mhurhangee/ep-ind-claims huggingface dataset:
A reactor for ammonothermal growth of a group III-nitride crystalline ingot comprising (a) a body formed of precipitation hardenable Ni-Cr superalloy defining a chamber (b) a first clamp for sealing an end of the reactor, wherein the first clamp is formed from a forged disk of precipitation hardenable Ni-Cr based superalloy for which the primary forging pressure is applied along the longitudinal direction of the original billet, wherein the body is cylindrical and further comprising two lids, one on each end of the body, and having its longest dimension along the vertical direction, its inner diameter larger than 5.08 cm (2 inches), its minimum outer diameter larger than 10.16 cm (4 inches), its vertical length more than 5 times the inner diameter, and further comprising the following: (i) the chamber of the high-pressure vessel is divided into at least three regions along the vertical direction with flow-restricting baffles; (ii) a crystallization region is located between the other regions and maintained at the highest temperature among the regions during crystal growth; (iii) regions closest to the both lids are configured to be maintained at a lower temperature than other regions during crystal growth; (iv) and a nutrient region filled with group III containing nutrients is located above the crystallization region. (a) a body formed of precipitation hardenable Ni-Cr superalloy defining a chamber (b) a first clamp for sealing an end of the reactor, wherein the first clamp is formed from a forged disk of precipitation hardenable Ni-Cr based superalloy for which the primary forging pressure is applied along the longitudinal direction of the original billet, (i) the chamber of the high-pressure vessel is divided into at least three regions along the vertical direction with flow-restricting baffles; (ii) a crystallization region is located between the other regions and maintained at the highest temperature among the regions during crystal growth; (iii) regions closest to the both lids are configured to be maintained at a lower temperature than other regions during crystal growth; (iv) and a nutrient region filled with group III containing nutrients is located above the crystallization region.
A three-dimensional imaging apparatus comprising: a plurality of image capture devices (210, 220), each image capture device including polarized filtering (215, 225) of a first orientation and belonging to one of a number of groups of image capture devices; a plurality of illumination sources, each illumination source including polarized filtering of a second orientation orthogonal to the first orientation and belonging to one of a number of groups of illumination sources, each of the groups of image capture devices corresponding to one of the groups of illumination sources; a support structure, wherein the plurality of image capture devices and the plurality of illumination sources are mounted on the support structure; and a controller, wherein the controller is configured to control the plurality of image capture devices and the plurality of illumination sources to sequentially activate each of the groups of image capture devices and each of the groups of illumination sources, wherein each group of illumination sources is activated while the corresponding group of image capture devices is activated. a plurality of image capture devices (210, 220), each image capture device including polarized filtering (215, 225) of a first orientation and belonging to one of a number of groups of image capture devices; a plurality of illumination sources, each illumination source including polarized filtering of a second orientation orthogonal to the first orientation and belonging to one of a number of groups of illumination sources, each of the groups of image capture devices corresponding to one of the groups of illumination sources; a support structure, wherein the plurality of image capture devices and the plurality of illumination sources are mounted on the support structure; and a controller, wherein the controller is configured to control the plurality of image capture devices and the plurality of illumination sources to sequentially activate each of the groups of image capture devices and each of the groups of illumination sources, wherein each group of illumination sources is activated while the corresponding group of image capture devices is activated.
A contactless power transmission device configured to transmit power to a contactless power reception device including a power reception side coil and a power reception-side resonator which is configured to resonate with the power reception side coil, the contactless power transmission device comprising: a power transmission unit which includes a power transmission side coil; a transmission-side resonator that is configured to resonate with the power transmission side coil; and an inverter that is configured to supply power to the transmission-side resonator, characterized in that at least one of an inductance value of the power transmission side coil and a capacitance value of the power transmission-side resonator is set such that a first frequency range for the driving frequency in which a phase difference of a primary side current flowing in the power transmission unit with respect to a primary side voltage applied to the power transmission unit being equal to or more than 0 is wider than a second frequency range for the driving frequency in a case where an inductance value of the power reception side coil is equal to the inductance value of the power transmission side coil and a capacitance value of the power reception-side resonator is equal to the capacitance value of the power transmission-side resonator. a power transmission unit which includes a power transmission side coil; a transmission-side resonator that is configured to resonate with the power transmission side coil; and an inverter that is configured to supply power to the transmission-side resonator, a power transmission side coil; a transmission-side resonator that is configured to resonate with the power transmission side coil; and an inverter that is configured to supply power to the transmission-side resonator, characterized in that at least one of an inductance value of the power transmission side coil and a capacitance value of the power transmission-side resonator is set such that a first frequency range for the driving frequency in which a phase difference of a primary side current flowing in the power transmission unit with respect to a primary side voltage applied to the power transmission unit being equal to or more than 0 is wider than a second frequency range for the driving frequency in a case where an inductance value of the power reception side coil is equal to the inductance value of the power transmission side coil and a capacitance value of the power reception-side resonator is equal to the capacitance value of the power transmission-side resonator.
A method performed by a first IP multimedia subsystem, IMS, node, for handling a network function in a communication network, the method comprising: - requesting a first core network node for at least a part of contact information of a network function instance, wherein the contact information for the network function instance comprises a service based interface, SBI, address and a session initiation protocol, SIP, address; - receiving a response from the first core network node with at least the part of the contact information for the network function instance; and - communicating with a second IMS node or a core network node over a service based interface, based on the received part of the contact information for the network function instance, wherein communicating comprises transmitting to the second IMS node, a request for a service relating to the network function instance, and wherein the service relates to subscribe to update information comprising one or more of the following: a change of public land mobile network, PLMN, change of radio access technology type, and change of IP connectivity access network, CAN. - requesting a first core network node for at least a part of contact information of a network function instance, wherein the contact information for the network function instance comprises a service based interface, SBI, address and a session initiation protocol, SIP, address; - receiving a response from the first core network node with at least the part of the contact information for the network function instance; and - communicating with a second IMS node or a core network node over a service based interface, based on the received part of the contact information for the network function instance, wherein communicating comprises transmitting to the second IMS node, a request for a service relating to the network function instance, and wherein the service relates to subscribe to update information comprising one or more of the following: a change of public land mobile network, PLMN, change of radio access technology type, and change of IP connectivity access network, CAN.
A wrist watch comprising a case incorporating a mainplate and/or bridges and a clock mechanism, said watch integrating a decorative element comprising a skeleton comprising arms delimiting several decorative zones (Zi) and forming support elements on which decorative components are fixed, each decorative component occupying one decorative zone, the watch comprising hands and the decorative element being in a horizontal plane arranged between the hands and the clock mechanism, on the upper side of the watch, and visible to a user when he looks at the time, the surface area of the decorative element being greater than or equal to 60% of the surface area of a watch dial, characterized in that the decorative element comprise transparent or translucent decorative components of different colors in adjacent decorative zones to form an assembly similar to a stained-glass window.
A Francis hydraulic turbine runner (26, 48, 64) comprising: a band (32, 62); a crown (34, 56); and runner blades (30, 50) extending from the crown (34, 56) to the band (32, 62); characterized in that for each of the runner blades (30, 50), a junction between a leading edge (36, 52) of the runner blade (30, 50) and the band (32, 62) foreruns a junction between the leading edge (36, 52) with the crown (34, 56) in a rotational direction, and the runner (26, 48, 64) has a band length ratio (L/D) of no greater than 17% (0.17), wherein the band length ratio (L/D) is a length to diameter ratio wherein the length is a distance measured between a bottom of a distributor of the runner (26, 48, 64) to a trailing edge of the runner blade (30, 50) at the band (32, 62), and wherein the diameter is the diameter of the band (32, 62) at a junction with a trailing edge (40, 54, 66) of the runner blade (30, 50). a band (32, 62); a crown (34, 56); and runner blades (30, 50) extending from the crown (34, 56) to the band (32, 62); characterized in that for each of the runner blades (30, 50), a junction between a leading edge (36, 52) of the runner blade (30, 50) and the band (32, 62) foreruns a junction between the leading edge (36, 52) with the crown (34, 56) in a rotational direction, and the runner (26, 48, 64) has a band length ratio (L/D) of no greater than 17% (0.17), wherein the band length ratio (L/D) is a length to diameter ratio wherein the length is a distance measured between a bottom of a distributor of the runner (26, 48, 64) to a trailing edge of the runner blade (30, 50) at the band (32, 62), and wherein the diameter is the diameter of the band (32, 62) at a junction with a trailing edge (40, 54, 66) of the runner blade (30, 50).
A throttle valve comprising: a throttle valve element disposed in a throttle valve flow passage; a support member that supports the throttle valve element, the support member including a valve element support portion that supports the throttle valve element such that the throttle valve element is movable in a valve opening direction and a valve closing direction, and a shaft portion (52, 53, 54) that is connected to the valve element support portion, the shaft portion (52, 53, 54) having a gas passage that extends in an axis direction, that is, an axis direction of the shaft portion, and an inlet port through which gas is able to be introduced into the gas passage, the inlet port being provided in an outer peripheral surface of the shaft portion (52, 53, 54); a mounting member that mounts the support member in the throttle valve flow passage; a filter that is disposed on the outer peripheral surface of the shaft portion (52, 53, 54) to cover the inlet port, in a space whose axial length is defined by the shaft portion (52, 53, 54) and the mounting member; and gaskets that are made of a material having sealing ability when the gaskets are compressed, the material being selected among rubber, synthetic resin or metal, and respectively disposed between one axial end of the filter and the mounting member and between the other axial end of the filter and the shaft portion (52, 53, 54). a throttle valve element disposed in a throttle valve flow passage; a support member that supports the throttle valve element, the support member including a valve element support portion that supports the throttle valve element such that the throttle valve element is movable in a valve opening direction and a valve closing direction, and a shaft portion (52, 53, 54) that is connected to the valve element support portion, the shaft portion (52, 53, 54) having a gas passage that extends in an axis direction, that is, an axis direction of the shaft portion, and an inlet port through which gas is able to be introduced into the gas passage, the inlet port being provided in an outer peripheral surface of the shaft portion (52, 53, 54); a mounting member that mounts the support member in the throttle valve flow passage; a filter that is disposed on the outer peripheral surface of the shaft portion (52, 53, 54) to cover the inlet port, in a space whose axial length is defined by the shaft portion (52, 53, 54) and the mounting member; and gaskets that are made of a material having sealing ability when the gaskets are compressed, the material being selected among rubber, synthetic resin or metal, and respectively disposed between one axial end of the filter and the mounting member and between the other axial end of the filter and the shaft portion (52, 53, 54).
Method in a base station controller for admission control of a user equipment, to be served by a base station controlled by the base station controller, the base station, the base station controller and the user equipment are comprised within a wireless communication system, the method comprising the step of: receiving an admission request from the user equipment, characterized in that the method further comprises computing an admission criteria value K, wherein the computed admission criteria value K is based on the number of time slots currently used for providing a requested service, EFCP, divided by 8, minus an earlier established sum of user weight values Wi calculated for all active user equipments within a cell of the base station, minus a predetermined constant F, calculating a user weight value W for the user equipment, by inverting a maximum number of allowed users, M, which are given radio conditions which are same as the user equipment is experiencing, comparing the calculated user weight value W with the computed admission criteria value K, admitting the user equipment to be served by the base station, if the calculated user weight value W is smaller than the computed admission criteria value K. receiving an admission request from the user equipment, characterized in that the method further comprises computing an admission criteria value K, wherein the computed admission criteria value K is based on the number of time slots currently used for providing a requested service, EFCP, divided by 8, minus an earlier established sum of user weight values Wi calculated for all active user equipments within a cell of the base station, minus a predetermined constant F, calculating a user weight value W for the user equipment, by inverting a maximum number of allowed users, M, which are given radio conditions which are same as the user equipment is experiencing, comparing the calculated user weight value W with the computed admission criteria value K, admitting the user equipment to be served by the base station, if the calculated user weight value W is smaller than the computed admission criteria value K.
A pre-terminated optical fibre cable assembly (10, 90) configured to be installed through a duct and having a leading end, wherein the pre-terminated optical fibre cable assembly comprises: at least one optical fibre; a terminal connector on the at least one optical fibre at the leading end of the assembly, the terminal connector being a ferrule connector having a ferrule body adapted to have a connector body (60, 62, 64) attached to it after installation through the duct so as to complete a functional connector; and a protective sleeve, the protective sleeve having a leading end positioned closely behind the terminal connector and extending only along a minor part of the length of the optical fibre, greater than 0.5m long and up to 10m long from behind the terminal connector towards a trailing end of the optical fibre cable assembly, the protective sleeve being adapted to protect the at least one optical fibre where it is vulnerable outside the duct and where the leading end emerges from the duct, after installation of the optical fibre cable assembly through the duct. at least one optical fibre; a terminal connector on the at least one optical fibre at the leading end of the assembly, the terminal connector being a ferrule connector having a ferrule body adapted to have a connector body (60, 62, 64) attached to it after installation through the duct so as to complete a functional connector; and a protective sleeve, the protective sleeve having a leading end positioned closely behind the terminal connector and extending only along a minor part of the length of the optical fibre, greater than 0.5m long and up to 10m long from behind the terminal connector towards a trailing end of the optical fibre cable assembly, the protective sleeve being adapted to protect the at least one optical fibre where it is vulnerable outside the duct and where the leading end emerges from the duct, after installation of the optical fibre cable assembly through the duct.
A method for producing a non-oriented electrical steel sheet by hot rolling a steel slab having a chemical composition comprising C: not more than 0.005 mass%, Si: not more than 8.0 mass%, Mn: 0.03-3.0 mass%, P: not more than 0.2 mass%, S: not more than 0.005 mass%, Al: not more than 3.0 mass%, N: not more than 0.005 mass%, Ni: not more than 3 mass%, Cr: not more than 5 mass%, Ti: not more than 0.005 mass%, Nb: not more than 0.003 mass%, As: not more than 0.005 mass%, O: not more than 0.005 mass%, optionally one or two of Sn and Sb each in an amount of 0.005-0.20 mass% and one or more selected from Ca, Mg, and REM each in an amount of 0.0001-0.010 mass%, and the remainder being Fe and inevitable impurities, subjecting to one cold rolling or two or more cold rollings interposing an intermediate annealing therebetween after a hot band annealing or without a hot band annealing, and further to a finish annealing, characterized in that an average heating rate from 600°C to 700°C during the heating process in the finish annealing is set to not less than 50°C/sec and in that the heating process in the finish annealing is conducted by heating through induction heating and then radiation heating to set an average heating rate from 700°C to 760°C to not less than 5°C/sec.
A method comprising: determining whether data has been properly received according to an error control scheme; generating a first pilot sequence by combining a reference sequence with multiple acknowledgement signaling bits representing an acknowledgement when the data is determined to have been properly received; generating a second pilot sequence by combining a reference sequence with multiple negative acknowledgement signaling bits representing a negative acknowledgement when the data is determined not to have been properly received; and multiplexing said first or second pilot sequence with channel quality indicator bits into a common sub-frame, wherein: a frame structure of the common subframe includes either: i. two reference sequence blocks including two cover sequence bits (C1, C2) combined with acknowledgement or negative acknowledgement signaling bits (403a, 403b); or ii. three reference sequence blocks including three cover sequence bits (C1, C2, C3) combined with acknowledgement or negative acknowledgement signaling bits (403a, 403b, 403c). determining whether data has been properly received according to an error control scheme; generating a first pilot sequence by combining a reference sequence with multiple acknowledgement signaling bits representing an acknowledgement when the data is determined to have been properly received; generating a second pilot sequence by combining a reference sequence with multiple negative acknowledgement signaling bits representing a negative acknowledgement when the data is determined not to have been properly received; and multiplexing said first or second pilot sequence with channel quality indicator bits into a common sub-frame, wherein: a frame structure of the common subframe includes either: i. two reference sequence blocks including two cover sequence bits (C1, C2) combined with acknowledgement or negative acknowledgement signaling bits (403a, 403b); or ii. three reference sequence blocks including three cover sequence bits (C1, C2, C3) combined with acknowledgement or negative acknowledgement signaling bits (403a, 403b, 403c). i. two reference sequence blocks including two cover sequence bits (C1, C2) combined with acknowledgement or negative acknowledgement signaling bits (403a, 403b); or ii. three reference sequence blocks including three cover sequence bits (C1, C2, C3) combined with acknowledgement or negative acknowledgement signaling bits (403a, 403b, 403c).
A method for determining a data feedback resource in device-to-device, D2D, or vehicle-to-another-device, V2X, communication, comprising: receiving, by a first communication apparatus, first data from a second communication apparatus; determining, by the first communication apparatus, based on a time-frequency location of the received first data, start location information of a frequency domain resource of a feedback resource of the first data, a length of the frequency domain resource, indication information of a time domain resource of the feedback resource of the first data, and code domain information of the feedback resource of the first data, the code domain information comprises a codeword for sending feedback information of the first data; and sending, by the first communication apparatus, the feedback information of the first data to the second communication apparatus on the feedback resource, wherein the feedback information is used to indicate a receiving status of the first data. receiving, by a first communication apparatus, first data from a second communication apparatus; determining, by the first communication apparatus, based on a time-frequency location of the received first data, start location information of a frequency domain resource of a feedback resource of the first data, a length of the frequency domain resource, indication information of a time domain resource of the feedback resource of the first data, and code domain information of the feedback resource of the first data, the code domain information comprises a codeword for sending feedback information of the first data; and sending, by the first communication apparatus, the feedback information of the first data to the second communication apparatus on the feedback resource, wherein the feedback information is used to indicate a receiving status of the first data.