mhurhangee/ep-ind-claims huggingface dataset:
An ultra-high strength weathering thin cast steel strip comprising: an as cast thickness of less than or equal to 2.5 mm having a composition comprising: by weight, between 0.20% and 0.40% carbon, less than 1.0% chromium, between 0.7% and 2.0% manganese, between 0.10% and 0.50% silicon, between 0.1% and 1.0% copper, less than or equal to 0.12% niobium, less than 0.5% molybdenum, between 0.5% and 1.5% nickel, and silicon killed containing less than 0.01% aluminum, and the remainder iron and impurities resulting from melting; a pair of opposing surfaces free of prior austenite grain boundary depressions or substantially free of prior austenite grain boundary depressions or primarily free of prior austenite grain boundary depressions and having a smear pattern, primarily free meaning less than 50% of each opposing hot rolled exterior side surface contains prior austenite grain boundaries or prior austenite grain boundary depressions after acid etching or pickling, substantially free meaning that 10% or less of each opposing hot rolled exterior side surface contains prior austenite grain boundary depressions or prior austenite grain boundary depressions after acid etching or pickling; and a microstructure having by volume at least 75% martensite formed from austenite grains of greater than 100 μm, a corrosion index of 6.0 or greater wherein the corrosion index is calculated as Cu*26.01 + Ni*3.88 + Cr*1.2 + Si*1.49 + P*17.28 - Cu*Ni*7.29 - Ni*P*9.1 - Cu*Cu*33.39, where each element is a by weight percentage, a yield strength of between 700 and 1600 MPa, a tensile strength of between 1000 and 2100 MPa, and an elongation of between 1% and 10%, whereby the microstructure and the grain boundary depressions are determined according to the description. a pair of opposing surfaces free of prior austenite grain boundary depressions or substantially free of prior austenite grain boundary depressions or primarily free of prior austenite grain boundary depressions and having a smear pattern, primarily free meaning less than 50% of each opposing hot rolled exterior side surface contains prior austenite grain boundaries or prior austenite grain boundary depressions after acid etching or pickling, substantially free meaning that 10% or less of each opposing hot rolled exterior side surface contains prior austenite grain boundary depressions or prior austenite grain boundary depressions after acid etching or pickling; and a microstructure having by volume at least 75% martensite formed from austenite grains of greater than 100 μm, a corrosion index of 6.0 or greater wherein the corrosion index is calculated as Cu*26.01 + Ni*3.88 + Cr*1.2 + Si*1.49 + P*17.28 - Cu*Ni*7.29 - Ni*P*9.1 - Cu*Cu*33.39, where each element is a by weight percentage, a yield strength of between 700 and 1600 MPa, a tensile strength of between 1000 and 2100 MPa, and an elongation of between 1% and 10%, whereby the microstructure and the grain boundary depressions are determined according to the description.
A computer-implemented method, comprising: receiving, by an access broker, a response from an authorization entity to a request from an application executing on a computing device whether the application is permitted to access user resources, the response including an application identifier for the application; and providing, by the access broker, a token to the application that enables access to the user resources if the application identifier matches a system application identifier obtained from the computing device on which the application is executing. receiving, by an access broker, a response from an authorization entity to a request from an application executing on a computing device whether the application is permitted to access user resources, the response including an application identifier for the application; and providing, by the access broker, a token to the application that enables access to the user resources if the application identifier matches a system application identifier obtained from the computing device on which the application is executing.
An arrangement for analyzing a fluid, comprising beam splitter and mixer optics configured to spatially mix an optical signal and split the same into at least two spatial sub-beams (15a; 15b); a flow cell configured to spectrally influence the at least two spatial sub-beams (15a; 15b) or the optical signal by means of a sample of the fluid; and a measuring device with n measuring fields that is configured to measure the at least two spatially separated sub-beams (15a; 15b), wherein the flow cell is substantially completely transilluminated by each of the at least two spatial sub-beams (15a; 15b), and wherein the beam splitter and mixer optics comprise a diffractive optical element configured to spatially mix the optical signal and to perform a beam splitting of 1 to n into n sub-beams (15a; 15b) for n measuring fields of the measuring device, wherein n is a non-negative integer greater than 1. beam splitter and mixer optics configured to spatially mix an optical signal and split the same into at least two spatial sub-beams (15a; 15b); a flow cell configured to spectrally influence the at least two spatial sub-beams (15a; 15b) or the optical signal by means of a sample of the fluid; and a measuring device with n measuring fields that is configured to measure the at least two spatially separated sub-beams (15a; 15b), wherein the flow cell is substantially completely transilluminated by each of the at least two spatial sub-beams (15a; 15b), and wherein the beam splitter and mixer optics comprise a diffractive optical element configured to spatially mix the optical signal and to perform a beam splitting of 1 to n into n sub-beams (15a; 15b) for n measuring fields of the measuring device, wherein n is a non-negative integer greater than 1.
A method of inserting a device into a bundle of elongated members between at least two adjacent elongated members comprising: (a) inserting an inflatable spreading tool in a deflated condition between at least two adjacent elongated members, the adjacent elongated members being spaced an initial distance from each other; (b) inflating the inflatable spreading tool to increase the distance between the adjacent elongated members; (c) inserting the device between the adjacent elongated members and subsequently deflating the inflatable spreading tool; and (d) removing the deflated spreading tool from between the elongated members. (a) inserting an inflatable spreading tool in a deflated condition between at least two adjacent elongated members, the adjacent elongated members being spaced an initial distance from each other; (b) inflating the inflatable spreading tool to increase the distance between the adjacent elongated members; (c) inserting the device between the adjacent elongated members and subsequently deflating the inflatable spreading tool; and (d) removing the deflated spreading tool from between the elongated members.
A method for size estimation of in-vivo objects, the method comprising: displaying a two-dimensional image of in-vivo objects obtained by an in-vivo imaging device, said image comprising image pixels; receiving indication of a selected area representing a point of interest from the user; estimating the depth of a plurality of image pixels around the selected area; calculating a three-dimensional coordinate representation of the plurality of image pixels, based on the estimated depths; casting a virtual tool of a known size onto the three-dimensional representation, the virtual tool having an origin point and multiple lengths from the origin point in multiple directions that end at ending points in the multiple directions, and positioning said ending points of the multiple lengths on points defined by three coordinates in three-dimensional space, on the three-dimensional representation, wherein each of the ending points is positioned at a same absolute distance from the point of interest in the three-dimensional representation; and projecting the virtual tool onto the two-dimensional image to create a cursor having a two-dimensional shape on the displayed image, the cursor having multiple dimensions in different directions, the dimensions ending at the determined ending points projected on the two-dimensional image. displaying a two-dimensional image of in-vivo objects obtained by an in-vivo imaging device, said image comprising image pixels; receiving indication of a selected area representing a point of interest from the user; estimating the depth of a plurality of image pixels around the selected area; calculating a three-dimensional coordinate representation of the plurality of image pixels, based on the estimated depths; casting a virtual tool of a known size onto the three-dimensional representation, the virtual tool having an origin point and multiple lengths from the origin point in multiple directions that end at ending points in the multiple directions, and positioning said ending points of the multiple lengths on points defined by three coordinates in three-dimensional space, on the three-dimensional representation, wherein each of the ending points is positioned at a same absolute distance from the point of interest in the three-dimensional representation; and projecting the virtual tool onto the two-dimensional image to create a cursor having a two-dimensional shape on the displayed image, the cursor having multiple dimensions in different directions, the dimensions ending at the determined ending points projected on the two-dimensional image.
Testing device for testing quality of an EVOH barrier layer of a multicomponent plastic injection-molded part comprising an EVOH barrier layer, in particular of containers or seals, with IR radiator elements for applying the plastic injection-molded parts with IR radiation, with IR camera elements for capturing image data of the plastic injection-molded parts applied with IR radiation and analysis elements connected to the camera elements in a signal conductive manner for evaluation of the image data regarding quality of the EVOH barrier layer, as well as conveying elements for transporting the plastic injection-molded parts to the IR camera elements, characterized in that the conveying elements are configured to transport the plastic injection-molded parts to a first testing position, to which a first IR camera of the camera elements for capturing first image data, which is arranged on a side of the plastic injection-molded parts facing away from the IR radiator elements, is assigned, and thereafter to a second testing position, to which a second IR camera of the camera elements for capturing second image data arranged on a side of the plastic injection-molded parts facing away from the IR radiator elements is assigned, and in that the conveying elements comprise at least two different conveyor sections, which shade or cover in the first and second testing position (10, 11) regions, differing from one another, of an axial projection surface of the plastic injection-molded parts resting on the different conveyor sections with different surface sections, wherein one of the testing positions comprises two conveyor sections spaced from one another vertically to the conveying direction.
A gallium-containing compound comprising the moiety GaR 1 R 2 R 3 R 4 whereby R 1 is a fluoroalkyl, fluoroalkenyl and/or fluoroalkynyl moiety of the structure C m H n F o, whereby m > 1, n ≥ 0 and o > 0, whereby in one or more C-C bonds (if they are present) a -O-, -S-, -NH-, -CO-, -COO-, -OCO-, -OCO-O-, -SO 2 -, -S-CO-, -CO-S- unit may be inserted in that way that O and/or S atoms are not directly bound to each other. R 2 to R 4 are independently from each other a moiety as defined for R 1, halogen, fluoroaryl, amines,aminocycloalkyl, N-heteroaryl, phosphanides, amide, phosphanes, alkyloxy, ethers, water or a moiety of the structure -R 5 -GaR 6 R 7 R 8 whereby R 5 is selected out of the group comprising halogen, O, alkyloxy, amine, phosphanide, R 6 is defined same as R 1 and R 7 and R 8 are defined as a moiety as defined for R 1, halogen, fluoroaryl, amines, aminocycloalkyl, N-heteroaryl, phosphanides, amide, phosphanes, alkyloxy, ethers, water. R 1 is a fluoroalkyl, fluoroalkenyl and/or fluoroalkynyl moiety of the structure C m H n F o, whereby m > 1, n ≥ 0 and o > 0, whereby in one or more C-C bonds (if they are present) a -O-, -S-, -NH-, -CO-, -COO-, -OCO-, -OCO-O-, -SO 2 -, -S-CO-, -CO-S- unit may be inserted in that way that O and/or S atoms are not directly bound to each other. R 2 to R 4 are independently from each other a moiety as defined for R 1, halogen, fluoroaryl, amines,aminocycloalkyl, N-heteroaryl, phosphanides, amide, phosphanes, alkyloxy, ethers, water or a moiety of the structure -R 5 -GaR 6 R 7 R 8 whereby R 5 is selected out of the group comprising halogen, O, alkyloxy, amine, phosphanide, R 6 is defined same as R 1 and R 7 and R 8 are defined as a moiety as defined for R 1, halogen, fluoroaryl, amines, aminocycloalkyl, N-heteroaryl, phosphanides, amide, phosphanes, alkyloxy, ethers, water.
An electric power generator comprising at least a first electrode and a second electrode, wherein the electric power generator comprises an active material between said electrodes (11,12), said active material comprising at least one oxygen-containing compound selected from Fe 3 O 4 and Fe 2 O 3, at least one thickener additive selected from the group consisting of agar agar, xanthan gum, methylcellulose, and arabic gum, and at least one plasticizer additive, wherein the particle size of the at least one oxygen-containing compound has an average diameter in the range from 10 nm to 40 μm.
A microspeaker having a frame, a magnetic circuit, a voice coil, a diaphragm, and a soldering structure, comprising: a suspension guiding a vibrating direction of the diaphragm and the voice coil, made of a conductive material to apply electrical signals to the voice coil, and having a land portion for soldering at its corners, the land portion having a through hole; and a terminal pad secured to the frame, one end of which being brought into contact with a terminal outside of the microspeaker, the other end of which passing through the through hole of the suspension, wherein the terminal pad is insert injection-molded into the frame, a protruding portion passing through the through hole of the suspension being exposed to the outside of the frame. a suspension guiding a vibrating direction of the diaphragm and the voice coil, made of a conductive material to apply electrical signals to the voice coil, and having a land portion for soldering at its corners, the land portion having a through hole; and a terminal pad secured to the frame, one end of which being brought into contact with a terminal outside of the microspeaker, the other end of which passing through the through hole of the suspension, wherein the terminal pad is insert injection-molded into the frame, a protruding portion passing through the through hole of the suspension being exposed to the outside of the frame.
A porous tantalum rod comprising a fastening structure formed on one end of the porous tantalum rod, characterized in that, a through hole formed on the center of the porous tantalum rod; and the porous tantalum material used on the porous tantalum rod produced by foam impregnation and having a foam structure with three-dimensional interconnecting pores, wherein the foam structure has a foam skeleton, tantalum particles accumulated on the foam skeleton, and multiple sintering neck structures formed between the tantalum particles, wherein the porous tantalum material is produced by sintering the tantalum powder having an average diameter of less than 50μm and oxygen content less than 0.1%, wherein the produced porous tantalum material has 30-85% of porosity and 150-600μm of pore diameter, and the sintering neck structures are formed between at least 50%-95% of the tantalum particles.
A compound which is 1-N'-(4-fluorophenyl)-1-N-[4-[7-methoxy-6-(methylcarbamoyl)quinolin-4-yl]oxyphenyl]cyclopropane-1,1-dicarboxamide: or a pharmaceutically acceptable salt thereof.
An electronic device comprising: a die comprising a radio frequency input/output path electrically connected to a first bond pad of the die and a second input/output path electrically connected to a second bond pad of the die, the RF input/output path being connected to a circuit of the die configured to process an RF signal, and the second I/O path being connected to a circuit of the die configured to process a second signal, the second signal being a non-RF signal; a first bond wire electrically connected to the first bond pad of the die; a second bond wire electrically connected to the second bond pad of the die; and a termination circuit (22a, 22c) electrically connected to the second bond pad of the die, wherein the termination circuit comprises a series RC circuit, and wherein the termination circuit is configured to prevent an effective capacitance of a load on the die electrically connected to the second bond pad from resonating due to crosstalk between the first I/O path and the second I/O path. a die comprising a radio frequency input/output path electrically connected to a first bond pad of the die and a second input/output path electrically connected to a second bond pad of the die, the RF input/output path being connected to a circuit of the die configured to process an RF signal, and the second I/O path being connected to a circuit of the die configured to process a second signal, the second signal being a non-RF signal; a first bond wire electrically connected to the first bond pad of the die; a second bond wire electrically connected to the second bond pad of the die; and a termination circuit (22a, 22c) electrically connected to the second bond pad of the die, wherein the termination circuit comprises a series RC circuit, and wherein the termination circuit is configured to prevent an effective capacitance of a load on the die electrically connected to the second bond pad from resonating due to crosstalk between the first I/O path and the second I/O path.
A sheet stacking apparatus comprising: a sheet stacking unit on which one or more sheets are stacked; a descending control means (235, 102) capable of causing the sheet stacking unit to descend to a lower limit position according to a stacked-sheet amount of sheets on the sheet stacking unit; a determination means for determining that descending of the sheet stacking unit controlled by the descending control means (235, 102) is interrupted at a first position different from the lower limit position due to an obstacle present under the sheet stacking unit; and a control means for stopping sheet stacking on the sheet stacking unit at the first position when the descending of the sheet stacking unit is determined by the determination means to be interrupted during the sheet stacking on the sheet stacking unit, characterised in that the control means is adapted to perform control for causing the sheet stacking unit to ascend when a sheet stacked on the sheet stacking unit is removed in a state in which the sheet stacking on the sheet stacking unit is stopped at the first position, and perform control for resuming the sheet stacking on the sheet stacking unit after the ascending is complete when the obstacle is still present under the sheet stacking unit. a sheet stacking unit on which one or more sheets are stacked; a descending control means (235, 102) capable of causing the sheet stacking unit to descend to a lower limit position according to a stacked-sheet amount of sheets on the sheet stacking unit; a determination means for determining that descending of the sheet stacking unit controlled by the descending control means (235, 102) is interrupted at a first position different from the lower limit position due to an obstacle present under the sheet stacking unit; and a control means for stopping sheet stacking on the sheet stacking unit at the first position when the descending of the sheet stacking unit is determined by the determination means to be interrupted during the sheet stacking on the sheet stacking unit, characterised in that the control means is adapted to perform control for causing the sheet stacking unit to ascend when a sheet stacked on the sheet stacking unit is removed in a state in which the sheet stacking on the sheet stacking unit is stopped at the first position, and perform control for resuming the sheet stacking on the sheet stacking unit after the ascending is complete when the obstacle is still present under the sheet stacking unit.
A method of producing light emitting diodes, comprising stacking a second conductive type cladding layer, an active layer and a first conductive type cladding layer on a front surface of a specific substrate, forming an array of a plurality of light emitting diodes from said second conductive type cladding layer, said active layer and said first conductive type cladding layer on said specific substrate, separating said array of light emitting diodes into individual light emitting diodes, and separating each of said light emitting diodes from said specific substrate, wherein separating each of the light emitting diodes from said specific substrate comprises irradiating each of said light emitting diodes with an energy beam from the back surface of said specific substrate and subsequently peeling the specific substrate from the second conductive type cladding layer, wherein before the irradiation of an energy beam from the back surface of said specific substrate, an adhesive material layer is formed overall on a temporarily holding board, and a front surface of the adhesive material layer is brought into press-contact with the light emitting diodes such that the light emitting diodes are embedded in the adhesive material layer and each of said light emitting diodes on said specific substrate is temporarily adhesively bonded to the front surface of said adhesive material layer so as to be held between said specific substrate and said temporarily holding board, wherein by the irradiation of the energy beam from the back surface of said specific substrate the material forming the second conductive type cladding layer at a boundary between the specific substrate and the second conductive type cladding layer is decomposed so that the bonding force between the second conductive type cladding layer and the specific substrate becomes weak, and wherein after peeling the specific substrate from the second conductive type cladding layer each light emitting diode, separated from said specific substrate, is held on the adhesive material layer of said temporarily holding board.
A CT-1 (cardiotrophin-1) inhibitor for use in treatment of tumor growth in stroma environment mediated by fibroblast autophagy wherein an increase in CT-1 level of more than 1.4 fold with respect to standard CT-1 levels in healthy subjects indicates presence of stroma supported tumor growth, wherein the inhibitor is selected from the group comprising a siRNA, shRNA, miRNA, lncRNA suppressing CT1 or CT1R expression, an aptamer, and an antibody blocking CT-1 function selected from a monoclonal, polyclonal, chimeric, humanised or bispecific antibody.
A polyethylene resin composition comprising, as a main polymer, a high pressure process low-density polyethylene and, as a sub-polymer, a metallocene-type low-density polyethylene and a high pressure process low-density polyethylene having an MFR larger than that of said main polymer, said polyethylene resin composition being, further, blended with a bleeding additive, wherein the content of said main polymer is in a range of 55 to 80% by weight, the content of said high pressure process low density polyethylene is in a range of 0.5 to 10% by weight, the content of said metallocene-type low-density polyethylene is in a range of not more than 44.5% by weight, and the content of the bleeding additive is in a range of not less than 0.1% by weight.