mhurhangee/patent-ind-claim-en huggingface dataset:
A multi-part kit comprising as a first part a foamable stabilized aqueous suspension for the production of inorganic-organic hybrid foams and as a second part a curing activator for the foamable stabilized aqueous suspension, wherein the foamable stabilized aqueous suspension comprises a) an inhibited hydraulic binder selected from calcium aluminate cement, calcium sulfoaluminate cement and mixtures thereof, the hydraulic binder being inhibited by means of a setting inhibitor selected from boric acid, oxygen acids of phosphorus and salts thereof; b) an organic binder; and c) a foam former; and the curing activator is an alkalizing agent. a) an inhibited hydraulic binder selected from calcium aluminate cement, calcium sulfoaluminate cement and mixtures thereof, the hydraulic binder being inhibited by means of a setting inhibitor selected from boric acid, oxygen acids of phosphorus and salts thereof; b) an organic binder; and c) a foam former;
A surgical fastener applying apparatus comprising: an anvil half-section including a distal anvil portion and a proximal handle portion; a cartridge receiving half-section defining an elongated channel member , the elongated channel member having a distal portion dimensioned to releasably receive a cartridge and a proximal portion configured to support a firing assembly ,; and a clamping lever secured to the cartridge receiving half section , the clamping lever having a proximal portion and a distal portion and including a handle portion, the clamping lever being operably associated with the anvil half-section and the cartridge receiving half-section and being movable from an unclamped position to a clamped position to releasably secure the anvil portion of the anvil half-section in close approximation with the cartridge, characterized in that the cartridge receiving half-section further includes a sidewall defining a depression ; the clamping lever further includes a sidewall having a protrusion ; and the clamping lever is mountable to the cartridge receiving half-section at a first angle and rotated toward a clamping position to move the protrusion within the depression to prevent the clamping lever from moving to a position where it could be disengaged from the cartridge receiving section. an anvil half-section including a distal anvil portion and a proximal handle portion; a cartridge receiving half-section defining an elongated channel member , the elongated channel member having a distal portion dimensioned to releasably receive a cartridge and a proximal portion configured to support a firing assembly ,; and a clamping lever secured to the cartridge receiving half section , the clamping lever having a proximal portion and a distal portion and including a handle portion, the clamping lever being operably associated with the anvil half-section and the cartridge receiving half-section and being movable from an unclamped position to a clamped position to releasably secure the anvil portion of the anvil half-section in close approximation with the cartridge,
An apparatus comprising means for performing: - receiving from a source entity a workflow description for network based media processing, - determining encryption requirements on the basis of an encryption descriptor in the workflow description , the encryption descriptor comprising information indicative of one or more encryption methods and at least one prioritized encryption method, and - selecting , on the basis of the encryption descriptor , an encryption method for protecting data for at least one task of a media processing workflow generated on the basis of the workflow description . - receiving from a source entity a workflow description for network based media processing, - determining encryption requirements on the basis of an encryption descriptor in the workflow description , the encryption descriptor comprising information indicative of one or more encryption methods and at least one prioritized encryption method, and - selecting , on the basis of the encryption descriptor , an encryption method for protecting data for at least one task of a media processing workflow generated on the basis of the workflow description .
Kit of parts, comprising a TIPS stent graft , the TIPS stent graft comprising: a hollow stent graft body , the stent body having a lumen extending between a first longitudinal end and a second longitudinal end to let fluid pass through the stent graft body from the first longitudinal end to the second longitudinal end, the lumen comprising at least two sublumens which are separated from one another, each of the sublumens extending from the first longitudinal end to the second longitudinal end, each of the sublumens being capable of being blocked so as to reduce blood flow through the TIPS stent graft, the kit of parts further comprising an occlusion device separate from the TIPS stent graft, the occlusion device being arranged to, when deployed, block blood flow through one of the sublumens to allow for restricting blood flow in the TIPS stent graft post-placement. a hollow stent graft body , the stent body having a lumen extending between a first longitudinal end and a second longitudinal end to let fluid pass through the stent graft body from the first longitudinal end to the second longitudinal end, the lumen comprising at least two sublumens which are separated from one another, each of the sublumens extending from the first longitudinal end to the second longitudinal end, each of the sublumens being capable of being blocked so as to reduce blood flow through the TIPS stent graft, the kit of parts further comprising an occlusion device separate from the TIPS stent graft, the occlusion device being arranged to, when deployed, block blood flow through one of the sublumens to allow for restricting blood flow in the TIPS stent graft post-placement.
A lipopeptide having a sequence FA-A-B-A'-NH2, wherein: • FA represents a fatty acid selected from caproic acid (hexanoic), caprylic acid (octanoic), capric acid (decanoic), lauric acid (dodecanoic), mystiric acid (tetradecanoic), pentadecanoic acid and palmitic acid (hexadecanoic); • unit A and A' independently consist of 1, 2 or 3 amino acids selected from the group of basic amino acids or hydrophobic amino acids; • unit B consist of 1, 2 or 3 amino acids, selected from the group (a) of hydrophobic amino acids and (b) the group of hydrogen-bond forming amino acids; wherein: (i) said hydrophobic amino acids are selected from: Ala, Phe, Ile, Leu, Pro, Tyr, Trp, Val, Met, Cys; (ii) said basic amino acids are selected from: Lys, His, Arg; (iii) said hydrogen bond-forming amino acids are selected from Asn, Gin, Ser, Thr; • -NH2 represents C-terminal amidation; wherein A-B-A' is a sequence selected from the group of the following sequences: SEQ ID No.: 1, SEQ ID No.: 2, SEQ ID No.: 3, SEQ ID No.: 4, SEQ ID No.: 5, SEQ ID No.: 6, SEQ ID No.: 7, SEQ ID No.: 8, SEQ ID No.: 9, SEQ ID No.: 10, SEQ ID No.: 11. • FA represents a fatty acid selected from caproic acid (hexanoic), caprylic acid (octanoic), capric acid (decanoic), lauric acid (dodecanoic), mystiric acid (tetradecanoic), pentadecanoic acid and palmitic acid (hexadecanoic); • unit A and A' independently consist of 1, 2 or 3 amino acids selected from the group of basic amino acids or hydrophobic amino acids; • unit B consist of 1, 2 or 3 amino acids, selected from the group (a) of hydrophobic amino acids and (b) the group of hydrogen-bond forming amino acids; wherein: (i) said hydrophobic amino acids are selected from: Ala, Phe, Ile, Leu, Pro, Tyr, Trp, Val, Met, Cys; (ii) said basic amino acids are selected from: Lys, His, Arg; (iii) said hydrogen bond-forming amino acids are selected from Asn, Gin, Ser, Thr; (i) said hydrophobic amino acids are selected from: Ala, Phe, Ile, Leu, Pro, Tyr, Trp, Val, Met, Cys; (ii) said basic amino acids are selected from: Lys, His, Arg; (iii) said hydrogen bond-forming amino acids are selected from Asn, Gin, Ser, Thr; • -NH2 represents C-terminal amidation; wherein A-B-A' is a sequence selected from the group of the following sequences: SEQ ID No.: 1, SEQ ID No.: 2, SEQ ID No.: 3, SEQ ID No.: 4, SEQ ID No.: 5, SEQ ID No.: 6, SEQ ID No.: 7, SEQ ID No.: 8, SEQ ID No.: 9, SEQ ID No.: 10, SEQ ID No.: 11.
A method of reducing shear recovery time of a viscosifying surfactant fluid system comprising introducing a viscosifying surfactant fluid system into a subterranean formation, wherein the fluid comprises a major portion of a surfactant and a hydrophobically-modified associative polymer in a concentration of from 0.005 wt% to 5 wt%, sufficient to shorten the shear recovery time of the fluid system compared to the shear recovery time of the fluid system without the polymer, wherein the hydrophobically-modified associative polymer comprises: at least one water-soluble part selected from the group consisting of acrylamide, methacrylamide, acrylic acid, methacrylic acid, 2-acrylamidomethylpropanesulfonic acid, N-vinyl pyrrolidone, N-vinyl formamide, and mixtures thereof; and at least one water-insoluble part selected from the group consisting of straight or branched alkyl or alkylaryl alcohol esters of acrylic or methacrylic acid, straight or branched alkyl or alkylaryl amides of acrylamide or methacrylamide, styrene, butadiene, 1-vinylnaphthalene, and mixtures thereof. at least one water-soluble part selected from the group consisting of acrylamide, methacrylamide, acrylic acid, methacrylic acid, 2-acrylamidomethylpropanesulfonic acid, N-vinyl pyrrolidone, N-vinyl formamide, and mixtures thereof; and at least one water-insoluble part selected from the group consisting of straight or branched alkyl or alkylaryl alcohol esters of acrylic or methacrylic acid, straight or branched alkyl or alkylaryl amides of acrylamide or methacrylamide, styrene, butadiene, 1-vinylnaphthalene, and mixtures thereof.
A mobile station configured to communicate uplink control information via an uplink transmission using at least two layers for two codewords in a Multiple Input Multiple Output wireless communication network, the mobile station comprising: a plurality of transmit antennas; and a transmitter coupled to the plurality of transmit antennas, the transmitter comprising a layer mapper configured to map data and uplink control information to at least one layer among the at least two layers for two codewords, the mapping performed prior to Discrete Fourier Transform, DFT, precoding such that the data and the uplink control information are multiplexed and interleaved, wherein the transmitter is configured to simultaneously transmit the data and the uplink control information on the at least one layer, wherein the at least one layer is selected among the at least two layers for two codewords, the at least one layer is associated with a codeword that uses a highest modulation and coding scheme, MCS, value. a plurality of transmit antennas; and a transmitter coupled to the plurality of transmit antennas, the transmitter comprising a layer mapper configured to map data and uplink control information to at least one layer among the at least two layers for two codewords, the mapping performed prior to Discrete Fourier Transform, DFT, precoding such that the data and the uplink control information are multiplexed and interleaved, wherein the transmitter is configured to simultaneously transmit the data and the uplink control information on the at least one layer, wherein the at least one layer is selected among the at least two layers for two codewords, the at least one layer is associated with a codeword that uses a highest modulation and coding scheme, MCS, value.
Gas generator having a gas diffuser comprising a wall defining at least one diffusion chamber arranged so as to receive inflation gases from the gas generator and diffuse them toward an automobile safety element, characterized in that the wall is formed from a cutout of the sheet metal blank and comprises at least two anchors of complementary shapes which are interlocked to form a closure zone of the sheet metal blank, wherein said at least two anchors do not have any extra thickness or relief in comparison with the sheet metal blank.
A fibre enclosure with an integrated enclosure mounting system, comprising an enclosure base , an enclosure cover and clamping means for securing the cover to the base , the base having an end wall with at least one through opening extending therethrough and having fibre management mounting means provided on one side of the end wall , which, in use, forms an inner surface of the enclosure, said fibre management mounting means being configured to receive fibre management means , the cover being engageable over said fibre management mounting means and into abutment with the base and being securable to the base by said clamping means to fully enclose the fibre management mounting means and fibre management means mounted thereon within a cavity formed between the cover and the base ; wherein the enclosure base further includes enclosure mounting means formed on an outer side surface thereof, said enclosure mounting means being releasably connectable to complementary mounting means provided on a mounting arm to releasably secure the enclosure base to the mounting arm ; characterised in that the base includes multiple enclosure mounting means distributed about its outer periphery so as to enable the base to be secured to the arm in different rotational positions.
Particle filter comprising a wall-flow filter of length L and two different coatings Y and Z, wherein the wall-flow filter comprises channels E and A which extend in parallel between a first end and a second end of the wall-flow filter and which are separated by porous walls forming surfaces O E or O A , and wherein the channels E at the second end and the channels A at the first end are closed, characterized in that coating Y is located in the channels E on the surfaces O E and extends from the first end of the wall-flow filter over 57 to 65% of the length L and contains aluminum oxide in an amount of 35 to 60 wt% relative to the total weight of the coating Y; palladium, rhodium, or palladium and rhodium; and an oxygen storage component in an amount of 40 to 50 wt% relative to the total weight of the coating Y, wherein the oxygen storage component comprises zirconium oxide, cerium oxide, lanthanum oxide, and yttrium oxide; and that coating Z is located in the channels A on the surfaces O A and extends from the second end of the wall-flow filter over 57 to 65% of the length L and contains aluminum oxide in an amount of 25 to 50 wt% relative to the total weight of the coating; palladium, rhodium, or palladium and rhodium; and oxygen storage components in a total amount of from 50 to 80 wt% relative to the total weight of the coating Z, wherein one oxygen storage component contains zirconium oxide, cerium oxide, lanthanum oxide, and yttrium oxide, and another contains zirconium oxide, cerium oxide, lanthanum oxide, and praseodymium oxide.
A bipolar plate in which an electrode of a redox flow battery is disposed, wherein, in a section perpendicular to a flat surface of the bipolar plate, a radius of curvature for each corner portion of an outer peripheral portion is from 0.1 to 4.0 mm.
A method for determining analyte concentrations in a biological sample, the method comprising: dipping a test paddle having a plurality of test pads into a biological sample, wherein each test pad of the plurality of test pads includes a different reagent; capturing images of the plurality of test pads at different times as different reagents of the test pads react to the biological sample; quantifying a color of each test pad of the plurality of test pads over time from the captured images; determining a color evolution trajectory over time for each test pad of the plurality of test pads ; comparing the determined color evolution trajectory for each test pad with a plurality of color calibration curves in a three dimensional RGB color space to determine different analyte concentrations in the biological sample, wherein each color calibration curve of the plurality of color calibration curves represents the color of a test pad at different concentration levels of an analyte at a given time; and displaying the determined analyte concentrations in the biological sample to a user. dipping a test paddle having a plurality of test pads into a biological sample, wherein each test pad of the plurality of test pads includes a different reagent; capturing images of the plurality of test pads at different times as different reagents of the test pads react to the biological sample; quantifying a color of each test pad of the plurality of test pads over time from the captured images; determining a color evolution trajectory over time for each test pad of the plurality of test pads ; comparing the determined color evolution trajectory for each test pad with a plurality of color calibration curves in a three dimensional RGB color space to determine different analyte concentrations in the biological sample, wherein each color calibration curve of the plurality of color calibration curves represents the color of a test pad at different concentration levels of an analyte at a given time; and displaying the determined analyte concentrations in the biological sample to a user.
An apparatus for folding a pouch for a secondary battery , the apparatus comprising: a forming means configured to gradually bend and fold an edge of a pouch-type secondary battery so that the edge has a target cross-sectional shape; a support means configured to support the forming means ; and first to fourth gap spacers having various thicknesses, formed in a flat plate shape, and configured to be interposed between the forming means and the support means to align the forming means . a forming means configured to gradually bend and fold an edge of a pouch-type secondary battery so that the edge has a target cross-sectional shape; a support means configured to support the forming means ; and first to fourth gap spacers having various thicknesses, formed in a flat plate shape, and configured to be interposed between the forming means and the support means to align the forming means .
A photodiode comprising: a semiconductor layer doped with first impurities; an undoped semiconductor light-absorbing layer on the semiconductor layer doped with the first impurities, the undoped semiconductor light-absorbing layer having bandgap energy adjusted to absorb incident light; a semiconductor layer doped with second impurities on the undoped semiconductor light-absorbing layer ; and a metal electrode that comes into contact with a side of the semiconductor layer doped with the second impurities, wherein the side of the metal electrode is a surface parallel to a growth direction of the semiconductor layer doped with the second impurities, the photodiode further comprising a mirror film containing metal to reflect incident light, wherein when the first impurities are p-type impurities, the second impurities are n-type impurities, and when the first impurities are n-type impurities, the second impurities are p-type impurities, and the mirror film and the metal electrode are in contact with each other. a semiconductor layer doped with first impurities; an undoped semiconductor light-absorbing layer on the semiconductor layer doped with the first impurities, the undoped semiconductor light-absorbing layer having bandgap energy adjusted to absorb incident light; a semiconductor layer doped with second impurities on the undoped semiconductor light-absorbing layer ; and a metal electrode that comes into contact with a side of the semiconductor layer doped with the second impurities, wherein the side of the metal electrode is a surface parallel to a growth direction of the semiconductor layer doped with the second impurities, the photodiode further comprising a mirror film containing metal to reflect incident light, wherein when the first impurities are p-type impurities, the second impurities are n-type impurities, and when the first impurities are n-type impurities, the second impurities are p-type impurities, and the mirror film and the metal electrode are in contact with each other.
Folding-table arrangement having a first folding-table leaf and a second folding-table leaf and having a crossmember for fastening the first folding-table leaf and the second folding-table leaf , which can be displaced between a swung-up position and a swung-down position by means of a folding-action mechanism , wherein, in the swung-up position, the first folding-table leaf and the second folding-table leaf can be arrested vertically, and wherein the first folding-table leaf and the second folding-table leaf each have a first end and a second end , and the folding-action mechanism is located at the second end , characterized in that at the first end , which is directed away from the crossmember , the first folding-table leaf and the second folding-table leaf have a person-supporting element , wherein the person-supporting element is formed in a semicircle around the first end of the first folding-table leaf and of the second folding-table leaf .
Railway signal assembly with a railway signal lamp and a device which is arranged upstream of the railway signal lamp and supplies voltage to the railway signal lamp in order to generate an output voltage (Ua), wherein the device has: - a clocked voltage converter, to which direct voltage can be applied on the input side, and - a control facility which controls the clocked voltage converter and controls the voltage converter so that on the output side this generates a predetermined output voltage curve (Uw) which always has the same polarity, characterised in that the device has a polarity reversing module , which is connected on the input side with the output of the voltage converter and on the output side generates an alternating voltage by reversing the polarity of the output voltage curve (Uw) of the voltage converter which is present on the input side, said alternating voltage forming the output voltage (Ua) of the device , wherein the device is configured so that the polarity reversing module does not output an output voltage (Ua) initially and does not begin to output an alternating voltage as an output voltage (Ua) until after the absolute value of the voltage at the input of the polarity reversing module has fallen below a predetermined threshold at least once or until after the reduction in this voltage has been ended at least once over time, as a result of which a defined power-up of the device overall and of the polarity reversing module in particular is enabled after a restart. - a clocked voltage converter, to which direct voltage can be applied on the input side, and - a control facility which controls the clocked voltage converter and controls the voltage converter so that on the output side this generates a predetermined output voltage curve (Uw) which always has the same polarity,