mhurhangee/patent-ind-claim-en huggingface dataset:
A method for wireless communication by a User Equipment, UE, comprising: determining a constraint on a total number of transfer domain coefficients to be reported for compressed Channel State Information, CSI, feedback by the UE for a plurality of beams identified for the feedback, wherein each transfer domain coefficient is associated with amplitude information and phase information, wherein the transfer domain is based at least on a set of DFT, Discrete Fourier Transform, bases or a set of DCT, Discrete Cosine Transfer, bases; selecting from a transfer domain coefficient compression matrix, based on the constraint, a set of one or more transfer domain coefficients to report for each of the beams; reporting information indicating a number of selected transfer domain coefficients in the set of transfer domain coefficients for each beam and a location of each transfer domain coefficient within the transfer domain coefficient compression matrix; and reporting at least the amplitude and phase information for the selected coefficients, wherein the reported amplitude and phase information comprises beam-specific amplitude and phase values and coefficient-specific differential amplitude values and differential phase value, wherein a number of bits used for reporting amplitude and phase information comprises a number of bits for reporting the beam-specific amplitude and phase values, and a number of bits for reporting the coefficient-specific differential amplitude values and differential phase values. determining a constraint on a total number of transfer domain coefficients to be reported for compressed Channel State Information, CSI, feedback by the UE for a plurality of beams identified for the feedback, wherein each transfer domain coefficient is associated with amplitude information and phase information, wherein the transfer domain is based at least on a set of DFT, Discrete Fourier Transform, bases or a set of DCT, Discrete Cosine Transfer, bases; selecting from a transfer domain coefficient compression matrix, based on the constraint, a set of one or more transfer domain coefficients to report for each of the beams; reporting information indicating a number of selected transfer domain coefficients in the set of transfer domain coefficients for each beam and a location of each transfer domain coefficient within the transfer domain coefficient compression matrix; and reporting at least the amplitude and phase information for the selected coefficients, wherein the reported amplitude and phase information comprises beam-specific amplitude and phase values and coefficient-specific differential amplitude values and differential phase value, wherein a number of bits used for reporting amplitude and phase information comprises a number of bits for reporting the beam-specific amplitude and phase values, and a number of bits for reporting the coefficient-specific differential amplitude values and differential phase values.
A mobile terminal comprising: a first frame ; a second frame slidable with respect to the first frame in a first direction (D1) and in a second direction (D2) opposite to the first direction (D1); a slide rail formed on the first frame and extending in the first direction (D1); a slidably-moving portion fixed to the second frame and movable along the slide rail in the first direction (D1) and in the second direction (D2); a sensing terminal located on the slide rail ; a ground terminal located on a face of the slidably-moving portion facing the slide rail and configured to contact the sensing terminal at predetermined first position of the slidably-moving portion with respect to the slide rail corresponding to a predetermined first sliding position of the second frame with respect to the first frame ; a power supply unit ; an input resistor having one end connected to the power supply unit ; a sensing resistor having one end connected to the sensing terminal and the other end connected to the other end of the input resistor ; a detecting unit configured to measure the voltage (Vout) at said other end of the input resistor ; and a controller configured to determine the sliding position of the second frame with respect to the first frame when the ground terminal is in contact with the sensing terminal based on the voltage measured by the detecting unit. a first frame ; a second frame slidable with respect to the first frame in a first direction (D1) and in a second direction (D2) opposite to the first direction (D1); a slide rail formed on the first frame and extending in the first direction (D1); a slidably-moving portion fixed to the second frame and movable along the slide rail in the first direction (D1) and in the second direction (D2); a sensing terminal located on the slide rail ; a ground terminal located on a face of the slidably-moving portion facing the slide rail and configured to contact the sensing terminal at predetermined first position of the slidably-moving portion with respect to the slide rail corresponding to a predetermined first sliding position of the second frame with respect to the first frame ; a power supply unit ; an input resistor having one end connected to the power supply unit ; a sensing resistor having one end connected to the sensing terminal and the other end connected to the other end of the input resistor ; a detecting unit configured to measure the voltage (Vout) at said other end of the input resistor ; and a controller configured to determine the sliding position of the second frame with respect to the first frame when the ground terminal is in contact with the sensing terminal based on the voltage measured by the detecting unit.
A master cylinder for an electronic brake system in which the master cylinder includes a cylinder body connected to a reservoir and provided with a bore , one end of which is opened in a longitudinal direction, a piston configured to be movable forward and backward within the bore , and first and second master chambers being spaced apart from each other by the piston , the second master chamber configured to discharge a pressing medium in response to a displacement of the piston , the master cylinder comprising: a pedal simulator provided in the bore , and configured to be spaced apart from the piston by a predetermined distance, be directly pressurized by a brake pedal , and thus provide reaction force; a simulation chamber formed in the bore , and configured to be separated from the first master chamber by the pedal simulator ; characterized in that said master cylinder comprises further: a simulation passage configured to connect the simulation chamber to the first master chamber ; and a simulation valve provided in the simulation passage , and configured to control flow of a pressing medium in response to an opening/closing operation thereof. a pedal simulator provided in the bore , and configured to be spaced apart from the piston by a predetermined distance, be directly pressurized by a brake pedal , and thus provide reaction force; a simulation chamber formed in the bore , and configured to be separated from the first master chamber by the pedal simulator ; characterized in that said master cylinder comprises further: a simulation passage configured to connect the simulation chamber to the first master chamber ; and a simulation valve provided in the simulation passage , and configured to control flow of a pressing medium in response to an opening/closing operation thereof.
A method for an electronic price label system comprising at least a base station and a plurality of electronic labels for transferring information between the base station and electronic labels, the method comprising. transmitting a first message from base station to a plurality of electronic labels , the first message comprising at least identification information of one electronic label , receiving the first message at the electronic label , recognizing the identification information in the first transmitted message by the electronic label , and characterized in that the method further comprises: transmitting a second message from the base station to the electronic label , receiving the second message and sending an acknowledgement message to the second message from electronic label with a modulation frequency around an intended and specified modulation frequency from a certain frequency range, searching the acknowledgement message sent with the modulation frequency around the intended and specified modulation frequency from a predefined frequency range at the base station , wherein the acknowledgement message from electronic label to base station is sent by reflecting back the transmission of the base station. transmitting a second message from the base station to the electronic label , receiving the second message and sending an acknowledgement message to the second message from electronic label with a modulation frequency around an intended and specified modulation frequency from a certain frequency range, searching the acknowledgement message sent with the modulation frequency around the intended and specified modulation frequency from a predefined frequency range at the base station , wherein the acknowledgement message from electronic label to base station is sent by reflecting back the transmission of the base station.
An elevator car door system comprising: an elevator car door panel (302; 408; 502; 600; 704) having a first retention member (312; 406; 510; 604; 720); and a suspension (310; 410; 504; 602; 706) having a second retention member (512; 606; 718) configured to releasably engage with the first retention member (312; 406; 510; 604; 720) to retain the elevator car door panel (302; 408; 502; 600; 704) in a first position; wherein the elevator car door panel (302; 408; 502; 600; 704) is moveable relative to the suspension (310; 410; 504; 602; 706) to a second position, wherein the second position is configured to enable the elevator car door panel (302; 408; 502; 600; 704) to be removed from the suspension (310; 410; 504; 602; 706). an elevator car door panel (302; 408; 502; 600; 704) having a first retention member (312; 406; 510; 604; 720); and a suspension (310; 410; 504; 602; 706) having a second retention member (512; 606; 718) configured to releasably engage with the first retention member (312; 406; 510; 604; 720) to retain the elevator car door panel (302; 408; 502; 600; 704) in a first position; wherein the elevator car door panel (302; 408; 502; 600; 704) is moveable relative to the suspension (310; 410; 504; 602; 706) to a second position, wherein the second position is configured to enable the elevator car door panel (302; 408; 502; 600; 704) to be removed from the suspension (310; 410; 504; 602; 706).
Mixture comprising (A) 90 to 99.999 % by weight of racemic methyl glycine diacetic acid (MGDA) or of MGDA with predominantly the L-isomer in an enantiomeric excess of up to 9.5% or their respective mono-, di- or trialkali metal or mono-, di- or triammonium salts, and (B) 0.001 to 10 % by weight of the diacetic acid derivative of aspartate as free acid or as mono-, di-, tri- or tetraalkali metal salt or as mono-, di-, tri- or tetraammonium salt, percentages referring to the sum from (A) and (B). (A) 90 to 99.999 % by weight of racemic methyl glycine diacetic acid (MGDA) or of MGDA with predominantly the L-isomer in an enantiomeric excess of up to 9.5% or their respective mono-, di- or trialkali metal or mono-, di- or triammonium salts, and (B) 0.001 to 10 % by weight of the diacetic acid derivative of aspartate as free acid or as mono-, di-, tri- or tetraalkali metal salt or as mono-, di-, tri- or tetraammonium salt,
A remote control unit, RCU, external to an antenna, configured to be used in conjunction with the antenna, comprising: a reading and writing device , configured to read antenna information and retrieve configuration data of the antenna stored in a readable and writable storage unit of the antenna; wherein the RCU is configured to drive a motor to move a phase shifter after the RCU retrieved the configuration data corresponding to the antenna information, so as to adjust the electrical down-tilt angle of the antenna; the configuration data is for controlling the driving and a moving length of the phase shifter. a reading and writing device , configured to read antenna information and retrieve configuration data of the antenna stored in a readable and writable storage unit of the antenna; wherein the RCU is configured to drive a motor to move a phase shifter after the RCU retrieved the configuration data corresponding to the antenna information, so as to adjust the electrical down-tilt angle of the antenna; the configuration data is for controlling the driving and a moving length of the phase shifter.
Electrode patch , in particular for performing electrocardiography, comprising: an elastic adhesive layer having an adhesive contact surface that is configured to adhere to the skin of a subject the electrode patch is applied to; an elastic conductive layer including a plurality of measurement points and conductive paths , the conductive paths being configured to conductively connect the plurality of measurement points to a connector ; and a plurality of electrodes, wherein each of the plurality of electrodes is formed at least by one of the plurality of measurement points and a corresponding recess provided in the adhesive layer , which recess extends through the entire layer thickness of the adhesive layer and is provided or providable with a substance that is adhesive and conductive, such as hydrogel, so as to conductively connect the one of the plurality of measurement points to the skin of the subject; wherein at least 90% of the area of the electrode patch is radiolucent by means of radiolucency of the adhesive layer and the conductive layer . an elastic adhesive layer having an adhesive contact surface that is configured to adhere to the skin of a subject the electrode patch is applied to; an elastic conductive layer including a plurality of measurement points and conductive paths , the conductive paths being configured to conductively connect the plurality of measurement points to a connector ; and a plurality of electrodes, wherein each of the plurality of electrodes is formed at least by one of the plurality of measurement points and a corresponding recess provided in the adhesive layer , which recess extends through the entire layer thickness of the adhesive layer and is provided or providable with a substance that is adhesive and conductive, such as hydrogel, so as to conductively connect the one of the plurality of measurement points to the skin of the subject; wherein at least 90% of the area of the electrode patch is radiolucent by means of radiolucency of the adhesive layer and the conductive layer .
Method for detecting an earth fault in an electrical power distribution grid or on an electrical power transmission line, wherein the method involves - energy values being formed by means of an integration of power values, characterized in that - a further integration is performed that involves the energy values being integrated to form a comparison signal (iw0(t)), and - the comparison signal (iw0(t)) is used to check whether there is an earth fault and the earth fault error signal needs to be generated. - energy values being formed by means of an integration of power values, characterized in that - a further integration is performed that involves the energy values being integrated to form a comparison signal (iw0(t)), and - the comparison signal (iw0(t)) is used to check whether there is an earth fault and the earth fault error signal needs to be generated.
A coupler , comprising: a tubular conduit having a length disposed between a conduit first end and a conduit second end and a conduit wall having a thickness disposed between an external surface and an internal surface , said internal surface defining an interior passage between said conduit first end and said conduit second end ; and a tubular guide coupled to said conduit first end , said tubular guide continuously widening between said conduit first end and a tubular guide terminal end , said tubular guide including: a first tubular guide first region directly connected to said conduit first end ; a first tubular guide second region directly connected to said first tubular guide first region and extending to said tubular guide terminal end ; said first tubular guide first region having a first radius of curvature along a longitudinal axis of said tubular guide; said first tubular guide second region having a second radius of curvature along said longitudinal axis of said tubular guide, said second radius of curvature less than said first radius of curvature , said first radius of curvature and said second radius of curvature outwardly curving from said interior passage . a tubular conduit having a length disposed between a conduit first end and a conduit second end and a conduit wall having a thickness disposed between an external surface and an internal surface , said internal surface defining an interior passage between said conduit first end and said conduit second end ; and a tubular guide coupled to said conduit first end , said tubular guide continuously widening between said conduit first end and a tubular guide terminal end , said tubular guide including: a first tubular guide first region directly connected to said conduit first end ; a first tubular guide second region directly connected to said first tubular guide first region and extending to said tubular guide terminal end ; said first tubular guide first region having a first radius of curvature along a longitudinal axis of said tubular guide; said first tubular guide second region having a second radius of curvature along said longitudinal axis of said tubular guide, said second radius of curvature less than said first radius of curvature , said first radius of curvature and said second radius of curvature outwardly curving from said interior passage . a first tubular guide first region directly connected to said conduit first end ; a first tubular guide second region directly connected to said first tubular guide first region and extending to said tubular guide terminal end ; said first tubular guide first region having a first radius of curvature along a longitudinal axis of said tubular guide; said first tubular guide second region having a second radius of curvature along said longitudinal axis of said tubular guide, said second radius of curvature less than said first radius of curvature , said first radius of curvature and said second radius of curvature outwardly curving from said interior passage .
An articulated arm comprising at least three articulations mounted in series to allow movements of the arm according to at least two axes of rotation (Rx, Ry) per articulation, each articulation comprises a first and a second supports and at least three linear actuators , each linear actuator having a first and a second ends articulated respectively to the first and to the second support by a ball joint connection , the arm comprising a sealed, deformable sheath enveloping the articulations and shaped to follow the movement of the articulated arm and to be maintained at a distance from the linear actuators and the ball joint connections regardless of the movement of the articulated arm , at least one articulation comprising a force-absorbing structure which is on the one hand embedded on the first support and on the other hand coupled to the second support by a ball joint , each force-absorbing structure including at least one hollow tube carrying a hollow ball joint , the arm being configured so as to provide a channel passage passing through the force-absorbing structure and the first and second supports.
A method for controlling roughening process parameters for a light emitting device, comprising: determining a required flux per light emitting device for an application, selecting a light emitting device technology, determining the minimum and maximum achievable flux per light emitting device of the selected light emitting device technology based on control of a degree of roughening, checking if the required flux is between the achievable minimum and maximum flux, wherein a different light emitting device technology is selected if the required flux is between the achievable minimum and maximum flux and the different light emitting device technology is assessed, determining the required degree of flux increase over the minimum flux, determining a relationship between a process parameter of the selected technology and a flux achievable by modifying a surface of a light emitting element using the process parameter, wherein the process parameter corresponds to a parameter that affects a roughening of the surface of the light emitting element determining a select value of the process parameter that will achieve the required flux based on the relationship, and modifying the surface of the light emitting element using the select value of the processing parameter. determining a required flux per light emitting device for an application, selecting a light emitting device technology, determining the minimum and maximum achievable flux per light emitting device of the selected light emitting device technology based on control of a degree of roughening, checking if the required flux is between the achievable minimum and maximum flux, wherein a different light emitting device technology is selected if the required flux is between the achievable minimum and maximum flux and the different light emitting device technology is assessed, determining the required degree of flux increase over the minimum flux, determining a relationship between a process parameter of the selected technology and a flux achievable by modifying a surface of a light emitting element using the process parameter, wherein the process parameter corresponds to a parameter that affects a roughening of the surface of the light emitting element determining a select value of the process parameter that will achieve the required flux based on the relationship, and modifying the surface of the light emitting element using the select value of the processing parameter.