mhurhangee/ep-ind-claims huggingface dataset:
A roll (10; 20) for a roller press suitable for comminution of granular material by interparticle crushing, said roll (10; 20) comprising: a cylindrical body having an outer cylindrical pressing surface (11; 21) for use with an opposing roll in an interparticle crushing pressing nip; a plurality of outwardly extending wear-resistant surface studs (12; 22) positioned on the pressing surface (11; 21); wherein the cylindrical body is provided with means for restricting the flow of granular material between the outwardly extending wear-resistant surface studs (12; 22) along the outer cylindrical pressing surface (11; 21), wherein the plurality of outwardly extending wear-resistant surface studs (12; 22) are positioned in a pattern consisting of parallel extending lines (i1-i2-i3-i4-i5-...) on the pressing surface (11; 21), characterized in that the flow restricting means are provided between adjacent pattern lines (i1-i2-i3-i4-i5-...), and wherein the flow restriction means are made of one or more strip-like elements (50a1-50b1-50c1; 50a2-50b2-50c2; 50b3; 50d1-50d2) provided on the outer cylindrical pressing surface (11; 21) of the cylindrical body. a cylindrical body having an outer cylindrical pressing surface (11; 21) for use with an opposing roll in an interparticle crushing pressing nip; a plurality of outwardly extending wear-resistant surface studs (12; 22) positioned on the pressing surface (11; 21); wherein the cylindrical body is provided with means for restricting the flow of granular material between the outwardly extending wear-resistant surface studs (12; 22) along the outer cylindrical pressing surface (11; 21), wherein the plurality of outwardly extending wear-resistant surface studs (12; 22) are positioned in a pattern consisting of parallel extending lines (i1-i2-i3-i4-i5-...) on the pressing surface (11; 21), characterized in that the flow restricting means are provided between adjacent pattern lines (i1-i2-i3-i4-i5-...), and wherein the flow restriction means are made of one or more strip-like elements (50a1-50b1-50c1; 50a2-50b2-50c2; 50b3; 50d1-50d2) provided on the outer cylindrical pressing surface (11; 21) of the cylindrical body.
An electronic timepiece comprising: a reception unit adapted to receive satellite signals from satellites that transmit satellite signals containing time information and leap second information; a control unit adapted to control the reception unit to receive the time information and the leap second information from the satellite signal, and further adapted to adjust an internal time based on the time information and leap second information; a first table adapted to group combinations of reception-minute and reception-second values common to plural reception-hours into a plurality of minute-second patterns based on leap second reception time data expressing leap second information reception times by means of reception-hour, reception-minute, reception-second, and reception-day values, and further adapted to relate an identification value for the plural minute-second patterns to the reception-day and reception-hour values; and a second table adapted to store reception-minute and reception-second combinations for each identification value; wherein the control unit is adapted to acquire a leap second reception time, that is later than the internal time, from the first table and the second table, and control the reception unit to receive the leap second information based on the acquired leap second reception time. a reception unit adapted to receive satellite signals from satellites that transmit satellite signals containing time information and leap second information; a control unit adapted to control the reception unit to receive the time information and the leap second information from the satellite signal, and further adapted to adjust an internal time based on the time information and leap second information; a first table adapted to group combinations of reception-minute and reception-second values common to plural reception-hours into a plurality of minute-second patterns based on leap second reception time data expressing leap second information reception times by means of reception-hour, reception-minute, reception-second, and reception-day values, and further adapted to relate an identification value for the plural minute-second patterns to the reception-day and reception-hour values; and a second table adapted to store reception-minute and reception-second combinations for each identification value; wherein the control unit is adapted to acquire a leap second reception time, that is later than the internal time, from the first table and the second table, and control the reception unit to receive the leap second information based on the acquired leap second reception time.
A radial turbine comprising a turbine housing and a turbine rotor including blades, the turbine housing including: a flow passage (3; 7; 9) which extends from an exhaust gas inlet into the turbine housing to a tongue portion (2; 8); and a blade side passage separated from the flow passage by the tongue portion (2; 8), the radial turbine being configured to rotate the turbine rotor by introducing exhaust gas through the blade side passage radially toward the blades to exert a force on the blades, then discharging the gas in an axial direction, whereby the tongue portion (2,8) defines an upper surface oriented towards the flow passage and a lower surface oriented towards the blade side passage; and the flow passage (3; 7; 9) is offset with respect to the blade side passage along an axis line of a rotating shaft of the turbine rotor, characterized in that the offset starts at the distal end of the tongue portion (2; 8) and forms a first surface portion of the tongue portion upper surface which is exposed to external air and further forms a second surface portion of the tongue portion lower surface which is also exposed to the external air so that heat in the tongue portion is dissipated from the first surface portion and from the second surface portion.
Sanitary or heating system having at least one electronically controllable fitting, at least one pipe (5, 6) for delivering water, in particular drinking water, to the at least one electronically controllable fitting, and a current supply device for supplying electric power to the at least one electronically controllable fitting, wherein the at least one pipe (5, 6) is formed from a plastic pipe comprising at least one insulated electrical conductor (5.2, 5.2'), wherein the current supply device is connected to a voltage transformer for voltage conversion on a low-voltage basis, the output of which is connected to the electrical conductor (5.2, 5.2') of the plastic pipe (5, 6), wherein the at least one electronically controllable fitting is connected by means of a current tap device (22, 25) to the electrical conductor (5.2, 5.2') of the plastic pipe (5, 6), characterised in that the at least one electrical conductor (5.2) is configured tubularly and is arranged between an inner plastic tube (5.1) and an outer plastic sheath (5.3).
An active front deflector assembly for a motor vehicle, comprising: at least one deflector panel including a semi-rigid portion and a rigid upper spine portion, where the deflector panel selectively deploys and retracts between a deployed position within an air flow and a stowed position out of the air flow, where the deployment of the deflector panel improves aerodynamics; at least two linkage assemblies (12, 14) attached to the rigid upper spine of the deflector panel and connected to the vehicle; and an actuator including a drive shaft operably coupled to the at least two linkage assemblies (12, 14), where the actuator has object detection and is in communication with the vehicle and automatically deploys the deployable panel under predetermined conditions and automatically retracts the deployable panel when predetermined conditions for continued deployment are no longer met; wherein the predetermined conditions are selected from the group consisting of vehicle speeds, forces/loads, wind directions, yaw, and combinations thereof; further comprising a clutch system in the actuator to disengage a drive system, the actuator providing declutching of the gearing so that the deflector panel can move freely out of the way to prevent damage. at least one deflector panel including a semi-rigid portion and a rigid upper spine portion, where the deflector panel selectively deploys and retracts between a deployed position within an air flow and a stowed position out of the air flow, where the deployment of the deflector panel improves aerodynamics; at least two linkage assemblies (12, 14) attached to the rigid upper spine of the deflector panel and connected to the vehicle; and an actuator including a drive shaft operably coupled to the at least two linkage assemblies (12, 14), where the actuator has object detection and is in communication with the vehicle and automatically deploys the deployable panel under predetermined conditions and automatically retracts the deployable panel when predetermined conditions for continued deployment are no longer met; wherein the predetermined conditions are selected from the group consisting of vehicle speeds, forces/loads, wind directions, yaw, and combinations thereof; further comprising a clutch system in the actuator to disengage a drive system, the actuator providing declutching of the gearing so that the deflector panel can move freely out of the way to prevent damage.
An aqueous composition comprising, as a percentage by weight of solids: a. from 25% to 87% of one or more carbohydrate chosen from the group consisting of: a monosaccharide, a disaccharide, a polysaccharide, a derivative thereof, and a combination thereof, wherein the monosaccharide, disaccharide, polysaccharide, or derivative thereof comprises at least 30% dextrose; b. at least 8% of one or more salt, which salt is an ammonium salt of an inorganic acid; and c. an emulsion polymer in an amount of from 5% to 50% by weight of polymer solids, as a percentage of total composition solids. a. from 25% to 87% of one or more carbohydrate chosen from the group consisting of: a monosaccharide, a disaccharide, a polysaccharide, a derivative thereof, and a combination thereof, wherein the monosaccharide, disaccharide, polysaccharide, or derivative thereof comprises at least 30% dextrose; b. at least 8% of one or more salt, which salt is an ammonium salt of an inorganic acid; and c. an emulsion polymer in an amount of from 5% to 50% by weight of polymer solids, as a percentage of total composition solids.
An optoelectronic component comprising a semiconductor function region with an active zone and a lateral main direction of extension, wherein the semiconductor function region is provided with at least one opening (9, 27, 29) through the active zone, and disposed in the region of the opening (9, 27, 29) is a connecting conductor material that is electrically isolated from the active zone at least in a subregion of the opening (9, 27, 29), the semiconductor function region is arranged on a carrier, a mirror layer is disposed after the semiconductor function region, wherein the mirror layer is embodied to be reflective with respect to a radiation to be received or to be generated by the active zone, and the mirror layer is arranged between the carrier and the active zone, characterized in that the opening (9, 27, 29) penetrates the mirror layer.
A pharmaceutical composition comprising rabies virus glycoproteins (G proteins) in a micellar particle, wherein the micellar particle further comprises NP-9, and wherein the G proteins form a trimer, and a pharmaceutically acceptable carrier, diluent, or excipient.
A method performed in a computing device for protecting against faults in a computation of a point multiplication Q = [ k] P on an elliptic curve E defined over a prime field, comprising: - defining an integer r and a group represented with elements having a group law that coincides with a group law used in the representation for and isomorphic to an additive group through isomorphism Y, wherein a representation for is selected, identified from the group law in E, where such that Υ( θ 1) ⊕ Υ( θ 2) = Υ( θ 1 + θ 2); - forming a combined group which is isomorphic to a cross product of the groups and - selecting an element θ in and defining an element P' = Υ(θ) in group; - forming a combined element P̂ = CRT ( P, P') in the group - calculating Q̂ = [ k] P̂ in the combined group - calculating kθ in and - checking whether Q̂ ≡ Q' (mod r) where Q' = Υ( kθ), characterized in that is selected to be one from a group that contains: - a set of points ( θ, 1) on a Jacobi quartic curve, - a set of points ( θ, 1, 1) on a Jacobi quadratics intersection curve, - a set of points ( θ, -1) on a Hessian curve, - a set of points ( θ, c θ) on a Huff curve, where c is any value in. - defining an integer r and a group represented with elements having a group law that coincides with a group law used in the representation for and isomorphic to an additive group through isomorphism Y, wherein a representation for is selected, identified from the group law in E, where such that Υ( θ 1) ⊕ Υ( θ 2) = Υ( θ 1 + θ 2); - forming a combined group which is isomorphic to a cross product of the groups and - selecting an element θ in and defining an element P' = Υ(θ) in group; - forming a combined element P̂ = CRT ( P, P') in the group - calculating Q̂ = [ k] P̂ in the combined group - calculating kθ in and - checking whether Q̂ ≡ Q' (mod r) where Q' = Υ( kθ), - a set of points ( θ, 1) on a Jacobi quartic curve, - a set of points ( θ, 1, 1) on a Jacobi quadratics intersection curve, - a set of points ( θ, -1) on a Hessian curve, - a set of points ( θ, c θ) on a Huff curve, where c is any value in.
A method for controlling the manufacturing of one or more 3D products in one physical printing batch by additive manufacturing using a layer-by-layer technique using a 3D printing device, said 3D printing device comprising a control unit adapted to govern a plurality of process parameters, said physical printing batch having a physical 3D printing volume, said method comprising the steps of; - providing a virtual 3D printing volume representative of said physical 3D printing volume of said batch; - partitioning said virtual 3D printing volume into at least a first and a second virtual zone (50a-50h); - assigning said first zone (50a-50h) with a first process parameter, and said second zone (50b-50h) with a second process parameter, the first process parameter and the second process parameter being of the same kind but having different values; whereby said first process parameter is different with respect to said second process parameter - providing a virtual printing batch representative of said physical printing batch, said virtual printing batch consisting of one or more 3D models corresponding to said one or more 3D products; and - arranging said virtual printing batch within said virtual 3D printing volume such that said virtual printing batch is arranged in said virtual 3D printing volume with a first part of said virtual printing batch positioned in said first virtual zone of said virtual 3D printing volume and a second part of said virtual printing batch positioned in said second virtual zone of said virtual 3D printing volume. - providing a virtual 3D printing volume representative of said physical 3D printing volume of said batch; - partitioning said virtual 3D printing volume into at least a first and a second virtual zone (50a-50h); - assigning said first zone (50a-50h) with a first process parameter, and said second zone (50b-50h) with a second process parameter, the first process parameter and the second process parameter being of the same kind but having different values; whereby said first process parameter is different with respect to said second process parameter - providing a virtual printing batch representative of said physical printing batch, said virtual printing batch consisting of one or more 3D models corresponding to said one or more 3D products; and - arranging said virtual printing batch within said virtual 3D printing volume such that said virtual printing batch is arranged in said virtual 3D printing volume with a first part of said virtual printing batch positioned in said first virtual zone of said virtual 3D printing volume and a second part of said virtual printing batch positioned in said second virtual zone of said virtual 3D printing volume.
Planetary roller extruder having a central spindle, planetary spindles and an internal toothed housing liner or an internal toothed housing, wherein the planetary spindles slide with the rear surfaces in the melt flow direction at a stop ring, wherein the toothing runs helically on the central spindle and on the planetary spindles and runs helically in the housing liner or in the housing, wherein the toothing runs right-handed or left-handed wherein particularly an involute toothing is provided, wherein at least one planetary spindle is provided with a counter-rotating toothing, whereinthe outlet side and the inlet sideregion (41, 45) is free of counter-rotating toothing on the spindle ends, wherein the outlet side region that is free of counter-rotating toothingand the inlet side region that is free of counter-rotating toothingpossess a length of 0.5 to 3D and a length of 2 to 5D respectively, wherein D is the pitch diameter of the planetary spindle. wherein the planetary spindles slide with the rear surfaces in the melt flow direction at a stop ring, wherein the toothing runs helically on the central spindle and on the planetary spindles and runs helically in the housing liner or in the housing, wherein the toothing runs right-handed or left-handed wherein particularly an involute toothing is provided, wherein at least one planetary spindle is provided with a counter-rotating toothing, whereinthe outlet side and the inlet sideregion (41, 45) is free of counter-rotating toothing on the spindle ends, wherein the outlet side region that is free of counter-rotating toothingand the inlet side region that is free of counter-rotating toothingpossess a length of 0.5 to 3D and a length of 2 to 5D respectively, wherein D is the pitch diameter of the planetary spindle.
Method for manufacturing an electrical contact for a photovoltaic cell, comprising the successive steps: a) providing a photovoltaic cell comprising: - a layer of transparent conductive oxide; - an electrically conductive screen-printing slurry, formed on the layer of transparent conductive oxide, the screen-printing slurry having a curing temperature; b) applying a heat treatment to the photovoltaic cell, at the curing temperature, in an enclosure surrounded by ambient air, and in an atmosphere comprising ambient air; c) cooling the enclosure for a fixed time as a function of the curing temperature, so as to subject the photovoltaic cell to a temperature gradient less than or equal to 100°C per minute, preferably between 3°C per minute and 30°C per minute; d) removing the photovoltaic cell from the enclosure to expose the photovoltaic cell to the ambient air. a) providing a photovoltaic cell comprising: - a layer of transparent conductive oxide; - an electrically conductive screen-printing slurry, formed on the layer of transparent conductive oxide, the screen-printing slurry having a curing temperature; - a layer of transparent conductive oxide; - an electrically conductive screen-printing slurry, formed on the layer of transparent conductive oxide, the screen-printing slurry having a curing temperature; b) applying a heat treatment to the photovoltaic cell, at the curing temperature, in an enclosure surrounded by ambient air, and in an atmosphere comprising ambient air; c) cooling the enclosure for a fixed time as a function of the curing temperature, so as to subject the photovoltaic cell to a temperature gradient less than or equal to 100°C per minute, preferably between 3°C per minute and 30°C per minute; d) removing the photovoltaic cell from the enclosure to expose the photovoltaic cell to the ambient air.
Tea cup with a pocket and a sieve, comprising a v-like shaped base formed by two base sides (6,7), which enables the tea cup to be placed in two separate and stable standing positions, pocket and sieve, which together constitutes a tea compartment which is attached to the inner wall of the cup, tea compartment is either integrated to or detachable from the cup on the same side as one of the base sides (6,7), which enables the tea compartment to be under or above the water level when the tea cup is in brewing or drinking position, and characterized in that, the tea cup has a curve-shaped edge, such that a side wall portion of the cup at which the tea compartment is located and an opposite side wall portion of the cup are higher than the other side wall portions of the cup, in order to facilitate a tilting functionality of the cup by preventing water from running over the edges of the cup when tilted back and forth between the brewing and drinking positions.
Esteramide compounds of formula (I') below: R 1 00C-A-CONMe 2 (I') wherein: - A is a covalent bond, - R 1 is selected from linear or branched, optionally substituted alkyl groups comprising from 5 to 15 carbon atoms, with the exception of the compound of formula CH 3 -(CH 2) 7 -OOC-CONMe 2. - A is a covalent bond, - R 1 is selected from linear or branched, optionally substituted alkyl groups comprising from 5 to 15 carbon atoms,
A composition comprising an analyte bound covalently or through a first binding pair to a polymer, wherein the analyte is less than 2000 MW; the first binding pair is a biotin-avidin or a biotin-streptavidin; the polymer is a nucleic acid and further comprises more than one digoxigenin; and the analyte is not a member of the first binding pair; and wherein the analyte is cAMP, cGMP, 8-bromoadenosine 3',5'-cyclic monophosphate, cholesterol, a hydroxycholesterol, vitamin D, 25-hydroxy vitamin D, vitamin B12, vitamin E, vitamin B1, vitamin B6, ascorbic acid, retinol, folate, legumin, salbutamol, melamine, sulfaquinoxaline, an inositol phosphate, a phosphatidyl inositol phosphate, prednisone, pregnenolone, dexamethasone, triamcinolone, fludrocortisone, dihydrotachysterol, oxandrolone, testosterone, dihydrotestosterone, nandrolone, norethindrone, medroxyprogesterone acetate, progesterone, a glucocorticoid, aldosterone, estrogen, oxytocin, androstanediol glucuronide, bilirubin, warfarin, an estrogen, methotrexate, tobramycin, acetaminophen, encainide, fluoxetine, gentamycin, an aminoglycoside, amikacin, coenzyme Q10, theophylline, phenytoin, cimetidine, disulfiram, trazodone, ethanol, halothane, phenylbutazone, azapropazone, ibuprofen, amiodarone, imipramine, miconazole, metronidazole, nifedipine, chloramphenicol, trimethoprim, a sulfonamide, rifampin, cisplatin, vinblastine, bleomycin, oxacillin, nitrofurantoin, phenobarbital, primidone, carbamazepine, metoclopramide, cholestyramine, colestipol, neomycin, sulfasalazine, digoxin, indomethacin, diltiazem, erythromycin, tetracycline, itraconazole, nicardipine, triamterene, spironolactone, chlorpromazine, a cyclosporin, nortriptyline, ethosuximide, imipramine, codeine, lorazepam, topiramate, disopyramide, levetiracetam, clobazam, oxcarbazepine, fructosamine, caffeine, methaqualone, meprobamate, fluphenazine, a barbiturate, a phenothiazine, serotonin, valproic acid, digitoxin, maprotiline, lidocaine, mexiletine, primidone, risperidone, OH-rispiridone, a porphyrin, haloperidol, flecainide, tocainide, acetazolamide, a sulfonamide, verapamil, a metanephrine, an oxidized nucleotide, a mycotoxin, tetrahydrocannabinol, a cannabinoid, cocaine, LSD, an amphetamine, a barbiturate, heroin, methadone, nicotine, cotinine, a benzodiazepine, bis(2-ethylhexyl) phthalate, bisphenol A, hydralazine, atrazine, an organochloride insecticide, an organophosphate insecticide, or a carbamate insecticide.