Micromobility

The Micromobility System (1MMS) market, a level 1 roadmap, represents a segment of the broader urban mobility market. Level 2 roadmaps focus on specific micromobility solutions (e.g., shared electric scooters, e-bikes), level 3 roadmaps target the subsystems within these solutions (e.g., powertrain, connectivity, structural), and level 4 roadmaps delve into individual components (e.g., battery cells, sensors, motors).

Technology Roadmap Overview

Micromobility refers to a range of small, lightweight vehicles operating at speeds typically below 25 km/h (15 mph) and driven by users personally. These include bicycles, e-bikes, electric scooters, electric skateboards, shared bicycles, and electric pedal-assisted bicycles. Micromobility represents a significant shift in urban transportation, offering flexible, sustainable solutions for short-distance travel that are ideal for city settings. Originating in the 19th century, micromobility has advanced into electric folding bikes and motorized vehicles. Today, micromobility solutions focus on shared, electric, and connected vehicles integrated into an urban network. Micromobility is interfacing with user data and contextual information more efficiently and seamlessly and is gaining traction in autonomous personal mobility. It is also venturing into other modes other than land mobility, such as air and water transportation. Micromobiliity is poised to play an increasingly important role in the future of urban mobility and smart cities. It is core to city planning, from historic city centers to today’s most transformative giga-projects.

Roadmap Model using OPM

Below, we provide an object-process diagram (OPD) of the 1MMS roadmap. This diagram captures the main object of the roadmap, its decomposition into subsystems (powertrain, connectivity, structural...), its characterization by Figures of Merit (FOMs), as well as the main processes and actors involved.

Figures of Merit

This table outlines the key metrics for evaluating the performance and effectiveness of micromobility systems.

Figure of Merit (FOM)	Unit	Description
Energy Efficiency	Wh/km	Measure the energy consumption per kilometer traveled by the micromobility vehicle.
Utilization Rate	rides/vehicle/day	Indicates how frequently a vehicle is used on average in a shared system.
Trip Duration	Minutes	Represents the average time taken for a typical trip by users.
Trip Distance	Kilometers	Measures the average distance covered during a single trip.
Battery Life	Hours or Kilometers traveled	Evaluates the battery’s operational time/distance before needing a recharge.
Per-Unit Operational Cost	$/ride	Calculates the cost associated with maintaining and operating the vehicle for each ride.
Downtime	Hours	Represents the amount of time a vehicle is unavailable for use, typically due to maintenance or charging.
Safety Incidents	incidents/1,000 rides	Tracks the frequency of safety-related issues or accidents to assess the system’s safety.
App/platform user engagements	sessions/user/day	Measures the average number of interactions a user has with the app per day.

Alignment with Company Strategic Drivers: FOM targets

Overview

The table below provides the high-level strategic drivers and alignment for the 1MMS and 2EBK technology roadmap. There are additional detailed drivers that provide more context for the FOM targets with a multi-horizon lens.

Number	Strategic Driver	Alignment
1	Urban Mobility and Smart City Integration: Increasing congestion and the need for flexible last-mile solutions highlight e-bikes as a compact, efficient option.	E-bikes allow users to bypass traffic, reduce parking needs, and improve the flow of urban transport, meeting the demand for quick, point-to-point solutions in crowded city centers. This creates a data-driven mobility solution that supports safer, sustainable urban living.
2	Advancements in Technology and Manufacturing: Support the battery, motor systems, and electronic controls for more optimal and efficient electric transportation systems	Advances in battery technology, motor efficiency, and lightweight materials enable extended range, improved speed, and reduced recharging times, making e-bikes a more attractive, competitive choice for daily commutes and recreational use.
3	Environmental Sustainability Impact: As cities strive to meet emissions targets and reduce pollution, e-bikes present an environmentally friendly alternative to short car trips.	Sustainable urban transit with electric-powered bicycles that significantly lower CO₂ emissions.

By focusing on these strategic drivers and capability milestones, the e-bike industry can continue to innovate and expand its market presence over the next decade, addressing key challenges in urban mobility, sustainability, and technological integration.

Strategic Driver FOM Targets by Time Horizon

The following is a detailed list of FOM targets by time horizon relative to the broader technology roadmap that connects to the strategic drivers. The planned roadmap would take a phased horizon approach with separate swimlanes for various technical, system integration, and connectivity drivers.

Time Horizon	FOM Targets
Near-term	Achieve 50 km range on a single charge Develop lightweight frames (under 20 kg total bike weight) Integrate smart connectivity features Implement fast-charging capabilities 80% charge in 1 hour Increase energy density for Battery: 250 Wh/kg Develop advanced traction control with response time (ms) and effectiveness (% improvement in slip prevention)
Mid-term	Multi Passenger ebikes Achieve 25% increase in motor efficiency Develop ultra-quiet motor systems (< 50 dB at 20 km/h) Reduce carbon footprint of manufacturing by 40% FOM target:132 kg of CO2e
Long-term	Develop self-balancing technology for increased stability Implement AI-driven predictive maintenance Implement solid-state batteries with energy density > 500 Wh/kg Extend battery lifespan to 2000+ charge cycles

The figure below is a representation of the roadmap that is currently being built: