mhurhangee/ep-ind-claims huggingface dataset:
A charged particle beam device comprising: a sample stage which is configured to support a sample; a metal ion beam optical system unit including a liquid gallium ion source which unit is configured to perform a first FIB fabrication to form a sample piece from the sample by irradiating the sample with a gallium ion beam; a gas ion beam optical system unit which is configured to perform a second FIB fabrication to remove a damaged layer formed on a surface of the sample piece by irradiating the sample piece with a gas ion beam; and a metal ion detector which is configured to detect gallium existing in the damaged layer; and a central processing unit which is configured to control the units (110 and 120), characterised in that the metal ion detector is configured to detect gallium ions emitted from the damaged layer of the sample piece by irradiation with the gas ion beam during the second FIB fabrication, and further characterized in that the central processing unit is configured to continue removal of the damaged layer if the amount of gallium is greater than a predefined threshold value and to terminate the second FIB fabrication if the amount of gallium becomes smaller than said predefined threshold value. a sample stage which is configured to support a sample; a metal ion beam optical system unit including a liquid gallium ion source which unit is configured to perform a first FIB fabrication to form a sample piece from the sample by irradiating the sample with a gallium ion beam; a gas ion beam optical system unit which is configured to perform a second FIB fabrication to remove a damaged layer formed on a surface of the sample piece by irradiating the sample piece with a gas ion beam; and a metal ion detector which is configured to detect gallium existing in the damaged layer; and a central processing unit which is configured to control the units (110 and 120), characterised in that the metal ion detector is configured to detect gallium ions emitted from the damaged layer of the sample piece by irradiation with the gas ion beam during the second FIB fabrication, and further characterized in that the central processing unit is configured to continue removal of the damaged layer if the amount of gallium is greater than a predefined threshold value and to terminate the second FIB fabrication if the amount of gallium becomes smaller than said predefined threshold value.
A method for a group session, comprising: establishing, by a Push to talk over Cellular, PoC, server, a session connection between a calling user and a called user, and generating service information based on the session connection; sending, by the PoC server, the service information to a Single Network Controller, SNC, that the calling user homes to, wherein the service information is to generate a first routing rule by the SNC that the calling user homes to, and to send the first routing rule to a Gateway Router, GR, that the calling user homes to; sending, by the PoC server, the service information to an SNC that the called user homes to, wherein the service information is to generate a second routing rule by the SNC that the called user homes to, and to send the second routing rule to the GR that the called user homes to; and sending, by the PoC server, a session authorization message to the calling user, to notify the calling user to send service data, wherein the service data sent from the calling user is forwarded to the GR that the called user homes to through the GR that the calling user homes to based on the first routing rule, and is further forwarded to the called user by the GR which the called user belongs to. establishing, by a Push to talk over Cellular, PoC, server, a session connection between a calling user and a called user, and generating service information based on the session connection; sending, by the PoC server, the service information to a Single Network Controller, SNC, that the calling user homes to, wherein the service information is to generate a first routing rule by the SNC that the calling user homes to, and to send the first routing rule to a Gateway Router, GR, that the calling user homes to; sending, by the PoC server, the service information to an SNC that the called user homes to, wherein the service information is to generate a second routing rule by the SNC that the called user homes to, and to send the second routing rule to the GR that the called user homes to; and sending, by the PoC server, a session authorization message to the calling user, to notify the calling user to send service data, wherein the service data sent from the calling user is forwarded to the GR that the called user homes to through the GR that the calling user homes to based on the first routing rule, and is further forwarded to the called user by the GR which the called user belongs to.
Procedure for monitoring a predefined level of a medium in a vessel with at least a measuring probe consisting of a sensor electrode and a guard electrode, and with a single electronic unit, wherein a capacitive measurement and a conductive measurement are combined in said electronic unit, wherein the measuring probe is operated alternately in the conductive and capacitive operating mode wherein the measuring probe is exposed to an excitation signal, wherein said excitation signal consists of two different consecutive periodic sub-signals which alternate over time, wherein the first periodic sub-signal for the conductive operating mode is generated in a first time interval, and the second periodic sub-signal for the capacitive operating mode is generated in a second time interval, wherein the response signal, which is received from the measuring probe and is dependent on the current sub-signal, is used to determine - according to the capacitive or conductive operating mode - whether the specified level is reached, wherein a message is generated if this level is exceeded or undershot, wherein a rectangular signal is used for the excitation signal in the first time interval, and a triangular signal is used in the second time interval, wherein the ratio of the current through the sensor electrode to the current through the guard electrode is determined in the conductive operating mode, and wherein the difference between the voltages at the probe electrode and the guard electrode is determined in the capacitance operating mode.
A method for producing a multi-layered film, the method comprising: co-extruding a gas-barrier material and elastomeric material to form a multi-layered film having a core region that comprises: at least 20 gas-barrier layers each comprising the gas-barrier material and each having an average thickness ranging from 0.5 micrometers to 0.75 micrometers; and a plurality of elastomeric layers alternating with the gas-barrier layers, wherein each of the elastomeric layers of the plurality comprises the elastomeric material and each has an average thickness ranging from 2 micrometers to 8 micrometers. at least 20 gas-barrier layers each comprising the gas-barrier material and each having an average thickness ranging from 0.5 micrometers to 0.75 micrometers; and a plurality of elastomeric layers alternating with the gas-barrier layers, wherein each of the elastomeric layers of the plurality comprises the elastomeric material and each has an average thickness ranging from 2 micrometers to 8 micrometers.
A flaky alpha-alumina crystal comprising an aluminum oxide, a zinc oxide and a tin oxide, wherein the aluminum oxide(Al 2 O 3), the zinc oxide(ZnO) and the tin oxide(SnO) are contained in the weight ratio of 100: 0.05-5: 0.01-0.5, and which has a thickness of 0.1-0.3 μm, an average diameter of 30-70 μm and an aspect ratio of 100-500.
Foam, comprising a cellular structure and having a density of at most 0.50 g/cm 3, wherein the cellular structure is provided by a solid material that comprises humins.
A blade row of a continuous-flow machine, having at least one blade channel which is limited by a pressure-side wall of a blade and by an opposite suction-side wall of an adjacent blade in the circumferential direction (u), which is limited by two opposite partition walls in the radial direction (z), and which is limited by leading edges (10a, 10b) and by trailing edges (12a, 12b) of the blades (2a, 2b) in the direction of a main flow, wherein at least one of the partition walls is provided with at least one indentation on the suction side and has at least one elevation on the pressure side, wherein the indentation on the suction side is spaced from the suction-side wall in the circumferential direction (u) and is arranged with a section upstream and with a section downstream of the leading edges (10a, 10b), the elevation on the pressure side passes into the pressure side wall and is arranged in a front blade area, wherein an indentation on the pressure side is provided which is arranged upstream of the elevation on the pressure side, characterized in that an elevation on the suction side is provided on the suction-side wall downstream of the indentation on the suction side.
Engine hood of a vehicle comprising a honeycomb core (1a..1d) having a lattice structure, which comprises a resin-impregnated matrix, characterized in that the matrix is impregnated inhomogeneously with the resin, wherein the matrix is only regionally impregnated with the resin at different strengths and wherein the inhomogeneity is distributed two-dimensionally over the lattice structure, specifically over the surface of the honeycomb core (1a..1d), such that more resin is deposited in first regions than in second regions which differ from the first regions, such that zones of different stiffness are formed on the honeycomb core, specifically a zone of relatively low stiffness where the probability is particularly high that a pedestrian who the vehicle runs into will strike with his head when he is run into by the vehicle.
Device for converting a pivoting movement of a pinion into a translational movement of a slide, the device comprising: - a slide support member and a support element connected to the pinion in terms of rotation and connected to the slide in terms of translation, the pinion being mounted with the ability to pivot with respect to the support member, which comprises a fixed tubular wall, the tubular wall being provided with at least one cam surface collaborating with a cam follower mounted on the support element, the pinion being carried by the support member coaxially with respect to the tubular wall, the device being characterized in that - an element (25; 35; 45) forming an angular limit stop is arranged between the slide and the support element, so as to allow two-directional rotation of the support element with respect to the slide over only a given angular portion. - a slide support member and a support element connected to the pinion in terms of rotation and connected to the slide in terms of translation, the pinion being mounted with the ability to pivot with respect to the support member, which comprises a fixed tubular wall, the tubular wall being provided with at least one cam surface collaborating with a cam follower mounted on the support element, the pinion being carried by the support member coaxially with respect to the tubular wall, the device being characterized in that - an element (25; 35; 45) forming an angular limit stop is arranged between the slide and the support element, so as to allow two-directional rotation of the support element with respect to the slide over only a given angular portion.
A reusable surgical stapling apparatus (10; 810; 810'; 1210; 1410; 1510; 2010; 4010; 7010), comprising: a first handle segment (36a, 2036a); a second handle segment (36b, 2036b) detachably coupled to said first handle segment (36a; 2036a) to form a handle housing (36, 2036); a firing assembly removably supported in said handle housing (36, 2036) as a lift out removable unit and comprising a movable handle (24, 824) and an actuation shaft (46; 46'; 46") mounted for longitudinal movement in response to manipulation of said movable handle (24, 824); and a control rod assembly (52; 4070; 7070) having a proximal end removably interfacing with said firing assembly, said control rod (52; 4070; 7070) assembly protruding outward from said handle housing (36, 2036) and having a distal end configured to be operably attached to a disposable loading unit (16, 16'). a first handle segment (36a, 2036a); a second handle segment (36b, 2036b) detachably coupled to said first handle segment (36a; 2036a) to form a handle housing (36, 2036); a firing assembly removably supported in said handle housing (36, 2036) as a lift out removable unit and comprising a movable handle (24, 824) and an actuation shaft (46; 46'; 46") mounted for longitudinal movement in response to manipulation of said movable handle (24, 824); and a control rod assembly (52; 4070; 7070) having a proximal end removably interfacing with said firing assembly, said control rod (52; 4070; 7070) assembly protruding outward from said handle housing (36, 2036) and having a distal end configured to be operably attached to a disposable loading unit (16, 16').
Composition comprising: a) at least a first oxidation base 3-(2,5-diaminophenyl)-1-propanol and/or acid salts thereof and/or solvates thereof such as hydrates; b) at least a second oxidation base chosen from para-aminophenol, 3-methyl-4-aminophenol and N,N-bis(3-hydroxyethyl)-para-phenylenediamine, addition salts thereof, solvates thereof, and mixtures thereof; c) at least one coupler; d) optionally at least one fatty substance; e) optionally at least one basifying agent; and f) optionally at least one chemical oxidizing agent. a) at least a first oxidation base 3-(2,5-diaminophenyl)-1-propanol and/or acid salts thereof and/or solvates thereof such as hydrates; b) at least a second oxidation base chosen from para-aminophenol, 3-methyl-4-aminophenol and N,N-bis(3-hydroxyethyl)-para-phenylenediamine, addition salts thereof, solvates thereof, and mixtures thereof; c) at least one coupler; d) optionally at least one fatty substance; e) optionally at least one basifying agent; and f) optionally at least one chemical oxidizing agent.
A method for authenticating, the method comprising: acquiring a first fingerprint image at an area proximate a first location of contact on a touch-sensitive surface; performing a first authentication process based on the first fingerprint image; acquiring a second fingerprint image at an area proximate a second location of contact on the touch-sensitive surface; determining a difference between a characteristic of the second fingerprint image and a characteristic of the first fingerprint image; and performing a second authentication process based upon whether the difference between the characteristic of the second fingerprint image and the characteristic of the first fingerprint image is greater than a threshold, and wherein the second authentication process is be performed upon the second fingerprint image, or a fingerprint image taken thereafter. acquiring a first fingerprint image at an area proximate a first location of contact on a touch-sensitive surface; performing a first authentication process based on the first fingerprint image; acquiring a second fingerprint image at an area proximate a second location of contact on the touch-sensitive surface; determining a difference between a characteristic of the second fingerprint image and a characteristic of the first fingerprint image; and performing a second authentication process based upon whether the difference between the characteristic of the second fingerprint image and the characteristic of the first fingerprint image is greater than a threshold, and wherein the second authentication process is be performed upon the second fingerprint image, or a fingerprint image taken thereafter.
A method for preparing a thick multilayer coating with a thickness greater than or equal to 100 μm, preferably with a thickness greater than or equal to 150 μm, on a surface of a substrate made of a material selected from metals and metal alloys, by means of at least one thermal spraying method, in which the following successive steps are carried out: a) a first nanostructured or finely structured layer of a first material is deposited on the surface of the substrate by means of a thermal spraying method via a liquid route; the surface of the substrate not having been subject, prior to the deposition of the first nanostructured or finely structured layer, to any preparation or activation treatment other than an optional cleaning treatment; b) a second microstructured layer of a second material is deposited on the first nanostructured or finely structured layer by means of a thermal spraying method via a dry route; wherein the first and the second materials are selected independently of each other from ceramics, preferably oxide ceramics, metals and cermets; and wherein the second material has the same composition as the first material and/or the second material has a crystallographic structure close to that of the first material, and/or the second material has a thermomechanical behavior close to that of the first material. a) a first nanostructured or finely structured layer of a first material is deposited on the surface of the substrate by means of a thermal spraying method via a liquid route; the surface of the substrate not having been subject, prior to the deposition of the first nanostructured or finely structured layer, to any preparation or activation treatment other than an optional cleaning treatment; b) a second microstructured layer of a second material is deposited on the first nanostructured or finely structured layer by means of a thermal spraying method via a dry route;
Compensated comparator comprising: - first and second inputs intended to receive respectively first Vin1 and second Vin2 potentials to be compared; - a differential stage provided with first and second transistors of same type, connected by their sources in a node S and each comprising a gate called, respectively, first and second gate; - a decision stage connected to the drains of the first and second transistors and delivering a comparison signal on an output of the comparator (203, 204); characterised in that it comprises - first and second capacitors intercalated, respectively, between the first gate and the first input and between the second gate and the second input, - first and second decision switches placed between the decision stage and the drains of the first and second transistors of the differential stage; - pre-charge (MCi), sharing (MPi), and decision (MDi) devices commanded by a control circuit, to implement successive pre-charge, sharing and decision phases, the pre-charge device (MCi) making it possible to impose a charge on the first and second capacitors such that a pre-charge voltage (Vprech) is present at the terminals of the capacitors at the end of the pre-charge phase, the sharing device (MPi) making it possible to short circuit the gate and the drain of each of the first and second transistors, the short circuits causing a charge transfer from the first and second capacitors to the node S, the transfer being interrupted from the moment that the gate-source voltages of the first and second transistors become lower than the respective threshold voltages of the first and second transistors, and the decision device (MDi) making it possible to switch on said decision switches to make the comparison between the first and second input potentials applied on the first and second input terminals. - first and second inputs intended to receive respectively first Vin1 and second Vin2 potentials to be compared; - a differential stage provided with first and second transistors of same type, connected by their sources in a node S and each comprising a gate called, respectively, first and second gate; - a decision stage connected to the drains of the first and second transistors and delivering a comparison signal on an output of the comparator (203, 204); - first and second capacitors intercalated, respectively, between the first gate and the first input and between the second gate and the second input, - first and second decision switches placed between the decision stage and the drains of the first and second transistors of the differential stage; - pre-charge (MCi), sharing (MPi), and decision (MDi) devices commanded by a control circuit, to implement successive pre-charge, sharing and decision phases,
A N. meningitidis conjugate vaccine for use in the prevention or treatment of N. meningitidis disease wherein a human patient is immunised in a schedule comprising steps a) and b) wherein: step a) immunises the human patient at a first age of between 0 and 11 months with a bacterial saccharide conjugate vaccine comprising at least two or three bacterial saccharide(s) conjugated to a carrier protein to form at least two or three bacterial saccharide conjugate(s), wherein the at least two or three bacterial saccharide(s) of step a) comprises a N.meningitidis serogroup C (MenC) capsular saccharide; and step b) immunises the human patient at a second age of between 12 and 24 months with a Neisseria meningitidis conjugate vaccine comprising N. meningitidis serogroup A capsular saccharide (MenA), N. meningitidis serogroup C capsular saccharide (MenC), N. meningitidis serogroup W135 capsular saccharide (MenW135), and N.meningitidis serogroup Y capsular saccharide (MenY) conjugated separately to a carrier protein, wherein the Neisseria meningitidis conjugate vaccine is coadministered with a DTPa vaccine. step a) immunises the human patient at a first age of between 0 and 11 months with a bacterial saccharide conjugate vaccine comprising at least two or three bacterial saccharide(s) conjugated to a carrier protein to form at least two or three bacterial saccharide conjugate(s), wherein the at least two or three bacterial saccharide(s) of step a) comprises a N.meningitidis serogroup C (MenC) capsular saccharide; and step b) immunises the human patient at a second age of between 12 and 24 months with a Neisseria meningitidis conjugate vaccine comprising N. meningitidis serogroup A capsular saccharide (MenA), N. meningitidis serogroup C capsular saccharide (MenC), N. meningitidis serogroup W135 capsular saccharide (MenW135), and N.meningitidis serogroup Y capsular saccharide (MenY) conjugated separately to a carrier protein, wherein the Neisseria meningitidis conjugate vaccine is coadministered with a DTPa vaccine.
A composition comprising: i. at least 80wt% of maltodextrin having a dextrose equivalence of from 15 to 20, preferably a DE of from 16 to 18; and ii. up to 20wt% of sorbitol and glycerol; wherein the weight percentages are determined on a dry weight basis. i. at least 80wt% of maltodextrin having a dextrose equivalence of from 15 to 20, preferably a DE of from 16 to 18; and ii. up to 20wt% of sorbitol and glycerol;