mhurhangee/patent-ind-claim-en huggingface dataset:
A method for configuring a control plane function associated with a network slice available on a network, the method comprising following steps: a management plane entity transmitting, to a policy control function , PCF, a policy related to network slice operations of the network slice and related to total available network slice resources for the network slice, the policy control function operative to apply the policy to configure control plane functions for that network slice; and the management plane entity is further operative for receiving network slice resource usage monitoring results, determining whether the network slice resource usage monitoring results violate the policy, and, if the network slice resource usage monitoring results violate the policy, triggering an update of the policy. a management plane entity transmitting, to a policy control function , PCF, a policy related to network slice operations of the network slice and related to total available network slice resources for the network slice, the policy control function operative to apply the policy to configure control plane functions for that network slice; and the management plane entity is further operative for receiving network slice resource usage monitoring results, determining whether the network slice resource usage monitoring results violate the policy, and, if the network slice resource usage monitoring results violate the policy, triggering an update of the policy.
Process for the preparation of a calcium sulphonate complex grease comprising at least the following steps: a) preparing, in a reactor, a calcium sulphonate complex soap comprising calcium carbonate, the calcium carbonate being presented in the form of calcite, b) closing the reactor, c) raising the temperature in the reactor to a temperature of at least 130°C under a pressure of at least 400 kPa, d) depressurizing and removing the water contained in the reactor, e) cooling the reactor, said process not comprising the addition of boric acid. a) preparing, in a reactor, a calcium sulphonate complex soap comprising calcium carbonate, the calcium carbonate being presented in the form of calcite, b) closing the reactor, c) raising the temperature in the reactor to a temperature of at least 130°C under a pressure of at least 400 kPa, d) depressurizing and removing the water contained in the reactor, e) cooling the reactor,
A ceramic composition comprising: a fluorescence phase comprising a fluorescent material; and a light-scattering phase comprising a lanthanum oxide, wherein the fluorescent material has a garnet structure, the light-scattering phase comprises LaAlO 3 or La 2 O 3 at 50% by mass or more relative to a total amount of the light-scattering phase, the ratio of the fluorescent phase to the light-scattering phase, the former/latter (volume ratio), is 99.9/0.1 to 50/50 and the average particle size in the light-scattering phase is 1 to 50 μm. a fluorescence phase comprising a fluorescent material; and a light-scattering phase comprising a lanthanum oxide, wherein the fluorescent material has a garnet structure, the light-scattering phase comprises LaAlO 3 or La 2 O 3 at 50% by mass or more relative to a total amount of the light-scattering phase, the ratio of the fluorescent phase to the light-scattering phase, the former/latter (volume ratio), is 99.9/0.1 to 50/50 and the average particle size in the light-scattering phase is 1 to 50 μm.
An electric power generator (EPG) comprising at least a first electrode and a second electrode , wherein the electric power generator comprises an active material between said electrodes , said active material comprising at least one oxygen-containing compound selected from the group consisting of MgO, ZnO, ZrOCl 2 , ZrO 2 , SiO 2 , Bi 2 O 3 , Fe 3 O 4 , Al 2 O 3 ,TiO 2 , BeO, CaO, Ga 2 O 3 , In203, GeO 2 , SnO 2 and PbO 2 , wherein the particle size of the oxygen-containing compound has an average diameter in the range from 10 nm to 40 μm and wherein a thickener additive selected from the group consisting of agar agar, xanthan gum, methyl cellulose, and arabic gum is absent and wherein the at least one oxygen-containing compound or a mixture thereof is in an amount in the range from 50% to 100% (w/w) with respect to the amount of the active material.
An actuator comprising: a piezoelectric element ; and a diaphragm that has the piezoelectric element attached thereto, wherein the diaphragm is configured to vibrate according to an expanding and contracting displacement of the piezoelectric element , wherein the diaphragm is configured to convert the expanding and contracting displacement of the piezoelectric element into a vibration in a predetermined direction, wherein the diaphragm is configured to support a vibration object that provides a tactile sensation of the vibration in the predetermined direction, characterised in that the diaphragm comprises a first plate (12-1) implementing a conversion mechanism in which the diaphragm converts the expanding and contracting displacement of the piezoelectric element into the vibration in the predetermined direction and having a first spring constant (K1) and a second plate (12-2) implementing a support mechanism in which the diaphragm supports the vibration object in the displaceable manner and having a second spring constant (K2), the first plate (12-1) and the second plate (12-2) being formed from different materials, and in that a spring constant (Ku) of the diaphragm is a sum of the first spring constant (K1) determined based on a predetermined amplitude of the diaphragm in a predetermined direction and the second spring constant (K2) determined based on a predetermined amplitude of the vibration object . a piezoelectric element ; and a diaphragm that has the piezoelectric element attached thereto, wherein the diaphragm is configured to vibrate according to an expanding and contracting displacement of the piezoelectric element , wherein the diaphragm is configured to convert the expanding and contracting displacement of the piezoelectric element into a vibration in a predetermined direction, wherein the diaphragm is configured to support a vibration object that provides a tactile sensation of the vibration in the predetermined direction, characterised in that the diaphragm comprises a first plate (12-1) implementing a conversion mechanism in which the diaphragm converts the expanding and contracting displacement of the piezoelectric element into the vibration in the predetermined direction and having a first spring constant (K1) and a second plate (12-2) implementing a support mechanism in which the diaphragm supports the vibration object in the displaceable manner and having a second spring constant (K2), the first plate (12-1) and the second plate (12-2) being formed from different materials, and in that a spring constant (Ku) of the diaphragm is a sum of the first spring constant (K1) determined based on a predetermined amplitude of the diaphragm in a predetermined direction and the second spring constant (K2) determined based on a predetermined amplitude of the vibration object .
Energy accumulator , comprising a tank , which has a tank floor and a tank wall and in which a flywheel is arranged so as to be rotatable about a vertical axis of rotation , wherein at least one sealing assembly delimits at least one first area arranged predominantly on the side of the flywheel facing the tank floor from at least one further area arranged predominantly on the side of the flywheel opposite to the first area , and the flywheel can be acted upon by applying a pressure difference between the first area and the further area with a force which lifts the flywheel from the tank floor , and also a fluid energy machine for generating the pressure difference, characterised in that the flywheel has an automatic balancing device which comprises at least one compensating mass which can be positioned in the radial direction and also in the direction of rotation of the flywheel , a measuring system for detecting an imbalance and also a control system connected to the measuring system for determining suitable compensating positions and for controlling the positioning of the compensating mass .
A method of use comprising the application of an effective amount of a cosmetic foam composition comprising: from 0.1% to 5%, by weight of the cosmetic foam composition, of a non-hydrocarbon propellant; and said propellant is selected from the group consisting of: carbon dioxide, nitrous oxide and a combination thereof; a liquid foamable composition comprising 0.05% to 5%, by weight of the liquid foamable composition, of a surfactant selected from the group consisting of a cationic surfactant, nonionic surfactant, and mixtures thereof, and 1% to 10%, by weight of the liquid foamable composition, of a fatty alcohol, wherein the liquid foamable composition comprises 50% to 80%, by weight of the liquid foamable composition, of water to a portion of the skin of a user, with the exception of liquid foamable compositions comprising from 0.05% to 5%, by weight, of surfactants selected from the group consisting of cationic surfactants, non-ionic surfactants, and mixtures thereof, from 1% to 10%, by weight of a fatty alcohol, from 10% to 50%, by weight, of a silicone blend, the silicone blend comprising a first silicone component comprising a silicone gel; and a second silicone component comprising a silicone powder; and water. from 0.1% to 5%, by weight of the cosmetic foam composition, of a non-hydrocarbon propellant; and said propellant is selected from the group consisting of: carbon dioxide, nitrous oxide and a combination thereof; a liquid foamable composition comprising 0.05% to 5%, by weight of the liquid foamable composition, of a surfactant selected from the group consisting of a cationic surfactant, nonionic surfactant, and mixtures thereof, and 1% to 10%, by weight of the liquid foamable composition, of a fatty alcohol, wherein the liquid foamable composition comprises 50% to 80%, by weight of the liquid foamable composition, of water to a portion of the skin of a user, with the exception of liquid foamable compositions comprising from 0.05% to 5%, by weight, of surfactants selected from the group consisting of cationic surfactants, non-ionic surfactants, and mixtures thereof, from 1% to 10%, by weight of a fatty alcohol, from 10% to 50%, by weight, of a silicone blend, the silicone blend comprising a first silicone component comprising a silicone gel; and a second silicone component comprising a silicone powder; and water.
Suction-extraction apparatus for extracting a treatment fluid , in particular an etching fluid, by suction from an essentially planar treatment surface of treatment substrates , in particular printed circuit boards or conductor foils or semiconductor wafers, transported by means of transporting rollers along an essentially horizontal transporting direction (T), having - a suction source , - a suction-extraction-control unit , which activates the suction source, and - a suction-extraction-tube unit, which is connected to the suction source and has at least one suction-extraction lance , which can have one or more entry-side suction-extraction-nozzle openings positioned at a suction-extraction distance (A s ) from the treatment surface, characterized in that - the suction source and the suction-extraction-control unit are designed for a suction-volume flow per suction-extraction lance of at least 30 m 3 /h and a negative suction pressure of no more than 8 kPa. - a suction source , - a suction-extraction-control unit , which activates the suction source, and - a suction-extraction-tube unit, which is connected to the suction source and has at least one suction-extraction lance , which can have one or more entry-side suction-extraction-nozzle openings positioned at a suction-extraction distance (A s ) from the treatment surface, characterized in that - the suction source and the suction-extraction-control unit are designed for a suction-volume flow per suction-extraction lance of at least 30 m 3 /h and a negative suction pressure of no more than 8 kPa.
An exhaust system for an internal combustion engine, comprising: - an exhaust gas heater housing , - at least one exhaust gas heater disposed in the exhaust gas heater housing , - an exhaust gas treatment unit housing which by way of an upstream end region adjoins a downstream end region of the exhaust gas heater housing , - at least one exhaust gas treatment unit disposed in the exhaust gas treatment unit housing , wherein at least one exhaust gas heater comprises at least one connector element extending in a downstream direction towards the exhaust gas treatment unit housing and overlapping in an exhaust gas primary flow direction (A) with the upstream end region of the exhaust gas treatment unit housing and/or with an exhaust gas treatment unit disposed in the upstream end region of the exhaust gas treatment unit housing . - an exhaust gas heater housing , - at least one exhaust gas heater disposed in the exhaust gas heater housing , - an exhaust gas treatment unit housing which by way of an upstream end region adjoins a downstream end region of the exhaust gas heater housing , - at least one exhaust gas treatment unit disposed in the exhaust gas treatment unit housing ,
An antenna system of a satellite , comprising: an antenna receiver ; a plurality of antenna elements coupled to the antenna receiver via a plurality of flexible couplings , wherein deployed positions of the plurality of antenna elements are constrained by their position along a respective one of the flexible couplings , and are otherwise unconstrained in one or more spatial dimensions; a training processor configured to: receive one or more first signals from the antenna receiver associated with one or more training signals from a first transmitter , and associate each of the plurality of antenna elements with a first respective time of arrival based at least in part on the one or more training signals ; and a beam weight processor configured to combine one or more second signals associated with a data signal from a second transmitter received via the antenna receiver according to a plurality of coefficients determined based at least in part on the associations between the plurality of antenna elements and the first respective time of arrivals. an antenna receiver ; a plurality of antenna elements coupled to the antenna receiver via a plurality of flexible couplings , wherein deployed positions of the plurality of antenna elements are constrained by their position along a respective one of the flexible couplings , and are otherwise unconstrained in one or more spatial dimensions; a training processor configured to: receive one or more first signals from the antenna receiver associated with one or more training signals from a first transmitter , and associate each of the plurality of antenna elements with a first respective time of arrival based at least in part on the one or more training signals ; and a beam weight processor configured to combine one or more second signals associated with a data signal from a second transmitter received via the antenna receiver according to a plurality of coefficients determined based at least in part on the associations between the plurality of antenna elements and the first respective time of arrivals. receive one or more first signals from the antenna receiver associated with one or more training signals from a first transmitter , and associate each of the plurality of antenna elements with a first respective time of arrival based at least in part on the one or more training signals ; and a beam weight processor configured to combine one or more second signals associated with a data signal from a second transmitter received via the antenna receiver according to a plurality of coefficients determined based at least in part on the associations between the plurality of antenna elements and the first respective time of arrivals.
A method of reading a tag located on an object , wherein the tag comprises one or more tag values associated with the object , the method comprising: a. obtaining a first sensor output, by reading the tag using a tag reader , wherein the first sensor output is at least one of an erroneous and incomplete representation of the one or more tag values of the tag ; and b. deriving one or more tag values from the first sensor output using a model ; wherein the model is based on a first set of sensor outputs generated by the tag reader by reading a plurality of tags and tag values associated with the plurality of tags, wherein the first set of sensor outputs comprises a plurality of sensor outputs, each sensor output from the first set of sensor outputs comprising at least one of an erroneous and incomplete representation of one or more tag values of the corresponding tag. a. obtaining a first sensor output, by reading the tag using a tag reader , wherein the first sensor output is at least one of an erroneous and incomplete representation of the one or more tag values of the tag ; and b. deriving one or more tag values from the first sensor output using a model ;
A welding-type system , comprising: a power supply configured to preheat an electrode wire ; and a controller configured to: receive a plurality of power values corresponding to a power output of the power supply; characterised in that the controller is configured to calculate an arc power value corresponding to an arc condition at the preheated electrode wire based on a rate of change of the plurality of power values; determine a target power output value based on the calculated arc power value; adjust the power output based on the determined target power value; determine a change in enthalpy values associated with the electrode wire ; and adjust the power output based in part on a comparison of a measured change in enthalpy values with a stored change in enthalpy values associated with an arc condition . a power supply configured to preheat an electrode wire ; and a controller configured to: receive a plurality of power values corresponding to a power output of the power supply; characterised in that the controller is configured to calculate an arc power value corresponding to an arc condition at the preheated electrode wire based on a rate of change of the plurality of power values; determine a target power output value based on the calculated arc power value; adjust the power output based on the determined target power value; determine a change in enthalpy values associated with the electrode wire ; and adjust the power output based in part on a comparison of a measured change in enthalpy values with a stored change in enthalpy values associated with an arc condition . receive a plurality of power values corresponding to a power output of the power supply; characterised in that the controller is configured to calculate an arc power value corresponding to an arc condition at the preheated electrode wire based on a rate of change of the plurality of power values; determine a target power output value based on the calculated arc power value; adjust the power output based on the determined target power value; determine a change in enthalpy values associated with the electrode wire ; and adjust the power output based in part on a comparison of a measured change in enthalpy values with a stored change in enthalpy values associated with an arc condition .
A method for preparing a compound of Formula 1a: or pharmaceutically salt thereof, wherein: R 4 is F or 18 F; the method comprising: reacting the compound of Formula 15 with a compound of Formula 9 in the presence of a coupling reagent and in the presence of an aprotic solvent which is N,N-dimethylformamide to generate a compound of Formula 1a: wherein the reaction is heated with 10 Watts to 20 Watts of microwave radiation. R 4 is F or 18 F; the method comprising: reacting the compound of Formula 15 with a compound of Formula 9 in the presence of a coupling reagent and in the presence of an aprotic solvent which is N,N-dimethylformamide to generate a compound of Formula 1a:
A method by a user equipment, UE, (11-15; 11-35) in a wireless communication system, the method comprising: receiving a first physical downlink shared channel, PDSCH, transmission and a second PDSCH transmission that are associated with a first transmission configuration indicator, TCI, state and a second TCl state, respectively, the first and second PDSCH transmissions carrying a same transport block, TB; characterised by : determining a first transport block size, TBS, of the first PDSCH transmission, wherein the determined first TBS is applied to a second TBS of the second PDSCH transmission; and identifying, corresponding to the same transport block, a first low-density parity-check, LDPC, base graph for the first PDSCH transmission based on the determined first TBS and a second LDPC base graph for the second PDSCH transmission based on the second TBS, wherein the first PDSCH transmission includes a lowest resource block among resource blocks allocated to a plurality of PDSCH transmissions including the first PDSCH transmission and the second PDSCH transmission. receiving a first physical downlink shared channel, PDSCH, transmission and a second PDSCH transmission that are associated with a first transmission configuration indicator, TCI, state and a second TCl state, respectively, the first and second PDSCH transmissions carrying a same transport block, TB; characterised by : determining a first transport block size, TBS, of the first PDSCH transmission, wherein the determined first TBS is applied to a second TBS of the second PDSCH transmission; and identifying, corresponding to the same transport block, a first low-density parity-check, LDPC, base graph for the first PDSCH transmission based on the determined first TBS and a second LDPC base graph for the second PDSCH transmission based on the second TBS, wherein the first PDSCH transmission includes a lowest resource block among resource blocks allocated to a plurality of PDSCH transmissions including the first PDSCH transmission and the second PDSCH transmission.
A method of wireless communication for a base station, comprising: monitoring transmissions from a plurality of user equipments, UEs, over a period of time; and determining at least one stationary UE in the plurality of UEs based on one or more features associated with the transmissions; wherein the determining comprises determining that the one or more features remain constant over the period of time, wherein the one or more features include at least one of a transmission power and an angle of transmission arrival. monitoring transmissions from a plurality of user equipments, UEs, over a period of time; and determining at least one stationary UE in the plurality of UEs based on one or more features associated with the transmissions; wherein the determining comprises determining that the one or more features remain constant over the period of time, wherein the one or more features include at least one of a transmission power and an angle of transmission arrival.