mhurhangee/ep-ind-claims huggingface dataset:
A system for controlling ignition of a vehicle; the system comprising: a measurement window for measuring a biometric characteristic of a vehicle driver, the measurement window comprising a capacitive sensor on a touchpad, the capacitive sensor capable of detecting the finger of vehicle driver; and a controller coupled to the capacitive sensor and configured to: provide a signal to the vehicle driver indicative of whether placement of the finger is correct, wherein the signal comprises haptic feedback; if the position of the finger is correct, receive a measurement from the measurement window of the biometric characteristic of the vehicle driver; determine whether the measurement of the biometric characteristic of the vehicle driver meets a pre-determined threshold; and control starting the vehicle based on the measurement of the biometric characteristic of the vehicle driver. a measurement window for measuring a biometric characteristic of a vehicle driver, the measurement window comprising a capacitive sensor on a touchpad, the capacitive sensor capable of detecting the finger of vehicle driver; and a controller coupled to the capacitive sensor and configured to: provide a signal to the vehicle driver indicative of whether placement of the finger is correct, wherein the signal comprises haptic feedback; if the position of the finger is correct, receive a measurement from the measurement window of the biometric characteristic of the vehicle driver; determine whether the measurement of the biometric characteristic of the vehicle driver meets a pre-determined threshold; and control starting the vehicle based on the measurement of the biometric characteristic of the vehicle driver. provide a signal to the vehicle driver indicative of whether placement of the finger is correct, wherein the signal comprises haptic feedback; if the position of the finger is correct, receive a measurement from the measurement window of the biometric characteristic of the vehicle driver; determine whether the measurement of the biometric characteristic of the vehicle driver meets a pre-determined threshold; and control starting the vehicle based on the measurement of the biometric characteristic of the vehicle driver.
A control method for an aircraft load-limiting suspension apparatus comprising: receiving of predicted input parameters; computing an optimum load setting for suspension element; providing of the setting to a servomotor controller directing a servomotor, the servomotor being drivingly connected to a gear wheel with gear teeth which are rotatably connected to the gear teeth of the shear collar, the shear collar moving, by its rotation, relative to the position of at least two shear tabs (151, 152, 153) of the suspension element to adjust in a continuum the load setting of the suspension element from a minimum load setting, corresponding to no overlap of the at least two shear tabs, to a maximum load setting, corresponding to a full overlap of the at least two shear tabs; by the at least two shear tabs (151, 152, 153) of the suspension element, controlling an amount of impact load applied to an aircraft structure during an aircraft impact event, one of the at least two shear tabs being adjustable and variably engaged relative to the position of the other one of the at least two shear tabs (151, 152) to provide a variable amount of the impact load that needs to be applied to the at least two shear tabs (151, 152, 153) before the at least two shear tabs (151, 152, 153) shear; and by at least one crush tube (130, 1130, 1131) of the suspension element, limiting the amount of the impact load applied to the aircraft structure while the impact energy of the aircraft impact event is being absorbed. receiving of predicted input parameters; computing an optimum load setting for suspension element; providing of the setting to a servomotor controller directing a servomotor, the servomotor being drivingly connected to a gear wheel with gear teeth which are rotatably connected to the gear teeth of the shear collar, the shear collar moving, by its rotation, relative to the position of at least two shear tabs (151, 152, 153) of the suspension element to adjust in a continuum the load setting of the suspension element from a minimum load setting, corresponding to no overlap of the at least two shear tabs, to a maximum load setting, corresponding to a full overlap of the at least two shear tabs; by the at least two shear tabs (151, 152, 153) of the suspension element, controlling an amount of impact load applied to an aircraft structure during an aircraft impact event, one of the at least two shear tabs being adjustable and variably engaged relative to the position of the other one of the at least two shear tabs (151, 152) to provide a variable amount of the impact load that needs to be applied to the at least two shear tabs (151, 152, 153) before the at least two shear tabs (151, 152, 153) shear; and by at least one crush tube (130, 1130, 1131) of the suspension element, limiting the amount of the impact load applied to the aircraft structure while the impact energy of the aircraft impact event is being absorbed.
A semiconductor porcelain composition having a composition formula represented by [(A1 0.5 A2 0.5) x (Ba 1-y Q y) 1-x]TiO 3, wherein A1 is at least one kind of Na, K and Li, A2 is Bi, and Q is at least one kind of La, Dy, Eu and Gd, and wherein x and y each satisfy 0 < x ≤ 0.2 and 0.005 ≤ y ≤ 0.01, wherein the composition [(Bi 0.5 Na 0.5) 0.1 (Ba 0.994 La 0.006) 0.9]TiO 3 is excluded.
A handcart comprising: a cart frame including a receiving portion on which a shopping basket is placeable and a lateral portion extending in a width direction of the cart frame; a caster disposed at a bottom region of the cart frame; and a code reader attached to the lateral portion of the cart frame so as to be rotatable around the lateral portion; further comprising a sensor configured to detect an orientation of the code reader, wherein a processing device is enabled to perform image processing when the code reader is detected by the sensor to be oriented so that a reading window of the code reader faces an inner space of the shopping basket on the receiving portion of the cart frame. a cart frame including a receiving portion on which a shopping basket is placeable and a lateral portion extending in a width direction of the cart frame; a caster disposed at a bottom region of the cart frame; and a code reader attached to the lateral portion of the cart frame so as to be rotatable around the lateral portion; further comprising a code reader attached to the lateral portion of the cart frame so as to be rotatable around the lateral portion; further comprising a sensor configured to detect an orientation of the code reader, wherein a processing device is enabled to perform image processing when the code reader is detected by the sensor to be oriented so that a reading window of the code reader faces an inner space of the shopping basket on the receiving portion of the cart frame.
An aluminum alloy foil for a current collector of an electrode, obtained by a method comprising a step of continuous casting of a molten aluminum alloy having the composition set forth below, and a step of cold rolling and foil rolling, wherein no heating is performed between the steps of the continuous casting, cold rolling and foil rolling, the aluminum alloy foil containing 1.0 to 2.0 mass % of Fe, 0.01 to 0.2 mass % of Si, 0.0001 to 0.2 mass % of Cu, and 0.005 to 0.3 mass % of Ti, the remainder being Al and inevitable impurities, wherein an amount of Fe contained as a solid solution is 300 ppm or more, and particles of intermetallic compounds having an equivalent circle diameter of 0.1 to 1.0 μm exist at 1.0 × 10 5 particles / mm 2 or more.
A robot cleaner comprising: a main body in which a dust suction unit is disposed; holders disposed at both sides of the dust suction unit; and an agitator installed on the holders to remove foreign substances from a working area, characterized in that the agitator comprises a fixing shaft having a non-circular shape and providing a rotation center, and one of the holders includes a shaft insertion part in which the fixing shaft is inserted, wherein the shaft insertion part is recessed in a shape to correspond to the fixing shaft so as to allow the fixing shaft, being accommodated therein, to rotate together with the shaft insertion part in engagement, wherein the fixing shaft has an oval or polygonal cylindrical shape. a main body in which a dust suction unit is disposed; holders disposed at both sides of the dust suction unit; and an agitator installed on the holders to remove foreign substances from a working area, characterized in that the agitator comprises a fixing shaft having a non-circular shape and providing a rotation center, and one of the holders includes a shaft insertion part in which the fixing shaft is inserted, wherein the shaft insertion part is recessed in a shape to correspond to the fixing shaft so as to allow the fixing shaft, being accommodated therein, to rotate together with the shaft insertion part in engagement, wherein the fixing shaft has an oval or polygonal cylindrical shape.
A method for improving seed planter flowability comprising: admixing one or more seeds with a flow-aid composition comprising a modified starch or a mixture of a modified starch and a non-modified starch, wherein the one or more modified starch is a hydrophobically modified starch derivatized with one or more anionic moieties, etherified with an alkyl or alkenyl succinate and complexed with a polyvalent cation, wherein the one or more anionic moiety is carboxylate and the polyvalent cation is aluminum, and a mineral earth lubricant, wherein the mineral earth lubricant is selected from graphite, tricalcium phosphate, magnesium silicate, aluminum silicate, mica, talc, titanium oxide, kaolin clay, and mixtures thereof; wherein said flow-aid composition comprises from 1-99wt.% of said modified starch or mixture of modified starch and non-modified starch, based on total weight of the composition.
A stable intranasal aqueous composition comprising methylcobalamin in concentration from 500mcg/0.1ml to 1500mcg/0.1ml, co-solvents/solubilisers or mixtures thereof in water, wherein the cosolvent/solubiliser is selected from glycofurol, propylene glycol, polyethylene glycols, or mixtures thereof, optionally a penetration enhancer, and wherein the pH of the composition is 6 to 6.5 and viscosity of 1 to 200 mPas.
A fastening device for fastening tissue, the fastening device comprising: a first suture comprising a first fastening member; a second suture comprising a second fastening member, and a coupling member coupling the first suture to the second suture; characterised in that; the first and second sutures are tied together in a knot; and the coupling member is positioned between the knot and the first and second fastening members, wherein the coupling member is configured to slide relative to the first and second suture. a first suture comprising a first fastening member; a second suture comprising a second fastening member, and a coupling member coupling the first suture to the second suture; characterised in that; the first and second sutures are tied together in a knot; and the coupling member is positioned between the knot and the first and second fastening members, wherein the coupling member is configured to slide relative to the first and second suture.
A method of precipitating phytase comprising i. providing an aqueous medium comprising phytase; and ii. adding polyanion; and wherein no Ca 2+ is added to the aqueous medium during the method. i. providing an aqueous medium comprising phytase; and ii. adding polyanion; and
A method for dissolving lignin in an aqueous medium comprising the steps of a) mixing lignin, alkali, phenol and formaldehyde in an aqueous medium; b) mixing until a solution of lignin in the aqueous medium has been obtained; characterized in that the molar ratio between the formaldehyde and the total amount of phenol and lignin monomer is 0.4 or less, wherein the molar ratio between formaldehyde and total amount of phenol and lignin monomer is calculated based on an average lignin monomer molecular weight of 190 g/mol and wherein the lignin has been isolated from black liquor and purified before step a). a) mixing lignin, alkali, phenol and formaldehyde in an aqueous medium; b) mixing until a solution of lignin in the aqueous medium has been obtained;
Central shutter for camera objectives, with an annular leaf carrier on which at least two fixed studs are arranged in a circularly symmetrical manner in relation to each other, on which studs sickle-shaped shutter leaves are pivotably mounted, characterized in that each shutter leaf is assigned a separate pivot arm which faces towards the shutter opening and which is likewise pivotably mounted on the stud and, when the shutter leaf is fully pivoted into the shutter opening, bears with spring tension (8, 9) on a stop arranged on the leaf carrier, wherein the pivot arm is connected to the shutter leaf and, in order to generate the spring tension, a torsion spring is provided which is mounted on the stud, and an annular cam plate is inserted rotatably into the leaf carrier, which cam plate has sawtooth-shaped cams lying in the radial direction on its side facing towards the shutter leaves and, on the side remote from the cams, contains at least one ring segment facing in the axial direction, and wherein the length of the pivot arms assigned to the shutter leaves is chosen such that the free end of the pivot arm can be placed onto a flank of the cams.
A process for manufacturing structured material, characterized by the steps of: (a) providing cellulose fibres; (b) providing at least one filler and/or pigment; (c) combining the cellulose fibres of step a) and the at least one filler and/or pigment of step b); (d) fibrillating the cellulose fibres in an aqueous environment in the presence of the at least one filler and/or pigment until a nano-fibrillar cellulose gel is formed, wherein formation of the gels is verified by monitoring the viscosity of the mixture in dependence of the shearing rate, wherein the viscosity decrease of the mixture upon stepwise increase of the shearing rate is stronger than the corresponding viscosity increase upon subsequent step-wise reduction of the shearing rate over at least part of the shear rate range as shearing approaches zero; (e) providing additional non-fibrillated fibres; (f) combining the gel of step d) with the fibres of step e). (a) providing cellulose fibres; (b) providing at least one filler and/or pigment; (c) combining the cellulose fibres of step a) and the at least one filler and/or pigment of step b); (d) fibrillating the cellulose fibres in an aqueous environment in the presence of the at least one filler and/or pigment until a nano-fibrillar cellulose gel is formed, wherein formation of the gels is verified by monitoring the viscosity of the mixture in dependence of the shearing rate, wherein the viscosity decrease of the mixture upon stepwise increase of the shearing rate is stronger than the corresponding viscosity increase upon subsequent step-wise reduction of the shearing rate over at least part of the shear rate range as shearing approaches zero; (e) providing additional non-fibrillated fibres; (f) combining the gel of step d) with the fibres of step e).
Safety equipment for a train platform, equipped with a rope tension adjustment unit, comprising: a plurality of rope lifters each having a body that is installed at a predetermined position from an entrance to an exit of a platform by which a train passes and having a block vertically moved by a driving unit disposed at a side inside or outside the body; a rope horizontally connecting the blocks; and tension adjustment units disposed between the blocks and sub-blocks, which are disposed inside the blocks and connected by the rope that circulates, to adjust tension of the rope by moving outward the sub-blocks, wherein the tension adjustment unit includes: support shafts each coupled to a first side of the block and inserted in a first side of the sub-block; elastic members each fitted on a second portion of the support shaft to move the sub-block outward; moving members thread-fastened to ends of the second portions of the support shafts to push the elastic members; and guide shafts disposed between the block and the sub-block. a plurality of rope lifters each having a body that is installed at a predetermined position from an entrance to an exit of a platform by which a train passes and having a block vertically moved by a driving unit disposed at a side inside or outside the body; a rope horizontally connecting the blocks; and tension adjustment units disposed between the blocks and sub-blocks, which are disposed inside the blocks and connected by the rope that circulates, to adjust tension of the rope by moving outward the sub-blocks, wherein the tension adjustment unit includes: support shafts each coupled to a first side of the block and inserted in a first side of the sub-block; elastic members each fitted on a second portion of the support shaft to move the sub-block outward; moving members thread-fastened to ends of the second portions of the support shafts to push the elastic members; and guide shafts disposed between the block and the sub-block. support shafts each coupled to a first side of the block and inserted in a first side of the sub-block; elastic members each fitted on a second portion of the support shaft to move the sub-block outward; moving members thread-fastened to ends of the second portions of the support shafts to push the elastic members; and guide shafts disposed between the block and the sub-block.
A method for determining an outlet pressure (p ao), in particular an aortic pressure, prevailing at an outlet of a heart assist system (1; 20) comprising a pump and a cannula connected thereto, wherein the method comprises the following steps: - determining an inlet pressure (p v) which prevails at the inlet of the heart assist system; - determining a pump pressure difference (Δp) between the pump inlet and the pump outlet of the pump of the heart assist system; - estimating a pressure difference between the inlet and the outlet of the heart assist system based on the pump pressure difference (Δp) and an estimated cannula pressure difference (Δp c); - determining the outlet pressure from the inlet pressure and the pressure difference. - determining an inlet pressure (p v) which prevails at the inlet of the heart assist system; - determining a pump pressure difference (Δp) between the pump inlet and the pump outlet of the pump of the heart assist system; - estimating a pressure difference between the inlet and the outlet of the heart assist system based on the pump pressure difference (Δp) and an estimated cannula pressure difference (Δp c); - determining the outlet pressure from the inlet pressure and the pressure difference.
Process to prepare a Fischer-Tropsch synthesis product from a gaseous mixture of hydrocarbons comprising methane, ethane and optional higher carbon number hydrocarbons by performing the following steps (a) pre-reforming the hydrocarbon mixture adiabatically in the presence of a reforming catalyst comprising an oxidic support material and a metal selected from the group consisting of Pt, Ni, Ru, Ir, Pd and Co, to convert ethane, and the optional higher carbon number hydrocarbons to methane, carbon dioxide and hydrogen, (b) heating the gaseous mixture obtained in step (a) to a temperature greater than 650 °C, (c) performing a non-catalyzed partial oxidation by contacting the heated mixture of step (b) with a source of oxygen in a reactor burner yielding a reactor effluent having a temperature of between 1100 and 1500 °C, (d) performing a Fischer-Tropsch synthesis using the hydrogen- and carbon monoxide-containing gas as obtained in step (c) as feedstock and (e) wherein the synthesis product obtained in step (d) is separated into a relatively light stream and a relatively heavy stream, wherein the relatively heavy stream comprises the Fischer-Tropsch synthesis product and the relatively light stream comprises unconverted synthesis gas, inerts, carbon dioxide and C 1 -C 3 hydrocarbons and wherein a first part of the light stream is recycled to step (a) to be subjected to pre-reforming and wherein a second part of the light stream is recycled to the burner of step (c) to be subjected to partial oxidation and wherein the temperature in step (a) is controlled by the adjusting the amount of light stream that is recycled to step (a). (a) pre-reforming the hydrocarbon mixture adiabatically in the presence of a reforming catalyst comprising an oxidic support material and a metal selected from the group consisting of Pt, Ni, Ru, Ir, Pd and Co, to convert ethane, and the optional higher carbon number hydrocarbons to methane, carbon dioxide and hydrogen, (b) heating the gaseous mixture obtained in step (a) to a temperature greater than 650 °C, (c) performing a non-catalyzed partial oxidation by contacting the heated mixture of step (b) with a source of oxygen in a reactor burner yielding a reactor effluent having a temperature of between 1100 and 1500 °C, (d) performing a Fischer-Tropsch synthesis using the hydrogen- and carbon monoxide-containing gas as obtained in step (c) as feedstock and (e) wherein the synthesis product obtained in step (d) is separated into a relatively light stream and a relatively heavy stream, wherein the relatively heavy stream comprises the Fischer-Tropsch synthesis product and the relatively light stream comprises unconverted synthesis gas, inerts, carbon dioxide and C 1 -C 3 hydrocarbons and wherein a first part of the light stream is recycled to step (a) to be subjected to pre-reforming and wherein a second part of the light stream is recycled to the burner of step (c) to be subjected to partial oxidation and wherein the temperature in step (a) is controlled by the adjusting the amount of light stream that is recycled to step (a).