mhurhangee/ep-ind-claims huggingface dataset:
A vehicle speed signal falsification detection apparatus, comprising: a vehicle speed sensor which can output a pulse signal proportional to a rotational speed of a drive wheel; a wheel speed sensor which can output a pulse signal proportional to a rotational speed of a non-drive wheel; and a control unit which includes a computer, wherein the control unit is adapted to calculate a vehicle speed (Vr) according to a drive wheel pulse signal output from the vehicle speed sensor, is adapted to calculate a simulated vehicle speed (Vf) according to a non-drive wheel pulse signal output from the wheel speed sensor, and is adapted to determine, on the basis of comparison between the vehicle speed (Vr) and the simulated vehicle speed (Vf), whether a vehicle speed signal has been falsified, characterized in that the control unit is adapted to determine that a vehicle speed signal has been falsified when a value obtained by subtracting the vehicle speed (Vr) according to the drive wheel from the simulated vehicle speed (Vf) according to the non-drive wheel is greater than zero. a vehicle speed sensor which can output a pulse signal proportional to a rotational speed of a drive wheel; a wheel speed sensor which can output a pulse signal proportional to a rotational speed of a non-drive wheel; and a control unit which includes a computer, wherein the control unit is adapted to calculate a vehicle speed (Vr) according to a drive wheel pulse signal output from the vehicle speed sensor, is adapted to calculate a simulated vehicle speed (Vf) according to a non-drive wheel pulse signal output from the wheel speed sensor, and is adapted to determine, on the basis of comparison between the vehicle speed (Vr) and the simulated vehicle speed (Vf), whether a vehicle speed signal has been falsified, characterized in that the control unit is adapted to determine that a vehicle speed signal has been falsified when a value obtained by subtracting the vehicle speed (Vr) according to the drive wheel from the simulated vehicle speed (Vf) according to the non-drive wheel is greater than zero.
A digital control manager (DCM 100) comprising: a first transceiver configured to provide one or more wireless communication links to one or more energy autonomous end devices; a second transceiver configured to provide one or more wireless communication links to one or more digital control managers (DCM 100) from which at least one is designated as a gateway control manager for communicating with an external device; a local database of objects corresponding to a state of the end devices; an intellectualize function module configured to execute a computer program to provide intelligence to the digital control manager (DCM 100), the providing of intelligence comprising analyzing data and deciding what is the next command for managing processes with an application; and a sharing kernel configured to manage the local database of objects and to provide data sharing between networked digital control managers (DCM 100), the sharing kernel upon determining that an object is updated, synchronizing a local database of the gateway control manager by making a corresponding update to a copy stored in the gateway control manager of the object that was updated. a first transceiver configured to provide one or more wireless communication links to one or more energy autonomous end devices; a second transceiver configured to provide one or more wireless communication links to one or more digital control managers (DCM 100) from which at least one is designated as a gateway control manager for communicating with an external device; a local database of objects corresponding to a state of the end devices; an intellectualize function module configured to execute a computer program to provide intelligence to the digital control manager (DCM 100), the providing of intelligence comprising analyzing data and deciding what is the next command for managing processes with an application; and a sharing kernel configured to manage the local database of objects and to provide data sharing between networked digital control managers (DCM 100), the sharing kernel upon determining that an object is updated, synchronizing a local database of the gateway control manager by making a corresponding update to a copy stored in the gateway control manager of the object that was updated.
A lithium ion secondary battery, comprising a positive electrode having a current collector and a positive electrode composite layer provided on the current collector, wherein the secondary battery satisfies each of the following conditions: the collector contains a metal element A as a main component thereof; the positive electrode composite layer contains a two-phase compound containing lithium as a positive electrode active material; the positive electrode composite layer further contains as an additive a salt having a metal element B having a higher ionization tendency than the metal element A in the form of a divalent or monovalent cation; and an amount of the salt contained in the positive electrode composite layer is 0.5 mmol to 8 mmol as the number of moles of the cation B 2+ in the case the cation is divalent, or 1 mmol to 8 mmol as the number of moles of the cation B + in the case the cation is monovalent, per 100 g of the positive electrode active material. the collector contains a metal element A as a main component thereof; the positive electrode composite layer contains a two-phase compound containing lithium as a positive electrode active material; the positive electrode composite layer further contains as an additive a salt having a metal element B having a higher ionization tendency than the metal element A in the form of a divalent or monovalent cation; and an amount of the salt contained in the positive electrode composite layer is 0.5 mmol to 8 mmol as the number of moles of the cation B 2+ in the case the cation is divalent, or 1 mmol to 8 mmol as the number of moles of the cation B + in the case the cation is monovalent, per 100 g of the positive electrode active material.
A composition for enhancing an immune response comprising as an active ingredient (a) an immunostimulatory oligonucleotide and (b) an epitope encapsulated in a liposome, wherein the liposome is a mixture of CHEMS and DOPE, and wherein the molar ratio of CHEMS:DOPE in the mixture is 4.5:5.5-5.5:4.5.
A compressor comprising: a housing; a shaft; a plurality of bearings (66, 67, 68, 74, 76) mounting the shaft to the housing for relative rotation about an axis; a motor, having: a rotor mounted on the shaft; and a stator; a first impeller mounted the shaft to a first side of the motor; and a second impeller mounted the shaft to a second side of the motor, characterised in that: the first impeller is an open impeller; and the second impeller is a shrouded impeller. a housing; a shaft; a plurality of bearings (66, 67, 68, 74, 76) mounting the shaft to the housing for relative rotation about an axis; a motor, having: a rotor mounted on the shaft; and a stator; a rotor mounted on the shaft; and a stator; a first impeller mounted the shaft to a first side of the motor; and a second impeller mounted the shaft to a second side of the motor, characterised in that: the first impeller is an open impeller; and the second impeller is a shrouded impeller. the first impeller is an open impeller; and the second impeller is a shrouded impeller.
A device for the mechanical control of an electrical or electronic input unit, in particular for central console units of motor vehicles, wherein a sensing element for controlling a sensor unit and/or an actuator unit can be moved against a restoring force in an actuation direction relative to a base element, wherein a stop element is provided, which, by being positioned and fixed on the base element during assembly, limits the movement path of the sensing element to a predetermined gap, wherein a control element surrounds the stop element and a restoring element and the restoring element is a coil spring, characterised in that an extension sleeve for transmitting the spring force is arranged following the coil spring in an intermediate space between the stop element and the control element.
A positive electrode for a non-aqueous electrolyte secondary battery, the positive electrode comprising at least: a positive electrode current collector; a conductive material; and a positive electrode active material, the positive electrode active material being disposed on a surface of the positive electrode current collector, the positive electrode current collector comprising an aluminum foil and an aluminum oxide hydrate film, wherein the aluminum oxide hydrate film has a composition represented by the following formula: Al 2 O 3· nH 2 O where n satisfies 0.7 ≤ n ≤ 1, the aluminum oxide hydrate film covering a surface of the aluminum foil, the aluminum oxide hydrate film having a thickness not smaller than 10 nm and not greater than 500 nm, the aluminum oxide hydrate film having a porosity not lower than 10% and not higher than 50%, the porosity being measured by the SEM imaging method described in the description. at least part of the conductive material being disposed within pores that are formed in the aluminum oxide hydrate film. a positive electrode current collector; a conductive material; and a positive electrode active material, the positive electrode active material being disposed on a surface of the positive electrode current collector, the positive electrode current collector comprising an aluminum foil and an aluminum oxide hydrate film, wherein the aluminum oxide hydrate film has a composition represented by the following formula: Al 2 O 3· nH 2 O where n satisfies 0.7 ≤ n ≤ 1, the aluminum oxide hydrate film covering a surface of the aluminum foil, the aluminum oxide hydrate film having a thickness not smaller than 10 nm and not greater than 500 nm, the aluminum oxide hydrate film having a porosity not lower than 10% and not higher than 50%, the porosity being measured by the SEM imaging method described in the description. at least part of the conductive material being disposed within pores that are formed in the aluminum oxide hydrate film.
A process for improving a latex comprising the steps of (a) providing a latex comprising a polymer binder, wherein said polymer binder is formed by polymerization of a monomer mixture consisting of: one or more ethylenically unsaturated carboxylic acid functional monomer in an amount that is more than 4 weight % and is also less than or equal to 15 weight %, based on the weight of said monomer mixture; one or more other ethylenically unsaturated monomers selected from the group consisting of hydroxy- or acetoacetoxy-substituted and unsubstituted (C1 to C50) alkyl (meth) acrylates, styrene and substituted styrenes, vinyl acrylates, vinyl acetates, fluoromethacrylates, acrylamide, methacrylamides, and combinations thereof; and, optionally, 0.05 to 5 weight% one or more polymerizable surfactant monomer comprising hydrophobic and hydrophilic functional groups, wherein said hydrophobic functional group comprises a polymerizable group within it, based on the weight of said monomer mixture; and (b) passing said latex comprising said polymer binder over a cation exchange resin. (a) providing a latex comprising a polymer binder, wherein said polymer binder is formed by polymerization of a monomer mixture consisting of: one or more ethylenically unsaturated carboxylic acid functional monomer in an amount that is more than 4 weight % and is also less than or equal to 15 weight %, based on the weight of said monomer mixture; one or more other ethylenically unsaturated monomers selected from the group consisting of hydroxy- or acetoacetoxy-substituted and unsubstituted (C1 to C50) alkyl (meth) acrylates, styrene and substituted styrenes, vinyl acrylates, vinyl acetates, fluoromethacrylates, acrylamide, methacrylamides, and combinations thereof; and, optionally, 0.05 to 5 weight% one or more polymerizable surfactant monomer comprising hydrophobic and hydrophilic functional groups, wherein said hydrophobic functional group comprises a polymerizable group within it, based on the weight of said monomer mixture; and one or more ethylenically unsaturated carboxylic acid functional monomer in an amount that is more than 4 weight % and is also less than or equal to 15 weight %, based on the weight of said monomer mixture; one or more other ethylenically unsaturated monomers selected from the group consisting of hydroxy- or acetoacetoxy-substituted and unsubstituted (C1 to C50) alkyl (meth) acrylates, styrene and substituted styrenes, vinyl acrylates, vinyl acetates, fluoromethacrylates, acrylamide, methacrylamides, and combinations thereof; and, optionally, 0.05 to 5 weight% one or more polymerizable surfactant monomer comprising hydrophobic and hydrophilic functional groups, wherein said hydrophobic functional group comprises a polymerizable group within it, based on the weight of said monomer mixture; and (b) passing said latex comprising said polymer binder over a cation exchange resin.
Hollow body selected from liquid storage and handling containers, tubing, pipes, and hoses, said hollow body comprising only three contiguous layers in the order L1/L2/L1, wherein L1 is both the inner and the outer layer and L2 is the intermediate layer and wherein: layer L1 comprises an aromatic polyamide and an impact modifier, and, layer L2 comprises an aliphatic polyamide, wherein said impact modifier is in an amount of from 2 weight% to 40 weight% based on total weight of composition L1, wherein said aromatic polyamide is selected from: - aromatic polyamides comprising more than 50 mole % of recurring units formed by the polycondensation reaction between at least one aliphatic diacid and metaxylylenediamine, and - aromatic polyamides comprising more than 50 mole % of recurring units formed by the polycondensation reaction between at least one of terephthalic acid, isophthalic acid, and phthalic acid and at least one aliphatic diamine, wherein said aliphatic diamine is hexamethylenediamine. layer L1 comprises an aromatic polyamide and an impact modifier, and, layer L2 comprises an aliphatic polyamide, - aromatic polyamides comprising more than 50 mole % of recurring units formed by the polycondensation reaction between at least one aliphatic diacid and metaxylylenediamine, and - aromatic polyamides comprising more than 50 mole % of recurring units formed by the polycondensation reaction between at least one of terephthalic acid, isophthalic acid, and phthalic acid and at least one aliphatic diamine, wherein said aliphatic diamine is hexamethylenediamine.
A process for preparing a hollow fiber comprising the steps of: a) providing a dope solution comprising polyamide imide, b) providing an aqueous bore solution comprising polyethylene imine, c) extruding the dope solution in a cross-sectional annular shape and ejecting the bore solution in the center of the annular shape, d) allowing the PAI and the PEl to react, thereby forming an internal surface layer comprising the cross-linked reaction product, and e) forming a polyamide Thin Film Composite layer by interfacial reaction of aqueous di- or triamine compound and organic di- or triacylhalide compound on the internal surface layer comprising the cross-linked reaction product, such that the internal surface layer functions as a primer for attaching the TFC layer to a PAI support layer. a) providing a dope solution comprising polyamide imide, b) providing an aqueous bore solution comprising polyethylene imine, c) extruding the dope solution in a cross-sectional annular shape and ejecting the bore solution in the center of the annular shape, d) allowing the PAI and the PEl to react, thereby forming an internal surface layer comprising the cross-linked reaction product, and e) forming a polyamide Thin Film Composite layer by interfacial reaction of aqueous di- or triamine compound and organic di- or triacylhalide compound on the internal surface layer comprising the cross-linked reaction product, such that the internal surface layer functions as a primer for attaching the TFC layer to a PAI support layer.
A keyboard for use with a computing device, the keyboard comprising: a plurality of rows of keys (102, 104, 106, 108, 110) with each of the rows of keys including a plurality of keys, wherein: one of the keys is a launch key that, when selected, causes a processor of the computing device to display one or more virtual keys (280 to 288) for selection on a display of the computing device, characterised in that: the virtual keys include keys not included on the keyboard one or more of the virtual keys include a character and a number on the virtual key, and the character on the virtual key is input in response to a selection of the number key on the keyboard corresponding to the number on the virtual key. one of the keys is a launch key that, when selected, causes a processor of the computing device to display one or more virtual keys (280 to 288) for selection on a display of the computing device, characterised in that: the virtual keys include keys not included on the keyboard one or more of the virtual keys include a character and a number on the virtual key, and the character on the virtual key is input in response to a selection of the number key on the keyboard corresponding to the number on the virtual key. the virtual keys include keys not included on the keyboard one or more of the virtual keys include a character and a number on the virtual key, and the character on the virtual key is input in response to a selection of the number key on the keyboard corresponding to the number on the virtual key.
Method of compensating for defective printing nozzles in an inkjet printing machine by means of a computer, wherein the defective printing nozzles are not deactivated by the computer if they are nozzles that print at an angle but are instead actuated in such a way that they continue to print at a larger ink drop volume, wherein the defective printing nozzles are not allowed to print into the region of the immediately adjacent printing nozzles and wherein the immediately adjacent printing nozzles are those printing nozzles that are disposed immediately adjacent to the respective defective printing nozzle in a direction orthogonal to the printing direction, characterized in that to compensate for the defective printing nozzles, the computer actuates the two printing nozzles disposed immediately adjacent to the respective defective printing nozzle in the inkjet printing machine in such a way that each one of them emits an increased ink drop volume and wherein the ink drop with the increased ink drop volume thus positioned between the two ink drops of the two immediately adjacent printing nozzles attracts the ink drops of the two immediately adjacent printing nozzles due to a coalescence effect.
Vehicle having an air-conditioning system for heating a supply air flowing into the vehicle interior, which has a thermal heat exchanger being thermally coupled to a drive unit or the like via a coolant circuit, and an auxiliary heat exchanger which - is connected to a refrigerant circuit of the air-conditioning system, - transfers heat to the supply air during the heating operation and - is formed at least in two rows with a first heat exchanger row and a second heat exchanger row, characterized in that - firstly an undercooling row and a subsequent desuperheating/condensation row are arranged in the flow direction of the supply air, wherein the two heat exchanger rows (30, 31) are configured such that in the second heat exchanger row, undercooling of the condensed refrigerant takes place, and in the first heat exchanger row, at least desuperheating and, where appropriate, condensation of the refrigerant takes place and - the two heat exchanger rows (30, 31) are connected to a header which has a separating chamber and which collects the liquid refrigerant exiting from the first heat exchanger row and transfers the same to the second heat exchanger row. - is connected to a refrigerant circuit of the air-conditioning system, - transfers heat to the supply air during the heating operation and - is formed at least in two rows with a first heat exchanger row and a second heat exchanger row, characterized in that - firstly an undercooling row and a subsequent desuperheating/condensation row are arranged in the flow direction of the supply air, wherein the two heat exchanger rows (30, 31) are configured such that in the second heat exchanger row, undercooling of the condensed refrigerant takes place, and in the first heat exchanger row, at least desuperheating and, where appropriate, condensation of the refrigerant takes place and - the two heat exchanger rows (30, 31) are connected to a header which has a separating chamber and which collects the liquid refrigerant exiting from the first heat exchanger row and transfers the same to the second heat exchanger row.
Wearable measuring device which can be worn on a person's body and which is intended to measure parameters on the person's skin, whereby the measuring device is made as a measuring block provided with an elongated, slightly curved housing, in particular as if it were a segment of a cylinder housing with a radius of between 52 and 62 millimetres, or rather between 54 and 60 millimetres, and preferably between 56 and 58 millimetres, and with a convex side and a concave side and with the surface of the concave side being equipped with at least two electronic sensors (9, 10) intended to be put in contact with the skin on the inside of the wrist of the person concerned for measuring the parameters, wherein the wearable measuring device does not have a wristband or the like, whereby the wearable measuring block is suitable to be located between a wristband, for example of a usual wristwatch, and wrist, whereby the measuring block is suitable to be used between the wristband and the skin on the inside of the wrist and is provided to this end with fixing means, wherein the fixing means contain a hook or clips which can be hooked behind or around a part of a said wristband, whereby the measuring block contains at least two electronic sensors (9, 10) for measuring the activity of the sweat glands in the area concerned of the skin, also known as 'galvanic skin response', wherein at least two sensors are provided at a mutual distance of at least 20 millimetres and wherein the sensors have a rounded contact surface.
Method of classifying a vehicle moving through a measuring region of at least two sensor means (16; 22, 27), the vehicle being classified as one of a plurality of possible vehicle types and the classification of the vehicle being derived from various measurements of at least two different physical variables which are made by different types of sensor means (16; 22, 27), one of the sensor means comprising a magnetic-field sensor, characterised in that another of the sensor means comprises an inductive loop of an inductive-loop sensor and the said sensor means (16; 22, 27) are arranged at each entry and each exit of a vehicle park or lay-by to allow the number of parking spaces currently free to be determined for each type of vehicle on the basis of the maximum number of free parking spaces present in the vehicle park or lay-by and in the light of the vehicles of a given type moving into the vehicle park or lay-by and the vehicles of a given type moving out of the vehicle park or lay-by.