Abstract: A method includes receiving at least a portion of a shared operating conditions model from a remote statistics processor, receiving real-time sensor measurement data from sensors of the vehicle, determining a vehicle-specific operating conditions model based on the portion of the shared operating conditions model and the real-time sensor measurement data, and using the vehicle-specific operating conditions model to predict upcoming operating conditions for the vehicle. Another method includes receiving respective sensor measurement data from a plurality of vehicles, determining a shared operating conditions model based on the measurement data, and causing provision of at least a portion of the shared operating conditions model to a specific vehicle.

Abstract: A method for determining a mass property of a land-based vehicle for cargo transport. The method comprises registering one or more properties of a cargo unit entering the vehicle, wherein at least one of the properties is related to a mass of the cargo unit, estimating a location of the cargo unit in the vehicle, and determining at least one vehicle mass property of the vehicle based on the one or more registered properties and on the estimated location of the cargo unit.

Abstract: A method in a vehicle for estimating vehicle motion state during a vehicle maneuver, comprising; obtaining a trigger signal indicating an onset of the vehicle maneuver, selecting a sub-set of wheels on the vehicle to be in a free-rolling condition, measuring one or more parameters related to revolution of the sub-set of wheels in free-rolling condition, and estimating the vehicle motion state based on the measured parameters.

Abstract: A system for controlling a braking operation of a vehicle, the system comprising an electric machine configured to apply a torque during propulsion, and to generate electric power during braking, an eddy current wheel brake connectable to a wheel of the vehicle, the eddy current wheel brake being electrically connected to the electric machine, and a control unit comprising control circuitry configured to receive a signal indicative of a demanded braking operation for the vehicle, determine a brake power state for the vehicle based on the demanded braking operation, compare the brake power state with a predetermined set of rules, control the electric machine to generate electric power, and control the electric machine to feed electric power, generated during the demanded braking operation, to the eddy current wheel brake when the brake power state fails to fulfil at least one rule of the predetermined set of rules.

Abstract: A computer system for controlling at least one motion actuator in an autonomous or semi-autonomous vehicle, the computer system comprising processing circuitry implementing a feedback controller, which is configured to sense an actual motion state of the vehicle and determine a machine-level instruction to the motion actuator for approaching or maintaining a setpoint motion state, and a reinforcement-learning agent, which is trained to perform decision-making regarding the setpoint motion state. The decisions by the reinforcement-learning agent are applied as the setpoint motion state of the feedback controller, and the machine-level instruction from the feedback controller is applied to the motion actuator.

Abstract: A control unit for controlling at least one MSD on a heavy-duty vehicle is provided. The control unit is arranged to determine a limiting operating point of the MSD associated with a performance limit of the MSD, determine a preferred operating point of the MSD indicative of an operating point of the MSD associated with an improvement in a secondary objective function value compared to the limiting operating point, and transmit a capability message to a VMM function comprising the limiting operating point of the MSD and the preferred operating point of the MSD.

Abstract: A method for controlling an articulated vehicle combination comprising a plurality of self-powered vehicle units, wherein each self-powered vehicle unit comprises a propulsion device and a regenerative braking device connected to an energy source, the method comprising determining a current state of charge associated with an energy source of a target vehicle unit comprised in the plurality of self-powered vehicle units, and if the current state of charge is below a desired state of charge, generating a negative torque by the regenerative braking device of the target vehicle unit, and compensating at least partly for the generated negative torque by generating a positive torque by the propulsion device of at least one source vehicle unit comprised in the plurality of self-powered vehicle units, thereby transferring an amount of energy from the energy source of the at least one source vehicle unit to the energy source of the target vehicle unit.

Abstract: A method of determining actuator brake torque limits for a plurality of actuators, wherein each actuator is operable to apply a brake torque on a wheel of a vehicle, the method comprising determining, for each actuator, an actuator brake torque capability range based on an actuator specific torque capacity and a current operational state of the actuator; determining, for each wheel of the vehicle, a road condition brake torque capability range based on an estimated lateral wheel force acting on the wheel, an estimated friction between a tire surface of the wheel and a road surface, and a vertical wheel force acting on the wheel; and determining, for each actuator, an upper actuator brake torque limit and a lower actuator brake torque limit based on the actuator brake torque capability range and the road condition brake torque capability range.

Abstract: The present disclosure relates to a method for controlling steering of a vehicle arrangement. The method is controlling steering of the vehicle arrangement during a turning maneuver, by applying a differential wheel speed by at least one of individually controllable electric machines and reducing the operational capacity of a power steering system, when a first power utilization value, obtained by operating the individually controllable electric machines with the differential wheel speed, is equal to, or greater than a second power utilization value, obtained by operating the power steering system during the turning maneuver.

Abstract: A control unit for controlling a heavy-duty vehicle, the control unit being arranged to receive ambient environment data from one or more environment sensors on the heavy-duty vehicle, and to predict an impact of the ambient environment on the motion of the heavy-duty vehicle, wherein the control unit is arranged to coordinate control of one or more motion support devices, MSDs, on the heavy-duty vehicle to compensate for the predicted impact of the ambient environment on the motion of the heavy-duty vehicle.

Abstract: A control system for a vehicle. The control system comprises a force determination controller adapted to determine external load characteristics of external loads that currently act or are predicted to act on the vehicle. The control system is adapted to determine a resulting force vector to be acting on the vehicle, using the external load characteristics, in order to obtain a requested vehicle operation behaviour. The control system is further adapted to issue control information to one or more motion support devices of the vehicle in order to control the one or more motion support devices so as to generate the resulting force vector on the vehicle. The control system further comprises a feedforward controller adapted to receive wind information representative of a wind currently acting or predicted to be acting on the vehicle.

Abstract: A control unit for controlling at least one torque generating MSD on a heavy-duty vehicle. The control unit receives a motion request indicative of a desired positive longitudinal tire force to be generated by the torque generating MSD, obtains an estimated applied torque indicative of a current torque generated by the torque generating MSD, determines a target wheel speed based on the motion request and on the estimated applied torque, and configures the torque generating MSD to maintain the target wheel speed. The control unit is arranged to decrease the target wheel speed in case an increase in configured wheel speed results in a decrease in the estimated applied torque.

Abstract: A control unit for controlling a heavy-duty vehicle is arranged to obtain an initial inverse tire model configured to represent a preliminary relationship between wheel slip and generated longitudinal wheel force for at least one wheel of the heavy-duty vehicle. The control unit obtains data from a tire thread deflection sensor configured to measure an amount of tire thread deflection associated with the at least one wheel, and an amount of wheel slip of the at least one wheel corresponding to the amount of tire thread deflection. The control unit updates the obtained initial inverse tire model based on the amount of tire thread deflection and on the corresponding amount of wheel slip. The control unit controls the heavy-duty vehicle by configuring a target wheel speed or a target wheel slip of the at least one wheel based on the updated inverse tire model to generate a target longitudinal wheel force.

Abstract: A computer implemented method for operating a vehicle, specifically in relation to efficient transporting of a predefined cargo. The present disclosure also relates to a corresponding arrangement and computer program product.

Abstract: A first vehicle unit is couplable a second vehicle unit, so that a vehicle combination is formed, wherein the first vehicle unit comprises a transceiver configured to establish a sidelink to a transceiver of the second vehicle unit. In one embodiment, the first vehicle unit is configured to perform an automatic coupling procedure for coupling itself to the second vehicle unit, wherein the sidelink is established prior to completion of the coupling procedure. In another embodiment, the sidelink adds redundancy to wired communication link between respective vehicle unit computers. In yet another embodiment, the transceivers of the vehicle units remain independently addressable even after the vehicle combination has been formed.

Abstract: A propulsion arrangement for a self-powered dolly vehicle unit, the propulsion arrangement comprising a first electric machine, a second electric machine, a gearbox, and an open differential for driving first and second wheels of a driven axle, wherein the first and second electric machines are arranged in parallel and connected to the open differential via the gearbox at respective gear ratios.

Abstract: A method for reducing off-tracking by a multi-trailer heavy duty vehicle during a maneuver is disclosed. The method obtains a model of vehicle dynamics describing dynamics of the multi -trailer heavy duty vehicle, determines respective force trajectories for two or more axles of the vehicle as a solution to a NOCP. The NOCP is formulated with an objective to at least minimize trailer off-tracking, and based on the model of vehicle dynamics. The motion of the heavy duty vehicle is controlled during the maneuver based on the determined force trajectories.

Abstract: A comprises a vehicle control unit, VCU, and a control module, CM, configured to control the torque actuators. The VCU is configured to send to the CM a parameter request and a desired recuperation power or a desired parameter split ratio. If the CM determines that these are conflicting targets, then based on one or more predefined criteria, the CM will apply a parameter value and allocate a recuperation power or a parameter split ratio such that the applied parameter value is different from the requested one and/or the allocated recuperation power or parameter split ratio is different from the desired one. A method of controlling a wheel is also disclosed.

Abstract: A computer system handles tension of at least one strap arranged for strapping cargo in a vehicle. The computer system includes processing circuitry configured to obtain cargo information; obtain vehicle information; determine, based on the cargo information and the vehicle information, a pack plan, wherein the pack plan comprises a planned tension; determine to start loading the cargo in the vehicle and using the planned tension; obtain information about a first current tension of the at least one strap when the loading is finished and before the vehicle drives; compare the planned tension and the first current tension; and to determine to initiate a first action when a result of the comparison indicates that the first current tension is different than the planned tension.

Abstract: A vehicle control unit arranged to control motion of a heavy-duty vehicle comprising first and second electric machine (EM) arrangements, wherein the vehicle control unit is arranged to control the first and second EM arrangement by transmitting wheel slip requests to respective EM control units, wherein the control unit is arranged to obtain a desired total longitudinal force to be jointly generated by the first and second EM arrangements, wherein the control unit is arranged to determine a desired first wheel slip corresponding to a first longitudinal force generated by the first EM arrangement, and a desired second wheel slip corresponding to a second longitudinal force generated by the second EM arrangement, wherein the control unit is arranged to balance a magnitude of the first wheel slip relative to a magnitude of the second wheel slip in dependence of the efficiency characteristics of the first and second EM arrangements.