mhurhangee/ep-ind-claims huggingface dataset:
A method for reducing false positive detection in NB-IoT downlink control channel, the method comprising the following steps: - synchronizing an user equipment to a base station and exchanging a data transmission via a downlink narrowband physical downlink shared channel (NPDSCH) or an uplink narrowband physical uplink shared channel (NPUSCH), whereas downlink control information pertaining to downlink or uplink data transmission is signaled to UE by the base station via narrowband physical downlink control channel (NPDCCH), wherein - calculating an effective code rate of NPDCCH that is used in receiving downlink grant, resulting in a value CR NPDCCH, - calculating a scheduled code rate of NPDSCH or NPUSCH, resulting in a value CR NPDSCH or CR NPUSCH, - calculating a ratio between the effective code rate CR NPDCCH and the scheduled code rate CR NPDSCH or CR NPUSCH, resulting in a result x, - comparing the result x with pre-defined upper and lower bounds, - dropping and not processing further the result x as false positive detection if the result x violates the pre-defined bounds. - synchronizing an user equipment to a base station and exchanging a data transmission via a downlink narrowband physical downlink shared channel (NPDSCH) or an uplink narrowband physical uplink shared channel (NPUSCH), whereas downlink control information pertaining to downlink or uplink data transmission is signaled to UE by the base station via narrowband physical downlink control channel (NPDCCH), wherein - calculating an effective code rate of NPDCCH that is used in receiving downlink grant, resulting in a value CR NPDCCH, - calculating a scheduled code rate of NPDSCH or NPUSCH, resulting in a value CR NPDSCH or CR NPUSCH, - calculating a ratio between the effective code rate CR NPDCCH and the scheduled code rate CR NPDSCH or CR NPUSCH, resulting in a result x, - comparing the result x with pre-defined upper and lower bounds, - dropping and not processing further the result x as false positive detection if the result x violates the pre-defined bounds.
A movable head (1, 1a) for a stretching machine for sheets or plates or the like, said movable head comprising: - a first front portion (2, 2a) including a plurality of sheet segments (3, 3a) parallel to one another and shaped so as to define a clamping mouth provided with an opening facing a front surface of said first portion (2, 2a), said opening being defined by two reciprocally opposite lips (10a,b) so as to define a stretching plane orthogonal to said sheet segments (3, 3a) and equally spaced apart from said lips (10a,b), said mouth comprising clamping means to lock a sheet or plate or the like passing through said opening of said mouth, so that a traction force parallel to said stretching plane is applicable to said sheet or plate or the like, - a second rear portion (4, 4a) firmly connected to said first front portion (2, 2a) so as to stiffen said first front portion (2, 2a), characterized in that said first and second portions (2, 4; 2a, 4a) are connected to each other by means of a plurality of stiffening tie-rods, arranged parallel to said stretching plane. - a first front portion (2, 2a) including a plurality of sheet segments (3, 3a) parallel to one another and shaped so as to define a clamping mouth provided with an opening facing a front surface of said first portion (2, 2a), said opening being defined by two reciprocally opposite lips (10a,b) so as to define a stretching plane orthogonal to said sheet segments (3, 3a) and equally spaced apart from said lips (10a,b), said mouth comprising clamping means to lock a sheet or plate or the like passing through said opening of said mouth, so that a traction force parallel to said stretching plane is applicable to said sheet or plate or the like, - a second rear portion (4, 4a) firmly connected to said first front portion (2, 2a) so as to stiffen said first front portion (2, 2a), characterized in that said first and second portions (2, 4; 2a, 4a) are connected to each other by means of a plurality of stiffening tie-rods, arranged parallel to said stretching plane.
Lighting assembly for lighting and/or signalling in a motor vehicle, which includes a lighting module accommodating at least means for emitting and means for focusing one or more light beams, together with a mask a portion of which extends under said focusing means, a part of said mask being transparent to light, said transparent part being disposed on the mask in an area determined as being an area of contact of solar light rays reflected and focused onto said portion of the mask by said focusing means so that these light rays pass through the mask at the level of said transparent part, said mask being produced in a transparent or translucent base material, characterized in that said base material is combined with an additive making it possible to render said mask darker than in its original composition with no additive, the additive consisting at least in a thin thickness of a coating disposed on a first face of the mask, which face is opposite a second face of said mask that is exposed to said light rays, said transparent part being formed by the base material of the mask and an opening formed in said coating or said mask is obtained by injection moulding two polymer materials with different thermal properties, one of which forms said part transparent to said solar rays reflected and focused onto said mask by said focusing means and the other of which constitutes the rest of said mask.
Pipetting device with at least two pipetting channels (50, 50') extending along a channel axis, each of them being adjustable along the channel axis, the pipetting device comprising a displacement drive by which each pipetting channel (50, 50') can, regardless of an adjustment along the channel axis and regardless of the other pipetting channel (50, 50'), be displaced along a displacement axis which is orthogonal to the channel axis, said displacement drive comprising a linear motor, whose stator comprises at least two magnet arrangements (32, 42), comprising on a magnet carrier (34, 44) a row of consecutive magnets along the displacement axis and arranged differently in terms of their polarity (P1, P2), and whose armature (at 38, at 38') comprises at least one conductor loop arrangement comprising at least one set of three consecutive conductor loops (72, 74, 76) along the displacement axis, each of which being associable or associated to another phase of a three-phase supply, each pipetting channel (50, 50') comprising at least one conductor loop arrangement (38, 38'), wherein the armatures (at 38, at 38') of two pipetting channels (50, 50') which are directly adjacent along the displacement axis are associated to different magnet arrangements (32, 42) and cooperate with the latter.
A pyrolysis furnace comprising: (a) a housing (1, 2, 3) having at least one first air inlet for primary air and at least one second air inlet for secondary air and tertiary air in the lower area of the housing and a combustion gas outlet at the upper end of the housing, (b) an open-top combustion chamber being arranged in the housing (1, 2, 3) and having an air inlet which is arranged in the lower area of the combustion chamber and communicates with the first air inlet of the housing, and (c) a flame concentrator surrounding an upper portion of the combustion chamber and having an upper opening whose cross-section is smaller than the cross-section of the upper opening of the combustion chamber, (d) wherein a gap is provided between the outer wall of the combustion chamber and the inner wall of the flame concentrator for introducing the secondary air to inlet openings in the upper portion of the combustion chamber, (e) wherein a gap is provided between the outer wall of the flame concentrator and the inner wall of the housing (1, 2, 3) for introducing the tertiary air to the area of the upper opening of the flame concentrator, and (f) wherein the combustion chamber and the flame concentrator are made of metal. (a) a housing (1, 2, 3) having at least one first air inlet for primary air and at least one second air inlet for secondary air and tertiary air in the lower area of the housing and a combustion gas outlet at the upper end of the housing, having at least one first air inlet for primary air and at least one second air inlet for secondary air and tertiary air in the lower area of the housing and a combustion gas outlet at the upper end of the housing, (b) an open-top combustion chamber being arranged in the housing (1, 2, 3) and having an air inlet which is arranged in the lower area of the combustion chamber and communicates with the first air inlet of the housing, and (c) a flame concentrator surrounding an upper portion of the combustion chamber and having an upper opening whose cross-section is smaller than the cross-section of the upper opening of the combustion chamber, (d) wherein a gap is provided between the outer wall of the combustion chamber and the inner wall of the flame concentrator for introducing the secondary air to inlet openings in the upper portion of the combustion chamber, (e) wherein a gap is provided between the outer wall of the flame concentrator and the inner wall of the housing (1, 2, 3) for introducing the tertiary air to the area of the upper opening of the flame concentrator, and (f) wherein the combustion chamber and the flame concentrator are made of metal.
A vehicular air conditioning control device comprising: an outside air temperature sensor that detects an outside air temperature; an air conditioning ECU that acquires a detection result of the outside air temperature sensor and calculates, from the acquisition result, as a predetermined time corresponding to the outside air temperature which becomes longer as the outside air temperature becomes higher, a blower fan operating time lasting from engine shutdown until blower fan shutdown when a cabin is being air-conditioned by an air conditioning system equipped with an evaporator, a blower fan that blows air in the direction of the evaporator, and a compressor that operates using an engine as a drive source and compresses refrigerant; characterized in that the air conditioning ECU controls the blower fan in such a way that the blower fan shuts down when the blower fan operating time calculated by the air conditioning ECU has elapsed after the engine has been shut down by an engine ECU that controls engine startup and shutdown in accordance with the driving state of the vehicle when the cabin is being air-conditioned by the air conditioning system, wherein the air conditioning ECU obtains a sensing result of a temperature of the evaporator, and controls the blower fan in such a way that the blower fan operates until a time when the sensing result reaches a dew point temperature corresponding to the outside air temperature. an outside air temperature sensor that detects an outside air temperature; an air conditioning ECU that acquires a detection result of the outside air temperature sensor and calculates, from the acquisition result, as a predetermined time corresponding to the outside air temperature which becomes longer as the outside air temperature becomes higher, a blower fan operating time lasting from engine shutdown until blower fan shutdown when a cabin is being air-conditioned by an air conditioning system equipped with an evaporator, a blower fan that blows air in the direction of the evaporator, and a compressor that operates using an engine as a drive source and compresses refrigerant; characterized in that the air conditioning ECU controls the blower fan in such a way that the blower fan shuts down when the blower fan operating time calculated by the air conditioning ECU has elapsed after the engine has been shut down by an engine ECU that controls engine startup and shutdown in accordance with the driving state of the vehicle when the cabin is being air-conditioned by the air conditioning system, wherein the air conditioning ECU obtains a sensing result of a temperature of the evaporator, and controls the blower fan in such a way that the blower fan operates until a time when the sensing result reaches a dew point temperature corresponding to the outside air temperature.
A thermistor sintered body comprising: a Y 2 O 3 phase as a main phase; and a Y(Cr,Mn)O 3 phase or a YCrO 3 phase as a subphase, characterized in that Ca and Pr are dissolved in the Y(Cr,Mn)O 3 phase or in the YCrO 3 phase, and the thermistor sintered body comprises 20 mol% or less of Cr, 20 mol% or less of Mn, 1 to 15 mol% of Ca, 0.5 to 30 mol% of Pr, and a balance of Y, wherein calculation of the molar percentages of Cr, Mn, Ca, Pr and Y does not take into account the amount of oxygen comprised by the thermistor sintered body. a Y 2 O 3 phase as a main phase; and a Y(Cr,Mn)O 3 phase or a YCrO 3 phase as a subphase, characterized in that Ca and Pr are dissolved in the Y(Cr,Mn)O 3 phase or in the YCrO 3 phase, and the thermistor sintered body comprises 20 mol% or less of Cr, 20 mol% or less of Mn, 1 to 15 mol% of Ca, 0.5 to 30 mol% of Pr, and a balance of Y, wherein calculation of the molar percentages of Cr, Mn, Ca, Pr and Y does not take into account the amount of oxygen comprised by the thermistor sintered body.
A method for non-therapeutic improvement of the postnatal growth trajectory or body development in an infant that is born to a mother that is overweight or obese at the time of conception of the infant by administration of a nutritional composition selected from an infant formula and a follow on formula comprising carbohydrates, protein and lipid, wherein i) the lipid comprises linoleic acid and alpha-linolenic acid in a weight ratio of 2 to 20, ii) the lipid comprises at least 10 wt.% palmitic acid based on total lipid, and at least 15 wt.% of this palmitic acid is esterified to the sn-2 position of a triglyceride based on total palmitic acid, and wherein the nutritional composition comprises lipid globules that have a) a mode diameter, based on volume of at least 1.0 μm and/or a diameter of 2 to 12 μm in an amount of at least 45 volume % based on total lipid and b) the lipid globules are at least partly coated on the surface with phospholipids, the amount of phospholipids present in the nutritional composition being from 0.5 to 20 wt.% phospholipids based on total lipids. i) the lipid comprises linoleic acid and alpha-linolenic acid in a weight ratio of 2 to 20, ii) the lipid comprises at least 10 wt.% palmitic acid based on total lipid, and at least 15 wt.% of this palmitic acid is esterified to the sn-2 position of a triglyceride based on total palmitic acid, and wherein the nutritional composition comprises lipid globules that have a) a mode diameter, based on volume of at least 1.0 μm and/or a diameter of 2 to 12 μm in an amount of at least 45 volume % based on total lipid and b) the lipid globules are at least partly coated on the surface with phospholipids, the amount of phospholipids present in the nutritional composition being from 0.5 to 20 wt.% phospholipids based on total lipids.
Method for producing a recombinant allergen in a Nicotiana benthamiana tobacco plant, comprising the steps of: a) growing the plant aeroponically or hydroponically under LED lighting, then b) agroinfiltrating the plant obtained in a) under vacuum with agrobacteria comprising an expression vector comprising a DNA fragment coding for the recombinant allergen, then c) returning the plants to growth after step b), under the same conditions as for step a), then d) extracting and purifying the recombinant allergen from the aerial parts of the plants produced in step c). a) growing the plant aeroponically or hydroponically under LED lighting, then b) agroinfiltrating the plant obtained in a) under vacuum with agrobacteria comprising an expression vector comprising a DNA fragment coding for the recombinant allergen, then c) returning the plants to growth after step b), under the same conditions as for step a), then d) extracting and purifying the recombinant allergen from the aerial parts of the plants produced in step c).
Method of associating a mobile terminal with a cell of a cellular network comprising at least cells of a first type and cells of a second type distinct from the first, a plurality of network slices L k, k = 1,..., K being instantiated from said cellular network, each network slice L k providing a class of service C k, characterized by a plurality of constraints Λ i, k, i = 1,.., N, k = 1,..., K on quality of service metrics, the mobile terminal measuring the highest power received from a cell of the first type, P 1, and the highest power received from a cell of the second type, P 2, the mobile terminal associating with said cell of the first type if P 1 > QP 2 and with said cell of the second type otherwise, in which Q is a bias value, characterized in that the network determines for each constraint Λ i, k a set of bias values, SQ i, k, making it possible to satisfy that constraint and that that deduction is made of the optimal bias value, Q R, k opt, belonging to the intersection of the sets SQ i,k, i = 1,.., N making it possible to maximize an objective function relating to a quality of service metric, and that the mobile terminal requiring a quality of service C k associations with said cell of the first type if P 1 > Q R, k opt P 2 and with said cell of the second type otherwise.
A dish support rack comprising a metal wire frame coated with a polyamide composition [composition] comprising: - more than 50 % wt of a polyamide [polyamide, herein after], more than 50 % moles of recurring units of said polyamide complying with formula: -HN-(CH 2) 6 -NH-C -(CH 2) 8 -C - [recurring units (R 6,10)], said polyamide possessing a relative viscosity of at least 2.5, when measured in formic acid, according to ISO 307 standard, and, optionally: - up to 10 % wt of conventional filler(s) and/or additive(s). - more than 50 % wt of a polyamide [polyamide, herein after], more than 50 % moles of recurring units of said polyamide complying with formula: -HN-(CH 2) 6 -NH-C -(CH 2) 8 -C - [recurring units (R 6,10)], said polyamide possessing a relative viscosity of at least 2.5, when measured in formic acid, according to ISO 307 standard, and, optionally: - up to 10 % wt of conventional filler(s) and/or additive(s).
A method for marking a data matrix code in the form of an n*m cell matrix of light and dark cells, which respectively consist of a light or dark s*t pixel matrix, on a workpiece by means of a laser beam, wherein a laser processing unit directing the laser beam onto the workpiece scans, pixel row by pixel row, the workpiece region to be marked, respectively at a constant marking speed (v) and alternately in opposite directions, and wherein the light pixels and/or the dark pixels are marked on the workpiece during the scan by temporarily switching on the laser beam, characterized in that the laser processing unit is guided from an already scanned pixel row on an arc- or loop-shaped curve (12, 14), the curved diameter (d) of which is at least two times the pixel row spacing, to the next pixel row to be scanned.
A method for controlling roughening process parameters for a light emitting device, comprising: determining a required flux per light emitting device for an application, selecting a light emitting device technology, determining the minimum and maximum achievable flux per light emitting device of the selected light emitting device technology based on control of a degree of roughening, checking if the required flux is between the achievable minimum and maximum flux, wherein a different light emitting device technology is selected if the required flux is between the achievable minimum and maximum flux and the different light emitting device technology is assessed, determining the required degree of flux increase over the minimum flux, determining a relationship between a process parameter of the selected technology and a flux achievable by modifying a surface of a light emitting element using the process parameter, wherein the process parameter corresponds to a parameter that affects a roughening of the surface of the light emitting element determining a select value of the process parameter that will achieve the required flux based on the relationship, and modifying the surface of the light emitting element using the select value of the processing parameter. determining a required flux per light emitting device for an application, selecting a light emitting device technology, determining the minimum and maximum achievable flux per light emitting device of the selected light emitting device technology based on control of a degree of roughening, checking if the required flux is between the achievable minimum and maximum flux, wherein a different light emitting device technology is selected if the required flux is between the achievable minimum and maximum flux and the different light emitting device technology is assessed, determining the required degree of flux increase over the minimum flux, determining a relationship between a process parameter of the selected technology and a flux achievable by modifying a surface of a light emitting element using the process parameter, wherein the process parameter corresponds to a parameter that affects a roughening of the surface of the light emitting element determining a select value of the process parameter that will achieve the required flux based on the relationship, and modifying the surface of the light emitting element using the select value of the processing parameter.
A holding sealing material having a mat-like body, comprising: a first inorganic fiber containing 60% by weight or more of alumina; and a second inorganic fiber containing 67% by weight or more of silica, the first inorganic fiber and the second inorganic fiber being intricately intertwined with each other over the holding sealing material as a whole; and a ratio of an amount of said first inorganic fiber relative to a total amount of said first inorganic fiber and said second inorganic fiber is 25 to 75% by weight. a first inorganic fiber containing 60% by weight or more of alumina; and a second inorganic fiber containing 67% by weight or more of silica, the first inorganic fiber and the second inorganic fiber being intricately intertwined with each other over the holding sealing material as a whole; and a ratio of an amount of said first inorganic fiber relative to a total amount of said first inorganic fiber and said second inorganic fiber is 25 to 75% by weight.