mhurhangee/ep-ind-claims huggingface dataset:
An in vitro method for the detection of one or more human antibody species in a sample, the method comprising a. Contacting a sample suspected to contain the one or more human antibody species with one or more non-human probing cell species and an antibody binding agent, i. wherein the antibody binding agent is coupled to a first detectable label and is capable of binding human antibodies, and ii. wherein a probing cell of the non-human probing cell species expresses, or is capable to express, a second detectable label and an antigenic protein, the antigenic protein comprising an antigenic portion that is capable of binding, or is capable to be bound by, an antibody of the one or more human antibody species to be detected; and b. Detecting the presence of a signal from the first detectable label and the second detectable label for each probing cell, wherein the presence of a signal from the first detectable label and the presence of a signal from the second detectable label indicates the presence of the one or more human antibody species in the sample. a. Contacting a sample suspected to contain the one or more human antibody species with one or more non-human probing cell species and an antibody binding agent, i. wherein the antibody binding agent is coupled to a first detectable label and is capable of binding human antibodies, and ii. wherein a probing cell of the non-human probing cell species expresses, or is capable to express, a second detectable label and an antigenic protein, the antigenic protein comprising an antigenic portion that is capable of binding, or is capable to be bound by, an antibody of the one or more human antibody species to be detected; and i. wherein the antibody binding agent is coupled to a first detectable label and is capable of binding human antibodies, and ii. wherein a probing cell of the non-human probing cell species expresses, or is capable to express, a second detectable label and an antigenic protein, the antigenic protein comprising an antigenic portion that is capable of binding, or is capable to be bound by, an antibody of the one or more human antibody species to be detected; and b. Detecting the presence of a signal from the first detectable label and the second detectable label for each probing cell, wherein the presence of a signal from the first detectable label and the presence of a signal from the second detectable label indicates the presence of the one or more human antibody species in the sample.
An armrest mechanism comprising a cam, which can switch the armrest handle used in seats, between a closed position, a first passage position, a second passage position and a support position; and a guide opening directing the movement of said cam, characterized in that said armrest mechanism comprises a cam shaft whereon the cam is positioned in a manner that the cam is rotatable around the own axis a carrying group whereto said cam shaft is connected and which is in connection to the chassis; and an inner plate whereon said guide opening is provided and which is provided on an handle group.
Control device (14; 114) for controlling at least one manipulator (M1, M2, M3, M4; 36) of a microlithographic projection lens by generating a travel command (38; 138), which defines a change, to be undertaken, of an optical effect of at least one optical element (L1, L2, L3, L4) of the projection lens by manipulating a property of the optical element by means of the at least one manipulator along a travel, wherein the control device is configured to generate the travel command for the at least one manipulator from a state characterization of the projection lens by optimizing a merit function, wherein: the merit function comprises a linear combination of at least two exponential expressions, and a setting of the at least one manipulator (M1, M2, M3, M4; 36) defining the manipulation of the property of the optical element (L1, L2, L3, L4) is represented by means of a travel variable and the respective base of the at least two exponential expressions contains a function of the travel variable, characterized in that the exponents of the at least two exponential expressions have different values. the merit function comprises a linear combination of at least two exponential expressions, and a setting of the at least one manipulator (M1, M2, M3, M4; 36) defining the manipulation of the property of the optical element (L1, L2, L3, L4) is represented by means of a travel variable and the respective base of the at least two exponential expressions contains a function of the travel variable, characterized in that the exponents of the at least two exponential expressions have different values.
A heating apparatus, wherein said heating apparatus comprises a heat insulating material, an electric heater embedded in the surface or near the surface of said heat insulating material, and a hook extending from said electric heater into said heat insulating material, wherein said heat insulating material is integrally molded with said electric heater having said hook, the heating apparatus being characterized in that said heat insulating material is formed of ceramic fibers and a binder binding the ceramic fibers, wherein the apparatus further comprises an electrically insulating support member (24,25) embedded in said heat insulating material, and said electrically insulating support member (24, 25) supports said hook in said heat insulating material.
A recirculation purging system, comprising: a sealable load port (700, 800, 1200); a sealable load port support (790, 890, 1290); a substrate container; wherein the sealable load port support (790, 890, 1290) comprises a nozzle; wherein the recirculation purging system further comprises a recirculation path and a refresh path, wherein the recirculation path comprises a recirculation tank (720, 820, 1220) and a purifier (750, 850, 1250), wherein the recirculation path is configured such that, in use, purge gas flows from the substrate container to the recirculation tank (720, 820, 1220), such that, in use, the purge gas in the recirculation tank (720, 820, 1220) is recirculated, and such that, in use, the purge gas flows from the recirculation tank (720, 820, 1220) back to the substrate container, wherein the recirculation tank (720, 820, 1220) is connected with the purifier (750, 850, 1250) such that, in use, the purge gas in the recirculation tank (720, 820, 1220) is continuously and repeatedly purified through the purifier (750, 850, 1250), wherein the refresh path comprises a fresh purge gas supply (780, 880, 1280), a switch mechanism (760, 860, 1260), and a sensor (770, 870, 1270), wherein the switch mechanism (760, 860, 1260) is configured to allow a fresh purge gas from the fresh purge gas supply (780, 880, 1280) to be added to or to replace the purge gas in the recirculation tank (720, 820, 1220); wherein the switch mechanism (760, 860, 1260) is controlled by the sensor (770, 870, 1270). a sealable load port (700, 800, 1200); a sealable load port support (790, 890, 1290); a substrate container; wherein the sealable load port support (790, 890, 1290) comprises a nozzle; wherein the recirculation purging system further comprises a recirculation path and a refresh path, wherein the recirculation path comprises a recirculation tank (720, 820, 1220) and a purifier (750, 850, 1250), wherein the recirculation path is configured such that, in use, purge gas flows from the substrate container to the recirculation tank (720, 820, 1220), such that, in use, the purge gas in the recirculation tank (720, 820, 1220) is recirculated, and such that, in use, the purge gas flows from the recirculation tank (720, 820, 1220) back to the substrate container, wherein the recirculation tank (720, 820, 1220) is connected with the purifier (750, 850, 1250) such that, in use, the purge gas in the recirculation tank (720, 820, 1220) is continuously and repeatedly purified through the purifier (750, 850, 1250), wherein the refresh path comprises a fresh purge gas supply (780, 880, 1280), a switch mechanism (760, 860, 1260), and a sensor (770, 870, 1270), wherein the switch mechanism (760, 860, 1260) is configured to allow a fresh purge gas from the fresh purge gas supply (780, 880, 1280) to be added to or to replace the purge gas in the recirculation tank (720, 820, 1220); wherein the switch mechanism (760, 860, 1260) is controlled by the sensor (770, 870, 1270).
System for transporting articles, which comprises a frame and: - at least one first wheel rotating with respect to the frame about a first axis of rotation and bearing on its periphery a series of members for gripping the articles that define, for the articles, a circular-arc-shaped movement path; - a device for optical inspection of the articles that includes, on either side of a transit point situated on the path: o an image capturing apparatus comprising a lens oriented along an optical axis situated substantially in a plane of tangency to the path containing the transit point; o a screen placed facing the lens, perpendicular to the optical axis, - at least one second wheel rotating with respect to the frame about a second axis of rotation and bearing on its periphery a series of members for gripping the articles, characterized in that the apparatus and the screen are disposed on either side of a transit point common to the first wheel and the second wheel and corresponding to a point of transfer from one to the other, gripping members of the first and second wheels (13, 14) contributing simultaneously to holding the article, and in that the first axis of rotation and the second axis of rotation are vertical and the lens is oriented such that the optical axis O is horizontal. - at least one first wheel rotating with respect to the frame about a first axis of rotation and bearing on its periphery a series of members for gripping the articles that define, for the articles, a circular-arc-shaped movement path; - a device for optical inspection of the articles that includes, on either side of a transit point situated on the path: o an image capturing apparatus comprising a lens oriented along an optical axis situated substantially in a plane of tangency to the path containing the transit point; o a screen placed facing the lens, perpendicular to the optical axis, o an image capturing apparatus comprising a lens oriented along an optical axis situated substantially in a plane of tangency to the path containing the transit point; o a screen placed facing the lens, perpendicular to the optical axis, - at least one second wheel rotating with respect to the frame about a second axis of rotation and bearing on its periphery a series of members for gripping the articles,
A run-flat tire having a reinforcing rubber layer having a roughly crescent-shaped meridian cross-section and being disposed in sidewall portions at both sides in a tire width direction, comprising: a tread portion being provided formed of a tread rubber that comprises a cap tread rubber and an undertread rubber, the undertread rubber being disposed on an inner side of the cap tread rubber in a tire radial direction and having a higher hardness than the cap tread rubber, in a meridian cross-section, a gauge of the undertread rubber on a shoulder land portion on an outer side of an outermost main groove located furthest outward in the tire width direction being thicker than a gauge of the undertread rubber of a center land portion closest to a tire equatorial plane, wherein a gauge Ga_ce of the undertread rubber at the center land portion and a gauge Ga_sh of the undertread rubber at the shoulder land portion have a relationship Ga_ce < Ga_sh, and the gauge of the undertread rubber gradually decreases from the outermost main groove toward the tire equatorial plane, characterized in that the gauge of the undertread rubber is determined by measuring the groove bottom of main grooves using an imaginary line as a reference, and finding the average gauge within a land portion, excluding the portion of the main grooves, and a ratio W1/Wg of a width W1 in the tire width direction of a portion of the undertread rubber where the gauge of the undertread rubber gradually decreases from the outermost main groove toward the tire equatorial plane to a groove width Wg of the outermost main groove is from 1.0 to 3.0. a tread portion being provided formed of a tread rubber that comprises a cap tread rubber and an undertread rubber, the undertread rubber being disposed on an inner side of the cap tread rubber in a tire radial direction and having a higher hardness than the cap tread rubber, in a meridian cross-section, a gauge of the undertread rubber on a shoulder land portion on an outer side of an outermost main groove located furthest outward in the tire width direction being thicker than a gauge of the undertread rubber of a center land portion closest to a tire equatorial plane, wherein a gauge Ga_ce of the undertread rubber at the center land portion and a gauge Ga_sh of the undertread rubber at the shoulder land portion have a relationship Ga_ce < Ga_sh, and the gauge of the undertread rubber gradually decreases from the outermost main groove toward the tire equatorial plane, characterized in that the gauge of the undertread rubber is determined by measuring the groove bottom of main grooves using an imaginary line as a reference, and finding the average gauge within a land portion, excluding the portion of the main grooves, and a ratio W1/Wg of a width W1 in the tire width direction of a portion of the undertread rubber where the gauge of the undertread rubber gradually decreases from the outermost main groove toward the tire equatorial plane to a groove width Wg of the outermost main groove is from 1.0 to 3.0.
Film bag comprising a bag body having at least two mutually opposite front walls made of a bag film, wherein a printed material section is fastened with a permanent non-separable connecting seam to one of the front walls and rests unconnected in some regions on the associated front wall, wherein the material section has a smaller thickness than the bag film, characterized in that the material section covers at least 80 % of the area of the associated front wall and the connecting seam runs in a frame shape in a closed manner around an edge of the material section.
A method programmed in a non-transitory memory of a device comprising: determining a patch orientation, the patch being a two-dimensional patch used in coding of a three-dimensional point cloud; and sending patch orientation information including when implementing adaptive packing sending a flag indicating a default orientation, adaptive packing being when orientation information of a patch is sent to a decoder; wherein when implementing adaptive packing, utilizing an adaptive dictionary to indicate the patch orientation and wherein the adaptive dictionary is determined based on statistical analysis of patch orientation usage. determining a patch orientation, the patch being a two-dimensional patch used in coding of a three-dimensional point cloud; and sending patch orientation information including when implementing adaptive packing sending a flag indicating a default orientation, adaptive packing being when orientation information of a patch is sent to a decoder; wherein when implementing adaptive packing, utilizing an adaptive dictionary to indicate the patch orientation and wherein the adaptive dictionary is determined based on statistical analysis of patch orientation usage.
Method, implemented by a control server, for configuring a security module associated with a telecommunication terminal, characterized in that the control server assigns a unique activation code corresponding to a subscription comprising a plurality of N profiles to be assigned to a set of N respective terminals, and in that the method includes the steps of: a) after activation of the code via a first terminal, assigning a profile to the first terminal and storing the profile assignment (ICCID1) to the first terminal, b) for a new request to assign a profile corresponding to said activation code, repeating step a) if the N profiles have not yet been assigned. a) after activation of the code via a first terminal, assigning a profile to the first terminal and storing the profile assignment (ICCID1) to the first terminal, b) for a new request to assign a profile corresponding to said activation code, repeating step a) if the N profiles have not yet been assigned.
A base line restoration circuit for correcting shifts in output signals from an AC coupling circuit of an ion detector of a mass spectrometer, the base line restoration circuit comprising: an adjustable current source coupled to the output of the AC coupling circuit to inject a current that offsets a voltage shift of the AC coupling circuit; a low pass filter (R8 and C5) having an input coupled to an output of the AC coupling circuit and an output coupled to said current source; and characterized in that said low pass filter (R8 and C5) is coupled in shunt with an input impedance of the data system of the ion detector. an adjustable current source coupled to the output of the AC coupling circuit to inject a current that offsets a voltage shift of the AC coupling circuit; a low pass filter (R8 and C5) having an input coupled to an output of the AC coupling circuit and an output coupled to said current source; and characterized in that said low pass filter (R8 and C5) is coupled in shunt with an input impedance of the data system of the ion detector.
A process for upgrading residuum hydrocarbons, the process comprising: contacting a residuum hydrocarbon fraction and hydrogen with a first hydroconversion catalyst in a first ebullated bed hydroconversion reactor system; recovering a first effluent from the first ebullated bed hydroconversion reactor system; contacting the first effluent and hydrogen with a second hydroconversion catalyst in a second hydroconversion reactor system; recovering a second effluent from the second hydroconversion reactor system; contacting the second effluent and hydrogen with a third hydroconversion catalyst in a second ebullated bed hydroconversion reactor system; recovering a third effluent from the second ebullated bed hydroconversion reactor system; and fractionating the third effluent from the second ebullated bed hydroconversion reactor system to recover one or more hydrocarbon fractions, wherein the second hydroconversion reactor system comprises a fixed bed reactor. contacting a residuum hydrocarbon fraction and hydrogen with a first hydroconversion catalyst in a first ebullated bed hydroconversion reactor system; recovering a first effluent from the first ebullated bed hydroconversion reactor system; contacting the first effluent and hydrogen with a second hydroconversion catalyst in a second hydroconversion reactor system; recovering a second effluent from the second hydroconversion reactor system; contacting the second effluent and hydrogen with a third hydroconversion catalyst in a second ebullated bed hydroconversion reactor system; recovering a third effluent from the second ebullated bed hydroconversion reactor system; and fractionating the third effluent from the second ebullated bed hydroconversion reactor system to recover one or more hydrocarbon fractions, wherein the second hydroconversion reactor system comprises a fixed bed reactor.
Apparatus for machining a workpiece, in particular in sheet or panel form, at least a portion or portions of which are preferably formed of wood, engineered wood, plastics material or the like, having a machining means for machining the workpiece, a feeding means for producing a relative movement between the machining means and the workpiece in a direction of feed, and a sensing means for guiding the machining means along the workpiece, the apparatus being adapted to press the sensing means against the workpiece with a sensing force, the apparatus having a property-detecting means to detect a property of the workpiece and being adapted to match the sensing force of the sensing means, and/or the positioning of the machining means as it is fed in relative to the workpiece, to the property of the workpiece which is detected, characterised in that the property-detecting means is adapted to detect a yieldingness of the workpiece, the yieldingness being the deformation of the workpiece when acted on by a certain force, the property-detecting means having a force-applying means to apply a predetermined force to the workpiece and a measuring means to determine the yieldingness of the workpiece when the predetermined force is applied to it.
A mold for fabricating containers made of thermoplastic material by blow-molding or stretch-blow molding a blank having a neck provided with a rim, which mold has at least one axial molding cavity with an orifice open towards the outside and has both a plurality of circuits for channeling heating and cooling fluids and also thermal insulation means for thermally insulating the zone of the rim at said orifice and the zone that corresponds to the impression of the shoulder of said container; said mold being characterized in that the cooling circuit for cooling said zone of the rim is etched in the thickness of a lid that covers said thermal insulation means, said circuit being etched in the face of said lid that faces towards said insulation means, which insulation means act as a closure and sealing wall for said cooling circuit.
A method for the handling of piece goods being moved one after another in at least one row, in which - immediately consecutive piece goods in a row without spaces or with minimal spaces are transported as closed formation, - wherein, in a plurality of temporally consecutive steps, in each instance at least one transported piece good is seized in a clamping and/or force-locking and/or form-locking manner from the closed formation; is in each instance spatially separated from the closed formation by lateral rotation out of a straight movement path of the closed formation; and is brought into a particular specified relative target position (P1, P2) and/or target alignment in relation to subsequent piece goods, - with the result that a palletizable layer or a pre-group for a palletizable layer is formed from the piece goods that have been brought and/or rotated in temporally consecutive steps into their particular target position (P1, P2) and/or target alignment, characterised in that in each instance non-seized piece goods of remaining piece goods being moved in a row are further transported interruption-free and/or at unchanged transport speed during the seizing in a clamping and/or force-locking and/or form-locking manner, during the spatial separation, and during the transfer of the at least one piece good into a specified relative target position (P1, P2) and/or target alignment. - immediately consecutive piece goods in a row without spaces or with minimal spaces are transported as closed formation, - wherein, in a plurality of temporally consecutive steps, in each instance at least one transported piece good is seized in a clamping and/or force-locking and/or form-locking manner from the closed formation; is in each instance spatially separated from the closed formation by lateral rotation out of a straight movement path of the closed formation; and is brought into a particular specified relative target position (P1, P2) and/or target alignment in relation to subsequent piece goods, - with the result that a palletizable layer or a pre-group for a palletizable layer is formed from the piece goods that have been brought and/or rotated in temporally consecutive steps into their particular target position (P1, P2) and/or target alignment, characterised in that in each instance non-seized piece goods of remaining piece goods being moved in a row are further transported interruption-free and/or at unchanged transport speed during the seizing in a clamping and/or force-locking and/or form-locking manner, during the spatial separation, and during the transfer of the at least one piece good into a specified relative target position (P1, P2) and/or target alignment.