mhurhangee/ep-ind-claims huggingface dataset:
A no-freewheeling arc lightning protection gap protecting device, comprising a grounding-side arc extinguishing device, a grounding-side fitting and a conducting wire-side fitting,the grounding-side fitting and the conducting wire-side fitting being installed at two ends of a circuit insulator string, respectively, via fixing devices; the grounding-side arc extinguishing device being installed at one end of the grounding-side fitting; the grounding-side arc extinguishing device comprising a thunder and lightning pulse acquisition device, an insulating sealing shell, a gas generating device and an arc extinguishing chamber, the gas generating device being located inside the insulating sealing shell; characterized in that the grounding-side arc extinguishing device further comprises a tubular earth electrode made of nonmetal conductive material, one end of the tubular earth electrode is internally embedded in the arc extinguishing chamber, the other end of the tubular earth electrode is connected with the insulating sealing shell; the other end of the grounding-side fitting is equipped with a connecting fine pipe; the grounding-side arc extinguishing device is inlaid in and connected with the connecting fine pipe located on the grounding-side fitting via a Z-shaped connecting fitting, the other end of the Z-shaped connecting fitting is connected with the tubular earth electrode via a connecting-line penetrating the thunder and lightning pulse acquisition device.
Apparatus comprising a coalescing removal separator including: a separator tank having a separator input configured to receive a fluid flowing through a system having entrained gas and solid particles, having a tank wall configured to form a volume or chamber inside the separator tank to process the fluid, and having a separator output configured to provide processed fluid (F P) that is free of at least some of the entrained gas and solid particles; a coalescing media arranged in the volume or chamber of the separator tank, the coalescing media having a series of brushes substantially filling the volume/ or chamber of the separator tank and being configured to enable the at least some of the entrained gas and solid particles to come out of the fluid; the separator tank has a top vent configured to vent the entrained gas from the separator tank and remove them from the system, and a bottom blow-down configured to remove the solid particles from the separator tank and remove them from the system; and the coalescing media comprises top and bottom plates (P T, P B) configured to couple together the series of brushes for arranging, placing or mounting the coalescing media inside the separator tank, characterized in that the coalescing media comprises a series of helically wound brushes each with a stem and intertwined bristles, and the top and bottom plates (P T, P B) are configured to couple together the series of helically wound brushes. a separator tank having a separator input configured to receive a fluid flowing through a system having entrained gas and solid particles, having a tank wall configured to form a volume or chamber inside the separator tank to process the fluid, and having a separator output configured to provide processed fluid (F P) that is free of at least some of the entrained gas and solid particles; a coalescing media arranged in the volume or chamber of the separator tank, the coalescing media having a series of brushes substantially filling the volume/ or chamber of the separator tank and being configured to enable the at least some of the entrained gas and solid particles to come out of the fluid; the separator tank has a top vent configured to vent the entrained gas from the separator tank and remove them from the system, and a bottom blow-down configured to remove the solid particles from the separator tank and remove them from the system; and the coalescing media comprises top and bottom plates (P T, P B) configured to couple together the series of brushes for arranging, placing or mounting the coalescing media inside the separator tank, characterized in that the coalescing media comprises a series of helically wound brushes each with a stem and intertwined bristles, and the top and bottom plates (P T, P B) are configured to couple together the series of helically wound brushes.
Grooved noodles formed with three grooves along a longitudinal direction of the noodles and having a substantially circular configuration in cross section, wherein the three grooves are arranged at intervals of 120° along a circumferential direction of the noodles and extend in a same rotational direction with respect to a center point in a cross section of the noodles, wherein each of the grooves includes a pair of sides opposing to each other and extending from an opening part of the groove toward an innermost part of the groove, a first opening end part located on one side of the pair of sides closer to the center point, and a second opening end part located on another side of the pair of sides farther from the center point, wherein an acute angle formed between a straight line passing through the first opening end part and the innermost part and another straight line passing through the first opening end part and the center point in each of the grooves is 20° to 25°, wherein a center region defined in a triangle formed by three straight lines each passing through the innermost part and a middle point between the first opening end part and the second opening end part of a relevant groove has an area of 17% to 27% of a hypothetical area of the configuration when it is assumed that the three grooves are not provided, and wherein the noodles accounts for at least 85% of the center region. wherein the three grooves are arranged at intervals of 120° along a circumferential direction of the noodles and extend in a same rotational direction with respect to a center point in a cross section of the noodles, wherein each of the grooves includes a pair of sides opposing to each other and extending from an opening part of the groove toward an innermost part of the groove, a first opening end part located on one side of the pair of sides closer to the center point, and a second opening end part located on another side of the pair of sides farther from the center point, wherein an acute angle formed between a straight line passing through the first opening end part and the innermost part and another straight line passing through the first opening end part and the center point in each of the grooves is 20° to 25°, wherein a center region defined in a triangle formed by three straight lines each passing through the innermost part and a middle point between the first opening end part and the second opening end part of a relevant groove has an area of 17% to 27% of a hypothetical area of the configuration when it is assumed that the three grooves are not provided, and wherein the noodles accounts for at least 85% of the center region.
Throttle device for controlling a fuel quantity to be supplied to a fuel injection nozzle, wherein the throttle device has a control chamber for collecting the fuel and a supply device for supplying the fuel to the control chamber in a main flow direction, wherein the supply device has an inlet throttle for reducing a pressure of the fuel in the main flow direction, wherein the inlet throttle has a length (L Z), wherein the length (L Z) of the inlet throttle lies in a length range from 0.1 mm to 0.5 mm, in particular from 0.15 mm to 0.4 mm, more particularly from 0.2 mm to 0.3 mm, such that a fuel flowing through the inlet throttle during operation flows through the inlet throttle in a turbulent flow, wherein a discharge device for discharging the fuel from the control chamber is provided, wherein the discharge device is arranged at the control chamber such that the fuel is discharged from the control chamber in a discharge flow direction which is opposite to the main flow direction of the fuel in the supply device and which discharge device has an outlet throttle for reducing a pressure of the fuel in the discharge flow direction, wherein an outflow region is arranged upstream of the outlet throttle in the discharge flow direction, wherein a longitudinal axis of the outlet throttle is arranged so as to be inclined relative to an axis of the discharge flow direction in the outflow region, wherein a diameter (D Z) of the inlet throttle is selected to be smaller the smaller the length (L Z) of the inlet throttle is selected to be, wherein in particular, the diameter (D Z) lies in a range from 171 μm to 176 μm in the case of a length (L Z) of 0.4 mm to 0.5 mm, and/or wherein more particularly the diameter (D Z) lies in a range from 166 μm to 170 μm in the case of a length (L Z) of 0.2 mm to 0.3 mm.
A use of a compound of general formula wherein B is a divalent linear, branched or cyclic aliphatic hydrocarbon group, and each R 1 is, independently of one another, a divalent branched or linear aliphatic C 1 -C 15 alkylene group, to lower the viscosity of a reactive resin or to lower the ejection forces of a reactive resin component for chemical fastening. B is a divalent linear, branched or cyclic aliphatic hydrocarbon group, and each R 1 is, independently of one another, a divalent branched or linear aliphatic C 1 -C 15 alkylene group,
A method for narrowband allocation, comprising: allocating at least one narrowband to a User Equipment, UE, wherein at least one Physical Resource Block, PRB, contained in each of the at least one narrowband is not overlapped with another PRB, or at least one PRB contained in part or all of the at least one narrowband is partially overlapped with another PRB; characterized in that: wherein when one of the at least one narrowband is a downlink narrowband but not a downlink central narrowband or one of the at least one narrowband is an uplink narrowband, a PRB index interval of one of the at least one narrowband is one of the following: k × G, k × G + 5; k × G − 6, k × G − 1; k × G − 1, k × G + 4; N RB − N RB mod G − a × G, N RB − 1; wherein G∈{2, 3, 4}, a∈{0,1,2}, N RB is a number of PRBs corresponding to a system bandwidth, a PRB index, for downlink, in the PRB index interval refers to the PRB index obtained by numbering, starting from zero, PRBs in the system bandwidth according to an ascending order from lowest frequency to highest frequency, and a PRB index, for uplink, in the PRB index interval refers to the PRB index obtained by numbering, starting from zero, PRBs in a Sounding Reference Signal, SRS, bandwidth of a cell according to an ascending order from lowest frequency to highest frequency, and k is a non-negative integer. allocating at least one narrowband to a User Equipment, UE, wherein at least one Physical Resource Block, PRB, contained in each of the at least one narrowband is not overlapped with another PRB, or at least one PRB contained in part or all of the at least one narrowband is partially overlapped with another PRB; characterized in that: wherein when one of the at least one narrowband is a downlink narrowband but not a downlink central narrowband or one of the at least one narrowband is an uplink narrowband, a PRB index interval of one of the at least one narrowband is one of the following: k × G, k × G + 5; k × G − 6, k × G − 1; k × G − 1, k × G + 4; N RB − N RB mod G − a × G, N RB − 1; wherein G∈{2, 3, 4}, a∈{0,1,2}, N RB is a number of PRBs corresponding to a system bandwidth, a PRB index, for downlink, in the PRB index interval refers to the PRB index obtained by numbering, starting from zero, PRBs in the system bandwidth according to an ascending order from lowest frequency to highest frequency, and a PRB index, for uplink, in the PRB index interval refers to the PRB index obtained by numbering, starting from zero, PRBs in a Sounding Reference Signal, SRS, bandwidth of a cell according to an ascending order from lowest frequency to highest frequency, and k is a non-negative integer.
A battery pack comprising: a holder case; and a plurality of batteries arranged within the holder case with their respective first axes aligned substantially parallel to each other; wherein the holder case comprises: a plurality of columnar structures (125 or 225), each said columnar structure being located intermediate at least two said batteries and aligned substantially parallel to the said first axes of the said batteries; and a plurality of ribs (121 or 122) connecting the said columnar structures (125 or 225) in a first direction; wherein each said columnar structure (125 or 225) serves to define at least one heat dissipation channel (125' or 225') between batteries adjacent thereto, and wherein the said ribs (121 or 122) extend between first axial portions of the columnar structures (125 or 225) but not second axial portions of the columnar structures (125 or 225), so as to define air gaps between the said second axial portions, and characterised in that at least some of the columnar structures (125 or 225) each comprise a respective column portion provided with a heat dissipation hole (125' or 225') extending longitudinally therethrough in order to define a said heat dissipation channel (125' or 225'). a holder case; and a plurality of batteries arranged within the holder case with their respective first axes aligned substantially parallel to each other; wherein the holder case comprises: a plurality of columnar structures (125 or 225), each said columnar structure being located intermediate at least two said batteries and aligned substantially parallel to the said first axes of the said batteries; and a plurality of ribs (121 or 122) connecting the said columnar structures (125 or 225) in a first direction; a plurality of columnar structures (125 or 225), each said columnar structure being located intermediate at least two said batteries and aligned substantially parallel to the said first axes of the said batteries; and a plurality of ribs (121 or 122) connecting the said columnar structures (125 or 225) in a first direction; wherein each said columnar structure (125 or 225) serves to define at least one heat dissipation channel (125' or 225') between batteries adjacent thereto, and wherein the said ribs (121 or 122) extend between first axial portions of the columnar structures (125 or 225) but not second axial portions of the columnar structures (125 or 225), so as to define air gaps between the said second axial portions, and characterised in that at least some of the columnar structures (125 or 225) each comprise a respective column portion provided with a heat dissipation hole (125' or 225') extending longitudinally therethrough in order to define a said heat dissipation channel (125' or 225').
A method for detecting the synthesis and/or amplification of a target nucleic acid sequence, said method of synthesis and/or amplification of a nucleic acid sequence being LAMP, PCR or variants thereof, comprising the steps of: (i) providing at least one set of primers designed for synthesising and/or amplifying at least one region of said target nucleic acid sequence; (ii) combining the set of primers as per step (i) with a reaction mixture for the amplification of said at least one region of the target nucleic acid sequence, said reaction mixture comprising at least one colorimetric magnesium indicator and at least one magnesium chelator; (iii) placing the reaction mixture obtained from step (ii) in contact with a biological specimen so as to amplify said at least one region of the target nucleic acid sequence possibly present in said specimen; and (iv) verifying a possible change in the colour of the reaction mixture, characterized in that said at least one magnesium chelator is sodium citrate. (i) providing at least one set of primers designed for synthesising and/or amplifying at least one region of said target nucleic acid sequence; (ii) combining the set of primers as per step (i) with a reaction mixture for the amplification of said at least one region of the target nucleic acid sequence, said reaction mixture comprising at least one colorimetric magnesium indicator and at least one magnesium chelator; (iii) placing the reaction mixture obtained from step (ii) in contact with a biological specimen so as to amplify said at least one region of the target nucleic acid sequence possibly present in said specimen; and (iv) verifying a possible change in the colour of the reaction mixture, characterized in that said at least one magnesium chelator is sodium citrate.
A dynamic bandwidth allocation method, comprising: Obtaining bandwidth requests that are from optical network units and collected in a previous allocation cycle; Calculating, according to the bandwidth requests, bandwidths allocated to all the optical network units in a current allocation cycle, wherein a start time of the bandwidths is a start point of an N th allocation cycle after the current allocation cycle, and N is a natural number; and delivering the calculated bandwidths to the optical network units, so as to receive data sent by the optical network units at the start point of the N th allocation cycle after the current allocation cycle characterized in that the N is determined according to the following inequality: (N - 1) * a length of the allocation cycle ≤ time required for calculating the bandwidths + Max_RTT ≤ N * the length of the allocation cycle, wherein Max_RTT is greater than or equal to a maximum value of the round trip time of all the optical network units. Obtaining bandwidth requests that are from optical network units and collected in a previous allocation cycle; Calculating, according to the bandwidth requests, bandwidths allocated to all the optical network units in a current allocation cycle, wherein a start time of the bandwidths is a start point of an N th allocation cycle after the current allocation cycle, and N is a natural number; and delivering the calculated bandwidths to the optical network units, so as to receive data sent by the optical network units at the start point of the N th allocation cycle after the current allocation cycle characterized in that the N is determined according to the following inequality: (N - 1) * a length of the allocation cycle ≤ time required for calculating the bandwidths + Max_RTT ≤ N * the length of the allocation cycle, wherein Max_RTT is greater than or equal to a maximum value of the round trip time of all the optical network units. (N - 1) * a length of the allocation cycle ≤ time required for calculating the bandwidths + Max_RTT ≤ N * the length of the allocation cycle, wherein Max_RTT is greater than or equal to a maximum value of the round trip time of all the optical network units.
End plate for a rail vehicle coupling head with coupling elements, comprising a coupling projection which projects in a front direction from the end plate, and a coupling opening for receiving a coupling projection of diametrically opposed coupling elements of a compatible end plate, the end plate having an end-side contact face for absorbing pressure forces during coupling of the compatible end plate, and the end-side contact face being provided with at least one cut-out which is open at the edge at least in sections and is positioned outside the coupling elements, characterized in that the end-side contact face comprises a multiplicity of contact face segments or is formed by way of the latter which are positioned distributed on the front side of the end plate and are elevated with respect to adjacent regions. the end plate having an end-side contact face for absorbing pressure forces during coupling of the compatible end plate, and the end-side contact face being provided with at least one cut-out which is open at the edge at least in sections and is positioned outside the coupling elements, characterized in that the end-side contact face comprises a multiplicity of contact face segments or is formed by way of the latter which are positioned distributed on the front side of the end plate and are elevated with respect to adjacent regions.
A molded resin product (20, 30, 40, 63) for use with a cartridge detachably mountable to a main assembly of an image forming apparatus, the cartridge having a connection part (17, 18, 62) with an electrical contact portion (24A, 62A), comprising: a base portion (22A, 32A, 64A) formed of a resin material; a positioning portion (22B, 32B, 64B) provided on said base portion (22A, 32A, 64A), configured to position said molded resin product (20, 30, 40, 63) relative to the connection part (17, 18, 62) when said molded resin product (20, 30, 40, 63) is connected to the connection part (17, 18, 62); and a movable member (21, 31, 42, 43, 65) formed of an electroconductive resin and by injection molding, characterized in that, in a state, in which said molded resin product (20, 30, 40, 63) is connected to the connection part (17, 18, 62), said movable member (21, 31, 42, 43, 65) is configured to move between a contact position where said movable member (21, 31, 42, 43, 65) is in electrical contact with the electrical contact portion (24A, 62A) of the connection part (17, 18, 62) and a non-contact position where said movable member (21, 31, 42, 43, 65) is not in electrical contact with the electrical contact portion (24A, 62A) of the connection part (17, 18, 62). a base portion (22A, 32A, 64A) formed of a resin material; a positioning portion (22B, 32B, 64B) provided on said base portion (22A, 32A, 64A), configured to position said molded resin product (20, 30, 40, 63) relative to the connection part (17, 18, 62) when said molded resin product (20, 30, 40, 63) is connected to the connection part (17, 18, 62); and a movable member (21, 31, 42, 43, 65) formed of an electroconductive resin and by injection molding, characterized in that, in a state, in which said molded resin product (20, 30, 40, 63) is connected to the connection part (17, 18, 62), said movable member (21, 31, 42, 43, 65) is configured to move between a contact position where said movable member (21, 31, 42, 43, 65) is in electrical contact with the electrical contact portion (24A, 62A) of the connection part (17, 18, 62) and a non-contact position where said movable member (21, 31, 42, 43, 65) is not in electrical contact with the electrical contact portion (24A, 62A) of the connection part (17, 18, 62).