mhurhangee/patent-ind-claim-en huggingface dataset:
A lithographic apparatus comprising: an illumination system (IL) configured to condition a radiation beam; a support (MT) configured to support a patterning device (MA), the patterning device being capable of imparting the radiation beam (B) with a pattern in its cross-section to form a patterned radiation beam; a substrate table (WT) configured to hold a substrate; a projection system (PL) configured to project the patterned radiation beam onto a target portion of the substrate, an alignment apparatus configured to align the substrate according to an alignment strategy, prior to the projection of the patterned radiation beam onto a target portion of the substrate; and a scanning control module configured to control at least one of the support, substrate table, and projection system by periodically retrieving measurements that define baseline control parameters from one or more monitor wafers to determine a parameter drift from the baseline control, the one or more wafers having been exposed using a first alignment strategy; wherein the apparatus is configured to, when exposing a production substrate using a second alignment strategy different from the first alignment strategy determine a parameter drift from the baseline control parameters and to make a correction based on the determination, characterized in that the scanning control module is configured to determine a difference between effects of the second and first alignment strategies during exposure of a substrate and to use the difference to make an adjustment to the correction. an illumination system (IL) configured to condition a radiation beam; a support (MT) configured to support a patterning device (MA), the patterning device being capable of imparting the radiation beam (B) with a pattern in its cross-section to form a patterned radiation beam; a substrate table (WT) configured to hold a substrate; a projection system (PL) configured to project the patterned radiation beam onto a target portion of the substrate, an alignment apparatus configured to align the substrate according to an alignment strategy, prior to the projection of the patterned radiation beam onto a target portion of the substrate; and a scanning control module configured to control at least one of the support, substrate table, and projection system by periodically retrieving measurements that define baseline control parameters from one or more monitor wafers to determine a parameter drift from the baseline control, the one or more wafers having been exposed using a first alignment strategy; wherein the apparatus is configured to, when exposing a production substrate using a second alignment strategy different from the first alignment strategy determine a parameter drift from the baseline control parameters and to make a correction based on the determination, characterized in that the scanning control module is configured to determine a difference between effects of the second and first alignment strategies during exposure of a substrate and to use the difference to make an adjustment to the correction.
A method for wireless communications by a user equipment , UE, comprising: identifying at least one narrowband region within a wider system bandwidth; determining at least one parameter assigned to the UE for transmitting symbols of a physical uplink channel in the narrowband region that are multiplexed with symbols transmitted by one or more other UEs, wherein the at least one parameter comprises at least one of a cyclic shift, spreading parameter, or a hopping pattern; and transmitting , to an evolved Node B , eNB, the symbols of the physical uplink channel using the at least one determined parameter, wherein the symbols of the physical uplink channel are repeated over multiple symbols within a same subframe and multiplexed using spreading codes over the multiple symbols in a time domain, wherein the symbols are transmitted using time-frequency resources used by the one or more other UEs, wherein the UE and the one or more other UEs operate in a narrowband region that spans a single resource block, RB, and wherein each of the UE and the one or more other UEs are assigned at least one tone of the single RB, wherein a RB comprises a plurality of tones and one slot period in the time domain, a subframe comprises two consecutive slots and each slot includes L OFDM symbols. identifying at least one narrowband region within a wider system bandwidth; determining at least one parameter assigned to the UE for transmitting symbols of a physical uplink channel in the narrowband region that are multiplexed with symbols transmitted by one or more other UEs, wherein the at least one parameter comprises at least one of a cyclic shift, spreading parameter, or a hopping pattern; and transmitting , to an evolved Node B , eNB, the symbols of the physical uplink channel using the at least one determined parameter, wherein the symbols of the physical uplink channel are repeated over multiple symbols within a same subframe and multiplexed using spreading codes over the multiple symbols in a time domain, wherein the symbols are transmitted using time-frequency resources used by the one or more other UEs, wherein the UE and the one or more other UEs operate in a narrowband region that spans a single resource block, RB, and wherein each of the UE and the one or more other UEs are assigned at least one tone of the single RB, wherein a RB comprises a plurality of tones and one slot period in the time domain, a subframe comprises two consecutive slots and each slot includes L OFDM symbols.
Adjustable steering column for a motor vehicle, comprising an actuating unit for the rotatable mounting of a steering shaft about a longitudinal axis , and a supporting unit , in which the actuating unit is mounted such that it can be displaced axially in the direction of the longitudinal axis of the steering shaft by means of a motorized longitudinal adjustment drive which is arranged on the supporting unit , and comprising, furthermore, a transmission device which is coupled firstly to the actuating unit and is coupled secondly to the longitudinal adjustment drive , an energy absorption apparatus being provided which absorbs energy in the case of a displacement of the actuating unit with respect to the transmission device, a coupling device with a coupling element being provided, which coupling device is connected to the actuating unit and is connected to the transmission device, the connection of the coupling device to the actuating unit and/or the transmission unit being cancelled in the case of a crash, in the case of which a force acts on the steering shaft in the direction of the longitudinal axis , which force exceeds a predefined value, with the result that a movement between the actuating unit and the transmission device is made possible, the coupling device having a pin-shaped holding element which protrudes into a slot of the coupling device, a blocking element being provided which blocks the movement of the holding element in the slot and, in the case of a crash, releases the movement of the holding element in the slot , characterized in that the blocking element consists of a plastic bar which extends transversely over the slot and is anchored into lateral recesses of the slot walls, which lateral recesses are arranged so as to lie opposite one another.
A rapid elevation floor system , for disposing over the bottom of a pool, comprising (A) a raisable floor including: (a) an inner elongated modular floor element ; (b) at least two peripheral elongated modular floor elements , having a peripheral elongated modular floor element ballasting receptacle portion outer facet ; (c) at least one cross intersection modular floor element ; (d) at least two T- intersection modular floor elements ; and (e) at least two corner modular floor elements , wherein each of said corner modular floor elements is operatively connected to two of said peripheral elongated modular floor elements , wherein each of said T-intersection modular floor elements is operatively connected to two peripheral elongated modular floor elements, wherein each of said inner elongated modular floor elements is operatively connected to one of said T-intersection modular floor elements , and to said at least one cross intersection modular floor elements , and wherein said raisable floor has a raisable floor upper surface , wherein each one of said inner elongated modular floor elements includes: (i) an inner elongated modular floor element ballasting receptacle portion , that can contain fluids, said inner elongated modular floor element ballasting receptacle portion having at least one top facet of inner elongated modular floor element ballasting receptacle portion ; (ii) an inner elongated modular floor element upper portion , disposed on said inner elongated modular floor element ballasting receptacle portion ; and (iii) an elongated flotation fluid conducting tubing mounted inside said inner elongated modular floor element upper portion . (a) an inner elongated modular floor element ; (b) at least two peripheral elongated modular floor elements , having a peripheral elongated modular floor element ballasting receptacle portion outer facet ; (c) at least one cross intersection modular floor element ; (d) at least two T- intersection modular floor elements ; and (e) at least two corner modular floor elements , (i) an inner elongated modular floor element ballasting receptacle portion , that can contain fluids, said inner elongated modular floor element ballasting receptacle portion having at least one top facet of inner elongated modular floor element ballasting receptacle portion ; (ii) an inner elongated modular floor element upper portion , disposed on said inner elongated modular floor element ballasting receptacle portion ; and (iii) an elongated flotation fluid conducting tubing mounted inside said inner elongated modular floor element upper portion .
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 multi-antigen construct, which comprises a nucleic acid molecule comprising: (i) at least one nucleotide sequence encoding an immunogenic MSLN polypeptide; (ii) at least one nucleotide sequence encoding an immunogenic MUC1 polypeptide; and (iii) at least one nucleotide sequence encoding an immunogenic TERT polypeptide; wherein: (i) the immunogenic MUC1 polypeptide comprises the amino acid sequence selected from the group consisting of: the amino acid sequence of SEQ ID NO:8; an amino acid sequence comprising amino acids 4-537 of SEQ ID NO:8 and an amino acid sequence comprising amino acids 24-537 of SEQ ID NO:8; (ii) the immunogenic MSLN polypeptide comprises the amino acid sequence of SEQ ID NO:6; or an amino acid sequence comprising amino acids 4-564 of the amino acid sequence of SEQ ID NO:6; and (iii) the immunogenic TERT polypeptide comprises: the amino acid sequence of SEQ ID NO:10; or an amino acid sequence comprising amino acids 2-892 of SEQ ID NO:10. (i) the immunogenic MUC1 polypeptide comprises the amino acid sequence selected from the group consisting of: the amino acid sequence of SEQ ID NO:8; an amino acid sequence comprising amino acids 4-537 of SEQ ID NO:8 and an amino acid sequence comprising amino acids 24-537 of SEQ ID NO:8; (ii) the immunogenic MSLN polypeptide comprises the amino acid sequence of SEQ ID NO:6; or an amino acid sequence comprising amino acids 4-564 of the amino acid sequence of SEQ ID NO:6; and (iii) the immunogenic TERT polypeptide comprises: the amino acid sequence of SEQ ID NO:10; or an amino acid sequence comprising amino acids 2-892 of SEQ ID NO:10.
Method for parameterizing a protective arrangement for an electrical energy network (L1,L2,L3), having the steps of: assigning output channels (I1,I2,I3,I4,V1,V2,V3,V4) of measuring devices to input channels of a data collection device by means of a first configuration device, and parameterizing communication connections between the data collection device and a protective device by means of a second configuration device, characterized in that the assignment of the measuring devices and the parameterization of the communication connections are predefined by means of a third configuration device using a single-line diagram , and in that process bus is used for the communication connections. assigning output channels (I1,I2,I3,I4,V1,V2,V3,V4) of measuring devices to input channels of a data collection device by means of a first configuration device, and parameterizing communication connections between the data collection device and a protective device by means of a second configuration device, characterized in that the assignment of the measuring devices and the parameterization of the communication connections are predefined by means of a third configuration device using a single-line diagram , and in that process bus is used for the communication connections.
An hydrocortisone pharmaceutical solution which comprises at least: - hydrocortisone or a pharmaceutically acceptable salt thereof; - rongalite; - disodium ethylenediaminetetraacetic (disodium EDTA); - a solvent. - hydrocortisone or a pharmaceutically acceptable salt thereof; - rongalite; - disodium ethylenediaminetetraacetic (disodium EDTA); - a solvent.
Switch cabinet arrangement having a switch cabinet housing and at least one air inlet or air outlet filter (1.1, 1.2) which has a filter housing which is mounted in a vertical housing wall of the switch cabinet housing and has a lamella grid on an outer side of the switch cabinet housing , wherein a filter substrate with a pleated filter is arranged in the filter housing , which filter substrate completely covers an air passage cross section (d) of the filter housing and has a liquid-absorbing absorber mat composed of nonwoven fabric , characterized in that the lamella grid has a multiplicity of vertically extending lamellas or consists of a multiplicity of lamellas which extend vertically and parallel to one another, wherein the pleated filter is arranged in the interior of the filter housing so as to face the lamella grid , and the lamellas extend parallel to the pleats of the pleated filter , such that a vertically running channel which is open towards the lamella grid is formed in each case between adjacent pleats of the pleated filter .
A composition comprising at least one SK2 channel blocker for use in treating a subject having fetal alcohol syndrome.
A thermoconductive adhesive sheet which is sheet-like formed of a resin composition comprising (A) silver particles, (B) a thermosetting resin, and (C) a binder resin, wherein: the silver particles (A) are secondary particles formed through aggregation of particles that contain primary particles having an average particle size of 10 to 100 nm, determined as described in the description, and the silver particles (A) have an average particle size of 0.5 to 5.0 pm, determined as described in the description. the silver particles (A) are secondary particles formed through aggregation of particles that contain primary particles having an average particle size of 10 to 100 nm, determined as described in the description, and the silver particles (A) have an average particle size of 0.5 to 5.0 pm, determined as described in the description.
Method of producing a component made of a fibre-reinforced composite material by forming a thermoplastic semi-finished product in a membrane press , with a lower press part on which a mould is is arranged, an upper press part which comprises an pressure case which can be sealed against the lower press part , at least one press cylinder which acts on the upper press part and/or the lower press part , a membrane which can be stretched over the mould , a vacuum pump with which a negative pressure can be produced on one side of the membrane , wherein at least one semi-finished product is placed in the form or a workpiece on or in the mould, wherein with the interspersion of the semi-finished product , the elastically expandable membrane is stretched over the mould and forming the component, the semi-finished product is formed, in that a negative pressure is applied to the membrane on the side facing the mould and an overpressure is applied to the side facing away from the mould, so that the semi-finished product takes on the shape of the mould, wherein a mould is used, which at least in sections is permeable to air, through which air is sucked during the production of the negative pressure, wherein the overpressure is at least 20 bar and wherein a mould made of a porous material is used.
A chimeric costimulatory receptor (CoStAR) comprising (i) a disease- or tumour-associated antigen binding domain; and (ii) an extracellular ligand-binding segment of a first costimulatory receptor protein, and (iii) a first intracellular segment comprising an intracellular signaling domain of the first costimulatory receptor protein, and (iv) a second intracellular segment comprising an intracellular signaling domain of a second receptor protein; wherein the first costimulatory receptor protein is CD28; and wherein the second receptor protein is CD40, wherein the disease- or tumour-associated antigen binding domain is attached to the extracellular ligand-binding segment of the first costimulatory receptor protein, and wherein the disease- or tumour-associated antigen binding domain is a cancer- or tumour-associated antigen binding domain. wherein the first costimulatory receptor protein is CD28; and wherein the second receptor protein is CD40, wherein the disease- or tumour-associated antigen binding domain is attached to the extracellular ligand-binding segment of the first costimulatory receptor protein, and wherein the disease- or tumour-associated antigen binding domain is a cancer- or tumour-associated antigen binding domain.
A method for operating a steam turbine with transient elevated turbine exhaust pressure, the method comprising: monitoring the turbine exhaust pressure (EXH P, 5); determining a last stage bucket annulus velocity (VAN, 10); operating a steam turbine according to normal trip settings for turbine exhaust pressure (EXH P, 5) as a function of last stage bucket annulus velocity (VAN, 10); monitoring for designated load loss conditions ; initiating a time dependent transient turbine exhaust pressure operating region under the designated load loss conditions ; operating according to the time dependent transient turbine exhaust pressure operating region , when the last stage bucket annulus velocity (VAN, 10) falls between an annulus velocity of 0 and a predetermined maximum annulus velocity level (Z) and the turbine exhaust pressure (EXH P, 5) is lower than a predetermined maximum trip setting (P MAX ) and greater than a predetermined normal trip setting (P MIN ); activating normal trip settings for turbine exhaust pressure when an operating time in the transient exhaust pressure operating region exceeds a predetermined time limit ; operating according to normal trip settings for turbine exhaust pressure when at least one of the last stage bucket annulus velocity (VAN, 10) is greater than the predetermined maximum annulus velocity level (Z) and the turbine exhaust pressure (EXH P, 5) is greater than the predetermined maximum trip setting (P MAX ) or lower than the predetermined normal trip setting (P MIN ). monitoring the turbine exhaust pressure (EXH P, 5); determining a last stage bucket annulus velocity (VAN, 10); operating a steam turbine according to normal trip settings for turbine exhaust pressure (EXH P, 5) as a function of last stage bucket annulus velocity (VAN, 10); monitoring for designated load loss conditions ; initiating a time dependent transient turbine exhaust pressure operating region under the designated load loss conditions ; operating according to the time dependent transient turbine exhaust pressure operating region , when the last stage bucket annulus velocity (VAN, 10) falls between an annulus velocity of 0 and a predetermined maximum annulus velocity level (Z) and the turbine exhaust pressure (EXH P, 5) is lower than a predetermined maximum trip setting (P MAX ) and greater than a predetermined normal trip setting (P MIN ); activating normal trip settings for turbine exhaust pressure when an operating time in the transient exhaust pressure operating region exceeds a predetermined time limit ; operating according to normal trip settings for turbine exhaust pressure when at least one of the last stage bucket annulus velocity (VAN, 10) is greater than the predetermined maximum annulus velocity level (Z) and the turbine exhaust pressure (EXH P, 5) is greater than the predetermined maximum trip setting (P MAX ) or lower than the predetermined normal trip setting (P MIN ).
A system comprising: an integrated circuit or integrated device comprising: a silicon substrate ; a sensor comprising: a bulk acoustic wave resonator ; and an acoustic mirror disposed between the bulk acoustic wave resonator and the substrate; a CMOS circuit supported by the substrate and operatively connected to the sensor; and a heater disposed between the acoustic mirror and the substrate; and a controller operatively connected to the integrated circuit or integrated device and configured to receive signals from the integrated circuit or integrated device and/or to provide control signals to the integrated circuit or integrated device, the controller arranged to cause heating of the heater to at least 100°C. an integrated circuit or integrated device comprising: a silicon substrate ; a sensor comprising: a bulk acoustic wave resonator ; and an acoustic mirror disposed between the bulk acoustic wave resonator and the substrate; a CMOS circuit supported by the substrate and operatively connected to a silicon substrate ; a sensor comprising: a bulk acoustic wave resonator ; and an acoustic mirror disposed between the bulk acoustic wave resonator and the substrate; a bulk acoustic wave resonator ; and an acoustic mirror disposed between the bulk acoustic wave resonator and the substrate; a CMOS circuit supported by the substrate and operatively connected to the sensor; and a heater disposed between the acoustic mirror and the substrate; and a controller operatively connected to the integrated circuit or integrated device and configured to receive signals from the integrated circuit or integrated device and/or to provide control signals to the integrated circuit or integrated device, the controller arranged to cause heating of the heater to at least 100°C.