mhurhangee/ep-ind-claims huggingface dataset:
A method for configuration of a secondary network node in a carrier aggregation enabled communications network (11a, 11b), the secondary network node supporting radio transmission using a cellular radio access technology, RAT, for deployment of the secondary network node as a network node serving a secondary serving cell associated with a primary serving cell in a carrier aggregation enabled communications network using said cellular RAT, and supporting radio transmission using a non-cellular RAT for deployment of the secondary network node as a network node serving a non-cellular RAT hotspot using said non-cellular RAT, the method being performed by the secondary network node and comprising the steps of: receiving an indication from a cellular primary network node associated with the primary serving cell to start scanning an unlicensed frequency band for deployment of said network node serving the secondary serving cell or as said network node serving the non-cellular RAT hotspot; scanning at least one unlicensed frequency band to determine whether or not interference from transmitting interferers is present in the at least one unlicensed frequency band; determining, based on said scanning, at least one frequency interval of said at least one unlicensed frequency band free from said transmitting interferers; transmitting information of said at least one frequency interval to said cellular primary network node; receiving configuration information from said cellular primary network node, said configuration information indicating how to deploy said network node, wherein the configuration information indicates whether to deploy the secondary serving cell or the non-cellular RAT hotspot; and deploying said network node using the cellular RAT or the non-cellular RAT by configuring the secondary network node for transmission in one of said at least one frequency interval according to said configuration information. receiving an indication from a cellular primary network node associated with the primary serving cell to start scanning an unlicensed frequency band for deployment of said network node serving the secondary serving cell or as said network node serving the non-cellular RAT hotspot; scanning at least one unlicensed frequency band to determine whether or not interference from transmitting interferers is present in the at least one unlicensed frequency band; determining, based on said scanning, at least one frequency interval of said at least one unlicensed frequency band free from said transmitting interferers; transmitting information of said at least one frequency interval to said cellular primary network node; receiving configuration information from said cellular primary network node, said configuration information indicating how to deploy said network node, wherein the configuration information indicates whether to deploy the secondary serving cell or the non-cellular RAT hotspot; and deploying said network node using the cellular RAT or the non-cellular RAT by configuring the secondary network node for transmission in one of said at least one frequency interval according to said configuration information.
A compound of formula IA: wherein, R 1 represents C 1 -C 4 -alkyl; R 4 is hydroxy, C 1 -C 4 -alkyl or C 1 -C 4 -alkyl substituted by C 1 -C 4 -alkoxy, di-C 1 -C 4 -alkyl-amino, acetylamino, morpholinyl or pyridyl; R 5 is heteroaryl selected from the group consisting of pyridyl, pyrimidinyl, pyrazinyl and thiazolyl, each independently substituted by one substituent selected from the group consisting of C 1 -C 4 -alkyl, per-deutero C 1 -C 4 -alkyl, halo-C 1 -C 4 -alkyl, 1-(C 1 -C 4 -alkyl)-C 3 -C 6 -cycloalkyl, (halo-C 1 -C 4 -alkyl)-C 3 -C 6 -cycloalkyl, di-C 1 -C 4 -alkylamino, di-(per-deutero C 1 -C 4 -alkyl)amino; or a salt thereof. R 1 represents C 1 -C 4 -alkyl; R 4 is hydroxy, C 1 -C 4 -alkyl or C 1 -C 4 -alkyl substituted by C 1 -C 4 -alkoxy, di-C 1 -C 4 -alkyl-amino, acetylamino, morpholinyl or pyridyl; R 5 is heteroaryl selected from the group consisting of pyridyl, pyrimidinyl, pyrazinyl and thiazolyl, each independently substituted by one substituent selected from the group consisting of C 1 -C 4 -alkyl, per-deutero C 1 -C 4 -alkyl, halo-C 1 -C 4 -alkyl, 1-(C 1 -C 4 -alkyl)-C 3 -C 6 -cycloalkyl, (halo-C 1 -C 4 -alkyl)-C 3 -C 6 -cycloalkyl, di-C 1 -C 4 -alkylamino, di-(per-deutero C 1 -C 4 -alkyl)amino;
Method for separating a gas rich in carbon dioxide that contains at least 65% molar carbon dioxide dry basis by partial condensation and permeation in which the gas rich in carbon dioxide is cooled at least in a first heat exchanger, the gas rich in carbon dioxide cooled in the first heat exchanger or a fluid derived from this gas enters a first phase separator at a first temperature of between -50°C and -53°C, a liquid enriched with carbon dioxide is taken off from the first phase separator and serves as a product or is treated in order to enrich it further with carbon dioxide, a gas depleted in carbon dioxide from the first separator is heated in the first exchanger or a second exchanger to a second temperature of between -35°C and -45°C, without having been expanded downstream of the first separator, enters a permeation unit (17, 117) at the second temperature, the heated gas undergoes at least one permeation step in the permeation unit in order to produce at least two fluids (19, 21, 41, 43) that are next heated in the exchanger (5, 105) in which the depleted gas was heated, the fluid issuing from the permeation unit, heated in the exchanger, which emerges from the permeation unit at the lower temperature being a temperature above -54°C.
A method in a network having a macro serving cell (1830, 2510) and at least one assisted serving cell (1850, 2510), the method comprising: receiving, at the macro serving cell directly from a user equipment (1810, 2600), radio resource control signaling for an assisted serving cell, the assisted serving cell having its own cell identifier; forwarding, by macro serving cell, the radio resource control signaling, received from the user equipment, to the assisted serving cell; receiving, at the macro serving cell directly from the assisted serving cell, radio resource control signaling for the user equipment forwarding, by the macro serving cell, the radio resource control signaling, received from the assisted serving cell, to the user equipment; and wherein user plane data is transmitted directly to the user equipment by the assisted serving cell. receiving, at the macro serving cell directly from a user equipment (1810, 2600), radio resource control signaling for an assisted serving cell, the assisted serving cell having its own cell identifier; forwarding, by macro serving cell, the radio resource control signaling, received from the user equipment, to the assisted serving cell; receiving, at the macro serving cell directly from the assisted serving cell, radio resource control signaling for the user equipment forwarding, by the macro serving cell, the radio resource control signaling, received from the assisted serving cell, to the user equipment; and wherein user plane data is transmitted directly to the user equipment by the assisted serving cell.
A negative electrode comprising: a negative electrode current collector; and a negative electrode active material layer disposed on the negative electrode current collector, wherein the negative electrode active material layer includes a silicon-based active material, a first conductive material including graphite, a second conductive material including a single-walled carbon nanotube, and a binder, wherein: the binder includes a cellulose-based compound and a rubber-based compound; the first conductive material is included in the negative electrode active material layer in an amount of 15 wt% to 25 wt%; the second conductive material is included in the negative electrode active material layer in an amount of 0.15 wt% to 2.5 wt%; and the second conductive material and the binder are included in the negative electrode active material layer at a weight ratio of 1.5:99.5 to 20.0:80.0. a negative electrode current collector; and a negative electrode active material layer disposed on the negative electrode current collector, wherein the negative electrode active material layer includes a silicon-based active material, a first conductive material including graphite, a second conductive material including a single-walled carbon nanotube, and a binder, wherein: the binder includes a cellulose-based compound and a rubber-based compound; the first conductive material is included in the negative electrode active material layer in an amount of 15 wt% to 25 wt%; the second conductive material is included in the negative electrode active material layer in an amount of 0.15 wt% to 2.5 wt%; and the second conductive material and the binder are included in the negative electrode active material layer at a weight ratio of 1.5:99.5 to 20.0:80.0. the binder includes a cellulose-based compound and a rubber-based compound; the first conductive material is included in the negative electrode active material layer in an amount of 15 wt% to 25 wt%; the second conductive material is included in the negative electrode active material layer in an amount of 0.15 wt% to 2.5 wt%; and the second conductive material and the binder are included in the negative electrode active material layer at a weight ratio of 1.5:99.5 to 20.0:80.0.
A container license management method, performed by an image repository, comprising: receiving an image download request that comprises information for requesting a license and that is sent by a container management background daemon; and obtaining an image according to the image download request; obtaining the information for requesting a license that is in the image download request, and generating a license image layer corresponding to the information for requesting a license; adding the license image layer to the image; and sending, to the container management background daemon, the image to which the license image layer is added. receiving an image download request that comprises information for requesting a license and that is sent by a container management background daemon; and obtaining an image according to the image download request; obtaining the information for requesting a license that is in the image download request, and generating a license image layer corresponding to the information for requesting a license; adding the license image layer to the image; and sending, to the container management background daemon, the image to which the license image layer is added.
Method for assisting a driver of a vehicle (02, 12) when parking in a parking space (03, 13) which is oriented virtually at a right angle to a carriageway or an oblique parking space, in which method - a possible parking space (03, 13) is measured, - a parking trajectory (04, 14) is calculated on the basis of the parking space geometry which is determined from the measurement of the parking space (03, 13), and on the basis of a vehicle position relative to the parking space (03, 13), and - a parking process is subsequently carried out during which the vehicle is steered along the parking trajectory (01, 11) into the parking space (03, 13), characterized in that the parking space geometry continues to be determined during the parking process and is compared with the parking space geometry determined before the start of the parking process, wherein the comparison between the parking space geometry determined before the parking process and that determined during the parking process is carried out by sensing, during the entry into the parking space, the lateral distance, to the left and right of the vehicle, from objects (09, 07) which bound the parking space and by comparing said lateral distance with the distances which are expected on the basis of the originally sensed parking space geometry and the current vehicle position, and wherein, if the two parking space geometries differ from one another, a deviation which is present is evaluated and the parking trajectory (01, 11; 05, 15) is, if appropriate, corrected and/or re-calculated. - a possible parking space (03, 13) is measured, - a parking trajectory (04, 14) is calculated on the basis of the parking space geometry which is determined from the measurement of the parking space (03, 13), and on the basis of a vehicle position relative to the parking space (03, 13), and - a parking process is subsequently carried out during which the vehicle is steered along the parking trajectory (01, 11) into the parking space (03, 13),
A microelectromechanical (MEMS) Fabry-Perot interferometer, comprising: a transparent substrate; a first metallic mirror structure on the transparent substrate, comprising a first metal layer and a first support layer; a second metallic mirror structure above the first metallic mirror structure on opposite side of the first metallic mirror structure in view of the transparent substrate, the second metallic mirror structure comprising a second metal layer and a second support layer, wherein the first and the second support layer are parallel and comprising at least one of aluminum oxide or titanium dioxide; a Fabry-Perot cavity and an insulation layer between the first and the second support layer, wherein the Fabry-Perot cavity has been formed by partially removing the insulation layer after providing the second mirror structure; and electrodes for providing electrical contacts to the first and the second metal layer, the microelectromechanical (MEMS) Fabry-Perot interferometer further comprising a first aluminum oxide layer arranged below the transparent substrate; and a second aluminum oxide layer arranged above the transparent substrate, wherein the second aluminum oxide layer being part of the first support layer of the first metallic mirror structure, wherein the first metal layer of the first metallic mirror structure is arranged above the second aluminum oxide layer. a transparent substrate; a first metallic mirror structure on the transparent substrate, comprising a first metal layer and a first support layer; a second metallic mirror structure above the first metallic mirror structure on opposite side of the first metallic mirror structure in view of the transparent substrate, the second metallic mirror structure comprising a second metal layer and a second support layer, wherein the first and the second support layer are parallel and comprising at least one of aluminum oxide or titanium dioxide; a Fabry-Perot cavity and an insulation layer between the first and the second support layer, wherein the Fabry-Perot cavity has been formed by partially removing the insulation layer after providing the second mirror structure; and electrodes for providing electrical contacts to the first and the second metal layer, the microelectromechanical (MEMS) Fabry-Perot interferometer further comprising a first aluminum oxide layer arranged below the transparent substrate; and a second aluminum oxide layer arranged above the transparent substrate, wherein the second aluminum oxide layer being part of the first support layer of the first metallic mirror structure, wherein the first metal layer of the first metallic mirror structure is arranged above the second aluminum oxide layer.
A method for reducing deposits within a well annulus or a pipeline, the method comprising: contacting a hydrocarbon fluid encountered in petroleum operations having an API gravity of about 20 or less within the well annulus or the pipeline with a composition to form a water external emulsion and reduce deposits within the well annulus or the pipeline, the composition comprising water and at least one hydrophobically modified non-ionic polymer having the general formula below: wherein each R is independently selected from the group consisting of H, alkyl, aryl, hydroxyalkyl, a moiety having an alkoxy group, and combinations thereof; and n is from 5 to 5,000, and the amount of the composition being up to 1,000 ppm actives, based on total volume of the water external emulsion.
An atomization system, comprising: a fluid reservoir; a pair of rollers (300, 400); a nip formed between the rollers; and a receiving surface positioned to receive droplets formed when fluid exits the holes, stretches between the rollers as they counterrotate to form filaments and the filaments break into droplets; characterised in that at least one of the rollers has: a central feed channel, the channel fluidically connected to the fluid reservoir; an array of holes on a surface of the roller; and veins connecting the channels to the holes. a fluid reservoir; a pair of rollers (300, 400); a nip formed between the rollers; and a receiving surface positioned to receive droplets formed when fluid exits the holes, stretches between the rollers as they counterrotate to form filaments and the filaments break into droplets; characterised in that at least one of the rollers has: a central feed channel, the channel fluidically connected to the fluid reservoir; an array of holes on a surface of the roller; and veins connecting the channels to the holes. a central feed channel, the channel fluidically connected to the fluid reservoir; an array of holes on a surface of the roller; and veins connecting the channels to the holes.
Method for identifying the battery type (Pb, Li-Ion) of a battery connected to the consumer loads of a vehicle via the vehicle electrical system by means of a battery testing device, having the steps: - application of a DC pulse having a current strength of at least 30 Ampere to a battery to be tested for at least five seconds, - before the application measurement of a pre-pulse voltage of the battery, - during the application measurement of a pulse voltage of the battery, - determining a transition voltage difference between the pre-pulse voltage and the pulse voltage, - determining a characteristic of a transition voltage difference parameter as a function of the transition voltage difference, - assigning a specific battery type (Pb, Li-ion) to the tested battery as a function of the characteristic. - application of a DC pulse having a current strength of at least 30 Ampere to a battery to be tested for at least five seconds, - before the application measurement of a pre-pulse voltage of the battery, - during the application measurement of a pulse voltage of the battery, - determining a transition voltage difference between the pre-pulse voltage and the pulse voltage, - determining a characteristic of a transition voltage difference parameter as a function of the transition voltage difference, - assigning a specific battery type (Pb, Li-ion) to the tested battery as a function of the characteristic.
A method of controlling power to a plurality of devices (235A-C, 255, 260, 265) on an energy network, wherein each device has an identifier which uniquely identifies the device on the network, the method comprising: forming a group of devices from said plurality of devices; and controlling the power of other devices in said group in accordance with the state of the power supplied to a first device in said group, by sending control signals over the energy network, wherein in response to the user placing the first device in the group into standby, the amount of power to the other devices is reduced; comprising allocating a priority to each of the devices in the group, wherein the first device in said group is the device with the highest priority. forming a group of devices from said plurality of devices; and controlling the power of other devices in said group in accordance with the state of the power supplied to a first device in said group, by sending control signals over the energy network, wherein in response to the user placing the first device in the group into standby, the amount of power to the other devices is reduced; comprising allocating a priority to each of the devices in the group, wherein the first device in said group is the device with the highest priority.
An aqueous architectural composition comprising a substantially acrylic emulsion polymer wherein the acrylic monomers forming the polymer have a Tg of less than -10 °C and higher than -50°C, wherein the acrylic emulsion polymer comprises at least one cross-linkable moiety; at least one additive of solid polyutherane spheres having a mean weight diameter of less than 40 microns and a Tg of less than 0°C, wherein the solid PU spheres make up 10% to 20% by weight of the composition, wherein the substantially acrylic emulsion polymer forms a film; and at least a stoichiometric amount of a cross-linking agent in the aqueous phase of the composition to cross-link with the at least one cross-linkable moiety. a substantially acrylic emulsion polymer wherein the acrylic monomers forming the polymer have a Tg of less than -10 °C and higher than -50°C, wherein the acrylic emulsion polymer comprises at least one cross-linkable moiety; at least one additive of solid polyutherane spheres having a mean weight diameter of less than 40 microns and a Tg of less than 0°C, wherein the solid PU spheres make up 10% to 20% by weight of the composition, wherein the substantially acrylic emulsion polymer forms a film; and at least a stoichiometric amount of a cross-linking agent in the aqueous phase of the composition to cross-link with the at least one cross-linkable moiety.
A microorganism detecting device, said device comprising a support or body component formed and adapted to have a surface for contact with a sample to be analysed, said surface defining a pore, said pore comprising means for reporting the presence of a microorganism characterised in that the reporting means comprises: a solid or semi-solid substrate; a tetrazolium salt; and a nutrient broth selected from Mueller Hinton Broth or Wilkins Chalgren Broth wherein the pore defines a volume of less than 500μl and wherein the device comprises a physical barrier that allows microorganisms to enter the reporting means but retains the components of the reporting means within the pore. a solid or semi-solid substrate; a tetrazolium salt; and a nutrient broth selected from Mueller Hinton Broth or Wilkins Chalgren Broth
Admixture of an asphalt composition comprising asphalt cement and aggregate, and a reinforcement composition comprising a plurality of reinforcement fibers composed of elastomeric polymer, each of the reinforcement fibers having an aspect ratio from 20 to 5000, a linear mass density from 2.22 to 166.67 mg/m (20 to 1500 denier), and a length from 1.59 to 76.20 mm (1/16-inch to 3 inches).
A transcribable or replicable nucleic acid aptamer comprising natural nucleotides and non-natural nucleotides having an artificial base-pairable artificial base, wherein the nucleic acid aptamer is directed against a vascular endothelial growth factor as a target substance and wherein the nucleic acid aptamer comprises any one nucleotide sequence selected from the group consisting of SEQ ID NOs: 25 to 73, 80 to 104, 106 to 109, 111, and 155 to 166 (provided that "n" in the sequences represents 7-(2-thienyl)-3H-imidazo[4,5-b]pyridin-3-yl), 175, 177, 179, 181, 183, 198, 201, 202, 205 to 209, 211, 212, and 229 to 278.