mhurhangee/ep-ind-claims huggingface dataset:
A method for fabricating an embedded chip package comprising: providing a metalized mounting substrate (100, 102); coupling a first side of a die to a first surface of the mounting substrate; coupling a first side of a pre-fabricated interconnect structure to the first surface of the mounting substrate (100, 102) so that the first side of the pre-fabricated interconnect structure is coplanar with the first side of the die, the pre-fabricated interconnect structure comprising an insulating substrate having a plurality of metalized contact pads (52, 54, 56, 58) formed on top and bottom surfaces thereof, wherein the metalized contact pads (52, 54) on the top surface of the substrate are electrically connected to the metalized contact pads (56, 58) on the bottom surface of the substrate via a plurality of metal interconnects, wherein at least a portion of each of the plurality of metalized connections is directly coupled to the top surface of the dielectric layer; and forming a plurality of electrical connections between the die and the pre-fabricated interconnect structure, wherein the plurality of electrical connections create at least one input/output (I/O) from the die on a second surface (101, 130) of the mounting substrate (100, 102), opposite the first surface, and at least one I/O from the die on a second side of the pre-fabricated interconnect structure. providing a metalized mounting substrate (100, 102); coupling a first side of a die to a first surface of the mounting substrate; coupling a first side of a pre-fabricated interconnect structure to the first surface of the mounting substrate (100, 102) so that the first side of the pre-fabricated interconnect structure is coplanar with the first side of the die, the pre-fabricated interconnect structure comprising an insulating substrate having a plurality of metalized contact pads (52, 54, 56, 58) formed on top and bottom surfaces thereof, wherein the metalized contact pads (52, 54) on the top surface of the substrate are electrically connected to the metalized contact pads (56, 58) on the bottom surface of the substrate via a plurality of metal interconnects, wherein at least a portion of each of the plurality of metalized connections is directly coupled to the top surface of the dielectric layer; and forming a plurality of electrical connections between the die and the pre-fabricated interconnect structure, wherein the plurality of electrical connections create at least one input/output (I/O) from the die on a second surface (101, 130) of the mounting substrate (100, 102), opposite the first surface, and at least one I/O from the die on a second side of the pre-fabricated interconnect structure.
Shoe press roll cover for a machine for production and/or finishing of a fibrous material web, such as paper, cardboard or tissue web, comprising a matrix material composed of polyurethane formed essentially from 4,4'-MDI as isocyanate, at least one polyol and at least one crosslinker, characterized in that the polyurethane matrix material is biobased to an extent of at least 20% by weight, where the at least one polyol and the at least one crosslinker are selected from one of the following combinations: a) PTMEG as polyol and a mixture of MCDEA and PTMEG as crosslinker, where the PTMEG in the polyol and in the crosslinker is biobased; b) polycarbonate as polyol and a mixture of MCDEA and polycarbonate polyol as crosslinker, where the polycarbonate polyol in the crosslinker is biobased; c) a mixture of polycarbonate polyol and PTMEG as polyol and 1,4-BDO as crosslinker, where the polycarbonate polyol in the polyol is biobased; d) PTMEG as polyol and a mixture of PTMEG and MCDEA as crosslinker, where the 4,4'-MDI in the isocyanate and the PTMEG in the polyol are biobased. a) PTMEG as polyol and a mixture of MCDEA and PTMEG as crosslinker, where the PTMEG in the polyol and in the crosslinker is biobased; b) polycarbonate as polyol and a mixture of MCDEA and polycarbonate polyol as crosslinker, where the polycarbonate polyol in the crosslinker is biobased; c) a mixture of polycarbonate polyol and PTMEG as polyol and 1,4-BDO as crosslinker, where the polycarbonate polyol in the polyol is biobased; d) PTMEG as polyol and a mixture of PTMEG and MCDEA as crosslinker, where the 4,4'-MDI in the isocyanate and the PTMEG in the polyol are biobased.
A catalyst particle which is an alloy particle formed of platinum atoms and a non-platinum metal atoms, wherein (i) the alloy particle has an L1 2 structure as an internal structure and has an extent of ordering of L1 2 structure in the range of 30 to 100%; characterized in that: (ii) the alloy particle has an LP ratio of 10% or more, and (iii) the alloy particle has a d N /d A ratio in the range of 0.4 to 1.0, with d N representing a number average particle diameter and d A representing an area average particle diameter; wherein the catalyst particle comprises a carbon carrier having at least one or more functional groups selected from the group consisting of a lactone group, a hydroxyl group, an ether group, and a carbonyl group formed on the surface thereof; and wherein the LP ratio is calculated by a CO stripping method in accordance with the following steps: holding the catalyst particle at an electrode potential of 0.05 V versus a reference hydrogen electrode for 30 minutes at 25°C in 0.1 M of perchloric acid solution saturated with CO to adsorb CO onto the surface of the catalyst particle; replacing the CO in the solution with an inert gas while the electrode potential is maintained at 0.05 V; sweeping the potential from 0.05 V to 1.2 V at a scanning rate of 20 mV S -1 when the replacement is completed; measuring the peak area of a peak which appears at a low potential side of from 0.55 to 0.75 V in a stripping wave due to oxidation of CO; and dividing the measured peak area by the overall peak area of the stripping wave to calculate the LP ratio. (i) the alloy particle has an L1 2 structure as an internal structure and has an extent of ordering of L1 2 structure in the range of 30 to 100%; characterized in that: (ii) the alloy particle has an LP ratio of 10% or more, and (iii) the alloy particle has a d N /d A ratio in the range of 0.4 to 1.0, with d N representing a number average particle diameter and d A representing an area average particle diameter;
An apparatus comprising: a signal processing unit; an over-the-air chamber including a test zone and over-the-air antennas; and at least one calibration antenna placable in at least two positions in the test zone in the over-the-air chamber; wherein the at least one calibration antenna, at each position, is configured to receive a calibration transmission from the over-the-air antennas via undesired interactions between the calibration transmission and structures associated with the over-the-air chamber; wherein the signal processing unit is configured to: receive signals from the at least one calibration antenna of the at least two positions in response to a reception of the calibration transmission, form a calibrated chamber model with the undesired interactions based on the received signals, and store the calibrated chamber model for a cancellation of effects of the undesired interactions by a pre-distortion of a radio frequency transmission from the over-the-air antennas in the over-the-air chamber, wherein the signal processing unit is configured to form a distortion electric field by a convolution of the calibrated chamber model and a frequency response of a desired radio channel to be emulated, an inversion of the distortion electric field, a formation of a frequency response based on the inversion of the distortion electric field, and a combination of the frequency response of the desired radio channel to be emulated and the frequency response associated with the inversion of the distortion electric field for a cancellation of effects of the undesired interactions during emulation. a signal processing unit; an over-the-air chamber including a test zone and over-the-air antennas; and at least one calibration antenna placable in at least two positions in the test zone in the over-the-air chamber; receive signals from the at least one calibration antenna of the at least two positions in response to a reception of the calibration transmission, form a calibrated chamber model with the undesired interactions based on the received signals, and store the calibrated chamber model for a cancellation of effects of the undesired interactions by a pre-distortion of a radio frequency transmission from the over-the-air antennas in the over-the-air chamber,
A nanoparticle which comprises on its surface: an antibody that specifically binds to a target cell antigen or epitope thereof; and a moiety that binds to an antigen-specific T cell, wherein the moiety is selected from the group consisting of: (a) an anti-clonotypic TCR-specific antibody; (b) a monomeric MHC class I molecule comprising a peptide antigen recognized by the antigen-specific T cell; (c) a multimeric MHC class I molecule comprising a peptide antigen recognized by the antigen-specific T cell; (d) a monomeric MHC class II molecule comprising a peptide antigen recognized by the antigen-specific T cell; and (e) a multimeric MHC class II molecule comprising a peptide antigen recognized by the antigen-specific T cell, wherein the nanoparticle has a mean particle diameter of from 25 nm to 125 nm. an antibody that specifically binds to a target cell antigen or epitope thereof; and a moiety that binds to an antigen-specific T cell, wherein the moiety is selected from the group consisting of: (a) an anti-clonotypic TCR-specific antibody; (b) a monomeric MHC class I molecule comprising a peptide antigen recognized by the antigen-specific T cell; (c) a multimeric MHC class I molecule comprising a peptide antigen recognized by the antigen-specific T cell; (d) a monomeric MHC class II molecule comprising a peptide antigen recognized by the antigen-specific T cell; and (e) a multimeric MHC class II molecule comprising a peptide antigen recognized by the antigen-specific T cell, wherein the nanoparticle has a mean particle diameter of from 25 nm to 125 nm. (a) an anti-clonotypic TCR-specific antibody; (b) a monomeric MHC class I molecule comprising a peptide antigen recognized by the antigen-specific T cell; (c) a multimeric MHC class I molecule comprising a peptide antigen recognized by the antigen-specific T cell; (d) a monomeric MHC class II molecule comprising a peptide antigen recognized by the antigen-specific T cell; and (e) a multimeric MHC class II molecule comprising a peptide antigen recognized by the antigen-specific T cell,
A method for increasing expression of a protein of interest in a Gram positive bacterial cell comprising: (a) obtaining an altered Gram positive bacterial cell producing a protein of interest, wherein the altered Gram positive bacterial cell comprises at least one genetic alteration that reduces expression of the sinR gene of the sin operon wherein the genetic alteration is a silent mutation that is a G to A mutation in the sinR gene at a nucleotide position corresponding to nucleotide 330 of SEQ ID NO: 1; and (b) culturing the altered Gram positive bacterial cell under conditions such that the POI is expressed, wherein the increased amount of the POI is relative to the expression of the same POI in an unaltered Gram positive bacterial cell. (a) obtaining an altered Gram positive bacterial cell producing a protein of interest, wherein the altered Gram positive bacterial cell comprises at least one genetic alteration that reduces expression of the sinR gene of the sin operon wherein the genetic alteration is a silent mutation that is a G to A mutation in the sinR gene at a nucleotide position corresponding to nucleotide 330 of SEQ ID NO: 1; and (b) culturing the altered Gram positive bacterial cell under conditions such that the POI is expressed,
A coated steel sheet wherein the chemical composition of the steel contains in weight %: 0.13 % ≤ C ≤ 0.22 % 2.0 % ≤ Si ≤ 2.2 % 2.4 % ≤ Mn ≤ 3 % Al ≤ 0.5 % Ti ≤ 0.05 % Nb ≤ 0.05 % the remainder being Fe and unavoidable impurities, including less than 0.05% Ni, less than 0.05% Cr, less than 0.02% Mo, less than 0.03 % Cu, less than 0.007% V, less than 0.0010% B, less than 0.007 % S, less than 0.02% P and less than 0.010% N, wherein the structure consists of 3% to 15% of residual austenite and between 85% and 97% of the sum of martensite and bainite, without ferrite, wherein at least one face of the sheet comprises a metallic coating, the sheet having a yield strength of at least 800 MPa, a tensile strength of at least 1180 MPa, a total elongation of at least 14% and a hole expansion ratio HER, measured according to ISO standard 16630:2009, greater than 40%, and wherein the amount of martensite in the structure is of more than 50%. the remainder being Fe and unavoidable impurities, including less than 0.05% Ni, less than 0.05% Cr, less than 0.02% Mo, less than 0.03 % Cu, less than 0.007% V, less than 0.0010% B, less than 0.007 % S, less than 0.02% P and less than 0.010% N, wherein the structure consists of 3% to 15% of residual austenite and between 85% and 97% of the sum of martensite and bainite, without ferrite, wherein at least one face of the sheet comprises a metallic coating, the sheet having a yield strength of at least 800 MPa, a tensile strength of at least 1180 MPa, a total elongation of at least 14% and a hole expansion ratio HER, measured according to ISO standard 16630:2009, greater than 40%, and wherein the amount of martensite in the structure is of more than 50%.
A safety cabinet, in particular hazardous substances cabinet for storing liquid or gaseous hazardous substances, with a cabinet body, furthermore with at least one exhaust air line connected to the cabinet body, and with at least one sensor arranged on the exhaust air line for measuring the air volume, wherein the sensor is designed as a differential pressure sensor for determining a volume flow in the exhaust air line, and wherein the differential pressure sensor is connected to a control/regulating unit for regulating the volume flow, characterized in that the differential pressure sensor is equipped with two measuring chambers which are hermetically separated from one another and are separated from one another by a diaphragm, wherein a connecting hose connected to the exhaust air line extends from each measuring chamber, and wherein a differential pressure (Δp) corresponds to deformations of the diaphragm which are detected by means of the control/regulating unit. the differential pressure sensor is equipped with two measuring chambers which are hermetically separated from one another and are separated from one another by a diaphragm, wherein a connecting hose connected to the exhaust air line extends from each measuring chamber, and wherein a differential pressure (Δp) corresponds to deformations of the diaphragm which are detected by means of the control/regulating unit.
A method of manufacturing a treated material having adsorbent properties, the method comprising heating a starting material which is a waste product comprising organic matter so as to form a treated material comprising carbon, a charred portion or a carbonised portion, wherein the starting material comprises a waste product formed during a carbonatation and/or phosphatation decolourisation process.
A dispenser for pasty substances, consisting of a tubular substance housing having a follower plunger and a hand-actuatable headpiece which is equipped with a mouthpiece and is linearly guided for dispensing the substance and can be depressed in the direction of the follower plunger while tensioning a return spring element that structures itself by buckling, characterized in that the middle portion of the resilient return spring element folds up into the portioning chamber of the headpiece, the return spring element transitioning from a curved S-shape into the shape of two oppositely oriented U-portions (33, 33'), and the two end portions (28, 30) being clamped at the headpiece and at an upper tube part of the substance housing.
Insulation material (10, 10', 10'', 10"') for thermal and/or acoustic insulation, the insulation material comprising a plurality of layered sheets (1, 2, 3, 4, 5, 6, 7, 8) including one or more flexible polyimide aerogel film/s being at least partially covered with a reflective coating (2a, 2b, 4a, 4b, 6a, 6b, 7a, 7b) on one or both of its surfaces.
Method for generating contrast agent concentration map (4a-e) from a non-contrast enhanced Computed Tomography scan, a contrast enhanced Computed Tomography scan and corresponding spectral Computed Tomography data, comprising: a. Generating at least two different primary contrast agent concentration maps out of the non-contrast enhanced Computed Tomography scan, the contrast enhanced Computed Tomography scan and the spectral Computed Tomography data, b. Performing a local quality analysis of each primary contrast agent concentration map c. Determining local volumetric weights for each primary contrast agent concentration map based on the local quality analysis, and d. Generating a secondary contrast agent concentration map based on the two primary contrast agent concentration maps and on their corresponding local volumetric weights. a. Generating at least two different primary contrast agent concentration maps out of the non-contrast enhanced Computed Tomography scan, the contrast enhanced Computed Tomography scan and the spectral Computed Tomography data, b. Performing a local quality analysis of each primary contrast agent concentration map c. Determining local volumetric weights for each primary contrast agent concentration map based on the local quality analysis, and d. Generating a secondary contrast agent concentration map based on the two primary contrast agent concentration maps and on their corresponding local volumetric weights.
Electrical connector comprising: - a housing comprising a plurality of pathways extending along a longitudinal direction between a mating face of the housing and a back face of the housing adapted to receive an electrical member, - a grid mechanically connected to the housing and comprising a plurality of pathways extending along the longitudinal direction, and - a mat sealing joint, pressed between the housing and the grid, and comprising a peripheral portion and a central body comprising a plurality of pathways each extending along the longitudinal direction adapted to seal a respective electrical wire, each pathway of the grid corresponding to a pathway of the mat sealing joint and to a pathway of the housing, wherein the housing and the grid each comprises a sealing portion (19, 31), wherein the peripheral portion of the mat sealing joint is compressed between a sealing portions (19, 31) of the housing and the grid, and wherein the peripheral portion of the mat sealing joint, the housing and the grid each comprises an abutting surface (37b, 37c, 38, 39) oriented transverse to the longitudinal direction, the abutting surfaces (37b, 27c, 38, 39) abutting on one another characterized in that the peripheral portion has a cross-section shaped as a T, said T comprising a foot and a head, the foot extending in a plane transverse to the longitudinal direction, and the head extending along the longitudinal direction, wherein the foot is compressed between the sealing portions (19, 31) of the housing and of the grid, wherein the sealing portion of the housing has a surface normal to the longitudinal direction and facing upward, facing a lower surface of the foot, wherein the housing comprises a lateral abutting surface facing an abutting surface of the mat sealing joint, wherein the sealing portion of the grid has a surface normal to the longitudinal direction and facing downward, facing an upper surface of the foot, wherein the grid comprises a lateral abutting surface facing an abutting face of the mat sealing joint. - a housing comprising a plurality of pathways extending along a longitudinal direction between a mating face of the housing and a back face of the housing adapted to receive an electrical member, - a grid mechanically connected to the housing and comprising a plurality of pathways extending along the longitudinal direction, and - a mat sealing joint, pressed between the housing and the grid, and comprising a peripheral portion and a central body comprising a plurality of pathways each extending along the longitudinal direction adapted to seal a respective electrical wire,
A radial-flow rotor-stator mixer comprising: A. a housing comprising a first stator and a second stator; B. a rotor positioned between the first stator and the second stator so as to form a first pass between the rotor and the first stator and a second pass between the rotor and the second stator within the housing and to provide fluid communication between the first and second passes,, the rotor connected to a rotatable shaft; C. a primary inlet to the first pass at a low shear region; D. only four secondary inlets (37, 38) to the first pass at one or more regions of higher shear than that of the primary inlet with the proviso that three of the secondary inlets are equally spaced about the first stator and communicate with the first pass at or near the maximum distance from the rotatable shaft; and E. an outlet from the second pass. A. a housing comprising a first stator and a second stator; B. a rotor positioned between the first stator and the second stator so as to form a first pass between the rotor and the first stator and a second pass between the rotor and the second stator within the housing and to provide fluid communication between the first and second passes,, the rotor connected to a rotatable shaft; C. a primary inlet to the first pass at a low shear region; D. only four secondary inlets (37, 38) to the first pass at one or more regions of higher shear than that of the primary inlet with the proviso that three of the secondary inlets are equally spaced about the first stator and communicate with the first pass at or near the maximum distance from the rotatable shaft; and E. an outlet from the second pass.