mhurhangee/ep-ind-claims huggingface dataset:
Method for operating a powerline communication network, said powerline communication network having a radio receiver for receiving radio signals comprising a radio service and powerline communication network nodes (3 to 7) being connected via said network with said radio receiver, comprising the steps of: - supplying frequency information to said network nodes (3 to 7) of said powerline communication network, said frequency information defining a frequency range needed by said radio receiver to receive radio signals, - wherein said network nodes (3 to 7) are operated in accordance to said frequency information so as to communicate with each other at frequencies lying outside said frequency range of said radio receiver, - thereby improving the reception quality of said radio receiver. - supplying frequency information to said network nodes (3 to 7) of said powerline communication network, said frequency information defining a frequency range needed by said radio receiver to receive radio signals, - wherein said network nodes (3 to 7) are operated in accordance to said frequency information so as to communicate with each other at frequencies lying outside said frequency range of said radio receiver, - thereby improving the reception quality of said radio receiver.
A method of making a sink countertop for an aircraft galley or lavatory, the method comprising: (a) obtaining at least first and second layers, wherein the first layer includes at least first and second alignment openings defined therein, and wherein the second layer includes at least a first and second alignment openings defined therein, (b) disposing adhesive onto at least one of an upper surface of the first layer or a bottom surface of the second layer, (c) stacking the second layer on the first layer, (d) aligning the first alignment opening on the first layer with the first alignment opening on the second layer and aligning the second alignment opening on the first layer and the second alignment opening on the second layer, (e) inserting a first alignment rod through the first alignment opening in the first layer and the first alignment opening in the second layer and inserting a second alignment rod through the second alignment opening in the first layer and the second alignment opening in the second layer, (f) allowing the adhesive to dry to form a first stack assembly, and (g) machining the first stack assembly to remove at least a portion of a surface of the first layer and at least a portion of a surface of the second layer to form a first finished assembly. (a) obtaining at least first and second layers, wherein the first layer includes at least first and second alignment openings defined therein, and wherein the second layer includes at least a first and second alignment openings defined therein, (b) disposing adhesive onto at least one of an upper surface of the first layer or a bottom surface of the second layer, (c) stacking the second layer on the first layer, (d) aligning the first alignment opening on the first layer with the first alignment opening on the second layer and aligning the second alignment opening on the first layer and the second alignment opening on the second layer, (e) inserting a first alignment rod through the first alignment opening in the first layer and the first alignment opening in the second layer and inserting a second alignment rod through the second alignment opening in the first layer and the second alignment opening in the second layer, (f) allowing the adhesive to dry to form a first stack assembly, and (g) machining the first stack assembly to remove at least a portion of a surface of the first layer and at least a portion of a surface of the second layer to form a first finished assembly.
Centrifugal pump, in particular a water pump, which is designed as a radial pump or mixed flow pump, comprising an impeller which is arranged in a housing so as to be rotatable about an axis and is connected to a drive shaft, which impeller comprises an impeller main body having impeller blades and an impeller cover body, wherein, for adjustment of the impeller outlet width (b) of the impeller, the impeller main body and the impeller cover body are axially displaceable relative to one another via an adjusting device, wherein the impeller main body is arranged in an axially displaceable manner on the drive shaft or the impeller cover body, and wherein the adjusting device is operatively connected to the impeller main body, wherein the impeller cover body has groove-shaped pockets on the front side facing the impeller main body for accommodating the impeller blades, characterised in that the impeller blades are curved three-dimensionally - at least in the region of the suction mouth.
A network management system for managing a logical network that spans a plurality of physical sites (120, 125), the network management system comprising: a global network manager for receiving global logical network configuration data for the plurality of physical sites (120, 125); and at each of the physical sites: a set of computing devices (135, 140, 150, 155), each computing device executing i) a set of forwarding elements to implement the logical network at the physical site and ii) a local controller for configuring the set of forwarding elements on the computing device; a local network manager (110, 115) for receiving a logical network configuration specific to the physical site from the global network manager; and a set of central controllers (130, 145) for receiving configuration data based on the logical network configuration specific to the physical site from the local network manager (110, 115) and distributing the logical network configuration data to the local controllers that execute on the computing devices (135, 140, 150, 155) at the physical site. a global network manager for receiving global logical network configuration data for the plurality of physical sites (120, 125); and at each of the physical sites: a set of computing devices (135, 140, 150, 155), each computing device executing i) a set of forwarding elements to implement the logical network at the physical site and ii) a local controller for configuring the set of forwarding elements on the computing device; a local network manager (110, 115) for receiving a logical network configuration specific to the physical site from the global network manager; and a set of central controllers (130, 145) for receiving configuration data based on the logical network configuration specific to the physical site from the local network manager (110, 115) and distributing the logical network configuration data to the local controllers that execute on the computing devices (135, 140, 150, 155) at the physical site. a set of computing devices (135, 140, 150, 155), each computing device executing i) a set of forwarding elements to implement the logical network at the physical site and ii) a local controller for configuring the set of forwarding elements on the computing device; a local network manager (110, 115) for receiving a logical network configuration specific to the physical site from the global network manager; and a set of central controllers (130, 145) for receiving configuration data based on the logical network configuration specific to the physical site from the local network manager (110, 115) and distributing the logical network configuration data to the local controllers that execute on the computing devices (135, 140, 150, 155) at the physical site.
Process for the preparation of compounds of general formula Li a-b M 1 b Fe 1-c M 2 c P d-e M 3 e O x, wherein Fe has the oxidation state +2 and M 1, M 2, M 3, a, b, c, d, e and x are: M 1: Na, K, Rb and/or Cs, M 2: Mn, Mg, Al, Ca, Ti, Co, Ni, Cr, V, M 3: Si, S, F a: 0.8 - 1.9, b: 0 - 0.3, c: 0 - 0.9, d: 0.8 - 1.9, e: 0-0.5, x: 1.0 - 8, depending on the amount and oxidation state of Li, M 1, M 2, P, M 3, wherein compounds of general formula are neutrally charged, comprising the following steps providing an essentially aqueous mixture comprising at least one lithium-comprising compound, at least one iron-comprising compound, in which iron has the oxidation state 0, and at least one M 1 -comprising compound, if present, and/or at least one M 2 -comprising compound, if present, and/or least one M 3 -comprising compound, if present, and at least one compound comprising at least one phosphorous atom in oxidation state +5, and heating the mixture obtained in step at a temperature of 100 to 500 °C and at an autogeneous pressure to obtain a compound of general formula. M 1: Na, K, Rb and/or Cs, M 2: Mn, Mg, Al, Ca, Ti, Co, Ni, Cr, V, M 3: Si, S, F a: 0.8 - 1.9, b: 0 - 0.3, c: 0 - 0.9, d: 0.8 - 1.9, e: 0-0.5, x: 1.0 - 8, depending on the amount and oxidation state of Li, M 1, M 2, P, M 3, wherein compounds of general formula are neutrally charged, comprising the following steps providing an essentially aqueous mixture comprising at least one lithium-comprising compound, at least one iron-comprising compound, in which iron has the oxidation state 0, and at least one M 1 -comprising compound, if present, and/or at least one M 2 -comprising compound, if present, and/or least one M 3 -comprising compound, if present, and at least one compound comprising at least one phosphorous atom in oxidation state +5, and heating the mixture obtained in step at a temperature of 100 to 500 °C and at an autogeneous pressure to obtain a compound of general formula. providing an essentially aqueous mixture comprising at least one lithium-comprising compound, at least one iron-comprising compound, in which iron has the oxidation state 0, and at least one M 1 -comprising compound, if present, and/or at least one M 2 -comprising compound, if present, and/or least one M 3 -comprising compound, if present, and at least one compound comprising at least one phosphorous atom in oxidation state +5, and heating the mixture obtained in step at a temperature of 100 to 500 °C and at an autogeneous pressure to obtain a compound of general formula.
A marine pipeline-installation tower comprising at least two opposing legs, and one or more tensioning assemblies supported by the opposing legs for surrounding and supporting an intermediate pipeline during installation, at least one of the tensioning assemblies comprising two or more discrete segments (32, 34) being a first segment and at least a second segment, characterised in that the first segment and at least the second segment are moveable between: a closed position wherein the segments (32, 34) are conjoined to form an enclosing pipeline annulus able to support the pipeline between the legs of the tower; and an open position wherein at least two of the segments (32, 34) are disconnected and separate. a closed position wherein the segments (32, 34) are conjoined to form an enclosing pipeline annulus able to support the pipeline between the legs of the tower; and an open position wherein at least two of the segments (32, 34) are disconnected and separate.
An arabinogalacto-rhamnogalacturonan compound comprising a 1,4-linked galacturonic acid (GAlA) and methyl galacturonate (MeGalA) residues backbone linked to branched heteropolymers of alternating oligomers of α-1,2 linked rhamnose and α-1,4-linked GAlA residues, the rhamnose residues carrying a primary branching of oligomers of 1,4-β-D-galactose residues, 1,5-α-L-arabinose residues, or combinations thereof, wherein the oligomer of 1,4-β-D-galactose residues, 1,5-α-L-arabinose residues or combinations thereof represents at least 8 molar percent of the total carbohydrate molar content, wherein the compound has a degree of methoxylation ranging from 40% to 70%, wherein the compound has a methyl galacturonate to galacturonic acid ratio ranging from 2:1 to 1:2, and wherein the compound is capable of reducing the secretion of TNF-alpha cytokine from monocytes stressed with endotoxin.
A combustor for a gas turbine, comprising: a transition piece; a liner coupled with the transition piece by an elastic support unit; a flow sleeve configured to enclose a periphery of the transition piece and the liner; and a helicoidal structure for promoting cooling of the liner applied in an annular space of a double-shell structure formed of the liner and the flow sleeve to cool a duct assembly, the helicoidal structure comprising: a helicoidal rib protruding from a surface of the liner to guide the cooling compressed air at a predetermined angle with respect to an axial direction of the liner wherein the helicoidal rib forms a first cooling passage along which main-cooling compressed air flows, the combustor being characterized in that the helicoidal rib comprises a plurality of cooling holes forming a plurality of second cooling passages through which auxiliary-cooling compressed air flows, wherein the second cooling passages guide the flow of the auxiliary-cooling compressed air along the axial direction; and wherein the second cooling passages induce a flow of the auxiliary-cooling compressed air through the cooling holes, and the flow of the auxiliary-cooling compressed air is derived from a flow of the main-cooling compressed air in the first cooling passage. a transition piece; a liner coupled with the transition piece by an elastic support unit; a flow sleeve configured to enclose a periphery of the transition piece and the liner; and a helicoidal structure for promoting cooling of the liner applied in an annular space of a double-shell structure formed of the liner and the flow sleeve to cool a duct assembly, the helicoidal structure comprising: a helicoidal rib protruding from a surface of the liner to guide the cooling compressed air at a predetermined angle with respect to an axial direction of the liner wherein the helicoidal rib forms a first cooling passage along which main-cooling compressed air flows, the combustor being characterized in that the helicoidal rib comprises a plurality of cooling holes forming a plurality of second cooling passages through which auxiliary-cooling compressed air flows, wherein the second cooling passages guide the flow of the auxiliary-cooling compressed air along the axial direction; and a helicoidal rib protruding from a surface of the liner to guide the cooling compressed air at a predetermined angle with respect to an axial direction of the liner wherein the helicoidal rib forms a first cooling passage along which main-cooling compressed air flows, the combustor being characterized in that the helicoidal rib comprises a plurality of cooling holes forming a plurality of second cooling passages through which auxiliary-cooling compressed air flows, wherein the second cooling passages guide the flow of the auxiliary-cooling compressed air along the axial direction; and
A control method for a laundry drying machine including a heat pump cycle, the control method comprising: Driving (S1; S13, S19, S22) a compressor of the heat pump cycle for generation of heated air; Sensing (S4; S14, S20, S23) a compressor outlet temperature using a first temperature sensor disposed at a refrigerant pipe connecting the compressor and a condenser and a drum outlet temperature using at least one second temperature sensor disposed at an air outlet of a drum, and/or at an exhaust duct connected to the drum, and/or adjacent to a lint filter; and Determining (S5; S15, S21, S24) plugging of the lint filter based on a difference between the compressor outlet temperature and the drum outlet temperature; and when it is determined (S5; S15, S21, S24) that the difference between the compressor outlet temperature and the drum outlet temperature is equal to or more than a setting temperature (T1, T2, T3), determining that plugging of the lint filter occurs, wherein the compressor is configured to be driven at a selected one of a plurality of modes including a first mode where the compressor is driven at a low frequency, a second mode where the compressor is driven at an intermediate frequency, and a third mode where the compressor is driven at a high frequency, wherein the first mode has a first setting temperature, the second mode has a second setting temperature, and the third mode has a third setting temperature, and wherein the second setting temperature is higher than the first setting temperature and lower than the third setting temperature. Driving (S1; S13, S19, S22) a compressor of the heat pump cycle for generation of heated air; Sensing (S4; S14, S20, S23) a compressor outlet temperature using a first temperature sensor disposed at a refrigerant pipe connecting the compressor and a condenser and a drum outlet temperature using at least one second temperature sensor disposed at an air outlet of a drum, and/or at an exhaust duct connected to the drum, and/or adjacent to a lint filter; and Determining (S5; S15, S21, S24) plugging of the lint filter based on a difference between the compressor outlet temperature and the drum outlet temperature; and when it is determined (S5; S15, S21, S24) that the difference between the compressor outlet temperature and the drum outlet temperature is equal to or more than a setting temperature (T1, T2, T3), determining that plugging of the lint filter occurs, wherein the compressor is configured to be driven at a selected one of a plurality of modes including a first mode where the compressor is driven at a low frequency, a second mode where the compressor is driven at an intermediate frequency, and a third mode where the compressor is driven at a high frequency, wherein the first mode has a first setting temperature, the second mode has a second setting temperature, and the third mode has a third setting temperature, and wherein the second setting temperature is higher than the first setting temperature and lower than the third setting temperature.
A terminal in a wireless communication system, the terminal comprising: a transceiver; and a processor configured to: receive, from a base station via the transceiver, a radio resource control, RRC, message including channel state information, CSI, configuration information, the CSI configuration information including a pair of a first channel state information reference signal, CSI-RS, resource configuration associated with a multiple input multiple output, MIMO, type as CLASS A and a second CSI-RS resource configuration associated with a MIMO type as CLASS B; receive, from the base station via the transceiver, two CSI-RSs corresponding to the first CSI-RS resource configuration and the second CSI-RS resource configuration; obtain CSI associated with the first CSI-RS resource configuration and the second CSI-RS resource configuration; and transmit, to the base station via the transceiver, CSI reports including the obtained CSI, and wherein, in case that a maximum number of downlink layers supported by the terminal is 4 or 8, a rank indicator, RI, of the CSI associated with the first CSI-RS resource configuration is restricted as either 1 or 3. a transceiver; and a processor configured to: receive, from a base station via the transceiver, a radio resource control, RRC, message including channel state information, CSI, configuration information, the CSI configuration information including a pair of a first channel state information reference signal, CSI-RS, resource configuration associated with a multiple input multiple output, MIMO, type as CLASS A and a second CSI-RS resource configuration associated with a MIMO type as CLASS B; receive, from the base station via the transceiver, two CSI-RSs corresponding to the first CSI-RS resource configuration and the second CSI-RS resource configuration; obtain CSI associated with the first CSI-RS resource configuration and the second CSI-RS resource configuration; and receive, from a base station via the transceiver, a radio resource control, RRC, message including channel state information, CSI, configuration information, the CSI configuration information including a pair of a first channel state information reference signal, CSI-RS, resource configuration associated with a multiple input multiple output, MIMO, type as CLASS A and a second CSI-RS resource configuration associated with a MIMO type as CLASS B; receive, from the base station via the transceiver, two CSI-RSs corresponding to the first CSI-RS resource configuration and the second CSI-RS resource configuration; obtain CSI associated with the first CSI-RS resource configuration and the second CSI-RS resource configuration; and transmit, to the base station via the transceiver, CSI reports including the obtained CSI, and wherein, in case that a maximum number of downlink layers supported by the terminal is 4 or 8, a rank indicator, RI, of the CSI associated with the first CSI-RS resource configuration is restricted as either 1 or 3.
A wound core including a portion in which grain-oriented electrical steel sheets, in which planar portions (4, 4a) and bent portions are alternately continuous in a longitudinal direction, are stacked in a sheet thickness direction and are formed by stacking the grain-oriented electrical steel sheets that have been individually bent in layers and assembled into a wound shape, wherein, when an average height of a roughness curve element in a width direction intersecting the longitudinal direction forming a surface of the bent portion of the grain-oriented electrical steel sheet is Ra(b), and an average height of the roughness curve element in the width direction forming a surface of the planar portion (4, 4a) of the grain-oriented electrical steel sheet is Ra(s), the relationship of 1.00<Ra(b)/Ra(s)≤5.00 is satisfied.
A method for wireless communications by a base station, comprising: determining, based on a physical broadcast channel, PBCH, transmission periodicity and a duration of a PBCH transmission time interval, TTI, a first set of one or more bits of a timing reference number conveyed in the PBCH that change over a duration of the TTI, wherein different bits of the timing reference number comprise the first set of one or more bits for different durations of the PBCH TTI; transmitting multiple versions of a physical broadcast channel, PBCH, within the TTI, including a second set of bits of the timing reference number that do not change over the duration of the TTI; and providing an indication, with each PBCH transmission, of the first set of bits of the timing reference number. determining, based on a physical broadcast channel, PBCH, transmission periodicity and a duration of a PBCH transmission time interval, TTI, a first set of one or more bits of a timing reference number conveyed in the PBCH that change over a duration of the TTI, wherein different bits of the timing reference number comprise the first set of one or more bits for different durations of the PBCH TTI; transmitting multiple versions of a physical broadcast channel, PBCH, within the TTI, including a second set of bits of the timing reference number that do not change over the duration of the TTI; and providing an indication, with each PBCH transmission, of the first set of bits of the timing reference number.