mhurhangee/ep-ind-claims huggingface dataset:
Pellets comprising a fluororesin, each of the pellets, placed on a horizontal surface, having a substantially circular outline or a substantially elliptic outline and having a major axis D 1 of 3.1 mm or shorter and a minor axis D 2 of 3.1 mm or shorter when observed in the direction normal to the horizontal surface, characterized in that the pellets satisfy the following formula: D 1 + D 2 / 2 L = 1.8 to 2.6 wherein D 1 represents the major axis, D 2 represents the minor axis, and L represents the height from the horizontal surface to the highest point of the pellet, and the pellets satisfy that in a pellet fluidity test, 300 g of the pellets are discharged within 9.2 seconds, wherein the measurement of pellet diameter is carried out as follows: 20 g of the resulting pellets are weighed, the major axis D 1 and minor axis D 2 of each pellet relative to the horizontal surface, and the height L from the horizontal surface to the highest point of the pellet are measured with a caliper, and the average values of the measured values of the pellets are calculated, and wherein the pellet fluidity test is carried out as follows: 300 g of pellets are fed into a hopper of an apparent density tester according to JIS K 6891 or JIS K 6892, the cover of outlet is pulled off, and the period of time until the pellets entirely flowed out is measured. each of the pellets, placed on a horizontal surface, having a substantially circular outline or a substantially elliptic outline and having a major axis D 1 of 3.1 mm or shorter and a minor axis D 2 of 3.1 mm or shorter when observed in the direction normal to the horizontal surface, characterized in that the pellets satisfy the following formula: D 1 + D 2 / 2 L = 1.8 to 2.6 wherein D 1 represents the major axis, D 2 represents the minor axis, and L represents the height from the horizontal surface to the highest point of the pellet, and the pellets satisfy that in a pellet fluidity test, 300 g of the pellets are discharged within 9.2 seconds, wherein the measurement of pellet diameter is carried out as follows: 20 g of the resulting pellets are weighed, the major axis D 1 and minor axis D 2 of each pellet relative to the horizontal surface, and the height L from the horizontal surface to the highest point of the pellet are measured with a caliper, and the average values of the measured values of the pellets are calculated, and wherein the pellet fluidity test is carried out as follows: 300 g of pellets are fed into a hopper of an apparent density tester according to JIS K 6891 or JIS K 6892, the cover of outlet is pulled off, and the period of time until the pellets entirely flowed out is measured.
A formulation for forming a photoactive layer of an organic photosensitive electronic device comprising an anode, a cathode and a photoactive layer between the cathode and the anode, the formulation comprising an n-type organic semiconductor, a p-type organic semiconductor and a solvent mixture comprising a first solvent and a second solvent wherein the first solvent is a trimethylbenzene and the second solvent is a benzene substituted with two or more substituents including at least two C 1-6 alkoxy groups.
Household appliance with a wall and a reinforcement part that is embodied separately from the wall and is arranged on an inner side of the wall, wherein the reinforcement part is embodied with a thin wall region, wherein the thin wall region has a reduced wall thickness compared to the thickness of the reinforcement part outside the thin wall region, and a hole is embodied with a thread for screwing in a screw to generate a screw connection between the wall and the reinforcement part in the thin wall region and the thin wall region is a punched and pressed region, and characterised in that a handle is screwed onto the wall on the side of the wall lying opposite the reinforcement part using the screw connection.
A method of making an irradiated paper product, the method comprising treating a paper product comprising a first carbohydrate-containing material having a first molecular weight with at least 0.25 Mrad of ionizing radiation to provide an irradiated paper product comprising a second carbohydrate-containing material having a second molecular weight higher than the first molecular weight, wherein treating comprises irradiating the paper product with electron beam radiation, and electrons in the electron beam have an energy of from 0.25 MeV to 7.5 MeV.
Device for comminuting material, comprising - a grinding container, which has end faces (20, 21) opposite each other in the axial direction, between which there extends at least one screen basket (6, 7, 8) which, together with other screen baskets (6, 7, 8) or an outer wall likewise extending between the end faces (20, 21), defines at least one annular space (27, 28, 29), the one or an innermost screen basket delimiting a grinding space, in which grinding elements are arranged, - a bearing for holding the grinding container rotatably on a foundation, and - drive means for rotating the grinding container about a horizontal axis in a grinding direction, characterized in that the bearing has rotatably fixed rollers and the grinding container rests on the rollers, wherein a maintenance opening which permits a view into the grinding container is formed on at least one end face (21, 22), wherein the end faces are formed as end discs (20, 21) and each delimit a hollow space, which is connected to the grinding container via an inlet opening (30, 31) and is equipped with conveying means for discharging ground material out of an outlet opening (23, 24). - a grinding container, which has end faces (20, 21) opposite each other in the axial direction, between which there extends at least one screen basket (6, 7, 8) which, together with other screen baskets (6, 7, 8) or an outer wall likewise extending between the end faces (20, 21), defines at least one annular space (27, 28, 29), the one or an innermost screen basket delimiting a grinding space, in which grinding elements are arranged, - a bearing for holding the grinding container rotatably on a foundation, and - drive means for rotating the grinding container about a horizontal axis in a grinding direction,
A male electrical contact of twist-pin type, comprising an electrical terminal formed by a bundle comprising three central strands made of nickel or made of copper and 7 peripheral strands made of Ni-Cr-Ti-Al alloy and a bulge in the central portion, said alloy consisting of, as percentage by weight relative to the total weight of the alloy: chromium: 15% - 25%; titanium: 1.5% - 3.5%; cobalt: 0 - 25%; aluminum: 1% - 2%; molybdenum: 0 - 11%; nickel: balance; and the unavoidable impurities. the peripheral strands being helically wound around the central strands, the three central strands being assembled with a pitch of between 1 and 5 mm left, and the seven peripheral strands being assembled around with a pitch of between 1 and 5 mm right. chromium: 15% - 25%; titanium: 1.5% - 3.5%; cobalt: 0 - 25%; aluminum: 1% - 2%; molybdenum: 0 - 11%; nickel: balance; and the unavoidable impurities. the peripheral strands being helically wound around the central strands, the three central strands being assembled with a pitch of between 1 and 5 mm left, and the seven peripheral strands being assembled around with a pitch of between 1 and 5 mm right.
A can decorator having a blanket wheel and a plurality of inking stations, one or more of the inking stations comprising: a rotatable shaft geared to the blanket wheel and a print cylinder mounted on the shaft for rotation with the shaft during printing operations the one or more of the inking stations characterized by further comprising: a rotary encoder for determining an angular position of the print cylinder relative to the rotatable shaft during set-up and for providing an electrical signal indicative of the angular position to an operator interface device and an adjustment mechanism for adjusting the angular position of the print cylinder on the rotatable shaft during set-up, using the detected angular position, and for fixing the angular position for printing operations. a rotatable shaft geared to the blanket wheel and a print cylinder mounted on the shaft for rotation with the shaft during printing operations the one or more of the inking stations characterized by further comprising: a rotary encoder for determining an angular position of the print cylinder relative to the rotatable shaft during set-up and for providing an electrical signal indicative of the angular position to an operator interface device and an adjustment mechanism for adjusting the angular position of the print cylinder on the rotatable shaft during set-up, using the detected angular position, and for fixing the angular position for printing operations. a rotary encoder for determining an angular position of the print cylinder relative to the rotatable shaft during set-up and for providing an electrical signal indicative of the angular position to an operator interface device and an adjustment mechanism for adjusting the angular position of the print cylinder on the rotatable shaft during set-up, using the detected angular position, and for fixing the angular position for printing operations.
A monitoring system for determining the location of a pipe burst of a pipeline filled with a transport medium, the pipeline comprising an exterior plastic pipe with an interior metal pipe surrounded by insulation material, wherein at least a first measuring line and a second measuring line are provided in the insulation material and wherein the monitoring system exhibits a measuring device which is connected to a first end of the first measuring line and a first end of the second measuring line and, by applying a supply voltage and measuring a measuring voltage (18, 20) on the measuring lines (1, 2), is configured for determining the location of the pipe burst of the pipeline, characterized in that a limit reversing switch is connected to a second end of the first measuring line and to a second end of the second measuring line and, being controlled by the measuring device, is switchable between a first switch position and a second switch position, wherein the second ends (22, 23) of the measuring lines (1, 2) in the first switch position are connected for determining the location of the pipe burst and wherein each of the second ends (22, 23) of the measuring lines (1, 2) in the second switch position is connected via a diode poled in the reverse direction to the interior metal pipe or the earth potential, respectively.
A rotary wing aircraft comprising: a fuselage tail boom extending longitudinally along a longitudinal axis, the fuselage tail boom having a tail boom inner surface (2.1), which delimits the interior of the fuselage tail boom, and a tail boom outer surface (2.2) opposite the tail boom inner surface (2.1); a tail cone extending longitudinally along the longitudinal axis; an interface frame in turn having: a connecting sleeve (3.1) extending longitudinally along the longitudinal axis; the connecting sleeve (3.1) comprising a connecting sleeve inner surface (3.1.3), which delimits the interior of the connecting sleeve (3.1), and a connecting sleeve outer surface (3.1.4) opposite the connecting sleeve inner surface (3.1.3); the connecting sleeve outer surface (3.1.4) overlapping the tail boom inner surface (2.1) so that the connecting sleeve (3.1) and the fuselage tail boom fit axially; the connecting sleeve (3.1) and the fuselage tail boom being directly attached by means of at least one boom mechanical connexion, and a connecting structure (3.2) directly attached to the tail cone by means of at least one tail cone mechanical connexion, characterized in that the interface frame, fuselage tail boom and tail cone are made of the same composite material the interface frame joining the fuselage tail boom and the tail cone; the boom mechanical connexion is shear loaded and comprises a boom bushing lining a boom through-hole drilled in the fuselage tail boom and a frame bushing lining a frame through-hole drilled in the interface frame; the frame bushing being provided with a frame flange (4.1) extending over the connecting sleeve outer surface (3.1.4), and the tail boom bushing being provided with a boom flange (5.1) extending over the tail boom inner surface (2.1) such that the frame flange (4.1) and the boom flange (5.1) form a stop for one another resulting in separating the connecting sleeve outer surface (3.1.4) from the tail boom inner surface (2.1) by a circumferential gap; the boom mechanical connexion has a bolt; the frame bushing has a same inner bushing diameter (d) and same bushing axis as the boom bushing, thereby forming a bolt passageway thorough which the bolt pierces the connecting sleeve (3.1) and the fuselage tail boom.
Power module, having: - at least one heat sink, - at least one power unit, wherein the power unit comprises at least one semiconductor element and a substrate, - a device for enclosing the power unit formed at least partially inside and/or on the heat sink and for centring a control unit with respect to the power unit, wherein the device comprises: - a frame, wherein the frame surrounds the substrate at least partially, preferably completely, - at least one first projecting section, wherein the first projecting section engages in a recess or an opening of the heat sink, - at least one second projecting section, wherein the second projecting section is designed to engage in a recess or an opening or a notch of a control unit having at least one electronic component, characterised in that an outline of the second projecting section is at least essentially star-shaped when viewed in cross-section, wherein the star has at least a first leg, a second leg and a third leg. - at least one heat sink, - at least one power unit, wherein the power unit comprises at least one semiconductor element and a substrate, - a device for enclosing the power unit formed at least partially inside and/or on the heat sink and for centring a control unit with respect to the power unit, wherein the device comprises: - a frame, wherein the frame surrounds the substrate at least partially, preferably completely, - at least one first projecting section, wherein the first projecting section engages in a recess or an opening of the heat sink, - at least one second projecting section, wherein the second projecting section is designed to engage in a recess or an opening or a notch of a control unit having at least one electronic component,
A bone anchor (1, 101, 201), comprising: a main body defining a longitudinal axis and comprising: a head (6, 106, 206); and a shank; at least one longitudinal recess (3, 103, 203) having a first end formed at the head (6, 106, 206) and a second end formed at the shank, the recess (3, 103, 203) extending from the first end through a portion of the head (6, 106, 206) and along a portion of the shank to the second end, wherein the recess (3, 103, 203) is configured to receive therein a pin-shaped element (4, 104, 204); a stop being provided at the second end of the recess (3, 103, 203), said stop being configured to engage or abut a distal end portion of the pin-shaped element (4, 104, 204); a locking structure (5, 105, 205) being provided adjacent the first end of the recess (3, 103, 203), said locking structure (5, 105, 205) being configured to engage a proximal end portion (42, 142, 242) of the pin-shaped element (4, 104, 204) and exert a biasing force thereon towards the stop such as to stress and bend an intermediate portion of the pin-shaped element (4, 104, 204) in a transverse direction away from the shank. a main body defining a longitudinal axis and comprising: a head (6, 106, 206); and a shank; a head (6, 106, 206); and a shank; at least one longitudinal recess (3, 103, 203) having a first end formed at the head (6, 106, 206) and a second end formed at the shank, the recess (3, 103, 203) extending from the first end through a portion of the head (6, 106, 206) and along a portion of the shank to the second end, wherein the recess (3, 103, 203) is configured to receive therein a pin-shaped element (4, 104, 204); a stop being provided at the second end of the recess (3, 103, 203), said stop being configured to engage or abut a distal end portion of the pin-shaped element (4, 104, 204); a locking structure (5, 105, 205) being provided adjacent the first end of the recess (3, 103, 203), said locking structure (5, 105, 205) being configured to engage a proximal end portion (42, 142, 242) of the pin-shaped element (4, 104, 204) and exert a biasing force thereon towards the stop such as to stress and bend an intermediate portion of the pin-shaped element (4, 104, 204) in a transverse direction away from the shank.
Process to prepare N,N'-di(2-hydroxybenzyl) ethylenediamine-N,N'-diacetic acid (HBED) and salts thereof comprising a reaction between formaldehyde, ethylenediamine diacetic acid or a salt thereof (EDDA) and phenol at a pH of between 3 and 7 and a temperature below 60°C, wherein the reaction mixture contains 0.2 to 1.1 molar equivalents of alkali metal ions on the basis of the molar amount of EDDA.
Dispersion of particles of at least one polymer that is surface-stabilized with a stabilizer in a non-aqueous medium containing at least one hydrocarbon-based oil, the polymer of the particles being a C1-C4 alkyl (meth)acrylate polymer; the stabilizer being an isobornyl (meth)acrylate polymer chosen from isobornyl (meth)acrylate homopolymer and statistical copolymers of isobornyl (meth)acrylate and of C1-C4 alkyl (meth)acrylate present in an isobornyl (meth)acrylate/C1-C4 alkyl (meth)acrylate weight ratio of greater than 4.
A liquid electrophotographic ink, comprising: a) a carrier liquid, and b) a pigment-polymer blend composition dispersed in the carrier liquid, the pigment-polymer blend composition comprising a pigment and a polymer blend of at least three distinct polymers, the polymer blend comprising: i) a first polymer having a melt flow rate of about 20 to about 70 g/10 min and a Vicat softening point of about 60°C to about 70°C, ii) a second polymer having a melt flow rate of about 80 to about 120 g/10 min, and iii) a third polymer having an acidity of about 160 to about 230 mg KOH/g and a melt flow rate of at least 500 g/10 min, wherein the liquid electrophotographic ink is formulated for printing in a liquid electrophotographic printer; and, wherein said melt flow rate is measured per ASTM D1238-04c Standard Test Method for Melt Flow Rates of Thermoplastics by Extrusion Plastometer; and, wherein said Vicat softening point is measured as outlined in ASTM D1525. a) a carrier liquid, and b) a pigment-polymer blend composition dispersed in the carrier liquid, the pigment-polymer blend composition comprising a pigment and a polymer blend of at least three distinct polymers, the polymer blend comprising: i) a first polymer having a melt flow rate of about 20 to about 70 g/10 min and a Vicat softening point of about 60°C to about 70°C, ii) a second polymer having a melt flow rate of about 80 to about 120 g/10 min, and iii) a third polymer having an acidity of about 160 to about 230 mg KOH/g and a melt flow rate of at least 500 g/10 min, i) a first polymer having a melt flow rate of about 20 to about 70 g/10 min and a Vicat softening point of about 60°C to about 70°C, ii) a second polymer having a melt flow rate of about 80 to about 120 g/10 min, and iii) a third polymer having an acidity of about 160 to about 230 mg KOH/g and a melt flow rate of at least 500 g/10 min,
A method of measuring impurities in a gas sample containing a flow of carrier gas and time-separated peaks of said impurities, the method comprising: a) providing a plasma-based optical emission gas detector comprising a plasma chamber and a plasma-generating mechanism comprising a pair of discharge electrodes (26a, 26b) and an alternating current generator; providing an alternating discharge driving signal to the discharge electrodes at an adjustable frequency; b) circulating the gas sample through the plasma chamber; c) generating a plasma from the carrier gas in the plasma chamber using the plasma-generating mechanism; d) continuously measuring an optical emission from the plasma and adjusting the frequency of the discharge driving signal in real time to maintain the measured optical emission constant; e) introducing the time-separated peaks of said impurities in the flow of carrier gas; and f) monitoring the frequency of the discharge driving signal and detecting the impurities through variations in said frequency. a) providing a plasma-based optical emission gas detector comprising a plasma chamber and a plasma-generating mechanism comprising a pair of discharge electrodes (26a, 26b) and an alternating current generator; providing an alternating discharge driving signal to the discharge electrodes at an adjustable frequency; b) circulating the gas sample through the plasma chamber; c) generating a plasma from the carrier gas in the plasma chamber using the plasma-generating mechanism; d) continuously measuring an optical emission from the plasma and adjusting the frequency of the discharge driving signal in real time to maintain the measured optical emission constant; e) introducing the time-separated peaks of said impurities in the flow of carrier gas; and f) monitoring the frequency of the discharge driving signal and detecting the impurities through variations in said frequency.
An ophthalmic composition comprising: from 0.5 ppm to 1.3 ppm alexidine; and from 1 ppm to 5.5 ppm chlorhexidine, wherein the composition exhibits synergistic antimicrobial activity against Candida albicans by reducing a concentration of Candida albicans by at least 1.2 log. from 0.5 ppm to 1.3 ppm alexidine; and from 1 ppm to 5.5 ppm chlorhexidine, wherein the composition exhibits synergistic antimicrobial activity against Candida albicans by reducing a concentration of Candida albicans by at least 1.2 log.
A method of inspecting a joint that connects two parts, the method comprising: directing an ultrasonic beam from an ultrasonic beam transmitter at a joint that connects two parts, the ultrasonic beam forming an angle between at least 14 degrees and at most 21 degrees with a joint axis of the joint, the joint axis extending through the width of the joint, wherein the ultrasonic beam passes through a joint thickness of the joint; and determining a quality of the joint based, in part, on a difference between a strength of the ultrasonic beam directed at the joint and a strength of a portion of the ultrasonic beam that passed through the joint thickness from a first edge of a rectangular cross-section of the joint diagonally across the joint to an opposite edge of the joint, the portion of the ultrasonic beam being detected by an ultrasonic receiver directed towards a location on an opposite end of the joint to the ultrasonic beam transmitter. directing an ultrasonic beam from an ultrasonic beam transmitter at a joint that connects two parts, the ultrasonic beam forming an angle between at least 14 degrees and at most 21 degrees with a joint axis of the joint, the joint axis extending through the width of the joint, wherein the ultrasonic beam passes through a joint thickness of the joint; and determining a quality of the joint based, in part, on a difference between a strength of the ultrasonic beam directed at the joint and a strength of a portion of the ultrasonic beam that passed through the joint thickness from a first edge of a rectangular cross-section of the joint diagonally across the joint to an opposite edge of the joint, the portion of the ultrasonic beam being detected by an ultrasonic receiver directed towards a location on an opposite end of the joint to the ultrasonic beam transmitter.