mhurhangee/ep-ind-claims huggingface dataset:
A method for wireless communication, comprising: identifying,at a transmitting device, a phase noise metric associated with a receiving device; and identifying, at the transmitting device, a transmitter phase noise metric the transmitting device is expected to generate and contribute to transmissions based at least on current configuration information of the transmitting device; selecting, at the transmitting device, a plurality of pilot tones adjacent to each other, and a plurality of null tones for a transmission to the receiving device based at least on the identified phase noise metric and the identified transmitter phase noise metric, the plurality of null tones being adjacent to and on both sides of the pilot tones in the frequency domain. identifying,at a transmitting device, a phase noise metric associated with a receiving device; and identifying, at the transmitting device, a transmitter phase noise metric the transmitting device is expected to generate and contribute to transmissions based at least on current configuration information of the transmitting device; selecting, at the transmitting device, a plurality of pilot tones adjacent to each other, and a plurality of null tones for a transmission to the receiving device based at least on the identified phase noise metric and the identified transmitter phase noise metric, the plurality of null tones being adjacent to and on both sides of the pilot tones in the frequency domain.
A method for transmitting a Sounding Reference Signal SRS and uplink control information (708, 712, 709, 710) in a sub-frame comprising a first slot and a second slot by a terminal in a wireless communication system, the method comprising: transmitting the SRS in a predetermined portion of the first slot; and transmitting the uplink control information (708, 712, 709, 710) by applying a first orthogonal sequence in the first slot and a second orthogonal sequence in the second slot, wherein the length of the first orthogonal sequence is shorter than the length of the second orthogonal sequence. transmitting the SRS in a predetermined portion of the first slot; and transmitting the uplink control information (708, 712, 709, 710) by applying a first orthogonal sequence in the first slot and a second orthogonal sequence in the second slot,
Device for adjusting the inclination of the semi-transparent glass sheet of a head-up display, comprising: - a thumbwheel which, when rotated, drives an actuating arm of said movable glass sheet about a first axis of rotation, characterized in that said device also comprises - a lever that is rotatable about a second axis of rotation, said lever comprising two parts (43, 45) that extend radially from said second axis of rotation, each of these two parts cooperating under mechanical stress with the thumbwheel and with said actuating arm, respectively, in order to transmit the rotation of said thumbwheel to said arm, said two parts having at least one flexible region (42, 44) for altering their geometry under the effect of said stress. - a thumbwheel which, when rotated, drives an actuating arm of said movable glass sheet about a first axis of rotation, characterized in that said device also comprises - a lever that is rotatable about a second axis of rotation, said lever comprising two parts (43, 45) that extend radially from said second axis of rotation, each of these two parts cooperating under mechanical stress with the thumbwheel and with said actuating arm, respectively, in order to transmit the rotation of said thumbwheel to said arm, said two parts having at least one flexible region (42, 44) for altering their geometry under the effect of said stress.
An apparatus comprising: a detector array configured to receive electromagnetic 'EM' radiation from a target object, the detector array comprising one or more detectors, the detector array organized into a plurality of segments, each segment comprising one or more rows of the detectors perpendicular to the designed scan axis, each segment comprising one or more columns of the detectors parallel to the designed scan axis; each of the one or more columns comprising one or more sub-columns: wherein detector boundaries are defined by fields and the fields are exerted by field manipulators operatively attached to the detector array between the sub-columns, wherein activating the field manipulators creates electric fields that sort carriers into signal receivers; a readout circuit comprising a number of detector boundary selection components, each one of the number of detector boundary selection components being configured to activate one of at least two field manipulators to define the detector boundary in a conventional configuration or to activate another one of the at least two field manipulators to define the detector boundary in a second configuration; and one or more processors configured to perform the following for each segment of the detector array: if a correction signal is received, activate selected ones of the number of detector boundary selection components to select the detector boundaries in the second configuration; otherwise, use detector boundaries in the conventional configuration; and obtain, from each detector, a plurality of signals. wherein detector boundaries are defined by fields and the fields are exerted by field manipulators operatively attached to the detector array between the sub-columns, wherein activating the field manipulators creates electric fields that sort carriers into signal receivers; a readout circuit comprising a number of detector boundary selection components, each one of the number of detector boundary selection components being configured to activate one of at least two field manipulators to define the detector boundary in a conventional configuration or to activate another one of the at least two field manipulators to define the detector boundary in a second configuration; and one or more processors configured to perform the following for each segment of the detector array: if a correction signal is received, activate selected ones of the number of detector boundary selection components to select the detector boundaries in the second configuration; otherwise, use detector boundaries in the conventional configuration; and obtain, from each detector, a plurality of signals. if a correction signal is received, activate selected ones of the number of detector boundary selection components to select the detector boundaries in the second configuration; otherwise, use detector boundaries in the conventional configuration; and obtain, from each detector, a plurality of signals.
A fluid delivery system, comprising: a proportioner system having one or more smart hoses and a heating system configured to heat the one or more smart hoses, wherein the proportioner system is configured to proportion fluids at a specified ratio to provide an insulative spray foam, and wherein a first smart hose of the one or more smart hoses comprises: a fluid conduit configured to deliver a fluid; and a first electrically conductive element (104; 108) configured to deliver electricity through a length of the first smart hose; and a smart hose fitting configured to fluidly couple the first smart hose to a second smart hose of the one or more smart hoses and to deliver electricity between the first smart hose and the second smart hose, wherein the first electrically conductive element is configured to deliver the electricity as a data signal or a combination of electrical power and a data signal, wherein the data signal comprises information incoming from the proportioner system, and wherein the proportioner system is configured to deliver a first fluid from one or more storage tanks through the first smart hose. a proportioner system having one or more smart hoses and a heating system configured to heat the one or more smart hoses, wherein the proportioner system is configured to proportion fluids at a specified ratio to provide an insulative spray foam, and wherein a first smart hose of the one or more smart hoses comprises: a fluid conduit configured to deliver a fluid; and a first electrically conductive element (104; 108) configured to deliver electricity through a length of the first smart hose; and a fluid conduit configured to deliver a fluid; and a first electrically conductive element (104; 108) configured to deliver electricity through a length of the first smart hose; and a smart hose fitting configured to fluidly couple the first smart hose to a second smart hose of the one or more smart hoses and to deliver electricity between the first smart hose and the second smart hose, wherein the first electrically conductive element is configured to deliver the electricity as a data signal or a combination of electrical power and a data signal, wherein the data signal comprises information incoming from the proportioner system, and wherein the proportioner system is configured to deliver a first fluid from one or more storage tanks through the first smart hose.
Plasma generating apparatus for manufacturing patterned devices comprising: - a plasma reactor chamber; - a gas feed assembly for introducing an input gas into the plasma reactor chamber at a chosen pressure; - a first electrode assembly and a second electrode assembly placed in the plasma reactor chamber, the first electrode assembly arranged to be spaced apart from the second electrode assembly by an inter-electrode volume, and - an electrical power supply for generating a voltage difference between the first electrode assembly and the second electrode assembly; wherein - the first electrode assembly comprises a plurality of protrusions and a plurality of recesses (12, 13, 14, 15, 16, 17,18), - the second electrode assembly is configured for receiving a substrate having a surface facing the plurality of protrusions and the plurality of recesses (12, 13, 14, 15, 16,17,18); characterized in that: - the protrusions and the recesses (12, 13, 14, 15, 16, 17, 18) are dimensioned and arranged to be set at respective distances (D1, D2) from the surface of the substrate so as to generate a plurality of spatially isolated plasma zones (21, 22) located selectively either between said surface of the substrate and said plurality of recesses (12, 13, 14, 15, 16, 17, 18) or between said surface of the substrate and said plurality of protrusions at the chosen pressure of the input gas. - a plasma reactor chamber; - a gas feed assembly for introducing an input gas into the plasma reactor chamber at a chosen pressure; - a first electrode assembly and a second electrode assembly placed in the plasma reactor chamber, the first electrode assembly arranged to be spaced apart from the second electrode assembly by an inter-electrode volume, and - an electrical power supply for generating a voltage difference between the first electrode assembly and the second electrode assembly; wherein - the first electrode assembly comprises a plurality of protrusions and a plurality of recesses (12, 13, 14, 15, 16, 17,18), - the second electrode assembly is configured for receiving a substrate having a surface facing the plurality of protrusions and the plurality of recesses (12, 13, 14, 15, 16,17,18); characterized in that: - the protrusions and the recesses (12, 13, 14, 15, 16, 17, 18) are dimensioned and arranged to be set at respective distances (D1, D2) from the surface of the substrate so as to generate a plurality of spatially isolated plasma zones (21, 22) located selectively either between said surface of the substrate and said plurality of recesses (12, 13, 14, 15, 16, 17, 18) or between said surface of the substrate and said plurality of protrusions at the chosen pressure of the input gas. - the protrusions and the recesses (12, 13, 14, 15, 16, 17, 18) are dimensioned and arranged to be set at respective distances (D1, D2) from the surface of the substrate so as to generate a plurality of spatially isolated plasma zones (21, 22) located selectively either between said surface of the substrate and said plurality of recesses (12, 13, 14, 15, 16, 17, 18) or between said surface of the substrate and said plurality of protrusions at the chosen pressure of the input gas.
Pneumatic hammer for de-coring of foundry castings; wherein the hammer comprises: - a jacket comprising: ∘ an inner chamber; ∘ an inlet circuit for the entry of compressed air; and ∘ an outlet circuit for the exit of compressed air; - a motion mechanism, for generating a vibratory motion under the action of compressed air; said mechanism being arranged within the inner chamber of the jacket; - a punch or beater, connected to said motion mechanism, for coming into contact with the casting to be subjected to de-coring; wherein the hammer is characterized in that the jacket is made of an alloy comprising aluminium, silicon and magnesium, wherein: - the specific weight of the alloy is comprised between 2.64kg/dm 3 and 2.86kg/dm 3, percentages in weight are: - aluminium: between 91.2% and 95.8%; - silicon: between 4% and 8%; - magnesium: between 0.2% and 0.8%. - a jacket comprising: ∘ an inner chamber; ∘ an inlet circuit for the entry of compressed air; and ∘ an outlet circuit for the exit of compressed air; ∘ an inner chamber; ∘ an inlet circuit for the entry of compressed air; and ∘ an outlet circuit for the exit of compressed air; - a motion mechanism, for generating a vibratory motion under the action of compressed air; said mechanism being arranged within the inner chamber of the jacket; - a punch or beater, connected to said motion mechanism, for coming into contact with the casting to be subjected to de-coring; - the specific weight of the alloy is comprised between 2.64kg/dm 3 and 2.86kg/dm 3, - aluminium: between 91.2% and 95.8%; - silicon: between 4% and 8%; - magnesium: between 0.2% and 0.8%.
A spot welding apparatus for spot welding a stacked body of a plurality of workpieces (172a, 174a, 176a) including the outermost workpiece, comprising a first welding tip and a second welding tip, between which the stacked body is interposed, a pressing member (138a, 138b) configured to press the outermost workpiece of the stacked body, the first welding tip and the pressing member (138a, 138b) being brought into contact with different portions of the outermost workpiece, and a holder configured to hold the first welding tip and the pressing member (138a, 138b), which is displaced by a holder displacement mechanism, characterized in that the holder has a bore (150a, 150b), an air cylinder (146a, 146b) is being provided in the holder for displacing the pressing member (138a, 138b), and the spot welding apparatus further comprises a sleeve (152a, 152b) inserted into the bore (150a, 150b), wherein the air cylinder (146a, 146b) is formed in the sleeve (152a, 152b) and comprises: a piston rod (148a, 148b) connected to the pressing member (138e, 138b) at one end; and a piston (156a, 156b) connected to the other end of the piston rod (148a, 148b), the piston (156a, 156b) being in sliding contact with the sleeve (152a, I52b), and the sleeve (I52a, 152b) is having an insulating property so that the piston (156e, 156b) is electrically isolated from the holder. a piston rod (148a, 148b) connected to the pressing member (138e, 138b) at one end; and a piston (156a, 156b) connected to the other end of the piston rod (148a, 148b), the piston (156a, 156b) being in sliding contact with the sleeve (152a, I52b), and the sleeve (I52a, 152b) is having an insulating property so that the piston (156e, 156b) is electrically isolated from the holder.
A method for assembling a protein having a plurality of subunits, the method comprising: (a) providing a plurality of first subunits; (b) providing a plurality of second subunits, wherein the second subunits are modified with respect to the first subunits; (c) contacting the first subunits with the second subunits in a first ratio to form a plurality of proteins having the first subunits and the second subunits, wherein the plurality of proteins have a plurality of ratios of the first subunits to the second subunits; and (d) fractionating the plurality of proteins to enrich proteins that have a second ratio of the first subunits to the second subunits, wherein the second ratio is one second subunit per (n-1) first subunits, wherein 'n' is the number of subunits comprising the protein; wherein the second subunits comprise a chemically reactive moiety, wherein the method further comprises (e) performing a reaction to attach an entity to the chemically reactive moiety using non-covalent interaction. (a) providing a plurality of first subunits; (b) providing a plurality of second subunits, wherein the second subunits are modified with respect to the first subunits; (c) contacting the first subunits with the second subunits in a first ratio to form a plurality of proteins having the first subunits and the second subunits, wherein the plurality of proteins have a plurality of ratios of the first subunits to the second subunits; and (d) fractionating the plurality of proteins to enrich proteins that have a second ratio of the first subunits to the second subunits, wherein the second ratio is one second subunit per (n-1) first subunits, wherein 'n' is the number of subunits comprising the protein; wherein the second subunits comprise a chemically reactive moiety, wherein the method further comprises (e) performing a reaction to attach an entity to the chemically reactive moiety using non-covalent interaction.
Composition comprising: - at least one protein belonging to the bHLH family, chosen among NGN2, ASCL1, and NEUROD1 and/or - at least a nucleic acid molecule coding for said bHLH proteins, for its use for the treatment of central nervous system tumors and neuroendocrine tumors. - at least one protein belonging to the bHLH family, chosen among NGN2, ASCL1, and NEUROD1 and/or - at least a nucleic acid molecule coding for said bHLH proteins,
A portable electronic device (100, 100B, 100C), comprising: a first body; a first hinge; a second body pivotally connected to the first body via the first hinge; a second hinge; a third body pivotally connected to the second body via the second hinge, and the second body is located between the first body and the third body; and an input module, characterised in that the input module is slidably disposed on the third body and covering the second body, and configured such that as the input module is slid away from the second hinge, the second body is uncovered by the input module. a first body; a first hinge; a second body pivotally connected to the first body via the first hinge; a second hinge; a third body pivotally connected to the second body via the second hinge, and the second body is located between the first body and the third body; and an input module, characterised in that the input module is slidably disposed on the third body and covering the second body, and configured such that as the input module is slid away from the second hinge, the second body is uncovered by the input module.
An electro-optic assembly comprising a polyurethane layer, the electro-optic assembly being characterized in that the polyurethane layer includes an end-capping cyclic carbonate of Formula: wherein: R 1 is selected from the group consisting of hydrogen, optionally substituted alkyl, optionally substituted heteroalkyl, optionally substituted aryl, optionally substituted heteroaryl, halide, and hydroxyl; L is a linking group, optionally absent; n is 1-4; and represents the location of a bond to the polyurethane. R 1 is selected from the group consisting of hydrogen, optionally substituted alkyl, optionally substituted heteroalkyl, optionally substituted aryl, optionally substituted heteroaryl, halide, and hydroxyl; L is a linking group, optionally absent; n is 1-4; and represents the location of a bond to the polyurethane.
A supercharger (1a, 1b) with an electric motor comprising: a rotary shaft; a compressor wheel fixed to an end part of the rotary shaft; a compressor housing for housing the compressor wheel; an electric motor comprising a motor rotor fixedly provided in the rotary shaft and a motor stator disposed around the motor rotor, and giving rotation force to the rotary shaft; a motor housing (6a, 6b) for housing the electric motor; a first grease-sealed bearing for rotatably supporting the rotary shaft; and a bearing housing (4a, 4b) for housing the first grease-sealed bearing, wherein the bearing housing (4a, 4b) is disposed between the compressor housing and the motor housing (6a, 6b), and characterized in that inside the bearing housing (4a, 4b), a cooling passage (18a, 18b) through which a cooling medium flows is provided in a circumferential direction on an outer circumferential side of the first grease-sealed bearing, and the first grease-sealed bearing is cooled by making flow the cooling medium through the cooling passage (18a, 18b). a rotary shaft; a compressor wheel fixed to an end part of the rotary shaft; a compressor housing for housing the compressor wheel; an electric motor comprising a motor rotor fixedly provided in the rotary shaft and a motor stator disposed around the motor rotor, and giving rotation force to the rotary shaft; a motor housing (6a, 6b) for housing the electric motor; a first grease-sealed bearing for rotatably supporting the rotary shaft; and a bearing housing (4a, 4b) for housing the first grease-sealed bearing, wherein the bearing housing (4a, 4b) is disposed between the compressor housing and the motor housing (6a, 6b), and characterized in that inside the bearing housing (4a, 4b), a cooling passage (18a, 18b) through which a cooling medium flows is provided in a circumferential direction on an outer circumferential side of the first grease-sealed bearing, and the first grease-sealed bearing is cooled by making flow the cooling medium through the cooling passage (18a, 18b).
A device for grilling and cooking food comprising a steel container having side walls and a largely horizontal heating surface, possibly arranged sloping gently inwards, for cooking food, said heating surface being connected to the side walls, characterized in that the container comprises a grate-like intermediate base arranged parallel to the heating surface (6, 15), wherein the heating surface (6, 15) is arranged along at least one of the side walls of the container and that a drawer is provided on the underside of the intermediate base, which drawer is mounted in a sliding manner and can be pulled out through a drawer opening in one of the side walls.