mhurhangee/ep-ind-claims huggingface dataset:
Method of microbiologically breaking down unwanted amounts of water- and soil-hazardous mineral oils and mineral oil products, referred to in the following as "hydrocarbons", in ecosystems such as limnic and marine water bodies, mainly fluids consisting mainly of water, soils, sediments, muds, waste mixtures and similar substrates, where a solid material consisting of a carbon-laden carrier making contact with the hydrocarbons and having the biogenetic property of feeding hydrocarbon-degradative species of fungus is applied to and/or inoculated into the respective substrate to break down the hydrocarbons held in it and the material is sown with fungi capable of degrading hydrocarbons, characterised in that biocoal, which is known per se, and that has been obtained by catalytic, hydrothermal carbonisation is used as a carrier and that fungi of the family amorphothecaceae are selected as degradative fungi, where fungus species of this family as a constituent of natural flora populate the biocoal that is to be brought into contact with the substrate and/or are added to the biocoal in the form of a fungus culture.
An aqueous liquid laundry detergent composition comprising: (i) from 5 to 19 wt.% of linear alkyl benzene sulfonate anionic surfactant, (ii) from 0.5 to 8 wt.% of an alkyl ether carboxylic acid anionic surfactant of the following structure: R 2 -(OCH 2 CH 2) n -OCH 2 -COOH, wherein: R 2 is selected from C 16 to C 18 linear alkyl chains; wherein n is selected from 10 to 25, and wherein the weight fraction of alkyl ether carboxylic acid to linear alkyl benzene sulfonate surfactant is from 0.05 to 1; (iii) at least 60 wt.% water; (iv) from 0 to 2 wt.% of an ethoxylated alcohol non-ionic surfactant, wherein the weight fraction of ethoxylated alcohol non-ionic surfactant to linear alkyl benzene sulfonate surfactant is from 0 to 0.2; and, (v) from 0 to 1 wt.% of phosphorous containing chemicals; and wherein the composition optionally comprises a further anionic surfactant, wherein the weight fraction of further anionic surfactant to linear alkyl benzene sulfonate is from 0 to 0.1. (i) from 5 to 19 wt.% of linear alkyl benzene sulfonate anionic surfactant, (ii) from 0.5 to 8 wt.% of an alkyl ether carboxylic acid anionic surfactant of the following structure: R 2 -(OCH 2 CH 2) n -OCH 2 -COOH, wherein: R 2 is selected from C 16 to C 18 linear alkyl chains; wherein n is selected from 10 to 25, and wherein the weight fraction of alkyl ether carboxylic acid to linear alkyl benzene sulfonate surfactant is from 0.05 to 1; (iii) at least 60 wt.% water; (iv) from 0 to 2 wt.% of an ethoxylated alcohol non-ionic surfactant, wherein the weight fraction of ethoxylated alcohol non-ionic surfactant to linear alkyl benzene sulfonate surfactant is from 0 to 0.2; and, (v) from 0 to 1 wt.% of phosphorous containing chemicals; and wherein the composition optionally comprises a further anionic surfactant, wherein the weight fraction of further anionic surfactant to linear alkyl benzene sulfonate is from 0 to 0.1.
An antisense oligonucleotide conjugate comprising a first region of a LNA oligomer (region A - such as an LNA gapmer oligomer), targeting an ApoB nucleic acid, covalently joined to a conjugate moiety (region C) comprising an N-acetylgalactosamine (GalNAc) moiety joined to the LNA oligomer via a biocleavable linker, wherein the biocleavable linker comprises a peptide, such as a lysine linker, or a physiologically labile nucleotide linker.
A stacked composite interior component comprising a first member and a second member stacked on the first member, wherein the second member includes a projection that projects from an opposing surface opposed to the first member and is deformed while bending in a falling manner by contacting the first member, characterized in that the second member includes a protruding portion that projects from the opposing surface and restricts close contact between the projection and the opposing surface, wherein the protruding portion is arranged at a position on the opposing surface that is spaced from a proximal end of the projection by a distance shorter than or equal to a projecting length of the projection.
A preparation method for azoxystrobin, wherein the preparation method comprises reacting 2-cyanophenol or a salt thereof with a compound represented by formula I under the catalysis of a trimethylamine catalyst to obtain azoxystrobin represented by formula II:
An aircraft with hybrid thermal/electrical propulsion comprising at least a turbomachine, at least a first electrical source (12, 31, 32), at least a second electrical source (13, 45) equipped with electrical energy storage means, a non-propulsion electrical distribution network and a low-voltage electrical distribution network, and a propulsion electrical distribution network, the three electrical distribution networks (6, 7, 8) being electrically supplied by the first and second electrical sources (12, 31, 32, 13, 45) and electrically interconnected by static converters (20, 21, 44), characterized in that the aircraft further comprises a main electrical system mounted in the body of the aircraft and, for the or each turbomachine of the aircraft, a local electrical system mounted in the turbomachine, the local electrical system comprising a first local electrical distribution casing connected to the low-voltage electrical distribution network, a second local electrical distribution casing connected to the propulsion electrical distribution network, the first and second local electrical distribution casings (33, 34) ensuring the interconnections between the electrical sources of the aircraft and the interconnections between the local loads (36, 37, 38) of the turbomachine or with the loads (18, 22) of the main electrical system. characterized in that the aircraft further comprises a main electrical system mounted in the body of the aircraft and, for the or each turbomachine of the aircraft, a local electrical system mounted in the turbomachine, the local electrical system comprising a first local electrical distribution casing connected to the low-voltage electrical distribution network, a second local electrical distribution casing connected to the propulsion electrical distribution network, the first and second local electrical distribution casings (33, 34) ensuring the interconnections between the electrical sources of the aircraft and the interconnections between the local loads (36, 37, 38) of the turbomachine or with the loads (18, 22) of the main electrical system.
A computer-implemented method for determining an eyeglass prescription for an eye, the method comprising the steps of: Receiving information about a measurement indicative of the refractive properties of the eye; wherein the method further comprises: Determining a mathematical representation of wavefront aberrations of the eye from the measurement, wherein the mathematical representation comprises a multitude of terms, wherein each term comprises a function dependent on the pupil radius, and wherein each term of the mathematical representation is either independent of an azimuthal angle or has a dependency on an azimuthal angle expressed by at least one of sin(2θ) and cos(2θ) with θ being the azimuthal angle; and Determining the eyeglass prescription based on a merit function, and wherein the merit function comprises at least one term of the mathematical representation. Receiving information about a measurement indicative of the refractive properties of the eye; wherein the method further comprises: Determining a mathematical representation of wavefront aberrations of the eye from the measurement, wherein the mathematical representation comprises a multitude of terms, wherein each term comprises a function dependent on the pupil radius, and wherein each term of the mathematical representation is either independent of an azimuthal angle or has a dependency on an azimuthal angle expressed by at least one of sin(2θ) and cos(2θ) with θ being the azimuthal angle; and Determining the eyeglass prescription based on a merit function, and wherein the merit function comprises at least one term of the mathematical representation. Determining a mathematical representation of wavefront aberrations of the eye from the measurement, wherein the mathematical representation comprises a multitude of terms, wherein each term comprises a function dependent on the pupil radius, and wherein each term of the mathematical representation is either independent of an azimuthal angle or has a dependency on an azimuthal angle expressed by at least one of sin(2θ) and cos(2θ) with θ being the azimuthal angle; and Determining the eyeglass prescription based on a merit function, and wherein the merit function comprises at least one term of the mathematical representation.
A computer-implemented method to manage machine-learned models, the method comprising: obtaining, by a user computing device, a plurality of machine-learned models from a server computing device; evaluating, by the user computing device, at least one performance metric for each of the plurality of machine-learned models, wherein the at least one performance metric for each machine-learned model is evaluated relative to data that is stored locally at the user computing device; providing, by the user computing device, the performance metrics respectively evaluated for the plurality of machine-learned models to the one or more server computing devices; receiving, by the user computing device, a selection of a first machine-learned model of the plurality of machine-learned models from the one or more server computing devices based at least in part on the performance metrics respectively evaluated for the plurality of machine-learned models; and using, by the user computing device, the selected first machine-learned model to obtain one or more predictions; and outputting the one or more predictions. obtaining, by a user computing device, a plurality of machine-learned models from a server computing device; evaluating, by the user computing device, at least one performance metric for each of the plurality of machine-learned models, wherein the at least one performance metric for each machine-learned model is evaluated relative to data that is stored locally at the user computing device; providing, by the user computing device, the performance metrics respectively evaluated for the plurality of machine-learned models to the one or more server computing devices; receiving, by the user computing device, a selection of a first machine-learned model of the plurality of machine-learned models from the one or more server computing devices based at least in part on the performance metrics respectively evaluated for the plurality of machine-learned models; and using, by the user computing device, the selected first machine-learned model to obtain one or more predictions; and outputting the one or more predictions.
An apparatus of an evolved node B, eNB, for machine-type communications, MTC, comprising: receive circuitry configured to receive one or more transmissions (214, 216A, 216N) of block data on a Physical Uplink Shared Channel, PUSCH, from a first user equipment, UE, during a retransmission window; control circuitry configured to: determine that the block data has been successfully decoded at the eNB using the one or more transmissions of the block data; and generate an early termination of repeated transmissions message for the data block following determination of successful decoding, the early termination of repeated transmissions message comprising a downlink control information message; and transmit circuitry configured to transmit the early termination of repeated transmissions message during the retransmission window; characterized in that the control circuitry is further configured to: determine a channel quality associated with the PUSCH based on one or more measurements prior to reception of the one or more transmissions of the block data; and select a retransmission value based on the channel quality, wherein the retransmission value is associated with the retransmission window. receive circuitry configured to receive one or more transmissions (214, 216A, 216N) of block data on a Physical Uplink Shared Channel, PUSCH, from a first user equipment, UE, during a retransmission window; control circuitry configured to: determine that the block data has been successfully decoded at the eNB using the one or more transmissions of the block data; and generate an early termination of repeated transmissions message for the data block following determination of successful decoding, the early termination of repeated transmissions message comprising a downlink control information message; and determine that the block data has been successfully decoded at the eNB using the one or more transmissions of the block data; and generate an early termination of repeated transmissions message for the data block following determination of successful decoding, the early termination of repeated transmissions message comprising a downlink control information message; and transmit circuitry configured to transmit the early termination of repeated transmissions message during the retransmission window; characterized in that the control circuitry is further configured to: determine a channel quality associated with the PUSCH based on one or more measurements prior to reception of the one or more transmissions of the block data; and select a retransmission value based on the channel quality, wherein the retransmission value is associated with the retransmission window. determine a channel quality associated with the PUSCH based on one or more measurements prior to reception of the one or more transmissions of the block data; and select a retransmission value based on the channel quality, wherein the retransmission value is associated with the retransmission window.
Surface sealing element for structural bodies, comprising a flat carrier, the flat carrier being a plastic film, and a textile layer arranged on the flat carrier and inseparably connected to the flat carrier, wherein the textile layer is a non-woven, wherein the textile layer is impregnated over its entire surface with a non-sticky adhesion promoter, characterised in that the textile layer on its surface facing away from the flat carrier has knob-like elevations and/or the flat carrier on its surface facing away from the textile layer has knob-like elevations and/or the flat carrier on its surface facing away from the textile layer has knob-like depressions and in that the surface sealing element has a thickness I of ≤ 1.5 mm.
A deformable body, wherein the deformable body comprises a bone contact surface, and wherein the deformable body comprises one or more through-going openings, characterized in that the bone contact surface is configured to be pressed against periosteum of a bone surface of a bone such that the bone contact surface adapts its shape to the shape of the bone surface, wherein the one or more through-going openings are arranged to receive a fixation element which is configured to be used to press the deformable body against the bone surface wherein the deformable body comprises an anaesthetic that is arranged to be released from or through the bone contact surface, and wherein the anaesthetic is arranged in a compartment delimited by the bone contact surface and a further compartment wall, wherein the bone contact surface has a first release rate for the anaesthetic to be released and wherein the further compartment wall has a second release rate for the anaesthetic to be released, wherein the first release rate is larger than the second release rate. wherein the deformable body comprises a bone contact surface, and wherein the deformable body comprises one or more through-going openings, characterized in that the bone contact surface is configured to be pressed against periosteum of a bone surface of a bone such that the bone contact surface adapts its shape to the shape of the bone surface, wherein the one or more through-going openings are arranged to receive a fixation element which is configured to be used to press the deformable body against the bone surface wherein the deformable body comprises an anaesthetic that is arranged to be released from or through the bone contact surface, and wherein the anaesthetic is arranged in a compartment delimited by the bone contact surface and a further compartment wall, wherein the bone contact surface has a first release rate for the anaesthetic to be released and wherein the further compartment wall has a second release rate for the anaesthetic to be released, wherein the first release rate is larger than the second release rate.
A hand-held soldering device, comprising: a tip; a wire feeder configured to advance a wire through the tip of the soldering device; and a heater configured to heat the wire; and characterised by: means for supplying solder to a soldering location; wherein, in use, the tip of the wire is heated, by the heater, to act as a soldering iron tip during a soldering process. a tip; a wire feeder configured to advance a wire through the tip of the soldering device; and a heater configured to heat the wire; and characterised by: means for supplying solder to a soldering location; wherein, in use, the tip of the wire is heated, by the heater, to act as a soldering iron tip during a soldering process. means for supplying solder to a soldering location; wherein, in use, the tip of the wire is heated, by the heater, to act as a soldering iron tip during a soldering process.
An apparatus for the continuous thermal decomposition of organic material comprising: a reaction vessel for supporting a reaction bed of organic material, the reaction vessel defining a flow path along which the organic material undergoes a carbonisation process as it progresses through the reaction vessel; and a feeder for supplying organic material to the reaction vessel through an inlet; the reaction vessel comprising: a pressure applicator to apply a pressure of at least 3.5 bar to compact the reaction bed; a reaction zone for autogenous pyrolysis reaction of organic material in the reaction bed to form pyroligneous gases; a heating zone for heating the organic material by the pyroligneous gases formed in the reaction zone; at least one gas outlet provided above the inlet for the removal of the pyroligneous gases; a cooling zone to reduce the temperature of the material and to extract heated gas from the reaction bed; and at least one discharge port for discharging carbonised organic material from the reaction vessel. a reaction vessel for supporting a reaction bed of organic material, the reaction vessel defining a flow path along which the organic material undergoes a carbonisation process as it progresses through the reaction vessel; and a feeder for supplying organic material to the reaction vessel through an inlet; the reaction vessel comprising: a pressure applicator to apply a pressure of at least 3.5 bar to compact the reaction bed; a reaction zone for autogenous pyrolysis reaction of organic material in the reaction bed to form pyroligneous gases; a heating zone for heating the organic material by the pyroligneous gases formed in the reaction zone; at least one gas outlet provided above the inlet for the removal of the pyroligneous gases; a cooling zone to reduce the temperature of the material and to extract heated gas from the reaction bed; and at least one discharge port for discharging carbonised organic material from the reaction vessel. a pressure applicator to apply a pressure of at least 3.5 bar to compact the reaction bed; a reaction zone for autogenous pyrolysis reaction of organic material in the reaction bed to form pyroligneous gases; a heating zone for heating the organic material by the pyroligneous gases formed in the reaction zone; at least one gas outlet provided above the inlet for the removal of the pyroligneous gases; a cooling zone to reduce the temperature of the material and to extract heated gas from the reaction bed; and at least one discharge port for discharging carbonised organic material from the reaction vessel.
Method for user authentication and securing of the data traffic between a mobile radio network and an IMS network: - in which a mobile subscriber authenticates itself in the mobile radio network; - in which the mobile subscriber authenticates itself in the IMS network; - characterized in that: a check is performed to determine whether the identity of the mobile subscriber authenticated in the IMS network is concordant with the identity of the subscriber authenticated in the mobile radio network; and in the event of concordant identities: a confirmation message is sent from the IMS network to the mobile subscriber and - a data interchange is effected between the mobile subscriber and the IMS network using a security protocol protected by a shared key, the key for the security protocol being derived from the confirmation message. - in which a mobile subscriber authenticates itself in the mobile radio network; - in which the mobile subscriber authenticates itself in the IMS network; - characterized in that: a check is performed to determine whether the identity of the mobile subscriber authenticated in the IMS network is concordant with the identity of the subscriber authenticated in the mobile radio network; and in the event of concordant identities: a confirmation message is sent from the IMS network to the mobile subscriber and a check is performed to determine whether the identity of the mobile subscriber authenticated in the IMS network is concordant with the identity of the subscriber authenticated in the mobile radio network; and a confirmation message is sent from the IMS network to the mobile subscriber and - a data interchange is effected between the mobile subscriber and the IMS network using a security protocol protected by a shared key, the key for the security protocol being derived from the confirmation message.
A method for handover between multi-carrier cells by a source eNB, comprising: receiving (S101, S301) a measurement report triggered by an event submitted by a user equipment, UE; determining (S102, S302), according to the measurement report, to hand over the UE to corresponding carriers of different target evolved NodeBs, eNBs; characterized by sending (S103, S303) sequence numbers, SNs, of data to be transferred and identifier information of target eNBs of carriers to which the UE is handed over to the different target eNBs or a master target eNB of the different target eNBs, wherein the determining (S102, S302) to hand over the UE to corresponding carriers of different target eNBs according to the measurement report comprises: obtaining, related information about candidate cells of the UE according to the measurement report; and if the candidate cells are different cells of different eNBs, determining to hand over the UE to corresponding carriers of the different target eNBs. receiving (S101, S301) a measurement report triggered by an event submitted by a user equipment, UE; determining (S102, S302), according to the measurement report, to hand over the UE to corresponding carriers of different target evolved NodeBs, eNBs; characterized by sending (S103, S303) sequence numbers, SNs, of data to be transferred and identifier information of target eNBs of carriers to which the UE is handed over to the different target eNBs or a master target eNB of the different target eNBs, wherein the determining (S102, S302) to hand over the UE to corresponding carriers of different target eNBs according to the measurement report comprises: obtaining, related information about candidate cells of the UE according to the measurement report; and if the candidate cells are different cells of different eNBs, determining to hand over the UE to corresponding carriers of the different target eNBs. obtaining, related information about candidate cells of the UE according to the measurement report; and if the candidate cells are different cells of different eNBs, determining to hand over the UE to corresponding carriers of the different target eNBs.