mhurhangee/ep-ind-claims huggingface dataset:
An acoustic transducer assembly comprising: a carrier configured to be disposed in an earth formation, the carrier having a carrier axis; a measurement tool attached to the carrier; an array of individual transducer elements disposed in the measurement tool and forming at least a semicircular shape, the array configured to emit acoustic signals in a radial direction relative to the carrier axis; a circuit coupled to the array and configured to actuate a subset of the transducer elements and emit an acoustic beam therefrom, the circuit configured to actuate the subset as a phased array to electronically rotate the acoustic beam about the carrier axis; and a focusing element (88, 90) coupled to the array and configured to focus and maintain the acoustic beam at a selected axial level such that the acoustic beam may be electronically steered to maintain the beam at the selected axial level relative to the measurement tool, characterized in that the focusing element is a cylindrical pressure compensated, oil-coupled, quarter-wave lens for elevation focusing, and wherein the oil coupling comprises a uniform, thin oil coupling/compensating layer. a carrier configured to be disposed in an earth formation, the carrier having a carrier axis; a measurement tool attached to the carrier; an array of individual transducer elements disposed in the measurement tool and forming at least a semicircular shape, the array configured to emit acoustic signals in a radial direction relative to the carrier axis; a circuit coupled to the array and configured to actuate a subset of the transducer elements and emit an acoustic beam therefrom, the circuit configured to actuate the subset as a phased array to electronically rotate the acoustic beam about the carrier axis; and a focusing element (88, 90) coupled to the array and configured to focus and maintain the acoustic beam at a selected axial level such that the acoustic beam may be electronically steered to maintain the beam at the selected axial level relative to the measurement tool, characterized in that the focusing element is a cylindrical pressure compensated, oil-coupled, quarter-wave lens for elevation focusing, and wherein the oil coupling comprises a uniform, thin oil coupling/compensating layer.
A device (20; 120) for separating soil, clod and/or stones from root vegetables or bulbs, the device comprising: at least one pair of rotatable members (23; 123a-c) which are arranged so that soil, stones and/or clods are drawn down between the rotatable members whilst root vegetables or bulbs pass thereover, and in which: • the rotatable members (22, 24; 122, 124; 522; 622) in said pair are arranged to rotate in opposite directions; • at least one of the rotatable members in said pair is resiliently deformable; • at least one of the rotatable members (522; 622) in said pair is generally circular in cross-section, and has at least one flat (68; 74, 76) formed on an outer surface (540; 640) thereof, the at least one flat extending in a helical path around a circumference of the rotatable member; and • each rotatable member in said pair has a surface which is free from projections; and in which the device comprises cleaning elements (25, 27; 125a-c, 127a-c), one for each rotatable member in said pair, for removing material adhered to a surface of the rotatable member. at least one pair of rotatable members (23; 123a-c) which are arranged so that soil, stones and/or clods are drawn down between the rotatable members whilst root vegetables or bulbs pass thereover, and in which: • the rotatable members (22, 24; 122, 124; 522; 622) in said pair are arranged to rotate in opposite directions; • at least one of the rotatable members in said pair is resiliently deformable; • at least one of the rotatable members (522; 622) in said pair is generally circular in cross-section, and has at least one flat (68; 74, 76) formed on an outer surface (540; 640) thereof, the at least one flat extending in a helical path around a circumference of the rotatable member; and • each rotatable member in said pair has a surface which is free from projections; • the rotatable members (22, 24; 122, 124; 522; 622) in said pair are arranged to rotate in opposite directions; • at least one of the rotatable members in said pair is resiliently deformable; • at least one of the rotatable members (522; 622) in said pair is generally circular in cross-section, and has at least one flat (68; 74, 76) formed on an outer surface (540; 640) thereof, the at least one flat extending in a helical path around a circumference of the rotatable member; and • each rotatable member in said pair has a surface which is free from projections;
An optical wafer stack comprising: a first transparent wafer (210; 305; 510) including at least a first lens;; a second transparent wafer (225; 320; 520) including at least a second lens a first spacer wafer (220; 315) positioned between the first transparent wafer (210; 305; 510) and the second transparent wafer (225; 320; 520) and including at least a first cell comprising a first perimeter around a first opening, the first lens and the second lens protruding at least partially into the first opening; a first alignment mark (205; 260; 340; 505) provided on the first transparent wafer (210; 305; 510); and a second alignment mark (250; 265; 345; 525) provided on the second transparent wafer (225; 320; 520), characterized in that the optical wafer stack further comprises a first beam splitter layer (215; 310; 515) disposed on a surface of the first spacer wafer (220; 315) at a midpoint between an optical path between the first alignment mark (205; 260; 340; 505) and the second alignment mark (250; 265; 345; 525). a first transparent wafer (210; 305; 510) including at least a first lens;; a second transparent wafer (225; 320; 520) including at least a second lens a first spacer wafer (220; 315) positioned between the first transparent wafer (210; 305; 510) and the second transparent wafer (225; 320; 520) and including at least a first cell comprising a first perimeter around a first opening, the first lens and the second lens protruding at least partially into the first opening; a first alignment mark (205; 260; 340; 505) provided on the first transparent wafer (210; 305; 510); and a second alignment mark (250; 265; 345; 525) provided on the second transparent wafer (225; 320; 520), characterized in that the optical wafer stack further comprises a first beam splitter layer (215; 310; 515) disposed on a surface of the first spacer wafer (220; 315) at a midpoint between an optical path between the first alignment mark (205; 260; 340; 505) and the second alignment mark (250; 265; 345; 525).
A system comprising: a plurality of medical devices (210a-210n) each including a radio frequency identification (RFID) transponder (220a-220n); and an RFID transponder emulator configured to emulate functionality of each of the RFID transponders of the plurality of medical devices, characterised in that the RFID transponder emulator includes a plurality of input controls having a user interface for selecting a mode from a plurality of modes of operation and providing selective emulation of some or all of the RFID transponders. a plurality of medical devices (210a-210n) each including a radio frequency identification (RFID) transponder (220a-220n); and an RFID transponder emulator configured to emulate functionality of each of the RFID transponders of the plurality of medical devices, characterised in that the RFID transponder emulator includes a plurality of input controls having a user interface for selecting a mode from a plurality of modes of operation and providing selective emulation of some or all of the RFID transponders.
A control device for controlling charging of a rechargeable battery, comprising: a rechargeable dummy cell, a first circuit configured to charge the battery and the dummy cell, and a second circuit configured to measure the open circuit voltage (OCV d) of the dummy cell, the control device being configured to: determine the open circuit voltage (OCV d) of the dummy cell by using the second circuit, determine the maximum capacity increment (ΔAh max) of the battery based on the determined open circuit voltage (OCV d) of the dummy cell, charge the battery and the dummy cell by using the first circuit, monitor the current capacity increment (ΔAh x) of the battery which has been charged, and stop charging, when the current capacity increment (ΔAh x) of the battery exceeds the determined maximum capacity increment (ΔAh max), wherein the maximum capacity increment (ΔAh x) is that amount of capacity, which still remains to be charged until the state of charge of the battery reaches 100%. a rechargeable dummy cell, a first circuit configured to charge the battery and the dummy cell, and a second circuit configured to measure the open circuit voltage (OCV d) of the dummy cell, the control device being configured to: determine the open circuit voltage (OCV d) of the dummy cell by using the second circuit, determine the maximum capacity increment (ΔAh max) of the battery based on the determined open circuit voltage (OCV d) of the dummy cell, charge the battery and the dummy cell by using the first circuit, monitor the current capacity increment (ΔAh x) of the battery which has been charged, and stop charging, when the current capacity increment (ΔAh x) of the battery exceeds the determined maximum capacity increment (ΔAh max), wherein the maximum capacity increment (ΔAh x) is that amount of capacity, which still remains to be charged until the state of charge of the battery reaches 100%. determine the maximum capacity increment (ΔAh max) of the battery based on the determined open circuit voltage (OCV d) of the dummy cell, charge the battery and the dummy cell by using the first circuit, monitor the current capacity increment (ΔAh x) of the battery which has been charged, and stop charging, when the current capacity increment (ΔAh x) of the battery exceeds the determined maximum capacity increment (ΔAh max), wherein the maximum capacity increment (ΔAh x) is that amount of capacity, which still remains to be charged until the state of charge of the battery reaches 100%.
A method comprising the steps of: receiving at a mobile switching center, from a radio communication device in an originating network, a message, wherein the message comprises data content to be received by a service provider and the mobile switching center has a visitor location register; accessing (1010, 1015), at the mobile switching center, the visitor location register for retrieving a profile associated with the radio communication device; if there is no entry for the radio communication device in the visitor location register: sending to a telemetry gateway, from the mobile switching center, a registration notification for the radio communication device; receiving from the telemetry gateway, at the mobile switching center, a registration response for the radio communication device; and creating a profile in the visitor location register for the originating device; and transmitting the message to a signal transfer point for routing to the telemetry gateway, where: the message is converted to a protocol used by the service provider routing to the service provider is determined based on an originating address, and the message is transmitted to the service provider; wherein the message is treated by the telemetry gateway as roaming regardless of its origin. receiving at a mobile switching center, from a radio communication device in an originating network, a message, wherein the message comprises data content to be received by a service provider and the mobile switching center has a visitor location register; accessing (1010, 1015), at the mobile switching center, the visitor location register for retrieving a profile associated with the radio communication device; if there is no entry for the radio communication device in the visitor location register: sending to a telemetry gateway, from the mobile switching center, a registration notification for the radio communication device; receiving from the telemetry gateway, at the mobile switching center, a registration response for the radio communication device; and creating a profile in the visitor location register for the originating device; and sending to a telemetry gateway, from the mobile switching center, a registration notification for the radio communication device; receiving from the telemetry gateway, at the mobile switching center, a registration response for the radio communication device; and creating a profile in the visitor location register for the originating device; and transmitting the message to a signal transfer point for routing to the telemetry gateway, where: the message is converted to a protocol used by the service provider routing to the service provider is determined based on an originating address, and the message is transmitted to the service provider; wherein the message is treated by the telemetry gateway as roaming regardless of its origin. the message is converted to a protocol used by the service provider routing to the service provider is determined based on an originating address, and the message is transmitted to the service provider; wherein the message is treated by the telemetry gateway as roaming regardless of its origin.
An optical filter comprising a mean transmissivity of a light beam in a wavelength range of 480-505 nm of 30% or less, a mean transmissivity of the light beam in a wavelength range of 430-445 nm of 50% or less, and a mean transmissivity of the light beam in a wavelength range of 530-565 nm of 45% or more and 75% or less, characterized in that the absolute value Duv of the deviation from the black body radiation locus, as obtained based on JIS standard Z8725 for light from an incandescent colour fluorescent lamp transmitted by the filter, is 5 or less.
A carpet comprising the following sequential layers: (a) pile yarns tufted through a primary backing to form a primary composite layer; (b) a precoat layer comprising a polymer; and (c) a backing layer comprising (i) a thermoplastic olefin polymer which is a polymer blend comprising - 5-80 wt.-% of a propylene/ethylene copolymer having a propylene content of 50-91%, and having low temperature flexibility, and - 1-20 wt.-% of an isotactic polypropylene having an isotactic index of > 0.95 and having high temperature resistance. (a) pile yarns tufted through a primary backing to form a primary composite layer; (b) a precoat layer comprising a polymer; and (c) a backing layer comprising (i) a thermoplastic olefin polymer which is a polymer blend comprising - 5-80 wt.-% of a propylene/ethylene copolymer having a propylene content of 50-91%, and having low temperature flexibility, and - 1-20 wt.-% of an isotactic polypropylene having an isotactic index of > 0.95 and having high temperature resistance. - 5-80 wt.-% of a propylene/ethylene copolymer having a propylene content of 50-91%, and having low temperature flexibility, and - 1-20 wt.-% of an isotactic polypropylene having an isotactic index of > 0.95 and having high temperature resistance.
A heat transfer pipe for heat exchanger, an inner surface of the heat transfer pipe being provided alternately with a plurality of helical primary teeth (2; 21, 22, 23, 24, 25, 26, 27) and a plurality of grooves (3; 31, 32, 33, 34, 35, 36), each groove being disposed between adjacent primary teeth, wherein a protrusion set is provided in at least one groove (31, 36), the protrusion set comprises a plurality of protrusions sequentially and intermittently disposed in an extending direction of the primary teeth, and each protrusion has a radial height lower than those of the primary teeth, and characterised in that at least one groove having no protrusion set (32, 33, 34, 35) is provided between the adjacent ones (31, 36) of the grooves each having a protrusion set.
A wireless communication method, comprising: receiving, by a wireless communication device from a network, a first control information and a second control information, wherein: the first control information is received in a first Monitoring Occasion, MO; the first MO is in a first Search Space, SS, set of a plurality of SS sets; the second control information is received in a second MO; the second MO is in a second SS set of the plurality of SS sets; and the first SS set has a smaller SS set index than the second SS set in the plurality of SS sets, wherein: the first SS set has a first monitoring period; the second SS set has a second monitoring period; and the first monitoring period and the second monitoring period are the same, the wireless communication method being characterized in that: each of a number of MOs in the first SS set has a one-to-one mapping with respective one of a number of MOs in the second SS set, and the wireless communication method further comprises: determining, by the wireless communication device, that the second control information is a repeat of the first control information. receiving, by a wireless communication device from a network, a first control information and a second control information, wherein: the first control information is received in a first Monitoring Occasion, MO; the first MO is in a first Search Space, SS, set of a plurality of SS sets; the second control information is received in a second MO; the second MO is in a second SS set of the plurality of SS sets; and the first SS set has a smaller SS set index than the second SS set in the plurality of SS sets, the first control information is received in a first Monitoring Occasion, MO; the first MO is in a first Search Space, SS, set of a plurality of SS sets; the second control information is received in a second MO; the second MO is in a second SS set of the plurality of SS sets; and the first SS set has a smaller SS set index than the second SS set in the plurality of SS sets, wherein: the first SS set has a first monitoring period; the second SS set has a second monitoring period; and the first monitoring period and the second monitoring period are the same, the wireless communication method being characterized in that: the first SS set has a first monitoring period; the second SS set has a second monitoring period; and the first monitoring period and the second monitoring period are the same, the wireless communication method being characterized in that: each of a number of MOs in the first SS set has a one-to-one mapping with respective one of a number of MOs in the second SS set, and the wireless communication method further comprises: determining, by the wireless communication device, that the second control information is a repeat of the first control information.
A method for forming on a substrate an electrical device including at least one patterned layer, the method comprising depositing a continuous first layer of organic material on the substrate, exposing the first layer on the substrate to a beam of light so as to render the material in the regions exposed to the beam insoluble in a solvent in which it was soluble prior to the exposure, and washing the first layer of material to remove the material of the first layer in the regions not exposed to the beam and generate a surface free energy pattern, wherein the surface of the first layer has a different surface energy to the surface of the substrate; wherein the first layer forms a dielectric layer; and using said surface energy pattern to control the deposition of a layer that forms an active layer of the electrical device.
Support apparatus for mounting valves in piping systems and a valve assembly, comprising: a valve assembly comprising a valve; a valve mount having a valve attachment assembly for affixing the valve assembly thereto, the valve mount defining a first mounting assembly spaced from the valve attachment assembly; and a slide mount that defines a longitudinal axis (Lm), the slide mount having a second mounting assembly, the second mounting assembly couples to the first mounting assembly of the valve mount to secure the valve mount to the slide mount in such a manner that the valve mount has freedom of movement confined along the longitudinal axis (Lm), the slide mount further having a third mounting assembly spaced from the second mounting assembly of the slide mount, the third mounting assembly configured to couple to a base that defines a longitudinal axis (Lb) oriented orthogonally to the longitudinal axis (Lm), in which the slide mount can be moved along the longitudinal axis (Lb) between opposing ends of the base, wherein the valve attachment assembly of the valve mount is configured to secure the valve assembly so that a flow axis (Lf) of a valve is aligned with the longitudinal axis (Lm) of the slide mount. a valve mount having a valve attachment assembly for affixing the valve assembly thereto, the valve mount defining a first mounting assembly spaced from the valve attachment assembly; and a slide mount that defines a longitudinal axis (Lm), the slide mount having a second mounting assembly, the second mounting assembly couples to the first mounting assembly of the valve mount to secure the valve mount to the slide mount in such a manner that the valve mount has freedom of movement confined along the longitudinal axis (Lm), the slide mount further having a third mounting assembly spaced from the second mounting assembly of the slide mount, the third mounting assembly configured to couple to a base that defines a longitudinal axis (Lb) oriented orthogonally to the longitudinal axis (Lm), in which the slide mount can be moved along the longitudinal axis (Lb) between opposing ends of the base, wherein the valve attachment assembly of the valve mount is configured to secure the valve assembly so that a flow axis (Lf) of a valve is aligned with the longitudinal axis (Lm) of the slide mount.
A process for producing triallyl isocyanurate, comprising the steps of: reacting cyanuric chloride with allyl alcohol to obtain triallyl cyanurate; subjecting the thus obtained triallyl cyanurate to stirring treatment in a strong base aqueous solution having a concentration of 0.5 to 10 % by weight at a temperature of 30 to 80°C for 0.5 to 10 hours; and subjecting the thus treated triallyl cyanurate to rearrangement reaction, wherein the triallyl cyanurate subjected to the stirring treatment comprises organic chlorine compounds represented by the following general formulae and in a total amount of not more than 800 ppm: wherein R 1 and R 2 are respectively a chlorine atom or an allyloxy group with the proviso that at least one of R 1 and R 2 is a chlorine atom, and wherein the triallyl isocyanurate comprises an organic chlorine compound represented by the general formula as an impurity in an amount of not more than 100 ppm. reacting cyanuric chloride with allyl alcohol to obtain triallyl cyanurate; subjecting the thus obtained triallyl cyanurate to stirring treatment in a strong base aqueous solution having a concentration of 0.5 to 10 % by weight at a temperature of 30 to 80°C for 0.5 to 10 hours; and subjecting the thus treated triallyl cyanurate to rearrangement reaction, wherein the triallyl cyanurate subjected to the stirring treatment comprises organic chlorine compounds represented by the following general formulae and in a total amount of not more than 800 ppm: wherein R 1 and R 2 are respectively a chlorine atom or an allyloxy group with the proviso that at least one of R 1 and R 2 is a chlorine atom, and wherein the triallyl isocyanurate comprises an organic chlorine compound represented by the general formula as an impurity in an amount of not more than 100 ppm.