mhurhangee/ep-ind-claims huggingface dataset:
A method, comprising: in response to receiving a request for accessing a target frequency band utilized by a macro base station (Macro BS) and a low power node from a frequency-shared system, transmitting a first notification to the macro base station, such that the macro base station deactivates the target frequency band, and transmitting a second notification to the low power node, such that the low power node extends its coverage; and receiving information on the extended coverage from the low power node, wherein the target frequency band is an authorized shared access frequency band, and wherein the frequency-shared system is a system licensed to utilize the authorized shared access frequency band. in response to receiving a request for accessing a target frequency band utilized by a macro base station (Macro BS) and a low power node from a frequency-shared system, transmitting a first notification to the macro base station, such that the macro base station deactivates the target frequency band, and transmitting a second notification to the low power node, such that the low power node extends its coverage; and transmitting a first notification to the macro base station, such that the macro base station deactivates the target frequency band, and transmitting a second notification to the low power node, such that the low power node extends its coverage; and receiving information on the extended coverage from the low power node, wherein the target frequency band is an authorized shared access frequency band, and wherein the frequency-shared system is a system licensed to utilize the authorized shared access frequency band.
A tau aggregation inhibitor for use to prevent and/or treat a tauopathy, the inhibitor comprising: a 4-substituted catechol structure compound having, at position 4 of its catechol ring, substituent R which is any one of: an amino group NHR' wherein R' is a hydrogen atom, an alkyl group, a cycloalkyl group, an aryl group, an aralkyl group or a heterocyclic group; a hydroxyl group and an alkoxy group; or a salt of this compound. a 4-substituted catechol structure compound having, at position 4 of its catechol ring, substituent R which is any one of: an amino group NHR' wherein R' is a hydrogen atom, an alkyl group, a cycloalkyl group, an aryl group, an aralkyl group or a heterocyclic group; a hydroxyl group and an alkoxy group; an amino group NHR' wherein R' is a hydrogen atom, an alkyl group, a cycloalkyl group, an aryl group, an aralkyl group or a heterocyclic group; a hydroxyl group and an alkoxy group; or a salt of this compound.
A method by a terminal in a wireless communication system, comprising: receiving, from a first base station associated with a first cell group, a control message for configuring a second cell group associated with a second base station; duplicating a packet data convergence protocol, PDCP, protocol data unit, PDU and delivering the PDCP PDU, from a PDCP entity of the terminal, to both of a first radio link control, RLC, entity and a second RLC entity, in case that the control message includes first information indicating that a duplication transmission using two RLC entities associated with one PDCP entity is activated, wherein the PDCP entity of the terminal is associated with the first RLC entity of the terminal and the second RLC entity of the terminal; and delivering the PDCP PDU from the first RLC entity to a first medium access control, MAC, entity of the terminal and from the second RLC entity to a second MAC entity of the terminal, wherein the first RLC entity of the two RLC entities and the first MAC entity are associated with the first cell group and the second RLC entity of the two RLC entities and the second MAC entity are associated with the second cell group, and wherein the PDCP PDU is transmitted to the first base station associated with the first cell group from the first MAC entity, and to the second base station associated with the second cell group from the second MAC entity. receiving, from a first base station associated with a first cell group, a control message for configuring a second cell group associated with a second base station; duplicating a packet data convergence protocol, PDCP, protocol data unit, PDU and delivering the PDCP PDU, from a PDCP entity of the terminal, to both of a first radio link control, RLC, entity and a second RLC entity, in case that the control message includes first information indicating that a duplication transmission using two RLC entities associated with one PDCP entity is activated, wherein the PDCP entity of the terminal is associated with the first RLC entity of the terminal and the second RLC entity of the terminal; and delivering the PDCP PDU from the first RLC entity to a first medium access control, MAC, entity of the terminal and from the second RLC entity to a second MAC entity of the terminal, wherein the first RLC entity of the two RLC entities and the first MAC entity are associated with the first cell group and the second RLC entity of the two RLC entities and the second MAC entity are associated with the second cell group, and wherein the PDCP PDU is transmitted to the first base station associated with the first cell group from the first MAC entity, and to the second base station associated with the second cell group from the second MAC entity.
A combustor (400; 400') for a gas turbine engine, the combustor comprising: a combustion chamber (401; 401'); at least one fuel spray nozzle (402; 402') operable to deliver a fuel-air mixture into the combustion chamber (401; 401'), wherein during operation of the gas turbine engine the fuel-air mixture is combusted in the combustion chamber (401; 401'), thereby producing a combustion flame (404; 404'); and a detector; characterised in that the combustor further comprises: a microwave generator (405; 405') coupled to a waveguide (406; 406') arranged to guide microwaves from the microwave generator (405; 405') into the combustion chamber (401; 401') such that the microwaves are incident on at least a portion of the combustion flame (404; 404'); and the detector is operable to detect at least a portion of the microwaves reflected by the combustion flame (404; 404') and/or atomised fuel droplets, wherein the detector comprises at least one antenna (408; 408') located at a position for receiving microwaves reflected by the combustion flame (404; 404') and/or atomised fuel droplets. a combustion chamber (401; 401'); at least one fuel spray nozzle (402; 402') operable to deliver a fuel-air mixture into the combustion chamber (401; 401'), wherein during operation of the gas turbine engine the fuel-air mixture is combusted in the combustion chamber (401; 401'), thereby producing a combustion flame (404; 404'); and a detector; a microwave generator (405; 405') coupled to a waveguide (406; 406') arranged to guide microwaves from the microwave generator (405; 405') into the combustion chamber (401; 401') such that the microwaves are incident on at least a portion of the combustion flame (404; 404'); and the detector is operable to detect at least a portion of the microwaves reflected by the combustion flame (404; 404') and/or atomised fuel droplets, wherein the detector comprises at least one antenna (408; 408') located at a position for receiving microwaves reflected by the combustion flame (404; 404') and/or atomised fuel droplets.
A starter device for cranking an internal combustion engine - having a driveshaft defining along its main extension a longitudinal centre axis, which driveshaft comprises an external toothing, - having a pinion shaft which comprises a pot-like driveshaft receptacle in which the driveshaft is received, - having a transmission device equipped for transmitting a torque from the driveshaft to the pinion shaft, which transmission device comprises an internal toothing which can be meshed with the external toothing, - wherein the transmission device and the pinion shaft, in an actuation movement are jointly axially adjustable with respect to the longitudinal centre axis between an engaged position, in which the internal toothing and the external toothing engage into one another for transmitting the torque, and a basic position axially spaced apart thereto, in which the internal toothing and the external toothing are disengaged, - wherein the external toothing comprises teeth with tip edges, which in the engaged position and in the actuation movement are spaced apart with respect to the teeth of the internal toothing, and/or - wherein the internal toothing comprises teeth with tip edges, which in the engaged position and in the actuation movement are spaced apart with respect to the teeth of the external toothing, wherein a toothing profile of the teeth of the internal toothing is realised by a trapezoidal profile; characterised in that a toothing profile of the teeth of the external toothing is realised by an involute profile. - having a driveshaft defining along its main extension a longitudinal centre axis, which driveshaft comprises an external toothing, - having a pinion shaft which comprises a pot-like driveshaft receptacle in which the driveshaft is received, - having a transmission device equipped for transmitting a torque from the driveshaft to the pinion shaft, which transmission device comprises an internal toothing which can be meshed with the external toothing, - wherein the transmission device and the pinion shaft, in an actuation movement are jointly axially adjustable with respect to the longitudinal centre axis between an engaged position, in which the internal toothing and the external toothing engage into one another for transmitting the torque, and a basic position axially spaced apart thereto, in which the internal toothing and the external toothing are disengaged, - wherein the external toothing comprises teeth with tip edges, which in the engaged position and in the actuation movement are spaced apart with respect to the teeth of the internal toothing, and/or - wherein the internal toothing comprises teeth with tip edges, which in the engaged position and in the actuation movement are spaced apart with respect to the teeth of the external toothing, wherein a toothing profile of the teeth of the internal toothing is realised by a trapezoidal profile;
Use of flexible paper sheet material for forming a packaging for a plurality of optical elements, characterized in that the flexible paper sheet material is configured to radially hold a circumference of the optical element, the flexible paper sheet material further comprising radially inward protruding paper sheet material portions for axial support of a rim of the optical element.
An electronic device comprising: an antenna array including a plurality of elements (510 ~540) arranged to perform beamforming, wherein a first number corresponds to a total number of the plurality of elements; a processor operatively connected to the antenna array; and a memory, wherein the memory stores instructions that, when executed by the processor, cause the electronic device to: identify a second number of the plurality of elements (510 ~540) that are performing the beamforming, wherein the rest of the plurality of elements are not performing the beamforming, and the second number is less than the first number, determine a second backoff value based on the second number, and perform a power backoff operation according to the second backoff value. an antenna array including a plurality of elements (510 ~540) arranged to perform beamforming, wherein a first number corresponds to a total number of the plurality of elements; a processor operatively connected to the antenna array; and a memory, wherein the memory stores instructions that, when executed by the processor, cause the electronic device to: identify a second number of the plurality of elements (510 ~540) that are performing the beamforming, wherein the rest of the plurality of elements are not performing the beamforming, and the second number is less than the first number, determine a second backoff value based on the second number, and perform a power backoff operation according to the second backoff value. identify a second number of the plurality of elements (510 ~540) that are performing the beamforming, wherein the rest of the plurality of elements are not performing the beamforming, and the second number is less than the first number, determine a second backoff value based on the second number, and perform a power backoff operation according to the second backoff value.
A solar cell, comprising: a substrate having a front surface and a rear surface opposite to the front surface, wherein the substrate includes a base and an emitter; a first passivation layer, a second passivation layer and a third passivation layer formed on the front surface; and a tunneling oxide layer and a doped conductive layer formed on the rear surface and in a direction away from the rear surface, wherein the rear surface is a non-pyramid textured surface, and wherein the doped conductive layer and the substrate have a doping element of a same conductivity type; wherein the front surface is a pyramid textured surface, the first passivation layer is configured to cover the emitter and includes a dielectric material, the second passivation layer is formed between the first passivation layer and the third passivation layer and includes a first silicon nitride Si m N n material, a ratio of n/m ranges from 0.5 to 1, the third passivation layer includes a silicon oxynitride SiO i N j material, and a ratio of j/i ranges from 0.1 to 0.6; wherein the first passivation layer has a thickness ranged from 3nm to 10nm in a direction perpendicular to the front surface, the dielectric material is an aluminum oxide Al x O y material, and a ratio of y/x ranges from 1.1 to 1.5; and wherein the y/x, n/m, and j/i refer to atomic ratios. a substrate having a front surface and a rear surface opposite to the front surface, wherein the substrate includes a base and an emitter; a first passivation layer, a second passivation layer and a third passivation layer formed on the front surface; and a tunneling oxide layer and a doped conductive layer formed on the rear surface and in a direction away from the rear surface, wherein the rear surface is a non-pyramid textured surface, and wherein the doped conductive layer and the substrate have a doping element of a same conductivity type; wherein the front surface is a pyramid textured surface, the first passivation layer is configured to cover the emitter and includes a dielectric material, the second passivation layer is formed between the first passivation layer and the third passivation layer and includes a first silicon nitride Si m N n material, a ratio of n/m ranges from 0.5 to 1, the third passivation layer includes a silicon oxynitride SiO i N j material, and a ratio of j/i ranges from 0.1 to 0.6; wherein the first passivation layer has a thickness ranged from 3nm to 10nm in a direction perpendicular to the front surface, the dielectric material is an aluminum oxide Al x O y material, and a ratio of y/x ranges from 1.1 to 1.5; and wherein the y/x, n/m, and j/i refer to atomic ratios.
A flight vehicle comprising: a fuselage; and an engine mechanically coupled to the fuselage; wherein the engine includes: an air inlet (20, 120, 220, 320); an isolator downstream of the air inlet; and a combustor downstream of the isolator; wherein the air inlet compresses incoming airflow through a flow channel defined by the air inlet, down to a throat (26, 140) of minimum cross-section area; wherein the air inlet includes a fin (32, 132, 232, 233, 332) protruding into the flow channel, with at least part of the fin upstream of the throat; wherein the fin has a spine where the fin has its maximum protrusion into the flow channel; wherein the fin protrudes out of an inner wall of the air inlet (20,120,220,320), smoothly, without any abrupt changes or discontinuities in the slope of the fin, optionally except at the spine along the length of the fin; and wherein the fin has curved walls (48, 50) on either side of the spine. a fuselage; and an engine mechanically coupled to the fuselage; wherein the engine includes: an air inlet (20, 120, 220, 320); an isolator downstream of the air inlet; and a combustor downstream of the isolator; an air inlet (20, 120, 220, 320); an isolator downstream of the air inlet; and a combustor downstream of the isolator; wherein the air inlet compresses incoming airflow through a flow channel defined by the air inlet, down to a throat (26, 140) of minimum cross-section area; wherein the air inlet includes a fin (32, 132, 232, 233, 332) protruding into the flow channel, with at least part of the fin upstream of the throat; wherein the fin has a spine where the fin has its maximum protrusion into the flow channel; wherein the fin protrudes out of an inner wall of the air inlet (20,120,220,320), smoothly, without any abrupt changes or discontinuities in the slope of the fin, optionally except at the spine along the length of the fin; and wherein the fin has curved walls (48, 50) on either side of the spine.
A ridge waveguide for performing infrared waveguide spectroscopy to determine absorption by glucose in a wavelength band of 2 to 2.4 μm on a biological sample containing particulates, such as cells, wherein the ridge waveguide comprises two or more ridges with a gap width between the top surface of the ridges such that the gap width is approximately one wavelength or less in the wavelength band of 2 to 2.4 μm and is less than the smallest dimension of the particulates, and wherein the ridge waveguide is configured with the gaps between the ridges at the top surface of the ridges being narrower than the remainder portion of the gaps between the ridges, thereby preventing entry of the particulates into the gap between the ridges where there is a stronger electric field but still allowing the biological sample to fill the gap between the ridges and interact with the field from a waveguide mode of the ridge waveguide.
A system for auto detection of Joint Test Action Group "JTAG" debuggers/emulators, comprising: a debugger; a master device, wherein the master device is configured to transmit reset signals and detect a programming signal from the debugger, wherein the programming signal is a Test-Reset State "TRST∗" signal and the "TRST∗ "signal is an active low signal; and a plurality of slave devices, where the slave devices are coupled to the debugger and the master device, wherein the master device and the slave devices have independent JTAG programming; and characterized in that the slave devices are not on a same "JTAG" chain. a debugger; a master device, wherein the master device is configured to transmit reset signals and detect a programming signal from the debugger, wherein the programming signal is a Test-Reset State "TRST∗" signal and the "TRST∗ "signal is an active low signal; and a plurality of slave devices, where the slave devices are coupled to the debugger and the master device, wherein the master device and the slave devices have independent JTAG programming; and characterized in that the slave devices are not on a same "JTAG" chain.
A system that leverages Universal Mobile Telecommunication System, UMTS, Terrestrial Radio Access Network, UTRAN, features to facilitate more efficient or robust communication with a femtocell network, comprising: an interface component that is configured to interface to a set of home nodeB, HNB, devices that employ a UMTS localized common pilot channel; a management component arranged to assign respective target IDs to subsets of HNB devices, wherein HNB devices in a subset of HNB devices have a common characteristic based upon which the target ID is assigned to the subset of HNB devices; a reception component arranged to receive a message that includes a target ID, wherein the target ID identifies a subset of HNB devices included in the set of HNB devices; and a filter component arranged to facilitate transmission of the message only to the subset of HNB devices identified by the target ID. an interface component that is configured to interface to a set of home nodeB, HNB, devices that employ a UMTS localized common pilot channel; a management component arranged to assign respective target IDs to subsets of HNB devices, wherein HNB devices in a subset of HNB devices have a common characteristic based upon which the target ID is assigned to the subset of HNB devices; a reception component arranged to receive a message that includes a target ID, wherein the target ID identifies a subset of HNB devices included in the set of HNB devices; and a filter component arranged to facilitate transmission of the message only to the subset of HNB devices identified by the target ID.
Polymer composition comprising an ethylene homopolymer and an ethylene copolymer comprising a comonomer in an amount of at least 0.55 mol% with respect to the total amount of monomer in the ethylene copolymer, wherein the ethylene copolymer has a higher weight average molecular weight than the ethylene homopolymer, the polymer composition has a density in the range of 0.950-0.965 g/cm 3 measured according to ASTM D 1505, a melt flow rate MFR 2 of at least 0.3 g/10 minutes measured according to ASTM D 1238, a weight average molecular weight of at least 100,000 g/mol, a viscosity at an angular frequency of 0.01 [1/s], η 0.01, of at least 20,000 Pa.s measured using controlled stress rheometer model MCR-301 from Anton-Paar with the geometry being plate-plate 25 mm diameter at the measurement gap 1 mm, the dynamic oscillatory shear performing at angular frequence 0.01-600 rad/s at 190°C under nitrogen atmosphere, the sample preparation being performed to circular disk 25 mm by compression molding at 190°C and the viscosity at 0,01 [1/s] being obtained from complex viscosity at a specific shear rate of 0.01 [1/s]; wherein the polymer composition has an Isothermal Crystallization Half-Time, which is less than 10 minute at 123°C,wherein the Isothermal Crystallization Half-Time at 123°C is measured by DSC is measured under the following conditions: heating the sample from 30°C to 200°C at a heating rate of 50°C/min and holding for 5 min, then cooling down to 123°C at a cooling rate of 50°C/min and holding for 60 min; and a Full Notch Creep Test of at least 60 hours according to ISO 16770; the comonomer is selected from the group consisting of C4-10 alpha-olefins, preferably 1-butene, 1-pentene, 1-hexene, 1-heptene, 1-octene or mixtures thereof; wherein the amount of co-monomer is in the range of 0.55 mol% to 1.5 mol, % with respect to the total amount of monomer in the ethylene copolymer; wherein the melt flow rate MFR2 of the polymer composition is in the range of 0.3-2.0 g/10 minutes. the polymer composition has an Isothermal Crystallization Half-Time, which is less than 10 minute at 123°C,wherein the Isothermal Crystallization Half-Time at 123°C is measured by DSC is measured under the following conditions: heating the sample from 30°C to 200°C at a heating rate of 50°C/min and holding for 5 min, then cooling down to 123°C at a cooling rate of 50°C/min and holding for 60 min; and a Full Notch Creep Test of at least 60 hours according to ISO 16770; the comonomer is selected from the group consisting of C4-10 alpha-olefins, preferably 1-butene, 1-pentene, 1-hexene, 1-heptene, 1-octene or mixtures thereof; wherein the amount of co-monomer is in the range of 0.55 mol% to 1.5 mol, % with respect to the total amount of monomer in the ethylene copolymer; wherein the melt flow rate MFR2 of the polymer composition is in the range of 0.3-2.0 g/10 minutes.