mhurhangee/ep-ind-claims huggingface dataset:
A method for dispensing a fluid sample on a substrate, the method comprising: obtaining an image of a sample applicator in proximity to the substrate, wherein the image comprises a first image of the sample applicator and a second image of the sample applicator; determining a height (h) of the sample applicator relative to a surface plane of the substrate based, on a distance between common portions of the first and second images (302, 304); and dispensing the fluid sample onto the substrate using the sample applicator, wherein the dispensing comprises: translating the sample applicator, translating the substrate, or translating both the sample applicator and the substrate to effect a relative translation between the sample applicator and the substrate: and maintaining the sample applicator within a range of heights centered about a target height relative to the surface plane of the substrate during the translating, wherein the sample applicator comprises an applicator tip having a shouldered or stepped cross-sectional profile. obtaining an image of a sample applicator in proximity to the substrate, wherein the image comprises a first image of the sample applicator and a second image of the sample applicator; determining a height (h) of the sample applicator relative to a surface plane of the substrate based, on a distance between common portions of the first and second images (302, 304); and dispensing the fluid sample onto the substrate using the sample applicator, wherein the dispensing comprises: translating the sample applicator, translating the substrate, or translating both the sample applicator and the substrate to effect a relative translation between the sample applicator and the substrate: and maintaining the sample applicator within a range of heights centered about a target height relative to the surface plane of the substrate during the translating, wherein the sample applicator comprises an applicator tip having a shouldered or stepped cross-sectional profile. translating the sample applicator, translating the substrate, or translating both the sample applicator and the substrate to effect a relative translation between the sample applicator and the substrate: and maintaining the sample applicator within a range of heights centered about a target height relative to the surface plane of the substrate during the translating, wherein the sample applicator comprises an applicator tip having a shouldered or stepped cross-sectional profile.
Floor boards with an essentially square, rectangular or rhomboidal shape, which floor boards are provided with edges, a horizontal lower side and a horizontal decorative upper surface, whereby the floor boards are provided with lower joining lips at two adjacent edges while the two remaining edges are provided with upper joining lips, wherein the lower joining lips are provided with essentially vertical lower lip surfaces arranged parallel to the closest edge which lower lip surfaces are intended to interact with mainly vertical upper lip surfaces arranged on the upper joining lips so that two joined adjacent floor boards are locked together in a horizontal direction, wherein the joining lips (10 and 20 respectively) are provided with one heel Intended to snap join with a recess adapted thereto which, by being provided with essentially horizontal locking surfaces, limits vertical movement between two joined adjacent floor boards, wherein the joint with the joining lips comprising the heel and the recess is adapted to be joined by pressing vertically downwards one floor board with respect to the other adjacent floor board, and wherein the heel or the recess is constituted by a resilient part which is arranged in a cavity.
Method for producing a diffractive optical element for beam shaping a laser beam having a first wavelength (λ 1) of at least 100 nm, comprising the steps of: providing a laser mirror, wherein the laser mirror has a layered structure comprising a substrate and a dielectric layer, wherein the dielectric layer abuts against the substrate, or wherein the laser mirror has a layered structure comprising a substrate, a dielectric layer and an absorption layer, wherein the absorption layer is located between the substrate and the dielectric layer; creating a plurality of bulges of the dielectric layer by treating the laser mirror with a series of focused heating laser beams having a second wavelength (λ 2), wherein said plurality of bulges have a height perpendicular to said dielectric layer, and wherein at least one bulge has a height of at least one-half of said first wavelength (λ 1). providing a laser mirror, wherein the laser mirror has a layered structure comprising a substrate and a dielectric layer, wherein the dielectric layer abuts against the substrate, or wherein the laser mirror has a layered structure comprising a substrate, a dielectric layer and an absorption layer, wherein the absorption layer is located between the substrate and the dielectric layer; creating a plurality of bulges of the dielectric layer by treating the laser mirror with a series of focused heating laser beams having a second wavelength (λ 2), wherein said plurality of bulges have a height perpendicular to said dielectric layer, and wherein at least one bulge has a height of at least one-half of said first wavelength (λ 1).
A system for assembling a conformal array, wherein the conformal array includes a structural back skin and a core connected to the structural back skin, wherein the core includes radiating elements that are electrically interconnected with a circuit board opposite the structural back skin, and wherein the structural back skin and the core collectively define an open cell having edges defined by adjacent inner faces of the open cell, the system comprising: an adhesive source for supplying adhesive to the edges of the open cell; an outer tool configured to be inserted into the open cell, wherein the outer tool defines a cavity and a pathway configured to distribute adhesive from the adhesive source to the edges of the open cell; characterized in that the system further includes an inner tool configured to be inserted into the cavity of the outer tool, wherein the inner tool defines a conduit configured to receive adhesive from the adhesive source and to deliver adhesive to the pathway of the outer tool. an adhesive source for supplying adhesive to the edges of the open cell; an outer tool configured to be inserted into the open cell, wherein the outer tool defines a cavity and a pathway configured to distribute adhesive from the adhesive source to the edges of the open cell; characterized in that the system further includes an inner tool configured to be inserted into the cavity of the outer tool, wherein the inner tool defines a conduit configured to receive adhesive from the adhesive source and to deliver adhesive to the pathway of the outer tool.
A method for producing a carboxy group-containing hydrogenated nitrile rubber, comprising: a step of preparing a latex of a carboxy group-containing nitrile rubber by emulsion polymerizing a monomer mixture in a dispersive medium, the monomer mixture containing at least an α,β-ethylenically unsaturated nitrile monomer and a carboxy group-containing monomer; a step of heating the latex of the carboxy group-containing nitrile rubber at 50 to 85°C in the state where the pH is adjusted in the range of 8.5 to 12; and a step of subjecting the latex of the carboxy group-containing nitrile rubber after the heating to a hydrogenation reaction in the presence of a hydrogenation catalyst in the state where the pH is adjusted in the range of 5 to 8. a step of preparing a latex of a carboxy group-containing nitrile rubber by emulsion polymerizing a monomer mixture in a dispersive medium, the monomer mixture containing at least an α,β-ethylenically unsaturated nitrile monomer and a carboxy group-containing monomer; a step of heating the latex of the carboxy group-containing nitrile rubber at 50 to 85°C in the state where the pH is adjusted in the range of 8.5 to 12; and a step of subjecting the latex of the carboxy group-containing nitrile rubber after the heating to a hydrogenation reaction in the presence of a hydrogenation catalyst in the state where the pH is adjusted in the range of 5 to 8.
Lighting LED device comprising a profiled element to be applied to an external structure and which: - is provided with and/or is associated with at least one substantially transparent and/or translucent longitudinal portion configured to allow the passage of a luminous flux generated by a LEDs strip illuminating element, housed within a longitudinal chamber defined inside said profiled element, - houses, in a position substantially facing said illuminating element, a reflecting element oriented so as to reflect the luminous flux generated by said illuminating element towards said substantially transparent and/or translucent portion of said profiled element, and wherein said longitudinal chamber, which houses the illuminating element, is separate from a further longitudinal chamber which is defined inside said profiled element and which houses said reflecting element, and characterized in that said LEDs strip is applied to a support having thermo-dissipating functions, to said support also being associated means for constraining the profiled element to an external structure. - is provided with and/or is associated with at least one substantially transparent and/or translucent longitudinal portion configured to allow the passage of a luminous flux generated by a LEDs strip illuminating element, housed within a longitudinal chamber defined inside said profiled element, - houses, in a position substantially facing said illuminating element, a reflecting element oriented so as to reflect the luminous flux generated by said illuminating element towards said substantially transparent and/or translucent portion of said profiled element, and wherein said longitudinal chamber, which houses the illuminating element, is separate from a further longitudinal chamber which is defined inside said profiled element and which houses said reflecting element, and characterized in that said LEDs strip is applied to a support having thermo-dissipating functions, to said support also being associated means for constraining the profiled element to an external structure.
A tag counting ending method for anti-collision in a radio frequency identification system, characterized in that the method comprises: Step 201: after the counting begins, a register of a reader-writer is set with an initial value for the register; Step 202: a reader-writer waits for response signals from a tag; Step 203: when no response signal from the tag, then determine the value of the register, if the value of the register is less than or equal to a pre-determined counting ending register threshold value, step 206 is to be executed; if the value of the register is greater than said pre-determined counting ending register threshold value, step 204 is to be executed and the counting process is to be continued; Step 206: the reader-writer transmits Finish commands and waits for response from the tag, when no response from the tag, the counting process is finished; when any response from the tag, then a next command is determined by the reader-writer and step 204 is to be executed; Step 204: a next command of the reader-writer is determined according to a response from the tag, when no collision and the response from the tag is successful, then the next command is a Success command and subtracting the value of the register by 1; when any collision or the response from the tag is failed, then the next command is a Fail command and adding the value of the register by 1; Step 205: transmitting the next command to the tag, then returning to step 202, and continuing the counting process. Step 201: after the counting begins, a register of a reader-writer is set with an initial value for the register; Step 202: a reader-writer waits for response signals from a tag; Step 203: when no response signal from the tag, then determine the value of the register, if the value of the register is less than or equal to a pre-determined counting ending register threshold value, step 206 is to be executed; if the value of the register is greater than said pre-determined counting ending register threshold value, step 204 is to be executed and the counting process is to be continued; Step 206: the reader-writer transmits Finish commands and waits for response from the tag, when no response from the tag, the counting process is finished; when any response from the tag, then a next command is determined by the reader-writer and step 204 is to be executed; Step 204: a next command of the reader-writer is determined according to a response from the tag, when no collision and the response from the tag is successful, then the next command is a Success command and subtracting the value of the register by 1; when any collision or the response from the tag is failed, then the next command is a Fail command and adding the value of the register by 1; Step 205: transmitting the next command to the tag, then returning to step 202, and continuing the counting process.
A method performed by a test system including a plurality of port units (410, 415, 610, 615, 710, 715) coupled to a network under test, comprising: storing one or more pre-calculated cryptography data, PCCD, sets (510-1, 510-N) in a first PCCD memory (430, 500) located within a first port unit (410, 610, 710) of the plurality of port units, each PCCD set (510-1, 510-N) including at least a first parameter and a second parameter generated by encrypting the first parameter characterized by storing the one or more PCCD sets (510-1, 510-N) in a second PCCD memory (435, 500) located within a second port unit (415, 615, 715) of the plurality of port units opening a simulated secure connection between the first port unit (410, 610, 710) and the second port unit (415, 615, 715) via the network under test using a selected PCCD set from the one or more PCCD sets (510-1, 510-N), the simulated secure connection opened without performing encryption or decryption processing. storing one or more pre-calculated cryptography data, PCCD, sets (510-1, 510-N) in a first PCCD memory (430, 500) located within a first port unit (410, 610, 710) of the plurality of port units, each PCCD set (510-1, 510-N) including at least a first parameter and a second parameter generated by encrypting the first parameter characterized by storing the one or more PCCD sets (510-1, 510-N) in a second PCCD memory (435, 500) located within a second port unit (415, 615, 715) of the plurality of port units opening a simulated secure connection between the first port unit (410, 610, 710) and the second port unit (415, 615, 715) via the network under test using a selected PCCD set from the one or more PCCD sets (510-1, 510-N), the simulated secure connection opened without performing encryption or decryption processing.
Method for determining the location of origin of a passive intermodulation product comprising the following steps: • excitation of a distributed device under test with two first excitation signals each with a single spectral line, the frequencies of which exhibit a frequency separation relative to one another, • measurement of a phase of a first passive intermodulation product produced from the first excitation signals at the location of origin in the distributed device under test by non-linear distortion, • excitation of the distributed device under test with two second excitation signals each with a single spectral line, the frequencies of which are each different to the frequencies of the first excitation signals and exhibit a frequency separation relative to one another identical to the frequency separation of the first excitation signals, • measurement of the phase of a second passive intermodulation product produced from the second excitation signals at the location of origin in the distributed device under test by non-linear distortion, • calculation of the travel time of the first passive intermodulation product from the location of origin to the measuring device from the measured phase and the frequencies of the first passive intermodulation product and from the phase and the frequencies of the second passive intermodulation product, and • determination of the location of origin of the passive intermodulation product from the travel time and the topology of the distributed device under test. • excitation of a distributed device under test with two first excitation signals each with a single spectral line, the frequencies of which exhibit a frequency separation relative to one another, • measurement of a phase of a first passive intermodulation product produced from the first excitation signals at the location of origin in the distributed device under test by non-linear distortion, • excitation of the distributed device under test with two second excitation signals each with a single spectral line, the frequencies of which are each different to the frequencies of the first excitation signals and exhibit a frequency separation relative to one another identical to the frequency separation of the first excitation signals, • measurement of the phase of a second passive intermodulation product produced from the second excitation signals at the location of origin in the distributed device under test by non-linear distortion, • calculation of the travel time of the first passive intermodulation product from the location of origin to the measuring device from the measured phase and the frequencies of the first passive intermodulation product and from the phase and the frequencies of the second passive intermodulation product, and • determination of the location of origin of the passive intermodulation product from the travel time and the topology of the distributed device under test.
Propellant charge loader for loading propellant charges into an elevatable weapon barrel with an elevation adjustment element and a propellant charge receptacle which is arranged on the elevation adjustment element, from which a plurality of propellant charges are introducible along a loading direction into the weapon barrel, wherein the propellant charge receptacle is arranged so as to be movable in a translatory manner in relation to the elevation adjustment element transversely with respect to the loading direction, and wherein the propellant charge receptacle is movable in a translatory manner via movement means connected to the elevation adjustment element, wherein the elevation adjustment element is designed in the manner of a pivoting boom which is pivotable about a horizontally extending pivot axis, and wherein the movement means has a lifting platform for producing a lifting movement.
A brace assembly for bracing a braced pipe relative to a brace pipe, characterised by: a cable; a main body comprising an annular portion defining an opening that receives the brace pipe, a cable stop that supports a first portion of the cable, a pipe support surface that supports the braced pipe; a cable anchor that can fix a second portion of the cable relative to the main body such that the cable can be placed in tension between the first and second portions (23,27), wherein the cable anchor includes a fastener coupled to the main body configured to clamp the second portion of the cable to the main body; a cable tensioning arrangement (22,26,28,42) configured to move the cable stop relative to the cable anchor to tension the cable around the braced pipe and secure the braced pipe against the pipe support surface. a cable; a main body comprising an annular portion defining an opening that receives the brace pipe, a cable stop that supports a first portion of the cable, a pipe support surface that supports the braced pipe; a cable anchor that can fix a second portion of the cable relative to the main body such that the cable can be placed in tension between the first and second portions (23,27), wherein the cable anchor includes a fastener coupled to the main body configured to clamp the second portion of the cable to the main body; a cable tensioning arrangement (22,26,28,42) configured to move the cable stop relative to the cable anchor to tension the cable around the braced pipe and secure the braced pipe against the pipe support surface.
Electric machine which has a slot in an active part (2,3), wherein the slot is sealed with a slot seal (1,1'), wherein the slot seal has a duct for guiding a fluid, wherein the slot seal (1,1') has an aperture, wherein the aperture opens the duct toward an air gap, wherein the aperture is a nozzle, wherein a phase change of the fluid can be used.
A light emitting diode with enhanced light extraction structures, comprising: an LED structure on a substrate comprising: an epitaxially grown p-type layer; an epitaxially grown n-type layer; and an epitaxially grown active layer between said p-type and n-type layers (14,15); a first current spreader layer adjacent to said LED structure and said substrate adjacent said first spreader opposite said LED structure; a second current spreader layer adjacent to said LED structure, opposite said first current spreader layer, wherein each of said first and second current spreading layers (16, 20) are a semiconducting or conducting layer that distributes current across the plane of the LED structure so that current is efficiently injected into said active layer; and light extraction structures disposed integral with said LED and comprise an array of light extraction elements (LEEs) at the interface between said substrate and said first current spreader layer and within said substrate, wherein said light extraction structures provide a spatially varying index of refraction in said LED, said light extraction structures providing surfaces to allow light that would otherwise be trapped within said LED to scatter, reflect and/or refract out of said LED. an LED structure on a substrate comprising: an epitaxially grown p-type layer; an epitaxially grown n-type layer; and an epitaxially grown active layer between said p-type and n-type layers (14,15); an epitaxially grown p-type layer; an epitaxially grown n-type layer; and an epitaxially grown active layer between said p-type and n-type layers (14,15); a first current spreader layer adjacent to said LED structure and said substrate adjacent said first spreader opposite said LED structure; a second current spreader layer adjacent to said LED structure, opposite said first current spreader layer, wherein each of said first and second current spreading layers (16, 20) are a semiconducting or conducting layer that distributes current across the plane of the LED structure so that current is efficiently injected into said active layer; and light extraction structures disposed integral with said LED and comprise an array of light extraction elements (LEEs) at the interface between said substrate and said first current spreader layer and within said substrate, wherein said light extraction structures provide a spatially varying index of refraction in said LED, said light extraction structures providing surfaces to allow light that would otherwise be trapped within said LED to scatter, reflect and/or refract out of said LED.