Transforming Urban Mobility for a Sustainable Future
The landscape of urban mobility is undergoing a fundamental transformation. Traditional modes of transportation, dominated by cars and public transit, are being challenged by the rise of micro-mobility and other innovative urban mobility solutions. This shift is not merely a trend but a strategic response to the evolving needs of modern cities grappling with congestion, environmental concerns, and the limitations of existing infrastructure.
In this comprehensive guide, we delve into how cities address these challenges, using examples from some of the most forward-thinking urban environments across Europe and beyond. As a leading authority in the micro-mobility sector, we explore the latest developments, trends, and strategies shaping urban transportation's future.
Understanding the micromobility Phenomenon
What is Micromobility?
Micromobility encompasses a range of small, lightweight vehicles—compact mobility devices—operating at speeds typically below 25 km/h (15 mph) and ideal for trips up to 10 kilometers. This category includes personal electric vehicles such as electric scooters, e-bikes, electric cargo bikes, pedal-assist bicycles, and innovative devices like foldable e-strollers. The appeal of micromobility lies in its ability to offer efficient, flexible, and sustainable transportation options tailored to short-distance travel.
Impact of Micromobility in Urban Areas
Cities like Copenhagen have seen a remarkable 30% reduction in car traffic in central areas where micromobility solutions have been actively promoted. Additionally, electric cargo bikes make over 8,000 deliveries daily across the city's logistics network, highlighting their crucial role in last-mile deliveries. In Germany, over 40% of trips in cities like Berlin are now completed using some form of micromobility, demonstrating significant adoption rates that challenge traditional transportation methods.
Benefits of Micromobility
Efficiency: Aligns vehicle size with transportation needs, reducing wasted space and energy.
Sustainability: Promotes zero-emission transport alternatives, contributing to lower urban emissions.
Flexibility: Ideal for navigating congested urban areas and accessing areas restricted to larger vehicles.
The Inefficiency of Oversized Solutions
Oversized Vehicle Issues in Urban Areas
Using large vehicles for short trips leads to inefficiencies in urban transportation. For instance, the average car in European cities operates at only 25% of its seating capacity, resulting in wasted space, fuel, and increased congestion. This mismatch between vehicle capacity and actual usage contributes to unnecessary energy consumption, higher emissions, and exacerbated traffic congestion.
Environmental Impact
The average CO2 emissions per passenger-kilometer in an electric vehicle are 90 grams, whereas for an e-bike, it is a mere 21 grams. This stark contrast justifies the rising popularity of micromobility options in environmentally-conscious cities like Oslo and Amsterdam.
How Micromobility Addresses These Inefficiencies
Micromobility aligns the size and capability of the vehicle with the transportation task at hand, promoting zero-emission transport alternatives better suited for urban environments. By reducing the reliance on oversized vehicles, micromobility helps decrease energy consumption, emissions, and traffic congestion.
Economic Implications and Accessibility
Cost Benefits of Micromobility
The affordability of micromobility, including shared services like e-scooter sharing and Mobility as a Service (MaaS), is a significant driver of its adoption. Lower purchase prices, minimal operating costs, and the availability of shared services make micromobility accessible to a broader population segment.
Examples of Cost Savings
Paris: The average cost of a shared e-scooter ride is only €2.75, significantly lower than the cost of a taxi for a similar distance.
Electric Cargo Bikes: Used for deliveries at roughly €0.15 per kilometer compared to around €0.50 for a small delivery van, allowing businesses to achieve considerable savings over time.
Enhancing Accessibility
Micromobility fills gaps in existing transportation networks, providing first-mile and last-mile solutions. In Berlin, micromobility devices handle over 300,000 daily trips that would have otherwise required conventional public transit or private cars, enhancing social equity within urban environments.
Environmental Impact and Sustainability
Sustainable Urban Transport Benefits
Environmental considerations are at the forefront of the shift towards micromobility. By reducing reliance on fossil fuels and decreasing per-capita emissions, micromobility contributes significantly to mitigating climate change impacts.
Case Studies
Barcelona: Increased adoption of electric scooters could reduce urban CO2 emissions by up to 12,000 tons annually, equivalent to removing approximately 5,000 cars from the streets.
Amsterdam: With 56% of its residents using bicycles for daily commutes, the city contributes to a reduction of 18,000 tons of CO2 per year.
Promoting Active Transportation
Encouraging active transportation through pedal-assist bicycles and other human-powered or electric-assisted devices promotes healthier lifestyles and reduces environmental footprints. Additionally, the smaller physical footprint of micromobility vehicles reduces wear and tear on infrastructure and lessens the urban heat island effect prevalent in densely built environments.
Micromobility in Practice: Examples from European Cities
Successful Micromobility Implementations Across Europe
Copenhagen, Denmark
Copenhagen is a global leader in micro mobility, with over 49% of all trips to work or school completed using bicycles or e-bikes. The city has developed over 390 kilometers of dedicated cycling lanes, and new micromobility services contribute to reducing traffic congestion by 20% in peak areas.
Paris, France
Paris has significantly expanded its e-scooter and bike-sharing systems. Between 2021 and 2023, shared e-scooter usage grew by 36%, supported by the distribution of more than 15,000 scooters throughout the city. The city’s ‘Plan Vélo’ aims to invest €250 million in cycling infrastructure, with a goal to achieve 100% cycling accessibility by 2026.
Berlin, Germany
Berlin has embraced micromobility with over 30,000 e-scooters and electric cargo bikes available through shared platforms. These services facilitate more than 1.5 million short-distance trips monthly, significantly reducing reliance on traditional cars. The city's micromobility initiatives help cut down traffic-related emissions by approximately 9,500 tons of CO2 annually.
Last-Mile Delivery Solutions in Europe
Electric Cargo Bikes for Urban Logistics
In Amsterdam, electric cargo bikes are a popular solution for last-mile deliveries, accounting for 25% of all parcel deliveries in the inner city. Companies like DHL and UPS have adopted cargo bikes, reducing their carbon footprint while navigating congested streets more efficiently.
Tricycle Delivery Solutions in Milan
Milan employs three-wheeled electric tricycles for last-mile delivery, supporting the booming e-commerce market. These tricycles, with a payload capacity of up to 200 kg, can access narrow streets and restricted zones, reducing delivery times by 15% compared to conventional vans.
Collaborative Hubs in London
London's local authorities have established micro-hubs where goods are consolidated before being distributed via e-bikes or e-scooters. A trial in Shoreditch reduced traffic by 21% and cut CO2 emissions by 37%, optimizing delivery routes and reducing the number of individual delivery vehicles on the road.
Drone-Assisted Deliveries in Switzerland
Switzerland is trialing drone-assisted last-mile deliveries in rural and suburban areas. Combining drone technology with electric cargo bikes ensures deliveries to hard-to-reach locations while maintaining low emissions, showing a 25% reduction in delivery time for remote areas.
Shared Cargo Bike Fleets in Hamburg
Hamburg offers shared cargo bike fleets for both individuals and businesses. These shared systems provide an affordable option for small businesses to carry out their deliveries without the overhead of owning a vehicle, with each cargo bike making an average of 7 deliveries per day.
Micro-Mobility Subscription Services
Cities like Vienna and Munich have seen a rise in micromobility subscription models. Businesses can subscribe to electric cargo bikes or e-scooters for a fixed monthly fee, offering predictable operational costs and expanded delivery capacity, particularly popular among small delivery companies.
Electric Pedestrian Assist Carts in Zurich
Zurich utilizes electric pedestrian assist carts for grocery and parcel deliveries, capable of carrying up to 100 kg. These electric pushcarts increase delivery efficiency by 20% in highly congested urban cores, proving particularly useful in pedestrianized areas.
Autonomous Robot Deliveries in Tallinn
Tallinn, Estonia, hosts Starship Technologies' autonomous delivery robots, which carry up to 10 kg and navigate sidewalks to deliver parcels directly to customers. These robots complete over 2,000 deliveries per month, providing an efficient, low-impact solution to last-mile challenges.
Infrastructure Evolution and Urban Planning
Redefining Urban Spaces for Micromobility
Integrating micromobility necessitates a reevaluation of urban infrastructure. Cities are reallocating space traditionally dedicated to cars—such as parking lanes and roadways—to accommodate bike lanes, scooter parking, and pedestrian areas. For example, Barcelona has reclaimed over 70 hectares of car space for public parks and cycling paths since 2018, creating greener, more livable urban environments.
Technological Advancements and Data Utilization
Leveraging Technology for Better Micromobility
Advancements in technology are crucial for the proliferation of micromobility. Integrating IoT devices, GPS tracking, and mobile applications facilitates the seamless operation of shared micromobility services. Innovations in battery technology and lightweight vehicle design have enhanced the performance and range of personal electric vehicles, including foldable e-strollers and pedal-assist bicycles.
Smart Mobility Solutions
Connected vehicles and smart mobility solutions enable real-time data sharing, improving safety and efficiency across transportation networks. In Stockholm, micro mobility companies collaborate with city planners to share anonymized data, which has helped create optimized cycling paths, reducing overall journey times by 10% and boosting micro mobility adoption.
Challenges and the Path Forward
Addressing Barriers to Micromobility
Despite its promise, micromobility faces challenges that must be addressed to realize its full potential. Safety concerns, regulatory frameworks, and issues related to the public right-of-way require collaborative solutions.
Safety and Regulations
Establishing clear guidelines for using dock-less scooters on sidewalks and streets can alleviate conflicts between pedestrians and riders. In Vienna, improved regulations in 2023 introduced defined docking stations, reducing accidents and improving public perception of micromobility solutions.
Future Prospects of Micromobility
Micromobility as a Disruptive Force
Micromobility is more than an additive component to existing transportation systems; it represents a disruptive shift akin to the advent of the automobile over a century ago. It challenges established industries, prompts regulatory reevaluation, and necessitates changes in consumer behavior. Compact mobility devices redefine how people move within urban spaces, offering flexibility and convenience. Companies that recognize and adapt to this shift stand to gain significantly, while those that resist may be marginalized.
Conclusion: Embracing a Micromobile Future
Future of Micromobility in Urban Transport
The momentum behind micromobility indicates a significant realignment in urban transportation. By addressing the inefficiencies of current systems and aligning with broader societal goals of sustainability and accessibility, urban mobility solutions like micromobility are poised to become a cornerstone of future urban planning. Embracing this shift requires vision and adaptability from policymakers, businesses, and consumers alike.
As we look ahead, the question is not whether micromobility will reshape our cities, but how quickly and effectively we can integrate these solutions to create more efficient, equitable, and environmentally friendly urban environments.
Strategies for Successful Integration
Enhancing Public Engagement: Involving community members in the planning and implementation of micromobility solutions to ensure they meet local needs.
Investing in Smart Infrastructure: Developing infrastructure that supports micromobility, including dedicated lanes, parking areas, and smart traffic management systems.
Data-Driven Planning: Utilizing data to optimize micromobility services, improve safety, and enhance user experience.
By enhancing public engagement, gathering and utilizing relevant data, and investing in smart infrastructure, we can ensure that micromobility will continue to flourish as an essential part of urban life—reducing emissions, enhancing accessibility, and making our cities more livable for all.
Price Savings of Cargo Bike Delivery vs. Conventional Delivery
Comparing Costs: Cargo Bikes vs. Conventional Vans
One of the main advantages of cargo bike delivery solutions over conventional delivery vehicles is the significant cost savings, both for businesses and the environment. Here, we compare the potential price savings of using cargo bikes for last-mile deliveries as opposed to traditional delivery vans:
Micromobility's Pivotal Role in the Future of Urban Transportation
Micromobility as a Disruptive Force in Urban Mobility
Micromobility is more than an additive component to existing transportation systems; it represents a disruptive shift akin to the advent of the automobile over a century ago. It challenges established industries, prompts regulatory reevaluation, and necessitates changes in consumer behavior. Compact mobility devices redefine how people move within urban spaces, offering flexibility and convenience. Companies that recognize and adapt to this shift stand to gain significantly, while those that resist may be marginalized.
Conclusion: Embracing a Micromobile Future
Future of Micromobility in Urban Transport
The momentum behind micro-mobility indicates a significant realignment in urban transportation. By addressing the inefficiencies of current systems and aligning with broader societal goals of sustainability and accessibility, urban mobility solutions like micromobility are poised to become a cornerstone of future urban planning. Embracing this shift requires vision and adaptability from policymakers, businesses, and consumers alike.
As we look ahead, the question is not whether micromobility will reshape our cities, but how quickly and effectively we can integrate these solutions to create more efficient, equitable, and environmentally friendly urban environments.
By enhancing public engagement, gathering and utilizing relevant data, and investing in smart infrastructure, we can ensure that micromobility will continue to flourish as an essential part of urban life—reducing emissions, enhancing accessibility, and making our cities more livable for all.
Last-Mile Delivery Companies Using Cargo Bikes in Europe
Companies Championing Sustainable Last-Mile Solutions
Several companies across Europe are solely focused on providing last-mile delivery solutions using cargo bikes, contributing to the overall reduction of emissions and urban congestion. Here is a list of notable companies operating in this space:
Urbike - https://www.urbike.be/
Operating primarily in Belgium, Urbike offers sustainable cargo bike delivery services tailored for urban logistics. They work with local businesses to provide efficient last-mile solutions in busy city centers.
Zedify - https://www.zedify.co.uk/
Based in the UK, Zedify uses electric cargo bikes to provide last-mile deliveries in cities such as London, Cambridge, and Brighton. Their aim is to deliver parcels sustainably while reducing congestion in dense urban areas.
Fietskoeriers.nl - https://www.fietskoeriers.nl/
A leading last-mile delivery company in the Netherlands, Fietskoeriers.nl utilizes a network of cargo bike couriers across various Dutch cities, providing zero-emission delivery services.
Cargo Bike Monkeys - https://cargobikemonkeys.de/
Operating in Germany, Cargo Bike Monkeys offers a range of logistics services using cargo bikes for environmentally-friendly last-mile deliveries in urban areas like Berlin, Hamburg, and Munich.
Velove - https://www.velove.se/
Velove provides e-cargo bike solutions across Sweden and other European cities. Their streamlined delivery process helps reduce emissions while maintaining high levels of efficiency for urban deliveries.
Cycle Logistics - https://www.cyclelogistics.eu/
This initiative supports cargo bike deliveries across multiple European countries. They partner with logistics providers to expand the adoption of cargo bikes for last-mile services, focusing on sustainability and urban accessibility.
Deliver.ee - https://www.deliver.ee/
Deliver.ee operates in France and offers same-day and last-mile deliveries using cargo bikes and electric vehicles. They are focused on providing eco-friendly solutions, especially in congested urban neighborhoods.
EcoCargobike - https://www.ecocargobike.com/
Based in Spain, EcoCargobike offers a range of last-mile services using electric cargo bikes, aiming to provide sustainable delivery options for urban businesses.
Chickened - https://www.chickened.dk/
Located in Denmark, Chickened provides eco-friendly last-mile delivery services with cargo bikes, catering primarily to restaurants and retailers in urban areas.
VeloCarrier - https://www.velocarrier.de/
VeloCarrier operates in Germany with a strong focus on green logistics solutions for last-mile deliveries. They use cargo bikes to navigate city centers efficiently, reducing the environmental impact compared to conventional vans.
These companies are actively shaping the future of urban logistics by providing sustainable last-mile delivery solutions that align with the goals of reducing emissions and improving city living conditions.
Price Savings of Cargo Bike Delivery vs Conventional Delivery
Comparing Costs: Cargo Bikes vs Conventional Vans
One of the main advantages of cargo bike delivery solutions over conventional delivery vehicles is the significant cost savings, both for businesses and for the environment. Here, we compare the potential price savings of using cargo bikes for last-mile deliveries as opposed to traditional delivery vans:
Operational Cost Savings: The average operating cost for an electric cargo bike is around €0.15 per kilometer, whereas the cost for a small delivery van can be as high as €0.50 per kilometer. This represents a savings of approximately 70%. Over the course of a year, a cargo bike used for urban deliveries can save businesses over €3,000 in operating expenses, depending on the frequency and distance of deliveries.
Initial Investment and Maintenance: The initial investment required for an electric cargo bike is much lower compared to a delivery van. While a small delivery van may cost anywhere from €25,000 to €30,000, an electric cargo bike typically costs between €3,000 and €7,000. Additionally, maintenance costs for cargo bikes are significantly lower due to their simpler mechanical systems and fewer parts, with annual maintenance often costing less than €500. Delivery vans, on the other hand, have higher maintenance requirements, leading to annual expenses that could easily exceed €1,500.
Fuel and Energy Savings: Cargo bikes, particularly electric models, operate on battery power, which is far cheaper than diesel or gasoline. The cost of charging an electric cargo bike is minimal—about €1 per 100 kilometers—while fueling a conventional delivery van costs approximately €8-€12 per 100 kilometers, depending on fuel prices. This equates to an 80-90% reduction in energy expenses for cargo bike deliveries.
Parking and Congestion Costs: In many European cities, congestion charges and parking fees are major costs for delivery vehicles. Cargo bikes are often exempt from congestion charges and can park more freely, reducing or even eliminating parking expenses. For instance, in cities like London and Amsterdam, avoiding congestion charges alone can save businesses between €1,000 to €2,000 annually per vehicle.
Time Efficiency in Urban Areas: Cargo bikes are often able to bypass traffic and access pedestrian areas that are restricted to larger vehicles. Studies conducted in Berlin and Paris indicate that cargo bikes can complete deliveries up to 60% faster than vans in dense urban areas, primarily due to their ability to take more direct routes, avoid congestion, and park closer to delivery points. Faster deliveries mean reduced labor costs and increased operational efficiency.
Environmental Savings and Incentives: Many European cities offer financial incentives or subsidies for companies using eco-friendly transportation. Businesses using cargo bikes may qualify for grants, reduced taxes, or other incentives that reduce overall costs. In France, businesses can receive up to €400 per electric cargo bike purchased under government schemes promoting sustainable logistics.
These savings make cargo bikes a financially attractive solution for last-mile deliveries, particularly in urban environments where congestion and emissions regulations increasingly favor smaller, more sustainable vehicles.
Why Supporting Micromobility for Last-Mile Delivery is Crucial
Importance of Micromobility in Last-Mile Logistics
Supporting micromobility for last-mile delivery is essential for several reasons. It not only provides a solution to the growing environmental crisis but also helps improve the quality of life in urban areas by reducing congestion, noise, and pollution. Here are some key reasons why micromobility should be prioritized for last-mile delivery:
Environmental Benefits
Conventional delivery vehicles contribute significantly to greenhouse gas emissions and air pollution, especially in urban centers. By supporting cargo bikes and other micromobility solutions, cities can reduce CO2 emissions and lower air pollution levels, aligning with climate goals and creating healthier urban environments.
Reduced Congestion
Last-mile deliveries using conventional vans often add to congestion in already busy urban areas. Cargo bikes, scooters, and electric tricycles can easily navigate narrow streets, use bike lanes, and park in smaller spaces, helping to reduce traffic bottlenecks and contributing to smoother traffic flow and more livable cities.
Lower Operational Costs
Micromobility solutions are much cheaper to operate than conventional delivery vans. With potential cost savings of up to 70-80% when comparing energy consumption, maintenance, and congestion charges, encouraging the use of micromobility for last-mile delivery fosters a more economical and sustainable business ecosystem.
Flexible and Reliable Deliveries
Cargo bikes are often faster in congested urban areas compared to delivery vans. They can use pedestrian paths, cycle lanes, and avoid heavy traffic, resulting in more reliable delivery times—a crucial factor in cities where traffic delays are common.
Supporting Local Economies
Micromobility solutions often involve local employment and small-scale operations, creating economic opportunities within communities. Supporting local micromobility providers boosts local economies and creates jobs, contrasting with larger fleets operated by multinational logistics companies.
Healthier Cities
Micromobility not only reduces emissions but also encourages healthier lifestyles. Workers using e-bikes or pedal-assist cargo bikes benefit from increased physical activity, and cities prioritizing these modes of transport foster a more active population.
Avoiding Future Regulations and Penalties
Many cities are introducing low-emission zones, congestion taxes, and other regulations aimed at discouraging the use of large, polluting vehicles. By adopting micromobility solutions, delivery companies can avoid these penalties and future-proof their logistics operations against increasingly stringent urban regulations.
Why Customers Should Ask About Delivery Methods
Consumer Awareness in Sustainable Delivery Choices
Customers are becoming increasingly aware of their environmental impact and seek to support businesses that share their values. By inquiring about delivery services' transportation methods, customers can make informed decisions that promote sustainability.
Here’s why customers should ask about delivery methods:
Environmental Responsibility
Choosing companies that use sustainable delivery methods like cargo bikes contributes to reducing greenhouse gas emissions. Customers can drive demand for greener practices by supporting businesses that prioritize sustainability.
Transparency and Accountability
When customers ask about delivery methods, it pressures companies to be more transparent and accountable regarding their operations. This encourages businesses to adopt more sustainable logistics practices and make environmentally conscious decisions.
Healthier Communities
Supporting businesses that use micromobility for deliveries contributes to reducing traffic congestion and air pollution in local neighborhoods. Cleaner air and less noise benefit everyone in the community, creating healthier environments for children and families.
Aligning with Values
Many consumers prefer to spend their money with businesses that align with their personal values. By choosing delivery services that prioritize eco-friendly practices, customers ensure their choices support the kind of world they want to live in.
Promoting Positive Change
Consumer behavior influences business strategies. When customers demand greener delivery options, it sends a strong message to companies and policymakers about the market direction. This collective action can lead to broader adoption of sustainable practices across the logistics industry.
Quality of Service
Cargo bikes and micromobility solutions often provide faster, more flexible deliveries in congested urban areas. By supporting these methods, customers may benefit from improved delivery times and more personalized service, especially from smaller, local businesses.
By actively choosing delivery options that prioritize micromobility, customers contribute to reducing urban pollution, supporting healthier cities, and fostering sustainable business practices.
Frequently Asked Questions (FAQs)
1. What are the main types of micromobility devices?
Micromobility includes electric scooters, e-bikes, electric cargo bikes, pedal-assist bicycles, foldable e-strollers, and other lightweight, electric-assisted vehicles designed for short-distance travel.
2. How does micromobility reduce urban congestion?
Micromobility devices are smaller and more agile than cars, allowing them to navigate through traffic more efficiently. They also require less space for parking, reducing the overall demand for road space and alleviating congestion.
3. Are micromobility solutions cost-effective for businesses?
Yes, micromobility solutions like electric cargo bikes offer significant cost savings compared to conventional delivery vans. Operational costs, maintenance, and energy expenses are substantially lower, making them a financially attractive option for last-mile deliveries.
4. How do cities integrate micromobility into their existing infrastructure?
Cities integrate micromobility by reallocating space from cars to bike lanes, scooter parking, and pedestrian areas. They also invest in smart infrastructure, such as charging stations and dedicated micromobility hubs, to support the seamless operation of these services.
5. What are the environmental benefits of micromobility?
Micromobility reduces greenhouse gas emissions, lowers air pollution, and decreases reliance on fossil fuels. By promoting zero-emission transport alternatives, micromobility contributes to mitigating climate change and creating healthier urban environments.
6. How can consumers support sustainable micromobility practices?
Consumers can support sustainable micromobility by choosing delivery services that utilize cargo bikes or other micromobility solutions, participating in shared micromobility programs, and advocating for policies that promote sustainable urban transportation.
7. What challenges does micromobility face in urban areas?
Challenges include safety concerns, regulatory frameworks, public acceptance, and the need for adequate infrastructure. Addressing these issues requires collaboration between city planners, businesses, and communities to create effective and sustainable micromobility solutions.
8. How does micromobility contribute to social equity in urban areas?
Micromobility provides accessible and affordable transportation options, bridging gaps in existing transportation networks. It empowers individuals underserved by traditional public transit, enhancing mobility and social inclusion within urban environments.
9. What future trends are expected in the micromobility sector?
Future trends include the integration of autonomous technology, increased use of data analytics for optimizing services, expansion of subscription-based models, and greater emphasis on sustainability and circular economy practices within the micromobility industry.
10. How can businesses transition to micromobility for their delivery needs?
Businesses can transition by adopting electric cargo bikes, partnering with micromobility service providers, investing in necessary infrastructure, and training employees on the use of micromobility devices. Additionally, leveraging subscription models can help manage costs and scalability.
References
Copenhagen Micromobility Report 2023 - Insights into bike usage and infrastructure development.
Paris 'Plan Vélo' Documentation - Details on Paris’s investment in cycling infrastructure.
Berlin Micromobility Statistics - Data on e-scooter and cargo bike usage in Berlin.
Barcelona Environmental Impact Study - Analysis of CO2 emission reductions through micromobility.
Stockholm Smart Mobility Initiative - Case study on data-driven micromobility planning.
Vienna Micromobility Regulations 2023 - Overview of regulatory changes supporting micromobility.
Micromobility's Pivotal Role in the Future of Urban Transportation
About
Lior Bazak is an entrepreneur and an expert in sustainable micromobility solutions, with over 25 years of experience in market development and innovation. As the driving force behind Green Speedy, Lior is committed to creating efficient, eco-friendly urban transportation options that address road congestion and improve daily logistics for families and businesses.
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