mhurhangee/ep-ind-claims huggingface dataset:
Method for determining the concentration of a measurement gas in a gas mixture by measuring the absorption of light over the spectral range of an absorption line of the measurement gas, wherein the gas mixture contains a cross gas with at least one further absorption line, which overlaps the absorption line of the measurement gas and has a pressure enlarging behaviour which differs by comparison herewith, wherein - the pressure of the gas mixture varies, and the measurement of the absorption is carried out in the form of at least two individual measurements with different pressures of the gas mixture, characterised in that - the results of the individual measurements are compared with reference results provided by a calibration field, said reference results having been ascertained in advance by measurement and/or simulation for different known or predetermined pressures and concentrations of the measurement gas and the cross gas, and - the concentration of the measurement gas in the gas mixture is determined on the basis of the comparison of the at least two individual measurements with the reference results. - the pressure of the gas mixture varies, and the measurement of the absorption is carried out in the form of at least two individual measurements with different pressures of the gas mixture, characterised in that - the results of the individual measurements are compared with reference results provided by a calibration field, said reference results having been ascertained in advance by measurement and/or simulation for different known or predetermined pressures and concentrations of the measurement gas and the cross gas, and - the concentration of the measurement gas in the gas mixture is determined on the basis of the comparison of the at least two individual measurements with the reference results.
A method for wireless communication by a base station, BS, comprising: determining presence of a narrow guard band, GB, or lack of a GB to separate a first resource block, RB, used for downlink, DL, transmission from the BS to a first user equipment, UE, and a second RB used for DL transmission from the BS to a second UE; and in response to the determination, transmitting, to the first UE, interference information associated with the transmission from the BS to the second UE. determining presence of a narrow guard band, GB, or lack of a GB to separate a first resource block, RB, used for downlink, DL, transmission from the BS to a first user equipment, UE, and a second RB used for DL transmission from the BS to a second UE; and in response to the determination, transmitting, to the first UE, interference information associated with the transmission from the BS to the second UE.
A computer-implemented method when executed on data processing hardware causes the data processing hardware to perform operations comprising: receiving an overlapped audio signal comprising audio spoken by a speaker that overlaps a segment of synthesized playback audio; encoding a sequence of characters that correspond to the synthesized playback audio into a text embedding representation; for each character in the sequence of characters, generating, using the text embedding representation, a respective cancelation probability indicating a likelihood that the corresponding character is associated with the segment of the synthesized playback audio overlapped by the audio spoken by the speaker in the overlapped audio signal; and generating, using a cancelation neural network configured to receive the overlapped audio signal and the respective cancelation probability generated for each character in the sequence of characters as inputs, an enhanced audio signal by removing the segment of the synthesized playback audio from the overlapped audio signal. receiving an overlapped audio signal comprising audio spoken by a speaker that overlaps a segment of synthesized playback audio; encoding a sequence of characters that correspond to the synthesized playback audio into a text embedding representation; for each character in the sequence of characters, generating, using the text embedding representation, a respective cancelation probability indicating a likelihood that the corresponding character is associated with the segment of the synthesized playback audio overlapped by the audio spoken by the speaker in the overlapped audio signal; and generating, using a cancelation neural network configured to receive the overlapped audio signal and the respective cancelation probability generated for each character in the sequence of characters as inputs, an enhanced audio signal by removing the segment of the synthesized playback audio from the overlapped audio signal.
An arrangement including a range gearbox and a basic gearbox, wherein the range gearbox is connected to a mainshaft at the outside of the basic gearbox and comprises a planetary gear with a sun wheel (21, 21') mounted on the mainshaft and having helical external teeth in engagement with planet wheels which are connected to an output driveshaft, the basic gearbox is surrounded by a housing which has an aperture through which the mainshaft runs, with at least one bearing (7, 8, 8') situated at the aperture between the mainshaft and the housing and fixing the mainshaft to the housing while at the same time allowing the mainshaft to rotate relative to the housing, and the range gearbox having a first gear position in which the sun wheel (21, 21') and the planet wheels do not rotate relative to one another, the rotation of the mainshaft being passed on directly to the output driveshaft, and a second gear position whereby ratio change is effected by the engagement between the sun wheel (21, 21') and the planet wheels, characterised in that the helical external teeth on the sun wheel (21, 21') are so oriented that the axial forces which occur on the mainshaft in a geared forward movement state of the vehicle are directed towards the basic gearbox, and that at least one of the bearings (7, 8, 8') is an outer bearing (8, 8') provided with axial support against the housing of the basic gearbox in order to absorb axial forces in the mainshaft which act towards the basic gearbox.
A method of heating an inner pipe of a set of undersea coaxial steel pipes of the PIP type comprising an inner steel pipe and an outer steel pipe coaxial to the inner pipe, an annular space between the inner and outer pipes comprising an annular thermally insulation, characterized in that the inner pipe is heated by induction using an electromagnetic induction coil surrounding the outer pipe coaxially, a current flowing through the coil having a frequency lower than 100 Hz optimized for maximum energy efficiency of Joule effect heating of the inner pipe, preferably at a frequency in the range 0.1 Hz to 10 Hz.
A method for producing a seamless metal pipe using a piercing machine including a plurality of skew rolls and a plug arranged between the plurality of skew rolls, the method comprising the steps of: preparing a billet having a diameter B (mm), heating the billet, forming, in a center part of a rear end of the heated billet, a hole including four grooves extending in an axial direction of the billet, the grooves each having a groove width D (mm) satisfying Formula, a groove height H (mm) satisfying Formula and a groove depth L1 (mm) satisfying Formula, and subjecting the billet provided with the hole to piercing-rolling from a front end by means of the piercing machine; 0.12 ≤ D / B ≤ 0.25 0.10 ≤ H / B ≤ 0.20 0.05 ≤ L 1 / B < 0.10 preparing a billet having a diameter B (mm), heating the billet, forming, in a center part of a rear end of the heated billet, a hole including four grooves extending in an axial direction of the billet, the grooves each having a groove width D (mm) satisfying Formula, a groove height H (mm) satisfying Formula and a groove depth L1 (mm) satisfying Formula, and subjecting the billet provided with the hole to piercing-rolling from a front end by means of the piercing machine; 0.12 ≤ D / B ≤ 0.25 0.10 ≤ H / B ≤ 0.20 0.05 ≤ L 1 / B < 0.10
Wall as face wall, inner face wall, rear wall, side wall or cover for an element to be pushed out, such as e.g. a drawer or the like, consisting of a steel sheet, with a closed profile having profile side pieces (22, 24), each of which possesses end faces, which profile possesses an inner side, an outer side, a top side and a bottom side, wherein the steel sheet is bent or chamfered at edges such that the free profile side pieces (22, 24) are adhesively bonded to one another in the form of welding, wherein the profile side pieces (22, 24) are connected to one another as a seam in the form of profile butt joints, characterised in that the profile side pieces (22, 24) abut against one another as coupled flanges, and their end faces abut against the inner surface of the outer side of the face wall, wherein the two profile side pieces (22, 24) lie in the inner space of a hollow profile and form an additional reinforcing rib, and wherein the welding is formed as an expanded Y-seam in a channel region of the feet of the two profile side pieces (22, 24).
A stability control device comprising: a steering unit configured to receive steering input from a driver; a turning unit mechanically uncoupled from the steering unit and configured to turn a turning wheel; a steer-by-wire turning amount calculation unit configured to calculate a steer-by-wire turning amount corresponding to a steering amount of the steering unit; a yaw moment detection unit configured to detect a yaw moment generated in a vehicle by disturbance; a suppression turning amount calculation unit configured to calculate a suppression turning amount to suppress the yaw moment; a turning control unit configured to control a turning amount of the turning unit based on the steer-by-wire turning amount and the suppression turning amount; a steering reaction force control unit configured to control a steering reaction force to be applied to the steering unit based on the steering amount so as not to reflect the suppression turning amount on the steering reaction force, the stability control device being characterised by further comprising a camera configured to shoot a white line in front of a vehicle equipped with the stability control device, wherein the yaw moment detection unit detects the yaw moment based on an angle formed by the white line shot by the camera and a traveling direction of the vehicle; and wherein a dead zone is provided, in which the suppression turning amount is set to zero when the detected yaw moment is not more than a predetermined threshold. a steering unit configured to receive steering input from a driver; a turning unit mechanically uncoupled from the steering unit and configured to turn a turning wheel; a steer-by-wire turning amount calculation unit configured to calculate a steer-by-wire turning amount corresponding to a steering amount of the steering unit; a yaw moment detection unit configured to detect a yaw moment generated in a vehicle by disturbance; a suppression turning amount calculation unit configured to calculate a suppression turning amount to suppress the yaw moment; a turning control unit configured to control a turning amount of the turning unit based on the steer-by-wire turning amount and the suppression turning amount; a steering reaction force control unit configured to control a steering reaction force to be applied to the steering unit based on the steering amount so as not to reflect the suppression turning amount on the steering reaction force, the stability control device being characterised by further comprising a camera configured to shoot a white line in front of a vehicle equipped with the stability control device, wherein the yaw moment detection unit detects the yaw moment based on an angle formed by the white line shot by the camera and a traveling direction of the vehicle; and wherein a dead zone is provided, in which the suppression turning amount is set to zero when the detected yaw moment is not more than a predetermined threshold.
A wireless communications system supporting control plane data comprising: a terminal device; a first mobility management entity, MME, configured to support control plane data for the terminal device; and at least one second mobility management entity, MME, operably coupled via a backhaul link to the first MME wherein, according to a first mode of operation, a processor of the at least one second MME is arranged to build and update context information associated with the terminal device by monitoring at least a subset of the control plane data between the terminal device and the first MME, following a receipt of a security key, K ASME, or a whole authentication vector from the first MME, such that the at least one second MME is able to use the same security association between the terminal device and the first MME; wherein the processor of the at least one second MME is further arranged to detect either a communication link failure between the at least one second MME and the first MME via the backhaul link or that the first MME is deemed non-operational, and in response thereto switch to a second mode of operation; where the at least one second MME is arranged to perform at least a subset of the MME functionality of the first MME. a terminal device; a first mobility management entity, MME, configured to support control plane data for the terminal device; and at least one second mobility management entity, MME, operably coupled via a backhaul link to the first MME
An electrode for a galvanic cell, characterized by an electrically insulating carrier provided with an embroidery (1, 2), wherein at least a part of the surface of the embroidery (1, 2) is configured to be electrically conductive, wherein the embroidery forms a three-dimensional, electrically conductive structure and filaments of the embroidery are varied in stitching number and/or stitching density and/or are distributed differently in the depth of the electrode, characterized in that part of the embroidery is configured as air embroidery.
A method for transmitting non-I/Q data through a common public radio interface, comprising: encapsulating a data transmitted on the common public radio interface into an information packet after the data is added a packet header if the common public radio interface is located before a downlink modulation or after an uplink demodulation, wherein the packet header at least comprises one or more than one of the following fields: a destination address field, a source address field, a packet type field, a packet start/end flag field, a data length field, and a serial number field; mapping the information packet to one or more than one information packet container; bearing the information packet container in a super frame; and transmitting the super frame through the common public radio interface; wherein the bearing the information packet container in the super frame specifically comprises: combining all information packet containers that bear the same information packet into one information packet container block; bearing the information packet container block in the super frame; determining whether the super frame has emptiness; and adding a padding bit information packet container to an empty place of the super frame if the super frame has the emptiness, wherein the padding bit information packet container is filled with padding bits. encapsulating a data transmitted on the common public radio interface into an information packet after the data is added a packet header if the common public radio interface is located before a downlink modulation or after an uplink demodulation, wherein the packet header at least comprises one or more than one of the following fields: a destination address field, a source address field, a packet type field, a packet start/end flag field, a data length field, and a serial number field; mapping the information packet to one or more than one information packet container; bearing the information packet container in a super frame; and transmitting the super frame through the common public radio interface; wherein the bearing the information packet container in the super frame specifically comprises: combining all information packet containers that bear the same information packet into one information packet container block; bearing the information packet container block in the super frame; determining whether the super frame has emptiness; and adding a padding bit information packet container to an empty place of the super frame if the super frame has the emptiness, wherein the padding bit information packet container is filled with padding bits. combining all information packet containers that bear the same information packet into one information packet container block; bearing the information packet container block in the super frame; determining whether the super frame has emptiness; and adding a padding bit information packet container to an empty place of the super frame if the super frame has the emptiness, wherein the padding bit information packet container is filled with padding bits.
An electric motorcycle comprising: a battery for storing electric power; an inverter for generating an AC current by the electric power supplied from the battery to the inverter; a motor for generating driving power by the AC current generated by the inverter and supplied to the motor; a wiring member for electrically connecting the inverter to the motor and flowing a current to drive the motor; a battery case for accommodating the battery; an inverter case for accommodating the inverter; and a motor unit case for accommodating the motor, characterized in that the wiring member is placed in a space surrounded by the battery case, the inverter case and the motor unit case. a battery for storing electric power; an inverter for generating an AC current by the electric power supplied from the battery to the inverter; a motor for generating driving power by the AC current generated by the inverter and supplied to the motor; a wiring member for electrically connecting the inverter to the motor and flowing a current to drive the motor; a battery case for accommodating the battery; an inverter case for accommodating the inverter; and a motor unit case for accommodating the motor,
A semiconductor device comprising: a substrate having a first conductivity type, the substrate having a top surface and a bottom surface; a first buried layer disposed in the substrate at a first depth from the top surface, wherein the first buried layer has a second conductivity type and a first doping concentration; a second buried layer adjacent and surrounding the first buried layer at the first depth, wherein the second buried layer has the second conductivity type and a second doping concentration, wherein the second doping concentration is less than the first doping concentration; and an isolation trench disposed in the substrate and surrounding the second buried layer wherein the isolation trench extends from the top surface of the substrate to a second depth, the second depth exceeding the first depth. a substrate having a first conductivity type, the substrate having a top surface and a bottom surface; a first buried layer disposed in the substrate at a first depth from the top surface, wherein the first buried layer has a second conductivity type and a first doping concentration; a second buried layer adjacent and surrounding the first buried layer at the first depth, wherein the second buried layer has the second conductivity type and a second doping concentration, wherein the second doping concentration is less than the first doping concentration; and an isolation trench disposed in the substrate and surrounding the second buried layer wherein the isolation trench extends from the top surface of the substrate to a second depth, the second depth exceeding the first depth.
An implant device, comprising: a top plate coupled to a bottom plate by a hinge, wherein the top plate comprises an extended anterior wall and the bottom plate comprises an extended anterior wall; a linkage (381, 383) disposed between the top and bottom plates; a moveable chassis positioned within the bottom plate; a screw positioned within and engaged with the moveable chassis; and a washer disposed about the screw, wherein rotation of the screw is configured to cause incremental ratchet movement of the chassis, and to cause the linkage (381, 383) to move from a collapsed position in which the extended anterior wall of the top plate and the extended anterior wall of the bottom plate are substantially parallel with each other, to an expanded position in which the top plate is pushed away from the bottom plate, such that the top plate and the bottom plate form an angle with respect to each other. a top plate coupled to a bottom plate by a hinge, wherein the top plate comprises an extended anterior wall and the bottom plate comprises an extended anterior wall; a linkage (381, 383) disposed between the top and bottom plates; a moveable chassis positioned within the bottom plate; a screw positioned within and engaged with the moveable chassis; and a washer disposed about the screw, wherein rotation of the screw is configured to cause incremental ratchet movement of the chassis, and to cause the linkage (381, 383) to move from a collapsed position in which the extended anterior wall of the top plate and the extended anterior wall of the bottom plate are substantially parallel with each other, to an expanded position in which the top plate is pushed away from the bottom plate, such that the top plate and the bottom plate form an angle with respect to each other.
A neutron capture therapy system for eliminating amyloid β-protein, comprising: a neutron capture therapy device, characterised by further encompassing a compound for specifically binding to the amyloid β-protein, wherein the compound for specifically binding to the amyloid β-protein has a structure of formula I: wherein B in the B 2 -group of the formula I is 10 B, and wherein the energy generated by the action of a neutron beam generated by the neutron capture therapy device on the nuclide of the compound destroys the structure of the amyloid β-protein. a neutron capture therapy device, characterised by further encompassing a compound for specifically binding to the amyloid β-protein, wherein the compound for specifically binding to the amyloid β-protein has a structure of formula I: wherein B in the B 2 -group of the formula I is 10 B, and wherein the energy generated by the action of a neutron beam generated by the neutron capture therapy device on the nuclide of the compound destroys the structure of the amyloid β-protein.