mhurhangee/ep-ind-claims huggingface dataset:
A hub system configured to provide power routing between different electronic products, comprising: a) at least two ports (22, 24, 26) configured to connect the different electronic products; b) a hub comprising an upstream handler and at least one downstream handler (34, 36), wherein the upstream handler is configured to connect the at least one downstream handler (34, 36) inside the hub; c) a switch system capable of establishing connecting routes between each port of the at least two ports (22, 24, 26) to (i) the upstream handler or (ii) to each of the at least one downstream handler (34, 36) of the hub; and d) a controller configured to control the switch system, wherein each of the connecting routes is adapted to transfer electric power between each port of the at least two ports (22, 24, 26) and the hub; characterized in that the controller is configured to: (i) select one of the at least two ports (22, 24, 26) as a power master, and (ii) control the switch system to configure the port selected as a power master by routing it to the upstream handler, and configure each remaining port of the at least two ports (22, 24, 26) as a power slave by routing each remaining port of the at least two ports (22, 24, 26) to one of the at least one downstream handler (34, 36); and wherein the selection of one of the at least two ports (22, 24, 26), and the routing of each remaining port of the at least two ports (22, 24, 26) is in accordance with a power output priority table defining the priority of selecting which of the at least two ports (22, 24, 26) is selected as a master for supplying power when two or more devices are connected to the ports, and a power input priority table defining the priority of selecting which of each remaining port of the at least two ports (22, 24, 26) receive power from the master port. a) at least two ports (22, 24, 26) configured to connect the different electronic products; b) a hub comprising an upstream handler and at least one downstream handler (34, 36), wherein the upstream handler is configured to connect the at least one downstream handler (34, 36) inside the hub; c) a switch system capable of establishing connecting routes between each port of the at least two ports (22, 24, 26) to (i) the upstream handler or (ii) to each of the at least one downstream handler (34, 36) of the hub; and d) a controller configured to control the switch system, wherein each of the connecting routes is adapted to transfer electric power between each port of the at least two ports (22, 24, 26) and the hub; (i) select one of the at least two ports (22, 24, 26) as a power master, and (ii) control the switch system to configure the port selected as a power master by routing it to the upstream handler, and configure each remaining port of the at least two ports (22, 24, 26) as a power slave by routing each remaining port of the at least two ports (22, 24, 26) to one of the at least one downstream handler (34, 36);
A method in a node of cellular telecommunication network capable of simultaneously using multiple carrier frequencies comprising a primary carrier frequency and at least one secondary carrier frequency, the method comprising - receiving downlink quality measurements of the primary carrier frequency and of at least one secondary carrier frequency, characterized by - combining the received downlink quality measurements of the primary carrier frequency and of the at least one secondary carrier frequency by - determining a combined downlink quality measure for the downlink quality measurements of the primary carrier frequency and the at least one secondary carrier frequency, and - determining a difference in logarithmic scale between, on the one hand, the downlink quality measurements of the primary carrier frequency and, on the other hand, said combined downlink quality measure for the downlink quality measurements of the primary carrier frequency and the at least one secondary carrier frequency, to be used as the combined quality measure, - evaluating whether the combined quality measure fulfills a predetermined condition, and - triggering an event only if the combined quality measure fulfills a predetermined condition. - receiving downlink quality measurements of the primary carrier frequency and of at least one secondary carrier frequency, characterized by - combining the received downlink quality measurements of the primary carrier frequency and of the at least one secondary carrier frequency by - determining a combined downlink quality measure for the downlink quality measurements of the primary carrier frequency and the at least one secondary carrier frequency, and - determining a difference in logarithmic scale between, on the one hand, the downlink quality measurements of the primary carrier frequency and, on the other hand, said combined downlink quality measure for the downlink quality measurements of the primary carrier frequency and the at least one secondary carrier frequency, to be used as the combined quality measure, - determining a combined downlink quality measure for the downlink quality measurements of the primary carrier frequency and the at least one secondary carrier frequency, and - determining a difference in logarithmic scale between, on the one hand, the downlink quality measurements of the primary carrier frequency and, on the other hand, said combined downlink quality measure for the downlink quality measurements of the primary carrier frequency and the at least one secondary carrier frequency, to be used as the combined quality measure, - evaluating whether the combined quality measure fulfills a predetermined condition, and - triggering an event only if the combined quality measure fulfills a predetermined condition.
A cable-type secondary battery comprising: an electrode assembly, which includes a first polarity current collector having a long and thin shape, whose cross-section perpendicular to the longitudinal direction is circular, asymmetrical oval, or polygonal, at least two first polarity electrode active material layers formed on an outer surface of the first polarity current collector to be spaced apart from each other at a predetermined interval in the longitudinal direction, an electrolyte layer filled to surround at least two first polarity electrode active material layers, at least two second polarity electrode active material layers formed on an outer surface of the electrolyte layer to be spaced apart from each other at a predetermined interval at positions corresponding to the first polarity electrode active material layers, and a second polarity current collector configured to surround the outer surfaces of the second polarity electrode active material layers, the electrode assembly being continuously bent into an "S" shape by a space formed by the predetermined interval between the first polarity electrode active material layers; and a cover member configured to surround the electrode assembly which is continuously bent into an "S" shape. an electrode assembly, which includes a first polarity current collector having a long and thin shape, whose cross-section perpendicular to the longitudinal direction is circular, asymmetrical oval, or polygonal, at least two first polarity electrode active material layers formed on an outer surface of the first polarity current collector to be spaced apart from each other at a predetermined interval in the longitudinal direction, an electrolyte layer filled to surround at least two first polarity electrode active material layers, at least two second polarity electrode active material layers formed on an outer surface of the electrolyte layer to be spaced apart from each other at a predetermined interval at positions corresponding to the first polarity electrode active material layers, and a second polarity current collector configured to surround the outer surfaces of the second polarity electrode active material layers, the electrode assembly being continuously bent into an "S" shape by a space formed by the predetermined interval between the first polarity electrode active material layers; and a cover member configured to surround the electrode assembly which is continuously bent into an "S" shape.
A compound represented by the general formula: (wherein R 2, R 3, R 4 and R 5 represent each independently a hydrogen atom or a C1-3 alkyl group, and L represents a leaving group derived from an acid halide or an acid anhydride).
People conveyor comprising: a truss extending between two landing portions (20, 21); a band of conveyance elements forming a closed loop extending in a conveyance direction between the two landing portions (20, 21); a drive machine configured for driving the band of conveyance elements; characterized in that the people conveyor further comprises: at least two magneto-inductive sensors (36a, 36b, 36c) mounted to the truss and configured for detecting the position and/or the orientation of the drive machine with respect to the truss. a truss extending between two landing portions (20, 21); a band of conveyance elements forming a closed loop extending in a conveyance direction between the two landing portions (20, 21); a drive machine configured for driving the band of conveyance elements; characterized in that the people conveyor further comprises: at least two magneto-inductive sensors (36a, 36b, 36c) mounted to the truss and configured for detecting the position and/or the orientation of the drive machine with respect to the truss.
A busway connector, comprising a base, a drive member, a connection component, and a locking member, wherein the drive member is located between the base and the connection component, the locking member is penetrated through the base and fixedly connected to the drive member, and the locking member cooperates with the base to drive the drive member to move in a first direction; the connection component comprises connection units connected in a row and a connection block, there is one or more connection units, each connection unit comprises a first insulation sheet, a first conductive sheet fastened to the first insulation sheet, a second insulation sheet, and a second conductive sheet fastened to the second insulation sheet, a slot is formed between the first conductive sheet and the second conductive sheet, and the first insulation sheet is elastically connected to the second insulation sheet by using an elastic member; there is one connection block, fixedly connected to a first insulation sheet of a connection unit at a row head or fixedly connected to a second insulation sheet of a connection unit at a row tail, or there are two connection blocks, respectively fixedly connected to a first insulation sheet of a connection unit at a row head and a second insulation sheet of a connection unit at a row tail; the connection block is slidably connected to the base and can move in a second direction relative to the base; and the drive member cooperates with the connection block, to enable a force applied by the drive member on the connection block in the first direction to generate a component force in the second direction, to drive the first conductive sheet and the second conductive sheet to approach each other and compress the elastic member, wherein the component force in the second direction is perpendicular to the first conductive sheet and the second conductive sheet, and wherein the first direction is perpendicular to the second direction, characterized in that the elastic member is disposed between the first conductive sheet and the second conductive sheet and is in insulated contact with both the first conductive sheet and the second conductive sheet. wherein the component force in the second direction is perpendicular to the first conductive sheet and the second conductive sheet, and wherein the first direction is perpendicular to the second direction, characterized in that the elastic member is disposed between the first conductive sheet and the second conductive sheet and is in insulated contact with both the first conductive sheet and the second conductive sheet.
A method for purifying solid borazane (NH 3 BH 3 (s)) containing impurities, characterized in that it comprises: a) bringing solid borazane (NH 3 BH 3 (s)) containing impurities into contact with a stream of gaseous ammonia (NH 3 (g)) to obtain, by selective liquefaction of the borazane, a liquid phase containing liquefied borazane and liquefied ammonia and a solid phase constituted of at least a part of said impurities; b) separating said liquid and solid phases for recovery of said liquid phase, on the one hand, and of said solid phase, on the other hand; c) removing the ammonia from said recovered liquid phase, this removal causing precipitation of the purified borazane (NH 3 BH 3 (s')); and d) recovering said purified precipitated borazane (NH 3 BH 3 (s')). a) bringing solid borazane (NH 3 BH 3 (s)) containing impurities into contact with a stream of gaseous ammonia (NH 3 (g)) to obtain, by selective liquefaction of the borazane, a liquid phase containing liquefied borazane and liquefied ammonia and a solid phase constituted of at least a part of said impurities; b) separating said liquid and solid phases for recovery of said liquid phase, on the one hand, and of said solid phase, on the other hand; c) removing the ammonia from said recovered liquid phase, this removal causing precipitation of the purified borazane (NH 3 BH 3 (s')); and d) recovering said purified precipitated borazane (NH 3 BH 3 (s')).
A waveguide laser comprising: a semiconductor laser emitting laser beams; a solid-state laser element that amplifies the laser beams with a gain achieved by absorption of excitation light; a wavelength conversion element that converts part of fundamental waves of the laser beams output from the solid-state laser element to harmonics; and a wavelength selecting element that selectively reflects laser beams with wavelengths λ = λ 0, λ 1, λ 2,..., λ n (n ≥ 1) of different laser oscillation modes from among fundamental oscillation wavelengths of the laser beams passing through the wavelength conversion element, and that outputs harmonics resulting from the conversion by the wavelength conversion element, wherein the waveguide laser resonates the fundamental waves through an optical resonator structure including the solid-state laser element, the wavelength conversion element and the wavelength selecting element; and a laser beam is amplified by the solid state laser element during a round-trip between the solid-state laser element and the wavelength selecting element; and the wavelength conversion element converts the laser beams with the wavelengths λ = λ 0, λ 1, λ 2,..., λ n (n ≥ 1) of the different laser oscillation modes reflected by the wavelength selecting element to harmonics. a semiconductor laser emitting laser beams; a solid-state laser element that amplifies the laser beams with a gain achieved by absorption of excitation light; a wavelength conversion element that converts part of fundamental waves of the laser beams output from the solid-state laser element to harmonics; and a wavelength selecting element that selectively reflects laser beams with wavelengths λ = λ 0, λ 1, λ 2,..., λ n (n ≥ 1) of different laser oscillation modes from among fundamental oscillation wavelengths of the laser beams passing through the wavelength conversion element, and that outputs harmonics resulting from the conversion by the wavelength conversion element, wherein the waveguide laser resonates the fundamental waves through an optical resonator structure including the solid-state laser element, the wavelength conversion element and the wavelength selecting element; and a laser beam is amplified by the solid state laser element during a round-trip between the solid-state laser element and the wavelength selecting element; and the wavelength conversion element converts the laser beams with the wavelengths λ = λ 0, λ 1, λ 2,..., λ n (n ≥ 1) of the different laser oscillation modes reflected by the wavelength selecting element to harmonics.
A method of cancelling interference in a wireless system, said interference introduced by an interfering signal (i21, 150) causing reception of an interfered signal responsive to transmission of a desired signal, comprising: acquiring said interfering signal (i21, 150) from circuitry of a transmitter (190, 110); wherein said interfering signal is wideband; digitally generating a wideband cancellation signal based on said acquired interfering signal by multiplying said acquired interfering signal with a plurality of frequency domain weights; and summating in a wideband interfered receiver (290, 140) receiving said wideband interfered signal, or in an RF path input thereof, said cancellation signal and an interfered transmission to reduce said interference therefrom, characterized in that: acquiring said acquired signal is in digital circuitry of said transmitter (190, 110) and said cancelation signal is analog or acquiring said acquired signal is in analog circuitry of said transmitter (190, 110) and said cancellation signal is digital. acquiring said interfering signal (i21, 150) from circuitry of a transmitter (190, 110); wherein said interfering signal is wideband; digitally generating a wideband cancellation signal based on said acquired interfering signal by multiplying said acquired interfering signal with a plurality of frequency domain weights; and summating in a wideband interfered receiver (290, 140) receiving said wideband interfered signal, or in an RF path input thereof, said cancellation signal and an interfered transmission to reduce said interference therefrom, acquiring said acquired signal is in digital circuitry of said transmitter (190, 110) and said cancelation signal is analog or acquiring said acquired signal is in analog circuitry of said transmitter (190, 110) and said cancellation signal is digital.
A method for supporting communication among a plurality of chips, comprising: determining identity information of a plurality of chips managed by a host, the plurality of chips being connected through respective communication interfaces for inter-chip communication, wherein each of the plurality of chips includes inter-chip communication interfaces for inter-chip communication with other chips managed by the host, and a management interface for communicating with the host, receiving configuration information from the host and transmitting connection information of the each chip; allowing one or more of the plurality of chips to acquire identity information of other chips connected to the inter-chip communication interface of the one or more chips, wherein the allowing one or more of the plurality of chips to acquire identity information of other chips connected to the inter-chip communication interface of the one or more chips comprises: transmitting by the host an instruction to all chips managed thereby, so that all chips perform an operation of acquiring identity information of the other chips connected thereto; and acquiring the identity information of the other chips through a management interface of the one or more chips with regard to communicating with the host, so as to determine connection relationships among the plurality of chips, wherein the host reads the connection information acquired by each chip through the management interface of each chip. determining identity information of a plurality of chips managed by a host, the plurality of chips being connected through respective communication interfaces for inter-chip communication, wherein each of the plurality of chips includes inter-chip communication interfaces for inter-chip communication with other chips managed by the host, and a management interface for communicating with the host, receiving configuration information from the host and transmitting connection information of the each chip; allowing one or more of the plurality of chips to acquire identity information of other chips connected to the inter-chip communication interface of the one or more chips, wherein the allowing one or more of the plurality of chips to acquire identity information of other chips connected to the inter-chip communication interface of the one or more chips comprises: transmitting by the host an instruction to all chips managed thereby, so that all chips perform an operation of acquiring identity information of the other chips connected thereto; and acquiring the identity information of the other chips through a management interface of the one or more chips with regard to communicating with the host, so as to determine connection relationships among the plurality of chips, wherein the host reads the connection information acquired by each chip through the management interface of each chip.
A method for switching beams in a network node (120, 200) of a cellular communication network, wherein the network node and at least some other network nodes of the cellular communication network are each adapted to support a plurality of beams of a signal beam-forming scheme and to communicate with a wireless communication device using at least one of the plurality of beams, the method comprising: identifying (320, 204) responsive to detecting failure of a mobility procedure, one or more candidate beams (111, 112) for beam switch; causing transmission of a reference signal (231, 232) on each of the candidate beams; causing reservation of an uplink resource of at least one of the candidate beams, wherein the uplink resources are for conveying a report from the wireless communication device, and wherein the report is indicative of a result of measurements of the reference signals; and causing (370, 210) the communication with the wireless communication device to switch from a serving beam to a target beam, wherein one of the candidate beams is selected as the target beam based on the conveyed report. identifying (320, 204) responsive to detecting failure of a mobility procedure, one or more candidate beams (111, 112) for beam switch; causing transmission of a reference signal (231, 232) on each of the candidate beams; causing reservation of an uplink resource of at least one of the candidate beams, wherein the uplink resources are for conveying a report from the wireless communication device, and wherein the report is indicative of a result of measurements of the reference signals; and causing (370, 210) the communication with the wireless communication device to switch from a serving beam to a target beam, wherein one of the candidate beams is selected as the target beam based on the conveyed report.
An elevator tension member (100, 200) comprising one or more steel cords and a jacket (110, 210) encasing said steel cords, wherein said jacket (110, 210) comprises a thermoplastic polyurethane elastomer, said thermoplastic polyurethane elastomer having a hard crystalline phase and a soft phase, characterised in that the glass transition temperature of said hard crystalline phase (T gHS) is higher than 90°C.