mhurhangee/ep-ind-claims huggingface dataset:
A probe for detecting a gene of infectious disease pathogenic bacterium, Clostridium (genus), wherein the base sequence is any one of the following base sequences to: ATCAAAGGTGAGCCAGTACAGGATGG (SEQ ID NO. 85) or the complementary sequence thereof; ATTAAAGGAGTAATCCGCTATGAGATGGACC (SEQ ID NO. 86) or the complementary sequence thereof; and a modified sequence of a length of 20 to 30 nucleotides and prepared such that any one of the sequences of SEQ ID NOs 85 or 86 and the complementary sequences thereof is subjected to base deletion, substitution, or addition as far as 80% or more of the base sequence is consecutively conserved and as far as the modified sequences hybridize with said bacterium under the following stringent conditions: Hybridization Solution: 6 × SSPE/10% formamide/target/0.05 wt% (6 × SSPE: NaCl 900 mM, NaH 2 PO 4 H 2 O 50 mM, EDTA 6 mM, pH, 7.4); Hybridization Conditions: 65°C for 3 min, 55°C for 4 hrs, washing with 2 × SSC/0.1 % SDS at 50°C, washing with 2 × SSC/0.1 % SDS at 20°C. ATCAAAGGTGAGCCAGTACAGGATGG (SEQ ID NO. 85) or the complementary sequence thereof; ATTAAAGGAGTAATCCGCTATGAGATGGACC (SEQ ID NO. 86) or the complementary sequence thereof; and a modified sequence of a length of 20 to 30 nucleotides and prepared such that any one of the sequences of SEQ ID NOs 85 or 86 and the complementary sequences thereof is subjected to base deletion, substitution, or addition as far as 80% or more of the base sequence is consecutively conserved and as far as the modified sequences hybridize with said bacterium under the following stringent conditions: Hybridization Solution: 6 × SSPE/10% formamide/target/0.05 wt% (6 × SSPE: NaCl 900 mM, NaH 2 PO 4 H 2 O 50 mM, EDTA 6 mM, pH, 7.4); Hybridization Conditions: 65°C for 3 min, 55°C for 4 hrs, washing with 2 × SSC/0.1 % SDS at 50°C, washing with 2 × SSC/0.1 % SDS at 20°C.
A method of removing a photoresist and dry etching residue on a surface of a semiconductor element having a low-k film and a material that contains 10 atomic % or more of tantalum, said method comprising using a cleaning solution that contains 0.01 to 50% by mass of hydrogen peroxide, 0.003 to 1% by mass of an alkaline earth metal compound, 0.1 to 20% by mass of an alkali, and water, wherein the alkaline earth metal compound is at least one substance selected from the group consisting of a calcium compound, a strontium compound and a barium compound, wherein the alkali is at least one substance selected from the group consisting of potassium hydroxide, potassium acetate, potassium carbonate, potassium phosphate, ammonia, tetramethylammonium hydroxide, triethylamine, ethanolamine and 1-amino-2-propanol, and wherein the pH value of the cleaning solution is 7 to 14.
A method for increasing an amount of iNOS (inducible nitric oxide) gene product intracellularly, comprising a step of introducing into the cell a nucleotide having a sequence complementary to the base sequence of the 3' UTR (untranslated region) of the iNOS mRNA.
A microwave energy interactive structure comprising: a polymer film having a first side and a second side opposite one another, and a thickness between the first side and the second side; a layer of microwave energy interactive material disposed on the second side of the polymer film; and being characterised by: a plurality of microapertures extending through the layer of microwave energy interactive material and extending through only a portion of the thickness of the polymer film on the second side of the polymer film, the microapertures having a major linear dimension of from about 0.05 mm to about 2 mm. a polymer film having a first side and a second side opposite one another, and a thickness between the first side and the second side; a layer of microwave energy interactive material disposed on the second side of the polymer film; and being characterised by: a plurality of microapertures extending through the layer of microwave energy interactive material and extending through only a portion of the thickness of the polymer film on the second side of the polymer film, the microapertures having a major linear dimension of from about 0.05 mm to about 2 mm. a plurality of microapertures extending through the layer of microwave energy interactive material and extending through only a portion of the thickness of the polymer film on the second side of the polymer film, the microapertures having a major linear dimension of from about 0.05 mm to about 2 mm.
A master batch composition for use in preparing a polyamide formulation from a polyamide, comprising an olefin-maleic anhydride copolymer and one or more carrier resins selected from the group consisting of ethylene-n-butyl acrylate copolymer, an ethylene-ethyl acrylate copolymer, and an ethylene-methyl acrylate copolymer, or a combination thereof, wherein the concentration of olefin-maleic anhydride copolymer in the master batch is from 5% to 50%, or from 10% to 40%, or from 10% to 35%, or from 10% to 30%, or from 15% to 25%.
A portable barbecue apparatus comprising: a base unit adapted to contain a source of heat; a support structure for the base unit by which the base unit can be mounted outdoors for use, a plurality of cooking units (3, 4, 5) selectively mountable on the base unit for achieving different types of cooking, the user being able to attach one or more cooking units (3, 4, 5) to the base unit depending on the required cooking activity, the cooking units (3, 4, 5) being sized and shaped so as to be mounted one on top of another to form a stack of cooking units (3, 4, 5), characterised in that at least one of the selectively mountable cooking units (3, 4, 5) is a kettle unit capable of holding and dispensing water which is heated by the source of heat until it is boiling, and the kettle unit is provided with an outlet tap to allow for the dispensing of water from the kettle unit. a base unit adapted to contain a source of heat; a support structure for the base unit by which the base unit can be mounted outdoors for use, a plurality of cooking units (3, 4, 5) selectively mountable on the base unit for achieving different types of cooking, the user being able to attach one or more cooking units (3, 4, 5) to the base unit depending on the required cooking activity, the cooking units (3, 4, 5) being sized and shaped so as to be mounted one on top of another to form a stack of cooking units (3, 4, 5), characterised in that at least one of the selectively mountable cooking units (3, 4, 5) is a kettle unit capable of holding and dispensing water which is heated by the source of heat until it is boiling, and the kettle unit is provided with an outlet tap to allow for the dispensing of water from the kettle unit.
Method for transmitting in flight data recorded by a black box of an aircraft, the method comprising emitting by the aircraft a radioelectric beam (F1, F2) conveying said data along a first directivity if at least one predetermined parameter does not indicate a critical condition of the aircraft, and along a second directivity different from the first directivity if the predetermined parameter indicates a critical condition of the aircraft, the method being characterized in that the second directivity is smaller than the first directivity and in that the radioelectric beam along the second directivity is emitted in an omnidirectional way.
A saddle riding type vehicle, comprising: an engine; a vehicle body frame; left and right front wheels; a link mechanism that connects the left and right front wheels to the vehicle body frame; a locking mechanism that locks the link mechanism by restricting operation of the link mechanism and unlocks the link mechanism by allowing the link mechanism to operate; a locking mechanism controller that controls locking and unlocking of the link mechanism by the locking mechanism; a vehicle speed detector that detects a vehicle speed; and a vehicle speed change rate obtainer that obtains a vehicle speed change rate, characterized in that the locking mechanism is configured to determine whether the vehicle speed detected by the vehicle speed detector satisfies an unlocking condition and to determine whether the vehicle speed change rate obtained by the vehicle speed change rate obtainer satisfies an unlocking condition, and the locking mechanism controller unlocking the link mechanism by the locking mechanism if the link mechanism is locked by the locking mechanism and it is determined that at least one of the vehicle speed detected by the vehicle speed detector and the vehicle speed change rate obtained by the vehicle speed change rate obtainer satisfies an unlocking condition. an engine; a vehicle body frame; left and right front wheels; a link mechanism that connects the left and right front wheels to the vehicle body frame; a locking mechanism that locks the link mechanism by restricting operation of the link mechanism and unlocks the link mechanism by allowing the link mechanism to operate; a locking mechanism controller that controls locking and unlocking of the link mechanism by the locking mechanism; a vehicle speed detector that detects a vehicle speed; and a vehicle speed change rate obtainer that obtains a vehicle speed change rate, characterized in that the locking mechanism is configured to determine whether the vehicle speed detected by the vehicle speed detector satisfies an unlocking condition and to determine whether the vehicle speed change rate obtained by the vehicle speed change rate obtainer satisfies an unlocking condition, and the locking mechanism controller unlocking the link mechanism by the locking mechanism if the link mechanism is locked by the locking mechanism and it is determined that at least one of the vehicle speed detected by the vehicle speed detector and the vehicle speed change rate obtained by the vehicle speed change rate obtainer satisfies an unlocking condition.
Power conversion system comprising a plurality of converters connected in parallel on an AC side of the system and a respective DC source coupled to a DC side of each converter, each converter comprising an AC side for being coupled to a power grid, a first terminal and a second terminal arranged on the DC side and coupled to the corresponding DC source, one of said terminals being the positive terminal and the other terminal being the negative terminal, and an AC terminal for each phase arranged on the AC side, the AC terminals of one and the same phase arranged on the AC side of all the converters being connected to a common AC point, the first terminals of the different converters of the system being grounded and the second terminals of said converters being independent of one another, each DC source being adapted and configured to work independently of the rest of the DC sources, the capacity of each of the DC sources being able to be utilized, the first terminals of the different converters of the system being attached to one another in a grounded attachment point, or being grounded independently, characterized in that the power conversion system comprises a control device adapted for dynamically determining or calculating the value of the arithmetic mean of the voltages of the AC terminals of each converter with respect to the respective first terminal and adapted for making the value of all the determined or calculated arithmetic means equal to a predetermined value, said predetermined value being greater than or equal to half the minimum DC voltage required at the input of the corresponding converter in the event that the first terminals of the converters are positive terminals, and said predetermined value, with the sign changed, being greater than or equal to half the minimum DC voltage required at the input of the corresponding converter in the event that the first terminals of the converters are negative terminals.
Vacuum interrupter (1, 1') having a housing, a first contact system (19, 22, 31, 34) which comprises a moving contact piece (19, 34) and a fixed contact piece (22, 31), and a second contact system (11, 16) comprising a grounding contact and a grounded mating contact piece, with the grounding contact being arranged on a moving contact rod (14, 32) which is passed out of the housing through a seal, wherein the first contact system is held in the interior of the housing on vacuum-tight isolating means (9, 18, 33) which subdivide the internal area (20, 21) of the vacuum interrupter (1, 1') into a first internal area with the first contact system (19, 22, 31, 34) and a second internal area with the second contact system (11, 16), characterized in that the moving contact rod (14, 32) extends through the opening of the mating contact piece, wherein the opening has a significantly greater diameter than the external diameter of the moving contact rod (14, 32).
An olefin polymerization process for producing propylene copolymer composition, wherein propylene, C 4 to C 10 α-olefin and optionally ethylene are reacted in the presence of a Ziegler-Natta catalyst in a multistage polymerization process comprising at least two slurry polymerization reactors, wherein the copolymer composition is bimodal with respect to the content of C 4 to C 10 α-olefin and, if present, to ethylene, and wherein the process comprises - feeding fresh propylene monomer via line into the monomer feed tank, - feeding circulated unreacted monomers from a product receiver into via line, - dividing the monomer mixture from in a feed line into a feed line (4-C), which feeds the monomer mixture to a second reactor, and to a feed line (4-B), - feeding fresh C4 to C10 α-olefin monomer and optionally ethylene into the feed line (4-B) via line forming a combined feed in line, - feeding the combined monomer mixture via line to the first reactor, - polymerizing the monomer mixture in the first reactor to produce a first product mixture comprising a first polymer fraction and unreacted monomers - transferring the first product mixture from reactor to the second reactor via line, - continuing the polymerization in the reactor to produce the second product mixture comprising the second polymer fraction and unreacted monomers - taking the second product mixture with unreacted monomers out from the reactor and feeding the mixture via line to the product receiver, - separating the unreacted monomers from the second product mixture in the product receiver - circulating at least part of the unreacted monomers back to the monomer feed tank via line and - removing the final copolymer composition from via line 9. - feeding fresh propylene monomer via line into the monomer feed tank, - feeding circulated unreacted monomers from a product receiver into via line, - dividing the monomer mixture from in a feed line into a feed line (4-C), which feeds the monomer mixture to a second reactor, and to a feed line (4-B), - feeding fresh C4 to C10 α-olefin monomer and optionally ethylene into the feed line (4-B) via line forming a combined feed in line, - feeding the combined monomer mixture via line to the first reactor, - polymerizing the monomer mixture in the first reactor to produce a first product mixture comprising a first polymer fraction and unreacted monomers - transferring the first product mixture from reactor to the second reactor via line, - continuing the polymerization in the reactor to produce the second product mixture comprising the second polymer fraction and unreacted monomers - taking the second product mixture with unreacted monomers out from the reactor and feeding the mixture via line to the product receiver, - separating the unreacted monomers from the second product mixture in the product receiver - circulating at least part of the unreacted monomers back to the monomer feed tank via line and - removing the final copolymer composition from via line 9.
A method for producing a cell that is susceptible to Hepatitis B virus and/or Hepatitis D virus infection, or has an increased susceptibility to HBV and/or HDV infection, or is able to bind HBV and/or HDV, said method comprising the steps of - providing a cell that is non-susceptible to HBV and/or HDV infection or has a low susceptibility to HBV and/or HDV infection or is unable to bind HBV and/or HDV; and - transfecting or transducing said cell with a nucleic acid sequence encoding a HBV or HDV receptor, said HBV or HDV receptor having an amino acid sequence represented by SEQ ID NO:1 or with a vector comprising said nucleic acid sequence encoding a HBV or HDV receptor, wherein the cells are non-human. - providing a cell that is non-susceptible to HBV and/or HDV infection or has a low susceptibility to HBV and/or HDV infection or is unable to bind HBV and/or HDV; and - transfecting or transducing said cell with a nucleic acid sequence encoding a HBV or HDV receptor, said HBV or HDV receptor having an amino acid sequence represented by SEQ ID NO:1 or with a vector comprising said nucleic acid sequence encoding a HBV or HDV receptor, wherein the cells are non-human. with a nucleic acid sequence encoding a HBV or HDV receptor, said HBV or HDV receptor having an amino acid sequence represented by SEQ ID NO:1 or with a vector comprising said nucleic acid sequence encoding a HBV or HDV receptor, wherein the cells are non-human.
An apparatus comprising means for routing data packets, comprising: a plurality of queues (510, 512) configured to queue received data packets of different content-based quality of service, QoS, attributes for forwarding; and a decoder configured to decode a content-based QoS attribute vector, AV, tuple of least two content-based QoS attributes that is encoded in each of the received data packets, each content-based QoS AV tuple specifying at least two priority requests indicating respective priority rankings with respect to the at least two content-based QoS attributes for the particular received data packet, the priority requests made by a source that transmitted the particular received data packet; wherein each of the received data packets is placed into a determined queue of the plurality of queues for forwarding, based on the decoded content-based QoS AV tuple of the particular received data packet, in response to the decoded content-based QoS AV tuple of the particular received data packet having been determined to specify a valid combination of the priority requests with respect to the content-based QoS attributes, wherein the validity of the priority requests is established if a summation of content-based QoS attributes included in the content-based QoS AV tuple exceeds a threshold value; and wherein the content-based QoS attributes include at least two of bandwidth, latency, reliability, and jitter. a plurality of queues (510, 512) configured to queue received data packets of different content-based quality of service, QoS, attributes for forwarding; and a decoder configured to decode a content-based QoS attribute vector, AV, tuple of least two content-based QoS attributes that is encoded in each of the received data packets, each content-based QoS AV tuple specifying at least two priority requests indicating respective priority rankings with respect to the at least two content-based QoS attributes for the particular received data packet, the priority requests made by a source that transmitted the particular received data packet; wherein each of the received data packets is placed into a determined queue of the plurality of queues for forwarding, based on the decoded content-based QoS AV tuple of the particular received data packet, in response to the decoded content-based QoS AV tuple of the particular received data packet having been determined to specify a valid combination of the priority requests with respect to the content-based QoS attributes, wherein the validity of the priority requests is established if a summation of content-based QoS attributes included in the content-based QoS AV tuple exceeds a threshold value; and wherein the content-based QoS attributes include at least two of bandwidth, latency, reliability, and jitter.
A method for manufacturing an aerogel sheet, the method comprising: a step (a) of preparing a blanket having a plate shape; a step (b) of mixing silica sol with gelling catalyst to prepare a silica sol precursor; and a step (c) of injecting the silica sol precursor prepared in the step (b) to a surface of the blanket prepared in the step (a) through an injection device to gelate the silica sol precursor, wherein, in the step (c), the injection device injects the silica sol precursor while moving from one side to the other side of the surface of the blanket, wherein the step (a) comprises a loading step loading the blanket having the plate shape in a storage vessel, a transfer step adsorbing the plate-shaped blanket loaded in the storage vessel to transfer the blanket, and a preparation step of inserting the blanket transferred by a transfer part into a fixing vessel, and the silica sol precursor is injected to a surface of the blanket inserted into the fixing vessel through the injection device. a step (a) of preparing a blanket having a plate shape; a step (b) of mixing silica sol with gelling catalyst to prepare a silica sol precursor; and a step (c) of injecting the silica sol precursor prepared in the step (b) to a surface of the blanket prepared in the step (a) through an injection device to gelate the silica sol precursor, wherein, in the step (c), the injection device injects the silica sol precursor while moving from one side to the other side of the surface of the blanket, wherein the step (a) comprises a loading step loading the blanket having the plate shape in a storage vessel, a transfer step adsorbing the plate-shaped blanket loaded in the storage vessel to transfer the blanket, and a preparation step of inserting the blanket transferred by a transfer part into a fixing vessel, and the silica sol precursor is injected to a surface of the blanket inserted into the fixing vessel through the injection device.