mhurhangee/ep-ind-claims huggingface dataset:
Device for detecting microleakages from kegs and similar containers containing a liquid with CO2 under pressure and provided with an outlet mouth provided with a sealing valve, the device comprising a detection head adapted to be coupled with sealing to said keg at said outlet mouth, said detection head comprising a measuring chamber adapted to face over said outlet mouth of said keg; characterized in that said detection head comprises a light source having an infrared component with wavelengths corresponding to CO2 absorption wavelengths facing the measuring chamber; a light sensor facing said measuring chamber and capable of detecting said infrared light component with wavelengths corresponding to the CO2 absorption wavelengths emitted in said measuring chamber by said light source; at least a first air inlet into said measuring chamber and at least one air vent from said measuring chamber.
A polarizing plate comprising: a polarizer; and a protective layer, which is on one surface or both surfaces of the polarizer directly adjoining the polarizer, wherein the protective layer is a cured material of a photocurable composition for a polarizing plate protective layer comprising an epoxy compound and an oxetane-based compound, and in a spectrum by Fourier transform infrared spectroscopy (FTIR) of the protective layer, the following Equation 1 is satisfied: 0.9 ≤ I e I a + I e in Equation 1, I e is a ratio of peak intensity at 920 cm -1 to 900 cm -1 with respect to peak intensity at 1740 cm -1 to 1700 cm -1 in the spectrum by Fourier transform infrared spectroscopy (FTIR) of the protective layer; and I a is peak intensity at 1420 cm -1 to 1380 cm -1 with respect to peak intensity at 1740 cm -1 to 1700 cm -1 in the spectrum by Fourier transform infrared spectroscopy (FTIR) of the protective layer. a polarizer; and a protective layer, which is on one surface or both surfaces of the polarizer directly adjoining the polarizer, wherein the protective layer is a cured material of a photocurable composition for a polarizing plate protective layer comprising an epoxy compound and an oxetane-based compound, and in a spectrum by Fourier transform infrared spectroscopy (FTIR) of the protective layer, the following Equation 1 is satisfied: 0.9 ≤ I e I a + I e in Equation 1, I e is a ratio of peak intensity at 920 cm -1 to 900 cm -1 with respect to peak intensity at 1740 cm -1 to 1700 cm -1 in the spectrum by Fourier transform infrared spectroscopy (FTIR) of the protective layer; and I a is peak intensity at 1420 cm -1 to 1380 cm -1 with respect to peak intensity at 1740 cm -1 to 1700 cm -1 in the spectrum by Fourier transform infrared spectroscopy (FTIR) of the protective layer.
Flexible element for forming a piece of disposable cutlery, especially a spoon, comprising an elongated body made from thin, bendable material comprising a handle portion with a free end and an acting portion with a free end, wherein at least a first bending line (6, 7) on the body extends in the longitudinal direction of the body from the area of the free end of the handle portion towards the acting portion, facilitating that the body may be bent longitudinally and that in the so bent position, the working position, the handle portion then has a substantially V-shaped or U-shaped cross section, whereby an elongated opening is arranged in the vicinity of the free end of the handle portion and a fifth bending line extends substantially transverse to the first bending line (6,7), visually dividing the body into the handling portion and the acting portion, characterized in that the opening comprises at its one side a lip-shaped means, pointing from the free end of the handle portion towards the acting portion, and the position of the fifth bending line is chosen so that when the body is folded along the fifth bending line, a part of the free end of the acting portion can be inserted into the opening, behind the lip.
A method of assembling a nacelle for a gas turbine engine that includes an inlet end, an exhaust end, and an axis that extends through the engine from the inlet end through the exhaust end, said method comprising: providing an arcuate fan cowl sized to cover at least a first portion of the engine; providing a transcowl circumscribing a second portion of the engine, wherein the fan cowl overlaps a portion of the transcowl; and coupling the fan cowl to an engine mounting pylon and the engine such that the fan cowl is slideable along the axis toward at least one of the inlet end and the exhaust end, and the transcowl is slideable along the axis toward at least one of the inlet end and the exhaust end, wherein the fan cowl is independently slideable with respect to the transcowl along the axis toward at least one of the inlet end and the exhaust end. providing an arcuate fan cowl sized to cover at least a first portion of the engine; providing a transcowl circumscribing a second portion of the engine, wherein the fan cowl overlaps a portion of the transcowl; and coupling the fan cowl to an engine mounting pylon and the engine such that the fan cowl is slideable along the axis toward at least one of the inlet end and the exhaust end, and the transcowl is slideable along the axis toward at least one of the inlet end and the exhaust end, wherein the fan cowl is independently slideable with respect to the transcowl along the axis toward at least one of the inlet end and the exhaust end.
An NSAID or a pharmaceutically acceptable salt thereof for use in the topical treatment of coughs on the mucous membrane of the throat of a person in need of treatment for a cough wherein the NSAID is flurbiprofen.
Torsional vibration damper (51, 71, 101, 121) having a first centrifugal mass (52, 72, 102, 122) and a second centrifugal mass (53, 73, 103, 123) which are arranged such that they can be rotated relative to one another counter to the force of at least one force accumulator, and which are mounted relative to one another by means of an axial bearing (55, 76, 105, 131) and by means of a radial bearing (54, 74, 104, 124), the axial bearing (55, 76, 105, 131) and the radial bearing (54, 74, 104, 124) being configured as plain bearings, and a number of screwing bores (56, 75, 125) for screwing to a crankshaft of an internal combustion engine being arranged in one of the centrifugal masses (53, 73, 103, 123, 52, 72, 102, 122), one of the two bearings (54, 74, 104, 124, 55, 76, 105, 131) of axial bearing and radial bearing being arranged radially inside the screwing bores (56, 75, 125), and the other one of the two bearings (54, 74, 104, 124, 55, 76, 105, 131) of axial bearing and radial bearing being arranged radially outside the screwing bores (56, 75, 125), the two centrifugal masses (52, 72, 102, 122, 53, 73, 103, 123) in each case having a planar annular sliding face (62, 63) which extends in the radial direction and in the circumferential direction, which sliding faces (62, 63) lie substantially opposite one another, a bearing ring of the axial bearing being arranged between the two sliding faces (62, 63), characterized in that a friction ring is arranged between the bearing ring of the axial bearing and a sliding face of a centrifugal mass.
Method for recovering lactic acid from an aqueous mixture comprising the steps of: a) providing an aqueous mixture comprising lactic acid and at least 5 wt. % dissolved magnesium chloride, based on the total weight of water and dissolved material in the aqueous mixture; b) extracting the lactic acid from the aqueous mixture into a first organic liquid comprising at least 90 wt.% of an organic solvent selected from the group consisting of C5+ ketones, diethylether and methyl-tertiary-butyl-ether, thereby obtaining an organic lactic acid solution and an aqueous waste liquid comprising magnesium chloride; and, c) extracting the lactic acid from the organic lactic acid solution into an aqueous liquid, thereby obtaining an aqueous lactic acid solution and a second organic liquid. a) providing an aqueous mixture comprising lactic acid and at least 5 wt. % dissolved magnesium chloride, based on the total weight of water and dissolved material in the aqueous mixture; b) extracting the lactic acid from the aqueous mixture into a first organic liquid comprising at least 90 wt.% of an organic solvent selected from the group consisting of C5+ ketones, diethylether and methyl-tertiary-butyl-ether, thereby obtaining an organic lactic acid solution and an aqueous waste liquid comprising magnesium chloride; and, c) extracting the lactic acid from the organic lactic acid solution into an aqueous liquid, thereby obtaining an aqueous lactic acid solution and a second organic liquid.
An escalator or moving walk support structure comprising: an escalator or moving walk truss support, said truss support having lateral slots (22, 21) therein; an intermediate vertical member having a first end and a second end, said intermediate vertical member connected to said truss support through said slots (20, 21) at said first end thereof and to a building support at said second end thereof such that once a predetermined coefficient of friction is overcome, said intermediate vertical member is free to move laterally with respect to said truss support, characterized in, that said first end of said intermediate vertical support includes a foot attached thereto, said foot being connected to a first sliding plate by connection screws extending through the sliding plate and said lateral slots (20, 21). an escalator or moving walk truss support, said truss support having lateral slots (22, 21) therein; an intermediate vertical member having a first end and a second end, said intermediate vertical member connected to said truss support through said slots (20, 21) at said first end thereof and to a building support at said second end thereof such that once a predetermined coefficient of friction is overcome, said intermediate vertical member is free to move laterally with respect to said truss support, characterized in, that said first end of said intermediate vertical support includes a foot attached thereto, said foot being connected to a first sliding plate by connection screws extending through the sliding plate and said lateral slots (20, 21).
Method of calculation and display of the true airspeed of a rotorcraft comprising at least a rear fin and at least one main rotor providing at least essentially the main levitation of the rotorcraft and a tail rotor providing at least the yaw-steering of the rotorcraft, said method comprising an operation of calculating the true airspeed of the rotorcraft from measurements (V1, V2) provided by at least one omnidirectional anemometer (10, 11) and an operation of display by a screen of the true airspeed of the rotorcraft derived from said calculation operation, characterised in that said operation of calculating the true airspeed of the rotorcraft is carried out from measurements (V1, V2) provided by at least one omnidirectional anemometer located on top of said rear fin, said at least one omnidirectional anemometer thus being designated drift anemometer.
Use of a quick-fastening element for fastening one or more guide rails to two adjacent horizontally extending bars of a grid-like side portion, that are arranged in substantially vertically superposed and parallel relationship and which are bent at an angle in their end region, wherein the grid-like side portion has mutually superposed horizontal pairs of bars (102, 102' and 103, 103'), wherein the spacing in the vertical direction between the horizontal bars of a pair of bars is less than the spacing between horizontal bars of adjacent pairs of bars and wherein the quick-fastening element is fitted between the horizontal bars (102, 103) of adjacent pairs of bars, wherein the quick-fastening element has a first holding portion which is adapted for positively locking and/or force-locking engagement of the quick-fastening element with a first bar of the two adjacent bars, a second holding portion which is adapted for positively locking and/or force-locking engagement of the quick-fastening element with a second bar of the two adjacent bars, and a connecting portion arranged between the first holding portion and the second holding portion and connecting the holding portions (2, 3), wherein the first and second holding portions (2, 3) extend from the connecting portion to one side in angled relationship fastenably between the bars (102, 103) of the pair of bars and in the fastened condition bear against mutually facing sides of the bars (102, 103), wherein the first bar is the upper bar of a pair of bars (102, 102') of the grid-like side portion and the second bar is the lower bar of the adjacent pair of bars (103, 103') of the grid-like side portion, and wherein the connecting portion has a fastening portion for fastening the guide rail.
A computer expansion card for an electronic device, the computer expansion card comprising: an enclosure wall having an opening, a sleeve integrally formed with the enclosure wall, the sleeve having a front aperture aligned with the opening in the enclosure wall, the sleeve extending into the electronic device from the enclosure wall, wherein the sleeve and the enclosure wall are conductive; a board comprising a plurality of pads along a first edge, the board further comprising a ground plane; a connector receptacle mounted on the board and comprising: a tongue located in the sleeve; a plurality of contacts having contacting portions on the tongue and contact tails attached to the board; and a shield around a portion of the connector receptacle and electrically connected to the ground plane; an electronic circuitry located on the board and electrically connected to a pad on the board and a contact in the connector receptacle, characterized in that the enclosure wall comprises a plurality of perforations to allow improved ventilation for the computer expansion card and in that the computer expansion card further comprises a conductive structure between the shield and the sleeve forming an electrical connection between the shield and the sleeve. an enclosure wall having an opening, a sleeve integrally formed with the enclosure wall, the sleeve having a front aperture aligned with the opening in the enclosure wall, the sleeve extending into the electronic device from the enclosure wall, wherein the sleeve and the enclosure wall are conductive; a board comprising a plurality of pads along a first edge, the board further comprising a ground plane; a connector receptacle mounted on the board and comprising: a tongue located in the sleeve; a plurality of contacts having contacting portions on the tongue and contact tails attached to the board; and a shield around a portion of the connector receptacle and electrically connected to the ground plane; an electronic circuitry located on the board and electrically connected to a pad on the board and a contact in the connector receptacle, characterized in that the enclosure wall comprises a plurality of perforations to allow improved ventilation for the computer expansion card and in that the computer expansion card further comprises a conductive structure between the shield and the sleeve forming an electrical connection between the shield and the sleeve. a tongue located in the sleeve; a plurality of contacts having contacting portions on the tongue and contact tails attached to the board; and a shield around a portion of the connector receptacle and electrically connected to the ground plane; an electronic circuitry located on the board and electrically connected to a pad on the board and a contact in the connector receptacle, characterized in that the enclosure wall comprises a plurality of perforations to allow improved ventilation for the computer expansion card and in that the computer expansion card further comprises a conductive structure between the shield and the sleeve forming an electrical connection between the shield and the sleeve.
A method for measuring insulin resistance in diabetic or pre-diabetic patients by mass spectrometry, the method comprising: (a) purifying a sample comprising insulin and C-peptide by liquid chromatography; ionizing insulin and C-peptide from the sample by an ionization source under conditions suitable to generate one or more insulin and C-peptide ions detectable by mass spectrometry; measuring creatinine levels; and (c) determining an amount of the one or more insulin and C-peptide ions by mass spectrometry, wherein: - the amount of the one or more ions determined is used to determine the amount of insulin and C-peptide in the sample, - the amount of insulin and C-peptide determined by mass spectrometry is used to determine an insulin resistance score or a probability of developing insulin resistance (P), RS = Insulin pmol / L × 0.0265 + C − peptide pmol / L × 0.00511 + Creatinine mg / dL × − 3.2641, and P IR = e − 2.2626 + 1.0005 × RS 1 + e − 2.2626 + 1.0005 × RS. (a) purifying a sample comprising insulin and C-peptide by liquid chromatography; ionizing insulin and C-peptide from the sample by an ionization source under conditions suitable to generate one or more insulin and C-peptide ions detectable by mass spectrometry; measuring creatinine levels; and (c) determining an amount of the one or more insulin and C-peptide ions by mass spectrometry, wherein: - the amount of the one or more ions determined is used to determine the amount of insulin and C-peptide in the sample, - the amount of insulin and C-peptide determined by mass spectrometry is used to determine an insulin resistance score or a probability of developing insulin resistance (P), RS = Insulin pmol / L × 0.0265 + C − peptide pmol / L × 0.00511 + Creatinine mg / dL × − 3.2641, and P IR = e − 2.2626 + 1.0005 × RS 1 + e − 2.2626 + 1.0005 × RS. - the amount of the one or more ions determined is used to determine the amount of insulin and C-peptide in the sample, - the amount of insulin and C-peptide determined by mass spectrometry is used to determine an insulin resistance score or a probability of developing insulin resistance (P), RS = Insulin pmol / L × 0.0265 + C − peptide pmol / L × 0.00511 + Creatinine mg / dL × − 3.2641, and P IR = e − 2.2626 + 1.0005 × RS 1 + e − 2.2626 + 1.0005 × RS.
A surgical system comprising: a master tool manipulator coupled to a console in the surgical system, the master tool manipulator including a master tool grip; a hand tracking system comprising a sensor element (211, 212), wherein the hand tracking system is configured to track a position of the sensor element (211, 212) configured to be mounted, during use, on a part of a human hand; and a first controller coupled to receive a position of the master tool grip and the position of the sensor element, wherein the first controller is configured to determine if the master tool grip is within a threshold distance of the human hand by determining a distance between a position of the human hand and the position of the master tool grip, the position of the human hand being determined by the first controller using the position of the sensor element, and wherein the first controller is configured to inject a system event into the surgical system based on whether the master tool grip is within the threshold distance of the human hand. a master tool manipulator coupled to a console in the surgical system, the master tool manipulator including a master tool grip; a hand tracking system comprising a sensor element (211, 212), wherein the hand tracking system is configured to track a position of the sensor element (211, 212) configured to be mounted, during use, on a part of a human hand; and a first controller coupled to receive a position of the master tool grip and the position of the sensor element, wherein the first controller is configured to determine if the master tool grip is within a threshold distance of the human hand by determining a distance between a position of the human hand and the position of the master tool grip, the position of the human hand being determined by the first controller using the position of the sensor element, and wherein the first controller is configured to inject a system event into the surgical system based on whether the master tool grip is within the threshold distance of the human hand.
An electron-bombarded charge-coupled device, EBCCD, comprising: an assembly including a window; a photocathode inside the assembly and adjacent to the window; a CCD device inside the assembly and positioned to collect electrons emitted from the photocathode; and a control device positioned between the photocathode and the CCD device, the control device having a plurality of holes (310, 410) therein, wherein the plurality of holes (310, 410) are formed perpendicular to a surface of the photocathode, and wherein a pattern of the plurality of holes is aligned with a pattern of pixels in the CCD device, the plurality of holes (310, 410) collimate the electrons in the control device such that when the electrons emerge from the control device the electrons are travelling perpendicularly to the CCD device so that most electrons that travel through a given hole (310, 410) of said holes land on a correspondingly aligned pixel of the CCD device to reduce image blur, each hole (310, 410) being surrounded by at least one first electrode (312, 322, 332, 412) of the EBCCD formed on a surface of the control device facing the photocathode. an assembly including a window; a photocathode inside the assembly and adjacent to the window; a CCD device inside the assembly and positioned to collect electrons emitted from the photocathode; and a control device positioned between the photocathode and the CCD device, the control device having a plurality of holes (310, 410) therein, wherein the plurality of holes (310, 410) are formed perpendicular to a surface of the photocathode, and wherein a pattern of the plurality of holes is aligned with a pattern of pixels in the CCD device, the plurality of holes (310, 410) collimate the electrons in the control device such that when the electrons emerge from the control device the electrons are travelling perpendicularly to the CCD device so that most electrons that travel through a given hole (310, 410) of said holes land on a correspondingly aligned pixel of the CCD device to reduce image blur, each hole (310, 410) being surrounded by at least one first electrode (312, 322, 332, 412) of the EBCCD formed on a surface of the control device facing the photocathode.