mhurhangee/patent-ind-claim-en huggingface dataset:
A dual-clutch transmission for a motor vehicle with a first transmission input shaft , with a second transmission input shaft , with a first drive shaft and a second drive shaft , with several gearwheels (11 to 24), with several coupling apparatuses (S1, S2, S3, S4, S5, S6), wherein the first transmission input shaft can be connected or is connected via a first friction clutch and the second transmission input shaft via a second friction clutch with a drive motor, wherein the gearwheels (11 to 24) are arranged meshing in such a way that several forward gears can be changed by means of the coupling apparatuses (S1 to S6), wherein at least one forward gear is formed as winding gear, wherein a power flow of the winding gear winds over several gearwheel levels, and wherein certain gearwheels form two double wheel levels , wherein at least one of the double wheel levels has three individual idling gears (14, 18, 23; 15, 19, 24; 15, 19, 23), wherein one of these idling gears (14; 15) is assigned to one of the transmission input shafts (5 or 6) and the other two idling gears (18, 23; 19, 24; 19, 23) are assigned, respectively, to one of the two drive shafts , characterised in that a hollow shaft is rotatably arranged on the second drive shaft , wherein the hollow shaft can be connected in a rotationally fixed manner via one of the coupling apparatuses (S4) with the drive shaft , wherein at least one idling gear and at least one further coupling apparatus, particularly two further coupling apparatuses (S5, S6), are arranged on the hollow shaft , wherein the at least one idling gear can be connected in a rotationally fixed manner by means of the at least one further coupling apparatus (S5 or S6) with the hollow shaft .
A method for the magnetic resonance examination of a measurement object, wherein a transmitted signal is radiated into the measurement object, a response signal emitted by the measurement object in reaction to the transmitted signal is picked up, the response signal being at least intermittently picked up during a period of radiation of the transmitted signal, a measurement signal is generated by correction of the response signal and a piece of information about the measurement object is reconstructed from the measurement signal, a correction signal corresponding to the transmitted signal is generated and is used for correction of the response signal, the correction signal being modulated by a phase value and an amplitude value, characterized in that the following steps for correction of the response signal are automatically carried out iteratively: o ascertaining a present state value of the measurement signal, o thereupon ascertaining a present phase value and/or a present amplitude value for the correction signal using an optimization method, the optimization method using the present state value of the measurement signal as input, o thereupon modulating a present section of the correction signal that corresponds to a present section of the transmitted signal with the present phase value and/or the present amplitude value, o thereupon generating a present section of the measurement signal by subtraction of the present section of the correction signal from a present section of the response signal that is picked up at the same time as the present section of the transmitted signal is radiated. o ascertaining a present state value of the measurement signal, o thereupon ascertaining a present phase value and/or a present amplitude value for the correction signal using an optimization method, the optimization method using the present state value of the measurement signal as input, o thereupon modulating a present section of the correction signal that corresponds to a present section of the transmitted signal with the present phase value and/or the present amplitude value, o thereupon generating a present section of the measurement signal by subtraction of the present section of the correction signal from a present section of the response signal that is picked up at the same time as the present section of the transmitted signal is radiated.
Method for secure interaction of a user with a mobile terminal and a further entity , wherein the further entity is a vehicle, comprising the steps of: - transmitting a secret or an image of the secret generated by a one-way function, and an individual datum of the user to a backend , wherein either the image of the secret is transferred by the user to the backend , or the image of the secret is generated by the backend based on the secret ; - transmitting the image of the secret and of the individual datum from the backend to a protected execution environment of a processor of the mobile terminal , wherein the protected execution environment is what is known as a "trusted execution environment;" - logging in the user at a secure user interface of the mobile terminal , wherein the individual datum is displayed to the user in order to demonstrate to the user that their input possibility is trustworthy, and wherein the user is authenticated with the secret ; - interaction of the user with a secure element of the mobile terminal , wherein the secure element is what is known as a "secure element," which has a secure connection with the protected execution environment , via the secure user interface and the protected execution environment ; and - interaction of the secure element with the further entity via a secured connection, wherein, in an operating system of the mobile terminal , a program for interaction with the further entity is executed, and wherein the program interacts with the further entity via the secure element . - transmitting a secret or an image of the secret generated by a one-way function, and an individual datum of the user to a backend , wherein either the image of the secret is transferred by the user to the backend , or the image of the secret is generated by the backend based on the secret ; - transmitting the image of the secret and of the individual datum from the backend to a protected execution environment of a processor of the mobile terminal , wherein the protected execution environment is what is known as a "trusted execution environment;" - logging in the user at a secure user interface of the mobile terminal , wherein the individual datum is displayed to the user in order to demonstrate to the user that their input possibility is trustworthy, and wherein the user is authenticated with the secret ; - interaction of the user with a secure element of the mobile terminal , wherein the secure element is what is known as a "secure element," which has a secure connection with the protected execution environment , via the secure user interface and the protected execution environment ; and - interaction of the secure element with the further entity via a secured connection, wherein, in an operating system of the mobile terminal , a program for interaction with the further entity is executed, and wherein the program interacts with the further entity via the secure element .
A method of controlling a gas cleaning system removing gaseous pollutants from a hot process gas by bringing the hot process gas into contact with an absorbent material and subsequently separating at least a portion of the absorbent material from the hot process gas thereby forming a separated dust material, the method comprising: measuring, directly or indirectly, at least one dust parameter selected from a group of dust parameters consisting of a density of the separated dust material, a friction of the separated dust material, a hygroscopicity of the separated dust material, and an electrical property of the separated dust material, to obtain a density, friction, hygroscopity or electrical property measurement, the electrical property being selected from the group of conductivity, resistivity, and capacitance; comparing the measured dust parameter of the separated dust material to a dust parameter set point to determine whether or not the separated dust material circulating in the gas cleaning system is sticky; controlling at least one operating parameter of the gas cleaning system based on the density, friction, hygroscopity or electrical property measurement of the separated dust material to effect a change in the dust parameter of the separated dust material: wherein the at least one operating parameter is selected from a group consisting of supply of fresh absorbent to the gas cleaning system, supply of water to the gas cleaning system, rate of recirculating separated dust material to the gas cleaning system, and temperature of the hot process gas at an inlet to the gas cleaning system. measuring, directly or indirectly, at least one dust parameter selected from a group of dust parameters consisting of a density of the separated dust material, a friction of the separated dust material, a hygroscopicity of the separated dust material, and an electrical property of the separated dust material, to obtain a density, friction, hygroscopity or electrical property measurement, the electrical property being selected from the group of conductivity, resistivity, and capacitance; comparing the measured dust parameter of the separated dust material to a dust parameter set point to determine whether or not the separated dust material circulating in the gas cleaning system is sticky; controlling at least one operating parameter of the gas cleaning system based on the density, friction, hygroscopity or electrical property measurement of the separated dust material to effect a change in the dust parameter of the separated dust material: wherein the at least one operating parameter is selected from a group consisting of supply of fresh absorbent to the gas cleaning system, supply of water to the gas cleaning system, rate of recirculating separated dust material to the gas cleaning system, and temperature of the hot process gas at an inlet to the gas cleaning system.
A method for producing a Guerbet alcohol, comprising the following steps 1 to 3 in this order: step 1: preparing an aqueous liquid composition containing an aliphatic alcohol having a number of carbon atoms of 8 or more and 22 or less, and a base; step 2: holding the aqueous liquid composition at 100°C or more and 150°C or less to thereby adjust a water amount in the aqueous liquid composition to less than 0.28% by mass; and step 3: setting the aqueous liquid composition to be more than 180°C. step 1: preparing an aqueous liquid composition containing an aliphatic alcohol having a number of carbon atoms of 8 or more and 22 or less, and a base; step 2: holding the aqueous liquid composition at 100°C or more and 150°C or less to thereby adjust a water amount in the aqueous liquid composition to less than 0.28% by mass; and step 3: setting the aqueous liquid composition to be more than 180°C.
Screen device , comprising: - a first screen roller with a first screen which can be rolled up onto and unrolled from the latter; - a second screen roller with a second screen which can be rolled up onto and unrolled from the latter; - a first joining strip on a lateral side of the first screen , adjacent to the second screen ; - a second joining strip on a lateral side of the second screen , adjacent to the first screen ; - a coupling piece which is arranged at a certain distance from the screen rollers , comprising an upper body , a lower body and an intermediate piece , which together delimit a Y-shaped channel, in which the joining strips are fittable so as to be displaceable for coupling the joining strips when unrolling the screens and for uncoupling the joining strips when rolling up the screens ; - a guide element with a guide surface for guiding the joining strips , characterized in that said guide surface viewed in the unrolling direction of the screens is arranged on a side of the Y-shaped channel opposite to the screen rollers connecting with the Y-shaped channel and/or partly delimiting this Y-shaped channel and, at least during the unrolling and rolling up of the screens , is arranged gradually further away from each plane in which the screens substantially extend in their unrolled state. - a first screen roller with a first screen which can be rolled up onto and unrolled from the latter; - a second screen roller with a second screen which can be rolled up onto and unrolled from the latter; - a first joining strip on a lateral side of the first screen , adjacent to the second screen ; - a second joining strip on a lateral side of the second screen , adjacent to the first screen ; - a coupling piece which is arranged at a certain distance from the screen rollers , comprising an upper body , a lower body and an intermediate piece , which together delimit a Y-shaped channel, in which the joining strips are fittable so as to be displaceable for coupling the joining strips when unrolling the screens and for uncoupling the joining strips when rolling up the screens ; - a guide element with a guide surface for guiding the joining strips , characterized in that said guide surface viewed in the unrolling direction of the screens is arranged on a side of the Y-shaped channel opposite to the screen rollers connecting with the Y-shaped channel and/or partly delimiting this Y-shaped channel and, at least during the unrolling and rolling up of the screens , is arranged gradually further away from each plane in which the screens substantially extend in their unrolled state.
A personal computing device, comprising: a network adapter coupled to a computer network; an antenna to receive a wireless signal from a mobile electronic device ; a memory ; and a processor configured to: compare a signal strength indication (RSSI) value of the received wireless signal to a RSSI threshold value; queue an entire printable file in the memory ; provide a notification to the mobile electronic device that the entire printable file is queued in the memory when the RSSI value is less than the RSSI threshold value; and receive an authorization from the mobile electronic device to print the printable file, wherein the processor is additionally configured to send the printable file to the printer in response to receiving the authorization. a network adapter coupled to a computer network; an antenna to receive a wireless signal from a mobile electronic device ; a memory ; and a processor configured to: compare a signal strength indication (RSSI) value of the received wireless signal to a RSSI threshold value; queue an entire printable file in the memory ; provide a notification to the mobile electronic device that the entire printable file is queued in the memory when the RSSI value is less than the RSSI threshold value; and receive an authorization from the mobile electronic device to print the printable file, wherein the processor is additionally configured to send the printable file to the printer in response to receiving the authorization. compare a signal strength indication (RSSI) value of the received wireless signal to a RSSI threshold value; queue an entire printable file in the memory ; provide a notification to the mobile electronic device that the entire printable file is queued in the memory when the RSSI value is less than the RSSI threshold value; and receive an authorization from the mobile electronic device to print the printable file, wherein the processor is additionally configured to send the printable file to the printer in response to receiving the authorization.
A method comprising: receiving, by a base station distributed unit from a base station central unit, assistance information associated with a wireless device, wherein the assistance information comprises: a traffic periodicity field, and a timing offset field; determining, by the base station distributed unit and based on the assistance information, configuration parameters of at least one resource for the wireless device; sending, by the base station distributed unit to the base station central unit, a message associated with the configuration parameters; and sending, by the base station distributed unit to the wireless device, an indication of activation of the at least one resource. a traffic periodicity field, and a timing offset field; determining, by the base station distributed unit and based on the assistance information, configuration parameters of at least one resource for the wireless device; sending, by the base station distributed unit to the base station central unit, a message associated with the configuration parameters; and sending, by the base station distributed unit to the wireless device, an indication of activation of the at least one resource.
A polyester resin-coated metal sheet comprising: a metal sheet; and a non-oriented polyester resin including a plurality of layers provided on at least one surface of the metal sheet, wherein, of the plurality of layers, a surface layer and an adjacent layer in contact with the surface layer have a difference therebetween in melting temperature of not less than 10°C, wherein the melting temperature is a temperature indicative of a maximum depth of endothermic peak generated upon heating at a heating rate of 10°C/minute by using a differential scanning calorimeter (DSC), and a difference therebetween in tensile stress at an elongation of 250% under an environmental temperature of 70°C of less than 3 MPa in tensile tests in a single-layer film state corresponding to each layer, wherein tensile stress is a stress of films given a tensile test at a tension speed of 200 m/minute with heating, and the surface layer contains fine particles having a diameter of 0.1 to 2 μm in an amount of 0.1 to 20 vol%. a metal sheet; and a non-oriented polyester resin including a plurality of layers provided on at least one surface of the metal sheet, wherein, of the plurality of layers, a surface layer and an adjacent layer in contact with the surface layer have a difference therebetween in melting temperature of not less than 10°C,
A zinc ion secondary battery, comprising: a first electrode; a second electrode; and an electrolyte disposed between the first electrode and the second electrode, wherein an active material comprised in the first electrode is an alkali metal-vanadium oxide/graphene oxide composite, wherein the alkali metal-vanadium oxide has a layered structure in which alkali metal layers and vanadium oxide layers are alternately laminated, wherein the alkali metal-vanadium oxide is K x V 3 O 8 wherein x is 2 to 2.2, and wherein the graphene oxide is a reduced graphene oxide. a first electrode; a second electrode; and an electrolyte disposed between the first electrode and the second electrode, wherein an active material comprised in the first electrode is an alkali metal-vanadium oxide/graphene oxide composite, wherein the alkali metal-vanadium oxide has a layered structure in which alkali metal layers and vanadium oxide layers are alternately laminated, wherein the alkali metal-vanadium oxide is K x V 3 O 8 wherein x is 2 to 2.2, and wherein the graphene oxide is a reduced graphene oxide.
Reciprocating linear motion mechanism for a medical device, comprising a body , wherein are mounted a rotatable shaft driven with a drive unit and a guide with a slidably platform mounted thereon, characterised in that the rotatably shaft has a smooth external surface and is connected with a shaft of the drive unit by means of an intermediate mechanism comprising at least two unidirectional clutches mounted on the smooth rotatably shaft in opposite directions, and the platform is integrated with a transport mechanism which is mounted on the rotatable shaft and comprises rolling elements so arranged that points of contact of said rolling elements with the smooth surface of the shaft determine a helix, wherein the drive unit and the intermediate mechanism are mounted to the platform .
Device suitable for producing conical bellows for air springs, having at least one clamping-spreading device and at least one vulcanizing mould , wherein two end positions, specifically an insertion position and a vulcanization position, are attainable by the clamping-spreading device , wherein the external diameter of the insertion position is smaller than the external diameter of the vulcanization position, wherein the clamping-spreading device has clamping segments which in the insertion position are converged in such a manner that the external diameter of the clamping-spreading device enables an air spring bellows preform to be pulled over, characterized in that the clamping segments in the vulcanization position are diverged in such a manner that the external diameter of the clamping-spreading device is enlarged in such a manner that the air spring bellows preform is capable of being pressed tightly against the corresponding external shape of the vulcanization mould from the inside, wherein open gaps on account of the enlargement of the external diameter of the clamping-spreading device remain between the clamping segments , wherein the rubber of the air spring bellows preform , softened during vulcanizing, configures protuberances between the clamping segments of the clamping-spreading device that protrude into the interior of the air spring bellows preform .
Method of treating a fiber web, in which method the fiber web is sized in a sizer by indirect curtain sizing in a curtain sizer , in which the sizing agent (TA, TB) is applied onto at least one side of the fiber web by two sizing rolls with metallic or ceramic surface or with polymeric surface, which polymeric surface has surface hardness 60 - 100 shoreD, advantageously 80 - 95 shoreD, in a sizing nip (N), in which the fiber web (W) is sized with high solids content sizing agent (TA, TB) having solids content of 10 - 60 %, preferably 20 - 40 %, and viscosity of 50 cP- 2000 cP, preferably 100 cP - 1500 cP, and the sizing agent (TA; TB) is applied onto the at least one side of the fiber web (W) by the two sizing rolls , in the sizing nip (N) characterized in that after the sizing the fiber web (W) is directly guided to contactless and supported drying in an air-borne drying system and that the run of the fiber web (W) from the sizing nip (N) to beginning of the drying in the air-borne drying system is not more than 2 m, advantageously not more than 0,5 m, and / or takes not more time than 0,5 s.
An in vitro method for determining glycated hemoglobin A (HbA1c) in a sample, comprising: (a) providing a sample comprising hemoglobin A (HbA) molecules, (b) subjecting the sample from step (a) to a partial proteolytic digestion step wherein N-terminal fragments of hemoglobin A β-chain molecules are generated, and wherein a mixture comprising intact HbA β-chain molecules and proteolytically digested HbA β-chain molecules is obtained, wherein in the partial proteolytic digestion step (b) 1% to 20 % of the HbA β-chain molecules present in the sample are digested based on the total amount of HbA β-chain molecules originally present in the sample, (c) optionally enriching the N-terminal fragments of hemoglobin A β-chain molecules generated in step (b), and (d) subjecting the sample comprising N-terminal fragments of hemoglobin A β-chain molecules to an analysis by mass-spectrometry (MS) wherein the amount or concentration of HbA1c in the sample is determined. (a) providing a sample comprising hemoglobin A (HbA) molecules, (b) subjecting the sample from step (a) to a partial proteolytic digestion step wherein N-terminal fragments of hemoglobin A β-chain molecules are generated, and wherein a mixture comprising intact HbA β-chain molecules and proteolytically digested HbA β-chain molecules is obtained, wherein in the partial proteolytic digestion step (b) 1% to 20 % of the HbA β-chain molecules present in the sample are digested based on the total amount of HbA β-chain molecules originally present in the sample, (c) optionally enriching the N-terminal fragments of hemoglobin A β-chain molecules generated in step (b), and (d) subjecting the sample comprising N-terminal fragments of hemoglobin A β-chain molecules to an analysis by mass-spectrometry (MS) wherein the amount or concentration of HbA1c in the sample is determined.