mhurhangee/ep-ind-claims huggingface dataset:
Electrosurgical handpiece for the radiofrequency surgical treatment of tubo-nasal pathologies, such as hypertrophy of the middle and/or superior nasal turbinates and/or of the torus tubarius, comprising a handle and an electrodes supporting rod firmly attached to the handle and projecting from an end portion thereof, the electrodes supporting rod being bent and comprising: - a first straight portion adjacent to the handle; - a second straight portion connected to the first portion and bent in relation to the first portion; - a third straight portion connected to the second portion, bent with respect to the second portion and comprising a free end portion fitted with two electrodes (9, 10), wherein: - the first straight portion, the second straight portion and the third straight portion lie on the same plane; - the third straight portion is bent with respect to the second straight portion in the same direction in which the second straight portion is bent with respect to the first straight portion; - the third straight portion has a length less than the length of the first straight portion and that of the second straight portion; - the first straight portion is adjacent to the handle; - the second straight portion is interposed between the first straight portion and the third straight portion. - a first straight portion adjacent to the handle; - a second straight portion connected to the first portion and bent in relation to the first portion; - a third straight portion connected to the second portion, bent with respect to the second portion and comprising a free end portion fitted with two electrodes (9, 10), wherein: - the first straight portion, the second straight portion and the third straight portion lie on the same plane; - the third straight portion is bent with respect to the second straight portion in the same direction in which the second straight portion is bent with respect to the first straight portion; - the third straight portion has a length less than the length of the first straight portion and that of the second straight portion; - the first straight portion is adjacent to the handle; - the second straight portion is interposed between the first straight portion and the third straight portion. - the first straight portion, the second straight portion and the third straight portion lie on the same plane; - the third straight portion is bent with respect to the second straight portion in the same direction in which the second straight portion is bent with respect to the first straight portion; - the third straight portion has a length less than the length of the first straight portion and that of the second straight portion; - the first straight portion is adjacent to the handle; - the second straight portion is interposed between the first straight portion and the third straight portion.
A method executed by a wireless interface of a base station, comprising: - obtaining a reference signal waveform ( b) which is defined in accordance with a modulation scheme, - shaping the reference signal waveform ( b) by calculation, to obtain at least one signal waveform ( x̃) associated with one or more subcarriers of a plurality of subcarriers, - in response to said shaping: inputting the at least one signal waveform to at least one corresponding channel of a multi-channel orthogonal frequency division multiplex, OFDM, modulator ( F, 1502, 1503, 1504), and - transmitting an OFDM symbol ( s) output by the OFDM modulator ( F, 1502, 1503, 1504), wherein said shaping approximates a baseband representation ( b̃) of a part ( s W) of the OFDM symbol ( s) associated with the one or more subcarriers to the reference signal waveform ( b). - obtaining a reference signal waveform ( b) which is defined in accordance with a modulation scheme, - shaping the reference signal waveform ( b) by calculation, to obtain at least one signal waveform ( x̃) associated with one or more subcarriers of a plurality of subcarriers, - in response to said shaping: inputting the at least one signal waveform to at least one corresponding channel of a multi-channel orthogonal frequency division multiplex, OFDM, modulator ( F, 1502, 1503, 1504), and - transmitting an OFDM symbol ( s) output by the OFDM modulator ( F, 1502, 1503, 1504),
A luminaire, comprising: a waveguide body comprising an elongate central section and first and second separate side sections (20, 22) extending away from the elongate central section along first and second opposed directions, respectively, wherein the elongate central section includes a coupling portion; and wherein the waveguide body has a length and comprises a plurality of light extraction features; and at least one LED disposed adjacent the coupling portion and operated by a power circuit to produce light that is directed into the waveguide body by the coupling portion, characterized in that: the coupling portion comprises a concave surface adjacent to a lower surface of each of the side sections (20, 22) and a curved V-shaped second surface disposed opposite the concave first surface, and in that the light extraction features cause light to exit the waveguide body out of the lower surface and an upper surface of the side sections (20, 22). a waveguide body comprising an elongate central section and first and second separate side sections (20, 22) extending away from the elongate central section along first and second opposed directions, respectively, wherein the elongate central section includes a coupling portion; and wherein the waveguide body has a length and comprises a plurality of light extraction features; and at least one LED disposed adjacent the coupling portion and operated by a power circuit to produce light that is directed into the waveguide body by the coupling portion, characterized in that: the coupling portion comprises a concave surface adjacent to a lower surface of each of the side sections (20, 22) and a curved V-shaped second surface disposed opposite the concave first surface, and in that the light extraction features cause light to exit the waveguide body out of the lower surface and an upper surface of the side sections (20, 22). the coupling portion comprises a concave surface adjacent to a lower surface of each of the side sections (20, 22) and a curved V-shaped second surface disposed opposite the concave first surface, and in that the light extraction features cause light to exit the waveguide body out of the lower surface and an upper surface of the side sections (20, 22).
A welding power supply, comprising: power conversion circuitry comprising one or more power semiconductor switches configured to receive power from a primary source and to switch the one or more power semiconductor switches between an ON configuration and an OFF configuration to convert the received power to a welding output; characterized by a controller configured for, when a welding operation has been started, measuring a peak to peak switching ripple generated by the switching of the power semiconductor switches in a voltage present on welding output terminals, and therefore determining, during a welding operation, a weld cable inductance. power conversion circuitry comprising one or more power semiconductor switches configured to receive power from a primary source and to switch the one or more power semiconductor switches between an ON configuration and an OFF configuration to convert the received power to a welding output; characterized by a controller configured for, when a welding operation has been started, measuring a peak to peak switching ripple generated by the switching of the power semiconductor switches in a voltage present on welding output terminals, and therefore determining, during a welding operation, a weld cable inductance.
A hydraulic assembly comprising: a housing comprising an outer cylindrical structure and an inner cylindrical structure; a first piston positioned between the outer cylindrical structure and the inner cylindrical structure, wherein an outer chamber configured to receive a first fluid is formed between the outer cylindrical structure, the inner cylindrical structure, and the first piston; a second piston nested within the first piston, wherein the inner cylindrical structure, the first piston, and the second piston form an inner chamber in which a volume of the inner chamber changes when at least one of the first piston and the second piston move and in which the inner chamber is configured to hold a second fluid comprising a gas; and a third piston positioned between the outer cylindrical structure and the first piston, wherein the first piston, the second piston and the third piston are configured to move in a direction parallel to an axis through the housing. a housing comprising an outer cylindrical structure and an inner cylindrical structure; a first piston positioned between the outer cylindrical structure and the inner cylindrical structure, wherein an outer chamber configured to receive a first fluid is formed between the outer cylindrical structure, the inner cylindrical structure, and the first piston; a second piston nested within the first piston, wherein the inner cylindrical structure, the first piston, and the second piston form an inner chamber in which a volume of the inner chamber changes when at least one of the first piston and the second piston move and in which the inner chamber is configured to hold a second fluid comprising a gas; and
A field device comprising: a casing portion that has an amplifier shield chamber into which an analog signal transfer portion transferring an analog signal output from a detector is able to be inserted; a signal conversion portion that is disposed inside the amplifier shield chamber, the signal conversion portion being configured to convert the analog signal into a digital signal; a first connector that is disposed inside the amplifier shield chamber, the first connector being configured to connect the analog signal transfer portion and the signal conversion portion to each other in an attachable/detachable manner, characterized by a communication hole through which the inside and the outside of the amplifier shield chamber communicate with each other; a first substrate portion that comprises: a main body portion which is disposed inside the casing portion and outside the amplifier shield chamber; and an insertion portion which extends from the main body portion and is inserted into the amplifier shield chamber through the communication hole; and an amplifier shielding plate that closes the communication hole through which the first substrate portion has passed. a casing portion that has an amplifier shield chamber into which an analog signal transfer portion transferring an analog signal output from a detector is able to be inserted; a signal conversion portion that is disposed inside the amplifier shield chamber, the signal conversion portion being configured to convert the analog signal into a digital signal; a first connector that is disposed inside the amplifier shield chamber, the first connector being configured to connect the analog signal transfer portion and the signal conversion portion to each other in an attachable/detachable manner, characterized by a communication hole through which the inside and the outside of the amplifier shield chamber communicate with each other; a first substrate portion that comprises: a main body portion which is disposed inside the casing portion and outside the amplifier shield chamber; and an insertion portion which extends from the main body portion and is inserted into the amplifier shield chamber through the communication hole; and a main body portion which is disposed inside the casing portion and outside the amplifier shield chamber; and an insertion portion which extends from the main body portion and is inserted into the amplifier shield chamber through the communication hole; and an amplifier shielding plate that closes the communication hole through which the first substrate portion has passed.
A compound represented by the formula: wherein X 1, X 2, X 3 and X 4 are each independently a nitrogen atom, or CR a; Y and Z are each independently an oxygen atom, NR b, or CR c R d; R 1 and R 2 are each independently an optionally substituted C 1-6 alkyl group, or an optionally substituted cyclic group; or R 1 and R 2 in combination form an optionally further substituted nitrogen-containing heterocycle, together with the adjacent nitrogen atom; R 3 is an optionally substituted C 1-6 alkyl group, an optionally substituted cyclic group, a group represented by the formula: - C(=O)-R e, or a group represented by the formula: -C(=O)O-R e; Ring A is an optionally further substituted pyrrolidine ring; R a, R c and R d are each independently a hydrogen atom, a halogen atom, an optionally substituted C 1-6 alkyl group, or an optionally substituted C 1-6 alkoxy group; R b is a hydrogen atom, or an optionally substituted C 1-6 alkyl group; and R e is an optionally substituted C 1-6 alkyl group, or an optionally substituted cyclic group. or a salt thereof. X 1, X 2, X 3 and X 4 are each independently a nitrogen atom, or CR a; Y and Z are each independently an oxygen atom, NR b, or CR c R d; R 1 and R 2 are each independently an optionally substituted C 1-6 alkyl group, or an optionally substituted cyclic group; or R 1 and R 2 in combination form an optionally further substituted nitrogen-containing heterocycle, together with the adjacent nitrogen atom; R 3 is an optionally substituted C 1-6 alkyl group, an optionally substituted cyclic group, a group represented by the formula: - C(=O)-R e, or a group represented by the formula: -C(=O)O-R e; Ring A is an optionally further substituted pyrrolidine ring; R a, R c and R d are each independently a hydrogen atom, a halogen atom, an optionally substituted C 1-6 alkyl group, or an optionally substituted C 1-6 alkoxy group; R b is a hydrogen atom, or an optionally substituted C 1-6 alkyl group; and R e is an optionally substituted C 1-6 alkyl group, or an optionally substituted cyclic group.
A method for correcting a state of charge, comprising: determining an operating state of a battery cell, wherein the operating state comprises a discharging state; acquiring a current open circuit voltage of the battery cell; acquiring a current accumulative charging capacity and a current accumulative discharging capacity of the battery cell; the method is characterised by using (S1022a), as a corrected state of charge of the battery cell, a state of charge corresponding to the current open circuit voltage in a discharging open circuit voltage curve with an initial state of charge being 100% when the current accumulative charging capacity is less than a maximum allowed accumulative charging capacity corresponding to the current open circuit voltage, and the current accumulative discharging capacity is greater than a minimum required accumulative discharging capacity corresponding to the current open circuit voltage. determining an operating state of a battery cell, wherein the operating state comprises a discharging state; acquiring a current open circuit voltage of the battery cell; acquiring a current accumulative charging capacity and a current accumulative discharging capacity of the battery cell; the method is characterised by using (S1022a), as a corrected state of charge of the battery cell, a state of charge corresponding to the current open circuit voltage in a discharging open circuit voltage curve with an initial state of charge being 100% when the current accumulative charging capacity is less than a maximum allowed accumulative charging capacity corresponding to the current open circuit voltage, and the current accumulative discharging capacity is greater than a minimum required accumulative discharging capacity corresponding to the current open circuit voltage.
A stripe reassembling method in a storage system, wherein the storage system comprises N data storage nodes that store data strips and M parity storage nodes that store parity strips; R stripes are distributed on the N+M storage nodes, each stripe S i comprises N data strips and M parity strips, a data strip D ix is distributed on an x th data storage node in the N data storage nodes, and a parity strip P iy is distributed on a y th parity storage node in the M parity storage nodes; and N, M, and R are positive integers, R is not less than 2, a value of i is an integer ranging from 1 to R, a value of x is an integer ranging from 1 to N, and a value of y is an integer ranging from 1 to M; and the method comprises: selecting, by a stripe server, the R stripes, wherein a maximum of one data strip comprises valid data in data strips D ix that are in the R stripes and that are distributed on a same data storage node; generating, by the stripe server, parity data of a parity strip P Ky of a new stripe S K for data of the data strip comprising valid data in the R stripes, wherein the new stripe S K comprises the data strip comprising valid data in the R stripes and the parity strip P Ky, and K is an integer different from 1 to R; and storing, by the stripe server, the parity data of the parity strip P Ky on the y th parity storage node in the M parity storage nodes. selecting, by a stripe server, the R stripes, wherein a maximum of one data strip comprises valid data in data strips D ix that are in the R stripes and that are distributed on a same data storage node; generating, by the stripe server, parity data of a parity strip P Ky of a new stripe S K for data of the data strip comprising valid data in the R stripes, wherein the new stripe S K comprises the data strip comprising valid data in the R stripes and the parity strip P Ky, and K is an integer different from 1 to R; and storing, by the stripe server, the parity data of the parity strip P Ky on the y th parity storage node in the M parity storage nodes.
A method of monitoring the tyre pressure in respect of multiple wheels on an aircraft, wherein each wheel has a tyre pressure sensor device, each device having a a temperature sensor, a pressure sensor which measures the internal pressure of the tyre, a control unit which records data in a memory unit, and a wireless communication module, the memory unit of each pressure sensor device including: an indication of a reference pressure for the tyre, data recorded in respect of multiple pressure readings over a period of time of one or more days both when the aircraft is on the ground and when the aircraft is in flight, including for each reading a pressure as measured by the pressure sensor; a temperature as measured by the temperature sensor, and an indication of the time of the pressure reading, and the method includes the steps of: a handheld portable reader device wirelessly downloading data from each of the tyre pressure sensor devices on the aircraft via the communication module of each device, the data downloaded including the pressure measured by the pressure sensor and the indication of the reference pressure for the tyre, wherein the handheld portable reader device is configured to compare the reference pressure with the pressure measured by the pressure sensor, and to indicate whether the pressure measured by the pressure sensor is suggestive that the tyre is, or soon will be, underinflated. each wheel has a tyre pressure sensor device, each device having a a temperature sensor, a pressure sensor which measures the internal pressure of the tyre, a control unit which records data in a memory unit, and a wireless communication module, the memory unit of each pressure sensor device including: an indication of a reference pressure for the tyre, data recorded in respect of multiple pressure readings over a period of time of one or more days both when the aircraft is on the ground and when the aircraft is in flight, including for each reading a pressure as measured by the pressure sensor; an indication of a reference pressure for the tyre, data recorded in respect of multiple pressure readings over a period of time of one or more days both when the aircraft is on the ground and when the aircraft is in flight, including for each reading a pressure as measured by the pressure sensor; a temperature as measured by the temperature sensor, and an indication of the time of the pressure reading, and the method includes the steps of: a handheld portable reader device wirelessly downloading data from each of the tyre pressure sensor devices on the aircraft via the communication module of each device, the data downloaded including the pressure measured by the pressure sensor and the indication of the reference pressure for the tyre, wherein the handheld portable reader device is configured to compare the reference pressure with the pressure measured by the pressure sensor, and to indicate whether the pressure measured by the pressure sensor is suggestive that the tyre is, or soon will be, underinflated.
An annular combustion chamber comprising an outer wall, an inner wall, and a chamber end wall interconnecting the outer and inner walls, said chamber end wall comprising windows distributed circumferentially, closed by removable walls, each removable wall constituting a support for a plurality of injector systems, characterized in that each removable wall comprises a peripheral shoulder defining an internal bearing margin that comes into contact with the inside face of the chamber end wall, in that said removable wall comprises, on its edge faces, grooves parallel to said bearing margin, and in that stop clips are engaged in said grooves to define external bearing surfaces that come into contact with the outside face of said chamber end wall.
Electromagnetic transmitting and receiving device for a tyre, having at least one memory component, wherein the at least one memory component is intended for storing tyre information, having a carrying component, wherein the carrying component is intended for carrying the at least one memory component, wherein the electromagnetic transmitting and receiving device has at least one primary antenna and at least one secondary antenna, wherein the at least one primary antenna is intended for sending and receiving electromagnetic waves and the at least one secondary antenna is intended for transmitting and receiving electromagnetic waves, wherein the at least one primary antenna and the at least one secondary antenna can be inductively connected to one another, characterized in that the carrying component is at least partially or completely formed as a mesh or a grid, wherein the at least one primary antenna is woven into the carrying component and/or the at least one secondary antenna is woven into the carrying component.