mhurhangee/ep-ind-claims huggingface dataset:
A display device with a transparent, colored glass-ceramic product, which has a display face on the front and an illumination face on the back, at least one light-emitting element being disposed in the region of the illumination face, characterized in that a light compensation filter in the form of a color layer is introduced directly or indirectly on the glass ceramics, in hat the glass-ceramic body and the light compensation filter form two filters arranged one behind the other, and in that the light-emitting element is a white LED. in that a light compensation filter in the form of a color layer is introduced directly or indirectly on the glass ceramics, in hat the glass-ceramic body and the light compensation filter form two filters arranged one behind the other, and in that the light-emitting element is a white LED.
Apparatus for providing settings of a control system for implementing a spatial distribution of perceptible output in a physical space (1-4; 17), which control system is configured to control at least one output device (6-8,45-48) positioned in that physical space (1,2,3,4;17) and to maintain in memory data representative of locations of the output devices (6-8,45-48) in the physical space (1-4;17), characterized in that the apparatus includes an input device (27,28) for obtaining user input specifying at least one location of one of the output devices (6-8,45-48), the settings being based on the user input, and wherein the input device (27,28) comprises a touch screen device which includes at least one component defining a surface for manipulation by a user by indicating at least a first point on the surface wherein the first point is a point of interaction of the user with the surface, and a sensor arrangement arranged to detect an angular co-ordinate of the first point about at least one axis through a second point of the input device (27,28).
An apparatus comprising: at least two optical columns each capable of creating a pattern on a target portion of a substrate, each optical column having a self-emissive contrast device configured to emit a beam, and a projection system (920, 924, 930) configured to project the beam onto the target portion; for each optical column an actuator to move at least a part of the optical column with respect to the substrate; and an optical sensor device movable in respect of the optical columns and having a range of movement which enables the optical sensor device to move through a projection area of each of the optical columns to measure a beam of each of the optical columns. at least two optical columns each capable of creating a pattern on a target portion of a substrate, each optical column having a self-emissive contrast device configured to emit a beam, and a projection system (920, 924, 930) configured to project the beam onto the target portion; for each optical column an actuator to move at least a part of the optical column with respect to the substrate; and an optical sensor device movable in respect of the optical columns and having a range of movement which enables the optical sensor device to move through a projection area of each of the optical columns to measure a beam of each of the optical columns.
A method for calculating a trailing edge that is to be produced for a rotor blade of an aerodynamic rotor of a wind power installation, wherein - the rotor blade has radial positions with respect to the rotor, - the rotor blade has a local blade profile that is dependent on the radial positions with respect to the rotor - and the trailing edge has a jagged profile having a plurality of spikes, - wherein each spike has a spike height and a spike width, and - the spike height and/or the spike width is calculated as a function of the radial position thereof and/or as a function of the local blade profile of the radial position thereof, characterized in that the calculation of a spike height H of a predetermined radial position is calculated from the associated coherence length scale Λ p 3, taking into account a constant factor c 2, using the formula H = c 2 ⋅ Λ p 3. wherein the coherence length scale Λ p 3 is calculated from the convection velocity U c and the peak frequency f peak according to the following calculation: Λ p 3 = U c 2 ⋅ π ⋅ f peak. - the rotor blade has radial positions with respect to the rotor, - the rotor blade has a local blade profile that is dependent on the radial positions with respect to the rotor - and the trailing edge has a jagged profile having a plurality of spikes, - wherein each spike has a spike height and a spike width, and - the spike height and/or the spike width is calculated as a function of the radial position thereof and/or as a function of the local blade profile of the radial position thereof,
A beam director with improved optics comprising a rotatable first reflector rotatable about a longitudinal axis for receiving a beam from a beam source along the longitudinal axis, the first reflector including a reflective surface at an acute angle to the longitudinal axis for reflecting the beam; an actuator for rotating the first reflector about the longitudinal axis, whereby the first reflector rotates and reflects the beam at a constant angle to the longitudinal axis; a second annular reflector around the longitudinal axis of first reflector as first reflector rotates, configured to reflect the beam towards a work surface at a constant angle thereto, the second annular reflector being formed as a paraboloid such that the beam has the same dimension in the first and second directions when incident on the work surface; a beam corrector for the correction of x and y components of the beam, the beam corrector comprising the second annular reflector, whereby when the beam is activated and the actuator rotates the first reflector, the beam strikes the rotating first reflector rotating the beam and reflecting the beam to the second reflector, which reflects the beam to the work surface. a rotatable first reflector rotatable about a longitudinal axis for receiving a beam from a beam source along the longitudinal axis, the first reflector including a reflective surface at an acute angle to the longitudinal axis for reflecting the beam; an actuator for rotating the first reflector about the longitudinal axis, whereby the first reflector rotates and reflects the beam at a constant angle to the longitudinal axis; a second annular reflector around the longitudinal axis of first reflector as first reflector rotates, configured to reflect the beam towards a work surface at a constant angle thereto, the second annular reflector being formed as a paraboloid such that the beam has the same dimension in the first and second directions when incident on the work surface; a beam corrector for the correction of x and y components of the beam, the beam corrector comprising the second annular reflector, whereby when the beam is activated and the actuator rotates the first reflector, the beam strikes the rotating first reflector rotating the beam and reflecting the beam to the second reflector, which reflects the beam to the work surface.
A bellows pipe, which is a single-layer or double-layer automotive exhaust bellows pipe formed from a raw material pipe having an outside diameter of 28 to 80 mm, wherein the raw material pipe is formed from a ferritic stainless steel sheet comprising 0.015 % by mass or less of C, 1.0 % by mass or less of Si, 1.0 % by mass or less of Mn, 0.04 % by mass or less of P, 0.010 % by mass or less of S, 11 % to 19 % by mass of Cr, 0.015 % by mass or less of N, 0.15 % by mass or less of Al, 1.25 % to 2.5 % by mass of Mo, 0.3 % to 0.7 % by mass of Nb, 0.0003 % to 0.003 % by mass of B; optionally further comprising one or two or more selected from 0.1 % to 0.6 % by mass of Cu, 0.1 % to 0.6 % by mass of Ni, and 0.03 % to 0.6 % by mass of Co; and/or optionally further comprising one or two or more selected from 0.04 % to 1.0 % by mass of V, 0.04 % to 5.0 % by mass of W, 0.04 % to 1.0 % by mass of Ta, and 0.02 % to 1.0 % by mass of Ti; and the balance being Fe and incidental impurities, wherein the thickness of the steel sheet is 0.5 mm or less, wherein the surface roughness Ra of the stainless steel sheet is 0.4 μm or less, and wherein wherein the average crystal grain diameter of the stainless sheet is 35 μm or less. 0.015 % by mass or less of C, 1.0 % by mass or less of Si, 1.0 % by mass or less of Mn, 0.04 % by mass or less of P, 0.010 % by mass or less of S, 11 % to 19 % by mass of Cr, 0.015 % by mass or less of N, 0.15 % by mass or less of Al, 1.25 % to 2.5 % by mass of Mo, 0.3 % to 0.7 % by mass of Nb, 0.0003 % to 0.003 % by mass of B; 0.1 % to 0.6 % by mass of Cu, 0.1 % to 0.6 % by mass of Ni, and 0.03 % to 0.6 % by mass of Co; 0.04 % to 1.0 % by mass of V, 0.04 % to 5.0 % by mass of W, 0.04 % to 1.0 % by mass of Ta, and 0.02 % to 1.0 % by mass of Ti; and
An AC/DC converter circuit comprising: an input terminal for receiving an AC supply voltage; a rectifier adapted to rectify the AC supply voltage received by the input terminal; a driver circuit adapted to supply a DC drive current or voltage to an output of the circuit based on a signal provided to a control terminal of the driver circuit; characterised in that the converter circuit further comprises an AC coupling network connected between the rectifier and the control terminal (CTRL) of the driver circuit, wherein the AC coupling network comprises a capacitor and resistor connected in series, and wherein the AC coupling network is adapted to derive a signal from an AC supply voltage received by the input terminal by sensing the output signal from the rectifier and to supply the derived signal to the control terminal (CTRL) of the driver circuit. an input terminal for receiving an AC supply voltage; a rectifier adapted to rectify the AC supply voltage received by the input terminal; a driver circuit adapted to supply a DC drive current or voltage to an output of the circuit based on a signal provided to a control terminal of the driver circuit; characterised in that the converter circuit further comprises an AC coupling network connected between the rectifier and the control terminal (CTRL) of the driver circuit, wherein the AC coupling network comprises a capacitor and resistor connected in series, and wherein the AC coupling network is adapted to derive a signal from an AC supply voltage received by the input terminal by sensing the output signal from the rectifier and to supply the derived signal to the control terminal (CTRL) of the driver circuit.
Abase station, wherein the base station comprises: a receiving module, configured to receive a resource allocation request sent by first user equipment, UE, wherein the first UE is any UE within coverage of the base station; an allocation module, configured to allocate, if the resource allocation request received by the receiving module carries an idle transmission resource index obtained by the first UE through listening, a transmission resource to the first UE according to the idle transmission resource index, and to allocate, if the resource allocation request does not carry any transmission resource index, a transmission resource to the first UE according to an allocation status of the transmission resource of the base station; and a sending module, configured to send, to the first UE, the transmission resource allocated by the allocation module, wherein the sending module is further configured to send listening setting information to the first UE within the coverage of the base station before the receiving module is configured to receive the resource allocation request sent by the first UE, where the listening setting information is used to notify the UE of a duration of listening. a receiving module, configured to receive a resource allocation request sent by first user equipment, UE, wherein the first UE is any UE within coverage of the base station; an allocation module, configured to allocate, if the resource allocation request received by the receiving module carries an idle transmission resource index obtained by the first UE through listening, a transmission resource to the first UE according to the idle transmission resource index, and to allocate, if the resource allocation request does not carry any transmission resource index, a transmission resource to the first UE according to an allocation status of the transmission resource of the base station; and a sending module, configured to send, to the first UE, the transmission resource allocated by the allocation module, wherein the sending module is further configured to send listening setting information to the first UE within the coverage of the base station before the receiving module is configured to receive the resource allocation request sent by the first UE, where the listening setting information is used to notify the UE of a duration of listening.
A method for producing a solid oxide cell stack structure, said structure comprising an internal manifold, an external manifold or a combination of both, in which said structure has been assembled by arranging a plurality of single solid oxide cells into a stack, each single solid oxide cell containing electrode layers separated by an electrolyte layer, and in which said structure has been initiated, the method comprising the steps of: (a) impregnating a catalyst precursor into the cathode of the solid oxide cell stack only by introducing a solution of the catalyst precursor into the cathode via the internal or external manifold, and (b) subsequently drying the solution of the catalyst precursor, wherein steps (a) and (b) are conducted at least once after the stack has been assembled and initiated, and wherein steps (a) and (b) are conducted again after the stack has been in operation for 1000 hrs or more in order to re-impregnate the stack. (a) impregnating a catalyst precursor into the cathode of the solid oxide cell stack only by introducing a solution of the catalyst precursor into the cathode via the internal or external manifold, and (b) subsequently drying the solution of the catalyst precursor,
A device for continuous solid/liquid extraction comprising at least, from upstream to downstream: a mixer comprising an inlet and an outlet, an extraction coil comprising an inlet and an outlet, the inlet of the coil being connected to the outlet of the mixer, and a phase separator connected to the outlet of the coil, characterized in that it comprises an ultrasonic probe with radial irradiation placed in the center of the coil. a mixer comprising an inlet and an outlet, an extraction coil comprising an inlet and an outlet, the inlet of the coil being connected to the outlet of the mixer, and a phase separator connected to the outlet of the coil, characterized in that it comprises an ultrasonic probe with radial irradiation placed in the center of the coil.
An ultrasonic gas sensor, comprising a housing, and a first ultrasonic transducer and a second ultrasonic transducer separately arranged at a top of an inner chamber of the housing, wherein the first ultrasonic transducer and the second ultrasonic transducer form a V-shaped ultrasonic transmission path in the housing, the housing comprises a bottom plate arranged at a bottom of the inner chamber of the housing to seal the housing and a baffle plate protruding from a lower side of the bottom plate, wherein the first ultrasonic transducer that is arranged at the top of the inner chamber of the housing transmits an ultrasonic signal along the V-shaped ultrasonic transmission path to be reflected by the bottom plate arranged at a bottom of the inner chamber of the housing; the bottom of the housing is provided therein with a gas inlet channel and a gas outlet channel; an upper end of the gas inlet channel extends into a left side of the ultrasonic transmission path, and an upper end of the gas outlet channel extends into a right side of the ultrasonic transmission path; a lower end of the gas inlet channel and a lower end of the gas outlet channel are converged at the lower side of the bottom plate of the housing, and are separated by the baffle plate protruding from the lower side of the bottom plate of the housing; and the lower end of the gas inlet channel and the lower end of the gas outlet channel communicate with a gas sensor mount, wherein gas flows through the gas inlet channel to enter and pass through the V-shaped ultrasonic transmission path to flow into the gas outlet channel.
Acetabular component for hip replacement, said acetabular component being hollow and in the shape of a cup wherein the outer portion comprises a thread for enabling the fixation of said acetabular component in the suitably prepared acetabular cavity of the iliac bone, said thread comprising a discontinuous self-tapping double-thread (20, 21), said acetabular component being provided with a receding upper pole, and said acetabular component being provided on the outer face thereof with a coating promoting osseointegration, and said acetabular component being provided with a polished substantial hemispherical concave inner surface, and said acetabular component being characterised in that - the pitch of the threads (20, 21) is decreasing from the upper pole to the equatorial periphery of the acetabular component, - the thicknesses of the threads (20, 21) are increasing from the upper pole of the acetabular component towards the periphery thereof, - the edge of the threads (20, 21) is sharp on the side of the pole of the acetabular component and rounded or substantially trapezoidal on the side of the equatorial periphery of the acetabular component, the profile of said edge varying continuously and regularly from the pole towards the equatorial periphery. - the pitch of the threads (20, 21) is decreasing from the upper pole to the equatorial periphery of the acetabular component, - the thicknesses of the threads (20, 21) are increasing from the upper pole of the acetabular component towards the periphery thereof, - the edge of the threads (20, 21) is sharp on the side of the pole of the acetabular component and rounded or substantially trapezoidal on the side of the equatorial periphery of the acetabular component, the profile of said edge varying continuously and regularly from the pole towards the equatorial periphery.
A structure of an exhaust turbocharger having a twin scroll type turbine housing which has two exhaust gas entrance channels (03a, 03b) and two exhaust gas bypass passages (3a, 3b) which connect the two exhaust gas entrance channels (03a, 03b) to an exhaust outlet passage of the turbine housing bypassing two scroll passages (30a, 30b) for guiding exhaust gas entering the turbine housing from the two entrance channels (03a, 03b) to a turbine rotor of the turbocharger, the housing having a partition wall partitioning the two bypass passages (3a, 3b) and a seat face, formed at an outlet end side of the two bypass passages (3a, 3b) and comprising an annular seat face surrounding the pair of the exhaust gas bypass passages (3a, 3b), an end face of said partition wall being level with the annular seat face, of the housing, wherein said structure is equipped with a waste gate valve for opening/closing the two exhaust gas bypass passages (3a, 3b) by allowing a plate-like valve body of the waste gate valve to seat against and depart from the seat face, the valve body having a circular plate-shape and being adapted to seat against and depart from said seat face at the outlet end side of the bypass passages by means of a lever connected to a side of the valve body opposite to a seat-side face thereof, the structure being characterized in that a depression (11a, 11a') is formed at the seat-side face of the valve body so that the seat-side face of the valve body does not contact the end face of the partition wall when the valve body seats against the annular seat face of the turbine housing, and in that a gap (S 1, S 2) is formed between the depression (11a, 11a') of the seat-side face of the valve body and the end face of said partition wall when the valve body closes the bypass passages (3a, 3b), so that only a peripheral part of the seat face of the valve body seats against the annular seat face of the turbine housing at the outlet end side of the bypass passages (3a, 3b).
Method for producing a milk or whey powder (800, 801, 802), wherein the method comprises at least the following steps of: I. providing milk as skimmed milk or whole milk or whey; II. thickening the milk or whey by a first evaporation (400, 401, 402) or by a first evaporation (400, 401, 402) and a second evaporation (600, 601, 602); III. drying (700, 701, 702) the thickened milk or whey while providing a milk or whey powder (800, 801, 802), characterized in that after the first and/or second evaporation (400, 401, 402, 600, 601, 602), the milk or whey is sterilized (501, 502) by a centrifugal sterilization separator. I. providing milk as skimmed milk or whole milk or whey; II. thickening the milk or whey by a first evaporation (400, 401, 402) or by a first evaporation (400, 401, 402) and a second evaporation (600, 601, 602); III. drying (700, 701, 702) the thickened milk or whey while providing a milk or whey powder (800, 801, 802),
A method for producing a positive electrode active material layer for a lithium ion battery, wherein the method comprises coating a substrate with a positive electrode mixture slurry containing a positive electrode active material, a first lithium salt, a second lithium salt and a solvent, and drying off the solvent, wherein the first lithium salt is lithium phosphate, wherein the second lithium salt is selected from the group consisting of lithium hydroxide, lithium nitrate, lithium acetate, lithium sulfate and combinations thereof, and wherein the proportion of the second lithium salt with respect to the first lithium salt is 1 to 50 mol% based on the number of lithium atoms.
A threshing system of an agricultural harvester comprising: a rotor, and a rotor cage surrounding the rotor, a threshing space defined between the rotor cage and the rotor, and a transition cone defining an infeed to said rotor cage and said threshing space, the transition cone mounted to said rotor cage at a location upstream of the rotor cage, as viewed in a direction of crop flow through the threshing system, wherein a mating interface between the rotor cage and the transition cone is curved in three different dimensions of a Cartesian coordinate system: characterised in that - the transition cone comprises an upstream edge and a downstream edge, as viewed in a direction of crop flow through the threshing system, the downstream edge comprising a curved top edge and a bottom edge, as viewed in the bottom-to-top direction of the rotor cage, - the mating interface comprises said top edge of the transition cone that is mated to an upstream edge of the rotor cage, - the top edge appears concave when viewed from above and the top center of the top edge protrudes inwardly in an upstream direction with respect to the bottom edge, for maximizing the threshing space. a rotor, and a rotor cage surrounding the rotor, a threshing space defined between the rotor cage and the rotor, and a transition cone defining an infeed to said rotor cage and said threshing space, the transition cone mounted to said rotor cage at a location upstream of the rotor cage, as viewed in a direction of crop flow through the threshing system, wherein a mating interface between the rotor cage and the transition cone is curved in three different dimensions of a Cartesian coordinate system: - the transition cone comprises an upstream edge and a downstream edge, as viewed in a direction of crop flow through the threshing system, the downstream edge comprising a curved top edge and a bottom edge, as viewed in the bottom-to-top direction of the rotor cage, - the mating interface comprises said top edge of the transition cone that is mated to an upstream edge of the rotor cage, - the top edge appears concave when viewed from above and the top center of the top edge protrudes inwardly in an upstream direction with respect to the bottom edge, for maximizing the threshing space.