mhurhangee/ep-ind-claims huggingface dataset:
A method for encoding a time frame of an audio scene segmented into frequency bands with at least a plurality of audio objects, the method comprising: receiving N audio objects ( S n,n = 1,..., N) and associated positional metadata ( x n,n = 1,..., N) wherein N > 1; generating a downmix signal comprising M downmix channels ( Y m,m = 1,..., M), each downmix channel being a linear combination of one or more of the N audio objects and being associated with a positional locator ( z m,m = 1,..., M) wherein M > 1; for each audio object: computing, on the basis of the positional metadata, with which the audio object is associated, and the positional locators of the downmix channels, correlation coefficients ( d n = ( d n,1,..., d n, M)) indicative of the spatial relatedness of the audio object and each downmix channel; and for each frequency band: determining an object gain ( g n) in such manner that an inner product of the correlation coefficients and the downmix signal rescaled by the object gain g n × d n T Y approximates the audio object in the time frame; and generating a bitstream comprising the downmix signal, the positional metadata and the object gains. receiving N audio objects ( S n,n = 1,..., N) and associated positional metadata ( x n,n = 1,..., N) wherein N > 1; generating a downmix signal comprising M downmix channels ( Y m,m = 1,..., M), each downmix channel being a linear combination of one or more of the N audio objects and being associated with a positional locator ( z m,m = 1,..., M) wherein M > 1; for each audio object: computing, on the basis of the positional metadata, with which the audio object is associated, and the positional locators of the downmix channels, correlation coefficients ( d n = ( d n,1,..., d n, M)) indicative of the spatial relatedness of the audio object and each downmix channel; and for each frequency band: determining an object gain ( g n) in such manner that an inner product of the correlation coefficients and the downmix signal rescaled by the object gain g n × d n T Y approximates the audio object in the time frame; computing, on the basis of the positional metadata, with which the audio object is associated, and the positional locators of the downmix channels, correlation coefficients ( d n = ( d n,1,..., d n, M)) indicative of the spatial relatedness of the audio object and each downmix channel; and for each frequency band: determining an object gain ( g n) in such manner that an inner product of the correlation coefficients and the downmix signal rescaled by the object gain g n × d n T Y approximates the audio object in the time frame; determining an object gain ( g n) in such manner that an inner product of the correlation coefficients and the downmix signal rescaled by the object gain g n × d n T Y approximates the audio object in the time and generating a bitstream comprising the downmix signal, the positional metadata and the object gains.
A tire valve ID registration system that includes a plurality of tire valves respectively coupled to a plurality of tires (2a to 2d) and a spare tire and configured to transmit a radio signal including tire air pressure data and a valve ID, and a receiver arranged on a vehicle body and configured to receive the radio signal from each of the tire valves, wherein the tire valve ID registration system monitors air pressure of a plurality of tires based on a radio signal transmitted from each of the tire valves and registers the valve IDs of the tire valves to the receiver, the tire valve ID registration system comprising: a spare tire ID collection unit configured to collect the valve ID of at least one radio signal received by the receiver under a condition that allows for determination that the radio signal was transmitted from the tire valve of the spare tire as at least one candidate ID for the spare tire; characterized by a spare tire ID designation unit configured to designate an ID of the spare tire by determining whether or not the receiver is able to successively receive the at least one candidate ID for the spare tire, which has been collected by the spare tire ID collection unit, under the condition and narrowing down the at least one candidate ID for the spare tire based on the determination result. a spare tire ID collection unit configured to collect the valve ID of at least one radio signal received by the receiver under a condition that allows for determination that the radio signal was transmitted from the tire valve of the spare tire as at least one candidate ID for the spare tire; characterized by a spare tire ID designation unit configured to designate an ID of the spare tire by determining whether or not the receiver is able to successively receive the at least one candidate ID for the spare tire, which has been collected by the spare tire ID collection unit, under the condition and narrowing down the at least one candidate ID for the spare tire based on the determination result.
Movable support for the ends of movable walls of swimming pools, provided with wheels running along respective tracks envisaged at the side edges of the swimming pool, and comprising a mechanism determining the movement thereof, the mechanism being based on a set of pulleys (4, 5, 6) connected to one another by means of belts, which mechanism comprises a driving pulley which is connected to a reducing group of pulleys (5, 6) which is in turn connected to respective pulleys integral with the shafts of the wheels., characterized in that the belts also comprise tensioning devices, and said respective tensioning devices have been arranged in the belts connecting the pulleys (4, 5, 7, 8) to one another for tensioning same.
A method in a wireless device for receiving information on a physical downlink control channel, PDCCH, signaled by a network node, wherein the PDCCH uses a transmission time interval of 7 or less OFDM symbols, the method comprising: receiving the PDCCH from the network node, wherein the PDCCH is mapped to resource element groups, REGs, and wherein each REG spans only one orthogonal frequency division multiplex, OFDM, symbol, and wherein the PDCCH is of 2 or more OFDM symbols; wherein the PDCCH comprises one or more control-channel element, CCE, wherein a CCE to REG mapping is localized in a frequency domain or distributed in the frequency domain; and wherein for the CCE to REG mapping distributed in the frequency domain, the REGs are distributed in groups of REGs, each group of REGs being mapped to consecutive PRBs, and wherein a said REG consists of 1 PRB within 1 OFDM symbol. receiving the PDCCH from the network node, wherein the PDCCH is mapped to resource element groups, REGs, and wherein each REG spans only one orthogonal frequency division multiplex, OFDM, symbol, and wherein the PDCCH is of 2 or more OFDM symbols;
Apparatus comprising: a module (20a,60) comprising: means for receiving an individual command for the module via a first interface of the module addressable by a first address; and means for receiving a group command via a second interface addressable by a second address; and at least one other module (20b,60) comprising means for receiving the group command via an interface that is addressable by the second address. a module (20a,60) comprising: means for receiving an individual command for the module via a first interface of the module addressable by a first address; and means for receiving a group command via a second interface addressable by a second address; and means for receiving an individual command for the module via a first interface of the module addressable by a first address; and means for receiving a group command via a second interface addressable by a second address; and at least one other module (20b,60) comprising means for receiving the group command via an interface that is addressable by the second address.
A crossbeam for a clothing shaking device, wherein the crossbeam comprises a body and an elastic clamping member arranged on the body, and the elastic clamping member is configured to elastically clamp a hanger through its own elasticity, wherein the crossbeam further comprises a positioning member which is capable of positioning the elastic clamping member to the body, and the positioning member comprises a positioning opening provided on the body and a positioning hook provided on the elastic clamping member, and the positioning hook is matched with the positioning opening, characterized in that the elastic clamping member is provided with a support structure on a side facing the body, and after the assembly is completed, the support structure elastically abuts against the body so that the positioning hook is hooked tightly on the positioning opening. wherein the crossbeam further comprises a positioning member which is capable of positioning the elastic clamping member to the body, and the positioning member comprises a positioning opening provided on the body and a positioning hook provided on the elastic clamping member, and the positioning hook is matched with the positioning opening, characterized in that the elastic clamping member is provided with a support structure on a side facing the body, and after the assembly is completed, the support structure elastically abuts against the body so that the positioning hook is hooked tightly on the positioning opening.
A method of operation of a wireless device, for providing privacy of a user identity when establishing a connection to a network over a non-third generation partnership project, non-3GPP, access network, the method comprising: - sending a message comprising an anonymous user identity; - receiving a request for obfuscating the user identity wherein the request comprises a server certificate of a server; and - validating the server certificate and sending a response message comprising the user identity obfuscated by a public key associated with the server certificate. - sending a message comprising an anonymous user identity; - receiving a request for obfuscating the user identity wherein the request comprises a server certificate of a server; and - validating the server certificate and sending a response message comprising the user identity obfuscated by a public key associated with the server certificate.
A chimeric protein comprising amino acid sequences derived from the sequences corresponding to the major allergens of the Parietaria judaica pollen known as Par j 1 and Par j 2, the chimeric protein amino acid sequence lacking one or more epitopes for binding to IgE antibodies corresponding to the sequences from which it is derived, and wherein the protein does not have a reduction in immunogenicity, characterised in that the protein comprises the amino acid sequence of SEQ ID NO: 4.
A passenger seat for a rail vehicle comprising a backrest, a backrest upholstery, a seat surface and a fastening device for the backrest, the fastening device comprises a backrest fastening element for fastening the backrest, a body and at least one recess in the body, wherein the backrest is connected to the fastening device by the backrest fastening element, the fastening device not being designed for fastening further elements, the backrest being formed by a half-shell which preferably comprises a laminate, in particular HPL, characterized in that the fastening device is arranged at least partially between the backrest and backrest upholstery so that it is not visible from the outside.
A method for producing a coffee extract, comprising the steps: a. providing roast and ground coffee beans; b. adding to said coffee beans water and an enzyme having β-1,3-galactanase activity; c. incubating to make an aqueous coffee extract; and d. separating the coffee extract from the extracted coffee beans; wherein the enzyme having β-1,3-galactanase activity is an enzyme which specifically hydrolyses beta-1,3-galactan and beta-1,3-galactooligosaccharides; and wherein the enzyme having β-1,3-galactanase activity has primarily endo-β-1,3-galactanase activity. a. providing roast and ground coffee beans; b. adding to said coffee beans water and an enzyme having β-1,3-galactanase activity; c. incubating to make an aqueous coffee extract; and d. separating the coffee extract from the extracted coffee beans; wherein the enzyme having β-1,3-galactanase activity is an enzyme which specifically hydrolyses beta-1,3-galactan and beta-1,3-galactooligosaccharides; and wherein the enzyme having β-1,3-galactanase activity has primarily endo-β-1,3-galactanase activity. wherein the enzyme having β-1,3-galactanase activity is an enzyme which specifically hydrolyses beta-1,3-galactan and beta-1,3-galactooligosaccharides; and wherein the enzyme having β-1,3-galactanase activity has primarily endo-β-1,3-galactanase activity.
A flushing tank for a sanitary appliance, comprising a container and an adjustable mounting device for fitting the container onto a support wall; the device comprising: a seat formed on a wall of the container; and a mounting plate insertable in the seat; the flushing tank being characterised in that the mounting plate is slidable in the seat along a sliding axis so as to axially change the position of the plate with respect to the container; and in that the device comprises at least one locking member shaped so as to engage together the plate and a hooking seat formed on the wall of the container, thus locking the plate in a selected position in the seat and hence at a predetermined height along the sliding axis.
Vehicle equipped with an electric motor, an estimator of the velocity of the vehicle, an estimator (TmE) of the mechanical torque (Tm) of the motor, a means for commanding (Cm*) the electric motor, pedals for the contribution of power (Pu) by a user, an estimator (PuE) of the power (Pu) generated by the user and at least one means for additional torque (Ta) application in addition to a user torque (Tu) corresponding to the power (Pu) generated by the user, wherein the vehicle further comprises a stimulus generator whose inputs comprise the user's power (Pu) and the velocity measured by the estimator of the velocity and whose outputs comprise a forced velocity control stimulus that results in the velocity command (V*) of the electric motor wherein the stimulus generator is configured to operate according to the following procedure: a) Define a stationary torque (Tst) of the user by subtracting from the user's torque (Tu) the torque (Tac) corresponding to an acceleration (a) of the vehicle, wherein the torque (Tac) corresponding to an acceleration (a) of the vehicle is estimated by using a dynamic model, the dynamic model relating torque (Tac) with acceleration (a) of the vehicle by considering a mass (m) of the user and vehicle, characterized in that the stimulus generator is configured to operate according to the further following procedure: b) Obtain the natural velocity (Vn) by means of a pedaling model that corresponds to the stationary torque to be performed by the user at each velocity (Tst = f(v)) to travel on terrain with a slope close to 0 %, without wind and with good pavement, without assistance (Tm=0) of the motor, c) Define a velocity control stimulus corresponding to the natural velocity (Vn) minus the velocity of the vehicle, wherein the velocity control stimulus corresponds to the variation of the velocity of the vehicle to be commanded, and the forced velocity control stimulus is obtained by adding the velocity of the vehicle to the velocity control stimulus. a) Define a stationary torque (Tst) of the user by subtracting from the user's torque (Tu) the torque (Tac) corresponding to an acceleration (a) of the vehicle, wherein the torque (Tac) corresponding to an acceleration (a) of the vehicle is estimated by using a dynamic model, the dynamic model relating torque (Tac) with acceleration (a) of the vehicle by considering a mass (m) of the user and vehicle, characterized in that the stimulus generator is configured to operate according to the further following procedure: b) Obtain the natural velocity (Vn) by means of a pedaling model that corresponds to the stationary torque to be performed by the user at each velocity (Tst = f(v)) to travel on terrain with a slope close to 0 %, without wind and with good pavement, without assistance (Tm=0) of the motor, c) Define a velocity control stimulus corresponding to the natural velocity (Vn) minus the velocity of the vehicle, wherein the velocity control stimulus corresponds to the variation of the velocity of the vehicle to be commanded, and the forced velocity control stimulus is obtained by adding the velocity of the vehicle to the velocity control stimulus.
A method for controlling a candidate small cell base station (104 1) and a user equipment to be served by the candidate small base station in a wireless communication system comprising a plurality of small cell base stations (104 1 - 104 6) controlled by a macro base station, the method comprising: in response to a request from the macro base station to the candidate small cell base station (104 1), performing, by the candidate small cell base station (104 1), a beacon transmission on one or more specific candidate resources; in response to a request from the macro base station to the user equipment, performing, by the user equipment, a channel quality measurement on the one or more specific candidate resources which have also been signaled to the candidate small cell base station (104 1); and reporting the measured channel quality from the user equipment to the macro base station. in response to a request from the macro base station to the candidate small cell base station (104 1), performing, by the candidate small cell base station (104 1), a beacon transmission on one or more specific candidate resources; in response to a request from the macro base station to the user equipment, performing, by the user equipment, a channel quality measurement on the one or more specific candidate resources which have also been signaled to the candidate small cell base station (104 1); and reporting the measured channel quality from the user equipment to the macro base station.
A computer-implemented method of caching multi-session data communications in a computer network, the method being implemented by a caching service that is a distinct intermediary between a client (A 1), one or more metadata services, and content sources (B 1, B 2), and comprising the steps of: (a) receiving, intercepting, or monitoring one or more data sessions between the client (A 1) executing a multi-session application for retrieving a desired content object and the one or more metadata services, said client communicating with the one or more metadata services to discover metadata (M Z) for the content object; (b) analyzing queries and responses exchanged between the client (A 1) and the one of more metadata services to discover the metadata (M Z) for the content object; (c) after receiving, intercepting or monitoring the one or more data sessions, receiving or intercepting subsequent data sessions (S 1) between the client (A 1) and the content sources (B 1, B 2); identifying a data protocol used by the client (A 1) to interpret data queries within the subsequent data sessions (S 1); identifying the data queries (Q 1) within the subsequent data sessions (S 1); (e) identifying the content object or portions thereof requested by the client (A 1) in the data queries (Q 1); and thereupon (f) determining if the content object or portions of the content object are stored in cache of the caching service, based on said discovered metadata (M Z), and, if so, sending the content object or portions thereof stored in cache to the client (A 1), and, if not, sending the data queries (Q 1) to the content sources (B 1, B 2), storing data responses from the content sources, and sending the data responses to the client (A 1). (a) receiving, intercepting, or monitoring one or more data sessions between the client (A 1) executing a multi-session application for retrieving a desired content object and the one or more metadata services, said client communicating with the one or more metadata services to discover metadata (M Z) for the content object; (b) analyzing queries and responses exchanged between the client (A 1) and the one of more metadata services to discover the metadata (M Z) for the content object; (c) after receiving, intercepting or monitoring the one or more data sessions, receiving or intercepting subsequent data sessions (S 1) between the client (A 1) and the content sources (B 1, B 2); identifying a data protocol used by the client (A 1) to interpret data queries within the subsequent data sessions (S 1); identifying the data queries (Q 1) within the subsequent data sessions (S 1); (e) identifying the content object or portions thereof requested by the client (A 1) in the data queries (Q 1); and thereupon (f) determining if the content object or portions of the content object are stored in cache of the caching service, based on said discovered metadata (M Z), and, if so, sending the content object or portions thereof stored in cache to the client (A 1), and, if not, sending the data queries (Q 1) to the content sources (B 1, B 2), storing data responses from the content sources, and sending the data responses to the client (A 1).
Wearable sitting-posture assisting device (100a; 100b) with at least one leg unit (102a; 102b; 104a) that defines at least one longitudinal leg axis (110a, 128a; 128b) and with at least one foot unit (142a; 142b) that is configured for a connection of a shoe and/or a foot of a person, wherein the foot unit (142a; 142b) comprises at least one shoe adapter and at least one shoe connector which are couplable with one another at least transversely to the at least one at least one longitudinal leg axis (110a, 128a; 128b), characterized by a quick coupling which is configured for a tool-less coupling of the shoe adapter and the shoe connector with each other, wherein the quick coupling comprises at least one latch element that is configured at least partially to create a coupling of the shoe adapter with the shoe connector. with at least one leg unit (102a; 102b; 104a) that defines at least one longitudinal leg axis (110a, 128a; 128b) and with at least one foot unit (142a; 142b) that is configured for a connection of a shoe and/or a foot of a person, wherein the foot unit (142a; 142b) comprises at least one shoe adapter and at least one shoe connector which are couplable with one another at least transversely to the at least one at least one longitudinal leg axis (110a, 128a; 128b), characterized by a quick coupling which is configured for a tool-less coupling of the shoe adapter and the shoe connector with each other, wherein the quick coupling comprises at least one latch element that is configured at least partially to create a coupling of the shoe adapter with the shoe connector.