mhurhangee/ep-ind-claims huggingface dataset:
A probe for detecting a gene of infectious disease pathogenic bacterium, Aeromonas (genus), wherein the base sequence is any one of the following base sequences or: CTGCAAGCTAGCGATAGTGAGCGA (SEQ ID NO. 77) 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 sequence of SEQ ID NO: 77 and the complementary sequence 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 x 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. CTGCAAGCTAGCGATAGTGAGCGA (SEQ ID NO. 77) 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 sequence of SEQ ID NO: 77 and the complementary sequence 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 x 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 pumping system for transporting an analyte, the analyte being present in a medium, the pumping system comprising a substrate, characterized in that a) the substrate is located within the medium, b) a thermoresponsive polymer (15, 17) is disposed on the substrate, c) a film is present on the thermoresponsive polymer (15, 17), d) the pumping system comprises a heat source, wherein the heat source is configured to generate heat in the film, so that a sequence of temperatures above and below a volume phase transition temperature is obtainable by the thermoresponsive polymer (15, 17) and a pressure variation is obtainable by the medium, so that the analyte is transportable in a direction by the pressure variation. medium, the pumping system comprising a substrate, characterized in that a) the substrate is located within the medium, b) a thermoresponsive polymer (15, 17) is disposed on the substrate, c) a film is present on the thermoresponsive polymer (15, 17), d) the pumping system comprises a heat source, a) the substrate is located within the medium, b) a thermoresponsive polymer (15, 17) is disposed on the substrate, c) a film is present on the thermoresponsive polymer (15, 17), d) the pumping system comprises a heat source,
Method for supplying consumables to an automated analyzer comprising a housing, the method comprising the steps of: a) providing a mobile supply module comprising in a predefined geometrical arrangement at least one reagent container containing a reagent (18, 19) and at least one set of solid consumables, and further comprising a mount for reversibly docking the supply module to the analyzer, and a control unit comprising sensors for liquid level detection in said reagent container and for determining the presence or absence of specific solid consumables in the supply module, the supply module further comprising at least one waste container (20, 23) b) reversibly docking the supply module to the analyzer using said mount and a receiving interface comprised by the housing of the analyzer and establishing a fluidic connection between the supply module and the analyzer c) supplying from the supply module to the analyzer at least one reagent (18, 19) and at least one solid consumable, and collecting waste from the analyzer in at least one waste container (20, 23) of the supply module d) undocking the supply module from the analyzer and removing it therefrom, and detaching said fluidic connection between the supply module and the analyzer. a) providing a mobile supply module comprising in a predefined geometrical arrangement at least one reagent container containing a reagent (18, 19) and at least one set of solid consumables, and further comprising a mount for reversibly docking the supply module to the analyzer, and a control unit comprising sensors for liquid level detection in said reagent container and for determining the presence or absence of specific solid consumables in the supply module, the supply module further comprising at least one waste container (20, 23) b) reversibly docking the supply module to the analyzer using said mount and a receiving interface comprised by the housing of the analyzer and establishing a fluidic connection between the supply module and the analyzer c) supplying from the supply module to the analyzer at least one reagent (18, 19) and at least one solid consumable, and collecting waste from the analyzer in at least one waste container (20, 23) of the supply module d) undocking the supply module from the analyzer and removing it therefrom, and detaching said fluidic connection between the supply module and the analyzer.
A transmission assembly for operably coupling an input member to an output member, the transmission assembly comprising: a first cycloidal gear stage having a first gear ratio; a second cycloidal gear stage having a second gear ratio different than the first gear ratio; and a shifting mechanism for selectively driving the output member with one of the first cycloidal gear stage and the second cycloidal gear stage. a first cycloidal gear stage having a first gear ratio; a second cycloidal gear stage having a second gear ratio different than the first gear ratio; and a shifting mechanism for selectively driving the output member with one of the first cycloidal gear stage and the second cycloidal gear stage.
Seal assembly comprising: an emergency seal for a watercraft, comprising a radially inner surface suitable for resting on the radially outer surface of a drive shaft and a radially outer surface suitable for being subjected to the action of a pressure fluid, wherein the emergency seal has a constant cross section along its own circumferential development, wherein the cross section comprises a main solid portion from which two appendices depart which substantially develop outwards in the radial direction, wherein the radially inner surface comprises at least two sealing prominences and wherein the emergency seal is made from an elastomeric material; and an apparatus of the watercraft comprising a seat intended to define the passage for said drive shaft, wherein the emergency seal is housed in the seat; wherein the emergency seal has an outer diameter Dg, and the seat has an outer diameter Ds; characterized in that the emergency seal is slightly compressed in a radial direction when housed in the seat, and in that, at a disassembled state of the seal assembly, Dg is larger than Ds in a proportion comprised between 1% and 5%. an emergency seal for a watercraft, comprising a radially inner surface suitable for resting on the radially outer surface of a drive shaft and a radially outer surface suitable for being subjected to the action of a pressure fluid, wherein the emergency seal has a constant cross section along its own circumferential development, wherein the cross section comprises a main solid portion from which two appendices depart which substantially develop outwards in the radial direction, wherein the radially inner surface comprises at least two sealing prominences and wherein the emergency seal is made from an elastomeric material; and an apparatus of the watercraft comprising a seat intended to define the passage for said drive shaft, wherein the emergency seal is housed in the seat; wherein the emergency seal has an outer diameter Dg, and the seat has an outer diameter Ds; characterized in that the emergency seal is slightly compressed in a radial direction when housed in the seat, and in that, at a disassembled state of the seal assembly, Dg is larger than Ds in a proportion comprised between 1% and 5%.
A vacuum system comprising a manifold connecting two vacuum pumps (14, 16), said manifold comprising a pressure regulating apparatus having an inlet orifice sealingly connected, to the outlet of a first vacuum pump and an outlet orifice sealingly connected to the inlet of a second vacuum pump and a conduit (52,76) interposed between, and in fluid communication with, the inlet and the outlet, characterised in that the orifices (72, 68) are aligned to at least partially overlap when viewed along a direction, in use, of the gas flowing through the manifold and that the cross-sectional area of the conduit (52,76) is greater than that required to meet the conductance requirements of the inlet and the outlet.
A polycarbonate composition, comprising the following components in parts by weight: a. 30 to 86 parts of a polycarbonate; b. 0.0001 to 1 part of phenols as shown in Formula I; c. 0.01 to 5 parts of 3,5-di-tert-butylphenol or octadecyl 3-(3,5-di-tert-butyl-4-hydroxyphenyl) propionate; d. 8 to 50 parts of a rubber-modified graft polymer; e. 5 to 25 parts of a fire retardant; and f. 0 to 10 parts of a fire retardant synergist; wherein a sum of parts by weight of the six components a, b, c, d, e and f is 100; wherein a structural formula of Formula I is as follows: wherein R 1 and R 5 represent a hydrogen group, an alkyl, an alkoxy, a hydroxyl, a carboxyl or a carbonyl, and an ester group, except for a hindered group; and R 2, R 3 and R 4 represent a substituent containing hydrogen atoms, preferably the hydrogen atom. a. 30 to 86 parts of a polycarbonate; b. 0.0001 to 1 part of phenols as shown in Formula I; c. 0.01 to 5 parts of 3,5-di-tert-butylphenol or octadecyl 3-(3,5-di-tert-butyl-4-hydroxyphenyl) propionate; d. 8 to 50 parts of a rubber-modified graft polymer; e. 5 to 25 parts of a fire retardant; and f. 0 to 10 parts of a fire retardant synergist;
An ink jet ink comprising a graft polymer, a pigment dispersed by a polymer dispersant different from the graft polymer, and water, wherein the graft polymer includes at least a nonionic unit represented by the following general formula and a unit having a polysiloxane structure: where R 1 and R 2 each independently represent a hydrogen atom or a methyl group, and x represents 1 or 2.
A computer processor implemented method to control network parameters for a plurality of networked control panels for wireless security/control systems, each of the networked control panels having a media access control address and using wireless signals (26, 27) to monitor and control a unique set of monitored electronic devices in a unique wireless security/control system; the method comprising the steps of: (a) transmitting an electronic signal from a control panel to a central computer processor, the electronic signal providing data indicating a physical location of the control panel and a media access control address of the control panel; (b) in response to the electronic signal, the central processor assigning a PAN ID and a channel number to the control panel that do not conflict with the PAN ID and channel number of any networked control panel near the physical location of the control panel; (c) transmitting an electronic signal from the central processor to the control panel providing the assigned PAN ID and assigned channel number to the control panel; (d) in response to the electronic signal from the central processor, the control panel configuring a wireless transceiver to operate on the assigned channel number; and (e) repeating steps (a) through (d) for one or more additional control panels. (a) transmitting an electronic signal from a control panel to a central computer processor, the electronic signal providing data indicating a physical location of the control panel and a media access control address of the control panel; (b) in response to the electronic signal, the central processor assigning a PAN ID and a channel number to the control panel that do not conflict with the PAN ID and channel number of any networked control panel near the physical location of the control panel; (c) transmitting an electronic signal from the central processor to the control panel providing the assigned PAN ID and assigned channel number to the control panel; (d) in response to the electronic signal from the central processor, the control panel configuring a wireless transceiver to operate on the assigned channel number; and (e) repeating steps (a) through (d) for one or more additional control panels.
A work vehicle in which driving force is generated by an engine and by an electric motor (28, 29), comprising: a vehicle body frame; and an inverter shaped as a rectangular parallelepiped; characterized by a first bracket extending along the vehicle width direction of the work vehicle; a second bracket fixed to a left part of the inverter, the second bracket extending vertically; a third bracket fixed to a right part of the inverter, the third bracket extending vertically; and a fourth bracket fixed to at least one of the second bracket and the third bracket, the fourth bracket extending in the longitudinal direction of the vehicle in a direction away from the first bracket, the fourth bracket being supported by the vehicle body frame; wherein: the second bracket is fixed to the first bracket; the third bracket is fixed to the first bracket; both ends of the first bracket are supported by the vehicle body frame; and the shortest side of the inverter extends along the longitudinal direction of the vehicle. a vehicle body frame; and an inverter shaped as a rectangular parallelepiped; characterized by a first bracket extending along the vehicle width direction of the work vehicle; a second bracket fixed to a left part of the inverter, the second bracket extending vertically; a third bracket fixed to a right part of the inverter, the third bracket extending vertically; and a fourth bracket fixed to at least one of the second bracket and the third bracket, the fourth bracket extending in the longitudinal direction of the vehicle in a direction away from the first bracket, the fourth bracket being supported by the vehicle body frame; wherein: the second bracket is fixed to the first bracket; the third bracket is fixed to the first bracket; both ends of the first bracket are supported by the vehicle body frame; and the shortest side of the inverter extends along the longitudinal direction of the vehicle. the second bracket is fixed to the first bracket; the third bracket is fixed to the first bracket; both ends of the first bracket are supported by the vehicle body frame; and the shortest side of the inverter extends along the longitudinal direction of the vehicle.
Assembly for a turbine of a turbine engine, comprising a casing and at least one annular duct surrounding the casing, the annular duct being capable of being connected to means for supplying cooling air, and having a radially inner annular wall provided with openings arranged opposite an outer surface of the casing in order to cool said casing by the impact of cooling-air jets, characterised in that the casing has a plurality of axial grooves comprising first grooves and second grooves arranged in alternation such that each first groove is contiguous to the two second grooves consecutive thereto, and in that the openings are distributed in a plurality of annular rows (44A, 44B) in which any pair of consecutive annular rows (44A, 44B) is such that the openings of one of the annular rows of the pair are centred relative to the first grooves, while the openings of the other annular row of the pair are centred relative to the second grooves.
Composition in the form of thermally treated briquettes, comprising a "quick" calcium-magnesium compound, preferably in the form of quicklime and an iron-based compound in the form of calcium ferrite, characterized in that said calcium ferrite forms a matrix in which particles of "quick" calcium-magnesium compound are dispersed.
A system for monitoring a flange connection of a wind energy installation, comprising a flange connection with a plurality of bolts which are arranged adjacent to one another in openings of a flange and which are fastened with bolt nuts and / or bolt heads, as well as a plurality of monitoring bodies, which are mounted on bolt nuts and / or bolt heads of a plurality of bolts, in particular bolts which are adjacent to one another, in a positive contact and / or a frictional contact, wherein the monitoring bodies are connected to one another via connecting cables so as to form a circuit, in particular a connection in series, characterised in that the arrangement of the monitoring bodies on the bolt nuts and / or on the bolt heads and the length of the connecting cables are selected in such a way that, in the event of a rotation of a bolt nut which is becoming loose, or of a bolt head of a bolt which is becoming loose, and of the monitoring body which is mounted thereon, at least one connecting cable which is connected to the monitoring body, which monitoring body is also rotating, is released as a result of increasing tensile stress on the connecting cable, in particular in the event that a threshold value for tensile stress has been exceeded, wherein the connecting cables can be connected or are connected by means of plug-in connectors (120, 130) in the connecting cables or on the monitoring bodies or on the sensors, which connecting cables are released in the event that the axial tensile stress increases.
A composition comprising nicotinamide mononucleotide and a pharmaceutical excipient, for use in treating vascular endothelial dysfunction in a subject, wherein the composition is for administering from 0.1 mg to 50 mg of nicotinamide mononucleotide per kg body weight per day.
A method of determining at least one representative temperature value for a female human user for an extended period for use in determining a temperature rise indicative of a date of ovulation, the method comprising: receiving at least a first, a second and a third plurality of temperature measurements obtained from a female human user during at least first, second and third respective extended periods, wherein each extended period comprises at least four hours and wherein the start of each extended period is separated by at least 8 hours, and each extended period is in adjacent 24 hour periods; calculating a representative temperature value for the second extended period, wherein the representative temperature value is calculated using: at least one first temperature value obtained from the first plurality of measurements taken during the first extended period; and at least one second temperature value obtained from a plurality of measurements taken during the second extended period; and at least one third temperature value obtained from the third plurality of measurements taken during the third extended period; and wherein the representative temperature value for the second extended period comprises an average of the at least one first, at least one second and at least one third temperature values, analysing the adjusted representative temperature value for the second extended period to determine if a temperature rise indicative of a date of ovulation has occurred in the second extended period. receiving at least a first, a second and a third plurality of temperature measurements obtained from a female human user during at least first, second and third respective extended periods, wherein each extended period comprises at least four hours and wherein the start of each extended period is separated by at least 8 hours, and each extended period is in adjacent 24 hour periods; calculating a representative temperature value for the second extended period, wherein the representative temperature value is calculated using: at least one first temperature value obtained from the first plurality of measurements taken during the first extended period; and at least one second temperature value obtained from a plurality of measurements taken during the second extended period; and at least one third temperature value obtained from the third plurality of measurements taken during the third extended period; and wherein the representative temperature value for the second extended period comprises an average of the at least one first, at least one second and at least one third temperature values, at least one third temperature value obtained from the third plurality of measurements taken during the third extended period; and wherein the representative temperature value for the second extended period comprises an average of the at least one first, at least one second and at least one third temperature values, analysing the adjusted representative temperature value for the second extended period to determine if a temperature rise indicative of a date of ovulation has occurred in the second extended period.
A vacuum pump, in particular a turbomolecular pump, comprising - a housing having at least one opening which is connectable to an opening of an external device, in particular a recipient, and which is at least sectionally surrounded by an installation section which defines an installation plane and which is preferably cylindrical; and - a separate installation element for the installation of the housing to the external device, with the installation element being couplable to the external device, characterized in that, for an installation free of strain, the installation element has a fixing means cooperating with a sealing ring for establishing a purely force-transmitting connection between the installation element and the installation section; or in that the installation element is couplable to the installation section and, for an installation free of strain, the installation element has a fixing means cooperating with a sealing ring for establishing a purely force-transmitting connection between the installation element and the external device. - a housing having at least one opening which is connectable to an opening of an external device, in particular a recipient, and which is at least sectionally surrounded by an installation section which defines an installation plane and which is preferably cylindrical; and - a separate installation element for the installation of the housing to the external device, with the installation element being couplable to the external device,
A method of manufacturing a preform comprising the steps of: forming a reinforcement fabric by: depositing a first fibre layer; and, depositing a second fibre layer, wherein the second layer extends partially over the area defined by the first layer; cutting a plurality of preforms from the reinforcement fabric after the step of forming the reinforcement fabric; wherein a layer comprises unidirectional fibre tows extending in one direction; the method further comprising the steps of: providing a non-crimp fabric manufacturing machine; and forming the reinforcement fabric on the non-crimp fabric manufacturing machine; wherein the reinforcement fabric is formed continuously in a first direction. forming a reinforcement fabric by: depositing a first fibre layer; and, depositing a second fibre layer, wherein the second layer extends partially over the area defined by the first layer; depositing a first fibre layer; and, depositing a second fibre layer, wherein the second layer extends partially over the area defined by the first layer; cutting a plurality of preforms from the reinforcement fabric after the step of forming the reinforcement fabric; wherein a layer comprises unidirectional fibre tows extending in one direction; the method further comprising the steps of: providing a non-crimp fabric manufacturing machine; and forming the reinforcement fabric on the non-crimp fabric manufacturing machine; wherein the reinforcement fabric is formed continuously in a first direction. providing a non-crimp fabric manufacturing machine; and forming the reinforcement fabric on the non-crimp fabric manufacturing machine; wherein the reinforcement fabric is formed continuously in a first direction.