mhurhangee/patent-ind-claim-en huggingface dataset:
A clot retrieving device , comprising: an elongated shaft having a distal region; a capture structure having a proximal portion coupled to the distal region of the elongated shaft and a distal portion having a distal terminus ; and a cover having a first portion coupled to the distal region of the elongated shaft and a second portion extending from the first portion , the cover having a first configuration in which the second portion of the cover extends proximally from the first portion , and the cover having a second configuration in which the capture structure is at least partially ensheathed within the first portion of the cover and the second portion of the cover extends distally from the first portion , and in the second configuration the second portion has (a) a first region distal to a distal terminus of the capture structure , the first region tapering radially inwardly in a distal direction, and (b) a second region extending distally and radially outwardly from the first region , wherein, in the second configuration, the second portion of the cover has a third region extending proximally from the second region , wherein, in the second configuration, the second portion of the cover has a fourth region that extends distally and radially outwardly from the third region , wherein the third region and the fourth region meet at a proximal folded edge . an elongated shaft having a distal region; a capture structure having a proximal portion coupled to the distal region of the elongated shaft and a distal portion having a distal terminus ; and a cover having a first portion coupled to the distal region of the elongated shaft and a second portion extending from the first portion , the cover having a first configuration in which the second portion of the cover extends proximally from the first portion , and the cover having a second configuration in which the capture structure is at least partially ensheathed within the first portion of the cover and the second portion of the cover extends distally from the first portion , and in the second configuration the second portion has (a) a first region distal to a distal terminus of the capture structure , the first region tapering radially inwardly in a distal direction, and (b) a second region extending distally and radially outwardly from the first region , wherein, in the second configuration, the second portion of the cover has a third region extending proximally from the second region , wherein, in the second configuration, the second portion of the cover has a fourth region that extends distally and radially outwardly from the third region , wherein the third region and the fourth region meet at a proximal folded edge .
A method of customizing language modeling components, comprising: presenting, by a computing device, for selection by an application developer, a list of language modeling components in a user interface; sending , by an application on the computing device, to a recognition service provider a recognition request comprising a hint for combining the selected language modeling components from the list, the application comprising a speech recognition application and the hint being based on one or more of a plurality of domains, wherein the selected language modeling components comprise a fixed weight combination of said language modeling components based on weights associated with respective domains; receiving , by the application on the computing device, from the recognition service provider, a language model which is a customized combination of the plurality of the language modeling components, said combination customized by the recognition service provider based on the hint; maintaining , based on a unique ID, a connection between the hint and the customized combination of the plurality of the language modeling components for a lifecycle of the customized combination; and enabling an application developer to reference the customized combination by providing the unique ID. presenting, by a computing device, for selection by an application developer, a list of language modeling components in a user interface; sending , by an application on the computing device, to a recognition service provider a recognition request comprising a hint for combining the selected language modeling components from the list, the application comprising a speech recognition application and the hint being based on one or more of a plurality of domains, wherein the selected language modeling components comprise a fixed weight combination of said language modeling components based on weights associated with respective domains; receiving , by the application on the computing device, from the recognition service provider, a language model which is a customized combination of the plurality of the language modeling components, said combination customized by the recognition service provider based on the hint; maintaining , based on a unique ID, a connection between the hint and the customized combination of the plurality of the language modeling components for a lifecycle of the customized combination; and enabling an application developer to reference the customized combination by providing the unique ID.
An apparatus for assisting a patient (P) with disrupted sensory and motor neurosignal transmission, the apparatus comprising: an electrical brain signal monitoring interface configured to record at least one electrical brain signal of the patient (P); a functional electrical stimulation (FES) device configured to connect via FES electrodes with a paralyzed portion of the patient (P) and to control the paralyzed portion of the patient (P) by applying FES to the paralyzed portion of the patient (P) via the FES electrodes ; an electronic processor operatively connected with the electrical brain signal monitoring interface to receive the at least one electrical brain signal and with the FES device to control the FES applied to the paralyzed portion of the patient (P); and a non-transitory storage medium storing instructions readable and executable by the electronic processor , characterized in that said instructions including: electrical brain signal demultiplexing instructions that are executable by the electronic processor to demultiplex the at least one electrical brain signal into an efferent motor intention signal and at least one afferent sensory signal ; and FES control instructions that are executable by the electronic processor to control the FES applied to the paralyzed portion of the patient (P) by the FES device based on at least the efferent motor intention signal . an electrical brain signal monitoring interface configured to record at least one electrical brain signal of the patient (P); a functional electrical stimulation (FES) device configured to connect via FES electrodes with a paralyzed portion of the patient (P) and to control the paralyzed portion of the patient (P) by applying FES to the paralyzed portion of the patient (P) via the FES electrodes ; an electronic processor operatively connected with the electrical brain signal monitoring interface to receive the at least one electrical brain signal and with the FES device to control the FES applied to the paralyzed portion of the patient (P); and a non-transitory storage medium storing instructions readable and executable by the electronic processor , characterized in that said instructions including: electrical brain signal demultiplexing instructions that are executable by the electronic processor to demultiplex the at least one electrical brain signal into an efferent motor intention signal and at least one afferent sensory signal ; and FES control instructions that are executable by the electronic processor to control the FES applied to the paralyzed portion of the patient (P) by the FES device based on at least the efferent motor intention signal . electrical brain signal demultiplexing instructions that are executable by the electronic processor to demultiplex the at least one electrical brain signal into an efferent motor intention signal and at least one afferent sensory signal ; and FES control instructions that are executable by the electronic processor to control the FES applied to the paralyzed portion of the patient (P) by the FES device based on at least the efferent motor intention signal .
A device for the treatment of excess fluid pressure within an eye, the device comprising: a housing configured to be implanted beneath a conjunctiva; a deformable structure disposed within the housing, the deformable structure having a first end configured for fluid communication with an anterior chamber of the eye and a second end configured to be disposed beneath the conjunctiva, the deformable structure having a lumen and a variable flow area configured to permit a flow of fluid from the first end to the second end; and characterized in that a spring having a substantially constant spring force within a predetermined working range is mounted within the housing and is configured to apply a force on the deformable structure, wherein the force self-regulates the fluid flow through the deformable structure. a housing configured to be implanted beneath a conjunctiva; a deformable structure disposed within the housing, the deformable structure having a first end configured for fluid communication with an anterior chamber of the eye and a second end configured to be disposed beneath the conjunctiva, the deformable structure having a lumen and a variable flow area configured to permit a flow of fluid from the first end to the second end; and characterized in that a spring having a substantially constant spring force within a predetermined working range is mounted within the housing and is configured to apply a force on the deformable structure, wherein the force self-regulates the fluid flow through the deformable structure.
A fluid permeable heater assembly for an aerosol-generating system, the heater assembly comprising: a cap comprising a hollow body with a first and a second cap opening, wherein the first cap opening is opposite to the second cap opening , wherein the cap further comprises a holder with a holder opening , and wherein the holder covers the first cap opening such that the holder opening coincides with at least a portion of the first cap opening ; wherein the cap and the holder are integrally formed; a substantially flat electrically conductive and fluid permeable heating element , wherein the heating element is configured to vaporise a liquid aerosol-forming substrate and wherein the heating element is mounted on the holder such that the heating element extends across the first cap opening ; and a host material piece configured to retain the liquid aerosol-forming substrate, wherein at least a portion of the host material piece is arranged in the hollow body between the first and the second cap opening. a cap comprising a hollow body with a first and a second cap opening, wherein the first cap opening is opposite to the second cap opening , wherein the cap further comprises a holder with a holder opening , and wherein the holder covers the first cap opening such that the holder opening coincides with at least a portion of the first cap opening ; wherein the cap and the holder are integrally formed; a substantially flat electrically conductive and fluid permeable heating element , wherein the heating element is configured to vaporise a liquid aerosol-forming substrate and wherein the heating element is mounted on the holder such that the heating element extends across the first cap opening ; and a host material piece configured to retain the liquid aerosol-forming substrate, wherein at least a portion of the host material piece is arranged in the hollow body between the first and the second cap opening.
A crankcase gas separator comprising a separator housing delimiting at least part of a separation space , a rotor arranged in the separation space , wherein the rotor comprises a separation aid in the form of a stack of separation discs , a gas outlet passage from the separation space , and a gas pressure regulating valve arranged in fluid communication with the gas outlet passage , wherein the gas pressure regulating valve comprises a valve seat and a membrane configured to seal against the valve seat and provides a flow direction for gas from the gas outlet passage through the gas pressure regulating valve , and characterized in that , in relation to the flow direction, the membrane is arranged downstream of the valve seat . a rotor arranged in the separation space , wherein the rotor comprises a separation aid in the form of a stack of separation discs , a gas outlet passage from the separation space , and a gas pressure regulating valve arranged in fluid communication with the gas outlet passage , wherein the gas pressure regulating valve comprises a valve seat and a membrane configured to seal against the valve seat and provides a flow direction for gas from the gas outlet passage through the gas pressure regulating valve , and characterized in that , in relation to the flow direction, the membrane is arranged downstream of the valve seat .
Method for correcting a radar signal present in the time domain, having the following steps: determining main peaks (41 to 46) in the spectrum, as obtained by a Fourier transform, of the radar signal , wherein a peak in the spectrum of the radar signal is recognized as a main peak when the amplitude of the peaks is above a predefined threshold value; determining a differential signal present in the frequency domain by setting the components of the main peaks (41 to 46) in the spectrum of the radar signal to zero and thereby removing them; determining an auxiliary signal present in the time domain through an inverse Fourier transform of the differential signal present in the frequency domain; recognizing interference ranges of the radar signal present in the time domain using the auxiliary signal present in the time domain, wherein an interference range is recognized if an absolute value of the auxiliary signal or a change in an amplitude of the auxiliary signal exceeds a predefined threshold value; generating a main signal present in the time domain through an inverse Fourier transform of the components of the main peaks (41 to 46) in the spectrum of the radar signal , and generating a corrected radar signal present in the time domain by interpolating the radar signal present in the time domain in the recognized interference ranges of the radar signal present in the time domain using the main signal present in the time domain. determining main peaks (41 to 46) in the spectrum, as obtained by a Fourier transform, of the radar signal , wherein a peak in the spectrum of the radar signal is recognized as a main peak when the amplitude of the peaks is above a predefined threshold value; determining a differential signal present in the frequency domain by setting the components of the main peaks (41 to 46) in the spectrum of the radar signal to zero and thereby removing them; determining an auxiliary signal present in the time domain through an inverse Fourier transform of the differential signal present in the frequency domain; recognizing interference ranges of the radar signal present in the time domain using the auxiliary signal present in the time domain, wherein an interference range is recognized if an absolute value of the auxiliary signal or a change in an amplitude of the auxiliary signal exceeds a predefined threshold value; generating a main signal present in the time domain through an inverse Fourier transform of the components of the main peaks (41 to 46) in the spectrum of the radar signal , and generating a corrected radar signal present in the time domain by interpolating the radar signal present in the time domain in the recognized interference ranges of the radar signal present in the time domain using the main signal present in the time domain.
A direct current power system, comprising: a direct current bus system; a solar power system comprising a plurality of solar panels , wherein the solar power system is configured to supply a first direct current power; an energy storage system having an output electrically coupled to the direct current bus system, wherein the energy storage system comprises a plurality of battery stacks , and wherein the energy storage system is configured to supply a second direct current power at 380 volts to the direct current bus system; a wind power system electrically coupled to the direct current bus system, wherein the wind power system comprises at least one wind turbine assembly , and wherein the wind power system is configured to supply a third direct current power at 380 volts to the direct current bus system; a rectifier system electrically coupled to an alternating current power system and the direct current bus system, wherein the rectifier system is configured to supply a fourth direct current power at 380 volts to the direct current bus system; and an inverter system electrically coupled to the direct current bus system and electrically couplable to an alternating current load, characterized in that the solar power system is configured to supply the first direct current power at 48 volts and the energy storage system further comprises an input directly electrically connected to the solar power system . a direct current bus system; a solar power system comprising a plurality of solar panels , wherein the solar power system is configured to supply a first direct current power; an energy storage system having an output electrically coupled to the direct current bus system, wherein the energy storage system comprises a plurality of battery stacks , and wherein the energy storage system is configured to supply a second direct current power at 380 volts to the direct current bus system; a wind power system electrically coupled to the direct current bus system, wherein the wind power system comprises at least one wind turbine assembly , and wherein the wind power system is configured to supply a third direct current power at 380 volts to the direct current bus system; a rectifier system electrically coupled to an alternating current power system and the direct current bus system, wherein the rectifier system is configured to supply a fourth direct current power at 380 volts to the direct current bus system; and an inverter system electrically coupled to the direct current bus system and electrically couplable to an alternating current load, characterized in that the solar power system is configured to supply the first direct current power at 48 volts and the energy storage system further comprises an input directly electrically connected to the solar power system .
A tool comprising: a handle ; at least two blades operatively coupled with the handle , wherein the at least two blades are adapted to perform one or more gardening operations based on operation of the handle ; and a foot lever operatively coupled with the handle ; a pin adapted to be at least partially removably coupled to the foot lever and the handle , wherein when the pin is at least partially removed, the foot lever is pivotably rotatable between a working position and a storage position, wherein the foot lever in the storage position is substantially parallel to the handle , and characterized in that in the storage position the at least two blades are closed. a handle ; at least two blades operatively coupled with the handle , wherein the at least two blades are adapted to perform one or more gardening operations based on operation of the handle ; and a foot lever operatively coupled with the handle ; a pin adapted to be at least partially removably coupled to the foot lever and the handle , wherein when the pin is at least partially removed, the foot lever is pivotably rotatable between a working position and a storage position, wherein the foot lever in the storage position is substantially parallel to the handle , and characterized in that in the storage position the at least two blades are closed.
Solid-bowl screw centrifuge having a housing and a rotor rotatably mounted in the housing , comprising at least the following: a. a rotatable drum having an axis of rotation (D), wherein the drum has a cylindrical portion and a conical portion , b. at least one liquid outlet arranged in the cylindrical portion of the drum , and c. at least one solids discharge arranged in the conical portion of the drum , d. a screw rotatable relative to the rotatable drum at a differential speed and arranged within the drum, wherein the drum and screw together form the rotor , e. at least two drum bearings for mounting the drum in the housing , f. at least a first screw bearing for mounting the screw in the drum , g. wherein the drum is designed in the region of the conical portion or drying zone such that solid matter Fe is transported by means of the screw up to a solid-discharge drum cover , which forms a termination of the conical portion in the axial direction of the drum , in order to leave the drum through a plurality of axially or substantially axially aligned openings in the solid-discharge drum cover , and h. wherein the openings in the solid-discharge drum cover are located within, preferably entirely within, the smallest inner diameter of the conical portion of the drum , characterized in that i. a cover element, in particular a cover plate , with openings corresponding to the openings of the solid-discharge drum cover, in particular of the conical portion , is fitted to the solid discharge drum cover having the solid discharge , in particular to its conical portion. a. a rotatable drum having an axis of rotation (D), wherein the drum has a cylindrical portion and a conical portion , b. at least one liquid outlet arranged in the cylindrical portion of the drum , and c. at least one solids discharge arranged in the conical portion of the drum , d. a screw rotatable relative to the rotatable drum at a differential speed and arranged within the drum, wherein the drum and screw together form the rotor , e. at least two drum bearings for mounting the drum in the housing , f. at least a first screw bearing for mounting the screw in the drum , g. wherein the drum is designed in the region of the conical portion or drying zone such that solid matter Fe is transported by means of the screw up to a solid-discharge drum cover , which forms a termination of the conical portion in the axial direction of the drum , in order to leave the drum through a plurality of axially or substantially axially aligned openings in the solid-discharge drum cover , and h. wherein the openings in the solid-discharge drum cover are located within, preferably entirely within, the smallest inner diameter of the conical portion of the drum , characterized in that i. a cover element, in particular a cover plate , with openings corresponding to the openings of the solid-discharge drum cover, in particular of the conical portion , is fitted to the solid discharge drum cover having the solid discharge , in particular to its conical portion.