Abstract:
A fuel heating device may include a fuel inlet, at least one fuel outlet, at least one inner chamber, and at least one heat exchanger. The at least one heat exchanger may include at least one first heating element and at least one second heating element arranged within an opening arranged within an interior of the at least one heat exchanger. The heat exchanger may include a first electrical conductor arranged in the interior and electrically contacting the at least one first heating element. The heat exchanger may further include a second electrical conductor electrically contacting an outer surface of the at least one heat exchanger. The at least one heat exchanger may include a ribbed portion including a plurality of ribs. The plurality of ribs may be arranged on the outer surface of the at least one heat exchanger and configured to contact the fuel.
Abstract:
Method to control the combustion of a compression ignition engine with reactivity control through the injection temperature; the control method provides for the steps of: establishing a quantity of fuel to be injected into a cylinder; injecting a first fraction of the quantity of fuel fed by a first feed system without active heating devices, preferably equal to at least 70% of the quantity of fuel, at least partially during the intake and/or compression stroke; injecting a second fraction of the quantity of fuel fed by a second feed system provided with at least one active heating device, and equal to the remaining fraction of the quantity of fuel, into the cylinder at the end of the compression stroke and preferably at no more than 60° from the top dead centre; and heating the second fraction of the quantity of fuel to an injection temperature of over 100° C., before injecting the second fraction of the quantity of fuel.
Abstract:
An EFI-ECU determines an initial value of a correction value ekthwst for correcting an injection correction amount with reference to a non-heating initial value map if a heater is in operation, and determines the initial value of the correction value ekthwst for correcting the injection correction amount with reference to a heating initial value map if the heater is out of operation. It should be noted herein that the initial value of the correction value ekthwst is set lower under the same condition in the heating initial value map than in the non-heating initial value map.
Abstract:
An internal combustion engine designed to provide a Leaschauer Combustion Process including injecting processed pre-mist fuel into extreme air pressure compressed air in the main cylinder. The fuel injection moment is accurately controlled and timed to enable extreme high compression combustion, so that the engine is enabled to utilize low octane fuel without pre-detonation.
Abstract:
An internal combustion engine designed to provide a Leaschauer Combustion Process (LCP), including: at least one main piston housed in a main cylinder; a main axle (rotor) shaft; configured to enable an LE four cycle process; configured to enable air to fill said main cylinder prior to compression of the main cylinder; means for providing Specific Extreme Air Pressure (EAP) compressed air in said cylinder housing said main piston to dramatically exceed Specific fuel/air (Mixture) Detonation Pressure (SMD); built to withstand extreme stress applied by the Extreme Air Pressure on its main structure and moving parts; means for providing Processed Pre-Mist Fuel (PMF); means for injecting the processed pre-mist fuel into the specific Extreme Air Pressure (EAP) compressed air in the main cylinder to create a uniform unstable PRE Mist Mixture PMM), during a restricted defined window close to UDP of the main cylinder, where pressure and heat are at peak values, with a strictly defined phase; whereby said fuel injection moment is accurately controlled and timed to enable extreme high compression combustion (Extreme Pressure Detonation EPD) without risk of pre-detonation; and wherein the engine is enabled to utilize low-octane fuel without pre-detonation.
Abstract:
A gasoline engine includes an electric heater, which is embedded in a port-type fuel injection valve and heats the fuel in the fuel injection valve. An electronic control device heats the fuel by means of the electric heater when the engine is cold. When the fuel is not heated by the electric heater, the electronic control device controls the fuel injection valve such that the engine rotational speed NE is a second prescribed value N2 which is higher than the idle rotational speed when the engine is warm. When idle running is performed when the engine is cold and the fuel injected from the fuel injection valve is heated by the electric heater, the amount Q of fuel injected by the fuel injection valve is controlled such that the engine rotational speed NE is less than the second prescribed value N2.
Abstract:
A mold (30), which has a first region (10) comprising an electroceramic material and a second region (20) comprising a structural ceramic material, is provided. A heating device with this mold is also specified. Furthermore, a method for producing a mold is provided.
Abstract:
An EFI-ECU determines an initial value of a correction value ekthwst for correcting an injection correction amount with reference to a non-heating initial value map if a heater is in operation, and determines the initial value of the correction value ekthwst for correcting the injection correction amount with reference to a heating initial value map if the heater is out of operation. It should be noted herein that the initial value of the correction value ekthwst is set lower under the same condition in the heating initial value map than in the non-heating initial value map.
Abstract:
A preheating device for an internal combustion engine may include an inlet connection for connecting a distributor rail of a fuel injection system and an outlet connection for connecting a fuel injector of the fuel injection system. A preheating chamber may be fluidically connected with the inlet connection and the outlet connection and be flowable through by a fuel flow. At least one electrical heating element may be included for heating the fuel flow in the preheating chamber. At least one metallic heating body, which may be exposed to the fuel flow in the preheating chamber, may receive the at least one heating element.
Abstract:
Method for the manufacture of a circuit board containing a component and circuit board containing a component. The invention is based on first manufacturing (101-102 or 101-103) an intermediate product, which contains the insulator layer of the circuit board and the components, which are set in place inside the insulator layer, in such a way that the contact elements of the components face the surface of the intermediate product. After this, the intermediate product is transferred to the circuit-board manufacturing line, on which a suitable number of conducting-pattern layers and, if necessary, insulator layers are manufactured (104) on one or both sides of the intermediate product, in such a way that, when manufacturing the first conducting-pattern layer, the conductor material forms an electrical contact with the contact elements of the components. Alternatively, stages (101-105) can also be performed on a single manufacturing line.