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The article is devoted to the issue of improving the autonomous vehicles safety. The anti-lock braking system was chosen as the object of the study, since it is one of the components of the vehicle active safety during emergency braking. Its functioning varies depending on parameters such as vehicle type, transmission type, external and internal steering wheel angles. It is necessary to parameterize correctly the electronic control unit of the anti-lock braking system depending on the specific values of these parameters. For this, a software module was developed that reads the values of the vehicle parameters from a file and sends their array to the electronic control unit. Then we can check the result: how the block responded to the sent request -positively or negatively. All this will speed up the parameterization process, increase its accuracy, preventing the occurrence of operator errors during its implementation.

Smart Mobility is one of the main directions of Smart City’s transport system development. At the same time, along with the management intellectualization, the issue of the transition to cleaner, safer and more sustainable transport modes, such as a bicycle, is being resolved. Democracity and accessibility, cheapness and environmental friendliness, promoting a healthy lifestyle are the reasons for the growth of this transport type popularity throughout the world. The paper proposes one of the possible ways of developing bicycle transport in smart city, which allows to expand the its users number by reducing the requirements for the person physical fitness level. The proposed development represents the Smart Bike concept, which with the help of sensors monitors the condition of the environment and cyclist health, analyses indicators and, in critical situations, turns on the electric motor. This allows you to reduce the load on the cyclist, as well as battery consumption, which has a positive effect on the Smart City’s ecology condition.

World trends in the area of engineering and technology are associated with intellectualization of both the processes and the technical systems. In many cases, exclusion of a human from the control loop provides certain advantages, but at the same time causes a number of problems. Large systems encounter a security issue. This also applies to transport systems for which the development of “unmanned vehicles” has become a logical result of implementation of the Intelligent Transport Systems (ITS) as a system strategy. Transition from creation of driver assistance systems to development of semi-autonomous and unmanned vehicles can be explained by desire of developers to ensure stability and safety of the transport system. However, according to analytical forecasts, while gradual intellectualization of vehicles will result in decreased role of human factor in statistics of road traffic accidents, it will also lead to the growth of their number due to technical malfunction. Therefore, the importance of measures to prevent sudden vehicle failures increases. The article shows the importance of intelligent on-board systems for improving vehicle diagnostic systems. A conceptual scheme of decision support system for managing vehicle service and its interactions with interactive diagnostic system are presented. A scheme of interaction of components of the on-board diagnostic system is provided, the interrelation of the structural and diagnostic parameters determining the state of the components and systems of the vehicle is shown. Such solutions enable improving the service system and optimizing its operation. It is shown that only system solutions in this field will increase reliability and faultless operation of autonomous vehicles, and will ensure their smooth and failure-free operation.