mhurhangee/ep-ind-claims huggingface dataset:
An X-ray source arrangement for medical imaging, comprising: - an X-ray source; and - an X-ray beam shutter device; wherein the X-ray source is configured to generate X-ray radiation at least at a first and a second focal spot position distanced apart from each other in a direction transverse to a main radiation direction; wherein the X-ray beam shutter device comprises at least a first pair of shutters defining a first diaphragm for a first X-ray beam generated at the first focal spot position, and at least a second pair of shutters defining a second diaphragm for a second X-ray beam generated at the second focal spot position, the first and the second diaphragm partly overlapping, wherein the first and the second pair of shutters each comprise an outer shutter element (28 o, 34 o) for limiting the diaphragm on an outer side arranged opposite an overlapping portion of the diaphragm, the outer shutter elements comprising a solid structure in said radiation direction, and wherein the first and the second pair of shutters comprise a respective first and second inner shutter element (28 I, 34 I) for limiting the diaphragm on an inner side arranged at least partly in the overlapping portion, characterized by the inner shutter elements each comprising a focussed grid structure, the grid structure of the first inner shutter element comprising a plurality of first X-ray passages being focussed on the second focal spot position and the grid structure of the second inner shutter element comprising a plurality of second X-ray passages being focussed on the first focal spot position. - an X-ray source; and - an X-ray beam shutter device;
A flood barrier system for protecting a structure from the inflow of flood water, the system being deployable in response to flood or flood risk by stacking multiple, stop-log panels atop each other between corresponding vertical elements, the panels having forward faces oriented toward the flood, rear faces opposite the forward faces, and top and bottom edges extending horizontally between the respective faces of the panels, the vertical elements and panels forming a temporary barrier to the flood water, the system comprising: at least one of the vertical elements having a base plate at the bottom end of the vertical element and first and second gaskets extending vertically along the vertical element; wherein the first and second gaskets are spaced from each other and configured to engage the panels in a water-tight manner upon placement of the panels between the first and second gaskets; wherein at least one of the gaskets has a lower end adapted to engage the base plate in an interference fit; wherein the base plate comprises multiple layers to form a composite base plate, the layers including a structural plate and at least one base-plate gasket on the surface of the structural plate; characterized in that, the composite base plate includes first and second base-plate gaskets (63, 67), the first base-plate gasket interposed between an upper surface of the structural plate and a bottom portion of the vertical element, the second base plate gasket mounted to a bottom surface of the structural plate to seal the base plate to the ground in a watertight manner when the vertical element is secured thereto. at least one of the vertical elements having a base plate at the bottom end of the vertical element and first and second gaskets extending vertically along the vertical element; wherein the first and second gaskets are spaced from each other and configured to engage the panels in a water-tight manner upon placement of the panels between the first and second gaskets; wherein at least one of the gaskets has a lower end adapted to engage the base plate in an interference fit; wherein the base plate comprises multiple layers to form a composite base plate, the layers including a structural plate and at least one base-plate gasket on the surface of the structural plate; characterized in that, the composite base plate includes first and second base-plate gaskets (63, 67), the first base-plate gasket interposed between an upper surface of the structural plate and a bottom portion of the vertical element, the second base plate gasket mounted to a bottom surface of the structural plate to seal the base plate to the ground in a watertight manner when the vertical element is secured thereto.
In a computing environment, a method comprising: joining a squad of client devices that are each capable of communicating with one another over a WLAN connection and each comprising means for location detection; obtaining data for use as mashup information from at least one other client device in the squad that was obtained from a service based on information that the service received from another squad; characterized in that the method further comprising temporarily turning off the WLAN connection to enter a sleep mode between intra-squad communications, wherein waking up from the sleep mode and sharing data via WLAN is based on a GPS timestamp that is used as time data to synchronize all clients in a squad, such that clients wake up their WLAN interfaces simultaneously to share. joining a squad of client devices that are each capable of communicating with one another over a WLAN connection and each comprising means for location detection; obtaining data for use as mashup information from at least one other client device in the squad that was obtained from a service based on information that the service received from another squad; characterized in that the method further comprising temporarily turning off the WLAN connection to enter a sleep mode between intra-squad communications, wherein waking up from the sleep mode and sharing data via WLAN is based on a GPS timestamp that is used as time data to synchronize all clients in a squad, such that clients wake up their WLAN interfaces simultaneously to share.
A method of modifying a zeolite catalyst to increase para-xylene selectivity of the zeolite catalyst in toluene methylation reactions, the method comprising: forming a slurry consisting essentially of a ZSM-5-type zeolite having a SiO 2 /Al 2 O 3 mole ratio of from 300 to 1000 and an aqueous solution of a phosphorus-containing compound; and removing water from the slurry to provide a non-steamed, phosphorus treated ZSM-5 zeolite catalyst having a phosphorus content of from 0.04g P/g zeolite or more and a pore volume of from 0.2 ml/g or less with the proviso that the ZSM-5-type zeolite comprised in the slurry does not have a SiO 2 /Al 2 O 3 mole ratio of 300 to provide a ZSM-5 zeolite catalyst having a phosphorus content of from 0.04 to about 0.15 g P/g zeolite and a pore volume in the range of 0.10-0.18 ml/g catalyst. forming a slurry consisting essentially of a ZSM-5-type zeolite having a SiO 2 /Al 2 O 3 mole ratio of from 300 to 1000 and an aqueous solution of a phosphorus-containing compound; and removing water from the slurry to provide a non-steamed, phosphorus treated ZSM-5 zeolite catalyst having a phosphorus content of from 0.04g P/g zeolite or more and a pore volume of from 0.2 ml/g or less with the proviso that the ZSM-5-type zeolite comprised in the slurry does not have a SiO 2 /Al 2 O 3 mole ratio of 300 to provide a ZSM-5 zeolite catalyst having a phosphorus content of from 0.04 to about 0.15 g P/g zeolite and a pore volume in the range of 0.10-0.18 ml/g catalyst.
A method of providing corn embryos suitable for transformation or tissue culture, comprising: (a) providing corn seeds containing immature embryos having an opening in the pericarp of said corn seeds; and (b) applying mechanical positive pressure to said corn seeds sufficient to extrude said immature embryos from said corn seeds, wherein said extruded immature embryos comprise embryos or pieces of embryos suitable for genetic transformation or tissue culture. (a) providing corn seeds containing immature embryos having an opening in the pericarp of said corn seeds; and (b) applying mechanical positive pressure to said corn seeds sufficient to extrude said immature embryos from said corn seeds, wherein said extruded immature embryos comprise embryos or pieces of embryos suitable for genetic transformation or tissue culture.
A method for identifying gear tooth numbers in a gearbox using data obtained from a vibration measuring device delivered to a data acquisition device and data delivered by a user to a computer device, wherein the method has the following steps: - a step S1 of processing the data delivered by a user to the computer device, where the data comprises a gearbox ratio and a number of stages of the gearbox for calculating a potential gear tooth combination in each stage of the gearbox, - a step S2 of calculating frequencies of characteristic features for each potential tooth combination using the data delivered at step S1, - a step S3 of measuring the vibration signals and an angular displacement signal of the gearbox, - a step S4 of calculating a frequency spectrum from the measured data delivered at step S3, - a step S5 of determining an amplitude of components of the frequency spectrum delivered at step S4 at frequencies of characteristic features for each potential tooth combination delivered at step S2, - a step S6 of determining the tooth numbers in the gearbox by identifying which potential gear tooth combination maximizes the amplitudes of the components of the frequency spectrum at frequencies of characteristic features and - a step S7 of presenting the tooth numbers in the gearbox in the computer device or in an output unit connected to the computer device. - a step S1 of processing the data delivered by a user to the computer device, where the data comprises a gearbox ratio and a number of stages of the gearbox for calculating a potential gear tooth combination in each stage of the gearbox, - a step S2 of calculating frequencies of characteristic features for each potential tooth combination using the data delivered at step S1, - a step S3 of measuring the vibration signals and an angular displacement signal of the gearbox, - a step S4 of calculating a frequency spectrum from the measured data delivered at step S3, - a step S5 of determining an amplitude of components of the frequency spectrum delivered at step S4 at frequencies of characteristic features for each potential tooth combination delivered at step S2, - a step S6 of determining the tooth numbers in the gearbox by identifying which potential gear tooth combination maximizes the amplitudes of the components of the frequency spectrum at frequencies of characteristic features and - a step S7 of presenting the tooth numbers in the gearbox in the computer device or in an output unit connected to the computer device.
A detection device comprising: a transport passage along which a medium is transported; and a detection unit, the detection device being characterized in that the detection unit is configured to detect a leading edge portion and a trailing edge portion of the medium in the transport passage while transportation of the medium is stopped and while the medium is pulled in a pulling direction along the transport passage. a transport passage along which a medium is transported; and a detection unit, the detection device being characterized in that the detection unit is configured to detect a leading edge portion and a trailing edge portion of the medium in the transport passage while transportation of the medium is stopped and while the medium is pulled in a pulling direction along the transport passage.
A method for mapping a logical channel to a Media Access Control, MAC, flow in the 3 rd Generation Partnership Project, 3GPP, standard, comprising: a Radio Network Controller, RNC, and a User Equipment, UE, determining an identification of an Enhanced Dedicated Channel, E-DCH, MAC flow used by a Common Control Channel, CCCH; the RNC sending signaling to the UE to notify a corresponding relationship between the identification of the E-DCH MAC flow used by the CCCH and an Hybrid Automatic Repeat Request, HARQ, profile; and the UE receiving the signaling from the RNC, and obtaining at least one of the following parameters of the HARQ profile corresponding to the identification according to the identification of the E-DCH MAC flow used by the CCCH and the corresponding relationship between the identification of the E-DCH MAC flow used by the CCCH and the HARQ profile: E-DCH MAC flow power offset, E-DCH MAC flow maximum number of retransmissions and a multiplexing indicator between different E-DCH MAC flows. a Radio Network Controller, RNC, and a User Equipment, UE, determining an identification of an Enhanced Dedicated Channel, E-DCH, MAC flow used by a Common Control Channel, CCCH; the RNC sending signaling to the UE to notify a corresponding relationship between the identification of the E-DCH MAC flow used by the CCCH and an Hybrid Automatic Repeat Request, HARQ, profile; and the UE receiving the signaling from the RNC, and obtaining at least one of the following parameters of the HARQ profile corresponding to the identification according to the identification of the E-DCH MAC flow used by the CCCH and the corresponding relationship between the identification of the E-DCH MAC flow used by the CCCH and the HARQ profile: E-DCH MAC flow power offset, E-DCH MAC flow maximum number of retransmissions and a multiplexing indicator between different E-DCH MAC flows.
A water-in-oil emulsion sunscreen cosmetic comprising: 6 to 40 mass% of a UV protective agent; an organic-modified clay mineral; an oil-phase-thickening agent, other than; and a silicone-based surfactant having an HLB of less than 8, and one or more non-volatile liquid oils except silicone oils, wherein the ratio, [total quantity of component and component] / [total quantity of non-volatile liquid oils except silicone oils], is 0.04 or more and less than 0.68, wherein, the silicone-based surfactant having an HLB of less than 8 is at least one selected from the group consisting of: a polyoxyalkylene-modified silicone represented by the following general formula: where, R denotes a C 1-3 alkyl group or a phenyl group; R' denotes a hydrogen or a C 1-12 alkyl group; q is 1 to 50; m is 1 to 100; n and x are each 1 to 50; and y is 0 to 50; and a polyglycerin-modified silicone represented by the following formula: where, R 1 denotes a linear or branched C 1-12 alkyl group or a phenyl group; R 2 denotes a C 2-11 alkylene group; p is 10 to 120; and q is 1 to 11. 6 to 40 mass% of a UV protective agent; an organic-modified clay mineral; an oil-phase-thickening agent, other than; and a silicone-based surfactant having an HLB of less than 8, and one or more non-volatile liquid oils except silicone oils, a polyoxyalkylene-modified silicone represented by the following general formula: where, R denotes a C 1-3 alkyl group or a phenyl group; R' denotes a hydrogen or a C 1-12 alkyl group; q is 1 to 50; m is 1 to 100; n and x are each 1 to 50; and y is 0 to 50; and a polyglycerin-modified silicone represented by the following formula: where, R 1 denotes a linear or branched C 1-12 alkyl group or a phenyl group; R 2 denotes a C 2-11 alkylene group; p is 10 to 120; and q is 1 to 11.
A vacuum insulated glazing unit comprising: o a first glass pane and a second glass pane with inner surfaces (12, 22) opposing each other; o a side seal material positioned between edges of the glass panes (10, 20) thereby forming a sealed cavity having a cavity pressure between the first glass pane and the second glass pane; o a number of spacers positioned between the first glass pane and the second glass pane inside the sealed cavity; characterised in that the vacuum insulated glazing unit further comprises o at least one getter having a surface with an increased surface area obtained by laser ablation with a pulsed laser emitting pulses with a pulse length of 500 picosecond or shorter. o a first glass pane and a second glass pane with inner surfaces (12, 22) opposing each other; o a side seal material positioned between edges of the glass panes (10, 20) thereby forming a sealed cavity having a cavity pressure between the first glass pane and the second glass pane; o a number of spacers positioned between the first glass pane and the second glass pane inside the sealed cavity; o at least one getter having a surface with an increased surface area obtained by laser ablation with a pulsed laser emitting pulses with a pulse length of 500 picosecond or shorter.
Beverage mixing device comprising - a mixing body defining a mixing chamber, - at least one or a plurality of fluid inlets (4, 5, 6) for supplying a fluid (L, W, A, S) into the mixing chamber, - a discharge opening to discharge a liquid from the mixing chamber, - a sealing element being moveably provided between a closed position for closing the discharge opening and an open position for releasing the discharge opening to allow a liquid in the mixing chamber be discharged via the discharge opening, the beverage mixing device is characterized in that it comprises - an evacuation outlet for evacuating the mixing chamber by a fluid be introduced into the mixing chamber via the at least one or the plurality of fluid inlets (4, 5, 6) when the discharge opening is closed by the sealing element. - a mixing body defining a mixing chamber, - at least one or a plurality of fluid inlets (4, 5, 6) for supplying a fluid (L, W, A, S) into the mixing chamber, - a discharge opening to discharge a liquid from the mixing chamber, - a sealing element being moveably provided between a closed position for closing the discharge opening and an open position for releasing the discharge opening to allow a liquid in the mixing chamber be discharged via the discharge opening, - an evacuation outlet for evacuating the mixing chamber by a fluid be introduced into the mixing chamber via the at least one or the plurality of fluid inlets (4, 5, 6) when the discharge opening is closed by the sealing element.
Hub for at least partially muscle-powered vehicles and in particular bicycles comprising a hub shell which is rotatably supported relative to a hub axle by means of two roller bearings (14, 24) disposed on opposite end regions (3, 4) of the hub shell, a rotor rotatably supported relative to the hub axle by means of at least two rotor bearings (6, 7), and a freewheel device having two interacting freewheel components (10, 20) namely, a hub-side freewheel component and a rotor-side freewheel component, wherein the two freewheel components (10, 20) each comprise axial engagement elements and are movable relative to one another in the axial direction at least between a freewheel position and an intermeshing engagement position, wherein in the engagement position a driving torque can be transmitted and wherein in the freewheel position the rotor and the hub shell are decoupled from one another wherein the rotor is disposed in the same axial position both in the freewheel position and in the engagement position, wherein the hub-side freewheel component has an axial body section with an inner central receiving space and a bearing seat formed thereat and a roller bearing received thereat to rotatably support the hub shell, wherein the rotor-side freewheel component is non-rotatably and axially movably received in the rotor and wherein the hub-side freewheel component is non-rotatably and axially fixedly coupled with the hub shell, wherein the axial body section comprises a round outer cross-section having an external thread which in the mounted state is screwed into an internal thread of the hub shell, characterised in that the hub-side freewheel component comprises an appendix protruding outwardly from the axial body section and an annular flange projecting inwardly, and that the engagement elements are configured on the axially outside surface of the annular flange and a stopper is formed on the axially inside surface of the appendix which when mounted rests against a radial shoulder of the hub shell.
Filter apparatus for transmission oil, having a filter element, which is inserted in a transmission oil pan, the filter medium in said filter element separating an unfiltered medium side from a filtrate chamber, which is connected in a fluid-conveying manner to an outlet (38, 50, 72), to which a vacuum conveying device, such as a suction oil pump, may be connected, the filter medium of the filter element comprising at least one structural layer with a pre-defined surface area and with pre-definable filter properties as well as at least one further structural layer (44; 60) with pre-definable filter properties, the surface area of the further structural layer (44; 60) being different from the surface area of the first structural layer, the individual structural layers (44, 46, 60) surrounding an inner filter cavity, the individual structural layers (44, 46, 60) being pleated with the same kind of folds, and the pleated structural layers (44, 46, 60) extending in the axial direction between two end caps (22, 34) of the filter element, characterised in that, viewed in the throughflow direction of the fluid flow to be cleaned, the respective structural layer (44; 60) with the higher filter grade follows a preceding structural layer with a lower filter grade in each case, in that the filter element is provided in the form of a flat filter, the filter medium, in the form of a filter mat, surrounding the filter cavity of said flat filter, referred to a cutting plane running in parallel with the end caps (22,34), comprising a flat cross-sectional shape with large, flat wide sides (52, 54) and narrow, rounded narrow sides (56, 58), and in that one wide side of the filter element faces a base of the associated transmission oil pan.
A lamp comprising electric contact members (9,10) at the outside of the lamp for making contact with corresponding electric contact elements (21,22) in a lamp holder, the light radiation of the lamp being emitted from the front side of the lamp, said front side being substantially located in a plane perpendicular to the longitudinal direction of the lamp, wherein the contact members (9,10) of the lamp border the circumferential edge of said front side of the lamp, and wherein the lamp comprises a number of LEDs.
A filter element, comprising: a non-pleated tubular ring of a depth media having a media thickness of at least 1⁄4 centimeter; the depth media comprising a substrate of carrier fibers and electro-spun fine fibers, the carrier fibers having an average size of greater than 600 nanometer; and the fine fibers having an average size of less than 800 nanometers carried by the carrier fibers; wherein the fine fibers have a size that is at least 4 times as small as the carrier fibers, and wherein said depth media comprises multiple layers of wound substrate of carrier fibers with fine fibers throughout the depth of the depth media, the depth media having a coverage of fine fibers carried throughout the depth of at least 0.1 g/m 2 and at least 10 000 km/m 2. a non-pleated tubular ring of a depth media having a media thickness of at least 1⁄4 centimeter; the depth media comprising a substrate of carrier fibers and electro-spun fine fibers, the carrier fibers having an average size of greater than 600 nanometer; and the fine fibers having an average size of less than 800 nanometers carried by the carrier fibers; wherein the fine fibers have a size that is at least 4 times as small as the carrier fibers, and wherein said depth media comprises multiple layers of wound substrate of carrier fibers with fine fibers throughout the depth of the depth media, the depth media having a coverage of fine fibers carried throughout the depth of at least 0.1 g/m 2 and at least 10 000 km/m 2.