mhurhangee/ep-ind-claims huggingface dataset:
A device for recovering a precipitated solid inorganic product consisting of phosphorus, nitrogen and an element X selected from the alkaline earth metals Be, Mg, Ca, Sr, Ba, Ra, formed from a first phosphorus- and nitrogen-containing fluid mixed with a second fluid consisting of at least one divalent cation X 2+ selected from Be 2+, Mg 2+, Ca 2+, Sr 2+, Ba 2+, Ra 2+, said device comprising the following means: - at least one first reactor for primary reaction-crystallisation, - at least one apparatus for adjusting the pH, - at least one apparatus for injecting a gas into the first reactor, - at least one apparatus for introducing the first fluid into the first reactor. - at least one apparatus for introducing the second fluid into the first reactor, and - at least one apparatus for separating particles and discharging a secondary remnant, comprising a first sieve with large meshes in its upper part and a second sieve with small meshes in its lower part in order to separate a wet and large precipitated solid from a small and intermediate solid inorganic product, characterised in that said device comprises at least one second reactor for secondary crystallisation-decantation having a spiral geometric shape, said second reactor being connected directly to said first reactor by at least one valve allowing the reaction bed of the first reactor, containing the small and intermediate solid inorganic product becoming gradually bigger, to be transferred into the second reactor for performing therein a secondary crystallisation before precipitating in order to obtain the wet and large precipitated solid inorganic final product, and by a transfer duct connecting the second reactor to the bottom of the first reactor. - at least one first reactor for primary reaction-crystallisation, - at least one apparatus for adjusting the pH, - at least one apparatus for injecting a gas into the first reactor, - at least one apparatus for introducing the first fluid into the first reactor. - at least one apparatus for introducing the second fluid into the first reactor, and - at least one apparatus for separating particles and discharging a secondary remnant, comprising a first sieve with large meshes in its upper part and a second sieve with small meshes in its lower part in order to separate a wet and large precipitated solid from a small and intermediate solid inorganic product,
A sensor cleaning device for cleaning an external vehicle sensor device from above, the sensor cleaning device comprising, a liquid inlet for receiving pressurized liquid, a first and a second liquid outlet (11, 12) for emitting pressurized liquid which is received from the liquid inlet, a chamber for pressurized liquid fluidly connecting the liquid inlet and the first and second liquid outlets (11, 12), wherein each one of the first and second liquid outlets has a width and a length, wherein the length extends in a length direction (L1, L2) and the width extends in a width direction (w1, w2), wherein the length direction is perpendicular to the width direction, and wherein the first and second liquid outlets (11, 12) are configured so that pressurized liquid is emitted transversely through a sectional plane defined by the width direction and the length direction, characterized in that, the length is greater than the width for each first and second liquid outlet so that a first and second line-shaped liquid outlet (11, 12) is formed, and the first and second line-shaped liquid outlets (11, 12) are further configured so that emitted pressurized liquid therefrom during use impinge each other, thereby forming a resulting sheet of liquid. a liquid inlet for receiving pressurized liquid, a first and a second liquid outlet (11, 12) for emitting pressurized liquid which is received from the liquid inlet, a chamber for pressurized liquid fluidly connecting the liquid inlet and the first and second liquid outlets (11, 12), wherein each one of the first and second liquid outlets has a width and a length, wherein the length extends in a length direction (L1, L2) and the width extends in a width direction (w1, w2), wherein the length direction is perpendicular to the width direction, and wherein the first and second liquid outlets (11, 12) are configured so that pressurized liquid is emitted transversely through a sectional plane defined by the width direction and the length direction, characterized in that, the length is greater than the width for each first and second liquid outlet so that a first and second line-shaped liquid outlet (11, 12) is formed, and the first and second line-shaped liquid outlets (11, 12) are further configured so that emitted pressurized liquid therefrom during use impinge each other, thereby forming a resulting sheet of liquid.
A door detection system comprising an elevator car door of an elevator car that moves towards and away from an elevator door frame and a hoistway door that moves towards and away from the elevator door frame, the elevator door detection system comprising: a transmitter-receiver positioned on the elevator car door with a first face configured to transmit a first signal and a second face (130, 140) configured to transmit and receive a second signal; a first receiver positioned on the elevator door frame configured to receive the first transmitted signal; and a reflector positioned on the hoistway door substantially opposite the second transmitting and receiving face when the elevator car door and the hoistway door are closed, wherein the transmitter-receiver includes one or more processors configured to: detect the reflected signal from the reflector, determine whether the hoistway door is properly positioned with respect to the elevator car door based on the detected signal, and send instructions to the elevator detection system to keep the elevator car stationary when the hoistway door is not properly positioned with respect to the elevator car door. a transmitter-receiver positioned on the elevator car door with a first face configured to transmit a first signal and a second face (130, 140) configured to transmit and receive a second signal; a first receiver positioned on the elevator door frame configured to receive the first transmitted signal; and a reflector positioned on the hoistway door substantially opposite the second transmitting and receiving face when the elevator car door and the hoistway door are closed, wherein the transmitter-receiver includes one or more processors configured to: detect the reflected signal from the reflector, determine whether the hoistway door is properly positioned with respect to the elevator car door based on the detected signal, and send instructions to the elevator detection system to keep the elevator car stationary when the hoistway door is not properly positioned with respect to the elevator car door. detect the reflected signal from the reflector, determine whether the hoistway door is properly positioned with respect to the elevator car door based on the detected signal, and send instructions to the elevator detection system to keep the elevator car stationary when the hoistway door is not properly positioned with respect to the elevator car door.
A method of reconstructing at least one print image, representative of a papillary print, from a set of more than two image portions (1, 2, 10) acquired by means of at least one sensor, the reconstruction method comprising the steps, carried out by at least one electrical processing unit, of: - extracting from each image portion of all image portions a set of local points of interest (step E1), said set of local points of interest characterizing the image portion and, for each local point of interest, calculating a descriptor vector that characterizes said local point of interest; - for each pair of two image portions, evaluating from the sets of local points of interest and from the descriptor vectors of said two image portions an association score representative of a probability that the two image portions are contiguous on the print image; - assembling the image portions of a better pair for which the association score is highest, in order to form an assembled fragment (step E4); - repeating the steps above, each time replacing, in all the image portions, the two image portions of the better pair with the assembled fragment, until all the association scores of the remaining pairs are less than or equal to a predetermined threshold, and thus producing an assembly map of the image portions; - merging the image portions according to the assembly map obtained during the assembly steps in order to reproduce the print image (step E5). - extracting from each image portion of all image portions a set of local points of interest (step E1), said set of local points of interest characterizing the image portion and, for each local point of interest, calculating a descriptor vector that characterizes said local point of interest; - for each pair of two image portions, evaluating from the sets of local points of interest and from the descriptor vectors of said two image portions an association score representative of a probability that the two image portions are contiguous on the print image; - assembling the image portions of a better pair for which the association score is highest, in order to form an assembled fragment (step E4); - repeating the steps above, each time replacing, in all the image portions, the two image portions of the better pair with the assembled fragment, until all the association scores of the remaining pairs are less than or equal to a predetermined threshold, and thus producing an assembly map of the image portions; - merging the image portions according to the assembly map obtained during the assembly steps in order to reproduce the print image (step E5).
A sheet-like article for an absorbent article, the sheet-like article comprising a plurality of absorbent units, each absorbent unit including a long base portion having a lateral direction, a longitudinal direction that is longer than the lateral direction, and a thickness direction, and water-absorbent polymer particles that are fixed to a surface of first side of the long base portion, wherein the water-absorbent polymer particles are fixed to the long base portions by an adhesive, the absorbent units being arranged such that the absorbent unit's longitudinal direction is oriented at least in one direction, wherein: the sheet-like article includes, in each of both end portions in the longitudinal direction, a non-slit region in which the plurality of long base portions are connected in the lateral direction, and wherein when the water-absorbent polymer particles absorb a liquid, the water-absorbent polymer particles swell beyond the long base portion's lateral side edge portions that extend along the longitudinal direction, and a position, in the thickness direction, of each long base portion is varied from the position thereof before absorbing the liquid, wherein a distance between the long base portion's both lateral side edge portions that extend along the longitudinal direction is greater than an average particle size of the water-absorbent polymer particles in a state before absorbing a liquid, and is smaller than an average particle size of the water-absorbent polymer particles in a swollen state after absorbing a liquid, wherein there is no intervening member present between the absorbent units adjacent to one another in the lateral direction. the sheet-like article includes, in each of both end portions in the longitudinal direction, a non-slit region in which the plurality of long base portions are connected in the lateral direction, and wherein when the water-absorbent polymer particles absorb a liquid, the water-absorbent polymer particles swell beyond the long base portion's lateral side edge portions that extend along the longitudinal direction, and a position, in the thickness direction, of each long base portion is varied from the position thereof before absorbing the liquid, wherein a distance between the long base portion's both lateral side edge portions that extend along the longitudinal direction is greater than an average particle size of the water-absorbent polymer particles in a state before absorbing a liquid, and is smaller than an average particle size of the water-absorbent polymer particles in a swollen state after absorbing a liquid, wherein there is no intervening member present between the absorbent units adjacent to one another in the lateral direction.
A process for the isomerization of a feedstock which comprises unsaturated linear fatty acids, alkyl esters of unsaturated fatty acids or mixtures thereof, wherein said process comprises subjecting said feedstock to an isomerization reaction in the presence of an acidic catalyst having a three-dimensional channel pore structure wherein at least one channel structure has a pore size diameter of at least 6 Angstrom wherein said acidic catalyst is not loaded with metal, and comprises an acidic zeolite, acid clay or mixtures thereof.
A cooling apparatus comprising a metallic and/or electrically conductive EMC enclosure and a frequency converter (E 1) as well as a plurality of electrically operated units (E 2,..., E n) within the EMC enclosure, said electrically operated units (E 2,..., E n) are formed without power supply and are connected only to said frequency converter for voltage supply, and wherein said electrically operated units (E 2,..., E n) are formed to influence a local temperature in at least one region (30, 31) inside or outside said EMC enclosure, wherein said frequency converter (E 1) directly supplies at least one or more of said units (E 2,..., En) with a respective supply voltage, and wherein said frequency converter (E 1) and said units (E 2,..., En) are respectively formed such that the line-bound and/or field-bound interference (S xy) which is specifically generated by said frequency converter (E 1) or one unit of said units (E 2,..., En) during operation of said cooling apparatus is compensated by a line-bound and/or field-bound interference (S xy) of at least one of the respective other units (E 1,..., E n) partially or completely in terms of its respective interference level (P n), characterized in that the compensation takes place by means of a destructive interference or superposition, wherein at least one or more of said units (E 2,..., En) are fans, in particular internal and external fans.
An assembly comprising: a board level shield (100; 200) including an opening having a perimeter; a thermally-conductive electromagnetic interference absorber (112; 212) configured for attenuating EMI that propagates within the thermally-conductive EMI absorber (112; 212); and a structure (128; 228) positioned relative to the board level shield (100; 200) and the thermally-conductive EMI absorber (112; 212) such that EMI passing through the opening is blocked and redirected by the structure (128; 228) to propagate within the thermally-conductive EMI absorber (112; 212) between the board level shield (100; 200) and the structure (128; 228); wherein at least a portion of the thermally-conductive EMI absorber (112; 212) is disposed outside the perimeter of the opening within a gap or space separating or defined between an upper surface of the board level shield (100; 200) and a lower surface of the structure (128; 228) and configured to be operable for attenuating EMI that propagates within the at least a portion of the thermally-conductive EMI absorber (112; 212) between the upper surface of the board level shield (100; 200) and the lower surface of the structure (128; 228); wherein the thermally-conductive EMI absorber (112; 212) is configured to attenuate the EMI that passes through the opening and propagates within the thermally-conductive EMI absorber (112; 212) before the EMI can emerge from the thermally-conductive EMI absorber. a board level shield (100; 200) including an opening having a perimeter; a thermally-conductive electromagnetic interference absorber (112; 212) configured for attenuating EMI that propagates within the thermally-conductive EMI absorber (112; 212); and a structure (128; 228) positioned relative to the board level shield (100; 200) and the thermally-conductive EMI absorber (112; 212) such that EMI passing through the opening is blocked and redirected by the structure (128; 228) to propagate within the thermally-conductive EMI absorber (112; 212) between the board level shield (100; 200) and the structure (128; 228); wherein at least a portion of the thermally-conductive EMI absorber (112; 212) is disposed outside the perimeter of the opening within a gap or space separating or defined between an upper surface of the board level shield (100; 200) and a lower surface of the structure (128; 228) and configured to be operable for attenuating EMI that propagates within the at least a portion of the thermally-conductive EMI absorber (112; 212) between the upper surface of the board level shield (100; 200) and the lower surface of the structure (128; 228); wherein the thermally-conductive EMI absorber (112; 212) is configured to attenuate the EMI that passes through the opening and propagates within the thermally-conductive EMI absorber (112; 212) before the EMI can emerge from the thermally-conductive EMI absorber.
A method for producing a hot-dip galvanized steel sheet comprising the steps of: hot-dip-galvanizing a steel sheet to form a hot-dip galvanized layer; temper-rolling the steel sheet provided with the hot-dip galvanized layer; and subjecting the temper-rolled steel sheet to an oxidation treatment by applying a buffered acidic solution having a pH of 1.0 to 5.0 including an acetate buffer, a phthalate buffer, a citrate buffer, a succinate buffer, a lactate buffer, a tartrate buffer, a borate buffer or a phosphate buffer in the form of a thin liquid film on the surface of the temper-rolled steel sheet and retaining the temper-rolled steel sheet in contact with the film for 1 to 30 seconds before washing with water. hot-dip-galvanizing a steel sheet to form a hot-dip galvanized layer; temper-rolling the steel sheet provided with the hot-dip galvanized layer; and subjecting the temper-rolled steel sheet to an oxidation treatment by applying a buffered acidic solution having a pH of 1.0 to 5.0 including an acetate buffer, a phthalate buffer, a citrate buffer, a succinate buffer, a lactate buffer, a tartrate buffer, a borate buffer or a phosphate buffer in the form of a thin liquid film on the surface of the temper-rolled steel sheet and retaining the temper-rolled steel sheet in contact with the film for 1 to 30 seconds before washing with water.
An extrusion die having an internal flow passageway and an outlet orifice elongated along a transverse axis, said internal flow passageway leading to said outlet orifice, and an external deckle assembly comprising a deckle base, a seal member, and a first fulcrum cam member, said seal member being moveable between an open position and a sealed position, wherein said seal member when in said sealed position is held forcibly against said outlet orifice and when in said open position is either spaced apart from said outlet orifice or held against said outlet orifice with less force than when in said sealed position, characterized in that the external deckle assembly further comprises a wedge, said wedge being movable along a transverse axis in a first and second direction relative to said first fulcrum cam member, said seal member moves to said sealed position in response to the movement of said wedge along the transverse axis relative to said first fulcrum cam member in said first direction, said seal member moves to said open position in response to the movement of said wedge along the transverse axis relative to said first fulcrum cam member in said second direction, and said wedge rides on said first fulcrum cam member during movement of said wedge along the transverse axis in said first and second directions relative to said first fulcrum cam member.
Agricultural implement, comprising a central frame with a coupling unit for a tractor, at least one support arm (14, 16) which carries a working tool (18, 20), wherein the at least one support arm (14, 16) is attached to the central frame so that it can swivel about a swivel axis (22, 24), wherein, in a working position, the at least one support arm (14, 16) is aligned substantially horizontally in a working angular position thereof, and, in a transport position, is aligned substantially vertically in a transport angular position thereof, and wherein a securing device (100a, 100b) is provided for securing the at least one support arm (14, 16) in the transport position thereof, wherein the securing device (100a, 100b) comprises two positive-locking elements (26a, 27a; 26b, 27b), i.e. a positive-locking element (27a, 27b) on the central frame side and a positive-locking element (26a, 26b) on the support arm side, wherein the positive-locking elements (26a, 27a; 26b, 27b) can be brought into engagement by a relative closing movement when the support arm (14, 16) is in its transport angular position, and can be released from their mutual engagement again by a relative opening movement, in particular opposite to the relative closing movement, wherein the positive-locking elements (26a, 27a; 26b, 27b) are arranged in such a way that a release movement of the support arm (14, 16) relative to the central frame causes the positive-locking elements (26a, 27a; 26b, 27b) to perform the relative opening movement, and that a locking movement of the support arm (14, 16) relative to the central frame causes the positive-locking elements (26a, 27a; 26b, 27b) to perform the relative closing movement, characterized in that the support arm (14, 16) is of a two-part design and has at least a first support arm part (14a, 16a) and a second support arm part (14b, 16b), with the first support arm part (14a, 16a) being pivotally connected to the central frame, and the second support arm part (14b, 16b) being displaceable relative to the first support arm part (14a, 14b) by an extension distance, with the opening and/or locking movements being achieved by moving the second support arm part (14b, 16b).
A device for controlling the speed of a vehicle, including processing means arranged, in response to a validation by a driver of said vehicle of a new speed limit that is to be observed from a known position and is lower than a current control speed, to trigger the application of a selected deceleration profile, suitable for decreasing said current control speed to a new control speed that is at most equal to said new speed limit substantially at said known position, between a first position, comprised between a primary position of said vehicle at a time at which said driver carries out said validation and a second position at which a maximum deceleration profile can be triggered at the latest, and said second position.
An aqueous suspoemulsion comprising a first pesticide which is dissolved in a water-immiscible solvent, a second pesticide in form of pesticide particles and a polymer in form of polymer particles, where the polymer comprises methyl (meth)acrylate and C 2 -C 8 alkyl (meth)acrylate in polymerized form.