mhurhangee/patent-ind-claim-en huggingface dataset:
A magnetic circuit assembly comprising: a magnet assembly defining an input axis , wherein the magnet assembly comprises: a pole piece , wherein the pole piece comprises a high magnetic permeability material; and a magnet underlying the pole piece ; and an excitation ring , comprising: a base , comprising: a platform layer underlying the magnet , wherein the platform layer comprises a high magnetic permeability material; a base layer underlying the platform layer ; and an outer ring overlying the base layer , wherein the outer ring is positioned around the magnet assembly , wherein an inner portion of the outer ring faces the magnet assembly , and wherein an outer portion of the outer ring is configured to couple to an outer radial portion of a proof mass assembly , characterised in that a magnetic permeability of the inner portion of the outer ring is less than a magnetic permeability of the outer portion of the outer ring . a magnet assembly defining an input axis , wherein the magnet assembly comprises: a pole piece , wherein the pole piece comprises a high magnetic permeability material; and a magnet underlying the pole piece ; and a pole piece , wherein the pole piece comprises a high magnetic permeability material; and a magnet underlying the pole piece ; and an excitation ring , comprising: a base , comprising: a platform layer underlying the magnet , wherein the platform layer comprises a high magnetic permeability material; a base layer underlying the platform layer ; and an outer ring overlying the base layer , wherein the outer ring is positioned around the magnet assembly , wherein an inner portion of the outer ring faces the magnet assembly , and wherein an outer portion of the outer ring is configured to couple to an outer radial portion of a proof mass assembly , characterised in that a magnetic permeability of the inner portion of the outer ring is less than a magnetic permeability of the outer portion of the outer ring . a base , comprising: a platform layer underlying the magnet , wherein the platform layer comprises a high magnetic permeability material; a base layer underlying the platform layer ; and a platform layer underlying the magnet , wherein the platform layer comprises a high magnetic permeability material; a base layer underlying the platform layer ; and an outer ring overlying the base layer , wherein the outer ring is positioned around the magnet assembly , wherein an inner portion of the outer ring faces the magnet assembly , and wherein an outer portion of the outer ring is configured to couple to an outer radial portion of a proof mass assembly , characterised in that a magnetic permeability of the inner portion of the outer ring is less than a magnetic permeability of the outer portion of the outer ring .
A computer-implemented method for providing output data comprising an indication regarding the affliction of a patient with an infectious respiratory disease, comprising the following steps: - receiving magnetic resonance imaging data acquired using a magnetic resonance imaging system, wherein the magnetic resonance imaging data comprise a lung region of the patient, - applying a trained function to the magnetic resonance imaging data, wherein output data are generated, wherein the trained function is based on an artificial neural network and the output data comprise the indication regarding the affliction of the patient with the infectious respiratory disease, - providing the output data, characterized in that the indication regarding the affliction of the patient with the infectious respiratory disease comprises an indication whether the patient is afflicted with post-acute condition following the acute infection with the infectious respiratory disease. - receiving magnetic resonance imaging data acquired using a magnetic resonance imaging system, wherein the magnetic resonance imaging data comprise a lung region of the patient, - applying a trained function to the magnetic resonance imaging data, wherein output data are generated, wherein the trained function is based on an artificial neural network and the output data comprise the indication regarding the affliction of the patient with the infectious respiratory disease, - providing the output data,
A solid state circuit breaker assembly , comprising: a first non-scalable module including: a controller ; and a current sensor electrically connected to the controller; a second non-scalable module including at least one contact configured to be connected to a power supply ; and at least one scalable module including: a transistor ; a transient voltage suppression device ; and a circuit board electrically connected to the transistor and the transient voltage suppression device ; wherein the scalable module is configured to be electrically and mechanically connected between the first non-scalable module and the second non-scalable module , wherein the first non-scalable module , the second non-scalable module , and the at least one scalable module are configured to be modular such that additional scalable modules are configured to be connected to the solid state circuit breaker assembly between the first non-scalable module and the second non-scalable module to scale up the voltage and/or current capability of the solid state circuit breaker assembly . a first non-scalable module including: a controller ; and a current sensor electrically connected to the controller; a controller ; and a current sensor electrically connected to the controller; a second non-scalable module including at least one contact configured to be connected to a power supply ; and at least one scalable module including: a transistor ; a transient voltage suppression device ; and a circuit board electrically connected to the transistor and the transient voltage suppression device ; wherein the scalable module is configured to be electrically and mechanically connected between the first non-scalable module and the second non-scalable module , a transistor ; a transient voltage suppression device ; and a circuit board electrically connected to the transistor and the transient voltage suppression device ; wherein the scalable module is configured to be electrically and mechanically connected between the first non-scalable module and the second non-scalable module , wherein the first non-scalable module , the second non-scalable module , and the at least one scalable module are configured to be modular such that additional scalable modules are configured to be connected to the solid state circuit breaker assembly between the first non-scalable module and the second non-scalable module to scale up the voltage and/or current capability of the solid state circuit breaker assembly .
A method for preparing an SEI-like film component additive, characterized by comprising the steps of: reacting an organic solution of lithium naphthalenide with a mixed solvent in an inert gas atmosphere to obtain a mixture containing an SEI-like film component additive, wherein, the mass ratio of the lithium naphthalenide in the organic solution of lithium naphthalenide to the mass of the mixed solvent is 2-8: 1, and the mixed solvent comprises an organic solvent for a battery electrolyte solution; drying the mixture in vacuum to obtain the SEI-like film component additive; wherein the mixed solvent is a mixture of ethylene carbonate, methyl ethyl carbonate, and dimethyl carbonate. reacting an organic solution of lithium naphthalenide with a mixed solvent in an inert gas atmosphere to obtain a mixture containing an SEI-like film component additive, wherein, the mass ratio of the lithium naphthalenide in the organic solution of lithium naphthalenide to the mass of the mixed solvent is 2-8: 1, and the mixed solvent comprises an organic solvent for a battery electrolyte solution; drying the mixture in vacuum to obtain the SEI-like film component additive; wherein the mixed solvent is a mixture of ethylene carbonate, methyl ethyl carbonate, and dimethyl carbonate.
A machine tool adapted and arranged to carry out removal and addition of material on a work piece located in a work station, the machine having: a first carriage; a first head arranged to remove material from the work piece located in the work station, wherein the first head is selectable from a plurality of first interchangeable processing heads and is removably mounted on the first carriage and arranged to be moveable in at least two axes; a second carriage; and at least one second head arranged to add material to the work piece located in the work station, wherein the second head is selectable from a plurality of second interchangeable processing heads and is removably mounted on the second carriage and arranged to be moveable in at least two axes, wherein the machine is arranged to control an environment of the work station; and wherein the machine comprises a clean side and a dirty side, and the first carriage is used for dirty processing and the second carriage is used for clean processing. a first carriage; a first head arranged to remove material from the work piece located in the work station, wherein the first head is selectable from a plurality of first interchangeable processing heads and is removably mounted on the first carriage and arranged to be moveable in at least two axes; a second carriage; and at least one second head arranged to add material to the work piece located in the work station, wherein the second head is selectable from a plurality of second interchangeable processing heads and is removably mounted on the second carriage and arranged to be moveable in at least two axes, wherein the machine is arranged to control an environment of the work station; and wherein the machine comprises a clean side and a dirty side, and the first carriage is used for dirty processing and the second carriage is used for clean processing. wherein the machine is arranged to control an environment of the work station; and wherein the machine comprises a clean side and a dirty side, and the first carriage is used for dirty processing and the second carriage is used for clean processing.
Valvulotome guided by a guide wire/catheter, comprising - a guide wire , - a first inner tube for receiving the guide wire , - an expandable basket having cutting elements , wherein the basket constitutes the distal end of a second tube , in which the first inner tube extends, - a catheter tube , in which the second inner tube extends and which is suitable for receiving and guiding the expandable basket in the unexpanded state per se, - a cuff , which forms the distal end of the first tube and serves as a limit stop for the distal end of the basket and through which the guide wire is guided. - a guide wire , - a first inner tube for receiving the guide wire , - an expandable basket having cutting elements , wherein the basket constitutes the distal end of a second tube , in which the first inner tube extends, - a catheter tube , in which the second inner tube extends and which is suitable for receiving and guiding the expandable basket in the unexpanded state per se, - a cuff , which forms the distal end of the first tube and serves as a limit stop for the distal end of the basket and through which the guide wire is guided.
A method for manufacturing an electrically-conductive paste, the method comprising: bringing carbon nanotubes (hereinafter, referred to as "CNT") and a solvent into contact with each other so that a wetting rate represented by a formula below is 25 to 125%; kneading, by using a planetary stirring machine, a mixture containing the CNT and the solvent, to obtain a kneaded product in a paste state, the mixture being obtained by impregnating the CNT with the solvent; and performing dispersion processing on a dilution obtained by mixing a solvent into the kneaded product obtained, wherein the wetting rate % = A/B × 100 where A is a concentration of the CNT, when the solvent has penetrated to a maximum extent, and is calculated by a formula below, A (%) = 1g of the CNT/(1g of the CNT + a maximum penetration weight [g] of the solvent per 1g of the CNT) × 100, and B is a concentration of the CNT in the mixture, and is calculated by a formula below, B % = a weight of the CNT g /a weight of the mixture g × 100 . bringing carbon nanotubes (hereinafter, referred to as "CNT") and a solvent into contact with each other so that a wetting rate represented by a formula below is 25 to 125%; kneading, by using a planetary stirring machine, a mixture containing the CNT and the solvent, to obtain a kneaded product in a paste state, the mixture being obtained by impregnating the CNT with the solvent; and performing dispersion processing on a dilution obtained by mixing a solvent into the kneaded product obtained, wherein the wetting rate % = A/B × 100 where A is a concentration of the CNT, when the solvent has penetrated to a maximum extent, and is calculated by a formula below, A (%) = 1g of the CNT/(1g of the CNT + a maximum penetration weight [g] of the solvent per 1g of the CNT) × 100, and B is a concentration of the CNT in the mixture, and is calculated by a formula below, B % = a weight of the CNT g /a weight of the mixture g × 100 .
An antenna apparatus for internal impedance matching, the antenna apparatus comprising: a board body formed of a dielectric material and having a flat structure; an antenna device extending from a feed point, and having a first impedance; and an internal matching device disposed on a lower surface of the board body, connected to the antenna device, and having a second impedance used for matching the first impedance with a reference impedance, wherein the antenna device and the internal matching device resonate at the reference impedance in a specific frequency band when a voltage is supplied through the feed point; characterized in that a device carrier having a flat block-like structure with a certain thickness and predominantly formed of a dielectric material is disposed on an upper surface of the board body; the antenna device is disposed on an upper surface of the device carrier , and the internal matching device extends from the antenna device to a lateral surface of the device carrier and is connected to the antenna device through a matching line elongated along the lateral surface of the device carrier . a board body formed of a dielectric material and having a flat structure; an antenna device extending from a feed point, and having a first impedance; and an internal matching device disposed on a lower surface of the board body, connected to the antenna device, and having a second impedance used for matching the first impedance with a reference impedance, wherein the antenna device and the internal matching device resonate at the reference impedance in a specific frequency band when a voltage is supplied through the feed point; characterized in that a device carrier having a flat block-like structure with a certain thickness and predominantly formed of a dielectric material is disposed on an upper surface of the board body; the antenna device is disposed on an upper surface of the device carrier , and the internal matching device extends from the antenna device to a lateral surface of the device carrier and is connected to the antenna device through a matching line elongated along the lateral surface of the device carrier .
A heating article characterized in that it comprises a support having two opposite sides , at least one of which is covered with a protective coating , characterized in that said protective coating comprises at least one enamel layer in film form in which anisotropically shaped particles are dispersed, said layer comprising at least one zone in which said anisotropic particles substantially comprise particles whose axis along the largest dimension is perpendicular to the support .
A user equipment (no), UE, operative to establish a circuit-mode call with a wireless network for emergency services, to perform authentication of a location server selected by the wireless network for the emergency circuit-mode call, and to interact with the location server to obtain at least one position estimate for the UE for the emergency circuit-mode call.
Chipping rotor for a grinding machine, wherein the chipping rotor comprises tool receptacles and wherein one overload-proof tool , respectively, can be received in the tool receptacles, which tool comprises at least one knife blade ; wherein the knife blade can be fixed between a lower and an upper tool holder by means of at least one fastening screw , and is adjustable in an in particular tangential direction of the chipping rotor , in order to adjust the anticipation of the tool ; characterised in that the lower tool holder is mounted with/coupled to the chipping rotor from the inside of the chipping rotor ; and a shear screw for protection against extraneous material, which screw releases a coupling between the tool and the chipping rotor in the event of a critical load being exceeded, based on contact of the tool with corresponding extraneous material.
A mold for providing manufactured articles and soles , of the type comprising at least one lower mold part , at least one upper mold part which are mutually complementary and at least one insert , said lower mold part , said upper mold part and said insert forming, in the mutual mating configuration, a contoured cavity the shape and dimensions of which are correlated with those of the article to be provided, characterized in that said insert comprises at least one rail and at least two sliders which can slide on said rail , each said slider comprising a main body provided with a seat for the sliding accommodation of the at least one respective rail and at least one elongated protruding prong , in said mutual mating configuration said rail and at least one portion of said main bodies of said sliders being external to said mold parts and said prongs being inserted in said contoured cavity through respective openings formed along the edge of said mold parts .
An audio data transmission method, executed by a sending end, characterized in that , the method comprises: parsing input audio data to be processed, and obtaining, for the audio data to be processed, a frequency of sampling, a number of slots and an original bit width of audio data of each slot (S11); determining the frequency of sampling as a clock frequency of a first clock signal (S12); determining a clock frequency of a second clock signal according to the clock frequency of the first clock signal, the number of slots and a preset audio data occupying bit width (S13); determining a duration of a high level of the first clock signal in each cycle of the first clock signal according to the clock frequency of the second clock signal and the number of slots (S14); performing data bit width conversion on audio data having the original bit width of each slot in the audio data to be processed according to a preset alignment manner and the preset audio data occupying bit width, and obtaining processed audio data (S16), wherein the original bit width is less than or equal to the preset audio data occupying bit width; and outputting the processed audio data according to a pulse code modulation, PCM, timing determined by the clock frequency of the first clock signal, the clock frequency of the second clock signal and the duration of the high level in each cycle of the first clock signal (S15). parsing input audio data to be processed, and obtaining, for the audio data to be processed, a frequency of sampling, a number of slots and an original bit width of audio data of each slot (S11); determining the frequency of sampling as a clock frequency of a first clock signal (S12); determining a clock frequency of a second clock signal according to the clock frequency of the first clock signal, the number of slots and a preset audio data occupying bit width (S13); determining a duration of a high level of the first clock signal in each cycle of the first clock signal according to the clock frequency of the second clock signal and the number of slots (S14); performing data bit width conversion on audio data having the original bit width of each slot in the audio data to be processed according to a preset alignment manner and the preset audio data occupying bit width, and obtaining processed audio data (S16), wherein the original bit width is less than or equal to the preset audio data occupying bit width; and outputting the processed audio data according to a pulse code modulation, PCM, timing determined by the clock frequency of the first clock signal, the clock frequency of the second clock signal and the duration of the high level in each cycle of the first clock signal (S15).
A user device in a wireless communication system supporting D2D communication, the user device comprising: a first transmitter configured to transmit control information for D2D by using a physical control channel for D2D in a wireless frame configuration in which the physical control channel for D2D and a physical data channel for D2D are multiplexed in a frequency domain; and a second transmitter configured to transmit data corresponding to the control information for D2D by using the physical data channel for D2D in the wireless frame configuration in which the physical control channel for D2D and the physical data channel for D2D are multiplexed in the frequency domain, characterized in that a part of the control information for D2D is omitted by associating one-to-one a wireless resource for the physical control channel for D2D with a wireless resource for the physical data channel for D2D, wherein the part of control information for D2D which is omitted includes all or a part of frequency hopping flag, resource block allocation, and hopping resource allocation. a first transmitter configured to transmit control information for D2D by using a physical control channel for D2D in a wireless frame configuration in which the physical control channel for D2D and a physical data channel for D2D are multiplexed in a frequency domain; and a second transmitter configured to transmit data corresponding to the control information for D2D by using the physical data channel for D2D in the wireless frame configuration in which the physical control channel for D2D and the physical data channel for D2D are multiplexed in the frequency domain, characterized in that a part of the control information for D2D is omitted by associating one-to-one a wireless resource for the physical control channel for D2D with a wireless resource for the physical data channel for D2D, wherein the part of control information for D2D which is omitted includes all or a part of frequency hopping flag, resource block allocation, and hopping resource allocation.