mhurhangee/ep-ind-claims huggingface dataset:
A water pump comprising: a rotating shaft supported by a body via a bearing; an impeller that is disposed at one end of the rotating shaft; and a seal member that is disposed between the impeller and the bearing; wherein a drain passage formed in the body communicates with a space between the bearing and the seal member; a reservoir is formed downstream from the drain passage; a drain hole is formed at an upper position of a wall portion that forms the reservoir; a water-absorbing planar member is positioned in the reservoir; characterized in that the planar member has a shape having a bent portion, has a V-shaped cross section as folded into halves and is oriented in the reservoir such that the bent portion is farthest away from the drain passage. a rotating shaft supported by a body via a bearing; an impeller that is disposed at one end of the rotating shaft; and a seal member that is disposed between the impeller and the bearing; wherein a drain passage formed in the body communicates with a space between the bearing and the seal member; a reservoir is formed downstream from the drain passage; a drain hole is formed at an upper position of a wall portion that forms the reservoir; a water-absorbing planar member is positioned in the reservoir; characterized in that the planar member has a shape having a bent portion, has a V-shaped cross section as folded into halves and is oriented in the reservoir such that the bent portion is farthest away from the drain passage.
A dispersion comprising a continuous phase and a phase which is solid at 20°C and dispersed in the continuous phase, wherein the continuous phase comprises at least one compound having at least two Zerewitinoff-active hydrogen atoms, and the solid phase comprises at least one filler, wherein the filler is a hybrid material which in each case comprises at least one organic polymer and at least one inorganic particle, and wherein the at least one inorganic particle has an average maximum diameter of at most 5 μm for primary particles, wherein at least one and preferably all of the dimensions of the inorganic particle is/are in the range of 1-100 nm.
A pneumatic tire having a tread, wherein the tread is composed of a rubber composition including a polymer composite, obtained by mixing a resinous organic compound having a weight average molecular weight of 250 or more, a high molecular weight polymer and a low molecular weight polymer, the polymer being synthesized by polymerizing a conjugated diene monomer that is a conjugated diene-containing monomer, wherein the high molecular weight polymer has a weight average molecular weight of at least 50,000 and the low molecular weight polymer has a weight average molecular weight of 3,000 or more and less than 50,000.
A method for determining the weight of a vehicle while it is travelling on a section of road by means of at least one weigh-in-motion sensor, wherein when the vehicle travels along this section of road both the wheel loads (F i (t)) of all the individual wheels or twin wheels (i), and the speed (v i (t)) of the vehicle during the entire passing are acquired as time functions, and during evaluation of the data for determining the weight the speeds (v i (t)) and their change over time are used as weighting of the simultaneously determined wheel loads (F i (t)), whereas in the direction of travel the weigh-in-motion sensor is narrower than the length of the footprint of a vehicle wheel.
A method for manufacturing a toric contact lens, the method comprising the steps of: a. Injection molding to form an anterior mold section and a posterior mold section, wherein the posterior mold section or the anterior mold section has a toric portion and the other mold section has a prism ballast, wherein each mold section (52, 76) has a tab (56, 74) or other locating features for facilitating a determination of the orientation of the mold section (52, 76), b. measuring a cylinder axis angle error of the mold section (52, 76) having the toric portion by an interferometer apparatus, wherein the cylinder axis angle error is defined as a difference of a measured cylinder axis angle by the interferometer apparatus and a reference cylinder axis angle defined by the tab position or other locating features, c. rotating one of the mold sections (52, 76) by an amount of a target axis angle subtracting the cylinder axis angle error, while the other mold section (76, 52) is not rotated, d. introducing a lens forming material into the lens shaped cavity after step b of rotating one of the mold sections (52, 76), e. assembling the anterior mold section and the posterior mold section to form a lens shaped cavity therebetween, f. curing the lens forming material in the lens shaped cavity to form the toric lens. a. Injection molding to form an anterior mold section and a posterior mold section, wherein the posterior mold section or the anterior mold section has a toric portion and the other mold section has a prism ballast, wherein each mold section (52, 76) has a tab (56, 74) or other locating features for facilitating a determination of the orientation of the mold section (52, 76), b. measuring a cylinder axis angle error of the mold section (52, 76) having the toric portion by an interferometer apparatus, wherein the cylinder axis angle error is defined as a difference of a measured cylinder axis angle by the interferometer apparatus and a reference cylinder axis angle defined by the tab position or other locating features, c. rotating one of the mold sections (52, 76) by an amount of a target axis angle subtracting the cylinder axis angle error, while the other mold section (76, 52) is not rotated, d. introducing a lens forming material into the lens shaped cavity after step b of rotating one of the mold sections (52, 76), e. assembling the anterior mold section and the posterior mold section to form a lens shaped cavity therebetween, f. curing the lens forming material in the lens shaped cavity to form the toric lens.
A method of forming a three-dimensional model by depositing multiple layers (S1-S3) of a sheet material upon each other and shaping the layers, comprising for each layer (S1-S3): a) if it is the first layer of the sheet material, depositing it on a working surface while otherwise depositing the layer (S2-S3) of sheet material on the preceding layer (S1-S2), b) discharging a sheet material solvent solution, using a water droplets discharge head, along a contour line (L1-L3) of the three-dimensional model onto said each layer (S1-S3), thereby rendering the sheet material of the respective layer (S1-S3) severable or separable along the contour line (L1-L3) and defining an unnecessary part of the sheet material of the respective layer outside the contour line (L1-L3), c) repeating steps a) and b) until all of said multiple layers have been deposited; wherein the repeating of steps a) and b) result in the formation of a sheet material deposit having each of the sheet material layers bonded to and rendered in unison with the sheet material of the layer above and below, and d) removing at once the unnecessary parts of the sheet material after all layers have been deposited. a) if it is the first layer of the sheet material, depositing it on a working surface while otherwise depositing the layer (S2-S3) of sheet material on the preceding layer (S1-S2), b) discharging a sheet material solvent solution, using a water droplets discharge head, along a contour line (L1-L3) of the three-dimensional model onto said each layer (S1-S3), thereby rendering the sheet material of the respective layer (S1-S3) severable or separable along the contour line (L1-L3) and defining an unnecessary part of the sheet material of the respective layer outside the contour line (L1-L3), c) repeating steps a) and b) until all of said multiple layers have been deposited; wherein the repeating of steps a) and b) result in the formation of a sheet material deposit having each of the sheet material layers bonded to and rendered in unison with the sheet material of the layer above and below, and d) removing at once the unnecessary parts of the sheet material after all layers have been deposited.
A method for measuring the position of a sheet made of paper, cardboard, a polymer or the like in an adjustment plane in the feeder of a printing machine or print finishing machine having at least one optical sensor, wherein the adjustment plane has a strongly reflective surface at least in the region of said at least one sensor, characterized in that it comprises the following steps: a) determining whether the sheet has a mark printed thereon, b) optionally entering a nominal distance between the sheet edge and the mark into the control unit of the sensor and determining the measuring field to be monitored by the sensor using the control unit, c) monitoring the measuring field by the sensor, d) determining the position of the mark or the sheet edge and thereby of the position of the sheet by the sensor. a) determining whether the sheet has a mark printed thereon, b) optionally entering a nominal distance between the sheet edge and the mark into the control unit of the sensor and determining the measuring field to be monitored by the sensor using the control unit, c) monitoring the measuring field by the sensor, d) determining the position of the mark or the sheet edge and thereby of the position of the sheet by the sensor.
A RXR agonist and a thyroid hormone for use in treating a nervous system disorder, wherein the RXR agonist is 3,7-dimethyl-6,7 -methano,7-[1,1,4,4-tetramethyl-1,2,3,4-tetrahydronaphth-7-yl]2,4 heptadienoic acid, and has the structure of formula III: wherein the combination of RXR agonist and thyroid hormone causes a greater improvement in the nervous system disorder than the selective RXR agonist or thyroid hormone alone, and wherein the nervous system disorder is a demyelination-related disorder or an inflammatory demyelinating disease, or the nervous system disorder is associated with inflammation. wherein the combination of RXR agonist and thyroid hormone causes a greater improvement in the nervous system disorder than the selective RXR agonist or thyroid hormone alone, and wherein the nervous system disorder is a demyelination-related disorder or an inflammatory demyelinating disease, or the nervous system disorder is associated with inflammation.
A refrigeration appliance having an interior refrigeration cabin enclosed by a heat-insulating housing, a door opening and closing a front side of the refrigeration cabin and at least one extractable storage container for storing food items in a refrigerated manner, said extractable storage container communicating with railing devices at lateral sides and said railing devices being fixedly secured on receiving devices in lateral walls of the refrigeration cabin, with the railing device comprising a peripheral frame flange with a flange skirt portion, the flange skirt portion pressing against lateral wall portions of the refrigeration cabin surrounding the receiving device, with an inward skirt portion of the peripheral frame flange is fitted in a receiving device channel, characterized in that said railing device comprises a plurality of fixation rods having a fixation rod engagement end establishing a snap-fit connection with the receiving device, wherein fixation rods along a first longitudinal side of the peripheral frame flange are integrally formed with a frame edge portion of the railing device at two sides, and wherein fixation rods along a second longitudinal side of the peripheral frame flange are spaced apart from the inward skirt portion by lateral fixation rod recesses.
An article comprising: a plurality of fibers having a conformed coating thereon, the conformed coating including a compound of aluminum (Al), boron and nitrogen including Al-N bonds and B-N bonds; a matrix in which the plurality of fibers is disposed; wherein the compound includes an atom of nitrogen covalently bonded to atoms of boron and aluminum; and wherein the compound has a composition B x Al (1-x) N, where x is 0.001 to 0.999. a plurality of fibers having a conformed coating thereon, the conformed coating including a compound of aluminum (Al), boron and nitrogen including Al-N bonds and B-N bonds; a matrix in which the plurality of fibers is disposed; wherein the compound includes an atom of nitrogen covalently bonded to atoms of boron and aluminum; and wherein the compound has a composition B x Al (1-x) N, where x is 0.001 to 0.999.
A method for creating a fan cowl with a hollow hat stiffener (14, 16, 18) comprising pressing a resin film between a non-crimp fabric and a release poly-film to tack the resin film to the non-crimp fabric and the release poly-film and to create a resin-fabric sheet comprising at least a resin film layer and an non-crimp fabric layer; cutting the resin-fabric sheet to a pre-determined shape to create at least one of a first resin-fabric preform, a second resin-fabric preform, and a third resin-fabric preform; draping at least the first resin-fabric preform over a tool to create an outer layer of the fan cowl; setting a mandrel over the outer layer; and draping the second resin-fabric preform over at least a portion of the mandrel and at least a portion of the first resin-fabric preform to form the hollow hat stiffener having a geometry similar to a shape of the mandrel. pressing a resin film between a non-crimp fabric and a release poly-film to tack the resin film to the non-crimp fabric and the release poly-film and to create a resin-fabric sheet comprising at least a resin film layer and an non-crimp fabric layer; cutting the resin-fabric sheet to a pre-determined shape to create at least one of a first resin-fabric preform, a second resin-fabric preform, and a third resin-fabric preform; draping at least the first resin-fabric preform over a tool to create an outer layer of the fan cowl; setting a mandrel over the outer layer; and draping the second resin-fabric preform over at least a portion of the mandrel and at least a portion of the first resin-fabric preform to form the hollow hat stiffener having a geometry similar to a shape of the mandrel.
A device for continuously detecting and adjusting the printing parameters in a flexographic printing machine, the latter comprising a set of mutually tangent and counter-rotating rollers (2, 4, 5) for transferring an ink film to a print medium, said device comprising: - means for detecting on said print medium the values of printing parameters such as at least the print density and colorimetric parameters; - control means for receiving said values detected by said detection means and comparing said detected values with predefined values of said printing parameters; characterised in that the device comprises at least one infrared radiation emission means, comprising an infrared lamp, configured to emit infrared radiation onto said ink film over the entire width of said ink film so as to favour its transmission onto said print medium wherein the control means are configured to activate said infrared radiation emission means and to manage the intensity of said infrared radiation emission means in the case where said values detected differ from said predefined values, and wherein said control means comprise a PID controller, i.e. a proportional-integral-derivative controller. - means for detecting on said print medium the values of printing parameters such as at least the print density and colorimetric parameters; - control means for receiving said values detected by said detection means and comparing said detected values with predefined values of said printing parameters; characterised in that the device comprises at least one infrared radiation emission means, comprising an infrared lamp, configured to emit infrared radiation onto said ink film over the entire width of said ink film so as to favour its transmission onto said print medium wherein the control means are configured to activate said infrared radiation emission means and to manage the intensity of said infrared radiation emission means in the case where said values detected differ from said predefined values, and wherein said control means comprise a PID controller, i.e. a proportional-integral-derivative controller.
A dipole alignment device comprising: an electric field forming unit including a stage and probe units, configured to form an electric field on the stage; an inkjet printing apparatus including at least one inkjet head, configured to spray ink including dipoles and a solvent having the dipoles dispersed therein onto the stage; and a transportation unit including a first moving part, configured to move the electric field forming unit in at least one direction; characterised by a light irradiation apparatus including a light irradiation unit, configured to apply light to the ink sprayed onto the stage so as to increase the alignment reactivity of the dipoles with respect to the electric field. an electric field forming unit including a stage and probe units, configured to form an electric field on the stage; an inkjet printing apparatus including at least one inkjet head, configured to spray ink including dipoles and a solvent having the dipoles dispersed therein onto the stage; and a transportation unit including a first moving part, configured to move the electric field forming unit in at least one direction;
A composition comprising an ethylene-based polymer which comprises the following properties: a) Molecular Weight Distribution (MWD(conv)) from 3.0 to 7.0 as measured according to conventional Gel Permeation Chromatography; b) an infra-red Area Detector Fraction (ADF IR) from 0.230 to 0.260 for molecular weight ≤ 15,000 g/mol as measured according to GPC using an infra-red detector; c) a melt index (I 2) from 4.0 to 6.5 g/10 min as measured in accordance with ASTM D 1238-10, Condition 190°C/2.16 kg, Procedure B. a) Molecular Weight Distribution (MWD(conv)) from 3.0 to 7.0 as measured according to conventional Gel Permeation Chromatography; b) an infra-red Area Detector Fraction (ADF IR) from 0.230 to 0.260 for molecular weight ≤ 15,000 g/mol as measured according to GPC using an infra-red detector; c) a melt index (I 2) from 4.0 to 6.5 g/10 min as measured in accordance with ASTM D 1238-10, Condition 190°C/2.16 kg, Procedure B.
A calibration unit (24; 24') configured for calibrating a rotary printing press having a central impression cylinder and a number of colour decks (12a - 12h) disposed around the periphery of the central impression cylinder, each colour deck comprising a rotatable printing cylinder (14; 14') which carries a position mark and is adapted to be set against the periphery of the central impression cylinder, the arrangement of the colour decks being symmetric with respect to at least one axis of symmetry (V, H), the calibration unit (24; 24') having a number of sensor arms (30a-30h) each carrying a sensor for detecting the position mark of one of the printing cylinders, the calibration unit being adapted to be mounted on a frame of the printing press such that the sensor arms project radially from the axis of rotation of the central impression cylinder and are pivotable about that axis independently of the central impression cylinder, characterized in that at least two of the sensor arms (30a-30h; 30b, 30c) are interconnected by a drive mechanism (34; 36) configured for controlling a symmetric pivotal movement of the sensor arms (30d, 30e; 30b, 30c) with respect to a reference axis which, when the unit is mounted to the frame is aligned with said axis of symmetry (V; H).
Crusher for comminuting material, having a crushing space with a feeding region, into which material to be comminuted is fed, and a crushing gap for crushing the material, wherein the crushing space tapers from the feeding region towards the crushing gap, wherein the crusher has a stationary crushing element and a movable crushing element, which delimit the crushing space, wherein the stationary crushing element has a plurality of wear protection elements, each of which is formed from a metal matrix composite material comprising a metal matrix material and from a wear protection insert composed of a hard metal and/or ceramic, characterized in that the wear protection insert has a porous structure and is cast in at least partially in the wear protection element, with the result that the metal matrix material is infiltrated at least partially in the wear protection insert.
A traverse unit configured to traverse yarns in a traverse direction, the traverse unit comprising: traverse guides provided for the yarns respectively, and configured to reciprocate in the traverse direction while holding the yarns; two or more drivers each including a movable portion to which corresponding one or more of the traverse guides are attached, the movable portion being configured to reciprocate in the traverse direction; and a controller configured to control operation of the drivers, wherein: the controller is configured to control the plurality of drivers so that at a same time when the movable portion or movable portions of one or some of the plurality of drivers turn around to move in one of opposite directions, the movable portion of at least one driver of a remainder of the plurality of drivers turns around to move in a remaining one of the opposite directions, characterized in that: the plurality of drivers are aligned in a line in the traverse direction, and each of the drivers is a linear motor, and the movable portion is a slider of the linear motor. traverse guides provided for the yarns respectively, and configured to reciprocate in the traverse direction while holding the yarns; two or more drivers each including a movable portion to which corresponding one or more of the traverse guides are attached, the movable portion being configured to reciprocate in the traverse direction; and a controller configured to control operation of the drivers, wherein: the controller is configured to control the plurality of drivers so that at a same time when the movable portion or movable portions of one or some of the plurality of drivers turn around to move in one of opposite directions, the movable portion of at least one driver of a remainder of the plurality of drivers turns around to move in a remaining one of the opposite directions, characterized in that: the plurality of drivers are aligned in a line in the traverse direction, and each of the drivers is a linear motor, and the movable portion is a slider of the linear motor. the plurality of drivers are aligned in a line in the traverse direction, and each of the drivers is a linear motor, and the movable portion is a slider of the linear motor.