mhurhangee/ep-ind-claims huggingface dataset:
Vaccine for preventing viral infections comprising - a viral antigen, - a peptide with the amino acid sequence KLKL 5 KLK, and - an immunostimulatory oligodeoxynucleic acid molecule, wherein the ODN comprises d 13, as defined by SEQ ID NO. 2. - a viral antigen, - a peptide with the amino acid sequence KLKL 5 KLK, and - an immunostimulatory oligodeoxynucleic acid molecule, wherein the ODN comprises d 13, as defined by SEQ ID NO. 2.
Use of a spherical casting sand having an average particle diameter of 0.03 to 1.5 mm, produced by a flame fusion method, wherein the amount of alkali eluted is not higher than 0.8 μmol/g, for manufacturing a mold together with a urethane binder.
Drilling tool for down-the-hole drilling, which drilling tool is arranged to drill a hole ahead of a following casing tube, the drilling tool comprising a drill assembly which comprises a central pilot drill bit (2, 9), a casing shoe and an outer peripheral ring shaped drill bit portion (3, 4) releasably attached to said central pilot drill bit (2, 9), said assembly being coupled to a drill string, characterized in that the central pilot drill bit, comprises a central pilot drill bit portion and a drive shaft device which are arranged to releasably interfit to transmit torque from the drill string to the drill assembly, wherein the drive shaft device has a lower, shaft formed portion, which releasably interfits within a central hole of the pilot drill bit portion by means of a first coupling arrangement (16, 96, 23, 93), wherein said shaft formed portion is arranged with connecting members (16, 96) each comprising an outer radius arranged to mate with inner recesses within the central hole, each recess comprising an inner radius mating with the outer radius of said connecting members (16, 96), whereby a torque transmitting coupling is achieved.
Method of preparing monolithic SCR catalyst with a plurality of gas flow channels comprising the steps of (a) providing a monolithic shaped substrate with a plurality of parallel gas flow channels; (b) coating the substrate with a wash coat slurry comprising vanadium oxide precursor compounds and titania; and (c) drying the thus coated substrate with a drying rate of 5 mm/min or less along flow direction through the gas flow channels; and (d) activating the dried coated substrate by calcining. (a) providing a monolithic shaped substrate with a plurality of parallel gas flow channels; (b) coating the substrate with a wash coat slurry comprising vanadium oxide precursor compounds and titania; and (c) drying the thus coated substrate with a drying rate of 5 mm/min or less along flow direction through the gas flow channels; and (d) activating the dried coated substrate by calcining.
A container comprising: a body having opposite ends (20 and 22), a width and an intermediate portion positioned between said opposite ends (20 and 22), said body having at least one cavity for storing dispensable contents; an upper edge of the body defining an opening for filling the cavity; a flange extending along the upper edge of the body; a cover affixed to the flange to seal the dispensable contents within the cavity; a bend extending across the width of the intermediate portion of the body along which bend the body fractures upon the application of force exceeding a predetermined level on either side of the bend; a tapered profile of the intermediate portion of the body for providing a reduced width of the body so that stress concentrates along the reduced width as the force is applied on either side of the bend, and enlarged portions of the flange at the bend configured to increase the mass of the flange adjoining the bend relative to the body, and thereby to shift a neutral axis of the container toward the flange to provide increased stress along the bend as the force is applied on either side of the bend, characterised in that the intermediate portion of the body being of constant wall thickness throughout. a body having opposite ends (20 and 22), a width and an intermediate portion positioned between said opposite ends (20 and 22), said body having at least one cavity for storing dispensable contents; an upper edge of the body defining an opening for filling the cavity; a flange extending along the upper edge of the body; a cover affixed to the flange to seal the dispensable contents within the cavity; a bend extending across the width of the intermediate portion of the body along which bend the body fractures upon the application of force exceeding a predetermined level on either side of the bend; a tapered profile of the intermediate portion of the body for providing a reduced width of the body so that stress concentrates along the reduced width as the force is applied on either side of the bend, and enlarged portions of the flange at the bend configured to increase the mass of the flange adjoining the bend relative to the body, and thereby to shift a neutral axis of the container toward the flange to provide increased stress along the bend as the force is applied on either side of the bend, characterised in that the intermediate portion of the body being of constant wall thickness throughout.
A filamentous fungal biomat comprising at least one cell layer, wherein the biomat has a cell density of at least 25 g dry weight/L media and is 1 mm to 30 mm thick, wherein the biomat is produced by a surface fermentation method, comprising growth on the surface of an aqueous media comprising nutrients in dissolved or submerged form.
A medical imaging system comprising: an imaging capturing portion including: (i) a source that emits an emission signal towards a target to be imaged, and (ii) a receiver that receives the emission signal emitted by the source; an image processing unit that receives the received emission signal from the imaging capturing portion and generates image data based on the received emission signal; a main power supply coupled to the imaging capturing portion and the imaging processing unit for providing operational power thereto; and characterised by a supplemental power supply coupled to the main power supply and the imaging processing unit, wherein the supplemental power supply is charged by the main power supply in a first mode and the supplemental power supply provides operational power to the imaging processing unit in a second mode; wherein the image data is generated based on the received emission signal during the second mode, wherein the imaging system is configured to enter the second mode when the operational power exceeds a threshold. an imaging capturing portion including: (i) a source that emits an emission signal towards a target to be imaged, and (ii) a receiver that receives the emission signal emitted by the source; (i) a source that emits an emission signal towards a target to be imaged, and (ii) a receiver that receives the emission signal emitted by the source; an image processing unit that receives the received emission signal from the imaging capturing portion and generates image data based on the received emission signal; a main power supply coupled to the imaging capturing portion and the imaging processing unit for providing operational power thereto; and characterised by a supplemental power supply coupled to the main power supply and the imaging processing unit, wherein the supplemental power supply is charged by the main power supply in a first mode and the supplemental power supply provides operational power to the imaging processing unit in a second mode; wherein the image data is generated based on the received emission signal during the second mode, wherein the imaging system is configured to enter the second mode when the operational power exceeds a threshold.
A storage system comprising: a plurality of embedded storage devices, wherein each embedded storage device of the plurality of embedded storage devices comprises: a first direct-mapped solid state drive, SSD, storage portion, wherein the first direct-mapped SSD storage portion has erase blocks mapped as directly addressable storage of the SSD; and a second non-volatile random-access memory, NVRAM, portion comprising a random access memory, RAM, device and a processing device, wherein the first direct-mapped SSD portion and the second NVRAM portion are separately addressable, and wherein the second NVRAM portion is smaller than the first direct-mapped SSD portion; and a plurality of storage system controllers (401A, 401B) operatively coupled to the plurality embedded storage devices via a bus, the plurality of storage system controllers (401A, 401B) being configured to: determine that data is to be stored in the first direct-mapped SSD storage portion of a first embedded storage device of the plurality of embedded storage devices; and buffer the data in the second NVRAM portion of a second embedded storage device of the plurality of embedded storage devices. a plurality of embedded storage devices, wherein each embedded storage device of the plurality of embedded storage devices comprises: a first direct-mapped solid state drive, SSD, storage portion, wherein the first direct-mapped SSD storage portion has erase blocks mapped as directly addressable storage of the SSD; and a second non-volatile random-access memory, NVRAM, portion comprising a random access memory, RAM, device and a processing device, wherein the first direct-mapped SSD portion and the second NVRAM portion are separately addressable, and wherein the second NVRAM portion is smaller than the first direct-mapped SSD portion; and a first direct-mapped solid state drive, SSD, storage portion, wherein the first direct-mapped SSD storage portion has erase blocks mapped as directly addressable storage of the SSD; and a second non-volatile random-access memory, NVRAM, portion comprising a random access memory, RAM, device and a processing device, wherein the first direct-mapped SSD portion and the second NVRAM portion are separately addressable, and wherein the second NVRAM portion is smaller than the first direct-mapped SSD portion; and a plurality of storage system controllers (401A, 401B) operatively coupled to the plurality embedded storage devices via a bus, the plurality of storage system controllers (401A, 401B) being configured to: determine that data is to be stored in the first direct-mapped SSD storage portion of a first embedded storage device of the plurality of embedded storage devices; and buffer the data in the second NVRAM portion of a second embedded storage device of the plurality of embedded storage devices. determine that data is to be stored in the first direct-mapped SSD storage portion of a first embedded storage device of the plurality of embedded storage devices; and buffer the data in the second NVRAM portion of a second embedded storage device of the plurality of embedded storage devices.
An optical transmission apparatus comprising an optical emission unit and an optical reception unit connected to each other via an optical transmission unit, characterized in that the optical emission unit includes: a signal arrangement unit adapted to generate respective pairs of phase-conjugate signals of a plurality of systems on the basis of externally input signals of a plurality of systems, mix together the pairs of phase-conjugate signals by using the equations EX=EA+EB and EY=(EA*) - (EB*), and then arrange the pairs of phase-conjugate signals discretely in orthogonally polarized electric fields, where EA denotes a complex signal of a first system of the plurality of systems, EB denotes a complex signal of a second system of the plurality of systems, (EA*) denotes a complex conjugate of EA, (EB*) denotes a complex conjugate of EB, EX denotes a X-polarized complex signal, and EY denotes a Y-polarized complex signal; and an optical modulation unit adapted to convert electric signals from the signal arrangement unit into optical signals and output the optical signals to the optical transmission unit, and that the optical reception unit includes: a photoelectric conversion unit adapted to convert the optical signals transmitted by the optical transmission unit into electric signals; and a signal reconstruction unit adapted to reconstruct the original signals of the plurality of systems by synthesizing the intermixed and discretely arranged signals from the photoelectric conversion unit. a signal arrangement unit adapted to generate respective pairs of phase-conjugate signals of a plurality of systems on the basis of externally input signals of a plurality of systems, mix together the pairs of phase-conjugate signals by using the equations EX=EA+EB and EY=(EA*) - (EB*), and then arrange the pairs of phase-conjugate signals discretely in orthogonally polarized electric fields, where EA denotes a complex signal of a first system of the plurality of systems, EB denotes a complex signal of a second system of the plurality of systems, (EA*) denotes a complex conjugate of EA, (EB*) denotes a complex conjugate of EB, EX denotes a X-polarized complex signal, and EY denotes a Y-polarized complex signal; and an optical modulation unit adapted to convert electric signals from the signal arrangement unit into optical signals and output the optical signals to the optical transmission unit, and that the optical reception unit includes: a photoelectric conversion unit adapted to convert the optical signals transmitted by the optical transmission unit into electric signals; and a signal reconstruction unit adapted to reconstruct the original signals of the plurality of systems by synthesizing the intermixed and discretely arranged signals from the photoelectric conversion unit. a photoelectric conversion unit adapted to convert the optical signals transmitted by the optical transmission unit into electric signals; and a signal reconstruction unit adapted to reconstruct the original signals of the plurality of systems by synthesizing the intermixed and discretely arranged signals from the photoelectric conversion unit.
A method for manufacturing a wiring board formed with a non-magnetic conductor portion having conductivity, the method comprising: forming a metallized layer on a surface of a ceramic board, the metallized layer consisting of at least one of tungsten and molybdenum and a ceramic material composed of alumina and silica; performing a pre-treatment for removing the silica particles, which are exposed on a part of the surface of the metallized layer, forming open pore portions; forming an initial Cu plated layer on the surface of the metallized layer; performing heating the initial Cu plated layer to be softened or melted and then cooled to be solidified to form a lower Cu plated layer; wherein the softened or melted copper of the initial Cu plated layer enters into the open pore portions on the surface of the metallized layer and the lower Cu plated layer is formed from the initial Cu plated layer; and forming an upper Cu plated layer on the surface of the lower Cu plated layer by plating. forming a metallized layer on a surface of a ceramic board, the metallized layer consisting of at least one of tungsten and molybdenum and a ceramic material composed of alumina and silica; performing a pre-treatment for removing the silica particles, which are exposed on a part of the surface of the metallized layer, forming open pore portions; forming an initial Cu plated layer on the surface of the metallized layer; performing heating the initial Cu plated layer to be softened or melted and then cooled to be solidified to form a lower Cu plated layer; wherein the softened or melted copper of the initial Cu plated layer enters into the open pore portions on the surface of the metallized layer and the lower Cu plated layer is formed from the initial Cu plated layer; and forming an upper Cu plated layer on the surface of the lower Cu plated layer by plating.
A method, comprising: determining, with a device, a distance between a scanner and an electronic surveillance tag on an object, the EAS tag co-located with a machine-readable indicium on the object; decoding, with the scanner, the machine-readable indicium on the object to obtain decoded data; and if the determined distance between the scanner and the EAS tag is not within a pre-defined range comprising a working range of an electronic article surveillance system, discarding the decoded data determining, with a device, a distance between a scanner and an electronic surveillance tag on an object, the EAS tag co-located with a machine-readable indicium on the object; decoding, with the scanner, the machine-readable indicium on the object to obtain decoded data; and if the determined distance between the scanner and the EAS tag is not within a pre-defined range comprising a working range of an electronic article surveillance system, discarding the decoded data
Method for assisting a driver in driving a vehicle, comprising the steps of: - obtaining information on an environment of the vehicle (2, 3), - receiving an instruction from the vehicle driver, - generating, based on the received instruction, an evaluation task defining an aspect of a current traffic situation encountered by the vehicle to be evaluated, - performing an evaluation (9.1) of the obtained information according to the evaluation task, and generating an evaluation result, and characterized in - evaluating the obtained information with respect to other aspects of the traffic situation and determining their relation to the aspect defined in the task (9.2), wherein the other aspects are not defined by and limited to the received instruction, and wherein the other aspects are related to a judgement of the driver to be made on the basis of the evaluation result only, and - generating and outputting an information on the basis of the evaluation result and the other determined aspects (9.2). - obtaining information on an environment of the vehicle (2, 3), - receiving an instruction from the vehicle driver, - generating, based on the received instruction, an evaluation task defining an aspect of a current traffic situation encountered by the vehicle to be evaluated, - performing an evaluation (9.1) of the obtained information according to the evaluation task, and generating an evaluation result, and characterized in - evaluating the obtained information with respect to other aspects of the traffic situation and determining their relation to the aspect defined in the task (9.2), wherein the other aspects are not defined by and limited to the received instruction, and wherein the other aspects are related to a judgement of the driver to be made on the basis of the evaluation result only, and - generating and outputting an information on the basis of the evaluation result and the other determined aspects (9.2).
A method of controlling or preventing infestation of soybean plants by the phytopathogenic microorganism Fusarium virguliforme, comprising applying to propagation material of soybean plants the compound of formula (Ic) wherein R11, R12 and A are defined in the following table: A R11 R12 2-trifluoromethyl-pyrid-3-yl Cl Cl
An actuator for use in an aircraft, the actuator comprising: an input shaft; a first component located concentrically around the input shaft; a second component configured to be fixed against rotational movement in use; a first ballscrew mechanism between the input shaft and the first component, and configured such that rotational movement of the input shaft causes a translational movement of the first component via the first ballscrew mechanism; and a second ballscrew mechanism between the first component and the second component, and configured such that rotational movement of the first component causes a translational movement of the second component via the second ballscrew mechanism; wherein in a first mode the first component is configured to translate along an axis upon rotational movement of the input shaft, and in a second mode the first component is configured to rotate about the axis; wherein during extension of the actuator, the first mode occurs prior to the second mode, and a transition between the first mode and the second mode is caused by a stop attached to the first component abutting a stop attached to the input shaft, which abutment prevents further translation of the first component such that further rotational movement of the input shaft causes the first component to start rotating and the second component to translate along the axis due to the operation of the second ballscrew mechanism; characterised in that the second component is located concentrically around the first component. an input shaft; a first component located concentrically around the input shaft; a second component configured to be fixed against rotational movement in use; a first ballscrew mechanism between the input shaft and the first component, and configured such that rotational movement of the input shaft causes a translational movement of the first component via the first ballscrew mechanism; and a second ballscrew mechanism between the first component and the second component, and configured such that rotational movement of the first component causes a translational movement of the second component via the second ballscrew mechanism; wherein in a first mode the first component is configured to translate along an axis upon rotational movement of the input shaft, and in a second mode the first component is configured to rotate about the axis; wherein during extension of the actuator, the first mode occurs prior to the second mode, and a transition between the first mode and the second mode is caused by a stop attached to the first component abutting a stop attached to the input shaft, which abutment prevents further translation of the first component such that further rotational movement of the input shaft causes the first component to start rotating and the second component to translate along the axis due to the operation of the second ballscrew mechanism; characterised in that the second component is located concentrically around the first component.