mhurhangee/ep-ind-claims huggingface dataset:
Mixture for treatment of urea-containing fertilizers, comprising a) at least one (thio)phosphoric triamide of the general formula and/or (thio)phosphoric diamide of the general formula R 1 R 2 N-P (NH 2) 2 R 1 O-P (NH 2) 2 with the following definitions: X is oxygen or sulfur, R 1 and R 2 are independently hydrogen, in each case substituted or unsubstituted 2-nitrophenyl, C 1-10 -alkyl, C 3-10 -cycloalkyl, C 3-10 -heterocycloalkyl, C 6-10 -aryl, C 6-10 -heteroaryl or diaminocarbonyl, where R 1 and R 2 together with the nitrogen atom that joins them may also form a 5- or 6-membered saturated or unsaturated heterocycle radical which may optionally also contain one or two further heteroatoms selected from the group consisting of nitrogen, oxygen and sulfur, as component A, b) 2-(N-3,4-dimethylpyrazole)succinic acid which may also be in salt form as component B, where components A and B are present in a weight ratio in the range from 1:1 to 1:6. a) at least one (thio)phosphoric triamide of the general formula and/or (thio)phosphoric diamide of the general formula R 1 R 2 N-P (NH 2) 2 R 1 O-P (NH 2) 2 with the following definitions: X is oxygen or sulfur, R 1 and R 2 are independently hydrogen, in each case substituted or unsubstituted 2-nitrophenyl, C 1-10 -alkyl, C 3-10 -cycloalkyl, C 3-10 -heterocycloalkyl, C 6-10 -aryl, C 6-10 -heteroaryl or diaminocarbonyl, where R 1 and R 2 together with the nitrogen atom that joins them may also form a 5- or 6-membered saturated or unsaturated heterocycle radical which may optionally also contain one or two further heteroatoms selected from the group consisting of nitrogen, oxygen and sulfur, as component A, X is oxygen or sulfur, R 1 and R 2 are independently hydrogen, in each case substituted or unsubstituted 2-nitrophenyl, C 1-10 -alkyl, C 3-10 -cycloalkyl, C 3-10 -heterocycloalkyl, C 6-10 -aryl, C 6-10 -heteroaryl or diaminocarbonyl, where R 1 and R 2 together with the nitrogen atom that joins them may also form a 5- or 6-membered saturated or unsaturated heterocycle radical which may optionally also contain one or two further heteroatoms selected from the group consisting of nitrogen, oxygen and sulfur, as component A, b) 2-(N-3,4-dimethylpyrazole)succinic acid which may also be in salt form as component B,
A method of additive production of a component, in which powder particles to be solidified are solidified in a process chamber by means of high-energy beam, wherein prior to the solidification step the powder particles to be solidified are cleaned in the process chamber by a plasma, characterised in that the powder particles to be solidified are provided prior to solidification in the form of a powder layer and that the powder particles to be solidified are cleaned by the plasma prior to being provided in the form of the powder layer.
A base station for communicating with a plurality of mobile devices and a core network, the base station operating according to a hybrid access mode and comprising: a closed subscriber group, CSG, management module configured to store a closed subscriber group identifier, CSG ID, of the base station; a connection management module configured to communicate with the core network in pursuit of an X2 based intra-CSG handover process, the connection management module comprising: means for transferring a communication link associated with a mobile device to the base station from another base station, wherein the another base station has the same CSG ID as the base station but operates according to a closed access mode; and means for transmitting, to a mobility management entity in the core network in a path switch request, in a case where the base station has the same CSG ID as the another base station, data indicating a subscriber group access mode of the base station, a transport layer address, and a tunnel end point identifier. a closed subscriber group, CSG, management module configured to store a closed subscriber group identifier, CSG ID, of the base station; a connection management module configured to communicate with the core network in pursuit of an X2 based intra-CSG handover process, the connection management module comprising: means for transferring a communication link associated with a mobile device to the base station from another base station, wherein the another base station has the same CSG ID as the base station but operates according to a closed access mode; and means for transmitting, to a mobility management entity in the core network in a path switch request, in a case where the base station has the same CSG ID as the another base station, data indicating a subscriber group access mode of the base station, a transport layer address, and a tunnel end point identifier.
A heat exchanger for cooling an aircraft propulsion engine, the heat exchanger being generally ring-shaped and comprising a plurality of heat exchange modules which are mutually independent, being distributed circumferentially about the axis of the ring, said modules being assembled with one another, being successively spaced apart in pairs, each module comprising first channels for the circulation of the air flow (F1b) generated by the advancing aircraft,in addition to second channels for the circulation of cooling fluid, a space being provided between two adjacent modules, at least one of said spaces receiving at least one conductive heat-transfer element extending between respective walls of at least two adjacent said modules which are oriented facing one another, this heat exchanger being characterized in that a space is traversed by the air flows (F1a) generated by the advancing aircraft in that said at least one heat-transfer element is integrated in at least one of said walls facing one another.
A dialysis machine operable with a disposable set having at least one container (124a to 124d), the dialysis machine comprising: a pump actuator operable to pump dialysis fluid to and/or from the at least one container (124a to 124d); a weigh plate positioned to support the at least one container (124a to 124d); a plurality of operational load cells (102a to 102d) positioned to be at least substantially equidistant from a center of mass of and to support the weigh plate; a linear actuator positioned to apply a force to the weigh plate; a calibration load cell positioned to be at least substantially at the center of mass of the weigh plate to measure the force applied by the linear actuator; and a control unit in operable communication with the operational load cells (102a to 102d), the linear actuator and the calibration load cell, the control unit configured to cause the linear actuator to apply the force to the weigh plate, compare resulting outputs from the operational load cells (102a to 102d) and the calibration load cell, and determine a calibration factor from the comparison for offsetting future outputs from the operational load cells (102a to 102d). a pump actuator operable to pump dialysis fluid to and/or from the at least one container (124a to 124d); a weigh plate positioned to support the at least one container (124a to 124d); a plurality of operational load cells (102a to 102d) positioned to be at least substantially equidistant from a center of mass of and to support the weigh plate; a linear actuator positioned to apply a force to the weigh plate; a calibration load cell positioned to be at least substantially at the center of mass of the weigh plate to measure the force applied by the linear actuator; and a control unit in operable communication with the operational load cells (102a to 102d), the linear actuator and the calibration load cell, the control unit configured to cause the linear actuator to apply the force to the weigh plate, compare resulting outputs from the operational load cells (102a to 102d) and the calibration load cell, and determine a calibration factor from the comparison for offsetting future outputs from the operational load cells (102a to 102d).
Terminal connection device for connecting an end of a medium- or high-voltage power cable to a connection point, the terminal connection device comprising a) an interface cable having first and second end portions, comprising an inner conductor and a conductive or semiconductive layer, b) a first stress control tube (92, 94) comprising - an inner semiconductive layer, and - an intermediate insulating layer arranged around the inner semiconductive layer, wherein the first stress control tube (92, 94) is mounted on the first end portion of the interface cable; c) a first cable connector for connecting the interface cable to the power cable, the first cable connector being connected to the second end portion of the interface cable; d) at least one separable connector element, comprising a second cable connector attached to the cable conductor and including a lug; e) a second stress control tube comprising - a stress control element, and - an insulating layer arranged around the stress control element, wherein the second stress control tube is mounted over the second end portion of the interface cable and at least a portion of the first cable connector; f) one or more tubular shrinkable sleeves (52, 52', 52"), at least a portion of one of the tubular shrinkable sleeves (52, 52', 52") extending over at least a portion of the first stress control tube (92, 94), and at least a portion of one of the tubular shrinkable sleeves (52, 52', 52") extending over at least a portion of the second stress control tube, wherein the portion of the tubular shrinkable sleeve (52, 52") extending over at least a portion of the first stress control tube (92, 94) is shrunk down around at least a portion of the first stress control tube (92,,94). a) an interface cable having first and second end portions, comprising an inner conductor and a conductive or semiconductive layer, b) a first stress control tube (92, 94) comprising - an inner semiconductive layer, and - an intermediate insulating layer arranged around the inner semiconductive layer, wherein the first stress control tube (92, 94) is mounted on the first end portion of the interface cable; - an inner semiconductive layer, and - an intermediate insulating layer arranged around the inner semiconductive layer, c) a first cable connector for connecting the interface cable to the power cable, the first cable connector being connected to the second end portion of the interface cable; d) at least one separable connector element, comprising a second cable connector attached to the cable conductor and including a lug; e) a second stress control tube comprising - a stress control element, and - an insulating layer arranged around the stress control element, wherein the second stress control tube is mounted over the second end portion of the interface cable and at least a portion of the first cable connector; - a stress control element, and - an insulating layer arranged around the stress control element, wherein the second stress control tube is mounted over the second end portion of the interface cable and at least a portion of the first cable connector; f) one or more tubular shrinkable sleeves (52, 52', 52"),
Method for feeding current into a multi-phase AC-network via a transformer, which is electrically connected between the AC-network and a number of feed-in phases (φ1, φ2, φ3) corresponding to the number of mains phases (Φ1, Φ2, Φ3) of the network, wherein at least one voltage characteristic (Ueff1, Ueff2, Ueff3) of one of the mains phases (Φ1, Φ2, Φ3) is determined and reactive currents are fed in depending on a predetermined deviation (ΔU1, ΔU2, ΔU3) of the voltage characteristic (Ueff1, Ueff2, Ueff3) of the at least one mains phase (Φ1, Φ2, Φ3) with respect to a corresponding target voltage characteristic (Usoll), and wherein the deviation (ΔU1, ΔU2, ΔU3) of each of the voltage characteristics (Ueff1, Ueff2, Ueff3) is determined and the feed-in of the reactive currents in the case of deviations, which are formed asymmetrically with respect to the symmetry of the target voltage characteristics (Usoll) is an asymmetric feed-in of the reactive currents with respect to the respective feed-in at the feed-in phases (φ1, φ2, φ3), characterized in that, the asymmetrical feed-in of the reactive currents is conducted by means of an energy generating means connected to the transformer at the feed-in end and comprising a generator and a downstream converter system, and is implemented only if at least one deviation (ΔU1, ΔU2, ΔU3) is present which exceeds a tolerance value (Δ), wherein after detecting a deviation (ΔU1, ΔU2, ΔU3) exceeding the tolerance value (Δ) an excitation current of the generator is reduced and the asymmetric reactive current is fed-in by means of the converter system. characterized in that, the asymmetrical feed-in of the reactive currents is conducted by means of an energy generating means connected to the transformer at the feed-in end and comprising a generator and a downstream converter system, and is implemented only if at least one deviation (ΔU1, ΔU2, ΔU3) is present which exceeds a tolerance value (Δ), wherein after detecting a deviation (ΔU1, ΔU2, ΔU3) exceeding the tolerance value (Δ) an excitation current of the generator is reduced and the asymmetric reactive current is fed-in by means of the converter system.
A soluble multimeric BTNL9 protein comprising (a) a polypeptide having an amino acid sequence at least 90% identical to amino acids 35-257 of SEQ ID NO:2, and (b) a second polypeptide having an amino acid sequence at least 90% identical to amino acids 35-257 of SEQ ID NO:2, wherein the alignment window of the amino acid sequences of the polypeptides of (a) and (b) with amino acids 35-257 of SEQ ID NO:2 is at least 80 amino acids long, wherein (i) the multimeric BTNL9 protein is at least a tetramer and/or (ii) the multimeric BTNL9 protein has a molecular weight greater than four times as large as that of a polypeptide of (a), and wherein the multimeric BTNL9 protein can inhibit the proliferation of a T cell stimulated by an anti-CD3 antibody. (a) a polypeptide having an amino acid sequence at least 90% identical to amino acids 35-257 of SEQ ID NO:2, and (b) a second polypeptide having an amino acid sequence at least 90% identical to amino acids 35-257 of SEQ ID NO:2, (i) the multimeric BTNL9 protein is at least a tetramer and/or (ii) the multimeric BTNL9 protein has a molecular weight greater than four times as large as that of a polypeptide of (a), and
A polarity switching control method in consumable electrode AC pulse arc welding, the method comprising the steps of: applying a peak current (Ip) and a base current (Ib) during an electrode-positive polarity period (t4-t10); applying an electrode-negative current (In) during an electrode-negative polarity period (t2-t4); and conducting polarity switching between the electrode-positive polarity period (t4-t10) and the electrode-negative polarity period (t2-t4); characterized that when a consumable electrode and a base metal come in short circuit with each other during the electrode-positive polarity period (t4-t10), the polarity switching is performed after the short circuit is broken and after lapse of a predetermined delay period (Td) starting from a time point at which an arc is generated following the short circuit, a short-circuit current increases during a short-circuit period (t6-t8), and a welding current applied at the generation of the arc is maintained during the delay period (Td). applying a peak current (Ip) and a base current (Ib) during an electrode-positive polarity period (t4-t10); applying an electrode-negative current (In) during an electrode-negative polarity period (t2-t4); and conducting polarity switching between the electrode-positive polarity period (t4-t10) and the electrode-negative polarity period (t2-t4); characterized that when a consumable electrode and a base metal come in short circuit with each other during the electrode-positive polarity period (t4-t10), the polarity switching is performed after the short circuit is broken and after lapse of a predetermined delay period (Td) starting from a time point at which an arc is generated following the short circuit, a short-circuit current increases during a short-circuit period (t6-t8), and a welding current applied at the generation of the arc is maintained during the delay period (Td).
An automated warehouse comprising: a storage rack (111, 112) for separately storing articles and a case for containing at least one of the articles; a load port which is adapted to supply to an operator the at least one article contained in the case; a temporary storage rack which is adapted to temporarily store the at least one article contained in the case until the at least one article is transported to the load port (150, 160), a detecting unit configured to detect an instruction sent from the operator; a placing apparatus which is adapted for, when the detecting unit detects a first instruction indicating that a predetermined one of the articles is to be taken out, (i) obtaining the predetermined article and a case from the storage rack (111, 112), and (ii) placing the obtained predetermined article in the case; and a transporting apparatus which is adapted for (i) putting on the temporary storage rack, the predetermined article placed in the case by the placing apparatus, characterized in that (ii) when the detecting unit detects a second instruction indicating that the operator is actually ready to take out the predetermined article, transporting the predetermined article placed in the case from the temporary storage rack to the load port, and wherein an input unit configured to receive the second instruction from the operator is provided at a position near the automated warehouse. a storage rack (111, 112) for separately storing articles and a case for containing at least one of the articles; a load port which is adapted to supply to an operator the at least one article contained in the case; a temporary storage rack which is adapted to temporarily store the at least one article contained in the case until the at least one article is transported to the load port (150, 160), a detecting unit configured to detect an instruction sent from the operator; a placing apparatus which is adapted for, when the detecting unit detects a first instruction indicating that a predetermined one of the articles is to be taken out, (i) obtaining the predetermined article and a case from the storage rack (111, 112), and (ii) placing the obtained predetermined article in the case; and a transporting apparatus which is adapted for (i) putting on the temporary storage rack, the predetermined article placed in the case by the placing apparatus, characterized in that (ii) when the detecting unit detects a second instruction indicating that the operator is actually ready to take out the predetermined article, transporting the predetermined article placed in the case from the temporary storage rack to the load port, and wherein an input unit configured to receive the second instruction from the operator is provided at a position near the automated warehouse.
A tire comprising a carcass ply and a belt structure disposed radially outward of the carcass ply in a crown portion of the tire, the belt structure including a first belt ply, a second belt ply radially adjacent the first belt ply, an overlay ply radially adjacent the first belt ply, wherein a first wrap around strip encompasses one or both axial edges of the first belt ply, and a second wrap around strip encompasses one or both axial edges of the second belt ply, and wherein the overlay ply has an axial width less than a maximum axial width of the first belt ply and a maximum axial width of the second belt ply, characterized in that the overlay ply is in contact with each first wrap around strip over a lateral distance in a range of from 1 to 5 percent of the lateral width of the overlay belt ply.
A storage rack with lattice compartment bottoms that are hooked into its corner uprights in order to store loads and consist of bearing profiles on the end face that extend transverse in the installed position in the rack, front and rear outer profiled supports (7a, 7b) that extend orthogonally to the bearing profiles in the longitudinal direction of the rack, as well as at least one intermediate profiled support that extends parallel to and at a distance from the outer profiled supports (7a, 7b) and a wire lattice mat, characterized in that the wire lattice mat features angled wire ends that penetrate into the outer profiled supports (7a, 7b), wherein at least the bearing profiles and the outer profiled supports (7a, 7b) have an essentially C-shaped cross section and the bearing profiles on the end face are realized with recesses (12, 13), into which the outer profiled supports (7a, 7b) and the at least one intermediate profiled support are inserted, and in that the wire lattice mat lying on the at least one intermediate profiled support is at least also framed in an overlapping fashion on the corners and supported on the bearing profiles, wherein the bearing profiles are provided with end sections realized in the form of vertical tabs that protrude upward over the wire lattice mat and the outer profiled supports (7a, 7b), as well as corner framing tabs that are bent perpendicularly inward and overlap the webs of the outer profiled supports (7a, 7b) abutting on the bearing profiles.
A method for supplying a vehicle with electrical energy, wherein the vehicle comprises an on-board module containing a value of a reserve of electrical energy units, comprising steps according to which: - (206, 303, 408) a user terminal receives a signal containing a code assigned to a transaction by a remote purchase server, the code having been determined by the remote purchase server based on data identifying the vehicle, the transaction corresponding to a purchase of a given amount of electrical energy units, - (207, 304, 409) the user terminal transmits to the on-board module a unit recharge signal containing the code so that the on-board module increases the value of the reserve of electrical energy units by the amount of units purchased after said on-board module has verified that the code is valid based on the data identifying the vehicle, and - when the vehicle is connected to a charging station: • the charging station triggers the charging of a battery of the vehicle, and • the on-board module decreases the value of the reserve of electrical energy units by the number of electrical energy units corresponding to the amount of electrical energy absorbed by the battery of the vehicle, wherein the charging of the battery ends when the reserve of electrical energy units is depleted. - (206, 303, 408) a user terminal receives a signal containing a code assigned to a transaction by a remote purchase server, the code having been determined by the remote purchase server based on data identifying the vehicle, the transaction corresponding to a purchase of a given amount of electrical energy units, - (207, 304, 409) the user terminal transmits to the on-board module a unit recharge signal containing the code so that the on-board module increases the value of the reserve of electrical energy units by the amount of units purchased after said on-board module has verified that the code is valid based on the data identifying the vehicle, and - when the vehicle is connected to a charging station: • the charging station triggers the charging of a battery of the vehicle, and • the on-board module decreases the value of the reserve of electrical energy units by the number of electrical energy units corresponding to the amount of electrical energy absorbed by the battery of the vehicle, wherein the charging of the battery ends when the reserve of electrical energy units is depleted. • the charging station triggers the charging of a battery of the vehicle, and • the on-board module decreases the value of the reserve of electrical energy units by the number of electrical energy units corresponding to the amount of electrical energy absorbed by the battery of the vehicle,