mhurhangee/patent-ind-claim-en huggingface dataset:
A method for secure communication between a mobile device and a secure server, the method comprising: generating, by the mobile device, encrypted data including an encrypted version of a card reader ID and an encrypted version of a request for a card reader to process, using a secure server public key; and sending the encrypted data, by the mobile device, to a secure server for decrypting using a secure server private key, the method further comprising: decrypting the encrypted data, by the secure server, using the secure server private key, to obtain the card reader ID; using the card reader ID to obtain a shared key associated with the card reader ID; generating a response, by the secure server, wherein the response is encrypted using the shared key; and sending, by the secure server, the encrypted response to the mobile device; and sending, by the mobile device, the encrypted response to a card reader having the card reader ID. generating, by the mobile device, encrypted data including an encrypted version of a card reader ID and an encrypted version of a request for a card reader to process, using a secure server public key; and sending the encrypted data, by the mobile device, to a secure server for decrypting using a secure server private key, the method further comprising: decrypting the encrypted data, by the secure server, using the secure server private key, to obtain the card reader ID; using the card reader ID to obtain a shared key associated with the card reader ID; generating a response, by the secure server, wherein the response is encrypted using the shared key; and sending, by the secure server, the encrypted response to the mobile device; and sending, by the mobile device, the encrypted response to a card reader having the card reader ID. decrypting the encrypted data, by the secure server, using the secure server private key, to obtain the card reader ID; using the card reader ID to obtain a shared key associated with the card reader ID; generating a response, by the secure server, wherein the response is encrypted using the shared key; and sending, by the secure server, the encrypted response to the mobile device; and sending, by the mobile device, the encrypted response to a card reader having the card reader ID.
A succinate receptor 1 (SUCNR1) or a fragment, derivative, analog or mutant thereof, capable of binding succinate for use in treating or preventing an inflammatory bowel disease (IBD) being selected from any one of: colitis, ulcerative colitis, Crohn's disease, and Bechet's disease.
A cutting element , comprising: a cutting element substrate ; and a polycrystalline compact bonded to the cutting element substrate, the polycrystalline compact comprising: a polycrystalline material comprising a plurality of inter bonded grains of hard material; and characterised by comprising a metallic material disposed in interstitial spaces between the inter bonded grains of hard material, at least a portion of the metallic material comprising a metal alloy having a melting temperature of about seven hundred fifty degrees Celsius (750°C) or less, the metal alloy comprising two or more elements, a first element of the two or more elements comprising at least one of cobalt, iron, and nickel, a second element of the two or more elements comprising at least one of dysprosium, yttrium, terbium, gadolinium, germanium, samarium, neodymium, and praseodymium. a cutting element substrate ; and a polycrystalline compact bonded to the cutting element substrate, the polycrystalline compact comprising: a polycrystalline material comprising a plurality of inter bonded grains of hard material; and characterised by comprising a metallic material disposed in interstitial spaces between the inter bonded grains of hard material, at least a portion of the metallic material comprising a metal alloy having a melting temperature of about seven hundred fifty degrees Celsius (750°C) or less, the metal alloy comprising two or more elements, a first element of the two or more elements comprising at least one of cobalt, iron, and nickel, a second element of the two or more elements comprising at least one of dysprosium, yttrium, terbium, gadolinium, germanium, samarium, neodymium, and praseodymium. a polycrystalline material comprising a plurality of inter bonded grains of hard material; and characterised by comprising a metallic material disposed in interstitial spaces between the inter bonded grains of hard material, at least a portion of the metallic material comprising a metal alloy having a melting temperature of about seven hundred fifty degrees Celsius (750°C) or less, the metal alloy comprising two or more elements, a first element of the two or more elements comprising at least one of cobalt, iron, and nickel, a second element of the two or more elements comprising at least one of dysprosium, yttrium, terbium, gadolinium, germanium, samarium, neodymium, and praseodymium.
A method of commissioning and mapping a lighting system including a plurality of lighting devices , the method comprising: - generating a set of patterns with at least as many different patterns as the number of lighting devices in the plurality thereof, - detecting the plurality of lighting devices , - assigning each pattern of the set to a unique lighting device of the plurality thereof, - activating each lighting device in accordance with its assigned pattern, the pattern comprising a sequence of powering pulses, - sensing modulation of light generated by a lighting device , - assigning an identifier of the localization of the lighting device to the lighting device of which the modulation of light is sensed, - storing the assigned identifier as a localization identification of the lighting device of which the modulation of light is sensed, - repeating the steps of sensing, assigning and storing for each lighting device , further comprising linking each lighting device with at least one of a plurality of peripheral interfaces in an electrical network, by: - replicating the pattern of a particular lighting device by actuating a peripheral interface to be linked with that particular lighting device , and - upon detecting actuation of the peripheral interface in accordance with a pattern of the set of patterns, linking the actuated peripheral interface with the lighting device which has that pattern assigned. - generating a set of patterns with at least as many different patterns as the number of lighting devices in the plurality thereof, - detecting the plurality of lighting devices , - assigning each pattern of the set to a unique lighting device of the plurality thereof, - activating each lighting device in accordance with its assigned pattern, the pattern comprising a sequence of powering pulses, - sensing modulation of light generated by a lighting device , - assigning an identifier of the localization of the lighting device to the lighting device of which the modulation of light is sensed, - storing the assigned identifier as a localization identification of the lighting device of which the modulation of light is sensed, - repeating the steps of sensing, assigning and storing for each lighting device , further comprising linking each lighting device with at least one of a plurality of peripheral interfaces in an electrical network, by: - replicating the pattern of a particular lighting device by actuating a peripheral interface to be linked with that particular lighting device , and - upon detecting actuation of the peripheral interface in accordance with a pattern of the set of patterns, linking the actuated peripheral interface with the lighting device which has that pattern assigned.
Adapter for fastening a wiper blade unit to an arm of a wiper system , the adapter extending in a longitudinal direction (L), the adapter being configured to be mounted rotatably on a connector of a wiper blade unit about an axis of rotation (R) transverse to the longitudinal direction (L), the adapter comprising at least a side wall and an upper wall having at least one common edge between them, the side wall and the upper wall helping to define an inner volume of the adapter , the adapter comprising a first inner wall and a second inner wall extending at least partially into the inner volume of the adapter and helping to delimit, at least partially, a receiving area intended to receive the connector , the adapter comprising at least one receiving housing which is intended to receive the arm of the wiper system presenting a rectangular cross section defined by two major sides and two minor sides , a straight line (D) passing through one of the major sides cutting the receiving area intended to receive the connector , the adapter being characterized in that it comprise at least one reinforcer extending between the first inner wall and the side wall and/or the upper wall , the receiving housing is defined by a first portion comprising a sleeve by a second portion opening into the inner volume and by a third portion comprising an opening formed in the reinforcer .
A method performed by a device for performing beamforming, the method comprising: determining a number of beams to be formed through a first antenna array and a second antenna array; forming at least one beam corresponding to the number of beams, wherein, if the number of beams is equal to 1, the at least one beam includes a beam formed by using the first antenna array and the second antenna array, and a first polarization characteristic of the first antenna array is identical to a second polarization characteristic of the second antenna array, wherein, if the number of beams is equal to or greater than 2, the at least one beam includes one beam formed by using the first antenna array and another beam formed by using the second antenna array, and the first polarization characteristic of the first antenna array is different from the second polarization characteristic of the second antenna array. determining a number of beams to be formed through a first antenna array and a second antenna array; forming at least one beam corresponding to the number of beams, wherein, if the number of beams is equal to 1, the at least one beam includes a beam formed by using the first antenna array and the second antenna array, and a first polarization characteristic of the first antenna array is identical to a second polarization characteristic of the second antenna array, wherein, if the number of beams is equal to or greater than 2, the at least one beam includes one beam formed by using the first antenna array and another beam formed by using the second antenna array, and the first polarization characteristic of the first antenna array is different from the second polarization characteristic of the second antenna array.
Pest trap including: - a support platform of a capture structure ; - a hook arranged to hold the capture structure in the "cocked" position; - a lever arranged for moving the hook to release the capture structure when pressure is applied to said lever; - a spring arranged to cause the capture structure to rotate around an axis when released, characterized by the fact that the trap additionally includes - a sensor for detecting the armament or the triggering of the trap ; - a sensor for detecting the capture of a pest if the trap is triggered; - a motor arranged to activate means of resetting the trap if no pests are detected in the triggered trap. - a support platform of a capture structure ; - a hook arranged to hold the capture structure in the "cocked" position; - a lever arranged for moving the hook to release the capture structure when pressure is applied to said lever; - a spring arranged to cause the capture structure to rotate around an axis when released, characterized by the fact that the trap additionally includes - a sensor for detecting the armament or the triggering of the trap ; - a sensor for detecting the capture of a pest if the trap is triggered; - a motor arranged to activate means of resetting the trap if no pests are detected in the triggered trap.
Thermal energy storage system combining sensible heat solid material and encapsulated phase change material, said thermal energy storage system being used to store during a charging step thermal energy obtained from an external source over a period of time and then during a discharging step recovering some of this stored energy and carrying it towards an external consumption unit needing it, the thermal energy storage system being formed by a thermocline tank , whose function is to contain a heat sensible solid material and encapsulated phase change material arranged in layers , and a heat carrier fluid ; wherein the thermocline tank having two opposed ends, each of said opposed ends including at least one inlet/outlet, by means of which during said charging step the heat carrier fluid enters in a hot zone and leaves the thermocline tank , through a cold zone , characterized in that : - the layers of encapsulated phase change material are located in said hot zone of the thermocline tank , - the encapsulated phase change material has a high melting temperature, within an admissible working range of the fluid temperatures for feeding said external consumption unit and prolong the time of operation of the storage system, and - the sensible heat solid material is located: - in a middle zone that separates at least two groups of encapsulated PCMs ; or - in a zone between the PCM layers of the hot zone and the inlet/outlet of the cold zone . - the layers of encapsulated phase change material are located in said hot zone of the thermocline tank , - the encapsulated phase change material has a high melting temperature, within an admissible working range of the fluid temperatures for feeding said external consumption unit and prolong the time of operation of the storage system, and - the sensible heat solid material is located: - in a middle zone that separates at least two groups of encapsulated PCMs ; or - in a zone between the PCM layers of the hot zone and the inlet/outlet of the cold zone . - in a middle zone that separates at least two groups of encapsulated PCMs ; or - in a zone between the PCM layers of the hot zone and the inlet/outlet of the cold zone .
A method for producing a hydrogenated polymer comprising: a polymerization step of polymerizing at least a conjugated diene monomer in a hydrocarbon solvent using an organolithium compound as a polymerization initiator, and obtaining a polymer; a hydrogenation step of hydrogenating the obtained polymer and obtaining a hydrogenated polymer; and, following steps to , successively performing after the polymerization step and the hydrogenation step: a step of mixing an acid into the solution containing the hydrogenated polymer and mixing water in an amount of 20 to 300 parts by mass with the solution containing the polymer, based on 100 parts by mass of the solution containing the hydrogenated polymer, a step of adjusting an amount of the water to 10 parts by mass or less based on 100 parts by mass of the solution containing the hydrogenated polymer, wherein said step is performed by decantation, a step of adding carbon dioxide gas and/or a compound to be decarboxylated to the solution containing the hydrogenated polymer, a step of removing a solvent from the solution containing the hydrogenated polymer until a concentration of the polymer reaches 95 mass% or more, and a step (A) of adding an antioxidant to the solution containing the hydrogenated polymer after the step . a step of mixing an acid into the solution containing the hydrogenated polymer and mixing water in an amount of 20 to 300 parts by mass with the solution containing the polymer, based on 100 parts by mass of the solution containing the hydrogenated polymer, a step of adjusting an amount of the water to 10 parts by mass or less based on 100 parts by mass of the solution containing the hydrogenated polymer, wherein said step is performed by decantation, a step of adding carbon dioxide gas and/or a compound to be decarboxylated to the solution containing the hydrogenated polymer, a step of removing a solvent from the solution containing the hydrogenated polymer until a concentration of the polymer reaches 95 mass% or more, and a step (A) of adding an antioxidant to the solution containing the hydrogenated polymer after the step .
A method of wireless communication of a user equipment, UE, or a base station, the method comprising: determining a code block size, CBS, of low-density parity check, LDPC, coding, wherein the CBS of the LDPC coding indicates the number of information bits in the LDPC-coding ; comparing the CBS with at least one threshold ; determining, based on a result of the comparison, a Kb number ; determining a Kp number based on a code rate and the Kb number ; generating a parity check matrix of the LDPC coding from a base graph having an information region (803-1) and a parity region (803-2), wherein the parity check matrix comprises an information bits portion and a parity bits portion , wherein a first submatrix of the base graph having a size of Kp by Kb and comprising the last information element (804-3) of the first row of the information region (803-1) of the base graph is selected to form the information bits portion of the parity check matrix , wherein a second submatrix of the base graph having a size of Kp by Kp and comprising the first parity element (804-4) of the first row of the parity region (803-2) of the base graph is selected to form the parity bits portion of the parity check matrix , and wherein the parity check matrix is obtained by combining the first submatrix and the second submatrix and by replacing their respective elements by ZxZ matrices; and operating an LDPC encoder or an LDPC decoder based on the parity check matrix . determining a code block size, CBS, of low-density parity check, LDPC, coding, wherein the CBS of the LDPC coding indicates the number of information bits in the LDPC-coding ; comparing the CBS with at least one threshold ; determining, based on a result of the comparison, a Kb number ; determining a Kp number based on a code rate and the Kb number ; generating a parity check matrix of the LDPC coding from a base graph having an information region (803-1) and a parity region (803-2), wherein the parity check matrix comprises an information bits portion and a parity bits portion , wherein a first submatrix of the base graph having a size of Kp by Kb and comprising the last information element (804-3) of the first row of the information region (803-1) of the base graph is selected to form the information bits portion of the parity check matrix , wherein a second submatrix of the base graph having a size of Kp by Kp and comprising the first parity element (804-4) of the first row of the parity region (803-2) of the base graph is selected to form the parity bits portion of the parity check matrix , and wherein the parity check matrix is obtained by combining the first submatrix and the second submatrix and by replacing their respective elements by ZxZ matrices; and
A porous plate-shaped filler which has a plate shape having an aspect ratio of 3 or more and which has a surface shape being one of a round shape, an oval, and a round-corner polygonal shape and a minimum length of from 0.1 to 50 μm, having a sectional shape which is a quadrangular shape in which at least a part of the corners is rounded, and wherein a radius R of an arc of the quadrangular shape in which at least a part of corners in the sectional shape is rounded is 1/5 or more of the minimum length.
A system comprising: a stimulation generator configured to deliver electrical stimulation therapy to a patient; and processing circuitry configured to: control the stimulation generator to deliver an electrical stimulation therapy defined by a set of therapy parameters to a patient; control the stimulation generator to cease delivery of the electrical stimulation therapy; sense an electrically evoked compound action potential, eECAP, signal while delivery of the electrical stimulation therapy has ceased; compare a value of one or more parameters of the sensed eECAP to a predetermined value; and control, based on the comparison of the value of the one or more parameters of the sensed eECAP to the predetermined value, the stimulation generator to resume delivery of the electrical stimulation therapy. a stimulation generator configured to deliver electrical stimulation therapy to a patient; and processing circuitry configured to: control the stimulation generator to deliver an electrical stimulation therapy defined by a set of therapy parameters to a patient; control the stimulation generator to cease delivery of the electrical stimulation therapy; sense an electrically evoked compound action potential, eECAP, signal while delivery of the electrical stimulation therapy has ceased; compare a value of one or more parameters of the sensed eECAP to a predetermined value; and control, based on the comparison of the value of the one or more parameters of the sensed eECAP to the predetermined value, the stimulation generator to resume delivery of the electrical stimulation therapy. control the stimulation generator to deliver an electrical stimulation therapy defined by a set of therapy parameters to a patient; control the stimulation generator to cease delivery of the electrical stimulation therapy; sense an electrically evoked compound action potential, eECAP, signal while delivery of the electrical stimulation therapy has ceased; compare a value of one or more parameters of the sensed eECAP to a predetermined value; and control, based on the comparison of the value of the one or more parameters of the sensed eECAP to the predetermined value, the stimulation generator to resume delivery of the electrical stimulation therapy.
A crystal of 1-((2-(3,6-diazabicyclo[3.1.1]heptan-3-yl)-7-(thiazol-2-yl)benzo[d]oxazol-4-yl)oxy)-1,1-difluoro-2-methylpropan-2-ol represented by formula ,