mhurhangee/patent-ind-claim-en huggingface dataset:
A method performed by an evolved NodeB, eNB, in a wireless communication system, the method comprising: configuring (S100), by the eNB, a first power for a first modulation and a second power for a second modulation, wherein a modulation order of the second modulation is higher than a modulation order of the first modulation, wherein the first power is configured by power boosting; transmitting (S110), by the eNB, data to a first user equipment, UE, with the configured first power with the first modulation; transmitting, by the eNB, the data to a second UE with the configured second power with the second modulation; transmitting information on that the power boosting is used by the eNB; and transmitting information on how much a range of a cell served by the eNB is expanded by the power boosting, wherein the power boosting comprises increasing power of a demodulation reference signal, DMRS, and a physical downlink shared channel, PDSCH. configuring (S100), by the eNB, a first power for a first modulation and a second power for a second modulation, wherein a modulation order of the second modulation is higher than a modulation order of the first modulation, wherein the first power is configured by power boosting; transmitting (S110), by the eNB, data to a first user equipment, UE, with the configured first power with the first modulation; transmitting, by the eNB, the data to a second UE with the configured second power with the second modulation; transmitting information on that the power boosting is used by the eNB; and transmitting information on how much a range of a cell served by the eNB is expanded by the power boosting, wherein the power boosting comprises increasing power of a demodulation reference signal, DMRS, and a physical downlink shared channel, PDSCH.
A housing , comprising: a first sidewall (212, 312, 412, 712, 812a-d); a second sidewall (212, 312, 412, 712, 812a-d), wherein the first sidewall (212, 312, 412, 712, 812a-d) is adjacent to the second sidewall (212, 312, 412, 712, 812a-d); a corner profile having at least a first recess and a second recess extending there through, wherein a portion of the first sidewall (212, 312, 412, 712, 812a-d) extends into the first recess and a portion of the second sidewall (212, 312, 412, 712, 812a-d) extends into the second recess ; a first insert in the first recess and extending in a direction of the first recess , a portion of the first insert in electrical contact with the corner profile and the portion of the first sidewall (212, 312, 412, 712, 812a-d) in the first recess ; and a second insert in the second recess and extending in a direction of the second recess , a portion of the second insert in electrical contact with the corner profile and the portion of the second sidewall (212, 312, 412, 712, 812a-d) in the second recess . a first sidewall (212, 312, 412, 712, 812a-d); a second sidewall (212, 312, 412, 712, 812a-d), wherein the first sidewall (212, 312, 412, 712, 812a-d) is adjacent to the second sidewall (212, 312, 412, 712, 812a-d); a corner profile having at least a first recess and a second recess extending there through, wherein a portion of the first sidewall (212, 312, 412, 712, 812a-d) extends into the first recess and a portion of the second sidewall (212, 312, 412, 712, 812a-d) extends into the second recess ; a first insert in the first recess and extending in a direction of the first recess , a portion of the first insert in electrical contact with the corner profile and the portion of the first sidewall (212, 312, 412, 712, 812a-d) in the first recess ; and a second insert in the second recess and extending in a direction of the second recess , a portion of the second insert in electrical contact with the corner profile and the portion of the second sidewall (212, 312, 412, 712, 812a-d) in the second recess .
Arrangement for manufacturing a plurality of orthodontic appliances in parallel, comprising an additive printing machine comprising a build platform and configured for additively manufacturing a plurality of teeth models or the plurality of orthodontic appliances in parallel, and a plurality of plates each configured for teeth model printing or orthodontic appliance printing, respectively, by the additive printing machine , whereby each plate comprises a unique machine-readable identifier and each plate is detachable and precisely fixed to the build platform , characterized in that each plate and/or the build platform comprises a magnetic device and/or locking device for detachably and precisely fixing the plate to the build plat form and/or whereby the build platform comprises negative forms for positioning a respective plate therein. an additive printing machine comprising a build platform and configured for additively manufacturing a plurality of teeth models or the plurality of orthodontic appliances in parallel, and a plurality of plates each configured for teeth model printing or orthodontic appliance printing, respectively, by the additive printing machine , whereby each plate comprises a unique machine-readable identifier and each plate is detachable and precisely fixed to the build platform , characterized in that each plate and/or the build platform comprises a magnetic device and/or locking device for detachably and precisely fixing the plate to the build plat form and/or whereby the build platform comprises negative forms for positioning a respective plate therein.
A computer-implemented method of analyzing and assessing an image, said method comprising steps of: obtaining said image in a digital form; processing said image; and establishing at least one edge line within said image; wherein said step of processing said image comprises: building a 3D graph of intensity distribution within said image in Cartesian coordinates of intensity I and image coordinates X , Y ; calculating two identifying vector angle values, IVAVs Φ , attributed to points of said 3D intensity graph; said points correspond to individual pixels of said image; each of said two angles, Φ , lies in a different one of two planes passing through an individual pixel; said two planes being the orthogonal planes X = X1 and Y = Y1 in said image; said angles are defined by the following formula: Φ = ∓ arcsin Δ I 1 − I 2 Δ 2 + I 1 2 Δ 2 + I 2 2 , where Δ is the coordinate increment between an individual pixel and each of two adjoining pixels, and I 1 and I 2 are differences of intensity values between said individual pixel and each of said two adjoining pixels; setting a range of lower and upper threshold level values THLV1 and THLV2 of said IVAVs; and tracing said edge points with IVAV values falling within said range. obtaining said image in a digital form; processing said image; and establishing at least one edge line within said image; building a 3D graph of intensity distribution within said image in Cartesian coordinates of intensity I and image coordinates X , Y ; calculating two identifying vector angle values, IVAVs Φ , attributed to points of said 3D intensity graph; said points correspond to individual pixels of said image; each of said two angles, Φ , lies in a different one of two planes passing through an individual pixel; said two planes being the orthogonal planes X = X1 and Y = Y1 in said image; said angles are defined by the following formula: Φ = ∓ arcsin Δ I 1 − I 2 Δ 2 + I 1 2 Δ 2 + I 2 2 , where Δ is the coordinate increment between an individual pixel and each of two adjoining pixels, and I 1 and I 2 are differences of intensity values between said individual pixel and each of said two adjoining pixels; setting a range of lower and upper threshold level values THLV1 and THLV2 of said IVAVs; and tracing said edge points with IVAV values falling within said range.
Process for peeling mango or similar fruits characterized in that the process is carried out by a machine including: - a loading plane comprising loading stations , each loading station including small fingers , the loading plane being translatable between a motionless position and a fruit feeding and blocking position; - a mango or similar fruits feeding and peeling area including a bladed tool movable between a lower point and an upper peeling process start point; wherein the loading plane is external to the mango or similar fruits feeding and peeling area when is in the motionless position; the process comprising for each of the fruits the following steps: a) a manual loading step in one of said loading stations; b) a blocking step; c) a peeling step; d) a discharging step; wherein: - the manual loading step of new fruits is simultaneous to the peeling step of loaded fruits; - the discharging step and the upstroke of the bladed tool from the lower point to the peeling process start point are simultaneous to the translation step of the loading plane from the motionless position to the fruit feeding and blocking position; - the loading plane in the external position in relation to the mango or similar fruits feeding and peeling area is stopped to allow the manual load of the mangos or similar fruits in the loading stations in vertical position, the small fingers carrying out a push-open blocking function by releasably close all around each mango or similar fruit according to the fruit size to peel, thus holding the fruit on vertical axis. - a loading plane comprising loading stations , each loading station including small fingers , the loading plane being translatable between a motionless position and a fruit feeding and blocking position; - a mango or similar fruits feeding and peeling area including a bladed tool movable between a lower point and an upper peeling process start point; a) a manual loading step in one of said loading stations; b) a blocking step; c) a peeling step; d) a discharging step; - the manual loading step of new fruits is simultaneous to the peeling step of loaded fruits; - the discharging step and the upstroke of the bladed tool from the lower point to the peeling process start point are simultaneous to the translation step of the loading plane from the motionless position to the fruit feeding and blocking position; - the loading plane in the external position in relation to the mango or similar fruits feeding and peeling area is stopped to allow the manual load of the mangos or similar fruits in the loading stations in vertical position, the small fingers carrying out a push-open blocking function by releasably close all around each mango or similar fruit according to the fruit size to peel, thus holding the fruit on vertical axis.
Cooking system, in particular induction cooking system, with at least one placement plate (12a-b) and with at least one extraction fan unit (16a-b) which has at least one fan wheel (18 a-b) and at least one drive unit (20a-b) for driving the fan wheel (18a-b) and which, by means of the fan wheel (18a-b), at least partially extracts steam occurring in at least one operating state from at least one cooking region (22a-b) by way of at least one extraction recess (14a-b) of the placement plate (12a-b), wherein the drive unit (20a-b) is arranged outside a space (24a-b) which is at least partially enclosed by the fan wheel (18a-b) and wherein the fan wheel (18a-b) has at least one passage opening (30a-b), which facilitates the passage of liquid from a suction side (32a-b) of the fan wheel (18a-b) to a pressure side (34a-b) of the fan wheel (18a-b), characterised in that the drive unit (20a-b) has at least one passage opening (38a-b), which is provided for the passage of liquid, wherein the passage opening (30a-b) of the fan wheel (18a-b) and the passage opening (38a-b) of the drive unit (20a-b) communicate with one another. the fan wheel (18a-b) has at least one passage opening (30a-b), which facilitates the passage of liquid from a suction side (32a-b) of the fan wheel (18a-b) to a pressure side (34a-b) of the fan wheel (18a-b), characterised in that the drive unit (20a-b) has at least one passage opening (38a-b), which is provided for the passage of liquid, wherein the passage opening (30a-b) of the fan wheel (18a-b) and the passage opening (38a-b) of the drive unit (20a-b) communicate with one another.
Crystalline Form B of -1-(naphthalen-2-yl)-3-azabicyclo[3.1.0]hexane hydrochloride, wherein the Crystalline Form B exhibits an X-ray powder diffraction (XRPD) pattern comprising at least three 2-theta (°) values selected from the group consisting of 6.0±0.2, 17.4±0.2, 18.9±0.2, 19.2±0.2, and 24.4±0.2, wherein the XRPD is measured using an incident beam of Cu K α radiation having a wavelength of 1.54059 Å, and wherein the Crystalline Form B comprises less than 20 wt.% of any other crystalline form of -1-(naphthalen-2-yl)-3-azabicyclo[3.1.0]hexane hydrochloride.
A tooling for winding a fibrous fabric (12; 120; 220), comprising at least one support (14; 140; 240) on which the fibrous fabric is intended to be wound about a first winding axis (X1), the support having at least two end regions (16; 160; 260; 18; 180; 280) spaced apart along a second axis (X2) transverse to the first axis, characterized in that it comprises a motion device configured to modify the shape of the support between a retracted configuration and extended configuration by gradually drawing closer or drawing apart the end regions along the second axis, and in that it comprises a first compaction device able to perform compaction (PC1; PC2) on the end regions at least in the retracted configuration and a second compaction device , differing from the first compaction device, able to perform compaction (PC3) on a central region lying between the end regions in the extended configuration, and wherein each end region comprises a distal end (16a; 18a) and two side portions (16b; 18b) positioned either side of the distal end and located on the side of the central region, and wherein the first compaction device comprises a first compacting element able to perform compaction (PC1) on the distal end of each end region and a second compacting element able to perform compaction (PC2) on the side portions of each end region with a compacting component directed towards the central region.
A thin film material having the empirical formula A 1+nx T z 1-x O 3 , wherein A is selected from the group consisting of Mg and Mn wherein Tis Ti, wherein − 1 < x < 1 , wherein z is the average oxidation state of T, calculated as the weighted average of the T cation oxidation states based on the total amount of T in the composition in atomic percentage, and wherein n = 4 − z + zx / 2 x , characterized in that the structure is described in terms of three axes, a, b and c and three angles, α between b and c axes, β between a and c axes, and γ between a and b axes, wherein 0.475 nm (4.75 Å) < a < 0.55 nm (5.5 Å), 0.475 nm (4.75 Å) < b < 0.55 nm (5.5 Å), and 1.25 nm (12.5 Å) < c <1.55 nm (15.5 Å), and wherein 85° < α < 95°, 85° < β < 95°, and 115° < γ < 125°, wherein the material comprises at least two stacked layers, wherein each layer comprises a continuous hexagonally arranged oxygen octahedra layer; with each octahedron sharing a face with the octahedron above and/or below along the stacking direction, wherein in the basal plane each oxygen octahedron shares an edge with each of the six neighboring octahedron of the same basal plane, and wherein each oxygen octahedron has six corner sharing octahedra above and/or six corner sharing octahedra below, wherein the octahedra are vacant or contain an A-cation or a T-cation, wherein at least a fraction of the octahedra are filled by a cation, wherein the octahedra filling fraction is z v = [2 + (n-1)x]/3. wherein A is selected from the group consisting of Mg and Mn wherein Tis Ti, wherein − 1 < x < 1 , wherein z is the average oxidation state of T, calculated as the weighted average of the T cation oxidation states based on the total amount of T in the composition in atomic percentage, and wherein n = 4 − z + zx / 2 x , characterized in that the structure is described in terms of three axes, a, b and c and three angles, α between b and c axes, β between a and c axes, and γ between a and b axes, wherein 0.475 nm (4.75 Å) < a < 0.55 nm (5.5 Å), 0.475 nm (4.75 Å) < b < 0.55 nm (5.5 Å), and 1.25 nm (12.5 Å) < c <1.55 nm (15.5 Å), and wherein 85° < α < 95°, 85° < β < 95°, and 115° < γ < 125°, wherein the material comprises at least two stacked layers, wherein each layer comprises a continuous hexagonally arranged oxygen octahedra layer; with each octahedron sharing a face with the octahedron above and/or below along the stacking direction, wherein in the basal plane each oxygen octahedron shares an edge with each of the six neighboring octahedron of the same basal plane, and wherein each oxygen octahedron has six corner sharing octahedra above and/or six corner sharing octahedra below, wherein the octahedra are vacant or contain an A-cation or a T-cation, wherein at least a fraction of the octahedra are filled by a cation, wherein the octahedra filling fraction is z v = [2 + (n-1)x]/3.
Microwave frequency window comprising a dielectric disc , a main metal skirt brazed all the way around the periphery of the dielectric disc and a surrounding prestressing ring in contact with the main metal skirt around the periphery of the dielectric disc and configured to apply, in the rest state, over the whole of the periphery of the dielectric disc , a radial compressive stress directed towards the centre of the dielectric disc , said prestressing ring comprising a set of at least one cooling channel bored in the longitudinal direction of the prestressing ring .
An illumination device , comprising: - a plurality of illumination units , each illumination unit including a light source (21.1) for emitting a radiation beam (21.1A); and - a plurality of actuator means , each actuator means being connected to an illumination unit , characterized in that each illumination unit comprises at least one laser beam source (21.2) for emitting at least one laser beam (21.2A), that the illumination device further comprises detection means arranged to detect the beam direction of the laser beam, and each actuator means is adapted to change an orientation of the illumination unit based on the detected beam direction of the laser beam (21.2A). - a plurality of illumination units , each illumination unit including a light source (21.1) for emitting a radiation beam (21.1A); and - a plurality of actuator means , each actuator means being connected to an illumination unit ,
An apparatus for forming sheets of web material of different lengths comprising: a cutting arrangement for cutting the web of material into sheets at a cutting location, the cutting arrangement including a roll receiving a web of material on an outer periphery thereof and carrying the web of material past the cutting location, the roll rotating about a rotational axis , the roll having an excess material receiving component having a first mode and a second mode; in the first mode, a first extent of material is accommodated by the excess material receiving component to form sheets of a first length; in the second mode, a second extent of material is accommodated by the excess material receiving component to form sheets of a second length, the second extent of material being greater than the first extent; wherein the roll rotates about the rotational axis a first arc angle (α1) that is the same amount for forming sheets of the first and second lengths; characterised in that the excess material receiving component includes a ditch formed by the roll , the amount of web received in the ditch defining the first and second extents of material accommodated by the excess material receiving component . a cutting arrangement for cutting the web of material into sheets at a cutting location, the cutting arrangement including a roll receiving a web of material on an outer periphery thereof and carrying the web of material past the cutting location, the roll rotating about a rotational axis , the roll having an excess material receiving component having a first mode and a second mode; in the first mode, a first extent of material is accommodated by the excess material receiving component to form sheets of a first length; in the second mode, a second extent of material is accommodated by the excess material receiving component to form sheets of a second length, the second extent of material being greater than the first extent; wherein the roll rotates about the rotational axis a first arc angle (α1) that is the same amount for forming sheets of the first and second lengths; characterised in that the excess material receiving component includes a ditch formed by the roll , the amount of web received in the ditch defining the first and second extents of material accommodated by the excess material receiving component .
A liquid detergent composition comprising: a) one or more hydroperoxy fatty acid producing enzymes selected from the group consisting of: alpha-dioxygenases; b) a surfactant system comprising one or more anionic surfactants and one or more co-surfactants selected from the group consisting of amphoteric surfactant, zwitterionic surfactant, and mixtures thereof, wherein the weight ratio of the anionic surfactants to the co-surfactants is less than 9:1, preferably from 5:1 to 1:1, more preferably from 4:1 to 2:1; and c) from 30 wt% to 95 wt% by weight of the composition of a liquid carrier, wherein the liquid carrier is water; preferably the composition is a liquid manual dishwashing composition. a) one or more hydroperoxy fatty acid producing enzymes selected from the group consisting of: alpha-dioxygenases; b) a surfactant system comprising one or more anionic surfactants and one or more co-surfactants selected from the group consisting of amphoteric surfactant, zwitterionic surfactant, and mixtures thereof, wherein the weight ratio of the anionic surfactants to the co-surfactants is less than 9:1, preferably from 5:1 to 1:1, more preferably from 4:1 to 2:1; and c) from 30 wt% to 95 wt% by weight of the composition of a liquid carrier, wherein the liquid carrier is water;
Internal combustion engine having an air intake system which is equipped with an intake manifold and a spacer configured for delimiting an intake duct between the intake manifold and a cylinder head of the engine , wherein the intake manifold is configured to divide a common intake air stream flowing through a common flow passage of an intake passage into separate intake air streams , each of which is guided to an associated one of a plurality of cylinders of the engine, wherein the spacer is provided with a plurality of flow-through passages and at least one air-accumulation cavity which are fluid-communicatively connected and constitute the intake duct , wherein each of the plurality of flow-through passages is associated to one of the separate flow passages , and wherein the cavity constitutes a Helmholtz resonator. the intake manifold is configured to divide a common intake air stream flowing through a common flow passage of an intake passage into separate intake air streams , each of which is guided to an associated one of a plurality of cylinders of the engine, wherein the spacer is provided with a plurality of flow-through passages and at least one air-accumulation cavity which are fluid-communicatively connected and constitute the intake duct , wherein each of the plurality of flow-through passages is associated to one of the separate flow passages , and wherein the cavity constitutes a Helmholtz resonator.