mhurhangee/ep-ind-claims huggingface dataset:
A method for wireless communications, the method performed by a user equipment, UE, the method comprising: storing a mapping of synchronization signal block, SSB, time resources to Typeo-physical downlink control channel, PDCCH, common search space control resource set, CORESET, time resources; receiving an indication of SSB time resources; determining locations of Typeo-PDCCH common search space CORESET time resources based on the mapping and the indication; and receiving Typeo-PDCCH in a Typeo-PDCCH common search space CORESET, wherein the locations of Typeo-PDCCH common search space CORESET time resources correspond to downlink time resources that the Typeo-PDCCH common search space CORESET time resources are multiplexed into, wherein the downlink time resources comprise a first set of downlink time resources that comprises one or more SSB time resources and a second set of downlink time resources that comprises no SSB time resources, and wherein the Typeo-PDCCH common search space CORESET time resources are first mapped into the first set of downlink time resources and then mapped into the second set of downlink time resources. storing a mapping of synchronization signal block, SSB, time resources to Typeo-physical downlink control channel, PDCCH, common search space control resource set, CORESET, time resources; receiving an indication of SSB time resources; determining locations of Typeo-PDCCH common search space CORESET time resources based on the mapping and the indication; and receiving Typeo-PDCCH in a Typeo-PDCCH common search space CORESET, wherein the locations of Typeo-PDCCH common search space CORESET time resources correspond to downlink time resources that the Typeo-PDCCH common search space CORESET time resources are multiplexed into, wherein the downlink time resources comprise a first set of downlink time resources that comprises one or more SSB time resources and a second set of downlink time resources that comprises no SSB time resources, and wherein the Typeo-PDCCH common search space CORESET time resources are first mapped into the first set of downlink time resources and then mapped into the second set of downlink time resources.
Device for comminuting material, in particular wood, comprising an impact reactor which has a substantially cylindrical base body in the closed interior of which a rotor, having at least one impact element which contacts the material and comminutes it into subcomponents by generating a high pulse transmission, rotates, and comprising an ejection box which is connected to the interior of the cylindrical base body via an ejection opening, and a first conveyor screw, arranged in the ejection box below the ejection opening, for conveying the comminuted material out of the ejection box, characterised in that a first sieve having a first mesh size is arranged below the ejection opening, and extends from the ejection opening towards the first conveyor screw at an inclination to the horizontal, and in that a sliding face at an inclination to the horizontal or a second sieve at an inclination to the horizontal having a reduced second mesh size in comparison with the first mesh size is arranged below the first sieve, and extends from the cylindrical base body towards a second conveyor screw arranged below the first conveyor screw.
A non-core drill bit comprising: a metallic seat attached to a tip of a shank of a boring tool; a first diamond grindstone body, having an approximately annular or cylindrical shape, fixed to the metallic seat, and having a recessed cutout portion opened to an outer periphery face; and a second diamond grindstone body installed inside the recessed cutout portion; characterized in that the second diamond grindstone body has an outer side shape same as an inner side shape of the recessed cutout portion of the first diamond grindstone body and includes a center of the first diamond grindstone body, and wherein a tip of the second diamond grindstone body in an axial direction is positioned on a side of the metallic seat from a tip of the first diamond grindstone body in the axial direction. a metallic seat attached to a tip of a shank of a boring tool; a first diamond grindstone body, having an approximately annular or cylindrical shape, fixed to the metallic seat, and having a recessed cutout portion opened to an outer periphery face; and a second diamond grindstone body installed inside the recessed cutout portion; characterized in that the second diamond grindstone body has an outer side shape same as an inner side shape of the recessed cutout portion of the first diamond grindstone body and includes a center of the first diamond grindstone body, and wherein a tip of the second diamond grindstone body in an axial direction is positioned on a side of the metallic seat from a tip of the first diamond grindstone body in the axial direction.
A computer-implemented method comprising: causing display of a conversation user interface via a computing device (102, 104), the conversation user interface being associated with a virtual assistant; receiving, through the virtual assistant, user input from a user of the computing device, the user input requesting an action associated with a content item; based at least in part on a characteristic of a display of the computing device, the characteristic comprising at least one of a screen dimension or a screen resolution, identifying a portion of the content item that satisfies the user input; determining a text size at which the content item is designed to be viewed; processing the portion of the content item to convert the portion of the content item into a different format based on the text size; and causing display of the converted portion of the content item on the display of the computing device. causing display of a conversation user interface via a computing device (102, 104), the conversation user interface being associated with a virtual assistant; receiving, through the virtual assistant, user input from a user of the computing device, the user input requesting an action associated with a content item; based at least in part on a characteristic of a display of the computing device, the characteristic comprising at least one of a screen dimension or a screen resolution, identifying a portion of the content item that satisfies the user input; determining a text size at which the content item is designed to be viewed; processing the portion of the content item to convert the portion of the content item into a different format based on the text size; and causing display of the converted portion of the content item on the display of the computing device.
A method for providing feedback to a vehicle operator regarding an operational state of a vehicle power transmission system in operation, comprising the steps of detecting at least one operational parameter indicative of said operational state, and providing an audio feedback signal to the operator in response to a magnitude of the detected operational parameter characterized in that the vehicle comprises a hybrid powertrain which in turn comprises an electric machine, wherein said audio feedback signal is generated representative of a torque provided by said electric machine, wherein said audio feedback signal is not generated on the basis of a workload determined by a controller solely based on information on a DC voltage and DC current, detected by a voltage sensor and a current sensor that are provided in a DC circuit connecting a power generator controller and a motor controller of said hybrid powertrain.
An exhaust gas purification system for an internal combustion engine comprising: an exhaust gas purification device that is arranged in an exhaust passage of the internal combustion engine and is constructed to include a catalyst; a precatalyst that is arranged in the exhaust passage at a location upstream of said exhaust gas purification device and has an oxidation function; a reducing agent addition valve that is arranged in the exhaust passage at a location upstream of said precatalyst and adds a reducing agent to an exhaust gas when the reducing agent is supplied to said precatalyst and said exhaust gas purification device; and an electronic control unit that controls a flow rate of the exhaust gas flowing into said precatalyst; wherein said reducing agent addition valve is disposed in a position in which at least part of the reducing agent added to the exhaust gas reaches said precatalyst in the state of liquid; and wherein when the addition of the reducing agent is performed by said reducing agent addition valve, said electronic control unit is arranged to make at least part of the reducing agent, which has reached said precatalyst and has vaporized in said precatalyst, flow back by controlling the flow rate of the exhaust gas so that the flow rate of the exhaust gas flowing into said precatalyst becomes smaller than an expansion rate of the reducing agent when the reducing agent having reached said precatalyst is vaporized to expand in said precatalyst. an exhaust gas purification device that is arranged in an exhaust passage of the internal combustion engine and is constructed to include a catalyst; a precatalyst that is arranged in the exhaust passage at a location upstream of said exhaust gas purification device and has an oxidation function; a reducing agent addition valve that is arranged in the exhaust passage at a location upstream of said precatalyst and adds a reducing agent to an exhaust gas when the reducing agent is supplied to said precatalyst and said exhaust gas purification device; and an electronic control unit that controls a flow rate of the exhaust gas flowing into said precatalyst; wherein said reducing agent addition valve is disposed in a position in which at least part of the reducing agent added to the exhaust gas reaches said precatalyst in the state of liquid; and wherein when the addition of the reducing agent is performed by said reducing agent addition valve, said electronic control unit is arranged to make at least part of the reducing agent, which has reached said precatalyst and has vaporized in said precatalyst, flow back by controlling the flow rate of the exhaust gas so that the flow rate of the exhaust gas flowing into said precatalyst becomes smaller than an expansion rate of the reducing agent when the reducing agent having reached said precatalyst is vaporized to expand in said precatalyst.
Composition in the form of a water-in-oil emulsion that comprises an aqueous phase dispersed in a continuous oily phase, wherein the continuous oily phase comprises: - at least one organo-modified clay, with a content by weight ranging from 0.5% to 1% relative to the total weight of said composition, said organo-modified clay being chosen from hectorites modified by a C10 to C22 ammonium chloride; - at least one silicone elastomer powder coated with a silicone resin, with a content by weight ranging from 5% to 12% relative to the total weight of said composition, said silicone resin being a silsesquioxane resin; and - at least one silicone surfactant having the following formula: in which: - m = 100, - R = (CH 2) 3 -O-(C 2 H 4 O) x -(C 3 H 6 O) y -CH 3, where x ranges from 3 to 100, y ranges from 1 to 50, with the ratio of the weight of the number of C 2 H 4 O over the number of C 3 H 6 O being about 42/58, and the average molecular weight of R ranging from 800 to 1 000, with the content by weight of silicone surfactant being between 1.4% and 3% relative to the total weight of said composition; and wherein the dispersed aqueous phase comprises: - water at a content by weight ranging from 15% to 25% relative to the total weight of said composition; and - ethanol at a content by weight ranging from 8% to 18% relative to the total weight of said composition; said composition having a viscosity at 25°C ranging from 300 mPa.s to 600 mPa.s after one month at rest at ambient temperature, wherein said viscosity is measured after storage of the composition, one month at ambient temperature then 24 hours in a room maintained at a constant temperature of 20°C with a viscometer Rheomat 200 with a moving body 2, and wherein the rotation speed of the moving body is 200 rpm, the reading being taken after 10 minutes of rotation of the moving body. - at least one organo-modified clay, with a content by weight ranging from 0.5% to 1% relative to the total weight of said composition, said organo-modified clay being chosen from hectorites modified by a C10 to C22 ammonium chloride; - at least one silicone elastomer powder coated with a silicone resin, with a content by weight ranging from 5% to 12% relative to the total weight of said composition, said silicone resin being a silsesquioxane resin; and - at least one silicone surfactant having the following formula: in which: - m = 100, - R = (CH 2) 3 -O-(C 2 H 4 O) x -(C 3 H 6 O) y -CH 3, - m = 100, - R = (CH 2) 3 -O-(C 2 H 4 O) x -(C 3 H 6 O) y -CH 3, - water at a content by weight ranging from 15% to 25% relative to the total weight of said composition; and - ethanol at a content by weight ranging from 8% to 18% relative to the total weight of said composition;
A device comprising: a substrate; and a set of force sensors supported by the substrate, each force sensor of the set of force sensors comprising: a pillar extending outward from the substrate, each pillar comprising a stack of semiconductor layers, the stack of semiconductor layers being configured to emit light upon biasing of the stack of semiconductor layers; characterized by: a post disposed along only a portion of a perimeter of the pillar such that, taken together, the pillar and the post have an asymmetrical cross-sectional shape; wherein each pillar has a cross-section elongated along an axis, and wherein an orientation of the axis, and a peripheral position of the portion of the perimeter at which the post is disposed, differ across the set of force sensors such that a variation in light emitted by the stack of semiconductor layers of one or more of the force sensors of the set of force sensors is indicative of a direction of a shear force applied to the set of force sensors. a substrate; and a set of force sensors supported by the substrate, each force sensor of the set of force sensors comprising: a pillar extending outward from the substrate, each pillar comprising a stack of semiconductor layers, the stack of semiconductor layers being configured to emit light upon biasing of the stack of semiconductor layers; characterized by: a post disposed along only a portion of a perimeter of the pillar such that, taken together, the pillar and the post have an asymmetrical cross-sectional shape; a pillar extending outward from the substrate, each pillar comprising a stack of semiconductor layers, the stack of semiconductor layers being configured to emit light upon biasing of the stack of semiconductor layers; characterized by: a post disposed along only a portion of a perimeter of the pillar such that, taken together, the pillar and the post have an asymmetrical cross-sectional shape; wherein each pillar has a cross-section elongated along an axis, and wherein an orientation of the axis, and a peripheral position of the portion of the perimeter at which the post is disposed, differ across the set of force sensors such that a variation in light emitted by the stack of semiconductor layers of one or more of the force sensors of the set of force sensors is indicative of a direction of a shear force applied to the set of force sensors.
Method for producing a floorboard (9, 10) comprising a carrier plate and a topside veneer (2, 3), said method comprising the step: - providing an extensive starting carrier plate, - providing a plurality of veneers (2, 3), - characterized by the following steps: forming a multilayer body from the starting carrier plate and the veneers (2, 3) and a resin layer of resin provided between the starting carrier plate and the veneers (2, 3), wherein adjacent veneers (2, 3) are positioned spaced apart from each other on the starting carrier plate such that a gap is formed, and a balancing layer arranged on a bottom side of the starting carrier plate, - joining starting carrier plate, resin layer and veneers (2, 3) as well as balancing layer by pressing the multilayer body in a press, wherein pressing is carried out at a pressing temperature of more than 100°C, and - during pressing of the multilayer body the resin infiltrates the veneers (2, 3) and the resin penetrates the veneer (2, 3) up to the top side of the veneer (2, 3) and pores, cracks and/or gaps in the veneer (2, 3) are filled with resin; - subsequently the pressed multilayer body is divided into individual floorboards (9, 10), wherein the division is performed in the region of a gap between two adjacent veneers (2, 3) and - the floorboards (9, 10) are profiled on side edges (11, 12) thereof and provided with joining means (13, 14). - providing an extensive starting carrier plate, - providing a plurality of veneers (2, 3), - characterized by the following steps: forming a multilayer body from the starting carrier plate and the veneers (2, 3) and a resin layer of resin provided between the starting carrier plate and the veneers (2, 3), wherein adjacent veneers (2, 3) are positioned spaced apart from each other on the starting carrier plate such that a gap is formed, and a balancing layer arranged on a bottom side of the starting carrier plate, - joining starting carrier plate, resin layer and veneers (2, 3) as well as balancing layer by pressing the multilayer body in a press, wherein pressing is carried out at a pressing temperature of more than 100°C, and - during pressing of the multilayer body the resin infiltrates the veneers (2, 3) and the resin penetrates the veneer (2, 3) up to the top side of the veneer (2, 3) and pores, cracks and/or gaps in the veneer (2, 3) are filled with resin; - subsequently the pressed multilayer body is divided into individual floorboards (9, 10), wherein the division is performed in the region of a gap between two adjacent veneers (2, 3) and - the floorboards (9, 10) are profiled on side edges (11, 12) thereof and provided with joining means (13, 14).
Decor and coating dough production method used in coating and embellishment of pastry products, it comprises the operation steps of; - adding sweetener into refined city water in the mixer and solubilising it by stirring it for 6 minutes at 50°C, - adding potassium sorbate as preservative, stirring it for 2 minutes at 50°C, - adding acidity regulator, stirring it for 2 minutes at 50°C, - adding thickener, stirring it for 10 minutes at 50°C, - adding colouring agent, stirring it for 10 minutes at 50°C, - hurling sweetener into it, stirring it for 15 minutes at 70°C until the temperature reaches 95°C, - taking the dough obtained into the dough kneading mixer, - adding thickener, stirring it for 7 ± 2 minutes at 90°C, - adding vegetable oil, stirring it for 2 ± 2 minutes at 85°C, - adding flavouring agent, stirring it for 3 ± 2 minutes at 80°C, - adding thickener, stirring it for 3 ± 2 minutes at 80°C, - adding glycerine as humectant, stirring it for 2 ± 2 minutes at 80°C, - adding aromatiser, stirring it for 2 ± 2 minutes at 75°C, - adding sweetener, stirring it for 3 ± 2 minutes at 70°C, - adding acidity regulator, stirring it for 3 ± 2 minutes at 70°C. - adding sweetener into refined city water in the mixer and solubilising it by stirring it for 6 minutes at 50°C, - adding potassium sorbate as preservative, stirring it for 2 minutes at 50°C, - adding acidity regulator, stirring it for 2 minutes at 50°C, - adding thickener, stirring it for 10 minutes at 50°C, - adding colouring agent, stirring it for 10 minutes at 50°C, - hurling sweetener into it, stirring it for 15 minutes at 70°C until the temperature reaches 95°C, - taking the dough obtained into the dough kneading mixer, - adding thickener, stirring it for 7 ± 2 minutes at 90°C, - adding vegetable oil, stirring it for 2 ± 2 minutes at 85°C, - adding flavouring agent, stirring it for 3 ± 2 minutes at 80°C, - adding thickener, stirring it for 3 ± 2 minutes at 80°C, - adding glycerine as humectant, stirring it for 2 ± 2 minutes at 80°C, - adding aromatiser, stirring it for 2 ± 2 minutes at 75°C, - adding sweetener, stirring it for 3 ± 2 minutes at 70°C, - adding acidity regulator, stirring it for 3 ± 2 minutes at 70°C.
A production method of a diamond wire for cutting stone-like material wherein the diamond wire comprises: a supporting cable having a multi-strand structure; a series of abrasive beads fitted on said supporting cable spaced one after the other; and an outer tubular sheath made of plastic material, which substantially completely covers the supporting cable and firmly locks the single abrasive beads onto the supporting cable; the production method comprising the steps of: - threading a predetermined number of abrasive beads on the supporting cable; - joining the two ends of the supporting cable by suitably interweaving the strands forming the supporting cable, so as to form a closed loop and - distributing the diamond beads on the supporting cable so that at least a part of the abrasive beads delimit, in pairs on a corresponding portion of the supporting cable, a series of uncovered longitudinal stretches, and so that at least one of the discontinuity points of the supporting cable is arranged along one of said uncovered longitudinal stretches of the supporting cable, spaced from the two abrasive beads that delimit the same uncovered longitudinal stretch; characterized by - injection moulding the outer tubular sheath made of plastic material directly over said portion of the supporting cable, so as to cover the same portion of the supporting cable and also form, at least along each uncovered longitudinal stretch that accommodates a respective discontinuity point of the supporting cable, a respective enlarged sheath segment having a given axial length (l) and which extends astride the discontinuity point and is spaced/distanced from the two abrasive beads located at the two ends of the same uncovered longitudinal stretch. - threading a predetermined number of abrasive beads on the supporting cable; - joining the two ends of the supporting cable by suitably interweaving the strands forming the supporting cable, so as to form a closed loop and - distributing the diamond beads on the supporting cable so that at least a part of the abrasive beads delimit, in pairs on a corresponding portion of the supporting cable, a series of uncovered longitudinal stretches, and so that at least one of the discontinuity points of the supporting cable is arranged along one of said uncovered longitudinal stretches of the supporting cable, spaced from the two abrasive beads that delimit the same uncovered longitudinal stretch; characterized by - injection moulding the outer tubular sheath made of plastic material directly over said portion of the supporting cable, so as to cover the same portion of the supporting cable and also form, at least along each uncovered longitudinal stretch that accommodates a respective discontinuity point of the supporting cable, a respective enlarged sheath segment having a given axial length (l) and which extends astride the discontinuity point and is spaced/distanced from the two abrasive beads located at the two ends of the same uncovered longitudinal stretch.