mhurhangee/patent-ind-claim-en huggingface dataset:
A liquid management system for supplying or receiving liquid comprising solid particles in suspension at a controlled pressure, the system comprising: a reservoir having an inlet for receiving liquid from a remote location and an outlet for removing liquid from the reservoir ; characterised by a lower surface of the reservoir being sloped to define an apex at which the inlet is located, wherein the reservoir is arranged to provide a flow of liquid between the inlet and the outlet whereby any solid particles that fall out of suspension drop towards the inlet under gravity and are directed by the sloped lower surface back into the inlet flow in the region of the apex so as to be captured and re-suspended into the inlet flow such that the liquid composition may remain constant in the bulk of the liquid. a reservoir having an inlet for receiving liquid from a remote location and an outlet for removing liquid from the reservoir ; characterised by a lower surface of the reservoir being sloped to define an apex at which the inlet is located, wherein the reservoir is arranged to provide a flow of liquid between the inlet and the outlet whereby any solid particles that fall out of suspension drop towards the inlet under gravity and are directed by the sloped lower surface back into the inlet flow in the region of the apex so as to be captured and re-suspended into the inlet flow such that the liquid composition may remain constant in the bulk of the liquid.
A method of wireless communication for balancing sounding reference signal capacity and downlink throughput, the method being performed by a base station and comprising: selecting a first special subframe configuration for a first special subframe of a frame, wherein the first special subframe configuration includes a first uplink pilot time slot, UpPTS, with an assigned resource length of at least three symbols of the first special subframe, and wherein the at least three symbols include two legacy symbols, and one or more additional symbols; scheduling sounding reference signal, SRS, transmissions in the one or more additional symbols; selecting a second special subframe configuration for a second special subframe of the frame, wherein the second special subframe configuration includes a second UpPTS with assigned resources of a second resource length different than the resource length assigned to the first UpPTS; and transmitting an indication of the first and second special subframe configurations for a coverage area. selecting a first special subframe configuration for a first special subframe of a frame, wherein the first special subframe configuration includes a first uplink pilot time slot, UpPTS, with an assigned resource length of at least three symbols of the first special subframe, and wherein the at least three symbols include two legacy symbols, and one or more additional symbols; scheduling sounding reference signal, SRS, transmissions in the one or more additional symbols; selecting a second special subframe configuration for a second special subframe of the frame, wherein the second special subframe configuration includes a second UpPTS with assigned resources of a second resource length different than the resource length assigned to the first UpPTS; and transmitting an indication of the first and second special subframe configurations for a coverage area.
A method for use in an Institute of Electrical and Electronics Engineers, IEEE, 802.11 station, STA, the method comprising: receiving, from an access point, AP, associated with a Basic Service Set, BSS, a transmit power control, TPC, clear channel assessment, CCA, constant, TPC_CCA constant for a wireless network comprising the BSS and a neighboring BSS, wherein the TPC_CCA_constant is a value to be used by a plurality of STAs in the BSS for a CCA threshold; and determining, based on the TPC_CCA_constant and a selected transmit power by the STA, a STA specific CCA threshold for the STA . receiving, from an access point, AP, associated with a Basic Service Set, BSS, a transmit power control, TPC, clear channel assessment, CCA, constant, TPC_CCA constant for a wireless network comprising the BSS and a neighboring BSS, wherein the TPC_CCA_constant is a value to be used by a plurality of STAs in the BSS for a CCA threshold; and determining, based on the TPC_CCA_constant and a selected transmit power by the STA, a STA specific CCA threshold for the STA .
An ophthalmic composition comprising diquafosol or a salt thereof, a vinyl-based polymer and a cellulose-based polymer, wherein the vinyl-based polymer comprises polyvinylpyrrolidone and the cellulose-based polymer comprises at least one selected from the group consisting of hydroxyethyl cellulose and methyl cellulose.
Electronic assembly for a remote-control device for a motor vehicle (V) in which said electronic assembly includes: - a current source ; - a block of one or more supercapacitors , said block of one or more supercapacitors being arranged in parallel with the current source ; - a transceiver connected to said block of one or more supercapacitors ; and - a frequency amplifier stage connected to said transceiver ; characterized in that it includes a protection block for the block of one or more supercapacitors in order to limit a current draw from the block of one or more supercapacitors to the current source , said protection block being arranged in series with the current source and comprising two resistors (R1, R2) in parallel. - a current source ; - a block of one or more supercapacitors , said block of one or more supercapacitors being arranged in parallel with the current source ; - a transceiver connected to said block of one or more supercapacitors ; and - a frequency amplifier stage connected to said transceiver ;
An electromagnetic touch structure, comprising a frame structure, and an electromagnetic screen structure disposed on the frame structure; the frame structure comprising a groove-shaped metal rear shell and a rim structure circumferentially disposed at a peripheral edge of the metal rear shell ; the electromagnetic screen structure comprising a magnet structure , characterised in that the electromagnetic screen structure comprises a diffusion panel and an electromagnetic film which are stacked between the metal rear shell and the rim structure , and the magnet structure is a permanent magnet structure disposed at a peripheral edge of the electromagnetic film , the permanent magnet structure is located between the metal rear shell and the rim structure , and the electromagnetic film is disposed above or below the diffusion panel . the frame structure comprising a groove-shaped metal rear shell and a rim structure circumferentially disposed at a peripheral edge of the metal rear shell ; the electromagnetic screen structure comprising a magnet structure , characterised in that the electromagnetic screen structure comprises a diffusion panel and an electromagnetic film which are stacked between the metal rear shell and the rim structure , and the magnet structure is a permanent magnet structure disposed at a peripheral edge of the electromagnetic film , the permanent magnet structure is located between the metal rear shell and the rim structure , and the electromagnetic film is disposed above or below the diffusion panel .
Removable electric propulsion system for a rolling object , the propulsion system comprising a chassis provided with at least one wheel driven by an electric machine , and with at least one non-driven wheel , a handle and means for hitching the propulsion system to the rolling object , said hitching means comprising means for gripping, steering, immobilizing and lifting at least one wheel of the rolling object , the propulsion system further comprising: driving assistance means comprising at least one arm of variable length designed to vary the distance between the at least one driven wheel and the at least one non-driven wheel , characterized in that the steering means are designed to steer the at least one wheel of the rolling object in a direction substantially perpendicular to the longitudinal direction (x) of the chassis of the propulsion system .
A pump-storage device comprising: a treatment container including an interior separated by a partitioning board into an upper chamber and a lower chamber , wherein the upper chamber intercommunicates with the lower chamber via a first intercommunication port , wherein the treatment container further includes an inlet intercommunicating with the upper chamber and a second intercommunication port intercommunicating the lower chamber with an outside; a switching module including a first control valve and a second control valve , wherein the first control valve is configured to control intercommunication between the upper chamber and the lower chamber , and wherein the second control valve is configured to control intercommunication between the upper chamber and a gas suction source; a telescopic module including an actuation rod and an actuation cylinder controlling telescopic movement of the actuation rod , wherein the actuation rod extends through the first intercommunication port ; and an intercommunication control module including a first fixing block , a second fixing block , and a third fixing block which are mounted from top to bottom in sequence on the actuation rod , wherein an upper stop plate is disposed between the first fixing block and the second fixing block , wherein a lower stop plate is disposed between the second fixing block and the third fixing block ; the pump-storage device being characterized in that the upper stop plate and the lower stop plate are elastically supported by an elastic unit . a treatment container including an interior separated by a partitioning board into an upper chamber and a lower chamber , wherein the upper chamber intercommunicates with the lower chamber via a first intercommunication port , wherein the treatment container further includes an inlet intercommunicating with the upper chamber and a second intercommunication port intercommunicating the lower chamber with an outside; a switching module including a first control valve and a second control valve , wherein the first control valve is configured to control intercommunication between the upper chamber and the lower chamber , and wherein the second control valve is configured to control intercommunication between the upper chamber and a gas suction source; a telescopic module including an actuation rod and an actuation cylinder controlling telescopic movement of the actuation rod , wherein the actuation rod extends through the first intercommunication port ; and an intercommunication control module including a first fixing block , a second fixing block , and a third fixing block which are mounted from top to bottom in sequence on the actuation rod , wherein an upper stop plate is disposed between the first fixing block and the second fixing block , wherein a lower stop plate is disposed between the second fixing block and the third fixing block ; the pump-storage device being characterized in that the upper stop plate and the lower stop plate are elastically supported by an elastic unit .
A method of wireless communication for use in a user equipment, UE, the method comprising: receiving , through a broadcasted group discovery channel, GDCH, a list of group call services and corresponding session description protocol, SDP, information for establishing the group call services; determining at least one group call service of the group call services to receive; and establishing the at least one group call service based at least in part on the corresponding SDP information received through the broadcasted GDCH. receiving , through a broadcasted group discovery channel, GDCH, a list of group call services and corresponding session description protocol, SDP, information for establishing the group call services; determining at least one group call service of the group call services to receive; and establishing the at least one group call service based at least in part on the corresponding SDP information received through the broadcasted GDCH.
Method for data acquisition, with the following steps: - acquiring, by a sensor (SE) of a field device (FD), sensor data (SD), - compressing, by a data compressor (a1) of the field device (FD) using a representation (R), the sensor data (SD) to generate compressed data (CD), - decompressing, by a data decompressor (a2) of the field device (FD) using the representation (R), the compressed data (CD) to generate decompressed data (DD), with the data compressor (a1) and data decompressor (a2) being parts of a neural autoencoder, wherein the neural autoencoder is a neural network, and wherein parameters of the neural network are the representation (R), - comparing, by a comparison unit (a3) of the field device (FD), the sensor data (SD) with the decompressed data (DD), and detecting a deviation if a difference between the sensor data (SD) and the decompressed data (DD) exceeds a threshold, and if the comparison unit (a3) detects a deviation: - sending the sensor data (SD) as raw uncompressed data (RUD) to a cloud storage (ST), - learning, by a second cloud component (b2), a new representation (NR), by retrieving and analyzing all data (AD) stored in the cloud storage (ST), and - replacing the representation (R) used by the data compressor (a1) and the data decompressor (a2) with the new representation (NR). - acquiring, by a sensor (SE) of a field device (FD), sensor data (SD), - compressing, by a data compressor (a1) of the field device (FD) using a representation (R), the sensor data (SD) to generate compressed data (CD), - decompressing, by a data decompressor (a2) of the field device (FD) using the representation (R), the compressed data (CD) to generate decompressed data (DD), with the data compressor (a1) and data decompressor (a2) being parts of a neural autoencoder, wherein the neural autoencoder is a neural network, and wherein parameters of the neural network are the representation (R), - comparing, by a comparison unit (a3) of the field device (FD), the sensor data (SD) with the decompressed data (DD), and detecting a deviation if a difference between the sensor data (SD) and the decompressed data (DD) exceeds a threshold, - sending the sensor data (SD) as raw uncompressed data (RUD) to a cloud storage (ST), - learning, by a second cloud component (b2), a new representation (NR), by retrieving and analyzing all data (AD) stored in the cloud storage (ST), and - replacing the representation (R) used by the data compressor (a1) and the data decompressor (a2) with the new representation (NR).
Method of avoiding casting level fluctuations during a casting sequence for casting a cast strip of metal, comprising the following steps: continuous monitoring of casting level fluctuations in a mould with regard to whether they exceed a predetermined threshold value; a) if yes: changing a casting parameter from a sub-group of casting parameters so as to reduce the severity of the casting level fluctuations, wherein a dead time dtT > 0 is waited out between the changes of individual casting parameters from the sub-group, or b) if no fluctuations of the casting level beyond the threshold value were ascertained during a predetermined waiting time dtB > 0, wherein dtB > dtT, in the course of the monitoring, the following steps are performed after expiry of the waiting time: checking whether the casting parameters from a predetermined sub-group of casting parameters were already changed once on an earlier occasion; if yes: restoring the casting parameters, which were changed in step a), from the sub-group to their initial values; or if no: changing on each occasion only a single casting parameter, which is arbitrarily selected from a group - inclusive of the sub-group - of casting parameters, at a point in time to preclude in the future a rise of the casting level fluctuations beyond the threshold value. a) if yes: changing a casting parameter from a sub-group of casting parameters so as to reduce the severity of the casting level fluctuations, wherein a dead time dtT > 0 is waited out between the changes of individual casting parameters from the sub-group, or b) if no fluctuations of the casting level beyond the threshold value were ascertained during a predetermined waiting time dtB > 0, wherein dtB > dtT, in the course of the monitoring, the following steps are performed after expiry of the waiting time: checking whether the casting parameters from a predetermined sub-group of casting parameters were already changed once on an earlier occasion; if yes: restoring the casting parameters, which were changed in step a), from the sub-group to their initial values; or if no: changing on each occasion only a single casting parameter, which is arbitrarily selected from a group - inclusive of the sub-group - of casting parameters, at a point in time to preclude in the future a rise of the casting level fluctuations beyond the threshold value. checking whether the casting parameters from a predetermined sub-group of casting parameters were already changed once on an earlier occasion; if yes: restoring the casting parameters, which were changed in step a), from the sub-group to their initial values; or if no: changing on each occasion only a single casting parameter, which is arbitrarily selected from a group - inclusive of the sub-group - of casting parameters, at a point in time to preclude in the future a rise of the casting level fluctuations beyond the threshold value.
An integrated optical probe card for batch testing optical MEMS structures, comprising: a source configured to generate an input beam and to provide the input beam towards an optical MEMS structure , wherein the optical MEMS structure comprises an in-plane optical axis; a detector optically coupled to receive an output beam from the optical MEMS structure ; characterized in that it further comprises a micro-optical bench component integrated on the integrated optical probe card and optically coupled to receive the input beam propagating from the source and to redirect the input beam from an out-of-plane direction perpendicular to the in-plane optical axis to an in-plane direction comprising the in-plane optical axis of the optical MEMS structure to inject the input beam into the optical MEMS structure in the in-plane direction, wherein the micro-optical bench component is further optically coupled to receive the output beam propagating in the in-plane direction from the optical MEMS structure and to redirect the output beam from the in-plane direction to the out-of-plane direction for propagating towards the detector . a source configured to generate an input beam and to provide the input beam towards an optical MEMS structure , wherein the optical MEMS structure comprises an in-plane optical axis; a detector optically coupled to receive an output beam from the optical MEMS structure ; characterized in that it further comprises a micro-optical bench component integrated on the integrated optical probe card and optically coupled to receive the input beam propagating from the source and to redirect the input beam from an out-of-plane direction perpendicular to the in-plane optical axis to an in-plane direction comprising the in-plane optical axis of the optical MEMS structure to inject the input beam into the optical MEMS structure in the in-plane direction, wherein the micro-optical bench component is further optically coupled to receive the output beam propagating in the in-plane direction from the optical MEMS structure and to redirect the output beam from the in-plane direction to the out-of-plane direction for propagating towards the detector .
Method for compensating beam angle variation of a beam bundle of laser beams generated by a diffractive optical element with respective beam angles, comprising the steps: - determining a beam angle value from at least one beam angle of a first subset of the laser beams, - detecting a light pattern projected with a second subset of the laser beams, - evaluating the light pattern, wherein the evaluation is performed taking into account the beam angle variation of the beam angles of the second subset of the laser beams on the basis of the determined beam angle value, characterised in that the beam angle value is determined using a first sensor arrangement , the first sensor arrangement being assigned to an illumination in which the beam bundle of laser beams is generated, only the second subset of the laser beams for projecting the light pattern leaving the illumination . - determining a beam angle value from at least one beam angle of a first subset of the laser beams, - detecting a light pattern projected with a second subset of the laser beams, - evaluating the light pattern, wherein the evaluation is performed taking into account the beam angle variation of the beam angles of the second subset of the laser beams on the basis of the determined beam angle value,
A battery module comprising: a plurality of battery cells that is aligned in a first direction (X); a first chassis that includes a plurality of first compartments (11x1) and at least one second compartment (11x2) partitioned in the first direction (X), the first compartments (11x1) in which the battery cells are housed one by one; and a connection member that comprises a body housed in the second compartment (11x2), a pair of connection terminals mounted on a first face of the body , and electrically connectable to electrodes of the battery cells via a conductive member , the first face facing in a second direction (Z) intersecting with the first direction (X), and a conductor that extends across the pair of connection terminals , wherein the second compartment (11x2) is located nearer to a center than to an end of the first chassis in the first direction (X). a plurality of battery cells that is aligned in a first direction (X); a first chassis that includes a plurality of first compartments (11x1) and at least one second compartment (11x2) partitioned in the first direction (X), the first compartments (11x1) in which the battery cells are housed one by one; and a connection member that comprises a body housed in the second compartment (11x2), a pair of connection terminals mounted on a first face of the body , and electrically connectable to electrodes of the battery cells via a conductive member , the first face facing in a second direction (Z) intersecting with the first direction (X), and a conductor that extends across the pair of connection terminals , wherein the second compartment (11x2) is located nearer to a center than to an end of the first chassis in the first direction (X). a body housed in the second compartment (11x2), a pair of connection terminals mounted on a first face of the body , and electrically connectable to electrodes of the battery cells via a conductive member , the first face facing in a second direction (Z) intersecting with the first direction (X), and a conductor that extends across the pair of connection terminals , wherein the second compartment (11x2) is located nearer to a center than to an end of the first chassis in the first direction (X).