mhurhangee/ep-ind-claims huggingface dataset:
A method for associating an application with a network slice performed by a terminal comprising a user interface, the method comprising: • obtaining (step 31) display instruction information, an identifier of a first network slice that the terminal is allowed to access, and service feature information corresponding to the first network slice; • displaying (step 32) the service feature information corresponding to the first network slice on a first display interface of the user interface based on the display instruction information; • displaying an icon of an already downloaded and installed first application outside of the first display interface on the user interface of the terminal when the service feature information corresponding to the first network slice is displayed on the first display interface; • when detecting that the displayed icon of the first application displayed outside of the first display interface is dragged by a user of the terminal into the first display interface currently displaying the service feature information corresponding to the first network slice: ∘ generating (step 33) a first network slice selection policy, wherein the first network slice selection policy comprises a mapping relationship between the first application and the identifier of the first network slice. • obtaining (step 31) display instruction information, an identifier of a first network slice that the terminal is allowed to access, and service feature information corresponding to the first network slice; • displaying (step 32) the service feature information corresponding to the first network slice on a first display interface of the user interface based on the display instruction information; • displaying an icon of an already downloaded and installed first application outside of the first display interface on the user interface of the terminal when the service feature information corresponding to the first network slice is displayed on the first display interface; • when detecting that the displayed icon of the first application displayed outside of the first display interface is dragged by a user of the terminal into the first display interface currently displaying the service feature information corresponding to the first network slice: ∘ generating (step 33) a first network slice selection policy, wherein the first network slice selection policy comprises a mapping relationship between the first application and the identifier of the first network slice. ∘ generating (step 33) a first network slice selection policy, wherein the first network slice selection policy comprises a mapping relationship between the first application and the identifier of the first network slice.
Cyclone separator vacuum cleaner which allows an intended vacuum cleaning operation in a suction position, comprising a vacuum cleaner body and a dust separating container which can be arranged on the vacuum cleaner body in an operating position and which comprises a container housing and a carrying handle, the dust separating container being interlockingly held in the operating position on the vacuum cleaner body in five directions of movement (15, 16, 18) and being held, in an exclusively force-fitting manner, in a sixth direction of movement which is used for removal from the vacuum cleaner body, the dust separating container remaining accessible from the outside when in the suction position, the carrying handle being displaceably guided in the container housing, the carrying handle being movable between a configuration pushed into the container housing and a configuration pulled out of the container housing, characterised in that the dust separating container is formed such that it can be removed from the operating position solely by means of pulling out the carrying handle and then continuously pulling on the carrying handle.
A system for performing a seismic survey, the system comprising: a computing system; a plurality of seismic sources (5a, 5b, 5c, 5d) to send a plurality of seismic waves (10, 10b, 10c, 10d), at different angles, towards a plurality of seismic sensors (182a-182x) proximate to a build section of a wellbore that is drilled into a subsurface, wherein the subsurface is essentially homogenous proximate to the build section, wherein locations of the plurality of seismic sources (5a, 5b, 5c, 5d) relative to locations of the plurality of seismic sensors (182a - 182x) are such that the plurality of seismic waves (10a, 10b, 10c, 10d) are essentially planar at the plurality of seismic sensors (182a - 182x) for, for at least a portion of the plurality of seismic waves (10a, 10b, 10c, 10d), determining a phase velocity and a phase angle for each seismic wave (10a, 10b, 10c, 10d), determining a slowness vector for each seismic wave (10a, 10b, 10c, 10d) and determining at least one anisotropic parameter value for the build section based on fitting a model to at least a portion of the determined slowness vectors using the computing system, wherein the computing system is configured to perform said determining; and the plurality of seismic sensors (182a - 182x) to record seismic data for the plurality of seismic waves (10a, 10b, 10c, 10d) received at the plurality of seismic sensors (182a - 182x) from the plurality of seismic sources (5a, 5b, 5c, 5d). a computing system; a plurality of seismic sources (5a, 5b, 5c, 5d) to send a plurality of seismic waves (10, 10b, 10c, 10d), at different angles, towards a plurality of seismic sensors (182a-182x) proximate to a build section of a wellbore that is drilled into a subsurface, wherein the subsurface is essentially homogenous proximate to the build section, wherein locations of the plurality of seismic sources (5a, 5b, 5c, 5d) relative to locations of the plurality of seismic sensors (182a - 182x) are such that the plurality of seismic waves (10a, 10b, 10c, 10d) are essentially planar at the plurality of seismic sensors (182a - 182x) for, for at least a portion of the plurality of seismic waves (10a, 10b, 10c, 10d), determining a phase velocity and a phase angle for each seismic wave (10a, 10b, 10c, 10d), determining a slowness vector for each seismic wave (10a, 10b, 10c, 10d) and determining at least one anisotropic parameter value for the build section based on fitting a model to at least a portion of the determined slowness vectors using the computing system, wherein the computing system is configured to perform said determining; and the plurality of seismic sensors (182a - 182x) to record seismic data for the plurality of seismic waves (10a, 10b, 10c, 10d) received at the plurality of seismic sensors (182a - 182x) from the plurality of seismic sources (5a, 5b, 5c, 5d).
A self-adhesive wall covering comprising: a glass textile with a closed structure, consisting of glass fibers and of a water-permeable polymer binder, and an adhesive coating comprising both a pressure-sensitive adhesive and a water-activable latent adhesive. a glass textile with a closed structure, consisting of glass fibers and of a water-permeable polymer binder, and an adhesive coating comprising both a pressure-sensitive adhesive and a water-activable latent adhesive.
A coil unit (L100, L200, L300), which is used for a contactless power transmission from power feeding side to power receiving side, comprising a coil for power transmission and an apparatus for detecting foreign matter (D100, D200, D300), wherein, the apparatus for detecting foreign matter (D100, D200, D300) comprises a plurality of resonators (R1, R1U, R1D, R2, R2U, R2D) comprising a resonance coil and a resonance capacitor, and an excitation coil for exciting the plurality of resonators (R1, R1U, R1D, R2, R2U, R2D), wherein, the plurality of resonators (R1, R1U, R1D, R2, R2U, R2D) are disposed in rows and columns so as to cover at least an area interlinking with a magnetic flux generated by the coil for power transmission, and wherein, the plurality of resonators (R1, R1U, R1D, R2, R2U, R2D) adjacent with each other in a column direction or a row direction are disposed in layers so that the plurality of resonators (R1, R1U, R1D, R2, R2U, R2D) do not overlap with each other when viewed from a direction perpendicular to a surface and the distances from the resonators (R1, R1U, R1D, R2, R2U, R2D) to the excitation coil are different from each other.
A surface mounted cooktop mounted within an opening in a countertop, comprising: a countertop surface with an opening sized to receive a cooktop unit; at least one cooktop unit; a bridge assembly for supporting at least one surface of the cooktop unit, comprising: a first beam with a length to approximately match the width of said opening in said surface characterized in that a height of the first beam is equal to or greater than the thickness of said surface; and in that it comprises a second beam, adjacent to and in sliding contact with the first beam, a third beam, adjacent to and in sliding contact with the first beam, and fasteners for securing the second and third beams to surfaces underneath the cooktop unit. a countertop surface with an opening sized to receive a cooktop unit; at least one cooktop unit; a bridge assembly for supporting at least one surface of the cooktop unit, comprising: a first beam with a length to approximately match the width of said opening in said surface characterized in that a height of the first beam is equal to or greater than the thickness of said surface; and in that it comprises a second beam, adjacent to and in sliding contact with the first beam, a third beam, adjacent to and in sliding contact with the first beam, and fasteners for securing the second and third beams to surfaces underneath the cooktop unit. a first beam with a length to approximately match the width of said opening in said surface characterized in that a height of the first beam is equal to or greater than the thickness of said surface; and in that it comprises a second beam, adjacent to and in sliding contact with the first beam, a third beam, adjacent to and in sliding contact with the first beam, and fasteners for securing the second and third beams to surfaces underneath the cooktop unit.
Method implemented by computer for generating an enriched image from an image of a three-dimensional scene acquired by optical acquisition means from a reference spatial position, the method comprising the integration in the image, by data processing means, of at least one graphic object (O1, O2, O3, O4, O5, O6, O7, O8, O9) associated with a spatial position of the scene; the method being characterized in that the data processing means are configured to: (a) determine, for each graphic object (O1, O2, O3, O4, O5, O6, O7, O8, O9), whether the associated spatial position is visible in the scene by a user of said optical acquisition means from said reference spatial position; (b) integrate each graphic object (O1, O2, O3, O4, O5, O6, O7, O8, O9) in the image as a function of the result of the determination of visibility, the integration of each graphic object (O1, O2, O3, O4, O5, O6, O7, O8, O9) in the image comprising an adjustment of the size of the graphic object (O1, O2, O3, O4, O5, O6, O7, O8, O9) as a function of the spatial position associated with the graphic object (O1, O2, O3, O4, O5, O6, O7, O8, O9); the determination of visibility of the step (a) consists, for each graphic object (O1, O2, O3, O4, O5, O6, O7, O8, O9), of a test of intersection between - a segment whose ends are the spatial position associated with the graphic object (O1, O2, O3, O4, O5, O6, O7, O8, O9) and said reference spatial position; and - a three-dimensional modelling of the scene; and said adjustment of the size of each graphic object (O1, O2, O3, O4, O5, O6, O7, O8, O9) of the step (b) is proportional to the length of the abovementioned segment. (a) determine, for each graphic object (O1, O2, O3, O4, O5, O6, O7, O8, O9), whether the associated spatial position is visible in the scene by a user of said optical acquisition means from said reference spatial position; (b) integrate each graphic object (O1, O2, O3, O4, O5, O6, O7, O8, O9) in the image as a function of the result of the determination of visibility, the integration of each graphic object (O1, O2, O3, O4, O5, O6, O7, O8, O9) in the image comprising an adjustment of the size of the graphic object (O1, O2, O3, O4, O5, O6, O7, O8, O9) as a function of the spatial position associated with the graphic object (O1, O2, O3, O4, O5, O6, O7, O8, O9); - a segment whose ends are the spatial position associated with the graphic object (O1, O2, O3, O4, O5, O6, O7, O8, O9) and said reference spatial position; and - a three-dimensional modelling of the scene; and said adjustment of the size of each graphic object (O1, O2, O3, O4, O5, O6, O7, O8, O9) of the step (b) is proportional to the length of the abovementioned segment.
Biocarbon regeneration and/or fertilizer substrate, characterised in that it contains a mixture of - sheep manure in an amount of 20 to 80 wt% and carbonized biocarbon from biodegradable municipal waste in an amount of 20 to 80 wt% and - non-carbonized separation from industrial production in the form of pulp or zero fibers and / or plant production in the form of cut-offs from agricultural crops in an amount of up to 33 wt%. - sheep manure in an amount of 20 to 80 wt% and carbonized biocarbon from biodegradable municipal waste in an amount of 20 to 80 wt% and - non-carbonized separation from industrial production in the form of pulp or zero fibers and / or plant production in the form of cut-offs from agricultural crops in an amount of up to 33 wt%.
An unmanned aerial vehicle having remotely controllable and/or programmable control means, thereby to direct said UAV's flight path, said UAV having the following components mounted thereon: - a thermographic camera; - a pyranometer; - a global positioning system receiver; and - a data logger, adapted to log data from at least the pyranometer and the GPS receiver during flight of said UAV; wherein the pyranometer and the GPS receiver together form a geo-referencing pyranometer. - a thermographic camera; - a pyranometer; - a global positioning system receiver; and - a data logger, adapted to log data from at least the pyranometer and the GPS receiver during flight of said UAV;
A flow control method performed by a virtualized infrastructure manager, VIM, under a network functions virtualization, NFV, architecture, comprising: • virtualizing a physical resource into multiple virtual resources that are used to independently run services, and dividing the physical resource into multiple sub physical resources, wherein, for each virtual resource among the multiple virtual resources there is a correspondence between the virtual resource and at least one sub physical resource among the multiple sub physical resources, wherein the physical resource is one of a computing resource, a storage resource or a network resource; • obtaining, for each virtual resource, a preset mapping relationship between a service priority and the virtual resource from a network function virtualization orchestrator, NFVO; • setting, for each virtual resource, a priority for the virtual resource according to the preset mapping relationship between the service priority and the virtual resource; and • when a service traffic burst causes congestion of the physical resource, increasing a quantity of sub physical resources that are correspondingly used by a virtual resource with a priority higher than a preset priority threshold, and decreasing a quantity of sub physical resources that are correspondingly used by a virtual resource with a priority lower than the preset priority threshold. • virtualizing a physical resource into multiple virtual resources that are used to independently run services, and dividing the physical resource into multiple sub physical resources, wherein, for each virtual resource among the multiple virtual resources there is a correspondence between the virtual resource and at least one sub physical resource among the multiple sub physical resources, wherein the physical resource is one of a computing resource, a storage resource or a network resource; • obtaining, for each virtual resource, a preset mapping relationship between a service priority and the virtual resource from a network function virtualization orchestrator, NFVO; • setting, for each virtual resource, a priority for the virtual resource according to the preset mapping relationship between the service priority and the virtual resource; and • when a service traffic burst causes congestion of the physical resource, increasing a quantity of sub physical resources that are correspondingly used by a virtual resource with a priority higher than a preset priority threshold, and decreasing a quantity of sub physical resources that are correspondingly used by a virtual resource with a priority lower than the preset priority threshold.
Battery having an apparatus for digitally transmitting current measured values, comprising: - a first sensor which is suitable for capturing an amplitude of a battery current (I B) and is set up to generate a first bit string which describes the amplitude captured by the first sensor, - a second sensor which is suitable for capturing the amplitude of the battery current (I B) and is set up to generate a second bit string which describes the amplitude captured by the second sensor, - a mirroring unit which is coupled to the second sensor in such a manner that the second bit string is transmitted from the second sensor to the mirroring unit and which is set up to generate a mirrored second bit string by reversing an order of the bits given by the second bit string, wherein a first bit in the second bit string becomes a last bit in the mirrored second bit string and a last bit in the second bit string becomes a first bit in the mirrored second bit string, and - a transmission interface which is set up to make it possible to simultaneously couple the first bit string from the first sensor into a first data bus and to couple the mirrored second bit string from the mirroring unit into a second data bus. - a first sensor which is suitable for capturing an amplitude of a battery current (I B) and is set up to generate a first bit string which describes the amplitude captured by the first sensor, - a second sensor which is suitable for capturing the amplitude of the battery current (I B) and is set up to generate a second bit string which describes the amplitude captured by the second sensor, - a mirroring unit which is coupled to the second sensor in such a manner that the second bit string is transmitted from the second sensor to the mirroring unit and which is set up to generate a mirrored second bit string by reversing an order of the bits given by the second bit string, wherein a first bit in the second bit string becomes a last bit in the mirrored second bit string and a last bit in the second bit string becomes a first bit in the mirrored second bit string, and - a transmission interface which is set up to make it possible to simultaneously couple the first bit string from the first sensor into a first data bus and to couple the mirrored second bit string from the mirroring unit into a second data bus.
A crystalline molecular complex comprising zoledronic acid, DL-lysine, and water, wherein the bioavailability of the zoledronic acid from the crystalline molecular complex is greater than the bioavailability of the zoledronic acid without DL-lysine; wherein the zoledronic acid in the crystalline molecular complex has improved aqueous solubility compared to zoledronic acid without DL-lysine.
An intracameral therapeutic agent delivery device comprising: a substantially cylindrical structure for at least partial placement into the anterior chamber of an eye having a first end, a second end and at least one channel traversing the substantially cylindrical structure, said structure formed of at least one biocompatible non-biodegradable material and having at least one protrusion on an outside surface that prevents migration of said device once implanted and wherein one of said first end and said second end is beveled; a sustained release material associated with at least a portion of said at least one channel; and at least one therapeutic bioactive agent associated with said sustained release material, characterized in that one of said first end and said second end is sealed with a cap (1006, 1010), and the other of said first end and said second end is sealed with a cap, said caps being pierceable using a syringe. a substantially cylindrical structure for at least partial placement into the anterior chamber of an eye having a first end, a second end and at least one channel traversing the substantially cylindrical structure, said structure formed of at least one biocompatible non-biodegradable material and having at least one protrusion on an outside surface that prevents migration of said device once implanted and wherein one of said first end and said second end is beveled; a sustained release material associated with at least a portion of said at least one channel; and at least one therapeutic bioactive agent associated with said sustained release material, characterized in that one of said first end and said second end is sealed with a cap (1006, 1010), and the other of said first end and said second end is sealed with a cap, said caps being pierceable using a syringe.
Motor vehicle lock, in particular a motor vehicle door lock, comprising a lock housing, an electrical power supply, an illuminant, and a light guiding element which interacts with the illuminant, wherein the light guiding element is designed as an integral part of the motor vehicle lock, so that at least some areas of the motor vehicle lock can be illuminated, characterized in that - a LED arranged directly on a printed circuit board is used as the illuminant - the light emitted by the illuminant is guided towards an inlet opening with a rotary latch arranged in the inlet opening by means of the light guiding element - light exit surfaces (19, 20, 21, 23, 24, 25, 26) of the light guiding element are arranged around the inlet opening. - a LED arranged directly on a printed circuit board is used as the illuminant - the light emitted by the illuminant is guided towards an inlet opening with a rotary latch arranged in the inlet opening by means of the light guiding element - light exit surfaces (19, 20, 21, 23, 24, 25, 26) of the light guiding element are arranged around the inlet opening.
A display apparatus comprising a backlight unit comprising a color conversion film comprising: a substrate film; and a color conversion functional layer provided on the substrate film, wherein the color conversion functional layer includes a phase change material; and the phase change material is at least one selected from the group of an organic monomer, a polymer and an inorganic salt hydrate, wherein the color conversion functional layer includes an organic fluorescent dye, and wherein the organic fluorescent dye includes at least one selected from the group of BODIPY-based derivatives, acridine-based derivatives, xanthene-based derivatives, arylmethane-based derivatives, coumarin-based derivatives, polycyclic aromatic hydrocarbon-based derivatives, polycyclic hetero aromatic-based derivatives, perylene-based derivatives, pyrrole-based derivatives and pyrene-based derivatives. a substrate film; and a color conversion functional layer provided on the substrate film, wherein the color conversion functional layer includes a phase change material; and the phase change material is at least one selected from the group of an organic monomer, a polymer and an inorganic salt hydrate, wherein the color conversion functional layer includes an organic fluorescent dye, and wherein the organic fluorescent dye includes at least one selected from the group of BODIPY-based derivatives, acridine-based derivatives, xanthene-based derivatives, arylmethane-based derivatives, coumarin-based derivatives, polycyclic aromatic hydrocarbon-based derivatives, polycyclic hetero aromatic-based derivatives, perylene-based derivatives, pyrrole-based derivatives and pyrene-based derivatives.