mhurhangee/ep-ind-claims huggingface dataset:
Method for preprocessing sensor measured values (x) which are generated by sensors arranged on the motor vehicle side and are converted into sensor data (y), in which - a predetermined preprocessing rule for generating a final identifier (c), which is a test value for the sensor data, is divided into at least two predetermined partial rules (5, 6, 7) which can be used separately from one another, and - a preliminary identifier (a) is first of all generated from the sensor data (y) by means of a first partial rule in a main processing unit on the motor vehicle side, - the preliminary identifier (a) is transmitted to a secondary processing unit on the motor vehicle side, - a positive or negative test result (OK, NOK) dependent on a correctness of the sensor data (y) is provided for further use by the secondary processing unit by comparing the sensor measured values (x) with the sensor data (y), - the preliminary identifier (a) is changed by means of a second partial rule in the secondary processing unit to form a changed identifier (b), in which case, in the event of a positive test result, the preliminary identifier (a) is changed by means of a specific second partial rule and, in the event of a negative test result, the preliminary identifier (a) is changed by means of another specific second partial rule which differs from the specific second partial rule in the event of the positive test result, and - the changed identifier (b) is transmitted back to the main processing unit, and the sensor data (y) are identified as checked sensor data (y) by the main processing unit with a final identifier (c) dependent on the changed identifier (b) and are provided. - a predetermined preprocessing rule for generating a final identifier (c), which is a test value for the sensor data, is divided into at least two predetermined partial rules (5, 6, 7) which can be used separately from one another, and - a preliminary identifier (a) is first of all generated from the sensor data (y) by means of a first partial rule in a main processing unit on the motor vehicle side, - the preliminary identifier (a) is transmitted to a secondary processing unit on the motor vehicle side, - a positive or negative test result (OK, NOK) dependent on a correctness of the sensor data (y) is provided for further use by the secondary processing unit by comparing the sensor measured values (x) with the sensor data (y), - the preliminary identifier (a) is changed by means of a second partial rule in the secondary processing unit to form a changed identifier (b), in which case, in the event of a positive test result, the preliminary identifier (a) is changed by means of a specific second partial rule and, in the event of a negative test result, the preliminary identifier (a) is changed by means of another specific second partial rule which differs from the specific second partial rule in the event of the positive test result, and - the changed identifier (b) is transmitted back to the main processing unit, and the sensor data (y) are identified as checked sensor data (y) by the main processing unit with a final identifier (c) dependent on the changed identifier (b) and are provided.
A polymeric material comprising a first polymer and a second polymer wherein the first polymer is a natural or a synthetic polymer and the second polymer is modified lignin; wherein the modified lignin is modified with an alkyl containing group by alkylation of the lignin via a linker wherein the linker is an ester; wherein the esterification is obtained using an esterification agent wherein said esterification agent is a carboxylic acid and contains an unsaturated bond; and wherein the carboxylic acid is C18. wherein the first polymer is a natural or a synthetic polymer and the second polymer is modified lignin; wherein the modified lignin is modified with an alkyl containing group by alkylation of the lignin via a linker wherein the linker is an ester; wherein the esterification is obtained using an esterification agent wherein said esterification agent is a carboxylic acid and contains an unsaturated bond; and wherein the carboxylic acid is C18.
A mobile communications network, comprising: a Public Land Mobile Network, PLMN, comprising a plurality of network nodes; a core network anchor node; and an access point, serving as a basestation in the mobile communications network, wherein the core network anchor node is connected to said network nodes by Mopile Application Part, MAP, interfaces, wherein the access point is adapted to establish a tunneling connection over a public wide area network to the core network anchor node, wherein the core network anchor node provides an interworking function between said tunneling connection and said MAP interfaces, and wherein, in the event of a handover between the access point and another of the network nodes of the PLMN, the network is arranged to send handover information between the access point and the other of the network nodes of the PLMN over the public wide area network. a Public Land Mobile Network, PLMN, comprising a plurality of network nodes; a core network anchor node; and an access point, serving as a basestation in the mobile communications network, wherein the core network anchor node is connected to said network nodes by Mopile Application Part, MAP, interfaces, wherein the access point is adapted to establish a tunneling connection over a public wide area network to the core network anchor node, wherein the core network anchor node provides an interworking function between said tunneling connection and said MAP interfaces, and wherein, in the event of a handover between the access point and another of the network nodes of the PLMN, the network is arranged to send handover information between the access point and the other of the network nodes of the PLMN over the public wide area network.
A method of limiting temperature variations in a semiconductor component of a switching converter, the method comprising determining a quantity relating to an operation temperature of the switching converter, determining a temperature of the semiconductor component (Tj), selecting a maximum value of a switching frequency of the semiconductor component of the switching converter based on the determined quantity relating to the operation temperature of the switching converter and the temperature of the semiconductor component (Tj), and limiting the switching frequency of the semiconductor component of the switching converter to the selected maximum value of the switching frequency, characterized in that the selecting of the maximum value of the switching frequency comprises setting a second temperature limit (T_sf_high) on the basis of the determined quantity relating to the operation temperature of the switching converter, and selecting the maximum value of the switching frequency such that when the temperature of the semiconductor component (Tj) is above the second temperature limit (T_sf_high), the maximum value of the switching frequency has a second frequency value (SF_min) and when the temperature of the semiconductor component (Tj) is lower than the second temperature limit (T_sf_high), the maximum value of the switching frequency has a higher value than the second frequency value (SF_min).
An electrorefiner system comprising: a vessel configured to maintain a molten salt electrolyte; a plurality of cathode assemblies configured to extend into the vessel so as to at least be partially submerged in the molten salt electrolyte, each cathode assembly including a plurality of cathode rods having the same orientation and arranged so as to be within the same plane; a plurality of anode assemblies alternately arranged with the plurality of cathode assemblies such that each anode assembly is flanked by two cathode assemblies, each anode assembly configured to hold and immerse an impure uranium feed material in the molten salt electrolyte; a power system connected to the plurality of cathode and anode assemblies, the power system configured to supply a voltage adequate to oxidize the impure uranium feed material to form uranium ions that migrate through the molten salt electrolyte and deposit on the plurality of cathode rods as purified uranium; and a scraper configured to dislodge the purified uranium deposited on the plurality of cathode rods; characterized in further comprising: a conveyor system disposed at a bottom of the vessel, the conveyor system comprising an inlet pipe, an exit pipe, a trough positioned in the vessel below the plurality of cathode assemblies and anode assemblies, a discharge chute, and a chain with a plurality of flights secured thereto, the trough defining a U-shaped track, the chain with the plurality of flights secured thereto configured to engage in an endless motion of entering the vessel through the inlet pipe, travelling along the U-shaped track defined by the trough, exiting the vessel through the exit pipe, and reentering the vessel through the inlet pipe to transport the purified uranium dislodged by the scraper through the exit pipe to the discharge chute so as to remove the purified uranium from the vessel, wherein the U-shaped track defined by the trough has a U-shape in plan view. a vessel configured to maintain a molten salt electrolyte; a plurality of cathode assemblies configured to extend into the vessel so as to at least be partially submerged in the molten salt electrolyte, each cathode assembly including a plurality of cathode rods having the same orientation and arranged so as to be within the same plane; a plurality of anode assemblies alternately arranged with the plurality of cathode assemblies such that each anode assembly is flanked by two cathode assemblies, each anode assembly configured to hold and immerse an impure uranium feed material in the molten salt electrolyte; a power system connected to the plurality of cathode and anode assemblies, the power system configured to supply a voltage adequate to oxidize the impure uranium feed material to form uranium ions that migrate through the molten salt electrolyte and deposit on the plurality of cathode rods as purified uranium; and a scraper configured to dislodge the purified uranium deposited on the plurality of cathode rods;
An aircraft loader for transferring loads into and out of an aircraft, comprising: a ground-engaging frame; a loading platform adapted to raise and lower relative to the frame, wherein the loading platform comprises an upper deck having a top surface; and a plurality of cargo slider elements disposed on the upper deck of the loading platform to project above the upper deck to support loads carried by the loading platform and facilitate movement of the loads about the loading platform characterized in that the cargo slider elements are static upwardly convex cargo slider elements. a ground-engaging frame; a loading platform adapted to raise and lower relative to the frame, wherein the loading platform comprises an upper deck having a top surface; and a plurality of cargo slider elements disposed on the upper deck of the loading platform to project above the upper deck to support loads carried by the loading platform and facilitate movement of the loads about the loading platform characterized in that the cargo slider elements are static upwardly convex cargo slider elements.
A capture device for a climbing protection device comprising a carriage which is to be received in a vertically extending guide rail and which comprises a base body and a locking pawl which is rotatably supported thereon by means of a bolt and which is provided with a front part and a rear part, wherein the front part and the rear part are separated from one another by a narrowing, wherein the spacing between the lowest point of the narrowing and the point on the lower face of the rear part of the locking pawl diametrically furthest away is smaller than the clear height of the slot-like recess, wherein the locking pawl is received in a slot-like recess of the base body and comprises an elevation which is arranged at the upper end of the rear part and which serves as a stop, wherein the lower end of the slot-like recess is defined downwardly by an at least partially oblique or curved wall part rising from back to front, and the locking pawl at the lower end of the rear part at least partially has an oblique or curved front face, the shape thereof corresponding to the aforementioned wall part of the slot-like recess, wherein the rear part of the locking pawl is configured and/or dimensioned relative to the slot-like recess such that when the carriage is inserted into the guide rail the locking pawl is not able to be removed at the front out of the slot-like recess, wherein the slot-like recess is provided at the upper end with a projection which has an oblique front face serving as a stop, the elevation of the locking pawl bearing thereagainst for defining the rotational movement and/or the withdrawal movement which is oriented to the front.
A method for assessing enzymatic activity, the method comprising: (i) contacting a substrate complex with an enzyme, wherein the substrate complex comprises: a cleavable substrate comprising a first portion linked to a second portion; a substrate barcoded oligonucleotide construct, comprising: a first oligonucleotide comprising a barcode sequence; and a first linker that connects the first oligonucleotide to the first portion of the substrate; a blocking construct, comprising a second oligonucleotide that is complementary to at least a portion of the first oligonucleotide; and a second linker that connects the second oligonucleotide to the second portion of the substrate; (ii) restricting movement of the blocking construct relative to the SBO construct to inhibit generation of a reverse complement of the barcode sequence with the blocking construct; (iii) cleaving the cleavable substrate with the enzyme; and (iv) releasing the blocking construct from the SBO construct. (i) contacting a substrate complex with an enzyme, wherein the substrate complex comprises: a cleavable substrate comprising a first portion linked to a second portion; a substrate barcoded oligonucleotide construct, comprising: a first oligonucleotide comprising a barcode sequence; and a first linker that connects the first oligonucleotide to the first portion of the substrate; a blocking construct, comprising a second oligonucleotide that is complementary to at least a portion of the first oligonucleotide; and a second linker that connects the second oligonucleotide to the second portion of the substrate; a cleavable substrate comprising a first portion linked to a second portion; a substrate barcoded oligonucleotide construct, comprising: a first oligonucleotide comprising a barcode sequence; and a first linker that connects the first oligonucleotide to the first portion of the substrate; a first oligonucleotide comprising a barcode sequence; and a first linker that connects the first oligonucleotide to the first portion of the substrate; a blocking construct, comprising a second oligonucleotide that is complementary to at least a portion of the first oligonucleotide; and a second linker that connects the second oligonucleotide to the second portion of the substrate; (ii) restricting movement of the blocking construct relative to the SBO construct to inhibit generation of a reverse complement of the barcode sequence with the blocking construct; (iii) cleaving the cleavable substrate with the enzyme; and (iv) releasing the blocking construct from the SBO construct.
A semiconductor standard cell, comprising: an N-type diffusion area extending across the cell and also outside of the cell; a P-type diffusion area extending across the cell and also outside of the cell; at least one conductive gate above each diffusion area to create a semiconductive device; a pair of dummy gates (208, 218), each dummy gate (208, 218) disposed above the N-type diffusion area and the P-type diffusion area to create at least a pair of dummy devices, the pair of dummy gates (208, 218) being disposed at opposite edges of the cell; the dummy gates (208, 218) being separated into respective PMOS and NMOS portions; and at least two conductive lines configured to couple one portion of at least one of the dummy gates (208, 218) to power and to couple the other portion of the at least one of the dummy gates (208, 218) to ground for disabling the at least one dummy device; in which the at least one dummy gate (208, 218) coupled to the at least two conductive lines is disposed on only one edge of the cell. an N-type diffusion area extending across the cell and also outside of the cell; a P-type diffusion area extending across the cell and also outside of the cell; at least one conductive gate above each diffusion area to create a semiconductive device; a pair of dummy gates (208, 218), each dummy gate (208, 218) disposed above the N-type diffusion area and the P-type diffusion area to create at least a pair of dummy devices, the pair of dummy gates (208, 218) being disposed at opposite edges of the cell; the dummy gates (208, 218) being separated into respective PMOS and NMOS portions; and at least two conductive lines configured to couple one portion of at least one of the dummy gates (208, 218) to power and to couple the other portion of the at least one of the dummy gates (208, 218) to ground for disabling the at least one dummy device; in which the at least one dummy gate (208, 218) coupled to the at least two conductive lines is disposed on only one edge of the cell.
A positive electrode for an air battery, the positive electrode comprising: a current collector; and a porous layer including an electroconductive material, wherein the current collector includes a base and a plurality of projections disposed on at least a first major surface of the base, the first major surface of the base is a planar surface, the porous layer is disposed on the first major surface of the base and is in contact with the first major surface, and the projections are in contact with the porous layer in an interior of the porous layer. a current collector; and a porous layer including an electroconductive material, wherein the current collector includes a base and a plurality of projections disposed on at least a first major surface of the base, the first major surface of the base is a planar surface, the porous layer is disposed on the first major surface of the base and is in contact with the first major surface, and the projections are in contact with the porous layer in an interior of the porous layer.
A quinolylnitrone of formula I, wherein the compound of formula I is - N - t -butyl-1-(2-chloro-6-methoxyquinolin-3-yl)methanimine oxide or salts and hydrates thereof; for use in the prevention and/or treatment of cerebral stroke or ischaemia.
An alternating voltage- or alternating current generator whose output network can be tuned in frequency, the output network including a resonant network whose resonant network current- / voltage amplitude is controlled comprising: a) at least one first switch which is driven by a digital alternating voltage or a digital alternating current and whose load comprises a resonant network having at least one first inductance (Ltap) and at least one first capacitance, b) at least one second inductance or at least one second capacitance or at least one series circuit of a third inductance and a third capacitance which is coupled to the resonant network via at least one second switch by means of an ON/OFF coupling signal (E, E', E", F, F', F"), wherein the second inductance or the second capacitance or the series circuit of the third inductance and the third capacitance is charged and discharged by the resonant network and the ON/OFF coupling signal (E, E', E", F, F', F") changes at least once within the resonant network period and is characterized in that the at least one second switch is driven with a controlled delay which is synchronized by a sign change of current and / or voltage in the resonant network, and the resonant network current / voltage amplitude of the alternating voltage or alternating current generator is controlled independently of the frequency tuning by a means (VCC control, DR, SMPS) which controls the operating voltage / the operating current of the alternating voltage or alternating current generator. a) at least one first switch which is driven by a digital alternating voltage or a digital alternating current and whose load comprises a resonant network having at least one first inductance (Ltap) and at least one first capacitance, b) at least one second inductance or at least one second capacitance or at least one series circuit of a third inductance and a third capacitance which is coupled to the resonant network via at least one second switch by means of an ON/OFF coupling signal (E, E', E", F, F', F"), wherein the second inductance or the second capacitance or the series circuit of the third inductance and the third capacitance is charged and discharged by the resonant network and the ON/OFF coupling signal (E, E', E", F, F', F") changes at least once within the resonant network period and is characterized in that
Core-shell composite particles, the core of which is a porous, carbon-based matrix containing silicon particles, obtainable by carbonization of one or more carbon precursors, and the shell of which is nonporous and is obtainable by carbonization of one or more carbon precursors, "nonporous shell" meaning that any pores present in the shell are < 10 nm, determined from the pore size distribution by the BJH method by means of gas adsorption in accordance with DIN 66134, where the silicon particles have average sizes d 50 of from 1.5 to 15 μm, where the average particle sizes d 50 of the silicon particles are determined in accordance with ISO 13320 by means of static laser light scattering using the Mie model and the measuring instrument Horiba LA 950 using ethanol as dispersing medium for the silicon particles, and where the core of the core-shell composite particles contains ≤ 1% by weight of conductive additives selected from graphite, carbon black, carbon nanotubes, fullerenes and graphene, based on the total weight of the core-shell composite particles. the core of which is a porous, carbon-based matrix containing silicon particles, obtainable by carbonization of one or more carbon precursors, and the shell of which is nonporous and is obtainable by carbonization of one or more carbon precursors, "nonporous shell" meaning that any pores present in the shell are < 10 nm, determined from the pore size distribution by the BJH method by means of gas adsorption in accordance with DIN 66134, where the silicon particles have average sizes d 50 of from 1.5 to 15 μm, where the average particle sizes d 50 of the silicon particles are determined in accordance with ISO 13320 by means of static laser light scattering using the Mie model and the measuring instrument Horiba LA 950 using ethanol as dispersing medium for the silicon particles, and where the core of the core-shell composite particles contains ≤ 1% by weight of conductive additives selected from graphite, carbon black, carbon nanotubes, fullerenes and graphene, based on the total weight of the core-shell composite particles.