Insights and news from the ATOM Mobility team
We started our blog to share free valuable information about the mobility industry: inspirational stories, financial analysis, marketing ideas, practical tips, new feature announcements and more.
We started our blog to share free valuable information about the mobility industry: inspirational stories, financial analysis, marketing ideas, practical tips, new feature announcements and more.

🤖 Who will actually operate Europe’s robotaxi fleets? Autonomous driving may remove the driver, but it doesn’t remove the work behind the car. Robotaxis still need charging, cleaning, maintenance, depots, customer support and someone managing the fleet every day. Early projects in Zagreb, Madrid and London illustrate different stages of deployment and how AV technology providers, fleet operators and booking platforms can work together. Taxi, rental and car-sharing companies already handle many of these tasks. What would it take to turn that experience into an autonomous fleet business?
For a taxi fleet owner, autonomous vehicles may seem to remove the most important part of the current business – the driver. But even without drivers, someone still needs to take care of the cars. They need to be owned or financed, charged, cleaned, inspected and repaired. Someone also needs to manage depots, deal with incidents, help customers and make sure enough cars are available.
The first robotaxi services and tests in Europe are already showing how this could work. The company that develops the autonomous driving technology does not always own or operate the cars. The app where customers book their rides may come from another company too. This could leave an important role for taxi, rental, car-sharing and other fleet companies that already know how to manage vehicles.
A taxi company today manages both cars and drivers. Drivers need to be recruited, scheduled, paid and supported. With a driverless fleet, these tasks would eventually disappear, but most of the work related to the cars would stay.
Autonomous cars still need charging or refuelling, cleaning, tyres, inspections, repairs and insurance. They also need somewhere to park when they are not working. If there is an accident or a technical problem, someone needs to deal with it and get the car back on the road. Customer support is still needed too when there are problems with bookings or payments, or when someone leaves something in the car.
Some of these tasks may even become more important. Robotaxis are expensive, and every hour a car spends charging, being cleaned or waiting for maintenance is an hour when it cannot take passengers. Moove, for example, already provides fleet ownership, depots, charging, maintenance and 24/7 operations for autonomous vehicles.
Drivers also do more than drive: they notice damage, report faults, help passengers and respond when something goes wrong. Without a driver, these responsibilities need clear processes and dedicated support. Existing fleet experience is an advantage, but operators will need to adapt it to vehicles running without someone behind the wheel.
There can be several companies behind one robotaxi ride. One provides autonomous driving technology, another may own the cars, and a local company can take care of the fleet. A platform such as Uber can then connect the cars with passengers. Sometimes one company may do several of these things, but this is not always the case.
Zagreb is one example. Pony.ai provides the autonomous driving system, Verne owns and operates the fleet, and Uber connects it with customers through its app. Autonomous rides became commercially available through Uber in August 2026 with a licensed operator onboard. On 10 September, Pony.ai and Verne also started fully driverless passenger test rides on a 22-kilometre route connecting parts of Zagreb with the airport. These are still limited test rides, not a fully driverless service across the whole city.
A similar model is being tested in Madrid. WeRide, Uber and AVOMO received permission in September 2026 to start testing and mapping under Spain’s ES-AV framework. The first 20 vehicles have an onboard specialist. WeRide provides the autonomous technology, Uber connects the cars with passengers, and AVOMO takes care of fleet operations. Commercial operations are planned for later in 2026, but the current permit is for testing and preparation rather than a general driverless taxi service.
In London, Wayve and Uber launched supervised autonomous passenger rides in September 2026. Customers can be matched with an autonomous vehicle through the Uber app, but there is still a licensed driver in the car.
The plans for the next few years are already much bigger. Pony.ai and Uber announced in August 2026 that they plan to deploy more than 2,000 robotaxis in Europe, starting with Zagreb and later expanding to four more European cities.
Bolt and Lucid announced another partnership in September, with Bolt aiming to deploy at least 25,000 autonomous Lucid vehicles across European cities. This is a future target, not 25,000 cars already operating today.
How these fleets are owned and operated may also be different from one city to another. Local regulations, available vehicles, charging and depot infrastructure and partnerships will all have an effect on how each service is set up.

Taxi companies already do many of the things that would still be needed with an autonomous fleet. They maintain cars, deal with insurance and incidents, provide customer support and make sure enough vehicles are available. Some also already have their own depots, charging infrastructure or maintenance partners.
One possible model can already be seen in Zagreb. A local company owns and operates the autonomous fleet, while a larger ride-hailing platform brings customers. In the future, an existing taxi company could potentially have a similar role. Instead of managing cars and drivers, it could manage autonomous cars that receive bookings through a larger platform.
This does not mean platforms such as Uber will always rely on other companies to own the cars. Uber’s 2026 agreement with Rivian includes up to $1.25 billion in milestone-dependent investment and says that Uber or its fleet partners may purchase the autonomous vehicles. Uber is also developing infrastructure for autonomous fleets. Different ownership models are therefore possible.
Autonomous vehicles could also become interesting for rental and car-sharing companies, although this is probably further in the future. These businesses already manage vehicles, maintenance, cleaning, charging, bookings, customer accounts and payments, so much of the practical work is similar.
Autonomous driving could also change how rental and sharing cars are moved. Today, an employee may need to drive a car from one location to another. In the future, the vehicle could potentially do this itself within an area where autonomous driving is approved. It could even become possible for a rental car to drive itself to a customer’s pickup point.
Without drivers, it becomes especially important to understand how much time each vehicle is actually working. Every hour spent charging, being cleaned, waiting for maintenance or simply sitting unused means less time carrying paying passengers.
Some useful KPIs could be available hours per vehicle, paid trips per vehicle each day, revenue per available vehicle/day, empty kilometres, charging and maintenance downtime, cost per trip and incidents that need human help. These are most popular robotaxi industry KPIs of what a company could measure during a pilot.
For example, if cars spend too much time waiting to charge, the charging setup may need to change. A lot of empty kilometres could mean the cars are not in the right places, while too much maintenance downtime could make a vehicle more expensive to operate.
For either model, the business case depends on the partnership terms: who finances the vehicles, who carries the risk when demand is low, and how revenue and operating costs are shared. Operators should assess what remains after vehicle financing, insurance, charging, maintenance and partner fees. Depots, local service teams and reliable fleet availability could make an operator a valuable partner, but profitability still needs to be demonstrated.
One option for taxi fleets would be to work with an autonomous driving company and a larger ride-hailing platform. The local company could own or manage the cars and take care of the fleet, while customers book their rides through the larger platform.
Another option could be possible in cities where large ride-hailing platforms are not present or have limited coverage. A local company could work with an approved AV provider while using its own app, bookings, payments, customer support and fleet management.
In both cases, a company cannot simply buy autonomous cars and start offering rides. The technology needs to be approved, and local rules have to allow the service. These rules will also be different across Europe. Great Britain, for example, introduced its Automated Passenger Services permitting framework in 2026. Services similar to taxis or private hire vehicles need consent from the relevant local authority, while responsibility for the autonomous driving technology and the passenger service are treated separately.
A company does not need to have autonomous cars today to start preparing. A good first step is understanding the current fleet in detail – what each vehicle costs, how many hours it is available, how much time it spends charging or being repaired, and when cars are used the most.
Charging, cleaning, maintenance and depot processes are also worth looking at because all of these will still be needed with autonomous vehicles. A company interested in an AV pilot can then choose a location and use case, look at the local permit process and start talking to autonomous driving technology providers.
The software will also need some preparation. Customers still need to book and pay for rides, while the company needs fleet information, customer support, reporting and connections between its own systems and the AV technology. Starting with a small pilot makes it possible to test all of this before trying to build a larger service.
ATOM Mobility already provides many of the software functions used by taxi, ride-hailing, rental and sharing companies, including customer apps, bookings, payments, fleet management, maintenance tasks, analytics and APIs. Its ride-hailing software includes passenger and driver apps, dispatch, payments, fleet data, analytics and integrations. The ATOM Mobility API can also exchange data about vehicles, bookings, rides, payments, telemetry and maintenance tasks.
ATOM Mobility does not provide autonomous driving technology. This would come from a specialised AV company, and each project would have its own technical requirements and local approvals. For an AV pilot, ATOM Mobility could work with the fleet company and AV provider on the rider experience, integrations, fleet management and the data needed to measure how the pilot is working.
If you operate a taxi, rental or sharing fleet and want to explore an AV pilot, ATOM Mobility can help plan the booking and fleet-management setup, integrations and metrics you would need to test together with an AV technology partner.

The micromobility industry doesn’t need another generic mobility conference. 🚫🎤 It needs real conversations between operators who are actually in the field. ⚙️ That’s exactly what ATOM Connect 2026 is built for. 🎯🤝
The shared mobility industry is evolving rapidly. Operators are navigating scaling challenges, regulatory complexity, hardware decisions, fleet optimization, and new integration models, all while aiming for sustainable growth.
That’s exactly why ATOM Mobility is organizing ATOM Connect 2026.
Our previous edition of ATOM Connect brought together professionals from the car sharing and rental industry for focused, high-quality discussions and networking. This year, we are narrowing the focus and dedicating the entire event to one fast-moving segment of the industry: shared micromobility.
ATOM Connect 2026 is designed specifically for operators, partners, and decision-makers working in shared micromobility. It is not a broad mobility conference or a public exhibition. It is a curated space for industry professionals to exchange practical experience, insights, and lessons learned.
On May 14th, 2026 in Riga, we will once again bring the community together, this time with a clear focus on micromobility.
This year’s agenda will address the real operational and strategic questions shaping shared micromobility today:
As usual, we aim to host both local and international operators from smaller, fast-growing fleets to established large-scale players alongside hardware providers and ecosystem partners.
On stage, you’ll hear from leading shared mobility companies - including Segway on hardware partnerships, Umob on MaaS integration, Anadue on data-driven fleet intelligence, Elerent on multi-vehicle operational realities and more insightful discussions.
The goal is simple: meaningful discussions with people who understand the operational realities of the industry.
ATOM Connect is free to attend, but participation is industry-focused (each submission is manually reviewed and verified). We are intentionally keeping the audience relevant and aligned to ensure high-quality conversations and valuable networking.
If you work in shared micromobility and would like to join the event, you can find the full agenda and register here:
👉 https://www.atommobility.com/atom-connect-2026
In the coming weeks, we will be revealing more speakers and additional agenda updates. We look forward to bringing the industry together again.

📉 Every unmet search is lost revenue. The unmet demand heatmap shows where users actively searched for vehicles but none were available - giving operators clear, search-based demand signals to rebalance fleets 🚚, improve conversions 📈, and grow smarter 🧠.
Fleet operators don’t lose revenue because of lack of demand - they lose it because demand appears in the wrong place at the wrong time. That’s exactly the problem the Unmet demand heatmap solves.
This new analytics layer from ATOM Mobility shows where users actively searched for vehicles but couldn’t find any within reach. Not guesses. Not assumptions. Real, proven demand currently left on the table.
The unmet demand heatmap highlights locations where:
In other words: high-intent users who wanted to ride, but couldn’t. Unlike generic “app open” data, unmet demand is recorded only when a real vehicle search happens, making this one of the most actionable datasets for operators.
Many analytics tools track where users open the app (ATOM Mobility provides this data too). That’s useful - but incomplete. Unmet demand answers a much stronger question:
Where did users try to ride and failed? That difference matters.
Unmet demand data is:
✅ Intent-driven (search-based, not passive)
✅ Directly tied to lost revenue
✅ Immediately actionable for rebalancing and expansion
✅ Credible for discussions with cities and partners

Here’s how the logic is implemented under the hood:
1. Search-based trigger. Unmet demand is recorded only when a user performs a vehicle search. No search = no data point.
2. Distance threshold. If no vehicle is available within 1,000 meters, unmet demand is logged.
3. Shared + private fleet support. The feature tracks unmet demand for:
This gives operators a full picture across all use cases.
4. GPS validation. Data is collected only when:
This ensures accuracy and avoids noise.
To prevent multiple searches from the same user artificially inflating demand, the system applies intelligent filtering:
- After a location is stored, a 30-minute cooldown is activated
- If the same user searches again within 30 minutes And within 100 meters of the previous location → the record is skipped
- After 30 minutes, a new record is stored - even if the location is unchanged
Result: clean, realistic demand signals, not spammy heatmaps.
Unmet demand shows exactly where vehicles are missing allowing you to:
🚚 Smarter rebalancing
Instead of guessing where to move vehicles, teams can prioritize:
🏙 Stronger city conversations
Unmet demand heatmaps are powerful evidence for:
📊 Higher conversion rates
Placing vehicles where users actually search improves:
The new unmet demand heatmap is designed to work alongside other analytics layers, including:
- Popular routes heatmap
- Open app heatmap
- Start & end locations heatmap
Operators can also:
Every unmet search is a signal. Every signal is a potential ride. Every ride is revenue. With the unmet demand heatmap, operators stop guessing and start placing vehicles exactly where demand already exists.
👉 If you want to see how unmet demand can unlock growth for your fleet, book a demo with ATOM Mobility and explore how advanced heatmaps turn data into decisions.

🚕 Web-booker is a lightweight ride-hail widget that lets users book rides directly from a website or mobile browser - no app install required. It reduces booking friction, supports hotel and partner demand, and keeps every ride fully synced with the taxi operator’s app and dashboard.
What if ordering a taxi was as easy as booking a room or clicking “Reserve table” on a website?
Meet Web-booker - a lightweight ride-hail booking widget that lets users request a cab directly from a website, without installing or opening the mobile app.
Perfect for hotels, business centers, event venues, airports, and corporate partners.
👉 Live demo: https://app.atommobility.com/taxi-widget
Web-booker is a browser-based ride-hail widget that operators can embed or link to from any website.
The booking happens on the web, but the ride is fully synchronized with the mobile app and operator dashboard.
No redirects. No app-store friction. No lost users.

This keeps fraud low while preserving conversion.
Web-booker addresses one of the most common friction points in ride-hailing: users who need a ride now but are not willing to download an app first. By allowing bookings directly from a website, operators can capture high-intent demand at the exact moment it occurs - whether that is on a hotel website, an event page, or a partner landing page.
At the same time, Web-booker makes partnerships with hotels and venues significantly easier. Instead of complex integrations or manual ordering flows, partners can simply place a button or link and immediately enable ride ordering for their guests. Importantly, this approach does not block long-term app growth. The booking flow still promotes the mobile app through QR codes and store links, allowing operators to convert web users into app users over time - without forcing the install upfront.
Web-booker is not designed to replace the mobile app. It extends the acquisition funnel by adding a low-friction entry point, while keeping all bookings fully synchronized with the operator’s app and dashboard.
👉 Try the demo
https://app.atommobility.com/taxi-widget
Want to explore a ride-hail or taxi solution for your business - or migrate to a more flexible platform? Visit: https://www.atommobility.com/products/ride-hailing

🚲 Cleaner air, less traffic, and better city living - bike-sharing apps are making it happen. With seamless apps, smart integration, and the right infrastructure, shared bikes are becoming a real alternative to cars in cities across Europe.💡 See how bike-sharing supports sustainable mobility and what cities and operators can do to get it right.
Bike-sharing apps are reshaping urban mobility. What began as a practical way to get around without owning a bike is now part of a bigger shift toward sustainable transport.
These services are doing more than replacing short car trips. They help cities cut emissions, reduce congestion, improve health, and connect better with public transport.
As more cities rethink how people move, bike sharing continues to grow as one of the fastest and most affordable tools to support this change.
Bike-sharing services now operate in over 150 European cities, with more than 438,000 bikes in circulation. These systems help prevent around 46,000 tonnes of CO₂ emissions annually and reduce reliance on private cars in dense urban areas. They also improve air quality, lower noise levels, and make cities more pleasant to live in.
A recent study by EIT Urban Mobility and Cycling Industries Europe, carried out by EY, found that bike-sharing services generate around €305 million in annual benefits across Europe. This includes reduced emissions, lower healthcare costs, time saved from less congestion, and broader access to jobs and services.
For cities, the numbers speak for themselves: every euro invested yields a 10% annual return, generating €1.10 in positive externalities. By 2030, these benefits could triple to €1 billion if bike-sharing is prioritized.
Bike sharing works best when it fits into the wider transport system. Most car trips that bike sharing replaces are short and often happen when public transport doesn’t quite reach the destination. That last kilometer between a bus stop and your home or office can be enough to make people choose the car instead.
Placing shared bikes near metro stations, tram stops, or bus terminals makes it easier for people to leave their cars behind. This “last-mile” connection helps more people use public transport for the long part of their trip and hop on a bike for the short part. Over time, that encourages more consistent use of both bikes and transit.
In cities where bike sharing is integrated into travel passes or mobility platforms, users can combine modes in a single journey. That flexibility supports wider access and makes shared bikes part of everyday mobility, not just something used occasionally.
The digital experience behind bike sharing is a big part of why it works. People can check availability, unlock a bike, pay, and end their trip – all in one app. This makes it quick, simple, and consistent.
Good bike-sharing apps also offer:
When users don’t need to think twice about how the system works, they’re more likely to build regular habits around it. That habit shift is what makes a long-term difference for both users and cities.
Bike sharing isn’t just a transport service. It helps cities meet public goals – cleaner air, lower traffic, healthier residents, and better access to services. When someone chooses a bike instead of a car, it reduces the demand for fuel, parking, and space on the road.
The €305 million annual benefit includes health savings due to increased physical activity, avoided emissions, time gained from reduced congestion, and the creation of jobs tied to fleet operations. Many bike-sharing schemes also improve equity by giving people access to mobility in areas that are underserved by public transport or where car ownership isn’t affordable.
Shared bikes are especially useful in mid-sized cities where distances are manageable and car traffic still dominates. With the right policy support, even small fleets can have a noticeable impact on mobility patterns and public health.
Not every bike-sharing system succeeds. To be reliable and scalable, a few things must work together:
Successful systems often grow in partnership with city governments, public transport agencies, and private operators who bring technology, logistics, and know-how.
Reliable software is what keeps all parts of the system connected. From unlocking a bike to seeing usage trends across the city, operators need tools that are stable, flexible, and easy to manage. For those launching or scaling a fleet, platforms like ATOM Mobility offer ready-made solutions that handle booking, payments, ID checks, live tracking, and fleet control in one place.

The platform supports both electric and mechanical bikes, offers branded apps, and integrates with smart locks or IoT modules for remote vehicle access. It also lets operators adjust pricing, monitor vehicle health, and manage customer support in real time. That means smaller teams can launch faster and scale smarter, without having to build every tool from scratch.
Bike sharing won’t replace all car trips, but even a small shift makes a difference. A few short rides per week can reduce emissions, improve fitness, and save time spent in traffic. When these trips are supported by good infrastructure, public awareness, and seamless apps, the impact grows.
As cities continue to prioritise sustainability, shared micromobility will play a bigger role in helping people move in cleaner, healthier, and more flexible ways. With the right technology and planning, bike sharing becomes more than a service – it becomes a habit that supports better cities for everyone.