mhurhangee/ep-ind-claims huggingface dataset:
A tensor permutation engine, TPE, comprising: a read address generation unit, AGU, to generate a plurality of read addresses for the plurality of tensor data elements in a first storage; a write AGU to generate a plurality of write addresses for the plurality of tensor data elements in the first storage; and a shuffle register bank, SRB, comprising: a parallel input register to read a first subset of the plurality of tensor data elements from the plurality of read addresses generated by the read AGU; a first register bank with a plurality of banks to receive the first subset of the plurality of tensor data elements; and a shift register to receive a tensor data element from each bank in the first register bank, each tensor data element in the shift register to be written to a write address from the plurality of write addresses generated by the write AGU, wherein the SRB includes the first register bank and a second register bank, and wherein when the first register bank is filled with the first subset of the plurality of tensor data elements, the shift register connects to the first register bank and outputs the first subset of the plurality of tensor data elements while a second subset of the plurality of tensor data elements is read into a second register bank through the parallel input register. a read address generation unit, AGU, to generate a plurality of read addresses for the plurality of tensor data elements in a first storage; a write AGU to generate a plurality of write addresses for the plurality of tensor data elements in the first storage; and a shuffle register bank, SRB, comprising: a parallel input register to read a first subset of the plurality of tensor data elements from the plurality of read addresses generated by the read AGU; a first register bank with a plurality of banks to receive the first subset of the plurality of tensor data elements; and a shift register to receive a tensor data element from each bank in the first register bank, each tensor data element in the shift register to be written to a write address from the plurality of write addresses generated by the write AGU, a parallel input register to read a first subset of the plurality of tensor data elements from the plurality of read addresses generated by the read AGU; a first register bank with a plurality of banks to receive the first subset of the plurality of tensor data elements; and a shift register to receive a tensor data element from each bank in the first register bank, each tensor data element in the shift register to be written to a write address from the plurality of write addresses generated by the write AGU, wherein the SRB includes the first register bank and a second register bank, and wherein when the first register bank is filled with the first subset of the plurality of tensor data elements, the shift register connects to the first register bank and outputs the first subset of the plurality of tensor data elements while a second subset of the plurality of tensor data elements is read into a second register bank through the parallel input register.
A method for deriving a characteristic of a product under inspection using X-rays, the method comprising: a) receiving X-ray image data associated with the product under inspection, the X-ray image data being derived by performing an X-ray scan of the product using an X-ray imaging apparatus and conveying attenuation information resulting from interaction of X-rays with the product under inspection; b) simulating a response of a reference product to X-rays to generate simulated X-ray image data, wherein the reference product is derived at least in part by processing the X-ray image data associated with the product under inspection; c) comparing the simulated X-ray image data and the received X-ray image data to derive the characteristic of the product under inspection; d) releasing information conveying the derived characteristic of the product under inspection. a) receiving X-ray image data associated with the product under inspection, the X-ray image data being derived by performing an X-ray scan of the product using an X-ray imaging apparatus and conveying attenuation information resulting from interaction of X-rays with the product under inspection; b) simulating a response of a reference product to X-rays to generate simulated X-ray image data, wherein the reference product is derived at least in part by processing the X-ray image data associated with the product under inspection; c) comparing the simulated X-ray image data and the received X-ray image data to derive the characteristic of the product under inspection; d) releasing information conveying the derived characteristic of the product under inspection.
An immune measuring apparatus to measure a test substance in a sample by using antigen-antibody reaction, comprising: a processing mechanism unit adapted to perform, in a first reaction chamber, processing of forming an immune complex containing the test substance in the sample and a labeled substance contained in a labeled reagent on a magnetic particle contained in a solid-phase reagent and then liberating the immune complex from the magnetic particle with a liberating reagent; a transfer unit adapted to include a first holder to hold the first reaction chamber and a magnetic source, and transfer the first reaction chamber received in the first holder at a first position to a second position while magnetically collecting the magnetic particle in the first reaction chamber by the magnetic source such that a stop time for the magnetic collection of the magnetic particle is eliminated; a dispenser adapted to aspirate a liquid phase containing the liberated immune complex in the first reaction chamber transferred to the second position, and dispenses the liquid phase into a second reaction chamber; and a detector adapted to detect a signal based on a label contained in the immune complex in the liquid phase dispensed into the second reaction chamber. a processing mechanism unit adapted to perform, in a first reaction chamber, processing of forming an immune complex containing the test substance in the sample and a labeled substance contained in a labeled reagent on a magnetic particle contained in a solid-phase reagent and then liberating the immune complex from the magnetic particle with a liberating reagent; a transfer unit adapted to include a first holder to hold the first reaction chamber and a magnetic source, and transfer the first reaction chamber received in the first holder at a first position to a second position while magnetically collecting the magnetic particle in the first reaction chamber by the magnetic source such that a stop time for the magnetic collection of the magnetic particle is eliminated; a dispenser adapted to aspirate a liquid phase containing the liberated immune complex in the first reaction chamber transferred to the second position, and dispenses the liquid phase into a second reaction chamber; and a detector adapted to detect a signal based on a label contained in the immune complex in the liquid phase dispensed into the second reaction chamber.
An electrostatic loudspeaker comprising: a membrane structure comprising a central membrane portion and a circumferential membrane portion; an electrode structure configured to electrostatically interact with the membrane structure for causing a movement of the membrane structure along an axis of movement, the electrode structure comprising a circumferential electrode portion and an opening, the circumferential electrode portion being substantially aligned to the circumferential membrane portion and the opening being substantially aligned to the central membrane portion with respect to a direction parallel to the axis of movement; wherein, in an end position of the movement of the membrane structure, the central membrane portion is configured to extend at least partially through the opening. a membrane structure comprising a central membrane portion and a circumferential membrane portion; an electrode structure configured to electrostatically interact with the membrane structure for causing a movement of the membrane structure along an axis of movement, the electrode structure comprising a circumferential electrode portion and an opening, the circumferential electrode portion being substantially aligned to the circumferential membrane portion and the opening being substantially aligned to the central membrane portion with respect to a direction parallel to the axis of movement; wherein, in an end position of the movement of the membrane structure, the central membrane portion is configured to extend at least partially through the opening.
A conductive transfer (101, 201, 301, 401, 701, 802, 905, 1006, 1007) for application to an article, comprising: a first non-conductive layer (102, 602) and a second non-conductive layer; a conductive layer (104, 603) positioned between said first non-conductive layer and said second non-conductive layer; and an adhesive layer for adhering said conductive transfer to an article; wherein said conductive layer comprises a plurality of tessellated cells (302, 402) defined by a printed conductive ink, said tessellated cells are arranged to form a grid-like pattern wherein each of the tessellated cells includes an inner cell which is absent of conductive material, and characterised in that: said conductive layer comprises a main element (303, 405, 703) and an input track (304, 406, 702) and said plurality of tessellated cells are comprised over said main element and said input track of said conductive layer; said first non-conductive layer comprises a first printed ink layer and a second printed ink layer, said first printed ink layer comprising a first length; and said second printed ink layer comprises a second length shorter than said first length, and said second printed ink layer overlays said first printed ink layer to form a step between the first and second printed ink layers. a first non-conductive layer (102, 602) and a second non-conductive layer; a conductive layer (104, 603) positioned between said first non-conductive layer and said second non-conductive layer; and an adhesive layer for adhering said conductive transfer to an article; wherein said conductive layer comprises a plurality of tessellated cells (302, 402) defined by a printed conductive ink, said tessellated cells are arranged to form a grid-like pattern wherein each of the tessellated cells includes an inner cell which is absent of conductive material, and characterised in that: said conductive layer comprises a main element (303, 405, 703) and an input track (304, 406, 702) and said plurality of tessellated cells are comprised over said main element and said input track of said conductive layer; said first non-conductive layer comprises a first printed ink layer and a second printed ink layer, said first printed ink layer comprising a first length; and said second printed ink layer comprises a second length shorter than said first length, and said second printed ink layer overlays said first printed ink layer to form a step between the first and second printed ink layers. said conductive layer comprises a main element (303, 405, 703) and an input track (304, 406, 702) and said plurality of tessellated cells are comprised over said main element and said input track of said conductive layer; said first non-conductive layer comprises a first printed ink layer and a second printed ink layer, said first printed ink layer comprising a first length; and said second printed ink layer comprises a second length shorter than said first length, and said second printed ink layer overlays said first printed ink layer to form a step between the first and second printed ink layers.
A drilling device comprising: a first air pressure unload control unit configured to perform unload control of a compressor to bring air pressure in an air tank to a first air pressure when an engine starts up, and to keep the air pressure in the air tank at the first air pressure while the engine is being driven and a flushing mechanism is not driven regardless of whether a compressor switch is on or off, the compressor switch being configured to switch the air pressure in the air tank so as to bring the air pressure to the first air pressure when the compressor switch is off; and a second air pressure unload control unit configured to perform the unload control of the compressor to increase the air pressure in the air tank to a second air pressure that is higher than the first air pressure when the flushing mechanism starts up, the compressor switch being configured to switch the air pressure in the air tank so as to bring the air pressure to the second air pressure when the compressor switch is on. a first air pressure unload control unit configured to perform unload control of a compressor to bring air pressure in an air tank to a first air pressure when an engine starts up, and to keep the air pressure in the air tank at the first air pressure while the engine is being driven and a flushing mechanism is not driven regardless of whether a compressor switch is on or off, the compressor switch being configured to switch the air pressure in the air tank so as to bring the air pressure to the first air pressure when the compressor switch is off; and a second air pressure unload control unit configured to perform the unload control of the compressor to increase the air pressure in the air tank to a second air pressure that is higher than the first air pressure when the flushing mechanism starts up, the compressor switch being configured to switch the air pressure in the air tank so as to bring the air pressure to the second air pressure when the compressor switch is on.
A light emitting device, comprising: a substrate; a light emitting structure disposed under the substrate 8110) and including a first conductive semiconductor layer, an active layer, and a second conductive semiconductor layer; a first insulating layer configured to expose the second conductive semiconductor layer and disposed on a lower edge of the light emitting structure; a first light permeable electrode layer disposed under the second conductive semiconductor layer exposed by the first insulating layer; a second light permeable electrode layer disposed under the first insulating layer and the first light permeable electrode layer; and a reflective layer disposed under the second light permeable electrode layer, characterised in that a width in a first direction of the first insulating layer disposed under the lower edge of the light emitting structure is in a range of 10 μ m to 40 μ m the first direction being perpendicular to a thickness direction of the light emitting structure, wherein an overlapping width (W31, W32) by which the first insulating layer, the second light permeable electrode layer, and the reflective layer overlap in the thickness direction is 5 μ m, and wherein a thickness of each of the first and second light permeable electrode layers (142, 144) is in a range of several nanometers to several tens of nanometers. a substrate; a light emitting structure disposed under the substrate 8110) and including a first conductive semiconductor layer, an active layer, and a second conductive semiconductor layer; a first insulating layer configured to expose the second conductive semiconductor layer and disposed on a lower edge of the light emitting structure; a first light permeable electrode layer disposed under the second conductive semiconductor layer exposed by the first insulating layer; a second light permeable electrode layer disposed under the first insulating layer and the first light permeable electrode layer; and a reflective layer disposed under the second light permeable electrode layer, characterised in that a width in a first direction of the first insulating layer disposed under the lower edge of the light emitting structure is in a range of 10 μ m to 40 μ m the first direction being perpendicular to a thickness direction of the light emitting structure, wherein an overlapping width (W31, W32) by which the first insulating layer, the second light permeable electrode layer, and the reflective layer overlap in the thickness direction is 5 μ m, and wherein a thickness of each of the first and second light permeable electrode layers (142, 144) is in a range of several nanometers to several tens of nanometers.
A method comprising: generating, at a second wireless device, a signal, SIG, unit to be transmitted via a sub-i gigahertz, GHz, wireless network to a first wireless device; in response to determining to use aggregated transmission to the first wireless device, setting a 1-bit aggregation field of the SIG unit to a first value and setting a 9-bit length field of the SIG unit to a number of symbols; and in response to determining not to use the aggregated transmission to the first wireless device, setting the 1-bit aggregation field to a second value and setting the 9-bit length field to a number of bytes. generating, at a second wireless device, a signal, SIG, unit to be transmitted via a sub-i gigahertz, GHz, wireless network to a first wireless device; in response to determining to use aggregated transmission to the first wireless device, setting a 1-bit aggregation field of the SIG unit to a first value and setting a 9-bit length field of the SIG unit to a number of symbols; and in response to determining not to use the aggregated transmission to the first wireless device, setting the 1-bit aggregation field to a second value and setting the 9-bit length field to a number of bytes.
A piezoelectric material comprising: a perovskite-type metal oxide represented by the following general formula (1-x){(Na y Ba 1-z)(Nb z Ti 1-z)O 3}-xBiFeO3 wherein in the formula, 0.001 ≤ x ≤ 0.015, 0.80 ≤ y ≤ 0.95, and 0.85 ≤ z ≤ 0.95 hold. a perovskite-type metal oxide represented by the following general formula (1-x){(Na y Ba 1-z)(Nb z Ti 1-z)O 3}-xBiFeO3 wherein in the formula, 0.001 ≤ x ≤ 0.015, 0.80 ≤ y ≤ 0.95, and 0.85 ≤ z ≤ 0.95 hold.
A container assembly comprising: a container having an opening; a cap having an aperture and being adapted to removably engage the container for covering the opening; removable sealing means for sealing the aperture; and a spigot adapted to releasably engage delivery means extended into the aperture and facilitate drawing of liquid contents of the container from the container. a container having an opening; a cap having an aperture and being adapted to removably engage the container for covering the opening; removable sealing means for sealing the aperture; and a spigot adapted to releasably engage delivery means extended into the aperture and facilitate drawing of liquid contents of the container from the container.
A display device (100, 102, 104) for a vehicle, comprising: a flexible display mounted in an indoor space of the vehicle and configured such that a screen area of the flexible display is changeable; a sensor configured to sense a driving state of the vehicle and a controller configured to control the flexible display such that the screen area is adjusted according to the sensed driving state, characterized in that the driving state of the vehicle is a parking mode and is sensed through a traveling direction of the vehicle, a speed of the vehicle, and a distribution of neighbouring vehicles. a flexible display mounted in an indoor space of the vehicle and configured such that a screen area of the flexible display is changeable; a sensor configured to sense a driving state of the vehicle and a controller configured to control the flexible display such that the screen area is adjusted according to the sensed driving state, characterized in that the driving state of the vehicle is a parking mode and is sensed through a traveling direction of the vehicle, a speed of the vehicle, and a distribution of neighbouring vehicles.
Buffing apparatus comprising a buffing pad (206; 306; 406; 504; 604; 704; 804; 904; 1004; 1104) and a back plate (202; 302; 402) having an edge (214; 314; 414) and a front surface (236; 338; 434), wherein the back plate can be centered on the buffing pad, wherein the buffing apparatus further comprises a buffing pad centering system comprising the back plate and a centering ring having a top boundary (218; 318; 418; 510; 610; 710; 808; 908; 1008; 1108) and a bottom boundary (220; 320; 420; 512; 612; 712; 812; 910;1010; 1110), the centering ring including a cylindrical vertical member (216; 316; 416; 508; 608; 708; 806; 906; 1006; 1106) extending between the top boundary and the bottom boundary, wherein the cylindrical vertical member has an outer cylindrical surface (224; 324; 424; 516; 616; 716; 816; 916; 1016; 1116) and an inner cylindrical surface (222; 322; 422; 514; 614; 714; 814; 914; 1014; 1114) capable of snuggly receiving the back plate when the back plate is inserted into the centering ring, the buffing pad being attached to the bottom boundary of the centering ring such that the centering ring is centered on the buffing pad, characterized in that the front surface (236; 338; 434) of the back plate (202; 302; 402) is attached to a back surface (506; 606; 706) or to an inner surface (232; 334; 430) of the buffing pad through the centering ring, wherein the inner surface is optional and, in combination with an inner wall surface (234; 336; 432), forms a cavity within the buffing pad.
A compound represented by Formula or a salt thereof: wherein, X is O or S; a dotted line is a single bond or a double bond; R 1 is C 1-10 alkyl which optionally has one to four substituents selected from the Group G 1; cycloalkyl which optionally has one to five substituents selected from the Group G 2; or -C 1-10 alkylene-cycloalkyl, wherein the cycloalkyl optionally has one to five substituents selected from the Group G 2; R 2 and R 5 are the same or different from each other, and are H, C 1-10 alkyl or cycloalkyl; R 3 is -C 1-10 alkylene-X 3 -C 1-10 alkyl; -C 1-10 alkylene-X 3 -C 1-10 alkylene-cycloalkyl, wherein the cycloalkyl optionally has one to five substituents selected from the Group G 2; -C 1-10 alkylene-cycloalkyl, wherein the cycloalkyl optionally has one to five substituents selected from the Group G 2; or -C 1-10 alkylene-X 3 -cycloalkyl, wherein the cycloalkyl optionally has one to five substituents selected from the Group G 2; X 3 is O or S n, wherein n is 0, 1, or 2; R 4 is OH, NH 2, or -O-C 1-10 alkyl and R 6 is H; or R 4 and R 6 are linked to each other to form, together with -C(=O)-C-O- to which they are attached, 2,2-di(Ci-io alkyl)-4-oxo-1,3-dioxolane-5,5-diyl; the Group G 1 consists of halogen, OH, -O-C 1-10 alkyl, -S-C 1-10 alkyl, and -O-C 1-10 halogenoalkyl; and the Group G 2 consists ofCi-io alkyl, halogen, C 1 - 10 halogenoalkyl, OH, -O-C 1-10 alkyl, -S-C 1-10 alkyl, and -O-C 1-10 halogenoalkyl. wherein, X is O or S; a dotted line is a single bond or a double bond; R 1 is C 1-10 alkyl which optionally has one to four substituents selected from the Group G 1; cycloalkyl which optionally has one to five substituents selected from the Group G 2; or -C 1-10 alkylene-cycloalkyl, wherein the cycloalkyl optionally has one to five substituents selected from the Group G 2; R 2 and R 5 are the same or different from each other, and are H, C 1-10 alkyl or cycloalkyl; R 3 is -C 1-10 alkylene-X 3 -C 1-10 alkyl; -C 1-10 alkylene-X 3 -C 1-10 alkylene-cycloalkyl, wherein the cycloalkyl optionally has one to five substituents selected from the Group G 2; -C 1-10 alkylene-cycloalkyl, wherein the cycloalkyl optionally has one to five substituents selected from the Group G 2; or -C 1-10 alkylene-X 3 -cycloalkyl, wherein the cycloalkyl optionally has one to five substituents selected from the Group G 2; X 3 is O or S n, wherein n is 0, 1, or 2; R 4 is OH, NH 2, or -O-C 1-10 alkyl and R 6 is H; or R 4 and R 6 are linked to each other to form, together with -C(=O)-C-O- to which they are attached, 2,2-di(Ci-io alkyl)-4-oxo-1,3-dioxolane-5,5-diyl; the Group G 1 consists of halogen, OH, -O-C 1-10 alkyl, -S-C 1-10 alkyl, and -O-C 1-10 halogenoalkyl; and the Group G 2 consists ofCi-io alkyl, halogen, C 1 - 10 halogenoalkyl, OH, -O-C 1-10 alkyl, -S-C 1-10 alkyl, and -O-C 1-10 halogenoalkyl.