Urban mobility refers to the use of various transportation modes within urban settings for travel purposes, with commuting serving as its dominant purpose.

Urban mobility challenges should be approached comprehensively, sustainably and according to each city’s specific circumstances. Successful solutions must prioritize proximity and quality of life while considering climate resilience and sustainability, inclusion and safety when finding appropriate solutions.

Transportation

Urban mobility refers to how individuals navigate urban areas for work and leisure purposes, such as shopping or visiting cultural sites. It encompasses all modes of transport ranging from walking to driving and their integration in the built environment. Transport systems produce significant carbon emissions while negatively affecting quality of life for low-income populations in cities; WRI strives to develop more environmentally-friendly, inclusive, accessible transport systems.

Cities must prioritize access to public transit and encourage car-free living by planning for high-quality public transport, affordable parking and fares, and efficient traffic management – such as Transit-Oriented Development (TOD). TOD centers around clustering new buildings and services around transit hubs.

E-commerce and home delivery services necessitate city logistics solutions designed to minimize congestion, improve efficiency, and minimize environmental impacts. Effective Sustainable Urban Mobility Plans (SUMPs) foster modal shift, emission reductions, climate resilience through targeted planning with specific actions taken as targeted goals.

Pedestrians

As part of urban mobility, pedestrians make up a substantial share of urban movement, reflecting an overall trend toward greater mobility and distance traveled per urban resident. Rapid city expansion and diffusion of alternative individual transportation modes has shifted commute efficiency concerns away from vehicle congestion toward pedestrian movement; non-motorized options have become integral parts of both promoting positive lifestyle choices while simultaneously decreasing harmful CO2 emissions.

Many modeling approaches center around pedestrian behavior. These can be divided into microscopic and macroscopic models, with macroscopic ones usually being routing-based with fluid mechanics or queueing theory as their basis. More recently, advances in computing power have enabled researchers to utilize agent-based models (ABM) in pedestrian movement simulation incorporating characters with characteristics like spatial awareness or cognition precepts as variables to simulate real urban networks.

ITDP also developed Pedestrians First, an online tool which enables urban planners and city officials to conduct comprehensive measurements of walkability for complex policies that entail infants/toddlers/elder adults impacted by inadequate transit systems in Latin America and the Caribbean. It features metrics specifically for these populations as they relate to policy recommendations.

Micromobility

Micromobility has quickly become a sought-after transportation mode in urban settings. Composed of small, low-speed vehicles driven by human or electric motors, micromobility can provide short trips with multiple transit modes integrated. Bikeshare systems often share these vehicles to facilitate short rides.

Mobility as a Service (MaaS) platforms allow travellers to plan and book their entire trip through one app, making their experience more efficient and seamless. This also enables multiple forms of transport to be combined for an streamlined travel experience.

Bicycles, e-bikes and scooters are the most commonly seen forms of micromobility and tend to vary depending on where one lives. Going forward, we expect more walking networks and shared mobility systems that prioritize efficiency and convenience; for example integrated systems that enable commuters to combine walking with shared mobility and public transit into one trip, increasing mobility options while decreasing road congestion while simultaneously encouraging active lifestyles.

Vehicles

Transport systems play a central role in city economies and social inclusion. Furthermore, they help address environmental challenges like congestion, local air pollution and greenhouse gas emissions.

Urban travel modal split varies by location, lifestyle and socio-economic status. A portion of the population lacks access to private vehicles due to limited public transit services or high vehicle ownership costs which restrict their mobility options.

Autonomous Vehicles (AVs) provide additional options to urban citizens by reducing car use and improving traffic flow, but without proper design and regulation they could increase vehicle kilometres travelled, worsen congestion, and discourage walking and cycling – potentially endangering mass transit sustainability and undermining urban livability. To ensure their success, urban transport players should collaborate to educate residents about shared AVs while making sure shared ones do not cannibalize existing public transportation systems; additionally they should cooperate in creating digital mobility platforms that integrate AVs into urban transportation systems thereby maximising their potential potential.