mhurhangee/ep-ind-claims huggingface dataset:
An apparatus comprising: a decoder to decode a first instruction, the first instruction having at least a first field for a first opcode to indicate that execution circuitry is to set a first flag in a first register to indicate a mode of operation that is to cause a redirection of program flow to an exception handler upon the occurrence of a cache eviction event of a cache entry with a second flag set, and a second field to indicate an address for the exception handler; execution circuitry to execute the decoded first instruction to set the first flag in the first register to indicate the mode of operation and to store the address of the exception handler in a second register; and a cache, an entry in the cache including the second flag that, when set, identifies an entry that, upon eviction, causes the first flag in the first register to be cleared and the second flag in the entry to be cleared. a decoder to decode a first instruction, the first instruction having at least a first field for a first opcode to indicate that execution circuitry is to set a first flag in a first register to indicate a mode of operation that is to cause a redirection of program flow to an exception handler upon the occurrence of a cache eviction event of a cache entry with a second flag set, and a second field to indicate an address for the exception handler; execution circuitry to execute the decoded first instruction to set the first flag in the first register to indicate the mode of operation and to store the address of the exception handler in a second register; and a cache, an entry in the cache including the second flag that, when set, identifies an entry that, upon eviction, causes the first flag in the first register to be cleared and the second flag in the entry to be cleared.
An indoor structure that includes a solar cell module attached to a window disposed between a ceiling and a floor, wherein the ceiling comprises a first ceiling part and a second ceiling part, the second ceiling part being located lower than the first ceiling part, the second ceiling part being continuous with the first ceiling part via a vertical wall part, wherein the window includes a window glass having a window main surface, wherein the solar cell module comprises a main body panel and an extraction wire, characterized in that the main body panel comprises two translucent substrates (50, 51) and solar cells arranged therebetween, the main body panel being configured to transmit light in a thickness direction of the main body panel, wherein the main body panel includes a panel main surface facing the window main surface, wherein the extraction wire extends inside and outside the main body panel, the extraction wire including a first end part, wherein the first end part is electrically connected to the solar cells inside the main body panel, wherein the extraction wire includes a wire part exposed from the main body panel, and wherein the wire part is laid between the vertical wall part and the window wherein the ceiling comprises a first ceiling part and a second ceiling part, the second ceiling part being located lower than the first ceiling part, the second ceiling part being continuous with the first ceiling part via a vertical wall part, wherein the window includes a window glass having a window main surface, wherein the solar cell module comprises a main body panel and an extraction wire, characterized in that the main body panel comprises two translucent substrates (50, 51) and solar cells arranged therebetween, the main body panel being configured to transmit light in a thickness direction of the main body panel, wherein the main body panel includes a panel main surface facing the window main surface, wherein the extraction wire extends inside and outside the main body panel, the extraction wire including a first end part, wherein the first end part is electrically connected to the solar cells inside the main body panel, wherein the extraction wire includes a wire part exposed from the main body panel, and wherein the wire part is laid between the vertical wall part and the window
A toilet bowl ventilation system, comprising: a housing attached to a toilet seat associated with a toilet bowl, the housing including at least one ventilation inlet in a bottom surface of the housing, and a ventilation outlet; a fan positioned within the housing operable to move air from the ventilation inlet through the housing to the ventilation outlet in response to receiving power; and a controller for selectively providing power to the fan, the toilet seat being hingedly connected to the housing, the housing and the toilet seat being configured to be mounted onto the distal end of a standard commercial or residential toilet bowl, characterized in that the housing includes a bottom housing platform and a top housing platform which are joined together, by at least one connection member; and wherein the housing encloses a fan cover positioned over the fan, the fan cover including a top surface and at least one fan cover sidewall, the fan cover further including a ventilation outlet operatively connecting the fan cover to an exhaust hose, wherein an inlet cover is positioned below the fan so as to prevent water and foreign objects from striking the fan and includes the at least one ventilation inlet. a housing attached to a toilet seat associated with a toilet bowl, the housing including at least one ventilation inlet in a bottom surface of the housing, and a ventilation outlet; a fan positioned within the housing operable to move air from the ventilation inlet through the housing to the ventilation outlet in response to receiving power; and a controller for selectively providing power to the fan, the toilet seat being hingedly connected to the housing, the housing and the toilet seat being configured to be mounted onto the distal end of a standard commercial or residential toilet bowl, characterized in that the housing includes a bottom housing platform and a top housing platform which are joined together, by at least one connection member; and wherein the housing encloses a fan cover positioned over the fan, the fan cover including a top surface and at least one fan cover sidewall, the fan cover further including a ventilation outlet operatively connecting the fan cover to an exhaust hose, wherein an inlet cover is positioned below the fan so as to prevent water and foreign objects from striking the fan and includes the at least one ventilation inlet.
A core network entity for an exposure function for exchanging information between a core network entity for providing an application and a 3 rd Generation Partnership Project, 3GPP, System, the core network entity comprising: a controller configured to control the core network entity to: receive, from the core network entity for providing an application, at least one parameter set for a communication pattern, including at least one parameter representing expected user equipment, UE, activity behaviour, together with a validity time, said validity time indicating when the at least one parameter set for the communication pattern expires and transmit, to a core network entity for subscription information, the at least one parameter set for the communication pattern together with the validity time. receive, from the core network entity for providing an application, at least one parameter set for a communication pattern, including at least one parameter representing expected user equipment, UE, activity behaviour, together with a validity time, said validity time indicating when the at least one parameter set for the communication pattern expires and transmit, to a core network entity for subscription information, the at least one parameter set for the communication pattern together with the validity time.
A coke oven wall brickwork structure including bricks of a stretcher wall that is a wall partitioning a coking chamber and a combustion chamber and bricks of a binder wall that is a wall portioning combustion chamber flues from each other, comprising a stretcher A brick that is an L-shaped brick integrally combining part of the stretcher wall and part of the binder wall; and a stretcher B brick that is a brick forming part of the stretcher wall; wherein an L-shaped corner of the stretcher A brick is formed at a location thereof corresponding to the stretcher wall with a shoulder capable of receiving the stretcher B brick, a stretcher wall portion end of the stretcher A brick on the opposite side from the shoulder constitutes a stretcher end and mating of the stretcher ends of two stretcher A bricks with each other forms a stretcher wall separating a first combustion chamber flue and a coking chamber, a stretcher B brick received at its opposite ends by the shoulders of two stretcher A bricks disposed with their shoulders facing each other forms a stretcher wall separating a second combustion chamber flue and the coking chamber, and the first combustion chamber flue and second combustion chamber flue are arranged alternately.
A unidirectional reinforcement for the manufacture of fiber reinforced composites by one of resin transfer molding process and vacuum infusion molding process, the unidirectional reinforcement (2, 4, 34) comprising continuous unidirectional rovings arranged in a longitudinal direction of the reinforcement and bonded to each other by a thermoplastic and/or thermoset binder, the reinforcement having a top surface and a bottom surface and being provided with means for facilitating, when wetting-out a stack of reinforcements (2, 4, 34), the impregnation of the reinforcement (2, 4, 34) with resin in a direction transverse to the direction of the unidirectional rovings, wherein the impregnation facilitating means are thin discrete means for forming flow passages for resin arranged transverse to the unidirectional rovings, the thin discrete flow passage forming means have, under compression, a diameter or Z- direction thickness of 70 - 300 μm, and form to the sides thereof transverse flow passages extending from one longitudinal edge of the unidirectional reinforcement (2, 4, 34) to the opposite longitudinal edge thereof, characterized in that the thin discrete flow passage forming means have, under compression, an aspect ratio of less than 2.
A method for wireless communication at a user equipment, UE, comprising: determining, during a multi-slot downlink transmission, that a mapping from a transmission configuration information, TCI, state index to a first TCI state configuration has changed to a second TCI state configuration; selecting, based at least in part on the determined change, the first TCI state configuration or the second TCI state configuration to use for at least a portion of the multi-slot downlink transmission; and receiving the multi-slot downlink transmission during one or more slots according to the selected TCI state configuration and the TCI state index. determining, during a multi-slot downlink transmission, that a mapping from a transmission configuration information, TCI, state index to a first TCI state configuration has changed to a second TCI state configuration; selecting, based at least in part on the determined change, the first TCI state configuration or the second TCI state configuration to use for at least a portion of the multi-slot downlink transmission; and receiving the multi-slot downlink transmission during one or more slots according to the selected TCI state configuration and the TCI state index.
An antenna apparatus, applied to an electronic device, wherein the antenna apparatus comprises: at least one radiation unit, at least one feed unit, and at least one non-resonant unit (30, 300), wherein the feed unit is configured to directly feed the radiation unit and the non-resonant unit (30, 300) separately; and a size of the non-resonant unit (30, 300) is less than 1/8λ, and λ is a wavelength corresponding to a resonance frequency of the radiation unit; wherein a feed point and a ground point of the feed unit are respectively electrically connected to the non-resonant unit (30, 300) and a metal middle plate configured to form a floor in the electronic device; wherein the non-resonant unit (30, 300) is configured to assist in exciting a floor characteristic mode; wherein an orthographic projection that is of the non-resonant unit (30, 300) and that is in a first direction is located in the metal middle plate; and the first direction is the direction perpendicular to a plane in which the metal middle plate is located. at least one radiation unit, at least one feed unit, and at least one non-resonant unit (30, 300), wherein the feed unit is configured to directly feed the radiation unit and the non-resonant unit (30, 300) separately; and a size of the non-resonant unit (30, 300) is less than 1/8λ, and λ is a wavelength corresponding to a resonance frequency of the radiation unit; wherein a feed point and a ground point of the feed unit are respectively electrically connected to the non-resonant unit (30, 300) and a metal middle plate configured to form a floor in the electronic device; wherein the non-resonant unit (30, 300) is configured to assist in exciting a floor characteristic mode; wherein an orthographic projection that is of the non-resonant unit (30, 300) and that is in a first direction is located in the metal middle plate; and the first direction is the direction perpendicular to a plane in which the metal middle plate is located.
Moisture separation apparatus for a steam turbine power plant for the generation of electricity comprising a housing with an inlet for a gas or vapor or steam flow, a bundle of vanes arranged within the housing, where the vanes are vertically arranged in parallel and evenly spaced from one another, and each vane comprises a corrugated portion (3a, 3b) arranged closest to the inlet for the gas or vapor flow and a trailing edge portion arranged opposite from said inlet, wherein the trailing edge of one or more vanes comprises a means for collecting moisture on the trailing edge's surface (4a, 4b) and direct it to the bottom end of the vane, said means for collecting moisture on the trailing edge's surface (4a, 4b) comprises a clip (5, 6) attached to the trailing edge and enveloping the end face and surfaces (4a, 4b) of the trailing edge; characterized in that said clip has two legs (5a, 5c, 6a, 6b) with end portions of said legs (5a, 5c, 6a, 6b) being chamfered.
Surface component for an aircraft, having at least one shell and a reinforcement grid structure, characterized in that the shell has a preliminary buckling structure which is formed by constructing the shell during production with at least one redirection or an arrangement of redirections of the shell in a direction, and which, under a load which acts on the shell in a direction parallel with the shell, brings about a buckling of the shell in a predetermined direction.
An amorphous-carbon-containing film 0.1 μm to 1.5 μm in thickness coated onto a substrate of cemented carbide, steel, or ceramic, wherein the film is characterized in being constituted by an amorphous carbon film layer and an amorphous carbon film layer that each measure at least 0.05 μm in thickness and are layered so that the amorphous carbon film layer is disposed nearer the substrate and the amorphous carbon film layer is disposed nearer the surface, and, when a cross-section of the amorphous-carbon-containing film is irradiated with an electron beam to perform electron energy loss spectroscopy, X, which is defined as set forth below, is greater for the amorphous carbon film layer than for the amorphous carbon film layer, X being 0.3-0.5 for the amorphous carbon film layer, an amorphous carbon film layer being provided as an outermost layer, X being less for the amorphous carbon film layer than for the amorphous carbon film layer when a cross-section of the amorphous-carbon-containing film is irradiated with an electron beam to perform electron energy loss spectroscopy, the amorphous carbon-containing film containing no hydrogen apart from inevitable impurities, a metal film layer being provided as a bottommost layer, the metal film layer being constituted by at least one metal element from group 4a, 5a, or 6a of the periodic table, the metal film layer measuring at least 0.01 μm and no more than 0.1 μm in thickness, and the amorphous carbon film layer being provided over the metal film layer, wherein, assuming that the electron energy loss spectrum measured via electron energy loss spectroscopy is the sum of the following six Gaussian functions -, X is defined as IJ/IL, where IJ is the peak intensity of J and IL is the peak intensity of L when peaks are extracted from the electron energy loss spectrum, J having a peak at 277-287 eV K having a peak at 283-293 eV L having a peak at 289-299 eV M having a peak at 295-305 eV N having a peak at 311-321 eV P having a peak at 325-335 eV. J having a peak at 277-287 eV K having a peak at 283-293 eV L having a peak at 289-299 eV M having a peak at 295-305 eV N having a peak at 311-321 eV P having a peak at 325-335 eV.
A method of forming a membrane between a first volume of polar medium and a second volume of polar medium, which method comprises: (a) providing a first volume comprising polar medium and a second volume comprising polar medium which are separated from one another by an apolar medium, wherein at least one of said first and second volumes comprises a layer comprising amphipathic molecules at the interface between the polar medium and the apolar medium, wherein each of the amphipathic molecules comprises a first outer hydrophilic group, a hydrophobic core group, and a second outer hydrophilic group, wherein each of the first and second outer hydrophilic groups is linked to the hydrophobic core group; and (b) causing the first and second volumes to come into contact with one another to form a membrane comprising said amphipathic molecules between the first and second volumes of polar medium. (a) providing a first volume comprising polar medium and a second volume comprising polar medium which are separated from one another by an apolar medium, wherein at least one of said first and second volumes comprises a layer comprising amphipathic molecules at the interface between the polar medium and the apolar medium, wherein each of the amphipathic molecules comprises a first outer hydrophilic group, a hydrophobic core group, and a second outer hydrophilic group, wherein each of the first and second outer hydrophilic groups is linked to the hydrophobic core group; and (b) causing the first and second volumes to come into contact with one another to form a membrane comprising said amphipathic molecules between the first and second volumes of polar medium.
Tube heat exchanger for exchanging heat between two fluids, a first and second fluid respectively, consisting of a housing wherein one or more tubes extend between an inlet part and an outlet part for the first fluid, and whereby these tubes extend through passages through baffle plates which are secured at a distance from one another by means of one or more fastening means, whereby said fastening means comprises a profile that is snapped in place in one or more recesses in the respective baffle plates, characterised in that the profile is a V-profile and the recess is a V-shaped recess having protrusions on its two opposite edges behind which the V-profile is snapped in place.
Process for the manufacture of a LiMPO 4 powder, comprising the steps of - providing an equimolar aqueous solution of Li 1+, M n+ and PO 4 3- prepared by dissolving components which are susceptible to coexist as solutes in an aqueous system and which, upon heating at a temperature below 500 °C, decompose to form a pure homogeneous Li and M phosphate precursor, - evaporating the water from the solution, thereby producing a solid mixtures, - decomposing the solid mixture at a temperature below 500 °C to form a pure homogeneous Li and M phosphate precursor, and - annealing the precursor at a temperature of less than 800 °C, in an inert or reducing atmosphere, thereby forming a LiMPO 4 powder, whereby M n+ is one or more of Fe 2+, Fe 3+, CO 2+, Ni 2+ and Mn 2+, and M is Fe x Co y Ni z Mn w, with 0 ≤ x ≤ 1, 0 ≤ y ≤ 1, 0 ≤ z ≤ 1, 0 ≤ w ≤ 1 and x + y + z + w = 1. - providing an equimolar aqueous solution of Li 1+, M n+ and PO 4 3- prepared by dissolving components which are susceptible to coexist as solutes in an aqueous system and which, upon heating at a temperature below 500 °C, decompose to form a pure homogeneous Li and M phosphate precursor, - evaporating the water from the solution, thereby producing a solid mixtures, - decomposing the solid mixture at a temperature below 500 °C to form a pure homogeneous Li and M phosphate precursor, and - annealing the precursor at a temperature of less than 800 °C, in an inert or reducing atmosphere, thereby forming a LiMPO 4 powder, whereby M n+ is one or more of Fe 2+, Fe 3+, CO 2+, Ni 2+ and Mn 2+, and M is Fe x Co y Ni z Mn w, with 0 ≤ x ≤ 1, 0 ≤ y ≤ 1, 0 ≤ z ≤ 1, 0 ≤ w ≤ 1 and x + y + z + w = 1.
A method, comprising: enabling, by a processor of a non-access point, in the following also referred to as non-AP, multi-link device, in the following also referred to as MLD, an enhanced multi-link single-radio, in the following also referred to as EMLSR, mode; characterized by: establishing, by the processor, one or more target wake time, in the following also referred to as TWT, agreements with an access point, in the following also referred to as AP, MLD on a first link and a second link of multiple links such that data exchange between a first station, in the following also referred to as STA, affiliated with the non-AP MLD and a first AP affiliated with the AP MLD occurs on the first link during a TWT service period, in the following also referred to as SP, while an EMLSR mode operation is performed on the second link, with the one or more TWT agreements comprising concurrent TWT agreements on the multiple links. enabling, by a processor of a non-access point, in the following also referred to as non-AP, multi-link device, in the following also referred to as MLD, an enhanced multi-link single-radio, in the following also referred to as EMLSR, mode; characterized by: establishing, by the processor, one or more target wake time, in the following also referred to as TWT, agreements with an access point, in the following also referred to as AP, MLD on a first link and a second link of multiple links such that data exchange between a first station, in the following also referred to as STA, affiliated with the non-AP MLD and a first AP affiliated with the AP MLD occurs on the first link during a TWT service period, in the following also referred to as SP, while an EMLSR mode operation is performed on the second link, with the one or more TWT agreements comprising concurrent TWT agreements on the multiple links.