressing transportation problems. While the cities were diverse, many of the 78 applicants faced similar urban mobility challenges:

Urban Mobility Challenges

Providing first-mile and last-mile service for transit users to connect underserved communities to jobs

Facilitating the movement of goods into and within a city

Reducing inefficiency in parking systems and payment

Optimizing traffic flow on congested freeways and arterial streets

Limiting the impacts of climate change and reducing carbon emissions

Smart Cities Use Data to Improve the Urban Landscape

Although smart cities remain in their infancy, smart mobility innovations can improve congestion and transport of people and goods in urban settings. While trying to tackle congested and inefficient roads, cities are looking for ways to enhance their collection, processing, and analysis of real-time data.

Providing first-mile and last-mile service for transit users

The majority of the local working population may spend hours getting to and from work every day, using public transportation, while private transport commuters may save time at the cost of aggravating congestion and damaging the environment. These inconvenient journeys may cause late arrivals and employee fatigue. It can even make it difficult for organizations to hire and retain employees. According to the smart city applicants, the typical job that is accessible by transit of 90 minutes or less, is only available to 27% of its metropolitan workforce.

Smart transportation solutions, such as SWAT Mobility, harness demand-responsive and ride-sharing technology for pooling passengers in shared vehicles and generating the optimal routes to pick them up and drop them off. SWAT Mobility is leveraging real-time vehicle data to optimize the pickup time, journey time and pooling rate of rides, and to provide an improved riding experience for all.

Smart urban mobility solutions generate cost savings, while increasing employee productivity and facilitating business expansion.

Facilitating the movement of goods into and within a city

Congestion wastes a massive amount of time and fuel, and creates more uncertainty for drivers and freight. Trucks stuck in urban congested traffic cost shippers an estimated $28 million annually in truck operating costs and wasted fuel, according to the US DOT smart challenge.

Leveraging multiple data sources - from demographic data to road information and traffic flows of commercial and private vehicles as well as and public transportation, the PTV Group provides intelligent traffic management and transport optimization solutions for planning and optimizing transport logistics. PTV group is incorporating real-time and historical vehicle data into its models and planning tools to provide route planning, scheduling optimization, navigation, cost calculation and arrival times prediction.

Real-time Traffic data is being used to save time and money, make roads safer, and further plan urban infrastructure.

Increase efficiency in parking systems and payments

Cruising for parking creates a moving queue of cars that typically maintain slow speeds, frequently change lanes, and suddenly brake or accelerate. It is estimated that 30 percent of urban congestion is caused by cars looking for parking.

Parking data regularly generated by passenger vehicles that are driving in cities can provide rich information for a variety of parking use cases, such as parking spot mapping, usage statistics and prediction to alleviate congestion due to cruising for parking.

Combining parking data from vehicles with mapping information can help identify available parking spots in real-time and guide drivers to open parking spaces in an urban area, while informing them about the parking type (parallel or cross) and side (left/right).

Parking apps can also increase safety by alerting when a vehicle is too close to the curb or the parking position is too far from the curb and may create a road hazard. Automated parking solutions can facilitate quicker payments and expedite parking space vacancy.

Parking and mapping data can be used to improve parking solutions in urban settings, reduce urban congestion and minimize the environmental impact of cruising for parking.

Optimizing traffic flow on congested roads

Traffic management is a strategic problem for virtually every city. Congestion is often located in and around urban areas and costs nearly EUR 100 billion, or 1 % of the EU's GDP, annually. Some urban traffic issues occur due to rapid urban transformation and some are due to low-quality infrastructure, urban planning failures, or poor management of traffic controls. Outdated traffic signal timing, for example, causes more than 10 percent of all traffic delay on major routes in urban areas.

Waycare aggregates, synthesizes, and analyzes crowdsourced data, including vehicle data, to unlock key real-time and predictive operational insights about roads. Waycare's machine learning algorithm, drives predictive recommendations that improve traffic flows in urban areas, predict traffic "hot spots", accelerate emergency responses, and facilitate smarter traffic engineering.

When it comes to keeping roadways safe and traffic flowing, municipalities can tap into more data than ever before by leveraging the real-time vehicle data, generated by millions of connected cars on the road.

Vehicle data can convey an accurate picture of what's happening on the road to improve real-time traffic flows and support intelligent and responsive operations of advanced traffic management systems.

Limiting the impact of climate change and reducing carbon emissions

Burning fossil fuels like gasoline and diesel releases carbon dioxide (CO2), a greenhouse gas, into the atmosphere. Rapid urban population growth, traffic congestion and related air pollution, as well as ageing infrastructure, put cities at the center of the carbon emission mitigation agenda. Currently, cities are responsible for 60 to 80% of all energy consumption and approximately 70% of carbon emissions in the world. Urban mobility accounts for 40% of all CO2 emissions of road transport.

Cities shifting to low emission transport options - such as walking, cycling, public transport and zero emission vehicles - reap economic rewards and deliver significant quality of life benefits for their citizens. Cities that take the lead in adapting to climate change, install electric vehicle infrastructure, convert public fleets and buses to electric vehicles, and incentivize shared-use mobility options.

Efficient Electric Vehicle (EV) charging is a critical factor in increasing EV adoption. EV vehicle data can make it simple and fast for EV service providers to improve charging infrastructure and experience, making EV ownership more convenient for drivers.

Employing historical vehicle data, EV service providers can identify charging patterns, select the ideal locations for new charging sites and optimize charging loads across a facility. Personal apps can provide EV drivers with tools to plan their travels, while taking into account all of their charging needs.

Vehicle data plays an instrumental role in reducing range anxiety and making electric vehicles a viable option for reducing carbon emissions.

Tap into vehicle data to relieve urban mobility challenges

Vehicle data supports a safer and more efficient global urbanization by powering smarter apps and services that reduce congestion, mitigate traffic accidents, and improve drivers and residents' quality of life.

Interested in learning more about how vehicle data can be used by smart cities? Speak to one of our data experts.

Read about vehicle data in action. Download Otonomo's Data Driven Driving Report

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5 Solutions to Urban Mobility Challenges: Powered by Vehicle Data

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Global megatrends of increasing urbanization significantly impact the already complex mobility environments, and the growing commuter population is being strained by inefficient transportation networks and congested roads on a daily basis. More cars are on the roads, poor synchronization of traffic lights, and unexpected events, such as accidents, severe weather conditions, urban construction sites and...

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Solving the Mobility Challenge in Megacities

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Solving the Mobility Challenge in Megacities

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Related Expertise: Automotive Industry, International Business, Cities of the Future

By Nikolaus Lang, Alexander Wachtmeister, Vladislav Boutenko, Yvonne Zhou, Giovanni Moscatelli, Konrad von Szczepanski, Valentin Grube, and Raphael Kirn

Urban transport networks in megacities from Los Angeles to Delhi are close to the breaking point. And many of the new mobility modes that were supposed to fix fundamental issues, such as traffic congestion or air pollution, and improve quality of life are instead compounding these problems or creating new headaches for city planners.

Around the world, megacities are trying to balance the benefits and drawbacks of these new modes of transport. China opened its cities to bike sharing in order to make urban transport systems greener. But authorities in Beijing were forced to restrict the use of shared bicycles after their huge popularity resulted in discarded vehicles clogging up already busy city streets. Several megacities, including Paris and Singapore, have banned the use of electric scooters on sidewalks following pedestrian collisions and fatalities.

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Despite these challenges, e-scooters, ride hailing, and other emerging mobility mode s that have the potential to tackle city problems are set to be essential components in the urban transport system of the future, gradually replacing automobiles.

But urban mobility will continue to deteriorate as long as most private companies are allowed to pursue their profit-oriented goals unchecked. Virtually all megacities urgently need an orchestrator to bring order to the transport chaos. Municipal authorities will have to take some responsibility for this. But private players can play an important part too.

Whoever takes the lead in orchestrating urban mobility must ensure that public and private operators in the fragmented mobility ecosystem work together effectively. The orchestrator must also understand what consumers truly want from their transportation system.

Boston Consulting Group's in-depth survey of more than 2,000 people in Beijing, Boston, London, and Moscow, conducted prior to the COVID-19 outbreak, discovered that consumers want transportation solutions that enable them to multitask, allow them to use their time more productively, and are consistent with their values. Although the pandemic has dramatically changed consumers' transportation decisions in the short term, we believe that our survey findings will hold true over the medium and longer term once the novel coronavirus has been brought under control. To succeed in creating viable and sustainable transport systems, orchestrators must place these key consumer priorities at the heart of their plans.

The Urban Mobility Challenge

Urbanization is continuing at a rapid clip. By 2030, the United Nations estimates that megacities (metropolises with at least 10 million residents) will be home to more than 750 million people, a 35% increase from today. Meanwhile, cities with over 1 million inhabitants are projected to have an aggregate population of 2.3 billion people, with much of that population concentrated in emerging markets. (See Exhibit 1.)

Growing populations, aging and inefficient transport systems, and rising car ownership in the world's biggest cities are leading to greater congestion and reduced productivity. According to the World Economic Forum, the number of cars worldwide is set to soar in the decades ahead, climbing from 1.1 billion in 2019 to 2.0 billion by 2040. Inadequate transport systems are also a significant cause of poor health (from emissions and road accidents) and exacerbate social inequality in cities by restricting access to education, jobs, and health care.

The answer to urban transport problems was supposed to be on-demand, shared mobility solutions. But in the absence of municipal intervention, many cities today are swamped with rival offerings as multiple players compete for market share. This state of affairs has resulted in significant private-sector investment and greater choice for consumers but has not produced better transport systems. Instead, urban mobility has deteriorated owing to the overabundance of modes.

Creating an effective, integrated urban mobility system starts with understanding consumers' expectations. To analyze what consumers want from urban mobility-and where transportation systems are failing to deliver-BCG asked survey respondents in our four cities about their mobility priorities in late 2019.

Our findings show that, first and foremost, consumers want the following from their transport experience: mobility that enables them to be productive and multitask during their journeys, independence from rigid schedules so that they can travel when they want, and solutions that are environmentally sustainable. These preferences are reflected in the main pain points that consumers said they encounter when they travel, underlining the gap between consumer expectations and reality. (See Exhibit 2.) Pollution and congestion, both direct impacts of having too many vehicles on the road, were also seen as major mobility pain points.

Significantly, most respondents said cost of travel, ease of use (for example, simple ticketing processes), and comfort are less important to them than the three preferences above. This finding is likely to come as a surprise to many mobility operators and city planners.

How New Mobility Modes Shape Up

Emerging mobility options like ride hailing and micromobility are an improvement on traditional cars and mass transit when it comes to meeting consumers' mobility priorities. But they solve only some user pain points.

Consumers are still forced to make tradeoffs. For example, ride-hailing services allow riders to travel when they like and be more productive in transit. Most operate with conventionally powered vehicles, however. Provided the weather is fair, micromobility options such as shared e-scooters offer consumers greater independence and an enjoyable, leisurely travel experience. But they too face sustainability challenges arising from their relatively short lifespans as well as the need for vehicle collection and charging.

The popularity of these new transportation modes also supports our finding that cost, while an important consideration, is not the primary concern for consumers. They are often willing to pay a premium to secure a means of transport that meets their preferences better than traditional mobility modes. Naturally, price still counts: riders are prepared to adjust their transport spending but are not willing to pay several times more. The lower the premium, the greater the number of consumers that will switch modes.

Viewed through the lens of our survey findings, new mobility options such as ride hailing and e-scooters are not an effective solution for urban mobility problems on their own for two reasons: they are typically priced at a level well above that of traditional modes and meet only some, not all, consumer priorities. Consequently, in the city of the future, an orchestrator will still be needed to put the interests of consumers first and impartially coordinate the activities of mobility operators in order to produce the best overall outcome.

Car Ownership and Changing Priorities

Contrary to the often touted shift away from car ownership that dominates press coverage and public debate, our research discovered a growing desire to possess an automobile among our respondents: 37% indicated that they had become more willing to own a car over the past 12 months, while only 12% were less willing to own one. The figures were even more marked for existing car owners. (See Exhibit 3.)

But by digging a bit deeper, we found some good news for critics of cars. The top reasons that our respondents gave for owning a car were practical concerns (such as speed and flexibility) and necessity due to a lack of better alternatives. Less than one-quarter of respondents cited personal preferences (including emotional attachment, the car's importance as a status symbol, or the joy of driving) as a key reason for car ownership. This suggests that consumers are willing to give up their automobiles provided that cities create more effective transportation systems (that are better at meeting users' mobility priorities) to take their place.

Because our survey was conducted before the COVID-19 outbreak, it does not reflect potential shifts in consumer sentiment driven by the pandemic. Over the next year or so, we expect consumers to be more inclined toward car ownership because private cars offer greater protection against the virus than shared forms of mobility. But in the longer term, consumers will favor transport solutions that support their core values.

What Our Findings Mean for Industry Players

Our research has implications for mobility players across the board. The knowledge that multitasking is more important to consumers than a comfortable seat can be useful for vehicle designers, whether they are creating subway cars or self-driving taxis. By prioritizing high-speed internet connectivity or sound-insulating seats offering increased privacy, they could gain a competitive edge over rivals.

The demand for greater productivity could also provide a boost for mass-transit operators in cities' strategic transport plans, since the inconvenience of rigid travel schedules becomes less important to riders if they can get work done or use media while traveling. But the relatively low importance of cost to consumers means that public transport players should not be complacent. They could face stiff competition if ride-hailing firms-which already provide better convenience, privacy, and connectivity-lower their fares.

Automotive OEMs are using new technologies to meet some top consumer preferences. For example, improvements in drive trains are making conventional vehicles more environmentally sustainable. At the same time, the number of electric vehicles is increasing. But fundamental changes in how transport systems are organized will be needed if they are to truly deliver what consumers want.

The Increasing Fragmentation of Mobility Ecosystems

Cities are not just swamped by new offerings and players. A fundamental shift in transport is underway that has big implications for how mobility ecosystems function. As recently as 2017, each player had a clearly defined role: automotive OEMs made their money selling personal vehicles and components, other private companies operated taxis or provided adjacent transport solutions such as bikes and scooters, and city authorities operated mass-transit and traffic management systems.

But that's starting to change. In 2017, the sale of vehicles powered by internal combustion engines still accounted for a large share of the value pool in personal mobility. Fast forward to 2035 and we expect to see a shift in profitability from traditional areas such as new car sales, parts, and maintenance to on-demand mobility, data, and connectivity. The impact: OEMs and tech players will increasingly compete in the same markets.

We expect new business models and technology innovations, including shared autonomous vehicles, to further disrupt urban mobility in the years ahead, eroding the viability of traditional models and fragmenting mobility ecosystems. As part of this transformation, urban mobility solutions will be delivered and consumed as a service via digital devices, accelerating the shift away from personal-vehicle ownership (our survey findings already suggest that consumers are open to new forms of transport provided the alternatives meet their priorities). But despite these trends, mobility infrastructure in megacities will come under increasing strain from the weight of surging populations, rising car numbers, and chronic underinvestment-unless cities intervene to stop the rot.

All these factors will pressure municipal authorities to step up and create more integrated and coordinated urban transport solutions. The lack of systemic direction is a key reason that the influx of new mobility modes into cities has increased the complexity but not the overall performance of today's urban transport. (See Exhibit 4.)

A Need for System-Level Change

The key to solving the urban mobility challenge is to imagine a city's transport network as an ecosystem that has an orchestrator at its center. The orchestrator will impose order on the system by deciding who can play, what role each player should have, and what the rules are. It will identify the optimal mix of different mobility modes, create an overarching vision, and set target KPIs (including travel times, emissions, and safety levels). The leaders in urban mobility will differ by region. In some areas, the orchestrator may take the form of a public-private partnership or it could be a city that contracts out orchestrator services, such as simulations, to the private sector.

Crucially, the orchestrator will own or direct two key elements of the urban transport system (see Exhibit 5):

An integrated mobility management system that consolidates the data from all public and private travel modes as well as from the city's transport infrastructure (via smart traffic management, parking, and tolling systems)

A digital customer interface, also called a mobility platform, that combines all transport options in the city

In some cities, software firms are developing and operating bespoke platforms for the municipal mass-transit agency. In Berlin, for example, the public transport company Berliner Verkehrsbetriebe (BVG) is partnering with Trafi, a Lithuanian technology startup, to run the city's Jelbi platform. We believe interfaces similar to Jelbi or Helsinki's app-based Whim platform, which can provide individualized travel plans using real-time information, will be at the heart of the customer mobility experience.

Control over the two key elements will enable the orchestrator to optimize the city's transport system and help meet consumers' mobility requirements. Users will be able to book a customized trip involving multiple modes through a single interface, with the most efficient journey possible designed on the basis of data from the integrated mobility management system.

With this control, orchestrators will be able to make transformative system-level changes to transport networks in four areas.

Cross-Modal Bundling. Consumers will be able to purchase bundled, multimodal fares on a pay-as-you-go or prepay basis or by buying a monthly subscription. Bundling will increase independence from schedules because it will enable users to change seamlessly between transport modes. By facilitating switching, it may also improve consumers' productivity. And by combining public transport with ride-hailing or car-sharing options, bundling could reduce reliance on private cars.

Seamless Connectivity. The introduction of citywide connectivity across mobility modes will deliver significant benefits. Consumers will be able to spend their travel time more productively. And mobility operators could maximize the use of their assets, reducing dead time. What's more, smart connected vehicles will be able to automatically reserve a parking space, improving convenience and ease of use for consumers.

Enhanced Traffic Management. Data-driven traffic management systems will optimize the flow of traffic on city roads, reducing congestion and shortening travel times. For example, the systems could curb the number of cars allowed into urban centers while boosting the volume of buses, after taking into account external factors such as weather conditions, highway maintenance and construction, and the time of day. These benefits would depend on seamless connectivity increasing the transparency of traffic flows and transportation assets, however.

Cross-Modal Optimization. Going beyond pure traffic management, cross-modal optimization balances demand and supply across all mobility assets. One way it does this is by giving consumers an incentive to travel by underutilized modes, thereby taking the pressure off transport bottlenecks. For example, the orchestrator could encourage the use of a subway route that has free capacity in real time (by applying preferential pricing at certain times of the day or some other incentive) to reduce car and ride-hailing traffic on a crowded street. Such optimization has the potential to cut travel times, use mobility assets more efficiently, and-by preventing overcrowding-deliver a more private and comfortable travel experience for consumers.

The Importance of Building Scale

Getting consumers and private mobility operators to join or consistently use a single digital interface or, in the case of companies, to share their back-end data is difficult. End users are unlikely to stick to one platform simply because of ease of use and can easily switch to a rival app or platform that aggregates travel information. In fact, it's only when an orchestrator controls both the front-end interface and the back-end data that the interface will become an essential feature of day-to-day travel for a city's residents. This will allow the orchestrator to provide travel options and recommend the optimal route on the basis of all available data, including historical information and real-time factors such as weather conditions and road work.

Similarly, if a private company runs the urban mobility platform, mobility operators may be reluctant to join in the belief that they will be disadvantaged if the system is not run impartially. For example, platform providers could use the software, and the data it yields, to favor their own transport offerings. Alternatively, they could expand into new areas, such as restaurant recommendations and similar location-based services, at the expense of other companies on the platform. These companies could eventually end up being mere contractors to the platform provider, lacking the means to promote their own services.

In some megacities, such as Los Angeles, municipal authorities are requiring operators to join the city's mobility platform or share their travel data if they want a "license to play." But while that might work in some cities, this approach is unlikely to be adopted in all metropolises and will depend on the culture of each city.

One way to overcome these challenges for would-be platform providers is scale.

First, they need to develop scale in their user base. They are more likely to attract new consumers, retain existing users, and establish a leadership position if they have a significant user base already. For this reason, transportation network companies with an existing travel app, such as Uber or Lyft, are well placed to become the de facto platform providers in cities across the US.

Second, providers will increase their chances of success if they already have a significant number of mobility offerings on their platform. This also benefits more established players since newer operators are more likely to join them. For example, after eight years of independent growth, the electric-bike operator Jump integrated its offering into the Uber app because of its large installed customer base.

For private players, the challenge of becoming a platform provider is a bit like turning a flywheel. It's hard to begin but becomes progressively easier as the wheel gains speed. The momentum comes from building scale both in companies' user bases and in the mobility modes on the platform.

No-Regrets Moves for a Successful Mobility Future

To maximize the opportunities and benefits of urban mobility in the city of the future, private players and city planners need to prepare and take several essential steps.

Define the ambition. Private companies must decide where they want to play in the future mobility ecosystem. A key decision will be whether to remain suppliers of hardware and services or take responsibility for managing a core capability for the orchestrator, such as running demand simulations for municipal-transport planners. Some players will need to switch away from their traditional roles in order to avoid being marginalized by changes in urban transportation.

To improve their transport systems, cities first need to create a vision of what they want them to look like several years from now. They should develop a comprehensive mobility plan that includes overarching objectives (such as affordable transport for all residents) as well as specific and measurable KPIs (for example, keeping journey times within the city center to no more than 30 minutes). The plan should also include detailed proposals to turn these ambitions into reality, covering topics such as where to allocate capital, what the future modal mix should look like, and what policy initiatives are needed. Some cities are already taking these steps. Singapore, for example, is leading the way by creating a viable master plan for how its transport network will function in 2040.

Invest in new competencies. Companies will need to build technological capabilities and skills to achieve their goals for the future. For example, if a private firm is to run a city's traffic management system, it will require capabilities in data analytics, simulations, and scenario planning in order to understand and model traffic flows. Other players will need staff who are skilled in consumer research and insights so that the companies can deliver products that meet travelers' preferences for greater productivity and sustainability.

City officials should also invest in new areas. They will need data scientists to analyze the impact of changing transport requirements and understand the economics of new mobility ecosystems. By studying these factors, cities can decide which areas they can orchestrate on their own and where they need to contract out capabilities to private companies. They will require strong strategic and procurement skills to negotiate with private players.

Create effective governance. Many companies will be expanding into new mobility-related areas that are far from their core business. In addition, these fields are unlikely to deliver significant returns for some time. They will have to decide whether to create a unit within their existing organization or establish an entirely separate business. Whichever course they take, they will have to institute effective governance procedures in order to ensure that the unit or business performs effectively, make certain that it receives sufficient resources, and create a realistic roadmap to maintain momentum.

Develop effective partnership models. Successful collaborations will be essential to deliver better and more integrated transport solutions in the future. Cities will turn to private players to access their skills, expertise, or technologies. Because the goal-a radically transformed transport system-is several years away and is still in a state of flux, new partnership models that work for both the public and the private sectors will be needed. These could take the form of mutually beneficial arrangements, similar to those in collaborative research, whereby the two sides share expertise and learning, without giving a firm commitment to use a particular product or outcome at the end.

Municipal authorities must become orchestrators of the urban transport ecosystem if they are to avoid mobility mayhem. By reinventing themselves and coordinating public and private players, they will be able to create more integrated transport networks. And by developing digital interfaces and using back-end data, they will provide a seamless travel experience for city dwellers. But to achieve enduring success, cities should prioritize solutions that deliver greater productivity, independence, and sustainability for consumers.
The authors are grateful to Matthew Fletcher and Amy Barrett for writing assistance and Belinda Gallaugher for marketing support. They thank Katherine Andrews, Siobhan Donovan, Kim Friedman, Abby Garland, and Shannon Nardi for editorial and production support.

Valentin Grube

Consultant

Munich

Raphael Kirn

Senior Knowledge Analyst

Munich

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Future Of Transportation For Megacities? The Train.

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It's easy in America to think of trains with lots of nostalgia and little else. We are so firmly grounded in the culture of cars that when we envision our future of transportation, we can't see the humble train breaking free of its roots in the past. But the train is going through a reinvention that will make it even more important to the future of transportation than it already is.

What these emerging megacities need are transport networks that can be built quicker than conventional rail systems, at a lower cost.
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How to get around a megacity
The number of megacities - cities with over 10 million people - rose from 14 in 1995 to 29 in 2016, according to the UN. And it's still growing. By 2050, around 75% of the world's population will live in urban areas.

With so many people crammed into our cities, individually owned cars are likely to become rare; the future of transport will shift to mass rapid transit systems like trains. But here's the challenge: many of the world's fastest growing cities are located in Asian and African countries, where little to no metro rail infrastructure currently exists.

While more developed metropolitan areas will need to upgrade and expand existing transportation systems, newer cities will often be starting from scratch. But that clean slate can be a blessing in disguise. Upgrading existing infrastructure without disrupting city life is incredibly difficult - just ask New York City.
Transit networks need to be flexible
What these emerging megacities need are transport networks that can be built quicker than conventional rail systems, at a lower cost. Which is exactly what Automated Guideway Transit (AGT) systems offer.

Unlike conventional trams and trains, these systems use rubber tires on paved surfaces rather than rails. This means AGT vehicles can travel through tighter curves and up steeper slopes than traditional rail, allowing for higher flexibility in route planning.

Equally crucial is the fact that the infrastructure on which the AGT vehicles travel - a simple guide bar system rather than rails - can be built quicker than conventional systems, is much cheaper and has lower maintenance costs. Little wonder, then, that AGT has spread around the world. 25 AGT lines are currently operating in eight countries, with more on the way.

AGT systems from Mitsubishi Heavy Industries (MHI) have been built in cities in Japan since 1990 and in Singapore since 2003. Another project is currently under construction in Macau. And while the automotive industry is understandably excited about the advent of driverless cars - GM says they could be commercially available as early as 2020 - millions of people around the world are already transported every day by automated trams and trains, such as MHI's AGT system.
Bullet trains across the world
A large number of automated passenger trains currently operate at airports. These systems, designed for short transfers, tend to run at relatively low speeds. That slowness will not work for megacities, which gain urban sprawl as they continue to grow.

When the megacities rise upwards, they will also rise outwards, meaning more and more people will have to travel longer distances across town. Recognizing this future demand, MHI has developed a high-speed AGT.

These unmanned high-speed vehicles can travel up to 120km/h, roughly twice as fast as conventional AGT systems. This kind of speed can offer large-scale unmanned transport not only to urban areas, but to city suburbs, too, presenting commuters with a genuine alternative to conventional railways.

The high-speed AGT system is an effective solution to the traffic congestion caused by rapid economic development of cities in regions such as Southeast Asia, and it is set to play a key role in meeting their future transport needs. As those systems are developed, commuters may not be the only ones to benefit. High-speed AGT systems could also be used to transport passengers between distant terminals at the region's big international hub airports as they continue to expand, reducing the time it takes to cross new sprawl as it is built.

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Mitsubishi Heavy Industries BrandVoice: Future Of Transportation For Megacities? The Train.

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It's easy in America to think of trains with lots of nostalgia and little else. We are so firmly grounded in the culture of cars that when we envision our future of transportation, we can't see the humble train breaking free of its roots in the past.