mhurhangee/ep-ind-claims huggingface dataset:
A multilayer pressure sensitive adhesive assembly, comprising at least one pressure sensitive adhesive layer and a polymeric foam layer, wherein the pressure sensitive adhesive layer comprises a pressure-sensitive adhesive composition comprising a reaction product of a polymerizable material comprising: (a) from 50 to 99.5 weight percent of 2-propylheptyl acrylate as a first monomer; and (b) from 0.5 to 50 weight percent of a second monomer having an ethylenically unsaturated group; wherein the weight percentages are based on the total weight of polymerizable material, wherein the pressure-sensitive adhesive composition further comprises a tackifying resin; and wherein the polymeric foam layer comprises a polymer base material selected from the group consisting of polyacrylates, polyurethanes, polyolefins, polystyrenes, polyvinyls, natural rubbers, synthetic rubbers, polyvinylpyrrolidone and any combinations, copolymers or mixtures thereof. (a) from 50 to 99.5 weight percent of 2-propylheptyl acrylate as a first monomer; and (b) from 0.5 to 50 weight percent of a second monomer having an ethylenically unsaturated group;
An adaptive machining system comprising: a numerical control machine configured to machine an airfoil spar surface based on a machine tool program code; a model comparison unit configured to compare electronic measured dimensional surface data of the airfoil spar with an electronic surface model of the airfoil spar; a compromise shape determination unit configured to determine a compromise shape for the airfoil spar based on the comparison, wherein the compromise shape determination unit comprises a model transformation determination unit configured to modify the electronic surface model based on the comparison, wherein the compromise shape determination unit comprises an offset distribution determination unit that is configured to determine an offset distribution between the modified electronic surface model and the electronic measured dimensional surface data, wherein the offset distribution determination unit is configured to apply the offset distribution to the modified electronic surface model to have a rate of contour deviation within a predetermined tolerance of 0.005 centimetre/centimetre; and a program modification unit configured to modify a machine tool program code based on the compromise shape by modifying at least one line of the machine tool program code. a numerical control machine configured to machine an airfoil spar surface based on a machine tool program code; a model comparison unit configured to compare electronic measured dimensional surface data of the airfoil spar with an electronic surface model of the airfoil spar; a compromise shape determination unit configured to determine a compromise shape for the airfoil spar based on the comparison, wherein the compromise shape determination unit comprises a model transformation determination unit configured to modify the electronic surface model based on the comparison, wherein the compromise shape determination unit comprises an offset distribution determination unit that is configured to determine an offset distribution between the modified electronic surface model and the electronic measured dimensional surface data, wherein the offset distribution determination unit is configured to apply the offset distribution to the modified electronic surface model to have a rate of contour deviation within a predetermined tolerance of 0.005 centimetre/centimetre; and a program modification unit configured to modify a machine tool program code based on the compromise shape by modifying at least one line of the machine tool program code.
A method to identify the probable status of tuberculosis infection in a subject which method comprises detecting the presence or absence and/or quantity in a sample of a biological fluid from said subject, one peptide that comprises a portion of a tuberculosis protein, wherein the biological fluid is plasma or urine, the peptide is AAPATVSELDR (SEQ ID NO:2), and wherein the presence or absence of the peptide is detected by mass spectrometry.
Device for generating a pre-defined phase shift between two output signals (I, Q) with a delay chain comprising a plurality of delay elements (2 1 -2 4) arranged serially one behind another, wherein a plurality of phase detectors (10 1 -10 4) are present each for detection of the phase difference between the signal at the output of an associated delay element (2 1 -2 4) and a first reference signal (SR 1) which is in a fixed phase relationship to the first output signal, characterised in that the delay generated by the delay elements (2 1 -2 4) of the delay chain is different and increases in the signal travel direction from delay element to delay element and in that only as many delay elements (2 1 -2 4) are in operation as is necessary for generation of the desired phase shift, in that a selection unit is present which communicates with the outputs of the phase detectors (10 1 -10 4) and selects the delay element (2 1 -2 4) at the output of which the phase difference detected by the associated phase detector (10 1 -10 4) roughly matches the pre-defined phase shift, and in that a switching unit is present for switching through the output of the delay element (2 1 -2 4) which was selected by the selection unit in order to generate the second output signal.
A composition comprising: from 25 wt. % to 60 wt. % of a polyetherimide; from 20 wt. % to 50 wt. % of a polyester carbonate; and from 5 wt. % to 35 wt. % of a reinforcement agent comprising carbon fiber, wherein the polyester carbonate comprises at least 40 mole % resorcinol based aryl ester linkages, and wherein all weight percentages (wt. %) are relative to the total weight of the composition. from 25 wt. % to 60 wt. % of a polyetherimide; from 20 wt. % to 50 wt. % of a polyester carbonate; and from 5 wt. % to 35 wt. % of a reinforcement agent comprising carbon fiber, wherein the polyester carbonate comprises at least 40 mole % resorcinol based aryl ester linkages, and wherein all weight percentages (wt. %) are relative to the total weight of the composition.
An electrical plug connector, having a plug connector housing, a locking securement means for locking the plug connector to a corresponding electrical mating plug connector, and a securing element displaceable between a pre-latching position and a securing position, wherein the securing element blocks the locking securement means in the securing position to prevent unlocking of the mating plug connector, wherein the plug connector housing forms a feed along which the securing element is displaceable from outside the plug connector housing in the direction of the longitudinal axis of the plug connector housing into the pre-latching position, wherein the securing element has at least one guide pin which is engageable with the feed of the plug connector housing for displacing the securing element into the pre-latching position in order to guide the securing element during the displacement into the pre-latching position, characterized in that the feed is in the form of one or more guide grooves, which extend on an inner face of a side wall of the plug connector housing.
A method performed by an Unified Data Management, UDM, entity in a wireless communication system, the method comprising: receiving, by the UDM entity and from a first Access and Mobility Management Function, AMF, entity, a first message related to serving AMF registration of a user equipment, UE, wherein the first message includes access type information of the first AMF and AMF identity, ID, information of the first AMF, and wherein the access type information indicates one of 3rd Generation Partnership Project, 3GPP, access or non-3GPP access; and transmitting, by the UDM entity and to a second AMF, a second message for deregistration of the second AMF registered as a serving AMF of the UE, wherein the second message is transmitted if an access type of the first AMF is the same as an access type of the second AMF receiving, by the UDM entity and from a first Access and Mobility Management Function, AMF, entity, a first message related to serving AMF registration of a user equipment, UE, wherein the first message includes access type information of the first AMF and AMF identity, ID, information of the first AMF, and wherein the access type information indicates one of 3rd Generation Partnership Project, 3GPP, access or non-3GPP access; and transmitting, by the UDM entity and to a second AMF, a second message for deregistration of the second AMF registered as a serving AMF of the UE, wherein the second message is transmitted if an access type of the first AMF is the same as an access type of the second AMF
A circulating deflector (100, 400) suitable to be mounted in a ball screw including a screw shaft including a spirally-shaped spiral groove at an outer circumferential surface, a nut including a spirally shaped spiral groove at an inner circumferential surface, the nut fitting on the screw shaft, and a plurality of rolling elements provided in a raceway formed by the spiral grooves (11, 21), the circulating deflector (100, 400) is mounted to the nut and includes a cylindrical return path for returning the rolling elements to the raceway behind, and the circulating deflector (100, 400) comprises: a circulating deflector body (110, 41) including two divided bodies (110A, 110B, 4A, 4B, 4C, 4D, 4E) each provided with a return groove and a joining surface (101A, 101B), the return groove forming the return path, the joining surface being formed in such a manner as to be orthogonal to the return path; characterized in that an engagement portion is provided to project from each of both side surfaces of the divided bodies (110A, 110B) along the spiral groove of the ball screw and to restrict movement of the circulating deflector body, wherein a fixing hole (121, 421) is provided to the engagement portion, and a fixing member (200, 5, 6) is fitted or threadedly engaged with the fixing hole (121, 421), the fixing member (200, 5, 6) being provided to a through hole which is provided to the nut and exposes the engagement portion. a circulating deflector body (110, 41) including two divided bodies (110A, 110B, 4A, 4B, 4C, 4D, 4E) each provided with a return groove and a joining surface (101A, 101B), the return groove forming the return path, the joining surface being formed in such a manner as to be orthogonal to the return path; characterized in that an engagement portion is provided to project from each of both side surfaces of the divided bodies (110A, 110B) along the spiral groove of the ball screw and to restrict movement of the circulating deflector body, wherein a fixing hole (121, 421) is provided to the engagement portion, and a fixing member (200, 5, 6) is fitted or threadedly engaged with the fixing hole (121, 421), the fixing member (200, 5, 6) being provided to a through hole which is provided to the nut and exposes the engagement portion.
Remote control apparatus for controlling a plurality of devices, the remote control apparatus comprising: - a transmitter for transmitting a same sequence of commands individually to each of the plurality of devices, each of the commands of the sequence instructing the respective device to execute a relative increase or decrease of a parameter thereof with a certain value and - a controller for generating the commands and controlling the transmission of the sequence of commands, the controller controlling the transmitter to repeat the transmission of a command to a device in case of not receiving an acknowledgement message from the device. - a transmitter for transmitting a same sequence of commands individually to each of the plurality of devices, each of the commands of the sequence instructing the respective device to execute a relative increase or decrease of a parameter thereof with a certain value and - a controller for generating the commands and controlling the transmission of the sequence of commands, the controller controlling the transmitter to repeat the transmission of a command to a device in case of not receiving an acknowledgement message from the device.
A balloon catheter (100, 200), comprising: an outer cylinder shaft having flexibility; a holding member for an operator to hold during operation, said holding member being connected to the proximal end portion of said outer cylinder shaft; a sealing member which maintains liquid tightness, said sealing member being incorporated in said holding member; an inner cylinder shaft having flexibility; a tube having a Rockwell hardness of R 115 or more, a flexural modulus of from 3.0 to 4.5 GPa, and a thickness of from 0.06 to 0.12 mm; a push-in member connected to the proximal end portion of said inner cylinder shaft; a pull-out prevention member connected to said push-in member; and a balloon composed of an elastic material and connected to each of the distal end portion of said outer cylinder shaft and the distal end portion of said inner cylinder shaft; wherein said tube is inserted over said inner cylinder shaft over the area thereof except for the connecting portion between said balloon and said inner cylinder shaft. an outer cylinder shaft having flexibility; a holding member for an operator to hold during operation, said holding member being connected to the proximal end portion of said outer cylinder shaft; a sealing member which maintains liquid tightness, said sealing member being incorporated in said holding member; an inner cylinder shaft having flexibility; a tube having a Rockwell hardness of R 115 or more, a flexural modulus of from 3.0 to 4.5 GPa, and a thickness of from 0.06 to 0.12 mm; a push-in member connected to the proximal end portion of said inner cylinder shaft; a pull-out prevention member connected to said push-in member; and a balloon composed of an elastic material and connected to each of the distal end portion of said outer cylinder shaft and the distal end portion of said inner cylinder shaft; wherein said tube is inserted over said inner cylinder shaft over the area thereof except for the connecting portion between said balloon and said inner cylinder shaft.
Apparatus for use in performing impedance measurements on a subject, wherein the apparatus includes a processing system for: a) determining impedance measurements of at least one body segment of the subject at more than three frequencies; b) determining combinations of the impedance measurements, each combination including impedance measurements at three frequencies; c) for each combination; i. at each of the three frequencies, determining (220, 540) first and second parameter values for first and second impedance parameters relating to the impedance measurements; ii. solving simultaneous equations representing a circle defined with respect to the first and second impedance parameters to thereby determine circle parameter values, the equations being solved using the first and second parameter values at each of the three frequencies; and iii. using the circle parameter values to determine a third impedance parameter value at a respective frequency; and, d) determining an indicator indicative of relative fluid levels within the body segment of the subject, the indicator being an average of the third impedance parameter values determined for each combination. a) determining impedance measurements of at least one body segment of the subject at more than three frequencies; b) determining combinations of the impedance measurements, each combination including impedance measurements at three frequencies; c) for each combination; i. at each of the three frequencies, determining (220, 540) first and second parameter values for first and second impedance parameters relating to the impedance measurements; ii. solving simultaneous equations representing a circle defined with respect to the first and second impedance parameters to thereby determine circle parameter values, the equations being solved using the first and second parameter values at each of the three frequencies; and iii. using the circle parameter values to determine a third impedance parameter value at a respective frequency; and, i. at each of the three frequencies, determining (220, 540) first and second parameter values for first and second impedance parameters relating to the impedance measurements; ii. solving simultaneous equations representing a circle defined with respect to the first and second impedance parameters to thereby determine circle parameter values, the equations being solved using the first and second parameter values at each of the three frequencies; and iii. using the circle parameter values to determine a third impedance parameter value at a respective frequency; and, d) determining an indicator indicative of relative fluid levels within the body segment of the subject, the indicator being an average of the third impedance parameter values determined for each combination.
Stator of an axial turbomachine, in particular of a compressor (4; 6), the stator comprising: an annular row of stator blades which comprise integral support blades with internal platforms and connection blades; the support blades and the connection blades being positioned axially at the same position, forming an annular row of blades (36, 38) equally spaced apart from each other; an internal shroud formed by the internal platforms of the support blades and by the internal shroud segments fixed to the connection blades; characterised in that at least one internal platform of a support blade comprises at least two contact surfaces which are generally perpendicular to the rotation axis of the turbomachine, and which are in contact with a common internal segment so as to be able to block it. an annular row of stator blades which comprise integral support blades with internal platforms and connection blades; the support blades and the connection blades being positioned axially at the same position, forming an annular row of blades (36, 38) equally spaced apart from each other; an internal shroud formed by the internal platforms of the support blades and by the internal shroud segments fixed to the connection blades; characterised in that at least one internal platform of a support blade comprises at least two contact surfaces which are generally perpendicular to the rotation axis of the turbomachine, and which are in contact with a common internal segment so as to be able to block it.
Metal pigment comprising a metallic substrate and coating, which coating comprises at least one first coating layer comprising at least one metal oxide surrounding the metal pigment, and at least one second coating layer comprising at least one heteropolysiloxane, the term metal oxide also including oxide hydrates and hydroxides, wherein the at least one heteropolysiloxane comprises at least one aminosilane component and at least one silane component selected from the group consisting of alkylsilanes, vinylsilanes and arylsilanes, wherein the heteropolysiloxane is applied to the at least one first surrounding coating layer in pre-condensed form and wherein the heteropolysiloxane is the outermost coating layer of the metal pigment.
A method for analyzing a plurality of nucleic acid molecules comprising: (a) attaching a plurality of primers comprising a Primer ID to a plurality of nucleic acid molecules in a sample to generate tagged-nucleic acid templates, wherein (i) the plurality of nucleic acid molecules comprises 1.0 or more nucleic acid templates, and (ii) each tagged nucleic acid template is attached to a unique Primer ID; (b) amplifying the tagged nucleic acid templates to produce tagged amplicons; (c) detecting the tagged amplicons, thereby analyzing the plurality of nucleic acid molecules; and (d) determining an amplification bias of the amplification reaction based on the detection of the tagged nucleic acid molecules, wherein determining the amplification bias is based on comparison of two or more ratios, wherein comparison of the two or more ratios comprises comparing a first ratio of the quantification of different Primer IDs associated with two or more types of nucleic acid molecules to a second ratio of the quantification of the total number of amplicons of two or more types of nucleic acid molecules, wherein the first ratio is based on an amount of different Primer IDs that are associated with a first type of nucleic acid molecule and an amount of different Primer IDs associated with a second type of nucleic acid molecule, wherein the second ratio is based on an amount of total amplicons that are associated with the first type of nucleic acid molecule and an amount of total amplicons that are associated with the second type of nucleic acid molecule and wherein the amplification bias is revealed by the difference in the first ratio and the second ratio. (a) attaching a plurality of primers comprising a Primer ID to a plurality of nucleic acid molecules in a sample to generate tagged-nucleic acid templates, wherein (i) the plurality of nucleic acid molecules comprises 1.0 or more nucleic acid templates, and (ii) each tagged nucleic acid template is attached to a unique Primer ID; (i) the plurality of nucleic acid molecules comprises 1.0 or more nucleic acid templates, and (ii) each tagged nucleic acid template is attached to a unique Primer ID; (b) amplifying the tagged nucleic acid templates to produce tagged amplicons; (c) detecting the tagged amplicons, thereby analyzing the plurality of nucleic acid molecules; and (d) determining an amplification bias of the amplification reaction based on the detection of the tagged nucleic acid molecules, wherein determining the amplification bias is based on comparison of two or more ratios, wherein comparison of the two or more ratios comprises comparing a first ratio of the quantification of different Primer IDs associated with two or more types of nucleic acid molecules to a second ratio of the quantification of the total number of amplicons of two or more types of nucleic acid molecules,
An on-board power system for a motor vehicle, in particular for a utility vehicle, having an interface for connecting a trailer on-board power system; a first partial power system in which a first rated voltage is applied, comprising a first energy store and a first load resistor which is formed by multiple consumers; a second partial power system in which a second rated voltage is applied, comprising a generator and a second energy store; wherein the first and second partial power systems (3, 2) are coupled to one another via a first voltage transformer; and wherein the interface for connecting the trailer on-board system is coupled to the second partial power system via a second voltage transformer.