mhurhangee/ep-ind-claims huggingface dataset:
A method of preparing a cDNA library from a plurality of single cells, the method comprising the steps of: (i) releasing mRNA from each single cell to provide a plurality of individual mRNA samples, wherein the mRNA in each individual mRNA sample is from a single cell; (ii) synthesizing a first strand of cDNA from the mRNA in each individual mRNA sample and incorporating a distinct tag or a distinct combination of tags into each individual cDNA sample to provide a plurality of tagged cDNA samples, wherein each cDNA sample has a distinct tag or combination of tags, wherein the cDNA in each tagged cDNA sample is complementary to mRNA from a single cell; (iii)pooling the tagged cDNA samples; and (iv)amplifying the pooled cDNA samples to generate a cDNA library comprising doublestranded cDNA. (i) releasing mRNA from each single cell to provide a plurality of individual mRNA samples, wherein the mRNA in each individual mRNA sample is from a single cell; (ii) synthesizing a first strand of cDNA from the mRNA in each individual mRNA sample and incorporating a distinct tag or a distinct combination of tags into each individual cDNA sample to provide a plurality of tagged cDNA samples, wherein each cDNA sample has a distinct tag or combination of tags, wherein the cDNA in each tagged cDNA sample is complementary to mRNA from a single cell; (iii)pooling the tagged cDNA samples; and (iv)amplifying the pooled cDNA samples to generate a cDNA library comprising doublestranded cDNA.
A dust collector comprising a pulse jet type dust removal mechanism for removing dust adhered to a cylindrical filter, the pulse jet type dust removal mechanism comprising: a first discharge section having a first discharge nozzle for discharging a pulse jet from an opening on a first end side of the cylindrical filter toward inside of the cylindrical filter; and a second discharge section having a second discharge nozzle for discharging a pulse jet from a second end side of the cylindrical filter toward the opening on the first end side of the cylindrical filter, and the second discharge nozzle for the discharging is provided on a tip side of a pipe line extending from the first end side of the cylindrical filter to the second end side of the cylindrical filter, characterized in that the pipe line is disposed in an internal space of the cylindrical filter that is a space into which cleaned air is introduced. a first discharge section having a first discharge nozzle for discharging a pulse jet from an opening on a first end side of the cylindrical filter toward inside of the cylindrical filter; and a second discharge section having a second discharge nozzle for discharging a pulse jet from a second end side of the cylindrical filter toward the opening on the first end side of the cylindrical filter, and the second discharge nozzle for the discharging is provided on a tip side of a pipe line extending from the first end side of the cylindrical filter to the second end side of the cylindrical filter, characterized in that the pipe line is disposed in an internal space of the cylindrical filter that is a space into which cleaned air is introduced.
A battery accommodation structure for accommodating a battery, the battery accommodation structure comprising, in an accommodation case configured to accommodate the battery: a positive electrode terminal connected to a positive electrode of the battery; a negative electrode terminal connected to a negative electrode of the battery; and a clamping spring provided between the positive electrode terminal and the negative electrode terminal and configured to clamp a part of an outer peripheral surface of the battery, characterized in that the clamping spring includes a supporting spring configured to, in an inner surface of the clamping spring clamping the battery by abutting an outer peripheral surface of the battery on both sides, protrude further inward than the inner surface from a lower portion of the inner surface to support the outer peripheral surface of the battery in an upward direction from the lower portion. a positive electrode terminal connected to a positive electrode of the battery; a negative electrode terminal connected to a negative electrode of the battery; and a clamping spring provided between the positive electrode terminal and the negative electrode terminal and configured to clamp a part of an outer peripheral surface of the battery, characterized in that the clamping spring includes a supporting spring configured to, in an inner surface of the clamping spring clamping the battery by abutting an outer peripheral surface of the battery on both sides, protrude further inward than the inner surface from a lower portion of the inner surface to support the outer peripheral surface of the battery in an upward direction from the lower portion.
A method for manufacturing a multilayer mirror that includes a substrate and a multilayer film formed on the substrate, said method characterized in comprising the steps of: calculating a desired shape of a reflection surface for the multilayer mirror based on the optical characteristic required for the multilayer mirror; estimating a surface shape variation amount as a difference between a shape of a surface of the substrate before the multilayer film is formed on the surface and a shape of the reflection surface of the multilayer mirror after the multilayer film is formed on the surface; processing the surface of the substrate into a shape generated by subtracting the surface shape variation amount from the desired shape of the reflection surface; and forming the multilayer film on the substrate processed by said process step. calculating a desired shape of a reflection surface for the multilayer mirror based on the optical characteristic required for the multilayer mirror; estimating a surface shape variation amount as a difference between a shape of a surface of the substrate before the multilayer film is formed on the surface and a shape of the reflection surface of the multilayer mirror after the multilayer film is formed on the surface; processing the surface of the substrate into a shape generated by subtracting the surface shape variation amount from the desired shape of the reflection surface; and forming the multilayer film on the substrate processed by said process step.
A method of sealing nuclear reactor fuel elements, comprising welding one end of a casing to a plug, both comprised of high-chromium steel, loading the fuel element with fuel, and welding a second plug to another end of the casing, the casing being comprised of a high-chromium ferrite-martensite steel, the method characterised in that the plug is comprised of a high-chromium ferrite steel, argon arc welding is carried out at a volume ratio of the materials of the casing and the plug contributing to the formation of the metal of the weld seam which allows formation of a ferrite phase in said metal, wherein the ratio is: V 1 / V 2 ≥ 0.18, where: V 1 is the volume of ferrite material; V 2 is the volume of ferrite-martensite material. where: V 1 is the volume of ferrite material; V 2 is the volume of ferrite-martensite material.
A kit for ex vivo conditioning and purification of an explanted organ, comprising: - connection means to and from said organ; - fluid connection means; - separation means comprising at least a fractionation filter and an absorption cartridge, wherein said fractionation filter has a cut-off in the range from 80,000 to 800,000 Da and is positioned upstream of said absorption cartridge. - connection means to and from said organ; - fluid connection means; - separation means comprising at least a fractionation filter and an absorption cartridge, wherein said fractionation filter has a cut-off in the range from 80,000 to 800,000 Da and is positioned upstream of said absorption cartridge.
A water heat exchanger accommodation unit comprising: a water heat exchanger (201, 1012) through which a flammable refrigerant flows; a casing (231, 1040) accommodating the water heat exchanger (201, 1012); and a discharge member (230, 270, 275, 1230, 1270, 1275) connected to a connection port (241, 276, 1232, 1233) provided below a refrigerant pipe connection portion in the casing (231, 1040), wherein the discharge member (230, 270, 275, 1230, 1270, 1275) is configured to discharge a flammable refrigerant leaking into the casing (231, 1040) from the connection port (241, 276, 1232, 1233) to an outside of the casing (231, 1040), characterized in that the discharge member (270, 275, 1270, 1275) covers a refrigerant pipe connection portion (234, 235, 1073, 1074) outside the casing (231, 1040). a water heat exchanger (201, 1012) through which a flammable refrigerant flows; a casing (231, 1040) accommodating the water heat exchanger (201, 1012); and a discharge member (230, 270, 275, 1230, 1270, 1275) connected to a connection port (241, 276, 1232, 1233) provided below a refrigerant pipe connection portion in the casing (231, 1040), wherein the discharge member (230, 270, 275, 1230, 1270, 1275) is configured to discharge a flammable refrigerant leaking into the casing (231, 1040) from the connection port (241, 276, 1232, 1233) to an outside of the casing (231, 1040), characterized in that the discharge member (270, 275, 1270, 1275) covers a refrigerant pipe connection portion (234, 235, 1073, 1074) outside the casing (231, 1040).
An electric rectifier for use in a rectenna device, the electric rectifier comprising an integrated structure comprising: - a diode structure comprising first and second electrodes located in first and second conductive layers respectively and an insulating layer between them, the diode structure being configured and operable for receiving an input signal and generating output signal indicative thereof; and - a compensation structure electrically connected in parallel to said diode structure and being configured to compensate the parasitic capacitance of the diode structure when a frequency spectrum of the input signal is beyond the diode's cutoff frequency; wherein said compensation structure provides electric resonance with said diode structure at an intended frequency of said input signal frequency spectrum, and characterized in that said compensation structure comprises an inductor (9, L D) and a capacitor (13, C A) connected in series and both configured to resonate at said intended frequency of the input signal frequency spectrum. - a diode structure comprising first and second electrodes located in first and second conductive layers respectively and an insulating layer between them, the diode structure being configured and operable for receiving an input signal and generating output signal indicative thereof; and - a compensation structure electrically connected in parallel to said diode structure and being configured to compensate the parasitic capacitance of the diode structure when a frequency spectrum of the input signal is beyond the diode's cutoff frequency; wherein said compensation structure provides electric resonance with said diode structure at an intended frequency of said input signal frequency spectrum, and characterized in that said compensation structure comprises an inductor (9, L D) and a capacitor (13, C A) connected in series and both configured to resonate at said intended frequency of the input signal frequency spectrum.
Optical component comprising a. a carrying structure, b. a multiplicity of mirror elements arranged in a matrix-like manner, each mirror element being mounted such that it is tiltable relative to the carrying structure by an actuator system, wherein each mirror element comprises at least one mirror electrode (22; 37), c. at least one local regulating device per mirror element for regulating the tilting of the mirror element, said local regulating device having i. a sensor device having at least one capacitive sensor and ii. an actuator device for tilting the mirror element, said actuator device having at least two actuator electrodes per degree of freedom of tilting, d. said optical component further comprising a signal generator for generating a modulation signal having a frequency above a resonant frequency of the mirror element, e. wherein the signal generator is connected in a signal-transmitting manner to the actuator electrodes, f. wherein the at least two actuator electrodes of each mirror element arranged symmetrically with respect to a tilting axis of the mirror element and are connected to the signal generator in parallel for having the modulation signal applied to them in parallel. a. a carrying structure, b. a multiplicity of mirror elements arranged in a matrix-like manner, each mirror element being mounted such that it is tiltable relative to the carrying structure by an actuator system, wherein each mirror element comprises at least one mirror electrode (22; 37), c. at least one local regulating device per mirror element for regulating the tilting of the mirror element, said local regulating device having i. a sensor device having at least one capacitive sensor and ii. an actuator device for tilting the mirror element, said actuator device having at least two actuator electrodes per degree of freedom of tilting, i. a sensor device having at least one capacitive sensor and ii. an actuator device for tilting the mirror element, said actuator device having at least two actuator electrodes per degree of freedom of tilting, d. said optical component further comprising a signal generator for generating a modulation signal having a frequency above a resonant frequency of the mirror element, e. wherein the signal generator is connected in a signal-transmitting manner to the actuator electrodes, f. wherein the at least two actuator electrodes of each mirror element arranged symmetrically with respect to a tilting axis of the mirror element and are connected to the signal generator in parallel for having the modulation signal applied to them in parallel.
A transparent intumescent interlayer for the production of fire resistant glazings comprising: at least one alkali metal silicate, at least one additive, and water, wherein the additive comprises a quaternary ammonium compound having the general formula 1 R 1 R 2 R 3 R 4 N + OH - 1 wherein R 1, R 2, R 3 and R 4 which may be the same or different represent alkyl groups, hydroxy-substituted alkyl groups, alkaryl groups, hydroxy-substituted alkaryl groups comprising from 1 to 12 carbon atoms, or groups having the general formula -[CH 2]n - N + R 5 R 6 R 7 wherein n is an integer having a value of from 1 to 12, the group - [CH 2]n ― may be hydroxy-substituted, and R 5, R 6 and R 7 which may be the same or different represent alkyl groups, hydroxy-substituted alkyl groups, alkaryl groups or hydroxy-substituted alkaryl groups comprising from 1 to 12 carbon atoms; with the proviso that at least one of the groups R 1, R 2, R 3, R 4, R 5, R 6 and R 7 represents a hydroxy-substituted alkyl group or a hydroxy-substituted alkaryl group comprising at least 2 carbon atoms wherein the hydroxy substituent is not located on a carbon atom which is bonded to a nitrogen atom, wherein the additive comprises at least two hydroxy substituents, and wherein at least one of the groups R 1-7 comprises at least two hydroxy substituents. at least one alkali metal silicate, at least one additive, and water, wherein the additive comprises a quaternary ammonium compound having the general formula 1 R 1 R 2 R 3 R 4 N + OH - 1 wherein R 1, R 2, R 3 and R 4 which may be the same or different represent alkyl groups, hydroxy-substituted alkyl groups, alkaryl groups, hydroxy-substituted alkaryl groups comprising from 1 to 12 carbon atoms, or groups having the general formula -[CH 2]n - N + R 5 R 6 R 7 wherein n is an integer having a value of from 1 to 12, the group - [CH 2]n ― may be hydroxy-substituted, and R 5, R 6 and R 7 which may be the same or different represent alkyl groups, hydroxy-substituted alkyl groups, alkaryl groups or hydroxy-substituted alkaryl groups comprising from 1 to 12 carbon atoms; with the proviso that at least one of the groups R 1, R 2, R 3, R 4, R 5, R 6 and R 7 represents a hydroxy-substituted alkyl group or a hydroxy-substituted alkaryl group comprising at least 2 carbon atoms wherein the hydroxy substituent is not located on a carbon atom which is bonded to a nitrogen atom, wherein the additive comprises at least two hydroxy substituents, and wherein at least one of the groups R 1-7 comprises at least two hydroxy substituents.
A network control apparatus for controlling a network that includes a plurality of nodes and servers, characterized by comprising: storage means that store first information related to links and nodes on the network, and second information related to computing resources of the servers on which virtual network functions can be deployed; and path determination means for collectively performing, when at least one virtual network function is requested, deployment of the at least one virtual network function on at least one server and configuration of a path on the network connecting to the at least one server, based on the first and second information. storage means that store first information related to links and nodes on the network, and second information related to computing resources of the servers on which virtual network functions can be deployed; and path determination means for collectively performing, when at least one virtual network function is requested, deployment of the at least one virtual network function on at least one server and configuration of a path on the network connecting to the at least one server, based on the first and second information.
Device for transporting and filling bags, preferably open-mouth bags, comprising a filling device rotatable about an axis of rotation and having a plurality of filling openings distributed over the circumference of the filling device, wherein a vibrating plate is provided below at least one filling opening for compacting the bulk material in the bags, said vibrating plate being inclined outwards as seen from the filling opening, so that filled bags rest on the vibrating plate, characterized in that a support element which can be moved towards the filling opening is provided in an end section of the vibrating plate which is remote from the filling opening in order to support a filled bag which rests on the vibrating plate in the bottom region, in that a flap which can be pivoted towards the filling opening is provided as support element, and in that the flap forms a plane with the support surface of the vibrating plate for the bag in a first position which is folded away from the filling opening.
A method of controlling radio transmission in a cellular network, the method comprising: a communication device receiving an uplink grant (203; 701; 801; 904, 909) from the cellular network, the uplink grant (203; 701; 801; 904, 909) indicating uplink radio resources allocated to the communication device in reoccurring time intervals; in response to receiving the uplink grant (203; 701; 801; 904, 909) from the cellular network, the communication device sending a message for acknowledging receipt of the uplink grant to the cellular network; for each of said time intervals, the communication device selecting between: - an active mode in which the communication device performs an uplink transmission (205; 211; 302; 402; 410; 702, 704, 705; 803, 804, 805, 906, 911) in the allocated uplink radio resources, and - an inactive mode in which the communication device performs no uplink transmission in the allocated uplink radio resources; the communication device checking whether uplink data is available for transmission by the communication device; and in response to no uplink data being available for transmission, the communication device selecting the inactive mode and performing no uplink transmission in the allocated uplink radio resources. a communication device receiving an uplink grant (203; 701; 801; 904, 909) from the cellular network, the uplink grant (203; 701; 801; 904, 909) indicating uplink radio resources allocated to the communication device in reoccurring time intervals; in response to receiving the uplink grant (203; 701; 801; 904, 909) from the cellular network, the communication device sending a message for acknowledging receipt of the uplink grant to the cellular network; for each of said time intervals, the communication device selecting between: - an active mode in which the communication device performs an uplink transmission (205; 211; 302; 402; 410; 702, 704, 705; 803, 804, 805, 906, 911) in the allocated uplink radio resources, and - an inactive mode in which the communication device performs no uplink transmission in the allocated uplink radio resources; the communication device checking whether uplink data is available for transmission by the communication device; and in response to no uplink data being available for transmission, the communication device selecting the inactive mode and performing no uplink transmission in the allocated uplink radio resources. - an active mode in which the communication device performs an uplink transmission (205; 211; 302; 402; 410; 702, 704, 705; 803, 804, 805, 906, 911) in the allocated uplink radio resources, and - an inactive mode in which the communication device performs no uplink transmission in the allocated uplink radio resources; the communication device checking whether uplink data is available for transmission by the communication device; and in response to no uplink data being available for transmission, the communication device selecting the inactive mode and performing no uplink transmission in the allocated uplink radio resources.
Spring strut support bearing, comprising a damper element and a bearing housing (2, 3), having a first and a second housing part, wherein the housing parts (2, 3) can be screwed together, by means of a thread, so as to encompass the damping element, characterized in that the housing parts (2, 3) have a detent device (5, 7, 8, 11, 12, 13) which permits a screwing action but prevents a loosening of the thread.
A watch comprising an exterior part, wherein a portion or the entirety of the exterior part comprises a decorative member comprising a base and a coating layer laminated on or above the base, wherein the coating layer consists of a reaction compound of (i) raw metal, in which a metal M1 and a metal M2 and optionally a metal M3 are combined, and (ii) a non-metallic element selected from one or two of nitrogen and carbon wherein the reaction compound is a carbide, a nitride or a carbonitride of an alloy derived from the raw metal and the alloy is an alloy of the metal M1 and the metal M2 and optionally the metal M3, or the coating layer consists of an alloy consisting of a metal M1 and a metal M2 and optionally a metal M3; the metal M1 is selected from one or two of Mo and W; the metal M2 is selected from one or two of Nb and Ta; and the metal M3 is selected from one or two or more of Cr, Ti, Hf, and Zr; the coating layer has a thickness of 0.5 to 4 μm. the coating layer consists of a reaction compound of (i) raw metal, in which a metal M1 and a metal M2 and optionally a metal M3 are combined, and (ii) a non-metallic element selected from one or two of nitrogen and carbon wherein the reaction compound is a carbide, a nitride or a carbonitride of an alloy derived from the raw metal and the alloy is an alloy of the metal M1 and the metal M2 and optionally the metal M3, or the coating layer consists of an alloy consisting of a metal M1 and a metal M2 and optionally a metal M3; the metal M1 is selected from one or two of Mo and W; the metal M2 is selected from one or two of Nb and Ta; and the metal M3 is selected from one or two or more of Cr, Ti, Hf, and Zr; the coating layer has a thickness of 0.5 to 4 μm.