mhurhangee/patent-ind-claim-en huggingface dataset:
Method for automatically adapting acceleration in a motor vehicle , wherein a detection device determines a speed limit which applies to a section of road, a speed limit mode controller determining a cruise control setpoint acceleration on the basis of the speed limit, and an actuation device actuating a drive device of the motor vehicle with a drive setpoint acceleration on the basis of the cruise control setpoint acceleration, wherein a cruise & follow mode controller determines a distance control setpoint acceleration on the basis of a detected vehicle distance from a vehicle travelling ahead, and in that the drive setpoint acceleration is limited by the distance control setpoint acceleration in such a way that the drive setpoint acceleration remains below the distance control setpoint acceleration, characterized in that the speed limit mode controller determines the cruise control setpoint acceleration on the basis of an active setpoint acceleration profile, wherein the setpoint acceleration profile defines a setpoint acceleration profile plotted against the time and the setpoint acceleration profile plotted against the time provides, as the time progresses, an essentially asymptotic approach to a maximum acceleration absolute value.
An organic light emitting display device comprising: a first electrode connected to a driving transistor ; an auxiliary electrode on the same layer as the first electrode ; a first bank configured to cover one end of the first electrode and to cover one end of the auxiliary electrode ; characterised in that : a partition wall is disposed on the first bank , the partition wall having a bottom surface comprising a first portion adjacent the first electrode and a second portion adjacent the auxiliary electrode , wherein said first portion contacts only one side of the top surface of the first bank and wherein said second portion does not contact the top surface of the first bank , such that the partition wall only partially covers the top surface of the first bank , wherein said second portion is disposed over the auxiliary electrode to be spatially spaced apart from the auxiliary electrode to have a gap therebetween. a first electrode connected to a driving transistor ; an auxiliary electrode on the same layer as the first electrode ; a first bank configured to cover one end of the first electrode and to cover one end of the auxiliary electrode ; characterised in that : a partition wall is disposed on the first bank , the partition wall having a bottom surface comprising a first portion adjacent the first electrode and a second portion adjacent the auxiliary electrode , wherein said first portion contacts only one side of the top surface of the first bank and wherein said second portion does not contact the top surface of the first bank , such that the partition wall only partially covers the top surface of the first bank , wherein said second portion is disposed over the auxiliary electrode to be spatially spaced apart from the auxiliary electrode to have a gap therebetween.
Method for producing a coated inner surface of a coated bore of an internal combustion engine, said method comprising at least the steps of: - producing a main body present in the blank; - drilling out the bore and pre-machining the latter; - applying an enamel coating to the inner surface of the bore , - subsequently heat-treating the coated bore , wherein the enamel coating is annealed together with the main body made of GCI substrate material in a continuous furnace at a temperature of between 750°C and 900°C, preferably at T = 840°C, for 5 to 30 minutes, or the enamel coating is annealed together with a main body made of an aluminium alloy at a temperature of between 480°C and 560°C, preferably at T = 540°C, in a continuous furnace for 5 to 30 minutes, such that the enamel coating can bond in each case to the base material of the bore metallurgically by phase formation; and - finishing the enamel coating in such a manner that pores present in the enamel coating are cut or exposed. - producing a main body present in the blank; - drilling out the bore and pre-machining the latter; - applying an enamel coating to the inner surface of the bore , - subsequently heat-treating the coated bore , wherein the enamel coating is annealed together with the main body made of GCI substrate material in a continuous furnace at a temperature of between 750°C and 900°C, preferably at T = 840°C, for 5 to 30 minutes, or the enamel coating is annealed together with a main body made of an aluminium alloy at a temperature of between 480°C and 560°C, preferably at T = 540°C, in a continuous furnace for 5 to 30 minutes, such that the enamel coating can bond in each case to the base material of the bore metallurgically by phase formation; and - finishing the enamel coating in such a manner that pores present in the enamel coating are cut or exposed.
A head converter comprising: a frame configured to be coupled with a blade unit , the blade unit having a first pivot axis when not being coupled with the frame , the frame extending along a longitudinal axis and including: one or more supports , at least one of the one or more supports having a camming surface configured to abut and interact with a biasing member ; and an interconnecting member pivotably coupled with the frame and configured to be coupled with a handle , wherein the frame is configured to be removably coupled with the blade unit , characterized in that when the blade unit and the frame are coupled, the frame with the blade unit pivot along a second pivot axis ; the first pivot axis and the second pivot axis being different. a frame configured to be coupled with a blade unit , the blade unit having a first pivot axis when not being coupled with the frame , the frame extending along a longitudinal axis and including: one or more supports , at least one of the one or more supports having a camming surface configured to abut and interact with a biasing member ; and an interconnecting member pivotably coupled with the frame and configured to be coupled with a handle , wherein the frame is configured to be removably coupled with the blade unit , characterized in that when the blade unit and the frame are coupled, the frame with the blade unit pivot along a second pivot axis ; the first pivot axis and the second pivot axis being different.
Aqueous cleaning composition comprising: a. 0.1 to 10 wt% anionic surfactant selected from alkyl sulphates, alkyl ether sulphates and combinations thereof; b. 0.1 to 10 wt% nonionic surfactant selected from alcohol ethoxylates, short chain alkyl poly glycosides and combinations thereof; and c. 1 to 20 wt% organic acid selected from lactic acid, acetic acid, malonic acid, adipic acid, glutaric acid, glycolic acid, maleic acid, succinic acid, malic acid, tartaric acid, hexanoic acid, cyclohexanoic acid, heptanoic acid, octanoic acid, 4-methyl octanoic acid, nonanoic acid, decanoic acid, benzoic acid, 4-methoxy benzoic acid and mixtures thereof; wherein the composition has a pH of 2 to 4; wherein the alcohol ethoxylate has from 1 to 7 EO; and wherein the alkyl poly glycoside has alkyl groups from C8 to C10, wherein the composition is free of organic solvent, wherein free of organic solvent means that the composition comprises less than 0.4 wt% of organic solvent. a. 0.1 to 10 wt% anionic surfactant selected from alkyl sulphates, alkyl ether sulphates and combinations thereof; b. 0.1 to 10 wt% nonionic surfactant selected from alcohol ethoxylates, short chain alkyl poly glycosides and combinations thereof; and c. 1 to 20 wt% organic acid selected from lactic acid, acetic acid, malonic acid, adipic acid, glutaric acid, glycolic acid, maleic acid, succinic acid, malic acid, tartaric acid, hexanoic acid, cyclohexanoic acid, heptanoic acid, octanoic acid, 4-methyl octanoic acid, nonanoic acid, decanoic acid, benzoic acid, 4-methoxy benzoic acid and mixtures thereof; wherein the composition has a pH of 2 to 4; wherein the alcohol ethoxylate has from 1 to 7 EO; and wherein the alkyl poly glycoside has alkyl groups from C8 to C10, wherein the composition is free of organic solvent, wherein free of organic solvent means that the composition comprises less than 0.4 wt% of organic solvent.
A compound for use in a method for treating a leukemia, Hodgkin Lymphoma, Multiple Myeloma, Non-Hodgkin Lymphoma, Myeloproliferative disorders or Myelodysplastic syndromes in a subject, wherein the compound is represented by any one of the following structural formulas: and or a pharmaceutically acceptable salt thereof.
Signaling assembly for a door leaf of an access door to a transport vehicle, in particular a rail vehicle, said door leaf comprising a body and a profile extending over at least one portion of the periphery of this body, said profile defining a housing open opposite said body, said signaling assembly comprising - a seal , said seal comprises an attaching region , intended to be received at least partially in said housing of said profile, as well as a lighting region , - means of lighting , able to illuminate said lighting region of said seal, in such a way as to emit at least one visual signal, in particular representative of the opened and/or closed state of the door, characterized in that : said assembly further comprises at least one locking key received at least partially in an interior volume of said seal, said key being able to prevent a pulling off of said seal outside of said profile along a transversal direction (Y1-Y1), in reference to the main direction of said seal, the means of lighting being fixed on said locking key. - a seal , said seal comprises an attaching region , intended to be received at least partially in said housing of said profile, as well as a lighting region , - means of lighting , able to illuminate said lighting region of said seal, in such a way as to emit at least one visual signal, in particular representative of the opened and/or closed state of the door,
A micro-auxiliary power unit for supplying electric power to a vehicle, comprising: a thermal resistant enclosure having an intake duct 2. for receiving air; a source of fuel associated to the vehicle, the source of fuel fluidly coupled to the enclosure via a fuel line , with a fuel valve fluidly coupled to the fuel line upstream from the enclosure, the fuel valve movable between a first, opened position in which fuel flows through the fuel line and a second, closed position in which the flow of fuel is inhibited; a Wankel engine contained wholly within the enclosure, the engine configured to combust the air and the fuel to drive an output shaft ; a starter-generator coupled to the output shaft of the engine and disposed wholly within the enclosure, the starter-generator configured to generate electric power for the vehicle based on the rotation of the output shaft; a detection and suppression system coupled to the enclosure, the detection and suppression system having at least one sensor disposed within the enclosure that observes a condition of the enclosure and generates sensor signals based thereon, and a controller having a processor configured to: receive the sensor signals; determine, based on the sensor signals, the presence of a thermal event within the enclosure; and based on the determination of the presence of the thermal event, output one or more control signals to the fuel valve to move the fuel valve to the second, closed position. a thermal resistant enclosure having an intake duct 2. for receiving air; a source of fuel associated to the vehicle, the source of fuel fluidly coupled to the enclosure via a fuel line , with a fuel valve fluidly coupled to the fuel line upstream from the enclosure, the fuel valve movable between a first, opened position in which fuel flows through the fuel line and a second, closed position in which the flow of fuel is inhibited; a Wankel engine contained wholly within the enclosure, the engine configured to combust the air and the fuel to drive an output shaft ; a starter-generator coupled to the output shaft of the engine and disposed wholly within the enclosure, the starter-generator configured to generate electric power for the vehicle based on the rotation of the output shaft; a detection and suppression system coupled to the enclosure, the detection and suppression system having at least one sensor disposed within the enclosure that observes a condition of the enclosure and generates sensor signals based thereon, and a controller having a processor configured to: receive the sensor signals; determine, based on the sensor signals, the presence of a thermal event within the enclosure; and based on the determination of the presence of the thermal event, output one or more control signals to the fuel valve to move the fuel valve to the second, closed position. receive the sensor signals; determine, based on the sensor signals, the presence of a thermal event within the enclosure; and based on the determination of the presence of the thermal event, output one or more control signals to the fuel valve to move the fuel valve to the second, closed position.
Method for controlling a warning module on the basis of an expected time period up to a collision (ttc) of a vehicle with an obstacle , wherein the warning module is designed to generate a warning (W) of imminent triggering of an automatic emergency braking process of the vehicle in order to avoid the collision, permitting outputting of a generated warning (W) to a driver of the vehicle if the expected time period (ttc) up to the collision is shorter than a limiting value function which depends on a speed (vH) of the obstacle and a relative speed (vR) of the vehicle with respect to the obstacle , and otherwise suppressing a warning (W) to the driver, characterized in that the limiting value function is a function of a parameter (P), wherein the parameter (P) defines a ratio of the speed of the obstacle (vH) to the relative speed (vR) with respect to the obstacle. permitting outputting of a generated warning (W) to a driver of the vehicle if the expected time period (ttc) up to the collision is shorter than a limiting value function which depends on a speed (vH) of the obstacle and a relative speed (vR) of the vehicle with respect to the obstacle , and otherwise suppressing a warning (W) to the driver, characterized in that the limiting value function is a function of a parameter (P), wherein the parameter (P) defines a ratio of the speed of the obstacle (vH) to the relative speed (vR) with respect to the obstacle.
A communication method performed by a terminal , the method comprising: transmitting , to a profile provision server , a first message including a first challenge value for authentication of the profile provision server; receiving, from the profile provision server , a second message including a first data and a first signature value computed over the first data as a response to the first message, wherein the first data includes the first challenge value and a second challenge value for authentication associated with the terminal; transmitting , to the profile provision server , a third message including a second data and a second signature value computed over the second data, which are generated after the first signature value is verified , wherein the second data includes the second challenge value and profile mapping information; receiving , from the profile provision server , a fourth message including unencrypted information related to a profile and information indicating whether a confirmation code is required for the profile as a response to the third message; receiving , via a user interface, a confirmation code in case that the information indicates the confirmation code is required; transmitting , to the profile provision server , a fifth message for requesting a profile data, the fifth message including a hashed confirmation code which is calculated based on the confirmation code; and receiving , from the profile provision server , a sixth message including an encrypted profile data as a response to the fifth message. transmitting , to a profile provision server , a first message including a first challenge value for authentication of the profile provision server; receiving, from the profile provision server , a second message including a first data and a first signature value computed over the first data as a response to the first message, wherein the first data includes the first challenge value and a second challenge value for authentication associated with the terminal; transmitting , to the profile provision server , a third message including a second data and a second signature value computed over the second data, which are generated after the first signature value is verified , wherein the second data includes the second challenge value and profile mapping information; receiving , from the profile provision server , a fourth message including unencrypted information related to a profile and information indicating whether a confirmation code is required for the profile as a response to the third message; receiving , via a user interface, a confirmation code in case that the information indicates the confirmation code is required; transmitting , to the profile provision server , a fifth message for requesting a profile data, the fifth message including a hashed confirmation code which is calculated based on the confirmation code; and receiving , from the profile provision server , a sixth message including an encrypted profile data as a response to the fifth message.
A method for hardening a preform into a composite part , the method comprising: aligning a layup mandrel carrying a preform for insertion into an autoclave having an inner surface that is complementary to a contour of the preform ; and sealing the layup mandrel into the autoclave , wherein the autoclave forms a boundary between a clean room environment and an assembly environment . aligning a layup mandrel carrying a preform for insertion into an autoclave having an inner surface that is complementary to a contour of the preform ; and sealing the layup mandrel into the autoclave , wherein the autoclave forms a boundary between a clean room environment and an assembly environment .
A method to drill holes into panels made of wood, plastic or the like in a machine comprising an elongated base , which extends in a first direction and is configured to define a support surface (P) for the panels , at least one drilling station , which is obtained along the base and is provided with at least one drilling head mounted above or under the support surface (P) in order to drill holes into the panels , and a feeding unit to move the panels along the support surface (P) and through the drilling station in the first direction , the feeding unit comprising two moving assemblies beside one another, each moving assembly having two pushing devices facing one another in the first direction , and each pushing device comprising a slide , which extends above the support surface (P) in a second direction transverse to the first direction characterized that each pushing device supports two pushing members projecting from the relative slide in the first direction ; the method further comprises the step of: grabbing and moving a panel along the support surface (P) and through the drilling station in the first direction by means of a pushing member of each pushing device of each moving assembly .
A method for a wireless device , the method being characterized in that it comprises: - determining whether a number (N) of bursts to be received in the timeslots assigned to the wireless device in a given downlink time division multiple access frame exceeds a threshold number of bursts for which single antenna interference cancellation can be performed, the time division multiple access frame comprising a plurality of timeslots ; and - when the number (N) of bursts is determined to exceed the threshold number (N SAIC) of bursts for which single antenna interference cancellation can be performed, determining for which bursts single antenna interference cancellation is to be enabled and performing single antenna interference cancellation for a subset of the bursts received in the time division multiple access frame ; wherein performing single antenna interference cancellation for the subset of the bursts comprises disabling single antenna interference cancellation on any burst other than the selected subset of bursts in the time division multiple access frame. - determining whether a number (N) of bursts to be received in the timeslots assigned to the wireless device in a given downlink time division multiple access frame exceeds a threshold number of bursts for which single antenna interference cancellation can be performed, the time division multiple access frame comprising a plurality of timeslots ; and - when the number (N) of bursts is determined to exceed the threshold number (N SAIC) of bursts for which single antenna interference cancellation can be performed, determining for which bursts single antenna interference cancellation is to be enabled and performing single antenna interference cancellation for a subset of the bursts received in the time division multiple access frame ;
A hydrogenolysis catalyst comprising: a catalytic component comprising copper oxide, manganese oxide, and aluminum oxide; and a binder comprising a zirconium component, wherein: the catalyst comprises copper oxide in an amount from 45 wt% to 55 wt%, the catalyst comprises less than 1.5 wt.% of silicon or an oxide thereof, based on the total weight of the hydrogenolysis catalyst, and wherein the zirconium component is present in an amount from 4 wt% to 15 wt% by weight of the hydrogenolysis catalyst. a catalytic component comprising copper oxide, manganese oxide, and aluminum oxide; and a binder comprising a zirconium component, wherein: the catalyst comprises copper oxide in an amount from 45 wt% to 55 wt%, the catalyst comprises less than 1.5 wt.% of silicon or an oxide thereof, based on the total weight of the hydrogenolysis catalyst, and the catalyst comprises copper oxide in an amount from 45 wt% to 55 wt%, the catalyst comprises less than 1.5 wt.% of silicon or an oxide thereof, based on the total weight of the hydrogenolysis catalyst, and wherein the zirconium component is present in an amount from 4 wt% to 15 wt% by weight of the hydrogenolysis catalyst.
A cell heating device comprising a ring circuit for a liquid, heating means and electric pump means for heating and circulation of a carrier liquid (L), such liquid assigned to transfer heat by means of an exchanger means to a fluid (A) to be heated; the heating means comprises at least a cell means electrically powered with at least one phase alternating current and a possible neutral and/or ground where each phase and each possible neutral or ground constitute a pole, said cell means comprises a container means , whose cavity is at least partially included in the circuit and that is provided with an entrance and an exit for the flow of the carrier liquid (L) through the cavity in which it is arranged, for each pole, at least one electrode means made of electrical conducting material and electrically connected to the correspondent pole and lapped on by the flow of the carrier liquid (L) which has a pH different from 7; said device being characterized in that the container means and the respective cavity have an elongated cylindrical shape and the container means comprises one tubular element axially positioned in said cavity and whose ends protrude from the ends of the container means and said ends are connected to the circuit ; where said entrance and exit are obtained in correspondence of respective portions of the lateral wall of the tubular element where said portions are inside said cavity of the container means and they are close to the ends of the container means and where the inner portion of the tubular element comprised between the entrance and the exit has a partition means which is fixed and assigned to stop the flow of the carrier liquid or which is of the valve type operated to stop or regulate the carrier liquid (L) flow along the tubular element .