mhurhangee/patent-ind-claim-en huggingface dataset:
Vehicle composite pane with a sensor region at least comprising an outer pane with an outer side (I) and an inner side (II), an inner pane with an inner side (III) and an outer side (IV), wherein the inner side (II) of the outer pane and the inner side (III) of the inner pane are joined to one another via a thermoplastic intermediate layer , a roof edge (D) and an engine edge (M), wherein at least one insert that lies outside the sensor region and causes a local change in thickness of the thermoplastic intermediate layer within the sensor region is attached between the inner side (II) of the outer pane and the inner side (III) of the inner pane such that the thickness of the thermoplastic intermediate layer is variable with a wedge angle (α) in the vertical course between the roof edge (D) and the engine edge (M) at least in sections within the sensor region .
A method, of a narrowband internet of things device , for determination of measurement modes of narrowband internet of things devices being one of an inband mode, a guard-band mode, and a stand-alone mode, the method comprising receiving (S41), from a network node being an internet of things related network sided controlling entity , configuration information indicative of a measurement mode of a neighbor cell, deriving (S42) said measurement mode of said neighbor cell from said configuration information, and measuring (S43) a reference signal of said neighbor cell based on said measurement mode, wherein said configuration information includes information indicating measurement modes not used on said neighbor cell, and in relation to said deriving (S42), said method further comprises deducing a measuring mode not indicated as being not used on said neighbor cell as said measurement mode of said neighbor cell. receiving (S41), from a network node being an internet of things related network sided controlling entity , configuration information indicative of a measurement mode of a neighbor cell, deriving (S42) said measurement mode of said neighbor cell from said configuration information, and measuring (S43) a reference signal of said neighbor cell based on said measurement mode, wherein said configuration information includes information indicating measurement modes not used on said neighbor cell, and in relation to said deriving (S42), said method further comprises deducing a measuring mode not indicated as being not used on said neighbor cell as said measurement mode of said neighbor cell.
Aircraft equipped with a propulsion system provided with at least one combustion engine to drive a power transmission chain , the combustion engine being mechanically connected to a drive system capable of setting in motion a movable system of the combustion engine , the drive system comprising two electric machines , each connected by a kinematic chain to the combustion engine , the two electric machines being electrically connected to at least one electrical energy source , characterized in that said aircraft comprises a controller that manages at least one mechanical power or engine torque delivered by each of the two electric machines depending on a current operating mode, said controller being configured in at least one higher operating mode to control the two electric machines so that the two electric machines simultaneously deliver different and non-zero mechanical powers or engine torques.
A communication method, comprising: determining that a first session is a multi-access protocol data unit, MA-PDU, session, wherein data flows of the first session are transmitted on a data transmission channel of a first access technology and data transmission channels of a second access technology, the data transmission channels of the second access technology comprise a first data transmission channel and a second data transmission channel, an aggregation point of the data transmission channel of the first access technology and the first data transmission channel is a first user plane network element, and an aggregation point of the first data transmission channel and the second data transmission channel is an uplink classifier, ULCL; determining a first aggregate maximum bit rate, AMBR, and sending the first AMBR to the first user plane network element, wherein the first AMBR is used by the first user plane network element to control one or more data flows that are in the data flows of the first session and that are transmitted on the data transmission channel of the first access technology; and determining a second AMBR, and sending the second AMBR to the UL CL, wherein the second AMBR is used by the UL CL to control data flows that are in the data flows of the first session and that are transmitted on the data transmission channels of the second access technology. determining that a first session is a multi-access protocol data unit, MA-PDU, session, wherein data flows of the first session are transmitted on a data transmission channel of a first access technology and data transmission channels of a second access technology, the data transmission channels of the second access technology comprise a first data transmission channel and a second data transmission channel, an aggregation point of the data transmission channel of the first access technology and the first data transmission channel is a first user plane network element, and an aggregation point of the first data transmission channel and the second data transmission channel is an uplink classifier, ULCL; determining a first aggregate maximum bit rate, AMBR, and sending the first AMBR to the first user plane network element, wherein the first AMBR is used by the first user plane network element to control one or more data flows that are in the data flows of the first session and that are transmitted on the data transmission channel of the first access technology; and determining a second AMBR, and sending the second AMBR to the UL CL, wherein the second AMBR is used by the UL CL to control data flows that are in the data flows of the first session and that are transmitted on the data transmission channels of the second access technology.
A composition for the formation of electrically conductive polymers on the surface of a dielectric substrate, the composition comprising at least one polymerizable monomer which is capable to form a conductive polymer, an emulsifier and an acid, characterized in that the composition comprises at least one metallic or nitrogenous ion selected from the group consisting of lithium-ions, sodium-ions, aluminum-ions, beryllium-ions, bismuth-ions, B x O y -anions, indium-ions, and alkylimidazolium-ions, wherein the acid comprises a polymeric acid having a molecular weight of ≥ 75,000 Da; wherein the at least one metallic or nitrogenous ions are present at a concentration of between 0.04 mol/L and 0.4 mol/L; and wherein the emulsifier is an anionic surfactant selected from an anionic polyarylphenol alkoxylate or a salt of a polyarylphenol alkoxylate, or wherein the emulsifier is selected from the group consisting of a salt of a sulfoalkylated polyalkoxylated naphthol or an aralkyl substituted sulfo polyalkoxylated phenol.
A method of controlling an elevator system including a plurality of elevator cars , the method comprising: detecting a number of passengers waiting for elevator service at a landing ; detecting an available passenger capacity of the elevator cars , respectively; assigning at least one of the elevator cars to travel to the landing to provide elevator service to the passengers based on the detected number of passengers and the available passenger capacity of the at least one of the elevator cars ; and determining an intended destination of the passengers that board the at least one of the elevator cars , wherein the intended destination includes at least one floor; characterized by preventing the at least one of the elevator cars from stopping at any floor other than the determined intended destination until all of the passengers exit the at least one of the elevator cars . detecting a number of passengers waiting for elevator service at a landing ; detecting an available passenger capacity of the elevator cars , respectively; assigning at least one of the elevator cars to travel to the landing to provide elevator service to the passengers based on the detected number of passengers and the available passenger capacity of the at least one of the elevator cars ; and determining an intended destination of the passengers that board the at least one of the elevator cars , wherein the intended destination includes at least one floor; characterized by preventing the at least one of the elevator cars from stopping at any floor other than the determined intended destination until all of the passengers exit the at least one of the elevator cars .
A radar elevation angle measurement system comprising processing circuitry, wherein the processing circuitry is configured to: transmit one or more signals from a radar towards a reflection structure comprised of individually controlled motors operable to rotate several corner reflectors ; receive echo signals at the radar from each of the several corner reflectors that sequentially transitioned to an ON position based on each of the several corner reflectors being sequentially rotated to be in an ON then an OFF positions; collect data associated with the echo signals received from the several corner reflectors ; identify peak signal values based on the collected data; and calculate a radar pitch angle of the radar based on the peak signal values. transmit one or more signals from a radar towards a reflection structure comprised of individually controlled motors operable to rotate several corner reflectors ; receive echo signals at the radar from each of the several corner reflectors that sequentially transitioned to an ON position based on each of the several corner reflectors being sequentially rotated to be in an ON then an OFF positions; collect data associated with the echo signals received from the several corner reflectors ; identify peak signal values based on the collected data; and calculate a radar pitch angle of the radar based on the peak signal values.
A signal processing apparatus for reducing the impact of an unwanted signal component on a wanted signal component, the apparatus comprising: an input configured to receive an input signal which comprises the wanted signal component, a blocker signal and the unwanted signal component, wherein the unwanted signal component is a harmonic of the blocker signal; an output configured to output an output signal; a first processor configured to process the input signal by operating on the input signal with a function that includes a term descriptive of the unwanted signal component to create an estimated unwanted signal; a second processor configured to: iteratively search through a signal domain of the input signal or the output signal to determine the frequency of the blocker signal; and process the estimated unwanted signal and at least one of the input signal or the output signal using the determined frequency of the blocker signal to identify one or more correction coefficients ; a correction signal generator configured to receive the one or more correction coefficients and the estimated unwanted signal, and generate a correction signal by applying the one or more correction coefficients to the estimated unwanted signal; and a combiner configured to combine the input signal and the correction signal to form the output signal such that the unwanted signal component in the output signal is reduced. an input configured to receive an input signal which comprises the wanted signal component, a blocker signal and the unwanted signal component, wherein the unwanted signal component is a harmonic of the blocker signal; an output configured to output an output signal; a first processor configured to process the input signal by operating on the input signal with a function that includes a term descriptive of the unwanted signal component to create an estimated unwanted signal; a second processor configured to: iteratively search through a signal domain of the input signal or the output signal to determine the frequency of the blocker signal; and process the estimated unwanted signal and at least one of the input signal or the output signal using the determined frequency of the blocker signal to identify one or more correction coefficients ; a correction signal generator configured to receive the one or more correction coefficients and the estimated unwanted signal, and generate a correction signal by applying the one or more correction coefficients to the estimated unwanted signal; and a combiner configured to combine the input signal and the correction signal to form the output signal such that the unwanted signal component in the output signal is reduced.
An adhesive composition for encapsulating an organic electronic element, the adhesive composition comprising an olefin-based resin which is a polyisobutylene resin having a weight average molecular weight of 500 or more and of 55,000 or less, and a curable compound which comprises a heat-curable resin or a photocurable compound, wherein the olefin-based resin and the curable compound are included at 55 to 85 parts by weight and 15 to 45 parts by weight, respectively, wherein the adhesive composition has a viscoelastic ratio (R) of 15 to 75%, measured by General Equation 1: R = J i / J 60 × 100 where J i is a deformation modulus of a specimen of the adhesive composition, after being cured, prepared in a circular shape having a diameter of 8 mm and a thickness of 200 μm, which is loaded in an advanced rheometric expansion system (ARES), and subjected to application of a stress of 5000 Pa for one minute at a time of applying an axial force of 200 g and 100 °C, and J 60 is a deformation modulus measured one minute after the time of applying the axial force, and wherein the olefin-based resin has a water vapor transmission rate (WVTR) of 50 g/m 2 . day or less, measured at 37.78°C and a relative humidity of 100% in a thickness direction of a film formed in a layer of the resin to a thickness of 100 μm. the adhesive composition comprising an olefin-based resin which is a polyisobutylene resin having a weight average molecular weight of 500 or more and of 55,000 or less, and a curable compound which comprises a heat-curable resin or a photocurable compound, wherein the olefin-based resin and the curable compound are included at 55 to 85 parts by weight and 15 to 45 parts by weight, respectively, wherein the adhesive composition has a viscoelastic ratio (R) of 15 to 75%, measured by General Equation 1: R = J i / J 60 × 100 where J i is a deformation modulus of a specimen of the adhesive composition, after being cured, prepared in a circular shape having a diameter of 8 mm and a thickness of 200 μm, which is loaded in an advanced rheometric expansion system (ARES), and subjected to application of a stress of 5000 Pa for one minute at a time of applying an axial force of 200 g and 100 °C, and J 60 is a deformation modulus measured one minute after the time of applying the axial force, and wherein the olefin-based resin has a water vapor transmission rate (WVTR) of 50 g/m 2 . day or less, measured at 37.78°C and a relative humidity of 100% in a thickness direction of a film formed in a layer of the resin to a thickness of 100 μm.
An inspection apparatus comprising: an image-capturing unit (13A; 13B) configured to capture an image of an article; an inspection unit configured to inspect the article; a generation-processing unit configured to generate a data group related to an inspection result obtained by the inspection unit , the data group including: article information for distinguishing the article, the inspection result obtained by the inspection unit , captured-image information for distinguishing a captured image captured by the image-capturing unit from another captured image, wherein the captured-image information is a file path of the captured image in a second storage unit configured to store the captured image, and a hash value of the captured image that are associated with each other; and a storage-processing unit configured to store the data group and the captured image in respective different storage units , wherein the storage-processing unit is configured to store the data group in a first storage unit configured to store the data group as a blockchain, wherein the storage-processing unit is configured to store the captured image in the second storage unit , and wherein the data group to be stored in the first storage unit does not include the captured image. an image-capturing unit (13A; 13B) configured to capture an image of an article; an inspection unit configured to inspect the article; a generation-processing unit configured to generate a data group related to an inspection result obtained by the inspection unit , the data group including: article information for distinguishing the article, the inspection result obtained by the inspection unit , captured-image information for distinguishing a captured image captured by the image-capturing unit from another captured image, wherein the captured-image information is a file path of the captured image in a second storage unit configured to store the captured image, and a hash value of the captured image that are associated with each other; and article information for distinguishing the article, the inspection result obtained by the inspection unit , captured-image information for distinguishing a captured image captured by the image-capturing unit from another captured image, wherein the captured-image information is a file path of the captured image in a second storage unit configured to store the captured image, and a hash value of the captured image that are associated with each other; and a storage-processing unit configured to store the data group and the captured image in respective different storage units , wherein the storage-processing unit is configured to store the data group in a first storage unit configured to store the data group as a blockchain, wherein the storage-processing unit is configured to store the captured image in the second storage unit , and wherein the data group to be stored in the first storage unit does not include the captured image.
A composition, characterized in that it comprises at least two components, one of which is a supercooling phase change material and the other a cross-linked polar and/or ionic polymer component which is capable of stabilizing the phase change material when that material is in its supercooled state and when the composition is pre-cooled to a temperature which at least substantially corresponds to the glass transition point of the composition, or which is below it, by forming strong interactions with polar groups of the phase change material, the phase change material being capable of cold-crystallizing upon heating to above its cold-crystallization temperature, wherein the polymer component is cross-linked with a cross-linking agent.
A patch preparation comprising a plaster disposed on a support, wherein the plaster comprises a solvent with a vapor pressure of 1 kPa or more at 20°C, and the amount of the solvent is 2% to 35% by weight of the plaster, wherein the solvent is a combination of ethyl acetate and n-heptane.
An apparatus comprising: a housing having a body defining a volume to encapsulate a controller that is adapted to control operation of a field device, the housing being capable of withstanding a threshold internal pressure greater than an external pressure, the body having a transparent portion having a first surface , a second surface and a third surface extending between the first and the second surfaces ; a touch sensor disposed adjacent to the second surface of the transparent portion , the touch sensor being adapted to sense an input received within a minimum distance from the first surface of the transparent portion ; and a display disposed adjacent to and communicatively coupled to the touch sensor and the controller , the display being adapted to display at least one adjustable variable of the controller , wherein at least a portion of the third surface of the transparent portion defines a first contact dimension ("A") representing a length of sealing resin used to seal the housing along a width of the transparent portion and the body , and at least a portion of the first surface of the transparent portion defines a second contact dimension ("B") representing a length of contact between the first surface of the transparent portion and a facing surface that is downstream from a packing member , wherein a total length of the first contact dimension and the second dimension define a treacherous path, wherein the treacherous path is greater than approximately 10mm, thereby causing the apparatus to avoid gaseous creepage through the housing. a housing having a body defining a volume to encapsulate a controller that is adapted to control operation of a field device, the housing being capable of withstanding a threshold internal pressure greater than an external pressure, the body having a transparent portion having a first surface , a second surface and a third surface extending between the first and the second surfaces ; a touch sensor disposed adjacent to the second surface of the transparent portion , the touch sensor being adapted to sense an input received within a minimum distance from the first surface of the transparent portion ; and a display disposed adjacent to and communicatively coupled to the touch sensor and the controller , the display being adapted to display at least one adjustable variable of the controller , wherein at least a portion of the third surface of the transparent portion defines a first contact dimension ("A") representing a length of sealing resin used to seal the housing along a width of the transparent portion and the body , and at least a portion of the first surface of the transparent portion defines a second contact dimension ("B") representing a length of contact between the first surface of the transparent portion and a facing surface that is downstream from a packing member , wherein a total length of the first contact dimension and the second dimension define a treacherous path, wherein the treacherous path is greater than approximately 10mm, thereby causing the apparatus to avoid gaseous creepage through the housing.