mhurhangee/patent-ind-claim-en huggingface dataset:
An active vibration control system (AVCS) comprising: a plurality of digital bus communication lines ; at least one circular force generator (CFG) in electrical communication with each of the plurality of digital bus communication lines ; wherein each of the plurality of digital bus communication lines is configured to electrically communicate redundant information simultaneously to the at least one CFG; wherein the CFG is configured to process the redundant information and produce a force that substantially cancels an unwanted vibration force; and wherein the at least one CFG is configured to process the redundant information via a plurality of microprocessors . a plurality of digital bus communication lines ; at least one circular force generator (CFG) in electrical communication with each of the plurality of digital bus communication lines ; wherein each of the plurality of digital bus communication lines is configured to electrically communicate redundant information simultaneously to the at least one CFG; wherein the CFG is configured to process the redundant information and produce a force that substantially cancels an unwanted vibration force; and wherein the at least one CFG is configured to process the redundant information via a plurality of microprocessors .
A method of wireless communication at a user equipment, LTE , comprising: determining whether a count of packet data unit, PDU, without POLL associated with a current PDU sequence satisfies a threshold for maximum PDUs without POLL; determining whether a total transmission queue memory exceeds an uplink transmission queue memory threshold; generating a POLL bit and transmitting , to a network entity , a current PDU with the POLL bit, based on a determination that the PDU without POLL count associated with the current PDU sequence satisfies the threshold for maximum PDUs without POLL and the total transmission queue memory exceeds the threshold for uplink transmission queue memory; and the method being characterized in : incrementing the count of PDU without POLL and transmitting, to the network entity, the current PDU without POLL bit, based on a determination that at least one of the count of PDU without POLL associated with the current PDU sequence fails to satisfy the threshold for maximum PDUs without POLL or the total transmission queue memory fails to exceed the threshold for uplink transmission queue memory. determining whether a count of packet data unit, PDU, without POLL associated with a current PDU sequence satisfies a threshold for maximum PDUs without POLL; determining whether a total transmission queue memory exceeds an uplink transmission queue memory threshold; generating a POLL bit and transmitting , to a network entity , a current PDU with the POLL bit, based on a determination that the PDU without POLL count associated with the current PDU sequence satisfies the threshold for maximum PDUs without POLL and the total transmission queue memory exceeds the threshold for uplink transmission queue memory; and the method being characterized in : incrementing the count of PDU without POLL and transmitting, to the network entity, the current PDU without POLL bit, based on a determination that at least one of the count of PDU without POLL associated with the current PDU sequence fails to satisfy the threshold for maximum PDUs without POLL or the total transmission queue memory fails to exceed the threshold for uplink transmission queue memory.
An installation element for electrical connectors comprising a base housing , in which a plurality of electrical socket devices are arranged, and an outer housing , which has a plurality of outlet openings, is fixed firmly on the base housing and is closed from below with a housing bottom , wherein a rotatable closure mechanism with a closure element is arranged between the outer housing and the base housing so that, in a closed position, elevations of the closure element form a plane surface with the surface of the outer housing and, in an open position, openings of the outer housing allow an unhindered access to the socket devices, and wherein an electric drive unit is arranged between the socket devices in order to insert the elevations of the closure element linearly from below upwards into the openings of the outer housing so as to form a plane surface with the surface of the outer housing , characterized in that a control signal is generated by elements that are not actuated mechanically and is sent to an electronic control assembly of the drive unit, so that a motor board energizes the electric drive unit upon input of the control signal, so that the electric drive unit moves the closure mechanism linearly as well as rotationally when the closure element is opened and closed.
A coupling device , configured for a coupling of a screw conveyor and a drive, driving same, of a machine for processing plastics materials and other plastifiable materials, for the positive-locking coupling of a screw conveyor shaft to a drive shaft , wherein, in the coupled state, for locking the screw conveyor shaft to the drive shaft , at least one part of at least one movable spring-loaded retaining element of the coupling device is insertable into at least one recess of the screw conveyor shaft and/or against at least one projection of the screw conveyor shaft radially in the direction of an axial axis , which extends through the screw conveyor shaft , the coupling device and the drive shaft , wherein a ring arranged around a body of the coupling device and around the axis is rotatable along a circumference of the ring , wherein an inner radius of the ring increases continuously in a predetermined direction along the circumference from a minimum to a maximum value at least in a portion of the circumference, wherein the ring is arranged at least partially over the at least one retaining element and abuts with an inner circumference against the retaining element , and wherein, for locking or unlocking the screw conveyor shaft with the drive shaft , the ring is rotatable in the predetermined direction along the circumference and at least the one part of the at least one retaining element is movable in the radial direction against a spring force, characterised in that the ring can be operated by hand without tools. wherein a ring arranged around a body of the coupling device and around the axis is rotatable along a circumference of the ring , wherein an inner radius of the ring increases continuously in a predetermined direction along the circumference from a minimum to a maximum value at least in a portion of the circumference, wherein the ring is arranged at least partially over the at least one retaining element and abuts with an inner circumference against the retaining element , and wherein, for locking or unlocking the screw conveyor shaft with the drive shaft , the ring is rotatable in the predetermined direction along the circumference and at least the one part of the at least one retaining element is movable in the radial direction against a spring force, characterised in that the ring can be operated by hand without tools.
A method of operating a radio access node , comprising: identifying multi-subcarrier system resources (S1605) using at least one of multiple different numerologies available within a single carrier, wherein the multiple different numerologies comprise a first numerology having resource blocks, RBs, with a first bandwidth and a first subcarrier spacing, Δf1, and a second numerology having RBs with a second bandwidth and a second subcarrier spacing, Δf2, which is different from Δf1, and wherein the RBs of the first numerology start at a frequency relative to a frequency reference, Fref, according to m ∗ Δf1 + Fref and the RBs of the second numerology start at a frequency relative to the frequency reference, Fref, according to n ∗ Δf2 + Fref, where m and n are integers; and transmitting and/or receiving information (S1610) within the single carrier according to the at least one of the multiple different numerologies. identifying multi-subcarrier system resources (S1605) using at least one of multiple different numerologies available within a single carrier, wherein the multiple different numerologies comprise a first numerology having resource blocks, RBs, with a first bandwidth and a first subcarrier spacing, Δf1, and a second numerology having RBs with a second bandwidth and a second subcarrier spacing, Δf2, which is different from Δf1, and wherein the RBs of the first numerology start at a frequency relative to a frequency reference, Fref, according to m ∗ Δf1 + Fref and the RBs of the second numerology start at a frequency relative to the frequency reference, Fref, according to n ∗ Δf2 + Fref, where m and n are integers; and transmitting and/or receiving information (S1610) within the single carrier according to the at least one of the multiple different numerologies.
An image processing device comprising: a camerawork determination unit (3; 30b) configured to determine (F1) camerawork-related operations of a user of the image processing device capturing a main subject to be imaged in an image at a time of capturing the image based on detection information from a sensor unit and set (F3) a determination start time; and a main subject determination unit (2; 30a), characterized in that the camerawork determination unit (3; 30b) is configured to detect (F2) a predetermined camerawork situation based on the determined camerawork related operations and to set (F3) the determination start time in case that the predetermined camerawork situation has been detected (F2:Y); and the main subject determination unit (2; 30a) is configured to determine (F4) the main subject contained in image data by detecting a position of a subject in the image data over a plurality of frames starting from the set determination start time and determining the main subject to be the subject conforming to a specific position condition. a camerawork determination unit (3; 30b) configured to determine (F1) camerawork-related operations of a user of the image processing device capturing a main subject to be imaged in an image at a time of capturing the image based on detection information from a sensor unit and set (F3) a determination start time; and a main subject determination unit (2; 30a), characterized in that the camerawork determination unit (3; 30b) is configured to detect (F2) a predetermined camerawork situation based on the determined camerawork related operations and to set (F3) the determination start time in case that the predetermined camerawork situation has been detected (F2:Y); and the main subject determination unit (2; 30a) is configured to determine (F4) the main subject contained in image data by detecting a position of a subject in the image data over a plurality of frames starting from the set determination start time and determining the main subject to be the subject conforming to a specific position condition.
A photosensitive resin composition comprising: (a) a compound polymerizable in the presence of an acid; and (b) a photoacid generating agent comprising an onium salt having a cationic part structure represented by formula (b1) below and an anionic part structure represented by formula (b2) below, wherein the component (b) absorbs at least 50% of the amount of 365 nm wavelength light absorbed by the photosensitive resin composition, wherein R 1 to R 3 each independently represent an organic group of 1 to 30 carbon atoms, at least one of R 1 to R 3 comprises a 9,10-dialkoxyanthracene skeleton, X is selected from a carbon atom, a nitrogen atom, a phosphorus atom, a boron atom, and an antimony atom, Y is at least one selected from -S(=O) 2 -, -CF 2 -O-, -CF 2 -C(=O)-, -CF 2 -C(=O)-O-, and -CF 2 -O-C(=O)-, or X and R 4 are directly bonded to each other, R 4 represents a hydrocarbon group of 1 to 30 carbon atoms, provided that when Y represents -S(=O) 2 - or a single bond, the hydrocarbon group represented by R 4 has at least one fluorine atom, and when X represents a carbon atom, m and n represent integers that satisfy m + n = 3 and n = 0 to 2, when X represents a nitrogen atom, m and n represent integers that satisfy m + n = 2 and n = 0 to 1, when X represents a phosphorus or antimony atom, m and n represent integers that satisfy m + n = 6 and n = 0 to 6, or when X represents a boron atom, m and n represent integers that satisfy m + n = 4 and n = 0 to 3. (a) a compound polymerizable in the presence of an acid; and (b) a photoacid generating agent comprising an onium salt having a cationic part structure represented by formula (b1) below and an anionic part structure represented by formula (b2) below,
A WC-based cemented carbide cutting tool comprising: a cutting tool body made of WC-based cemented carbide, wherein the WC-based cemented carbide has a component composition consisting of Co: 5 to 14 mass%, Cr 3 C 2 : 0.1 to 1.4 mass%, optionally at least one selected from TaC, NbC, TiC, and ZrC in a total amount of 4 mass% or less and the balance of WC and inevitable impurities, in a case where a grain size distribution is obtained by measuring grain sizes of WC grains in a cross-section of the WC-based cemented carbide, a plurality of local maximums are present in the grain size distribution, in a case where a grain size corresponding to a most frequent value formed on a coarse grain side of 3 μm or more is represented by r1, and a grain size corresponding to a most frequent value formed on a fine grain side of less than 3 μm is represented by r2, a grain size ratio r2/r1 is 0.15 or more and 0.60 or less, a total area ratio A2×100/(A1+A2) is 5 to 35 area%, A1 being a total area of WC grains having a grain size of 0.75 to 1.20 times of r1 and A2 being a total area of WC grains having a grain size of 0.50 to 1.20 times of r2, and the grain sizes and the total area of the WC grains are determined in accordance with the description. a cutting tool body made of WC-based cemented carbide, wherein the WC-based cemented carbide has a component composition consisting of Co: 5 to 14 mass%, Cr 3 C 2 : 0.1 to 1.4 mass%, optionally at least one selected from TaC, NbC, TiC, and ZrC in a total amount of 4 mass% or less and the balance of WC and inevitable impurities, in a case where a grain size distribution is obtained by measuring grain sizes of WC grains in a cross-section of the WC-based cemented carbide, a plurality of local maximums are present in the grain size distribution, in a case where a grain size corresponding to a most frequent value formed on a coarse grain side of 3 μm or more is represented by r1, and a grain size corresponding to a most frequent value formed on a fine grain side of less than 3 μm is represented by r2, a grain size ratio r2/r1 is 0.15 or more and 0.60 or less, a total area ratio A2×100/(A1+A2) is 5 to 35 area%, A1 being a total area of WC grains having a grain size of 0.75 to 1.20 times of r1 and A2 being a total area of WC grains having a grain size of 0.50 to 1.20 times of r2, and
A client device for protecting an artificial intelligence model , the client device comprising a processor and a memory having computer-executable instructions stored thereupon which, when executed by the processor , cause the client device to: receive an encrypted artificial intelligence model in a virtual secure mode instance of the client device ; decrypt the encrypted artificial intelligence model in the virtual secure mode instance using a decryption secret ; store the decrypted artificial intelligence model in the virtual secure mode instance ; and execute a first application that utilizes the decrypted artificial intelligence model in the virtual secure mode instance to infer an output; and provide the output to a second application executing on a host operating system , wherein the second application is prohibited from accessing data and programs running in the virtual secure mode instance . receive an encrypted artificial intelligence model in a virtual secure mode instance of the client device ; decrypt the encrypted artificial intelligence model in the virtual secure mode instance using a decryption secret ; store the decrypted artificial intelligence model in the virtual secure mode instance ; and execute a first application that utilizes the decrypted artificial intelligence model in the virtual secure mode instance to infer an output; and provide the output to a second application executing on a host operating system , wherein the second application is prohibited from accessing data and programs running in the virtual secure mode instance .
A system comprising: a room controller , a remote controller having a memory storing reference data, at least one appliance , the room controller being in operative communication with the at least one appliance and with the remote controller , the remote controller being located remotely from the room controller ; wherein the room controller is configured to: produce a request for appliance data; transmit the request to the at least one appliance ; wherein the at least one appliance is configured to: receive the request; in response to the request, produce the appliance data and transmit the appliance data to the room controller ; wherein the room controller is configured to: receive the appliance data from the at least one appliance ; transmit the appliance data to the remote controller ; characterised in that the remote controller is configured to: receive the appliance data from the room controller ; store the appliance data over time in the memory of the remote controller ; calculate a moment value of the stored appliance data; store the moment value of the stored appliance data as reference data in the memory of the remote controller ; read the reference data from the memory of the remote controller ; compare the stored appliance data to the reference data; and predict an appliance error based on the comparison between the stored appliance data and the reference data. produce a request for appliance data; transmit the request to the at least one appliance ; receive the request; in response to the request, produce the appliance data and transmit the appliance data to the room controller ; receive the appliance data from the at least one appliance ; transmit the appliance data to the remote controller ; receive the appliance data from the room controller ; store the appliance data over time in the memory of the remote controller ; calculate a moment value of the stored appliance data; store the moment value of the stored appliance data as reference data in the memory of the remote controller ; read the reference data from the memory of the remote controller ; compare the stored appliance data to the reference data; and predict an appliance error based on the comparison between the stored appliance data and the reference data.
An information processing apparatus comprising: an extracting unit configured to extract a moving object area (R1, R2) corresponding to a moving object included in a plurality of frames (FRAME 1, FRAME 2, ... FRAME t) in a moving image (G1) based on a result of a comparison between the plurality of frames (FRAME t-2, FRAME t-1) with each other; a moving object area saving unit configured to save the moving object area; a tracking unit configured to track a position of the moving object area among the plurality of frames based on a correlation between a moving object area (R2) saved in the moving object area saving unit and a frame of the moving image (G1); a determining unit configured to determine, for each of the plurality of frames, that an image area excluding the moving object area is a background area of a frame, if a moving object area of which position is tracked by the moving object area tracking unit is included in the frame, the background area determination unit determines that an image area excluding the moving object area is a background area of the frame; and a updating unit configured to update a background image of the moving image based on a result of the determining. an extracting unit configured to extract a moving object area (R1, R2) corresponding to a moving object included in a plurality of frames (FRAME 1, FRAME 2, ... FRAME t) in a moving image (G1) based on a result of a comparison between the plurality of frames (FRAME t-2, FRAME t-1) with each other; a moving object area saving unit configured to save the moving object area; a tracking unit configured to track a position of the moving object area among the plurality of frames based on a correlation between a moving object area (R2) saved in the moving object area saving unit and a frame of the moving image (G1); a determining unit configured to determine, for each of the plurality of frames, that an image area excluding the moving object area is a background area of a frame, if a moving object area of which position is tracked by the moving object area tracking unit is included in the frame, the background area determination unit determines that an image area excluding the moving object area is a background area of the frame; and a updating unit configured to update a background image of the moving image based on a result of the determining.
A power semiconductor module arrangement comprising: a base plate suitable to be arranged in a housing; a contact element suitable to be arranged in the housing and configured to, when arranged within the housing, provide an electrical connection between the inside and the outside of the housing, wherein the contact element is formed separately from the housing; and a connecting element configured to connect the contact element to the base plate , wherein the connecting element comprises a first electrically insulating layer , a second electrically insulating layer configured to attach the contact element to the first electrically insulating layer , and a third electrically insulating layer configured to attach the first electrically insulating layer to the base plate . a base plate suitable to be arranged in a housing; a contact element suitable to be arranged in the housing and configured to, when arranged within the housing, provide an electrical connection between the inside and the outside of the housing, wherein the contact element is formed separately from the housing; and a connecting element configured to connect the contact element to the base plate , wherein the connecting element comprises a first electrically insulating layer ,