mhurhangee/patent-ind-claim-en huggingface dataset:
An image inspection device comprising: a processor configured to: acquire a radiation image obtained by imaging a subject using radiation, perform image inspection on the radiation image obtained by using the radiographic unit, wherein the image inspection includes a plurality of image inspection steps having a priority order for performing the steps, and wherein the final image inspection step is marker superimposition processing, which includes recognizing an imaging condition relating to an imaging direction and/or laterality of the subject reflected in the radiation image, and superimposing, on the radiation image, a marker indicating the imaging direction and/or laterality of the subject reflected in the radiation image by using a result of the recognition; and characterized in that the processor is further configured to: receive a redo instruction for one of the image inspection steps including superimposition processing of the marker, and in a case of receiving the redo instruction, in addition to redoing the image inspection step for which the processor receives the redo instruction, automatically re-execute at least the image inspection step performed after the image inspection step for which the processor receives the redo instruction, in accordance with a result of the image inspection step for which the processor receives the redo instruction. acquire a radiation image obtained by imaging a subject using radiation, perform image inspection on the radiation image obtained by using the radiographic unit, wherein the image inspection includes a plurality of image inspection steps having a priority order for performing the steps, and wherein the final image inspection step is marker superimposition processing, which includes recognizing an imaging condition relating to an imaging direction and/or laterality of the subject reflected in the radiation image, and superimposing, on the radiation image, a marker indicating the imaging direction and/or laterality of the subject reflected in the radiation image by using a result of the recognition; and characterized in that the processor is further configured to: recognizing an imaging condition relating to an imaging direction and/or laterality of the subject reflected in the radiation image, and superimposing, on the radiation image, a marker indicating the imaging direction and/or laterality of the subject reflected in the radiation image by using a result of the recognition; and characterized in that the processor is further configured to: receive a redo instruction for one of the image inspection steps including superimposition processing of the marker, and in a case of receiving the redo instruction, in addition to redoing the image inspection step for which the processor receives the redo instruction, automatically re-execute at least the image inspection step performed after the image inspection step for which the processor receives the redo instruction, in accordance with a result of the image inspection step for which the processor receives the redo instruction.
A reception device comprising: a content reception unit configured to receive AV content, the AV content being broadcast content transmitted by a broadcast wave; an application acquisition unit configured to acquire an application that operates together with the AV content; an application control unit configured to control operation of the application according to a verification result of whether or not the application is trustworthy, an electronic certificate acquisition unit configured to acquire an electronic certificate, transmitted by the broadcast wave, for verifying an electronic signature attached to the application, and an electronic signature verification unit configured to use the electronic certificate to verify the electronic signature attached to the application, wherein an electronic program guide transmitted by the broadcast wave associates an identifier of the electronic certificate, and wherein the electronic certificate acquisition unit is configured to acquire, on the basis of the electronic program guide, the electronic certificate from a broadcast wave of a channel corresponding to the identifier of the electronic certificate obtained from the electronic signature attached to the application. a content reception unit configured to receive AV content, the AV content being broadcast content transmitted by a broadcast wave; an application acquisition unit configured to acquire an application that operates together with the AV content; an application control unit configured to control operation of the application according to a verification result of whether or not the application is trustworthy, an electronic certificate acquisition unit configured to acquire an electronic certificate, transmitted by the broadcast wave, for verifying an electronic signature attached to the application, and an electronic signature verification unit configured to use the electronic certificate to verify the electronic signature attached to the application, wherein an electronic program guide transmitted by the broadcast wave associates an identifier of the electronic certificate, and wherein the electronic certificate acquisition unit is configured to acquire, on the basis of the electronic program guide, the electronic certificate from a broadcast wave of a channel corresponding to the identifier of the electronic certificate obtained from the electronic signature attached to the application.
A communication control method used in a mobile communication system supporting D2D communication which is direct terminal-to-terminal communication, comprising: a step A of receiving, by a first user terminal (100-1) in a coverage of the mobile communication system, first broadcast information transmitted from a base station ; a step B of receiving, by the first user terminal (100-1), second broadcast information transmitted from the base station , wherein the second broadcast information designates radio resources to be used for transferring the first broadcast information without being used in data transmission in D2D communication; a step C of using, by the first user terminal (100-1), the radio resources designated by the second broadcast information to transfer the first broadcast information to a second user terminal (100-2) outside the coverage of the mobile communication system; and a step D of receiving, by the second user terminal (100-2), the first broadcast information transferred from the first user terminal (100-1), wherein the first broadcast information includes D2D resource information indicating radio resources available for the D2D communication. a step A of receiving, by a first user terminal (100-1) in a coverage of the mobile communication system, first broadcast information transmitted from a base station ; a step B of receiving, by the first user terminal (100-1), second broadcast information transmitted from the base station , wherein the second broadcast information designates radio resources to be used for transferring the first broadcast information without being used in data transmission in D2D communication; a step C of using, by the first user terminal (100-1), the radio resources designated by the second broadcast information to transfer the first broadcast information to a second user terminal (100-2) outside the coverage of the mobile communication system; and a step D of receiving, by the second user terminal (100-2), the first broadcast information transferred from the first user terminal (100-1), wherein the first broadcast information includes D2D resource information indicating radio resources available for the D2D communication.
A wireless communication method, comprising: determining, by a user equipment, an identifier offset of a hybrid automatic repeat request HARQ, process; determining, by the user equipment (S410) based on the identifier offset of the HARQ process, an identifier of the HARQ process using the following relation, HARQ _ PID = a + t / T MOD m wherein HARQ_PID corresponds to the identifier of the HARQ process, a corresponds to the identifier offset of the HARQ process, T corresponds to a semi-persistent scheduling ,SPS, interval, m corresponds to a number of SPS HARQ processes, └ ┘ corresponds to a rounding down operation, MOD correspond to a mod operation, and t is determined as t = n_SFN × M + n_Sub, wherein n_SFN is a system frame number corresponding to SPS radio resource used by the HARQ process, M is a number of radio subframes comprised in one radio frame and n_Sub is a radio subframe number corresponding to the SPS radio resource used by the HARQ process; and performing, by the user equipment, the HARQ process according to the identifier of the HARQ process. determining, by a user equipment, an identifier offset of a hybrid automatic repeat request HARQ, process; determining, by the user equipment (S410) based on the identifier offset of the HARQ process, an identifier of the HARQ process using the following relation, HARQ _ PID = a + t / T MOD m wherein HARQ_PID corresponds to the identifier of the HARQ process, a corresponds to the identifier offset of the HARQ process, T corresponds to a semi-persistent scheduling ,SPS, interval, m corresponds to a number of SPS HARQ processes, └ ┘ corresponds to a rounding down operation, MOD correspond to a mod operation, and t is determined as t = n_SFN × M + n_Sub, wherein n_SFN is a system frame number corresponding to SPS radio resource used by the HARQ process, M is a number of radio subframes comprised in one radio frame and n_Sub is a radio subframe number corresponding to the SPS radio resource used by the HARQ process; and performing, by the user equipment, the HARQ process according to the identifier of the HARQ process.
A composition comprising 20 to 60 parts by mass of a component derived from an ethylene-based copolymer rubber (A), 5 to 14 parts by mass of a component derived from a polypropylene resin (B), 5 to 12 parts by mass of a component derived from a styrene-based thermoplastic elastomer (C) and 5 to 70 parts by mass of a component derived from a softening agent (D) (with the total amount of the components (A), (B), (C) and (D) being 100 parts by mass), wherein a mass ratio of the component derived from the styrene-based thermoplastic elastomer (C) to the component derived from the softening agent (D) ((C)/(D)) is 0.01 to 1, and at least the component derived from the ethylene-based copolymer rubber (A) and the component derived from the styrene-based thermoplastic elastomer (C) are crosslinked by a crosslinking agent (E) comprising an organic peroxide.
Surge protection component having a main body which has a first lateral face and a second lateral face , wherein the second lateral face lies opposite the first lateral face , wherein a first outer electrode is arranged on the first lateral face of the main body , wherein a second outer electrode is arranged on the second lateral face of the main body , wherein the main body has at least one inner electrode , which is arranged between two ceramic layers and bears on each of the two ceramic layers , wherein the at least one inner electrode is set back from the first lateral face of the main body , wherein a first gas-filled cavity is provided between the at least one inner electrode and the first outer electrode , wherein the at least one inner electrode is set back from the second lateral face of the main body , and wherein a second gas-filled cavity is provided between the at least one inner electrode and the second outer electrode .
A method of allocating a resource by a Base Station, BS, in a wireless access system supporting Full Duplex Radio, FDR, transmission, the method comprising: selecting (S131) candidate FDR UEs to be configured as a group among a plurality of FDR UEs, wherein the candidate FDR UEs are selected in response to a reception of a request from the plurality of FDR UEs for participating in a Full Duplex, FD, mode on a same resource; transmitting (S132) information about group configuration to the candidate FDR UEs; receiving (S134) interference information about inter-device interference from the candidate FDR UEs, wherein the inter-device interference is interference caused by several FDR UEs in FDR transmission using the same resource; configuring (S135) the candidate FDR UEs as the group based on the interference information; and allocating (S136) a resource to the candidate FDR UEs configured as the group on a group basis. selecting (S131) candidate FDR UEs to be configured as a group among a plurality of FDR UEs, wherein the candidate FDR UEs are selected in response to a reception of a request from the plurality of FDR UEs for participating in a Full Duplex, FD, mode on a same resource; transmitting (S132) information about group configuration to the candidate FDR UEs; receiving (S134) interference information about inter-device interference from the candidate FDR UEs, wherein the inter-device interference is interference caused by several FDR UEs in FDR transmission using the same resource; configuring (S135) the candidate FDR UEs as the group based on the interference information; and allocating (S136) a resource to the candidate FDR UEs configured as the group on a group basis.
Method for preventing a risk of slipping of a belt connecting a starter member to an internal combustion engine of a motor vehicle, the risk of slipping being liable to be produced by a deposit of frost on the belt , characterized in that the method comprises an estimate or a measurement of a temperature of the belt at a given time and if the temperature of the belt ) estimated or measured is below a calibratable temperature threshold at least below 0°C at this given moment, when the internal combustion engine is running, it is prohibited to stop the engine internal combustion or, when the internal combustion engine is stopped, prohibiting the starting of the internal combustion engine by the starting device associated with the belt .
A method performed by a first terminal in a wireless communication system, the method comprising: generating a medium access control, MAC, protocol data unit, PDU, including a plurality of MAC service data units, SDUs; identifying a communication range value of a MAC SDU with a longest communication range value among different communication range values of the at least one of the plurality of MAC SDUs included in the MAC PDU; transmitting , to a second terminal, sidelink control information, SCI including the identified communication range value; and transmitting , to the second terminal, the MAC PDU including the plurality of MAC SDUs. generating a medium access control, MAC, protocol data unit, PDU, including a plurality of MAC service data units, SDUs; identifying a communication range value of a MAC SDU with a longest communication range value among different communication range values of the at least one of the plurality of MAC SDUs included in the MAC PDU; transmitting , to a second terminal, sidelink control information, SCI including the identified communication range value; and transmitting , to the second terminal, the MAC PDU including the plurality of MAC SDUs.
A turbine intake filter system , the system comprising: a plurality of filters associated with at least one turbine intake of the system, a plurality of devices , each device associated with a respective one of the plurality of filters, the device operable to provide an indication, a plurality of pulse valves associated with the plurality of filters, and at least one control device operable to detect or receive the indication from each of the plurality of devices, characterised in that the indication is based at least in part on a measurement of air flow through the respective filter, wherein the indication is relating to a condition of the respective filter, and in that the at least one control device is operable to manipulate the plurality of pulse valves based at least in part on the indication associated with the respective filter. a plurality of filters associated with at least one turbine intake of the system, a plurality of devices , each device associated with a respective one of the plurality of filters, the device operable to provide an indication, a plurality of pulse valves associated with the plurality of filters, and at least one control device operable to detect or receive the indication from each of the plurality of devices, characterised in that the indication is based at least in part on a measurement of air flow through the respective filter, wherein the indication is relating to a condition of the respective filter, and in that the at least one control device is operable to manipulate the plurality of pulse valves based at least in part on the indication associated with the respective filter.
An optical assembly (30; 130) comprising: a mounting structure (32; 132) including a plurality of axially spaced circumferential recessed undercuts (44; 144) formed into an inner surface of the mounting structure (32; 132); a plurality of optical elements (34; 134) axially spaced in the mounting structure (32; 132), at least one of the plurality of optical elements (34; 134) including an undercut (38; 138) in a perimeter edge surface (40; 140) of the optical element (34; 134), the undercut (38; 138) in the perimeter edge (40; 140) aligned with one of the plurality of undercuts (44; 144) in the mounting structure (32; 132), the aligned circumferential undercuts defining a void (48; 148); and a cured or hardened conformal filler material (54; 154) cast in place in the void (48; 148) to create a mechanical lock between the optical element (34; 134) and mounting structure (32; 132), wherein the mechanical lock is a residual compressive force between the mounting structure (32; 132) and the optical element (34; 134) independent of any adhesive bond which may exist, characterised in that the optical assembly comprises a plurality of ports (37; 137) providing communication between an outer surface of the mounting structure (32; 132) and at least one of the circumferential recessed undercuts (44; 144), wherein the plurality of ports (37; 137) are configured to be used to inject the curable or hardenable conformal filler material (54; 154) into the void (48; 148) to resiliently secure the optical element (34; 134) within the mounting structure (32; 132). a mounting structure (32; 132) including a plurality of axially spaced circumferential recessed undercuts (44; 144) formed into an inner surface of the mounting structure (32; 132); a plurality of optical elements (34; 134) axially spaced in the mounting structure (32; 132), at least one of the plurality of optical elements (34; 134) including an undercut (38; 138) in a perimeter edge surface (40; 140) of the optical element (34; 134), the undercut (38; 138) in the perimeter edge (40; 140) aligned with one of the plurality of undercuts (44; 144) in the mounting structure (32; 132), the aligned circumferential undercuts defining a void (48; 148); and a cured or hardened conformal filler material (54; 154) cast in place in the void (48; 148) to create a mechanical lock between the optical element (34; 134) and mounting structure (32; 132), wherein the mechanical lock is a residual compressive force between the mounting structure (32; 132) and the optical element (34; 134) independent of any adhesive bond which may exist, characterised in that the optical assembly comprises a plurality of ports (37; 137) providing communication between an outer surface of the mounting structure (32; 132) and at least one of the circumferential recessed undercuts (44; 144), wherein the plurality of ports (37; 137) are configured to be used to inject the curable or hardenable conformal filler material (54; 154) into the void (48; 148) to resiliently secure the optical element (34; 134) within the mounting structure (32; 132).
A power converter comprising: an input terminal configured to receive power from one or more power sources; a first output terminal (O1) configured to provide power to a first load; a first storage device (Co1) coupled between the first output terminal (O1) and a first reference terminal; a second output terminal configured to provide power to a second load; a second storage device (Co2) coupled between the second output terminal and a second reference terminal; and a voltage compensation circuit comprising a first compensation leg connected between the first output terminal (O1) and the second output terminal , wherein the first storage device (Co1) is configured to transfer charge to the second output terminal via the first compensation leg; a controller comprising a first control loop configured to control the voltage at the first output terminal (O1) and a second control loop configured to control the voltage at the second output terminal , wherein the second control loop is faster than the first control loop, and wherein the controller is configured to: obtain a first measurement of a first voltage at the second output terminal ; compare the first voltage to a first reference voltage value; if the first voltage is less than the first reference voltage value, activate the voltage compensation circuit to transfer charge from the first output terminal to the second output terminal . an input terminal configured to receive power from one or more power sources; a first output terminal (O1) configured to provide power to a first load; a first storage device (Co1) coupled between the first output terminal (O1) and a first reference terminal; a second output terminal configured to provide power to a second load; a second storage device (Co2) coupled between the second output terminal and a second reference terminal; and a voltage compensation circuit comprising a first compensation leg connected between the first output terminal (O1) and the second output terminal , wherein the first storage device (Co1) is configured to transfer charge to the second output terminal via the first compensation leg; a controller comprising a first control loop configured to control the voltage at the first output terminal (O1) and a second control loop configured to control the voltage at the second output terminal , wherein the second control loop is faster than the first control loop, and wherein the controller is configured to: obtain a first measurement of a first voltage at the second output terminal ; compare the first voltage to a first reference voltage value; if the first voltage is less than the first reference voltage value, activate the voltage compensation circuit to transfer charge from the first output terminal to the second output terminal . obtain a first measurement of a first voltage at the second output terminal ; compare the first voltage to a first reference voltage value; if the first voltage is less than the first reference voltage value, activate the voltage compensation circuit to transfer charge from the first output terminal to the second output terminal .
Sole for a shoe, comprising: a. a porous mesh ; and b. a continuous first layer arranged at least partially on a first side of the porous mesh , wherein 1. the first layer penetrates the porous mesh at least partially to form a tread structure on a second side of the porous mesh opposite the first side, and wherein 2. the first layer and the porous mesh are bonded at least in an area where the tread structure is formed. a. a porous mesh ; and b. a continuous first layer arranged at least partially on a first side of the porous mesh , wherein 1. the first layer penetrates the porous mesh at least partially to form a tread structure on a second side of the porous mesh opposite the first side, and wherein 2. the first layer and the porous mesh are bonded at least in an area where the tread structure is formed. 1. the first layer penetrates the porous mesh at least partially to form a tread structure on a second side of the porous mesh opposite the first side, and wherein 2. the first layer and the porous mesh are bonded at least in an area where the tread structure is formed.