mhurhangee/patent-ind-claim-en huggingface dataset:
A radiator (12; 41) for selectively heating and cooling comprising: first and second spaced apart generally parallel headers , the first header for conducting a source fluid into the microchannel radiator and the second header for conducting a source fluid out of the microchannel radiator , a series of generally parallel pairs of microchannel tubes (16; 48) fluidly connecting the first and second headers , wherein a first spacing separating the microchannel tubes forming each of the pairs of microchannel tubes, a second spacing separating adjacent pairs of microchannel tubes , and, characterised in that : the first spacings are narrower than the second spacings , fins located in the first spacings for conductively connecting the microchannel tubes forming each of the pairs, and a phase change material cell (17; 52) located in the second spacings , wherein the cell (17; 52) contacts the pair of microchannel tubes bounding the cell. first and second spaced apart generally parallel headers , the first header for conducting a source fluid into the microchannel radiator and the second header for conducting a source fluid out of the microchannel radiator , a series of generally parallel pairs of microchannel tubes (16; 48) fluidly connecting the first and second headers , wherein a first spacing separating the microchannel tubes forming each of the pairs of microchannel tubes, a second spacing separating adjacent pairs of microchannel tubes , and, a first spacing separating the microchannel tubes forming each of the pairs of microchannel tubes, a second spacing separating adjacent pairs of microchannel tubes , and, characterised in that : the first spacings are narrower than the second spacings , fins located in the first spacings for conductively connecting the microchannel tubes forming each of the pairs, and a phase change material cell (17; 52) located in the second spacings , wherein the cell (17; 52) contacts the pair of microchannel tubes bounding the cell.
An airfoil comprising: a tip that defines an edge ; an array of features formed in a surface of the tip , wherein the array of features is proximate to the edge of the tip , wherein the features do not intersect the edge , and wherein each of the features is at least 0.254mm (10 mil) from the edge ; and a coating layer formed on the surface of the tip and the array of features . a tip that defines an edge ; an array of features formed in a surface of the tip , wherein the array of features is proximate to the edge of the tip , wherein the features do not intersect the edge , and wherein each of the features is at least 0.254mm (10 mil) from the edge ; and a coating layer formed on the surface of the tip and the array of features .
A process for the caking-free storage of solid menthol compounds in the form of flakes or pastilles, characterised in that these are filled at ambient temperature into standard packs with a maximum capacity of 25 l with the provisos that (a) the packages are filled to a maximum of 50% by volume, and (b) the filling quantity does not exceed a weight of 10 kg. (a) the packages are filled to a maximum of 50% by volume, and (b) the filling quantity does not exceed a weight of 10 kg.
An organic light emitting diode display comprising: a substrate (SUB); a buffer layer (BUF) on the substrate; a scan line (SL) running in a horizontal direction on the buffer layer; an intermediate insulating layer (IN) covering the scan line; a trench (TR) within the intermediate insulating layer and the buffer layer having a segment shape and sited apart from the scan line; a data line (DL) running in a vertical direction on the substrate, wherein a section of the data line is in the trench and another section of the data line is on the intermediate insulating layer; a passivation layer (PAS) covering the data line and the scan line; a driving current line (VDD) being parallel with the data line and running in a vertical direction on the substrate, wherein a section of the driving current line is in the trench and another section of the driving current line is on the intermediate insulating layer, and wherein the passivation layer covers the driving current line, characterised in that a color filter (CF) is filled in the trench and is disposed on the passivation layer and in that the trench exposes some of the substrate. a substrate (SUB); a buffer layer (BUF) on the substrate; a scan line (SL) running in a horizontal direction on the buffer layer; an intermediate insulating layer (IN) covering the scan line; a trench (TR) within the intermediate insulating layer and the buffer layer having a segment shape and sited apart from the scan line; a data line (DL) running in a vertical direction on the substrate, wherein a section of the data line is in the trench and another section of the data line is on the intermediate insulating layer; a passivation layer (PAS) covering the data line and the scan line; a driving current line (VDD) being parallel with the data line and running in a vertical direction on the substrate, wherein a section of the driving current line is in the trench and another section of the driving current line is on the intermediate insulating layer, and wherein the passivation layer covers the driving current line, characterised in that a color filter (CF) is filled in the trench and is disposed on the passivation layer and in that the trench exposes some of the substrate.
Elastic link provided with a progressive resistivity to stretching and comprising at least two elastic strands (1, 2, 3, 4...), each of said strands being fastened by means of the opposite ends thereof, at two mutually distant points (6-7; 6-8; 6-9; 6-10), of a strap , characterised in that the elastic strands (1, 2, 3, 4, ...) are fastened, on one hand, at a common fastening point of the strap and, on the other, at mutually spaced points at different distances from the common fastening point on an intermediate portion of the strap between end portions thereof.
A multipoint ignition device for igniting an air-fuel mixture in a combustion chamber of an engine , comprising: an insulating member formed in an annular shape such that an inner periphery thereof faces the combustion chamber ; a plurality of electrodes held on the insulating member so as to form a plurality of ignition gaps inside the combustion chamber ; a main body portion provided on an outer periphery of the insulating member ; an intermediate member provided between the main body portion and the insulating member ; characterised in that the intermediate member has a larger thermal expansion coefficient than the insulating member ; and that the intermediate member is a ring body that holds the outer periphery of the insulating member on the main body portion . an insulating member formed in an annular shape such that an inner periphery thereof faces the combustion chamber ; a plurality of electrodes held on the insulating member so as to form a plurality of ignition gaps inside the combustion chamber ; a main body portion provided on an outer periphery of the insulating member ; an intermediate member provided between the main body portion and the insulating member ; characterised in that the intermediate member has a larger thermal expansion coefficient than the insulating member ; and that the intermediate member is a ring body that holds the outer periphery of the insulating member on the main body portion .
A hydrocarbon recovery system, comprising: a first tool ; and a first control device mounted on the first tool and configured to operate the first tool, the first control device comprising: an explosion-proof housing , comprising: a first chamber configured to be unopenable; and a second chamber ; a processor disposed in the housing; and a circuit board disposed in the housing and extending through the first chamber and the second chamber. a first tool ; and a first control device mounted on the first tool and configured to operate the first tool, the first control device comprising: an explosion-proof housing , comprising: a first chamber configured to be unopenable; and a second chamber ; a processor disposed in the housing; and a circuit board disposed in the housing and extending through the first chamber and the second chamber. an explosion-proof housing , comprising: a first chamber configured to be unopenable; and a second chamber ; a first chamber configured to be unopenable; and a second chamber ; a processor disposed in the housing; and a circuit board disposed in the housing and extending through the first chamber and the second chamber.
Procédé de répartition d'une consigne d'assistance de couple (C3) pour un groupe motopropulseur hybride d'un véhicule automobile calculée par une fonction de dépollution pour assister le couple opéré par un moteur thermique de traction lorsqu'il est contraint par la fonction de dépollution, la consigne d'assistance (C3) étant opérée par une machine de traction lorsqu'elle est positive, et lorsqu'elle est négative, la consigne d'assistance (C3) imposant une limite de récupération d'énergie à une consigne de récupération (CR) pouvant être opérée au moins par un générateur électrique attelé au moteur thermique , caractérisé en ce que la machine de traction est montée sur un premier train de roues du véhicule tandis que le moteur thermique et le générateur sont montés sur un deuxième train de roues, indépendant mécaniquement du premier train de roue, et lorsque la consigne d'assistance (C3) est négative et si la consigne de récupération (CR) est opérée partiellement par la machine de traction et partiellement par le générateur , les proportions de la répartition de la consigne de récupération (CR) entre la machine de traction et le générateur calculées par la fonction de dépollution sont limitées par une fonction de répartition de couple entre les premier et deuxième trains.
A vehicle for the public transport of passengers essentially comprising a dashboard and a driver's cab in front of said dashboard , said driver's cab comprising a seat for a driver of said vehicle comprising: - a wall fixed with respect to the floor of said vehicle and configured to surround the rear of said seat and at least one side part of the space around said seat leaving an access space (L1) to said driver's cab between said side part and said dashboard ; and - a first leaf configured to slide along said wall between a first position wherein it is completely superimposed over said wall and a second position wherein it surrounds the side space around the seat between said wall and said dashboard to close said access space (L1) characterized in that said wall and said first leaf are curved and in that said driver's cab comprises a second leaf configured to slide along said wall and on said first leaf , said second leaf being configured to completely surround the side space around the seat on top of said first leaf to separate the space. - a wall fixed with respect to the floor of said vehicle and configured to surround the rear of said seat and at least one side part of the space around said seat leaving an access space (L1) to said driver's cab between said side part and said dashboard ; and - a first leaf configured to slide along said wall between a first position wherein it is completely superimposed over said wall and a second position wherein it surrounds the side space around the seat between said wall and said dashboard to close said access space (L1)
A microemulsion, containing, in each case based on the total weight of the emulsion, a) a liquid phase, b) a total amount of from 30.0 wt.% to 95.0 wt.% of at least one non-polymeric, organic thickener having a molecular weight in the range of from 100 g/mol to 1500 g/mol as the emulsified phase, c) a total amount of from 2.0 wt.% to 60.0 wt.% of a surfactant system containing at least one non-ionic surfactant. a) a liquid phase, b) a total amount of from 30.0 wt.% to 95.0 wt.% of at least one non-polymeric, organic thickener having a molecular weight in the range of from 100 g/mol to 1500 g/mol as the emulsified phase, c) a total amount of from 2.0 wt.% to 60.0 wt.% of a surfactant system containing at least one non-ionic surfactant.
An electromechanical device for actuating a movable flight control surface having a skin hinged to a structure of an aircraft about a pivot axis , the device comprising: - at least two electric motors for causing the skin to pivot about the pivot axis; - a power circuit and a control circuit for powering and controlling each of the motors; the device being characterized by : - a device for limiting opposing forces exerted by the electric motors. - at least two electric motors for causing the skin to pivot about the pivot axis; - a power circuit and a control circuit for powering and controlling each of the motors; - a device for limiting opposing forces exerted by the electric motors.
A lighting device for vehicles comprising: a socket including a flange , and a mounting unit which is provided on one face of the flange ; and a light emitting unit which is provided at an end portion of the mounting unit on a side opposite to a side of the flange , and includes a light emitting element ; at least one support unit provided on the face of the flange on which the mounting unit is provided, the support unit protruding from the same face on which the mounting unit is provided, characterized in that , a distance (H) from the face of the flange on which the mounting unit is provided to an apex portion (13c1) of the support unit is shorter than a thickness dimension (T) of a sealing member which is attached to the face of the flange on which the mounting unit is provided. a socket including a flange , and a mounting unit which is provided on one face of the flange ; and a light emitting unit which is provided at an end portion of the mounting unit on a side opposite to a side of the flange , and includes a light emitting element ; at least one support unit provided on the face of the flange on which the mounting unit is provided, the support unit protruding from the same face on which the mounting unit is provided, characterized in that , a distance (H) from the face of the flange on which the mounting unit is provided to an apex portion (13c1) of the support unit is shorter than a thickness dimension (T) of a sealing member which is attached to the face of the flange on which the mounting unit is provided.
A medical device locating system for determining a disposition of a medical device, the system characterised by : an array of quadruplet drive coil sets , each drive coil set having at least four discrete drive coils including a first drive coil , a second drive coil , a third drive coil , and a fourth drive coil , the first drive coil being orthogonal to the second drive coil, and the third drive coil and the fourth drive coil being non-orthogonal to the first and second drive coils, wherein the third drive coil is orthogonal to the fourth drive coil, each of the discrete drive coils being electromagnetic coils driven by drive signals and configured to generate respective electromagnetic wave fields; at least one moveable sensor coil configured to provide one or more sensor coil response signals responsive to the electromagnetic wave fields; a component configured to measure the one or more sensor coil response signals from the moveable sensor coil; and a processor configured to determine a sensor coil disposition in the subject relative to said quadruplet drive coil sets from the one or more sensor coil response signals. an array of quadruplet drive coil sets , each drive coil set having at least four discrete drive coils including a first drive coil , a second drive coil , a third drive coil , and a fourth drive coil , the first drive coil being orthogonal to the second drive coil, and the third drive coil and the fourth drive coil being non-orthogonal to the first and second drive coils, wherein the third drive coil is orthogonal to the fourth drive coil, each of the discrete drive coils being electromagnetic coils driven by drive signals and configured to generate respective electromagnetic wave fields; at least one moveable sensor coil configured to provide one or more sensor coil response signals responsive to the electromagnetic wave fields; a component configured to measure the one or more sensor coil response signals from the moveable sensor coil; and a processor configured to determine a sensor coil disposition in the subject relative to said quadruplet drive coil sets from the one or more sensor coil response signals.
A solid electrolyte composition comprising: an inorganic solid electrolyte having conductivity for ions of metal elements belonging to Group I or II of the periodic table; binder particles which include a polymer and have a volume-average particle diameter of 10 nm or more and 50,000 nm or less as determined by laser diffraction/scattering under the conditions indicated in the specification, wherein the polymer is a polyamide, a polyimide, a polyurea, a urethane resin, or an acrylic resin; and a dispersion medium represented by one or more compounds selected from an alcohol compound solvent, an ether compound solvent, an amide compound solvent, an amino compound solvent, a ketone compound solvent, an aromatic compound solvent, an aliphatic compound solvent, a nitrile compound solvent, and an ester compound solvent, wherein the inorganic solid electrolyte is a sulfide-based inorganic solid electrolyte or an oxide-based inorganic solid electrolyte, and characterized in that the polymer included in the binder particles has an SP value, as determined by the Hoy method, of 21.4725 MPa 1/2 (10.5 cal 1/2 cm -3/2 ) or more. an inorganic solid electrolyte having conductivity for ions of metal elements belonging to Group I or II of the periodic table; binder particles which include a polymer and have a volume-average particle diameter of 10 nm or more and 50,000 nm or less as determined by laser diffraction/scattering under the conditions indicated in the specification, wherein the polymer is a polyamide, a polyimide, a polyurea, a urethane resin, or an acrylic resin; and a dispersion medium represented by one or more compounds selected from an alcohol compound solvent, an ether compound solvent, an amide compound solvent, an amino compound solvent, a ketone compound solvent, an aromatic compound solvent, an aliphatic compound solvent, a nitrile compound solvent, and an ester compound solvent, wherein the inorganic solid electrolyte is a sulfide-based inorganic solid electrolyte or an oxide-based inorganic solid electrolyte, and characterized in that the polymer included in the binder particles has an SP value, as determined by the Hoy method, of 21.4725 MPa 1/2 (10.5 cal 1/2 cm -3/2 ) or more.
An integrated circuit assembly comprising: a die ; an upper layer ; and a thermal interface material disposed in contact with the die and the upper layer , wherein the thermal interface material comprises a polymer and liquid metal droplets dispersed throughout the polymer , wherein a bondline distance formed between the die and the upper layer is no greater than 150 microns, wherein the liquid metal droplets are in a liquid phase at least at a temperature in a range of -19 degrees Celsius to 30 degrees Celsius, and the polymer is elastomeric. a die ; an upper layer ; and a thermal interface material disposed in contact with the die and the upper layer , wherein the thermal interface material comprises a polymer and liquid metal droplets dispersed throughout the polymer , wherein a bondline distance formed between the die and the upper layer is no greater than 150 microns, wherein the liquid metal droplets are in a liquid phase at least at a temperature in a range of -19 degrees Celsius to 30 degrees Celsius, and the polymer is elastomeric.
Method for carrying out a hydraulic adjustment of a heating system for a building, comprising a temperature-control element which heats a temperature-control medium, optionally a circulating pump , a plurality of heat exchangers (5, 5', 5ʺ, 5′′′) connected to the temperature-control element and optionally the circulating pump , wherein each heat exchanger (5, 5', 5ʺ, 5′′′) is associated with one room of the building, and each heat exchanger (5, 5', 5ʺ, 5′′′) is associated with a valve (6, 6', 6ʺ, 6′′′) which controls the flow of the temperature-control medium through the heat exchanger (5, 5', 5ʺ, 5′′′) and comprises an actuator associated with said valve (6, 6', 6ʺ, 6′′′), and at least one control unit which controls the actuators of the valves (6, 6', 6ʺ, 6′′′) by means of pulse width modulation, wherein the method comprises the following steps: (a) determining room-specific correction values for the pre-set parameters of the control unit , at least during a learning phase of the heating operation, which make it possible, during the correction phase of the heating system in which energy is supplied to the individual heat exchangers (5, 5', 5ʺ, 5′′′), to keep the room temperature in the room associated with said heat exchanger (5, 5', 5ʺ, 5′′′) within a specified interval around a room temperature target value specified for the relevant room; and (b) reducing the flow of temperature-control medium, time-averaged over the opening time of the valves (6, 6', 6ʺ, 6′′′), of those heat exchangers (5, 5', 5ʺ, 5′′′) for which the correction values determined in step (a) bring about a reduction in the amount of energy supplied to the heat exchangers (5, 5', 5ʺ, 5′′′) compared with the corresponding initial parameters, characterised in that the room-specific correction values, determined in step (a) for the pre-set parameters of the control unit , determine the sequence of the start of the cycle time of the pulse width modulation of the heat exchangers (5, 5', 5ʺ, 5′′′), wherein the heat exchanger (5, 5', 5ʺ, 5′′′) for which the correction value brings about the greatest reduction in the amount of energy supplied to the heat exchangers (5, 5', 5ʺ, 5′′′), compared with the pre-set parameters, is preferably at the end of the sequence. (a) determining room-specific correction values for the pre-set parameters of the control unit , at least during a learning phase of the heating operation, which make it possible, during the correction phase of the heating system in which energy is supplied to the individual heat exchangers (5, 5', 5ʺ, 5′′′), to keep the room temperature in the room associated with said heat exchanger (5, 5', 5ʺ, 5′′′) within a specified interval around a room temperature target value specified for the relevant room; and (b) reducing the flow of temperature-control medium, time-averaged over the opening time of the valves (6, 6', 6ʺ, 6′′′), of those heat exchangers (5, 5', 5ʺ, 5′′′) for which the correction values determined in step (a) bring about a reduction in the amount of energy supplied to the heat exchangers (5, 5', 5ʺ, 5′′′) compared with the corresponding initial parameters,
A method for the stabilization of an aqueous choline hydroxide solution comprising: - adding a first stabilizer comprising a dialkyl hydroxylamine to a previous aqueous solution containing reactants that eventually will produce the aqueous choline hydroxide solution in an amount from 50 ppm to 500 ppm by weight of said previous aqueous solution; and - after the aqueous choline hydroxide solution has been formed, adding a second stabilizer comprising a dialkyl hydroxylamine to the aqueous choline hydroxide solution in an amount from 200 ppm to 1000 ppm by weight of the aqueous choline hydroxide solution and wherein a greater amount of the second stabilizer is added relative to the amount of the first stabilizer added. - adding a first stabilizer comprising a dialkyl hydroxylamine to a previous aqueous solution containing reactants that eventually will produce the aqueous choline hydroxide solution in an amount from 50 ppm to 500 ppm by weight of said previous aqueous solution; and - after the aqueous choline hydroxide solution has been formed, adding a second stabilizer comprising a dialkyl hydroxylamine to the aqueous choline hydroxide solution in an amount from 200 ppm to 1000 ppm by weight of the aqueous choline hydroxide solution and wherein a greater amount of the second stabilizer is added relative to the amount of the first stabilizer added.