mhurhangee/patent-ind-claim-en huggingface dataset:
Feed processing machine for the production of a dry feed product from a dry feed raw mixture, with a feed section in which the raw mixture is fed, with a hammer mill connected to the feed section for grinding at least a part of the raw mixture supplied, and with a discharge section connected to the hammer mill , in which the product is discharged, characterised in that a windsifter is provided between the feed section and the discharge section for classifying particles with a fineness below a predetermined upper limit, the fineness of the particles meaning a maximum diameter of the particles, wherein the windsifter is incorporated in the machine between the feed section and the discharge section in such a way that the raw mixture can be fed to the windsifter before grinding by the hammer mill . with a feed section in which the raw mixture is fed, with a hammer mill connected to the feed section for grinding at least a part of the raw mixture supplied, and with a discharge section connected to the hammer mill , in which the product is discharged, characterised in that a windsifter is provided between the feed section and the discharge section for classifying particles with a fineness below a predetermined upper limit, the fineness of the particles meaning a maximum diameter of the particles, wherein the windsifter is incorporated in the machine between the feed section and the discharge section in such a way that the raw mixture can be fed to the windsifter before grinding by the hammer mill .
A method performed by a terminal, the method comprising: receiving, from a base station via a higher layer signaling, first information indicating an index of a secondary cell for a physical uplink control channel, PUCCH, cell switching in a PUCCH group, and second information indicating whether the PUCCH cell switching based on dynamic indication in downlink control information, DCI, is enabled; receiving , from the base station, DCI scheduling a physical downlink shared channel, PDSCH, wherein the DCI includes a field indicating a PUCCH cell; receiving , from the base station, the PDSCH based on the DCI; and transmitting , to the base station, the PUCCH with hybrid automatic repeat request acknowledgement, HARQ-ACK, information on the PUCCH cell in the PUCCH group based on the field. receiving, from a base station via a higher layer signaling, first information indicating an index of a secondary cell for a physical uplink control channel, PUCCH, cell switching in a PUCCH group, and second information indicating whether the PUCCH cell switching based on dynamic indication in downlink control information, DCI, is enabled; receiving , from the base station, DCI scheduling a physical downlink shared channel, PDSCH, wherein the DCI includes a field indicating a PUCCH cell; receiving , from the base station, the PDSCH based on the DCI; and transmitting , to the base station, the PUCCH with hybrid automatic repeat request acknowledgement, HARQ-ACK, information on the PUCCH cell in the PUCCH group based on the field.
A NOx removal catalyst powder for high-temperature flue gas having a temperature of equal to or higher than 500°C and containing nitrogen oxide, characterized in that the NOx removal catalyst powder is one of: i) tungsten oxide supported on a complex oxide carrier containing titanium oxide and a silicon oxide with number of molecular layers of tungsten oxide, WO 3 , being 1.2, in a quantity of 16 parts by weight WO 3 per 100 parts by weight of complex oxide carrier and the initial stage specific surface area is 114.4 m 2 /g; ii) tungsten oxide supported on a complex oxide carrier containing titanium oxide and a zirconium compound with number of molecular layers of the tungsten oxide, WO 3 , being 1.5, in a quantity of 16 parts by weight WO 3 per 100 parts by weight of complex oxide carrier, and the initial stage specific surface area is 91.0 m 2 /g; iii) tungsten oxide supported on a complex oxide carrier containing titanium oxide and a zirconium compound with number of molecular layers of the tungsten oxide (WO 3 ) being 3.5, in a quantity of 24 parts by weight WO 3 per 100 parts by weight of complex oxide carrier, and the initial stage specific surface area is 65.1 m 2 /g; iv) tungsten oxide supported on a complex oxide carrier containing titanium oxide and a zirconium compound with number of molecular layers of the tungsten oxide (WO 3 ) being 1.2, in a quantity of 12 parts by weight WO 3 per 100 parts by weight of complex oxide carrier, and the initial stage specific surface area is 77.0 m 2 /g. i) tungsten oxide supported on a complex oxide carrier containing titanium oxide and a silicon oxide with number of molecular layers of tungsten oxide, WO 3 , being 1.2, in a quantity of 16 parts by weight WO 3 per 100 parts by weight of complex oxide carrier and the initial stage specific surface area is 114.4 m 2 /g; ii) tungsten oxide supported on a complex oxide carrier containing titanium oxide and a zirconium compound with number of molecular layers of the tungsten oxide, WO 3 , being 1.5, in a quantity of 16 parts by weight WO 3 per 100 parts by weight of complex oxide carrier, and the initial stage specific surface area is 91.0 m 2 /g; iii) tungsten oxide supported on a complex oxide carrier containing titanium oxide and a zirconium compound with number of molecular layers of the tungsten oxide (WO 3 ) being 3.5, in a quantity of 24 parts by weight WO 3 per 100 parts by weight of complex oxide carrier, and the initial stage specific surface area is 65.1 m 2 /g; iv) tungsten oxide supported on a complex oxide carrier containing titanium oxide and a zirconium compound with number of molecular layers of the tungsten oxide (WO 3 ) being 1.2, in a quantity of 12 parts by weight WO 3 per 100 parts by weight of complex oxide carrier, and the initial stage specific surface area is 77.0 m 2 /g.
A spindle unit comprising: an angular contact ball bearing including an outer ring having an outer ring raceway on an inner peripheral surface, an inner ring having an inner ring raceway on an outer peripheral surface, and rolling elements provided rollably between the outer ring raceway and the inner ring raceway , whereby a spindle is borne rotatably in a housing ; characterized by a grease supply system for supplying a grease to an inside of the bearing ; wherein the grease supply system supplies the grease such that a supply amount in one shot is set to 0.035 cc to 0.1 cc; wherein the grease supply system contains at least one supply hole provided in the outer ring on a counterbored side thereof to supply the grease to an inside of the bearing , the supply hole passes through the outer ring in the radial direction, and an annular groove formed on an outer periphery of the outer ring to contain the supply hole ; and wherein a pair of outer annular grooves are formed on an outer periphery of the outer ring on both sides of the supply hole in an axial direction, and an O ring is fitted into the pair of outer annular grooves respectively, wherein the supply hole is opened on an inner diameter surface of the outer ring in a location that is adjacent to the outer ring raceway , and wherein the supply hole has a circular cross section that has a diameter of 0.1 to 5 mm. an angular contact ball bearing including an outer ring having an outer ring raceway on an inner peripheral surface, an inner ring having an inner ring raceway on an outer peripheral surface, and rolling elements provided rollably between the outer ring raceway and the inner ring raceway , whereby a spindle is borne rotatably in a housing ; characterized by a grease supply system for supplying a grease to an inside of the bearing ; wherein the grease supply system supplies the grease such that a supply amount in one shot is set to 0.035 cc to 0.1 cc; wherein the grease supply system contains at least one supply hole provided in the outer ring on a counterbored side thereof to supply the grease to an inside of the bearing , the supply hole passes through the outer ring in the radial direction, and an annular groove formed on an outer periphery of the outer ring to contain the supply hole ; and wherein a pair of outer annular grooves are formed on an outer periphery of the outer ring on both sides of the supply hole in an axial direction, and an O ring is fitted into the pair of outer annular grooves respectively, wherein the supply hole is opened on an inner diameter surface of the outer ring in a location that is adjacent to the outer ring raceway , and wherein the supply hole has a circular cross section that has a diameter of 0.1 to 5 mm.
A seat operation range setting system comprising: a lower rail disposed on a frame mounted to a floor panel of a chassis; an upper rail installed so as to be slidable along the lower rail ; a contactless sensor connected to the upper rail , the contactless sensor being configured to sense a bracket disposed at one side of the lower rail ; and a controller configured to receive an ON/OFF signal of the contactless sensor and to set a virtual limit of a seat , characterized in that the controller sets a distance between a front virtual limit and a rear virtual limit based on an extension length of the bracket . a lower rail disposed on a frame mounted to a floor panel of a chassis; an upper rail installed so as to be slidable along the lower rail ; a contactless sensor connected to the upper rail , the contactless sensor being configured to sense a bracket disposed at one side of the lower rail ; and a controller configured to receive an ON/OFF signal of the contactless sensor and to set a virtual limit of a seat ,
Adduct of a compound according to formula (I) and a compound having at least one isocyanate group wherein R 1 and R 2 are independently of one another selected from the group consisting of hydrogen, methyl, ethyl, propyl, isopropyl, butyl, isobutyl, branched C5-alkyl, unbranched C5-alkyl, branched C6-alkyl, unbranched C6-alkyl, branched C7-alkyl and unbranched C7-alkyl; R 5 is selected from the group consisting of propylene, butylene, pentylene and a radical of formula (II), preferably from butylene and the radical of formula (II); wherein A in formula (II) is selected from the group consisting of O, S and NR 3 , wherein R 3 is selected from the group consisting of hydrogen, methyl, ethyl, propyl, isopropyl, butyl and isobutyl; and B is independently of A selected from the group consisting of OH, SH NHR 4 and NH 2 , wherein R 4 is selected from the group consisting of methyl, ethyl and propyl, wherein the adduct is characterized in that it no longer comprises any free isocyanate-reactive groups. wherein R 1 and R 2 are independently of one another selected from the group consisting of hydrogen, methyl, ethyl, propyl, isopropyl, butyl, isobutyl, branched C5-alkyl, unbranched C5-alkyl, branched C6-alkyl, unbranched C6-alkyl, branched C7-alkyl and unbranched C7-alkyl; R 5 is selected from the group consisting of propylene, butylene, pentylene and a radical of formula (II), preferably from butylene and the radical of formula (II); wherein A in formula (II) is selected from the group consisting of O, S and NR 3 , wherein R 3 is selected from the group consisting of hydrogen, methyl, ethyl, propyl, isopropyl, butyl and isobutyl; and
A communication method, characterized by comprising: transmitting (S210), by a terminal device, first indication information to a network device, wherein the first indication information is used to indicate a location area in which the terminal device is currently located in a cell managed by the network device; receiving (S230), by the terminal device, second indication information transmitted by the network device, wherein the second indication information is used to indicate a first target waveform, the first target waveform being determined (S220), by the network device from at least two optional uplink waveforms according to the location area in which the terminal device is currently located; and performing (S240), by the terminal device, an uplink transmission using the first target waveform; wherein the first target waveform is determined according to the location area in which the terminal device is currently located when the terminal device is not in a radio resource control, RRC, connected mode. transmitting (S210), by a terminal device, first indication information to a network device, wherein the first indication information is used to indicate a location area in which the terminal device is currently located in a cell managed by the network device; receiving (S230), by the terminal device, second indication information transmitted by the network device, wherein the second indication information is used to indicate a first target waveform, the first target waveform being determined (S220), by the network device from at least two optional uplink waveforms according to the location area in which the terminal device is currently located; and performing (S240), by the terminal device, an uplink transmission using the first target waveform; wherein the first target waveform is determined according to the location area in which the terminal device is currently located when the terminal device is not in a radio resource control, RRC, connected mode.
Method for manufacturing a multi-capillary packing from a substrate of ablative preforms, each preform being suitable for forming, during its ablation, a conduit enabling the convection of a fluid in said packing, said method comprising the following steps: (a) assembling the ablative preforms in the form of at least one bundle; (b) creating a gel between the ablative preforms of the bundle by hydrolysis of an organometallic precursor in the presence of a quantity of water not exceeding ten times the stoichiometric quantity required for complete hydrolysis of said organometallic precursor; (c) ablating the preforms, preferably by pyrolysis, oxidation, vaporization, melting and drainage, mechanical extraction or chemical attack, so as to form a plurality of conduits in the gel. (a) assembling the ablative preforms in the form of at least one bundle; (b) creating a gel between the ablative preforms of the bundle by hydrolysis of an organometallic precursor in the presence of a quantity of water not exceeding ten times the stoichiometric quantity required for complete hydrolysis of said organometallic precursor; (c) ablating the preforms, preferably by pyrolysis, oxidation, vaporization, melting and drainage, mechanical extraction or chemical attack, so as to form a plurality of conduits in the gel.
A PET (Positron Emission Tomography)-MRI (Magnetic Resonance Imaging) apparatus , comprising: a magnetostatic magnet configured to be a seamless structure and generate a static magnetic field in a bore having a cylindrical shape; a transmitting radio frequency coil configured to apply a radio frequency pulse on a subject placed in the static magnetic field; a gradient coil configured to apply a gradient magnetic field on the subject on which the radio frequency pulse is applied; a receiving radio frequency coil configured to detect a magnetic resonance signal emitted from the subject due to application of the radio frequency pulse and the gradient magnetic field on the subject; an MR image reconstruction unit configured to reconstruct an MR image based on the magnetic resonance signal detected by the receiving radio frequency coil ; a first detector and a second detector each configured to have a ring shape and detect gamma rays emitted from a positron emitting radionuclide injected into the subject; and a PET image reconstruction unit configured to reconstruct a PET image from projection data produced based on the gamma rays detected by the first and the second detectors , characterized in that the first and the second detectors are spaced apart in an axial direction of the bore with a space therebetween encompassing a center of the static magnetic field, the space being configured to avoid the effective imaging region of the MR image. a magnetostatic magnet configured to be a seamless structure and generate a static magnetic field in a bore having a cylindrical shape; a transmitting radio frequency coil configured to apply a radio frequency pulse on a subject placed in the static magnetic field; a gradient coil configured to apply a gradient magnetic field on the subject on which the radio frequency pulse is applied; a receiving radio frequency coil configured to detect a magnetic resonance signal emitted from the subject due to application of the radio frequency pulse and the gradient magnetic field on the subject; an MR image reconstruction unit configured to reconstruct an MR image based on the magnetic resonance signal detected by the receiving radio frequency coil ; a first detector and a second detector each configured to have a ring shape and detect gamma rays emitted from a positron emitting radionuclide injected into the subject; and a PET image reconstruction unit configured to reconstruct a PET image from projection data produced based on the gamma rays detected by the first and the second detectors , characterized in that the first and the second detectors are spaced apart in an axial direction of the bore with a space therebetween encompassing a center of the static magnetic field, the space being configured to avoid the effective imaging region of the MR image.
Method for identifying a winding fault in a transformer of an electrical energy supply grid, in which - phase-related current measurement values are detected on the high-voltage side (A) and the low-voltage side (B) of the transformer ; and - a fault signal is generated when a winding fault in the transformer has been identified using the current measurement values; wherein - phase-related voltage measurement values are detected on the high-voltage and the low-voltage side of the transformer ; and - the fault signal is generated when a winding fault in the transformer has been identified using the current and voltage measurement values; characterized in that - respective negative-phase-sequence system currents are determined from the phase-related current measurement values both for the high-voltage side (A) and for the low-voltage side (B) of the transformer and - respective negative-phase-sequence system voltages are determined from the phase-related voltage measurement values both for the high-voltage side (A) and for the low-voltage side (B) of the transformer ; and - a winding fault is identified based on the respective negative-phase-sequence system currents and negative-phase-sequence system voltages. - phase-related current measurement values are detected on the high-voltage side (A) and the low-voltage side (B) of the transformer ; and - a fault signal is generated when a winding fault in the transformer has been identified using the current measurement values; wherein - phase-related voltage measurement values are detected on the high-voltage and the low-voltage side of the transformer ; and - the fault signal is generated when a winding fault in the transformer has been identified using the current and voltage measurement values; characterized in that - respective negative-phase-sequence system currents are determined from the phase-related current measurement values both for the high-voltage side (A) and for the low-voltage side (B) of the transformer and - respective negative-phase-sequence system voltages are determined from the phase-related voltage measurement values both for the high-voltage side (A) and for the low-voltage side (B) of the transformer ; and - a winding fault is identified based on the respective negative-phase-sequence system currents and negative-phase-sequence system voltages.
A high-temperature resistant foam with < 10% by weight of carbodiimide structures, obtainable by a process in which a) an aromatic polyisocyanate is mixed with b) at least one aromatic compound having at least two epoxy groups, c) at least one catalyst accelerating the isocyanate/epoxide reaction, f) chemical and/or physical blowing agents, and e) auxiliary agents and/or additives, to form a reaction mixture, wherein the equivalent ratio of isocyanate groups to epoxy groups is from 1.2:1 to 500:1, and the reaction mixture is reacted into a foam, characterized in that said auxiliary agents and/or additives e) include at least one e1) phosphate liquid at 60 °C and under 1 bar, and optionally contain multifunctional compounds containing hydroxy or amino groups e2), wherein the amount of component a) is such that the equivalent ratio of isocyanate groups of component a) to the total of the epoxy groups of component b), hydroxy groups and/or amino groups of component e2) and the hydroxy groups that may be present in component b) is at least 1,2:1, and that said chemical and/or physical blowing agents f) include at least one carboxylic acid selected from formic acid and acetic acid, or that said blowing agent f) consists of water and optionally one or more compounds selected from the group containing hydrocarbons, fluorocarbons, and fluorohydrocarbons; and that one or more compounds selected from the group consisting of the polyglycidyl ethers of bisphenol A, the polyglycidyl ethers of bisphenol F, polyglycidyl ethers of novolacs and polyepoxy compounds based on aromatic amines are employed as component b).
A method for producing milk foam, in particular for the preparation of drinks that contain milk foam in a coffee machine, a gaseous medium, in particular air, being able to be delivered to the milk being conveyed by a pump , and the milk/air mixture that is formed being conveyed to an outlet for milk foam or drinks containing milk foam, the milk foam that is produced having a specific consistency, which is determined and is monitored by a regulating process and/or can be changed by adjusting, whereby the temperature of the milk foam serves as parameter for the adjustment of the target value sensor , characterised in that the consistency of the milk foam that is produced is determined and is monitored by the regulating process and/or can be changed by this adjustment, whereby this is achieved by changing the pump speed.
A method for network slice reselection comprising: determining, by a global connection and mobility management, G-CMM, function , whether a slice reselection triggering event associated with a mobile device attached to a first slice has occurred; sending, by the G-CMM function, to a slice selection function, SSF , a message to select a second slice to serve the mobile device; selecting, by the SSF, a second slice to serve the mobile device attached to the first slice and sending information about the second slice to the G-CMM function; obtaining, by the G-CMM function, the information on the second slice from the SSF; and instructing , by the G-CMM function, the mobile device, which is attached to the first slice, to connect to the second slice, wherein the slice reselection triggering event comprises one of the following: a slice management event, a movement of the mobile device, and a change in the service requirements of the mobile device. determining, by a global connection and mobility management, G-CMM, function , whether a slice reselection triggering event associated with a mobile device attached to a first slice has occurred; sending, by the G-CMM function, to a slice selection function, SSF , a message to select a second slice to serve the mobile device; selecting, by the SSF, a second slice to serve the mobile device attached to the first slice and sending information about the second slice to the G-CMM function; obtaining, by the G-CMM function, the information on the second slice from the SSF; and instructing , by the G-CMM function, the mobile device, which is attached to the first slice, to connect to the second slice, wherein the slice reselection triggering event comprises one of the following: a slice management event, a movement of the mobile device, and a change in the service requirements of the mobile device.