mhurhangee/patent-ind-claim-en huggingface dataset:
A permanent magnet rotating electrical machine, comprising: a rotor having a rotor core and a plurality of magnetic poles formed of permanent magnets provided to the rotor core ; and a stator having a plurality of teeth opposing the plurality of magnetic poles, a stator core provided with slots in which to store an armature winding wire wound around the teeth , and supplemental grooves provided to the teeth in portions opposing the rotor in an axial direction of the stator core , one supplemental groove being provided per tooth, let P be the number of the magnetic poles (the number of poles) and S be the number of the slots (the number of slots), then a relation, 0.75 < S/P < 1.5, is established, a width (Wd) of the supplemental grooves is larger than an opening width (Ws) of the slots , the permanent magnet rotating electrical machine being characterized in that : the supplemental grooves are provided to the stator so as not to be formed in an axial end portion of the stator core ; and let Lc be an axial length of the stator core and Ld be a length of a portion in which the supplemental grooves are provided in the axial direction of the stator core , then Lc and Ld satisfy a relational expression, 0.4 ≤ Ld/Lc ≤ 0.6. a rotor having a rotor core and a plurality of magnetic poles formed of permanent magnets provided to the rotor core ; and a stator having a plurality of teeth opposing the plurality of magnetic poles, a stator core provided with slots in which to store an armature winding wire wound around the teeth , and supplemental grooves provided to the teeth in portions opposing the rotor in an axial direction of the stator core , one supplemental groove being provided per tooth, let P be the number of the magnetic poles (the number of poles) and S be the number of the slots (the number of slots), then a relation, 0.75 < S/P < 1.5, is established, a width (Wd) of the supplemental grooves is larger than an opening width (Ws) of the slots , the permanent magnet rotating electrical machine being characterized in that : the supplemental grooves are provided to the stator so as not to be formed in an axial end portion of the stator core ; and let Lc be an axial length of the stator core and Ld be a length of a portion in which the supplemental grooves are provided in the axial direction of the stator core , then Lc and Ld satisfy a relational expression, 0.4 ≤ Ld/Lc ≤ 0.6. the supplemental grooves are provided to the stator so as not to be formed in an axial end portion of the stator core ; and let Lc be an axial length of the stator core and Ld be a length of a portion in which the supplemental grooves are provided in the axial direction of the stator core , then Lc and Ld satisfy a relational expression, 0.4 ≤ Ld/Lc ≤ 0.6.
A mutant TcBuster transposase comprising an amino acid sequence at least 90% identical to full-length SEQ ID NO: 1, wherein said mutant TcBuster transposase: (a) comprises one or more amino acid substitutions in comparison to a wild-type TcBuster transposase having an amino acid sequence of SEQ ID NO: 1; (b) has increased transposition efficiency in comparison to a wild-type TcBuster transposase having an amino acid sequence of SEQ ID NO: 1; and (c) comprises amino acid substitution N85S, when numbered in accordance with SEQ ID NO: 1. (a) comprises one or more amino acid substitutions in comparison to a wild-type TcBuster transposase having an amino acid sequence of SEQ ID NO: 1; (b) has increased transposition efficiency in comparison to a wild-type TcBuster transposase having an amino acid sequence of SEQ ID NO: 1; and (c) comprises amino acid substitution N85S, when numbered in accordance with SEQ ID NO: 1.
A method for determining a location of a defect in an electrical line of an electronic system, the method comprising: (i) setting a value of a first threshold and a value of a second threshold; (ii) with a control circuit , outputting a first signal transition onto the electrical line ; (iii) with the control circuit , receiving a second signal transition arising in response to a reflection of the first signal transition from the defect ; (iv) determining an occurrence of a first event based on the first signal transition crossing a first threshold; (v) determining an occurrence of a second event based on the second signal transition crossing the second threshold; (vi) varying the value of the first threshold and/or the value of the second threshold; (vii) repeating (ii)-(vi) N times, where N>0; (viii) computing a first representative measurement value based on at least some of the occurrences of the first events and computing a second representative measurement value based on at least some of the occurrences of the second events; and (ix) determining the location of the defect based on the first representative measurement value and the second representative measurement value. (i) setting a value of a first threshold and a value of a second threshold; (ii) with a control circuit , outputting a first signal transition onto the electrical line ; (iii) with the control circuit , receiving a second signal transition arising in response to a reflection of the first signal transition from the defect ; (iv) determining an occurrence of a first event based on the first signal transition crossing a first threshold; (v) determining an occurrence of a second event based on the second signal transition crossing the second threshold; (vi) varying the value of the first threshold and/or the value of the second threshold; (vii) repeating (ii)-(vi) N times, where N>0; (viii) computing a first representative measurement value based on at least some of the occurrences of the first events and computing a second representative measurement value based on at least some of the occurrences of the second events; and (ix) determining the location of the defect based on the first representative measurement value and the second representative measurement value.
A method for transmitting data using a magnetic field without using induction, comprising: generating, at a transmitter device, one or more communication symbols that represent data to be transmitted to a receiver device; generating a magnetic field at the transmitter device; and rotating the magnetic field around one or more axes to encode the one or more communication symbols that represent the data to be transmitted to the receiver device generating, at a transmitter device, one or more communication symbols that represent data to be transmitted to a receiver device; generating a magnetic field at the transmitter device; and rotating the magnetic field around one or more axes to encode the one or more communication symbols that represent the data to be transmitted to the receiver device
An incineration toilet comprising a toilet pedestal and a toilet casing , a frame and a pouch bowl for holding a waste pouch being arranged in the toilet pedestal, the pouch bowl being in communication with a combustion chamber via a hatch mechanism, the toilet also comprising a heat source for supply of heat to the combustion chamber and an exhaust fan for drawing out exhaust gases from the combustion chamber , the combustion chamber comprising an ash tray forming a lower bottom or base of the combustion chamber , the toilet casing is formed in one piece and arranged to cover an inner part of the toilet comprising the combustion chamber and the ash tray, characterized in that the complete toilet casing is slideably connected to sliding rails and is rotatable and slideable upwards and away from the toilet pedestal by means of the sliding rails to provide access to the inner parts of the toilet.
Electric machine of a motor vehicle, in particular of an adjustment drive or of a radiator fan , having a stator which comprises at least one electric coil and having a rotor which is mounted so as to be rotatable about a machine axis and which has a number of permanent magnets which are arranged in the radial direction (R), wherein each permanent magnet has one side with a strong magnetic flux and one side with a weak magnetic flux in the tangential direction (T), wherein when permanent magnets are adjacent in the tangential direction (T), different sides are directed towards one another, wherein the permanent magnets are magnetized in the tangential direction (T), wherein permanent magnets which are respectively adjacent in the tangential direction (T) are magnetized in opposing directions, wherein each permanent magnet has a C-shaped cross section perpendicularly with respect to the machine axis , wherein each free end is located on a radial straight line , and wherein all the permanent magnets are curved in the same tangential direction (T).
A hand-held probe comprising: a detector having a first mating component and being configured to generate a low-level electrical signal from an operative portion of the detector, the electrical signal relating to a radiation source proximate the detector; a handle including a second mating component configured to removably mate with the first mating component such that the handle is removably coupleable with the detector ; and a graphical user interface having a first numerical representation ; characterised in that the graphical user interface has a second numerical representation , wherein the first numerical representation is configured to depict a count generated by the detector in real-time, wherein the second numerical representation is configured to depict an operator selectable target count. a detector having a first mating component and being configured to generate a low-level electrical signal from an operative portion of the detector, the electrical signal relating to a radiation source proximate the detector; a handle including a second mating component configured to removably mate with the first mating component such that the handle is removably coupleable with the detector ; and a graphical user interface having a first numerical representation ; characterised in that the graphical user interface has a second numerical representation , wherein the first numerical representation is configured to depict a count generated by the detector in real-time, wherein the second numerical representation is configured to depict an operator selectable target count.
A capillary tube , comprising: a longitudinal transparent tubular body defining a center bore; and a coating on the tubular body, wherein the coating comprises a polymer, wherein the polymer comprises a fluoropolymer material, characterised in that : the polymer is a clear hard polymer; the coating is a clear transparent hard coating comprising the clear hard polymer; and the clear transparent hard coating on the tubular body allows light to transmit between the bore and external of the clear transparent hard coating through the clear transparent hard coating.
A pharmaceutical composition comprising therapeutically effective amount of rifaximin or pharmaceutically acceptable salt(s) or enantiomer(s) or polymorph(s) thereof, one or more release controlling agent(s) and pharmaceutically acceptable excipient(s), wherein the pharmaceutical composition comprises a multilayer tablet, wherein at least one layer consists of a release controlling polymer and rifaximin, and at least one layer consists of a bioadhesive polymer, where each layer includes one or more excipients.
An eNodeB, eNB, comprising: a plurality of antenna ports with a plurality of antenna elements ; first circuitry coupled with the plurality of antenna elements , the first circuitry to: identify, based on feedback information, a plurality of beamforming weights for one or multiple antenna ports wherein a number of the antenna ports is less than a number of the plurality of antenna elements ; and assign a beamforming weight in the plurality of beamforming weights to an antenna element in the plurality of antenna elements ; and transmitter circuitry coupled with the first circuitry , the transmitter circuitry to: beamform a channel training signal allocated for the antenna port with the beamforming weights; and transmit an antenna port configuration schedule from the plurality of antenna elements , wherein the antenna port configuration schedule includes an indication of a time period where the beamforming weights will not change. a plurality of antenna ports with a plurality of antenna elements ; first circuitry coupled with the plurality of antenna elements , the first circuitry to: identify, based on feedback information, a plurality of beamforming weights for one or multiple antenna ports wherein a number of the antenna ports is less than a number of the plurality of antenna elements ; and assign a beamforming weight in the plurality of beamforming weights to an antenna element in the plurality of antenna elements ; and identify, based on feedback information, a plurality of beamforming weights for one or multiple antenna ports wherein a number of the antenna ports is less than a number of the plurality of antenna elements ; and assign a beamforming weight in the plurality of beamforming weights to an antenna element in the plurality of antenna elements ; and transmitter circuitry coupled with the first circuitry , the transmitter circuitry to: beamform a channel training signal allocated for the antenna port with the beamforming weights; and transmit an antenna port configuration schedule from the plurality of antenna elements , wherein the antenna port configuration schedule includes an indication of a time period where the beamforming weights will not change. beamform a channel training signal allocated for the antenna port with the beamforming weights; and transmit an antenna port configuration schedule from the plurality of antenna elements , wherein the antenna port configuration schedule includes an indication of a time period where the beamforming weights will not change.
A switched mode power supply , comprising: a first secondary circuit comprising a first secondary coil and a first secondary controller , wherein the first secondary coil is configured to output electrical power based at least in part on voltage induced across the first secondary coil by a primary coil and the first secondary controller is configured to control electrical power output by the first secondary circuit by selectively connecting the first secondary coil to a first power output ; and a second secondary circuit comprising a second secondary coil and a second secondary controller , wherein the second secondary coil is configured to output electrical power based at least in part on voltage induced across the second secondary coil, and the second secondary controller is configured to control electrical power output by the second secondary circuit by selectively connecting the second secondary coil to a second power output , characterized in that the first secondary controller is communicatively coupled to a primary controller via a single pair of optical cables , the first secondary controller is communicatively coupled to the second secondary controller via a serial bus , and the second secondary controller is configured to communicate with the primary controller via the first secondary controller . a first secondary circuit comprising a first secondary coil and a first secondary controller , wherein the first secondary coil is configured to output electrical power based at least in part on voltage induced across the first secondary coil by a primary coil and the first secondary controller is configured to control electrical power output by the first secondary circuit by selectively connecting the first secondary coil to a first power output ; and a second secondary circuit comprising a second secondary coil and a second secondary controller , wherein the second secondary coil is configured to output electrical power based at least in part on voltage induced across the second secondary coil, and the second secondary controller is configured to control electrical power output by the second secondary circuit by selectively connecting the second secondary coil to a second power output , characterized in that the first secondary controller is communicatively coupled to a primary controller via a single pair of optical cables , the first secondary controller is communicatively coupled to the second secondary controller via a serial bus , and the second secondary controller is configured to communicate with the primary controller via the first secondary controller .
A method of operating a wireless communication network to hand-in inbound User Equipment, UE, from a source communication network to a non-Third Generation Partnership Project, non-3GPP, access node , the method comprising: a Network Exposure Function, NEF, receiving inbound UE context from the source communication network when the source communication network identifies that the UE is handing over to the non-3GPP access node; an Access and Mobility Management Function, AMF, detecting when the inbound UE attaches to the non-3GPP access node to hand-in from the source communication network, wherein the UE attaches to the non-3GPP access node and registers with AMF over non-3GPP access node, and in response, transferring a UE context request for the inbound UE to the NEF; the NEF transferring the inbound UE context to the AMF in response to the UE context request; and the AMF receiving the inbound UE context and transferring network signaling to one or more network functions to serve the inbound UE based on the inbound UE context. a Network Exposure Function, NEF, receiving inbound UE context from the source communication network when the source communication network identifies that the UE is handing over to the non-3GPP access node; an Access and Mobility Management Function, AMF, detecting when the inbound UE attaches to the non-3GPP access node to hand-in from the source communication network, wherein the UE attaches to the non-3GPP access node and registers with AMF over non-3GPP access node, and in response, transferring a UE context request for the inbound UE to the NEF; the NEF transferring the inbound UE context to the AMF in response to the UE context request; and the AMF receiving the inbound UE context and transferring network signaling to one or more network functions to serve the inbound UE based on the inbound UE context.
A production optimization system comprising: a production environment with at least a first machine and a second machine , a distribution unit configured to be connected to the first machine and the second machine via a communication network and to determine their machine status, and an optimizing unit which is configured to create a production plan in which at least one order for manufacturing a product is divided into machine-specific sub-orders for the first machine or the second machine and is provided for the first machine or the second machine with a sequence, characterized in that the distribution unit is configured to determine the next pending sub-order for the first machine or the second machine by the optimizing unit , to remove it from the production plan and to assign it to the respective machine, taking into account the respective machine status, wherein the optimizing unit is configured to redetermine the production plan after each removal of a sub-order by the distribution unit or after a predetermined period of time has elapsed after the last removal of a sub-order. a production environment with at least a first machine and a second machine , a distribution unit configured to be connected to the first machine and the second machine via a communication network and to determine their machine status, and an optimizing unit which is configured to create a production plan in which at least one order for manufacturing a product is divided into machine-specific sub-orders for the first machine or the second machine and is provided for the first machine or the second machine with a sequence, characterized in that the distribution unit is configured to determine the next pending sub-order for the first machine or the second machine by the optimizing unit , to remove it from the production plan and to assign it to the respective machine, taking into account the respective machine status, wherein the optimizing unit is configured to redetermine the production plan after each removal of a sub-order by the distribution unit or after a predetermined period of time has elapsed after the last removal of a sub-order.
A fluoride ion battery comprising: an electrode layer that includes a first metal element or a carbon element and has capability of fluorination and defluorination; a solid electrolyte layer containing a solid electrolyte material, the solid electrolyte material having fluoride ion conductivity and including an F element and a second metal element with lower fluorination potential and defluorination potential than the potentials of the first metal element or the carbon element; and an anode current collector, in this order; and an anode active material layer being not present between the solid electrolyte layer and the anode current collector; and the fluoride battery further comprising a bipolar structure in which a plurality of the electrode layers and the solid electrolyte layers are alternately disposed. an electrode layer that includes a first metal element or a carbon element and has capability of fluorination and defluorination; a solid electrolyte layer containing a solid electrolyte material, the solid electrolyte material having fluoride ion conductivity and including an F element and a second metal element with lower fluorination potential and defluorination potential than the potentials of the first metal element or the carbon element; and an anode current collector, in this order; and an anode active material layer being not present between the solid electrolyte layer and the anode current collector; and
A method of wireless communication, comprising: identifying an uplink transmission time period associated with an unlicensed radio frequency spectrum band, wherein said uplink transmission time period corresponds to a duration of an assigned physical uplink shared channel, PUSCH, transmission, or an assigned physical uplink control channel, PUCCH, transmission; receiving an indicator in a downlink transmission associated with an uplink transmission of a sounding reference signal, wherein the indicator alerts to transmit the sounding reference signal without designating a location of a sounding reference signal time period relative to the uplink transmission time period ; and transmitting the sounding reference signal over the unlicensed radio frequency spectrum band according to a predetermined configuration, wherein the predetermined configuration includes the location of the sounding reference signal time period to be during a last symbol of the assigned PUSCH or last one or two symbols of the assigned PUCCH. identifying an uplink transmission time period associated with an unlicensed radio frequency spectrum band, wherein said uplink transmission time period corresponds to a duration of an assigned physical uplink shared channel, PUSCH, transmission, or an assigned physical uplink control channel, PUCCH, transmission; receiving an indicator in a downlink transmission associated with an uplink transmission of a sounding reference signal, wherein the indicator alerts to transmit the sounding reference signal without designating a location of a sounding reference signal time period relative to the uplink transmission time period ; and transmitting the sounding reference signal over the unlicensed radio frequency spectrum band according to a predetermined configuration, wherein the predetermined configuration includes the location of the sounding reference signal time period to be during a last symbol of the assigned PUSCH or last one or two symbols of the assigned PUCCH.