mhurhangee/ep-ind-claims huggingface dataset:
A supercontinuum optical pulse source to provide a combined supercontinuum, comprising: one or more seed pulse sources; first and second optical amplifiers arranged along first and second respective optical paths, wherein said first and second optical amplifiers are configured to amplify one or more optical signals generated by said one or more seed pulse sources; a first microstructured light-guiding member (9,15) arranged along the first optical path and configured to generate supercontinuum light responsive to an optical signal propagating along said first optical path; a second microstructured light-guiding member (9,15) arranged along the second optical path and configured to generate supercontinuum light responsive to an optical signal propagating along said second optical path; a supercontinuum-combining member to combine supercontinuum generated in at least the first and second microstructured light-guiding members to form a combined supercontinuum, characterized in that the supercontinuum-combining member comprises an output fibre, wherein the output fibre comprises a silica-based multimode optical fibre supporting a plurality of spatial modes at one or more wavelengths of the combined supercontinuum. one or more seed pulse sources; first and second optical amplifiers arranged along first and second respective optical paths, wherein said first and second optical amplifiers are configured to amplify one or more optical signals generated by said one or more seed pulse sources; a first microstructured light-guiding member (9,15) arranged along the first optical path and configured to generate supercontinuum light responsive to an optical signal propagating along said first optical path; a second microstructured light-guiding member (9,15) arranged along the second optical path and configured to generate supercontinuum light responsive to an optical signal propagating along said second optical path; a supercontinuum-combining member to combine supercontinuum generated in at least the first and second microstructured light-guiding members to form a combined supercontinuum, characterized in that the supercontinuum-combining member comprises an output fibre, wherein the output fibre comprises a silica-based multimode optical fibre supporting a plurality of spatial modes at one or more wavelengths of the combined supercontinuum.
A method of controlling lighting devices via input from a mobile device, the mobile device having a direction sensor and a transceiver for local communication with the lighting devices, the method comprising: - establishing a wireless connection between the mobile device and a present lighting device having a dominant light effect at a current location of the mobile device; and controlling the present lighting device by the mobile device; characterized in that the method further comprises: - upon movement of the mobile device, while being wirelessly connected with the present lighting device, obtaining movement direction data generated by the direction sensor of the mobile device, said movement direction data being indicative of a direction of said movement of the mobile device; - providing the movement direction data and determining an expected next lighting device to be controlled based on the movement direction data, said expected next lighting device to be controlled having a dominant light effect in said movement direction; and performing a handover of the control of the present lighting device to the expected next lighting device to be controlled. - establishing a wireless connection between the mobile device and a present lighting device having a dominant light effect at a current location of the mobile device; and - upon movement of the mobile device, while being wirelessly connected with the present lighting device, obtaining movement direction data generated by the direction sensor of the mobile device, said movement direction data being indicative of a direction of said movement of the mobile device; - providing the movement direction data and determining an expected next lighting device to be controlled based on the movement direction data, said expected next lighting device to be controlled having a dominant light effect in said movement direction; and
A system for treatment of a lean burn engine exhaust gas stream including hydrocarbons, carbon monoxide, and other exhaust components, the system comprising an exhaust conduit in fluid communication with the lean burn engine via an exhaust manifold; a base metal catalyst disposed on a carrier substrate; and a particulate filter and a first SCR catalyst located downstream from the base metal catalyst; wherein the base metal catalyst comprises a base metal material in an amount effective to generate an exotherm over a temperature range of 300 °C to 650 °C and to oxidize soot collected by a downstream particulate filter, wherein there is no platinum group metal intentionally added to the base metal catalyst and there is less than 0.18 g/l (5 g/ft 3) of platinum group metal by weight in the base metal catalyst, wherein the base metal material comprises V in an amount in the range of from 0.1 wt. % to 10 wt. %, calculated as V 2 O 5 based on the overall washcoat applied to the substrate, wherein the base metal material comprises W in an amount in the range of 1 wt. % to 20 wt. % calculated as WO 3 based on the overall washcoat applied to the substrate, wherein the base metal catalyst is dispersed on a titania refractory metal oxide support, wherein the system further comprises a fuel injector downstream of the engine and upstream of the base metal catalyst. an exhaust conduit in fluid communication with the lean burn engine via an exhaust manifold; a base metal catalyst disposed on a carrier substrate; and a particulate filter and a first SCR catalyst located downstream from the base metal catalyst; wherein the base metal catalyst comprises a base metal material in an amount effective to generate an exotherm over a temperature range of 300 °C to 650 °C and to oxidize soot collected by a downstream particulate filter, wherein there is no platinum group metal intentionally added to the base metal catalyst and there is less than 0.18 g/l (5 g/ft 3) of platinum group metal by weight in the base metal catalyst, wherein the base metal material comprises V in an amount in the range of from 0.1 wt. % to 10 wt. %, calculated as V 2 O 5 based on the overall washcoat applied to the substrate, wherein the base metal material comprises W in an amount in the range of 1 wt. % to 20 wt. % calculated as WO 3 based on the overall washcoat applied to the substrate, wherein the base metal catalyst is dispersed on a titania refractory metal oxide support, wherein the system further comprises a fuel injector downstream of the engine and upstream of the base metal catalyst.
A mechanical suspension part comprising a receiving bearing suitable for receiving at least two different possible cylindrical shims (E2, E2'), each possible cylindrical shim having a predetermined diameter (D, D') and insertion height (H, H'), characterized in that the receiving bearing consists of a receiving opening having a slightly smaller diameter than the diameter (D') of the shim (E2') having the smallest diameter and having an axial thickness ("e") that varies depending on the radial direction of the bearing, the adaptation of the mechanical part to the cylindrical shim selected among the possible shims (E2, E2') being carried out by boring the receiving bearing to the diameter of said selected cylindrical shim.
An apparatus for infrared photon sensing, comprising: a first readout integrated circuit (ROIC) comprising a plurality of first unit cells; a second ROIC disposed outwardly in a first direction from the first ROIC and comprising a plurality of second unit cells, a plurality of electrically conductive vias disposed through the second ROIC and at least into the first ROIC; a dual band detector array disposed outwardly in the first direction from the second ROIC and configured to detect high dynamic range infrared light, the detector array comprising a plurality of detector pixels, each detector pixel configured to: generate a current in response to detecting light; and send the current to a via of the plurality of electrical conductive vias, the via configured to send the current to a second unit cell of the plurality of second unit cells and a first unit cell of the plurality of first unit cells; wherein the first unit cell of the plurality of first unit cells comprises a first switch; the second unit cell of the plurality of second unit cells comprises a second switch; the first switch and the second switch are configured to send current from the detector array alternately to the first ROIC and the second ROIC; and the first ROIC and the second ROIC are configured to perform different functions. a first readout integrated circuit (ROIC) comprising a plurality of first unit cells; a second ROIC disposed outwardly in a first direction from the first ROIC and comprising a plurality of second unit cells, a plurality of electrically conductive vias disposed through the second ROIC and at least into the first ROIC; a dual band detector array disposed outwardly in the first direction from the second ROIC and configured to detect high dynamic range infrared light, the detector array comprising a plurality of detector pixels, each detector pixel configured to: generate a current in response to detecting light; and send the current to a via of the plurality of electrical conductive vias, the via configured to send the current to a second unit cell of the plurality of second unit cells and a first unit cell of the plurality of first unit cells; generate a current in response to detecting light; and send the current to a via of the plurality of electrical conductive vias, the via configured to send the current to a second unit cell of the plurality of second unit cells and a first unit cell of the plurality of first unit cells; wherein the first unit cell of the plurality of first unit cells comprises a first switch; the second unit cell of the plurality of second unit cells comprises a second switch; the first switch and the second switch are configured to send current from the detector array alternately to the first ROIC and the second ROIC; and the first ROIC and the second ROIC are configured to perform different functions.
A power conversion apparatus comprising filter capacitors for storing direct current DC power, switching modules for converting DC power stored in the filter capacitors to alternating current AC power, and a layered laminate bus bar assembly in which a plurality of laminate bus bars (2a, 2b) are layered with a given spacing from one another, the filter capacitors and the switching modules being electrically connected by the layered laminate bus bar assembly, wherein the layered laminate bus bar assembly includes a first laminate bus bar and a second laminate bus bar, laminated with an insulation film, the first laminate bus bar and the second laminate bus bar respectively include first faces (23a, 23b) opposing each other, second faces (24a, 24b) opposing each other, and bent portions (21a, 21b) connecting the first faces (23a, 23b) with the second faces (24a, 24b) respectively and opposing each other, the insulation film comprises an insulating material that is disposed, respectively, between the first face of the first laminate bus bar and the first face of the second laminate bus bar and between the second face of the first laminate bus bar and the second face of the second laminate bus bar so that the insulating material is not bent in the bent portions (21a, 21b), and wherein the first laminate bus bar comprises plural insertion holes into which connection protrusions of the second laminate bus bar are inserted. wherein the layered laminate bus bar assembly includes a first laminate bus bar and a second laminate bus bar, laminated with an insulation film, the first laminate bus bar and the second laminate bus bar respectively include first faces (23a, 23b) opposing each other, second faces (24a, 24b) opposing each other, and bent portions (21a, 21b) connecting the first faces (23a, 23b) with the second faces (24a, 24b) respectively and opposing each other, the insulation film comprises an insulating material that is disposed, respectively, between the first face of the first laminate bus bar and the first face of the second laminate bus bar and between the second face of the first laminate bus bar and the second face of the second laminate bus bar so that the insulating material is not bent in the bent portions (21a, 21b), and wherein the first laminate bus bar comprises plural insertion holes into which connection protrusions of the second laminate bus bar are inserted.
A medical spraying device for irrigating a wound, in particular lavage system, comprising a liquid reservoir for a medical irrigation liquid or a connection for such a liquid reservoir and a compressed gas reservoir, wherein the compressed gas reservoir is connected or connectable via a pressure line to the liquid reservoir, such that the irrigation liquid can be pushed by the gas pressure of the compressed gas reservoir acting on the irrigation liquid through a nozzle (24, 52) in order to produce a spray cone, characterized in that at least one pressure relief valve (14, 15) is arranged in the wall of the pressure line which opens outwardly and closes the pressure line in accordance with the gas pressure from the compressed gas reservoir.
A method comprising: receiving a request to initiate recording of a media object, wherein the media object includes a first plurality of sequential media segments, wherein the first plurality of sequential media segments is associated with a first corresponding plurality of metadata files, and wherein each of the first corresponding plurality of metadata files provides a description of a respective one of the first plurality of sequential media segments; generating, in response to receiving the_request to initiate recording of the media object, a first common metadata file that is associated with the media object as a function of the first corresponding plurality of metadata files, wherein generating the first common metadata file includes concatenating the first corresponding plurality of metadata files with each other, and wherein the first common metadata file includes a source identifier that identifies a source associated with the media object, a recording identifier associated with the request, and sequencing information associated with the first plurality of sequential media segments, wherein the sequencing information indicates the concatenation of the first plurality of sequential media segments, temporal information associated with the media object, and a first segment identifier associated with a first one of the first plurality of sequential media segments; and storing the first plurality of sequential media segments based on the sequencing information included in the first common metadata file. receiving a request to initiate recording of a media object, wherein the media object includes a first plurality of sequential media segments, wherein the first plurality of sequential media segments is associated with a first corresponding plurality of metadata files, and wherein each of the first corresponding plurality of metadata files provides a description of a respective one of the first plurality of sequential media segments; generating, in response to receiving the_request to initiate recording of the media object, a first common metadata file that is associated with the media object as a function of the first corresponding plurality of metadata files, wherein generating the first common metadata file includes concatenating the first corresponding plurality of metadata files with each other, and wherein the first common metadata file includes a source identifier that identifies a source associated with the media object, a recording identifier associated with the request, and sequencing information associated with the first plurality of sequential media segments, wherein the sequencing information indicates the concatenation of the first plurality of sequential media segments, temporal information associated with the media object, and a first segment identifier associated with a first one of the first plurality of sequential media segments; and storing the first plurality of sequential media segments based on the sequencing information included in the first common metadata file.
Reliability method implemented by a UPnP control device in a network, this method including: - a step of discovering a spare device, able to control a rendering of content in a rendering list; - a step of sending, to said spare device, a rendering list (L DMC) containing at least one multimedia content; - a step of sending a notification message to said spare device so that it takes control of the rendering of the content in the sent rendering list (L DMC). - a step of discovering a spare device, able to control a rendering of content in a rendering list; - a step of sending, to said spare device, a rendering list (L DMC) containing at least one multimedia content; - a step of sending a notification message to said spare device so that it takes control of the rendering of the content in the sent rendering list (L DMC).
An electronic device comprising: a body including a single crystal, electrically insulative first region on a major surface of said body, said first region having a hexagonal crystal lattice and a lattice mismatch to graphene of not greater than 2 percent, at least one layer of graphene disposed on said first region of said body, and a multilayered, single crystal, electrically insulative second region disposed on said at least one graphene layer, said second region having a hexagonal crystal lattice within each layer thereof, said second region having a lattice mismatch to the graphene layer of not greater than 2 percent. a body including a single crystal, electrically insulative first region on a major surface of said body, said first region having a hexagonal crystal lattice and a lattice mismatch to graphene of not greater than 2 percent, at least one layer of graphene disposed on said first region of said body, and a multilayered, single crystal, electrically insulative second region disposed on said at least one graphene layer, said second region having a hexagonal crystal lattice within each layer thereof, said second region having a lattice mismatch to the graphene layer of not greater than 2 percent.
An inkjet ink composition comprising: a pigment; and a polyurethane, comprising: a first comonomer repeat unit that comprises a hydrophilic group, and a functional group different from the hydrophilic group, the functional group comprising (CH 2) n C (PO 3 H 2) 2 or an ester or salt thereof, wherein n is 0-9 and R is H, R a, OR a, SR a, or NR a R b, in which each of R a and R b, independently, being H, C 1 -C 10 alkyl, or aryl, and wherein the functional group is an end group of the polyurethane. a pigment; and a polyurethane, comprising: a first comonomer repeat unit that comprises a hydrophilic group, and a functional group different from the hydrophilic group, the functional group comprising (CH 2) n C (PO 3 H 2) 2 or an ester or salt thereof, wherein n is 0-9 and R is H, R a, OR a, SR a, or NR a R b, in which each of R a and R b, independently, being H, C 1 -C 10 alkyl, or aryl, and wherein the functional group is an end group of the polyurethane. a first comonomer repeat unit that comprises a hydrophilic group, and a functional group different from the hydrophilic group, the functional group comprising (CH 2) n C (PO 3 H 2) 2 or an ester or salt thereof, wherein n is 0-9 and R is H, R a, OR a, SR a, or NR a R b, in which each of R a and R b, independently, being H, C 1 -C 10 alkyl, or aryl, and wherein the functional group is an end group of the polyurethane.
Device for drying hay, comprising a ventilation box for receiving the hay, wherein the ventilation box is covered with a roof, the device further comprising at least one fan, through which fan air can be sucked in, wherein the sucked-in air can be supplied at least partially to an air dehumidifier in order to dehumidify the air, and wherein by means of the at least one fan the air can finally be blown through the ventilation box from an initial region to an end region of the ventilation box, wherein the hay can be arranged between the initial region and end region on a box surface which can be approached by the air flow, wherein a changeover flap is provided which can be moved from a first position into a second position, wherein in the first position the air can be sucked in by the at least one fan only from the ventilation box in order to form a closed air circuit in the device, and wherein in the second position the air can be sucked in at least partially from outside the ventilation box, wherein several, preferably five, ventilation boxes are provided, wherein air guide means (20, 21) are provided to guide the air selectively to a specific ventilation box, wherein further a regulating control unit, preferably designed as a programmable logic controller, is provided, by means of which the at least one fan and the air dehumidifier can be controlled and/or regulated, and wherein the air guide means comprise at least one air guide flap, which can be controlled by means of the regulating control unit, characterized in that the changeover flap can be controlled and/or regulated by means of the regulating control unit, and in that the at least one air guide flap can be controlled by means of the regulating control unit in such a way as to dry the hay at intervals in the different ventilation boxes, wherein the at least one air guide flap can be controlled by means of the regulating control unit in such a way that the hay in one of the ventilation boxes is not dried during a first time interval and is dried in a subsequent second time interval by blowing air into this ventilation box.