mhurhangee/patent-ind-claim-en huggingface dataset:
A polyurethane transmission belt containing 1,2-cyclohexane dicarboxylic acid diisononyl ester expressed by Chemical Formula below characterized by being manufactured by thermally hardening in dies a belt-molding material containing the 1,2-cyclohexane dicarboxylic acid diisononyl ester in an amount of 5 to 40 parts by weight relative to 100 parts by weight of a prepolymer synthesized from polyisocyanate and polyol, and a hardener.
Energy store (ES), comprising - a layer stack (LS) having a first electrode layer, a second electrode layer, and an electrolyte layer between the electrode layers, wherein - a first electrode (EL1) is formed in the first electrode layer, - a second electrode (EL2) is formed in the second electrode layer, - an electrolyte (E) is formed in the electrolyte layer, and - the electrolyte (E) is a solid-state electrolyte, further comprising - a first active layer (AL1) between the first electrode layer and the electrolyte layer, and - a second active layer (AL2) between the electrolyte layer and the second electrode layer, wherein - the first (AL1) and the second (AL2) active layer are permeable to ions, - the energy store is a solid-state battery or a solid-state accumulator, further comprising - one or more additional layer stacks (LS) which are combined to form a block (B1) which provides its own supply voltage, wherein the energy store comprises a first collecting electrode (SE1) on a lateral side of the layer stack (LS), and a second collecting electrode (SE2) on the opposite side of the layer stack (LS), wherein the first collecting electrode (SE1) is connected to the first electrode (EL1) of the layer stack (LS) and is separated from the second electrode (EL2) of the layer stack (LS) by a void, and wherein the second collecting electrode (SE2) is connected to the second electrode (EL2) of the layer stack (LS) and is separated from the first electrode (EL1) of the layer stack (LS) by a void. - a layer stack (LS) having a first electrode layer, a second electrode layer, and an electrolyte layer between the electrode layers, wherein - a first electrode (EL1) is formed in the first electrode layer, - a second electrode (EL2) is formed in the second electrode layer, - an electrolyte (E) is formed in the electrolyte layer, and - the electrolyte (E) is a solid-state electrolyte, further comprising - a first active layer (AL1) between the first electrode layer and the electrolyte layer, and - a second active layer (AL2) between the electrolyte layer and the second electrode layer, - the first (AL1) and the second (AL2) active layer are permeable to ions, - the energy store is a solid-state battery or a solid-state accumulator, - one or more additional layer stacks (LS) which are combined to form a block (B1) which provides its own supply voltage, wherein the energy store comprises a first collecting electrode (SE1) on a lateral side of the layer stack (LS), and a second collecting electrode (SE2) on the opposite side of the layer stack (LS), wherein the first collecting electrode (SE1) is connected to the first electrode (EL1) of the layer stack (LS) and is separated from the second electrode (EL2) of the layer stack (LS) by a void, and wherein the second collecting electrode (SE2) is connected to the second electrode (EL2) of the layer stack (LS) and is separated from the first electrode (EL1) of the layer stack (LS) by a void.
A process for performing a reductive amination of a first functional group in an organic feed substrate, which feed substrate comprises at least one further functional group containing a halogen atom, in the presence of hydrogen, a nitrogen-containing compound, and a catalyst, wherein the presence of the nitrogen-containing compound, expressed in a molar ratio relative to the first functional group in the organic feed substrate, at least during a period of the reaction as long as the conversion of the organic feed substrate has not yet reached 80%, is maintained at a level of at most 1.2; wherein the reductive amination is performed on a halo-benzaldehyde.
A device for measuring the temperature of a power resistor provided with a sheath and with two terminals adapted to be connected to the terminals of a voltage or electric current source comprising: impedance measuring means adapted to measure at least one parasitic parameter of said resistor at a predetermined frequency, said at least one circuit parameter being chosen in a group comprising L, series inductance of said resistor , G, conductance measured between the two resistor terminals and the sheath of said resistor and C, capacitance measured between the two resistor terminals and the sheath of said resistor ; connecting means adapted to connect the two resistor terminals and the sheath of a power resistor to said impedance measuring means and to connect the two resistor terminals of said power resistor to said voltage or electric current source ; control and reading means adapted to read the value of said at least one parasitic parameter of said resistor measured by said impedance measuring means and adapted to carry out the conversion between the value of at least one measured parasitic parameter and the temperature. impedance measuring means adapted to measure at least one parasitic parameter of said resistor at a predetermined frequency, said at least one circuit parameter being chosen in a group comprising L, series inductance of said resistor , G, conductance measured between the two resistor terminals and the sheath of said resistor and C, capacitance measured between the two resistor terminals and the sheath of said resistor ; connecting means adapted to connect the two resistor terminals and the sheath of a power resistor to said impedance measuring means and to connect the two resistor terminals of said power resistor to said voltage or electric current source ; control and reading means adapted to read the value of said at least one parasitic parameter of said resistor measured by said impedance measuring means and adapted to carry out the conversion between the value of at least one measured parasitic parameter and the temperature.
An electronic device , comprising: a housing; a plurality of coils (510; 530) disposed on a first layer within the housing; a plurality of other coils (520; 540) disposed on a second layer substantially parallel to the first layer; a first conductor that connects an end point of a first coil of the plurality of coils and a start point of a second coil of the plurality of other coils and conducts a current from the end point of the first coil to the start point of the second coil; and a second conductor that connects a start point of a third coil , of which an inner side surrounds an outer side of the first coil of the plurality of coils, and an end point of the second coil and conducts the current to be applied from the end point of the second coil to the start point of the third coil, wherein the first conductor and the second conductor induce a directional magnetic field when the current flows, the electronic device being characterized in that : the first coil includes a first connection part connected with a start point of the first coil and a second connection part connected with the end point of the first coil , wherein the first connection part has a form in which a width increases in a first direction of the winding pattern from the start point of the first coil and the second connection part has a form in which a width increases in a second direction of the winding pattern from the end point of the first coil , the second direction being opposite to the first direction. a housing; a plurality of coils (510; 530) disposed on a first layer within the housing; a plurality of other coils (520; 540) disposed on a second layer substantially parallel to the first layer; a first conductor that connects an end point of a first coil of the plurality of coils and a start point of a second coil of the plurality of other coils and conducts a current from the end point of the first coil to the start point of the second coil; and a second conductor that connects a start point of a third coil , of which an inner side surrounds an outer side of the first coil of the plurality of coils, and an end point of the second coil and conducts the current to be applied from the end point of the second coil to the start point of the third coil, wherein the first conductor and the second conductor induce a directional magnetic field when the current flows, the electronic device being characterized in that : the first coil includes a first connection part connected with a start point of the first coil and a second connection part connected with the end point of the first coil , wherein the first connection part has a form in which a width increases in a first direction of the winding pattern from the start point of the first coil and the second connection part has a form in which a width increases in a second direction of the winding pattern from the end point of the first coil , the second direction being opposite to the first direction.
A type of multi-purpose vehicle with a fastback state (S1) and a wagon state (S2), the multi-purpose vehicle comprises: a vehicle body and a main liftback body , the vehicle body comprises : a roof ; a tail ; and a C-pillar ; the main liftback body which is movably connected with the roof and the tail, comprises : a main body and a moving assembly , the main body comprises : an engaging end which is connected with the roof ; a free end ; and a first end ; characterized in that the moving assembly connected with the first end comprises : a) a first moving panel which is a triangular cover; b) a second moving panel ; c) a tailgate window in a trapezoid shape; and d) a linkage device comprising: a linkage rod ; and a linkage piece which is connected with the first moving panel through a sliding surface , whereby, the linkage device can simultaneously position the main body , the first moving panel , and the second moving panel , wherein, the tailgate window can move up relative to the tail to be connected with the free end , or can move down and stored inside the tail , while the free end is connected with the tail , furthermore, a first driving device located in the vehicle body connected with the moving assembly drives the main liftback body to move relative to the C-pillar , therefore, the multi-purpose vehicle can be converted between the fastback state (S1) and the wagon state (S2). a roof ; a tail ; and a C-pillar ; an engaging end which is connected with the roof ; a free end ; and a first end ; characterized in that a) a first moving panel which is a triangular cover; b) a second moving panel ; c) a tailgate window in a trapezoid shape; and d) a linkage device comprising: a linkage rod ; and a linkage piece which is connected with the first moving panel through a sliding surface , whereby, the linkage device can simultaneously position the main body , the first moving panel , and the second moving panel ,
A conveyor belt comprising a reinforcement layer , a carry cover layer above the reinforcement layer , and a pulley cover layer beneath the reinforcement layer , wherein the carry cover layer comprises a fluoroelastomer, wherein high temperature resistance is provided by the carry cover layer so that the conveyor belt is adapted to transport materials having a temperature in excess of 200°C, characterized in that the fluoroelastomer has repeat units which are comprised of at least a perfluoroolefin monomer, a perfluorovinyl ether monomer, and a cure site monomer.
A system for humidifying and cooling an air flow (F), said system comprising: - a frame delimiting an inlet , an outlet and a passage between the inlet and the outlet , the air flow (F) being intended to pass through the passage , - a plurality of porous evaporation panels mounted on the frame and arranged in the passage , each porous evaporation panel extending mainly in a substantially vertical direction, - a plurality of water dispersing elements , each dispersing element being positioned over a corresponding porous evaporation panel , each of the dispersing elements being suitable for dispersing a volume of water over the corresponding porous evaporation panel so as to soak at least one portion of said porous evaporation panel with a volume of water, the soaked portion comprising at least one exchange surface area intended to be in contact with the air flow (F) and to allow the volume of water to evaporate, a total exchange surface area being formed by the sum of the exchange surface areas of each of the evaporation panels , - a supply system comprising a control unit configured to supply water to the dispersing elements with corresponding supply flow-rates, characterized in that the control unit comprises a plurality of control elements configured to control each of the supply flow-rates, correspondingly, where the control elements can be controlled independently of each other, at least one evaporation configuration wherein the water supply flow-rate is substantially equal to a flow-rate of the water evaporated through the associated porous evaporation panel , and a cleaning configuration wherein the water supply flow-rate is greater than a flow-rate of the water evaporated through the associated completely soaked porous evaporation panel so that a water flow is created outside said associated porous evaporation panel , wherein the supply system comprises a plurality of water supply lines , each supply line being fluidically connected to a corresponding dispersing element , each control element being connected to a corresponding supply line . - a frame delimiting an inlet , an outlet and a passage between the inlet and the outlet , the air flow (F) being intended to pass through the passage , - a plurality of porous evaporation panels mounted on the frame and arranged in the passage , each porous evaporation panel extending mainly in a substantially vertical direction, - a plurality of water dispersing elements , each dispersing element being positioned over a corresponding porous evaporation panel , each of the dispersing elements being suitable for dispersing a volume of water over the corresponding porous evaporation panel so as to soak at least one portion of said porous evaporation panel with a volume of water, the soaked portion comprising at least one exchange surface area intended to be in contact with the air flow (F) and to allow the volume of water to evaporate, a total exchange surface area being formed by the sum of the exchange surface areas of each of the evaporation panels , - a supply system comprising a control unit configured to supply water to the dispersing elements with corresponding supply flow-rates,
An apparatus comprising at least one processing core , at least one memory including computer program code, the at least one memory and the computer program code being configured to, with the at least one processing core , cause the apparatus at least to: - determine a reference point in a three-dimensional space based at least in part on locations of first and second features of a user's eye and on the user's gaze distance, and - perform a mapping of the reference point into a viewed scene of a near-to-eye optical device to obtain an estimated gaze point and/or gaze direction of the user who is using the near-to-eye optical device, the mapping being based at least in part on calibration information associated with the user, the near-to-eye optical device comprising light guides, characterized in that - the near-to-eye optical device comprises an ocular device, and in that the apparatus is configured to obtain the gaze distance by fitting a virtual plane to locations of the light guides by minimizing distances between the light guides and the virtual plane, shifting the virtual plane in its normal direction by a distance which is randomly generated or based on user calibration, and determining an intersection of the shifted virtual plane and a vector which traverses the first and second features of the user's eye. - determine a reference point in a three-dimensional space based at least in part on locations of first and second features of a user's eye and on the user's gaze distance, and - perform a mapping of the reference point into a viewed scene of a near-to-eye optical device to obtain an estimated gaze point and/or gaze direction of the user who is using the near-to-eye optical device, the mapping being based at least in part on calibration information associated with the user, the near-to-eye optical device comprising light guides, characterized in that - the near-to-eye optical device comprises an ocular device, and in that the apparatus is configured to obtain the gaze distance by fitting a virtual plane to locations of the light guides by minimizing distances between the light guides and the virtual plane, shifting the virtual plane in its normal direction by a distance which is randomly generated or based on user calibration, and determining an intersection of the shifted virtual plane and a vector which traverses the first and second features of the user's eye.
A method for producing m-dialkylbenzaldehyde represented by formula , comprising a step of allowing carbon monoxide to react on a reaction starting material containing 1,4-dialkylbenzene represented by formula in the presence of a Bronsted acid and a Lewis acid, wherein the reaction starting material is either 1,4-dialkylbenzene represented by formula , or a mixture of 1,4-dialkylbenzene represented by formula and 1,3-dialkylbenzene represented by formula , containing 10 mol% or more of the 1,4-dialkylbenzene represented by formula , wherein in formulae to , R 1 represents a methyl group or an ethyl group, and R 2 represents a chain or cyclic alkyl group having 3 or more and 6 or less carbon atoms that has a tertiary carbon at the benzyl position, and wherein the Bronsted acid and the Lewis acid (Bronsted acid/Lewis acid) are HF/BF 3 or HCl/AlCl 3 . wherein in formulae to , R 1 represents a methyl group or an ethyl group, and R 2 represents a chain or cyclic alkyl group having 3 or more and 6 or less carbon atoms that has a tertiary carbon at the benzyl position, and wherein the Bronsted acid and the Lewis acid (Bronsted acid/Lewis acid) are HF/BF 3 or HCl/AlCl 3 .
A cooling device for a turbine of a turbomachine extending along an axis, comprising at least one radially inner metal sheet and one radially outer metal sheet that are joined to one another and delimit, between them, cooling air circulation channels extending circumferentially from a connection region , each channel comprising at least one air inlet and air ejection orifices , that are designed to be oriented toward a region that is to be cooled, characterized in that it comprises means for cooling said metal sheets comprising at least one cooling duct intended for the circulation of cooling air, said at least one duct being located radially outside said metal sheets and close to or in contact with said metal sheets so as to cool said metal sheets using the cooling air circulating in the at least one duct , the at least one cooling duct extending axially and being arranged toward the circumferential end regions of the channels , the at least one cooling duct being formed by at least one pipe or a duct attached to the metal sheets, each of said at least one cooling duct comprises at least one series of cooling air ejection orifices oriented toward the metal sheets .
A preassembly system comprising a support arrangement and a plurality of tower structures each having a mean diameter, D, a height, H, and H/D in the range of 12 to 25, wherein said plurality of tower structures are vertically oriented and placed on the support arrangement during preassembly and/or storage, the support arrangement comprising a set of attachments means for each tower structure, said attachment means being configured for positioning said plurality of tower structures vertically oriented with a mutual distance between closest neighboring towers, a, characterized in that the ratio a/D is within the range 1.8 to 2.3 in order to reduce loads on the plurality of tower structures due to Vortex shedding while being secured to the preassembly system.
A method for automatically tuning an impedance matrix presented by an apparatus having m user ports and n target ports , where m and n are integers greater than or equal to 2, the impedance matrix being presented by the user ports, the apparatus allowing, at a given frequency, a transfer of power from the user ports to the target ports, the method comprising: applying m excitations to the user ports, one and only one of the m excitations being applied to each of the user ports, not all of the m excitations being applied successively, each of the excitations having a complex envelope, the complex envelopes of the m excitations being linearly independent in a set of complex functions of one real variable, regarded as a vector space over a field of complex numbers; obtaining q real quantities based on the impedance matrix presented by the user ports, where q is an integer greater than or equal to m, using output signals resulting from the application of the m excitations; determining tuning control signals using the real quantities; adjusting the impedance matrix presented by the user ports using a multiple-input-port and multiple-output-port tuning unit of the apparatus, the multiple-input-port and multiple-output-port tuning unit comprising p adjustable impedance devices, where p is an integer greater than or equal to m, wherein each of the adjustable impedance devices has a reactance at the given frequency, the reactance having an influence on the impedance matrix and being adjustable by electrical means; and applying each of the tuning control signals to the electrical means of one or more of the adjustable impedance devices for adjusting the respective reactance. applying m excitations to the user ports, one and only one of the m excitations being applied to each of the user ports, not all of the m excitations being applied successively, each of the excitations having a complex envelope, the complex envelopes of the m excitations being linearly independent in a set of complex functions of one real variable, regarded as a vector space over a field of complex numbers; obtaining q real quantities based on the impedance matrix presented by the user ports, where q is an integer greater than or equal to m, using output signals resulting from the application of the m excitations; determining tuning control signals using the real quantities; adjusting the impedance matrix presented by the user ports using a multiple-input-port and multiple-output-port tuning unit of the apparatus, the multiple-input-port and multiple-output-port tuning unit comprising p adjustable impedance devices, where p is an integer greater than or equal to m, wherein each of the adjustable impedance devices has a reactance at the given frequency, the reactance having an influence on the impedance matrix and being adjustable by electrical means; and applying each of the tuning control signals to the electrical means of one or more of the adjustable impedance devices for adjusting the respective reactance.