mhurhangee/ep-ind-claims huggingface dataset:
A method of operating a communications device configured to transmit signals to and/or to receive signals from a wireless communications network via a wireless radio interface provided by the wireless communications network, the method comprising, while the communications device is operating in an inactive state, receiving, from the wireless communications network, a small data transmission, SDT, within a set of downlink resources of the wireless radio interface, determining, based on a configuration indicated by signalling information received from the wireless communications network previously to the SDT, a set of uplink resources of the wireless radio interface, wherein the determined set of uplink resources is a set of cell-specific uplink resources which is only for use by communications devices operating in the inactive state and performing SDT with the wireless communications network, and transmitting, to the wireless communications network in the determined set of uplink resources, a feedback signal in response to the received SDT. receiving, from the wireless communications network, a small data transmission, SDT, within a set of downlink resources of the wireless radio interface, determining, based on a configuration indicated by signalling information received from the wireless communications network previously to the SDT, a set of uplink resources of the wireless radio interface, wherein the determined set of uplink resources is a set of cell-specific uplink resources which is only for use by communications devices operating in the inactive state and performing SDT with the wireless communications network, and transmitting, to the wireless communications network in the determined set of uplink resources, a feedback signal in response to the received SDT.
A cement grinding additive composition, suitable for use with PVC equipment during cement manufacture, comprising: (a) at least one amine cement grinding additive comprising triisopropanolamine, diethanolisopropanolamine, diisopropanolethanolamine, tetrahydroxyethylethylenediamine, tetrahydroxy-isopropylethylenediamine, triethanolamine, methyldiethanolamine, diethanolamine, or mixtures thereof, wherein the amine cement grinding additive is present in an amount of 1.0 to 99.0 percent based on total weight of the cement grinding additive composition; and (b) an air detraining agent selected from the group consisting of (i) ethoxylated, propoxylated fatty alcohol or alkylphenol, (ii) polyalkoxylated polyalkylene polyamine, or (iii) mixture thereof, wherein the air detraining agent is present in an amount of 0.05 to 5.0 percent based on total weight of the cement grinding additive composition; (c) a biopolymer polysaccharide gum selected from the group consisting of Diutan, Welan, and Xanthan, wherein the biopolymer polysaccharide gum is present in an amount of 0.1 to 1.0 percent based on total weight of the cement grinding additive composition; and (d) water in amount of 0.1 to 95.0 percent based on total weight of the cement grinding additive composition, whereby said air detraining agent is uniformly disbursed throughout the cement grinding additive composition. (a) at least one amine cement grinding additive comprising triisopropanolamine, diethanolisopropanolamine, diisopropanolethanolamine, tetrahydroxyethylethylenediamine, tetrahydroxy-isopropylethylenediamine, triethanolamine, methyldiethanolamine, diethanolamine, or mixtures thereof, wherein the amine cement grinding additive is present in an amount of 1.0 to 99.0 percent based on total weight of the cement grinding additive composition; and (b) an air detraining agent selected from the group consisting of (i) ethoxylated, propoxylated fatty alcohol or alkylphenol, (ii) polyalkoxylated polyalkylene polyamine, or (iii) mixture thereof, wherein the air detraining agent is present in an amount of 0.05 to 5.0 percent based on total weight of the cement grinding additive composition; (c) a biopolymer polysaccharide gum selected from the group consisting of Diutan, Welan, and Xanthan, wherein the biopolymer polysaccharide gum is present in an amount of 0.1 to 1.0 percent based on total weight of the cement grinding additive composition; and (d) water in amount of 0.1 to 95.0 percent based on total weight of the cement grinding additive composition, whereby said air detraining agent is uniformly disbursed throughout the cement grinding additive composition.
Process for the synthesis of a saturated long-chain α,ω-amino ester (acid) comprising from 6 to 17 carbon atoms, characterized in that a monounsaturated nitrile-ester (acid) is obtained, in a first stage, by a cross metathesis reaction between a first acrylic compound, chosen from acrylonitrile, acrylic acid or an acrylic ester, and a second monounsaturated compound comprising at least one nitrile, acid or ester trivalent functional group, one of these compounds comprising a nitrile functional group and the other an acid or ester functional group, in the presence of a metathesis catalyst of ruthenium carbenes type, and, in a second stage, the saturated long-chain α,ω-amino ester (acid) is obtained by the hydrogenation of the monounsaturated nitrile-ester (acid) obtained in the presence of the metathesis catalyst from the preceding stage acting as hydrogenation catalyst.
An electronic device comprising: a display member comprising at least one glass; a frame supporting at least a portion of the display member; and a leg member coupled to at least one side of the frame, wherein the leg member comprises: a first structure, a second structure coupled with the first structure, a speaker disposed in a space formed between the first structure and the second structure, a printed circuit board disposed in the space formed between the first structure and the second structure, and a rib comprised in at least one of the first structure or the second structure and accommodating the printed circuit board, wherein a rear surface of the speaker is disposed to face a resonance space formed between the first structure and the second structure, characterized in that the resonance space comprises a space in which the printed circuit board is disposed, and is connected to at least one ventilation hole formed in at least one region of the rib, the at least one ventilation hole connecting the resonance space to an outside of the leg member. a display member comprising at least one glass; a frame supporting at least a portion of the display member; and a leg member coupled to at least one side of the frame, wherein the leg member comprises: a first structure, a second structure coupled with the first structure, a speaker disposed in a space formed between the first structure and the second structure, a printed circuit board disposed in the space formed between the first structure and the second structure, and a rib comprised in at least one of the first structure or the second structure and accommodating the printed circuit board, a first structure, a second structure coupled with the first structure, a speaker disposed in a space formed between the first structure and the second structure, a printed circuit board disposed in the space formed between the first structure and the second structure, and a rib comprised in at least one of the first structure or the second structure and accommodating the printed circuit board, wherein a rear surface of the speaker is disposed to face a resonance space formed between the first structure and the second structure, characterized in that the resonance space comprises a space in which the printed circuit board is disposed, and is connected to at least one ventilation hole formed in at least one region of the rib, the at least one ventilation hole connecting the resonance space to an outside of the leg member.
Ethylene polymer comprising moieties according to formula I: wherein R is a moiety comprising ≥ 1 and ≤ 10 carbon atoms; wherein • the ethylene polymer has a molecular weight distribution defined as the ratio between the weight average molecular weight M w and the number average molecular weight M n, (M w /M n) as determined according to ASTM D-6474 of ≥ 3.0 and ≤ 13.0; • the ethylene polymer has a melting temperature as determined according to ISO 11357-3 at a heating rate of 10 K of ≥ 115 °C; • the ethylene polymer has a density as measured according to ISO 1183-1, method A of ≥ 935 and ≤ 960 kg/m 3; • the ethylene polymer is essentially free from chromium, hafnium, zirconium and tetrahydrofuran; • for the fraction of the ethylene polymer having a molecular weight > 100 kg/mol, the intrinsic viscosity of the ethylene polymer is related to the molecular weight according to the inequality: log I. V. < 0.65 ∗ log M − 3.10 wherein I.V. is the intrinsic viscosity, expressed in dl/g, of a fraction of the ethylene polymer having a molecular weight M, the molecular weight M expressed in kg/mol; wherein the molecular weight is determined via Size Exclusion Chromatography according to ISO 16014-1; and wherein the intrinsic viscosity is determined via differential viscometry of the fractions obtained from SEC, in accordance with ASTM D5225. • the ethylene polymer has a molecular weight distribution defined as the ratio between the weight average molecular weight M w and the number average molecular weight M n, (M w /M n) as determined according to ASTM D-6474 of ≥ 3.0 and ≤ 13.0; • the ethylene polymer has a melting temperature as determined according to ISO 11357-3 at a heating rate of 10 K of ≥ 115 °C; • the ethylene polymer has a density as measured according to ISO 1183-1, method A of ≥ 935 and ≤ 960 kg/m 3; • the ethylene polymer is essentially free from chromium, hafnium, zirconium and tetrahydrofuran; • for the fraction of the ethylene polymer having a molecular weight > 100 kg/mol, the intrinsic viscosity of the ethylene polymer is related to the molecular weight according to the inequality: log I. V. < 0.65 ∗ log M − 3.10 wherein I.V. is the intrinsic viscosity, expressed in dl/g, of a fraction of the ethylene polymer having a molecular weight M, the molecular weight M expressed in kg/mol; wherein the molecular weight is determined via Size Exclusion Chromatography according to ISO 16014-1; and wherein the intrinsic viscosity is determined via differential viscometry of the fractions obtained from SEC, in accordance with ASTM D5225. wherein I.V. is the intrinsic viscosity, expressed in dl/g, of a fraction of the ethylene polymer having a molecular weight M, the molecular weight M expressed in kg/mol; wherein the molecular weight is determined via Size Exclusion Chromatography according to ISO 16014-1; and wherein the intrinsic viscosity is determined via differential viscometry of the fractions obtained from SEC, in accordance with ASTM D5225.
A conducting member (1, 31) for fuel cells, having a base material and an alloy plating layer formed on the base material, and subjected to an acid treatment, wherein the conducting member for fuel cells is a separator for fuel cells, or a current-collecting plate for fuel cells, characterized in that the alloy plating layer has, at least on a part of a portion in which the alloy plating layer is exposed, a protective film formed by a protective film forming agent, the base material has a passivation film formed by the acid treatment on at least a part of a portion in which the base material is exposed, the acid treatment being performed in a state where the alloy plating layer is protected by the protective film the protective film forming agent contains a mixture of a compound having a thiol group and an azole-based compound, and/or an azole-based compound having a thiol group, and the alloy plating layer includes Ni. the alloy plating layer has, at least on a part of a portion in which the alloy plating layer is exposed, a protective film formed by a protective film forming agent, the base material has a passivation film formed by the acid treatment on at least a part of a portion in which the base material is exposed, the acid treatment being performed in a state where the alloy plating layer is protected by the protective film the protective film forming agent contains a mixture of a compound having a thiol group and an azole-based compound, and/or an azole-based compound having a thiol group, and the alloy plating layer includes Ni.
Method of production of a multilayer including a non-woven fibrous first layer, a second layer and a core layer of cementitious material including cement and cellulose fibers between the first layer and the second layer, the method comprising i) spreading cementitious material on the second layer, ii) placing the first layer on the cementitious material, iii) needle bonding the first layer and the second layer with elongated elements that drive a plurality of fibers of the first layer through the core layer to attach the said plurality of fibers to the second layer and iv) obtaining of the multilayer that is flexible, it is configured to be curved in two directions and it becomes rigid upon absorbing water.
A micropump comprising a stator and a rotor axially and rotatably movable relative to the stator, the stator comprising a rotor shaft receiving cavity, an inlet and an outlet fluidly connected to the rotor shaft receiving cavity, the rotor comprising a shaft received in the rotor shaft receiving cavity, characterized in that the rotor shaft comprises a rotor cavity receiving a piston portion of the stator therein to form a piston chamber, a seal mounted between the piston portion and inner sidewall of the rotor cavity to sealingly close an end of the piston chamber, the rotor further comprising a rotor shaft port fluidly connecting the piston chamber to an outer surface of the rotor shaft, the rotor shaft port arranged to overlap at least partially the inlet over a rotational angle ( α) of the rotor corresponding to a pump intake phase, and arranged to overlap at least partially the outlet over a rotational angle ( β) of the rotor corresponding to a pump expel phase.
Electronic entry system, having at least one exterior unit and a control unit that is separate therefrom, wherein - the exterior unit has an input device and evaluation logic, and a user identifier captured by means of the input device is comparable with at least one reference by means of the evaluation logic in order to use the comparison to rate whether or not the captured user identifier provides authorization for an entry, and - the control unit is configured to receive a clearance signal from the exterior unit if the captured user identifier provides authorization for an entry, and to react thereto by generating a control signal as a result of which a user of the entry system is granted entry, wherein - both in the exterior unit and in the control unit at least one memory (231, 301) is provided that is used to store in each case at least data (L2-L5), provided with a time stamp, pertaining to granted entries, and - both the exterior unit and the control unit have a clock generator (232, 302) for generating time information, and the time information of the two clock generators (232, 302) are synchronized with one another in order to provide an aligned internal timestamp for the entry system and to allow a plausibility check for the data (L2-L5) coming from the different memories (231, 301) of the exterior unit and the control unit among one another. - the exterior unit has an input device and evaluation logic, and a user identifier captured by means of the input device is comparable with at least one reference by means of the evaluation logic in order to use the comparison to rate whether or not the captured user identifier provides authorization for an entry, and - the control unit is configured to receive a clearance signal from the exterior unit if the captured user identifier provides authorization for an entry, and to react thereto by generating a control signal as a result of which a user of the entry system is granted entry, wherein - both in the exterior unit and in the control unit at least one memory (231, 301) is provided that is used to store in each case at least data (L2-L5), provided with a time stamp, pertaining to granted entries, and - both the exterior unit and the control unit have a clock generator (232, 302) for generating time information, and the time information of the two clock generators (232, 302) are synchronized with one another in order to provide an aligned internal timestamp for the entry system and to allow a plausibility check for the data (L2-L5) coming from the different memories (231, 301) of the exterior unit and the control unit among one another.
A method for detecting chronic kidney disease in a subject, comprising measuring the amount of a biomarker in a sample obtained from the subject, and determining whether the amount of the biomarker is altered compared to a normal control, wherein the biomarker is MIP 1α.
A safety cabinet, in particular fire protection cabinet for accommodating hazardous substances, preferably battery cabinet for accommodating and storing high-power batteries such as lithium ion batteries, having a cabinet body and at least one cabinet door connected to the cabinet body or interacting therewith, and having at least one sensor, the sensor signals of which are evaluated by a control unit of the safety cabinet, characterized in that - the at least one sensor is arranged in the cabinet body, wherein - a closing signal is derived from the sensor signals by the control unit when at least one threshold value and/or a limit value of time gradients is exceeded and is implemented for closing the door, wherein - the control unit causes the door to close as soon as the sensor signals of one of the sensors are interpreted by the control unit as a closing signal, and wherein - the sensor is designed as a smoke, gas, vapor or leakage sensor individually or in combination. - the at least one sensor is arranged in the cabinet body, wherein - a closing signal is derived from the sensor signals by the control unit when at least one threshold value and/or a limit value of time gradients is exceeded and is implemented for closing the door, wherein - the control unit causes the door to close as soon as the sensor signals of one of the sensors are interpreted by the control unit as a closing signal, and wherein - the sensor is designed as a smoke, gas, vapor or leakage sensor individually or in combination. - a closing signal is derived from the sensor signals by the control unit when at least one threshold value and/or a limit value of time gradients is exceeded and is implemented for closing the door, wherein - the control unit causes the door to close as soon as the sensor signals of one of the sensors are interpreted by the control unit as a closing signal, and wherein - the sensor is designed as a smoke, gas, vapor or leakage sensor individually or in combination.
A compound represented by the following Formula: wherein in Formula, R 201, R 202 and R 203 each independently represent a halogen atom, an aryl group, an alkoxy group, an alkyl group or an acylamino group, n201 and n202 each independently represent a number of 0 to 4, and n203 represents a number of 0 to 4, when n201, n202 and n203 each represent a number of 2 or more, a plurality of R 211 's, R 202 's and R 203 's may be the same or different, M represents a hydrogen atom or a counter cation, and M's may be the same or different. R 201, R 202 and R 203 each independently represent a halogen atom, an aryl group, an alkoxy group, an alkyl group or an acylamino group, n201 and n202 each independently represent a number of 0 to 4, and n203 represents a number of 0 to 4, when n201, n202 and n203 each represent a number of 2 or more, a plurality of R 211 's, R 202 's and R 203 's may be the same or different, M represents a hydrogen atom or a counter cation, and M's may be the same or different.
A clamp comprising: a first arcuate portion; a second arcuate portion hingedly connected to the first arcuate portion; and a ratchet mechanism for locking the first and second arcuate portions (4a, 4b) in a closed position; wherein the ratchet mechanism comprises a linear rack provided with the second arcuate portion and a pawl provided with the first arcuate portion for receiving the linear rack; wherein the linear rack comprises one or more asymmetrical teeth and the pawl comprises a finger (36a, 36b) which is configured to engage with the teeth of the linear rack; characterised in that the pawl is formed by a module which is detachably connected to the first arcuate portion. a first arcuate portion; a second arcuate portion hingedly connected to the first arcuate portion; and a ratchet mechanism for locking the first and second arcuate portions (4a, 4b) in a closed position; wherein the ratchet mechanism comprises a linear rack provided with the second arcuate portion and a pawl provided with the first arcuate portion for receiving the linear rack; wherein the linear rack comprises one or more asymmetrical teeth and the pawl comprises a finger (36a, 36b) which is configured to engage with the teeth of the linear rack; characterised in that the pawl is formed by a module which is detachably connected to the first arcuate portion.
Method for producing a clay-wood composite element for use as a ceiling element in a building, characterised by at least the following steps: providing a plurality of elongate supports made of wood, arranging the plurality of elongate supports next to one another and at a transverse distance from one another on a surface, in each case a gap being formed between adjacent elongate supports, at least partially filling the gap or gaps with clay, and compacting the clay while maintaining the transverse distance, in particular by mechanical tamping of the clay, whereby the clay is subjected to compressive stress in the transverse direction, holding means being provided for holding the supports at a transverse distance from one another which maintains the compressive stress, so that the clay layer becomes self-supporting without the arrangement of a structure supporting the clay layer from below. providing a plurality of elongate supports made of wood, arranging the plurality of elongate supports next to one another and at a transverse distance from one another on a surface, in each case a gap being formed between adjacent elongate supports, at least partially filling the gap or gaps with clay, and compacting the clay while maintaining the transverse distance, in particular by mechanical tamping of the clay, whereby the clay is subjected to compressive stress in the transverse direction, holding means being provided for holding the supports at a transverse distance from one another which maintains the compressive stress, so that the clay layer becomes self-supporting without the arrangement of a structure supporting the clay layer from below.