mhurhangee/ep-ind-claims huggingface dataset:
An apparatus for measuring a pipe within a well structure, the apparatus comprising: a tubular body formed of a non-magnetic alloy metal, the tubular body extending between a first end and a second end, the tubular body having an inner surface defining a passage therethrough and an outer surface; a first flange connected to the first end of the tubular body, the first flange having an inner surface defining a passage therethrough, the passage of the first flange corresponding to the passage of the tubular body; a second flange connected to the second end of the tubular body, the second flange having an inner surface defining a passage therethrough, the passage of the second flange corresponding to the passage of the tubular body; at least one sensor stack comprising a sensor adapted to measure magnetic field strength; and at least one magnetic stack comprising at least one magnet, wherein the at least one sensor stack and the at least one magnetic stack are external to the outer surface of the tubular body, wherein the apparatus is connectable inline with the well structure, characterized in that the first flange and the second flange are formed of a magnetic alloy metal. a tubular body formed of a non-magnetic alloy metal, the tubular body extending between a first end and a second end, the tubular body having an inner surface defining a passage therethrough and an outer surface; a first flange connected to the first end of the tubular body, the first flange having an inner surface defining a passage therethrough, the passage of the first flange corresponding to the passage of the tubular body; a second flange connected to the second end of the tubular body, the second flange having an inner surface defining a passage therethrough, the passage of the second flange corresponding to the passage of the tubular body; at least one sensor stack comprising a sensor adapted to measure magnetic field strength; and at least one magnetic stack comprising at least one magnet, wherein the at least one sensor stack and the at least one magnetic stack are external to the outer surface of the tubular body, wherein the apparatus is connectable inline with the well structure, characterized in that the first flange and the second flange are formed of a magnetic alloy metal.
A semiconductor light emitting device, comprising: a plurality of compound semiconductor layers comprising a first conductivity type semiconductor layer, an active layer, and a second conductivity type semiconductor layer; a first semiconductor layer disposed on the second conductivity type semiconductor layer; a first electrode disposed under the plurality of compound semiconductor layers and the first semiconductor layer; a second electrode layer having an unevenness disposed on the plurality of compound semiconductor layers and the first semiconductor layer; and a conductive support member on the second electrode layer, wherein the first semiconductor layer is protruded from the upper surface of the second conductivity type semiconductor layer to have an uneven structure, the undersurface of the second electrode layer has an uneven shape corresponding to the uneven shape of the first semiconductor layer, a portion of the second electrode layer disposed on the second conductivity type semiconductor layer provides a recess, a portion of the second electrode layer disposed directly on the first semiconductor layer provides a protrusion having a shape corresponding to the first semiconductor layer, and the protrusion of the second electrode layer is inclined the semiconductor light emitting device being characterized in that it further comprises a light-transmitting channel layer around the circumference of the top surface of the plurality of compound semiconductor layers.. a plurality of compound semiconductor layers comprising a first conductivity type semiconductor layer, an active layer, and a second conductivity type semiconductor layer; a first semiconductor layer disposed on the second conductivity type semiconductor layer; a first electrode disposed under the plurality of compound semiconductor layers and the first semiconductor layer; a second electrode layer having an unevenness disposed on the plurality of compound semiconductor layers and the first semiconductor layer; and a conductive support member on the second electrode layer, wherein the first semiconductor layer is protruded from the upper surface of the second conductivity type semiconductor layer to have an uneven structure, the undersurface of the second electrode layer has an uneven shape corresponding to the uneven shape of the first semiconductor layer, a portion of the second electrode layer disposed on the second conductivity type semiconductor layer provides a recess, a portion of the second electrode layer disposed directly on the first semiconductor layer provides a protrusion having a shape corresponding to the first semiconductor layer, and the protrusion of the second electrode layer is inclined the semiconductor light emitting device being characterized in that it further comprises a light-transmitting channel layer around the circumference of the top surface of the plurality of compound semiconductor layers..
A vacuum pump, in particular a turbomolecular pump, comprising a housing; a rotatably supported shaft for at least one pump stage; a holder for a bearing for supporting the shaft, said holder being disposed in a suction region of the vacuum pump; and a protective device (44, 44a, 44b, 44c, 44d, 44e) preventing the penetration of objects into the suction region, characterized in that the protective device (44, 44a, 44b, 44c, 44d, 44e) is fastened to the holder.
System adapted for time-resolved fluoroimmunoassay detection, the system comprising: - a receptacle with a sample volume adapted for receiving a sample therein; - a light source adapted to emit pulsed excitation light; - illumination optics adapted to collect the pulsed excitation light from the light source and to deliver said pulsed excitation light to the sample volume in the receptacle; - a detection device adapted for gated detection of fluorescence radiation at least in a detection spectral range; - detection optics adapted to collect fluorescence radiation from the receptacle at least in the detection spectral range and deliver said fluorescence radiation to the detection device; and - an optical filter device (160, 161, 162) configured for the separation of excitation light and detection light; - wherein the light source is a light emitting diode with a peak intensity emission at a wavelength below 355nm; - wherein the system further comprises a control unit configured to at least control timing of a detection cycle, the detection cycle comprising an excitation pulse emitted by the light emitting diode, followed by a detection period for the detection of fluorescence radiation by the detection device, wherein the detection period is separated from the excitation pulse by a detection delay; - wherein a pulse duration of the excitation pulse is at least 10μs; and - wherein the detection delay is between 200μs and 600μs characterized in that the illumination optics is an imaging optics arranged to project an image of the light emitting diode on an image plane in the sample volume. - a receptacle with a sample volume adapted for receiving a sample therein; - a light source adapted to emit pulsed excitation light; - illumination optics adapted to collect the pulsed excitation light from the light source and to deliver said pulsed excitation light to the sample volume in the receptacle; - a detection device adapted for gated detection of fluorescence radiation at least in a detection spectral range; - detection optics adapted to collect fluorescence radiation from the receptacle at least in the detection spectral range and deliver said fluorescence radiation to the detection device; and - an optical filter device (160, 161, 162) configured for the separation of excitation light and detection light; - wherein the light source is a light emitting diode with a peak intensity emission at a wavelength below 355nm; - wherein the system further comprises a control unit configured to at least control timing of a detection cycle, the detection cycle comprising an excitation pulse emitted by the light emitting diode, followed by a detection period for the detection of fluorescence radiation by the detection device, wherein the detection period is separated from the excitation pulse by a detection delay; - wherein a pulse duration of the excitation pulse is at least 10μs; and - wherein the detection delay is between 200μs and 600μs
A data service processing method for execution by a network side device in a roaming scenario, comprising: acquiring information about an alternative roaming provider selected by a subscriber, wherein the information about the alternative roaming provider comprises at least an identifier of the alternative roaming provider, wherein the alternative roaming provider is a roaming service provider in a roaming area, wherein the roaming service provider is a mobile virtual network operator, MVNO, and wherein the identifier of the roaming service provider, is a virtual access point name, APN, wherein the virtual APN is different from an actually used APN; selecting a gateway according to the acquired information about the alternative roaming provider; and performing data service processing by using the gateway. acquiring information about an alternative roaming provider selected by a subscriber, wherein the information about the alternative roaming provider comprises at least an identifier of the alternative roaming provider, wherein the alternative roaming provider is a roaming service provider in a roaming area, wherein the roaming service provider is a mobile virtual network operator, MVNO, and wherein the identifier of the roaming service provider, is a virtual access point name, APN, wherein the virtual APN is different from an actually used APN; selecting a gateway according to the acquired information about the alternative roaming provider; and performing data service processing by using the gateway.
A dispensing unit for a thin film dispenser, comprising: a base; a wheel assembly mounted on the base and comprising a tape supplying wheel mounted rotatably on the base; and a used tape collecting wheel mounted rotatably on the base; a thin film mounted around the wheel assembly; and a locking device resiliently disposed on the base, having at least one resilient engaging arm formed on the base, and selectively and directly engaging at least one of the tape supplying wheel and the used tape collecting wheel to prevent the wheel assembly from rotating; wherein the dispensing unit is characterized in that each one of the at least one resilient engaging arm of the locking device has at least one end connected with the base. a base; a wheel assembly mounted on the base and comprising a tape supplying wheel mounted rotatably on the base; and a used tape collecting wheel mounted rotatably on the base; a tape supplying wheel mounted rotatably on the base; and a used tape collecting wheel mounted rotatably on the base; a thin film mounted around the wheel assembly; and a locking device resiliently disposed on the base, having at least one resilient engaging arm formed on the base, and selectively and directly engaging at least one of the tape supplying wheel and the used tape collecting wheel to prevent the wheel assembly from rotating; wherein the dispensing unit is characterized in that each one of the at least one resilient engaging arm of the locking device has at least one end connected with the base.
Electrical enclosure (1, 2) provided with an interconnection system for equipment items such as computers accommodated in said enclosure, for which the interconnection system comprises at least one waveguide (3, 4) forming part of the framework of the enclosure, said waveguide being provided with holes (5, 6) arranged facing housings for accommodating said equipment items, said holes being dimensioned to form a screen to the passage of wireless communication radiofrequency waves to be transmitted by said waveguide and form a screen to external waves, characterized in that at least one waveguide (3, 4) is configured to serve also as grounding link and/or as functional current return element for the equipment items which are linked thereto.
An optical system (13, 130), configured to direct a light beam emitted from each of a plurality of light emitting parts (ep) arranged to be aligned along a first direction to a single optical fiber, comprising an optical element (15, 150) having an emission surface (es) that is located closest to the optical fiber and that refracts the light beam emitted from each of the plurality of light emitting parts (ep) into a different orientation in a second direction that is orthogonal to the first direction, and an incident surface (is) that is located closest to the plurality of light emitting parts (ep), characterized in that the emission surface (es) includes a lens array including a plurality of lens elements (16a, 16b, 16c, 160a, 160b, 160c) arranged to be aligned along the first direction at the same position in the second direction so that the respective light beams emitted from the plurality of light emitting parts (ep) have different light collection centers (cc) which are offset from each other at least in the second direction, the emission surface (es) includes a toroidal surface portion having an arcuate section orthogonal to the first direction, and the incident surface (is) includes a toroidal surface portion having an arcuate section orthogonal to the first direction.
A method of manufacturing a tube glass product, the method comprising a step of cutting a tube glass to provide the tube glass product, the cutting step comprising: irradiating the tube glass with laser light (L, L1, L2, Ln) having a focal point (F, F', F1, F2, Fn) adjusted to an inside of the tube glass, to thereby form an inner crack region (C1, C3, C4, C5) including one or more cracks in a portion of the tube glass in a circumferential direction of the tube glass through multiphoton absorption that occurs in an irradiation region of the laser light ((L, L1, L2, Ln); and generating, in the tube glass, a stress that urges the one or more cracks in the inner crack region (C1, C3, C4, C5) to propagate in the circumferential direction of the tube glass to cause the one or more cracks to propagate throughout an entire circumference of the tube glass, to thereby cut the tube glass, wherein the tube glass is a continuous tube glass subjected to tube drawing forming, and characterized in that the cutting step is provided during conveyance of the continuous tube glass. irradiating the tube glass with laser light (L, L1, L2, Ln) having a focal point (F, F', F1, F2, Fn) adjusted to an inside of the tube glass, to thereby form an inner crack region (C1, C3, C4, C5) including one or more cracks in a portion of the tube glass in a circumferential direction of the tube glass through multiphoton absorption that occurs in an irradiation region of the laser light ((L, L1, L2, Ln); and generating, in the tube glass, a stress that urges the one or more cracks in the inner crack region (C1, C3, C4, C5) to propagate in the circumferential direction of the tube glass to cause the one or more cracks to propagate throughout an entire circumference of the tube glass, to thereby cut the tube glass, wherein the tube glass is a continuous tube glass subjected to tube drawing forming, and characterized in that the cutting step is provided during conveyance of the continuous tube glass.
An apparatus for processing a material, in particular for cutting the material; the material being preferably in the form of a mainly two-dimensional, flexible or compliant piece or sheet, the material being especially in the shape of a web or belt, that is to say, it is in the form of a respective roll and is preferably a fabric, to be used especially to make wearing apparel, for covering products or for other purposes; the material being preferably intended to make, specifically by cutting, suitably shaped pieces or portions used especially to make corresponding items of apparel, such as garments, dresses; the apparatus comprising a means, or frame for mounting a means, or surface, for supporting, specifically for resting, the material, and also for mounting a means for processing, in particular for cutting, the material, specifically mounted on a respective supporting means or head; the apparatus comprises means for capturing at least one image of the material; the means for capturing the image of the material and the material, or the respective surface the material itself is supported or rested on, are movable relative to each other, the means for capturing the image is movable relative to the material, supported on the supporting or rest surface, that is, relative to the supporting or rest surface itself; the means for capturing the image being movable relatively along the longitudinal direction of extension of the material or of the surface the material is supported or rested on; the means for capturing the image of the material comprises or is in the form of a corresponding camera, in particular one whose lens is directed towards the material, and specifically is directed downwards, that is, preferably, one whose corresponding optical axis is perpendicular to the material or to the surface which it is supported or rested on; apparatus being characterized in that the means, or camera, for capturing the image of the material capture a corresponding image of the material during a corresponding movement relative to the material, while the capturing means, or camera, moves relative to the selfsame material; the camera is adapted to capture the entire transverse width of the material and/or the entire, transverse width of the surface which it is supported or rested on, the camera being, more specifically, positioned at a height relative to the material, or to the surface which the material is supported or rested on, such as to capture the entire transverse width of the material and/or the entire, transverse width of the supporting surface.
A die (302,304) for a printhead, comprising: a plurality of fluid feed holes disposed in a line parallel to a longitudinal axis of the die (302,304), wherein the fluid feed holes are formed through a substrate of the die; a plurality of fluidic actuators (1516,1518,1802), proximate to the plurality of fluid feed holes, to eject fluid received from the fluid feed holes; a plurality of field-effect transistors parallel to the plurality of fluid feed holes, where each of the plurality of fluidic actuators (1516,1518,1802) is powered by an associated field effect transistor; and logic circuitry to actuate the plurality of field-effect transistors on the die (302,304) on an opposite side of the fluid feed holes from the plurality of field-effect transistors, wherein traces, disposed between the fluid feed holes, electrically couple the logic circuitry to the plurality of field-effect transistors; and characterised in that the die (302,304) has a repeating structure comprising one fluid feed hole, two fluidic actuators (1516,1518,1802), and two field-effect transistors placed at an interval of two times a dot pitch in a line along the die. a plurality of fluid feed holes disposed in a line parallel to a longitudinal axis of the die (302,304), wherein the fluid feed holes are formed through a substrate of the die; a plurality of fluidic actuators (1516,1518,1802), proximate to the plurality of fluid feed holes, to eject fluid received from the fluid feed holes; a plurality of field-effect transistors parallel to the plurality of fluid feed holes, where each of the plurality of fluidic actuators (1516,1518,1802) is powered by an associated field effect transistor; and logic circuitry to actuate the plurality of field-effect transistors on the die (302,304) on an opposite side of the fluid feed holes from the plurality of field-effect transistors, wherein traces, disposed between the fluid feed holes, electrically couple the logic circuitry to the plurality of field-effect transistors; and characterised in that the die (302,304) has a repeating structure comprising one fluid feed hole, two fluidic actuators (1516,1518,1802), and two field-effect transistors placed at an interval of two times a dot pitch in a line along the die.
Electronic module, in particular for a transmission controller or an electric vehicle, comprising a printed circuit board element, a base having at least one first electrically conductive contact element (44, 45), wherein the base is fastened on the printed circuit board element and is electrically connected to the printed circuit board element, at least one electronic component, wherein the electronic component comprises at least one second electrically conductive contact element (64, 65), wherein the electronic component is electrically connected to the base via an electrical contact region between the first contact element (44, 45) and the second contact element (64, 65), characterized in that a section (75, 76) of the first contact element (44, 45) protrudes out of the base on a first side of the base facing away from the printed circuit board element, wherein the section (75, 76) of the first contact element (44, 45) protruding out of the base is at least partially accommodated in a cavity of the electronic component, wherein the section (75, 76) of the first contact element (44, 45) protruding out of the base and/or a section of the second contact element (64, 65) is formed resilient in such a way that the electronic component is mechanically fastened on the base by means of spring force between the first contact element (44, 45) and the second contact element (64, 65).