mhurhangee/patent-ind-claim-en huggingface dataset:
A method performed by a terminal in a communication system, the method comprising: receiving, from a base station, measurement configuration information, wherein the measurement configuration information includes a cell identifier, ID, and at least one channel state information reference signal, CSI-RS, configuration corresponding to the cell ID, and a CSI-RS configuration includes an index of a CSI-RS resource, quasi-co-location, QCL, information and a transmission time configuration of the CSI-RS resource; identifying a timing for the CSI-RS resource based on a timing of a cell indicated by the cell ID; measuring a CSI-RS associated with the CSI-RS resource based on the identified timing and the CSI-RS configuration; and transmitting a cell measurement report based on a measurement result for the CSI-RS, wherein the QCL information corresponds to information associated with a QCL type indicating a QCL linkage between a synchronization signal corresponding to the cell ID and the CSI-RS. receiving, from a base station, measurement configuration information, wherein the measurement configuration information includes a cell identifier, ID, and at least one channel state information reference signal, CSI-RS, configuration corresponding to the cell ID, and a CSI-RS configuration includes an index of a CSI-RS resource, quasi-co-location, QCL, information and a transmission time configuration of the CSI-RS resource; identifying a timing for the CSI-RS resource based on a timing of a cell indicated by the cell ID; measuring a CSI-RS associated with the CSI-RS resource based on the identified timing and the CSI-RS configuration; and transmitting a cell measurement report based on a measurement result for the CSI-RS, wherein the QCL information corresponds to information associated with a QCL type indicating a QCL linkage between a synchronization signal corresponding to the cell ID and the CSI-RS.
A mechanical seal comprising: a rotating ring fixed with respect to a rotating shaft ; a stationary ring which is fixed with respect to a housing including a shaft hole into which the rotating shaft is inserted and which slides on the rotating ring ; and a pressing mechanism which presses the stationary ring toward the rotating ring , the pressing mechanism includes: a first bellows provided on a radially outward side; and a second bellows provided on a radially inward side, wherein the mechanical seal is configured such that an annular sealed space (S1) is formed by the first bellows , the second bellows , and members respectively provided on both end sides of the first bellows and the second bellows , and that the first bellows and the second bellows expand and contract in a central axial direction of the rotating shaft in accordance with fluid pressure inside the sealed space (S1), and the first bellows and the second bellows are arranged at positions distant to each other in the central axial direction, and are arranged such that a part of the first bellows on a radially inward side and a part of the second bellows on a radially outward side overlap when viewed in the central axial direction, characterized in that a damping member which suppresses vibration of the pressing mechanism is provided on the radially inward side of the first bellows . a rotating ring fixed with respect to a rotating shaft ; a stationary ring which is fixed with respect to a housing including a shaft hole into which the rotating shaft is inserted and which slides on the rotating ring ; and a pressing mechanism which presses the stationary ring toward the rotating ring , the pressing mechanism includes: a first bellows provided on a radially outward side; and a second bellows provided on a radially inward side, a first bellows provided on a radially outward side; and a second bellows provided on a radially inward side, wherein the mechanical seal is configured such that an annular sealed space (S1) is formed by the first bellows , the second bellows , and members respectively provided on both end sides of the first bellows and the second bellows , and that the first bellows and the second bellows expand and contract in a central axial direction of the rotating shaft in accordance with fluid pressure inside the sealed space (S1), and the first bellows and the second bellows are arranged at positions distant to each other in the central axial direction, and are arranged such that a part of the first bellows on a radially inward side and a part of the second bellows on a radially outward side overlap when viewed in the central axial direction, characterized in that a damping member which suppresses vibration of the pressing mechanism is provided on the radially inward side of the first bellows .
A cooling system, comprising: a condenser configured to condense refrigerant to a liquid refrigerant; a pump coupled to the condenser; a first cooling circuit, including a direct expansion valve coupled to the pump , a first evaporator coil coupled to the direct expansion valve , and a compressor coupled to the first evaporator coil , wherein the first cooling circuit is configured to receive at least a first portion of the liquid refrigerant and output a first vapor refrigerant, and the compressor is configured to receive the first vapor refrigerant and output a compressor refrigerant output to the condenser ; a second cooling circuit, including an economizer valve coupled to the pump and second evaporator coil coupled to the economizer valve , wherein the second cooling circuit is configured to receive at least a second portion of the liquid refrigerant and output a second vapor refrigerant to the condenser, bypassing the compressor; and a buffer , coupled to the first cooling circuit and the second cooling circuit, configured to combine the compressor refrigerant output and the second refrigerant and output combined refrigerant vapor to the condenser. a condenser configured to condense refrigerant to a liquid refrigerant; a pump coupled to the condenser; a first cooling circuit, including a direct expansion valve coupled to the pump , a first evaporator coil coupled to the direct expansion valve , and a compressor coupled to the first evaporator coil , wherein the first cooling circuit is configured to receive at least a first portion of the liquid refrigerant and output a first vapor refrigerant, and the compressor is configured to receive the first vapor refrigerant and output a compressor refrigerant output to the condenser ; a second cooling circuit, including an economizer valve coupled to the pump and second evaporator coil coupled to the economizer valve , wherein the second cooling circuit is configured to receive at least a second portion of the liquid refrigerant and output a second vapor refrigerant to the condenser, bypassing the compressor; and a buffer , coupled to the first cooling circuit and the second cooling circuit, configured to combine the compressor refrigerant output and the second refrigerant and output combined refrigerant vapor to the condenser.
A thermal conductivity gauge for measuring gas pressure, comprising: a circuit comprising a sensor wire and a resistor coupled in series, the sensor wire being positioned within a chamber , the sensor wire being coupled to a terminal and a ground within a chamber, the resistor being coupled between the terminal and a power input; and a controller configured to 1) apply a power input to the circuit; 2) adjust the power input, as a function of a voltage across one of the sensor wire and the resistor, to bring the sensor wire to a target temperature; and 3) determine a measure of gas pressure within the chamber based on the adjusted power input. a circuit comprising a sensor wire and a resistor coupled in series, the sensor wire being positioned within a chamber , the sensor wire being coupled to a terminal and a ground within a chamber, the resistor being coupled between the terminal and a power input; and a controller configured to 1) apply a power input to the circuit; 2) adjust the power input, as a function of a voltage across one of the sensor wire and the resistor, to bring the sensor wire to a target temperature; and 3) determine a measure of gas pressure within the chamber based on the adjusted power input.
Process for identifying the usage of electrical equipment connected to a power supply grid and comprising an asynchronous motor coupled to a charge, characterized in that it comprises the step consisting of identifying the usage of electrical equipment by comparing an electrical signature of this equipment with recorded electrical signatures, the recorded electrical signature being determined in a preliminary step and consisting of a limited and predetermined set of characteristic frequencies and their harmonics obtained from the only information featuring on the identification plate of the asynchronous motor and from visual inspection of the charge and its method for coupling to the asynchronous motor.
Method for testing the load bearing capabilities of a foundation comprising the following steps: a. Placement of the foundation in the ground and determination of placement parameters, b. Determination of a first load and a first load period, c. Loading the foundation with the first load, d. Continuous recording of the reaction which the foundation experiences due to the first load, e. Maintaining the loading with the first load during the first load period or until a predetermined reaction is reached, f. Loading the foundation with a second load, which is greater than the first load by one increment, g. Continuous recording of the reaction which the foundation experiences due to the second load, h. Maintaining the loading with the second load during a second load period or until a predetermined reaction is reached, and i. Repetition of steps f to h until the recorded reaction is the same as, or greater than, a reaction limit value, characterized, in that the first load is determined on the basis of the measured placement parameters and/or a predetermined load transfer, and in that the increments and the load periods are determined on the basis of the recorded reaction which the foundation experiences due to the previous load. a. Placement of the foundation in the ground and determination of placement parameters, b. Determination of a first load and a first load period, c. Loading the foundation with the first load, d. Continuous recording of the reaction which the foundation experiences due to the first load, e. Maintaining the loading with the first load during the first load period or until a predetermined reaction is reached, f. Loading the foundation with a second load, which is greater than the first load by one increment, g. Continuous recording of the reaction which the foundation experiences due to the second load, h. Maintaining the loading with the second load during a second load period or until a predetermined reaction is reached, and i. Repetition of steps f to h until the recorded reaction is the same as, or greater than, a reaction limit value,
Curtain coating device for fiber machines, in particular for paper and board machines comprising a nozzle beam with a nozzle lip with an edge strip for feeding the coating color curtain and edge guides located along each edge of the nozzle lip to control the width of the coating color curtain, which edge guide comprises an upper end, a lower end, flow surfaces extending in substantially vertical direction parallel and next to each other, a lubrication feed , additional lubrication feeds and a suction opening , which flow surfaces are inclined towards each other and form a flow guide recess extending in vertical direction for an curtain edge guidance such that the form of the flow surfaces with the flow guide recess is concave, which lubrication liquid feed is located at the boundary of the edge strip and the upper end of the edge guide between the edge strip and the flow surfaces of the edge guide , characterized in, that in the flow guide recess is located a protrusion extending in the direction of the flow guide recess and that at a distance (D) from the upper end of the edge guide downstream is located at least one additional lubrication feed on one side of the protrusion .
A method comprising: detecting a first hop to a first frequency (f y ) in a hopping sequence, the first hop being performed by a transmitter in accordance with the hopping sequence; identifying a weighting vector that corresponds to a second frequency (f z ) in the hopping sequence; obtaining an equalizer vector for the second frequency (f z ) based on the weighting vector and an equalizer matrix , the equalizer matrix including a plurality of M equalizer vectors , each equalizer vector of the plurality of M equalizer vectors corresponding to a different frequency in the hopping sequence, wherein M is a positive integer greater than or equal to one; detecting a second hop from the first frequency (f y ) to the second frequency (f z ), the second hop being performed by the transmitter in accordance with the hopping sequence; receiving a signal that is transmitted by the transmitter at the second frequency (f z ); and equalizing the signal by using the equalizer vector for the second frequency (f z ). detecting a first hop to a first frequency (f y ) in a hopping sequence, the first hop being performed by a transmitter in accordance with the hopping sequence; identifying a weighting vector that corresponds to a second frequency (f z ) in the hopping sequence; obtaining an equalizer vector for the second frequency (f z ) based on the weighting vector and an equalizer matrix , the equalizer matrix including a plurality of M equalizer vectors , each equalizer vector of the plurality of M equalizer vectors corresponding to a different frequency in the hopping sequence, wherein M is a positive integer greater than or equal to one; detecting a second hop from the first frequency (f y ) to the second frequency (f z ), the second hop being performed by the transmitter in accordance with the hopping sequence; receiving a signal that is transmitted by the transmitter at the second frequency (f z ); and equalizing the signal by using the equalizer vector for the second frequency (f z ).
The use of a formulation obtainable according to a process for the encapsulation of a non-amine hydrophilic compound C, that does not contain any amine group, said process comprising the steps of: (E1) providing a reverse emulsion containing : - an oil phase (O), comprising a curable mixture of ▪ isocyanate ; and ▪ polyalkyldiene hydroxylated or polyol - dispersed in said oil phase, drops of a water solution or dispersion (aqueous phase W 1 ), containing : ∘ said non-amine hydrophilic compound ; and ∘ at least 5% by weight, based on the total weight of the phase W 1 , of a compound C' carrying more than 2 amine groups, wherein compound C does not react with said compound C' ; (E2) pouring the reverse emulsion of step (E1) in a second water phase W 2 to make a multiple emulsion water/oil/water, containing, as the internal water phase, drops including the non-amine hydrophilic compound C ; and, then, (E3) curing into polyurethane all or part of the curable mixture contained in the oil phase, whereby a formulation is obtained, containing, dispersed in the phase W 2 particles of polyurethane encapsulating an aqueous internal phase including the non-amine hydrophilic compound C, said formulation, comprising drops of a water phase including non-amine hydrophilic compound C encapsulated in particles of polyurethane, said particles being dispersed in a water phase, for a delayed release of the compound C, (E1) providing a reverse emulsion containing : - an oil phase (O), comprising a curable mixture of ▪ isocyanate ; and ▪ polyalkyldiene hydroxylated or polyol - dispersed in said oil phase, drops of a water solution or dispersion (aqueous phase W 1 ), containing : ∘ said non-amine hydrophilic compound ; and ∘ at least 5% by weight, based on the total weight of the phase W 1 , of a compound C' carrying more than 2 amine groups, wherein compound C does not react with said compound C' ; - an oil phase (O), comprising a curable mixture of ▪ isocyanate ; and ▪ polyalkyldiene hydroxylated or polyol ▪ isocyanate ; and ▪ polyalkyldiene hydroxylated or polyol - dispersed in said oil phase, drops of a water solution or dispersion (aqueous phase W 1 ), containing : ∘ said non-amine hydrophilic compound ; and ∘ at least 5% by weight, based on the total weight of the phase W 1 , of a compound C' carrying more than 2 amine groups, wherein compound C does not react with said compound C' ; ∘ said non-amine hydrophilic compound ; and ∘ at least 5% by weight, based on the total weight of the phase W 1 , of a compound C' carrying more than 2 amine groups, wherein compound C does not react with said compound C' ; (E2) pouring the reverse emulsion of step (E1) in a second water phase W 2 to make a multiple emulsion water/oil/water, containing, as the internal water phase, drops including the non-amine hydrophilic compound C ; and, then, (E3) curing into polyurethane all or part of the curable mixture contained in the oil phase, whereby a formulation is obtained, containing, dispersed in the phase W 2 particles of polyurethane encapsulating an aqueous internal phase including the non-amine hydrophilic compound C,
A blood collection device comprising: a collection module comprising: a housing comprising: a first end having a sample introduction opening ; a second end having a sample dispensing opening ; a passageway extending between the sample introduction opening and the sample dispensing opening ; and a holding chamber in fluid communication with the passageway ; a closure covering the first end of the housing; a cap covering the second end of the housing , the cap including a vented plug that allows air to pass through the cap while preventing the-blood from passing through the cap ; and an outer housing having an open end and a closed end, wherein the collection module is positioned inside of the outer housing and the closure closes the open end of the outer housing , characterized in that : an interior of the outer housing surrounding the collection module contains a vacuum. a collection module comprising: a housing comprising: a first end having a sample introduction opening ; a second end having a sample dispensing opening ; a passageway extending between the sample introduction opening and the sample dispensing opening ; and a holding chamber in fluid communication with the passageway ; a closure covering the first end of the housing; a cap covering the second end of the housing , the cap including a vented plug that allows air to pass through the cap while preventing the-blood from passing through the cap ; and a housing comprising: a first end having a sample introduction opening ; a second end having a sample dispensing opening ; a passageway extending between the sample introduction opening and the sample dispensing opening ; and a holding chamber in fluid communication with the passageway ; a first end having a sample introduction opening ; a second end having a sample dispensing opening ; a passageway extending between the sample introduction opening and the sample dispensing opening ; and a holding chamber in fluid communication with the passageway ; a closure covering the first end of the housing; a cap covering the second end of the housing , the cap including a vented plug that allows air to pass through the cap while preventing the-blood from passing through the cap ; and a cap covering the second end of the housing , the cap including a vented plug that allows air to pass through the cap while preventing the-blood from passing through the cap ; and an outer housing having an open end and a closed end, wherein the collection module is positioned inside of the outer housing and the closure closes the open end of the outer housing , characterized in that : an interior of the outer housing surrounding the collection module contains a vacuum.
A method for receiving a synchronization signal block, SSB, the method performed by a user equipment, UE, and comprising: receiving, from a New Radio, NR, cell of a base station , the SSB based on frequency positions indicated by a synchronization raster, performing an initial access procedure for the NR cell of the base station based on the received SSB, wherein the frequency positions indicated by the synchronization raster exist in a NR band which is a re-farmed band from a long term evolution, LTE, wherein the NR band is based on a channel raster of 100 kHz and the SSB is based on a subcarrier spacing of 15 kHz, wherein the frequency positions indicated by the synchronization raster include (i) a first plurality of frequency positions that are equally spaced apart from each other in the frequency domain by 1.2 MHz, (ii) a second plurality of frequency positions that are equally spaced apart from each other in the frequency domain by 1.2 MHz, and (iii) a third plurality of frequency positions that are equally spaced apart from each other in the frequency domain by 1.2 MHz, wherein the second plurality of frequency positions is shifted by 100 kHz relative to the first plurality of frequency positions, wherein the third plurality of frequency positions is shifted by 100 kHz relative to the second plurality of frequency positions, and wherein the third plurality of frequency positions is shifted by 200 kHz relative to the first plurality of frequency positions. receiving, from a New Radio, NR, cell of a base station , the SSB based on frequency positions indicated by a synchronization raster, performing an initial access procedure for the NR cell of the base station based on the received SSB, wherein the frequency positions indicated by the synchronization raster exist in a NR band which is a re-farmed band from a long term evolution, LTE, wherein the NR band is based on a channel raster of 100 kHz and the SSB is based on a subcarrier spacing of 15 kHz, wherein the frequency positions indicated by the synchronization raster include (i) a first plurality of frequency positions that are equally spaced apart from each other in the frequency domain by 1.2 MHz, (ii) a second plurality of frequency positions that are equally spaced apart from each other in the frequency domain by 1.2 MHz, and (iii) a third plurality of frequency positions that are equally spaced apart from each other in the frequency domain by 1.2 MHz, wherein the second plurality of frequency positions is shifted by 100 kHz relative to the first plurality of frequency positions, wherein the third plurality of frequency positions is shifted by 100 kHz relative to the second plurality of frequency positions, and wherein the third plurality of frequency positions is shifted by 200 kHz relative to the first plurality of frequency positions.
Lighting module for a projector of a motor vehicle , the lighting module comprising a light source and a matrix of micromirrors , comprising a mask disposed between the light source and the matrix of micromirrors , the mask comprising an opening allowing light rays coming from the light source to pass and oriented towards the matrix of micromirrors , and the mask comprising an opaque part blocking light rays coming from the light source and not oriented toward the matrix of micromirrors and the matrix of micromirrors extends in a first plane and in that the mask extends in a second plane, the first plane and the second plane being substantially parallel, the opening of the mask being positioned substantially in vertical alignment with the matrix of micromirrors reflecting light rays coming from the light source against the opaque part of the mask when they are in their inactive orientation, in that the opaque part of the masque comprises an overthickness , the micromirrors reflecting light rays coming from the light source against said overthickness when they are in their inactive orientation.