mhurhangee/ep-ind-claims huggingface dataset:
Polyethylene resin foamed particles, obtained by foaming polyethylene resin particles in which a linear polyethylene resin is a base resin, wherein a storage elastic modulus is 900 Pa or more and 5000 Pa or less at an angular frequency of 1 rad/second and a storage elastic modulus is 100000 Pa or less at an angular frequency of 100 rad/second in a dynamic viscoelasticity measurement of the polyethylene resin particles at 190°C, as further specified in the description; and a DSC curve for the polyethylene resin foamed particles obtained by a differential scanning calorimetry at a temperature rising speed of 10°C/minute within a range of 20°C to 220°C has two melting peaks of a melting peak on a low temperature side and a melting peak on a high temperature side.
Refrigerating appliance with a housing, in which an evaporator area and at least two cooling areas (3, 5) are divided off from each other and of which a wall has a rigid inner skin, a rigid outer skin and an intermediate layer made of expanded insulating material, wherein a cold air supply channel runs in the wall from the evaporator area past the first cooling area to the second cooling area, wherein a shaped part made from an insulating material extends between the cold air supply channel and the inner skin of the wall and wherein the cold air supply channel is separated from the layer by a partition wall, wherein a front wall is embodied as a hollow profile with at least one cavity through which the cold air supply channel runs, characterised in that the front wall of the cavity facing towards the inner skin is supported on the shaped part, that the shaped part has a U-shaped cross-section with a floor lying against the inner skin and two legs extending from the floor up to the partition wall, that a cold air distributor channel communicating via through openings in the inner skin with the first cooling area runs separated from the cold air supply channel between the partition wall and the inner skin, and that one of the legs of the shaped part insulates the cold air distributor channel from the cold air supply channel.
A machining device, specifically for machining workpieces made of wood, wood-based materials, plastic or the like, including a workpiece table, by means of which workpieces can be held and including at least one tool for machining the workpiece held in the workpiece table, and a workpiece feed including transport elements, by means of which workpieces can be fed to the workpiece table, the workpiece feed having a workpiece feed table upstream of the transport elements in the flow of materials, on which workpieces can be fed to the transport elements, characterized in that a capping device enabling customization of the feedable workpiece is disposed at the workpiece feed table.
A formed catalytic material comprising: (a) a perovskite; and (b) a catalyst having the following formula: Ln1 a Ln2 b O x y wherein: Ln1 and Ln2 are each independently different lanthanide elements; O is oxygen; OH is hydroxy; a and b are a number greater than 0; and x and y are each independently numbers of 0 or greater, provided that at least one of x or y is greater than 0 (a) a perovskite; and (b) a catalyst having the following formula: Ln1 a Ln2 b O x y wherein: Ln1 and Ln2 are each independently different lanthanide elements; O is oxygen; OH is hydroxy; a and b are a number greater than 0; and x and y are each independently numbers of 0 or greater, provided that at least one of x or y is greater than 0 Ln1 and Ln2 are each independently different lanthanide elements; O is oxygen; OH is hydroxy; a and b are a number greater than 0; and x and y are each independently numbers of 0 or greater, provided that at least one of x or y is greater than 0
A roll of toilet paper comprising a length of tissue paper having spaced-apart lines of perforations that define individual sheets, said roll having first and second sidewalls and a rotational axis, characterised in that each sidewall forms an angle (Ø 1, Ø 2) with the rotational axis, wherein the angle (Ø 1) from the rotational axis to the first sidewall is an obtuse angle from about 95 to about 135 degrees and the angle (Ø 2) from the rotational axis to the second sidewall is an acute angle from about 45 to about 85 degrees.
A tracked ATV, comprising: a frame; a body supported on the frame; a track (12, 14) coupled to the frame; a power source supported by the frame and drivingly coupled to the track; and a suspension system coupled to the frame and supporting the track, the suspension system comprising: at least one shock absorber operably coupled to the frame and having a first end and a second end, and both the first and second ends of the shock absorber are positioned within the track; a plurality of control arms, each of the control arms being operably coupled to a portion of the body positioned lower than an upper portion of the track and higher than a lower portion of the track; and a front drive wheel operably coupled to a forward portion of the frame and the track (12, 14); characterized by a carriage positioned along the lower portion of the track; and a plurality of carrier rollers, and each carrier roller is rotatably coupled to the carriage, at least some of the carrier rollers moving independently of the other carrier rollers. a frame; a body supported on the frame; a track (12, 14) coupled to the frame; a power source supported by the frame and drivingly coupled to the track; and a suspension system coupled to the frame and supporting the track, the suspension system comprising: at least one shock absorber operably coupled to the frame and having a first end and a second end, and both the first and second ends of the shock absorber are positioned within the track; a plurality of control arms, each of the control arms being operably coupled to a portion of the body positioned lower than an upper portion of the track and higher than a lower portion of the track; and a front drive wheel operably coupled to a forward portion of the frame and the track (12, 14); characterized by a carriage positioned along the lower portion of the track; and a plurality of carrier rollers, and each carrier roller is rotatably coupled to the carriage, at least some of the carrier rollers moving independently of the other carrier rollers. at least one shock absorber operably coupled to the frame and having a first end and a second end, and both the first and second ends of the shock absorber are positioned within the track; a plurality of control arms, each of the control arms being operably coupled to a portion of the body positioned lower than an upper portion of the track and higher than a lower portion of the track; and a front drive wheel operably coupled to a forward portion of the frame and the track (12, 14); characterized by a carriage positioned along the lower portion of the track; and a plurality of carrier rollers, and each carrier roller is rotatably coupled to the carriage, at least some of the carrier rollers moving independently of the other carrier rollers.
An apparatus for producing thin glass ribbons with a thickness of equal to or less than 3000 μm from a molten glass, comprising a drawing tank, wherein said drawing tank has a lower elongated nozzle opening through which the molten glass can exit downwards, and comprises direct heating means and indirect heating means, the direct heating means comprising at least one heating circuit (206, 207, 208, 209) that is operable to heat at least one area of the drawing tank in the form of at least one first heating zone (34, 35, 36, 37), wherein the direct heating means comprise a respective power source (201, 202, 203, 204) for each heating circuit (206, 207, 208, 209), wherein each heating circuit (206, 207, 208, 209) has connections (26, 27) through which each heating circuit (206, 207, 208, 209) is connected to a wall of the drawing tank so that the current from each power source (201, 202, 203, 204) flows through at least a portion of the wall and heats the wall; and wherein each heating circuit (206, 207, 208, 209) of the direct heating means comprises current-carrying portions of the wall of the drawing tank; and wherein the indirect heating means comprise heating elements (41, 42, 43, 44, 45, 46) for at least one second heating zone (61, 62, 63, 64, 65, 66); and wherein the direct heating means comprise a plurality of heating circuits (206, 207, 208, 209) to provide a plurality of first heating zones (34, 35, 36, 37); characterised in that a plurality of temperature measurement points (18, 19) are welded to the drawing tank.
A machine tool comprising: a main spindle movably supported in an axial direction, and two gang tool posts (27, 56) disposed opposed to each other with an axis of the main spindle therebetween, wherein each of the two gang tool posts (27, 56) is supported movably in X and Y directions that are perpendicular to the axial direction of the main spindle, and each of the two gang tool posts (27, 56) is provided with a gang of tools (19, 47) that are arranged in the Y direction parallel to each other, wherein the X direction, the Y direction, and a Z direction are perpendicular to each other, wherein one of the two gang tool posts is movably disposed in the Z direction that is a same direction as the axial direction of the main spindle, and wherein any one of the two gang tool posts is integrally provided with a turning tool base that turnably supports the gang of tools about a B-axis that extends along the Y direction, wherein the turning tool base is provided on a side of one of the gang tool posts, and an end surface tool base is provided on a side of the other of the gang tool posts, wherein the turning tool base is disposed on a side of the gang tool post fixed in the Z direction. a main spindle movably supported in an axial direction, and two gang tool posts (27, 56) disposed opposed to each other with an axis of the main spindle therebetween, wherein each of the two gang tool posts (27, 56) is supported movably in X and Y directions that are perpendicular to the axial direction of the main spindle, and each of the two gang tool posts (27, 56) is provided with a gang of tools (19, 47) that are arranged in the Y direction parallel to each other, wherein the X direction, the Y direction, and a Z direction are perpendicular to each other, wherein one of the two gang tool posts is movably disposed in the Z direction that is a same direction as the axial direction of the main spindle, and wherein any one of the two gang tool posts is integrally provided with a turning tool base that turnably supports the gang of tools about a B-axis that extends along the Y direction, wherein the turning tool base is provided on a side of one of the gang tool posts, and an end surface tool base is provided on a side of the other of the gang tool posts, wherein the turning tool base is disposed on a side of the gang tool post fixed in the Z direction.
A thin film centrifuge device for realizing a multiplex assay with a single sample, comprising: - a sample inlet to inject a sample; - a sample chamber to store the sample injected into the sample inlet; - a specimen chamber to store a specimen obtained from the sample during centrifugation; - a remnant chamber to store a remnant rather than specimens produced during centrifugation; - a bottle neck channel to connect the specimen chamber to the remnant chamber; - one or more assay sites in which a capture probe to be bound to the specimen is immobilized and/or a reagent for biochemical reactions with the specimen is stored; and - a rotatable hydrophobic body in which the sample inlet, the sample chamber, the specimen chamber, the remnant chamber, the bottle neck channel and the assay site are integrated; and characterized by - a liquid valve coated with a super-hydrophilic material, to provide a hydrophilic fluid passage to retain the specimen in the specimen chamber during rotation of the body and move the specimen to the specimen chamber upon non-rotation thereof; - a buffer chamber to temporarily store the specimen in the specimen chamber by alternately repeating a hydrophilic fluid flow process through the liquid valve and a fluid flow process by centrifugal force; - a thin film valve (155a, 155b, 155c) to supply the specimen present in the buffer chamber to the assay sites; and - a hydrophilic channel interposed between the buffer chamber and the assay site, to hydrophilic-flow the specimen from the buffer chamber to the assay site, when the thin film valve (155a, 155b, 155c) opens. - a sample inlet to inject a sample; - a sample chamber to store the sample injected into the sample inlet; - a specimen chamber to store a specimen obtained from the sample during centrifugation; - a remnant chamber to store a remnant rather than specimens produced during centrifugation; - a bottle neck channel to connect the specimen chamber to the remnant chamber; - one or more assay sites in which a capture probe to be bound to the specimen is immobilized and/or a reagent for biochemical reactions with the specimen is stored; and - a rotatable hydrophobic body in which the sample inlet, the sample chamber, the specimen chamber, the remnant chamber, the bottle neck channel and the assay site are integrated; and characterized by - a liquid valve coated with a super-hydrophilic material, to provide a hydrophilic fluid passage to retain the specimen in the specimen chamber during rotation of the body and move the specimen to the specimen chamber upon non-rotation thereof; - a buffer chamber to temporarily store the specimen in the specimen chamber by alternately repeating a hydrophilic fluid flow process through the liquid valve and a fluid flow process by centrifugal force; - a thin film valve (155a, 155b, 155c) to supply the specimen present in the buffer chamber to the assay sites; and - a hydrophilic channel interposed between the buffer chamber and the assay site, to hydrophilic-flow the specimen from the buffer chamber to the assay site, when the thin film valve (155a, 155b, 155c) opens.
A computer implemented method of auditing a compiled application, said method being performed at a device having downloaded said compiled application, said method comprising: analyzing, at said device, said compiled application to identify a method that may be called during execution of said compiled application; selecting, at said device, a stored reference, wherein said stored reference relates to a predetermined method and said predetermined method is associated with an activity; determining (208, 210), at said device, that said predetermined method matches said method that may be called during execution of said compiled application; and responsive to said determining that said predetermined method matches said method that may be called during execution of said compiled application, indicating, via a user interface, that said compiled application may attempt said activity; indicating, via said user interface, a current permission setting associated with said activity; and allowing changing of the current permission setting via the user interface. analyzing, at said device, said compiled application to identify a method that may be called during execution of said compiled application; selecting, at said device, a stored reference, wherein said stored reference relates to a predetermined method and said predetermined method is associated with an activity; determining (208, 210), at said device, that said predetermined method matches said method that may be called during execution of said compiled application; and responsive to said determining that said predetermined method matches said method that may be called during execution of said compiled application, indicating, via a user interface, that said compiled application may attempt said activity; indicating, via said user interface, a current permission setting associated with said activity; and allowing changing of the current permission setting via the user interface. indicating, via a user interface, that said compiled application may attempt said activity; indicating, via said user interface, a current permission setting associated with said activity; and allowing changing of the current permission setting via the user interface.
A method for notifying at least a first condition (C; C-1) in an industrial system, the first condition being abnormal behavior in the industrial system, by means of a monitoring system, the method comprising: displaying the first condition (C; C-1) in a first portion of a display screen of the monitoring system, displaying a second condition of the industrial system in a second portion of the display screen, determining (S2-1) a weight parameter (W-1, W-2) for each of the first and the second condition (C-1, C-2), determining by means of eye-tracking an area where a user focuses on the display screen, if the area where the user focuses differs from the first portion, alerting the user of the first condition (C; C-1) in order to allow the user to be notified of the first condition (C; C-1) in the industrial system, wherein the alerting comprises magnifying at least one object displayed in the first portion of the display screen, if the area where the user focuses differs from the second portion, magnifying at least one object displayed in the second portion of the display screen, wherein the step of magnifying is first performed for those objects which are associated with that condition of the first and second condition (C-1, C-2) which has a weight parameter (W-1, W-2) corresponding to a more severe condition in the industrial system and wherein the step of magnifying any objects which are associated with any other condition than the most severe condition is not carried out until an action to handle the most severe condition has been taken by the user. displaying the first condition (C; C-1) in a first portion of a display screen of the monitoring system, displaying a second condition of the industrial system in a second portion of the display screen, determining (S2-1) a weight parameter (W-1, W-2) for each of the first and the second condition (C-1, C-2), determining by means of eye-tracking an area where a user focuses on the display screen, if the area where the user focuses differs from the first portion, alerting the user of the first condition (C; C-1) in order to allow the user to be notified of the first condition (C; C-1) in the industrial system, wherein the alerting comprises magnifying at least one object displayed in the first portion of the display screen, if the area where the user focuses differs from the second portion, magnifying at least one object displayed in the second portion of the display screen, wherein the step of magnifying is first performed for those objects which are associated with that condition of the first and second condition (C-1, C-2) which has a weight parameter (W-1, W-2) corresponding to a more severe condition in the industrial system and wherein the step of magnifying any objects which are associated with any other condition than the most severe condition is not carried out until an action to handle the most severe condition has been taken by the user.
Component assembly, with a region to be protected on at least one component (1, 2), the region to be protected being surrounded at least in certain regions by an enclosure, with a first medium, arranged within the enclosure, and with a second medium, surrounding the enclosure, characterized in that the first medium is a vulcanizing medium or a heat-curing and/or temperature-resistance adhesive.
Method for producing a module as a circuit carrier for a circuit structure comprising the following method steps: joining a metal-ceramic substrate to a metal body by means of a metal alloy, where the metal-ceramic substrate has metallization on at least one side for applying the circuit structure, the metallisation having a thickness less than 1.000,0 μm, and the side of the metal-ceramic substrate facing the metal body being smaller than the side of the metal body facing the metal-ceramic substrate, and the metal-ceramic substrate is joined to the metal body such that the metal-ceramic substrate includes a metallisation on the side facing away from the metal body, characterized in that a) a metal body having a thickness of less than 1 mm is used, b) a metal alloy which b-1) contains aluminium and b-2) has a liquidus temperature of greater than 450°C is arranged between the metal-ceramic substrate and the metal body, c) the arrangement from step b) is heated to a temperature of greater than 450°C. joining a metal-ceramic substrate to a metal body by means of a metal alloy, where the metal-ceramic substrate has metallization on at least one side for applying the circuit structure, the metallisation having a thickness less than 1.000,0 μm, and the side of the metal-ceramic substrate facing the metal body being smaller than the side of the metal body facing the metal-ceramic substrate, and the metal-ceramic substrate is joined to the metal body such that the metal-ceramic substrate includes a metallisation on the side facing away from the metal body, characterized in that a) a metal body having a thickness of less than 1 mm is used, b) a metal alloy which b-1) contains aluminium and b-2) has a liquidus temperature of greater than 450°C is arranged between the metal-ceramic substrate and the metal body, c) the arrangement from step b) is heated to a temperature of greater than 450°C. a) a metal body having a thickness of less than 1 mm is used, b) a metal alloy which b-1) contains aluminium and b-2) has a liquidus temperature of greater than 450°C is arranged between the metal-ceramic substrate and the metal body, b-1) contains aluminium and b-2) has a liquidus temperature of greater than 450°C is arranged between the metal-ceramic substrate and the metal body, c) the arrangement from step b) is heated to a temperature of greater than 450°C.