mhurhangee/ep-ind-claims huggingface dataset:
A process for preparing an elemental sulphur-containing composition for use as a fertilizer and/or soil improver, the process comprising wet milling elemental sulphur in a liquid to produce a micronized sulphur slurry for application to soil; wherein the process further comprises adding a preventive scavenging additive for fixating sulphur dioxide and hydrogen sulphide gases that are released by the slurry downstream of the mill; wherein the preventive scavenging additive is added prior to or during application of the slurry to the soil, wherein the preventive scavenging additive includes one or more compounds selected from bases; wherein the preventive scavenging additive is used in an amount from 0.05 to 2 wt.%, based upon the total weight of the slurry; and wherein the base is selected from caustic lime (calcium oxide), caustic potash (potassium hydroxide), caustic soda (sodium hydroxide), and aqua ammonia (ammonium hydroxide), or any combination thereof. wherein the process further comprises adding a preventive scavenging additive for fixating sulphur dioxide and hydrogen sulphide gases that are released by the slurry downstream of the mill; wherein the preventive scavenging additive is added prior to or during application of the slurry to the soil, wherein the preventive scavenging additive includes one or more compounds selected from bases; wherein the preventive scavenging additive is used in an amount from 0.05 to 2 wt.%, based upon the total weight of the slurry; and wherein the base is selected from caustic lime (calcium oxide), caustic potash (potassium hydroxide), caustic soda (sodium hydroxide), and aqua ammonia (ammonium hydroxide), or any combination thereof.
A display apparatus, comprising: a transparent display layer, disposed in the top of the display apparatus, comprising a plurality of pixel units for displaying an image, and the transparent display layer further comprising an organic light emitting diode, OLED, layer or a liquid crystal, LC, layer, and a thin film transistor, TFT, layer, wherein the TFT is configured to drive the OLED layer or the LC layer for displaying the images, and wherein the OLED, the LC layer and the TFT layer are transparent; and a light modification layer comprising a substrate body, which has a plurality of first apertures, and a plurality of shutter units; wherein the plurality of shutter units is disposed between the transparent display layer and the substrate body respectively, and the plurality of shutter units is disposed between the plurality of pixel units and the plurality of first apertures respectively; and wherein when at least one of the shutter units is moved to a first position, P1, and misaligns with at least one of the first apertures, an ambient light transmits through the shutter unit and is reflected by the substrate body and when the at least one of the shutter units is moved to a second position, P2, and aligns with the at least one of the first apertures, the ambient light transmits through the shutter unit and the at least one of the first apertures. a transparent display layer, disposed in the top of the display apparatus, comprising a plurality of pixel units for displaying an image, and the transparent display layer further comprising an organic light emitting diode, OLED, layer or a liquid crystal, LC, layer, and a thin film transistor, TFT, layer, wherein the TFT is configured to drive the OLED layer or the LC layer for displaying the images, and wherein the OLED, the LC layer and the TFT layer are transparent; and a light modification layer comprising a substrate body, which has a plurality of first apertures, and a plurality of shutter units;
Method for determining the delivery flow of a motor-driven pump, comprising the following steps: - ascertaining a value for the delivery head and a value for the shaft power of the pump, - calculating a probability density function for the delivery head and a probability density function for the shaft power, - ascertaining a first probability density function for the delivery flow from the probability density function for the delivery head and a delivery head-delivery flow relationship of the pump, - ascertaining the second probability density function for the delivery flow from the probability density function for the power and a power-delivery flow relationship of the pump, - ascertaining a combined probability density function for the delivery flow from the first probability density function for the delivery flow and the second probability density function for the delivery flow, - determining the delivery flow on the basis of the combined probability density function. - ascertaining a value for the delivery head and a value for the shaft power of the pump, - calculating a probability density function for the delivery head and a probability density function for the shaft power, - ascertaining a first probability density function for the delivery flow from the probability density function for the delivery head and a delivery head-delivery flow relationship of the pump, - ascertaining the second probability density function for the delivery flow from the probability density function for the power and a power-delivery flow relationship of the pump, - ascertaining a combined probability density function for the delivery flow from the first probability density function for the delivery flow and the second probability density function for the delivery flow, - determining the delivery flow on the basis of the combined probability density function.
A method of filtering contaminants from a fluid, the method comprising the steps of: directing a feedstream of a fluid containing contaminants into a filter chamber (14a; 314) containing at least one filter element (18a; 318); arranging at least part of the feedstream fluid directed into the filter chamber to flow in one of: A. a forward flow direction where the fluid passes in a first direction through a wall (22a; 322) of the filter element; and B. a reverse flow direction where the fluid passes in a second, opposite direction through the wall of the filter element; directing the filtrate out of the chamber and into a filtrate flowline for collection; subsequently arranging the feedstream fluid directed into the filter chamber to flow through said filter element in the other one of the forward and reverse flow directions, to remove contaminant material from a surface (30a, 32a; 330, 332) of the wall of the element; following removal of said contaminant material by fluid flow in the other one of the forward and reverse flow directions, continuing to direct feedstream fluid through the wall of the filter element in said other direction to thereby filter out contaminants from the fluid during flow in said other direction; and subsequent to removal of said contaminant material, directing the filtrate resulting from flow through the wall of the filter element in said other flow direction out of the chamber and into the filtrate flowline for collection. directing a feedstream of a fluid containing contaminants into a filter chamber (14a; 314) containing at least one filter element (18a; 318); arranging at least part of the feedstream fluid directed into the filter chamber to flow in one of: A. a forward flow direction where the fluid passes in a first direction through a wall (22a; 322) of the filter element; and B. a reverse flow direction where the fluid passes in a second, opposite direction through the wall of the filter element; A. a forward flow direction where the fluid passes in a first direction through a wall (22a; 322) of the filter element; and B. a reverse flow direction where the fluid passes in a second, opposite direction through the wall of the filter element; directing the filtrate out of the chamber and into a filtrate flowline for collection; subsequently arranging the feedstream fluid directed into the filter chamber to flow through said filter element in the other one of the forward and reverse flow directions, to remove contaminant material from a surface (30a, 32a; 330, 332) of the wall of the element; following removal of said contaminant material by fluid flow in the other one of the forward and reverse flow directions, continuing to direct feedstream fluid through the wall of the filter element in said other direction to thereby filter out contaminants from the fluid during flow in said other direction; and subsequent to removal of said contaminant material, directing the filtrate resulting from flow through the wall of the filter element in said other flow direction out of the chamber and into the filtrate flowline for collection.
An exhaust purification system comprising: a NOx-occlusion-reduction-type catalyst that is provided in an exhaust passage of an internal combustion engine, occludes NOx in exhaust when the exhaust is in a lean state, and reduces and purifies the occluded NOx when the exhaust is in a rich state; an exhaust injector that is provided to the exhaust passage, is positioned further upstream than the NOx-occlusion-reduction-type catalyst, and injects fuel into the exhaust passage; and catalyst regeneration means (50, 60) for performing catalyst regeneration processing of reducing and purifying the NOx occluded in the NOx-occlusion-reduction-type catalyst by lowering the exhaust to a predetermined target lambda at least by fuel injection by the exhaust injector; and characterized by inhibition means for inhibiting performance of the catalyst regeneration processing by the catalyst regeneration means in a case where the exhaust cannot be lowered to the target lambda even if the fuel injection is performed at a maximum limit injection amount of the exhaust injector. a NOx-occlusion-reduction-type catalyst that is provided in an exhaust passage of an internal combustion engine, occludes NOx in exhaust when the exhaust is in a lean state, and reduces and purifies the occluded NOx when the exhaust is in a rich state; an exhaust injector that is provided to the exhaust passage, is positioned further upstream than the NOx-occlusion-reduction-type catalyst, and injects fuel into the exhaust passage; and catalyst regeneration means (50, 60) for performing catalyst regeneration processing of reducing and purifying the NOx occluded in the NOx-occlusion-reduction-type catalyst by lowering the exhaust to a predetermined target lambda at least by fuel injection by the exhaust injector; and characterized by inhibition means for inhibiting performance of the catalyst regeneration processing by the catalyst regeneration means in a case where the exhaust cannot be lowered to the target lambda even if the fuel injection is performed at a maximum limit injection amount of the exhaust injector.
Cathode base (1, 21, 31, 41, 51, 61) for an electrolytic cell for producing aluminium, comprising a material (3, 23, 33, 43, 53, 63) arranged on at least one cathode block (7, 27, 37, 47, 57, 67), characterised in that the material (3, 23, 33, 43, 53, 63) comprises a pre-compressed plate based on expanded graphite, the at least one cathode block (7, 27, 37, 47, 57) being arranged at a predetermined distance from at least one other cathode block (7, 27, 37, 47, 57, 67) and/or a side wall (317, 417) of the electrolytic cell in such a way that at least one gap (5, 25, 35, 45, 55, 65, 65) is formed therebetween, the material (3, 23, 33, 43, 53, 63) filling the gap (5, 25, 35, 45, 55, 65).
Loupe comprising an eye cup, intended to be held in front of the eye of a user by his eye contour, and a holder holding at least one lens (19, 22), the loupe including at least one light source and at least one electrical power source, and at least one electronic circuit intended to allow the user to control operation of said light source, characterized in that said eye cup and said holder are generally cylindrical in shape and arranged coaxially while at least partially interpenetrating in order to define therebetween a housing for said electrical power source(s) and said electronic circuit(s); and in that said holder comprises, in the extension of said eye cup, thus forming the end of the external wall of the holder, a section that is cylindrically shaped except for at least one portion that protrudes, in a radial direction, in which is arranged a site, for the light source, having an aperture on the object side and oriented parallel to the axis of the loupe, thus making it possible to illuminate an object to be observed.
Method for the precise measuring operation of a micromechanical rotation rate sensor, comprising at least one deflectively suspended seismic mass (1, 15, 20), at least one drive device for driving the seismic mass (1, 15, 20) and at least one first (2, 11, 18) and one second (3, 12, 19) trimming electrode element, which are jointly assigned directly or indirectly to the seismic mass (1, 15, 20), a first electrical trimming voltage (U TO1, U TLO1, U TRO1, U TU2, U T1H, U T2V) being set between the first trimming electrode element (2, 11, 18) and the seismic mass (1, 15, 20), and a second electrical trimming voltage (U TO2, U TLO2, U TRO2, U TU1, U T2H, U T1V) being set between the second trimming electrode element (3, 12, 19) and the seismic mass (1, 15, 20), wherein the first and the second electrical trimming voltages are set at least as a function of a quadrature parameter (U T) and a resonance parameter (U f), characterized in that the setting of the first and second trimming voltages is performed by means of a control system, wherein the first (U TO1, U TLO1, U TRO1, U TU2, U T1H, U T2V) and the second (U TO2, U TLO2, U TRO2, U TU1, U T2H, U T1V) electrical trimming voltages are set so that the sum of the square of the first electrical trimming voltage (U TO1, U TLO1, U TRO1, U TU2, U T1H, U T2V) multiplied by a first constant factor (α) and of the square of the second electrical trimming voltage (U TO2, U TLO2, U TRO2, U TU1, U T2H, U T1V) multiplied by a second constant factor (β) is set to a first reference value of the resonance parameter (U f) in relation to the square, and in that, in addition, the difference of the square of the first electrical trimming voltage (U TO1, U TLO1, U TRO1, U TU2, U T1H, U T2V) multiplied by a third constant factor (γ) and of the square of the second electrical trimming voltage (U TO2, U TLO2, U TRO2, U TU1, U T2H, U T1V) multiplied by a fourth constant factor (δ) is set to a first reference value of the quadrature parameter (U T) in relation to the square, wherein the quadrature parameter (U T) is determined at defined times and/or periodically and/or continuously as a function of and/or from a quadrature signal and the resonance parameter (U F) is determined at defined times and/or periodically and/or continuously as a function of and/or from a frequency of a readout mode or from a frequency difference between a readout mode and a drive mode, wherein the quadrature parameter is a manipulated variable in the control system.
An X-ray detector which is configured to be connected wirelessly to a central control unit, the X-ray detector comprising: a data transceiver configured to wirelessly receive identification information of the central control unit from the central control unit when the X-ray detector is in a sharing mode in which the X-ray detector exchanges certain data with the central control unit; and a processor configured to perform configuration based on the ID information, CHARACTERIZED BY the X-ray detector further comprising a memory configured to store connection history information including connection history information comprising information about a history of connections of the central control unit to the X-ray detector, wherein the processor is adapted to perform the configuration of the central control unit based on the ID information and the connection history information. a data transceiver configured to wirelessly receive identification information of the central control unit from the central control unit when the X-ray detector is in a sharing mode in which the X-ray detector exchanges certain data with the central control unit; and a processor configured to perform configuration based on the ID information, CHARACTERIZED BY the X-ray detector further comprising a memory configured to store connection history information including connection history information comprising information about a history of connections of the central control unit to the X-ray detector, wherein the processor is adapted to perform the configuration of the central control unit based on the ID information and the connection history information.
A pneumatic tire, comprising a tread and a wing or sidewall adjacent to the tread, the tread being formed from a tread rubber composition that has an amount of aluminum hydroxide having an average particle size of 0.69 μm or smaller and a nitrogen adsorption specific surface area of 10 to 50 m 2 /g of 1 to 60 parts by mass, and a net sulfur content derived from crosslinking agents of 0.56 to 1.15 parts by mass, each per 100 parts by mass of a rubber component in the tread rubber composition, the wing or sidewall being formed from a wing or sidewall rubber composition that has a net sulfur content derived from crosslinking agents of 1.3 to 2.5 parts by mass per 100 parts by mass of a rubber component in the wing or sidewall rubber composition, the net sulfur content derived from crosslinking agents in the tread rubber composition and the net sulfur content derived from crosslinking agents in the wing or sidewall rubber composition satisfying the following relationship: (the net sulfur content derived from crosslinking agents in the wing or sidewall rubber composition)/(the net sulfur content derived from crosslinking agents in the tread rubber composition) ≤ 2.5.
A head unit for use with a combine harvester, the head unit configured to be moved over the ground of a field in a direction of travel T and to engage and harvest crop material on the ground, the head unit including a frame having a forward or leading edge facing the direction of travel T, a cutter bar assembly coupled to the frame proximate the leading edge, and one or more skid plates coupled to the frame, with the head unit resting on and being supported by the one or more skid plates, the skid plate comprising a body and a contact surface at least partially defined by the body and being the surface of the skid plate in contact with the ground, the contact surface being substantially convex and including a leading edge facing the direction of travel and a trailing edge opposite the leading edge, characterized in that the contact surface at least partially defining a groove, wherein the groove defines a groove width and wherein the groove width increases as the groove extends away from the leading edge.
A display device, comprising: a first panel; a second panel which is provided opposed to the first panel; a transparent organic layer (3, 7) which is provided between the first panel and the second panel, characterized in that the transparent organic layer (3, 7) comprises: an outer organic layer which is shaped like a frame to surround an effective display area of the first panel and which is formed from a cured organic material; and an inner organic layer which is formed from the same material as the outer organic layer to fill a space surrounded by the frame. a first panel; a second panel which is provided opposed to the first panel; a transparent organic layer (3, 7) which is provided between the first panel and the second panel, characterized in that the transparent organic layer (3, 7) comprises: an outer organic layer which is shaped like a frame to surround an effective display area of the first panel and which is formed from a cured organic material; and an inner organic layer which is formed from the same material as the outer organic layer to fill a space surrounded by the frame. an outer organic layer which is shaped like a frame to surround an effective display area of the first panel and which is formed from a cured organic material; and an inner organic layer which is formed from the same material as the outer organic layer to fill a space surrounded by the frame.
A method for manufacturing a made-to-measure prosthetic sleeve from a thermoformable preform comprising the following successive steps: - providing a reduced positive mould corresponding to the copy of the shape of the stump of the residual limb reduced by 3 to 5% of all of the circumferences of the copy of the shape of the stump, - providing a preform made from a thermoformable elastomer base, said preform presenting an open proximal end, a closed distal end, a uniform wall thickness and a hardness of more than 40 Shore A, - placing the preform on the reduced positive mould to form a preform/ mould assembly, - shaping the preform by heating the preform/mould assembly to a temperature comprised between 60°C and 150°C, preferably between 90°C and 120°C to obtain a prosthetic sleeve. - providing a reduced positive mould corresponding to the copy of the shape of the stump of the residual limb reduced by 3 to 5% of all of the circumferences of the copy of the shape of the stump, - providing a preform made from a thermoformable elastomer base, said preform presenting an open proximal end, a closed distal end, a uniform wall thickness and a hardness of more than 40 Shore A, - placing the preform on the reduced positive mould to form a preform/ mould assembly, - shaping the preform by heating the preform/mould assembly to a temperature comprised between 60°C and 150°C, preferably between 90°C and 120°C to obtain a prosthetic sleeve.