mhurhangee/ep-ind-claims huggingface dataset:
A method for selective catalytic reduction of NOx comprising: providing an exhaust stream from a combustion operation, the exhaust stream containing an amount of NOx (step 110); introducing at least a portion of the exhaust stream and a reductant stream including ammonia to a catalytic reactor comprising a zeolite catalyst loaded with at least two metals selected from the group consisting of tungsten, cobalt, and vanadium, wherein a weight loading of cobalt or vanadium is 6 wt. % and a weight loading of tungsten is 4 wt. %, the reductant stream and the at least a portion of the exhaust stream being introduced to the catalytic reactor at suitable operating conditions to reduce the amount of NOx in the exhaust stream (step 120, 130); and directing the NOx-reduced exhaust stream from the catalytic reactor (step 140). providing an exhaust stream from a combustion operation, the exhaust stream containing an amount of NOx (step 110); introducing at least a portion of the exhaust stream and a reductant stream including ammonia to a catalytic reactor comprising a zeolite catalyst loaded with at least two metals selected from the group consisting of tungsten, cobalt, and vanadium, wherein a weight loading of cobalt or vanadium is 6 wt. % and a weight loading of tungsten is 4 wt. %, the reductant stream and the at least a portion of the exhaust stream being introduced to the catalytic reactor at suitable operating conditions to reduce the amount of NOx in the exhaust stream (step 120, 130); and directing the NOx-reduced exhaust stream from the catalytic reactor (step 140).
An installation for sorting articles, which installation comprises a carousel sorting conveyor having article transport bins that are moved around a closed loop over a plurality of sorting outlets formed by respective storage receptacles, an article feed magazine in which bulk stored articles are put into series and then injected one-by-one into the transport bins of the conveyor while it is moving, and a monitoring and control unit that acts on the bins of the sorting conveyor so as to open each of them over a receptacle that corresponds to a delivery address of the article following a sorting plan stored in a memory in the monitoring and control unit, said installation being characterized in that the monitoring and control unit is arranged to run the sorting into the receptacles of the sorting outlets in a plurality of passes, in that, during a first sorting pass, the parcels are sorted into first receptacles that are of high bulk storage capacity, and in that, during a subsequent sorting pass, the parcels are sorted into second sorting outlet receptacles that are of smaller bulk storage capacity than the first receptacles.
Wind turbine rotor balancing method comprising the following steps: • a blade manufacturing step carried out in a blade manufacturing facility; • a blade stockpiling step carried out in the blade manufacturing facility; • a quantification step of the value of at least one parameter related to the mass of the blade; • an identification step of the blades which will form a wind turbine rotor in accordance with the at least one parameter related to the mass of each blade; • at least one step of transporting the blades from the blade manufacturing facility to a first blade stockpiling area; • a blade stockpiling step carried out in the first blade stockpiling area, wherein the blade stockpiling step comprises the stockpiling of a larger number of blades than the number of blades comprising the rotor of the wind turbine; wherein the identification step of the blades is carried out after the blade stockpiling step carried out in the first blade stockpiling area, wherein said first blade stockpiling area is of greater capacity than the stockpiling carried out in the blade manufacturing facility. • a blade manufacturing step carried out in a blade manufacturing facility; • a blade stockpiling step carried out in the blade manufacturing facility; • a quantification step of the value of at least one parameter related to the mass of the blade; • an identification step of the blades which will form a wind turbine rotor in accordance with the at least one parameter related to the mass of each blade; • at least one step of transporting the blades from the blade manufacturing facility to a first blade stockpiling area; • a blade stockpiling step carried out in the first blade stockpiling area, wherein the blade stockpiling step comprises the stockpiling of a larger number of blades than the number of blades comprising the rotor of the wind turbine; wherein the identification step of the blades is carried out after the blade stockpiling step carried out in the first blade stockpiling area, wherein said first blade stockpiling area is of greater capacity than the stockpiling carried out in the blade manufacturing facility.
An indoor unit of an air conditioner, comprising: a main body casing; a front grill provided forward of the main body casing and having a first opening as an intake port and a second opening as an outlet; a first movable panel capable of moving so as to open and close the first opening; a second movable panel capable of moving so as to open and close the second opening; a driving machine configured to generate a driving force to move the first movable panel and an opening and closing mechanism provided at the front grill and configured to move the first movable panel by the driving force of the driving machine to open and close the first opening; characterized in that: the driving machine is configured to generate a driving force to move the second movable panel; and the opening and closing mechanism is configured also to move the second movable panel to open and close the second opening, by the driving force of the driving machine. a main body casing; a front grill provided forward of the main body casing and having a first opening as an intake port and a second opening as an outlet; a first movable panel capable of moving so as to open and close the first opening; a second movable panel capable of moving so as to open and close the second opening; a driving machine configured to generate a driving force to move the first movable panel and an opening and closing mechanism provided at the front grill and configured to move the first movable panel by the driving force of the driving machine to open and close the first opening; characterized in that: the driving machine is configured to generate a driving force to move the second movable panel; and the opening and closing mechanism is configured also to move the second movable panel to open and close the second opening, by the driving force of the driving machine. the driving machine is configured to generate a driving force to move the second movable panel; and the opening and closing mechanism is configured also to move the second movable panel to open and close the second opening, by the driving force of the driving machine.
A method, performed by a node of a wireless communication network, for pre-configuring another node of the wireless communication network for synchronized RRC reconfigurations that uses a MAC-level handshake, the method comprising: generating an identifier; wherein the identifier is a handshake identifier; associating the identifier with one High-Speed Shared Control Ch annel, HS-SCCH, order as well as one M edium A ccess C ontrol, MAC, Control Information to establish a one-to-one mapping between the identifier and said HS-SCCH order and, also, a one-to-one mapping between the identifier and said MAC Control Information, generating a R adio R esource C ontrol, RRC, procedure identifier for identifying a RRC procedure to be established; associating the RRC procedure identifier with the handshake identifier to establish a one-to-one mapping between said RRC procedure identifier and said handshake identifier; and communicating the generated identifier and its associated HS-SCCH order as well as its associated MAC Control Information to the other node of the wireless communication network. generating an identifier; wherein the identifier is a handshake identifier; associating the identifier with one High-Speed Shared Control Ch annel, HS-SCCH, order as well as one M edium A ccess C ontrol, MAC, Control Information to establish a one-to-one mapping between the identifier and said HS-SCCH order and, also, a one-to-one mapping between the identifier and said MAC Control Information, generating a R adio R esource C ontrol, RRC, procedure identifier for identifying a RRC procedure to be established; associating the RRC procedure identifier with the handshake identifier to establish a one-to-one mapping between said RRC procedure identifier and said handshake identifier; and communicating the generated identifier and its associated HS-SCCH order as well as its associated MAC Control Information to the other node of the wireless communication network.
A method for acquiring a characteristic curve of a PV generator to be scanned from a plurality of PV generators in a power generation installation, wherein the output side of each of the PV generators is connected, in each case via an assigned DC-DC converter, in parallel to a DC link as the input element of a DC-AC converter, the method comprising: a) reducing a cumulative output power of those DC-DC converters for which the associated PV generators are not intended for acquiring the characteristic curve, as a function of a maximum power (Pscan) that, during the acquisition of the characteristic curve of the PV generator to be scanned, is to be expected on the output side of the DC-DC converter connected to the PV generator to be scanned, in order to ensure that the sum of the reduced cumulative output power and of the expected maximum power (Pscan) of the PV generator to be scanned does not exceed a nominal power of the DC-AC converter, b) subsequently acquiring the characteristic curve of the PV generator to be scanned, c) wherein, during the acquisition of the characteristic curve, a voltage of the DC link is kept constant using the DC-AC converter, and d) wherein, during the acquisition of the characteristic curve, the individual output powers of those DC-DC converters for which the associated PV generators are not intended for acquiring the characteristic curve are kept constant. a) reducing a cumulative output power of those DC-DC converters for which the associated PV generators are not intended for acquiring the characteristic curve, as a function of a maximum power (Pscan) that, during the acquisition of the characteristic curve of the PV generator to be scanned, is to be expected on the output side of the DC-DC converter connected to the PV generator to be scanned, in order to ensure that the sum of the reduced cumulative output power and of the expected maximum power (Pscan) of the PV generator to be scanned does not exceed a nominal power of the DC-AC converter, b) subsequently acquiring the characteristic curve of the PV generator to be scanned, c) wherein, during the acquisition of the characteristic curve, a voltage of the DC link is kept constant using the DC-AC converter, and d) wherein, during the acquisition of the characteristic curve, the individual output powers of those DC-DC converters for which the associated PV generators are not intended for acquiring the characteristic curve are kept constant.
A fuel conditioning and control system for dynamic control and steady state operations of a gas turbine provided with liquefied petroleum gas, LPG,, the fuel conditioning and control system comprising: a storage for LPG fuel; a fuel delivery sub-system connecting the storage to a gas turbine; a fuel and control system; a heating source, including at least one of electrical nature or heat exchange nature, configured to convert the liquid LPG fuel from liquid LPG fuel to supercritical LPG fuel; the gas turbine including a gas turbine core control that provides at least one operational condition of the gas turbine to the fuel and control system when in use; and the fuel delivery sub-system includes at least one sensor for sensing at least one property of the LPG fuel in the fuel delivery sub-system, the at least one sensor providing data on the at least one property of the LPG fuel to the fuel and control system; wherein the fuel and control system analyzes the data on the at least one property of the LPG fuel and at least one operational data of the gas turbine to control flow of LPG fuel to the gas turbine under dynamic and steady state conditions. a storage for LPG fuel; a fuel delivery sub-system connecting the storage to a gas turbine; a fuel and control system; a heating source, including at least one of electrical nature or heat exchange nature, configured to convert the liquid LPG fuel from liquid LPG fuel to supercritical LPG fuel; the gas turbine including a gas turbine core control that provides at least one operational condition of the gas turbine to the fuel and control system when in use; and the fuel delivery sub-system includes at least one sensor for sensing at least one property of the LPG fuel in the fuel delivery sub-system, the at least one sensor providing data on the at least one property of the LPG fuel to the fuel and control system; wherein the fuel and control system analyzes the data on the at least one property of the LPG fuel and at least one operational data of the gas turbine to control flow of LPG fuel to the gas turbine under dynamic and steady state conditions.
A memory system comprising: a page-based memory device without pre-existing metadata, wherein a page of the memory device comprises a first storage means and a second storage means; wherein the first storage means are suitable for storing metadata; and the second storage means are suitable for storing data, wherein the metadata in the first storage means is associated with the data in the second storage means, characterised in that the relative placement of bits within the metadata is based on pipelined order of access, such that more critical bits are accessible before less critical bits during pipelined access of bits of the metadata over two or more clock cycles. a page-based memory device without pre-existing metadata, wherein a page of the memory device comprises a first storage means and a second storage means; wherein the first storage means are suitable for storing metadata; and the second storage means are suitable for storing data, wherein the metadata in the first storage means is associated with the data in the second storage means, characterised in that the relative placement of bits within the metadata is based on pipelined order of access, such that more critical bits are accessible before less critical bits during pipelined access of bits of the metadata over two or more clock cycles.
Chronograph mechanism with a fly-back device, comprising a fly-back wheel which is fixed with respect to a fly-back shaft, a fly-back heart piece which is fixed with respect to a chronograph shaft, a fly-back lever borne by the fly-back wheel, arranged to co-operate with the fly-back heart piece and subjected to the action of a return spring, a stopping member for stopping or releasing the fly-back wheel, and an isolating mechanism for eliminating the contact between the fly-back lever and the fly-back heart piece when the fly-back wheel is stopped by the stopping member, the isolating mechanism comprising an isolating wheel co-axial with the fly-back wheel and with the fly-back heart piece and bearing a drive member arranged to act on the fly-back lever against the action of the return spring, characterised in that the drive member forms part of a single piece element comprising, in addition to the drive member, a body extending in a plane perpendicular to the fly-back shaft and chronograph shaft, this body forming the isolating wheel or being rotationally fixed with respect to the isolating wheel, and in that in any plane perpendicular to the fly-back shaft and chronograph shaft and passing through the fly-back heart piece and the drive member the maximum radial dimension of the drive member is less than or equal to 0.25 mm.
An energy saving method, applied to a communications system, wherein the communications system comprises a centralized controller and m radio remote units, RRUs, connected to the centralized controller, m is an integer greater than 1, and the energy saving method comprises: determining, by the centralized controller, n RRUs in the m RRUs, wherein a sum of first downlink reference signal received powers, RSRPs, of a single terminal, corresponding to the n RRUs is greater than or equal to a first preset value, wherein one RRU corresponds to first downlink RSRPs of a plurality of terminals, wherein a first downlink RSRP, of one terminal, corresponding to one RRU is a received power that is estimated by the centralized controller, that is measured by the terminal, and received by the central controller from the terminal, and that is of an RS from the RRU at a corresponding first reference signal, RS, transmit power, a first RS transmit power corresponding to one RRU is an RS transmit power obtained after power boosting is performed on a second RS transmit power corresponding to the RRU, second RS transmit powers corresponding to the m RRUs are all preconfigured, the first preset value is a level value to be reached when the plurality of terminals perform a downlink service, and n is an integer greater than 0 and less than m; turning off, by the centralized controller, an RRU that is in the m RRUs and that is different from the n RRUs; and boosting, by the centralized controller, a second RS transmit power corresponding to each of the n RRUs to a corresponding first RS transmit power, and enabling each of the n RRUs to send an RS at the corresponding first RS transmit power. determining, by the centralized controller, n RRUs in the m RRUs, wherein a sum of first downlink reference signal received powers, RSRPs, of a single terminal, corresponding to the n RRUs is greater than or equal to a first preset value, wherein one RRU corresponds to first downlink RSRPs of a plurality of terminals, wherein a first downlink RSRP, of one terminal, corresponding to one RRU is a received power that is estimated by the centralized controller, that is measured by the terminal, and received by the central controller from the terminal, and that is of an RS from the RRU at a corresponding first reference signal, RS, transmit power, a first RS transmit power corresponding to one RRU is an RS transmit power obtained after power boosting is performed on a second RS transmit power corresponding to the RRU, second RS transmit powers corresponding to the m RRUs are all preconfigured, the first preset value is a level value to be reached when the plurality of terminals perform a downlink service, and n is an integer greater than 0 and less than m; turning off, by the centralized controller, an RRU that is in the m RRUs and that is different from the n RRUs; and boosting, by the centralized controller, a second RS transmit power corresponding to each of the n RRUs to a corresponding first RS transmit power, and enabling each of the n RRUs to send an RS at the corresponding first RS transmit power.
A composition for use in reducing postprandial glucose from a meal, the composition being orally administered to an individual that has at least one condition selected from the group consisting of: type-1 diabetes, type-2 diabetes, gestational diabetes mellitus and pre-diabetes, said composition comprising whey protein micelles; wherein the meal is subsequently orally administered to the individual after the oral administration of the composition comprising the WPM and within about one hour of the oral administration of the composition comprising the WPM.
A composition comprising a multimeric form of Tie 2 binding peptide monomers, wherein the multimeric form has Tie 2 agonist activity, wherein each peptide monomer is not more than 100 amino acids in length and wherein each peptide monomer comprises: (a) a T7 peptide represented by SEQ ID NO: 1 or a modified T7 peptide represented by SEQ ID NO: 2; (b) a GA3 peptide represented by SEQ ID NO: 3 or a modified GA3 peptide represented by SEQ ID NO: 4; (c) a T4 peptide represented by SEQ ID NO: 9 or a modified T4 peptide represented by SEQ ID NO: 10; (d) a T6 peptide represented by SEQ ID NO: 7 or a modified T6 peptide represented by SEQ ID NO: 8; or (e) a T8 peptide represented by SEQ ID NO: 5 or a modified T8 peptide represented by SEQ ID NO: 6. (a) a T7 peptide represented by SEQ ID NO: 1 or a modified T7 peptide represented by SEQ ID NO: 2; (b) a GA3 peptide represented by SEQ ID NO: 3 or a modified GA3 peptide represented by SEQ ID NO: 4; (c) a T4 peptide represented by SEQ ID NO: 9 or a modified T4 peptide represented by SEQ ID NO: 10; (d) a T6 peptide represented by SEQ ID NO: 7 or a modified T6 peptide represented by SEQ ID NO: 8; or (e) a T8 peptide represented by SEQ ID NO: 5 or a modified T8 peptide represented by SEQ ID NO: 6.
A switch device comprising: a switch including a terminal provided on an outer side of the switch; a lead wire fixed to the terminal; a sealing member that seals a portion of the lead wire fixed to the terminal; and a housing configured to house the sealing member, wherein the housing has a first bottom surface and a second bottom surface, the first bottom surface having an opening through which the lead wire passes, and the second bottom surface being located closer to the switch than the first bottom surface, the sealing member abuts the second bottom surface, and wherein the first bottom surface has a drain passage leading to a space outside the housing. a switch including a terminal provided on an outer side of the switch; a lead wire fixed to the terminal; a sealing member that seals a portion of the lead wire fixed to the terminal; and a housing configured to house the sealing member, wherein the housing has a first bottom surface and a second bottom surface, the first bottom surface having an opening through which the lead wire passes, and the second bottom surface being located closer to the switch than the first bottom surface, the sealing member abuts the second bottom surface, and
A dryer comprising a body having two side walls and a rear wall, a drum disposed in the body, into which the laundry to be dried is placed, a condenser providing the dehumidification of the cooling air used in the drying process by condensing it, a base unit disposed under the drum, supporting the motor, the fan, the condenser and other elements required for the drying process, a first opening disposed on the base unit, providing the cooling air passing through the condenser to be delivered into the body, a second opening disposed on the rear wall, providing the cooling air delivered into the body to be discharged to the outer environment, characterized by a guide closed all around, extending between the first opening and the second opening, providing the cooling air discharged from the condenser to be discharged to the outer environment such that it does not spread between the drum and the body.