mhurhangee/ep-ind-claims huggingface dataset:
A method for making a blow molded hollow object, the method comprising: inflating a parison of acrylonitrile/butadiene/styrene containing at least 30 wt percent Grade A recycled ABS until it fills a mold; cooling the ABS containing at least 30 wt percent Grade A recycled ABS to form the hollow object; and ejecting the hollow object from the mold, wherein the Grade A recycled ABS contains ABS product that is clean and derived from ABS that was used once. inflating a parison of acrylonitrile/butadiene/styrene containing at least 30 wt percent Grade A recycled ABS until it fills a mold; cooling the ABS containing at least 30 wt percent Grade A recycled ABS to form the hollow object; and ejecting the hollow object from the mold, wherein the Grade A recycled ABS contains ABS product that is clean and derived from ABS that was used once.
A cell culture device, comprising: a cell culture vessel which is approximately a cylindrical body having a flat bottom part at a lower end and a hollow space; a dish-shaped body which is approximately disc-shaped, which has a diameter slightly smaller than a diameter of the approximately cylindrical body as the cell culture vessel, and which includes a central portion including a plurality of through-holes, the dish-shaped body including a plurality of magnetic attraction members made of magnets or ferromagnets arranged at equal intervals at a circumferential portion of the dish-shaped body, the dish-shaped body being arranged horizontally in the hollow space of the cell culture vessel so as not to come into contact with an inner wall of the cell culture vessel; and an annular body which is approximately ring shaped and configured to move in a vertical direction, the annular body including a plurality of magnetic attraction members made of magnets each corresponding to, and attracting with a magnetic force, associated one of the magnetic attraction members of the dish-shaped body, the annular body being arranged on an outer side of the cell culture vessel so as to position the cell culture vessel within the annular body, the annular body moving upward and causing the dish-shaped body to move upward in conjunction with the upward movement of the annular body due to the magnetic force, and the annular body moving downward and causing the dish-shaped body to move downward in conjunction with the downward movement of the annular body due to the magnetic force. a cell culture vessel which is approximately a cylindrical body having a flat bottom part at a lower end and a hollow space; a dish-shaped body which is approximately disc-shaped, which has a diameter slightly smaller than a diameter of the approximately cylindrical body as the cell culture vessel, and which includes a central portion including a plurality of through-holes, the dish-shaped body including a plurality of magnetic attraction members made of magnets or ferromagnets arranged at equal intervals at a circumferential portion of the dish-shaped body, the dish-shaped body being arranged horizontally in the hollow space of the cell culture vessel so as not to come into contact with an inner wall of the cell culture vessel; and an annular body which is approximately ring shaped and configured to move in a vertical direction, the annular body including a plurality of magnetic attraction members made of magnets each corresponding to, and attracting with a magnetic force, associated one of the magnetic attraction members of the dish-shaped body, the annular body being arranged on an outer side of the cell culture vessel so as to position the cell culture vessel within the annular body, the annular body moving upward and causing the dish-shaped body to move upward in conjunction with the upward movement of the annular body due to the magnetic force, and the annular body moving downward and causing the dish-shaped body to move downward in conjunction with the downward movement of the annular body due to the magnetic force.
An abrasive article comprising: a nonwoven substrate material impregnated with a first formulation; wherein the first formulation has broad spectrum antimicrobial effectiveness against one or more microbial organisms including S. aureus, and one or more of K. pneumoniae, Bacillus, and E. coli; and wherein the first formulation comprises a first antimicrobial agent consisting essentially of zinc pyrithione, and abrasive particles uniformly dispersed in a first polymer composition, characterized in that the abrasive article, further comprises; a coating of a second formulation disposed on a first side and on a second side of the nonwoven substrate material, wherein the second formulation has broad spectrum antimicrobial effectiveness against one or more microbial organisms including S. aureus, and one or more of K. pneumoniae, Bacillus, and E. coli; and wherein the second formulation comprises a second antimicrobial agent consisting essentially of zinc pyrithione and abrasive particles uniformly dispersed in a second polymer composition. a nonwoven substrate material impregnated with a first formulation; wherein the first formulation has broad spectrum antimicrobial effectiveness against one or more microbial organisms including S. aureus, and one or more of K. pneumoniae, Bacillus, and E. coli; and wherein the first formulation comprises a first antimicrobial agent consisting essentially of zinc pyrithione, and abrasive particles uniformly dispersed in a first polymer composition, characterized in that the abrasive article, further comprises; a coating of a second formulation disposed on a first side and on a second side of the nonwoven substrate material, wherein the second formulation has broad spectrum antimicrobial effectiveness against one or more microbial organisms including S. aureus, and one or more of K. pneumoniae, Bacillus, and E. coli; and wherein the second formulation comprises a second antimicrobial agent consisting essentially of zinc pyrithione and abrasive particles uniformly dispersed in a second polymer composition. a coating of a second formulation disposed on a first side and on a second side of the nonwoven substrate material, wherein the second formulation has broad spectrum antimicrobial effectiveness against one or more microbial organisms including S. aureus, and one or more of K. pneumoniae, Bacillus, and E. coli; and wherein the second formulation comprises a second antimicrobial agent consisting essentially of zinc pyrithione and abrasive particles uniformly dispersed in a second polymer composition.
A vehicle communication apparatus comprising a first connection wire, a second connection wire, an antenna, a DC driving detection member, a DC cut capacitor, a passive element and a vehicle door handle driving device (50, 60, 65), wherein the vehicle door handle driving device (50, 60, 65) is electrically connected to the antenna and the DC driving detection member for detecting approach or touch of a person, the antenna and the DC driving detection member being mounted on a door handle and being connected in parallel, through the first connection wire and the second connection wire, wherein the DC driving detection member includes a power terminal and a ground terminal which are respectively connected to the first connection wire and the second connection wire, a detection output terminal which is connected to the first connection wire to output a negative detection signal indicating whether or not approach or touch of a person is detected, an antenna driving detection terminal which is connected to the first connection wire, and an antenna driving detection unit which detects a driving state of the antenna based on a voltage input to the antenna driving detection terminal; wherein the vehicle door handle driving device (50, 60, 65) is electrically connected to the DC cut capacitor whose both terminals are respectively connected to the detection output terminal and the antenna driving detection terminal; wherein the passive element has two terminals that are respectively connected to the antenna driving detection terminal and the ground terminal; wherein the first connection wire is constantly connected to a first positive DC power supply (+B), and the second connection wire is connected to a ground for a period during which the antenna is not driven, and wherein the vehicle door handle driving device (50, 60, 65) further comprises: a booster capacitor whose first terminal is connected to the first DC power supply (+B); an inverter that is connected to the second terminal of the booster capacitor, is connected to a second positive DC power supply and the ground, the inverter being configured to generate an AC voltage having a resonance frequency of the antenna and output the generated AC voltage to the first connection wire and the second connection wire through the booster capacitor, and a lock and unlock controller configured to issue a lock or unlock command of a vehicle door based on the detection signal. a booster capacitor whose first terminal is connected to the first DC power supply (+B); an inverter that is connected to the second terminal of the booster capacitor, is connected to a second positive DC power supply and the ground, the inverter being configured to generate an AC voltage having a resonance frequency of the antenna and output the generated AC voltage to the first connection wire and the second connection wire through the booster capacitor, and a lock and unlock controller configured to issue a lock or unlock command of a vehicle door based on the detection signal.
A method for producing a tool for producing a fibre composite component comprising at least one fibre-containing material and at least one matrix material, wherein the tool comprises at least an upper tool part, a lower tool part and a gap inbetween, characterised by the following steps: a) determining the thickness which is to be expected of the fibre-containing material in at least one region of the fibre-containing material, and b) adapting a width of the gap of the tool in accordance with the thickness which is to be expected of the fibre-containing material in the corresponding region of the gap. a) determining the thickness which is to be expected of the fibre-containing material in at least one region of the fibre-containing material, and b) adapting a width of the gap of the tool in accordance with the thickness which is to be expected of the fibre-containing material in the corresponding region of the gap.
A vacuum insulating glazing unit extending along a plane, P, defined by a longitudinal axis, X, and a vertical axis, Z; having a width, W, measured along the longitudinal axis, X, and a length, L, measured along the vertical axis, Z, and comprising: a. a first glass pane having a thickness Z1, and a second glass pane having a thickness, Z2, wherein the thicknesses are measured in the direction normal to the plane, P, wherein Z1 is greater than Z2 (Z1>Z2), and wherein the first glass pane and the second glass pane are float annealed glass panes; b. a set of discrete spacers positioned between the first and second glass panes, maintaining a distance between the first and the second glass panes and forming an array having a pitch, λ; c. a hermetically bonding seal sealing the distance between the first and second glass panes over a perimeter thereof; d. an internal volume, V, defined by the first and second glass panes and the set of discrete spacers and closed by the hermetically bonding seal and wherein there is a vacuum of absolute pressure of less than 0.1 mbar, characterized in that the length of the vacuum insulating glazing unit, L, is equal to or greater than 800 mm, (L ≥ 800 mm) and the width of the vacuum insulating glazing unit, W, is equal to or greater than 500 mm, (W ≥ 500 mm); in that a thickness ratio, Z1/Z2, of the thickness of the first glass pane, Z1, to the thickness of the second glass pane, Z2, is equal to or greater than 1.10 (Z1 / Z2 ≥ 1.10); in that the pitch, λ, is comprised between 10 mm and 40 mm (10 mm ≤ λ ≤ 40 mm); and in that, the thickness of the second glass pane, Z2, is equal to or greater than 4 mm, (Z2 ≥ 4 mm) and equal to or greater than (λ - 15 mm) / 5, (Z2 ≥ (λ - 15 mm) / 5). a. a first glass pane having a thickness Z1, and a second glass pane having a thickness, Z2, wherein the thicknesses are measured in the direction normal to the plane, P, wherein Z1 is greater than Z2 (Z1>Z2), and wherein the first glass pane and the second glass pane are float annealed glass panes; b. a set of discrete spacers positioned between the first and second glass panes, maintaining a distance between the first and the second glass panes and forming an array having a pitch, λ; c. a hermetically bonding seal sealing the distance between the first and second glass panes over a perimeter thereof; d. an internal volume, V, defined by the first and second glass panes and the set of discrete spacers and closed by the hermetically bonding seal and wherein there is a vacuum of absolute pressure of less than 0.1 mbar, in that a thickness ratio, Z1/Z2, of the thickness of the first glass pane, Z1, to the thickness of the second glass pane, Z2, is equal to or greater than 1.10 (Z1 / Z2 ≥ 1.10); in that the pitch, λ, is comprised between 10 mm and 40 mm (10 mm ≤ λ ≤ 40 mm); and in that, the thickness of the second glass pane, Z2, is equal to or greater than 4 mm, (Z2 ≥ 4 mm) and equal to or greater than (λ - 15 mm) / 5, (Z2 ≥ (λ - 15 mm) / 5).
Wheel support for a motor vehicle comprising a hollow flange and a hollow cylinder which are coaxial, the hollow cylinder being secured to the hollow flange, the outside diameter of the hollow flange being greater than the outside diameter of the hollow cylinder so that the cylinder does not overlap the flange in an annular portion of the hollow flange, the hollow flange having a first face in contact with the cylinder, a second face opposite to the first face, and first tapped holes extending between the first and second faces (18, 20) and passing through the flange, the first tapped holes being arranged on a diameter of the flange in the annular portion, the annular portion comprising first recesses arranged between two successive first tapped holes and extending from the exterior peripheral surface of the flange to the first face of the flange, the support being characterized in that it comprises a rib arranged in each recess so as to stiffen the flange.
A high-strength multiphase steel with minimum tensile strengths of 750 MPa, preferably with a dual-phase structure for a cold- or hot-rolled steel strip with improved forming properties and a yield strength to tensile strength ratio of a maximum of 73%, in particular for vehicle lightweight construction, composed of the elements (contents in mass %) C ≥ 0.075 to ≤ 0.105 Si ≥ 0.600 to ≤ 0.800 Mn ≥ 1.000 to ≤ 1.900 Cr ≥ 0.100 to ≤ 0.700 Al ≥ 0.010 to ≤ 0.060 N ≥ 0.0020 to ≤ 0.0120 S ≤ 0.0030 Nb ≥ 0.005 to ≤ 0.050 Ti ≥ 0.005 to ≤ 0.050 B ≥ 0.0005 to ≤ 0.0040 Mo ≤ 0.200 Cu ≤ 0.040% Ni ≤ 0.040% remainder iron, including the usual steel-accompanying elements not mentioned above, which constitute smelting-related impurities. C ≥ 0.075 to ≤ 0.105 Si ≥ 0.600 to ≤ 0.800 Mn ≥ 1.000 to ≤ 1.900 Cr ≥ 0.100 to ≤ 0.700 Al ≥ 0.010 to ≤ 0.060 N ≥ 0.0020 to ≤ 0.0120 S ≤ 0.0030 Nb ≥ 0.005 to ≤ 0.050 Ti ≥ 0.005 to ≤ 0.050 B ≥ 0.0005 to ≤ 0.0040 Mo ≤ 0.200 Cu ≤ 0.040% Ni ≤ 0.040%
A mass spectrum processing apparatus, comprising: a synthesizer arranged to synthesize a first mass spectrum (74, 150) including a fragment ion peak and a second mass spectrum (84, 152) including molecular ion peak to generate a synthesized mass spectrum; and a difference information calculator arranged to calculate difference information between the fragment ion peak and the molecular ion peak, on the synthesized mass spectrum, wherein the first mass spectrum (74, 150) is generated under application of a first ionization method, the second mass spectrum (84, 152) is generated under application of a second ionization method that is different from the first ionization method, wherein the synthesizer is configured to: correct a misalignment in an m/z axis direction between the first mass spectrum and the second mass spectrum by applying an interpolation process to one of the first mass spectrum and the second mass spectrum, using the m/z of the sample points (150a-150d, 152a-152d) of the other of the first mass spectrum and the second mass spectrum as a reference to generate an interpolated mass spectrum, and synthesizing the interpolated mass spectrum with the other of the first mass spectrum and the second mass spectrum, to thereby generate the synthesized mass spectrum. a synthesizer arranged to synthesize a first mass spectrum (74, 150) including a fragment ion peak and a second mass spectrum (84, 152) including molecular ion peak to generate a synthesized mass spectrum; and a difference information calculator arranged to calculate difference information between the fragment ion peak and the molecular ion peak, on the synthesized mass spectrum, wherein the first mass spectrum (74, 150) is generated under application of a first ionization method, the second mass spectrum (84, 152) is generated under application of a second ionization method that is different from the first ionization method, wherein the synthesizer is configured to: correct a misalignment in an m/z axis direction between the first mass spectrum and the second mass spectrum by applying an interpolation process to one of the first mass spectrum and the second mass spectrum, using the m/z of the sample points (150a-150d, 152a-152d) of the other of the first mass spectrum and the second mass spectrum as a reference to generate an interpolated mass spectrum, and synthesizing the interpolated mass spectrum with the other of the first mass spectrum and the second mass spectrum, to thereby generate the synthesized mass spectrum.
A linearity control composition comprising: a) white blood cell analogs in a concentration greater than 120 x 10 3 analogs per microliter; b) stabilized red blood cells in a concentration of at least 1.5 x 10 6 cells per microliter to facilitate mono-dispersion of said white blood cell analogs; and c) a suspension medium; wherein said white blood cell analogs and said red blood cells are capable of being mono-dispersed in said suspension medium by gently mixing said control composition contained in a control vial. a) white blood cell analogs in a concentration greater than 120 x 10 3 analogs per microliter; b) stabilized red blood cells in a concentration of at least 1.5 x 10 6 cells per microliter to facilitate mono-dispersion of said white blood cell analogs; and c) a suspension medium;
A stator core for an electronically commutated direct-current motor with inner rotor, having a plurality of radially-inwards-directed pole bodies which at their periphery are in one piece with yoke segments and the yoke segments are in one piece with adjacent yoke segments via webs with three predetermined bending lines (5a, 5b, 5c) at which they are substantially thinner than in regions between the predetermined bending lines, wherein the yoke segments alternate with the webs and together form a seamless, one-piece ring closed in itself, wherein two outer predetermined bending lines (5a, 5b) are arranged at transitions between yoke segments and webs, characterized in that the webs are arranged substantially exterior to an outer circle described by the yoke segments and in that a middle predetermined bending line is arranged between two triangular regions of the web, in that the triangular regions pivot about the two outer predetermined bending lines (5a and 5b respectively) upon bending and their outer apexes move towards one another and in that a spacing a between the ends of the yoke segments reduces to zero after the bending, and in that the middle predetermined bending line contacts the ends of the yoke segments after the bending and the magnetic yoke is closed from yoke segment to yoke segment via the triangular regions of the webs.
A method for an autonomous mobile robot, comprising: acquiring information about the structure of the surroundings of the robot in the robot area of use by means of a first sensor unit of the robot and creating a map based on the information acquired; measuring a direction and/or amount of at least one physical vector field variable for one or more poses of the robot by means of a second sensor unit; establishing - based on the measurements carried out for one or more poses of the robot - a preferred direction of the at least one physical vector field variable for the robot area of use or a part thereof; storing the established preferred direction in the map; sending the map to a human-machine interface; and displaying the map through the human-machine interface taking into account the preferred direction of the at least one physical vector field variable established by the robot. acquiring information about the structure of the surroundings of the robot in the robot area of use by means of a first sensor unit of the robot and creating a map based on the information acquired; measuring a direction and/or amount of at least one physical vector field variable for one or more poses of the robot by means of a second sensor unit; establishing - based on the measurements carried out for one or more poses of the robot - a preferred direction of the at least one physical vector field variable for the robot area of use or a part thereof; storing the established preferred direction in the map; sending the map to a human-machine interface; and displaying the map through the human-machine interface taking into account the preferred direction of the at least one physical vector field variable established by the robot.
Device for accommodating cables and the like consisting of a channel-like profile with substantially vertical side walls and at least one cover which can be clamped thereon, which profile and cover are at least partly formed from an electrically conductive material and are provided with an outer layer of less conductive material, wherein the outer layer is at least partly removed on respectively the channel-like profile and the or each cover at the position of a contact area between cover and channel- like profile, an upper longitudinal edge of the channel-like profile is provided with an inward directed channel flange (13A,13B) having a second shoulder (4A,4B) with a substantially vertical clamping face, characterized in that a longitudinal edge of each cover is provided with a cover flange (15A,15B) having a first shoulder (3A, 3B) with a substantially vertical clamping face, from which clamping faces at least the outer layer is removed such that in the closed position of the cover an electrical contact is brought about between cover and channel-like profile.
A medical electrical lead comprising: A. a lead body having a preformed helical bias with a coil diameter; B. a plurality of electrodes; C. wherein the ratio of the coil diameter to the length of each of the plurality of electrodes is at least 4:1 and D. wherein at least a portion of each of the plurality of electrodes is within a single quadrant of the helical bias characterised in that: at least two of the plurality of electrodes are at different radial positions on the helical bias within the single quadrant of the helical bias. A. a lead body having a preformed helical bias with a coil diameter; B. a plurality of electrodes; C. wherein the ratio of the coil diameter to the length of each of the plurality of electrodes is at least 4:1 and D. wherein at least a portion of each of the plurality of electrodes is within a single quadrant of the helical bias at least two of the plurality of electrodes are at different radial positions on the helical bias within the single quadrant of the helical bias.