mhurhangee/ep-ind-claims huggingface dataset:
A method for detecting nucleic acid in a sample, which method comprises: extracting nucleic acid in a sample by using a nucleic acid extraction solution to obtain a sample nucleic acid solution; adding the sample nucleic acid solution to a PCR reaction solution for neutralization to obtain a mixed solution, using the mixed solution to perform amplification reaction and to detect nucleic acid in the sample, wherein the nucleic acid extraction solution comprises an alkali metal hydroxide 10 mM to 100 mM, Tris-HCl 1 mM to 25 mM, Chelex-100 2% to 5% (w/v), EDTA 0.1% to 0.4% (w/v), the pH of the nucleic acid extraction solution is 10.5 to 12.5; the PCR reaction solution comprises Tris-HCl 5 mM to 75 mM, the pH of the PCR reaction solution is 8.0 to 9.0; and the pH of the mixed solution is 8.0 to 9.0. extracting nucleic acid in a sample by using a nucleic acid extraction solution to obtain a sample nucleic acid solution; adding the sample nucleic acid solution to a PCR reaction solution for neutralization to obtain a mixed solution, using the mixed solution to perform amplification reaction and to detect nucleic acid in the sample, wherein the nucleic acid extraction solution comprises an alkali metal hydroxide 10 mM to 100 mM, Tris-HCl 1 mM to 25 mM, Chelex-100 2% to 5% (w/v), EDTA 0.1% to 0.4% (w/v), the pH of the nucleic acid extraction solution is 10.5 to 12.5; the PCR reaction solution comprises Tris-HCl 5 mM to 75 mM, the pH of the PCR reaction solution is 8.0 to 9.0; and the pH of the mixed solution is 8.0 to 9.0.
A method of diagnosing a particle filter integrated in an exhaust system of a heat engine, wherein a signal is acquired from a soot sensor arranged downstream from said particle filter, said sensor signal being comprised of several load times of said soot sensor corresponding to the soot accumulation time until regeneration of said soot sensor, characterized in that it comprises: - constructing a multidimensional space one dimension of which corresponds to an indicator determined by means of said sensor signal and whose other dimensions correspond to at least one parameter related to the operating conditions of said engine, then, for each load time of said soot sensor: - determining a value for said indicator by means of said soot sensor signal during said load time, - determining the values of said parameters during said load time of said soot sensor, - determining the position of a point in said multidimensional space by means of the values of said indicators and said parameters, and - performing diagnosis of the condition of said particle filter according to the position of said point in said multidimensional space. - constructing a multidimensional space one dimension of which corresponds to an indicator determined by means of said sensor signal and whose other dimensions correspond to at least one parameter related to the operating conditions of said engine, - determining a value for said indicator by means of said soot sensor signal during said load time, - determining the values of said parameters during said load time of said soot sensor, - determining the position of a point in said multidimensional space by means of the values of said indicators and said parameters, and - performing diagnosis of the condition of said particle filter according to the position of said point in said multidimensional space.
A computer-implemented method for generating a three-dimensional representation of an object, the method comprising: receiving as input a first two-dimensional projection image, wherein said first two-dimensional projection image is generated by projecting electromagnetic radiation through said object from a first source of electromagnetic radiation to a first sensor of electromagnetic radiation; receiving as input acquisition data associated with said first two-dimensional projection image, wherein said acquisition data for the first two-dimensional projection image provides an indication of projection paths from a respective source of electromagnetic radiation to a respective sensor of electromagnetic radiation; processing said first two-dimensional projection image based upon said acquisition data to generate a three-dimensional volume of data providing said representation of said object, the volume of data comprising a plurality of voxels, each voxel having a value generated from a single two-dimensional projection image, said value being based upon at least one pixel of said single two-dimensional projection image. receiving as input a first two-dimensional projection image, wherein said first two-dimensional projection image is generated by projecting electromagnetic radiation through said object from a first source of electromagnetic radiation to a first sensor of electromagnetic radiation; receiving as input acquisition data associated with said first two-dimensional projection image, wherein said acquisition data for the first two-dimensional projection image provides an indication of projection paths from a respective source of electromagnetic radiation to a respective sensor of electromagnetic radiation; processing said first two-dimensional projection image based upon said acquisition data to generate a three-dimensional volume of data providing said representation of said object, the volume of data comprising a plurality of voxels, each voxel having a value generated from a single two-dimensional projection image, said value being based upon at least one pixel of said single two-dimensional projection image.
A method for determining presence of polyunsaturated fatty acids (PUFAs) comprising an omega-3 polyunsaturated fatty acid selected from the group consisting of docosahexanoic acid, docosapentaenoic acid, eicosapentaenoic acid, and combinations thereof in a plant part comprising a seed by analyzing the seed in a non-destructive manner, the method comprising, (a) obtaining a sample of the plant part comprising a viable seed; (b) analyzing the viable seed by Fourier Transform Infrared (FTIR) spectroscopy to obtain a FTIR spectroscopy result comprising a first absorption band between about 3800 cm -1 and about 2600 cm -1; (c) comparing the FTIR spectroscopy result of step (b) to existing reference FTIR spectroscopy results; and (d) predicting whether the seed in the sample contains at least one PUFA selected from the group consisting of DHA, DPA, or EPA; wherein the seed remains viable following the non-destructive FTIR analysis. (a) obtaining a sample of the plant part comprising a viable seed; (b) analyzing the viable seed by Fourier Transform Infrared (FTIR) spectroscopy to obtain a FTIR spectroscopy result comprising a first absorption band between about 3800 cm -1 and about 2600 cm -1; (c) comparing the FTIR spectroscopy result of step (b) to existing reference FTIR spectroscopy results; and (d) predicting whether the seed in the sample contains at least one PUFA selected from the group consisting of DHA, DPA, or EPA; wherein the seed remains viable following the non-destructive FTIR analysis.
A device, comprising: a finite state machine lattice comprising: a plurality of blocks, each of the blocks comprising a plurality of rows, each of the rows comprising a plurality of programmable elements, wherein a particular one of the programmable elements is configured to output a signal based on a detection of a condition; and at least one of the rows of a particular one of the blocks further comprising a counter configured to be selectively coupleable to any of the plurality of programmable elements in any of the plurality of rows of the particular one of the blocks, wherein the counter is configured to output in response to counting the condition was detected a certain number of times, wherein each of the plurality of rows of the particular one of the blocks comprises intra-row circuitry configured to selectively couple any of the plurality of programmable elements of that row with the counter, wherein each of the plurality of blocks comprises intra-block circuitry configured to selectively couple any of the plurality of rows of that block, characterised in that one counter in one of the plurality of rows of that block is selectively coupled to another counter in another one of the plurality of rows of that block. each of the rows comprising a plurality of programmable elements, wherein a particular one of the programmable elements is configured to output a signal based on a detection of a condition; and at least one of the rows of a particular one of the blocks further comprising a counter configured to be selectively coupleable to any of the plurality of programmable elements in any of the plurality of rows of the particular one of the blocks, wherein the counter is configured to output in response to counting the condition was detected a certain number of times, wherein each of the plurality of rows of the particular one of the blocks comprises intra-row circuitry configured to selectively couple any of the plurality of programmable elements of that row with the counter, wherein each of the plurality of blocks comprises intra-block circuitry configured to selectively couple any of the plurality of rows of that block, characterised in that one counter in one of the plurality of rows of that block is selectively coupled to another counter in another one of the plurality of rows of that block.
RFID reader for reading information from RFID tags, said RFID reader comprising an antenna system for emitting and receiving radiofrequency signals and a radiofrequency unit for generating the radiofrequency signals to be emitted by the antenna system and processing the radiofrequency signals by the antenna system, wherein the antenna system comprises at least a first inverted F antenna and a second inverted F antenna each comprising a feed element (101,111), a radiating element (102,112) having a first end coupled to the feed element and a second end free, and a tuning element (103,113) having a first end coupled to the ground plane and a second end coupled to the first end of the radiating element, characterized by the radiating elements (102, 112) of the first and second inverted F antenna being held parallel to the ground plane at a certain distance and extending in a first direction and a second direction respectively, said first and second directions being offset by a 90 degrees sequential rotation and said first and second inverted F antennas being isolated from each other by a quarter wavelength slot etched in the ground plane between said first and second inverted F antennas.
A cleaning system comprising a container for impregnation of cleaning textiles, characterized in that the container comprises a water-tight pouch made of a textile material or a plastic material, the container being closable and adapted, when open, to receive a number of cleaning textiles and water or cleaning fluid, and, after being closed, to be turned upside down for impregnation of the cleaning textiles, wherein the system further comprises at least one bag adapted to store a container, and a portable unit adapted to be worn on a person, the bag being provided with a quick fastener, formed by a buckle, mortise lock, velcro tape, hook, zipper, press-button or the like, so as to be able to be fastened to or released from the portable unit worn on the person, wherein the container is adapted to allow said water or cleaning fluid to be received for impregnation of cleaning textiles when the cleaning textiles are to be used. at least one bag adapted to store a container, and a portable unit adapted to be worn on a person, the bag being provided with a quick fastener, formed by a buckle, mortise lock, velcro tape, hook, zipper, press-button or the like, so as to be able to be fastened to or released from the portable unit worn on the person, wherein the container is adapted to allow said water or cleaning fluid to be received for impregnation of cleaning textiles when the cleaning textiles are to be used.
A continuous fixed-bed catalytic reactor comprising: an inflow path for raw material gas for a catalytic reaction and an outflow path for reformed gas; a still reaction container that is connected to the inflow path and the outflow path and holds a press-molded catalyst, the press-molded catalyst particles having external dimensions of 5 mm to 50 mm; a catalyst holder that has a ventilation property and holds the press-molded catalyst, the catalyst holder being provided in the still reaction container; a space for storing a solid or liquid foreign substance generated in a catalyst layer which is provided below the catalyst layer that is a collection of the press-molded catalyst particles, and a driving mechanism that moves the press-molded catalyst up and down by moving the catalyst holder up and down in a state in which at least some of catalyst particles configuring outer circumferential side surfaces of the catalyst layer are in contact with an inner wall of the still reaction container. an inflow path for raw material gas for a catalytic reaction and an outflow path for reformed gas; a still reaction container that is connected to the inflow path and the outflow path and holds a press-molded catalyst, the press-molded catalyst particles having external dimensions of 5 mm to 50 mm; a catalyst holder that has a ventilation property and holds the press-molded catalyst, the catalyst holder being provided in the still reaction container; a space for storing a solid or liquid foreign substance generated in a catalyst layer which is provided below the catalyst layer that is a collection of the press-molded catalyst particles, and a driving mechanism that moves the press-molded catalyst up and down by moving the catalyst holder up and down in a state in which at least some of catalyst particles configuring outer circumferential side surfaces of the catalyst layer are in contact with an inner wall of the still reaction container.
Releasable connector having a supporting sleeve, preferably made from plastic, the connector serving to connect a functional element to the supporting sleeve, comprising an inner sleeve, the inner sleeve having a standard region for connecting to the supporting sleeve and the functional element for defining the further use, the standard region of the inner sleeve being pushed onto the supporting sleeve, the inner sleeve being configured in one piece, a sliding sleeve for clamping and opening the clamping of the inner sleeve on the supporting sleeve, the sliding sleeve being arranged on the outer circumference of the inner sleeve in the standard region, the sliding sleeve being arranged in an axially displaceable manner for clamping and opening the inner sleeve on the supporting sleeve, latching fingers being arranged in the standard region along the circumference on the end side which faces away from the functional element, the functional element being configured as a covering cap, supporting sleeve, the supporting sleeve being identical to the supporting sleeve already comprised by the connector, reduced supporting sleeve, the reduced supporting sleeve being of an identical design to the supporting sleeve already comprised by the connector, but smaller, or standard region for connecting to a supporting sleeve, the standard region being designed identically to the standard region already comprised by the connector.
A method of transferring access to cloud computer resources from a first entity to a second entity, comprising: providing an intermediary entity having access to one or more cloud computer resources; providing a first network connection to the intermediary entity for the first entity to access the one or more cloud computer resources; provisioning the one or more cloud computer resources with first computer resources from the first entity using the first network connection to provide provisioned cloud computer resources; and providing a second network connection to the intermediary entity for the second entity to access the provisioned cloud computer resources; wherein the first network connection connects the first entity to a first entity network portion of the intermediary entity and the second network connection connects the second entity to a second entity network portion of the intermediary entity; wherein the first entity network portion comprises a plurality of first entity network addresses and the first entity provisions the one or more cloud computer resources with the first computer resources using a first network address of the plurality of first entity network addresses; and wherein the second entity is provided with access to the provisioned cloud computer resources by the intermediary entity transferring access to the first network address from the first entity network portion to the second entity network portion. providing an intermediary entity having access to one or more cloud computer resources; providing a first network connection to the intermediary entity for the first entity to access the one or more cloud computer resources; provisioning the one or more cloud computer resources with first computer resources from the first entity using the first network connection to provide provisioned cloud computer resources; and providing a second network connection to the intermediary entity for the second entity to access the provisioned cloud computer resources; wherein the first network connection connects the first entity to a first entity network portion of the intermediary entity and the second network connection connects the second entity to a second entity network portion of the intermediary entity; wherein the first entity network portion comprises a plurality of first entity network addresses and the first entity provisions the one or more cloud computer resources with the first computer resources using a first network address of the plurality of first entity network addresses; and wherein the second entity is provided with access to the provisioned cloud computer resources by the intermediary entity transferring access to the first network address from the first entity network portion to the second entity network portion.
A humeral cutting guide (1000;1200;1500), comprising: a resection surface (1004; 1204; 1504); a support portion (1006; 1206;1506), the resection surface (1004;1204;1504) and the support portion (1006; 1206;1506) being formed as portions of a monolithic member, the support portion (1006; 1206;1506) comprising at least one area (1020;1256;1556) configured for contact with a humeral bone surface and a plurality of mounting pin holes (1036;1262;1562), the mounting pin holes (1036;1262;1562) having non-parallel longitudinal axes; and a releasable positioning jig (1012;1160;1212;1512) configured to be mounted to the support portion (1006; 1206;1506), the releasable positioning jig (1012;1160;1212;1512) having at least one area (1068;1282;1582) configured to contact a humeral head or to be supported by a resected surface of a humerus following resection along the resection surface (1004; 1204; 1504). a resection surface (1004; 1204; 1504); a support portion (1006; 1206;1506), the resection surface (1004;1204;1504) and the support portion (1006; 1206;1506) being formed as portions of a monolithic member, the support portion (1006; 1206;1506) comprising at least one area (1020;1256;1556) configured for contact with a humeral bone surface and a plurality of mounting pin holes (1036;1262;1562), the mounting pin holes (1036;1262;1562) having non-parallel longitudinal axes; and a releasable positioning jig (1012;1160;1212;1512) configured to be mounted to the support portion (1006; 1206;1506), the releasable positioning jig (1012;1160;1212;1512) having at least one area (1068;1282;1582) configured to contact a humeral head or to be supported by a resected surface of a humerus following resection along the resection surface (1004; 1204; 1504).
A fluid bed granulation process of a given substance, comprising the steps of: - providing a fluid bed of a particulate material comprising granules of said substance and solid particles of an appropriate substance working as seeds for the granulation process; - feeding an input flow comprising a growth liquid containing said substance, to said process; - feeding a flow of said seeds into the fluid bed, to promote the growth of granules and to maintain the fluidized mass; - taking a flow of solid granules as output of the process carried out in the fluid bed; characterized in that a first portion of said input flow is fed directly to the fluid bed, and a second portion of said input flow is used to generate at least a part of said flow of seeds. - providing a fluid bed of a particulate material comprising granules of said substance and solid particles of an appropriate substance working as seeds for the granulation process; - feeding an input flow comprising a growth liquid containing said substance, to said process; - feeding a flow of said seeds into the fluid bed, to promote the growth of granules and to maintain the fluidized mass; - taking a flow of solid granules as output of the process carried out in the fluid bed;
An arrangement for injecting a reducing agent into an exhaust line of a combustion engine, which arrangement comprises an exhaust line for leading exhaust gases out from the engine, a first turbine situated in the exhaust line, a second turbine situated in the exhaust line at a location downstream of the first turbine with respect to the intended direction of flow in the exhaust line, an injection means adapted to injecting the reducing agent into the exhaust line, the injection means being arranged so that the injected reducing agent is warmed and vaporised by the warm exhaust gases in the exhaust line thereby forming ammonia, and an SCR catalyst being arranged to reduce the nitrogen oxides in the exhaust gases by the formed ammonia, whereby the injection means is situated in the exhaust line at a location which is downstream of the first turbine and upstream of the second turbine with respect to the intended direction of flow in the exhaust line, that the arrangement comprises a hydrolysis catalyst situated at a location downstream of the injection means and upstream of the second turbine in the exhaust line, and a control unit characterised in that the SCR catalyst is situated downstream of the second turbine 20, and in that the arrangement comprises a second turbine temperature sensor adapted to monitoring the temperature of the exhaust gases in the exhaust line at a location downstream of the second turbine, and a second bypass line with a second valve via which it is possible to lead exhaust gases past the second turbine, and the control unit is adapted to receiving information from the second turbine temperature sensor and to opening the second valve so that exhaust gases are led past the second turbine at times when they are at too low a temperature for advantageous reduction of nitrogen oxides to take place in the SCR catalyst.
Dismantlable device for transporting material, comprising a lower wall which has a lower frame, a lower plate, and releasable securing means for releasably securing said lower frame to said lower plate, said device also comprising an upper wall which has an upper frame, an upper plate, and releasable securing means for releasably securing said upper frame to said upper plate, said device also comprising lateral walls (4; 4') which each have a lateral frame (40; 40'), a lateral plate (41; 41'), and releasable securing means (42; 42') for releasably securing such a lateral frame (40; 40') to such a lateral plate (41; 41'), said device also comprising longitudinal walls (5; 5') which each have a longitudinal frame (50; 50') and of which at least one comprises at least one sectional door (6; 6A) that is movable between a closed position and an open position of the transport device, characterized in that the releasable securing means (22; 32; 42, 42') comprise at least one through-opening belonging to the lower, upper, or lateral (40; 40') frame, as applicable, said securing means comprise least one threaded insert belonging to the lower, upper, or lateral (41; 41') plate, as applicable, and said securing means comprise at least one screw which passes through such a through-opening and which interacts with such a threaded insert.