mhurhangee/ep-ind-claims huggingface dataset:
A process for the production of a glycoconjugate by N-glycosylation of a protein or peptide comprising the sequence D/E-X-N-X-S/T, wherein each X is the same or different and is any natural amino acid other than proline, wherein the process comprises reacting the protein or peptide with a polyisoprenyl pyrophosphate of formula, or a salt thereof, in the presence of PglB: wherein n is 1, 2 or 3; and is a monosaccharide or polysaccharide; to produce the glycoconjugate comprising the protein or peptide having a saccharide linked to the asparagine in the sequence D/E-X-N-X-S/T. wherein n is 1, 2 or 3; and is a monosaccharide or polysaccharide; to produce the glycoconjugate comprising the protein or peptide having a saccharide linked to the asparagine in the sequence D/E-X-N-X-S/T.
A method performed by a wireless communication device, comprising: determining a difference between an amount of data and a related amount of headers selected for transmission and a transport block size of a transport block to carry the data and the headers, the transport block size selected from a fixed set of transport block sizes; obtaining or creating information for inclusion in the transport block; triggering the including of the information in the transport block in place of padding otherwise included in the transport block whenever the size of the information is smaller than or equal to the difference; and transmitting the transport block to another wireless communication device. determining a difference between an amount of data and a related amount of headers selected for transmission and a transport block size of a transport block to carry the data and the headers, the transport block size selected from a fixed set of transport block sizes; obtaining or creating information for inclusion in the transport block; triggering the including of the information in the transport block in place of padding otherwise included in the transport block whenever the size of the information is smaller than or equal to the difference; and transmitting the transport block to another wireless communication device.
A reverse-flow annular combustor for a gas turbine engine, comprising: an inner liner; an outer liner circumscribing the inner liner; and a combustor dome having a first edge coupled to the inner liner and a second edge coupled to the outer liner, the combustor dome forming a combustion chamber with the inner liner and the outer liner, characterised in that the combustion chamber receives air flow through the inner and outer liners (210 and 212) for combustion to generate combustion gases, and wherein the combustor dome defines at least a first group of effusion holes and a second group of effusion holes configured to bifurcate the combustion gases at the combustor dome into a first combustion stream directed to the inner liner and a second combustion stream directed to the outer liner, wherein the first group of effusion holes is adjacent the first edge and oriented in a first substantially radial direction relative to an engine centerline towards the inner liner and the second group of effusion holes is adjacent the second edge and oriented in a second substantially radial direction relative to the engine centerline towards the outer liner. an inner liner; an outer liner circumscribing the inner liner; and a combustor dome having a first edge coupled to the inner liner and a second edge coupled to the outer liner, the combustor dome forming a combustion chamber with the inner liner and the outer liner, characterised in that the combustion chamber receives air flow through the inner and outer liners (210 and 212) for combustion to generate combustion gases, and wherein the combustor dome defines at least a first group of effusion holes and a second group of effusion holes configured to bifurcate the combustion gases at the combustor dome into a first combustion stream directed to the inner liner and a second combustion stream directed to the outer liner, wherein the first group of effusion holes is adjacent the first edge and oriented in a first substantially radial direction relative to an engine centerline towards the inner liner and the second group of effusion holes is adjacent the second edge and oriented in a second substantially radial direction relative to the engine centerline towards the outer liner.
A field device with a two-wire supply interface which is suitable for receiving energy via a two-wire system and for signal transmission via the two-wire system, with an integrated sensor, with at least one additional interface which is suitable for signal reception, and with a functional unit or functional group for data and/or signal processing, which is coupled to the two-wire supply interface, the additional interface and the integrated sensor, the functional unit or functional group is configured for carrying out the following steps: receiving at least one first input signal from the integrated sensor, receiving at least one second input signal from the additional interface, and generating an output signal on the basis of the at least one first input signal and the at least one second input signal, characterized in that more than one computing method is stored in the field device, which can be executed to generate the output signal, different computing methods are provided for external signal generators of different types connected to the additional interface. receiving at least one first input signal from the integrated sensor, receiving at least one second input signal from the additional interface, and generating an output signal on the basis of the at least one first input signal and the at least one second input signal, characterized in that more than one computing method is stored in the field device, which can be executed to generate the output signal, different computing methods are provided for external signal generators of different types connected to the additional interface.
A method for filling cooling holes in a component of a gas turbine engine, the component having an outer surface and an inner surface and a plurality of first cooling holes (66, 68, 70), the plurality of first cooling holes extending between the outer surface and the inner surface of the component, the method comprising the steps of: exposing the outer surface of the component, wherein this step comprises the step of removing a first thermal barrier coating from the outer surface of the component; characterized by further comprising the steps of: filling the plurality of first cooling holes (66, 68, 70) with a filling agent; curing the filling agent to block the plurality of first cooling holes; applying a second thermal barrier coating over the outer surface of the component after the step of curing the filling agent and completely covering the cured filling agent on the outer surface, wherein the second thermal barrier coating comprises a second ceramic top coating overlying a second metallic bond coating; and installing a plurality of second cooling holes, the plurality of second cooling holes penetrating the second thermal barrier coating and extending between the outer surface and the inner surface of the component. exposing the outer surface of the component, wherein this step comprises the step of removing a first thermal barrier coating from the outer surface of the component; characterized by further comprising the steps of: filling the plurality of first cooling holes (66, 68, 70) with a filling agent; curing the filling agent to block the plurality of first cooling holes; applying a second thermal barrier coating over the outer surface of the component after the step of curing the filling agent and completely covering the cured filling agent on the outer surface, wherein the second thermal barrier coating comprises a second ceramic top coating overlying a second metallic bond coating; and installing a plurality of second cooling holes, the plurality of second cooling holes penetrating the second thermal barrier coating and extending between the outer surface and the inner surface of the component. filling the plurality of first cooling holes (66, 68, 70) with a filling agent; curing the filling agent to block the plurality of first cooling holes; applying a second thermal barrier coating over the outer surface of the component after the step of curing the filling agent and completely covering the cured filling agent on the outer surface, wherein the second thermal barrier coating comprises a second ceramic top coating overlying a second metallic bond coating; and installing a plurality of second cooling holes, the plurality of second cooling holes penetrating the second thermal barrier coating and extending between the outer surface and the inner surface of the component.
A humanized antibody or antigen binding fragment thereof that binds to human IL-23 comprising: a light chain variable region comprising the sequence of SEQ ID NO: 131; and a heavy chain variable region comprising the sequence of SEQ ID NO: 132 or 133. a light chain variable region comprising the sequence of SEQ ID NO: 131; and a heavy chain variable region comprising the sequence of SEQ ID NO: 132 or 133.
A process for preparing solidified maltitol, which process comprises the following steps: a) turbulating a quantity A of powder of maltitol and a quantity B of a maltitol containing syrup at a temperature from 20°C and a second temperature wherein the second temperature is selected such that the maltitol powder is solid, and wherein quantity A is ≥quantity B, to obtain a granulated product, b) drying of granulated product, c) reducing particle size of dried granulated product to obtain solidified maltitol, d) recycling all, or a portion, of said solidified maltitol into step a) as powder of maltitol, wherein the process takes place in a fluid bed. a) turbulating a quantity A of powder of maltitol and a quantity B of a maltitol containing syrup at a temperature from 20°C and a second temperature wherein the second temperature is selected such that the maltitol powder is solid, and wherein quantity A is ≥quantity B, to obtain a granulated product, b) drying of granulated product, c) reducing particle size of dried granulated product to obtain solidified maltitol, d) recycling all, or a portion, of said solidified maltitol into step a) as powder of maltitol,
A method of transmitting a random access channel, RACH, by a user equipment, UE, (10, 20) in a wireless communication system, the method comprising: receiving information related to actually transmitted synchronization signal blocks, SSBs, and RACH configuration information related to RACH resources for transmitting a RACH preamble; mapping repeatedly the actually transmitted SSBs by a positive integer number to the RACH resources within a RACH configuration window based on the information related to actually transmitted SSBs and the RACH configuration information, wherein remaining RACH resources within the RACH configuration window which are not mapped to the actually transmitted SSBs are not used as RACH resources; and transmitting the RACH preamble in a RACH resource corresponding to one of the actually transmitted SSBs among the RACH resources. receiving information related to actually transmitted synchronization signal blocks, SSBs, and RACH configuration information related to RACH resources for transmitting a RACH preamble; mapping repeatedly the actually transmitted SSBs by a positive integer number to the RACH resources within a RACH configuration window based on the information related to actually transmitted SSBs and the RACH configuration information, wherein remaining RACH resources within the RACH configuration window which are not mapped to the actually transmitted SSBs are not used as RACH resources; and transmitting the RACH preamble in a RACH resource corresponding to one of the actually transmitted SSBs among the RACH resources.
A blade with at least one cutter, the blade having, at least in the region of the cutter, a multilayer material with at least five layers, wherein metal layers and metal ceramic layers are arranged alternately in the multilayer material, wherein in each case at least one metal layer and at least one adjacent metal ceramic layer comprise at least one common metal element, wherein the thickness of the individual layers of the multilayer material is between 1 nm and 800 nm and increases from the cutter towards the frame of the blade, and wherein the cutter comprises a cutting edge formed by a first and a second cutting surface, and wherein the first cutting surface forms a first angle with the layers of the multilayer material and the second cutting surface forms a second angle with the layers of the multilayer material, wherein the first and/or second angle is at least 1°.
Computer-implemented method for analysing at least one imaging property of the k -th order, k = 2, 3, 4,... of an optical element at at least one evaluation position, wherein the optical element comprises at least one boundary surface that is formed by a refractive base surface and at least one phase-changing optical element, wherein the method comprises: determining the properties of a wavefront in the local surroundings of the at least one evaluation position by means of local wavefront tracing; and determining the at least one imaging property at the least one evaluation position on the basis of the properties of the wavefront in the local surroundings of the at least one evaluation position, wherein the local wavefront tracing comprises local wavefront tracing upon transmission through the at least one boundary surface, and the local wavefront tracing upon transmission through the at least one boundary surface takes place by means of the refractive base surface in accordance with the vergence equation for the local wavefront tracing, which equation is supplemented by an additive additional term PK ( k), wherein the vergence equation is a generalised Coddington equation for imaging errors of the second or higher order, wherein the additive additional term PK ( k) depends on the local derivatives of the k -th order of a phase function Ψ( x, y), which is associated with the phase-changing optical element, according to the coordinates that are tangential to the base surface, wherein the phase function Ψ( x, y) represents the optical path length difference introduced by the at least one phase-changing optical element as a function of the coordinates ( x, y) that are tangential to the base surface. determining the properties of a wavefront in the local surroundings of the at least one evaluation position by means of local wavefront tracing; and determining the at least one imaging property at the least one evaluation position on the basis of the properties of the wavefront in the local surroundings of the at least one evaluation position, wherein the local wavefront tracing comprises local wavefront tracing upon transmission through the at least one boundary surface, and the local wavefront tracing upon transmission through the at least one boundary surface takes place by means of the refractive base surface in accordance with the vergence equation for the local wavefront tracing, which equation is supplemented by an additive additional term PK ( k), wherein the vergence equation is a generalised Coddington equation for imaging errors of the second or higher order, wherein the additive additional term PK ( k) depends on the local derivatives of the k -th order of a phase function Ψ( x, y), which is associated with the phase-changing optical element, according to the coordinates that are tangential to the base surface, wherein the phase function Ψ( x, y) represents the optical path length difference introduced by the at least one phase-changing optical element as a function of the coordinates ( x, y) that are tangential to the base surface.
Floor cleaner, comprising a housing which forms a brush accommodating compartment, a cleaning brush arranged in the brush accommodating compartment with two brush units (52, 54), and a drive device for the cleaning brush, the respective brush unit (52, 54) having a brush body defining a brush axis and being provided with cleaning bristles and having a first end and a second end, and the respective brush unit (52, 54) comprising at the first end or in the region of the first end a torque receiver device, wherein the drive device is coupled at the first end of the brush body of the respective brush unit (52, 54) to the torque receiver device and rotationally drives the respective brush unit (52, 54), characterized in that the respective brush unit (52, 54) comprises a bearing device for mounting on the floor cleaner, which is arranged between the first end and the second end, and in that the brush units (52, 54) can be connected to and released from the floor cleaner separately from each other.
An actuator control device (10, 10A to 10G) having a plurality of controller units connected to actuators, the controller units being configured to control the actuators that are connected thereto, wherein the actuator control device (10, 10A to 10G) is configured to supply electrical power to the plurality of actuators via the plurality of controller units, characterized in that the actuator control device further comprises: a connection confirmation unit configured to confirm a connection state of the plurality of controller units; and a determination unit configured to determine, based on a confirmation result of the connection confirmation unit, whether or not the connection state is in an allowable connection state in which supply of electrical power to the plurality of controller units is allowable, wherein the connection confirmation unit is configured to confirm a number of the plurality of controller units, and a number of the plurality of actuators that are connected to the plurality of controller units, and is configured to output each of the confirmed numbers as connection information to the determination unit; and wherein the determination unit is configured to determine whether or not each of the numbers indicated by the input connection information is less than or equal to a maximum allowable number. a connection confirmation unit configured to confirm a connection state of the plurality of controller units; and a determination unit configured to determine, based on a confirmation result of the connection confirmation unit, whether or not the connection state is in an allowable connection state in which supply of electrical power to the plurality of controller units is allowable, wherein the connection confirmation unit is configured to confirm a number of the plurality of controller units, and a number of the plurality of actuators that are connected to the plurality of controller units, and is configured to output each of the confirmed numbers as connection information to the determination unit; and wherein the determination unit is configured to determine whether or not each of the numbers indicated by the input connection information is less than or equal to a maximum allowable number.
Device for calibrating a torque measuring device, with - a force effect device for producing a force effect; - a lever arm coupled to the force effect device and transmitting the force effect, which comprises a bearing flange pivotable around a principal axis; - a reference torque sensor arranged axially to the bearing flange and coupled to the bearing flange; and with - a connection portion provided axially to the reference torque sensor, to which a test subject torque sensor forming the torque measuring device to be calibrated can be coupled, characterised in that the bearing flange of the lever arm is mounted on a self-aligning bearing. - a force effect device for producing a force effect; - a lever arm coupled to the force effect device and transmitting the force effect, which comprises a bearing flange pivotable around a principal axis; - a reference torque sensor arranged axially to the bearing flange and coupled to the bearing flange; and with - a connection portion provided axially to the reference torque sensor, to which a test subject torque sensor forming the torque measuring device to be calibrated can be coupled, characterised in that
A busbar for a battery system, comprising: a first bar element and a second bar element spaced apart; a third bar element connecting the first bar element and the second bar element to form a common bar; wherein the third bar element is configured to electrically interconnect the first bar element and the second bar element as a shunt resistance with defined ohmic resistance, and wherein each of the first bar element and the second bar element comprises a plurality of contact sections (11,21) and wherein each contact section (11,21) is configured to be electrically connected to a single cell terminal. a first bar element and a second bar element spaced apart; a third bar element connecting the first bar element and the second bar element to form a common bar; wherein the third bar element is configured to electrically interconnect the first bar element and the second bar element as a shunt resistance with defined ohmic resistance, and wherein each of the first bar element and the second bar element comprises a plurality of contact sections (11,21) and wherein each contact section (11,21) is configured to be electrically connected to a single cell terminal.
A battery housing, particularly for an energy storage system for a hybrid drive, having a tubular main body and at least two end covers (19, 20) which are inserted in the main body, each having a closure plate (19.1, 20.1) which is arranged so as to be offset inwardly in the longitudinal direction of the main body, wherein the closure plate (19.1, 20.1) supports housing walls of the main body characterized in that the end covers (19, 20) are each welded to the main body in fluid-tight manner and all joints of the battery housing are formed without separate connecting elements.
A method for detecting colon cancer, gallbladder cancer or stomach cancer comprising the steps of: (a) detecting an expression level of the cancer marker hsa-miR-92 or hsa-miR-494 in serum or plasma, (b) detecting an expression level of the correction marker hsa-miR-638 in serum or plasma, wherein the expression level of the cancer marker is represented as a ratio between an amount of the cancer marker expressed in serum or plasma and an amount of the correction marker expressed in the serum or plasma, and (c) determining the possibility of the cancer based on the expression level of the cancer marker in serum or plasma detected in the cancer marker-detecting step by the following method: the expression level of the cancer marker in serum or plasma of a subject is compared with an expression level of the cancer marker in serum or plasma of a normal subject, and as the expression level in the subject is lower than the expression level in the normal subject, the cancer in the subject is determined. (a) detecting an expression level of the cancer marker hsa-miR-92 or hsa-miR-494 in serum or plasma, (b) detecting an expression level of the correction marker hsa-miR-638 in serum or plasma, wherein the expression level of the cancer marker is represented as a ratio between an amount of the cancer marker expressed in serum or plasma and an amount of the correction marker expressed in the serum or plasma, and (c) determining the possibility of the cancer based on the expression level of the cancer marker in serum or plasma detected in the cancer marker-detecting step by the following method: the expression level of the cancer marker in serum or plasma of a subject is compared with an expression level of the cancer marker in serum or plasma of a normal subject, and as the expression level in the subject is lower than the expression level in the normal subject, the cancer in the subject is determined. the expression level of the cancer marker in serum or plasma of a subject is compared with an expression level of the cancer marker in serum or plasma of a normal subject, and as the expression level in the subject is lower than the expression level in the normal subject, the cancer in the subject is determined.