mhurhangee/ep-ind-claims huggingface dataset:
A method for producing glucans, comprising the step of: allowing a reaction solution containing sucrose, a primer, inorganic phosphate or glucose-1-phosphate, sucrose phosphorylase, and glucan phosphorylase to react to produce glucans, wherein the reaction is conducted at a temperature of 45°C to 65°C, wherein the glucan is a saccharide in which the component unit is D-glucose having at least two saccharide units linked by an α-1,4-glucoside bond; wherein the primer refers to a molecule which functions as a starting material for glucan synthesis; wherein the sucrose concentration of the reaction solution is 15% to 50% at the start of the reaction; and wherein the sucrose phosphorylase is derived from Leuconostoc mesenteroides or a bacterium belonging to the genus Streptococcus. allowing a reaction solution containing sucrose, a primer, inorganic phosphate or glucose-1-phosphate, sucrose phosphorylase, and glucan phosphorylase to react to produce glucans, wherein the reaction is conducted at a temperature of 45°C to 65°C, wherein the glucan is a saccharide in which the component unit is D-glucose having at least two saccharide units linked by an α-1,4-glucoside bond; wherein the primer refers to a molecule which functions as a starting material for glucan synthesis; wherein the sucrose concentration of the reaction solution is 15% to 50% at the start of the reaction; and wherein the sucrose phosphorylase is derived from Leuconostoc mesenteroides or a bacterium belonging to the genus Streptococcus.
A method for the prediction of the progression of chronic kidney disease in a subject suffering from chronic kidney disease, said method comprising the step of determining the protein level of FGF23 in a blood sample of the subject as compared to a standard control or reference sample, wherein an elevated protein level of FGF23 as compared to the standard control or reference sample is indicative of the progression of said chronic kidney disease.
A compound containing a polymerizable functional group and a mesogenic group, which includes a silicon compound at a concentration of 1 ppm by weight to 1000 ppm by weight.
An epoxy functional acrylic resin comprising, as copolymerized monomers: i) from 10 wt.% to 40 wt.% of one or more epoxy functional unsaturated monomers; ii) from 10 wt.% to 20 wt.% of one or more hydrophobic acrylic monomers, and iii) from greater than 50 wt.% to 75 wt.% of at least one nonionic monomer that is different from the hydrophobic acrylic monomers ii), each monomer wt.% based on the total weight of copolymerized monomers in the resin; wherein the resin has a T g of greater than 90 degrees Celsius; and wherein the resin has a calculated solubility parameter from 9.20 to 9.30 (cal/cm 3) 1/2. i) from 10 wt.% to 40 wt.% of one or more epoxy functional unsaturated monomers; ii) from 10 wt.% to 20 wt.% of one or more hydrophobic acrylic monomers, and iii) from greater than 50 wt.% to 75 wt.% of at least one nonionic monomer that is different from the hydrophobic acrylic monomers ii), each monomer wt.% based on the total weight of copolymerized monomers in the resin;
An electronic device comprising an electronic device body and a protective sheet protecting a surface of the electronic device body, wherein the protective sheet comprises a multilayer structure comprising at least one base, at least one layer, and at least one layer, the layer contains an aluminum atom, the layer contains a polymer containing a monomer unit having a phosphorus atom, the multilayer structure comprises at least one pair of the layer and the layer that are contiguously stacked, the layer is a layer containing a reaction product, the reaction product is a reaction product formed by reaction between a metal oxide containing aluminum and a phosphorus compound, and in an infrared absorption spectrum of the layer, a wavenumber (n 1) at which infrared absorption in the range of 800 to 1400 cm -1 reaches a maximum is 1080 to 1130 cm -1.
A first communication node (10; 110; 220) for receiving code blocks over an acknowledged connection to a second communication node (20; 120; 240), comprising: a receiver configured to receive a predefined group of code blocks from the second communication node, wherein each code block or the predefined group of code blocks is associated with a check value enabling error detection; at least one processor configured to: - process the received code blocks in accordance with at least one transport format parameter, TFP, and - detect errors in the received code blocks using the check value or check values; and a transmitter configured to transmit to the second communication node an acknowledgment indicating whether at least one error was detected in the predefined group, wherein the at least one processor is configured to apply a first TFP value for a first subset of the code blocks of a predefined group and a second TFP value for a remainder of the code blocks of the predefined group, wherein the first and second TFP values are independent; and wherein the receiver is further configured to receive an explicit indication of the first TFP value as downlink control information, DCI, from the second communication node and wherein the at least one processor is configured to compute the second TFP value on the basis of the received explicit indication of the first TFP value and a semi-statically configured offset. a receiver configured to receive a predefined group of code blocks from the second communication node, wherein each code block or the predefined group of code blocks is associated with a check value enabling error detection; at least one processor configured to: - process the received code blocks in accordance with at least one transport format parameter, TFP, and - detect errors in the received code blocks using the check value or check values; and - process the received code blocks in accordance with at least one transport format parameter, TFP, and - detect errors in the received code blocks using the check value or check values; and a transmitter configured to transmit to the second communication node an acknowledgment indicating whether at least one error was detected in the predefined group, wherein the at least one processor is configured to apply a first TFP value for a first subset of the code blocks of a predefined group and a second TFP value for a remainder of the code blocks of the predefined group, wherein the first and second TFP values are independent; and wherein the receiver is further configured to receive an explicit indication of the first TFP value as downlink control information, DCI, from the second communication node and wherein the at least one processor is configured to compute the second TFP value on the basis of the received explicit indication of the first TFP value and a semi-statically configured offset.
Heat flux sensor (1, 25) comprising: a body (2, 26) with six or more sensor pairs, each pair consisting of one radiation absorbing, absorptive, sensor (9, 33, 35) for measuring a combined radiative and convective heat flux and one radiation reflecting, reflective, sensor (10, 34, 36) for substantially measuring a convective heat flux, the body exhibiting three axes of heat flux measurement, the axes being substantially perpendicular, with two sensor pairs per axis facing substantially in opposite directions, a heating member (12, 47) that is in heat conducing contact with the body, capable of heating the body uniformly within 2 °C for body temperatures between 25 and 40 °C at ambient air temperatures between 20 and 25 °C at air speeds < 1 m/s and a temperature sensor (11, 45) thermally coupled with the body for measuring the body temperature T sen. a body (2, 26) with six or more sensor pairs, each pair consisting of one radiation absorbing, absorptive, sensor (9, 33, 35) for measuring a combined radiative and convective heat flux and one radiation reflecting, reflective, sensor (10, 34, 36) for substantially measuring a convective heat flux, the body exhibiting three axes of heat flux measurement, the axes being substantially perpendicular, with two sensor pairs per axis facing substantially in opposite directions, a heating member (12, 47) that is in heat conducing contact with the body, capable of heating the body uniformly within 2 °C for body temperatures between 25 and 40 °C at ambient air temperatures between 20 and 25 °C at air speeds < 1 m/s and a temperature sensor (11, 45) thermally coupled with the body for measuring the body temperature T sen.
A compound of Formula: wherein X is CH, CF, CCI, or CCH 3; R 1 is OR 1', wherein R 1' is H, C 1 -C 8 alkyl, or C 7 -C 10 arylalkyl; R 2 is Cl; R 3 and R 4 are each independently hydrogen, C 1 -C 6 alkyl, C 1 -C 6 haloalkyl, C 3 -C 6 alkenyl, C 3 -C 6 haloalkenyl, C 3 -C 6 alkynyl, hydroxy, C 1 -C 6 alkoxy, C 1 -C 6 haloalkoxy, formyl, (C 1 -C 3 alkyl)carbonyl, (C 1 -C 3 haloalkyl)carbonyl, (C 1 -C 6 alkoxy)carbonyl, (C 1 -C 6 alkyl)carbamyl, C 1 -C 6 alkylsulfonyl, tri(C 1 -C 6 alkyl)silyl, di(C 1 -C 6 alkyl)phosphonyl, or R 3 and R 4 together with the nitrogen atom to which they are attached form a 5- or 6-membered saturated ring, or R 3 and R 4 taken together represent =CR 3' R 4', wherein R 3' and R 4' are each independently hydrogen, C 1 -C 6 alkyl, C 3 -C 6 alkenyl, C 3 -C 6 alkynyl, C 1 -C 6 alkoxy, or C 1 -C 6 alkylamino, or R 3' and R 4' together with the carbon atom to which they are attached form a 5- or 6-membered saturated ring; Ar is Ar1: wherein X 1 is Br, I, ethynyl, CF 2 H, OCF 2 H, OCF 3, CN, or NO 2; with proviso that X 1 is not OCF 3 or CN, when X is CH. or an N-oxide or agriculturally acceptable salt thereof. X is CH, CF, CCI, or CCH 3; R 1 is OR 1', wherein R 1' is H, C 1 -C 8 alkyl, or C 7 -C 10 arylalkyl; R 2 is Cl; R 3 and R 4 are each independently hydrogen, C 1 -C 6 alkyl, C 1 -C 6 haloalkyl, C 3 -C 6 alkenyl, C 3 -C 6 haloalkenyl, C 3 -C 6 alkynyl, hydroxy, C 1 -C 6 alkoxy, C 1 -C 6 haloalkoxy, formyl, (C 1 -C 3 alkyl)carbonyl, (C 1 -C 3 haloalkyl)carbonyl, (C 1 -C 6 alkoxy)carbonyl, (C 1 -C 6 alkyl)carbamyl, C 1 -C 6 alkylsulfonyl, tri(C 1 -C 6 alkyl)silyl, di(C 1 -C 6 alkyl)phosphonyl, or R 3 and R 4 together with the nitrogen atom to which they are attached form a 5- or 6-membered saturated ring, or R 3 and R 4 taken together represent =CR 3' R 4', wherein R 3' and R 4' are each independently hydrogen, C 1 -C 6 alkyl, C 3 -C 6 alkenyl, C 3 -C 6 alkynyl, C 1 -C 6 alkoxy, or C 1 -C 6 alkylamino, or R 3' and R 4' together with the carbon atom to which they are attached form a 5- or 6-membered saturated ring; Ar is Ar1: wherein X 1 is Br, I, ethynyl, CF 2 H, OCF 2 H, OCF 3, CN, or NO 2; with proviso that X 1 is not OCF 3 or CN, when X is CH. or an N-oxide or agriculturally acceptable salt thereof. X 1 is Br, I, ethynyl, CF 2 H, OCF 2 H, OCF 3, CN, or NO 2; with proviso that X 1 is not OCF 3 or CN, when X is CH. or an N-oxide or agriculturally acceptable salt thereof.
A backlight unit having light emitting diodes characterized by: a substrate disposed thereon with conductive lines, wherein the substrate comprises a plurality of grooves; a plurality of sub-mount substrates, each sub-mount substrate being bonded to a groove in the substrate and being provided thereon with a groove, a floor surface of the groove in each sub-mount substrate being provided with a conductive pattern; a plurality of light emitting diodes each bonded to a sub-mount substrate and spaced a predetermined distance apart from the substrate, and mounted to the conductive pattern existing on the floor surface of the groove of the sub-mount substrate; a transparent resin encompassing the plurality of light emitting diodes and formed on the upper surface of the substrate; and optical transmission means disposed on an upper surface of the transparent resin, the means including first means which is a micro lens array sheet on which a plurality of lenses is arrayed, and second means for diffusing and emitting the light.
A wafer bonding method comprising: providing a stack comprising first and second substrates bonded together via a bonding layer, said layer being formed from a temporary bonding composition comprising a first cycloolefin copolymer and a second cycloolefin copolymer both dissolved or dispersed in a solvent system, each of said first and said second cycloolefin copolymers comprising recurring monomers of cyclic olefins and acyclic olefins, said second cycloolefin copolymer having a weight average molecular weight of less than 50,000 Daltons; and separating said first and second substrates. providing a stack comprising first and second substrates bonded together via a bonding layer, said layer being formed from a temporary bonding composition comprising a first cycloolefin copolymer and a second cycloolefin copolymer both dissolved or dispersed in a solvent system, each of said first and said second cycloolefin copolymers comprising recurring monomers of cyclic olefins and acyclic olefins, said second cycloolefin copolymer having a weight average molecular weight of less than 50,000 Daltons; and separating said first and second substrates.
A power converter (101, 102) comprising: three clusters (CLu, CLv, CLw) in which unit cells (11u-j, 11v-j, 11w-j) are cascade-connected; characterized in that it further comprises: power supplies (V dcu, V dcv, V dcw, V Tu, V Tv, V Tw) of the same kind respectively connected to one end (Tu1, Tv1, Tw1) of each of the three clusters, wherein a delta connection is formed by connecting terminals (Tu2, Tv2, Tw2) of the three clusters at a side not connected to the power supplies to other ends of the power supplies that are connected to the other clusters, and three connection portions of the delta connection are connected to respective phases (u, v, w) of a three-phase alternating current and power conversion is performed between the power supplies and the three-phase AC. three clusters (CLu, CLv, CLw) in which unit cells (11u-j, 11v-j, 11w-j) are cascade-connected; power supplies (V dcu, V dcv, V dcw, V Tu, V Tv, V Tw) of the same kind respectively connected to one end (Tu1, Tv1, Tw1) of each of the three clusters, wherein a delta connection is formed by connecting terminals (Tu2, Tv2, Tw2) of the three clusters at a side not connected to the power supplies to other ends of the power supplies that are connected to the other clusters, and three connection portions of the delta connection are connected to respective phases (u, v, w) of a three-phase alternating current and power conversion is performed between the power supplies and the three-phase AC.
A method for providing control data for manufacturing at least one three-dimensional object by means of a layer-wise solidification of a building material in an additive manufacturing apparatus, wherein the apparatus comprises an irradiation device for directing a beam of an electromagnetic or particle radiation onto a layer of the building material at locations corresponding to the cross-section of the at least one object in said layer so as to solidify the building material at these locations, wherein the irradiation device is adapted to scan the beam in hatch lines and/or contours and/or polylines over the applied layer, wherein the method includes a step a) of determining the locations corresponding to the cross section of the at least one object for at least one, preferably each, of a plurality of layers of building material, characterized in that the method includes at least the following steps: b) determining at least two different regions (61, 62, 63) to be solidified in said at least one layer, said at least two regions corresponding to at least a portion of a cross-section of an object in said layer, wherein said at least two regions are chosen from the group of: sandwiched region, down-facing region and up-facing region and c) for said at least one layer defining a scanning sequence for the beam so as to solidify the building material at least at the locations corresponding to said portion of the cross section of the object, wherein said scanning sequence is defined such that at an interface between a first and a second region differing from each other that were determined in step b) a scan line of the beam is continuous, i.e. the beam is moved without interruption across the interface, wherein at least one beam parameter value is changed at the interface, and providing control data for the control of said irradiation device in said additive manufacturing apparatus in accordance with the scanning sequence defined in step c) for a solidification of the building material in said at least one layer. b) determining at least two different regions (61, 62, 63) to be solidified in said at least one layer, said at least two regions corresponding to at least a portion of a cross-section of an object in said layer, wherein said at least two regions are chosen from the group of: sandwiched region, down-facing region and up-facing region and c) for said at least one layer defining a scanning sequence for the beam so as to solidify the building material at least at the locations corresponding to said portion of the cross section of the object,
Loudspeaker comprising: - a container provided with a front opening delimited by at least two opposite edges (4, 5) of the container; - at least one speaker (30, 31) housed in the container; - a mounting panel to which is fixed the at least one speaker (30, 31); wherein the container comprises two front walls (10, 11) mutually arranged on opposite sides with respect to the front opening, wherein the front walls (10, 11) define an acoustic waveguide diverging between an inlet throat and an outlet mouth and wherein the front opening of the container represents the inlet throat of the diverging acoustic waveguide, the container further comprising a central body, hollow at least in part, and two side walls (8, 9) disposed on opposite sides with respect to the central body; wherein: - the container comprises a fixing guide having a guide axis (A-A); - the mounting panel is a slide slidably received in the fixing guide to close the front opening; characterized in that: - at least one of the side walls (8, 9) comprises an opening transverse to the guide axis (A-A); and - an assembly consisting of the mounting panel and of said speakers (30, 31) is removable through said transverse opening by sliding the mounting panel with respect to the central body along the guide axis (A-A), so that the mounting panel can be slidably inserted into the container by crossing one of the two side walls (8, 9) to be fixed to the container and/or to be then slidably extracted during inspection and/or maintenance operations. - a container provided with a front opening delimited by at least two opposite edges (4, 5) of the container; - at least one speaker (30, 31) housed in the container; - a mounting panel to which is fixed the at least one speaker (30, 31); - the container comprises a fixing guide having a guide axis (A-A); - the mounting panel is a slide slidably received in the fixing guide to close the front opening; - at least one of the side walls (8, 9) comprises an opening transverse to the guide axis (A-A); and - an assembly consisting of the mounting panel and of said speakers (30, 31) is removable through said transverse opening by sliding the mounting panel with respect to the central body along the guide axis (A-A), so that the mounting panel can be slidably inserted into the container by crossing one of the two side walls (8, 9) to be fixed to the container and/or to be then slidably extracted during inspection and/or maintenance operations.
A power tool (10; 20; 30; 70; 90) comprising a continuously-variable transmission, a spindle (12; 23; 36; 76; 100) mounted with a tool tip, a power transmission path between the spindle and the continuously-variable transmission, and a clutch mechanism (7; 80) disposed in the power transmission path, characterized in that the clutch mechanism is adapted to intercept a rotary power, the continuously-variable transmission comprises a thrust cam mechanism generating a pressing force, and wherein the thrust cam mechanism serves as a clutch intercepting the power transmission.
A method for determining the water content of non-water-based liquids, wherein: - if no sample for water content testing is already on hand, a sample is taken from the liquid to be examined, characterized by the following method steps: - as a precaution, performing provisions for fast, intensive mixing of the sample liquid with the free water contained therein, - adding a quantity, adapted to the sample volume, of highly hygroscopic solid particles that are increasing in size from swelling by water absorption into the sample, - again performing provisions for fast, intensive mixing of the sample liquid with these particles, - waiting out a reaction time, adapted to the solid particles used, for reaction with the sample liquid and then - passing the sample through the measurement channel of a measuring system, in which device at least the size values of the individual solid particles contained in the sample and swollen from water absorption can be ascertained, which values are then evaluated in a measurement-value evaluation unit in such a way that the outcome of the evaluation can be displayed or printed out at least as a numerical water content value. - if no sample for water content testing is already on hand, a sample is taken from the liquid to be examined, - as a precaution, performing provisions for fast, intensive mixing of the sample liquid with the free water contained therein, - adding a quantity, adapted to the sample volume, of highly hygroscopic solid particles that are increasing in size from swelling by water absorption into the sample, - again performing provisions for fast, intensive mixing of the sample liquid with these particles, - waiting out a reaction time, adapted to the solid particles used, for reaction with the sample liquid and then - passing the sample through the measurement channel of a measuring system, in which device at least the size values of the individual solid particles contained in the sample and swollen from water absorption can be ascertained, which values are then evaluated in a measurement-value evaluation unit in such a way that the outcome of the evaluation can be displayed or printed out at least as a numerical water content value.
A method for transcription and/or expression and optionally purifying the produced transcript and/or protein or polypeptide of interest comprising the steps of: a) providing a nucleic acid construct comprising a first promoter, a second promoter, and a nucleotide sequence of interest, wherein said first and said second promoter are operably linked to said nucleotide sequence of interest, and wherein said second promoter is flanked by a first intronic sequence located upstream of said promoter and a second intronic sequence located downstream of said promoter; and, b) contacting a cell with said nucleic acid construct to obtain a transformed cell; and, c) allowing said transformed cell to produce a transcript of the nucleotide sequence of interest and/or to express the protein or polypeptide of interest; and optionally, d) purifying said produced transcript and/or protein or polypeptide of interest. a) providing a nucleic acid construct comprising a first promoter, a second promoter, and a nucleotide sequence of interest, wherein said first and said second promoter are operably linked to said nucleotide sequence of interest, and wherein said second promoter is flanked by a first intronic sequence located upstream of said promoter and a second intronic sequence located downstream of said promoter; and, b) contacting a cell with said nucleic acid construct to obtain a transformed cell; and, c) allowing said transformed cell to produce a transcript of the nucleotide sequence of interest and/or to express the protein or polypeptide of interest; and optionally, d) purifying said produced transcript and/or protein or polypeptide of interest.