mhurhangee/ep-ind-claims huggingface dataset:
A wall section for construction of a building, the wall section comprising: a first board, a spaced-apart and parallel second board, and a spaced-apart and parallel third board, elongate spacers (17, 18) between the first and second boards, and between the second and third boards, said spacers securing the boards in place to define first and second spaces (15, 16), an insulating in-fill material in said first space, and said second space having a cavity providing a concrete formwork, characterised in that: at least some of the spacers (17, 18) are I-shaped and comprise elongate lengths of material having a web, and flanges (27, 28) interfacing with the boards (10, 11, 12), at least some of the spacers of said cavity have apertures (25, 26) in the web for flow of concrete filling the cavity on site and integration of the concrete in the cavity, at least some of the spacers of said first space have apertures (25, 26) in the web for flow of said insulation material during injection and for integration of in-fill material across said spacers, and the in-fill insulation material comprises a cured foam insulating material. a first board, a spaced-apart and parallel second board, and a spaced-apart and parallel third board, elongate spacers (17, 18) between the first and second boards, and between the second and third boards, said spacers securing the boards in place to define first and second spaces (15, 16), an insulating in-fill material in said first space, and said second space having a cavity providing a concrete formwork, characterised in that: at least some of the spacers (17, 18) are I-shaped and comprise elongate lengths of material having a web, and flanges (27, 28) interfacing with the boards (10, 11, 12), at least some of the spacers of said cavity have apertures (25, 26) in the web for flow of concrete filling the cavity on site and integration of the concrete in the cavity, at least some of the spacers of said first space have apertures (25, 26) in the web for flow of said insulation material during injection and for integration of in-fill material across said spacers, and the in-fill insulation material comprises a cured foam insulating material. at least some of the spacers (17, 18) are I-shaped and comprise elongate lengths of material having a web, and flanges (27, 28) interfacing with the boards (10, 11, 12), at least some of the spacers of said cavity have apertures (25, 26) in the web for flow of concrete filling the cavity on site and integration of the concrete in the cavity, at least some of the spacers of said first space have apertures (25, 26) in the web for flow of said insulation material during injection and for integration of in-fill material across said spacers, and the in-fill insulation material comprises a cured foam insulating material.
A method for detecting human parvovirus B19 infection in a biological sample, said method comprising: (a) isolating nucleic acid from a biological sample suspected of containing human parvovirus B19 DNA, wherein said nucleic acid comprises a target sequence; (b) amplifying the target sequence using a nucleic acid polymerase having 5' to 3' nuclease activity, a pair of primers capable of hybridizing to the target sequence, and an oligonucleotide probe designed to hybridize 3' relative to one of the primers within the amplified sequence, wherein (i) said pair of primers consist of a sense primer of SEQ ID NO:88 and an antisense primer of SEQ ID NO:89; (ii) the 5' end of the probe contains a fluorescent reporter dye, and the 3' end of the probe is blocked to prevent probe extension and contains a dye that quenches the fluorescence of the 5' fluorophore; (iii) during amplification the polymerase digests the oligonucleotide probe when it is hybridized to the target sequence, thereby separating the reporter molecule from the quencher molecule; and (iv) as the amplification is conducted, the fluorescence of the reporter molecule is monitored, with fluorescence corresponding to the occurrence of nucleic acid amplification. (a) isolating nucleic acid from a biological sample suspected of containing human parvovirus B19 DNA, wherein said nucleic acid comprises a target sequence; (b) amplifying the target sequence using a nucleic acid polymerase having 5' to 3' nuclease activity, a pair of primers capable of hybridizing to the target sequence, and an oligonucleotide probe designed to hybridize 3' relative to one of the primers within the amplified sequence, wherein (i) said pair of primers consist of a sense primer of SEQ ID NO:88 and an antisense primer of SEQ ID NO:89; (ii) the 5' end of the probe contains a fluorescent reporter dye, and the 3' end of the probe is blocked to prevent probe extension and contains a dye that quenches the fluorescence of the 5' fluorophore; (iii) during amplification the polymerase digests the oligonucleotide probe when it is hybridized to the target sequence, thereby separating the reporter molecule from the quencher molecule; and (iv) as the amplification is conducted, the fluorescence of the reporter molecule is monitored, with fluorescence corresponding to the occurrence of nucleic acid amplification. (i) said pair of primers consist of a sense primer of SEQ ID NO:88 and an antisense primer of SEQ ID NO:89; (ii) the 5' end of the probe contains a fluorescent reporter dye, and the 3' end of the probe is blocked to prevent probe extension and contains a dye that quenches the fluorescence of the 5' fluorophore; (iii) during amplification the polymerase digests the oligonucleotide probe when it is hybridized to the target sequence, thereby separating the reporter molecule from the quencher molecule; and (iv) as the amplification is conducted, the fluorescence of the reporter molecule is monitored, with fluorescence corresponding to the occurrence of nucleic acid amplification.
A quick-charging control method, applied to a charging system comprising a charging adapter and a mobile terminal, and comprising: with a first controller, obtaining a voltage value of a cell via a cell connector, and sending the voltage value of the cell to a second controller, wherein the mobile terminal comprises the first controller, the cell connector and the cell, the charging adapter comprises the second controller; with the second controller, searching a threshold segment table to find a current regulation instruction matched with a threshold segment containing the voltage value of the cell, and sending the current regulation instruction to a regulation circuit, wherein the charging adapter comprises the regulation circuit, and the threshold segment table records one or more threshold segments and current regulation instructions having a mapping relation with the threshold segments; with the regulation circuit, performing a current regulation according to the current regulation instruction, and outputting a power signal, such that the charging adapter outputs the power signal outputted by the regulation circuit; with the second controller, sending a second switch-off instruction to the first controller and a second switch circuit respectively if second abnormal charging information is detected, wherein the charging adapter comprises the second switch circuit; and with the second switch circuit, controlling the charging adapter to stop sending the power signal output by the regulation circuit if the second switch circuit receives the second switch-off instruction. with a first controller, obtaining a voltage value of a cell via a cell connector, and sending the voltage value of the cell to a second controller, wherein the mobile terminal comprises the first controller, the cell connector and the cell, the charging adapter comprises the second controller; with the second controller, searching a threshold segment table to find a current regulation instruction matched with a threshold segment containing the voltage value of the cell, and sending the current regulation instruction to a regulation circuit, wherein the charging adapter comprises the regulation circuit, and the threshold segment table records one or more threshold segments and current regulation instructions having a mapping relation with the threshold segments; with the regulation circuit, performing a current regulation according to the current regulation instruction, and outputting a power signal, such that the charging adapter outputs the power signal outputted by the regulation circuit; with the second controller, sending a second switch-off instruction to the first controller and a second switch circuit respectively if second abnormal charging information is detected, wherein the charging adapter comprises the second switch circuit; and with the second switch circuit, controlling the charging adapter to stop sending the power signal output by the regulation circuit if the second switch circuit receives the second switch-off instruction.
A process for remediating a well having a restriction caused by inward deformation of a well casing or liner, the process comprising: a) passing down the well a milling tool and milling away casing or liner in the region of the restriction such that rock surrounding the casing or liner is exposed and such that the casing or liner is divided into an upper and a lower portion (8, 9) each having an open end; b) passing down the well a straddle joint; c) locating upper and lower ends of the straddle joint in the upper and lower portions (8, 9) of casing or liner; characterized in that, between steps (a) and (b), an under reaming operation is performed to ream away rock and/or cement in a region between the upper and lower portions (8, 9) of the liner or casing. a) passing down the well a milling tool and milling away casing or liner in the region of the restriction such that rock surrounding the casing or liner is exposed and such that the casing or liner is divided into an upper and a lower portion (8, 9) each having an open end; b) passing down the well a straddle joint; c) locating upper and lower ends of the straddle joint in the upper and lower portions (8, 9) of casing or liner;
A fire extinguishing agent comprising a metallocene, a dispersion medium and a dispersing agent, the metallocene being dispersed in the dispersion medium, wherein: the content of the metallocene is 70 to 160 ppm by weight, the dispersion medium is water, and the dispersing agent is at least one nonionic surfactant selected from the group consisting of glycerin fatty acid esters, sucrose fatty acid esters, sorbitan fatty acid esters, and acetylene alcohols. the content of the metallocene is 70 to 160 ppm by weight, the dispersion medium is water, and the dispersing agent is at least one nonionic surfactant selected from the group consisting of glycerin fatty acid esters, sucrose fatty acid esters, sorbitan fatty acid esters, and acetylene alcohols.
A method for an autonomous operation of an electricity-generating device, comprising: a permanent magnet power generator coupled to a water turbine; first and second converters (11, 12) having forward/inverse conversion functions; a smoothing capacitor connected to a DC linkage unit between the first and second converters (11, 12); and a control unit outputting control commands to the first and second converters (11, 12), wherein, when the autonomous operation of the electricity-generating device is conducted, the first converter controls a voltage of the DC linkage unit to be constant, a load connected to the electricity-generating device is connected or disconnected, and the electricity-generating device is operated along an efficiency-characteristics curve that corresponds to an aperture of an inlet valve of the water turbine and is based on a shaft input and a rotational speed, within a speed range from a rated speed (n 0), at which the shaft input of the efficiency-characteristics curve becomes maximum, to a maximum speed (n m), at which the shaft input becomes minimum, in the efficiency-characteristics curve of the water turbine. a permanent magnet power generator coupled to a water turbine; first and second converters (11, 12) having forward/inverse conversion functions; a smoothing capacitor connected to a DC linkage unit between the first and second converters (11, 12); and a control unit outputting control commands to the first and second converters (11, 12), wherein, when the autonomous operation of the electricity-generating device is conducted, the first converter controls a voltage of the DC linkage unit to be constant, a load connected to the electricity-generating device is connected or disconnected, and the electricity-generating device is operated along an efficiency-characteristics curve that corresponds to an aperture of an inlet valve of the water turbine and is based on a shaft input and a rotational speed, within a speed range from a rated speed (n 0), at which the shaft input of the efficiency-characteristics curve becomes maximum, to a maximum speed (n m), at which the shaft input becomes minimum, in the efficiency-characteristics curve of the water turbine.
A downhole device having a body with an axis, a bore with a fluid flowpath for permitting passage of fluid through the body, a closure device for restricting passage of fluid through the fluid flowpath of the bore, and an actuator for actuating the closure device; the actuator comprising first and second counterweight devices moveably mounted at different circumferential positions around the axis of the downhole device, wherein the counterweight devices are radially movable relative to the body between first and second positions, wherein movement of the counterweight devices between the first and second positions actuates the closure device between different activation states, wherein each counterweight device is supported by a number of link arms adapted to guide the radial movement of each counterweight device between the first and second positions, wherein the counterweight devices are pivotally connected at axially spaced apart locations to upper and lower sleeves (45, 48) by pivot links connected between the upper and lower sleeves (45, 48) and the link arms, wherein the link arms are adapted to transmit axial forces between the upper and lower sleeves (45, 48), and are adapted to urge relative axial movement between the upper and lower sleeves (45, 48) when the counterweight devices move radially, wherein the counterweight devices are movable from a first radially retracted position in which the counterweight devices are retracted close to an axis of rotation of the body to a second radially extended position in which the counterweight devices have moved radially outwards away from the axis of rotation of the body, and characterised in that movement of the counterweight devices from the first radially retracted position to the second radially extended position actuates the closure device to restrict the fluid flowpath of the bore.
An optical observation instrument, in particular a surgical microscope or exoscope, comprising an optics unit with a distal end, a proximal end, an objective arrangement and at least one electronic image recorder (12, 12'), wherein the optics unit has a first stereo channel with a first beam path and a second stereo channel with a second beam path for recording a stereo image of an object field with the at least one electronic image recorder (12, 12') and wherein the first and the second beam path extend through the objective arrangement, and a retaining apparatus, on which the optics unit is mounted, wherein the retaining apparatus comprises a retaining bracket, which engages over the optics unit, wherein the retaining bracket has an operating device with a number of operating elements for controlling a retaining arm, to which the retaining apparatus is connectable, wherein a section of the retaining bracket between the two ends of the retaining bracket is spaced apart from the optics unit and designed to be grasped by a human hand, characterized in that the optics unit is mounted in the region of the distal and the proximal end at respectively one of two ends (31, 36) of the retaining bracket and the operating device is arranged in the region of the section at the retaining bracket.
Device for printing containers, particularly bottles or the like, particularly by means of a rotary machine, comprising a container transport device, particularly a rotor, for transporting the containers along a print path, a container inlet, particularly an inlet starwheel, for supplying and a container outlet, particularly an outlet starwheel, for discharging the containers to or from the container transport device, characterized in that the container inlet, the container outlet and the container transport device are each coordinately operable independently of one another via a separate drive (6, 7, 8), such as an electric motor, by a control device, that the device comprises an energy store which upon interruption and/or variation of an external power supply delivers energy to the drives (6, 7, 8) and takes over power supply for coordinated operation, and that along the print path at least one printing device is arranged that is electrically operable by means of the control device coordinately with the container inlet, the container outlet and the container transport device, particularly independently thereof, and prints the containers, and to which the energy store delivers energy upon interruption and/or variation of the external power supply.
Sealing arrangement, comprising an opening element such as a window or a door, as well as a stationary frame part, wherein the opening element for opening and closing a building opening is movable in a sliding movement from an open position, in which the building opening is exposed, into a closed position, in which the opening element covers the building opening, characterized in that a sealing strip provided with permanent magnets is provided, which is movably mounted on the stationary frame part in a direction perpendicular to the sliding direction of the sliding movement of the opening element, and the opening element has permanent magnets interacting with the permanent magnets of the sealing strip, by means of which permanent magnets the sealing strip can be brought into sealed contact with the opening element in the closed position of the opening element, wherein the stationary frame part is provided with at least one electromagnet (4.i; i=1,2,...N), by means of which the sealing strip can be moved in the closed position of the opening element from the sealed contact into a position spaced apart from the opening element in the event of current flow, and the opening element and the stationary frame part each have a receptacle for the sealing strip, which exclusively in the closed position of the opening element form a receiving channel for the sealing strip, in which the sealing strip is movable perpendicularly to the sliding direction of the sliding movement of the opening element and is guided in a form-fitting manner.
Rubber-metal spring element, in particular for use in running gears of rail vehicles, wherein the rubber-metal spring element is arranged between an upper connection element, which is connected to the sprung mass, and a lower connection element, which is connected to the unsprung mass, and is constructed as a conical layered spring composed of multiple alternately and concentrically arranged layers of elastomer material or rubber, on the one hand, and metal, on the other hand, wherein the individual layers are formed as conical ring-shaped bodies, wherein the two conical surfaces of at least one conical ring-shaped body have different angles or cone angles in relation to the common vertical axis of the concentric layers of rubber and metal which form the conical layered spring, characterized in that at least one of the conical surfaces of at least one conical ring-shaped body has a structured shape or undulating shape which deviates from a smooth hollow cone, preferably over the entire cone circumference.
Round baler having a baling chamber, which is partially surrounded by baling elements, and having a wrapping device having a cutting device and a take-up means, which is adjustable between a position remote from the baling chamber and a position close to the baling chamber, for taking hold of and introducing a web-like wrapping web into the baling chamber, characterized in that a driven pulley is provided for conveying the wrapping web, said pulley being able to be set into rotation in addition to the movement of the take-up means.
Method (METH) for localizing a beacon by means of a first, second a third transceivers (A, B, C), each of the beacon, the first, the second and the third transceivers (A, B, C) comprising a local oscillator theoretically oscillating at a same reference frequency (f ref) but in practice oscillating at different reference frequencies (f refA, f refB, f refC) due to frequency drifts, the method (METH) comprising the following steps: - transmission (Etp_Em_FskA), by a first transceiver, of a signal, called the initiation signal (FskA), said initiation signal (FskA) being received by second and third transceivers (B, C), - calculation, by means of the initiation signal (FskA), of errors (e AB, e AC) between the reference frequency (f refA) of the first transceiver and the reference frequencies (f refB, f refC) of the second and third transceivers (B, C), - transmission (Et_Em_BpskX), by the beacon, of a first pulsed signal (BpskX), said first pulsed signal (BpskX) being received by the first, second and third transceivers (A, B, C), - transmission (Etp_Em_BpskA), by the first transceiver, of a second pulsed signal (BpskA), said second pulsed signal (BpskA) being received by the second and third transceivers (B, C), - calculation (Etp_Cal_Δt), by means of frequency reference errors (e AB, e AC), of at least three differences (Δt 1, Δt 2, Δt 3) between the times-of-flight of the first and second pulsed signals (BpskX, BpskA), each time-of-flight difference (Δt 1, Δt 2, Δt 3) being calculated in the base time of the first transceiver, and - calculation (Etp_Cal_PosX) of a position of a beacon by means of the time-of-flight differences (Δt 1, Δt 2, Δt 3). - transmission (Etp_Em_FskA), by a first transceiver, of a signal, called the initiation signal (FskA), said initiation signal (FskA) being received by second and third transceivers (B, C), - calculation, by means of the initiation signal (FskA), of errors (e AB, e AC) between the reference frequency (f refA) of the first transceiver and the reference frequencies (f refB, f refC) of the second and third transceivers (B, C), - transmission (Et_Em_BpskX), by the beacon, of a first pulsed signal (BpskX), said first pulsed signal (BpskX) being received by the first, second and third transceivers (A, B, C), - transmission (Etp_Em_BpskA), by the first transceiver, of a second pulsed signal (BpskA), said second pulsed signal (BpskA) being received by the second and third transceivers (B, C), - calculation (Etp_Cal_Δt), by means of frequency reference errors (e AB, e AC), of at least three differences (Δt 1, Δt 2, Δt 3) between the times-of-flight of the first and second pulsed signals (BpskX, BpskA), each time-of-flight difference (Δt 1, Δt 2, Δt 3) being calculated in the base time of the first transceiver, and - calculation (Etp_Cal_PosX) of a position of a beacon by means of the time-of-flight differences (Δt 1, Δt 2, Δt 3).