The Future of Transportation: Reshaping Smart Mobility

The transportation landscape is undergoing a profound transformation fueled by rapid technological advancements and an increasing emphasis on sustainability. From the rise of electric vehicles to the integration of autonomous systems and the advent of smart infrastructure, the future of transportation is poised to revolutionize how we move, commute, and connect.

The future of transportation aims to address several challenges, such as;

• Reducing greenhouse gas emissions and transitioning from traditional gasoline-powered vehicles to cleaner, renewable energy alternatives
• Decreasing the number of preventable fatalities in car crashes by implementing new technologies that promote safer driving practices
• Reducing road congestion by exploring alternative transportation solutions beyond traditional roads
• Ensuring the security and integrity of emerging technologies, such as flying drones and autonomous vehicles
• Discovering affordable and eco-friendly transportation options to address income inequality to provide efficient and safe transportation for individuals from all income brackets
• Making travel faster and more efficient, leveraging advancements in transportation technology to save valuable time for commuters

From the boardrooms of major automotive manufacturers to the research labs of pioneering tech companies, the focus is shifting towards a collective transportation vision. Forward-thinking minds are exploring unconventional avenues, seeking alternatives to traditional roads, and devising innovative approaches that could redefine urban mobility. As we stand on the verge of a transportation renaissance, the concept of smart mobility is emerging as a pivotal force, promising not only enhanced efficiency and convenience but also a fundamental reshaping of the very fabric of modern society.

Let’s explore some of the key innovations that will likely disrupt the transportation industry in the forthcoming decades.

1) Autonomous Vehicles (AVs)

According to the WHO, approximately 1.3 million people die each year as a result of road traffic crashes. Between 20 and 50 million more people suffer non-fatal injuries, with many incurring a disability due to their injury. The United Nations General Assembly has set an ambitious target of halving the global number of deaths and injuries from road traffic crashes by 2030 (A/RES/74/299).*

Autonomous vehicles come equipped with advanced sensors, GPS, and onboard systems, allowing them to operate without human intervention. The technologies driving autonomous driving are expected to revolutionize the concept of mobility, making it safer and requiring changes in business models across various industries. Safety will always be a top priority in the future, and passenger comfort will also be an important consideration. The benefits of autonomous driving are numerous, including increased personal safety, mobility for non-drivers, time savings for drivers, reduced environmental impact, and lower transport costs. Companies and researchers are working tirelessly to develop and test AVs to improve their safety and efficiency.

EY states that beyond the potential to save lives, there are other benefits to AVs, such as the amount of time that is lost sitting in traffic. The average auto commuter’s time in congestion could effectively be freed up with the advent of AVs, allowing for more work or leisure time during their commute.

Leading autonomous driving companies are making immense technological progress, scaling their operations across multiple cities and paving the way for greater public adoption.

2) Mobility-as-a-Service (MaaS)

Mobility-as-a-Service (MaaS) refers to the type of autonomous vehicle (AV) most people consider a ride-hailing service. With MaaS, users can summon a driverless vehicle using their phone, which will take them to their desired location without needing a human driver. However, MaaS is the most complex type of AV, facing a range of technological, regulatory, and customer concerns that need to be addressed before it can be successfully deployed. Initially, the technology will likely be limited to select markets that are heavily geo-fenced.

AVs are expected to increase vehicle costs, which are already at an all-time high. Typically, high-cost technology debuts first on luxury vehicles to recover initial research and development costs before becoming more widely available. Therefore, luxury personal vehicles might be the first to adopt AV technology, following the pattern of traditional automotive technologies. The number of personally-owned luxury AVs will be very limited initially and face the same limitations as MaaS AVs. Yet, we may still see a few privately owned luxury AVs sharing the roads with MaaS AVs.*

3) Shared Mobility

Shared mobility is a crucial complement to traditional public transport and company cars in reducing traffic, pollution, and CO2 emissions. As the demand for convenient, cost-effective, and sustainable modes of transportation in urban areas continues to rise, shared mobility services are becoming increasingly popular.

The transportation industry is rapidly expanding with various modes of mobility, such as e-hailing, self-service bicycles, scooters, car sharing, and more. These modes of transportation are cost-effective, convenient, and less stressful alternatives to car ownership. With the help of virtual devices, one can easily order a car, taxi, or any other form of transportation, making these new modes of mobility a popular choice for many.

In 2019, consumers took over 15 billion hailed-mobility trips, which generated revenue of $130 billion. By 2030, hailed mobility could account for 80-90% of consumer spending in shared mobility, with total revenues expected to increase to somewhere between $450 billion and $860 billion.*

In the past decade, shared mobility services have also become a favorite among investors, with private investors, technology companies, and other entities investing over $100 billion in shared mobility firms. Cities are also taking active measures to reduce private vehicle use and curb emissions in order to tackle the climate crisis, and this decade is likely to see a significant shift towards flexible, shared, and sustainable transportation options. More than 150 cities worldwide are currently working on implementing measures to reduce private vehicle use.*

4) Smart Infrastructure and Connectivity

Smart infrastructure and connectivity refer to integrating advanced technologies and data-driven solutions into the design, construction, and management of transportation systems. This concept encompasses smart transportation systems, sensor-equipped roads, and interconnected networks that enable efficient traffic management, enhance safety measures, and facilitate the seamless integration of emerging transportation technologies like autonomous and electric vehicles. Smart infrastructure aims to optimize infrastructure performance through data analytics and real-time monitoring, promoting a more sustainable and resilient transportation network for the future.

For instance, European rail traffic is snowballing, highlighting the importance of ensuring that tracks, signals, and bridges are safe and dependable. Currently, the cost of maintaining and renewing infrastructure across Europe exceeds €25 billion per year and is expected to increase further. Despite this significant investment, operators are still struggling to maintain their assets effectively, resulting in frequent delays, cancellations, and low levels of satisfaction among rail users. However, there is a glimmer of hope in the near future. Operators have a significant opportunity to tackle long-standing maintenance challenges with advanced analytics.

A preliminary study of track segments found that operators could lower maintenance costs by up to 30% on certain tracks without affecting the stability of the network. Operators could improve the stability of their networks without any additional cost by allocating more resources to the most critical track segments and reducing investment in less critical segments.*

5) Electric and Sustainable Transportation

In 2020, the transportation sector accounted for about 20% of global greenhouse gas emissions, with more than 40% of the total coming from private cars.* Air pollution levels in many European cities are currently exceeding safe levels, leading to premature deaths. According to the EU, 40% of Europeans are exposed to dangerous levels of road traffic-related noise, which affects their mental health and well-being. In Paris, the average person spends 65 hours in traffic annually, while in Munich, it’s 49 hours, and in Stockholm, it’s 35 hours, leading to a loss of productivity.*

Electric and sustainable transportation represents a paradigm shift in the transportation industry toward more eco-friendly and energy-efficient modes of travel. Opportunities for the automotive industry exist as electrified vehicles reach a turning point due to regulatory policy changes, consumer attitudes, battery economics, and infrastructure.

It is possible to reduce carbon emissions and promote environmental sustainability with the widespread adoption of electric vehicles (EVs), the development of sustainable fuel alternatives, and the implementation of green transportation initiatives. It also involves deploying charging infrastructure, advancing battery technology, and integrating renewable energy sources to support the transition from conventional fossil fuel-based transportation to cleaner and more sustainable mobility solutions.

The EY Climate Change and Sustainability Services practice conducted a full Life-Cycle Assessment of Voi Technology’s services. The results showed that the company’s combined sustainability initiatives have led to a significant reduction of 71% in emissions since January 2019. As a result, the emissions per person per km have been reduced to 35g CO2 equivalent, comparable to many public transport options. Swappable battery scooters and cargo bikes have played a significant role in achieving a 51% reduction in emissions.

6) Urban Air Mobility

Urban air mobility involves using aerial transportation systems like electric vertical takeoff and landing (eVTOL) aircraft and drones for quick and efficient transportation within urban areas. This concept envisions a future where air taxis, air shuttles, and other aerial vehicles play a vital role in reducing traffic congestion on the ground and providing fast, point-to-point transportation services.

Urban air mobility technologies aim to revolutionize urban commuting, reduce travel times, and offer a viable solution to the challenges posed by increasing urbanization and traffic congestion. Integrating this technology requires careful consideration of air traffic management, infrastructure development, and regulatory frameworks to ensure safe and reliable operation within urban airspace.

The urban and advanced air mobility segment received a record amount of funding in 2021, totaling around $6.9 billion in new investments. In 2022, funding declined due to macroeconomic conditions, though it remained significantly higher than before the pandemic.*

For instance, Airbus Unmanned Traffic Management (UTM) is building digital air traffic management (ATM) solutions necessary to allow existing aircraft to continue operating in lower airspace and future vehicles, including delivery drones and air taxis, with the vision of a digitized, integrated, accessible airspace supporting a wide range of new vehicles and operations globally.

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The future of transportation will bring about a substantial transformation beyond just convenience and efficiency. It promises to create a more connected, sustainable, and inclusive world for future generations. Despite the challenges and aspirations, one thing is certain: transportation is not just about moving from point A to point B. We stand on the brink of a transportation revolution that will change the world.

At Kartaca, we are committed to reimagining the future through technology. We have worked alongside businesses from various sectors to develop, set up, and implement IT solutions and understand potential pitfalls.

If you would like to know more about how Kartaca can add value to your transportation business, please check this page and contact us.

Kartaca is a Premier Partner for Google Cloud in the Sell and Service Engagement Models with “Cloud Migration” and “Data Analytics” specializations.