mhurhangee/ep-ind-claims huggingface dataset:
An ophthalmic device (100, 200), comprising: an enclosure shaped for mounting in or on an eye; an antenna electrode disposed within the enclosure, the antenna electrode having a shared terminal; an impedance sensor (435, 500) coupled to the shared terminal of the antenna electrode, the impedance sensor (435, 500) forming an oscillator with the antenna electrode, wherein the antenna electrode has an impedance that varies based upon an amount an eyelid overlaps the enclosure when the ophthalmic device (100, 200) is mounted in or on the eye and wherein the impedance influences an oscillation condition of the oscillator; a power rectifier coupled to the antenna electrode to harvest power from a wireless signal incident upon the antenna electrode; and a switching circuit coupled to the power rectifier and the shared terminal to selectively couple a load of the power rectifier to the antenna electrode to allow the power rectifier to harvest the power from the wireless signal and to decouple the load of the power rectifier while the impedance sensor (435, 500) is operating to measure the impedance of the antenna electrode. an enclosure shaped for mounting in or on an eye; an antenna electrode disposed within the enclosure, the antenna electrode having a shared terminal; an impedance sensor (435, 500) coupled to the shared terminal of the antenna electrode, the impedance sensor (435, 500) forming an oscillator with the antenna electrode, wherein the antenna electrode has an impedance that varies based upon an amount an eyelid overlaps the enclosure when the ophthalmic device (100, 200) is mounted in or on the eye and wherein the impedance influences an oscillation condition of the oscillator; a power rectifier coupled to the antenna electrode to harvest power from a wireless signal incident upon the antenna electrode; and a switching circuit coupled to the power rectifier and the shared terminal to selectively couple a load of the power rectifier to the antenna electrode to allow the power rectifier to harvest the power from the wireless signal and to decouple the load of the power rectifier while the impedance sensor (435, 500) is operating to measure the impedance of the antenna electrode.
A method, performed by one or more computers, of improving speech quality on a data communications network, the method comprising, at a communications node of the data communications network: receiving and decoding an encoded audio signal as part of a communication session to obtain a low-resolution version of an audio data input, the low-resolution version of the input comprising a first number of samples of an audio waveform at a first sample rate over a first time period, wherein the audio data is an utterance and the low-resolution version of the input is a low-resolution speech signal of the utterance received over the data communications network; and generating, from the low-resolution version of the input, a high-resolution version of the input comprising a second, larger number of samples at a second, higher sample rate over the first time period, wherein the high-resolution version of the input comprises an audio waveform of a high-resolution speech signal of the utterance at the second sample rate, the generating comprising: generating a representation of the low-resolution version of the input; processing the representation of the low-resolution version of the input through a conditioning neural network to generate a conditioning input; and processing the conditioning input using a generative neural network to generate the high-resolution version of the input. receiving and decoding an encoded audio signal as part of a communication session to obtain a low-resolution version of an audio data input, the low-resolution version of the input comprising a first number of samples of an audio waveform at a first sample rate over a first time period, wherein the audio data is an utterance and the low-resolution version of the input is a low-resolution speech signal of the utterance received over the data communications network; and generating, from the low-resolution version of the input, a high-resolution version of the input comprising a second, larger number of samples at a second, higher sample rate over the first time period, wherein the high-resolution version of the input comprises an audio waveform of a high-resolution speech signal of the utterance at the second sample rate, the generating comprising: generating a representation of the low-resolution version of the input; processing the representation of the low-resolution version of the input through a conditioning neural network to generate a conditioning input; and processing the conditioning input using a generative neural network to generate the high-resolution version of the input. generating a representation of the low-resolution version of the input; processing the representation of the low-resolution version of the input through a conditioning neural network to generate a conditioning input; and processing the conditioning input using a generative neural network to generate the high-resolution version of the input.
A thermoplastic resin composite comprising polypropylene resin and hollow glass microspheres, wherein the hollow glass microspheres are surface treated with 0.5 to 3 mass % of a silane coupling agent and 1 to 5 mass % of a synthetic resin emulsion, based on 100 mass % of the hollow glass microspheres, wherein the synthetic resin emulsion is a polyamide emulsion or a maleic acid modified polypropylene emulsion, and wherein the silane coupling agent is an amino silane coupling agent.
A cloud server connectable to a mobile device, the server comprising: a control unit configured to generate a work group including a plurality of image forming devices (200-1, 200-2, 200-3) controlled by the mobile device; a User Interface generation unit configured to generate a UI for receiving a virtual grouping job coupled to a plurality of tasks supported by the plurality of image forming devices, respectively; and a communication interface unit configured to provide the mobile device with the generated UI; characterised in that the communication interface unit receives phone numbers for specifying each of the plurality of image forming devices (200-1, 200-2, 200-3) from the mobile device; wherein the control unit generates a work group including the plurality of image forming devices corresponding to the received phone numbers. a control unit configured to generate a work group including a plurality of image forming devices (200-1, 200-2, 200-3) controlled by the mobile device; a User Interface generation unit configured to generate a UI for receiving a virtual grouping job coupled to a plurality of tasks supported by the plurality of image forming devices, respectively; and a communication interface unit configured to provide the mobile device with the generated UI; characterised in that the communication interface unit receives phone numbers for specifying each of the plurality of image forming devices (200-1, 200-2, 200-3) from the mobile device; wherein the control unit generates a work group including the plurality of image forming devices corresponding to the received phone numbers.
A sound detection system (1, 2) comprising: a plurality of microphones each configured to detect a sound inside a living body and output a sound signal generated based on the detected sound; and an information processing device, wherein the information processing device includes an acquisition unit configured to acquire the sound signals from the plurality of microphones, a control unit, and an output unit, the control unit specifies a first position that is a position of a prescribed living body site based on the sound signals acquired by the acquisition unit, estimates a second position that is in a prescribed relative positional relation with the first position, and controls directivities of the plurality of microphones to increase a sensitivity with respect to the second position, and the output unit outputs information generated based on the sound signals acquired by the acquisition unit in a state in which the directivities of the plurality of microphones are controlled to increase the sensitivity with respect to the second position. a plurality of microphones each configured to detect a sound inside a living body and output a sound signal generated based on the detected sound; and an information processing device, wherein the information processing device includes an acquisition unit configured to acquire the sound signals from the plurality of microphones, a control unit, and an output unit, a control unit, and an output unit, the control unit specifies a first position that is a position of a prescribed living body site based on the sound signals acquired by the acquisition unit, estimates a second position that is in a prescribed relative positional relation with the first position, and controls directivities of the plurality of microphones to increase a sensitivity with respect to the second position, and the output unit outputs information generated based on the sound signals acquired by the acquisition unit in a state in which the directivities of the plurality of microphones are controlled to increase the sensitivity with respect to the second position.
A method for identifying a radio link failure by a user equipment, UE, in a third generation partnership project, 3GPP, long term evolution, LTE, wireless communication system, the method comprising: receiving a message including a MeasObjectEUTRA information element, IE, including a length of a first timer from a network; starting the first timer if an entering condition related to an event is satisfied and a second timer related to the radio link failure is running; and determining that the radio link failure occurs if the first timer expires, wherein whether the entering condition related to the event is satisfied is identified based on measurement result of the UE. receiving a message including a MeasObjectEUTRA information element, IE, including a length of a first timer from a network; starting the first timer if an entering condition related to an event is satisfied and a second timer related to the radio link failure is running; and determining that the radio link failure occurs if the first timer expires, wherein whether the entering condition related to the event is satisfied is identified based on measurement result of the UE.
A method for assembling a rotary electric machine including a driving shaft, a rotor having a substantially cylindrical rotor core attached to the driving shaft, and a stator having a substantially cylindrical stator core provided around the rotor and a plurality of coils (21, 22, 23) wound around the stator core in a distributed winding manner, the stator core including a plurality of separated stator core parts aligned along a peripheral direction, axial coil ends of at least one coil of the plurality of the coils (21, 22, 23) being disposed to pass through an inner side relative to an inner peripheral surface of the stator core, the method comprising: attaching the coils (21, 22, 23) to the plurality of separated stator core parts such that none of the coils (21, 22, 23) lie astride any two of the separated stator core parts and the axial coil ends of at least one coil pass through an inner side relative to an inner peripheral surface of the stator core; and assembling the stator and the rotor by radially inwardly moving the separated stator core parts having the corresponding coils (21, 22, 23) attached thereto from an outer peripheral side of the rotor to installation positions. attaching the coils (21, 22, 23) to the plurality of separated stator core parts such that none of the coils (21, 22, 23) lie astride any two of the separated stator core parts and the axial coil ends of at least one coil pass through an inner side relative to an inner peripheral surface of the stator core; and assembling the stator and the rotor by radially inwardly moving the separated stator core parts having the corresponding coils (21, 22, 23) attached thereto from an outer peripheral side of the rotor to installation positions.
Guide device for a sliding door system with a guide rail, on which at least three sliding doors (5, 7) are movably held via running parts (4, 6), wherein each sliding door (5, 7) is movable along a track on the guide rail via at least one running part (4, 6) with rollers and the guide rail has at least two parallel tracks, end positioning means and at least one central positioning means in the form of a self-closing device being provided on the guide rail, in order to position one of the sliding doors (5, 7) in a predetermined position along the guide rail, wherein at least one marking is provided on the guide rail at a distance from the front ends of the guide rail, and the at least one central positioning means can be aligned via a marking (16, 16', 16") on the marking and is fixed to the guide rail in a central region, wherein a mounting element is fixed to the guide rail, on which the marking (16, 16', 16") is arranged, wherein two central positioning means are fixed to the mounting element.
An apparatus to determine a contact angle ( α k) in a ball bearing; the ball bearing comprises an outer ring, an inner ring, and a plurality of balls radially arranged between the outer and inner rings (2, 4); the apparatus comprises: - a device to rotate one of the rings (2, 4), while keeping the other one stationary; - an angular position transducer to output a position signal ( θ) indicative of an angular position ( θ) of the rotated ring (2, 4) of the ball bearing; - a contactless ball passage transducer to output a ball passage signal indicative of balls of the ball bearing passing close to the contactless ball passage transducer; and - an electronic processor connected to the angular position transducer and to the contactless ball passage transducer to compute the contact angle ( α k) based on the position signal (θ) and the ball passage signal; characterized in that the electronic processor is configured to compute the contact angle ( α k) based on an angular displacement of the balls in a first time interval ( Tm) corresponding to a number ( m) of passages of balls that is an integer multiple of the number ( ns) of balls in the ball bearing and is less than a number ( s) of passages of balls close to the contactless ball passage transducer in a reference time interval ( T B), and on a corresponding angular displacement of the rotated ring (2, 4) in a second time interval ( Tp) corresponding to a number ( p) of complete pulses in the position signal ( θ) in the first time interval ( Tm). - a device to rotate one of the rings (2, 4), while keeping the other one stationary; - an angular position transducer to output a position signal ( θ) indicative of an angular position ( θ) of the rotated ring (2, 4) of the ball bearing; - a contactless ball passage transducer to output a ball passage signal indicative of balls of the ball bearing passing close to the contactless ball passage transducer; and - an electronic processor connected to the angular position transducer and to the contactless ball passage transducer to compute the contact angle ( α k) based on the position signal (θ) and the ball passage signal;
A method of using a hybrid tool to perforate a formation, the method comprising the steps of: deploying a hybrid tool into a wellbore positioned in the formation, wherein the hybrid tool comprises a swivel laser head; activating a laser beam from the swivel laser head of the hybrid tool; drilling a tunnel with the laser beam such that the tunnel extends from the wellbore to a first point, characterised in that the hybrid tool comprises a shaped charge, and in that the laser beam operates at a drilling power between 2 kW and 6 kW; reducing a power of the laser beam at the first point to a heating power, wherein the heating power is less than the power to melt the formation; operating the laser beam at the heating power to increase the temperature at the first point such that a first spherical heat zone expands from the first point; increasing the power of the laser to the drilling power; drilling a second span of tunnel extending from the first point to a second point; reducing the power of the laser beam to the heating power; operating the laser beam at the heating power to increase the temperature at the second point such that a second spherical heat zone expands from the second point, wherein a volume of the second spherical heat zone is less than a volume of the first spherical heat zone, wherein the tunnel, first spherical heat zone, and second spherical heat zone form a thermal gradient; ceasing operating of the laser beam; and detonating the shaped charge aligned with a targeted perforation path with detonating cord, wherein the thermal gradient compensates for a stress orientation of a reservoir stress in the formation to produce a perforation that aligns with the targeted perforation path. deploying a hybrid tool into a wellbore positioned in the formation, wherein the hybrid tool comprises a swivel laser head; activating a laser beam from the swivel laser head of the hybrid tool; drilling a tunnel with the laser beam such that the tunnel extends from the wellbore to a first point, characterised in that the hybrid tool comprises a shaped charge, and in that the laser beam operates at a drilling power between 2 kW and 6 kW; reducing a power of the laser beam at the first point to a heating power, wherein the heating power is less than the power to melt the formation; operating the laser beam at the heating power to increase the temperature at the first point such that a first spherical heat zone expands from the first point; increasing the power of the laser to the drilling power; drilling a second span of tunnel extending from the first point to a second point; reducing the power of the laser beam to the heating power; operating the laser beam at the heating power to increase the temperature at the second point such that a second spherical heat zone expands from the second point, wherein a volume of the second spherical heat zone is less than a volume of the first spherical heat zone, wherein the tunnel, first spherical heat zone, and second spherical heat zone form a thermal gradient; ceasing operating of the laser beam; and detonating the shaped charge aligned with a targeted perforation path with detonating cord,
Cosmetic composition comprising, in a cosmetically acceptable medium, at least one compound of formula below: in which - n = 1; - Z is a divalent radical selected from: or a compound of formula (I'): in which trivalent Z is selected from: where p = 1 to 6. - n = 1; - Z is a divalent radical selected from:
An apparatus comprising circuitry configured to generate a composite user equipment identifier (24; 28; 40), the composite user equipment identifier (24; 28; 40) comprising a first part and a second part, characterized in that the circuitry is further configured to derive the first part including user equipment related identification information, wherein the first part is derived from a variable part of an original user equipment identifier, and the circuitry is further configured to derive the second part including network related identification information, wherein the second part is derived from a variable part of a cell ID, a node ID or a network ID, wherein parts of the composite user equipment identifier (24; 28; 40) are applied for CRC masking. the circuitry is further configured to derive the first part including user equipment related identification information, wherein the first part is derived from a variable part of an original user equipment identifier, and the circuitry is further configured to derive the second part including network related identification information, wherein the second part is derived from a variable part of a cell ID, a node ID or a network ID, wherein parts of the composite user equipment identifier (24; 28; 40) are applied for CRC masking.
A micro-needle patch (20, 20' and 20") comprising: a plurality of micro-needles (21, 21' and 21") containing an allergen constructed to inject an allergen into an entity; and a pad (22, 22', and 22') for supporting the plurality of micro-needles (21, 21' and 21"), wherein each micro-needle (21, 21' and 21") is biodegradable, wherein the allergen is contained in the micro-needle (21, 21' and 21") and the micro-needles (21, 21' and 21") are configured such that the allergenis injected into the entity when the micro-needle degrades, characterized in that the allergen is contained in a range of 5 μg to 10 μg content per patch and the allergen content of the patch remains at 60% or greater of initial allergen content for a period of 4 weeks to 8 weeks after the patch is produced, wherein the patch further includes one or both of allergen-containing layers (23' and 23") containing the same type of allergen as the allergen contained in the micro-needles (21' and 21"), and the allergen-containing layer is disposed between the micro-needles and the pad and to cover the pad or the allergen-containing layer (23") covers an outer face of the micro-needles (21"). a plurality of micro-needles (21, 21' and 21") containing an allergen constructed to inject an allergen into an entity; and a pad (22, 22', and 22') for supporting the plurality of micro-needles (21, 21' and 21"), wherein each micro-needle (21, 21' and 21") is biodegradable, wherein the allergen is contained in the micro-needle (21, 21' and 21") and the micro-needles (21, 21' and 21") are configured such that the allergenis injected into the entity when the micro-needle degrades, characterized in that the allergen is contained in a range of 5 μg to 10 μg content per patch and the allergen content of the patch remains at 60% or greater of initial allergen content for a period of 4 weeks to 8 weeks after the patch is produced,
A module connector for uninterrupted communication, the module connector comprising: a slot for receiving at least one connector pin of an I/O module; and at least one pair of mating pins disposed in the slot, wherein the at least one pair of mating pins are normally in a closed state, wherein the at least one pair of mating pins moves to an open state upon receiving the at least one connector pin of the I/O module in the slot, wherein the at least one pair of mating pins in the open state establishes a communication link through the I/O module; and a plurality of connecting pins, said connecting pins adapted for connection to a circuit board, at least one of said connecting pins is an input pin and at least one of said connecting pins is an output pin, wherein the communication link is formed through the input pin, through a first mating pin of the at least one pair of mating pins, through the I/O module, through a second mating pin of the at least one pair of mating pins, and through the output pin, and wherein the I/O module is configured to process a signal received at the I/O module through the first mating pin before transmitting the signal to the second mating pin. a slot for receiving at least one connector pin of an I/O module; and at least one pair of mating pins disposed in the slot, wherein the at least one pair of mating pins are normally in a closed state, wherein the at least one pair of mating pins moves to an open state upon receiving the at least one connector pin of the I/O module in the slot, wherein the at least one pair of mating pins in the open state establishes a communication link through the I/O module; and a plurality of connecting pins, said connecting pins adapted for connection to a circuit board, at least one of said connecting pins is an input pin and at least one of said connecting pins is an output pin, wherein the communication link is formed through the input pin, through a first mating pin of the at least one pair of mating pins, through the I/O module, through a second mating pin of the at least one pair of mating pins, and through the output pin, and wherein the I/O module is configured to process a signal received at the I/O module through the first mating pin before transmitting the signal to the second mating pin.