mhurhangee/ep-ind-claims huggingface dataset:
A disposable diaper comprising a waistband portion, situated around the waist of the wearer and a crotch portion situated at the crotch of the wearer, and extending from the stomach side portion of the waistband portion to the back side portion of the waistband portion, a compound stretchable member being provided in the waistband portion, the compound stretchable member comprising a plurality of elastic members extending in the waist direction and an inner side nonwoven fabric sheet portion and outer side nonwoven fabric sheet portion that are overlaid so as to be mutually joined through the elastic members, wherein the inner side nonwoven fabric sheet portion and the outer side nonwoven fabric sheet portion each comprise a plurality of concavoconvex regions at least partially comprising protrusions and recesses that alternately repeat along the waist direction and extend in the direction orthogonal to the waist direction, and at least one non-concavoconvex region mutually separating the concavoconvex regions in the direction orthogonal to the waist direction, the waistband portion including a first region, and a second region provided either continuously with or separate from the first region in the direction orthogonal to the waist direction, the protrusions and recesses of the concavoconvex regions being provided at a first concavoconvexity pitch with the compound stretchable member disposed in the first region, and at a second concavoconvexity pitch that is different from the first concavoconvexity pitch, in the compound stretchable member disposed in the second region, along the waist direction. a compound stretchable member being provided in the waistband portion, the compound stretchable member comprising a plurality of elastic members extending in the waist direction and an inner side nonwoven fabric sheet portion and outer side nonwoven fabric sheet portion that are overlaid so as to be mutually joined through the elastic members, wherein the inner side nonwoven fabric sheet portion and the outer side nonwoven fabric sheet portion each comprise a plurality of concavoconvex regions at least partially comprising protrusions and recesses that alternately repeat along the waist direction and extend in the direction orthogonal to the waist direction, and at least one non-concavoconvex region mutually separating the concavoconvex regions in the direction orthogonal to the waist direction, the waistband portion including a first region, and a second region provided either continuously with or separate from the first region in the direction orthogonal to the waist direction, the protrusions and recesses of the concavoconvex regions being provided at a first concavoconvexity pitch with the compound stretchable member disposed in the first region, and at a second concavoconvexity pitch that is different from the first concavoconvexity pitch, in the compound stretchable member disposed in the second region, along the waist direction.
A sealing device for sealing a gap between an opening in a wall section and at least one line that is guided through the opening, having a resiliently deformable sealing body which may be introduced into the opening in the wall section and which is set up to seal the opening, wherein a sealing cone, designated the second sealing cone, is arranged and aligned coaxially with the sealing body, or a plurality of sealing cones (5, 7), designated the second, third and so on sealing cones, are aligned coaxially with the sealing body and arranged such that they overlap, wherein the sealing cone or cones (5; 5, 7) may be connected to the sealing body by means of a reversibly releasable connection, preferably a plug-in connection, such that a release and renewed connection of the sealing cone or cones (5; 5, 7) may be performed non-destructively, wherein the sealing cone or cones (5; 5, 7) have a conical sealing portion (13, 33), whereof the internal clearance is in part smaller than the external diameter of the line that is to be guided through the respective sealing cone (5; 5, 7) such that the conical sealing portion (13, 33) is distended, as a result of guiding through the line that is to be guided through, in each case in the region in which the internal clearance is smaller than the external diameter of the line that is to be guided through, wherein the sealing cone designated the second sealing cone is formed as a separate component, characterised in that the sealing cone designated the second sealing cone has an end face on which there is formed a flange-like projection which corresponds with an end face of the sealing body, wherein there extends from the flange-like projection of the second sealing cone a projection or a plurality of projections (15, 15') that each correspond with a cutout (21, 21') in the end face of the sealing body, and wherein, for deformation of the sealing body, the projection or projections (15, 15') may be introduced into the cutouts (21, 21') in the end face of the sealing body.
A method of installing a temporary addition or injection system at a work-site, the method comprising the steps of: (i) mounting one or more silos on a trailer; (ii) mounting one or more transfer pots and one or more control systems on the trailer; (iii) transporting the one or more silos, the one or more transfer pots, and the one or more control systems on the trailer to the work-site; (iv) self-erecting the one or more silos to stand vertically on the trailer at the work-site; (v) connecting the one or more silos to a unit or system at the work-site via the one or more transfer pots; wherein the one or more silos are pre-filled with material before step (i) or filled with material after step (i); and (vii) utilizing load cells for measuring the amount of material entering and leaving the one or more transfer pots which are positioned on the load cells. (i) mounting one or more silos on a trailer; (ii) mounting one or more transfer pots and one or more control systems on the trailer; (iii) transporting the one or more silos, the one or more transfer pots, and the one or more control systems on the trailer to the work-site; (iv) self-erecting the one or more silos to stand vertically on the trailer at the work-site; (v) connecting the one or more silos to a unit or system at the work-site via the one or more transfer pots; wherein the one or more silos are pre-filled with material before step (i) or filled with material after step (i); and (vii) utilizing load cells for measuring the amount of material entering and leaving the one or more transfer pots which are positioned on the load cells.
An image projector for projecting a collimated image via an exit stop (5, 40), said collimated image being a representation of a digital image, the image projector comprising: (a) a spatial light modulator (6, 26) providing a two dimensional array of pixel elements, each of said pixel elements being controllable to modulate a property of light transmitted or reflected by said pixel element; (b) an illumination arrangement delivering illumination to said spatial light modulator (6, 26); (c) a controller in electronic connection with said spatial light modulator and said illumination arrangement; and (d) a collimating arrangement of at least one optical element configured to collimate illumination from said spatial light modulator to generate a collimated image directed to said exit stop (5, 40), characterized in that said illumination arrangement is configured to sequentially illuminate a plurality of regions of said spatial light modulator (6, 26), each region containing a plurality of said pixel elements, and wherein said controller is configured to synchronously control said pixel elements and said illumination arrangement so as to project a collimated image with pixel intensities corresponding to the digital image, wherein said illumination arrangement delivers said illumination from an illumination stop, the image projector further comprising illumination optics deployed in an optical path between said illumination stop where a diffuser is deployed and said spatial light modulator (6, 26), wherein said illumination optics and said collimating arrangement are configured such that an image of said illumination stop falls substantially on the exit stop (5, 40). (a) a spatial light modulator (6, 26) providing a two dimensional array of pixel elements, each of said pixel elements being controllable to modulate a property of light transmitted or reflected by said pixel element; (b) an illumination arrangement delivering illumination to said spatial light modulator (6, 26); (c) a controller in electronic connection with said spatial light modulator and said illumination arrangement; and (d) a collimating arrangement of at least one optical element configured to collimate illumination from said spatial light modulator to generate a collimated image directed to said exit stop (5, 40), said illumination arrangement is configured to sequentially illuminate a plurality of regions of said spatial light modulator (6, 26), each region containing a plurality of said pixel elements, and wherein said controller is configured to synchronously control said pixel elements and said illumination arrangement so as to project a collimated image with pixel intensities corresponding to the digital image, wherein said illumination arrangement delivers said illumination from an illumination stop, the image projector further comprising illumination optics deployed in an optical path between said illumination stop where a diffuser is deployed and said spatial light modulator (6, 26), wherein said illumination optics and said collimating arrangement are configured such that an image of said illumination stop falls substantially on the exit stop (5, 40).
A method of performing communication by a user equipment, UE, configured with a plurality of cells in a wireless communication system, the method comprising: receiving a Physical Downlink Control Channel, PDCCH, signal at an n -th first time unit among first time units of a first cell that each have a duration related to a first subcarrier spacing; determining an m -th second time unit among second time units of a second cell that each have a duration related to a second subcarrier spacing different from the first subcarrier spacing, wherein the m -th second time unit of the second cell is determined based on (i) carrier indicator information of the PDCCH signal, and (ii) timing offset information related to a timing offset delay for the UE; and transmitting a Physical Uplink Shared Channel, PUSCH, signal at the m -th second time unit of the second cell, wherein the m -th second time unit is determined as a second time unit separated by the timing offset delay after a k -th second time unit in the second cell, and the timing offset delay is expressed as a number of second time units, and wherein, based on the first subcarrier spacing being smaller than the second subcarrier spacing, the duration of each of the first time units is larger than the duration of each of the second time units, and the k -th second time unit is an earliest one of second time units of the second cell that overlap in time with the n -th first time unit of the first cell. receiving a Physical Downlink Control Channel, PDCCH, signal at an n -th first time unit among first time units of a first cell that each have a duration related to a first subcarrier spacing; determining an m -th second time unit among second time units of a second cell that each have a duration related to a second subcarrier spacing different from the first subcarrier spacing, wherein the m -th second time unit of the second cell is determined based on (i) carrier indicator information of the PDCCH signal, and (ii) timing offset information related to a timing offset delay for the UE; and transmitting a Physical Uplink Shared Channel, PUSCH, signal at the m -th second time unit of the second cell, wherein the m -th second time unit is determined as a second time unit separated by the timing offset delay after a k -th second time unit in the second cell, and the timing offset delay is expressed as a number of second time units, and wherein, based on the first subcarrier spacing being smaller than the second subcarrier spacing, the duration of each of the first time units is larger than the duration of each of the second time units, and the k -th second time unit is an earliest one of second time units of the second cell that overlap in time with the n -th first time unit of the first cell.
Device for printing containers, comprising at least one rotary device provided for receiving a container, at least one sensor unit, and a first machine part and a second machine part, wherein the rotary device is provided for driving the container about a rotary axis, wherein the device is configured such as to record the rotary position of the at least one rotary device by means of the at least one sensor unit, wherein the device comprises a plurality of printing stations (1, 1', 1") with electrically actuated printing heads in the form of ink-jet printing heads, wherein the sensor unit is designed for the noncontact recording of the rotary position of the rotary device relative to the rotary axis, and in each case one printing head unit is assigned to at least one sensor unit (5, 5.1, 5.2) for the printing of a container, wherein the rotary device is formed by a rotary plate element, wherein the sensor unit and the rotary plate element are arranged in a common plane running perpendicular to the rotary axis, such that, by means of the sensor unit, a cylindrical casing surface (4.1) of the rotary plate element can be recorded, wherein scaling means are provided at the cylindrical casing surface (4.1) of the rotary plate element, by means of which the rotary position of the rotary plate element can be recorded by way of the sensor unit, wherein the at least one rotary device is arranged on the first machine part and the at least one sensor unit (5, 5.1, 5.2) is arranged on the second machine part, and wherein at least one of the machine parts (M1, M2) are configured such as to rotate about a common machine axis, and wherein the machine axis runs parallel to the rotary axis.
Method for the detection of counterfeit characterised by comprising the following steps: - incorporating at least one polymeric complex of luminescent lanthanides comprising at least one lanthanide salt, at least one aromatic hydrocarbon and a polymeric matrix by means of stamping, immersion and coating in the formulation of a cellulosic fibers matrix; - exposing the areas of the cellulosic fibers matrix incorporated with the complex(es) under UV light and observation of the emission of the characteristic color of the lanthanide as the first guarantee of safety; - adding copper or nickel solutions to the cellulosic fiber matrix; - exposing the cellulosic fibers matrix under UV light and observation of the suppression of color emission as a second guarantee of safety. - incorporating at least one polymeric complex of luminescent lanthanides comprising at least one lanthanide salt, at least one aromatic hydrocarbon and a polymeric matrix by means of stamping, immersion and coating in the formulation of a cellulosic fibers matrix; - exposing the areas of the cellulosic fibers matrix incorporated with the complex(es) under UV light and observation of the emission of the characteristic color of the lanthanide as the first guarantee of safety; - adding copper or nickel solutions to the cellulosic fiber matrix; - exposing the cellulosic fibers matrix under UV light and observation of the suppression of color emission as a second guarantee of safety.
A layered coil component comprising: a coil disposed including electrically conductive members and insulating layers layered on each other in a layering direction; wherein the insulating layer includes a first insulating layer and a second insulating layer having a permeability lower than the permeability of the first insulating layer; characterized in that in a cross section including a coil axis of the coil, the second insulating layer has an arrangement that is astride at least two of the electrically conductive members adjacent to each other in the layering direction, the second insulating layer being bent at a portion where the second insulating layer is astride the electrically conductive members. a coil disposed including electrically conductive members and insulating layers layered on each other in a layering direction; wherein the insulating layer includes a first insulating layer and a second insulating layer having a permeability lower than the permeability of the first insulating layer; characterized in that in a cross section including a coil axis of the coil, the second insulating layer has an arrangement that is astride at least two of the electrically conductive members adjacent to each other in the layering direction, the second insulating layer being bent at a portion where the second insulating layer is astride the electrically conductive members.
A method of assembling a stator assembly having a stator housing, comprising: pre-assembling magnetized magnets and unmagnetized magnets so that each unmagnetized magnet is disposed between two magnetized magnets; inserting the pre-assembled magnets (1300, 1302) into the stator housing; affixing the magnets (1300, 1302) to an inner surface of the stator housing; and magnetizing the unmagnetized magnets. pre-assembling magnetized magnets and unmagnetized magnets so that each unmagnetized magnet is disposed between two magnetized magnets; inserting the pre-assembled magnets (1300, 1302) into the stator housing; affixing the magnets (1300, 1302) to an inner surface of the stator housing; and magnetizing the unmagnetized magnets.
A method of producing alumina trihydrate crystals from an alumina trihydrate recovery process stream, the method comprising: adding an aqueous emulsion comprising an alkyl or alkenyl succinic anhydride to the alumina trihydrate recovery process stream, wherein the aqueous emulsion is substantially free of mineral oils and fuel oils; and crystallizing the alumina trihydrate crystals from the alumina trihydrate recovery process stream, thereby providing a decrease in percentage of alumina trihydrate crystals having a volume average diameter of less than 45 micrometers compared to the percentage of alumina trihydrate crystals produced in the absence of the aqueous emulsion of an alkyl or alkenyl succinic anhydride. adding an aqueous emulsion comprising an alkyl or alkenyl succinic anhydride to the alumina trihydrate recovery process stream, wherein the aqueous emulsion is substantially free of mineral oils and fuel oils; and crystallizing the alumina trihydrate crystals from the alumina trihydrate recovery process stream, thereby providing a decrease in percentage of alumina trihydrate crystals having a volume average diameter of less than 45 micrometers compared to the percentage of alumina trihydrate crystals produced in the absence of the aqueous emulsion of an alkyl or alkenyl succinic anhydride.
A method comprising: aggregating a collection of security events received from logs from one or more devices; evaluating the collection of security events based on a confidence score assigned to each distinct type of security event, wherein the confidence score for each distinct type of security event indicates a likelihood that a security incident has occurred; determining, based on the confidence scores, at least one threshold for determining when to report an occurrence of a security incident from the collection of security events; upon determining that at least a first security event of the collection has crossed the at least one threshold, reporting the occurrence of the security incident to an analyst; determining that no response from the analyst regarding the reported occurrence indicates that the security incident is marked false-positive; and modifying the at least one threshold after the determination that no response from the analyst indicates the security incident is marked false-positive. aggregating a collection of security events received from logs from one or more devices; evaluating the collection of security events based on a confidence score assigned to each distinct type of security event, wherein the confidence score for each distinct type of security event indicates a likelihood that a security incident has occurred; determining, based on the confidence scores, at least one threshold for determining when to report an occurrence of a security incident from the collection of security events; upon determining that at least a first security event of the collection has crossed the at least one threshold, reporting the occurrence of the security incident to an analyst; determining that no response from the analyst regarding the reported occurrence indicates that the security incident is marked false-positive; and modifying the at least one threshold after the determination that no response from the analyst indicates the security incident is marked false-positive.
A manufacturing method of a helical core for a rotating electrical machine, the method comprising: a first process of forming a yoke portion extending along one direction and a plurality of tooth portions protruding toward a width direction of the yoke portion from a first side edge of the width direction, with respect to a belt-shaped metal plate extending along the one direction; a second process of forming a notch (24, 62) at a position between the tooth portions of the yoke portion, characterized in that the second process is carried out after the first process; and in that the method further comprises: a third process of processing the belt-shaped metal plate into a helical shape by applying bending to the metal plate so that the belt-shaped metal plate is curved toward the width direction sequentially from a portion in which the notch is formed, after the second process; and a process of heating the belt-shaped metal plate before the third process and after the second process, and in that, in the third process, a distance between a position at which application of the bending starts and a position at which the notch is formed is set to be 1000 mm or less. a first process of forming a yoke portion extending along one direction and a plurality of tooth portions protruding toward a width direction of the yoke portion from a first side edge of the width direction, with respect to a belt-shaped metal plate extending along the one direction; a second process of forming a notch (24, 62) at a position between the tooth portions of the yoke portion, characterized in that the second process is carried out after the first process; and in that the method further comprises: a third process of processing the belt-shaped metal plate into a helical shape by applying bending to the metal plate so that the belt-shaped metal plate is curved toward the width direction sequentially from a portion in which the notch is formed, after the second process; and a process of heating the belt-shaped metal plate before the third process and after the second process, and in that, in the third process, a distance between a position at which application of the bending starts and a position at which the notch is formed is set to be 1000 mm or less. a third process of processing the belt-shaped metal plate into a helical shape by applying bending to the metal plate so that the belt-shaped metal plate is curved toward the width direction sequentially from a portion in which the notch is formed, after the second process; and a process of heating the belt-shaped metal plate before the third process and after the second process, and in that, in the third process, a distance between a position at which application of the bending starts and a position at which the notch is formed is set to be 1000 mm or less.