mhurhangee/ep-ind-claims huggingface dataset:
A modified influenza virus wherein the RNA of the haemagglutinin gene has been modified such that the haemagglutinin signal sequence is not expressed and the virus produces a haemagglutinin protein that lacks a functional signal sequence, wherein the modified virus comprises at least one or more of the following: i) a mutation in the original start codon for translation of the haemagglutinin gene such that it is no longer a start codon; ii) the introduction of a new start codon to drive translation of the haemagglutinin gene just after the signal sequence; iii) mutation of nucleotide A at position 33 in the WT A/PR/8/34 haemagglutinin gene and/or nucleotide T at position 34 in the WT A/PR/8/34 haemagglutinin gene according to Figure 1B such that the start codon is removed; iv) deletion of nucleotide 83 in the WT A/PR/8/34 haemagglutinin gene according to Figure 1B; v) insertion of a Kozak sequence in the place of nucleotide 83 in the WT A/PR/8/34 haemagglutinin gene according to Figure 1B; vi) mutations of one or more of nucleotides AGA at positions 1062, 1063 and 1064 respectively in the WT A/PR/8/34 haemagglutinin gene according to Figure 1B to remove the cleavage site. i) a mutation in the original start codon for translation of the haemagglutinin gene such that it is no longer a start codon; ii) the introduction of a new start codon to drive translation of the haemagglutinin gene just after the signal sequence; iii) mutation of nucleotide A at position 33 in the WT A/PR/8/34 haemagglutinin gene and/or nucleotide T at position 34 in the WT A/PR/8/34 haemagglutinin gene according to Figure 1B such that the start codon is removed; iv) deletion of nucleotide 83 in the WT A/PR/8/34 haemagglutinin gene according to Figure 1B; v) insertion of a Kozak sequence in the place of nucleotide 83 in the WT A/PR/8/34 haemagglutinin gene according to Figure 1B; vi) mutations of one or more of nucleotides AGA at positions 1062, 1063 and 1064 respectively in the WT A/PR/8/34 haemagglutinin gene according to Figure 1B to remove the cleavage site.
A process comprising in combination: controlling an electronic visual display (1018, 1200, 1402), such as a high-resolution display screen of a cell phone, smart phone, or head mounted display, to display patterns under at least some lenslets or pinholes in an array of lenslets or pinholes (1002, 1204, 1210, 1212, 1314), which array is positioned so that light from the electronic visual display (1018, 1200, 1402) passes through the array and reaches the optical system, controlling the electronic visual display (1018, 1200, 1402) to change the patterns, as seen by the optical system, in accordance with control input, accepting input indicating that the patterns appear, to the optical system, to form a desired image, and determining, based on the input regarding apparent formation of the desired image, at least one refractive parameter of the optical system. controlling an electronic visual display (1018, 1200, 1402), such as a high-resolution display screen of a cell phone, smart phone, or head mounted display, to display patterns under at least some lenslets or pinholes in an array of lenslets or pinholes (1002, 1204, 1210, 1212, 1314), which array is positioned so that light from the electronic visual display (1018, 1200, 1402) passes through the array and reaches the optical system, controlling the electronic visual display (1018, 1200, 1402) to change the patterns, as seen by the optical system, in accordance with control input, accepting input indicating that the patterns appear, to the optical system, to form a desired image, and determining, based on the input regarding apparent formation of the desired image, at least one refractive parameter of the optical system.
A liquid electrolyte for a lithium battery comprising a lithium salt dissolved in a quaternary mixture of non-aqueous organic solvents, characterized in that the lithium salt is lithium perchlorate (LiClO 4) and in that the quaternary mixture is constituted by ethylene carbonate, diethyl carbonate, tetrahydrofurane and ethyl methyl carbonate.
Rotor for an electric motor, in particular a separately excited synchronous motor, having a rotor body; and an even number n of poles which are arranged on the rotor body with in each case one rotor winding (L1,...,L6), the rotor windings of the poles being connected in series between two electric connectors (A1, A2) of the rotor which serve to feed in and dissipate an electric field current through the rotor windings; the series circuit having a first section, to which the n/2 rotor windings (L1,...,L3) which are arranged first of all in the series circuit from a first one of the connectors belong, and a second section, to which the further n/2 rotor windings (L4,...,L6) which remain in the series circuit and are arranged upstream of the second one of the connectors belong; characterized in that the rotor windings (L1,...,L6) and the series circuit are configured in such a way that, in the case of the application of a DC voltage between the two connectors (A1, A2), in each of the rotor windings of the first section, the radial component, oriented in the direction of the winding height of the respective rotor winding, of the direct current flow which occurs in the series circuit runs through the respective rotor winding (L1,...,L3) overall from an inner side to an outer side of the rotor winding (L1,...,L3), and, in each of the rotor windings (L4,...,L6) of the second section, runs conversely overall from an outer side to an inner side of the rotor winding (L4,...,L6).
A method for enhancing a characteristic of a plant, the method comprising administering Bacillus subtilis FB 17 to the seed of a plant in an amount effective to (a) produce a greater biomass in the plant compared to an untreated plant; (b) produce a greater drought tolerance in the plant compared to an untreated plant; (c) inhibit infection of the plant by a fungal pathogen compared to an untreated plant; and/or (d) increase tolerance to plant pathogens. (a) produce a greater biomass in the plant compared to an untreated plant; (b) produce a greater drought tolerance in the plant compared to an untreated plant; (c) inhibit infection of the plant by a fungal pathogen compared to an untreated plant; and/or (d) increase tolerance to plant pathogens.
Method for producing a compound having the general formula: R 3 In 2 Cl 3 comprising the reaction steps of a1) reacting indium with an alkyl donor to form compound, wherein the alkyl donor is alkyl chloride, and R is a branched or unbranched alkyl radical having 1 to 4 carbon atoms, a2) and optionally isolating compound from the reaction mixture; wherein a compound having the formula R 3 In 2 Cl 3 is used as reaction medium, and the ratio of indium to the reaction medium is 0.5:10 to 2:1 or 1:1.5 to 1.5:1 (with respect to weight). a1) reacting indium with an alkyl donor to form compound, wherein the alkyl donor is alkyl chloride, and R is a branched or unbranched alkyl radical having 1 to 4 carbon atoms, a2) and optionally isolating compound from the reaction mixture;
A turning tool comprising a tool body having an insert seat for accommodating a cutting insert, which has a cutting edge and a therewith associated clearance surface, a guiding block movably mounted at the tool body between a first position and a second position, and a fluid passage with an inlet end and at least one outlet (19, 20) which is arranged to guide a cooling fluid from the inlet end to the at least one outlet (19, 20) of the fluid passage, wherein the at least one outlet (19, 20) is arranged to eject a jet of the cooling fluid towards an area where the clearance surface (9, 10) is located when the cutting insert is accommodated on the insert seat, wherein a first section of the fluid passage extends through the tool body, wherein a second section of the fluid passage extends through the guiding block, and wherein the at least one outlet (19, 20) forms an end of the second section of the fluid passage in the guiding block, characterized in that at least the tool body or the guiding block is arranged such that when the guiding block is in the first position the jet of cooling fluid is ejected along a first line and such that when the guiding block is in the second position the jet of cooling fluid is ejected along a second line, wherein the first line and the second line have different orientations and intersect each other at a position in a downstream direction from the at least one outlet (19, 20). a tool body having an insert seat for accommodating a cutting insert, which has a cutting edge and a therewith associated clearance surface, a guiding block movably mounted at the tool body between a first position and a second position, and a fluid passage with an inlet end and at least one outlet (19, 20) which is arranged to guide a cooling fluid from the inlet end to the at least one outlet (19, 20) of the fluid passage, wherein the at least one outlet (19, 20) is arranged to eject a jet of the cooling fluid towards an area where the clearance surface (9, 10) is located when the cutting insert is accommodated on the insert seat, wherein a first section of the fluid passage extends through the tool body, wherein a second section of the fluid passage extends through the guiding block, and wherein the at least one outlet (19, 20) forms an end of the second section of the fluid passage in the guiding block,
A method for generating a directive for maintaining a target of a plasma donation center comprising: integrating a control center system with a plurality of healthcare provider data systems (210, 220); obtaining information from at least one of the plurality of healthcare provider data systems (210, 220), wherein the obtained information includes production data from a plasma data system, data from a screening instrument or data from an apheresis device; correlating, using artificial intelligence, the obtained information against a target for at least one donation center, the target being one of total donors, total units, a donations per hour rate, a donor door to door time, an average yield or an average device turn rate; generating, using a heuristic model, a directive to the at least one donation center, to achieve the target, the directive being to open or close screening booths, to add or close beds, to add phlebotomists or to rebalance supply lines and bins; and presenting (324, 326, 342) the directive to at least one user and/or user system such that the directive may carried out by the at least one user and/or user system. integrating a control center system with a plurality of healthcare provider data systems (210, 220); obtaining information from at least one of the plurality of healthcare provider data systems (210, 220), wherein the obtained information includes production data from a plasma data system, data from a screening instrument or data from an apheresis device; correlating, using artificial intelligence, the obtained information against a target for at least one donation center, the target being one of total donors, total units, a donations per hour rate, a donor door to door time, an average yield or an average device turn rate; generating, using a heuristic model, a directive to the at least one donation center, to achieve the target, the directive being to open or close screening booths, to add or close beds, to add phlebotomists or to rebalance supply lines and bins; and presenting (324, 326, 342) the directive to at least one user and/or user system such that the directive may carried out by the at least one user and/or user system.
A compound that is d-cis -3-(4-hydroxyphenyl)-4-(4-hydroxyphenyl)-8-methylchroman-7-ol, for use in a method of treatment of breast cancer, wherein the treatment further comprises administration of a glycolytic inhibitor, wherein the glycolytic inhibitor is: nintedanib, dovitinib, regorafenib, or bevacizumab.
A human milk continuous pasteuriser suitable to enable the continuous pasteurization of human milk at a temperature between 72 to 75oC for a period od 10 to 20 seconds, characterized in that it comprises: - an inlet tank for raw milk that has a first agitation system, configured to achieve a rate of rotation between 90 and 95 rpm for preventing the phase separation of the fluid, and actuated by a first direct current motor, - a peristaltic pump to drive the milk from the inlet tank, - a heating circuit arranged next to the peristaltic pump, and comprising one or more corrugated tube heat exchangers, - a cooling circuit that comprises a mechanical system for producing coldness, adapted to decrease the temperature of the milk to 2-4oC, and comprising one or more corrugated tube heat exchangers, and that is arranged after the heating circuit, - an aseptic outlet tank with a second agitation system, configured to achieve a rate of rotation between 90 and 95 rpm for preventing the phase separation of the milk, and actuated by a second direct current motor and that is arranged after the cooling circuit, - a control unit configured to control the heating circuit, the cooling circuit, the peristaltic pump and the agitation systems (2, 9), wherein the corrugated tube heat exchangers of the heating circuit and the cooling circuit are concentric corrugated tube heat exchangers having countercurrent flow. - an inlet tank for raw milk that has a first agitation system, configured to achieve a rate of rotation between 90 and 95 rpm for preventing the phase separation of the fluid, and actuated by a first direct current motor, - a peristaltic pump to drive the milk from the inlet tank, - a heating circuit arranged next to the peristaltic pump, and comprising one or more corrugated tube heat exchangers, - a cooling circuit that comprises a mechanical system for producing coldness, adapted to decrease the temperature of the milk to 2-4oC, and comprising one or more corrugated tube heat exchangers, and that is arranged after the heating circuit, - an aseptic outlet tank with a second agitation system, configured to achieve a rate of rotation between 90 and 95 rpm for preventing the phase separation of the milk, and actuated by a second direct current motor and that is arranged after the cooling circuit, - a control unit configured to control the heating circuit, the cooling circuit, the peristaltic pump and the agitation systems (2, 9),
A method for providing location information in a communications network, the method being performed by a first device, the first device supporting positioning of other devices (130a, 130b, 140) in the communications network, the method comprising: acquiring positioning reference signal configuration from a radio network node in the communications network; acquiring location information from a local positioning entity; providing the location information to at least one of a radio network node and a second device in the communications network; and transmitting a positioning reference signal according to the positioning reference signal configuration. acquiring positioning reference signal configuration from a radio network node in the communications network; acquiring location information from a local positioning entity; providing the location information to at least one of a radio network node and a second device in the communications network; and transmitting a positioning reference signal according to the positioning reference signal configuration.
Method for inspecting technical rubber articles with a reinforcing ply, such as for example a pneumatic vehicle tyre with a carcass ply, comprising the following steps: A) producing or providing a technical rubber article with at least one reinforcing ply, wherein the reinforcing ply comprises a rubber matrix and a metal reinforcing ply, B) measuring a first distance by means of a first distance measuring unit, wherein the first distance is measured between a measuring area on a surface of the metal reinforcing ply and the first distance measuring unit, wherein the first distance measuring unit comprises at least one radar wave transmitter and at least one radar wave receiver and is suitable for ascertaining a distance (11, 15) in each case from a transit time of a radar wave signal between the radar wave transmitter, the measuring/reference area (8, 10) and the radar wave receiver, C) measuring a second distance by means of a second distance measuring unit, wherein the second distance is measured between a reference area, which is fixed in relation to the measuring area, on an outer wall of the one ply of the technical rubber article and the second distance measuring unit, wherein the second distance measuring unit comprises at least one laser and at least one laser light detector and is suitable for ascertaining the distance in each case from a transit time of a laser signal between the laser, the reference area and the laser light detector, wherein the distance between the outer wall and the surface of the reinforcing ply is then ascertained from the difference between the first distance and the second distance. A) producing or providing a technical rubber article with at least one reinforcing ply, wherein the reinforcing ply comprises a rubber matrix and a metal reinforcing ply, B) measuring a first distance by means of a first distance measuring unit, wherein the first distance is measured between a measuring area on a surface of the metal reinforcing ply and the first distance measuring unit, wherein the first distance measuring unit comprises at least one radar wave transmitter and at least one radar wave receiver and is suitable for ascertaining a distance (11, 15) in each case from a transit time of a radar wave signal between the radar wave transmitter, the measuring/reference area (8, 10) and the radar wave receiver, C) measuring a second distance by means of a second distance measuring unit, wherein the second distance is measured between a reference area, which is fixed in relation to the measuring area, on an outer wall of the one ply of the technical rubber article and the second distance measuring unit, wherein the second distance measuring unit comprises at least one laser and at least one laser light detector and is suitable for ascertaining the distance in each case from a transit time of a laser signal between the laser, the reference area and the laser light detector, wherein the distance between the outer wall and the surface of the reinforcing ply is then ascertained from the difference between the first distance and the second distance.
A compound having the formula or a pharmaceutically acceptable salt thereof, wherein R 1 is C 1 -C 6 alkyl, aryl, C 3 -C 7 -cycloalkyl, adamantyl, or -3- to 10-membered heterocycle, any of which may be unsubstituted or substituted with one or more of the following groups:- halo, -C 1 -C 6 alkyl, -O-(C 1 -C 6 alkyl), OH, -CN, -COOR', -OC R', NHR', N(R') 2, -NHC R' or -C NHR' groups wherein R' is -H or unsubstituted -C 1 -C 6 alkyl, with the proviso that when n is 2, R 1 cannot be -C 3 -C 7 cycloalkyl or -3- to 10-membered heterocycle, m is an integer ranging from 0-10; and n is an integer ranging from 1-10.
A pneumatic compact vacuum toilet comprising a toilet bowl with an outlet channel which opens into an intermediate tank, wherein the intermediate tank has a wastewater channel, and wherein the outlet channel has an outlet valve which is arranged and designed to close the outlet channel in a first outlet valve position and to open it in a second outlet valve position, and the wastewater channel has a wastewater valve which is arranged and designed to open the wastewater channel in a first wastewater valve position and to close it in a second wastewater valve position, and wherein the outlet valve and the wastewater valve are designed as pneumatic shut-off valves, wherein a normal position of the wastewater valve corresponds to the first, open wastewater valve position and the wastewater valve is able to be brought into the second, closed wastewater valve position by means of pneumatic activation, characterized by a control device which is arranged and designed to bring the wastewater valve into the second, closed wastewater valve position and to create a negative pressure in the intermediate tank when a flushing process is initiated by a user, and, once a target negative pressure is reached in the intermediate tank, to bring the outlet valve into the second, open outlet valve position, wherein wastewater can be discharged gravitationally through the wastewater channel from the intermediate tank.
An electronic apparatus comprising: a memory configured to store a plurality of images comprising a first image and a second image, a first artificial intelligence model trained to reduce noise, and a second artificial intelligence model trained to increase sharpness; and a first processor configured to identify qualities of the plurality of images as being noise and sharpness; a second processor configured to process the plurality of images using the first and second artificial intelligence model corresponding to the identified qualities, wherein: based on a noise identified in the first image being greater than or equal to a threshold noise, the second processor uses the first artificial intelligence model to process the first image, and based on a sharpness identified in the second image being less than a threshold sharpness, use the second artificial intelligence model to process the second image; a third processor configured to obtain a graphic image comprising the processed plurality of images received from the second processor; and a fourth processor configured to process the graphic image so that the processed graphic image is displayed on a display of the electronic apparatus. a memory configured to store a plurality of images comprising a first image and a second image, a first artificial intelligence model trained to reduce noise, and a second artificial intelligence model trained to increase sharpness; and a first processor configured to identify qualities of the plurality of images as being noise and sharpness; a second processor configured to process the plurality of images using the first and second artificial intelligence model corresponding to the identified qualities, wherein: based on a noise identified in the first image being greater than or equal to a threshold noise, the second processor uses the first artificial intelligence model to process the first image, and based on a sharpness identified in the second image being less than a threshold sharpness, use the second artificial intelligence model to process the second image; based on a noise identified in the first image being greater than or equal to a threshold noise, the second processor uses the first artificial intelligence model to process the first image, and based on a sharpness identified in the second image being less than a threshold sharpness, use the second artificial intelligence model to process the second image; a third processor configured to obtain a graphic image comprising the processed plurality of images received from the second processor; and a fourth processor configured to process the graphic image so that the processed graphic image is displayed on a display of the electronic apparatus.