mhurhangee/ep-ind-claims huggingface dataset:
Device for supplying pressurized fluid, in particular pressurized gas, comprising a first valve accommodating an internal fluid circuit, the device having a second valve comprising an internal circuit, the second valve forming a separate physical entity from the first valve, the first valve and the second valve comprising respective coupling members (6, 7) that form a male/female quick-connection system for removably connecting the second valve to the first valve, the internal circuits (13, 15) comprising a set of control valves (4, 9) for allowing or preventing the flow of the fluid towards an outlet of the device when the second valve is coupled to the first valve via the quick-connection system, the device comprising at least one manually actuable movable control member for controlling the set of control valves, the control member being movable between a first, rest position, in which the flow of fluid towards the outlet is prevented, and a second, active position, in which the flow of fluid towards the outlet is allowed, the quick-connection system comprising a connection piece for connecting the second valve to the first valve, the connection piece being movable between a first position, in which the quick connection between the second valve and the first valve has not been established, and a second position, in which the quick connection between the second valve and the first valve has been established, and, in its first position, the connection piece blocking the control member in its first, rest position so as to prevent it from moving towards its second, active position, and, in its second position, the connection piece not blocking the control member in its first, rest position so as to allow it to move towards its second, active position, characterized in that, in its second, active position, the control member blocks the connection piece in its second position, so as to prevent the second valve and the first valve from being separated, and in that, in its first, rest position, the control member does not block the connection piece in its second position, so as to allow it to move towards its first position and thus allow the second valve and the first valve to be separated.
A lighting optical system comprising: a light source configured to emit light beams; a holographic element; a wavelength converter configured to include a wavelength converting material which can be excited by the regeneration light beams from the holographic element and emit visible light beams; and a lens configured to project the visible light beams from the wavelength converter, characterized in that the holographic element is a holographic liquid crystal element configured to convert the light beams emitted from the light source to regeneration light beams forming a prescribed light distribution pattern or alternatively allow the light beams to pass therethrough as they are, in accordance with a voltage applied thereto. a light source configured to emit light beams; a holographic element; a wavelength converter configured to include a wavelength converting material which can be excited by the regeneration light beams from the holographic element and emit visible light beams; and a lens configured to project the visible light beams from the wavelength converter, characterized in that the holographic element is a holographic liquid crystal element configured to convert the light beams emitted from the light source to regeneration light beams forming a prescribed light distribution pattern or alternatively allow the light beams to pass therethrough as they are, in accordance with a voltage applied thereto.
A wireless communication method, comprising: determining, by a wireless communication device, a first counter and a second counter for a pair of linked Physical Downlink Control Channel, PDCCH, candidates, comprising: determining, by the wireless communication device, a first counter value X1 of the first counter corresponding to a first linked PDCCH candidate of the pair of linked PDCCH candidates; and determining, by the wireless communication device, a second counter value X2 of the second counter corresponding to a second linked PDCCH candidate of the pair of linked PDCCH candidates, wherein X1 is 1 and X2 is 2, wherein downlink control information, DCI, transmissions detected in the pair of PDCCH candidates carry same control information, and wherein a value of each counter represents a number of the linked PDCCH candidates for PDCCH monitoring, and detecting, by the wireless communication device, downlink information using the pair of linked PDCCH candidates and the counters. determining, by a wireless communication device, a first counter and a second counter for a pair of linked Physical Downlink Control Channel, PDCCH, candidates, comprising: determining, by the wireless communication device, a first counter value X1 of the first counter corresponding to a first linked PDCCH candidate of the pair of linked PDCCH candidates; and determining, by the wireless communication device, a second counter value X2 of the second counter corresponding to a second linked PDCCH candidate of the pair of linked PDCCH candidates, wherein X1 is 1 and X2 is 2, wherein downlink control information, DCI, transmissions detected in the pair of PDCCH candidates carry same control information, and wherein a value of each counter represents a number of the linked PDCCH candidates for PDCCH monitoring, and determining, by the wireless communication device, a first counter value X1 of the first counter corresponding to a first linked PDCCH candidate of the pair of linked PDCCH candidates; and determining, by the wireless communication device, a second counter value X2 of the second counter corresponding to a second linked PDCCH candidate of the pair of linked PDCCH candidates, wherein X1 is 1 and X2 is 2, wherein downlink control information, DCI, transmissions detected in the pair of PDCCH candidates carry same control information, and wherein a value of each counter represents a number of the linked PDCCH candidates for PDCCH monitoring, and detecting, by the wireless communication device, downlink information using the pair of linked PDCCH candidates and the counters.
A device for making an object, the device comprising: a substantially vertical flat surface; an applicator operable to project at an elevation angle a material used to make the object towards the substantially vertical flat surface; and a controller adapted to receive instructions for making the object and is configured to coordinate relative movement of the applicator and the surface, and the application of the material by the applicator, such that the material is applied over at least one portion of the surface as a plurality of individually determined layers; wherein the elevation angle is between negative ten degrees, -10°, and positive ninety degrees, +90°, the elevation angle being a vertical angle above the horizon. a substantially vertical flat surface; an applicator operable to project at an elevation angle a material used to make the object towards the substantially vertical flat surface; and a controller adapted to receive instructions for making the object and is configured to coordinate relative movement of the applicator and the surface, and the application of the material by the applicator, such that the material is applied over at least one portion of the surface as a plurality of individually determined layers; wherein the elevation angle is between negative ten degrees, -10°, and positive ninety degrees, +90°, the elevation angle being a vertical angle above the horizon.
At least one storage device or storage disk comprising instructions that, when executed, cause at least one processor of a mobile electronic device to at least: determine an amount of noise associated with a first noise source in physiological signal data collected from a user via one or more human body sensors, the noise associated with the first noise source indicative of interference from a power line in an environment in which the user is located during collection of the physiological signal data; determine an amount of noise associated with a second noise source in the physiological signal data; determine a respective signal-to-noise ratio for the amount of noise of each noise source; identify a noise source that produces excessive noise compared with the remaining noise sources, based on the signal-to-noise ratios; determine an overall quality level based on a dynamic weighting function that combines the signal-to-noise ratios into a single value; prompt a user to repeat measuring physiological signal data if the overall quality level is not above a threshold and a maximum number of readings has not been reached, wherein the user is prompted to adjust the measuring based on a predefined recommendation associated with the identified noise source; subsequent to prompting the user, repeat determining an amount of noise associated with the first noise source, determining an amount of noise associated with the second noise source, determining a respective signal-to-noise ratio, determining an overall quality level, and conditionally prompting the user. determine an amount of noise associated with a first noise source in physiological signal data collected from a user via one or more human body sensors, the noise associated with the first noise source indicative of interference from a power line in an environment in which the user is located during collection of the physiological signal data; determine an amount of noise associated with a second noise source in the physiological signal data; determine a respective signal-to-noise ratio for the amount of noise of each noise source; identify a noise source that produces excessive noise compared with the remaining noise sources, based on the signal-to-noise ratios; determine an overall quality level based on a dynamic weighting function that combines the signal-to-noise ratios into a single value; prompt a user to repeat measuring physiological signal data if the overall quality level is not above a threshold and a maximum number of readings has not been reached, wherein the user is prompted to adjust the measuring based on a predefined recommendation associated with the identified noise source; subsequent to prompting the user, repeat determining an amount of noise associated with the first noise source, determining an amount of noise associated with the second noise source, determining a respective signal-to-noise ratio, determining an overall quality level, and conditionally prompting the user.
A method comprising: obtaining, by a computer system, lane information that provides an estimated location of a current lane of a road (200, 300) on which a vehicle (202, 302) is travelling, wherein the computer system is configured to control the vehicle (202, 302) in an autonomous mode; identifying trajectories associated with other vehicles driving on or near the road (200, 300); determining, by the computer system, that the lane information has become unavailable or unreliable; and in response to determining that the lane information has become unavailable or unreliable, the computer system: analyzing the trajectories to identify a location of intersection of trajectories that originated in different lanes, wherein the location of intersection of trajectories represents a potential merge point on the road, based on the trajectories that intersect at the potential merge point, determining which trajectories are most likely to represent a lane into which another lane is merging and, based on the trajectories that are most likely to represent the lane into which another lane is merging, determining a location of the lane at the potential merge point, creating a new trajectory (204, 306) that follows the lane at the potential merge point, and controlling the vehicle (202, 302) to travel along the new trajectory (204, 306). obtaining, by a computer system, lane information that provides an estimated location of a current lane of a road (200, 300) on which a vehicle (202, 302) is travelling, wherein the computer system is configured to control the vehicle (202, 302) in an autonomous mode; identifying trajectories associated with other vehicles driving on or near the road (200, 300); determining, by the computer system, that the lane information has become unavailable or unreliable; and in response to determining that the lane information has become unavailable or unreliable, the computer system: analyzing the trajectories to identify a location of intersection of trajectories that originated in different lanes, wherein the location of intersection of trajectories represents a potential merge point on the road, based on the trajectories that intersect at the potential merge point, determining which trajectories are most likely to represent a lane into which another lane is merging and, based on the trajectories that are most likely to represent the lane into which another lane is merging, determining a location of the lane at the potential merge point, creating a new trajectory (204, 306) that follows the lane at the potential merge point, and controlling the vehicle (202, 302) to travel along the new trajectory (204, 306).
A device for treating sleep apnea in a subject comprising an implantable device and an external unit configured for location external to the subject, the implantable device comprising: a flexible carrier adapted to be implanted in a region of a genioglossus muscle; an implantable circuit associated with the flexible carrier, the implantable circuit being adapted to stimulate a hypoglossal nerve and modulate a genioglossus muscle; a secondary antenna arranged on the flexible carrier and configured to wirelessly receive energy from a location external to a body of the subject and to provide at least a portion of the energy to the implantable circuit; and at least one component associated with the flexible carrier for receiving energy from the implantable circuit; wherein the external unit comprises an external circuit and a primary antenna, wherein the external unit has an external resonant frequency, and wherein the implantable circuit and the secondary antenna have a first internal resonant frequency and are adapted for a resonance frequency variation based on implantation by being configured to have a second internal resonant frequency different from the first internal resonant frequency and matched to the external resonant frequency of the external circuit for communicating with the secondary antenna, when the flexible carrier is in contact with moisture and causes a change from the first internal resonant frequency to the second internal resonant frequency. a flexible carrier adapted to be implanted in a region of a genioglossus muscle; an implantable circuit associated with the flexible carrier, the implantable circuit being adapted to stimulate a hypoglossal nerve and modulate a genioglossus muscle; a secondary antenna arranged on the flexible carrier and configured to wirelessly receive energy from a location external to a body of the subject and to provide at least a portion of the energy to the implantable circuit; and at least one component associated with the flexible carrier for receiving energy from the implantable circuit; wherein the external unit comprises an external circuit and a primary antenna, wherein the external unit has an external resonant frequency, and wherein the implantable circuit and the secondary antenna have a first internal resonant frequency and are adapted for a resonance frequency variation based on implantation by being configured to have a second internal resonant frequency different from the first internal resonant frequency and matched to the external resonant frequency of the external circuit for communicating with the secondary antenna, when the flexible carrier is in contact with moisture and causes a change from the first internal resonant frequency to the second internal resonant frequency.
A disposable loading unit for a surgical stapling instrument, comprising: a staple cartridge carrier configured to operably support a staple cartridge, and an anvil assembly, comprising: an anvil portion including at least one staple-deforming cavity characterised by; a first cover plate secured to said anvil portion, wherein said first cover plate is configured to support said anvil portion; and a second cover plate secured to at least one of said anvil portion and said first cover plate to support said anvil portion. a staple cartridge carrier configured to operably support a staple cartridge, and an anvil assembly, comprising: an anvil portion including at least one staple-deforming cavity characterised by; a first cover plate secured to said anvil portion, wherein said first cover plate is configured to support said anvil portion; and a second cover plate secured to at least one of said anvil portion and said first cover plate to support said anvil portion. an anvil portion including at least one staple-deforming cavity characterised by; a first cover plate secured to said anvil portion, wherein said first cover plate is configured to support said anvil portion; and a second cover plate secured to at least one of said anvil portion and said first cover plate to support said anvil portion.
A method for diagnosing inflammatory bowel disease, Crohn's disease or ulcerative colitis in a human subject comprising the steps of: - measuring a level of one or more H 2 S producing bacteria in a gut microbiota sample from the human subject, wherein the one or more H 2 S producing bacteria is selected from Fusobacterium nucleatum, Veillonella parvula, and Atopobium parvulum, and - comparing the level of the one or more H 2 S producing bacteria to a reference level of the one or more H 2 S producing bacteria from gut microbiota samples of healthy human subjects, wherein a level of the one or more H 2 S producing bacteria higher than the reference level is indicative of disease. - measuring a level of one or more H 2 S producing bacteria in a gut microbiota sample from the human subject, wherein the one or more H 2 S producing bacteria is selected from Fusobacterium nucleatum, Veillonella parvula, and Atopobium parvulum, and - comparing the level of the one or more H 2 S producing bacteria to a reference level of the one or more H 2 S producing bacteria from gut microbiota samples of healthy human subjects, wherein a level of the one or more H 2 S producing bacteria higher than the reference level is indicative of disease.
A window unit assembly system comprising: a frame component configured to support equipment for a window unit assembly line; a pane conveyor configured to move panes (12,14) along the window unit assembly line, wherein the pane conveyor is supported by the frame component; a spacer conveyor configured to move spacer elements along the window unit assembly line, characterized in that the spacer conveyor is supported by the same frame component as the pane conveyor. a frame component configured to support equipment for a window unit assembly line; a pane conveyor configured to move panes (12,14) along the window unit assembly line, wherein the pane conveyor is supported by the frame component; a spacer conveyor configured to move spacer elements along the window unit assembly line, characterized in that the spacer conveyor is supported by the same frame component as the pane conveyor.
A light penetration depth evaluation method using an optical tomography method of splitting low coherent light (L o) into sample light (L 1) and reference light (L 2), emitting the sample light (L 1) to a measurement target in a line shape, generating interference light (L 4) by superimposing reflected light (L 3) from the measurement target due to emission of the sample light (L 1) and the reference light (L 2) on each other, and acquiring a two-dimensional spectroscopic tomographic image of the measurement target by spectroscopically detecting the interference light and performing frequency analysis, the method comprising: cutting out an arbitrary wavelength region in an ultraviolet region from low coherent light (L o), which is emitted from a single light source and which includes a wavelength region from an ultraviolet region to a visible region, and shaping the arbitrary wavelength region into a spectrum having an arbitrary wavelength width; acquiring the two-dimensional spectroscopic tomographic image as using the low coherent light (L o) in the arbitrary wavelength region having the spectrum; and evaluating a penetration depth of the sample light (L 1) for the measurement target based on the two-dimensional spectroscopic tomographic image. cutting out an arbitrary wavelength region in an ultraviolet region from low coherent light (L o), which is emitted from a single light source and which includes a wavelength region from an ultraviolet region to a visible region, and shaping the arbitrary wavelength region into a spectrum having an arbitrary wavelength width; acquiring the two-dimensional spectroscopic tomographic image as using the low coherent light (L o) in the arbitrary wavelength region having the spectrum; and evaluating a penetration depth of the sample light (L 1) for the measurement target based on the two-dimensional spectroscopic tomographic image.
An apparatus, comprising: a first coil comprising a planar spiral configuration, a spacing between turns of the first coil substantially increasing from an outer edge of the coil toward a center of the first coil; and a second coil comprising a planar spiral configuration, a spacing between turns of the second coil substantially increasing from an outer edge of the coil toward a center of the second coil, the second coil configured to be substantially shaped as a reflection of the first coil; and wherein the second coil is substantially located on a common plane with the first coil. a first coil comprising a planar spiral configuration, a spacing between turns of the first coil substantially increasing from an outer edge of the coil toward a center of the first coil; and a second coil comprising a planar spiral configuration, a spacing between turns of the second coil substantially increasing from an outer edge of the coil toward a center of the second coil, the second coil configured to be substantially shaped as a reflection of the first coil; and wherein the second coil is substantially located on a common plane with the first coil.
A method of manufacturing an integrated circuit involving performing an electrostatic discharge, hereinafter referred to as ESD, test, the method comprising: detecting a weak frequency band by sequentially radiating a plurality of first electromagnetic waves on a first test board including the integrated circuit; detecting first peak-to-peak voltage signals by sequentially radiating the plurality of first electromagnetic waves on a second test board including an electromagnetic wave receiving module; detecting a frequency spectrum by radiating a second electromagnetic wave on a housing including a third test board including the electromagnetic wave receiving module; generating a second peak-to-peak voltage signal based on the weak frequency band, the first peak-to-peak voltage signals and the frequency spectrum; and predicting an ESD characteristic associated with an electronic system including the integrated circuit based on the second peak-to-peak voltage signal. detecting a weak frequency band by sequentially radiating a plurality of first electromagnetic waves on a first test board including the integrated circuit; detecting first peak-to-peak voltage signals by sequentially radiating the plurality of first electromagnetic waves on a second test board including an electromagnetic wave receiving module; detecting a frequency spectrum by radiating a second electromagnetic wave on a housing including a third test board including the electromagnetic wave receiving module; generating a second peak-to-peak voltage signal based on the weak frequency band, the first peak-to-peak voltage signals and the frequency spectrum; and predicting an ESD characteristic associated with an electronic system including the integrated circuit based on the second peak-to-peak voltage signal.