mhurhangee/ep-ind-claims huggingface dataset:
A magnetic plate toy (1, 1A) comprising: a first plate and a second plate (30, 30A) disposed to oppose each other; and a connector (50, 50A) extending in an opposing direction of the first plate and the second plate (30, 30A) and connecting the first plate and the second plate (30, 30A) to each other, wherein the first plate includes a first plate member and a plurality of first magnets provided inside the first plate member, wherein the second plate (30, 30A) includes a second plate member and a plurality of second magnets provided inside the second plate member that correspond to the plurality of first magnets, wherein the second plate (30, 30A) is connected to the connector (50, 50A) to be rotatable around the opposing direction as a rotation axis direction, wherein the connector (50, 50A) includes a shaft member extending in the opposing direction and a protrusion provided on an outer peripheral surface of the shaft member, wherein the second plate member is provided with a recess in which the shaft member is disposed, wherein an inner peripheral surface of the recess is provided with a groove which extends in a circumferential direction of the recess and in which the protrusion is disposed, and wherein an inscribed circle of the recess is larger than a circumscribed circle of the shaft member when viewed from the opposing direction. a first plate and a second plate (30, 30A) disposed to oppose each other; and a connector (50, 50A) extending in an opposing direction of the first plate and the second plate (30, 30A) and connecting the first plate and the second plate (30, 30A) to each other, wherein the first plate includes a first plate member and a plurality of first magnets provided inside the first plate member, wherein the second plate (30, 30A) includes a second plate member and a plurality of second magnets provided inside the second plate member that correspond to the plurality of first magnets, wherein the second plate (30, 30A) is connected to the connector (50, 50A) to be rotatable around the opposing direction as a rotation axis direction, wherein the connector (50, 50A) includes a shaft member extending in the opposing direction and a protrusion provided on an outer peripheral surface of the shaft member, wherein the second plate member is provided with a recess in which the shaft member is disposed, wherein an inner peripheral surface of the recess is provided with a groove which extends in a circumferential direction of the recess and in which the protrusion is disposed, and wherein an inscribed circle of the recess is larger than a circumscribed circle of the shaft member when viewed from the opposing direction.
A network node method of generating, by genetic programming, evolved algorithms for adjusting base station transmission power to control coverage of a cell to assist in providing desired base station operating characteristics, said method comprising the steps of: generating, using predetermined functions and terminals defined in a functions and terminals list, a plurality of evolved algorithms each of which determine whether, for any particular base station operating conditions, to adjust said base station transmission power; determining a fitness level indicative of each evolved algorithm's ability to adjust base station transmission power to control coverage to achieve said desired base station operating characteristics under expected operating conditions; wherein said step of determining comprises simulating operation of a base station when using each of said evolved algorithms under said expected operating conditions to generate simulated operating metrics and applying those simulated operating metrics to a fitness function representing said desired base station operating characteristics to determine said fitness level and wherein said fitness function comprises: F = w D 1 − C D + w O 1 − C O + w L C L w D + w O + w L where F is said fitness level, Co, C D and C L are a simulated mean of coverage overlap metric, a simulated mean coverage gap metric and a simulated load metric, respectively, and w O, w D and w L are weightings; and iteratively performing said steps of generating and determining to generate further evolved algorithms using at least one of said evolved algorithms determined to have achieved a particular fitness level. generating, using predetermined functions and terminals defined in a functions and terminals list, a plurality of evolved algorithms each of which determine whether, for any particular base station operating conditions, to adjust said base station transmission power; determining a fitness level indicative of each evolved algorithm's ability to adjust base station transmission power to control coverage to achieve said desired base station operating characteristics under expected operating conditions; wherein said step of determining comprises simulating operation of a base station when using each of said evolved algorithms under said expected operating conditions to generate simulated operating metrics and applying those simulated operating metrics to a fitness function representing said desired base station operating characteristics to determine said fitness level and wherein said fitness function comprises: F = w D 1 − C D + w O 1 − C O + w L C L w D + w O + w L where F is said fitness level, Co, C D and C L are a simulated mean of coverage overlap metric, a simulated mean coverage gap metric and a simulated load metric, respectively, and w O, w D and w L are weightings; and iteratively performing said steps of generating and determining to generate further evolved algorithms using at least one of said evolved algorithms determined to have achieved a particular fitness level.
A tibial oncology assembly comprising: a proximal tibial component having a metaphyseal portion and a diaphyseal portion, the diaphyseal portion extending from the metaphyseal portion and being configured to connect to a resected diaphysis of a tibia, the metaphyseal portion having a boss opening extending therein and a proximally facing bearing surface; an axle component having a boss, an axle, and an axle support, the boss being slidably received within the boss opening of the metaphyseal portion and the axle and axle support extending proximally from the boss; and a bearing plate having a distally facing bearing surface, characterized in that the tibial oncology assembly is a trial assembly, wherein the bearing plate is engageable to the boss of the axle component at one of a plurality of locations along its length and the distally facing bearing surface engages the proximally facing bearing surface when the bearing plate is engaged to the axle component. a proximal tibial component having a metaphyseal portion and a diaphyseal portion, the diaphyseal portion extending from the metaphyseal portion and being configured to connect to a resected diaphysis of a tibia, the metaphyseal portion having a boss opening extending therein and a proximally facing bearing surface; an axle component having a boss, an axle, and an axle support, the boss being slidably received within the boss opening of the metaphyseal portion and the axle and axle support extending proximally from the boss; and a bearing plate having a distally facing bearing surface, characterized in that the tibial oncology assembly is a trial assembly, wherein the bearing plate is engageable to the boss of the axle component at one of a plurality of locations along its length and the distally facing bearing surface engages the proximally facing bearing surface when the bearing plate is engaged to the axle component.
Method for automatic lip reading for a patient, wherein the following steps are carried out: - Providing at least an image information about a noiseless mouth movement of a patient, namely about a visually recognizable speech of the patient based on the mouth movement and non-acoustic speech of the patient, when the patient is prevented from speaking, wherein the image information is determined by making a camera recording of the mouth movement, - Performing an applying of a trained image evaluation means, with the image information as an input of the image evaluation means, in order to use an output of the image evaluation means as an audio information, wherein the image evaluation means is designed as a neural network, - Performing an applying of a speech evaluation means for speech recognition using the audio information as an input of the speech evaluation means in order to use an output of the speech evaluation means as a speech information about the mouth movement, wherein the speech evaluation means is designed as a neural network and/or is designed as a speech recognition algorithm to generate the speech information from the audio information in the form of an acoustic information artificially generated by the image evaluation means, wherein the speech information comprises a spoken from the audio information in text form, wherein an output device is provided for outputting the speech information acoustically and/or visually. - Providing at least an image information about a noiseless mouth movement of a patient, namely about a visually recognizable speech of the patient based on the mouth movement and non-acoustic speech of the patient, when the patient is prevented from speaking, wherein the image information is determined by making a camera recording of the mouth movement, - Performing an applying of a trained image evaluation means, with the image information as an input of the image evaluation means, in order to use an output of the image evaluation means as an audio information, wherein the image evaluation means is designed as a neural network, - Performing an applying of a speech evaluation means for speech recognition using the audio information as an input of the speech evaluation means in order to use an output of the speech evaluation means as a speech information about the mouth movement, wherein the speech evaluation means is designed as a neural network and/or is designed as a speech recognition algorithm to generate the speech information from the audio information in the form of an acoustic information artificially generated by the image evaluation means,
A permanent magnet rotor for an electric motor with a central shaft and with a rotor body which surrounds this, wherein the rotor body consists of a plastic material with embedded magnet particles, characterised in that the rotor body is moulded onto the shaft in a manner such that it is connected to the shaft via several individual connection webs which are distanced to one another in the peripheral direction by way of free spaces, wherein each connection web bears with an individual contact region on the shaft, the contact regions of the individual connection webs are distanced to one another and the free spaces extend between the connection webs over the complete axial length.
A power adapter, comprising: a housing having a receiving cavity, the housing being provided with a heat dissipation portion provided with at least one heat dissipation hole; an electronic assembly comprising a plurality of electronic elements located in the receiving cavity; and characterized in that the power adapter further comprises a protective assembly comprising a connection portion connected to the heat dissipation portion and extending outward, and a protective portion connected to the connection portion, wherein the protective portion is spaced apart from the heat dissipation portion, and the protective portion directly faces the heat dissipation hole. a housing having a receiving cavity, the housing being provided with a heat dissipation portion provided with at least one heat dissipation hole; an electronic assembly comprising a plurality of electronic elements located in the receiving cavity; and characterized in that the power adapter further comprises a protective assembly comprising a connection portion connected to the heat dissipation portion and extending outward, and a protective portion connected to the connection portion, wherein the protective portion is spaced apart from the heat dissipation portion, and the protective portion directly faces the heat dissipation hole.
An absorbent article comprising a top sheet on the skin contact side, a back sheet on the non-skin contact side, and an absorbent body situated between the two sheets: wherein the absorbent body comprises a bulky absorbent sheet, and the bulky absorbent sheet comprises heat-expanding particles that are dispersed in the bulky absorbent sheet and have been expanded by heat, wherein the absorbent body has a multilayer structure, and the uppermost layer on the top sheet side is the bulky absorbent sheet layer. wherein the absorbent body comprises a bulky absorbent sheet, and the bulky absorbent sheet comprises heat-expanding particles that are dispersed in the bulky absorbent sheet and have been expanded by heat, wherein the absorbent body has a multilayer structure, and the uppermost layer on the top sheet side is the bulky absorbent sheet layer.
An electrotransport drug delivery device adapted to prevent unwanted delivery of drug while in an off state when the device is powered on, the device comprising: an anode; a cathode; an activation circuit configured to apply current between the anode and cathode to deliver a drug by electrotransport when the device is in an on state and not deliver drug in the off state; and characterised by: an off-current module, the module configured to automatically and periodically determine if there is a current flowing between the anode and cathode when the activation circuit is in the off state while powered on, and to trigger an indicator if there is a current flowing between the anode and cathode that is greater than an Output Current Off Threshold when the electrotransport drug delivery device is in an off state while powered on. an anode; a cathode; an activation circuit configured to apply current between the anode and cathode to deliver a drug by electrotransport when the device is in an on state and not deliver drug in the off state; and characterised by: an off-current module, the module configured to automatically and periodically determine if there is a current flowing between the anode and cathode when the activation circuit is in the off state while powered on, and to trigger an indicator if there is a current flowing between the anode and cathode that is greater than an Output Current Off Threshold when the electrotransport drug delivery device is in an off state while powered on. an off-current module, the module configured to automatically and periodically determine if there is a current flowing between the anode and cathode when the activation circuit is in the off state while powered on, and to trigger an indicator if there is a current flowing between the anode and cathode that is greater than an Output Current Off Threshold when the electrotransport drug delivery device is in an off state while powered on.
A lidar (1000, 2000, 3000) comprising an emitter (1100, 5100) and a receiver (1200, 3200), wherein the receiver (1200, 3200) comprises a discrete amplification photon detector (1210, 4210), wherein the receiver (1200, 3200) comprises a discriminator, wherein the discriminator has an input connected to an output signal of the discrete amplification photon detector (1210, 4210), wherein the discriminator is configured to output a signal indicating that the output signal of the discrete amplification photon detector (1210, 4210) is higher than a predetermined threshold, wherein the predetermined threshold is dynamic, as a function of an input, wherein the input comprises a moving speed of the lidar, and/or, wherein the input comprises a value of the output signal of the discrete amplification photon detector (1210, 4210), averaged across a predetermined time. wherein the receiver (1200, 3200) comprises a discrete amplification photon detector (1210, 4210), wherein the receiver (1200, 3200) comprises a discriminator, wherein the discriminator has an input connected to an output signal of the discrete amplification photon detector (1210, 4210), wherein the discriminator is configured to output a signal indicating that the output signal of the discrete amplification photon detector (1210, 4210) is higher than a predetermined threshold, wherein the predetermined threshold is dynamic, as a function of an input, wherein the input comprises a moving speed of the lidar, and/or, wherein the input comprises a value of the output signal of the discrete amplification photon detector (1210, 4210), averaged across a predetermined time.
A multicore optical fiber comprising: an inner glass region having a plurality of core regions surrounded by a common outer cladding, the inner glass region further having at least one marker and an outer diameter in the range of 120 microns and 130 microns, wherein each core region is comprised of a germania-doped silica core and a fluorine-doped silica trench, wherein a trench volume of the fluorine-doped silica trench is greater than, or equal to, 50% Δ micron 2; and an outer coating layer surrounding the inner glass region, wherein the outer coating layer comprises a primary coating layer and a secondary coating layer surrounding the primary coating layer, and wherein a ratio of a secondary coating layer thickness to a primary coating layer thickness is in a range of 0.65 to 1.0, the outer coating layer having a diameter equal to or less than 200 microns, wherein each core region has a mode field diameter greater than, or equal to, 8.2 microns at 1310 nm, a cable cutoff wavelength of 1260 nm, or less, and a zero dispersion wavelength of 1335 nm, or less. an inner glass region having a plurality of core regions surrounded by a common outer cladding, the inner glass region further having at least one marker and an outer diameter in the range of 120 microns and 130 microns, wherein each core region is comprised of a germania-doped silica core and a fluorine-doped silica trench, wherein a trench volume of the fluorine-doped silica trench is greater than, or equal to, 50% Δ micron 2; and an outer coating layer surrounding the inner glass region, wherein the outer coating layer comprises a primary coating layer and a secondary coating layer surrounding the primary coating layer, and wherein a ratio of a secondary coating layer thickness to a primary coating layer thickness is in a range of 0.65 to 1.0, the outer coating layer having a diameter equal to or less than 200 microns, wherein each core region has a mode field diameter greater than, or equal to, 8.2 microns at 1310 nm, a cable cutoff wavelength of 1260 nm, or less, and a zero dispersion wavelength of 1335 nm, or less.
A method for operating a receiver, comprising: receiving a radio frequency signal; downconverting the radio frequency signal to a downconverted signal comprising an in-phase component and a quadrature-phase component; buffering the downconverted signal in a memory; estimating, in a digital domain using a double buffer memory arrangement, receiver impairments associated with the in-phase component and the quadrature-phase component for a defined time period; and compensating, in the digital domain and using the double buffer memory arrangement, for the receiver impairments on the same time period. receiving a radio frequency signal; downconverting the radio frequency signal to a downconverted signal comprising an in-phase component and a quadrature-phase component; buffering the downconverted signal in a memory; estimating, in a digital domain using a double buffer memory arrangement, receiver impairments associated with the in-phase component and the quadrature-phase component for a defined time period; and compensating, in the digital domain and using the double buffer memory arrangement, for the receiver impairments on the same time period.
A measuring apparatus measuring a pulse wave signal of a living body to generate biological information about the living body, the measuring apparatus comprising: a first signal acquirer configured to acquire a time domain pulse wave signal representing a pulse wave of the living body in a time domain; a second signal acquirer configured to acquire a time domain body motion signal representing a body motion of the living body in a time domain; a frequency domain analyzer configured to convert the time domain pulse wave signal and the time domain body motion signal to a frequency domain to generate a frequency domain pulse wave signal and a frequency domain body motion signal, and estimate a frequency of the pulse wave of the living body on the basis of the frequency domain pulse wave signal and the frequency domain body motion signal; and a time domain analyzer configured to calculate the biological information on the basis of the time domain pulse wave signal and the frequency of the pulse wave of the living body. a first signal acquirer configured to acquire a time domain pulse wave signal representing a pulse wave of the living body in a time domain; a second signal acquirer configured to acquire a time domain body motion signal representing a body motion of the living body in a time domain; a frequency domain analyzer configured to convert the time domain pulse wave signal and the time domain body motion signal to a frequency domain to generate a frequency domain pulse wave signal and a frequency domain body motion signal, and estimate a frequency of the pulse wave of the living body on the basis of the frequency domain pulse wave signal and the frequency domain body motion signal; and a time domain analyzer configured to calculate the biological information on the basis of the time domain pulse wave signal and the frequency of the pulse wave of the living body.