mhurhangee/ep-ind-claims huggingface dataset:
Container probe or pipe conductor probe, comprising: - a transmission antenna assembly comprising: - a coaxial waveguide having an inner conductor and a sheath conductor, wherein the sheath conductor is at a distance of a length on one end of the coaxial waveguide such that the inner conductor is exposed and provides a monopole, wherein the length of the monopole is lambda/8, and - a reflector which is arranged to reflect signals generated by the monopole, wherein the monopole and the reflector extend in parallel, and - a receiving antenna assembly which is spaced from the transmission antenna assembly and arranged to receive signals generated by means of the transmission antenna assembly. - a transmission antenna assembly comprising: - a coaxial waveguide having an inner conductor and a sheath conductor, wherein the sheath conductor is at a distance of a length on one end of the coaxial waveguide such that the inner conductor is exposed and provides a monopole, wherein the length of the monopole is lambda/8, and - a reflector which is arranged to reflect signals generated by the monopole, wherein the monopole and the reflector extend in parallel, and - a coaxial waveguide having an inner conductor and a sheath conductor, wherein the sheath conductor is at a distance of a length on one end of the coaxial waveguide such that the inner conductor is exposed and provides a monopole, wherein the length of the monopole is lambda/8, and - a reflector which is arranged to reflect signals generated by the monopole, wherein the monopole and the reflector extend in parallel, and - a receiving antenna assembly which is spaced from the transmission antenna assembly and arranged to receive signals generated by means of the transmission antenna assembly.
A process to prepare stoichiometric-nanostructured material produced through the steps comprising: generating a plasma utilizing a free-burning electric arc; forming an "active volume" through introduction of an oxidizing gas into the plasma, before the plasma is expanded into a field-free zone, in a region of current conduction between field generating elements, including the surface of the field generation elements; introducing a powder precursor material or materials into the plasma; and transferring energy from the plasma to the precursor material or materials and forming in the "active volume" at least one of stoichiometric-nanostructured material and a vapor that may be condensed to form a stoichiometric-nanostructured material; and wherein the stoichiometric-nanostructured material is a metal oxide, has a size distribution and range in mean diameter from 1 nm to 100 nm. generating a plasma utilizing a free-burning electric arc; forming an "active volume" through introduction of an oxidizing gas into the plasma, before the plasma is expanded into a field-free zone, in a region of current conduction between field generating elements, including the surface of the field generation elements; introducing a powder precursor material or materials into the plasma; and transferring energy from the plasma to the precursor material or materials and forming in the "active volume" at least one of stoichiometric-nanostructured material and a vapor that may be condensed to form a stoichiometric-nanostructured material; and wherein the stoichiometric-nanostructured material is a metal oxide, has a size distribution and range in mean diameter from 1 nm to 100 nm.
A sensing system comprising: a camera comprising an image sensor and a lens, the camera positioned to capture an image including an interior portion of an insect release tube, the camera oriented along a focal axis at an oblique angle to a longitudinal axis of the insect release tube, and a depth of focus of the camera is located within an interior volume of the insect release tube; and a processor in communication with a non-transitory computer-readable medium and configured to execute processor-executable code stored in the non-transitory computer-readable medium to: obtain an image from the camera; identify at least one in-focus moving insect in the image; and ignore any out-of-focus moving insect (840a, 840c) in the image. a camera comprising an image sensor and a lens, the camera positioned to capture an image including an interior portion of an insect release tube, the camera oriented along a focal axis at an oblique angle to a longitudinal axis of the insect release tube, and a depth of focus of the camera is located within an interior volume of the insect release tube; and a processor in communication with a non-transitory computer-readable medium and configured to execute processor-executable code stored in the non-transitory computer-readable medium to: obtain an image from the camera; identify at least one in-focus moving insect in the image; and ignore any out-of-focus moving insect (840a, 840c) in the image. obtain an image from the camera; identify at least one in-focus moving insect in the image; and ignore any out-of-focus moving insect (840a, 840c) in the image.
A machine-actuated removable safety closure for a tubular member, the closure comprising: a plurality of cam-actuated leaves residing above a cam plate of a plug body of the closure, the cam plate comprising drive holes for receiving respective drive pins of a rotatable plug holder, the drive pins of the rotatable plug holder engaging the drive holes of the cam plate and moving the plurality of cam-actuated leaves between a retracted first position and an expanded second position as the rotatable plug holder rotates between a start position and an end position; characterised in that the rotatable plug holder comprises a latch (63, 75); wherein the plug body comprises a central hub with means (53, 55) for receiving the latch (63, 75); and wherein the latch (63, 75) when received by the receiving means (53, 55) aligns at least one of the drive pins of the rotatable plug holder above a respective drive hole of the cam plate. a plurality of cam-actuated leaves residing above a cam plate of a plug body of the closure, the cam plate comprising drive holes for receiving respective drive pins of a rotatable plug holder, the drive pins of the rotatable plug holder engaging the drive holes of the cam plate and moving the plurality of cam-actuated leaves between a retracted first position and an expanded second position as the rotatable plug holder rotates between a start position and an end position; characterised in that the rotatable plug holder comprises a latch (63, 75); wherein the plug body comprises a central hub with means (53, 55) for receiving the latch (63, 75); and wherein the latch (63, 75) when received by the receiving means (53, 55) aligns at least one of the drive pins of the rotatable plug holder above a respective drive hole of the cam plate.
Heel unit for a touring binding of a glide board, comprising a binding body on which two coupling projections for connecting to a heel portion of a touring boot are movably held, the movable holder of the coupling projections being configured such that the coupling projections move away from a glide board plane, the movable holder of the coupling projections being configured so that said coupling projections move from a first position into a second position against the action of a release force, an intermediate distance between the coupling projections being larger in the second position than in the first position, characterised in that a distance between the coupling projections and the glide board plane is larger in the second position than in the first position.
An armor strike face comprising, one or more ceramic tiles having tile faces and tile edges, a layer of a permeable medium substantially covering the ceramic tile faces and a hyperelastic polymer permeating the permeable medium, bonded to the tile faces and substantially encapsulating the tiles; wherein the hyperelastic polymer is a polyurethane formed from a mixture of an MDI-polyester or polyether prepolymer, at least one long-chain polyester polyol comprising ethylene/butylene adipate diol, at least one short-chain diol comprising 1,4-butanediol, and a catalyst.
A surface acoustic wave filter, comprising: a piezoelectric substrate; a first surface acoustic wave resonator filter disposed on the piezoelectric substrate and being a two-port surface acoustic wave resonator filter utilizing longitudinal mode coupling and having IDTs (13a, 13b, 13c) each IDT comprising a pair of comb-shaped electrodes, the first surface acoustic wave resonator filter having a first ratio W/P of an electrode finger width W and an electrode finger pitch P of the comb-shaped electrodes, and a second surface acoustic wave resonator disposed on the piezoelectric substrate and being electrically connected in series with the first surface acoustic wave resonator filter on the piezoelectric substrate and having an IDT comprising a pair of comb-shaped electrodes, the second surface acoustic wave resonator having a second ratio W/P of an electrode finger width W and an electrode finger pitch P of the comb-shaped electrodes characterised in that the anti-resonance frequency of the second surface acoustic wave resonator is located in the vicinity of the high frequency side of the passband of the first surface acoustic wave resonator filter, the first surface acoustic wave resonator filter and the second surface acoustic wave resonator have the same film thickness h of the finger electrodes, and the second ratio W/P is smaller than the first ratio W/P, thereby reducing the difference between the resonance frequency and the anti-resonance frequency of the second surface acoustic wave filter. a piezoelectric substrate; a first surface acoustic wave resonator filter disposed on the piezoelectric substrate and being a two-port surface acoustic wave resonator filter utilizing longitudinal mode coupling and having IDTs (13a, 13b, 13c) each IDT comprising a pair of comb-shaped electrodes, the first surface acoustic wave resonator filter having a first ratio W/P of an electrode finger width W and an electrode finger pitch P of the comb-shaped electrodes, and a second surface acoustic wave resonator disposed on the piezoelectric substrate and being electrically connected in series with the first surface acoustic wave resonator filter on the piezoelectric substrate and having an IDT comprising a pair of comb-shaped electrodes, the second surface acoustic wave resonator having a second ratio W/P of an electrode finger width W and an electrode finger pitch P of the comb-shaped electrodes characterised in that
A flow cytometer for differentiating sperm cells, wherein intact live sperm cells have an associated light emission material bound to their nuclear DNA that stains X-chromosome bearing sperm and Y-chromosome bearing sperm in differing amounts, the flow cytometer comprising: a nozzle having an orifice for producing a fluid stream; an irradiation source generating an irradiation beam responsive to the light emission material coupled to sperm cells in the fluid stream; at least one photomultiplier tube, wherein said at least one photomultiplier tube converts light from said light emission source into at least one signal wherein the photomultiplier tube detects fluorescence from the light emission material and operates below the lower limit of linear operation; a photomultiplier controller that regulates the voltage to the at least one photomultiplier tube; and an analyzer responsive to said at least one signal which differentiates sperm cells as X-chromosome bearing sperm cells or Y-chromosome bearing sperm cells; the flow cytometer characterized in that the photomultiplier controller is modified to reduce the voltage at the photocathode of the at least one photomultipler tube to a voltage below the lower limit of linear operation of said photomultiplier tube when in use. a nozzle having an orifice for producing a fluid stream; an irradiation source generating an irradiation beam responsive to the light emission material coupled to sperm cells in the fluid stream; at least one photomultiplier tube, wherein said at least one photomultiplier tube converts light from said light emission source into at least one signal wherein the photomultiplier tube detects fluorescence from the light emission material and operates below the lower limit of linear operation; a photomultiplier controller that regulates the voltage to the at least one photomultiplier tube; and an analyzer responsive to said at least one signal which differentiates sperm cells as X-chromosome bearing sperm cells or Y-chromosome bearing sperm cells; the flow cytometer characterized in that the photomultiplier controller is modified to reduce the voltage at the photocathode of the at least one photomultipler tube to a voltage below the lower limit of linear operation of said photomultiplier tube when in use.
An isolator decoupler comprising: a shaft; a pulley journalled to the shaft; a clutch carrier journalled to the shaft through a one-way clutch, a torsion spring engaged between the pulley and the clutch carrier; the torsion spring loadable in an unwinding direction; the torsion spring and the pulley having a predetermined clearance between a torsion spring outside diameter surface and a pulley inside diameter surface; and whereby the torsion spring outside diameter surface and a pulley inside diameter surface come into a progressive frictional engagement by torque load dependent radial expansion of the torsion spring, characterised in that said isolator decoupler further comprises a thrust bushing press fitted to said pulley and disposed between said clutch carrier and said shaft, said thrust bushing having a thrust bushing stop and said clutch carrier having a clutch carrier stop, said thrust bushing stop and said clutch carrier stop cooperatively engageable during a no load condition to limit a relative rotation of said clutch carrier with respect to said pulley. a shaft; a pulley journalled to the shaft; a clutch carrier journalled to the shaft through a one-way clutch, a torsion spring engaged between the pulley and the clutch carrier; the torsion spring loadable in an unwinding direction; the torsion spring and the pulley having a predetermined clearance between a torsion spring outside diameter surface and a pulley inside diameter surface; and whereby the torsion spring outside diameter surface and a pulley inside diameter surface come into a progressive frictional engagement by torque load dependent radial expansion of the torsion spring, characterised in that said isolator decoupler further comprises a thrust bushing press fitted to said pulley and disposed between said clutch carrier and said shaft, said thrust bushing having a thrust bushing stop and said clutch carrier having a clutch carrier stop, said thrust bushing stop and said clutch carrier stop cooperatively engageable during a no load condition to limit a relative rotation of said clutch carrier with respect to said pulley.
A processing unit comprising: one or more first cores, wherein the one or more first cores and one or more second cores are part of a heterogeneous computing system and share a system memory, and characterized in that each of the first cores further comprises: a first level-1, in the following also referred to as L1, cache coupled to an instruction-based computing module of the first core to receive a first cache access request, wherein the first L1 cache supports snooping by the one or more second cores; and a second L1 cache coupled to a fixed-function pipeline module of the first core to receive a second cache access request, wherein the second L1 cache does not support snooping; and a level-2, in the following also referred to as L2, cache shared by the one or more first cores and coupled to the first L1 cache and the second L1 cache, wherein the L2 cache supports snooping by the one or more second cores, and wherein the L2 cache receives the first cache access request from the first L1 cache, and receives the second cache access request from the second L1 cache. one or more first cores, wherein the one or more first cores and one or more second cores are part of a heterogeneous computing system and share a system memory, and characterized in that each of the first cores further comprises: a first level-1, in the following also referred to as L1, cache coupled to an instruction-based computing module of the first core to receive a first cache access request, wherein the first L1 cache supports snooping by the one or more second cores; and a second L1 cache coupled to a fixed-function pipeline module of the first core to receive a second cache access request, wherein the second L1 cache does not support snooping; and a first level-1, in the following also referred to as L1, cache coupled to an instruction-based computing module of the first core to receive a first cache access request, wherein the first L1 cache supports snooping by the one or more second cores; and a second L1 cache coupled to a fixed-function pipeline module of the first core to receive a second cache access request, wherein the second L1 cache does not support snooping; and a level-2, in the following also referred to as L2, cache shared by the one or more first cores and coupled to the first L1 cache and the second L1 cache, wherein the L2 cache supports snooping by the one or more second cores, and wherein the L2 cache receives the first cache access request from the first L1 cache, and receives the second cache access request from the second L1 cache.
A gear head for a positive feed tool that is configured for engagement with a motor and an add-on component, the gear head including: a spindle having an elongated shape and configured to move in advance and retract directions along a feed path; a plurality of gears (31, 32, 41, 42) configured to be driven to rotate the spindle and move the spindle along the feed path; characterized by: an air manifold; first and second manifold interfaces (51, 52) each in communication with the air manifold and including a common number and arrangement of ports to receive either the motor or the add-on component. a spindle having an elongated shape and configured to move in advance and retract directions along a feed path; a plurality of gears (31, 32, 41, 42) configured to be driven to rotate the spindle and move the spindle along the feed path; characterized by: an air manifold; first and second manifold interfaces (51, 52) each in communication with the air manifold and including a common number and arrangement of ports to receive either the motor or the add-on component. an air manifold; first and second manifold interfaces (51, 52) each in communication with the air manifold and including a common number and arrangement of ports to receive either the motor or the add-on component.
An active debridement wound dressing comprising: a wound interface layer comprising an abrasive surface configured to contact a wound and mechanically debride the wound when the wound interface layer moves relative to the wound; and an active layer coupled to the wound interface layer and comprising a pneumatic structure configured to expand and collapse responsive to a pneumatic pressure applied to the active layer, thereby causing the wound interface layer to move relative to the wound and mechanically debride the wound; characterised in that the pneumatic structure comprises: a central pneumatic hub; and a plurality of radial segments extending radially outward from the central hub. a wound interface layer comprising an abrasive surface configured to contact a wound and mechanically debride the wound when the wound interface layer moves relative to the wound; and an active layer coupled to the wound interface layer and comprising a pneumatic structure configured to expand and collapse responsive to a pneumatic pressure applied to the active layer, thereby causing the wound interface layer to move relative to the wound and mechanically debride the wound; characterised in that the pneumatic structure comprises: a central pneumatic hub; and a plurality of radial segments extending radially outward from the central hub. a central pneumatic hub; and a plurality of radial segments extending radially outward from the central hub.
A DNA origami construct (1, 11) for docking to a substrate (5, 15), said substrate having a nanopore (6, 16), said DNA origami construct having a body formation which defines an aperture, and a tail formation (3, 13) extending from the body formation for threading through the nanopore of the substrate, to dock the DNA origami construct to the substrate, with the aperture of the DNA origami construct and the nanopore of the substrate in alignment.
A mutant of Glucose Oxidase (GOx) having at least 95 % identity with the wild-type GOx of Penicillium amagasakiense, characterized in that its amino acid at position 564, with reference to the protein sequence of the wild-type GOx of Penicillium amagasakiense of SEQ. ID. N°2, is substituted by an amino acid selected from the group formed by a serine (so-called V564S mutant), threonine (so-called V5644T mutant) or isoleucine (so-called V564I mutant), and in that said mutant is less oxygen-sensitive than the wild-type GOx of Penicillium amagasakiense.
A method for a fault diagnosis of a refrigeration system, comprising: Step S 100, receiving a fault alarm sent by an associated refrigeration system, and acquiring a fault cause list associated with the fault alarm from a storage module storing fault cause lists, associations of the fault cause lists and fault alarms, repair means lists, and associations of the repair means lists and fault causes; Step S200, determining whether to run a fault diagnosis system associated with the fault alarm; and Step S300, when the fault diagnosis system associated with the fault alarm is run, checking the associated refrigeration system sequentially according to the fault cause list, and acquiring a fault cause and a repair means list associated with the fault cause from the storage module, characterized in that when the fault cause list comprises multiple fault causes, the multiple fault causes are sorted according to priorities based on operation convenience and fault possibilities, a fault cause with high operation convenience and a high fault possibility having a high priority, wherein the associated refrigeration system is checked according to the priority order of the fault causes in Step S300. Step S 100, receiving a fault alarm sent by an associated refrigeration system, and acquiring a fault cause list associated with the fault alarm from a storage module storing fault cause lists, associations of the fault cause lists and fault alarms, repair means lists, and associations of the repair means lists and fault causes; Step S200, determining whether to run a fault diagnosis system associated with the fault alarm; and Step S300, when the fault diagnosis system associated with the fault alarm is run, checking the associated refrigeration system sequentially according to the fault cause list, and acquiring a fault cause and a repair means list associated with the fault cause from the storage module, characterized in that when the fault cause list comprises multiple fault causes, the multiple fault causes are sorted according to priorities based on operation convenience and fault possibilities, a fault cause with high operation convenience and a high fault possibility having a high priority, wherein the associated refrigeration system is checked according to the priority order of the fault causes in Step S300.