mhurhangee/patent-ind-claim-en huggingface dataset:
A user equipment, UE , comprising: receiving unit configured to receive a Radio Resource Control, RRC, signaling; and transmitting unit configured to transmit a Physical Uplink Shared channel, PUSCH, wherein: a sub-Physical Resource Block, PRB, allocation for the PUSCH is enabled by the RRC signaling, and after the sub-PRB resource allocation is enabled, whether resource allocation for the PUSCH includes at least one PRB or sub-PRB is indicated by a Downlink Control Information, DCI, and when the DCI indicates resource allocation of at least one PRB, a first number of bits in the DCI is used to allocate a narrowband, and a second number of bits in the DCI is used to allocate at least one PRB in the narrowband for the PUSCH, and when the DCI indicates sub-PRB resource allocation, the first number of bits in the DCI is used to allocate a narrowband, and a third number of bits in the DCI is used to allocate a number of subcarriers in the narrowband for the PUSCH, and the third number of bits at least includes the second number of bits. receiving unit configured to receive a Radio Resource Control, RRC, signaling; and transmitting unit configured to transmit a Physical Uplink Shared channel, PUSCH, wherein: a sub-Physical Resource Block, PRB, allocation for the PUSCH is enabled by the RRC signaling, and after the sub-PRB resource allocation is enabled, whether resource allocation for the PUSCH includes at least one PRB or sub-PRB is indicated by a Downlink Control Information, DCI, and when the DCI indicates resource allocation of at least one PRB, a first number of bits in the DCI is used to allocate a narrowband, and a second number of bits in the DCI is used to allocate at least one PRB in the narrowband for the PUSCH, and when the DCI indicates sub-PRB resource allocation, the first number of bits in the DCI is used to allocate a narrowband, and a third number of bits in the DCI is used to allocate a number of subcarriers in the narrowband for the PUSCH, and the third number of bits at least includes the second number of bits. a sub-Physical Resource Block, PRB, allocation for the PUSCH is enabled by the RRC signaling, and after the sub-PRB resource allocation is enabled, whether resource allocation for the PUSCH includes at least one PRB or sub-PRB is indicated by a Downlink Control Information, DCI, and when the DCI indicates resource allocation of at least one PRB, a first number of bits in the DCI is used to allocate a narrowband, and a second number of bits in the DCI is used to allocate at least one PRB in the narrowband for the PUSCH, and when the DCI indicates sub-PRB resource allocation, the first number of bits in the DCI is used to allocate a narrowband, and a third number of bits in the DCI is used to allocate a number of subcarriers in the narrowband for the PUSCH, and the third number of bits at least includes the second number of bits.
An acoustic emission monitoring system for monitoring structural integrity of a furnace , the system comprising: a furnace shell ; a controller ; a plurality of acoustic emission sensors mounted to the furnace shell and in communication with the controller to provide electric signals corresponding to one or more acoustic emissions generated in the furnace to the controller, wherein the controller includes a location module for estimating a location of origin of one or more acoustic emission events; a first row of at least two acoustic emission sensors mounted at a first height on the furnace shell, the at least two acoustic emission sensors of the first row being laterally offset from each other by a first lateral spacing distance ; and a second row of at least two acoustic emission sensors mounted at a second height on the furnace shell, the second height being higher than the first height by a vertical offset distance , the at least two acoustic emission sensors of the second row being laterally offset from each other by a second lateral spacing distance , the second lateral spacing distance being generally equal to the first lateral spacing distance, wherein the first row is laterally offset from the second row by a lateral offset distance ; and wherein an electric signal is registered as an acoustic emission event if detected by a predetermined number of acoustic emission sensors, characterised in that the first lateral spacing distance between neighboring acoustic emission sensors of the at least two acoustic emission sensors mounted at the first height is greater than the vertical offset distance between the first height and the second height, and the controller is configured to apply a speed wave correction based on an operating temperature of the furnace to refine the location of origin of the one or more acoustic emission events. a furnace shell ; a controller ; a plurality of acoustic emission sensors mounted to the furnace shell and in communication with the controller to provide electric signals corresponding to one or more acoustic emissions generated in the furnace to the controller, wherein the controller includes a location module for estimating a location of origin of one or more acoustic emission events;
A motion video segmenting method in which a processor segments images of a plurality of frames configuring a motion video into a plurality of groups, characterized by the method comprising: by the processor , determining (S605) a difficulty degree (D_level) of performing an editing operation of the images based on a feature amount obtained from the image, wherein the feature amount indicates a feature of a moving body in the images of the plurality of frames configuring the motion video, and wherein the editing operation is an operation of correcting, by a person, an error in specifying a position of the moving body in the motion video in a tracking process for tracking the moving body in the motion video performed by an image processing device ; and determining (S613) a place at which the images of the plurality of frames configuring the motion video are segmented into a plurality of groups based on the determined difficulty degree (O_level) of the image, wherein the step of determining (S605) the difficulty degree (D_level) includes at least one of determining a rate occupied by a region corresponding to the moving body to the whole image by determining a rate of a size of a foreground region included in a predetermined specific region to a size of the foreground region of the image, the foreground region being a region other than a background included in the image, and counting a number of moving bodies in the predetermined specific region in the image. by the processor , determining (S605) a difficulty degree (D_level) of performing an editing operation of the images based on a feature amount obtained from the image, wherein the feature amount indicates a feature of a moving body in the images of the plurality of frames configuring the motion video, and wherein the editing operation is an operation of correcting, by a person, an error in specifying a position of the moving body in the motion video in a tracking process for tracking the moving body in the motion video performed by an image processing device ; and determining (S613) a place at which the images of the plurality of frames configuring the motion video are segmented into a plurality of groups based on the determined difficulty degree (O_level) of the image, wherein the step of determining (S605) the difficulty degree (D_level) includes at least one of determining a rate occupied by a region corresponding to the moving body to the whole image by determining a rate of a size of a foreground region included in a predetermined specific region to a size of the foreground region of the image, the foreground region being a region other than a background included in the image, and counting a number of moving bodies in the predetermined specific region in the image.
A mounting frame for an electronics and instrumentation enclosure for supporting components and parts to be mounted into the electronics and instrumentation enclosure, the mounting frame comprising two elongated parallel supports that form two sides of the mounting frame and are interconnected by an elongated piece , and four elongated corner parts (1 to 4) fastened to the ends (5 to 8) of the elongated supports by fastening means (17 to 20) so that each end is provided with one corner part and the corner parts are perpendicular to a plane defined by the elongated supports , the corner parts (1 to 4) being positioned in relation to one another so that they are at the corners of a rectangle, which rectangle has been obtained by joining the corner parts with four straight lines, wherein the fastening means (17 to 20) comprise a locking tongue formed to the ends (5 to 8) of the elongated supports , each opposite end of both elongated supports having a locking tongue formed as one piece with the elongated support , and a through-hole for mounting arranged to the corner part (1 to 4) for receiving the locking tongue , the corner parts (1 to 4) comprising a plural number of such mounting holes at a distance from one another in a longitudinal direction of the corner parts; wherein locking tongue is inside the mounting hole without clearance when the longitudinal direction of the corner part (1 to 4) is perpendicular to the plane defined by the supports ; and wherein the locking tongue comprises a support surface directed towards the corner parts (1 to 4), characterized in that the locking tongue extends away upward or downward from the plane defined by the elongated supports being at an angle (α) of 70 to 100 degrees to the plane defined by the elongated supports , and has a length (L) that is greater than the height (H) of the mounting hole , said length (L) being the height of the locking tongue when the locking tongue extends upward or the length of the locking tongue when the locking tongue extends downward.
Heater for a vehicle system for injecting an aqueous solution in an air intake line upstream of a combustion chamber of an internal combustion engine, or in the combustion chamber of the internal combustion engine, said heater comprising at least one flexible part which comprises at least one metallic resistive track embedded in an insulating material, said insulating material comprising at least one antimicrobial compound and/or being partly or totally coated by at least one layer containing at least one antimicrobial compound.
Resonant converter for supplying a load , for example a LED load, comprising: - a primary converter side , comprising a converter switching circuit , - a secondary converter side , and - a controller , configured to operate the converter switching circuit using pulse width modulation, for regulating a power transfer from the primary converter side to the secondary converter side , and - an overshoot protection circuit connected to the primary converter side and to the controller , characterized in that the overshoot protection circuit comprises a zero crossing detection circuit , configured to detect a zero crossing of a resonant current on the primary converter side , and wherein the controller is configured to, at a switch-off event, switch off the converter switching circuit at a detected zero crossing of the resonant current on the primary converter side , after the switch-off event. - a primary converter side , comprising a converter switching circuit , - a secondary converter side , and - a controller , configured to operate the converter switching circuit using pulse width modulation, for regulating a power transfer from the primary converter side to the secondary converter side , and - an overshoot protection circuit connected to the primary converter side and to the controller , the overshoot protection circuit comprises a zero crossing detection circuit , configured to detect a zero crossing of a resonant current on the primary converter side , and wherein the controller is configured to, at a switch-off event, switch off the converter switching circuit at a detected zero crossing of the resonant current on the primary converter side , after the switch-off event.
A light emitting device, comprising: a substrate ; a light emitting structure disposed under the substrate, the light emitting structure including a first conductivity type semiconductor layer , an active layer , and a second conductivity type semiconductor layer ; a reflective layer disposed under the second conductivity type semiconductor layer, wherein at least one first through-hole penetrates through the reflective layer in a first direction, the first direction being a thickness direction of the light emitting structure ; a contact layer embedded in at least one second through-hole penetrating each of the reflective layer , the second conductivity type semiconductor layer and the active layer , so as to be connected to the first conductivity type semiconductor layer ; and an insulation layer disposed between the contact layer and each of the reflective layer , the second conductivity type semiconductor layer and the active layer , wherein the first through-hole is all filled with the insulation layer . a substrate ; a light emitting structure disposed under the substrate, the light emitting structure including a first conductivity type semiconductor layer , an active layer , and a second conductivity type semiconductor layer ; a reflective layer disposed under the second conductivity type semiconductor layer, wherein at least one first through-hole penetrates through the reflective layer in a first direction, the first direction being a thickness direction of the light emitting structure ; a contact layer embedded in at least one second through-hole penetrating each of the reflective layer , the second conductivity type semiconductor layer and the active layer , so as to be connected to the first conductivity type semiconductor layer ; and an insulation layer disposed between the contact layer and each of the reflective layer , the second conductivity type semiconductor layer and the active layer , wherein the first through-hole is all filled with the insulation layer .
Door of a motor vehicle comprising a door-opening control mounted in a housing , a door structural panel , an exterior panel and a reinforcer positioned between said structural panel and said exterior panel , and fixed to the side uprights of the structural panel by its ends , said reinforcer being interposed between the housing of the door-opening control and the exterior panel , said door being characterised in that the door is provided with an electrical control arranged on the lateral side of the structural panel opposite the one that has the door-opening control and in that one end of the reinforcer is fixed to the structural panel at the door-opening control , and the other end of the reinforcer is fixed to the structural panel in such a way that the reinforcer extends in part in the vicinity of the electric door control , preferably the door is a sliding door.
A wound monitoring and/or therapy apparatus comprising: a wound dressing configured to be positioned over a wound, the wound dressing comprising: a wound contact layer comprising one or more electronic components and one or more electronic connections that connect at least some of the one or more electronic components; and an acquisition distribution layer above the wound contact layer, the acquisition distribution layer configured to allow distribution of fluid and wherein the acquisition distribution layer distribution layer comprises one or more slits and is configured to laterally wick fluid. a wound dressing configured to be positioned over a wound, the wound dressing comprising: a wound contact layer comprising one or more electronic components and one or more electronic connections that connect at least some of the one or more electronic components; and an acquisition distribution layer above the wound contact layer, the acquisition distribution layer configured to allow distribution of fluid and a wound contact layer comprising one or more electronic components and one or more electronic connections that connect at least some of the one or more electronic components; and an acquisition distribution layer above the wound contact layer, the acquisition distribution layer configured to allow distribution of fluid and wherein the acquisition distribution layer distribution layer comprises one or more slits and is configured to laterally wick fluid.
A dual seal termination assembly of a subsea termination, the assembly comprising a first termination body ; and a sleeve at least partially surrounding the first termination body; primary and secondary seals adapted to be fitted between the first termination body and the sleeve; a test port in the first termination body to supply test fluid to a point between the primary and secondary seals of the first termination body ; and characterised by the assembly comprising a detection point on the other side of the primary seal and a detection point on the other side of the secondary seal , wherein, the test port is adapted to receive test fluid at a predetermined pressure, such that a pressure difference is created between the point between the primary and secondary seals and the detection point on the other side of the primary seal and the detection point on the other side of the secondary seal.
A method for manufacturing an electrode assembly, the method comprising: a step of interposing a plurality of first electrodes one by one, which are spaced apart from each other, between two separators ; a step of stacking a second electrode on each of outer surfaces of the separators on each of both sides of the first electrode at positions that are skipped by one of the plurality of positions on which the first electrodes are disposed to alternately continuously form a bi-cell , in which the second electrode/the separator/the first electrode/the separator/the second electrode are sequentially stacked, and a half-cell , in which the separator/the first electrode/the separator are sequentially stacked; a step of cutting the stack into a unit cell in which one bi-cell and one half-cell are connected to each other; a step of performing first sealing so that the stacked separators adhere to each other at an edge portion of the unit cell with the first electrode therebetween; a step of folding the unit cell so that the bi-cell and the half-cell are stacked; a step of performing second sealing to adhere at a portion at which an edge portion of the bi-cell and an edge portion of the half-cell contact each other after the unit cell is folded; and a step of stacking a plurality of folded unit cells to manufacture the electrode assembly, wherein the point at which the second sealing is performed partially overlaps the point at which the first sealing is performed. a step of interposing a plurality of first electrodes one by one, which are spaced apart from each other, between two separators ; a step of stacking a second electrode on each of outer surfaces of the separators on each of both sides of the first electrode at positions that are skipped by one of the plurality of positions on which the first electrodes are disposed to alternately continuously form a bi-cell , in which the second electrode/the separator/the first electrode/the separator/the second electrode are sequentially stacked, and a half-cell , in which the separator/the first electrode/the separator are sequentially stacked; a step of cutting the stack into a unit cell in which one bi-cell and one half-cell are connected to each other; a step of performing first sealing so that the stacked separators adhere to each other at an edge portion of the unit cell with the first electrode therebetween; a step of folding the unit cell so that the bi-cell and the half-cell are stacked; a step of performing second sealing to adhere at a portion at which an edge portion of the bi-cell and an edge portion of the half-cell contact each other after the unit cell is folded; and a step of stacking a plurality of folded unit cells to manufacture the electrode assembly, wherein the point at which the second sealing is performed partially overlaps the point at which the first sealing is performed.
A method of adaptively tuning a Model Predictive Control (MPC) controller for an artificial pancreas, using at least one processor, the method comprising: determining, using at least one of said at least one processor, a plurality of residuals wherein each of the plurality of residuals is based on the difference between a measured glucose value and a glucose value predicted by a model at a previous time among of a plurality of time samples in the past; storing, in a memory, the determined residuals; calculating a trust index, using at least one of said at least one processor, by quantifying uncertainty of the model using the stored residuals; tuning the MPC controller, in real time, using at least one of said at least one processor, based on the calculated value of the trust index, wherein tuning the controller comprises increasing an aggressiveness of the MPC controller if the trust index is above a threshold and decreasing the aggressiveness of the MPC controller if the trust index is below a threshold; and determine an amount of insulin to be delivered by an insulin pump of the artificial pancreas based on insulin amounts determined by the MPC controller. determining, using at least one of said at least one processor, a plurality of residuals wherein each of the plurality of residuals is based on the difference between a measured glucose value and a glucose value predicted by a model at a previous time among of a plurality of time samples in the past; storing, in a memory, the determined residuals; calculating a trust index, using at least one of said at least one processor, by quantifying uncertainty of the model using the stored residuals; tuning the MPC controller, in real time, using at least one of said at least one processor, based on the calculated value of the trust index, wherein tuning the controller comprises increasing an aggressiveness of the MPC controller if the trust index is above a threshold and decreasing the aggressiveness of the MPC controller if the trust index is below a threshold; and determine an amount of insulin to be delivered by an insulin pump of the artificial pancreas based on insulin amounts determined by the MPC controller.
Orthopaedic bone anchor and suspension device with a head which, on its upper face , has an opening of a central bore for receiving an expansion device, and, a sleeve which is designed as an expansion dowel for anchoring the bone anchor and suspension device in a bone, the sleeve adjoining an underside of the head , wherein the head has a collar which protrudes outwards past the sleeve , the collar having, on its outer circumference, at least one concave recess extending from an upper face of the head to an underside of the head to allow passage of a graft, characterised in that the collar is further provided with at least one cylindrical hole for receiving a fastening suture. a head which, on its upper face , has an opening of a central bore for receiving an expansion device, and, a sleeve which is designed as an expansion dowel for anchoring the bone anchor and suspension device in a bone, the sleeve adjoining an underside of the head ,
A toner for electrophotography, comprising a binder resin, and a polyhydroxyamine compound represented by the following formula in an amount of 0.001 part by mass or more and 5.0 parts by mass or less per 100 parts by mass of the binder resin: wherein R 1 represents a hydroxyalkyl group having a number of carbon atoms of 1 or more and 5 or less; R 2 represents a hydrogen atom, an alkyl group having a number of carbon atoms of 1 or more and 6 or less, or a hydroxyalkyl group having a number of carbon atoms of 1 or more and 5 or less; and R 3 and R 4 each represent an alkanediyl group having a number of carbon atoms of 1 or more and 5 or less, provided that R 3 and R 4 may be the same as or different from each other, and wherein the binder resin has a softening point - which is measured according to the description - of 90°C or more and 160°C or less.