mhurhangee/ep-ind-claims huggingface dataset:
A method of conducting a public land mobile network, PLMN, search for a plurality of radio access technologies, RATs, on a mobile communication device (110, 120, 200) comprising: profiling a frequency space to identify one or more frequency bands (304a, 304b, 306a, 306b, 308a, 308b) that are likely to be utilized by the plurality of RATs wherein profiling comprises obtaining, for a plurality of narrow frequency bands (304a, 304b, 306a, 306b, 308a, 308b) in the frequency space, received signal strength values; and identifying the one or more frequency bands, wherein each identified frequency band comprises a plurality of consecutive narrow frequency bands with received signal strength values above a threshold; determining, according to a priority ordering of the plurality of RATs, a RAT that utilizes each frequency band identified during the profiling, wherein determining comprises selecting each RAT according to the priority ordering and verifying whether each of the identified frequency bands (304a, 304b, 306a, 306b, 308a, 308b) carries a signal for the selected RAT, wherein the priority ordering is based on a size of a frequency bandwidth of each RAT of the plurality of RATs; adding, for each RAT in the plurality of RATs, the identified frequency bands utilized by each RAT to exclude lists (310, 312, 314) associated with the other RATs of the plurality of RATs; and conducting a PLMN search for each RAT in the plurality of RATs utilizing the exclude lists (310, 312, 314) associated with each RAT. profiling a frequency space to identify one or more frequency bands (304a, 304b, 306a, 306b, 308a, 308b) that are likely to be utilized by the plurality of RATs wherein profiling comprises obtaining, for a plurality of narrow frequency bands (304a, 304b, 306a, 306b, 308a, 308b) in the frequency space, received signal strength values; and identifying the one or more frequency bands, wherein each identified frequency band comprises a plurality of consecutive narrow frequency bands with received signal strength values above a threshold; determining, according to a priority ordering of the plurality of RATs, a RAT that utilizes each frequency band identified during the profiling, wherein determining comprises selecting each RAT according to the priority ordering and verifying whether each of the identified frequency bands (304a, 304b, 306a, 306b, 308a, 308b) carries a signal for the selected RAT, wherein the priority ordering is based on a size of a frequency bandwidth of each RAT of the plurality of RATs; adding, for each RAT in the plurality of RATs, the identified frequency bands utilized by each RAT to exclude lists (310, 312, 314) associated with the other RATs of the plurality of RATs; and conducting a PLMN search for each RAT in the plurality of RATs utilizing the exclude lists (310, 312, 314) associated with each RAT.
A method for allocating transmission powers by a user equipment in a wireless communication system supporting a plurality of component carriers, the method comprising: if transmission of a sounding reference signal, SRS, on a first component carrier overlaps with a transmission of a physical uplink control channel, PUCCH, on a second component carrier and the user equipment has maximum power limitation allocating a transmission power for the PUCCH and a transmission power for the SRS, wherein the transmission power for the PUCCH is allocated with priority over the transmission power for the SRS. if transmission of a sounding reference signal, SRS, on a first component carrier overlaps with a transmission of a physical uplink control channel, PUCCH, on a second component carrier and the user equipment has maximum power limitation allocating a transmission power for the PUCCH and a transmission power for the SRS, wherein the transmission power for the PUCCH is allocated with priority over the transmission power for the SRS.
A positive-type photosensitive resin composition, comprising: an alkali-soluble resin having a phenolic hydroxyl group, a compound that produces an acid by light, a thermal crosslinking agent, a silane compound having at least one functional group selected from an epoxy group and a sulfide group, and an acrylic resin having structure units represented by the following formulas and: wherein R 7 represents a hydrogen atom or a methyl group, and R 8 represents an alkyl group having 4 to 20 carbon atoms. an alkali-soluble resin having a phenolic hydroxyl group, a compound that produces an acid by light, a thermal crosslinking agent, a silane compound having at least one functional group selected from an epoxy group and a sulfide group, and an acrylic resin having structure units represented by the following formulas and: wherein R 7 represents a hydrogen atom or a methyl group, and R 8 represents an alkyl group having 4 to 20 carbon atoms.
An internal combustion engine system (2, 2a-2g), comprising an internal combustion engine, a control unit, an exhaust aftertreatment system (EATS) located downstream of said ICE and comprising one or more exhaust aftertreatment devices (14a-14d), an exhaust gas duct fluidly connecting said ICE and said EATS, an exhaust gas recirculation duct being in fluid communication with said exhaust gas duct and fluidly connecting a first point downstream of said ICE and a second point upstream thereof, and an exhaust gas recirculation pump arranged in said exhaust gas recirculation duct, wherein the internal combustion engine system has a normal operation mode for transporting, by means of the EGR pump, at least a portion of said exhaust gas from said first point to said second point, characterized in that the internal combustion engine system further comprises a heating device arranged upstream of at least one of said exhaust aftertreatment devices of said EATS and in that the internal combustion engine system has a pre-heat operation mode for transporting, by means of the EGR pump, exhaust gas and/or air through said heating device and then to said at least one of said exhaust aftertreatment devices, wherein the internal combustion engine system comprises a diverter duct fluidly connecting said EGR pump and a recombination point at said exhaust gas duct upstream of said heating device.
Oscillating winding weight for a timepiece movement comprising a heavy portion fixed to a connecting element intended to connect said heavy portion to an arbor integral with a movement, said oscillating winding weight being intended to be rotatably mounted on said arbor, said connecting element being made of a transparent or translucent material, characterized in that said connecting element comprises at least one coloured filter, said coloured filter being formed by a coloured transparent or translucent film deposited on at least one part of the surface of the connecting element.
A safety arrangement for controlling automatic travel of a fully automated vehicle, comprising: one or more forward-looking detection systems for detecting objects in a future path of the vehicle; a control unit arranged to determine a detection confidence for the detected objects based on information from the one or more forward-looking detection systems; where the control unit further is operable to, upon low confidence for existence of a detected object, control a brake system of the vehicle to apply a predetermined limited amount of braking until high confidence is obtained for existence or non-existence of the previously detected object with decreasing distance thereto, whereupon the control unit further is operable to apply full braking if high confidence is obtained for existence of the previously detected object and to discontinue braking if high confidence is obtained for non-existence of the previously detected object. one or more forward-looking detection systems for detecting objects in a future path of the vehicle; a control unit arranged to determine a detection confidence for the detected objects based on information from the one or more forward-looking detection systems; where the control unit further is operable to, upon low confidence for existence of a detected object, control a brake system of the vehicle to apply a predetermined limited amount of braking until high confidence is obtained for existence or non-existence of the previously detected object with decreasing distance thereto, whereupon the control unit further is operable to apply full braking if high confidence is obtained for existence of the previously detected object and to discontinue braking if high confidence is obtained for non-existence of the previously detected object.
A thermoelectric tape, comprising: a flexible substrate (110, 305) having a plurality of vias; a series of flexible thermoelectric modules (100A, 100D, 100E, 110A, 200A, 200B, 200C, 310, 311, 312, 313) integrated with the flexible substrate and connected in parallel, each flexible thermoelectric module comprising: a plurality of p-type thermoelectric elements (122, 262), a plurality of n-type thermoelectric elements (124, 264), wherein at least some of the plurality of p-type thermoelectric elements are connected to n-type thermoelectric elements; two conductive buses (321, 322) running longitudinally along the thermoelectric tape, wherein the series of flexible thermoelectric modules are electrically connected to the conductive buses; characterised by a thermally conductive adhesive layer (230, 330), disposed on a surface of the flexible substrate, wherein at least some of the plurality of vias are filled with an electrically conductive material. a flexible substrate (110, 305) having a plurality of vias; a series of flexible thermoelectric modules (100A, 100D, 100E, 110A, 200A, 200B, 200C, 310, 311, 312, 313) integrated with the flexible substrate and connected in parallel, each flexible thermoelectric module comprising: a plurality of p-type thermoelectric elements (122, 262), a plurality of n-type thermoelectric elements (124, 264), wherein at least some of the plurality of p-type thermoelectric elements are connected to n-type a plurality of p-type thermoelectric elements (122, 262), a plurality of n-type thermoelectric elements (124, 264), wherein at least some of the plurality of p-type thermoelectric elements are connected to n-type thermoelectric elements; two conductive buses (321, 322) running longitudinally along the thermoelectric tape, wherein the series of flexible thermoelectric modules are electrically connected to the conductive buses; characterised by a thermally conductive adhesive layer (230, 330), disposed on a surface of the flexible substrate, wherein at least some of the plurality of vias are filled with an electrically conductive material.
Pressure vessel, in particular aerosol bottle or can, with - a substantially dimensionally stable, preferably cylindrical, first container with a bottom, side walls and a neck area with an opening, - a cap with a valve with which the opening is closed and - a second container placed in the first container, whereby a basic composition to be delivered is placed in the second container and a propellant composition in form of a nutrient solution and microorganisms is placed in the first container, characterized in that the first container is made of a barrier-free thermoplastic synthetic material with a gas permeability for carbon dioxide of more than 0.5*10 -2 ml/(cm 2 *atm*day). - a substantially dimensionally stable, preferably cylindrical, first container with a bottom, side walls and a neck area with an opening, - a cap with a valve with which the opening is closed and - a second container placed in the first container, whereby a basic composition to be delivered is placed in the second container and a propellant composition in form of a nutrient solution and microorganisms is placed in the first container,
A delivery device (100; 800; 900; 1000; 1200; 1300; 1400; 1600; 1700) for application of an adhesive (118; 1618; 1818) between leaflets of a tissue valve for localized fusion thereof, the delivery device comprising: capture means (102; 1002; 1302; 1602; 1702) for capturing at least a first leaflet and a second leaflet (114a, 114b; 1802, 1804) of the tissue valve; an applicator (106; 1606; 1706; 1806) configured to apply the adhesive between at least the first leaflet and the second leaflet once captured by the capture means; at least one energy element configured to cure the adhesive after it has been applied between at least the first leaflet and the second leaflet; characterized in a capsule comprising a first end, a second end, and a side surface extending therebetween, wherein the applicator (106; 1606; 1706; 1806) and the one or more energy elements are coupled to the first end of the capsule, and the at least one energy element substantially surrounds the applicator (106; 1606; 1706; 1806). capture means (102; 1002; 1302; 1602; 1702) for capturing at least a first leaflet and a second leaflet (114a, 114b; 1802, 1804) of the tissue valve; an applicator (106; 1606; 1706; 1806) configured to apply the adhesive between at least the first leaflet and the second leaflet once captured by the capture means; at least one energy element configured to cure the adhesive after it has been applied between at least the first leaflet and the second leaflet; characterized in a capsule comprising a first end, a second end, and a side surface extending therebetween, wherein the applicator (106; 1606; 1706; 1806) and the one or more energy elements are coupled to the first end of the capsule, and the at least one energy element substantially surrounds the applicator (106; 1606; 1706; 1806).
A fungicidal composition for controlling phytopathogenic harmful fungi, comprising 1) the fungicidal strain Bacillus subtilis with NRRL Accession No. B-21661, and 2) at least one chemical compound, selected from the active compound group of carboxamides consisting of fluopyram, in a synergistically effective amount. 1) the fungicidal strain Bacillus subtilis with NRRL Accession No. B-21661, and 2) at least one chemical compound, selected from the active compound group of carboxamides consisting of fluopyram, in a synergistically effective amount.
A β-dihydrofuran derivative represented by formula: (wherein Y 1 represents an alkoxycarbonyl group, an aralkyloxycarbonyl group, an aminocarbonyl group, a dialkylphosphoryl group, or a diarylphosphoryl group; Y 2 represents an acyl group, an alkoxycarbonyl group, an aralkyloxycarbonyl group, an aminocarbonyl group, a dialkylphosphoryl group, or a diarylphosphoryl group; and Y 3, Y 4, and Y 5 each represent a hydrogen atom, a halogen atom, an alkyl group, an aryl group, an acyl group, an alkenyl group, an aralkyl group, a cycloalkyl group, a hydroxyl group, an alkoxy group, an aryloxy group, an aralkyloxy group, an alkylthio group, an arylthio group, an amino group, an alkylamino group, a trialkylsilyloxy group, a trisubstituted silyl group, an alkylaminocarbonyl group, a halomethyl group, an optionally protected formyl group, a C1 to C7 ester group, an optionally protected hydroxymethyl group, a vinyl group, an optionally protected alkynyl group, a cyano group, or an optionally substituted iminomethyl group).
An automatic parking method, comprising: identifying that a vehicle is located in a predetermined area, the predetermined area being defined by a plurality of limiting signs (402, 404, 406, 408); recording videos of surroundings around the vehicle in real time using video capture apparatuses mounted on two sides of the vehicle; locating a first limiting sign in the videos using a colour space; obtaining, by means of morphological detection, a real-time position of the vehicle from features of the first limiting sign; and guiding the vehicle to a target area according to the real-time position of the vehicle, wherein the step of obtaining, by means of morphological detection, the real-time position of the vehicle from the features of the first limiting sign comprises: determining the features of the first limiting sign by means of morphological detection; determining an absolute position of the first limiting sign according to an unfilled corner feature of the first limiting sign; estimating the distances from the video capture apparatuses to the target area by calibrating pixels of the videos and from the absolute position of the first limiting sign; and determining the real-time position of the vehicle at least from the distances from the video capture apparatuses to the target area. identifying that a vehicle is located in a predetermined area, the predetermined area being defined by a plurality of limiting signs (402, 404, 406, 408); recording videos of surroundings around the vehicle in real time using video capture apparatuses mounted on two sides of the vehicle; locating a first limiting sign in the videos using a colour space; obtaining, by means of morphological detection, a real-time position of the vehicle from features of the first limiting sign; and guiding the vehicle to a target area according to the real-time position of the vehicle, wherein the step of obtaining, by means of morphological detection, the real-time position of the vehicle from the features of the first limiting sign comprises: determining the features of the first limiting sign by means of morphological detection; determining an absolute position of the first limiting sign according to an unfilled corner feature of the first limiting sign; estimating the distances from the video capture apparatuses to the target area by calibrating pixels of the videos and from the absolute position of the first limiting sign; and determining the real-time position of the vehicle at least from the distances from the video capture apparatuses to the target area. determining the features of the first limiting sign by means of morphological detection; determining an absolute position of the first limiting sign according to an unfilled corner feature of the first limiting sign; estimating the distances from the video capture apparatuses to the target area by calibrating pixels of the videos and from the absolute position of the first limiting sign; and determining the real-time position of the vehicle at least from the distances from the video capture apparatuses to the target area.
A method implemented on a user device for performing inferencing based on input data, the method comprising: determining (S3-1) one or more performance requirements for a neural network based on a current usage of one or more computational resources by the user device which is to execute the neural network; selecting (S3-2), based on the one or more performance requirements, a set of stored model information from plural sets of stored model information, each corresponding to a different neural network model; initialising (S3-6) the neural network based on the selected set of stored model information, which defines a plurality of orthogonal binary basis vectors which are to be used to implement kernels in one or more hidden layers of the neural network, and plural sets of plural coefficients, each set of plural coefficients corresponding to a respective one of the kernels, wherein each of the coefficients in a given set of coefficients is associated with a respective one of the one or more orthogonal binary basis vectors; passing (S3-9) input data through the neural network such that convolution operations between the kernels and data arriving at the kernels are performed, wherein each of the kernels is implemented using a respective set of coefficients and the orthogonal binary basis vectors with which the coefficients in the set are associated; and outputting (S3-10) data from the neural network, the output data representing an inference corresponding to the input data. determining (S3-1) one or more performance requirements for a neural network based on a current usage of one or more computational resources by the user device which is to execute the neural network; selecting (S3-2), based on the one or more performance requirements, a set of stored model information from plural sets of stored model information, each corresponding to a different neural network model; initialising (S3-6) the neural network based on the selected set of stored model information, which defines a plurality of orthogonal binary basis vectors which are to be used to implement kernels in one or more hidden layers of the neural network, and plural sets of plural coefficients, each set of plural coefficients corresponding to a respective one of the kernels, wherein each of the coefficients in a given set of coefficients is associated with a respective one of the one or more orthogonal binary basis vectors; passing (S3-9) input data through the neural network such that convolution operations between the kernels and data arriving at the kernels are performed, wherein each of the kernels is implemented using a respective set of coefficients and the orthogonal binary basis vectors with which the coefficients in the set are associated; and outputting (S3-10) data from the neural network, the output data representing an inference corresponding to the input data.
A bicycle helmet holder comprising a mount component adapted to attach the holder to a surface, a first arm attached to the mount component and comprising a trough, a second arm attached to the mount component and comprising a trough, characterised in that the second arm comprises an elastic material, such that the trough of the second arm can locate with a first end of an air vent of a helmet, the second arm can flex towards the first arm, the trough of the first arm can locate with a second end of the air vent of the helmet, and, on release, the second arm can flex away from the first arm to grip the helmet, the elastic material of the second arm allowing the second arm to spring away from the first arm when released.