mhurhangee/patent-ind-claim-en huggingface dataset:
An apparatus comprising means for performing: acquiring , from a received frame, a set of samples associated with a position of a control information element in the frame; inputting the set of samples to nodes of an input layer of a neural network, the input layer having the same number of nodes as a number of samples in the set of samples; processing the set of samples in the neural network that has been trained, before receiving the set of samples, to decode one or more determined values of the control information element and to detect discontinuous transmission; outputting , in an output layer of the neural network, an indicator indicating a decoded value of the control information element comprised in the set of samples or an indicator indicating the discontinuous transmission, training the neural network by training inputs to the neural network, the training inputs comprising all possible values of the control information element as corrupted by simulated noise, wherein the simulated noise simulates one or more radio channel models, the training inputs further comprising payload data samples or samples comprising randomly generated bits as a discontinuous transmission training input. acquiring , from a received frame, a set of samples associated with a position of a control information element in the frame; inputting the set of samples to nodes of an input layer of a neural network, the input layer having the same number of nodes as a number of samples in the set of samples; processing the set of samples in the neural network that has been trained, before receiving the set of samples, to decode one or more determined values of the control information element and to detect discontinuous transmission; outputting , in an output layer of the neural network, an indicator indicating a decoded value of the control information element comprised in the set of samples or an indicator indicating the discontinuous transmission, training the neural network by training inputs to the neural network, the training inputs comprising all possible values of the control information element as corrupted by simulated noise, wherein the simulated noise simulates one or more radio channel models, the training inputs further comprising payload data samples or samples comprising randomly generated bits as a discontinuous transmission training input.
An injector having a swozzle assembly , the swozzle assembly , comprising: an inner hub ; an outer shroud ; the inner hub having an inner wall that faces the outer shroud ;a plurality of vanes connecting the hub and the outer shroud ; an injector hole formed in the inner wall and configured to inject a first fluid comprising a combustible fuel from the inner wall ; and a groove formed in the inner wall , the groove surrounding the injector hole , wherein the plurality of vanes provides swirling to combustion air passing through the swozzle assembly ; the injection hole being disposed between the vanes; and each of the vanes comprises a primary fuel supply passage and a secondary fuel supply passage; wherein a second fluid comprising air captured in the groove is directed to the injector hole to prevent formation of a recirculation area of the first fluid . an inner hub ; an outer shroud ; the inner hub having an inner wall that faces the outer shroud ;a plurality of vanes connecting the hub and the outer shroud ; an injector hole formed in the inner wall and configured to inject a first fluid comprising a combustible fuel from the inner wall ; and a groove formed in the inner wall , the groove surrounding the injector hole , wherein the plurality of vanes provides swirling to combustion air passing through the swozzle assembly ; the injection hole being disposed between the vanes; and each of the vanes comprises a primary fuel supply passage and a secondary fuel supply passage; wherein a second fluid comprising air captured in the groove is directed to the injector hole to prevent formation of a recirculation area of the first fluid .
A method of enabling a provision of public warning system, PWS, messages to a user equipment, UE, device via a non-3GPP radio network, the method comprising: establishing an internet protocol security, IPSec, tunnel connection to the UE device from a non-3GPP interworking function, N3IWF, via a non-3GPP, N3GPP, radio access technology; receiving by a first core network, CN, entity from the UE device a request for provisioning of public warning system, PWS, messages; the first CN entity being informed by the UE device about a location of the UE device; subscribing the UE device at the first CN entity to a group to which alert messages are provided by the first CN entity based on a notification area relating to the group, the notification area comprising the location of the UE device, and transmitting to the UE device PWS messages having a source or a target address relating to an area comprising the notification area of the alert message as a result of the subscribing the UE device, via the IPSec tunnel. establishing an internet protocol security, IPSec, tunnel connection to the UE device from a non-3GPP interworking function, N3IWF, via a non-3GPP, N3GPP, radio access technology; receiving by a first core network, CN, entity from the UE device a request for provisioning of public warning system, PWS, messages; the first CN entity being informed by the UE device about a location of the UE device; subscribing the UE device at the first CN entity to a group to which alert messages are provided by the first CN entity based on a notification area relating to the group, the notification area comprising the location of the UE device, and transmitting to the UE device PWS messages having a source or a target address relating to an area comprising the notification area of the alert message as a result of the subscribing the UE device, via the IPSec tunnel.
A thermoelectric module comprising: a continuous substrate comprising: a first region having disposed thereon alternating n-type and p-type thermoelectric elements connected in a first electrical series; a second region having disposed thereon alternating n-type and p-type thermoelectric elements connected in a second electrical series; and a link portion extending between the first region and the second region. the link portion having disposed thereon an electrical connection connecting the first electrical series and the second electrical series; wherein the continuous substrate comprises a first bend or fold between the first region and a first end of the link portion and a second bend or fold between a second end of the link portion and the second region; characterised in that the link portion has a width, which is less than 25%, less than 20% or less than 15% of a length of the first portion and/or a length of the second portion. a continuous substrate comprising: a first region having disposed thereon alternating n-type and p-type thermoelectric elements connected in a first electrical series; a second region having disposed thereon alternating n-type and p-type thermoelectric elements connected in a second electrical series; and a link portion extending between the first region and the second region. the link portion having disposed thereon an electrical connection connecting the first electrical series and the second electrical series; a first region having disposed thereon alternating n-type and p-type thermoelectric elements connected in a first electrical series; a second region having disposed thereon alternating n-type and p-type thermoelectric elements connected in a second electrical series; and a link portion extending between the first region and the second region. the link portion having disposed thereon an electrical connection connecting the first electrical series and the second electrical series; wherein the continuous substrate comprises a first bend or fold between the first region and a first end of the link portion and a second bend or fold between a second end of the link portion and the second region; characterised in that the link portion has a width, which is less than 25%, less than 20% or less than 15% of a length of the first portion and/or a length of the second portion.
Device (1; 100) for cutting tapes comprising a first half-shell (2; 200) and a second half-shell (3; 300) adapted to surround an inner cavity (4; 400), which cavity is provided with an entry (5; 500) and an exit (6; 600) through which a tape is caused to run along an axis (X-X; Y-Y) corresponding to the longitudinal axis of the device (1; 100), the first half-shell (2; 200) comprising commands (7; 700) for activating one or more cutting blades (8; 800) of a tape and a second half-shell instead (3; 300) comprising a plurality (35; 900) of guides for said cutting blades when the blades are activated by said commands (7; 700).
An ultrasonic probe comprising: : an ultrasonic transducer array configured to transmit and receive ultrasonic waves; a conducting device disposed at a front end of the ultrasonic transducer array , wherein the conducting device comprises a fluid chamber filled with fluid , and the fluid chamber has an opening and an energy receiving port which are in communication with each other, and the opening is disposed on a front surface of the conducting device and covered by an elastic film ; and an energy applying device , connected to the energy receiving port and configured to apply energy to the fluid within the fluid chamber , wherein the energy receiving port is configured to receive the energy, the energy received by the energy receiving port reaches the elastic film after being transferred via the fluid in the fluid chamber, and causes the elastic film to vibrate and generate a shear wave, and the ultrasonic waves are utilized to trace the propagation of the shear wave inside the tissue, so as to perform instantaneous elastography and acquire elasticity information and/or attenuation information of the tissue. an ultrasonic transducer array configured to transmit and receive ultrasonic waves; a conducting device disposed at a front end of the ultrasonic transducer array , wherein the conducting device comprises a fluid chamber filled with fluid , and the fluid chamber has an opening and an energy receiving port which are in communication with each other, and the opening is disposed on a front surface of the conducting device and covered by an elastic film ; and an energy applying device , connected to the energy receiving port and configured to apply energy to the fluid within the fluid chamber , wherein the energy receiving port is configured to receive the energy, the energy received by the energy receiving port reaches the elastic film after being transferred via the fluid in the fluid chamber, and causes the elastic film to vibrate and generate a shear wave, and the ultrasonic waves are utilized to trace the propagation of the shear wave inside the tissue, so as to perform instantaneous elastography and acquire elasticity information and/or attenuation information of the tissue.
A composition in the form of a powder-like mixture (S, K), wherein said composition comprises microbial propagules and a solid fine carrier, characterised in that said microbial propagules are fungal spores which control or prevent the growth of Heterobasidion fungal pathogens on a tree stump and wherein said solid fine carrier has a volumetric weight of at least at least 0.50 g/cm 3 , at least 0.60 g/cm 3 or at least 1 g/cm 3 .
An upper component for an article of footwear, comprising: a heel body including: a first portion partially defining an ankle opening ; a second portion coupled to the first portion , wherein the second portion is foldable and partially defines the ankle opening , and the second portion is movable relative to the first portion between an unfolded configuration and a folded configuration; at least one tension member coupled to the second portion , wherein the at least one tension member is movable relative to the first portion to move the second portion from the unfolded configuration to the folded configuration; wherein the ankle opening is larger when the second portion is in the unfolded configuration than when the second portion is in the folded configuration; wherein the second portion includes a plurality of fold areas to allow the second portion to move between the unfolded configuration and the folded configuration; each of the fold areas has a substantially linear shape; the second portion includes a plurality of panels ; characterized in that the heel body further includes a plurality of elongated polymeric bodies coupled to the panels ; wherein each of the elongated polymeric bodies is disposed adjacent a respective one of the fold areas and each of the elongated polymeric bodies is substantially parallel to the respective one of the fold areas . a heel body including: a first portion partially defining an ankle opening ; a second portion coupled to the first portion , wherein the second portion is foldable and partially defines the ankle opening , and the second portion is movable relative to the first portion between an unfolded configuration and a folded configuration; a first portion partially defining an ankle opening ; a second portion coupled to the first portion , wherein the second portion is foldable and partially defines the ankle opening , and the second portion is movable relative to the first portion between an unfolded configuration and a folded configuration; at least one tension member coupled to the second portion , wherein the at least one tension member is movable relative to the first portion to move the second portion from the unfolded configuration to the folded configuration; wherein the ankle opening is larger when the second portion is in the unfolded configuration than when the second portion is in the folded configuration; wherein the second portion includes a plurality of fold areas to allow the second portion to move between the unfolded configuration and the folded configuration; each of the fold areas has a substantially linear shape; the second portion includes a plurality of panels ; characterized in that the heel body further includes a plurality of elongated polymeric bodies coupled to the panels ; wherein each of the elongated polymeric bodies is disposed adjacent a respective one of the fold areas and each of the elongated polymeric bodies is substantially parallel to the respective one of the fold areas .
LED module for emitting mixed light, preferably white light, comprising: - a module plate with at least one dam , which delimits at least one light field, wherein a plurality of LED chips are arranged within the light field; - wherein a plurality of bead-shaped walls arranged separately from one another are provided inside the light field and form separated regions in the light field, wherein the respective bead-shaped wall section is a wall section with a semicircular cross-sectional shape; - wherein a casting compound with a luminescent material or a luminescent material mixture is provided in the respective separated regions ; and - wherein the LED chips , which are arranged in a respective separated region , and the LED chips , which are arranged in the respective regions of the bead-shaped walls , are respectively connected to one another as LED strands, characterized in that at least one LED strand comprises a resistor and at least one LED strand does not comprise a resistor, wherein fewer LED chips are arranged in the LED strand with the resistor than in the LED strand without a resistor. - a module plate with at least one dam , which delimits at least one light field, wherein a plurality of LED chips are arranged within the light field; - wherein a plurality of bead-shaped walls arranged separately from one another are provided inside the light field and form separated regions in the light field, wherein the respective bead-shaped wall section is a wall section with a semicircular cross-sectional shape; - wherein a casting compound with a luminescent material or a luminescent material mixture is provided in the respective separated regions ; and - wherein the LED chips , which are arranged in a respective separated region , and the LED chips , which are arranged in the respective regions of the bead-shaped walls , are respectively connected to one another as LED strands,
Bottle crate having a divisible carrier handle , in particular central carrier handle, for carrying the bottle crate, the bottle crate having at least two carrier handle parts , which are mounted movably in such a way that they can be arranged separated from one another in a first position, characterised in that the carrier handle parts can be transferred into a second position, directly above and along a row of bottle insertion spaces, in which position they come together to form the divisible carrier handle for carrying the bottle crate . having a divisible carrier handle , in particular central carrier handle, for carrying the bottle crate, the bottle crate having at least two carrier handle parts , which are mounted movably in such a way that they can be arranged separated from one another in a first position, characterised in that the carrier handle parts can be transferred into a second position, directly above and along a row of bottle insertion spaces, in which position they come together to form the divisible carrier handle for carrying the bottle crate .
A method of determining locations of a set of devices that are associated with an in-flight entertainment system, comprising the steps of: storing an electronic representation of a set of potential device locations in a server ; manually actuating a set of devices, by manually activating an input control on a user interface of each device in a sequence that is based on the electronic representation, wherein each device is wirelessly connected to the system; and automatically associating each device of the set of devices with a unique location of the set of potential device locations via a processor based on an order of actuation of each device and the stored electronic representation . storing an electronic representation of a set of potential device locations in a server ; manually actuating a set of devices, by manually activating an input control on a user interface of each device in a sequence that is based on the electronic representation, wherein each device is wirelessly connected to the system; and automatically associating each device of the set of devices with a unique location of the set of potential device locations via a processor based on an order of actuation of each device and the stored electronic representation .
Travel-size case for timepieces or pieces of jewellery , arranged to be operated with a single hand, comprising a closable box arranged to contain at least one holder for receiving at least one timepiece or piece of jewellery , between at least one tray and a cover , said box comprising a base with which said cover cooperates to close said case , at least one said tray and at least one said holder being arranged to be held one on top of the other by magnetic attraction, and said base comprising an upper housing for each said removable tray with respect to said base characterized in that said case includes at least one container insert arranged to be housed between one said removable tray and said base and in that at least one said removable tray is held to said container insert by hook-velvet or by magnetic attraction means or by mechanical attachment means.
A method for encoding data at a transmitting node in a wireless communication system using a parallel concatenation of a trellis-based, quasi-cyclic, low density parity check code, TQC-LDPC, convolutional code, the TQC-LDPC convolutional code being based on an underlying regular, quasi-cyclic, spatially coupled low density parity check, SC-LDPC, code matrix H with a row weight W r , a column weight W c , and a lifting factor Z, the method comprising: receiving an input sequence including systematic data in the form of a group of Z systematic bits, denoted Z-group systematic bit set x z (n) , where n is an index of the input sequence; generating a systematic portion matrix H sys with J = W c rows, each denoted as Z-row, by transforming the regular, quasi-cyclic, SC-LDPC code matrix H into a streaming parity check code matrix with J Z-rows and separating the systematic portion of said streaming parity check matrix; generating, for each j , a cyclically shifted Z-group systematic bit set x z (j) (n) from the Z-group systematic bit set x z (n) using the corresponding quasi-cyclic shift value from the j-th Z-row of the systematic portion matrix H zsys , where j = 0, ... ,J-1 ; encoding each cyclically shifted Z-group systematic bit set x z (j) (n) with a corresponding j-th recursive systematic convolutional, RSC, encoder set consisting of Z identical single bit RSC encoders (508 0 , 508 1 ,... 508 z-1 ) to obtain a j-th Z-group parity bit set y z(j) (n), j = 0, ... ,J-1 ; and outputting and transmitting the Z-group systematic bit set x z (n) or one of the cyclically shift Z-group systematic bit sets x z (j) (n) , and the Z-group parity bit sets y z (j) (n), j = 0, ,J-1 to a receiver node . receiving an input sequence including systematic data in the form of a group of Z systematic bits, denoted Z-group systematic bit set x z (n) , where n is an index of the input sequence; generating a systematic portion matrix H sys with J = W c rows, each denoted as Z-row, by transforming the regular, quasi-cyclic, SC-LDPC code matrix H into a streaming parity check code matrix with J Z-rows and separating the systematic portion of said streaming parity check matrix; generating, for each j , a cyclically shifted Z-group systematic bit set x z (j) (n) from the Z-group systematic bit set x z (n) using the corresponding quasi-cyclic shift value from the j-th Z-row of the systematic portion matrix H zsys , where j = 0, ... ,J-1 ; encoding each cyclically shifted Z-group systematic bit set x z (j) (n) with a corresponding j-th recursive systematic convolutional, RSC, encoder set consisting of Z identical single bit RSC encoders (508 0 , 508 1 ,... 508 z-1 ) to obtain a j-th Z-group parity bit set y z(j) (n), j = 0, ... ,J-1 ; and outputting and transmitting the Z-group systematic bit set x z (n) or one of the cyclically shift Z-group systematic bit sets x z (j) (n) , and the Z-group parity bit sets y z (j) (n), j = 0, ,J-1 to a receiver node .