61results about How to "Ratio is limited" patented technology

A system for an engine of a vehicle, comprising of at least one combustion chamber located in the engine, a delivery system configured to deliver a fuel and a substance to the combustion chamber, an ignition system including a spark plug configured to ignite the fuel within the combustion chamber, and a control system configured to vary a number of sparks performed by the spark plug in relation to a combustion event of the combustion chamber responsive to a condition of the ignition system.

A system for an engine of a vehicle traveling on the road, comprising of a cylinder located in the engine, a delivery system configured to delivery fuel and a fluid to at least an engine cylinder of the while the vehicle is traveling on the road, said fluid containing at least some water, and a controller for varying an engine operating parameter based on an amount of water in said fluid, where said amount is determined based on an operating condition.

An engine system, comprising of a combustion chamber; a first spark plug configured to perform a spark within the combustion chamber, said first plug configured to have a first heat range; a second spark plug configured to produce a spark within the combustion chamber, said second plug configured to have a second heat range different from said first heat range of said first plug; and a delivery system configured to deliver a hydrocarbon fuel and a fluid including an alcohol to the combustion chamber in varying resulting ratios.

As one example, a fuel rail assembly for supplying pressurized fuel to a plurality of cylinders of an engine is provided. The fuel rail assembly includes a fuel rail housing defining an internal fuel rail volume having at least a first region and a second region; a fuel separation membrane element disposed within the fuel rail housing that segregates the first region from the second region. The membrane element can be configured to pass a first component of a fuel mixture such as an alcohol through the membrane element from the first region to the second region at a higher rate than a second component of the fuel mixture such as a hydrocarbon. The separated alcohol and hydrocarbon components can be provided to the engine in varying relative amounts based on operating conditions.

In an apparatus having an internal combustion engine, a fuel tank, and an extractor disposed fluidically between the fuel tank and the engine, a method of operating the apparatus is disclosed, wherein the method comprises adding a volume of a mixed fuel into the extractor from the fuel tank, wherein the mixed fuel contains at least one substantially nonpolar fuel component and at least one polar fuel component, adding a volume of a polar solvent to the extractor, extracting at least a portion of the polar fuel from the mixed fuel into the polar solvent, thereby forming a first fuel mixture with an enriched concentration of the polar fuel and a second fuel mixture with an enriched concentration of the substantially nonpolar fuel, and providing the first fuel mixture and the second fuel mixture to the engine in a ratio selected based upon engine operating condition.

An apparatus comprising an internal combustion engine, a fuel tank, a fuel separator disposed fluidically between the fuel tank and the engine, wherein the fuel separator comprises first and second passageways separated at least partially by a selective barrier that selectively transports a first fuel in a fuel mixture at a higher rate than a second fuel in the fuel mixture, and wherein the first passageway is configured to receive an input of fuel from the fuel tank, and an extraction fluid source in fluid communication with the second passageway of the fuel separator.

In an apparatus having an internal combustion engine, a method of operating the engine is disclosed, comprising providing a mixed fuel from a fuel tank to a separator, separating at least a portion of the hydrocarbon fuel component from the mixed fuel by transporting a hydrocarbon fuel component through a material in the separator that selectively transports the hydrocarbon fuel component, thereby forming a first oxygenated fuel component-enriched fuel fraction and a second hydrocarbon-enriched fuel fraction, and providing fuel from the first fuel fraction and fuel from the second fuel fraction to the engine in a ratio based on an engine operating condition.

A process for fabricating a composite vessel includes the steps of: A) preforming (e.g., by winding fiber and at least one thermoplastic substance onto a thermoplastic liner) a thermoplastic shell which has at least one opening for access to the interior; B) extruding a circular cross section of a fluid parison of thermoplastic material (which preferably is chosen to have a melting point lower than that of the thermoplastic shell) into the interior of the thermoplastic shell through the opening; C) in a mold, applying at least one force (such as gas under pressure) which tends to urge the fluid parison toward the interior walls of the thermoplastic shell (which may be preheated prior to introduction into the mold) such that the fluid parison imparts heat to the thermoplastic shell; D) continuing step C) until the thermoplastic shell and the fluid parison consolidate to form a composite vessel; E) cooling the vessel until it is solidified; and F) removing the vessel from the mold. For some composite vessels, prior to step C), an insert may be introduced into the interior of the parison and positioned in alignment with the opening in the thermoplastic shell such that the insert is rendered integral with the composite vessel during step D). Suitable thermoplastic materials include polyethylene, polypropylene, polybutylene terephthalate and polyethylene terephthalate. The resulting composite vessel exhibits superior mechanical and aesthetic properties.

A method for a vehicle traveling on the road, comprising of receiving a fuel mixture, said mixture having at least some alcohol, separating said fuel mixture into at least a first and second mixture on board the vehicle, where said first mixture has a higher alcohol concentration than said second mixture, delivering a first amount of said first mixture and a second amount of said second mixture to the engine in different ratios as an operating condition varies, and adjusting an engine operating parameter in response to availability of said first mixture.

The invention involves recycling scrap material having a thermoplastic. The invention includes a method of forming a thermoplastic pre-preg sheet for use in a subsequent molding operation. The method includes shredding a first scrap material having a thermoplastic to form fluff. The fluff has at least about 20 percent weight of thermoplastic. The method further includes sufficiently compacting the fluff into a thermoplastic state sufficient for forming the thermoplastic pre-preg sheet.

A silicone acrylate hybrid composition includes the reaction product of a silicon-containing pressure sensitive adhesive composition, an ethylenically unsaturated monomer, and an initiator. The silicon-containing pressure sensitive adhesive composition includes acrylate or methacrylate functionality. A method of making the hybrid composition includes polymerizing the ethylenically unsaturated monomer and the silicon-containing pressure sensitive adhesive composition in the presence of the initiator.

A hierarchical motion deblurring method for a single image is provided. In the method, a blur kernel of a target image is calculated and a multi-scale representation for representing the target image and the blur kernel is constructed. Then, a gradient attenuation function and a strong edge suppression function are applied to a residual Richardson-Lucy algorithm, so as to iteratively calculate a residual image between the blur kernel and the target image represented by the representation in each scale and restore the residual image to obtain a first restored image and a second restored image. Finally, the two restored images are compared so as to obtain a motion deblurring image.

A capacitive micromachined ultrasonic transducer (CMUT) cell comprising three electrodes: a first electrode coupled to a cell membrane; a second electrode embedded into a cell floor opposing the first electrode and separated therefrom by a gas or vacuum cavity; and a third electrode opposing the second electrode on the cavity side, wherein a dielectric layer is sandwiched between the second electrode and the third electrode to create a capacitive relation between the second electrode and the third electrode. The three electrode CMUT cell provides an ultrasound transducer with two actively driven (controlled) electrodes.

A substrate mounting table for mounting a substrate in a substrate processing apparatus, includes a table body having a substrate mounting surface. An annular peripheral ridge portion is formed on the substrate mounting surface of the table body. The annular peripheral ridge portion makes contact with a peripheral edge portion of the substrate and forms a closed space for circulation of a heat transfer gas below the substrate, when the substrate is mounted on the substrate mounting surface of the table body. The table body has a heat transfer gas inlet port formed in a peripheral edge region of the substrate mounting surface, a heat transfer gas outlet port formed in a central region of the substrate mounting surface, and a flow path formed on the substrate mounting surface for forming a conductance C when the heat transfer gas flows from the inlet port to the outlet port.

Method for producing a metal silicon (oxy)nitride by introducing a carbon-free silicon source (for example, (SiH3)3N), a metal precursor with the general formula MXn (for example, Hf(NEt2)4), and an oxidizing agent (for example, O2) into a CVD chamber and reacting same at the surface of a substrate. MsiN, MSIo and/or MSiON films may be obtained. These films are useful are useful as high k dielectrics films.

A silicone acrylate hybrid composition includes the reaction product of a silicon-containing pressure sensitive adhesive composition, an ethylenically unsaturated monomer, and an initiator. The silicon-containing pressure sensitive adhesive composition includes acrylate or methacrylate functionality. A method of making the hybrid composition includes polymerizing the ethylenically unsaturated monomer and the silicon-containing pressure sensitive adhesive composition in the presence of the initiator.

A process of fabricating a composite vessel includes the steps of: A) fabricating a thermoplastic liner for the vessel; B) overlaying a layer comprising fiber and a thermoplastic material (preferably by winding commingled filaments, rovings or yarns) onto the thermoplastic liner to obtain a composite intermediate structure (the fiber and thermoplastic material can be heated if desired during the overlaying, e.g. winding, step); C) heating the composite intermediate structure in a mold while applying at least one force thereto tending to urge the composite intermediate structure against and into the shape of the interior walls of the mold; D) continuing step C) until the thermoplastic liner and the overlaid layer consolidate to form a composite vessel; E) cooling the mold and composite vessel until the composite vessel is solidified; and F) removing the formed composite vessel from the mold. The at least one force applied during step C) may be obtained by introducing gas pressure into the interior of the composite intermediate structure. Suitable materials for the thermoplastic material include: polyethylene, polypropylene, polybutylene terephthalate and polyethylene terephthalate. The resulting composite vessel exhibits superior mechanical and aesthetic properties.

A semiconductor device with a U-shape drift region comprises a semiconductor substrate of a first conductivity type, a trench filled with an insulator material formed in a portion of a first main surface of the substrate, a cell of the device including the trench and semiconductor region surrounding the trench. The semiconductor device has at least one cell. Two device-feature regions are formed beneath the first main surface of the substrate, the first one is located at one side and the second one is located at the other side of the trench. At least a region of a second conductivity type and/or a region of metal is formed in the first device feature region and is connected to a first electrode. At least a region of a first conductivity type and/or a region of metal is formed in the second device feature region and is connected to a second electrode. Based on this invention, semiconductor devices, especially, an IGBT without tail during turning-off can be fabricated with a simple process at a low cost.