mhurhangee/ep-ind-claims huggingface dataset:
A method for assembling disposable diaper pants, each diaper pant comprising a chassis having a first end region and an opposing second end region separated from each other by a central region, and having a longitudinal axis and a lateral axis, the chassis comprising: a topsheet, a backsheet, and an absorbent core disposed between the topsheet and the backsheet, the method comprising the steps of: advancing a first continuous substrate having a first surface and an opposing second surface in a machine direction at a first speed, and defining a width in a cross direction; inkjet printing a first graphic on the first surface of the first continuous substrate while the first continuous substrate is advancing at the first speed, the first graphic comprising a first print resolution; decelerating a portion of the first continuous substrate to a second speed; inkjet printing a second graphic on the portion of the first surface of the first continuous substrate while at the second speed, the second graphic comprising a second print resolution, wherein the second print resolution is equal to or greater than 400% of the first print resolution; accelerating the portion of the first continuous substrate from the second speed to the first speed; advancing a second continuous substrate having a first surface and an opposing second surface in the machine direction, and defining a width in the cross direction; bonding elastic strands in a stretched state between the first surface of the first continuous substrate and the first surface of the second continuous substrate to form a continuous elastic laminate; cutting the elastic laminate along the machine direction to form a first continuous elastic laminate and a second continuous elastic laminate, wherein the first continuous elastic laminate includes the first graphic and the second graphic; separating the first continuous elastic laminate in the cross direction from the second continuous elastic laminate; depositing a plurality of chassis spaced apart from each other along the machine direction onto the first continuous elastic laminate and the second continuous elastic laminate; folding each chassis along the lateral axis to position the first continuous elastic laminate into a facing relationship with the second continuous elastic laminate; and cutting the first and second continuous elastic laminates (406, 408) into discrete pieces (106, 108) each having a pitch length, PL, extending along the machine direction, wherein the second graphic extends in the machine direction for 50% or less than the pitch length, PL.
Electronic module, comprising: A plurality of computation units (110a,., 110n) for computing a mathematical operation for a set of parameters, wherein each computation unit is designed to compute the mathematical operation with the set of parameters according to a computation method, and wherein the computation method differs in the case of at least two computation units from the plurality of computation units (110a,., 110n), characterized by: a selection unit, which is designed to select one from the plurality of computation units (110a,...,110n) for the computation of the mathematical operation. A plurality of computation units (110a,., 110n) for computing a mathematical operation for a set of parameters, wherein each computation unit is designed to compute the mathematical operation with the set of parameters according to a computation method, and wherein the computation method differs in the case of at least two computation units from the plurality of computation units (110a,., 110n), characterized by: a selection unit, which is designed to select one from the plurality of computation units (110a,...,110n) for the computation of the mathematical operation.
A helical conveyor for transporting products in downward direction by means of gravity, comprising a frame and a helical track extending around an upright centreline, which helical track is supported by the frame and comprises a bottom for bearing a product, wherein the bottom has an inclination angle in a direction along the helical track, characterized in that at least a portion of the bottom is formed by a transport surface of a drivable conveying system such that the transport surface has a predefined speed in downward direction along the helical track and the inclination angle at an inner bend of the transport surface of the conveying system is larger than 20°.
A protection device for providing protection against the particles generated by an electric arc when a first electrically conductive part and a second electrically conductive part of an electrical connection unit are separated from each other, the first and the second electrically conductive parts each having a contact surface of cylindrical shape and separation of the first and second parts is performed by relative sliding of one of the contact surfaces on the other contact surface, the protection device including a protection element disposed in the proximity of the place at which the first part and the second part separate and disposed facing one of the contact surfaces in order to form a shield against said particles, the protection element being of cylindrical shape and located outside the cylindrical shapes of the first and second parts, characterized in that the device comprises an other protection element of cylindrical shape located inside the cylindrical shapes of the first and the second parts.
A catheter connector that is separable into an A member and a B member that include a through hole (22, 32) into which a catheter is to be inserted; a drug-solution injection section communicating with the through hole (22, 32); and threads (23, 33) engaging each other, a catheter insertion port of the through hole and the drug-solution injection section being provided in different ones, respectively, of the A and B members (2, 3), a packing having a through hole into which the catheter is to be inserted being mounted on either of the A and B members (2, 3), after insertion of a catheter from the catheter insertion port of the through hole (23, 33) into the through hole of the packing, the A and B members (2, 3) being caused to threadably engage each other such that the packing is compressed with the A and B members (2, 3), whereby the catheter is fixed, a syringe or the like being connected to the drug-solution injection section, a drug solution being fed into the catheter, wherein the packing is a cylindrical body having cylindrical projections projecting from the centers of both end faces, respectively, thereof, the projections each having a smaller diameter than the body, and wherein, in compressing the packing with the A and B members (2, 3), when body-pressing surfaces of the A and B members (2, 3) at which the body of the packing is to be pressed come into contact with the body of the packing and the body of the packing starts to be pressed, the projections of the packing are pressed with a delay from the pressing of the body because of gaps provided between the projections of the packing and projection-pressing surfaces at which the projections of the packing are to be pressed.
An information processing apparatus comprising: a photographing information acquisition unit configured to acquire an image at a time of photographing photographed by a camera and a temperature of an illumination light source at the time of photographing, wherein the illumination light source comprises a light emitting diode; and a correction unit configured to correct a brightness of the image at the time of photographing or an exposure time period of the camera on the basis of the temperature of the illumination light source at the time of photographing, the brightness of the image at the time of photographing, and temperature characteristics of the illumination light source, the temperature characteristics having been prepared in advance. a photographing information acquisition unit configured to acquire an image at a time of photographing photographed by a camera and a temperature of an illumination light source at the time of photographing, wherein the illumination light source comprises a light emitting diode; and a correction unit configured to correct a brightness of the image at the time of photographing or an exposure time period of the camera on the basis of the temperature of the illumination light source at the time of photographing, the brightness of the image at the time of photographing, and temperature characteristics of the illumination light source, the temperature characteristics having been prepared in advance.
Household appliance, in particular refrigerator, having a housing for the household appliance, wherein the housing has a body, a door and at least one hinge, which is arranged on the body and the door connects pivotably to the body, wherein the hinge comprises a hinge element with: - a mounting segment fastened to the body of the household appliance, - a support arm projecting from the mounting segment, and - a bearing element disposed on the free end of the support arm, characterised in that two bearing pins (16a, 16b) projecting in opposite directions and forming the bearing element are disposed on the free end of the support arm, wherein the support arm has a curvature in a section perpendicular to the pivot axis, wherein in a section perpendicular to the pivot axis of the hinge the support arm is angled away from the mounting segment at an obtuse angle (β) and describes an arc (γ) of more than 90°, wherein the support arm has a first segment adjacent to the mounting segment and a second segment adjacent to the first segment, wherein the first segment and an end segment adjacent to the second segment cut an acute intermediate angle (γ), wherein the intermediate angle (γ) amounts to between 30° to 50°, wherein the door has a maximum opening angle of more than 130°. - a mounting segment fastened to the body of the household appliance, - a support arm projecting from the mounting segment, and - a bearing element disposed on the free end of the support arm,
A neutralizer for use in an ion engine, comprising: - a halogen gas source; - an electrode tube comprising an inlet opening connected to the halogen gas source for supplying a halogen gas provided by the halogen gas source into the electrode tube, a discharge space for generating a plasma from the halogen gas supplied into the electrode tube, and an outlet opening for discharging the plasma generated in the discharge space and free electrons from the electrode tube; and - an electron emitter arranged in the discharge space of the electrode tube, the electron emitter being at least partially made of tungsten, characterized in that an additional tungsten source formed separate from the electrode tube is arranged in the discharge space of the electrode tube, which is adapted to react with the halogen gas supplied into the electrode tube to form a tungsten halide. - a halogen gas source; - an electrode tube comprising an inlet opening connected to the halogen gas source for supplying a halogen gas provided by the halogen gas source into the electrode tube, a discharge space for generating a plasma from the halogen gas supplied into the electrode tube, and an outlet opening for discharging the plasma generated in the discharge space and free electrons from the electrode tube; and - an electron emitter arranged in the discharge space of the electrode tube, the electron emitter being at least partially made of tungsten,
A drive unit for lateral movement of at least two load-bearing elements (191, 192) of a device for receiving and transporting loads for assembly on a movable or stationary device, having a first drive element and a second drive element, whereby a first load-bearing element can be moved laterally through the first drive element and a second load-bearing element through the second drive element of a first guide profile of the device for mounting and transport of loads, whereby at least two load-bearing elements (191, 192) can be supported by the first guide profile, whereby the two drive elements (121, 131) can be driven by exactly one drive unit, whereby the exactly one drive unit is positioned between the two drive elements (121, 131), whereby the exactly one drive unit has an internal continuous driveshaft, whereby the first end of the driveshaft is non-rotatably connected to the first drive element and the second end of the driveshaft with the second drive element and the axis of the driveshaft and the axes of the drive element (121, 131) are in line, characterized in that the first guide profile has a hollow profile and in the first guide profile a drive element (121, 131) is at least partially integrated inside the first guide profile and additionally the exactly one drive unit is at least partially integrated into the first guide profile.
Device on the wheel of a vehicle for the absorption of sound within a cavity formed between a rim and a tyre fitted on the rim, wherein said cavity contains sound-absorbent material formed by a multitude of flexible filaments and/or fibres, which at one end are formed freely movably in such a way that, at least during rotation of the vehicle wheel, the said filaments and/or fibres align themselves into the cavity of the vehicle wheel as a result of the radial or centrifugal forces respectively acting, characterized in that at the other end the filaments and/or fibres are supported indirectly on a flexible supporting element moving freely within limits in the cavity and/or are accommodated and fixed directly on a largely rigid supporting element, which is fixed to the rim and is formed by a mounted part arranged fixedly on the rim, such as a valve, a tyre pressure sensor or the like.
An active vibration control system (AVCS) for an aircraft having an aircraft structure and at least one gun positioned on the aircraft, the AVCS comprising: at least one control sensor to be positioned on the aircraft; at least one force generator to be positioned on the aircraft; and at least one controller in electronic communication with the at least one control sensor and the at least one force generator, the at least one controller configured for: determining, using the at least one control sensor, a first plurality of force generating commands for controlling vibrations acting on the aircraft structure; sending the first plurality of force generating commands to the at least one force generator, causing the at least one force generator to produce a vibration canceling force; characterised by the at least one controller being configured to determine that the gun is firing; and in response to determining that the gun is firing, determining a second plurality of force generating commands and sending the second plurality of force generating commands to the at least one force generator. at least one control sensor to be positioned on the aircraft; at least one force generator to be positioned on the aircraft; and at least one controller in electronic communication with the at least one control sensor and the at least one force generator, the at least one controller configured for: determining, using the at least one control sensor, a first plurality of force generating commands for controlling vibrations acting on the aircraft structure; sending the first plurality of force generating commands to the at least one force generator, causing the at least one force generator to produce a vibration canceling force; characterised by the at least one controller being configured to determine that the gun is firing; and in response to determining that the gun is firing, determining a second plurality of force generating commands and sending the second plurality of force generating commands to the at least one force generator. determining, using the at least one control sensor, a first plurality of force generating commands for controlling vibrations acting on the aircraft structure; sending the first plurality of force generating commands to the at least one force generator, causing the at least one force generator to produce a vibration canceling force; characterised by the at least one controller being configured to determine that the gun is firing; and in response to determining that the gun is firing, determining a second plurality of force generating commands and sending the second plurality of force generating commands to the at least one force generator.
Electronic control circuit comprising at least one triac (TC1, TC2, TC3), characterized in that a resistor is placed in series with said triac (TC1, TC2, TC3) and low-pass filter forming means are adapted to measure the direct current component of the current passing through said resistor.
Iron comprising a soleplate surmounted by a heating body and a housing comprising a rear surface placed on the inside of a heel on which the iron can rest during inactive phases of ironing, the heating body having a steam distribution circuit comprising a vaporisation chamber connected to a scale recovery cavity formed at the rear of the iron, the scale recovery cavity comprising a descaling hole closed by a removable plug accessible from outside the iron, said plug being arranged on the rear surface of the housing, and characterised in that the scale recovery cavity is arranged in a part of the housing overhanging behind the soleplate when the iron rests on its soleplate.
A system for locating and identifying an object (115,117,118,119) the system comprising: a monocular camera (111, 422) configured to capture a 360-degree image of an unconstrained environment comprising an individual and an object of interest; an infrared depth sensor (120, 424) configured to generate a three-dimensional depth map of the unconstrained environment; a knowledge base; and a processor configured to: generate a saliency map from the 360-degree image and the three-dimensional depth map; determine a direction of attention from the individual; generate a three-dimensional directionality vector (132, 138') representative of the direction of attention; project, on the saliency map, the three-dimensional directionality vector from the individual in the saliency map; detect, on the saliency map, an intersection of the three-dimensional directionality vector with the object of interest in the saliency map; and search the knowledge base for an identity of the object of interest, detected at the intersection of the directionality vector with the object of interest in the saliency map, using captured 360-degree image data relating to the object of interest a monocular camera (111, 422) configured to capture a 360-degree image of an unconstrained environment comprising an individual and an object of interest; an infrared depth sensor (120, 424) configured to generate a three-dimensional depth map of the unconstrained environment; a knowledge base; and a processor configured to: generate a saliency map from the 360-degree image and the three-dimensional depth map; determine a direction of attention from the individual; generate a three-dimensional directionality vector (132, 138') representative of the direction of attention; project, on the saliency map, the three-dimensional directionality vector from the individual in the saliency map; detect, on the saliency map, an intersection of the three-dimensional directionality vector with the object of interest in the saliency map; and search the knowledge base for an identity of the object of interest, detected at the intersection of the directionality vector with the object of interest in the saliency map, using captured 360-degree image data relating to the object of interest generate a saliency map from the 360-degree image and the three-dimensional depth map; determine a direction of attention from the individual; generate a three-dimensional directionality vector (132, 138') representative of the direction of attention; project, on the saliency map, the three-dimensional directionality vector from the individual in the saliency map; detect, on the saliency map, an intersection of the three-dimensional directionality vector with the object of interest in the saliency map; and search the knowledge base for an identity of the object of interest, detected at the intersection of the directionality vector with the object of interest in the saliency map, using captured 360-degree image data relating to the object of interest
Method for producing overlapping weld joints, said method comprising the following steps: (a) providing two components (10, 20) that are to be connected and that in each case comprise at least one base (16, 26); (b) arranging the components (10, 20) in such a manner that the bases (16, 26) are facing one another and the components (10, 20) overlap one another in an overlapping region that extends at least in part over the two bases (16, 26); (c) connecting the components (10, 20) by means of welding in the overlapping region whilst forming at least one weld, wherein non-welded regions (32, 34) are formed along the weld on the edge of the overlapping region, wherein during the step of connecting the components (10, 20) a friction stir welding procedure is used as the welding method, in which a rotating welding tool is pressed onto at least one of the components (10, 20) so as to generate frictional heat; characterised by means of the step: (d) removing the non-welded regions (32, 34) so as to form outer cut surfaces (7, 9) on the components (10, 20) that are arranged at obtuse angles (α, β) with respect to the overlapping region. (a) providing two components (10, 20) that are to be connected and that in each case comprise at least one base (16, 26); (b) arranging the components (10, 20) in such a manner that the bases (16, 26) are facing one another and the components (10, 20) overlap one another in an overlapping region that extends at least in part over the two bases (16, 26); (c) connecting the components (10, 20) by means of welding in the overlapping region whilst forming at least one weld, wherein non-welded regions (32, 34) are formed along the weld on the edge of the overlapping region, wherein during the step of connecting the components (10, 20) a friction stir welding procedure is used as the welding method, in which a rotating welding tool is pressed onto at least one of the components (10, 20) so as to generate frictional heat; characterised by means of the step: (d) removing the non-welded regions (32, 34) so as to form outer cut surfaces (7, 9) on the components (10, 20) that are arranged at obtuse angles (α, β) with respect to the overlapping region.
A pH-dependent controlled release pharmaceutical composition, comprising a core, comprising at least one pharmaceutical active ingredient, with the exception of opioids, wherein the core is coated at least by one coating layer, controlling the release of the pharmaceutical composition, wherein the coating layer comprises a polymer mixture of i) 40 - 95 % by weight, based on dry weight of the polymer mixture, of at least one water insoluble essentially neutral vinyl polymer or copolymer, and ii) 5 - 60 % by weight, based on dry weight of the polymer mixture, of at least one anionic polymer or copolymer, which is insoluble in a buffered medium below pH 4.0 and soluble at least in the range from pH 7.0 to pH 8.0, characterized in that the coating layer further comprises 110 to 250 % by weight of a non-porous inert lubricant, 1 to 35 % by weight of at least one neutral cellulosic compound and 1 to 25 % by weight of at least one emulsifier, each calculated on dry weight of the polymer mixture. i) 40 - 95 % by weight, based on dry weight of the polymer mixture, of at least one water insoluble essentially neutral vinyl polymer or copolymer, and ii) 5 - 60 % by weight, based on dry weight of the polymer mixture, of at least one anionic polymer or copolymer, which is insoluble in a buffered medium below pH 4.0 and soluble at least in the range from pH 7.0 to pH 8.0, characterized in that