mhurhangee/ep-ind-claims huggingface dataset:
Method for treating, in particular cleaning, a vehicle having at least one outer surface (12, 13), comprising a) Adjustment of an angle of a treatment brush (16; 17) relative to the vertical in at least one predetermined angular range parallel and/or perpendicular to the outer surface (12, 13), wherein the angle of the treatment brush (16, 17) is adjusted while providing a pivotability of the treatment brush (16, 17); b) Guiding the treatment brush (16; 17) along the at least one outer surface (12, 13) on a predetermined path during a treatment process, the predetermined path being predetermined by a treatment program defined before the start of the treatment process c) Monitoring the angle of the treatment brush (16; 17) to the vertical parallel and/or perpendicular to the outer surface during step b); and d) Adapting the predetermined path of the treatment brush if a deviation of the monitored angle of the treatment brush from the at least one predetermined angle range is determined in step c) a) Adjustment of an angle of a treatment brush (16; 17) relative to the vertical in at least one predetermined angular range parallel and/or perpendicular to the outer surface (12, 13), wherein the angle of the treatment brush (16, 17) is adjusted while providing a pivotability of the treatment brush (16, 17); b) Guiding the treatment brush (16; 17) along the at least one outer surface (12, 13) on a predetermined path during a treatment process, the predetermined path being predetermined by a treatment program defined before the start of the treatment process c) Monitoring the angle of the treatment brush (16; 17) to the vertical parallel and/or perpendicular to the outer surface during step b); and d) Adapting the predetermined path of the treatment brush if a deviation of the monitored angle of the treatment brush from the at least one predetermined angle range is determined in step c)
A capacitive touch-sensitive device, comprising: a transparent substrate unit; and at least one patterned transparent electrically-conductive film (3, 4) formed on said transparent substrate unit, and having a transparent insulating layer (31, 41), and a plurality of mutually electrically isolated sensor lines (32, 42) that are disposed in said transparent insulating layer (31, 41), each of said sensor lines (32, 42) being made of a plurality of non-transparent nano-conductors (323, 423), characterized in that said non-transparent nano-conductors (323, 423) within each of said sensor lines (32, 42) are arranged along a line direction (X, Y) of said sensor lines (32, 42) into multiple rows, in which said non-transparent nano-conductors (323, 423) contact each other, for assuring electrical conductivity of said sensor lines (32, 42). a transparent substrate unit; and at least one patterned transparent electrically-conductive film (3, 4) formed on said transparent substrate unit, and having a transparent insulating layer (31, 41), and a plurality of mutually electrically isolated sensor lines (32, 42) that are disposed in said transparent insulating layer (31, 41), each of said sensor lines (32, 42) being made of a plurality of non-transparent nano-conductors (323, 423), characterized in that said non-transparent nano-conductors (323, 423) within each of said sensor lines (32, 42) are arranged along a line direction (X, Y) of said sensor lines (32, 42) into multiple rows, in which said non-transparent nano-conductors (323, 423) contact each other, for assuring electrical conductivity of said sensor lines (32, 42).
Light redirection device for redirecting and concentrating direct sunlight into buildings, the device comprising: - a transparent element having a substantially planar top surface in an x-y-plane and a substantially planar bottom surface, wherein the top and bottom surfaces are arranged in an angle α to each other around the x-axis, and - a light reflector having a reflective surface that is arranged substantially parallel and adjacent to the bottom surface of the transparent element, wherein the reflective surface is spaced apart from the transparent element by a transparent medium having a lower refractive index than the transparent element, so that direct sunlight incident on the light redirection device is refracted by respectively the top and bottom surfaces of the transparent element and reflected back into the transparent element by the light reflector to be refracted again by respectively the bottom and top surfaces of the transparent element. - a transparent element having a substantially planar top surface in an x-y-plane and a substantially planar bottom surface, wherein the top and bottom surfaces are arranged in an angle α to each other around the x-axis, and - a light reflector having a reflective surface that is arranged substantially parallel and adjacent to the bottom surface of the transparent element,
Resining plant for stone slabs which provides the movement of slab supports comprising, in succession, - a station for loading the slabs on respective said supports, - a resining station, on which a catalyzable resin can be applied on at least one face of a respective slab, - a sealing closure station for a chamber associated with said support, - a catalysis oven station wherein said support is present with said resined slab within the respective chamber sealed and placed under vacuum, - an unloading station for said slab from said support, - moving means for said plurality of supports with said slabs through said stations, said supports comprising each a support frame of the slab, a said sealed chamber associated with said frame, which can be opened and closed, suitable for surrounding the slab supported by the frame, at least one conduit suitable for putting into operating communication the interior of said chamber with an area of extraction of air from outside said chamber, to allow the vacuum to be formed within the chamber, wherein said catalysis oven station comprises a simultaneous housing structure for a plurality of said supports bearing said slabs, said simultaneous housing structure being of the multi-floor type, wherein the supports are arranged one above the other. - a station for loading the slabs on respective said supports, - a resining station, on which a catalyzable resin can be applied on at least one face of a respective slab, - a sealing closure station for a chamber associated with said support, - a catalysis oven station wherein said support is present with said resined slab within the respective chamber sealed and placed under vacuum, - an unloading station for said slab from said support, - moving means for said plurality of supports with said slabs through said stations,
A method for detecting an anomaly in an assembly(1,22,44,46) of a first and a second object of electrically conductive material, the method comprising: - providing a device(5,50,900,1100) comprising a transmitter/receiver arrangement(7,70) for generating an electromagnetic field in the assembly(1,22,44,46), and for measuring a signal indicative of an eddy current which is generated in the assembly(1,22,44,46) by the electromagnetic field; - activating the device(5,50,900,1100) so as to receive a signal indicative of an eddy current in the assembly (1,22,44,66); and - comparing the signal with a norm so as to detect if the anomaly is present; characterized in that: - the first and second objects(1,22,44,46) are an inner and an outer tubular(44,46) with an annulus between, which annulus forms an intermediate space, wherein the inner and outer tubular(44,46) form part of a well completion; - the device(5,50,900,1100) is arranged in a measurement position within the intermediate space. - providing a device(5,50,900,1100) comprising a transmitter/receiver arrangement(7,70) for generating an electromagnetic field in the assembly(1,22,44,46), and for measuring a signal indicative of an eddy current which is generated in the assembly(1,22,44,46) by the electromagnetic field; - activating the device(5,50,900,1100) so as to receive a signal indicative of an eddy current in the assembly (1,22,44,66); and - comparing the signal with a norm so as to detect if the anomaly is present; - the first and second objects(1,22,44,46) are an inner and an outer tubular(44,46) with an annulus between, which annulus forms an intermediate space, wherein the inner and outer tubular(44,46) form part of a well completion; - the device(5,50,900,1100) is arranged in a measurement position within the intermediate space.
A sheet alignment mechanism comprising: a stacking tray on which a sheet or sheet bundle transported along a sheet transport path is stacked; a pair of side fences that are movable in a sheet width direction and align edges of the sheet or sheet bundle, stacked on the stacking tray, in the sheet width direction; a single drive source configured to move the side fences; a detecting unit (314a, 314b) configured to detect home positions of the respective side fences; and a controlling unit configured to control movement of the side fences based on a detection result by the detecting unit (314a, 314b), wherein the controlling unit is configured to perform correction on a positional deviation of the side fences shown in the detection result, characterized in that the correction of the side fences is performed such that, with a positional difference between one of the side fences having an advanced phase and the other side fence having a delayed phase being defined as an amount of the positional deviation, the controlling unit controls the single drive source to bring the other side fence having the delayed phase half the amount of the positional deviation further along the path. a stacking tray on which a sheet or sheet bundle transported along a sheet transport path is stacked; a pair of side fences that are movable in a sheet width direction and align edges of the sheet or sheet bundle, stacked on the stacking tray, in the sheet width direction; a single drive source configured to move the side fences; a detecting unit (314a, 314b) configured to detect home positions of the respective side fences; and a controlling unit configured to control movement of the side fences based on a detection result by the detecting unit (314a, 314b),
Fastening device for fastening a mechanical element with a support structure, in particular for fastening a cabin fitting element to a frame of an aircraft, the fastening device comprising: an enclosure, which is mountable to the support structure; a locator bush, which is housed in the enclosure, wherein the locator bush is slidable along a longitudinal axis of the fastening device in relation to the enclosure in an unlocked position of the fastening device; a retaining element, which is positioned at least sectionwise around the longitudinal axis in the enclosure and mechanically coupled to the locator bush; and a locking bolt, which has a bolt head for mounting the mechanical element between the bolt head and the enclosure, wherein the locking bolt is configured to be slidable into the locator bush, and wherein the locking bolt has a recess, which is located on at least a section of the shell surface of the locking bolt and configured to be positively-locking connectable with the retaining element. an enclosure, which is mountable to the support structure; a locator bush, which is housed in the enclosure, wherein the locator bush is slidable along a longitudinal axis of the fastening device in relation to the enclosure in an unlocked position of the fastening device; a retaining element, which is positioned at least sectionwise around the longitudinal axis in the enclosure and mechanically coupled to the locator bush; and a locking bolt, which has a bolt head for mounting the mechanical element between the bolt head and the enclosure, wherein the locking bolt is configured to be slidable into the locator bush, and wherein the locking bolt has a recess, which is located on at least a section of the shell surface of the locking bolt and configured to be positively-locking connectable with the retaining element.
A copolymer, comprising: 0.1 mol% to 99 mol% of a structural unit derived from a monoethylenically unsaturated monocarboxylic acid (salt) monomer (a); 0.1 mol% to 99 mol% of a structural unit derived from a monomer (b) serving as a monoethylenically unsaturated dicarboxylic acid (salt) or an anhydride thereof; and 0.1 mol% to 50 mol% of a structural unit derived from an ether bond-containing hydrophobic monomer (c), wherein the ether bond-containing hydrophobic monomer (c) comprises at least one kind selected from 1-allyloxy-3-butoxypropan-2-ol represented by the chemical formula, a hexene oxide adduct of isoprenol represented by the chemical formula, and allyl butyl ether represented by the chemical formula. 0.1 mol% to 99 mol% of a structural unit derived from a monoethylenically unsaturated monocarboxylic acid (salt) monomer (a); 0.1 mol% to 99 mol% of a structural unit derived from a monomer (b) serving as a monoethylenically unsaturated dicarboxylic acid (salt) or an anhydride thereof; and 0.1 mol% to 50 mol% of a structural unit derived from an ether bond-containing hydrophobic monomer (c), wherein the ether bond-containing hydrophobic monomer (c) comprises at least one kind selected from 1-allyloxy-3-butoxypropan-2-ol represented by the chemical formula, a hexene oxide adduct of isoprenol represented by the chemical formula, and allyl butyl ether represented by the chemical formula.
A polyester composite, comprising n-layered (n is an integer of 2 or more) polyester foams stacked therein, and a polyester resin layer formed on one or both surfaces of each layer of the polyester foam, wherein the polyester composite has a flexural modulus of 500 to 30,000 MPa which is measured when a specimen is fixed with a 100 mm support span and a flexural load is applied thereto at a rate of 5 mm/min according to ASTM D 790, and wherein the polyester composite has an average basis weight in a range of 500 to 800 g/m 2, and wherein the polyester foam is a polyethylene terephthalate foam, and the polyester resin layer is a PET resin layer. wherein the polyester composite has a flexural modulus of 500 to 30,000 MPa which is measured when a specimen is fixed with a 100 mm support span and a flexural load is applied thereto at a rate of 5 mm/min according to ASTM D 790, and wherein the polyester composite has an average basis weight in a range of 500 to 800 g/m 2, and wherein the polyester foam is a polyethylene terephthalate foam, and the polyester resin layer is a PET resin layer.
A support for fixing wooden spring slats to the base frame of a slatted bed base, wherein the support consists of a base body made of plastic and a separate assembly which comprises at least one cap-shaped contour to receive a wooden spring slat, wherein at least sections of said base body in its mounted state rest against a longitudinal beam of the base frame and are supported by said longitudinal beam, wherein at least sections of the bottom section of the base body have a flat contour which in the fitted position of the base body rest against a side surface of the longitudinal beam and which comprise web-shaped contours that substantially extend in the longitudinal direction of the longitudinal beam, sections of which surrounding dowel pins, wherein said web-shaped contours at their end face sections and at the side surface opposite the longitudinal beam change into a bag-shaped contour extending upwards and parallel to the longitudinal beam, and wherein a fastening element is provided on the inner surface of said bag-shaped contour that faces the longitudinal beam, to which fastening element a component with a cap-shaped contour can be fastened for receiving at least one wooden spring slat, characterized in that said web-shaped contours, starting at their end face sections, are initially arranged at a somewhat greater distance ("H") and running parallel to one another, wherein at least one of these sections changes via curvilinear contours into a central section in which said web-shaped contours are again arranged running parallel to one another, however at a smaller distance ("h").
An extruded expanded thermoplastic polyurethane elastomer bead, consisting of the following components in parts by weight: 100 parts by weight of a thermoplastic polyurethane elastomer, 0.01 - 0.5 parts by weight of a foaming nucleating agent, and 0.01 - 0.2 parts by weight of an antioxidant, wherein the thermoplastic polyurethane elastomer is based on a polytetrahydrofuran having a number-average molecular weight of 500 - 2000 g/mol, or a polyester polyol having a number-average molecular weight of 800 - 1200 g/mol, or a mixture thereof, and wherein the extruded expanded thermoplastic polyurethane elastomer bead is obtainable by mixing 100 parts by weight of a thermoplastic polyurethane elastomer, 0.01 - 0.5 parts by weight of a foaming nucleating agent, and 0.01 - 0.2 parts by weight of an antioxidant uniformly, granulating the mixture in an extruder to produce a raw material suitable for foaming, and finally feeding the raw material into a foam extruder, injecting a volatile foaming agent into the foam extruder, extruding the resulted melt through a die for foaming, and pelletizing the melt underwater, to prepare the extruded expanded thermoplastic polyurethane elastomer bead, wherein the volatile foaming agent is selected from the group consisting of propane, n-butane, isobutane, n-pentane, and isopentane, or a mixture thereof, and the amount of the volatile foaming agent added is 1 - 40 parts by weight, and wherein the foaming nucleating agent is selected from the group consisting of talc, silicon dioxide, calcium carbonate, zeolite, graphite powder, alumina, calcium hydroxide, aluminum hydroxide, and zinc borate, or a mixture thereof. wherein the thermoplastic polyurethane elastomer is based on a polytetrahydrofuran having a number-average molecular weight of 500 - 2000 g/mol, or a polyester polyol having a number-average molecular weight of 800 - 1200 g/mol, or a mixture thereof, and wherein the extruded expanded thermoplastic polyurethane elastomer bead is obtainable by mixing 100 parts by weight of a thermoplastic polyurethane elastomer, 0.01 - 0.5 parts by weight of a foaming nucleating agent, and 0.01 - 0.2 parts by weight of an antioxidant uniformly, granulating the mixture in an extruder to produce a raw material suitable for foaming, and finally feeding the raw material into a foam extruder, injecting a volatile foaming agent into the foam extruder, extruding the resulted melt through a die for foaming, and pelletizing the melt underwater, to prepare the extruded expanded thermoplastic polyurethane elastomer bead, wherein the volatile foaming agent is selected from the group consisting of propane, n-butane, isobutane, n-pentane, and isopentane, or a mixture thereof, and the amount of the volatile foaming agent added is 1 - 40 parts by weight, and wherein the foaming nucleating agent is selected from the group consisting of talc, silicon dioxide, calcium carbonate, zeolite, graphite powder, alumina, calcium hydroxide, aluminum hydroxide, and zinc borate, or a mixture thereof.
A rotary joint assembly, comprising: a rotating portion which comprises an annular body and a pair of annular sealing members (94, 96), each annular sealing member of the pair of annular sealing members (94, 96) is attached to a side of the annular body, and an air passageway is formed in the annular body; a non-rotating portion having a non-rotating portion air passageway formed therein, the non-rotating portion air passageway being in fluid communication with the air passageway formed in the annular body; and a pair of annular air seal members (140, 142) provided between the rotating portion and the non-rotating portion, wherein each annular air seal member of the pair of annular air seal members (140, 142) contacts a sealing surface (102, 104) of one of the annular sealing members (94, 96) to provide a seal around an interface between the air passageway formed in the annular body and the non-rotating portion air passageway. a rotating portion which comprises an annular body and a pair of annular sealing members (94, 96), each annular sealing member of the pair of annular sealing members (94, 96) is attached to a side of the annular body, and an air passageway is formed in the annular body; a non-rotating portion having a non-rotating portion air passageway formed therein, the non-rotating portion air passageway being in fluid communication with the air passageway formed in the annular body; and a pair of annular air seal members (140, 142) provided between the rotating portion and the non-rotating portion, wherein each annular air seal member of the pair of annular air seal members (140, 142) contacts a sealing surface (102, 104) of one of the annular sealing members (94, 96) to provide a seal around an interface between the air passageway formed in the annular body and the non-rotating portion air passageway.
A sheet feeding apparatus comprising: a regulating member, provided along a feeding path in a feeding direction of the sheet, for regulating a widthwise position of a sheet by being abutted by an edge of the sheet; a sheet turning mechanism including a first pair of first driving roller (2a1) and first follower roller (2b1) for nipping and feeding the sheet disposed at a position upstream of said regulating member and a second pair of second driving roller (2a2) and second follower roller (2b2), wherein said first pair and said second pair are disposed in a line extending in a widthwise direction of the feeding path; a sheet correcting mechanism disposed downstream of said sheet turning mechanism, and including a feeding roller and a third follower roller for correcting an attitude of the sheet by feeding the sheet so as to abut the edge of the sheet turned by said sheet turning mechanism to said regulating member, characterized in that said first driving roller (2a1) and said second driving roller (2a2) are rotatable in opposite directions to turn the sheet to abut the edge of the sheet to said regulating member, and said apparatus further comprises moving means for moving said regulating member between a regulating position in which said regulating member abuts the edge of the sheet and a retracted position in which said regulating member does not interfere with the sheet rotated by said sheet turning mechanism, wherein said moving means moves said regulating member to the retracted position in an upward direction when said sheet turning mechanism turns the sheet. a regulating member, provided along a feeding path in a feeding direction of the sheet, for regulating a widthwise position of a sheet by being abutted by an edge of the sheet; a sheet turning mechanism including a first pair of first driving roller (2a1) and first follower roller (2b1) for nipping and feeding the sheet disposed at a position upstream of said regulating member and a second pair of second driving roller (2a2) and second follower roller (2b2), wherein said first pair and said second pair are disposed in a line extending in a widthwise direction of the feeding path; a sheet correcting mechanism disposed downstream of said sheet turning mechanism, and including a feeding roller and a third follower roller for correcting an attitude of the sheet by feeding the sheet so as to abut the edge of the sheet turned by said sheet turning mechanism to said regulating member, characterized in that said first driving roller (2a1) and said second driving roller (2a2) are rotatable in opposite directions to turn the sheet to abut the edge of the sheet to said regulating member, and said apparatus further comprises moving means for moving said regulating member between a regulating position in which said regulating member abuts the edge of the sheet and a retracted position in which said regulating member does not interfere with the sheet rotated by said sheet turning mechanism, wherein said moving means moves said regulating member to the retracted position in an upward direction when said sheet turning mechanism turns the sheet.