mhurhangee/ep-ind-claims huggingface dataset:
A method for determining the concentration of an analyte in an immunoassay comprising the steps of: (a) performing an immunoassay that involves a receptor attached to a solid support, wherein the immunoassay involves the step of combining a capture antibody attached to a microparticle, a conjugate comprising a detection antibody attached to a fluorescent label, and a sample suspected of containing an antigen in a reaction vessel and allowing a complex to form, the complex comprising the microparticle attached to the capture antibody, the analyte, and the conjugate; (b) acquiring a white light image of the reaction mixture in order to determine the location of the microparticle in the immunoassay of step (a) and a fluorescence image of the reaction mixture in order to determine the location of the conjugate in the immunoassay of step (a); (c) selecting at least one region of interest from the images acquired in step (b), wherein the at least one region of interest is a region from which light signals emanate from the complex formed in step (a); (d) selecting pixels in the at least one region of interest for analysis; (e) calculating and recording the average and variance of the counts per pixel for the pixels selected in step (d), wherein the counts per pixel is the number of photons counted per pixel per unit of time; (f) omitting pixels that have counts greater or less than a specified variance; (g) calculating average counts per pixel of the remaining pixels; and (h) determining the concentration of the analyte from the data in step (g). (a) performing an immunoassay that involves a receptor attached to a solid support, wherein the immunoassay involves the step of combining a capture antibody attached to a microparticle, a conjugate comprising a detection antibody attached to a fluorescent label, and a sample suspected of containing an antigen in a reaction vessel and allowing a complex to form, the complex comprising the microparticle attached to the capture antibody, the analyte, and the conjugate; (b) acquiring a white light image of the reaction mixture in order to determine the location of the microparticle in the immunoassay of step (a) and a fluorescence image of the reaction mixture in order to determine the location of the conjugate in the immunoassay of step (a); (c) selecting at least one region of interest from the images acquired in step (b), wherein the at least one region of interest is a region from which light signals emanate from the complex formed in step (a); (d) selecting pixels in the at least one region of interest for analysis; (e) calculating and recording the average and variance of the counts per pixel for the pixels selected in step (d), wherein the counts per pixel is the number of photons counted per pixel per unit of time; (f) omitting pixels that have counts greater or less than a specified variance; (g) calculating average counts per pixel of the remaining pixels; and (h) determining the concentration of the analyte from the data in step (g).
Fixing device for fixing an attachment part to a carrier part with a supporting part and with a number of latching elements, which extend away from one side of the supporting part, wherein a guide pillar is present on the side of the supporting part opposite the side of the latching elements, wherein said guide pillar supports, on one section spaced away from the supporting part, a head part and a counter bearing part encircling the guide pillar, which are spaced apart from one another, wherein the counter bearing part is connected to the guide pillar by means of at least one predetermined breaking point, characterised in that the counter bearing part is arranged on the side of the head part away from the supporting part and that that guide pillar extends away from the supporting part, such that the attachment part, in the event of a force acting in a destructive manner on the or on each predetermined breaking point, can be moved towards the carrier part guided by the guide pillar.
Device for the production of seamless oilfield pipes of steel having a length of more than 7 m, in particular up to 200 m, an outer diameter greater than 20 mm but less than 200 mm, and a wall thickness greater than 2.0 mm but less than 25.0 mm, with increased strength and improved toughness of the material as well as with a uniform microstructure over the entire length and over the cross-section of the pipe with a concentration of the respective alloying and accompanying elements in wt.-% of Carbon 0.03 to 0.5 Silicon (Si) 0.15 to 0.65 Manganese (Mn) 0.5 to 2.0 Phosphorus max. 0.03 Sulfur max. 0.03 Chromium (Cr) max. 1.5 Nickel (Ni) max. 1.0 Copper (Cu) max. 0.3 Aluminum (Al) 0.01 to 0.09 Titanium (Ti) max. 0.05 Molybdenum (Mo) max. 0.8 Vanadium 0.02 to 0.2 Tin (Sn) max. 0.08 Nitrogen max. 0.04 Niobium (Nb) max. 0.08 Calcium (Ca) max. 0.005 Iron (Fe) remainder formed with a stretch-reducing rolling mill and a switchable rapid cooling facility, which is arranged directly after the final forming stage of the mill, and is in the form of a through-flow cooling zone comprising a plurality of distributor rings for the cooling medium arranged concentrically around the rolled material, with distribution rings that may be positioned differently in the longitudinal direction for the cooling medium, wherein each distribution ring has at least three nozzles directed towards the axis, and wherein each distribution ring, or each group of rings, may be supplied with cooling medium under through-flow control.
An X-ray generator comprising: an X-ray tube adapted to radiate primary X-rays to a specimen; a housing accommodating the X-ray tube; an X-ray radiation area controller limiting a radiation area of the primary X-rays from the X-ray tube to the specimen; and a device holder holding the X-ray radiation area controller with respect to the housing, wherein the X-ray tube includes a vacuumized case, an electron ray source disposed as a cathode in the case and generating electron rays (e), and a target unit disposed as an anode facing the electron ray source in the case, with a base fixed to the case, and receiving electron rays (e) through a protruding free end, characterized in that the device holder has a fixed-base fixed to the housing, directly under the base of the target unit, and a supporting extension extending from the fixed-base in a protrusion direction of the target unit and supporting the X-ray radiation area controller, wherein a thermal expansion rate of the supporting extension in the protrusion direction (X +) is the same as a thermal expansion rate of the target unit in the protrusion direction (X+), and a distance from a portion of the supporting extension fixed to the housing to a central axis of the X-ray radiation area controller is the same as a distance from the base to an X-ray generation position at the free end of the target unit. an X-ray tube adapted to radiate primary X-rays to a specimen; a housing accommodating the X-ray tube; an X-ray radiation area controller limiting a radiation area of the primary X-rays from the X-ray tube to the specimen; and a device holder holding the X-ray radiation area controller with respect to the housing, wherein the X-ray tube includes a vacuumized case, an electron ray source disposed as a cathode in the case and generating electron rays (e), and a target unit disposed as an anode facing the electron ray source in the case, with a base fixed to the case, and receiving electron rays (e) through a protruding free end, characterized in that the device holder has a fixed-base fixed to the housing, directly under the base of the target unit, and a supporting extension extending from the fixed-base in a protrusion direction of the target unit and supporting the X-ray radiation area controller, wherein a thermal expansion rate of the supporting extension in the protrusion direction (X +) is the same as a thermal expansion rate of the target unit in the protrusion direction (X+), and a distance from a portion of the supporting extension fixed to the housing to a central axis of the X-ray radiation area controller is the same as a distance from the base to an X-ray generation position at the free end of the target unit.
A mobile communication terminal, comprising: a camera; and an angle-of-view changing unit configured to change an angle-of-view of the camera; and a controller configured to set the mobile communication terminal to an emergency mode or a normal mode according to whether or not a user of the mobile communication terminal is in an emergency situation, wherein in case the mobile communication terminal is set to the emergency mode, the controller is configured to control the angle-of-view changing unit to change the angle-of-view of the camera from a first angle-of-view to a second angle-of-view and to control the camera to capture surroundings corresponding to the first angle-of-view and the second angle-of-view. a camera; and an angle-of-view changing unit configured to change an angle-of-view of the camera; and a controller configured to set the mobile communication terminal to an emergency mode or a normal mode according to whether or not a user of the mobile communication terminal is in an emergency situation, wherein in case the mobile communication terminal is set to the emergency mode, the controller is configured to control the angle-of-view changing unit to change the angle-of-view of the camera from a first angle-of-view to a second angle-of-view and to control the camera to capture surroundings corresponding to the first angle-of-view and the second angle-of-view.
Method for controlling a laundry washing machine, said laundry washing machine comprising a washing tub external to a washing drum designed to contain laundry; said method being characterized by comprising: - performing a starting continuous water supply in the tub /drum, so that a prefixed amount of water in the tub is loaded; - after said starting continuous water supply operation has been completed, stop the water loading and sensing water levels (WL,WL1, WL2) in the tub two or more times at prefixed intervals (Δt1), one another; - detecting a siphon phenomenon in the draining circuit based on sensed water levels (WL, WL1, WL2); - performing an intermittent draining of the water from the tub to cause the siphon phenomenon to be deactivated, when the siphon phenomenon has been detected. - performing a starting continuous water supply in the tub /drum, so that a prefixed amount of water in the tub is loaded; - after said starting continuous water supply operation has been completed, stop the water loading and sensing water levels (WL,WL1, WL2) in the tub two or more times at prefixed intervals (Δt1), one another; - detecting a siphon phenomenon in the draining circuit based on sensed water levels (WL, WL1, WL2); - performing an intermittent draining of the water from the tub to cause the siphon phenomenon to be deactivated, when the siphon phenomenon has been detected.
A charging apparatus, comprising: - a connector having connection terminals electrically connectable to an object to be charged; - power lines electrically connected to the connection terminals; - a charger for charging the object to be charged, the charger being connected to the power lines; characterized by - a connector holder for holding the connector when an electrical connection with the object to be charged is disestablished; and - determining means configured to determine the conduction state of the power lines and of the connection terminals based on a detected discharge state; the connector holder having conduction means (21, 22) for bringing about conduction through the connection terminals. - a connector having connection terminals electrically connectable to an object to be charged; - power lines electrically connected to the connection terminals; - a charger for charging the object to be charged, the charger being connected to the power lines; - a connector holder for holding the connector when an electrical connection with the object to be charged is disestablished; and - determining means configured to determine the conduction state of the power lines and of the connection terminals based on a detected discharge state;
A transmitter comprising: a resource determination unit configured to determine whether a first type of resource has been allocated in response to generation of a transmission event for a predetermined type of information; and a transmitting unit configured to transmit the predetermined type of information to a receiver, using the first type of resource, without obtaining transmission permission, when the first type of resource has been allocated; wherein the transmitting unit is configured to transmit the predetermined type of information to the receiver, using candidate resources configured in the first type of resource, the candidate resources being fixedly defined in advance or being notified to the transmitter by the receiver; wherein the candidate resources are densely allocated to an end portion of the first type of resource in a time direction. a resource determination unit configured to determine whether a first type of resource has been allocated in response to generation of a transmission event for a predetermined type of information; and a transmitting unit configured to transmit the predetermined type of information to a receiver, using the first type of resource, without obtaining transmission permission, when the first type of resource has been allocated;
A multi-layer article having an interior, the article comprising: a polycarbonate layer comprising a bisphenol A polycarbonate; and an inner layer comprising poly(2,2,4,4-tetramethyl-1,3-cyclobutylene terephthalate)-co-poly(cyclohexanedimethylene terephthalate); wherein the inner layer forms a barrier between the polycarbonate layer and the interior and wherein the multi-layer article is a bi-layer; wherein the article has a decrease in transparency of less than or equal to 5% after sterilization in an autoclave for 30 minutes at 120°C; wherein a total thickness of the multi-layer article is 0.4 to 4 mm and the thickness of the inner layer is 0.1 to 1 mm. a polycarbonate layer comprising a bisphenol A polycarbonate; and an inner layer comprising poly(2,2,4,4-tetramethyl-1,3-cyclobutylene terephthalate)-co-poly(cyclohexanedimethylene terephthalate); wherein the inner layer forms a barrier between the polycarbonate layer and the interior and wherein the multi-layer article is a bi-layer; wherein the article has a decrease in transparency of less than or equal to 5% after sterilization in an autoclave for 30 minutes at 120°C; wherein a total thickness of the multi-layer article is 0.4 to 4 mm and the thickness of the inner layer is 0.1 to 1 mm.
A pendant remotely located from a welding power supply unit, wherein the pendant comprises: a selector configured to allow a user to select at least between a first welding process requiring a first polarity and a second welding process requiring a second polarity. a selector configured to allow a user to select at least between a first welding process requiring a first polarity and a second welding process requiring a second polarity.
A production method of a recording material comprising: applying to a base material using an inkjet method a first ink including a first polymerizable compound polymerizable by irradiation of ultraviolet light; forming a first layer by polymerizing and curing the first polymerizable compound by irradiation of ultraviolet light; applying to an area on which the first layer is formed using the inkjet method a second ink containing a second polymerizable compound polymerizable by irradiation of ultraviolet light and a metal powder; and forming a second layer by polymerizing and curing the second polymerizable compound by irradiation of ultraviolet light, the deposition volume of the first ink per unit area in the area being 2.0 g/m 2 or greater and 20.0 g/m 2 or less, the time from landing of droplets of the first ink until irradiation of ultraviolet light on the droplets being 0.0010 second or greater and 1.0 second or less, the deposition volume of the second ink per unit area of the area being 80 volume % or greater and 200 volume % or less than the deposition volume of the first ink, and the time from landing of droplets of the second ink until irradiation of ultraviolet light on the droplets being 5.0 seconds or greater and 60.0 seconds or less. applying to a base material using an inkjet method a first ink including a first polymerizable compound polymerizable by irradiation of ultraviolet light; forming a first layer by polymerizing and curing the first polymerizable compound by irradiation of ultraviolet light; applying to an area on which the first layer is formed using the inkjet method a second ink containing a second polymerizable compound polymerizable by irradiation of ultraviolet light and a metal powder; and forming a second layer by polymerizing and curing the second polymerizable compound by irradiation of ultraviolet light,
A process for converting paraffin to olefin comprising the following steps: (a) providing a hydrocarbon feedstock containing at least one paraffin having 1 to 12 carbon atoms and at least one olefin having 2 to 12 carbon atoms; (b) providing a catalyst containing at least one Group VIA and/or Group VIIA transition metal on a solid support; (c) pretreating the catalyst by contacting the catalyst with at least one reducing gas and at least one oxidizing gas; and (d) contacting the hydrocarbon feedstock and the pretreated catalyst at a temperature in the range of 200°C to 600°C. wherein the at least one paraffin is ethane, propane, n-butane, i-butane, n-pentane, i-pentane or mixtures thereof, and the at least one olefin is ethylene, propylene, 1-butene, cis-2-butene, trans-2-butene, n-pentene or mixtures thereof. (a) providing a hydrocarbon feedstock containing at least one paraffin having 1 to 12 carbon atoms and at least one olefin having 2 to 12 carbon atoms; (b) providing a catalyst containing at least one Group VIA and/or Group VIIA transition metal on a solid support; (c) pretreating the catalyst by contacting the catalyst with at least one reducing gas and at least one oxidizing gas; and (d) contacting the hydrocarbon feedstock and the pretreated catalyst at a temperature in the range of 200°C to 600°C. wherein the at least one paraffin is ethane, propane, n-butane, i-butane, n-pentane, i-pentane or mixtures thereof, and the at least one olefin is ethylene, propylene, 1-butene, cis-2-butene, trans-2-butene, n-pentene or mixtures thereof.
A method of manufacturing an assembly within a gas turbine engine, the method comprising: integrally building, using additive manufacturing techniques, a turbine vane, a combustor liner, a diffuser wall, and a support structure within an engine case, wherein: the turbine vane is forwardly attached to the diffuser wall in a radial direction relative to an axis of rotation and extends in the radial direction away from the axis of rotation; the turbine vane is attached at a distal end to the support structure; the support structure is attached to the combustor liner; and the support structure is less dense than the turbine vane, the combustor liner, and the diffuser wall. the turbine vane is forwardly attached to the diffuser wall in a radial direction relative to an axis of rotation and extends in the radial direction away from the axis of rotation; the turbine vane is attached at a distal end to the support structure; the support structure is attached to the combustor liner; and the support structure is less dense than the turbine vane, the combustor liner, and the diffuser wall.
Electronic road signalling panel for installation on a support surface in a predetermined signalling direction, comprising: signalling face comprising a plurality of light emitters arranged in a matrix along lines and columns of said emitters; a panel fixing structure to the support surface by the panel part opposite to that of the signalling face; wherein said fixing structure is configured to secure the panel such that the signalling face and support surface are arranged at a predetermined angle, herein referred to as installation angle (α, A); wherein said light emitters are coupled to the panel forming a predetermined angle between the light projection direction of the emitters and said signalling face, referred to herein as projection angle (β); wherein, in a section perpendicular to said support surface and parallel to the signalling direction, said installation (α, A) and projection (β) angles are interior alternating angles relative to the transverse formed by the signalling face; wherein the projection angle is greater than the installation angle, characterized in that the signaling face comprises a plurality of openings, each housing at least one respective light emitter, forming a pixel which is an element of an image to be signaled by the signaling face; wherein said openings are elongated in the signaling direction; wherein the openings are oval or rectangular or stadium-shaped. signalling face comprising a plurality of light emitters arranged in a matrix along lines and columns of said emitters; a panel fixing structure to the support surface by the panel part opposite to that of the signalling face; wherein said fixing structure is configured to secure the panel such that the signalling face and support surface are arranged at a predetermined angle, herein referred to as installation angle (α, A); wherein said light emitters are coupled to the panel forming a predetermined angle between the light projection direction of the emitters and said signalling face, referred to herein as projection angle (β); wherein, in a section perpendicular to said support surface and parallel to the signalling direction, said installation (α, A) and projection (β) angles are interior alternating angles relative to the transverse formed by the signalling face; wherein the projection angle is greater than the installation angle, characterized in that the signaling face comprises a plurality of openings, each housing at least one respective light emitter, forming a pixel which is an element of an image to be signaled by the signaling face; wherein said openings are elongated in the signaling direction; wherein the openings are oval or rectangular or stadium-shaped.