Abstract: A control method for the combustion system comprises: a fuel injector conducts first primary spray and second primary spray at intervals, and the fuel injector injects fuel to a first arc ridge during the first primary spray; and the fuel injector sprays fuel to a second arc ridge during the second primary spray. By adopting a combustion chamber having two arc ridges and respectively injecting fuel to the two arc ridges by means of the fuel injector, it can be ensured that the amount of fuel shared by each arc ridge is reduced, gathering the fuel at a single arc ridge can be avoided, and it is beneficial to exert the improvement effect of the arc ridge on a wall impact jet flow velocity field at the tail end of a fuel beam, such that the fuel and gas distribution in a cylinder is facilitated.

Abstract: A first generator set may store, in a memory of the first generator set, data representing local attributes associated with an engine. The first generator set may receive, via a network switch of the first generator set, remote data representing remote attributes associated with a second generator set. The first generator set may cause the first controller to update, based on the remote data, the local data in the memory to synchronize the local attributes with the remote attributes. The first generator set may transmit, via the network switch, an indication that the local data was successfully updated in the memory.

Abstract: A device (100, 200?, 200?, 300, 400) for detecting the contact between a user and a steering wheel (9) of a vehicle, the device (100, 200?, 200?, 300, 400) comprising: an electrically insulating support (10); a first electrically conductive track (101, 201, 301, 401) fastened to the support (10) and comprising a plurality of first peaks (11) alternated with a plurality of first troughs (12) along a direction (D), wherein the first track (101, 201, 301, 401) is distributed over the support so that the surface of the first track (101, 201, 301, 401) adapted to come into contact with a user's hand decreases along said direction (D).

Abstract: The disclosure relates to a method for determining a size of a leak in a fuel tank system. The method includes: starting an internal combustion engine; calculating a stoppage time for a vehicle and/or a temperature difference between the fuel in the fuel tank system and the environment; and checking whether at least one of a plurality of diagnostic conditions is fulfilled. A first diagnostic condition is fulfilled when the stoppage time is longer than a predetermined minimum stoppage time. A second diagnostic condition is fulfilled when the temperature difference is smaller than a predetermined maximum temperature difference. Additionally, when at least one of the plurality of diagnostic conditions is fulfilled, the method includes: evacuating the fuel tank system; recording a time profile of the pressure in the fuel tank system; and determining the size of a leak based on the recorded time profile of the pressure.

Abstract: In a cylinder deactivation control method of an engine, a cylinder deactivation trigger moment of a to-be-controlled engine is determined; a second cycle and a cylinder deactivation mode corresponding to the next first cycle are determined according to the crankshaft rotation speed at the cylinder deactivation trigger moment, the target torque at the cylinder deactivation trigger moment, and a second cycle and a cylinder deactivation mode corresponding to the current first cycle at the cylinder deactivation trigger moment; the cylinder pressure type of each cylinder in the current first cycle is determined in conjunction with the cylinder deactivation modes of three adjacent first cycles; the fuel injection quantity of each ignition cylinder in the current first cycle is determined based on the calibrated preset fuel injection quantity chart of the first cycle.

Abstract: In a control method for the combustion system, spatial intensities of entrainment effects in a cylinder of fuel sprays of the two injections can be superimposed by means of two main fuel injections, two organizations of the fuel sprays for a flow field in the cylinder are implemented; by determining a duration and a first injection pressure of first main fuel injection, a cylinder pressure can at least reach an upper limit threshold of the cylinder pressure; and during second main fuel injection, in a time period when the cylinder pressure drops from the upper limit threshold of the cylinder pressure to a set cylinder pressure, a change rate of the curve slope of a cylinder pressure change curve at each time point is within a set range of slope change rates, and a rotation angle of a crankshaft is not smaller than a first preset rotation angle.

Abstract: An artificial intelligence fuel management system and method that facilitates optimizing fuel management and vehicle service times for a variety of vehicle types through determining the remaining trip range for a vehicle and providing optimal routing and vehicle fueling options for a trip route involving autonomous vehicles, vehicle platoon management, and/or vehicular fuel management systems. The associated vehicles are fueled by at least one of a liquid fuel and an alternative fuel. The liquid fuel is either gasoline or diesel, and the alternative fuel is either electricity, bio-fuel, bio-alcohol, synthetic and paraffinic, steam, heat, vegetable and waste-derived oils, compressed air, liquid nitrogen, liquid petroleum gas, propane, hydrogen, ethanol, methanol, butanol, or natural gas.

Abstract: The present application discloses a method and apparatus for controlling a motorcycle, a system, a motorcycle and a storage medium. The method includes: acquiring a first wheel speed signal and a second wheel speed signal; calculating a difference between the first wheel speed signal and the second wheel speed signal; detecting whether the difference satisfies a first condition, the first condition being used for detecting whether to adjust ignition timing of an engine; if the difference satisfies the first condition, detecting whether the exhaust temperature of the engine exceeds a temperature threshold; if the exhaust temperature does not exceed the temperature threshold, determining an ignition plug ignition angle of the engine according to the difference and the rotating speed of the engine; and adjusting the ignition timing of the engine according to the ignition plug ignition angle.

Abstract: An embodiment hydrogen direct injection system for an internal combustion engine of a motor vehicle includes a fuel line and a fuel injector configured to inject hydrogen fuel into a combustion chamber of the internal combustion engine, wherein the fuel injector is configured to receive the hydrogen fuel via the fuel line and to receive water via the fuel line, and wherein the water is configured to lubricate the fuel injector.

Abstract: A vehicle drive having a vacuum system for a vehicle having an internal combustion engine that is connected to a supply air line and to an exhaust air line. The vacuum system has an ejector. A propellant gas line opens into a nozzle channel of a propellant nozzle of the ejector. The nozzle channel opens into a mixing chamber of the ejector through a nozzle opening. A suction line opens into the mixing chamber and the mixing chamber on an outlet side opens directly or indirectly into a mixed gas line. The mixed gas line opens into the supply air line. The suction line is connected to a vacuum consumer, and the nozzle opening in the propellant nozzle is formed by a nozzle edge having teeth and/or corrugations.

Abstract: Operating an engine includes moving a piston in an engine from a bottom-dead-center position toward a top-dead-center position in a cylinder, and directly admitting a prechamber fuel such as methanol into a prechamber ignition device fluidly connected to the cylinder. Operating the engine further includes autoigniting the prechamber fuel to produce jets of gases from the prechamber ignition device containing reactive species such as hydroxyl radicals to ignite a main charge of a fuel in the cylinder via the jets of gases produced via the autoignition of the prechamber fuel. Related apparatus is also disclosed.

Abstract: A system includes one or more processors and memory coupled to the one or more processors, storing processor-executable instructions that cause the one or processors to perform operations. The operations include, prior to a train departing from a departure location: generating, one or more train departure strategies for a segment of a trip for the train traveling on a track from the departure location where the train is stationary, displaying information associated with the segment of the track, playing a simulation of the train traveling on the track over the segment based on the one or more train departure strategies, the simulation beginning from when the train is stationary at the departure location; receiving a selection of a train departure strategy, and engaging the selected train departure strategy for operating the train from the departure location where the train is stationary.

Abstract: An apparatus for controlling a suspension of a vehicle to improve ride comfort of the vehicle includes: a sensor that measures rainfall around the vehicle, a camera that takes an image of a road surface ahead the vehicle, and a controller that recognizes an obstacle located on the road surface based on the image of the road surface ahead the vehicle. In particular, the controller determines a type of the obstacle depending on the measured rainfall around the vehicle, and controls a damping force of the suspension based on control information corresponding to the determined type of the obstacle when the vehicle passes over the obstacle.

Abstract: The present invention discloses a shielding jig which mainly comprises an adjustment unit, a positioning unit and a sealing unit. The adjustment unit is configured and engaged between the positioning unit and the sealing unit. Therefore, a first actuation surface of the adjustment unit matches with a second actuation surface of the sealing unit, resulting in expansion of the sealing unit. This expansion makes the shielding jig be able to shade and seal any workpiece.

Abstract: An outboard motor includes an engine, a propeller to generate a propulsive force by the drive force of the engine, a lithium ion capacitor, a starter motor to be actuated by a power supply from the lithium ion capacitor to crank the engine, a starter relay provided on a starting power supply line between the lithium ion capacitor and the starter motor, a start switch to be turned on by an engine starting operation by a user to energize a coil of the starter relay from the lithium ion capacitor so as to turn on the starter relay, and a charging controller including a switch to connect the lithium ion capacitor to a charging power source to charge the lithium ion capacitor during the driving of the engine, and to disconnect the lithium ion capacitor from the charging power source when the driving of the engine is stopped.

Abstract: A cylinder head for an internal combustion engine, in particular a hydrogen-powered internal combustion engine, includes a cylinder head system that includes an intake duct and a fuel inlet aperture, the fuel inlet aperture opening into the intake duct, an injector holder that is detachably connected to the cylinder head system and that includes an injector receiving borehole, an injector that is accommodated in the injector receiving borehole and braced against the injector holder with the aid of clamping means, and a tubular plug-in piece that is situated between the injector holder and the cylinder head system in such a way that a discharge opening of the injector and the fuel inlet aperture of the cylinder head system are fluidically connected to one another via the via the plug-in piece.

Abstract: A method for operating a control unit for an exhaust gas sensor, in particular for a broadband lambda sensor for an internal combustion engine, in particular, of a motor vehicle, or for another sensor device. The control unit is designed to electrically activate the exhaust gas sensor. The control unit is, in particular, implemented in the form of an application-specific integrated circuit (ASIC). The method includes: specifying a measuring sequence and/or a starting point in time, in particular, for an operation of the control unit and/or of the exhaust gas sensor, with the aid of a computing device.

Abstract: A system includes a brake torque request module, a brake control module, and a diagnostic module. The brake torque request module is configured to generate a brake torque request based on a brake pedal position during a braking event. The brake control module is configured to apply friction brakes on a wheelset of a vehicle to satisfy the brake torque request during the braking event. The wheelset includes less than all wheels of the vehicle. The diagnostic module is configured to detect a fault in a brake rotor on a wheel in the wheelset based on vehicle operating conditions measured during the braking event.

Abstract: The present invention provides an exhaust purification filter with which pressure loss can be reduced, the filter having high exhaust purification performance and granular-substance-filtering performance. The exhaust purification filter comprises a filter base material having a wall flow structure, and an exhaust purification catalyst supported on a dividing wall of the filter base material, the exhaust purification filter being such that: a median pore diameter (D50) of the filter base material according to a volumetric basis is 15 ?m or greater; and the exhaust purification catalyst is unevenly supported on a high-density layer, in which the density of the exhaust purification catalyst is relatively high, and a low-density layer, in which the density of the exhaust purification catalyst is relatively low.

Abstract: At least some embodiments of present disclosure direct to a fuel injection timing drift detection and/or compensation system. In some cases, the system collects or receives a series of fuel pressure data measured by one or more fuel pressure sensors. The system is configured to receive an indication of fuel flow cutout and a start-of-injection command signal. The system calculates a set of pressure drops using the series of fuel pressure data and identifies a selected pressure drop greater than a predetermined threshold to determine a measured start-of-injection timing based on the selected pressure drop. The system is further configured to evaluate whether a fuel injection drifting occurs based on received start-of-injection command signal and the measured start-of-injection timing. In some cases, the fuel injection drifting is used to either compensate fuel injection timing or raise a flag indicating the drifting.