Abstract: The present invention is a method for determining the amount of pollutant emissions (Q) from at least one vehicle over a road network section, wherein a pollutant emission model (MFE) is constructed by machine learning (APP) using macroscopic data (MAC) of a learning road network and traffic data (TRA). This model (MFE) is then applied to a road network section.

Abstract: The invention relates to a method of predicting at least one vehicle speed profile for a road network portion (POR), wherein a vehicle speed model (MOD) is constructed by use of macroscopic road network data (MAC) and of travelled route data (DTR), and then this model is applied to the road network portion (POR) being considered.

Abstract: The invention is a method for determining indicators of pollution from overall mobility of a user, comprising detecting trips in soft modes of transport and trips in motorized vehicles by use of a smart phone; determining a real environmental footprint linked to pollution emissions for each trip in a motorized vehicle by use of a model which estimates pollution emissions by accounting for macroscopic characteristics of the vehicle and a real speed profile representing the style of driving of the user; determining a target environmental footprint from each of the motorized vehicle trips by accounting for a target speed profile representing an optimal style of driving in the model for estimating pollution emissions; and breaking down the environmental footprint for each of the motorized vehicle trips into a footprint linked to the vehicle, and to a style of driving to a type of route and; determining an overall environmental footprint for the mobility of the user by accounting for all trips in soft modes of tra

Abstract: The present invention is a method for determining an optimal speed of a first vehicle preceded by a second vehicle. Position, speed and acceleration of the second vehicle are measured in order to determine a trajectory thereof, and a dynamic model of the first vehicle is constructed. The optimal speed is then determined by minimizing the energy consumption of the vehicle by use of the dynamic model by minimization being constrained by the trajectory of the second vehicle.

Abstract: The invention is a method for determining a speed profile for minimizing emissions of at least one pollutant generated by a vehicle during a journey. The method requires a model of the vehicle dynamics, an analytical model of the emissions of the pollutant, and at least one speed profile model divided into at least two phases, each of the phases corresponding to a traction acceleration mode of the vehicle with a number of acceleration modes preferably being five. Then, a speed profile minimizing the emissions of at least one pollutant is determined by seeking, from speed profiles with respect to the distance, duration, and initial and final speeds of the journey and distinguished by distinct phase durations with the speed profile for which the emissions of the pollutant are modelled is by use of an analytical model for which the pollutants are the lowest.

Abstract: The present invention is a system for dynamic determination of an environmental footprint linked to the overall mobility of a user, comprising means for measuring a trip made by the user using a smart phone application which detects modes of mobility and modes of mobility in a motorized vehicle and style of driving; means for calculating a pollution footprint of the user, accounting for the real usage and global and local pollutants emitted during a given time interval using a server or onboard electronics in a control unit or in a connected vehicle; and means for exploiting the pollution footprint, including a connected object informing one of the user and the administrative authorities of the pollution footprint.

Abstract: The present invention is a method of characterizing a route (T) travelled by a user. The method comprises a step of locating and timestamping measurement during the ride (MES), then determining a modified discrete Fréchet distance (DFM) between the measured route and previous routes. Finally, the modified discrete Fréchet distance (DFM) is used to characterize the route to be characterized (T).

Abstract: The present invention relates to a method of determining a route (ITI) minimizing the energy consumption of a vehicle, based on the use of a dynamic model (MOD) of the vehicle depending on the vehicle speed and acceleration, the construction of a line graph (GA) and a shortest path algorithm (ALG) suited for negative energies.

Abstract: The present invention relates to a method of determining physical parameters (Phy) relative to pollutant and/or noise emissions and/or road safety of a vehicle fleet (P1) on a road portion. The method comprises the following steps: a) measuring (MES) the positions (posGPS), speeds (vGPS) and altitudes (altGPS) of vehicles on the road portion so as to determine (DET1) a speed profile (pv), b) determining (DET2) at least one physical characteristic (Tab) on the road portion for each of the fleet vehicles, according to the characteristics (PAR) of these vehicles and to the speed profile (pv) determined in step a), c) applying (APP) the fleet to the physical characteristics determined in the previous step to obtain a distribution (Rep) of the physical characteristics on the fleet, d) determining (DET3) physical parameter (Phy) on the part of the road network portion by means of distribution (Rep) of the physical characteristics obtained in step c).

Abstract: The present invention is a method of determining emissions of vehicle pollutants using an on-board measurement system with a sensor (CAP) and a computer system including a generic model (MOD GEN) of the vehicle. The method is based on the use of the measurements and of the model for determining the amount of pollutants.

Abstract: The invention relates to a method of controlling a hybrid propulsion system of a vehicle, wherein a control (COM) (minimizing consumption and pollutant emissions at the after-treatment system outlet) is defined. The control method is based on minimizing a cost function (H) of a model (MOD) of the propulsion system. Thus, the method according to the invention allows simultaneous minimizing of fuel consumption and pollution emissions by accounting for after-treatment system efficiency.

Abstract: The present invention relates to a method of determining at least one area (ZON) of a road network reachable by a vehicle driving on the road network. The method is based on the use of a dynamic model (MOD) of the vehicle depending on the vehicle speed and acceleration, the construction of a line graph (GA) and a shortest path algorithm (ALG).

Abstract: The invention relates to a method of controlling a hybrid propulsion system of a vehicle, wherein a control (COM) (minimizing consumption and pollutant emissions at the after-treatment system outlet) is defined. The control method is based on minimizing a cost function (H) of a model (MOD) of the propulsion system. Thus, the method according to the invention allows simultaneous minimizing of fuel consumption and pollution emissions by accounting for after-treatment system efficiency.

Abstract: The present invention determines at least one dangerous driving indicator by use of a physical model based on the dynamics of a vehicle. According to the invention, a dynamic model of the vehicle determines a slip parameter of the vehicle, which deduces a representative dangerous driving indicator.

Abstract: The invention relates to a method for determining pollutant emissions from a vehicle (PSEE, pollutant emissions from the post-treatment system), said method being based on the use of measurements of the position (posGPS) and/or the altitude (altGPS) and/or the speed of the vehicle (vGPS), using models of the vehicle (MOD VEH), the engine (MOD MOT) and the post-treatment system (MOD POT) produced with macroscopic parameters (PAR).

Abstract: The present invention is a system for dynamic determination of an environmental footprint linked to the overall mobility of a user, comprising means for measuring a trip made by the user using a smart phone application which detects modes of mobility and modes of mobility in a motorized vehicle and style of driving; means for calculating a pollution footprint of the user, accounting for the real usage and global and local pollutants emitted during a given time interval using a server or onboard electronics in a control unit or in a connected vehicle; and means for exploiting the pollution footprint, including a connected object informing one of the user and the administrative authorities of the pollution footprint.

Abstract: The invention is a method for determining indicators of pollution from overall mobility of a user, comprising detecting trips in soft modes of transport and trips in motorized vehicles by use of a smart phone; determining a real environmental footprint linked to pollution emissions for each trip in a motorized vehicle by use of a model which estimates pollution emissions by accounting for macroscopic characteristics of the vehicle and a real speed profile representing the style of driving of the user; determining a target environmental footprint from each of the motorized vehicle trips by accounting for a target speed profile representing an optimal style of driving in the model for estimating pollution emissions; and breaking down the environmental footprint for each of the motorized vehicle trips into a footprint linked to the vehicle, and to a style of driving to a type of route and; determining an overall environmental footprint for the mobility of the user by accounting for all trips in soft modes of tra

Abstract: The present invention relates to a method for determining an optimal speed to be reached for a first vehicle preceded by a second vehicle. For this method, the position, the speed and the acceleration of the second vehicle are measured (MES) in order to determine the trajectory thereof (POS), and a dynamic model (MOD) of the first vehicle is constructed. The speed to be reached (VIT) is then determined by minimizing (MIN) the energy consumption of the vehicle by means of the dynamic model (MOD), the minimization being constrained by the trajectory (POS) of the second vehicle.

Abstract: The present invention relates to a method of determining at least one area (ZON) of a road network reachable by a vehicle driving on the road network. The method is based on the use of a dynamic model (MOD) of the vehicle depending on the vehicle speed and acceleration, the construction of a line graph (GA) and a shortest path algorithm (ALG).

Abstract: The present invention consists in determining at least one dangerous driving indicator (IND) by means of a physical model (MOD) based on the dynamics of the vehicle. According to the invention, the dynamic model (MOD) of the vehicle makes it possible to determine a slip parameter (?, SR) of the vehicle, which is used to deduce a representative dangerous driving indicator (IND).