mhurhangee/ep-ind-claims huggingface dataset:
A system for separating solid particles from a slurry, being a fluid stream having an inlet solids content, the system comprising: a magnetic dynamic settling vessel comprising: - an upper portion comprising external walls, which, in use of the vessel, are vertical, and a narrower lower portion comprising external walls, which, in use of the vessel, are inclined - at least one fluid inlet for introduction of the fluid stream having a starting solids content, - at least one exit for a fluid stream comprising a solids content not greater than the inlet solids content, - at least one exit for a fluid stream comprising a solids content not less than the inlet solids content, and - a feed conduit, which, in use of the vessel, is vertical and extends at least 70% of the distance from the at least one fluid inlet to the bottom of the inclined walls, characterized in that at least a portion of the external walls of the narrower portion of the vessel is magnetized by at least one externally positioned magnet, thereby creating at least one magnetic field within the vessel in the slurry body, and in that the at least one magnetic field is directed such that, in use of the vessel, the solids agglomerate vertically along the magnetic field. a magnetic dynamic settling vessel comprising: - an upper portion comprising external walls, which, in use of the vessel, are vertical, and a narrower lower portion comprising external walls, which, in use of the vessel, are inclined - at least one fluid inlet for introduction of the fluid stream having a starting solids content, - at least one exit for a fluid stream comprising a solids content not greater than the inlet solids content, - at least one exit for a fluid stream comprising a solids content not less than the inlet solids content, and - a feed conduit, which, in use of the vessel, is vertical and extends at least 70% of the distance from the at least one fluid inlet to the bottom of the inclined walls, - an upper portion comprising external walls, which, in use of the vessel, are vertical, and a narrower lower portion comprising external walls, which, in use of the vessel, are inclined - at least one fluid inlet for introduction of the fluid stream having a starting solids content, - at least one exit for a fluid stream comprising a solids content not greater than the inlet solids content, - at least one exit for a fluid stream comprising a solids content not less than the inlet solids content, and - a feed conduit, which, in use of the vessel, is vertical and extends at least 70% of the distance from the at least one fluid inlet to the bottom of the inclined walls, characterized in that at least a portion of the external walls of the narrower portion of the vessel is magnetized by at least one externally positioned magnet, thereby creating at least one magnetic field within the vessel in the slurry body, and in that the at least one magnetic field is directed such that, in use of the vessel, the solids agglomerate vertically along the magnetic field.
A method comprising: transmitting, by a wireless device to a base station, a radio resource control, RRC, message comprising information of radio access capabilities of the wireless device, wherein the information, per frequency band, comprises: a first parameter indicating whether the wireless device supports skipping physical downlink control channel, PDCCH, monitoring for power saving operations; and a second parameter indicating whether the wireless device supports switching PDCCH monitoring among search space groups, SSGs, for the power saving operations. a first parameter indicating whether the wireless device supports skipping physical downlink control channel, PDCCH, monitoring for power saving operations; and a second parameter indicating whether the wireless device supports switching PDCCH monitoring among search space groups, SSGs, for the power saving operations.
System comprising - a motion detection sensor device which is designed to emit electromagnetic radiation and/or ultrasound and to receive echo signals of the electromagnetic radiation and/or ultrasound, - an electrical domestic appliance; and - a control device which is configured and designed to detect a movement pattern of a person located in a room in which the electrical domestic appliance is positioned, on the basis of the echo signals reflected by the person, and is configured and designed to interpret the detected movement pattern in order to determine whether an escape speed (v) of the person from the room is present, and upon determining the escape speed (v), - to completely switch off the electrical domestic appliance automatically, or - to partially switch off the electrical domestic appliance automatically, as a result of which a heating device of the domestic appliance is switched off, and optionally to issue an alarm. - a motion detection sensor device which is designed to emit electromagnetic radiation and/or ultrasound and to receive echo signals of the electromagnetic radiation and/or ultrasound, - an electrical domestic appliance; and - a control device which is configured and designed to detect a movement pattern of a person located in a room in which the electrical domestic appliance is positioned, on the basis of the echo signals reflected by the person, and is configured and designed to interpret the detected movement pattern in order to determine whether an escape speed (v) of the person from the room is present, and upon determining the escape speed (v), - to completely switch off the electrical domestic appliance automatically, or - to partially switch off the electrical domestic appliance automatically, as a result of which a heating device of the domestic appliance is switched off,
A method for limiting the risk of faults in a control system, in particular a safety-relevant control system, said control system containing two fault-containment units (110, 120) with diverse redundancy, wherein each FCU (110, 120) determines a control value, the control system also containing an actuator controller, which computes a new control value from the control value determined by the FCUs (110, 120) in such a way that if the control values determined by the FCUs (110, 120) differ, the object being controlled is brought into a safe state, characterized in that from the two control values determined by two independent fault containment units (110, 120) using diverse redundancy the actuator controller computes a new control value by the application of a weighted-mean algorithm, in such a way that, in spite of the occurrence of a fault in one of the two FCUs (110, 120) an object to be controlled with the control system is brought into a safe state, and wherein the actuator controller is executed on a self-checking hardware.
A method of classifying a signal waveform under test for appropriate numerical measurement, comprising: acquiring waveform data indicative of the signal waveform under test; analysing the waveform data; determining a signal waveform type from the analysed waveform data; and activating an appropriate numerical measurement of the signal waveform under test based upon the determined signal waveform type, wherein determining the signal waveform type from the analysed waveform data includes: determining if the signal is repetitive; determining a number of important bins in an amplitude histogram; determining a relative importance of bins of the amplitude histogram; and selecting a type of signal class based upon the determinations; and wherein, for the signal waveform to be classified as at least one type of signal class, the method further comprises performing either or both: a data activity analysis in which an amount of signal variation in at least a single cycle of the signal waveform under test is compared to a threshold; and/or a matched filter test in which a portion of the signal waveform under test is compared against a template of a known signal type. acquiring waveform data indicative of the signal waveform under test; analysing the waveform data; determining a signal waveform type from the analysed waveform data; and activating an appropriate numerical measurement of the signal waveform under test based upon the determined signal waveform type, wherein determining the signal waveform type from the analysed waveform data includes: determining if the signal is repetitive; determining a number of important bins in an amplitude histogram; determining a relative importance of bins of the amplitude histogram; and selecting a type of signal class based upon the determinations; determining if the signal is repetitive; determining a number of important bins in an amplitude histogram; determining a relative importance of bins of the amplitude histogram; and selecting a type of signal class based upon the determinations; and wherein, for the signal waveform to be classified as at least one type of signal class, the method further comprises performing either or both: a data activity analysis in which an amount of signal variation in at least a single cycle of the signal waveform under test is compared to a threshold; and/or a matched filter test in which a portion of the signal waveform under test is compared against a template of a known signal type. a data activity analysis in which an amount of signal variation in at least a single cycle of the signal waveform under test is compared to a threshold; and/or a matched filter test in which a portion of the signal waveform under test is compared against a template of a known signal type.
A planet carrier system for epicyclic gear train (37, 39, 42) of a vehicle transmission, including a planet carrier body and planet carrier axles which are mounted on the body, each of the planet carrier axles including on the one hand a planet support shaft portion, passing through an orifice of the body and extending from a first side of the body, and on the other hand a protrusion for axially blocking said planet carrier axle relative to the body, said system including in addition a securing device of each planet carrier axle, keeping the protrusion securely resting on the body around the orifice on the second side of the body, characterized in that the planet support shaft portion is tubular and establishes a hollow shaft with central cylindrical barrel for passage of lubricating oil for the planet wheel, cooperating with the protrusion which is hollow, facing the central cylindrical barrel for the passage of oil, so as to permit the supplying of lubricating oil for this barrel, in that the securing device of each planet carrier axle and the protrusion have complementary shapes in support to index angularly the protrusion relative to the body to which the securing device is positioned, in that the securing device of each planet carrier axle comprises a blocking plate which caps the protrusion by complementary shapes and which is secured to the planet carrier body at its second side, in that the blocking plate comprises a housing recess which caps the protrusion, presenting a locking bottom, the shape of which is complementary to the shape of the protrusion and in that the housing recess comprises a flared opening and narrowing towards the locking bottom to index angularly the protrusion during a displacement of the blocking plate guided for mounting relative to the planet carrier body.
A method of calibration of a strip rolling mill for finding a deformation characteristic of the strip rolling mill with respect to a thrust force acting between the rolls of the multi-roll strip rolling mill composed of not less than four rolls including at least a top and a bottom backup rolls (211a, 211b) and a top and a bottom work rolls (213a, 213b) comprising the steps of: giving a load in the vertical direction corresponding to a rolling load to a housing of the strip rolling mill; measuring at least one of the loads in the vertical direction given to an upper and a lower portion of the strip mill housing via load cells (214a, 214b) for measuring a rolling load; giving a load, which is asymmetrical with respect to the upper and lower sides, to the housing of the strip rolling mill by giving an external force in the vertical direction from the outside of the strip rolling mill under the condition that the load in the vertical direction is being given; and measuring the load cell load. giving a load in the vertical direction corresponding to a rolling load to a housing of the strip rolling mill; measuring at least one of the loads in the vertical direction given to an upper and a lower portion of the strip mill housing via load cells (214a, 214b) for measuring a rolling load; giving a load, which is asymmetrical with respect to the upper and lower sides, to the housing of the strip rolling mill by giving an external force in the vertical direction from the outside of the strip rolling mill under the condition that the load in the vertical direction is being given; and measuring the load cell load.
An epicyclic gear reducer comprising a movable first planet pinion that is movable in rotation about a first axis and a first number of satellite pinions meshing with the first planet pinion, the first planet pinion comprising a second number of teeth distributed angularly according to a first angular pitch about the first axis, each satellite pinion being movable about a respective second axis, the second axes and the first axis being concurrent at the same point, two consecutive second axes defining between them a first angle (α1), characterised in that an angular difference between at least one first angle (α1) and a second angle, equal to the result obtained from the division of 360 by the first integer, is in accordance with the equation: | D 2 | = N 4 ∗ P 1 N 1 wherein D2 is the angular difference, N4 is a fourth integer other than zero and | | denotes the absolute value, and in that the second number is not an integer multiple of the first number.
Preparation method for preparing the division of at least two first-order workpieces (A, B, C) by a panel dividing system, in which the workpieces (A, B, C) can be fed to a dividing device in a feed direction by first and second gripping devices (32, 34) that are movable relative to one another on a working line and can be divided by the latter into second-order workpieces (A1-C5) by common dividing processes along respective dividing lines (66, 70), the preparation method being carried out by an automatic computing device and comprising at least the following step: a. providing a dividing plan according to which the first-order workpieces (A, B, C) are to be divided into second-order workpieces (A1-C5), characterized in that it further comprises the following steps: c. in the dividing plan: sorting the second-order workpieces (A1-C5) within the relevant first-order workpiece (A, B, C) according to their length when viewed in the feed direction such that the length increases with increasing distance from the working line of the dividing device; d. creating a plurality of combinations (K1-K6) of two first-order workpieces (A, B, C), the combinations (Ki) differing at least in the assignment of the workpieces (A, B, C) to the first and second gripping device (32, 34); e. identifying such combinations as jointly divisible, if present, in which no dividing line on that workpiece which is assigned to the second gripping device is, when viewed parallel to the feed direction, further away from a dividing line on the other workpiece, which is assigned to the first gripping device, than the maximum distance by which the second gripping device can be moved relative to the first gripping device away from the latter. a. providing a dividing plan according to which the first-order workpieces (A, B, C) are to be divided into second-order workpieces (A1-C5), c. in the dividing plan: sorting the second-order workpieces (A1-C5) within the relevant first-order workpiece (A, B, C) according to their length when viewed in the feed direction such that the length increases with increasing distance from the working line of the dividing device; d. creating a plurality of combinations (K1-K6) of two first-order workpieces (A, B, C), the combinations (Ki) differing at least in the assignment of the workpieces (A, B, C) to the first and second gripping device (32, 34); e. identifying such combinations as jointly divisible, if present, in which no dividing line on that workpiece which is assigned to the second gripping device is, when viewed parallel to the feed direction, further away from a dividing line on the other workpiece, which is assigned to the first gripping device, than the maximum distance by which the second gripping device can be moved relative to the first gripping device away from the latter.
A coating composition, comprising a polymer dispersion, a pigment, and a filler and comprising a powdery opacifying additive in an amount of 1 to 30 % by weight, based on the dry weight of the polymer applied with the polymer dispersion, characterized in that the powdery opacifying additive comprises a polymer of one or more monomers selected from the group consisting of vinyl esters, (meth)acrylic esters, vinylaromatics, olefins, 1,3 dienes and vinyl halides and, if appropriate, further monomers which are copolymerizable therewith, in the form of agglomerated polymer particles with included air-voids, having a volume mean particle size d v of 20 to 80 μm, determined by static light scattering measurement (laser diffraction) using the LS13320 particle size measuring instrument from BeckmanCoulterTM according to the instructions in the user manual.
Bag made of thin plastics film, having a wall thickness of preferably less than 50 μm, as packaging for piece goods, in particular hygiene products, having an approximate cuboid shape and an excess length of film in the shape of a longitudinal strip on an upper side of the bag, which is folded from the film in a double layer and is separated from a filling chamber lying therebelow by a top seam and in which just below the top seam, which is at the top when the bag is in a storage position, a removal opening is provided between the filling chamber and the excess length of film by means of at least one tear line (7, 8, 9), characterised in that the excess length of film forms a cover flap for the removal opening, the cover flap being removed from part of a handle strip.
A diffuser, comprising: a lower element; and an upper element fixed on the lower element, wherein the upper element and the lower element are formed separately; the lower element comprises a lower inner wall and a lower outer wall, and the upper element comprises an upper inner wall and an upper outer wall; the upper inner wall is connected to the lower inner wall to form an internal air-guiding surface; the upper outer wall is connected to the lower outer wall to form an external air-guiding surface; the internal air-guiding surface is disposed opposite to the external air-guiding surface, and an air-guiding channel configured to diffuse an airflow is defined between the internal air-guiding surface and the external air-guiding surface; the upper element further comprises an upper air-guiding wing for connecting the upper inner wall and the upper outer wall, and the lower element further comprising a lower air-guiding wing for connecting the lower inner wall and the lower outer wall; the upper air-guiding wing is connected to the lower air-guiding wing to form an air-guiding wing for connecting the internal air-guiding surface and the external air-guiding surface, wherein the upper air-guiding wing extends from the upper inner wall, that is located at a center of the upper outer wall, to the upper outer wall, and the lower air-guiding wing is connecting the lower inner wall and the lower outer wall by extending from the lower inner wall to the lower outer wall, and the air-guiding wing is shaped like a curved sheet and is streamlined. a lower element; and an upper element fixed on the lower element, wherein the upper element and the lower element are formed separately; the lower element comprises a lower inner wall and a lower outer wall, and the upper element comprises an upper inner wall and an upper outer wall; the upper inner wall is connected to the lower inner wall to form an internal air-guiding surface; the upper outer wall is connected to the lower outer wall to form an external air-guiding surface; the internal air-guiding surface is disposed opposite to the external air-guiding surface, and an air-guiding channel configured to diffuse an airflow is defined between the internal air-guiding surface and the external air-guiding surface; the upper element further comprises an upper air-guiding wing for connecting the upper inner wall and the upper outer wall, and the lower element further comprising a lower air-guiding wing for connecting the lower inner wall and the lower outer wall; the upper air-guiding wing is connected to the lower air-guiding wing to form an air-guiding wing for connecting the internal air-guiding surface and the external air-guiding surface, wherein the upper air-guiding wing extends from the upper inner wall, that is located at a center of the upper outer wall, to the upper outer wall, and the lower air-guiding wing is connecting the lower inner wall and the lower outer wall by extending from the lower inner wall to the lower outer wall, and the air-guiding wing is shaped like a curved sheet and is streamlined.