mhurhangee/ep-ind-claims huggingface dataset:
A method for producing a capacitor comprising, as one electrode, an electrical conductor having formed on the surface thereof a dielectric layer and, as the other electrode, a semiconductor layer, the method comprising the steps of (i) producing fine electrically defective portions in the dielectric layer, (ii) evaluating the degree of electrical deterioration in the dielectric layer by dipping the electrical conductor having formed on the surface therof the dielectric layer in an electrolytic solution and measuring the leakage current, (iii) if necessary, performing a repair step by dipping the electrical conductor having the dielectric layer after deterioration in a separately prepared electrolytic solution and turning electricity on the conductor, so as to make dielectric layer have the LC value of 500 μA/m 2 or less per surface area of the electrical conductor and (iv) forming the semiconductor layer on the dielectric layer by electrification. (i) producing fine electrically defective portions in the dielectric layer, (ii) evaluating the degree of electrical deterioration in the dielectric layer by dipping the electrical conductor having formed on the surface therof the dielectric layer in an electrolytic solution and measuring the leakage current, (iii) if necessary, performing a repair step by dipping the electrical conductor having the dielectric layer after deterioration in a separately prepared electrolytic solution and turning electricity on the conductor, so as to make dielectric layer have the LC value of 500 μA/m 2 or less per surface area of the electrical conductor and (iv) forming the semiconductor layer on the dielectric layer by electrification.
A vehicle headlamp comprising a lighting module, wherein the lighting module comprises at least one lighting element, which can be excited to emit visible light by being illuminated with laser light, and at least one light-permeable carrier element, wherein the carrier element comprises at least one light entry face and at least one light exit face opposite the light entry face, wherein the at least one lighting element is arranged on the at least one light entry face of the carrier element so as to radiate light into the light entry face, wherein a) the at least one light exit face of the carrier element is bounded by a light-impermeable masking surrounding the light exit face or b) the at least one light exit face reaches as far as side faces (6a to 6d) of the carrier element, wherein at least one side face comprises two mutually adjacent side portions (6b', 6b"), which are inclined relative to one another so as to form a light-dark boundary, wherein the vehicle headlamp also comprises a laser light source for exciting the lighting element and a projection lens, in particular an aspherical projection lens, for projecting the light irradiated by the lighting module onto a region arranged in front of the vehicle headlamp, characterised in that the at least one light exit face of the lighting module has a profile adapted to the curvature of the field of view of the projection lens. a) the at least one light exit face of the carrier element is bounded by a light-impermeable masking surrounding the light exit face or b) the at least one light exit face reaches as far as side faces (6a to 6d) of the carrier element, wherein at least one side face comprises two mutually adjacent side portions (6b', 6b"), which are inclined relative to one another so as to form a light-dark boundary,
A method of controlling communication resources of a telecommunications system, the method characterized by determining a performance measure characterizing communication performance of a communication channel between a first transceiver and a second transceiver by using an extended channel model which depends on a non-orthogonal modulation matrix, the extended channel model including non-orthogonal modulation by the non-orthogonal modulation matrix, wherein modulation symbols in the non-orthogonal modulation matrix are distributed using at least two radiation patterns, the performance measure being sensitive to a change in spatial modulation through the extended channel model, the spatial modulation being used by the non-orthogonal modulation matrix; and controlling the communication resources based on the performance measure.
A solid-state image pickup apparatus comprising: a pixel array including a plurality of first pixels in which an On Chip Lens of a standard size is formed, at least one second pixel in which an On Chip Lens of a size different from the standard size is formed, and a plurality of third pixels that are positioned between the at least one second pixel and the plurality of first pixels and in which a shape of the On Chip Lens is deformed from an original standard size among the plurality of first pixels on the pixel array; and a correction section that corrects a color signal of a third pixel from the plurality of third pixels to account for a change in sensitivity due to the deformed On Chip Lens. a pixel array including a plurality of first pixels in which an On Chip Lens of a standard size is formed, at least one second pixel in which an On Chip Lens of a size different from the standard size is formed, and a plurality of third pixels that are positioned between the at least one second pixel and the plurality of first pixels and in which a shape of the On Chip Lens is deformed from an original standard size among the plurality of first pixels on the pixel array; and a correction section that corrects a color signal of a third pixel from the plurality of third pixels to account for a change in sensitivity due to the deformed On Chip Lens.
A method for identifying a sequence variant, comprising: (a) obtaining: (i) a plurality of sequence reads from a sample that has been enriched for a genomic region and (ii) a reference sequence for the genomic region; (b) assembling the sequence reads using a BEST theorem to obtain a plurality of discrete sequence assemblies each of which corresponding to a potential variant; (c) determining which of the potential variants are true and which are artifacts by examining the sequence reads that make up each of the discrete sequence assemblies; (d) optionally determining whether each of the true potential variants contains a mutation that is known to be associated with the reference sequence; and (e) outputting a report indicating whether said sample comprises a sequence variant. (a) obtaining: (i) a plurality of sequence reads from a sample that has been enriched for a genomic region and (ii) a reference sequence for the genomic region; (b) assembling the sequence reads using a BEST theorem to obtain a plurality of discrete sequence assemblies each of which corresponding to a potential variant; (c) determining which of the potential variants are true and which are artifacts by examining the sequence reads that make up each of the discrete sequence assemblies; (d) optionally determining whether each of the true potential variants contains a mutation that is known to be associated with the reference sequence; and (e) outputting a report indicating whether said sample comprises a sequence variant.
An electronic device for generating an augmented reality environment, comprising: one or more processors, the one or more processors acquire one or more virtual objects associated with the augmented reality environment, the one or more virtual objects include a first virtual object, the one or more processors identify one or more snap grid spaces within the augmented reality environment, the one or more snap grid spaces include a first snap grid space, the one or more processors determine a grid spacing associated with the first snap grid space based on one or more properties of the first virtual object, the one or more processors assign the first virtual object to a position within the first snap grid space based on the grid spacing; and a see-through display in communication with the one or more processors, the see-through display displays one or more images such that the first virtual object is perceived to exist within the augmented reality environment at the position within the first snap grid space. one or more processors, the one or more processors acquire one or more virtual objects associated with the augmented reality environment, the one or more virtual objects include a first virtual object, the one or more processors identify one or more snap grid spaces within the augmented reality environment, the one or more snap grid spaces include a first snap grid space, the one or more processors determine a grid spacing associated with the first snap grid space based on one or more properties of the first virtual object, the one or more processors assign the first virtual object to a position within the first snap grid space based on the grid spacing; and a see-through display in communication with the one or more processors, the see-through display displays one or more images such that the first virtual object is perceived to exist within the augmented reality environment at the position within the first snap grid space.
A method for guarding a perimeter, comprising: (a) providing infiltration information of an actual or suspected infiltration by at least one infiltration agent at a location of a target zone associated with said perimeter; (b) deploying at least one ready-to-launch UAV (unmanned air vehicle) to said target zone responsive to receiving said infiltration information; (c) operating said at least one UAV to search a target area around said target zone to thereby locate and home onto at least one said infiltration agent; and (d) at least one of: identifying nature of at least one said homed-onto infiltration agent or nature of said infiltration via said at least one UAV and providing data corresponding to said nature; and tracking at least one said homed-onto infiltration agent via said at least one UAV and providing data corresponding to a location of said homed-onto infiltration agent to enable neutralization thereof, wherein at least one supplemental said UAV is speed launched in step (d) for supplementing said identification in step, and/or said tracking in step, or taking over said identification and/or said tracking, respectively, from said UAV previously launched in step (b). (a) providing infiltration information of an actual or suspected infiltration by at least one infiltration agent at a location of a target zone associated with said perimeter; (b) deploying at least one ready-to-launch UAV (unmanned air vehicle) to said target zone responsive to receiving said infiltration information; (c) operating said at least one UAV to search a target area around said target zone to thereby locate and home onto at least one said infiltration agent; and (d) at least one of: identifying nature of at least one said homed-onto infiltration agent or nature of said infiltration via said at least one UAV and providing data corresponding to said nature; and tracking at least one said homed-onto infiltration agent via said at least one UAV and providing data corresponding to a location of said homed-onto infiltration agent to enable neutralization thereof, identifying nature of at least one said homed-onto infiltration agent or nature of said infiltration via said at least one UAV and providing data corresponding to said nature; and tracking at least one said homed-onto infiltration agent via said at least one UAV and providing data corresponding to a location of said homed-onto infiltration agent to enable neutralization thereof,
Door or window system having a door or window leaf and a drive for the leaf, having a drive housing; a motor which comprises a motor shaft; a drive spindle which is disposed in the drive housing, and a reduction gearbox (18, 20, 22, 24) which is between the motor shaft and the drive spindle and comprises at least one input element coupled to the motor shaft, and an output element coupled to the drive spindle; wherein at least one static element (24, 34) of the gearbox is disposed in the drive housing; wherein the motor is disposed in a separate motor housing, and wherein the output element and the drive spindle have a common mounting. a drive housing; a motor which comprises a motor shaft; a drive spindle which is disposed in the drive housing, and a reduction gearbox (18, 20, 22, 24) which is between the motor shaft and the drive spindle and comprises at least one input element coupled to the motor shaft, and an output element coupled to the drive spindle; wherein at least one static element (24, 34) of the gearbox is disposed in the drive housing; wherein the motor is disposed in a separate motor housing, and wherein the output element and the drive spindle have a common mounting.
Crystalline sodium carbonate, characterised in that it is an anhydrous, low-pore, highly pure product which has a content of sodium carbonate of not less than 99.5% (determined acidimetrically) and a) consists of particles having a smooth, low-pore surface structure, b) has a BET surface area of less than 1 m 2 /g, preferably less than 0.5 m 2 /g, particularly preferably less than 0.2 m 2 /g and c) has a drying loss after preparation of not more than 0.2% by weight, preferably less than 0.15% by weight. a) consists of particles having a smooth, low-pore surface structure, b) has a BET surface area of less than 1 m 2 /g, preferably less than 0.5 m 2 /g, particularly preferably less than 0.2 m 2 /g and c) has a drying loss after preparation of not more than 0.2% by weight, preferably less than 0.15% by weight.
Fibrids comprising surface charge modified poly alpha-1,3-glucan, wherein the surface charge modified poly alpha-1,3-glucan is obtained by reaction of 3-chloro-2-hydroxypropyl-trimethylammonium chloride with poly alpha-1,3-glucan.
An agricultural machine (100; 200) comprising: a seeding system (202; 716) comprising a plurality of row units, each row unit configured to meter and deliver seed; and a control system configured to: obtain a seed planting model that identifies a plurality of seed planting locations on a worksite; identify a machine path on the worksite; identify, based on the machine path, a set of the seed planting locations for each of the row units; and control each row unit to deliver seeds to the set of seed planting locations identified for the row unit, the control system further comprising a machine path generation logic configured to generate a plurality of potential machine paths, and to select the machine path from the plurality of potential machine paths, characterized in that the machine path generation logic comprises planting error determination logic configured to: for each potential machine path, identify planting position errors based on the plurality of seed planting locations relative to the potential machine path, and generate an aggregate planting error metric indicative of an aggregation of the planting position errors; and select the machine path based on the aggregate planting error metrics for the plurality of potential machine paths. a seeding system (202; 716) comprising a plurality of row units, each row unit configured to meter and deliver seed; and a control system configured to: obtain a seed planting model that identifies a plurality of seed planting locations on a worksite; identify a machine path on the worksite; identify, based on the machine path, a set of the seed planting locations for each of the row units; and control each row unit to deliver seeds to the set of seed planting locations identified for the row unit, obtain a seed planting model that identifies a plurality of seed planting locations on a worksite; identify a machine path on the worksite; identify, based on the machine path, a set of the seed planting locations for each of the row units; and control each row unit to deliver seeds to the set of seed planting locations identified for the row unit, the control system further comprising a machine path generation logic configured to generate a plurality of potential machine paths, and to select the machine path from the plurality of potential machine paths, characterized in that the machine path generation logic comprises planting error determination logic configured to: for each potential machine path, identify planting position errors based on the plurality of seed planting locations relative to the potential machine path, and generate an aggregate planting error metric indicative of an aggregation of the planting position errors; and select the machine path based on the aggregate planting error metrics for the plurality of potential machine paths. identify planting position errors based on the plurality of seed planting locations relative to the potential machine path, and generate an aggregate planting error metric indicative of an aggregation of the planting position errors; and select the machine path based on the aggregate planting error metrics for the plurality of potential machine paths.
A travel control method for a vehicle wherein a certain target inter-vehicle distance is set from among a plurality of settable target inter-vehicle distances (D1, D2, D3) and a subject vehicle is controlled to follow, in an automated or autonomous manner, a traveling trajectory of a preceding vehicle traveling ahead of the subject vehicle, the travel control method comprising, when a trajectory-following travel mode for following the traveling trajectory of the preceding vehicle in the automated or autonomous manner transitions from an OFF state to an ON state, setting the target inter-vehicle distance between the subject vehicle and the preceding vehicle to a relatively small value from among the settable values.
A microorganism having Ferredoxin NADP+ reductase enzymatic activity, wherein a polynucleotide coding for the polypeptide having at least 70 % identity with the sequence of SEQ ID N°1 and having Ferredoxin NADP+ reductase activity is overexpressed, wherein overexpression is achieved by replacement of the native promoter of the polynucleotide with a promoter inducing a stronger level of expression of the polynucleotide or by introduction into the microorganism of an expression vector carrying and expressing said polynucleotide or by introduction of additional copies of the polynucleotide into the chromosome of the microorganism.
A composition comprising carbetapentane, or a salt or a sustained release formulation thereof, for use in treating Parkinson's disease or a related disorder selected from tremor, bradykinesia, rigidity, postural instability, abnormal gait, anosmia, sleep abnormalities, in a subject in need thereof.
A laser apparatus including a gain medium which has opposite ends, wherein the laser apparatus includes: at least two independently controllable excitation sources (110, 120), each one of the excitation sources being operable to produce an input beam (210, 220) to excite or pump the gain medium; a plurality of beam splitting arrangements (132, 134) respectively associated with the excitation sources, each beam splitting arrangement (132, 134) configured to split the input beam of its associated excitation source into at least two sub-beams (210.1, 210.2, 220.1, 220.2); and a plurality of beam guiding arrangements respectively associated with the excitation sources (110, 120), each one of the beam guiding arrangements being configured to direct a path of at least one of the split sub-beams from its associated excitation source, characterized in that each excitation source, its associated beam splitting arrangement, and beam guiding arrangement are arranged such that the sub-beams are respectively directed inwardly towards the gain medium at opposite ends. at least two independently controllable excitation sources (110, 120), each one of the excitation sources being operable to produce an input beam (210, 220) to excite or pump the gain medium; a plurality of beam splitting arrangements (132, 134) respectively associated with the excitation sources, each beam splitting arrangement (132, 134) configured to split the input beam of its associated excitation source into at least two sub-beams (210.1, 210.2, 220.1, 220.2); and a plurality of beam guiding arrangements respectively associated with the excitation sources (110, 120), each one of the beam guiding arrangements being configured to direct a path of at least one of the split sub-beams from its associated excitation source, characterized in that each excitation source, its associated beam splitting arrangement, and beam guiding arrangement are arranged such that the sub-beams are respectively directed inwardly towards the gain medium at opposite ends.
End accessory for agricultural shoulder sprayers or atomizers, including: - a support portion which can be bound to a manoeuvring arm of the agricultural shoulder sprayer or atomizer presenting a connecting duct inside said manoeuvring arm; - a rotating portion rotatably connected to said support portion, said rotating portion comprising a plurality of blades defining a fan; - actuation means connected to said rotating portion to carry out a controlled rotation of said rotating portion with respect to said support portion; and - at least one spraying nozzle configured for the emission of an atomized fluid and defining at least one supply duct of said spraying nozzle, said support portion having an inlet section of said supply duct configured to be coupled to a mutual outlet section of a said connecting duct; characterized in that said at least one spraying nozzle is defined by said rotating portion, said rotating portion defining at least partly said at least one supply duct. - a support portion which can be bound to a manoeuvring arm of the agricultural shoulder sprayer or atomizer presenting a connecting duct inside said manoeuvring arm; - a rotating portion rotatably connected to said support portion, said rotating portion comprising a plurality of blades defining a fan; - actuation means connected to said rotating portion to carry out a controlled rotation of said rotating portion with respect to said support portion; and - at least one spraying nozzle configured for the emission of an atomized fluid and defining at least one supply duct of said spraying nozzle, said support portion having an inlet section of said supply duct configured to be coupled to a mutual outlet section of a said connecting duct;
A light-emitting device, comprising: a container member comprising a ceramic package provided with a depressed portion serving as a discharge space, and a light transmitting inorganic member which is attached to the ceramic package via a joining layer formed of a joining material so as to close the depressed portion; an inert gas encapsulated inside the discharge space; a couple of discharge electrodes which are disposed in the depressed portion of the ceramic package so as to be spaced from each other; and an annular discharge induction electrode disposed in the ceramic package so as to be below the couple of discharge electrodes and surround the depressed portion, the joining material comprising glass exhibiting a white color, and oxide ceramic powder. a container member comprising a ceramic package provided with a depressed portion serving as a discharge space, and a light transmitting inorganic member which is attached to the ceramic package via a joining layer formed of a joining material so as to close the depressed portion; an inert gas encapsulated inside the discharge space; a couple of discharge electrodes which are disposed in the depressed portion of the ceramic package so as to be spaced from each other; and an annular discharge induction electrode disposed in the ceramic package so as to be below the couple of discharge electrodes and surround the depressed portion, the joining material comprising glass exhibiting a white color, and oxide ceramic powder.