mhurhangee/ep-ind-claims huggingface dataset:
A method for managing firewall requirements related to a virtualized application by a cloud management entity (600; 800) having a processing engine, comprising: - determining, by the processing engine, that a virtualized application, associated with a first plurality of application virtual machines (406a; 406b) and a second plurality of firewall virtual machines (402a; 402b), requires an increased number of application virtual machines in the first plurality; - determining, by the processing engine, that an increased number of firewall virtual machines is required by the increased number of application virtual machines; - instantiating an application virtual machine; and - instantiating a firewall virtual machine, wherein the required increased number of firewall virtual machines is determined in accordance with detecting that a firewall ratio threshold associated with the virtualized application is exceeded by the increased number of application virtual machines, wherein detecting that the firewall ratio threshold is exceeded is made in accordance with comparing a bandwidth capacity of the required increased number of application virtual machines in the first plurality to a sum of a bandwidth capacity of the firewall virtual machines in the second plurality and a bandwidth of a hardware firewall provisioned for use by the virtualized application. - determining, by the processing engine, that a virtualized application, associated with a first plurality of application virtual machines (406a; 406b) and a second plurality of firewall virtual machines (402a; 402b), requires an increased number of application virtual machines in the first plurality; - determining, by the processing engine, that an increased number of firewall virtual machines is required by the increased number of application virtual machines; - instantiating an application virtual machine; and - instantiating a firewall virtual machine,
An apparatus for physical exercise comprising; a resistance arrangement having at least one resistance means adapted for providing resistance forces in at least a first and a second direction; a force transmission assembly through which the resistance forces are operable; at least one actuation means being in operable engagement with the force transmission assembly and being adapted to transfer forces generatable by a user in at least two directions of motion to the at least one resistance means via the force transmission assembly, the resistance forces opposing the user generatable forces; wherein the force transmission assembly comprises means (4,5) for operably engaging the resistance means and linkage means operable between the means (4,5) for operably engaging the resistance means and the actuation means; and a supporting structure or frame; characterized in that the actuation means comprises means for movably coupling the actuation means to the supporting structure or frame; wherein the resistance arrangement and linkage means are located within the boundary of the supporting structure or frame.
A gel electrolyte in which an organic acid lithium salt, a boron compound and a matrix polymer are mixed, the organic acid lithium salt being at least one compound selected from the group consisting of lithium formate, lithium acetate, lithium propionate, lithium butyrate, lithium isobutyrate, lithium valerate, lithium isovalerate, lithium oxalate, lithium lactate, lithium tartrate, lithium maleate, lithium fumarate, lithium malonate, lithium succinate, lithium malate, lithium citrate, lithium glutarate, lithium adipate, lithium phthalate, lithium benzoate, lithium caproate, lithium enanthate, lithium caprylate, lithium pelargonate, lithium caprate, lithium laurate, lithium myristate, lithium pentadecylate, lithium palmitate, lithium oleate, lithium linoleate and a sulfonic acid lithium salt, the boron compound being at least one compound selected from the group consisting of boron trifluoride and boron trifluoride complex, the matrix polymer being one or more kinds selected from the group consisting of a polyether-based polymer, a fluorine-based polymer, a polyacrylic polymer, polyacrylonitrile, polyphosphazen, and polysiloxane, and the ratio of the number of moles of lithium atoms in the organic acid lithium salt to the number of moles of the boron compound being 100: 80 to 100: 105 (molar ratio).
A PCR method comprising the step of: subjecting a sample to a PCR reaction, the sample containing: a primer set including a first primer and a second primer; a template amplified by the primer set; a first probe which loses at least one bulge structure in a case where a double strand is formed by the first probe and the first primer and which forms the at least one bulge structure by being dissociated from the double strand formed by the first probe and the first primer; and a bulge structure-binding molecule which emits a signal by binding to the at least one bulge structure. subjecting a sample to a PCR reaction, the sample containing: a primer set including a first primer and a second primer; a template amplified by the primer set; a first probe which loses at least one bulge structure in a case where a double strand is formed by the first probe and the first primer and which forms the at least one bulge structure by being dissociated from the double strand formed by the first probe and the first primer; and a bulge structure-binding molecule which emits a signal by binding to the at least one bulge structure. a primer set including a first primer and a second primer; a template amplified by the primer set; a first probe which loses at least one bulge structure in a case where a double strand is formed by the first probe and the first primer and which forms the at least one bulge structure by being dissociated from the double strand formed by the first probe and the first primer; and a bulge structure-binding molecule which emits a signal by binding to the at least one bulge structure.
A yawing arrangement for use in a multirotor wind turbine, the yawing arrangement comprising a first part being configured to be fixedly connectable to a tower structure and a second part being configured to be fixedly connectable to a load carrying structure, the first part and the second part being configured to perform rotating movements relative to each other, wherein the first part is provided with one or more connecting structures for connecting one or more guy wires to the first part of the yawing arrangement, characterized in that the connecting structure(s) is/are arranged on an interior portion of the first part of the yawing arrangement, and in that the first part of the yawing arrangement is further provided with one or more through-going passages allowing a guy wire to pass through the first part of the yawing arrangement.
A computer implemented method for managing software aircraft parts, the computer implemented method comprising: creating an alternate parts signature list file having a set of signatures for a set of software aircraft parts, the alternate parts signature list file not comprising the software aircraft parts; signing the alternate parts signature list file; placing the alternate parts signature list file in a crate to form a crated alternate parts signature list file; signing the crated alternate parts signature list file to form a signed crate; sending the signed crate to an aircraft data processing system as a software aircraft part without sending the software aircraft parts; and replacing each signature for a software aircraft part on the aircraft data processing system with a corresponding signature in the signed crate to form a set of current signatures on the aircraft data processing system; in which the crate is a file using a file format that may store a set of files. creating an alternate parts signature list file having a set of signatures for a set of software aircraft parts, the alternate parts signature list file not comprising the software aircraft parts; signing the alternate parts signature list file; placing the alternate parts signature list file in a crate to form a crated alternate parts signature list file; signing the crated alternate parts signature list file to form a signed crate; sending the signed crate to an aircraft data processing system as a software aircraft part without sending the software aircraft parts; and replacing each signature for a software aircraft part on the aircraft data processing system with a corresponding signature in the signed crate to form a set of current signatures on the aircraft data processing system; in which the crate is a file using a file format that may store a set of files.
An extruder machine having a gear system which has a first and a second gear, wherein the first gear has at least one gear stage, the output shaft of which acts as the input shaft of a second gear stage of the first gear and thus is a first intermediate shaft, wherein the second gear has at least one gear stage, the output shaft of which acts as the input shaft of a second gear stage of the second gear and thus is a second intermediate shaft, wherein the first intermediate shaft is guided out of a housing of the first gear, wherein the second intermediate shaft is guided out of a housing of the second gear, wherein the first and second intermediate shafts are coupled non-rotatably together, wherein the extruder machine has a first extruder screw and a second extruder screw, wherein the output shaft of the first gear is connected non-rotatably to the first extruder screw, wherein the output shaft of the second gear is connected non-rotatably to the second extruder screw, wherein the screw teeth of the first and second extruder screws interlock, wherein the screw teeth of the first and second extruder screws do not touch, characterised in that the first and second intermediate shafts are embodied in one part, i.e. in one piece, with each other or in that the first and second intermediate shafts are coupled via an articulation. wherein the second gear has at least one gear stage, the output shaft of which acts as the input shaft of a second gear stage of the second gear and thus is a second intermediate shaft, wherein the first intermediate shaft is guided out of a housing of the first gear, wherein the second intermediate shaft is guided out of a housing of the second gear, wherein the first and second intermediate shafts are coupled non-rotatably together, wherein the extruder machine has a first extruder screw and a second extruder screw, wherein the output shaft of the first gear is connected non-rotatably to the first extruder screw, wherein the output shaft of the second gear is connected non-rotatably to the second extruder screw, wherein the screw teeth of the first and second extruder screws interlock, wherein the screw teeth of the first and second extruder screws do not touch, characterised in that the first and second intermediate shafts are embodied in one part, i.e. in one piece, with each other or in that the first and second intermediate shafts are coupled via an articulation.
A system for determining a treatment plan in ion beam treatment using an active scanning technique, to minimize unwanted dose, while maintaining or improving target dose coverage of a target volume, comprising: a data processor; and a memory, said memory containing instructions executable by said data processor; wherein the data processor is configured to, for each of at least one delivery direction: - define a beam (B,C,D); - split said beam into at least two sub-beams and define a set (Bi-Bi, C 1 -C i, D 1 -D i) of sub-beams, comprising said at least two sub-beams, wherein each of the sub-beams inherits at least the following beam properties from the beam (B,C,D): an isocenter; a gantry angle; and a couch angle; - associate a first sub-beam (B1, C1, D1), from the set of at least two sub-beams, with a first range shifter setting (RS 1); and - associate a second sub-beam (B 2, C 2, D 2), from the set of at least two sub-beams, with a second range shifter setting (RS 2), different from the first range shifter setting (RS 1); wherein the data processor is further configured to optimize the at least one set of sub-beams to determine a treatment plan. a data processor; and a memory, said memory containing instructions executable by said data processor; wherein the data processor is configured to, for each of at least one delivery direction: - define a beam (B,C,D); - split said beam into at least two sub-beams and define a set (Bi-Bi, C 1 -C i, D 1 -D i) of sub-beams, comprising said at least two sub-beams, wherein each of the sub-beams inherits at least the following beam properties from the beam (B,C,D): an isocenter; a gantry angle; and a couch angle; - associate a first sub-beam (B1, C1, D1), from the set of at least two sub-beams, with a first range shifter setting (RS 1); and - associate a second sub-beam (B 2, C 2, D 2), from the set of at least two sub-beams, with a second range shifter setting (RS 2), different from the first range shifter setting (RS 1); - define a beam (B,C,D); - split said beam into at least two sub-beams and define a set (Bi-Bi, C 1 -C i, D 1 -D i) of sub-beams, comprising said at least two sub-beams, wherein each of the sub-beams inherits at least the following beam properties from the beam (B,C,D): an isocenter; a gantry angle; and a couch angle; - associate a first sub-beam (B1, C1, D1), from the set of at least two sub-beams, with a first range shifter setting (RS 1); and - associate a second sub-beam (B 2, C 2, D 2), from the set of at least two sub-beams, with a second range shifter setting (RS 2), different from the first range shifter setting (RS 1); wherein the data processor is further configured to optimize the at least one set of sub-beams to determine a treatment plan.
An improved β-fructofuranosidase comprising an amino acid sequence having 60% or higher identity to the amino acid sequence of SEQ ID NO: 2, wherein the amino acid sequence of the improved β-fructofuranosidase contains an amino acid mutation that replaces histidine corresponding to position 395 counted from the N terminus of SEQ ID NO: 2 in alignment with arginine or lysine.
A viscous, granular, setting coating substance for machine application to a base, in particular to a heat insulation board attached on site to produce a composite heat insulation system, characterized in that the coating substance has a composition comprising 30 - 75 % by weight filling materials, for example carbonates, magnesium hydrosilicates, sheet silicates and/or barium sulphates, in a granular distribution with a maximum grain size ≤ 250 μm, furthermore preferably ≤ 150 μm 5 - 30 % by weight organic and/or inorganic binding agents, for example polymer dispersion, polymer powder, cement, sodium silicate and/or slaked lime, 5 - 45 % by weight water, 0.3 - 25 % by weight various additives, for example film formers, antifoaming agents, thixotropic, hydrophobic, wetting, flame-protection and/or preserving agents and also ≤ 4 % by weight organic and/or inorganic reinforcing fibres, for example cellulose fibres and/or glass filaments, so that a coating substance is produced that is so finely grained that it can be applied using an atomizing spray method without the need for compressed air.
A method for managing sample exposure to air on an automation system for performing clinical laboratory in-vitro diagnostics, the method comprising: receiving a sample in a capped container; loading the capped container onto a sample carrier (51,52,54,56); receiving a plurality of test requests corresponding to the sample, each test request associated with one or more analytical modules (32,34,36) included in an automated in vitro diagnostics system; identifying a first analytical module associated with a first test request; in response to determining that the first analytical module is available to perform the first test request, decapping the capped container, thereby yielding a decapped container; and characterised by performing a prioritized delivery of the decapped container to the first analytical module, wherein the prioritized delivery comprises: determining whether the decapped container is time-critical for exposure to air; if the decapped container is time-critical for exposure to air, entering the decapped container in a processing queue (53,54) of the first analytical module ahead of one or more other samples awaiting testing; and if the decapped container is not time-critical for exposure to air, entering the decapped container at the end of the processing queue of the first analytical module. receiving a sample in a capped container; loading the capped container onto a sample carrier (51,52,54,56); receiving a plurality of test requests corresponding to the sample, each test request associated with one or more analytical modules (32,34,36) included in an automated in vitro diagnostics system; identifying a first analytical module associated with a first test request; in response to determining that the first analytical module is available to perform the first test request, decapping the capped container, thereby yielding a decapped container; and characterised by performing a prioritized delivery of the decapped container to the first analytical module, wherein the prioritized delivery comprises: determining whether the decapped container is time-critical for exposure to air; if the decapped container is time-critical for exposure to air, entering the decapped container in a processing queue (53,54) of the first analytical module ahead of one or more other samples awaiting testing; and if the decapped container is not time-critical for exposure to air, entering the decapped container at the end of the processing queue of the first analytical module. determining whether the decapped container is time-critical for exposure to air; if the decapped container is time-critical for exposure to air, entering the decapped container in a processing queue (53,54) of the first analytical module ahead of one or more other samples awaiting testing; and if the decapped container is not time-critical for exposure to air, entering the decapped container at the end of the processing queue of the first analytical module.
A radio communication apparatus for performing radio communication in a first frequency band and a second frequency band, the radio communication apparatus comprising: a first radio interface (204; 205) adapted to modulate/demodulate a first frequency band signal; a first modem (206; 207) connected to the first radio interface; a second radio interface (205; 204) adapted to modulate/demodulate a second frequency band signal; a second modem (207; 206) connected to the second radio interface; and a modem controller adapted to relay signals between the first and second modems, wherein, when the modem controller determines on the basis of information supplied from the first and second modems (206, 207) that transmitting/receiving timing of first radio communication collides with transmitting/receiving timing of second radio communication, the modem controller is adapted to direct the first modem to avoid collision of data on a time axis; and characterised in that the first modem (206; 207) is configured to control communication of frame data in which copies of the same data are allocated to a plurality of communication slots, and in receiving a directive from the modem controller that receiving timing of the second modem collides with transmitting timing of the first modem, the first modem is adapted to discard the data contained in a colliding communication slot and to rewrite control data for selecting another communication slot containing the same data within the same frame. a first radio interface (204; 205) adapted to modulate/demodulate a first frequency band signal; a first modem (206; 207) connected to the first radio interface; a second radio interface (205; 204) adapted to modulate/demodulate a second frequency band signal; a second modem (207; 206) connected to the second radio interface; and a modem controller adapted to relay signals between the first and second modems, wherein, when the modem controller determines on the basis of information supplied from the first and second modems (206, 207) that transmitting/receiving timing of first radio communication collides with transmitting/receiving timing of second radio communication, the modem controller is adapted to direct the first modem to avoid collision of data on a time axis; and characterised in that the first modem (206; 207) is configured to control communication of frame data in which copies of the same data are allocated to a plurality of communication slots, and in receiving a directive from the modem controller that receiving timing of the second modem collides with transmitting timing of the first modem, the first modem is adapted to discard the data contained in a colliding communication slot and to rewrite control data for selecting another communication slot containing the same data within the same frame.
An NF-κB decoy in the form of a double stranded oligonucleotide or oligonucleotide analogue comprising at least one repeat of at least one nucleic acid sequence of an NF-κB binding site derived from the MGMT promoter region, wherein said sequence comprises the nucleic acid sequence as denoted by any one of SEQ ID NO. 4, 5, 30, 32, 34, 28, 29, 31, 33 and 35 for use in reducing MGMT expression.
The compound of formula: in which: R 1 is pyrazolyl; wherein said pyrazolyl is unsubstituted or substituted with 1 to 2 R 6 groups; R 2 is pyrrolidinyl; wherein said pyrrolidinyl is substituted with one R 7 group; R 3 is selected from hydrogen and halo; R 4 is selected from -SF 5 and -Y 2 -CF 2 -Y 3; R 6 at each occurrence is independently selected from hydrogen, hydroxy, methyl, methoxy, cyano, trifluoromethyl, hydroxy-methyl, halo, amino, fluoro-ethyl, ethyl and cyclopropyl; R 7 is selected from hydroxy, methyl, halo, methoxy, hydroxy-methyl, amino, methyl-amino, amino-methyl, trifluoromethyl, 2-hydroxypropan-2-yl, methyl-carbonyl-amino, dimethyl-amino, 2-amino-3-methylbutanoyl)oxy, carboxy, methoxy-carbonyl, phosphonooxy, cyano and amino-carbonyl; Y is selected from CH and N; Y 1 is selected from CH and N; Y 2 is selected from CF 2, O and S 0-2; and Y 3 is selected from hydrogen, chloro, fluoro, methyl, difluoromethyl and trifluoromethyl; or the pharmaceutically acceptable salts thereof. R 1 is pyrazolyl; wherein said pyrazolyl is unsubstituted or substituted with 1 to 2 R 6 groups; R 2 is pyrrolidinyl; wherein said pyrrolidinyl is substituted with one R 7 group; R 3 is selected from hydrogen and halo; R 4 is selected from -SF 5 and -Y 2 -CF 2 -Y 3; R 6 at each occurrence is independently selected from hydrogen, hydroxy, methyl, methoxy, cyano, trifluoromethyl, hydroxy-methyl, halo, amino, fluoro-ethyl, ethyl and cyclopropyl; R 7 is selected from hydroxy, methyl, halo, methoxy, hydroxy-methyl, amino, methyl-amino, amino-methyl, trifluoromethyl, 2-hydroxypropan-2-yl, methyl-carbonyl-amino, dimethyl-amino, 2-amino-3-methylbutanoyl)oxy, carboxy, methoxy-carbonyl, phosphonooxy, cyano and amino-carbonyl; Y is selected from CH and N; Y 1 is selected from CH and N; Y 2 is selected from CF 2, O and S 0-2; and Y 3 is selected from hydrogen, chloro, fluoro, methyl, difluoromethyl and trifluoromethyl; or the pharmaceutically acceptable salts thereof.