mhurhangee/ep-ind-claims huggingface dataset:
A method performed by a user equipment, UE, the method comprising: transmitting, to a base station, a Radio Resource Control, RRC, message which includes uplink data and assistance information for releasing a connection associated with the UE, wherein the assistance information is adapted to indicate whether further transmission is expected after transmission of the uplink data, wherein in a case where the assistance information indicates that further transmission is expected after transmission of the uplink data, the connection associated with the UE is released after the assistance information is forwarded from the base station to a core network node and the UE received downlink data from the core network node via the base station. transmitting, to a base station, a Radio Resource Control, RRC, message which includes uplink data and assistance information for releasing a connection associated with the UE, wherein the assistance information is adapted to indicate whether further transmission is expected after transmission of the uplink data, wherein in a case where the assistance information indicates that further transmission is expected after transmission of the uplink data, the connection associated with the UE is released after the assistance information is forwarded from the base station to a core network node and the UE received downlink data from the core network node via the base station.
An electrolyte for a lithium-sulfur battery, comprising a lithium salt; a non-aqueous organic solvent; and an additive which comprises a sulfide compound; wherein the non-aqueous organic solvent comprises an ether-based compound and a heterocyclic compound, the heterocyclic compound comprising at least one of furan, 2-methylfuran, 3-methylfuran, 2-ethylfuran, 2-propylfuran, 2-butylfuran, 2,3-dimethylfuran, 2,4-dimethylfuran, 2,5-dimethylfuran, pyran, 2-methylpyran, 3-methylpyran, 4-methylpyran, benzofuran, 2-(2-nitrovinyl)furan, thiophene, 2-methylthiophene, 2-ethylthiophene, 2-propylthiophene, 2-butylthiophene, 2,3-dimethylthiophene, 2,4-dimethylthiophene, and 2,5-dimethylthiophene. a lithium salt; a non-aqueous organic solvent; and an additive which comprises a sulfide compound; wherein the non-aqueous organic solvent comprises an ether-based compound and a heterocyclic compound, the heterocyclic compound comprising at least one of furan, 2-methylfuran, 3-methylfuran, 2-ethylfuran, 2-propylfuran, 2-butylfuran, 2,3-dimethylfuran, 2,4-dimethylfuran, 2,5-dimethylfuran, pyran, 2-methylpyran, 3-methylpyran, 4-methylpyran, benzofuran, 2-(2-nitrovinyl)furan, thiophene, 2-methylthiophene, 2-ethylthiophene, 2-propylthiophene, 2-butylthiophene, 2,3-dimethylthiophene, 2,4-dimethylthiophene, and 2,5-dimethylthiophene.
Evaluation unit for a magnetostrictive displacement sensor (10, 50, 80, 100) for determining a position of at least one position sensor having - an input for receiving an electrical measurement signal (32, 56, 86, 106) generated by the magnetostrictive displacement sensor (10, 50, 80, 100), 106), the electrical measurement signal (32, 56, 86, 106) comprising a position signal representing a position of a position sensor movable relative to a magnetostrictive device component and a reference signal (54, 58, 84) representing a reference position, - a first evaluation branch for evaluating the measurement signal (32, 56, 86, 106), the first evaluation branch being set up to determine a position signal transit time (tp) of the position signal and a first reference signal transit time (t R1) of the reference signal (54, 58, 84), and - a computer unit which is set up to determine the position of the position transmitter from the position signal propagation time (tp), characterized in that - the evaluation unit has a second evaluation branch which is set up to determine a second reference signal propagation time (t R2) of the reference signal (54, 58, 84), and - the computer unit is set up to determine a deviation of the first reference signal propagation time (t R1) from the second reference signal propagation time (t R2). - an input for receiving an electrical measurement signal (32, 56, 86, 106) generated by the magnetostrictive displacement sensor (10, 50, 80, 100), 106), the electrical measurement signal (32, 56, 86, 106) comprising a position signal representing a position of a position sensor movable relative to a magnetostrictive device component and a reference signal (54, 58, 84) representing a reference position, - a first evaluation branch for evaluating the measurement signal (32, 56, 86, 106), the first evaluation branch being set up to determine a position signal transit time (tp) of the position signal and a first reference signal transit time (t R1) of the reference signal (54, 58, 84), and - a computer unit which is set up to determine the position of the position transmitter from the position signal propagation time (tp), - the evaluation unit has a second evaluation branch which is set up to determine a second reference signal propagation time (t R2) of the reference signal (54, 58, 84), and - the computer unit is set up to determine a deviation of the first reference signal propagation time (t R1) from the second reference signal propagation time (t R2).
Production method for a cutting insert, in particular a cutting insert for a core drill bit, comprising the steps of: forming and sintering a basic body of the cutting insert from a hard metal, depositing one or more intermediate layers, including an adhesion promoting layer, onto an upper side of the basic body by means of a vapour deposition process, characterized in that the depositing of the adhesion promoting layer of boron-containing nitrides of transition metals comprises the steps of: depositing nitrides of one or more transition metals from the group IV, group V and group VI of the periodic table at a temperature of between 950°C and 1100°C to form a plurality of platelets, which are oriented such that they are inclined in relation to the upper side and consist of the nitrides of the transition metals; and depositing a boride and/or boron nitride of the one or more transition metals; growing a diamond layer on the adhesion promoting layer, which comprises the steps of: seeding the adhesion promoting layer with diamond dust and growing rod-shaped diamonds from the vapour phase on the adhesion promoting layer. forming and sintering a basic body of the cutting insert from a hard metal, depositing one or more intermediate layers, including an adhesion promoting layer, onto an upper side of the basic body by means of a vapour deposition process, characterized in that the depositing of the adhesion promoting layer of boron-containing nitrides of transition metals comprises the steps of: depositing nitrides of one or more transition metals from the group IV, group V and group VI of the periodic table at a temperature of between 950°C and 1100°C to form a plurality of platelets, which are oriented such that they are inclined in relation to the upper side and consist of the nitrides of the transition metals; and depositing a boride and/or boron nitride of the one or more transition metals; growing a diamond layer on the adhesion promoting layer, which comprises the steps of: seeding the adhesion promoting layer with diamond dust and growing rod-shaped diamonds from the vapour phase on the adhesion promoting layer. seeding the adhesion promoting layer with diamond dust and growing rod-shaped diamonds from the vapour phase on the adhesion promoting layer.
A method of measuring at least one parameter of an earth formation, the method comprising: deploying a logging tool in a wellbore traversing the formation, wherein the logging tool comprises: a neutron source configured to emit fast neutrons, and at least one neutron detector (104; 106), using the neutron source to emit fast neutrons into the formation, using the at least one neutron detector (104; 106) to detect neutrons arriving at the detector (104; 106), characterised in that the method further comprises measuring a time-of-flight of fast neutrons traversing from the neutron source to the at least one neutron detector (104; 106) through a portion of the earth formation, and using (706, 710, 712, 716) the measured TOF to determine the at least one parameter. deploying a logging tool in a wellbore traversing the formation, wherein the logging tool comprises: a neutron source configured to emit fast neutrons, and at least one neutron detector (104; 106), a neutron source configured to emit fast neutrons, and at least one neutron detector (104; 106), using the neutron source to emit fast neutrons into the formation, using the at least one neutron detector (104; 106) to detect neutrons arriving at the detector (104; 106), characterised in that the method further comprises measuring a time-of-flight of fast neutrons traversing from the neutron source to the at least one neutron detector (104; 106) through a portion of the earth formation, and using (706, 710, 712, 716) the measured TOF to determine the at least one parameter. measuring a time-of-flight of fast neutrons traversing from the neutron source to the at least one neutron detector (104; 106) through a portion of the earth formation, and using (706, 710, 712, 716) the measured TOF to determine the at least one parameter.
Joint socket implant, in particular a hip-joint socket implant in the form of a spherical cap shell, with at least one region between the equator and the pole of the spherical cap shell having a surface structure (2, 7) comprising a multiplicity of structural elements, which are formed by in each case a plurality of intersecting grooves (3, 8) with opposite pitch, wherein the number of the structural elements on the equator or on a circle of latitude near the equator is the same as on a circle of latitude near the pole, characterized in that the grooves (3, 8) have a curvature, in such a way that the pitch of the grooves in relation to the circles of latitude, hence an angle between a tangent of the groove curvature and a circle of latitude, increases continuously from the equator to the pole.
Alloy for the production of articles having high heat resistance and toughness consisting of, in wt.-%: carbon 0.15 to 0.44 silicon (Si) 0.04 to 0.3 manganese (Mn) 0.06 to 0.4 chromium (Cr) 1.2 to 5.0 molybdenum (Mo) 0.8 to 6.5 nickel (Ni) 3.4 to 9.8 vanadium 0.2 to 0.8 cobalt (Co) 0.1 to 9.8 aluminium (Al) 1.4 to 3.0 copper(Cu) below 1.3 niobium (Nb) below 0.35 iron (Fe) rest and accompanying elements and impurities.
Method for the regulation of single pipe heating systems in multi-family residential houses, where a pipe carrying a supply-flow temperature supplies the radiators of multiple flats with supply-flow heat, where multiple radiators corresponding to multiple flats are connected in series and form a heating section, where the return flow from a radiator mixes with the supply flow for the subsequent radiator located downstream thereof, where the start of the heating section is formed by the radiator lying the most upstream, where the reverse flow from the radiators connected in series forms the end of the heating section, characterised in that a) for the regulation of the flow rate in the heating sections a temperature difference regulator is provided, b) which as an input parameter processes the temperature in the inlet at the start of the heating section and the temperature at the end of the heating section as a further parameter, c) and which produces an output signal, which is sent to a regulating valve for regulation of the flow rate through the heating section, d) and where during operation of the heating system a minimum flow rate through the regulator is provided below which the flow rate does not fall. a) for the regulation of the flow rate in the heating sections a temperature difference regulator is provided, b) which as an input parameter processes the temperature in the inlet at the start of the heating section and the temperature at the end of the heating section as a further parameter, c) and which produces an output signal, which is sent to a regulating valve for regulation of the flow rate through the heating section, d) and where during operation of the heating system a minimum flow rate through the regulator is provided below which the flow rate does not fall.
Combine harvester with a grain flow sensor assembly, wherein the combine harvester comprises a crop-processing device which, in the harvesting mode, outputs a freely flying flow of grains, and the grain flow sensor assembly is provided with a grain-detecting device and with a deflecting element which is arranged for deflecting grains towards the grain-detecting device, characterized in that the deflecting element is arranged within the freely flying flow of the grains and has a concave shape reflecting and concentrating the grains towards the grain-detecting device.
A dried rheology modifier composition comprising at least one swellable emulsion polymer and at least one water soluble support polymer, wherein the at least one swellable emulsion polymer comprises at least one ethylenically unsaturated water soluble monomer and at least one ethylenically unsaturated hydrophobic monomer, wherein said dried rheology modifier composition comprises less than 25 wt% water.
A microfluidic pre-concentrator adapted to receive a gas sample comprising gas pollutants, concentrate the gas pollutants and transfer them to an analysis device, the microfluidic pre-concentrator comprising: - a microfluidic circuit allowing the circulation of a pure gas or comprising gas pollutants and comprising at least one inlet adapted to receive said gas and at least one outlet adapted to transfer said gas to an analysis device, - means for adsorbing gas pollutants inside the microfluidic circuit between the at least one inlet and the at least one outlet of the microfluidic circuit, and - heating means (34a, 34b) with a power less than or equal to 100 watts, preferably less than or equal to 50 watts, the microfluidic circuit and the heating means (34a, 34b) being adapted to heat the adsorption means to a temperature comprised between 120 and 350°C, preferably from 150 to 250°C, the microfluidic circuit being - made of a conductive polymer, or - made of copper, steel, aluminium, stainless steel or a metal alloy, the heating means (34a, 34b) being fixed at least on a first face of the microfluidic circuit. - a microfluidic circuit allowing the circulation of a pure gas or comprising gas pollutants and comprising at least one inlet adapted to receive said gas and at least one outlet adapted to transfer said gas to an analysis device, - means for adsorbing gas pollutants inside the microfluidic circuit between the at least one inlet and the at least one outlet of the microfluidic circuit, and - heating means (34a, 34b) with a power less than or equal to 100 watts, preferably less than or equal to 50 watts, the microfluidic circuit and the heating means (34a, 34b) being adapted to heat the adsorption means to a temperature comprised between 120 and 350°C, preferably from 150 to 250°C, the microfluidic circuit being the microfluidic circuit and the heating means (34a, 34b) being adapted to heat the adsorption means to a temperature comprised between 120 and 350°C, preferably from 150 to 250°C, the microfluidic circuit being - made of a conductive polymer, or - made of copper, steel, aluminium, stainless steel or a metal alloy,
A computer device configured to install computer applications comprising at least one processor in communication with at least one memory device, the at least one processor programmed to: receive a request to install a first application on a user computer device; scan at least one memory device of the user computer device for a device token associated with a second application; upon detection of the device token, retrieve the device token from the at least one memory device of the user computer device; validate the retrieved device token; upon validation of the device token, install the first application; and associate the device token with the first application; wherein the at least one processor is further programmed to generate a new device token if the detected device token is not validated. receive a request to install a first application on a user computer device; scan at least one memory device of the user computer device for a device token associated with a second application; upon detection of the device token, retrieve the device token from the at least one memory device of the user computer device; validate the retrieved device token; upon validation of the device token, install the first application; and associate the device token with the first application; wherein the at least one processor is further programmed to generate a new device token if the detected device token is not validated.
A composite sensor, comprising a temperature sensor (56; 66) that includes a temperature-sensitive member having resistivity changing in accordance with temperature and a humidity sensor (51; 61) that includes a moisture-sensitive member having capacitance or resistivity changing in accordance with humidity, wherein the composite sensor further comprises: a first terminal (53; 63) commonly used for the temperature sensor (56; 66) and the humidity sensor (51; 61); a second terminal (57; 67) disposed to be able to measure an electrical characteristic of the temperature-sensitive member with the first terminal (53; 63); and a third terminal (52; 62) disposed to be able to measure an electrical characteristic of the moisture-sensitive member with the first terminal (53; 63), wherein the temperature sensor (56, 66) and the humidity sensor (51, 61) form an integral structure, wherein the temperature-sensitive member is directly laminated on the moisture-sensitive member, characterized in that the first terminal (53; 63) is formed on a surface along a laminating direction of the composite sensor. a first terminal (53; 63) commonly used for the temperature sensor (56; 66) and the humidity sensor (51; 61); a second terminal (57; 67) disposed to be able to measure an electrical characteristic of the temperature-sensitive member with the first terminal (53; 63); and a third terminal (52; 62) disposed to be able to measure an electrical characteristic of the moisture-sensitive member with the first terminal (53; 63), wherein the temperature sensor (56, 66) and the humidity sensor (51, 61) form an integral structure, wherein the temperature-sensitive member is directly laminated on the moisture-sensitive member, characterized in that the first terminal (53; 63) is formed on a surface along a laminating direction of the composite sensor.
A rearview assembly comprising: a mount configured to be operably coupled with a vehicle; a first support having a generally linear body and extending downward from the mount, the first support defining a first axis of rotation; a second support defining a second axis of rotation and extending from a side of the first support in a direction generally orthogonal to the first axis of rotation of the first support; a brace coupled with the second support and being in abutting contact with a carrier plate; a spring clip extending around and in abutting contact with the second support, the spring clip including an upper clamp portion that provides a clamping force around the second support that is coupled with the brace; and first and second connecting members (60, 62) configured to operably couple the brace with the second support, wherein the spring clip is disposed between the first and second connecting members (60, 62), and wherein a housing is operably coupled with the second support and is rotatable about both the first axis of rotation and the second axis of rotation. a mount configured to be operably coupled with a vehicle; a first support having a generally linear body and extending downward from the mount, the first support defining a first axis of rotation; a second support defining a second axis of rotation and extending from a side of the first support in a direction generally orthogonal to the first axis of rotation of the first support; a brace coupled with the second support and being in abutting contact with a carrier plate; a spring clip extending around and in abutting contact with the second support, the spring clip including an upper clamp portion that provides a clamping force around the second support that is coupled with the brace; and first and second connecting members (60, 62) configured to operably couple the brace with the second support, wherein the spring clip is disposed between the first and second connecting members (60, 62), and wherein a housing is operably coupled with the second support and is rotatable about both the first axis of rotation and the second axis of rotation.
A shaped vegetarian meat product selected from a sausage or a patty, said meat product comprising: a) 30-80 wt.% water; b) 5-35 wt.% oil, said oil having a solid fat content at 20 degrees Celsius (N 20) of 1.5-20%, wherein the oil contains 80-98 wt.% of a liquid vegetable oil selected from the group of sunflower oil, soybean oil, rapeseed oil, cottonseed oil, maize oil, olive oil, and combinations thereof and 2-20 wt.% of a high melting oil selected from hydrogenated vegetable oil, palm stearin, palm kernel stearin, palm mid fraction, coconut stearin, butter oil, butter stearin and combinations thereof; c) 2-25 wt.% protein selected from algal protein, bacterial protein, dairy protein, egg protein, fungal protein, plant protein, and combinations thereof; d) 0-40 wt.% of one or more particulate ingredients selected from herbs, spices, vegetables and combinations thereof; and e) 0.3-8 wt.% of salt selected from sodium chloride, potassium chloride and combinations thereof; wherein the vegetarian meat product contains at least 4 vol.% of oil droplets having an equivalent spherical diameter in the range of 100 micrometer to 1,000 micrometer as determined by means of micro computed tomography. a) 30-80 wt.% water; b) 5-35 wt.% oil, said oil having a solid fat content at 20 degrees Celsius (N 20) of 1.5-20%, wherein the oil contains 80-98 wt.% of a liquid vegetable oil selected from the group of sunflower oil, soybean oil, rapeseed oil, cottonseed oil, maize oil, olive oil, and combinations thereof and 2-20 wt.% of a high melting oil selected from hydrogenated vegetable oil, palm stearin, palm kernel stearin, palm mid fraction, coconut stearin, butter oil, butter stearin and combinations thereof; c) 2-25 wt.% protein selected from algal protein, bacterial protein, dairy protein, egg protein, fungal protein, plant protein, and combinations thereof; d) 0-40 wt.% of one or more particulate ingredients selected from herbs, spices, vegetables and combinations thereof; and e) 0.3-8 wt.% of salt selected from sodium chloride, potassium chloride and combinations thereof;