mhurhangee/ep-ind-claims huggingface dataset:
Method for operating an ion gate having at least a first, a second and a third electrode (60, 61, 62), which are arranged one behind the other in an intended drift direction of ions to be influenced by the ion gate in such a way that, in the drift direction, the second electrode is arranged behind the first electrode and the third electrode is arranged behind the second electrode, wherein, by applying time-varying potentials to one or more of the aforementioned electrodes (60, 61, 62), the ion gate is switched between a closed state, in which ions cannot drift through the ion gate in the intended drift direction, and an open state, in which ions can drift through the ion gate in the intended drift direction, wherein in a switching cycle of the ion gate, which comprises the open and the closed state of the ion gate, two different closed states of the ion gate are generated, characterized in that - ions of different ion species are analyzed, where the ion species include slow and fast ion species, - the ion gate is initially closed in a first closed state by applying a first potential difference between the second and the third electrode (61, 62), at least until the region between the first and the second electrode (60, 61) is filled with ions of all ion species to such an extent that these ion species are directly available at the second electrode, - then the open state is taken for a predetermined time, and - thereafter, in a second closed state, the ion gate is closed by applying a second potential difference between the first and second electrode (60, 61), at least until all ions of all ion species between the second and third electrode (61, 62) have been injected into a drift chamber downstream of the ion gate, - so that there is no discrimination of slow ion species in the analysis. - ions of different ion species are analyzed, where the ion species include slow and fast ion species, - the ion gate is initially closed in a first closed state by applying a first potential difference between the second and the third electrode (61, 62), at least until the region between the first and the second electrode (60, 61) is filled with ions of all ion species to such an extent that these ion species are directly available at the second electrode, - then the open state is taken for a predetermined time, and - thereafter, in a second closed state, the ion gate is closed by applying a second potential difference between the first and second electrode (60, 61), at least until all ions of all ion species between the second and third electrode (61, 62) have been injected into a drift chamber downstream of the ion gate, - so that there is no discrimination of slow ion species in the analysis.
A push-to-talk-over-cellular, PoC, server for providing a media storage service in a PoC network, wherein the PoC server is configured to: store information on a service setting which is changed and set by a first PoC client, the information on the service setting including information for representing whether the first PoC client uses a PoC BOX when not participating in a PoC session, wherein the PoC server is configured to perform a PoC Participating Function for the first PoC Client, receive an invite message and PoC media data from a second PoC client, if the invite message is received, check whether the first PoC client uses the PoC BOX based on the information on the service setting, if the first PoC client uses a PoC BOX, route the invite message from the second PoC client to the PoC BOX, and transmit the PoC media data to the PoC BOX, wherein the service setting is a PoC BOX use setting. store information on a service setting which is changed and set by a first PoC client, the information on the service setting including information for representing whether the first PoC client uses a PoC BOX when not participating in a PoC session, wherein the PoC server is configured to perform a PoC Participating Function for the first PoC Client, receive an invite message and PoC media data from a second PoC client, if the invite message is received, check whether the first PoC client uses the PoC BOX based on the information on the service setting, if the first PoC client uses a PoC BOX, route the invite message from the second PoC client to the PoC BOX, and transmit the PoC media data to the PoC BOX,
A protection system for a coaxial cable connector, comprising: an over-mold cap configured to be disposed over a prepared end of a coaxial cable, the over-mold cap defining an interface surface; wherein the over-mold cap comprises a first portion and a second portion, the first portion configured to circumscribe the prepared end of the coaxial cable and the second portion configured to engage the coaxial cable connector, and a compliant weather protection boot circumscribing the over-mold cap and having a compliant protrusion configured to engage the interface surface, wherein the compliant protrusion and interface surface produce a mating interface characterized by providing tactile feedback to an assembler/technician that the compliant boot is properly seated against the over-mold cap, wherein the compliant boot defines an inner sleeve and an outer sleeve connected by a plurality of resilient, non-radials spokes, wherein the spokes are integrally formed with a resilient wall connecting the inner sleeve and the outer sleeve such that a seal is produced between the spokes and with the inner sleeve and the outer sleeve; wherein the interface surface is configured to receive an inwardly projecting lip of the compliant boot, wherein the interface surface includes a raised edge which is in use substantially normal to an elongate axis of the coaxial cable such that as the lip engages the raised edge of the interface surface, the compliant boot is axially displaced toward the interface port. an over-mold cap configured to be disposed over a prepared end of a coaxial cable, the over-mold cap defining an interface surface; wherein the over-mold cap comprises a first portion and a second portion, the first portion configured to circumscribe the prepared end of the coaxial cable and the second portion configured to engage the coaxial cable connector, and a compliant weather protection boot circumscribing the over-mold cap and having a compliant protrusion configured to engage the interface surface, wherein the compliant protrusion and interface surface produce a mating interface characterized by providing tactile feedback to an assembler/technician that the compliant boot is properly seated against the over-mold cap, wherein the compliant boot defines an inner sleeve and an outer sleeve connected by a plurality of resilient, non-radials spokes, wherein the spokes are integrally formed with a resilient wall connecting the inner sleeve and the outer sleeve such that a seal is produced between the spokes and with the inner sleeve and the outer sleeve; wherein the interface surface is configured to receive an inwardly projecting lip of the compliant boot, wherein the interface surface includes a raised edge which is in use substantially normal to an elongate axis of the coaxial cable such that as the lip engages the raised edge of the interface surface, the compliant boot is axially displaced toward the interface port.
A cable connection structure, comprising: at least one connector set including a plurality of fiber optic connectors, wherein each of the fiber optic connectors has a corresponding connecting cable coupled thereto; a cable sorter having a first end connected to the connecting cables; a ribbon cable connected to a second end of the cable sorter through a fiber cable clamp; characterized in further comprising a connection tube having a center opening that allows the connector set to be disposed therein; a front cap removably coupled to a front end of the connection tube; and an end cap removably coupled to a back end of the connection tube, wherein the end cap has a through hole that allows the cable sorter to pass therethrough. at least one connector set including a plurality of fiber optic connectors, wherein each of the fiber optic connectors has a corresponding connecting cable coupled thereto; a cable sorter having a first end connected to the connecting cables; a ribbon cable connected to a second end of the cable sorter through a fiber cable clamp; characterized in further comprising a connection tube having a center opening that allows the connector set to be disposed therein; a front cap removably coupled to a front end of the connection tube; and an end cap removably coupled to a back end of the connection tube, wherein the end cap has a through hole that allows the cable sorter to pass therethrough.
An electrical sensor (200, 300, 400, 500, 600, 700, 800, 900, 1000) for a medical machine comprising: an electronic fabric probe (202, 302, 402, 502, 602, 702, 802, 902, 1002, 1120) having a non-conductive fabric layer (210, 310, 432, 510, 620, 910, 1122) and a plurality of conductors (220, 320, 522, 630, 730, 812, 912) including a first conductor (222, 322, 522, 632, 1032) and a second conductor (224, 324, 524, 634, 1034) embedded in the fabric layer (210, 310, 432, 510, 620, 910, 1122), the first conductor (222, 322, 522, 632, 1032) and the second conductor (224, 324, 524, 634, 1034) spaced apart from each other and including a respective first terminal (236, 336, 536, 816, 916) and a second terminal (236, 336, 536, 816, 916) exposed proximate a peripheral edge of the fabric layer (210, 310, 432, 510, 620, 910, 1122); and an enclosure (204, 304, 404, 504, 804, 1128) enclosing a fluid chamber (244, 344, 406, 544, 604, 704) delineating a flow path between a fluid inlet (264, 364, 410, 564) and a fluid outlet (266, 366, 412, 566), the enclosure (204, 304, 404, 504, 804, 1128) adapted to accommodate the electronic fabric probe (202, 302, 402, 502, 602, 702, 802, 902, 1002, 1120) with the first (222, 322, 522, 632, 1032) and second conductor (224, 324, 524, 634, 1034) disposed in the flow path and with the first (236, 336, 536, 816, 916) and second terminals (236, 336, 536, 816, 916) accessible from outside the enclosure (204, 304, 404, 504, 804, 1128). an electronic fabric probe (202, 302, 402, 502, 602, 702, 802, 902, 1002, 1120) having a non-conductive fabric layer (210, 310, 432, 510, 620, 910, 1122) and a plurality of conductors (220, 320, 522, 630, 730, 812, 912) including a first conductor (222, 322, 522, 632, 1032) and a second conductor (224, 324, 524, 634, 1034) embedded in the fabric layer (210, 310, 432, 510, 620, 910, 1122), the first conductor (222, 322, 522, 632, 1032) and the second conductor (224, 324, 524, 634, 1034) spaced apart from each other and including a respective first terminal (236, 336, 536, 816, 916) and a second terminal (236, 336, 536, 816, 916) exposed proximate a peripheral edge of the fabric layer (210, 310, 432, 510, 620, 910, 1122); and an enclosure (204, 304, 404, 504, 804, 1128) enclosing a fluid chamber (244, 344, 406, 544, 604, 704) delineating a flow path between a fluid inlet (264, 364, 410, 564) and a fluid outlet (266, 366, 412, 566), the enclosure (204, 304, 404, 504, 804, 1128) adapted to accommodate the electronic fabric probe (202, 302, 402, 502, 602, 702, 802, 902, 1002, 1120) with the first (222, 322, 522, 632, 1032) and second conductor (224, 324, 524, 634, 1034) disposed in the flow path and with the first (236, 336, 536, 816, 916) and second terminals (236, 336, 536, 816, 916) accessible from outside the enclosure (204, 304, 404, 504, 804, 1128).
A connecting piece for a flashing of a pipe duct in a tiled roof, wherein the connecting piece comprises a portion of hard plastics having a substantially even surface extending flash to a ridge plane of the roof tiles and having a groove extending along the whole length of the connecting piece as well as a flexible portion of plastic rubber connected to the portion of hard plastics of the connection piece and being shaped to correspond to an average ridged profile shape of roof tiles characterized in that the groove is open away from the connecting piece for receiving an upper end of the flashing and, said groove continuing at both of its ends straight downwards for receiving a fold formed at both sides of the flashing, the flexible portion having at its profiled free end an upwards directed wall in the regions between the ridges of the profile, which end is intended to be positioned between the tiles in the first row and second row of roof tiles at the ridge side of the pipe duct.
Play crane comprising a loop supporting frame (116,130;200,202,203,204,205), a flexible closed loop (112;201) supported in a vertical orientation around the loop supporting frame thereby forming two opposing sides (112a, 112b) of the flexible closed loop and a lifting element connected to the flexible closed loop whereby the lifting element can be moved up or down by displacing the flexible closed loop around the loop supporting frame, characterized a. in that the play crane further comprises a barrier element arranged inside the flexible closed loop between said two sides (112a, 112b) of the flexible closed loop at any location where the maximum possible displacement of a portion on the flexible closed loop towards an opposing side of the flexible closed loop is greater than the minimum distance between the two sides of the flexible closed loop at the location of said portion; or b. in that the loop supporting frame (200,202,203,204,205) and the total length of the flexible closed loop are arranged such that the maximum possible displacement of any portion of the flexible closed loop towards an opposing side of the flexible closed loop is less than the minimum distance between the two sides of the flexible closed loop at the location of the portion. a. in that the play crane further comprises a barrier element arranged inside the flexible closed loop between said two sides (112a, 112b) of the flexible closed loop at any location where the maximum possible displacement of a portion on the flexible closed loop towards an opposing side of the flexible closed loop is greater than the minimum distance between the two sides of the flexible closed loop at the location of said portion; or b. in that the loop supporting frame (200,202,203,204,205) and the total length of the flexible closed loop are arranged such that the maximum possible displacement of any portion of the flexible closed loop towards an opposing side of the flexible closed loop is less than the minimum distance between the two sides of the flexible closed loop at the location of the portion.
An imaging device for visualizing subcutaneous structures in a body of a recipient, comprising: a) at least one light emitting source adapted to illuminate a selected area of body surface, hereunder lying tissue and subcutaneous structures, b) at least one camera enabled detection system adapted to record an image of said illuminated subcutaneous structures, c) at least one display means adapted to render a recorded image of the illuminated subcutaneous structures, wherein the display is an integrated part of the device, and wherein said display is on a surface of the device facing away from the body surface of the recipient when in use d) said device being adapted to be placed directly upon the recipient, characterised in that said at least one light source is adapted to emit light in an angle to the camera enabled detection system, said angle being between 5 degrees and 160 degrees, e) and further characterised in that said at least one light source is in a groove or recess within a strap or embedded in a hinged flap of flexible material attached to said device, or said at least one light source rests at a distance from the body surface, wherein said distance is provided for by a membrane of flexible or adaptable material. a) at least one light emitting source adapted to illuminate a selected area of body surface, hereunder lying tissue and subcutaneous structures, b) at least one camera enabled detection system adapted to record an image of said illuminated subcutaneous structures, c) at least one display means adapted to render a recorded image of the illuminated subcutaneous structures, wherein the display is an integrated part of the device, and wherein said display is on a surface of the device facing away from the body surface of the recipient when in use d) said device being adapted to be placed directly upon the recipient, characterised in that said at least one light source is adapted to emit light in an angle to the camera enabled detection system, said angle being between 5 degrees and 160 degrees, e) and further characterised in that said at least one light source is in a groove or recess within a strap or embedded in a hinged flap of flexible material attached to said device, or said at least one light source rests at a distance from the body surface, wherein said distance is provided for by a membrane of flexible or adaptable material.
A seam-joining structure, comprising: - a first material web with a first barrier layer and with a first edge on an outer boundary of the first material web, - a second material web with a second barrier layer and with a second edge on an outer boundary of the second material web, - at least one seam that joins the first and second material webs (10, 30) in a seam area so as to form a first seam allowance between the seam and the first edge of the first material web, and so as to form a second seam allowance between the seam and the second edge of the second material web, ch aracterized in that the first and second material webs (10, 30) are arranged one above the other in the seam area and the second seam allowance is folded around the first edge of the first material web and covers the at least one seam so as to form a seam cover, - and that the seam cover is joined to the first material web in the seam area. - a first material web with a first barrier layer and with a first edge on an outer boundary of the first material web, - a second material web with a second barrier layer and with a second edge on an outer boundary of the second material web, - at least one seam that joins the first and second material webs (10, 30) in a seam area so as to form a first seam allowance between the seam and the first edge of the first material web, and so as to form a second seam allowance between the seam and the second edge of the second material web, ch aracterized in that the first and second material webs (10, 30) are arranged one above the other in the seam area and the second seam allowance is folded around the first edge of the first material web and covers the at least one seam so as to form a seam cover, - and that the seam cover is joined to the first material web in the seam area.
A method for making and using a seal for a turbine engine, the method comprising: separating two compressible cores (204a, b) with a spacer wherein one or both of the compressible cores (204a, b) each includes a rope seal; winding wires around the cores (204a, b) and the spacer; forming substantially 'c' shaped or 'u' shaped backings about the wires to obtain a package of weld-free brush seal assemblies (268, 268'); splitting the package to yield two brush seals (268, 268'); installing a brush seal (268, 268') of the package in a slot of a blade outer air seal rail or a vane platform; and physically extracting the spacer from each of the two brush seals (268, 268') to remove the spacer. separating two compressible cores (204a, b) with a spacer wherein one or both of the compressible cores (204a, b) each includes a rope seal; winding wires around the cores (204a, b) and the spacer; forming substantially 'c' shaped or 'u' shaped backings about the wires to obtain a package of weld-free brush seal assemblies (268, 268'); splitting the package to yield two brush seals (268, 268'); installing a brush seal (268, 268') of the package in a slot of a blade outer air seal rail or a vane platform; and physically extracting the spacer from each of the two brush seals (268, 268') to remove the spacer.
A surgical port feature comprising: a port feature body comprising a top surface, a bottom surface, and an outer sidewall that extends between the top and bottom surfaces; a first channel that extends in a first direction straight between the top surface and the bottom surface; a second channel that extends in a second direction straight between the top surface and the bottom surface; wherein the first and second directions are different from one another; characterized in that it comprises an electrically conductive path that extends from the outer sidewall to an inner wall portion of the first channel, wherein the electrically conductive path is disposed relative to less electrically conductive portions of the port feature body to provide a predefined electrically conductive path through the port feature body to an electrical ground. a port feature body comprising a top surface, a bottom surface, and an outer sidewall that extends between the top and bottom surfaces; a first channel that extends in a first direction straight between the top surface and the bottom surface; a second channel that extends in a second direction straight between the top surface and the bottom surface;
A method of printing an image having a graphic security element Included therein, comprising: receiving main image data representing a main image using a printer processor, the main image data including a plurality of pixels; receiving graphic security element data representing a graphic security element to be included in the main image using a graphic security processor; receiving a request to print the main image; responsive to receiving the request to print the main image, determining particular pixels of the plurality of pixels of the main image data that are to be shifted based on the graphic security element data; and causing a plurality of ink deposits to be deposited on the print medium based on the main image data including causing a position of each of the ink deposits on the print medium that is determined to correspond to one of the particular pixels to be shifted by a deflector assembly controlled by the graphic security processor relative to a normal position that would normally result from the main image data, wherein each of the ink deposits is an ink drop ejected by an ink jet print head, and wherein the causing the position of each of the ink deposits on the print medium that is determined to correspond to one of the particular pixels to be shifted comprises altering a travel path, using the deflector assembly, of each of the ink drops determined to correspond to one of the particular pixels after being ejected from the ink jet print head. receiving main image data representing a main image using a printer processor, the main image data including a plurality of pixels; receiving graphic security element data representing a graphic security element to be included in the main image using a graphic security processor; receiving a request to print the main image; responsive to receiving the request to print the main image, determining particular pixels of the plurality of pixels of the main image data that are to be shifted based on the graphic security element data; and causing a plurality of ink deposits to be deposited on the print medium based on the main image data including causing a position of each of the ink deposits on the print medium that is determined to correspond to one of the particular pixels to be shifted by a deflector assembly controlled by the graphic security processor relative to a normal position that would normally result from the main image data, wherein each of the ink deposits is an ink drop ejected by an ink jet print head, and wherein the causing the position of each of the ink deposits on the print medium that is determined to correspond to one of the particular pixels to be shifted comprises altering a travel path, using the deflector assembly, of each of the ink drops determined to correspond to one of the particular pixels after being ejected from the ink jet print head.