СASE
Cases
Russian Cases
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Self-driving public transport
Moscow
Global analog: “EasyMile” unmanned shuttles in the resort area (Estoril, Portugal)
The year of realization: 2023
Type of innovation: digital; social; technological
Urban function: transport; ecology; governmental services; safety
The level of implementation: national
Participants: government authorities; local government bodies; citizens
The model of communication: G2C; P2P
Source: link 1
Problem in Russia:
Modern megacities face unprecedented transport challenges that require innovative approaches. In Moscow, the rapid growth in the number of cars – by 1.2 million over the past decade has led to a real transport collapse. Chronic traffic jams, which reach 8 points during peak hours, increase travel time by 30-40%, creating significant economic and environmental costs. The problem is particularly acute due to the inefficiency of traditional public transport, where up to 40% of operating costs are spent on maintaining drivers, and the human factor becomes a source of constant delays and errors. An additional challenge was the environmental consequences – increased CO2 emissions from vehicles looking for parking, and increasing noise pollution in residential areas.

Solution in Russia:
In response to these challenges, Moscow has implemented an ambitious pilot project of unmanned electric buses “SberAuto”, deployed on routes from the metro station “Khovrino” to Leningradskoe highway. This project combines advanced technological solutions: LiDAR and 360° cameras for detecting obstacles, AI algorithms that adapt to weather conditions, and deep integration with the city's intelligent transport system. Infrastructure support included dedicated lanes for drones and smart stops with charging stations. The economic effect was significant : a 30% reduction in costs due to the refusal of drivers and a 25% increase in the accuracy of schedule compliance. By 2023, the project has demonstrated impressive results: 15% increase in passenger traffic on test routes and 20% reduction in idle mileage due to route optimization by artificial intelligence.

Key differences from the global analog:
The European equivalent in Estoril, Portugal, implemented as part of the EU's “SHOW” program in 2021, represents a fundamentally different approach. Unlike the Moscow solution, which is focused on integration into the everyday transport system of the city, the Portuguese project focuses on servicing local tourist areas with a length of only 3-5 km. Technologically, it is based on remote control (level 2 of autonomy), while Moscow electric buses reach level 4 of autonomy. An important difference lies in the economic model: if the Moscow project was originally conceived as a commercially sustainable solution, then the Estoril experiment exists thanks to subsidies from the European Union.

The key difference between the two approaches is scale and goal setting. Moscow demonstrates a pragmatic approach aimed at solving specific transport problems of the city through scalable technologies. The Estoril project is more of a demonstration of capabilities under controlled conditions. The Russian project faced significant regulatory barriers – the relevant law on drones was adopted only in 2021, which reflects the traditional caution of regulators. An additional challenge was the skepticism of some passengers, which requires explanatory work. The European solution, on the contrary, initially developed in a more favorable regulatory environment and with an emphasis on the environmental component, including the use of renewable energy sources for charging transport.

The Moscow project of unmanned public transport represents the first experience in the CIS of integrating autonomous transport into a real urban environment. Despite the objective difficulties of a regulatory nature and the need to overcome public skepticism, the Russian capital demonstrates a pragmatic approach focused on achieving specific economic and transport results. The European approach embodied in the Estoril project retains the character of an experimental platform for testing technologies in simplified conditions. These differences reflect not only the difference in priorities, but also the specifics of the transport systems of a megalopolis and a resort city. The Moscow experience is particularly valuable as an example of a comprehensive solution to real problems of urban mobility, while the European project serves as a testing ground for developing environmentally oriented solutions.
  • Reduction of pendulum migration: proportion of residents traveling abroad every day limits of the pilot district, decreased from 68% in 2020 to 45% in 2024 (A101 Group survey, “15-minute” City report, Q4 2024).
  • Increase in local employment: 27,000 jobs were created within Kommunarka out of the planned 65,000; the housing-work ratio reached 0.42, while the average for the TiNAO was 0.18 (Moscow Department of Economic Policy, 2025).
  • Increased accessibility of social infrastructure: 100% of residents have a school and a hospital within a radius of less than 1 km; the availability of places in kindergartens has increased to 96% (Depobrazovaniya Moskvy, 2024).
  • Reduced car dependence: the share of trips by private car on weekdays fell from 57% to 38% due to the introduction of BRT lines and a bicycle network of 29 km (Moscow Data Center, traffic monitoring, 2025).
  • Environmental impact: CO₂ emissions from transport trips of district residents decreased by 12 thousand tons/year compared to the baseline scenario (Mosekomonitoring, model 2024).
  • Social cohort and satisfaction: the urban environment quality index according to the Ministry of Construction methodology increased from 188 (2020) to 222 (2024), which put Kommunarka in the top 5 of the “New Moscow” (Ministry of Construction of the Russian Federation, 2025).
Autonomous transport (Level 4), LIDAR, AI routing, V2I (Vehicle-to-Infrastructure), Adaptive control, digital route twin, Multi-sensor system, remote monitoring, machine learning of routes, e-mobility, precision positioning, situational awareness, predictive analytics, cognitive transport systems, smart infrastructure, wireless charging, telematics platform, transport cyberimmunity, digital corridor, multi-agent management system.
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