mhurhangee/ep-ind-claims huggingface dataset:
A pharmaceutically acceptable salt of β-guanidinopropionic acid having a Carr's Index of less than 20 and/or a Hausner ratio of less than 1.25, wherein said pharmaceutically acceptable salt is a salt of β-guanidinopropionic acid and a dicarboxylic acid.
Temperature-dependent switch (10, 40) having a temperature-dependent switching mechanism (15, 41), a housing receiving said switching mechanism (15, 41), said housing comprising an upper part (12, 43) having a first external connection (22, 63) and an electrically conductive lower part (11, 44) having an external base (24, 66), with a carrier plate having arranged on its upper side a heating resistor and two solder pads (27, 29) connected to said heating resistor, wherein the base (24, 66) of the lower part (11, 44) is supported on said heating resistor and the lower part (11, 44) is soldered to the first solder pad and the second solder pad serves as second external connection, characterized in that at said base (24, 66) and lying side-by-side an electrical contact pad to said first solder pad and a thermal contact pad to said heating resistor are embodied, said base (24, 66) is soldered flat onto said first solder pad, and said first solder pad is embodied by at least two tin conductors tracks (33, 34, 25) arranged beside the heating resistor.
A stirring apparatus for stirring a mixture, in particular a liquid containing insoluble particles, said apparatus comprising: a container for containing the mixture; a rotor comprising a shaft and a rotor blade; driving means for rotating said shaft; and at least one flow disturbing object (40; 40a, 40b) between said shaft and a circumferential inner wall of the container, said flow disturbing object being either fixedly mounted such that said flow disturbing object is stationary in said container, or being mounted rotatably around said shaft and being connected to said driving means such that said flow disturbing object is rotated with a rotational speed which is different from the rotational speed of the shaft and/or with a rotational direction which is different from the rotational direction of the shaft; wherein said at least one flow disturbing object (40; 40a, 40b) is located between said shaft and a trajectory followed by the rotor blade of the rotor when in operation; wherein the rotor blade is shaped to direct the mixture inwardly to the at least one flow disturbing object; characterized in that the distance between the at least one flow disturbing object and the shaft of the rotor is smaller than 5 cm; the distance between the at least one flow disturbing object and a trajectory followed by the rotor blade of the rotor, when in operation, is smaller than 5 cm; and the at least one flow disturbing object extends in a radial direction from the shaft to the circumferential inner wall of the container, over a distance which is at least 50 percent of the maximum distance between the shaft and the inner wall of the container. a container for containing the mixture; a rotor comprising a shaft and a rotor blade; driving means for rotating said shaft; and at least one flow disturbing object (40; 40a, 40b) between said shaft and a circumferential inner wall of the container, said flow disturbing object being either fixedly mounted such that said flow disturbing object is stationary in said container, or being mounted rotatably around said shaft and being connected to said driving means such that said flow disturbing object is rotated with a rotational speed which is different from the rotational speed of the shaft and/or with a rotational direction which is different from the rotational direction of the shaft; wherein said at least one flow disturbing object (40; 40a, 40b) is located between said shaft and a trajectory followed by the rotor blade of the rotor when in operation; wherein the rotor blade is shaped to direct the mixture inwardly to the at least one flow disturbing object; characterized in that the distance between the at least one flow disturbing object and the shaft of the rotor is smaller than 5 cm; the distance between the at least one flow disturbing object and a trajectory followed by the rotor blade of the rotor, when in operation, is smaller than 5 cm; and the at least one flow disturbing object extends in a radial direction from the shaft to the circumferential inner wall of the container, over a distance which is at least 50 percent of the maximum distance between the shaft and the inner wall of the container.
A flexible sheet comprising a cutting structure formed on a bent position of the flexible sheet for assisting curvature of the flexible sheet, the cutting structure comprising: two parallel cutting paths (20, 22), each of the cutting paths has a plurality of cutting sections adjacently arranged at intervals to each other, each cutting section is of a liner shape to cut through the flexible sheet, the cutting sections (a1, a2, a3, a4, a5) on one of cutting paths are laterally offset with respect to the cutting sections (b1, b2, b3, b4, b5) on another cutting path, and two ends of the cutting sections of the two parallel cutting paths (20, 22) are oppositely interlaced without connecting with each other, wherein each cutting section is projected to form a first cutting projection (23a, 23b) toward a first direction and a second cutting projection (24a, 24b) toward a second direction, the two second cutting projections (24a, 24b) from any two of oppositely interlaced cutting sections are partially overlapped, and the first direction is vertical to the second direction. two parallel cutting paths (20, 22), each of the cutting paths has a plurality of cutting sections adjacently arranged at intervals to each other, each cutting section is of a liner shape to cut through the flexible sheet, the cutting sections (a1, a2, a3, a4, a5) on one of cutting paths are laterally offset with respect to the cutting sections (b1, b2, b3, b4, b5) on another cutting path, and two ends of the cutting sections of the two parallel cutting paths (20, 22) are oppositely interlaced without connecting with each other, wherein each cutting section is projected to form a first cutting projection (23a, 23b) toward a first direction and a second cutting projection (24a, 24b) toward a second direction, the two second cutting projections (24a, 24b) from any two of oppositely interlaced cutting sections are partially overlapped, and the first direction is vertical to the second direction.
An electrically heated smoking article comprising: a filter layer; a hollow tube layer stacked at a lower end of the filter layer; an aerosol-forming substrate layer stacked below the hollow tube layer and including a mixture of a solid moisture absorbent and a liquid aerosol-forming substrate capsule (1, 1b, 1c, 1d); and a wrapping portion surrounding the filter layer, the hollow tube layer, and the aerosol-forming substrate layer to maintain a stack structure, wherein the liquid aerosol-forming substrate capsule includes a liquid aerosol-forming substrate at a center, a first emulsifier layer completely surrounding the liquid aerosol-forming substrate, and a first coating material layer covering a surface of the first emulsifier layer. a filter layer; a hollow tube layer stacked at a lower end of the filter layer; an aerosol-forming substrate layer stacked below the hollow tube layer and including a mixture of a solid moisture absorbent and a liquid aerosol-forming substrate capsule (1, 1b, 1c, 1d); and a wrapping portion surrounding the filter layer, the hollow tube layer, and the aerosol-forming substrate layer to maintain a stack structure, wherein the liquid aerosol-forming substrate capsule includes a liquid aerosol-forming substrate at a center, a first emulsifier layer completely surrounding the liquid aerosol-forming substrate, and a first coating material layer covering a surface of the first emulsifier layer.
Electric device comprising a circuitry and a control unit comprising measurement pads, wherein the circuitry is a printed circuit board or a foil with integrated electrically conductive tracks and wherein the control unit is designed to determine local temperature values (TV1, TV2, TV3) at N different measurement points of the circuitry, wherein N is equal to or greater than 2 and wherein the control unit is electrically connected to the measurement points by electric conductor elements, wherein the conductor elements (17, 18) form a tree structure that connects all measurement points to the control unit, wherein starting from at least one measurement point forming a respective root of the tree structure a respective pair of conductor elements (17, 18) begins at each measurement point, the pair forming a thermocouple at the respective measurement point and each conductor element (17, 18) of the pair leading to either a measurement point of a lower level of the tree structure or to the control unit, wherein at the control unit N+1 conductor elements (17, 18) of the tree structure are electrically connected to the measurement pads of the control unit and wherein the control unit is designed to determine the respective temperature value (TV1, TV2, TV3) of each measurement point as a function of a respective voltage that is produced between the measurement pads by the thermocouples, characterized in that the circuitry comprises several layers each comprising electrically conductive tracks and the materials (M1, M2) for forming the respective thermocouple are provided by different layers of the circuitry.
An inside air control system comprising: a gas sensor configured to measure a concentration of a target gas contained in inside air in a storage, the inside air control system performing a concentration control operation to control the concentration of the target gas in the inside air based on a measured value obtained by the gas sensor, the inside air control system further comprising: an outdoor air supply passage (255, 281) through which outdoor air is to be supplied to the gas sensor; and a controller; characterized in that the controller is configured to perform a determination operation if the measured value obtained by the gas sensor returns to a predetermined normal range after falling outside the normal range, the determination operation being performed to supply outdoor air through the outdoor air supply passage (255, 281) to the gas sensor to determine whether or not the gas sensor is normal. a gas sensor configured to measure a concentration of a target gas contained in inside air in a storage, the inside air control system performing a concentration control operation to control the concentration of the target gas in the inside air based on a measured value obtained by the gas sensor, the inside air control system further comprising: an outdoor air supply passage (255, 281) through which outdoor air is to be supplied to the gas sensor; and a controller; characterized in that the controller is configured to perform a determination operation if the measured value obtained by the gas sensor returns to a predetermined normal range after falling outside the normal range, the determination operation being performed to supply outdoor air through the outdoor air supply passage (255, 281) to the gas sensor to determine whether or not the gas sensor is normal. an outdoor air supply passage (255, 281) through which outdoor air is to be supplied to the gas sensor; and a controller; characterized in that the controller is configured to perform a determination operation if the measured value obtained by the gas sensor returns to a predetermined normal range after falling outside the normal range, the determination operation being performed to supply outdoor air through the outdoor air supply passage (255, 281) to the gas sensor to determine whether or not the gas sensor is normal.
A threshing apparatus comprising a first threshing drum and a second threshing drum disposed one after the other, a first concave enclosing the first threshing drum and the second threshing drum portion-wise in a circumferential direction, and a second concave enclosing the second threshing drum portion-wise in a circumferential direction, which concaves are displaceable in the radial direction of the threshing drums (4, 5), and at least one crop-processing device (29, 34, 35) arranged at the first concave, characterised in that the first concave and the second concave are pivotable about a common axis connecting the concaves (7, 8) and that the enclosure of the second threshing drum by the first concave and the second concave is approximately identical.
A method for producing a porous metal oxide, the method comprising: preparing a slurry by mixing a metal source, a pore forming agent and an aqueous solvent; drying the slurry to obtain a metal oxide precursor; and sintering the metal oxide precursor to generate a porous metal oxide, wherein the metal source is an organometallic compound or hydrolyzate thereof containing a metal that makes up the porous metal oxide; the pore forming agent is an inorganic compound that generates a gas by decomposing at a temperature equal to or lower than the temperature at which the metal oxide precursor is sintered; and the slurry is prepared using 50 parts by weight or more of the pore forming agent with respect to 100 parts by weight of the metal source. preparing a slurry by mixing a metal source, a pore forming agent and an aqueous solvent; drying the slurry to obtain a metal oxide precursor; and sintering the metal oxide precursor to generate a porous metal oxide, wherein the metal source is an organometallic compound or hydrolyzate thereof containing a metal that makes up the porous metal oxide; the pore forming agent is an inorganic compound that generates a gas by decomposing at a temperature equal to or lower than the temperature at which the metal oxide precursor is sintered; and the slurry is prepared using 50 parts by weight or more of the pore forming agent with respect to 100 parts by weight of the metal source.
A bonding wire for a semiconductor device comprising: a Cu alloy core material; and a Pd coating layer formed on a surface of the Cu alloy core material, characterized in that the Cu alloy core material contains Ni, a concentration of Ni is 0.1 wt.% or more and 1.2 wt.% or less relative to the entire wire, the Cu alloy core material further contains optionally at least one element selected from B, In, Ca, P and Ti, and a concentration of the elements is 3 towt. ppm or more and 100 wt. ppm or less relative to the entire wire, optionally Pt or Pd, and a concentration of Pt or Pd contained in the Cu alloy core material is 0.05 towt.% or more and 1.20 wt.% or less and a balance is Cu and inevitable impurities, and a thickness of the Pd coating layer is 0.015 μm or more and 0.150 μm or less. a Cu alloy core material; and a Pd coating layer formed on a surface of the Cu alloy core material, characterized in that the Cu alloy core material contains Ni, a concentration of Ni is 0.1 wt.% or more and 1.2 wt.% or less relative to the entire wire, the Cu alloy core material further contains optionally at least one element selected from B, In, Ca, P and Ti, and a concentration of the elements is 3 towt. ppm or more and 100 wt. ppm or less relative to the entire wire, optionally Pt or Pd, and a concentration of Pt or Pd contained in the Cu alloy core material is 0.05 towt.% or more and 1.20 wt.% or less and a balance is Cu and inevitable impurities, and a thickness of the Pd coating layer is 0.015 μm or more and 0.150 μm or less.
A vehicle body structure comprising: a resin floor part (55, 55A, 55B) including a bottom wall and a flange portion (55b, 55Ab, 55Bb) bent toward an upper side or a lower side at an end in a vehicle width direction of the bottom wall; and a metal side sill part (25, 25B, 25E) joined to the resin floor part (55, 55A, 55B) at the flange portion (55b, 55Ab, 55Bb), wherein the side sill part (25, 25B, 25E) includes a rim portion, a peak portion, and an intermediate portion (25b, 25c) linking the rim portion to the peak portion, the peak portion and the intermediate portion (25b, 25c) form a protruding portion projecting from the rim portion toward the floor part (55, 55A, 55B), and the flange portion (55b, 55Ab, 55Bb) of the resin floor part (55, 55A, 55B) is joined to the peak portion of the protruding portion, characterized in that the peak portion to be joined to the flange portion (55b, 55Ab, 55Bb) includes an inclined wall that is inclined relative to a vertical direction, and the flange portion (55b, 55Ab, 55Bb) and a bent portion formed between the bottom wall and the flange portion (55b, 55Ab, 55Bb) are in close contacted directly with the inclined wall and have been joined to the inclined wall by an integral molding of the floor part (55, 55A, 55B) and the side sill part (25, 25B, 25E). a resin floor part (55, 55A, 55B) including a bottom wall and a flange portion (55b, 55Ab, 55Bb) bent toward an upper side or a lower side at an end in a vehicle width direction of the bottom wall; and a metal side sill part (25, 25B, 25E) joined to the resin floor part (55, 55A, 55B) at the flange portion (55b, 55Ab, 55Bb), wherein the side sill part (25, 25B, 25E) includes a rim portion, a peak portion, and an intermediate portion (25b, 25c) linking the rim portion to the peak portion, the peak portion and the intermediate portion (25b, 25c) form a protruding portion projecting from the rim portion toward the floor part (55, 55A, 55B), and the flange portion (55b, 55Ab, 55Bb) of the resin floor part (55, 55A, 55B) is joined to the peak portion of the protruding portion, characterized in that the peak portion to be joined to the flange portion (55b, 55Ab, 55Bb) includes an inclined wall that is inclined relative to a vertical direction, and the flange portion (55b, 55Ab, 55Bb) and a bent portion formed between the bottom wall and the flange portion (55b, 55Ab, 55Bb) are in close contacted directly with the inclined wall and have been joined to the inclined wall by an integral molding of the floor part (55, 55A, 55B) and the side sill part (25, 25B, 25E).
A polymer composition comprising a multimodal copolymer of ethylene and one or more alpha-olefins having from 4 to 10 carbon atoms, wherein the multimodal copolymer comprises: from 30 to 70 % by weight, based on the combined amount of components and, of a low molecular weight ethylene polymer selected from ethylene homopolymer and a copolymer of ethylene and one or more alpha-olefins having from 4 to 10 carbon atoms and having a weight average molecular weight of from 5000 to 100000 g/mol, preferably from 10000 to 100000 g/mol, more preferably from 15000 to 80000 g/mol and a density of from 960 to 977 kg/m 3; and from 30 to 70 % by weight, based on the combined amount of components and, of a high molecular weight copolymer of ethylene and one or more alpha-olefins having from 4 to 10 carbon atoms and having a weight average molecular weight of from 100000 to 1000000 g/mol, preferably from 150000 to 500000 g/mol and a density of from 890 to 929 kg/m 3; and wherein the multimodal ethylene copolymer has a density of from 937 to 950 kg/m 3, a melt index MFR 5 of from 0.5 to 2.0 g/10 min, a melt index MFR 2 of from 0.2 to 1.0 g/10 min and a shear thinning index SHI 2.7/210 of from 2 to 30. from 30 to 70 % by weight, based on the combined amount of components and, of a low molecular weight ethylene polymer selected from ethylene homopolymer and a copolymer of ethylene and one or more alpha-olefins having from 4 to 10 carbon atoms and having a weight average molecular weight of from 5000 to 100000 g/mol, preferably from 10000 to 100000 g/mol, more preferably from 15000 to 80000 g/mol and a density of from 960 to 977 kg/m 3; and from 30 to 70 % by weight, based on the combined amount of components and, of a high molecular weight copolymer of ethylene and one or more alpha-olefins having from 4 to 10 carbon atoms and having a weight average molecular weight of from 100000 to 1000000 g/mol, preferably from 150000 to 500000 g/mol and a density of from 890 to 929 kg/m 3; and
Food preparation household electrical appliance with a motorised base comprising: - at least one electric motor, - an electric cord providing an electrical connection between the electric motor and a connector arranged to connect the electric motor to a power distribution network, - a housing element partly forming an outer enclosure of the motorised base and comprising an outlet orifice through which the electric cord leaves the motorised base, characterised in that the housing element comprises a slot connecting the outlet orifice to one edge of the housing element so that the electric cord can be inserted in the outlet orifice by feeding the electric cord in the slot of the housing element when assembling the appliance. - at least one electric motor, - an electric cord providing an electrical connection between the electric motor and a connector arranged to connect the electric motor to a power distribution network, - a housing element partly forming an outer enclosure of the motorised base and comprising an outlet orifice through which the electric cord leaves the motorised base, characterised in that the housing element comprises a slot connecting the outlet orifice to one edge of the housing element so that the electric cord can be inserted in the outlet orifice by feeding the electric cord in the slot of the housing element when assembling the appliance.
Packaging machine having: - a forming station, which forms a pack cavity in a film web, - a first inserting means, which fills the pack cavity with a first product for packaging, and - a first sealing station, which seals a film web to the film web in a first connecting region and has a top tool and a bottom tool, wherein at least one tool (26, 27) has a heated part and is provided with a cutting means, characterized in that provision is made of a cooling means between the heated part and the cutting blade. - a forming station, which forms a pack cavity in a film web, - a first inserting means, which fills the pack cavity with a first product for packaging, and - a first sealing station, which seals a film web to the film web in a first connecting region and has a top tool and a bottom tool, wherein at least one tool (26, 27) has a heated part and is provided with a cutting means,
A trajectory tracking system for an obstacle warning radar, the system comprising: a set of dynamic models, one per expected obstacle type, of an expected trajectory of a point of normal incidence, PNI, per expected obstacle; a trajectory database to store trajectories for a current set of obstacles being tracked; a trajectory handler at least to associate incoming detections to existing trajectories and to update said existing trajectories, said trajectory handler comprising a matchmaker to grow, freeze, kill and start trajectories according to said incoming detections and to generate new trajectories from said dynamic models for said incoming detections not associated with an existing trajectory; a parameter extractor to periodically extract parameters from said trajectories; and a classifier to classify obstacles associated with said trajectories at least based on said parameters of said trajectories and on a dynamic model from said set of dynamic models to which said trajectory is matched. a set of dynamic models, one per expected obstacle type, of an expected trajectory of a point of normal incidence, PNI, per expected obstacle; a trajectory database to store trajectories for a current set of obstacles being tracked; a trajectory handler at least to associate incoming detections to existing trajectories and to update said existing trajectories, said trajectory handler comprising a matchmaker to grow, freeze, kill and start trajectories according to said incoming detections and to generate new trajectories from said dynamic models for said incoming detections not associated with an existing trajectory; a parameter extractor to periodically extract parameters from said trajectories; and a classifier to classify obstacles associated with said trajectories at least based on said parameters of said trajectories and on a dynamic model from said set of dynamic models to which said trajectory is matched.