mhurhangee/patent-ind-claim-en huggingface dataset:
A method for controlling a plurality of effectors of a gas turbine engine system , the method comprising: receiving , by a controller , a request indicative of a desired state for each effector of the plurality of effectors; receiving , by the controller , a weighting associated with each of the plurality of effectors included in the request, the controller configured to manage a fluid demand of each effector of the plurality of effectors based on each weighting ; obtaining , by the controller , information about a current state and at least one previous state of each effector of the plurality of effectors; wherein the current state includes at least one of an effector position and an effector fluid flow rate; updating , by the controller , model data information in an adaptive model based control (MBC) based upon the obtained information; generating , by the controller , at least one control command for at least one effector of the plurality of effectors based upon the adaptive model based control; and commanding , by the controller , the at least one effector of the plurality of effectors based upon the generated at least one control command. receiving , by a controller , a request indicative of a desired state for each effector of the plurality of effectors; receiving , by the controller , a weighting associated with each of the plurality of effectors included in the request, the controller configured to manage a fluid demand of each effector of the plurality of effectors based on each weighting ; obtaining , by the controller , information about a current state and at least one previous state of each effector of the plurality of effectors; wherein the current state includes at least one of an effector position and an effector fluid flow rate; updating , by the controller , model data information in an adaptive model based control (MBC) based upon the obtained information; generating , by the controller , at least one control command for at least one effector of the plurality of effectors based upon the adaptive model based control; and commanding , by the controller , the at least one effector of the plurality of effectors based upon the generated at least one control command.
Method for fabricating an SOI substrate containing a useful semiconductor layer on a support having a resistivity greater than 1 kΩ.cm for producing high frequency electronic circuits, characterized in that it comprises the following successive steps: (a) preparing a base substrate made of silicon comprising a controlled quantity of interstitial oxygen; (b) conducting a heat treatment defined so as to produce at least partial precipitation of the interstitial oxygen of the base substrate , and forming in a superficial layer of the substrate a zone showing a depletion of oxygen caused by exodiffusion or showing electrical donors from interstitial oxygen atoms creating an undesirable doping, wherein the temperature at the end of said heat treatment is comprised between 1000 and 1100°C; (c) removing the superficial layer from a face of the base substrate intended to receive a useful layer , the thickness of the superficial layer that is removed being comprised between 0.5 μm and 10 μm; (d) forming said useful layer on said surface of the base substrate , the latter forming the support. (a) preparing a base substrate made of silicon comprising a controlled quantity of interstitial oxygen; (b) conducting a heat treatment defined so as to produce at least partial precipitation of the interstitial oxygen of the base substrate , and forming in a superficial layer of the substrate a zone showing a depletion of oxygen caused by exodiffusion or showing electrical donors from interstitial oxygen atoms creating an undesirable doping, wherein the temperature at the end of said heat treatment is comprised between 1000 and 1100°C; (c) removing the superficial layer from a face of the base substrate intended to receive a useful layer , the thickness of the superficial layer that is removed being comprised between 0.5 μm and 10 μm; (d) forming said useful layer on said surface of the base substrate , the latter forming the support.
A truck , comprising: - a rear axle , comprising a motor housing extending laterally between rear wheels of the truck, and an electric motor and power transmission coaxially aligned in said motor housing and arranged for driving the rear wheels ; and - a suspension system , for suspending the rear axle to a chassis of the truck, said suspension system at least comprising a pair of springs and shock absorbers , and an anti-roll stabilizer and a guiding rod linkage for allowing movement in a vertical direction (Z) relative to the chassis ; wherein the motor housing is limited by a minimum vertical ground clearance (DH) between the road surface and a bottom surface of the motor housing ; wherein the motor housing comprises a reinforced central top section providing a guiding rod mount for pivotally mounting the guiding rod linkage to the rear axle ; characterized in that the motor housing further comprises suspension yokes integrated into the housing and extending on either side of the motor housing near both axial ends, said suspension yokes providing spring mounts and shock absorber mounts for mounting said opposed pair of springs and shock absorbers , wherein the motor housing comprises a rear section outer surface provided with connectors , to provide input ports to the electric motor and wherein said connectors are provided in an orientation to guide one or more high voltage power cables adjacent the rear section outer surface in a vertical upward direction (+Z). - a rear axle , comprising a motor housing extending laterally between rear wheels of the truck, and an electric motor and power transmission coaxially aligned in said motor housing and arranged for driving the rear wheels ; and - a suspension system , for suspending the rear axle to a chassis of the truck, said suspension system at least comprising a pair of springs and shock absorbers , and an anti-roll stabilizer and a guiding rod linkage for allowing movement in a vertical direction (Z) relative to the chassis ; wherein the motor housing is limited by a minimum vertical ground clearance (DH) between the road surface and a bottom surface of the motor housing ; wherein the motor housing comprises a reinforced central top section providing a guiding rod mount for pivotally mounting the guiding rod linkage to the rear axle ; characterized in that the motor housing further comprises suspension yokes integrated into the housing and extending on either side of the motor housing near both axial ends, said suspension yokes providing spring mounts and shock absorber mounts for mounting said opposed pair of springs and shock absorbers , wherein the motor housing comprises a rear section outer surface provided with connectors , to provide input ports to the electric motor and wherein said connectors are provided in an orientation to guide one or more high voltage power cables adjacent the rear section outer surface in a vertical upward direction (+Z).
A Christmas tree comprising: a body comprising: a production flowbore therethrough; and a longitudinal flowbore intersecting the production flowbore ; characterized by the Christmas tree comprising: a sleeve attached to and circumferentially rotatable about at least an outer portion of the body , the sleeve including a transverse flowbore therethrough; and an annular fluid gallery formed between the body and the sleeve ; one or more seal assemblies configured to provide a seal between the body and the sleeve when engaged; wherein the body comprises a flowpath (120, 220, 320a-c) connecting to the annular fluid gallery ; and wherein the longitudinal flowbore and the flowpath (120, 220, 320a-c): each terminates at a terminal end at an outer surface of the body allowing the terminal end of the longitudinal flowbore and the terminal end of the flowpath (120, 220, 320a-c) to be fluidly connected via external equipment comprising one or more bores; or are connected at a point within the body . a body comprising: a production flowbore therethrough; and a longitudinal flowbore intersecting the production flowbore ; a production flowbore therethrough; and a longitudinal flowbore intersecting the production flowbore ; characterized by the Christmas tree comprising: a sleeve attached to and circumferentially rotatable about at least an outer portion of the body , the sleeve including a transverse flowbore therethrough; and an annular fluid gallery formed between the body and the sleeve ; one or more seal assemblies configured to provide a seal between the body and the sleeve when engaged; wherein the body comprises a flowpath (120, 220, 320a-c) connecting to the annular fluid gallery ; and wherein the longitudinal flowbore and the flowpath (120, 220, 320a-c): a sleeve attached to and circumferentially rotatable about at least an outer portion of the body , the sleeve including a transverse flowbore therethrough; and an annular fluid gallery formed between the body and the sleeve ; one or more seal assemblies configured to provide a seal between the body and the sleeve when engaged; wherein the body comprises a flowpath (120, 220, 320a-c) connecting to the annular fluid gallery ; and wherein the longitudinal flowbore and the flowpath (120, 220, 320a-c): each terminates at a terminal end at an outer surface of the body allowing the terminal end of the longitudinal flowbore and the terminal end of the flowpath (120, 220, 320a-c) to be fluidly connected via external equipment comprising one or more bores; or are connected at a point within the body .
A metallic laminate composite comprising: a first metallic layer, selected from nickel or nickel alloys, comprising 0.3% to 8% of the laminate composite by volume; a second metallic layer having good resistance welding properties, selected from stainless steels, comprising 8.2% to 39.7% of the laminate composite by volume; a third metallic layer having low electrical resistivity, selected from copper or copper alloys, comprising 20% to 83% of the laminate composite by volume; a fourth metallic layer, selected from stainless steels, comprising 8.2% to 39.7% of the laminate composite by volume; and a fifth metallic layer having good soldering properties, selected from nickel or nickel alloys, comprising 0.3% to 8% of the laminate composite by volume, wherein the third metallic layer is bonded to the second metallic layer and the fourth metallic layer, the first metallic layer is bonded to the second metallic layer, and the fifth metallic layer is bonded to the fourth metallic layer, and further wherein the conductivity of the composite ranges from 1.16 x 10 7 to 4.64 x 10 7 S/m, corresponding to 20% IACS - 80% IACS. a first metallic layer, selected from nickel or nickel alloys, comprising 0.3% to 8% of the laminate composite by volume; a second metallic layer having good resistance welding properties, selected from stainless steels, comprising 8.2% to 39.7% of the laminate composite by volume; a third metallic layer having low electrical resistivity, selected from copper or copper alloys, comprising 20% to 83% of the laminate composite by volume; a fourth metallic layer, selected from stainless steels, comprising 8.2% to 39.7% of the laminate composite by volume; and a fifth metallic layer having good soldering properties, selected from nickel or nickel alloys, comprising 0.3% to 8% of the laminate composite by volume, wherein the third metallic layer is bonded to the second metallic layer and the fourth metallic layer, the first metallic layer is bonded to the second metallic layer, and the fifth metallic layer is bonded to the fourth metallic layer, and further wherein the conductivity of the composite ranges from 1.16 x 10 7 to 4.64 x 10 7 S/m, corresponding to 20% IACS - 80% IACS.
A process for the production of copper comprising the electrorefining of copper metal in an electrolytic cell from at least one copper anode into at least one copper cathode, using an electrolyte that is sulphuric acid based, characterised in that • the voltage difference between the anode and the cathode in the electrolytic cell is maintained at less than 1.6 volt, • the anode comprises at most 98.0%wt of copper, • the anode comprises less than 1.00%wt of iron, • the current density through the cell is at least 180 A/m 2 of cathode surface, • electrolyte is removed from the electrorefining cell during the electrorefining operation at an average electrolyte refreshing rate of at least 30 % and at most 1900 % per hour, and the electrolyte is removed at least partly by overflow of a first stream of electrolyte over at least one cell wall, and • a gas is introduced into the cell and bubbled through the electrolyte in between the anode and the cathode. • the voltage difference between the anode and the cathode in the electrolytic cell is maintained at less than 1.6 volt, • the anode comprises at most 98.0%wt of copper, • the anode comprises less than 1.00%wt of iron, • the current density through the cell is at least 180 A/m 2 of cathode surface, • electrolyte is removed from the electrorefining cell during the electrorefining operation at an average electrolyte refreshing rate of at least 30 % and at most 1900 % per hour, and the electrolyte is removed at least partly by overflow of a first stream of electrolyte over at least one cell wall, and • a gas is introduced into the cell and bubbled through the electrolyte in between the anode and the cathode.
A process for preparation of a colloid containing a composite, characterized in that : a) a suspension of grains of zinc oxide in a solution of chitosan is obtained, b) the resulting suspension is mixed with a solution of tripolyphosphate, and a reaction of ionotropic crosslinking is conducted, c) the resulting mixture is treated with ultrasound, and the colloid containing the composite is obtained. a) a suspension of grains of zinc oxide in a solution of chitosan is obtained, b) the resulting suspension is mixed with a solution of tripolyphosphate, and a reaction of ionotropic crosslinking is conducted, c) the resulting mixture is treated with ultrasound, and the colloid containing the composite is obtained.
A communication device configured to perform a procedure involving Secondary node change in E-UTRA-NR Dual Connectivity, the communication device comprising: a communication unit configured to receive a message including an SCG configuration, wherein the communication unit is configured to transmit a message, which does not include the SCG configuration, to another communication device and to cause the another communication device to perform full configuration; and wherein the communication device is a central node, CU, and the another communication device is a distributed node, DU. a communication unit configured to receive a message including an SCG configuration, wherein the communication unit is configured to transmit a message, which does not include the SCG configuration, to another communication device and to cause the another communication device to perform full configuration; and wherein the communication device is a central node, CU, and the another communication device is a distributed node, DU.
An induction cooking device comprising at least one inductor positioned under a thermally strengthened glass plate, the composition of which glass is of borosilicate type or alumino-boro-silicate type, characterized in that the glass has the following characteristics: - its thickness is at most 4.5 mm, - the c/a ratio of the glass before strengthening is at most 3.0 after Vickers indentation under a load of 1 kg, c being the length of the radial cracks and a being the half-diagonal of the Vickers impression, - the σ/(e.E.α) ratio is at least 20 K.mm -1 , or even 30 K.mm -1 , σ being the maximum tensile stress generated at the core of the glass by the thermal strengthening in Pa, e being the thickness of the glass in mm, E being the Young's modulus in Pa and α being the linear thermal expansion coefficient of the glass in K -1 . - its thickness is at most 4.5 mm, - the c/a ratio of the glass before strengthening is at most 3.0 after Vickers indentation under a load of 1 kg, c being the length of the radial cracks and a being the half-diagonal of the Vickers impression, - the σ/(e.E.α) ratio is at least 20 K.mm -1 , or even 30 K.mm -1 , σ being the maximum tensile stress generated at the core of the glass by the thermal strengthening in Pa, e being the thickness of the glass in mm, E being the Young's modulus in Pa and α being the linear thermal expansion coefficient of the glass in K -1 .
A power resistor having at least one electrical connection (2.1, 2.2, 2.3), having a carrier substrate , which has at least one resistor element (4.1, 4.2) composed of a thick-film material and at least one contact electrode (5.1, 5.2, 5.3) to which the resistor element (4.1, 4.2) electrically connects, having at least one electrical conductor (7.1, 7.2, 7.3), which is soldered to the contact electrode (5.1, 5.2, 5.3) and produces an electrical connection between the contact electrode (5.1, 5.2, 5.3) and the electrical terminal (2.1, 2.2, 2.3), and having a housing , which is at least partially filled with at least one casting compound and in which the resistor element (4.1, 4.2) and contact electrode (5.1, 5.2, 5.3) are encapsulated, with the electrical conductor (7.1, 7.2, 7.3) protruding out through the casting compound , characterized in that a pin, more particularly a soldering pin or press-fitting pin, constitutes the electrical conductor (7.1, 7.2, 7.3), which pin (9.1, 9.2, 9.3) is placed onto the contact electrode (5.1, 5.2, 5.3) and soldered to it and constitutes the electrical terminal (2.1, 2.2, 2.3) of the power resistor .
Method of manufacturing a plastic frame for a two-wheeler having at least one hollow space in the interior by means of plastic injection molding, said method comprising the following steps: - injecting a thermoplastic plastic melt into a closed injection molding tool; - injecting at least one fluid to displace the plastic core from the component cavity; and - at least briefly maintaining the fluid pressure in the component interior, characterized in that a plurality of fluids are injected into the injection molding tool and their individual fluid volume flows or pressure/time profiles are regulated separately from one another; a correspondingly shaped core is inserted during the injection molding process in the region of at least one part to be integrated into the plastic frame such as a motor and/or a storage battery such that this region is hollow after the component demolding; and at least one part to be integrated into the plastic frame, such as a steering head bearing and/or a bottom bracket bearing, are inserted into the injection molding tool, are held in the injection molding tool by means of an apparatus and are overmolded with plastic. - injecting a thermoplastic plastic melt into a closed injection molding tool; - injecting at least one fluid to displace the plastic core from the component cavity; and - at least briefly maintaining the fluid pressure in the component interior, a plurality of fluids are injected into the injection molding tool and their individual fluid volume flows or pressure/time profiles are regulated separately from one another; a correspondingly shaped core is inserted during the injection molding process in the region of at least one part to be integrated into the plastic frame such as a motor and/or a storage battery such that this region is hollow after the component demolding; and at least one part to be integrated into the plastic frame, such as a steering head bearing and/or a bottom bracket bearing, are inserted into the injection molding tool, are held in the injection molding tool by means of an apparatus and are overmolded with plastic.
A bale ejection system for a baler implement , the bale ejection system comprising: a frame ; a pin secured to the frame ; a carrier coupled to the frame and moveable relative to the frame along a longitudinal axis of the frame , wherein the carrier defines an elongated slot extending along the longitudinal axis of the frame with the pin extending through the elongated slot ; a pawl moveable with the carrier along the longitudinal axis and rotatably attached to the carrier for rotation about a rotation axis ; wherein the pawl includes a cam surface contacting the pin , and a material engaging surface disposed opposite the cam surface , with the cam surface and the material engaging surface terminating at a distal end of the pawl that is spaced from the rotation axis along the longitudinal axis ; characterized in that the material engaging surface defines a crop engaging tooth positioned between the rotation axis and the distal end of the pawl along the longitudinal axis . a frame ; a pin secured to the frame ; a carrier coupled to the frame and moveable relative to the frame along a longitudinal axis of the frame , wherein the carrier defines an elongated slot extending along the longitudinal axis of the frame with the pin extending through the elongated slot ; a pawl moveable with the carrier along the longitudinal axis and rotatably attached to the carrier for rotation about a rotation axis ; wherein the pawl includes a cam surface contacting the pin , and a material engaging surface disposed opposite the cam surface , with the cam surface and the material engaging surface terminating at a distal end of the pawl that is spaced from the rotation axis along the longitudinal axis ; characterized in that the material engaging surface defines a crop engaging tooth positioned between the rotation axis and the distal end of the pawl along the longitudinal axis .
Combined facility for the cryogenic separation and liquefaction of methane and carbon dioxide in a biogas stream, comprising: - a means M1 for mixing the biogas with a recycle gas R, - a compressor for compressing the mixture to the distillation pressure, - an exchanger E01 for cooling the compressed mixture, - a distillation column K01 supplied with the cooled mixture and making it possible to produce methane at the top of the column and a CO 2 -enriched liquid at the bottom of the column, - an exchanger E02 for liquefying the methane produced at the top of the column, - a means M2 for separating the liquefied methane into two portions: a "reflux" portion and a "product" portion , - a means M3 for expanding and heating the CO 2 -enriched liquid recovered at the bottom of the column and for recovering the cold from the CO 2 -enriched liquid, and - a separator vessel V01 for receiving the CO 2 -enriched stream from the means M3 and for recovering an overhead vapour and liquid CO 2 , with - the means M1 such that the recycle gas R corresponds to the overhead vapour recovered at the outlet of the separator vessel V01, and - the exchanger E01 and the means M3 being combined. - a means M1 for mixing the biogas with a recycle gas R, - a compressor for compressing the mixture to the distillation pressure, - an exchanger E01 for cooling the compressed mixture, - a distillation column K01 supplied with the cooled mixture and making it possible to produce methane at the top of the column and a CO 2 -enriched liquid at the bottom of the column, - an exchanger E02 for liquefying the methane produced at the top of the column, - a means M2 for separating the liquefied methane into two portions: a "reflux" portion and a "product" portion , - a means M3 for expanding and heating the CO 2 -enriched liquid recovered at the bottom of the column and for recovering the cold from the CO 2 -enriched liquid, and - a separator vessel V01 for receiving the CO 2 -enriched stream from the means M3 and for recovering an overhead vapour and liquid CO 2 , with - the means M1 such that the recycle gas R corresponds to the overhead vapour recovered at the outlet of the separator vessel V01, and - the exchanger E01 and the means M3 being combined.