mhurhangee/patent-ind-claim-en huggingface dataset:
An electronic device comprising: a dielectric substrate having a plurality of surfaces; a mesh grid comprising conducting wires formed on at least one of the plurality of surfaces of the dielectric substrate ; a first portion (A1) of the mesh grid having a radiation conductor formed by a first plurality of the conducting wires ; and a second portion (A2) of the mesh grid having a dummy pattern formed by a second plurality of conducting wires , wherein the second conducting wires comprise at least one discontinuous portions that are opened such that the dummy pattern electrically opens the first portion (A1) forming the radiation conductor from the mesh grid less the first portion (A1), characterized in that , the line width (W) of the second conducting wires is larger than the line width of the first conducting wires such that a light transmittance of the first portion (A1) and a light transmittance of the second portion (A2) is substantially uniform. a dielectric substrate having a plurality of surfaces; a mesh grid comprising conducting wires formed on at least one of the plurality of surfaces of the dielectric substrate ; a first portion (A1) of the mesh grid having a radiation conductor formed by a first plurality of the conducting wires ; and a second portion (A2) of the mesh grid having a dummy pattern formed by a second plurality of conducting wires , wherein the second conducting wires comprise at least one discontinuous portions that are opened such that the dummy pattern electrically opens the first portion (A1) forming the radiation conductor from the mesh grid less the first portion (A1), characterized in that , the line width (W) of the second conducting wires is larger than the line width of the first conducting wires such that a light transmittance of the first portion (A1) and a light transmittance of the second portion (A2) is substantially uniform.
Motor-vehicle lighting and/or signalling device equipped with at least one luminous module configured to produce an output beam, comprising a light source comprising at least one light-emitting diode, a pixelated digital imaging system, and an optical input device inserted, along the path of the light rays coming from the light source , between the light source and the pixelated digital imaging system so that it transmits at least a portion, known as the transmitted portion, of the light rays coming from the light source towards an impact surface of the pixelated digital imaging system, characterized in that said luminous module includes a prism , comprising a first face , a second face and a third face , and configured to: - transmit between the first face and the third face at least one portion of the light rays of the transmitted portion towards the impact surface ; - form reflected rays by reflecting at least one portion of the light rays returned by the impact surface , by total internal reflection on the first face ; - return at least one portion of the reflected rays towards a projection zone via the second face and characterized in that it comprises an additional module configured to produce a basic low beam and an additional module configured to produce a basic high beam and in which the pixelated output beam of said luminous module partially overlaps both the basic high beam and/or the basic low beam. - transmit between the first face and the third face at least one portion of the light rays of the transmitted portion towards the impact surface ; - form reflected rays by reflecting at least one portion of the light rays returned by the impact surface , by total internal reflection on the first face ; - return at least one portion of the reflected rays towards a projection zone via the second face
A compute apparatus adapted to perform machine learning operations, the compute apparatus comprising: a decode unit adapted to decode a single instruction into a decoded instruction, the decoded instruction to perform one or more machine learning operations, wherein the decode unit , based on parameters of the one or more machine learning operations, is adapted to request a scheduler to schedule the one or more machine learning operations to one of an array of programmable compute units (1424A-N) and a fixed function compute unit , wherein the decode unit includes fetch logic to fetch the single instruction, wherein the single instruction is a machine learning compute instruction, wherein the machine learning compute instruction is a convolution instruction and the one or more machine learning operations include a convolution operation, wherein the convolution operation includes multiple matrix operations, and wherein the decode unit is adapted to request the scheduler to schedule the multiple matrix operations to one of the array of programmable compute units (1424A-N) and the fixed function compute unit based on a size of a convolution filter. a decode unit adapted to decode a single instruction into a decoded instruction, the decoded instruction to perform one or more machine learning operations, wherein the decode unit , based on parameters of the one or more machine learning operations, is adapted to request a scheduler to schedule the one or more machine learning operations to one of an array of programmable compute units (1424A-N) and a fixed function compute unit , wherein the decode unit includes fetch logic to fetch the single instruction, wherein the single instruction is a machine learning compute instruction, wherein the machine learning compute instruction is a convolution instruction and the one or more machine learning operations include a convolution operation, wherein the convolution operation includes multiple matrix operations, and wherein the decode unit is adapted to request the scheduler to schedule the multiple matrix operations to one of the array of programmable compute units (1424A-N) and the fixed function compute unit based on a size of a convolution filter.
An articulating probe head for attaching and orienting a probe relative to a coordinate measuring apparatus , the articulated probe head including - a probe interface for connecting a measuring probe ; - at least one electric actuator to operate the probe head; - one electronic control unit to control the operation of the probe head; and - at least one cooling element arranged for removing heat generated by said at least one electric actuator and by said electronic control unit, wherein the electronic control unit is configured to activate the at least one cooling element to maintain the temperature of the probe head at a stable value. - a probe interface for connecting a measuring probe ; - at least one electric actuator to operate the probe head; - one electronic control unit to control the operation of the probe head; and - at least one cooling element arranged for removing heat generated by said at least one electric actuator and by said electronic control unit, wherein
A method for determining the amount or concentration of a nucleic acid of interest in an unprocessed sample, the method comprising the steps of: a) - having an unprocessed sample suspected of containing the nucleic acid of interest and - providing a reference sample known to contain a reference nucleic acid, which is different from the nucleic acid of interest; b) combining the unprocessed sample with a defined amount of the reference sample, thereby obtaining a combined sample; c) processing the combined sample, thereby obtaining a processed sample suitable for digital polymerase chain reaction (dPCR); d) performing the dPCR with the processed sample, thereby determining the amount or concentration of the nucleic acid of interest and the amount or concentration of the reference nucleic acid in the processed sample; e) performing the dPCR with a defined amount of the reference sample, thereby determining the amount or concentration of the reference nucleic acid in the defined amount of the reference sample; f) comparing the amount or concentration of the reference nucleic acid determined in step d) to that determined in step e), thereby determining the yield of the nucleic acid in step c); and g) determining the amount or concentration of the nucleic acid of interest in the unprocessed sample based on the amount or concentration of the nucleic acid of interest in the processed sample determined in step d) and the yield determined in step f). a) - having an unprocessed sample suspected of containing the nucleic acid of interest and - providing a reference sample known to contain a reference nucleic acid, which is different from the nucleic acid of interest; - having an unprocessed sample suspected of containing the nucleic acid of interest and - providing a reference sample known to contain a reference nucleic acid, which is different from the nucleic acid of interest; b) combining the unprocessed sample with a defined amount of the reference sample, thereby obtaining a combined sample; c) processing the combined sample, thereby obtaining a processed sample suitable for digital polymerase chain reaction (dPCR); d) performing the dPCR with the processed sample, thereby determining the amount or concentration of the nucleic acid of interest and the amount or concentration of the reference nucleic acid in the processed sample; e) performing the dPCR with a defined amount of the reference sample, thereby determining the amount or concentration of the reference nucleic acid in the defined amount of the reference sample; f) comparing the amount or concentration of the reference nucleic acid determined in step d) to that determined in step e), thereby determining the yield of the nucleic acid in step c); and g) determining the amount or concentration of the nucleic acid of interest in the unprocessed sample based on the amount or concentration of the nucleic acid of interest in the processed sample determined in step d) and the yield determined in step f).
A braid for treating an aneurysm, the braid comprising: a distal segment defined between proximal and distal ends of the braid ; and a tapered segment disposed between the distal segment and a proximal segment , the proximal segment being disposed on or adjacent the proximal end ; wherein the braid is capable of moving from a collapsed state within a microcatheter to a deployed state external to the microcatheter ; wherein translating the braid so the distal end is distal of the microcatheter causes the distal segment to radially expand and form an outer occlusive sack, the occlusive sack having a diameter greater than the microcatheter ; wherein translating the braid distally after the outer occlusive sack is formed causes the proximal end of the braid to invert into the occlusive sack, characterized in that the tapered segment further comprises a pre-weakened portion , the pre-weakened portion causing the proximal end of the braid to invert into the occlusive sack, wherein the pre-weakened portion is formed by removing wire segments or localized heat treatment or in that a braid angle of the tapered segment is increased compared to a braid angle of the distal segment to facilitate inversion. a distal segment defined between proximal and distal ends of the braid ; and a tapered segment disposed between the distal segment and a proximal segment , the proximal segment being disposed on or adjacent the proximal end ; wherein the braid is capable of moving from a collapsed state within a microcatheter to a deployed state external to the microcatheter ; wherein translating the braid so the distal end is distal of the microcatheter causes the distal segment to radially expand and form an outer occlusive sack, the occlusive sack having a diameter greater than the microcatheter ; wherein translating the braid distally after the outer occlusive sack is formed causes the proximal end of the braid to invert into the occlusive sack, characterized in that the tapered segment further comprises a pre-weakened portion , the pre-weakened portion causing the proximal end of the braid to invert into the occlusive sack, wherein the pre-weakened portion is formed by removing wire segments or localized heat treatment or in that a braid angle of the tapered segment is increased compared to a braid angle of the distal segment to facilitate inversion.
A rotary door check mechanism for use in a motor vehicle comprising a door check bar connected in use at a first end to one of part of a body structure of the motor vehicle and a structural part of a door of the motor vehicle and having an end stop at a distal second end of the door check bar to the first end, a support housing fastened in use to the other of the part of the body structure of the motor vehicle and the structural part of the door of the motor vehicle and a door holding mechanism , the door check mechanism having a rotary body member rotatably supported by the support housing through which the door check bar extends characterized in that the rotary body member supports at least one spring loaded detent , the or each spring loaded detent being engaged with a respective helical groove extending along the door check bar so as to provide a driving connection between the door check bar and the rotary body member to produce rotary motion of the rotary body member when there is relative movement between the rotary body member and the door check bar , each helical groove including two or more check stops engageable by the co-operating spring loaded detent to define door check positions.
A method for monitoring bale shape, the method comprising the steps of: receiving a series of bale images from a camera , the bale images comprising - a view of at least an outlet of a bale chamber of an agricultural baler , - a view of a bale being ejected from the outlet , characterised in that the bale images further comprising a view of a field travelled by the agricultural baler during the ejection of the bale , and wherein the method further comprising the steps of: identifying the bale in the bale images , based on at least one of the bale images , determining at least one bale shape parameter of the identified bale , providing an electronic signal representative of the at least one bale shape parameter . - a view of at least an outlet of a bale chamber of an agricultural baler , - a view of a bale being ejected from the outlet , identifying the bale in the bale images , based on at least one of the bale images , determining at least one bale shape parameter of the identified bale , providing an electronic signal representative of the at least one bale shape parameter .
A method of performing an eye examination test for examining eyes of a user, said method using a computing device , said computing device comprising an image capturing unit arranged for capturing images, said method comprising the steps of: - capturing, by said capturing unit, an image of said user and its surroundings; - dividing, by said computing device, said captured image into a plurality of bins; - estimating, by said computing device, light intensity of each of said bins; - determining, by said computing device, an area of anomalous light intensity in said captured image based on said step of estimation wherein said estimated light intensity is above a predetermined threshold value; - performing, by said computing device, said eye examination test, taking said determined area of anomalous light into account. - capturing, by said capturing unit, an image of said user and its surroundings; - dividing, by said computing device, said captured image into a plurality of bins; - estimating, by said computing device, light intensity of each of said bins; - determining, by said computing device, an area of anomalous light intensity in said captured image based on said step of estimation wherein said estimated light intensity is above a predetermined threshold value; - performing, by said computing device, said eye examination test, taking said determined area of anomalous light into account.
A refrigeration cycle apparatus comprising: a first heat exchanger which is a fin-less heat exchanger, and includes a plurality of heat transfer tubes extending in a gravity direction; a fan configured to send air to the first heat exchanger ; a vortex generating device provided upstream of the first heat exchanger , and configured to cause the air to be sent to the first heat exchanger by the fan to change into a vortex flow; characterised by a spacer provided between the first heat exchanger and the vortex generating device , so that the vortex generating device is spaced from the first heat exchanger by a first space . a first heat exchanger which is a fin-less heat exchanger, and includes a plurality of heat transfer tubes extending in a gravity direction; a fan configured to send air to the first heat exchanger ; a vortex generating device provided upstream of the first heat exchanger , and configured to cause the air to be sent to the first heat exchanger by the fan to change into a vortex flow; characterised by a spacer provided between the first heat exchanger and the vortex generating device , so that the vortex generating device is spaced from the first heat exchanger by a first space .
A railway tie comprising: an elongated member comprising an elongated body and at least one rail seat portion, said at least one rail seat portion supporting a railway, the elongated member being made of a non-prestressed, self-healing engineered cementitious composite material, said material having a mixture of: • cement in the range of 500-700 kg/m 3 , • fly ash in the range of 600-800 kg/m 3 ; • silica fume in the range of 0-100 kg/m 3 ; • sand in the range of 350-550 kg/m 3 ; • water in the range of 300-400 kg/m 3 ; • polymer fiber in the range of 1-3% by volume; • superplasticizer in the range of 5-30 kg/m 3 ; and • viscosity modifying admixture in the range of 0-30 kg/m 3 , resulting in performance characteristics of: • compressive strength greater than 50 Mpa; • first cracking tensile strength greater than 3 Mpa; • ultimate tensile strength greater than 5 Mpa; • tensile strain capacity greater than 1%; • flexural strength greater than 15 Mpa; and • crack widths less than 50 μm; • the tensile ductility is 2% to 3%. • cement in the range of 500-700 kg/m 3 , • fly ash in the range of 600-800 kg/m 3 ; • silica fume in the range of 0-100 kg/m 3 ; • sand in the range of 350-550 kg/m 3 ; • water in the range of 300-400 kg/m 3 ; • polymer fiber in the range of 1-3% by volume; • superplasticizer in the range of 5-30 kg/m 3 ; and • viscosity modifying admixture in the range of 0-30 kg/m 3 , • compressive strength greater than 50 Mpa; • first cracking tensile strength greater than 3 Mpa; • ultimate tensile strength greater than 5 Mpa; • tensile strain capacity greater than 1%; • flexural strength greater than 15 Mpa; and • crack widths less than 50 μm; • the tensile ductility is 2% to 3%.
A method comprising: receiving identity information at an edge configuration device from an end device via a connection, wherein the identity information identifies the end device or one or more users associated with the end device; sending a request from the edge configuration device to an access control server connected to the network in response to receiving the identity information, wherein the request requests authentication for the end device; receiving authentication at the edge configuration device from the access control server for the end device to connect to a network connected to the edge configuration device, wherein the network is a Shortest Path Bridging (SPB) network, and wherein the end device is a non-SPB device that is not compatible with the SPB network; receiving SPB network configuration information from the access control server in response to the sending; and using the SPB network configuration information to configure the edge configuration device for use with one or more virtual local area networks (VLANs) of the SPB network for use with the end device. receiving identity information at an edge configuration device from an end device via a connection, wherein the identity information identifies the end device or one or more users associated with the end device; sending a request from the edge configuration device to an access control server connected to the network in response to receiving the identity information, wherein the request requests authentication for the end device; receiving authentication at the edge configuration device from the access control server for the end device to connect to a network connected to the edge configuration device, wherein the network is a Shortest Path Bridging (SPB) network, and wherein the end device is a non-SPB device that is not compatible with the SPB network; receiving SPB network configuration information from the access control server in response to the sending; and using the SPB network configuration information to configure the edge configuration device for use with one or more virtual local area networks (VLANs) of the SPB network for use with the end device.
A vibrational frequency adjustment device for adjusting the vibrational frequency of reciprocating linear motion, comprising: first conversion means that includes an input-side rotational member , an output-side rotational member , and a one-way clutch transferring only a rotational motion of the input-side rotational member in one direction to the output-side rotational member , and allows the input-side rotational member to make a reciprocating rotational motion by a set angle by a reciprocating linear motion of a first shaft member , thereby to transfer only a forward motion or a backward motion of the input-side rotational member to the output-side rotational member via the one-way clutch and rotate the output-side rotational member by each specific angle; and second conversion means that converts the rotational motion of the output-side rotational member into a reciprocating linear motion of a second shaft member . first conversion means that includes an input-side rotational member , an output-side rotational member , and a one-way clutch transferring only a rotational motion of the input-side rotational member in one direction to the output-side rotational member , and allows the input-side rotational member to make a reciprocating rotational motion by a set angle by a reciprocating linear motion of a first shaft member , thereby to transfer only a forward motion or a backward motion of the input-side rotational member to the output-side rotational member via the one-way clutch and rotate the output-side rotational member by each specific angle; and second conversion means that converts the rotational motion of the output-side rotational member into a reciprocating linear motion of a second shaft member .