mhurhangee/ep-ind-claims huggingface dataset:
A method for forming sacrificial anodes for installation in an ionically conductive medium at an installation site which medium contains metal requiring cathodic protection, the method comprising: locating in a receptacle a plurality of anode bodies each comprising a sacrificial material and at least one component for use in making electrical connection between the body and the metal; providing in the receptacle dividing members defining a plurality of chambers with each chamber containing a respective one of the anode bodies; and casting into the receptacle a covering material such that the covering material is in contact with at least a portion of each anode body. locating in a receptacle a plurality of anode bodies each comprising a sacrificial material and at least one component for use in making electrical connection between the body and the metal; providing in the receptacle dividing members defining a plurality of chambers with each chamber containing a respective one of the anode bodies; and casting into the receptacle a covering material such that the covering material is in contact with at least a portion of each anode body.
An insulating sheet comprising: a thermosetting component; and a thermally conductive filler, the thermally conductive filler containing boron nitride, the insulating sheet having a first surface on one side in a thickness direction and a second surface on the other side in the thickness direction, and wherein the content of the boron nitride is 30% by volume or more and 80% by volume or less in 100% by volume of the insulating sheet, and wherein a first content of the boron nitride in 100% by volume of a region having a thickness of 10% of a thickness of the sheet, from the first surface toward the second surface is smaller than a second content of the boron nitride in 100% by volume of a region having a thickness of 90% of a thickness of the sheet, from the second surface toward the first surface. a thermosetting component; and a thermally conductive filler, the thermally conductive filler containing boron nitride, the insulating sheet having a first surface on one side in a thickness direction and a second surface on the other side in the thickness direction, and wherein the content of the boron nitride is 30% by volume or more and 80% by volume or less in 100% by volume of the insulating sheet, and wherein a first content of the boron nitride in 100% by volume of a region having a thickness of 10% of a thickness of the sheet, from the first surface toward the second surface is smaller than a second content of the boron nitride in 100% by volume of a region having a thickness of 90% of a thickness of the sheet, from the second surface toward the first surface.
A communication chip, comprising a baseband central processing unit, CPU,, a first protocol interface, a selector switch and a subscriber identity module zone unit, wherein the selector switch is in a state of communication with the subscriber identity module zone unit all the time and is connected to the subscriber identity module zone unit and the first protocol interface, wherein the baseband CPU is connected to the first protocol interface and the selector switch is connected to a third interface; and when the selector switch is in a state of communication with the first protocol interface, the subscriber identity module zone unit is configured to provide a subscriber identity module, SIM, card functionality for the baseband CPU; when the selector switch is in a state of communication with the third interface, the subscriber identity module zone unit is configured to receive data written from the third interface, characterized in that the first protocol interface is a protocol interface based on a smart card international standard ISO7816, wherein the subscriber identity module zone unit comprises a random access memory RAM, a chip operating system COS storage unit, a micro-control unit MCU, a second protocol interface and a personalization data storage unit; the RAM, the COS storage unit, the second protocol interface and the personalization data storage unit are connected to the MCU, respectively; the subscriber identity module zone unit is connected to the selector switch through the second protocol interface; the RAM is configured to store temporary data for running of the COS on the MCU; the COS storage unit is configured to store program codes of the COS; the MCU is configured to run the COS; the second protocol interface is configured to provide a communication function which enables the subscriber identity module zone unit to be in communication with the baseband CPU and a programming function which enables the programming of the COS storage unit and the writing of personalization data into the personalization data storage unit through the third interface; and the personalization data storage unit is configured to store the personalization data; the third interface is a COS programming interface or a personalization data writing interface; and in a second-generation 2G network, the personalization data comprises one of International Mobile Subscriber Identity IMSI, Integrate Circuit Card Identity ICCID, personal identity numbers PIN1 and PIN2, PIN Unlocking Keys PUK1 and PUK2, Key Identifier KI and Short Message Service Platform SMSP, or a combination thereof; and in a third-generation 3G network, the personalization data comprises one of IMSI, ICCID, PIN1, PIN2, PUK1, PUK2, key K, Operator Key OPC and SMSP, or a combination thereof.
A chemical oxygen demand measuring method comprising the steps of: selecting a plurality of wavelengths for measuring COD components in a sample water within a ultraviolet region; measuring the absorbances at the plurality of wavelengths and COD values at a plurality of periods of time with respect to a sample water to be measured; preparing a plurality of the COD conversion equations, each indicating a relationship between total-absorbance values associated with the plurality of periods of time and the measured COD values, wherein the total-absorbance values for each COD conversion equation are obtained by multiplying the absorbances at the plurality of wavelengths by weighting factors of a set of weighting factors, which is associated with the COD conversion equation, and by linearly combining the weighted absorbances at the wavelengths; and among the plurality of COD conversion equations, determining the equation that exhibits the best correlation as the COD conversion equation for the sample water, measuring the absorbances of the sample water in the wavelengths; and calculating the COD value from the COD conversion equation by using the absorbances measured. selecting a plurality of wavelengths for measuring COD components in a sample water within a ultraviolet region; measuring the absorbances at the plurality of wavelengths and COD values at a plurality of periods of time with respect to a sample water to be measured; preparing a plurality of the COD conversion equations, each indicating a relationship between total-absorbance values associated with the plurality of periods of time and the measured COD values, wherein the total-absorbance values for each COD conversion equation are obtained by multiplying the absorbances at the plurality of wavelengths by weighting factors of a set of weighting factors, which is associated with the COD conversion equation, and by linearly combining the weighted absorbances at the wavelengths; and among the plurality of COD conversion equations, determining the equation that exhibits the best correlation as the COD conversion equation for the sample water, measuring the absorbances of the sample water in the wavelengths; and calculating the COD value from the COD conversion equation by using the absorbances measured.
Binder composition comprising a) component A comprising polymer(s) A1 having primary and/or secondary amino groups wherein polymer(s) A1 has(have) a NC ps of at least 1 wt.-%, wherein the polymer(s) A1 comprise(s) polymerization product(s) of i) amino acids, preferably comprising at least two amino groups, and/or ii) amines comprising at least two amino groups, wherein the amines are no amino acids, and amino acids, and/or iii) amines comprising at least two amino groups, wherein the amines are no amino acids, and di and/or tricarboxylic acids, which are preferably no amino acid(s), and optionally amino acids and/or iv) at least two compounds defined in i) to iii), and b) component B comprising component B1 which is 1,3-dihydroxyacetone, glycolaldehyde, glyceraldehyde or any mixture thereof, wherein polymer(s) A1 has(have) a total weight average molecular weight M w,total of at least 800 g/mol. a) component A comprising polymer(s) A1 having primary and/or secondary amino groups wherein polymer(s) A1 has(have) a NC ps of at least 1 wt.-%, wherein the polymer(s) A1 comprise(s) polymerization product(s) of i) amino acids, preferably comprising at least two amino groups, and/or ii) amines comprising at least two amino groups, wherein the amines are no amino acids, and amino acids, and/or iii) amines comprising at least two amino groups, wherein the amines are no amino acids, and di and/or tricarboxylic acids, which are preferably no amino acid(s), and optionally amino acids and/or iv) at least two compounds defined in i) to iii), and i) amino acids, preferably comprising at least two amino groups, and/or ii) amines comprising at least two amino groups, wherein the amines are no amino acids, and amino acids, and/or iii) amines comprising at least two amino groups, wherein the amines are no amino acids, and di and/or tricarboxylic acids, which are preferably no amino acid(s), and optionally amino acids and/or iv) at least two compounds defined in i) to iii), b) component B comprising component B1 which is 1,3-dihydroxyacetone, glycolaldehyde, glyceraldehyde or any mixture thereof,
Apparatus for use with a mitral valve of a heart of a subject, the apparatus comprising: a P1-anchor, a P2-anchor, and a P3-anchor, configured to become anchored to tissue in a vicinity of, respectively, P1, P2 and P3 segments of a posterior leaflet of the mitral valve, a tether being fixedly coupled between the P1 and P3 anchors to the P2-anchor, and slidably coupled to the P1 and P3 anchors; and a cardiac-site anchor configured to anchor the ends of the tether to an anchoring location that is at a cardiac site that is anterior and inferior to the posterior leaflet. a P1-anchor, a P2-anchor, and a P3-anchor, configured to become anchored to tissue in a vicinity of, respectively, P1, P2 and P3 segments of a posterior leaflet of the mitral valve, a tether being fixedly coupled between the P1 and P3 anchors to the P2-anchor, and slidably coupled to the P1 and P3 anchors; and a cardiac-site anchor configured to anchor the ends of the tether to an anchoring location that is at a cardiac site that is anterior and inferior to the posterior leaflet.
A core needle biopsy device, comprising: (a) a needle assembly, wherein the needle assembly includes a piercer and a hollow cutter, wherein the piercer includes a sharp distal tip and a notch proximal to the distal tip, wherein the piercer is slidably disposed within the cutter to sever a tissue sample into the notch of the piercer; (b) a cutter drive assembly, wherein the cutter drive assembly is configured to selectively fire the cutter; (c) a piercer drive assembly, wherein the piercer drive assembly is configured to selectively fire the piercer; and (d) a drive assembly having a piercer retraction assembly, characterized by the drive assembly including a lead screw engaged with the piercer drive assembly and the cutter drive assembly such that rotation of the lead screw sequentially translates a portion of the piercer drive assembly and the cutter drive assembly, wherein rotation of the lead screw retracts the piercer, via retraction of the piercer retraction assembly, independently of the cutter while the needle assembly is disposed within a patient to expose a distal portion of the piercer to an exterior of a patient while at least a portion of the piercer remains within the cutter. (a) a needle assembly, wherein the needle assembly includes a piercer and a hollow cutter, wherein the piercer includes a sharp distal tip and a notch proximal to the distal tip, wherein the piercer is slidably disposed within the cutter to sever a tissue sample into the notch of the piercer; (b) a cutter drive assembly, wherein the cutter drive assembly is configured to selectively fire the cutter; (c) a piercer drive assembly, wherein the piercer drive assembly is configured to selectively fire the piercer; and (d) a drive assembly having a piercer retraction assembly, characterized by the drive assembly including a lead screw engaged with the piercer drive assembly and the cutter drive assembly such that rotation of the lead screw sequentially translates a portion of the piercer drive assembly and the cutter drive assembly, wherein rotation of the lead screw retracts the piercer, via retraction of the piercer retraction assembly, independently of the cutter while the needle assembly is disposed within a patient to expose a distal portion of the piercer to an exterior of a patient while at least a portion of the piercer remains within the cutter.
A lactic acid bacterial strain having at least 99% identity to the nucleic acid sequence of the genome of L reuteri JCM 1112 (SEQ ID NO: 1), and harboring an identical nucleotide relative to the nucleic acid sequence of the genome of L reuteri JCM 1112 (SEQ ID NO: 1) in all of the following four positions: C in base pair 271 391, G in base pair 453 538, G in base pair 529 228, and C in base pair 599 338, for use in the prevention or treatment of bone loss.
Package or product comprising a non-opened position and an opened position, in which opened position the package or product comprises at least one expanded space for contents or objects, which at least one expanded space is formed of at least one flexible part, which is a flexible pouch type container part, and in which package or product to the at least one flexible part is attached at least one stiff support part, in which package or product the at least one stiff support part forms in the opened position at least part of wall structure of the package or product, in which opened position the support part of stiff material converts to different position and forms walls of the package or product, while the flexible part remains unbroken adapting to the configuration of the stiff support part, which package or product further comprises at least one opening point (16, 17), in which package or product the at least one flexible part and the at least one stiff support part form the at least one expanded space for the objects or contents and the at least one flexible part is fitted to form the expanded space for the objects or contents adapting to the support structure formed by the at least one stiff support part, and which package or product is self-standing, in which non-opened position the package or product is planar and pouch-like and in opened position the package or product is three-dimensional having a substantially depth directional dimension, which stiff support part comprises creases such as bend lines, cut lines, cut outs and/or tear lines for folding, cutting and/or tearing to open the package or product and to configure the form for the at least one expanded space for the objects or contents, when the stiff material of the stiff support part is bent, wherein the at least one stiff support part forms a supporting structure for the expanded space and the shape of the expanded and opened space in the opened position of the package or product, characterized in that the expanded and opened space of the package or product is configured to be opened at the at least one opening point (16, 17) at the stiff support part.
A nitride semiconductor element comprising: a base structure part; an element structure part having at least an n-type AlGaN based semiconductor layer and a p-type AlGaN based semiconductor layer formed on the base structure part; an n-electrode contact part formed on the n-type AlGaN based semiconductor layer; an n-electrode pad part formed on the n-electrode contact part; and a p-electrode formed on the p-type AlGaN based semiconductor layer, wherein an AlN mole fraction of the n-type AlGaN based semiconductor layer is 20% or more, the n-electrode contact part comprises one or more metal layers, and a laminated structure of the p-electrode and a laminated structure of the n-electrode pad part are totally the same laminated structure, and the laminated structure is a common laminated structure of two or more layers having an Au layer as an uppermost layer, and an Au diffusion preventing layer made of conductive metal oxide and formed under the uppermost layer to prevent Au diffusion. a base structure part; an element structure part having at least an n-type AlGaN based semiconductor layer and a p-type AlGaN based semiconductor layer formed on the base structure part; an n-electrode contact part formed on the n-type AlGaN based semiconductor layer; an n-electrode pad part formed on the n-electrode contact part; and a p-electrode formed on the p-type AlGaN based semiconductor layer, wherein an AlN mole fraction of the n-type AlGaN based semiconductor layer is 20% or more, the n-electrode contact part comprises one or more metal layers, and a laminated structure of the p-electrode and a laminated structure of the n-electrode pad part are totally the same laminated structure, and the laminated structure is a common laminated structure of two or more layers having an Au layer as an uppermost layer, and an Au diffusion preventing layer made of conductive metal oxide and formed under the uppermost layer to prevent Au diffusion.
An antibody that binds active plasma kallikrein for use in a method of treating hereditary angioedema, the method comprising administering to a subject in need thereof the antibody in an effective amount of about 300 mg every two weeks or every four weeks; wherein the antibody comprises a heavy chain variable region of SEQ ID NO:3 and a light chain variable region of SEQ ID NO:4, wherein the antibody is a full length antibody.
A steel plate having a chemical composition containing, by mass%, C: 0.01% to 0.15%, Si: 0.01% to 1.00%, Mn: 0.10% to 2.00%, P: 0.010% or less, S: 0.0050% or less, Al: 0.002% to 0.100%, Ni: 5.0% to 10.0%, N: 0.0010% to 0.0080%, optionally one, two, or more selected from Cr: 0.01% to 1.50%, Mo: 0.03% to 1.0%, Nb: 0.001% to 0.030%, V: 0.01% to 0.10%, Ti: 0.003% to 0.050%, B: 0.0003% to 0.0100%, and Cu: 0.01% to 1.00%, optionally one, two, or more selected from Sn: 0.01% to 0.30%, Sb: 0.01% to 0.30%, W: 0% not inclusive to 2.00%, Co: 0% not inclusive to 2.000, Ca: 0.0005% to 0.0050%, Mg: 0.0005% to 0.0050%, Zr: 0.0005% to 0.0050%, and REM: 0.0010% to 0.0100% and with a balance being Fe and incidental impurities, and a percentage reduction of area of 30% or more in a tensile test in a thickness direction performed on a central portion in the thickness direction, measured according to the description, wherein the steel plate has a yield strength of 585 MPa or more, measured in accordance with JIS G 3199, a tensile strength of 690 MPa or more, measured in accordance with JIS G 3199, and an absorbed energy vE -196 at a temperature of - 196°C of 34 J or more, measured in a Charpy impact test in accordance with JIS Z 2242. Si: 0.01% to 1.00%, Mn: 0.10% to 2.00%, P: 0.010% or less, S: 0.0050% or less, Al: 0.002% to 0.100%, Ni: 5.0% to 10.0%, N: 0.0010% to 0.0080%, optionally one, two, or more selected from Cr: 0.01% to 1.50%, Mo: 0.03% to 1.0%, Nb: 0.001% to 0.030%, V: 0.01% to 0.10%, Ti: 0.003% to 0.050%, B: 0.0003% to 0.0100%, and Cu: 0.01% to 1.00%, optionally one, two, or more selected from Sn: 0.01% to 0.30%, Sb: 0.01% to 0.30%, W: 0% not inclusive to 2.00%, Co: 0% not inclusive to 2.000, Ca: 0.0005% to 0.0050%, Mg: 0.0005% to 0.0050%, Zr: 0.0005% to 0.0050%, and REM: 0.0010% to 0.0100% and with a balance being Fe and incidental impurities, and a percentage reduction of area of 30% or more in a tensile test in a thickness direction performed on a central portion in the thickness direction, measured according to the description, wherein the steel plate has a yield strength of 585 MPa or more, measured in accordance with JIS G 3199, a tensile strength of 690 MPa or more, measured in accordance with JIS G 3199, and an absorbed energy vE -196 at a temperature of - 196°C of 34 J or more, measured in a Charpy impact test in accordance with JIS Z 2242.
A method comprising: positioning a mobile device (201, 301) with a built-in loudspeaker (202, 302) at a first location in a listening environment and at least one microphone (204, 205, 304, 305) at at least one second location in the listening environment; emitting test audio content from the loudspeaker (202, 302) of the mobile device (201, 301) at the first position in the listening environment; receiving from earphones (103, 303) at the second location the test audio content emitted by the loudspeaker (202, 302) using the at least one microphone (204, 205, 304, 305) at the at least one second location in the listening environment; and based at least in part on the received test audio content, determining one or more adjustments to be applied to a desired audio content before playback by at least one earphone (103, 303) to deliver personalized multichannel audio content to the at least one earphone; wherein the first location and the second location are distant from each other so that the at least one microphone (204, 205, 304, 305) is within a near-field of the loudspeaker (202, 302). positioning a mobile device (201, 301) with a built-in loudspeaker (202, 302) at a first location in a listening environment and at least one microphone (204, 205, 304, 305) at at least one second location in the listening environment; emitting test audio content from the loudspeaker (202, 302) of the mobile device (201, 301) at the first position in the listening environment; receiving from earphones (103, 303) at the second location the test audio content emitted by the loudspeaker (202, 302) using the at least one microphone (204, 205, 304, 305) at the at least one second location in the listening environment; and based at least in part on the received test audio content, determining one or more adjustments to be applied to a desired audio content before playback by at least one earphone (103, 303) to deliver personalized multichannel audio content to the at least one earphone; wherein the first location and the second location are distant from each other so that the at least one microphone (204, 205, 304, 305) is within a near-field of the loudspeaker (202, 302).