mhurhangee/ep-ind-claims huggingface dataset:
A module for use in an energy storage system, including: a first terminal and a second terminal; a supercapacitor branch including an arrangement of one or more supercapacitors, and a resistive bypass branch including at least a first bypass switch and a resistor connected in series, wherein the supercapacitor branch and the resistive bypass branch are connected in parallel between the first terminal and the second terminal; further including a direct bypass branch including at least a second bypass switch, wherein the direct bypass branch is also connected in parallel with the supercapacitor branch and the resistive bypass branch, between the first terminal and the second terminal; characterized in that the direct bypass branch does not rely on or include a series connected resistor and in that the first bypass switch is configured to, upon an occurrence of a fault associated with the one or more supercapacitors, be closed such that the one or more supercapacitors are discharged through the resistor, thereby lowering a remaining energy in the one or more supercapacitors; wherein the second bypass switch is configured to subsequently be closed in order to directly bypass the one or more supercapacitors upon an occurrence of the remaining energy in the one or more supercapacitors being below a certain threshold. a first terminal and a second terminal; a supercapacitor branch including an arrangement of one or more supercapacitors, and a resistive bypass branch including at least a first bypass switch and a resistor connected in series, wherein the supercapacitor branch and the resistive bypass branch are connected in parallel between the first terminal and the second terminal; further including a direct bypass branch including at least a second bypass switch, wherein the direct bypass branch is also connected in parallel with the supercapacitor branch and the resistive bypass branch, between the first terminal and the second terminal; characterized in that the direct bypass branch does not rely on or include a series connected resistor and in that the first bypass switch is configured to, upon an occurrence of a fault associated with the one or more supercapacitors, be closed such that the one or more supercapacitors are discharged through the resistor, thereby lowering a remaining energy in the one or more supercapacitors; wherein the second bypass switch is configured to subsequently be closed in order to directly bypass the one or more supercapacitors upon an occurrence of the remaining energy in the one or more supercapacitors being below a certain threshold.
A tissue sheet product, comprising: a sheet of material, wherein the sheet of material comprises a plurality of tissue matrix fragments having a length between 5 μm and 300 μm, wherein the plurality of tissue matrix fragments include frayed ends; wherein the plurality of tissue matrix fragments are joined to one another at the frayed ends to form a tissue sheet, and the frayed ends are interlocked. a sheet of material, wherein the sheet of material comprises a plurality of tissue matrix fragments having a length between 5 μm and 300 μm, wherein the plurality of tissue matrix fragments include frayed ends; wherein the plurality of tissue matrix fragments are joined to one another at the frayed ends to form a tissue sheet, and the frayed ends are interlocked.
A method of transmitting a Physical Uplink Control Channel, PUCCH, by a User Equipment, UE, in a wireless communication system, the method comprising: receiving first Downlink Control Information, DCI, including a first New Feedback Indicator, NFI; receiving a first Physical Downlink Shared Channel, PDSCH, based on the first DCI; determining first HARQ-ACK information in response to the first PDSCH and second HARQ-ACK information, wherein the second HARQ-ACK information is determined in response to a second PDSCH scheduled by a second DCI which is received before the reception of the first DCI based on the value of the first NFI being the same as the value of a second NFI included in the second DCI, and wherein the second HARQ-ACK information is determined as a Negative Acknowledgement, NACK, based on the value of the first NFI being different from the value of the second NFI; and transmitting the PUCCH including the first HARQ-ACK information and the second HARQ-ACK information, wherein each of the first NFI and the second NFI is a 1-bit flag. receiving first Downlink Control Information, DCI, including a first New Feedback Indicator, NFI; receiving a first Physical Downlink Shared Channel, PDSCH, based on the first DCI; determining first HARQ-ACK information in response to the first PDSCH and second HARQ-ACK information, wherein the second HARQ-ACK information is determined in response to a second PDSCH scheduled by a second DCI which is received before the reception of the first DCI based on the value of the first NFI being the same as the value of a second NFI included in the second DCI, and wherein the second HARQ-ACK information is determined as a Negative Acknowledgement, NACK, based on the value of the first NFI being different from the value of the second NFI; and transmitting the PUCCH including the first HARQ-ACK information and the second HARQ-ACK information, wherein each of the first NFI and the second NFI is a 1-bit flag.
A method for rapid in vitro diagnosis of infection by highly pathogenic strains of Helicobacter pylori comprising the following steps: a) contacting a suspension of latex particles, sensitized with an antiserum against total proteins of CagA-positive H. pylori from which the other anti-bodies against H. pylori antigens have been separated, with a biological sample to be analyzed for the presence of the CagA protein antigen, or of protein antigens encoded by the cag genes of H. pylori, and mixing said suspension with said biological sample; b) visually detecting the possible agglutination of the mixture resulting from the previous step; wherein the agglutination of said mixture shows the presence, in the biological sample under examination, of highly pathogenic Helicobacter pylori strains, which express the CagA protein or more proteins encoded by the cag genes. a) contacting a suspension of latex particles, sensitized with an antiserum against total proteins of CagA-positive H. pylori from which the other anti-bodies against H. pylori antigens have been separated, with a biological sample to be analyzed for the presence of the CagA protein antigen, or of protein antigens encoded by the cag genes of H. pylori, and mixing said suspension with said biological sample; b) visually detecting the possible agglutination of the mixture resulting from the previous step;
A compound of general formula IIb wherein each of m and n is independently 0 or 1; R 1 and R 2, together with the carbon atom to which they are attached, form a heterocyclic ring comprising one or two heteroatoms selected from oxygen, sulfur, -S - and - S 2 -; R 3 is -CHF 2, -CF 3, -OCHF 2, -OCF 3, -SCHF 2 or -SCF 3; or a pharmaceutically acceptable salt, hydrate or solvate thereof. each of m and n is independently 0 or 1; R 1 and R 2, together with the carbon atom to which they are attached, form a heterocyclic ring comprising one or two heteroatoms selected from oxygen, sulfur, -S - and - S 2 -; R 3 is -CHF 2, -CF 3, -OCHF 2, -OCF 3, -SCHF 2 or -SCF 3; or a pharmaceutically acceptable salt, hydrate or solvate thereof.
A method for post-mold cooling of a preform formed of a resin, the method comprising: minimizing a temperature differential in the preform at a transition between a first portion of the preform arranged in a holder of a post-mold device and a second portion (2") of the preform that is outside of the holder by controlling the temperature of the holder characterized in that controlling the temperature of the holder includes controlling the temperature of a coolant media circulated for controlling the temperature of the holder or controlling the flow rate of a coolant circulator for controlling the temperature of the holder, and selecting the temperature of the holder to be between 35°C and 65°C. minimizing a temperature differential in the preform at a transition between a first portion of the preform arranged in a holder of a post-mold device and a second portion (2") of the preform that is outside of the holder by controlling the temperature of the holder characterized in that controlling the temperature of the holder includes controlling the temperature of a coolant media circulated for controlling the temperature of the holder or controlling the flow rate of a coolant circulator for controlling the temperature of the holder, and selecting the temperature of the holder to be between 35°C and 65°C.
Method for determining the lithium ion concentration in the primary fluid of a nuclear power pressurised water reactor, of a plant, characterised in that it consists of: - measuring the difference in potential between a lithium ion-selective electrode, said electrode comprising a reference element, an internal lithium chloride solution, and a selective membrane, immersed in the solution wherein the lithium concentration of which is measured and a comparison electrode immersed in the same solution; said selective membrane comprising a polymer substrate, a plasticizer, a conductive compound and a lithium ion-specific ionophoric compound, said ionophoric compound is dibenzyl-14-crown-4, and represents between 0.5 and 3% by weight of the total composition of the membrane; the polymer substrate is polyvinyl chloride and represents 25 to 30% by weight of the total composition of the membrane; the plasticizer is o-nitrophenyloctyl ether (NPOE) and represents 65 to 72% by weight of the total composition of the membrane; and the conductive compound is potassium tetrakis(p-chlorophenyl) borate and represents 0.2 to 1.5% by weight of the total composition of the membrane; and - determining the lithium concentration on the basis of this measurement of the difference in potential measured between these two electrodes, which obeys Nernst's law. - measuring the difference in potential between a lithium ion-selective electrode, said electrode comprising a reference element, an internal lithium chloride solution, and a selective membrane, immersed in the solution wherein the lithium concentration of which is measured and a comparison electrode immersed in the same solution; said selective membrane comprising a polymer substrate, a plasticizer, a conductive compound and a lithium ion-specific ionophoric compound, said ionophoric compound is dibenzyl-14-crown-4, and represents between 0.5 and 3% by weight of the total composition of the membrane; the polymer substrate is polyvinyl chloride and represents 25 to 30% by weight of the total composition of the membrane; the plasticizer is o-nitrophenyloctyl ether (NPOE) and represents 65 to 72% by weight of the total composition of the membrane; and the conductive compound is potassium tetrakis(p-chlorophenyl) borate and represents 0.2 to 1.5% by weight of the total composition of the membrane; and - determining the lithium concentration on the basis of this measurement of the difference in potential measured between these two electrodes, which obeys Nernst's law.
A multi-body aerospace apparatus (10; 210) comprising: a first aerospace body (12; 212); at least two second aerospace bodies (14; 214); wherein, for each second aerospace body, the multi-body aerospace apparatus comprises an attachment member (16; 216) attaching the second aerospace body (14; 214) adjacent to the first aerospace body (12; 212) with a gap (20; 220) disposed between the first aerospace body (12; 212) and the second aerospace body (14; 214); characterised in that, for each second aerospace body, the multi-body aerospace apparatus further comprises: a flow separation member (18; 218) attached to the first aerospace body (12; 212) and extending in a direction away from the first aerospace body and partway into the gap, wherein the flow separation member comprises a curved member extending partway around a perimeter of the first aerospace body; is larger in length than the attachment member and covers the entire length of the attachment member. a first aerospace body (12; 212); at least two second aerospace bodies (14; 214); wherein, for each second aerospace body, the multi-body aerospace apparatus comprises an attachment member (16; 216) attaching the second aerospace body (14; 214) adjacent to the first aerospace body (12; 212) with a gap (20; 220) disposed between the first aerospace body (12; 212) and the second aerospace body (14; 214); characterised in that, for each second aerospace body, the multi-body aerospace apparatus further comprises: a flow separation member (18; 218) attached to the first aerospace body (12; 212) and extending in a direction away from the first aerospace body and partway into the gap, wherein the flow separation member comprises a curved member extending partway around a perimeter of the first aerospace body; is larger in length than the attachment member and covers the entire length of the attachment member. a flow separation member (18; 218) attached to the first aerospace body (12; 212) and extending in a direction away from the first aerospace body and partway into the gap, wherein the flow separation member comprises a curved member extending partway around a perimeter of the first aerospace body; is larger in length than the attachment member and covers the entire length of the attachment member.
Hydraulic circuit having a delivery unit for the delivery of a hydraulic fluid, in particular for the actuation of actuating elements and/or for the limiting of volume flows, said delivery unit having a housing, wherein the delivery unit has a first and a second pressure duct, and wherein the hydraulic circuit has a first pressure line and a second pressure line, and wherein the first pressure duct opens out into the first pressure line and the second pressure duct opens out into the second pressure line, and wherein the hydraulic circuit has a check valve by way of which the first pressure line is separated from the second pressure line, and wherein, upon actuation of a switching valve (48, 80), one of the pressure ducts (52, 54) is connected to the suction side (12, 50), characterized in that merely one gearwheel pair is accommodated in the housing, an inner gearwheel and an outer gearwheel thus being accommodated therein, said gearwheels delimiting at least one delivery space, which is acted on with a hydraulic fluid via a suction duct (12, 50), wherein the first pressure duct (52, 56) and the second pressure duct (54, 58) are provided at the delivery unit on the pressure side, and in that the length of the second duct is a length in the circumferential direction, which exceeds the length of the first pressure duct in the circumferential direction.
A method, comprising: detecting a usage mode of a foldable electronic device including a display with a first display area and a second display area that may be folded and unfolded about an axis; detecting eye focus of a user of the foldable electronic device as user input to the foldable electronic device; and controlling a brightness of an active area on the display based on the detected usage mode and detected user input, wherein controlling a brightness of an active area on the display comprises dimming a non-focus area of the active area around a focus area of the active area, the non-focus area comprising a first non-focus area on one side of the focus area and a second non-focus area on a second side of the focus area opposite the first side, with the first non-focus area included in the first display area and the second non-focus area included in the second display area. detecting a usage mode of a foldable electronic device including a display with a first display area and a second display area that may be folded and unfolded about an axis; detecting eye focus of a user of the foldable electronic device as user input to the foldable electronic device; and controlling a brightness of an active area on the display based on the detected usage mode and detected user input, wherein controlling a brightness of an active area on the display comprises dimming a non-focus area of the active area around a focus area of the active area, the non-focus area comprising a first non-focus area on one side of the focus area and a second non-focus area on a second side of the focus area opposite the first side, with the first non-focus area included in the first display area and the second non-focus area included in the second display area.
A method of propagating a microorganism, the method comprising: a) providing a carbon source, wherein the carbon source comprises a ground grain slurry, wherein the ground grain slurry comprises starch; b) providing a nutrient source, wherein the nutrient source comprises a grain stillage composition; c) providing a source of a first cell mass of a microorganism that can convert a monosaccharide into a biochemical, wherein the microorganism comprises Saccharomyces cerevisiae that has been genetically modified to convert xylose and glucose into the biochemical; d) providing a source of one or more enzymes than can convert the starch into one or more monosaccharides; e) combining the carbon source, the nutrient source, the first cell mass of the microorganism, and the one or more enzymes to form a propagation composition, wherein the propagation composition is exposed to conditions to convert the starch into glucose and propagate the first cell mass of the microorganism into a second cell mass of the microorganism; f) providing a lignocellulosic hydrolysate comprising at least glucose, xylose, and furfural; g) combining the lignocellulosic hydrolysate and at least a portion of the second cell mass of the microorganism so that the second cell mass of the microorganism can convert the glucose and/or xylose into a biochemical. a) providing a carbon source, wherein the carbon source comprises a ground grain slurry, wherein the ground grain slurry comprises starch; b) providing a nutrient source, wherein the nutrient source comprises a grain stillage composition; c) providing a source of a first cell mass of a microorganism that can convert a monosaccharide into a biochemical, wherein the microorganism comprises Saccharomyces cerevisiae that has been genetically modified to convert xylose and glucose into the biochemical; d) providing a source of one or more enzymes than can convert the starch into one or more monosaccharides; e) combining the carbon source, the nutrient source, the first cell mass of the microorganism, and the one or more enzymes to form a propagation composition, wherein the propagation composition is exposed to conditions to convert the starch into glucose and propagate the first cell mass of the microorganism into a second cell mass of the microorganism; f) providing a lignocellulosic hydrolysate comprising at least glucose, xylose, and furfural; g) combining the lignocellulosic hydrolysate and at least a portion of the second cell mass of the microorganism so that the second cell mass of the microorganism can convert the glucose and/or xylose into a biochemical.
Device for protecting a brake disc intended for a vehicle, comprising a protective part made from aluminium and a mounting part (6, 8, 10) connected to the protective part and intended for mounting the device on a support, the mounting part (6, 8, 10) being made from a metal material different from that of the protective part, preferentially steel; characterised in that the mounting part comprises at least one fixing lug (6, 8, 10).
A method of producing a soluble protein expressed in prokaryotes or eukaryotes comprising the steps of (i) preparing inclusion bodies in a buffer comprising no or low concentration of urea to form an inclusion body suspension, wherein the urea concentration is from 0M to 3M; (ii) subjecting the inclusion body suspension to a stepwise increase of pressure over a period of time; and (iii) maintaining high pressure applied to the inclusion bodies for a period of time, preferably wherein the high pressure is in the range from about 2000 bar to about 5000 bar. (i) preparing inclusion bodies in a buffer comprising no or low concentration of urea to form an inclusion body suspension, wherein the urea concentration is from 0M to 3M; (ii) subjecting the inclusion body suspension to a stepwise increase of pressure over a period of time; and (iii) maintaining high pressure applied to the inclusion bodies for a period of time, preferably wherein the high pressure is in the range from about 2000 bar to about 5000 bar.
An adhesion promoter having at least one epoxide group and at least one hydrolyzable silyl group, the adhesion promoter being a ring-opened adduct of a) a polyepoxide comprising at least three epoxide groups; and b) a mercaptosilane having a hydrolyzable silyl group. a) a polyepoxide comprising at least three epoxide groups; and b) a mercaptosilane having a hydrolyzable silyl group.
A full immersion brewing system, comprising: an immersion chamber;; a first support to support said immersion chamber; a second support to support said immersion chamber; and a floating valve; said immersion chamber including an opening for introducing extraction material and heated liquid into said immersion chamber; said floating valve sealing said immersion chamber by seating against said opening when said immersion chamber is filled with infused liquid; said first support introducing heated liquid into said immersion chamber; said second support introducing pressurized air into said immersion chamber; said immersion chamber being in a first position wherein the full immersion brewing system is in an upright position allowing the floating valve to remain buoyant and float to the top of the immersion chamber so that a seating section of the floating valve seats against the opening when infusing the heated liquid; said immersion chamber being in a second position wherein the full immersion brewing system is in a downward position allowing the seating section of the floating valve to remain seated against the opening when said immersion chamber dispenses infused liquid therefrom. an immersion chamber;; a first support to support said immersion chamber; a second support to support said immersion chamber; and a floating valve; said immersion chamber including an opening for introducing extraction material and heated liquid into said immersion chamber; said floating valve sealing said immersion chamber by seating against said opening when said immersion chamber is filled with infused liquid; said first support introducing heated liquid into said immersion chamber; said second support introducing pressurized air into said immersion chamber; said immersion chamber being in a first position wherein the full immersion brewing system is in an upright position allowing the floating valve to remain buoyant and float to the top of the immersion chamber so that a seating section of the floating valve seats against the opening when infusing the heated liquid; said immersion chamber being in a second position wherein the full immersion brewing system is in a downward position allowing the seating section of the floating valve to remain seated against the opening when said immersion chamber dispenses infused liquid therefrom.