mhurhangee/ep-ind-claims huggingface dataset:
A method in a node (105, 110) for handling modes in a wireless device, which node (110, 105) and wireless device are comprised in a wireless network, and which wireless device is in active mode, the method comprising: obtaining (201, 301, 501, 701) information indicating that the wireless device should reduce its radio power consumption; determining (202, 203, 302, 303, 503, 703) that the wireless device should change from active mode to a first power saving mode based on the obtained information and based on a first criterion; and determining (202, 203, 302, 303, 504, 704) that the wireless device should change from active mode to a second power saving mode based on the obtained information and based on a second criterion, wherein the first criterion is that the wireless device is associated with a handover within the wireless network and the second criterion is that the wireless device is not associated with a handover within the wireless network, wherein the wireless device is associated with a handover if the wireless device has recently been involved in a handover, is currently involved in an ongoing handover or will be involved in a handover in near future, wherein the wireless device is not associated with a handover if the wireless device has not been involved in any ongoing or soon to be or recent handover. obtaining (201, 301, 501, 701) information indicating that the wireless device should reduce its radio power consumption; determining (202, 203, 302, 303, 503, 703) that the wireless device should change from active mode to a first power saving mode based on the obtained information and based on a first criterion; and determining (202, 203, 302, 303, 504, 704) that the wireless device should change from active mode to a second power saving mode based on the obtained information and based on a second criterion, wherein the first criterion is that the wireless device is associated with a handover within the wireless network and the second criterion is that the wireless device is not associated with a handover within the wireless network, wherein the wireless device is associated with a handover if the wireless device has recently been involved in a handover, is currently involved in an ongoing handover or will be involved in a handover in near future, wherein the wireless device is not associated with a handover if the wireless device has not been involved in any ongoing or soon to be or recent handover.
Fibre forming device for fabricating mineral fibres, comprising a fibre forming spinner wheel (10, 10') pierced to enable fabrication of fibres by internal centrifuging, the fibre forming device comprising at least one annular burner producing an annular gas flow to stretch the fibres and an evacuation system for evacuating smoke created by said burner, characterized in that the fibre forming device further comprises a means for variation of the temperature of said spinner wheel comprising an air circulation device adapted to control the smoke evacuation flow.
A process for preparing a compound of structural formula in enantiomeric excess, wherein each ring A and B is independently an optionally substituted monocyclic aryl or heteroaryl, R 1 is selected from aminocarbonyl, hydrogen, hydroxy, halo, cyano, carboxy, and an optionally substituted alkyl, aminoalkyl, cycloalkyl, heterocycloalkyl, alkyloxycarbonyl, aminothiocarbonyl, aminosulfonyl, and sulfonyl; the process comprising contacting the compound of structural formula, wherein A and B, and R 1 are defined above, with a ketoreductase polypeptide comprising an amino acid sequence that has at least 80% sequence identity to the reference polypeptide of SEQ ID NO:10, wherein the ketoreductase is capable of converting compound to compound in enantiomeric excess, in presence of NADH or NADPH under suitable reaction conditions. each ring A and B is independently an optionally substituted monocyclic aryl or heteroaryl, R 1 is selected from aminocarbonyl, hydrogen, hydroxy, halo, cyano, carboxy, and an optionally substituted alkyl, aminoalkyl, cycloalkyl, heterocycloalkyl, alkyloxycarbonyl, aminothiocarbonyl, aminosulfonyl, and sulfonyl;
An electric machine, in particular an electric motor, including a motor support, a stator, a rotor, and a fan arranged on the front side, and an electronics housing which adjoins the motor support and in which electrical components are arranged, wherein a stream of air can be sucked in by means of the fan and is passed through the motor support in an axial direction in order to cool the stator and/or the rotor, wherein a front wall of the motor support, which wall is associated with the fan, has an axial opening through which the stream of air exits from the motor support and is diverted towards the electronics housing by means of the fan, characterized in that a rim adjoins the front wall of the motor support, which rim partly surrounds the fan and serves to divert at least part of the stream of air towards cooling ribs of the electronics housing, which ribs are arranged in a plane of extension of the fan, wherein the rim has the shape of a ring sector and extends over a reflex angle area (α).
A human antibody κ type light chain complex-containing composition, comprising: a complex in which a human antibody κ type light chain is bound to one or more kinds of metal ions selected from the group consisting of Group 10 elements, Group 11 elements, and Group 12 elements, wherein the human antibody κ type light chain is a dimer, and cysteines at C terminals of two human antibody κ type light chains are bound to each other via the metal ion, and wherein 0.1 mol or more of the metal ion is bound per 1 mol of the human antibody κ type light chain. a complex in which a human antibody κ type light chain is bound to one or more kinds of metal ions selected from the group consisting of Group 10 elements, Group 11 elements, and Group 12 elements, wherein the human antibody κ type light chain is a dimer, and cysteines at C terminals of two human antibody κ type light chains are bound to each other via the metal ion, and wherein 0.1 mol or more of the metal ion is bound per 1 mol of the human antibody κ type light chain.
Aviation fuel characterised in that it comprises from 20 to 99% by weight of a fraction of a compound, obtained by chemical conversion starting from natural and renewable, optionally hydroxylated, monounsaturated fatty acids with a chain length at least equal to 14 carbon atoms, chosen from nitriles and esters of medium fatty acids comprising from 7 to 12 carbon atoms per molecule, and from 1 to 80% by weight of a kerosene resulting from oil meeting the world specifications for aviation fuels, and in that the esters of medium fatty acids comprise an odd number of carbon atoms or in that they comprise 10 and 12 carbon atoms and are ω-unsaturated.
A power strip comprising: a second busbar electrically connected to a power source; a plurality of electrical outlets into which a plurality of power plugs are respectively insertable; and a plurality of distribution bars which are branched out from the second busbar and respectively supply the plurality of electrical outlets with electric currents of the power source; characterized by comprising a plurality of electric current measurement units respectively measuring the electric current flowing through the plurality of distribution bars; and holding pieces provided integrally with the second busbar, wherein the main surfaces of the plurality of distribution bars are held between the holding pieces. a second busbar electrically connected to a power source; a plurality of electrical outlets into which a plurality of power plugs are respectively insertable; and a plurality of distribution bars which are branched out from the second busbar and respectively supply the plurality of electrical outlets with electric currents of the power source; characterized by comprising a plurality of electric current measurement units respectively measuring the electric current flowing through the plurality of distribution bars; and holding pieces provided integrally with the second busbar, wherein the main surfaces of the plurality of distribution bars are held between the holding pieces.
A main dispensing container for dispensing liquid and semi-liquid substances, suitable for placing more substance therein and for filling of a secondary dispensing container which is suitable for containing a smaller amount of substance therein and connectable to the main dispensing container, said main dispensing container comprising an outlet, a main pump, an atomizer, wherein the main pump is mounted in the outlet of the main dispensing container, wherein the atomizer is connected to the main pump outside of the main dispensing container, and the atomizer is equipped with a valve for controlling of opening and closing of a nozzle of the atomizer, wherein in an upper part of the atomizer there is an upper valve located for connecting a channel of the main pump with space outside the outlet of the main dispensing container, characterized in that it further comprises a sliding mechanism for filing the secondary dispensing container, said sliding mechanism is positioned at the outlet of the main dispensing container, wherein the possibility of filling the secondary dispensing container depends on the position of the sliding mechanism that can moved between two positions, that is an upper position and a lower position, wherein in the upper position filing of the secondary dispensing container is prevented, and wherein in the lower position filing of the secondary dispensing container is possible.
A method for producing a recombinant orb weaving spider silk protein in yeast cells, comprising constructing an expression vector comprising a DNA sequence encoding the spider silk recombinant protein, transforming the yeast cells with the expression vector, and expressing the orb weaving spider silk protein in the transformed cells, characterized in that the expression vector comprises a DNA sequence encoding the orb weaving spider silk recombinant protein fused with a sequence encoding a ubiquitin-like protein occupying an N-terminal position with respect to the spider silk recombinant protein within the fused protein.
Nozzle body for a fuel injector for injecting fuel into the combustion chamber of an internal combustion engine, wherein the nozzle body is formed as a single piece, wherein, in the nozzle body, there is formed a pressure chamber which can be supplied with highly pressurized fuel via a feed bore, wherein a nozzle needle which opens or closes at least one injection opening is arranged in longitudinally movable fashion in the pressure chamber, wherein the at least one injection opening is formed in a nozzle tip of the nozzle body, wherein cooling channels which can be flowed through by cooling medium are formed in the nozzle body, and the cooling channels comprise an elongate inflow channel and an elongate outflow channel for the feed and discharge of cooling medium into the cooling matrix and out of the cooling matrix, characterized in that the cooling channels comprise a cooling matrix which is formed in the nozzle tip, and the cooling channels have a kidney-shaped inlet port and a kidney-shaped outlet port, wherein the kidney-shaped inlet port and the kidney-shaped outlet port are formed on an end side of the nozzle body which is situated opposite the nozzle tip, and the kidney-shaped inlet port transitions into the inflow channel and the kidney-shaped outlet port transitions into the outflow channel.
A synchronous reluctance machine comprising a rotor, and an axis which is supported with bearings to rotate inside the stator and to which a rotor frame has been attached, the frame being made of magnetically non-conductive material, wherein the frame has holes, and magnetically conductive bar-shaped pieces (6, 8, 26, 28) extending through the rotor frame from the outer surface of the rotor's magnetic pole to the outer surface of the adjacent pole have been fitted to the holes, and that the whole length of each bar-shaped piece (6,8) is surrounded by the non-magnetic material inside the rotor frame.
Command and alert device having an actuator, a seal with a sealing region and a clamping region, and a front plate, wherein the command and alert device has an actuator with a tubular body, the tubular body being guided through the front plate and the seal being arranged between the tubular body and the front plate, characterized in that the seal is a sealing element which is formed from multiple components, wherein an enveloping component is formed as an outer region and a second, skeleton-forming component is formed as an inner region of the sealing element, wherein the outer region is exposed to environmental influences and is therefore composed of a resistant material and also does not have any flexural yield, wherein this inner region is produced from flexible sealing material and is not directly exposed to environmental influences and wherein thermoplastic elastomers are used as components, such as for example polyurethane, polyamide, polycarbonate and polypropylene.
A device for cooling air to a heat exchanger, in particular for a facility for converting heat into electricity, the device comprising a structure provided with a sensitive material and configured so as to be able to be communicated with the outside in order to circulate ambient air through the sensitive material and perform heat exchange with the sensitive material, characterised in that the structure further comprising a humidity adsorbing material, to trap humidity of external air circulated and passing through the structure, the adsorbing material being a material adapted to desorb water at a temperature lower than 50°C, for a relative humidity lower than 50%.
A fluid reservoir (R; R') including a bottom and a duct that defines an opening, a sealing ball being engaged in the duct in such a manner as to close the opening hermetically, the ball being movable by an external thrust member (45; 46) in such a manner as to cause the ball to fall by gravity to the bottom of the reservoir so that the opening is thus unblocked; the fluid reservoir being characterized in that the duct is connected to a dip tube that extends into the proximity of the bottom of the reservoir, the duct presenting a diameter that is smaller than the diameter of the dip tube, the ball being in leaktight engagement in the duct before being pushed into the dip tube in which it falls freely to the bottom of the reservoir.
A computer-implemented method for predicting a growth rate of an aortic aneurysm, the method comprising: generating a volumetric model based on non-contrast computed tomography, CT, image data, analysing one or more geometric measures of the volumetric model of at least a portion of an aorta having an aortic aneurysm, wherein the one or more geometric measures comprises at least a radius of a curvature of a path through the volumetric model and an undulation index; determining, from the analysis, a numerical growth rate prediction for the aortic aneurysm. generating a volumetric model based on non-contrast computed tomography, CT, image data, analysing one or more geometric measures of the volumetric model of at least a portion of an aorta having an aortic aneurysm, wherein the one or more geometric measures comprises at least a radius of a curvature of a path through the volumetric model and an undulation index; determining, from the analysis, a numerical growth rate prediction for the aortic aneurysm.
A catheter system for heating a body tissue region adjacent a body lumen, the body tissue region having both a first tissue type (60; 120; 220) and a second tissue type (110; 210), the system comprising: an elongate flexible catheter body having a proximal end and a distal end with an axis therebetween; an energy delivery portion (20, 34) proximate the distal end; an energy source coupled to the energy delivery portion (20, 34); and a processor coupled to the energy source, the processor configured to control a pulse characteristic of pulsed energy transmitted from the energy source to the energy delivery portion, characterized in that the processor is configured to tailor the amount of time between pulses to allow the first tissue type (45; 60; 120; 220) to dissipate the heat applied to it adequately to avoid thermal damage to the first tissue type (45; 60; 120; 220) by the pulsed energy, while the heat applied to the second tissue type (48; 110; 210) is retained by the second tissue type (48; 110; 210), thus selectively accumulating energy in the body tissue region without knowledge of tissue topography. an elongate flexible catheter body having a proximal end and a distal end with an axis therebetween; an energy delivery portion (20, 34) proximate the distal end; an energy source coupled to the energy delivery portion (20, 34); and a processor coupled to the energy source, the processor configured to control a pulse characteristic of pulsed energy transmitted from the energy source to the energy delivery portion, characterized in that the processor is configured to tailor the amount of time between pulses to allow the first tissue type (45; 60; 120; 220) to dissipate the heat applied to it adequately to avoid thermal damage to the first tissue type (45; 60; 120; 220) by the pulsed energy, while the heat applied to the second tissue type (48; 110; 210) is retained by the second tissue type (48; 110; 210), thus selectively accumulating energy in the body tissue region without knowledge of tissue topography.
A method of generating a transpositional modulation signal, comprising the steps of: receiving a carrier signal; receiving an input signal; generating quarter-cycle waveforms (301, 302, 303, 304) based on the input signal, adjacent quarter-cycle waveforms having complementary values so that a constant amplitude exists between the negative peak value and the positive peak value of each cycle; and assembling the generated quarter-cycle waveforms into a continuous output signal, wherein the output signal includes a first inflection (a1, a2, b1, b2, c1, c2) between adjacent quarter-cycles forming a segment of the output signal between a first negative peak and a positive peak (Pk+), and wherein the output signal includes a second inflection (a1, a2, b1, b2, c1, c2) between adjacent quarter-cycles forming a segment of the output signal between the positive peak (Pk+) and a second negative peak (Pk-), wherein said first and second inflections represent a level of said input signal. receiving a carrier signal; receiving an input signal; generating quarter-cycle waveforms (301, 302, 303, 304) based on the input signal, adjacent quarter-cycle waveforms having complementary values so that a constant amplitude exists between the negative peak value and the positive peak value of each cycle; and assembling the generated quarter-cycle waveforms into a continuous output signal, wherein the output signal includes a first inflection (a1, a2, b1, b2, c1, c2) between adjacent quarter-cycles forming a segment of the output signal between a first negative peak and a positive peak (Pk+), and wherein the output signal includes a second inflection (a1, a2, b1, b2, c1, c2) between adjacent quarter-cycles forming a segment of the output signal between the positive peak (Pk+) and a second negative peak (Pk-), wherein said first and second inflections represent a level of said input signal.
A method for wireless communications performed by a user equipment, UE, comprising: receiving from a base station a first subframe of a first subframe configuration; determining whether a neighboring base station is operating according to a second subframe configuration during the first subframe, the second subframe configuration being different from the first subframe configuration, wherein the first subframe configuration is one of a downlink subframe, an uplink subframe or a special subframe, and the second subframe configuration is one of the downlink subframe, the uplink subframe or the special subframe; and modifying interference cancellation or interference suppression, IC/IS, operations for the first subframe based on the determination. receiving from a base station a first subframe of a first subframe configuration; determining whether a neighboring base station is operating according to a second subframe configuration during the first subframe, the second subframe configuration being different from the first subframe configuration, wherein the first subframe configuration is one of a downlink subframe, an uplink subframe or a special subframe, and the second subframe configuration is one of the downlink subframe, the uplink subframe or the special subframe; and modifying interference cancellation or interference suppression, IC/IS, operations for the first subframe based on the determination.
A method of manufacturing a packaging material comprising the steps of; - providing a paperboard substrate with a grammage of at least 180 gsm and comprising cellulosic fibres, - treating at least one surface of said substrate with a binder and with a metal salt, - printing at least a part of said treated surface with ink, - applying at least one polymer layer on said printed surface, - wherein said binder comprises polyDADMAC and microfibrillated cellulose or polyDADMAC and starch, and wherein said polymer layer comprises polyethylene polyethylene terephthalate, polypropylene and/or polylactic acid and wherein said metal salt is calcium chloride, aluminum chloride, magnesium chloride, magnesium bromide, calcium bromide, barium chloride, calcium nitrate, magnesium nitrate, barium nitrate, calcium acetate, magnesium acetate or barium acetate or a mixture of these and applied in an amount of 0.01 - 1 g/m2. - providing a paperboard substrate with a grammage of at least 180 gsm and comprising cellulosic fibres, - treating at least one surface of said substrate with a binder and with a metal salt, - printing at least a part of said treated surface with ink, - applying at least one polymer layer on said printed surface, - wherein said binder comprises polyDADMAC and microfibrillated cellulose or polyDADMAC and starch, and
A method implemented on a computing system for transmitting visual content to a remote client, comprising: identifying (304; 404) changing visual content, wherein the changing visual content is identified based on at least one of: update frequency, aspect ratio, window identification, and process name; determining (308, 408) if computing resources are available on the computing system to handle the changing visual content; if computing resources are available, manipulating (310, 410) uncompressed data forming the changing visual content based on the available resources, wherein manipulating the changing visual content comprises at least one of: compressing data forming the changing visual content and dropping frames; and communicating (312, 416) the manipulated changing visual content to the remote client. identifying (304; 404) changing visual content, wherein the changing visual content is identified based on at least one of: update frequency, aspect ratio, window identification, and process name; determining (308, 408) if computing resources are available on the computing system to handle the changing visual content; if computing resources are available, manipulating (310, 410) uncompressed data forming the changing visual content based on the available resources, wherein manipulating the changing visual content comprises at least one of: compressing data forming the changing visual content and dropping frames; and communicating (312, 416) the manipulated changing visual content to the remote client.