mhurhangee/ep-ind-claims huggingface dataset:
Medical optical force sensing assembly comprising: a light source, which defines a linear optical light source axis, an optical sensor, which faces the light source and which defines a linear optical sensor axis and whereby the optical sensor is arranged in a distance (d 0, d 1) to the light source along the optical sensor axis, a mounting assembly for the optical sensor and the light source which allows for relative movement of the light source against the optical sensor at least in the directions X, Y, Z of a Cartesian coordinate system, whereby direction Z is parallel to the direction of the optical sensor axis at least in an initial state of the optical force sensing assembly and whereby X and Y directions are perpendicular to each other as well as perpendicular to Z direction; characterized in that the optical sensor is a camera module, which has a pixel array of n pixels whereby in operation a contiguous array of pixels is receiving light from the light source, whereby the size of the illuminated contiguous pixel array and the number of illuminated pixels in the contiguous pixel array is proportional to a force applied to one of the light source mounting and the optical source mounting in the Z direction. a light source, which defines a linear optical light source axis, an optical sensor, which faces the light source and which defines a linear optical sensor axis and whereby the optical sensor is arranged in a distance (d 0, d 1) to the light source along the optical sensor axis, a mounting assembly for the optical sensor and the light source which allows for relative movement of the light source against the optical sensor at least in the directions X, Y, Z of a Cartesian coordinate system, whereby direction Z is parallel to the direction of the optical sensor axis at least in an initial state of the optical force sensing assembly and whereby X and Y directions are perpendicular to each other as well as perpendicular to Z direction; characterized in that the optical sensor is a camera module, which has a pixel array of n pixels whereby in operation a contiguous array of pixels is receiving light from the light source, whereby the size of the illuminated contiguous pixel array and the number of illuminated pixels in the contiguous pixel array is proportional to a force applied to one of the light source mounting and the optical source mounting in the Z direction.
Image processing apparatus for computing blended pixel data from pixel data of two image layers (110, 130) in accordance with α-layer data, said α-layer data indicating a transparency of one of said image layers (110, 130), comprising: at least two memories (220, 230), and a processor configured to apply a different blending processing to pixel data stored in said different memories (220, 230) for computing said blended pixel data, characterized by a selector for obtaining data of a pixel of each of said image layers (110, 130) and data of said α-layer and outputting said obtained pixel data to one of said at least two memories (220, 230) in accordance with said α-layer data such that for each different data of said α-layer a different memory (220, 230) is selected, and in that the processor is configured to apply a different pre-assigned blending processing to the pixel data stored in said different memories (220, 230) for computing said blended pixel data, the applied blending processing depends on the memory (220, 230) storing the pixel data to be blended, and each memory (220, 230) is provided with a storage capacity for data of two pixels. at least two memories (220, 230), and a processor configured to apply a different blending processing to pixel data stored in said different memories (220, 230) for computing said blended pixel data, characterized by a selector for obtaining data of a pixel of each of said image layers (110, 130) and data of said α-layer and outputting said obtained pixel data to one of said at least two memories (220, 230) in accordance with said α-layer data such that for each different data of said α-layer a different memory (220, 230) is selected, and in that the processor is configured to apply a different pre-assigned blending processing to the pixel data stored in said different memories (220, 230) for computing said blended pixel data, the applied blending processing depends on the memory (220, 230) storing the pixel data to be blended, and each memory (220, 230) is provided with a storage capacity for data of two pixels.
A medical instrument with a hollow shank and with an instrument section with an instrument part which is axially movably mounted in said instrument section, said instrument section, close to the distal end of the hollow shank, being arranged in a bendable manner to the hollow shank, characterised in that the instrument part is coupled in movement to an actuation means which is axially movably guided in the hollow shank, via a forcibly guided multi-joint arm, wherein the multi-joint arm comprises at least three arm parts (30, 32, 34, 36, 38) which are connected in series to one another in an articulated manner, wherein at least one arm part, which is arranged between two arm parts (30, 34), is pivotable about an axis which is arranged on the hollow shank, distanced to a straight connection line of the articulation points of adjacent arm parts (30, 34) to the arm part arranged between the two arm parts (30, 34).
Food processing line comprising a fryer for frying food products comprising a frying vessel for accommodating a frying oil, the food processing line further comprising at least one storage tank (28.1, 28.111, 28.V) arranged in fluid communication with the frying vessel, the food processing line further comprising a first guided wave radar sensor arranged in the frying vessel and an analysis unit for determining a permittivity of the frying oil accommodated in the frying vessel based on measurement data of the guided wave radar sensor and at least one additional guided wave radar sensor is arranged in the at least one storage tank (28.1, 28.III, 28.V), the food processing line further comprising a control unit that is configured to control an inflow of replacement frying oil into the frying vessel from the at least one storage tank (28.I, 28.III, 28.V) that is arranged in fluid communication with the frying vessel; and/or an outflow of used frying oil from the frying vessel to the at least one storage tank (28.I, 28.III, 28.V) that is arranged in fluid communication with the frying vessel based on the measurements of the first guided wave radar sensor and based on the measurements of the at least one additional guided wave radar sensor which is arranged in the storage tank (28.1, 28.III, 28.V) for frying oil. a frying vessel for accommodating a frying oil, the food processing line further comprising at least one storage tank (28.1, 28.111, 28.V) arranged in fluid communication with the frying vessel, the food processing line further comprising the food processing line further comprising at least one storage tank (28.1, 28.111, 28.V) arranged in fluid communication with the frying vessel, the food processing line further comprising a first guided wave radar sensor arranged in the frying vessel and an analysis unit for determining a permittivity of the frying oil accommodated in the frying vessel based on measurement data of the guided wave radar sensor and at least one additional guided wave radar sensor is arranged in the at least one storage tank (28.1, 28.III, 28.V), the food processing line further comprising a control unit that is configured to control an inflow of replacement frying oil into the frying vessel from the at least one storage tank (28.I, 28.III, 28.V) that is arranged in fluid communication with the frying vessel; and/or an outflow of used frying oil from the frying vessel to the at least one storage tank (28.I, 28.III, 28.V) that is arranged in fluid communication with the frying vessel based on the measurements of the first guided wave radar sensor and based on the measurements of the at least one additional guided wave radar sensor which is arranged in the storage tank (28.1, 28.III, 28.V) for frying oil.
An air compressor comprising: a compressor main body that compresses air; a storage tank (24, 25) that stores the gas compressed by the compressor main body; a motor that rotates a rotary shaft to drive the compressor main body; and a control unit that controls a drive of the motor; characterized in that in a case where a value of a voltage to be supplied to the motor is lower than a first voltage value, the control unit detects a stop time of the compressor and changes an operation stop pressure which is a pressure to stop the drive of the motor, based on the stop time. a compressor main body that compresses air; a storage tank (24, 25) that stores the gas compressed by the compressor main body; a motor that rotates a rotary shaft to drive the compressor main body; and a control unit that controls a drive of the motor; characterized in that in a case where a value of a voltage to be supplied to the motor is lower than a first voltage value, the control unit detects a stop time of the compressor and changes an operation stop pressure which is a pressure to stop the drive of the motor, based on the stop time.
A microcapsule composition comprising a microcapsule suspended in an aqueous phase and a viscosity control agent, wherein the viscosity control agent has the structure of: wherein R 1 is H or a C 1 -C 24 alkyl preferably C 1 -C 10 alkyl and C 1 -C 6 alkyl, R2 is a C 1 -C 24 alkyl preferably C 1 -C 10 alkyl and C 1 -C 6 alkyl, x is an integer selected from 1-4100, and y is an integer selected from 1-4100, and wherein the viscosity control agent has a molecular weight of 200-10000000, and the microcapsule composition has a viscosity of less than 1.5 Pa·s when measured using a Brookfield RVT Viscometer equipped with spindle 2 at 20 RPM at 25° C. wherein R 1 is H or a C 1 -C 24 alkyl preferably C 1 -C 10 alkyl and C 1 -C 6 alkyl, R2 is a C 1 -C 24 alkyl preferably C 1 -C 10 alkyl and C 1 -C 6 alkyl, x is an integer selected from 1-4100, and y is an integer selected from 1-4100, and wherein the viscosity control agent has a molecular weight of 200-10000000, and the microcapsule composition has a viscosity of less than 1.5 Pa·s when measured using a Brookfield RVT Viscometer equipped with spindle 2 at 20 RPM at 25° C.
A method for accessing wireless network, comprising: connecting, by a first master device (110, 620), a first communication service over a public wireless network, PWN, using subscriber identification information, SII, (220, 1SII) stored in the first master device (110, 620); establishing, by the first master device (110, 620), a first communication link (130, 650) with a slave device (120, 630); generating, by the first master device (110, 620), first network access information, NAI, (210, 1NAI) associated with the first communication service; sending, by the first master device (110, 620), the first NAI (210, 1NAI) to the slave device (120, 630) via the first communication link (130, 650); if the slave device (120, 630) is connected to the first communication service using the first NAI (210, 1NAI), terminating, by the first master device (110, 620), the connection of the first communication service over the PWN; the method characterized in that: after terminating the connection of the first communication service, receiving, by the first master device (110, 620), updated NAI from the slave device (120, 630) via the first communication link (130, 650); and synchronizing, by the first master device (110, 620), the first NAI (210, 1NAI) to the updated NAI. connecting, by a first master device (110, 620), a first communication service over a public wireless network, PWN, using subscriber identification information, SII, (220, 1SII) stored in the first master device (110, 620); establishing, by the first master device (110, 620), a first communication link (130, 650) with a slave device (120, 630); generating, by the first master device (110, 620), first network access information, NAI, (210, 1NAI) associated with the first communication service; sending, by the first master device (110, 620), the first NAI (210, 1NAI) to the slave device (120, 630) via the first communication link (130, 650); if the slave device (120, 630) is connected to the first communication service using the first NAI (210, 1NAI), terminating, by the first master device (110, 620), the connection of the first communication service over the PWN; the method characterized in that: after terminating the connection of the first communication service, receiving, by the first master device (110, 620), updated NAI from the slave device (120, 630) via the first communication link (130, 650); and synchronizing, by the first master device (110, 620), the first NAI (210, 1NAI) to the updated NAI. after terminating the connection of the first communication service, receiving, by the first master device (110, 620), updated NAI from the slave device (120, 630) via the first communication link (130, 650); and synchronizing, by the first master device (110, 620), the first NAI (210, 1NAI) to the updated NAI.
A data compression method comprising a computer performing the steps of: providing a square of data; transforming the square of data into a tile of data; dividing the tile of data into quads of data, each quad consisting of an upper left pixel, an upper right pixel, a lower left pixel, and a lower right pixel; converting each quad into a representative element, a first delta element, a second delta element, a third delta element, and a control word that is set according to the values of the three delta elements; forming a new tile of data with the representative elements; repeating the dividing, the converting, and the forming until a single representative element remains, wherein the new tile of data becomes the tile of data for the repetition of the dividing, converting and forming steps; and embedding the single representative element, the control words and the delta elements into an output stream; encoding the delta elements according to their associated control words. providing a square of data; transforming the square of data into a tile of data; dividing the tile of data into quads of data, each quad consisting of an upper left pixel, an upper right pixel, a lower left pixel, and a lower right pixel; converting each quad into a representative element, a first delta element, a second delta element, a third delta element, and a control word that is set according to the values of the three delta elements; forming a new tile of data with the representative elements; repeating the dividing, the converting, and the forming until a single representative element remains, wherein the new tile of data becomes the tile of data for the repetition of the dividing, converting and forming steps; and embedding the single representative element, the control words and the delta elements into an output stream; encoding the delta elements according to their associated control words.
A receptacle cleaning device which is insertable into an opening of a receptacle and has a housing body which has a connection housing (2.1; 2.1*; 2.1**) connected with a feed line (2.1d) for the intake flow of the cleaning fluid and arranged in a torque-proof manner with respect to the receptacle, as well as a nozzle head housing that is rotatable with respect to the connection housing (2.1; 2.1*; 2.1**) around a first rotational axis and has at least one nozzle head arranged in a rotatable manner on the nozzle head housing around a second rotational axis and provided with at least one nozzle, wherein the nozzle(s) bring(s) out a first partial flow fed out of the intake flow of the cleaning fluid, and the rotational movement around the respective rotational axis (I, II) is generated with drive means which are arranged inside, on, or outside the receptacle cleaning device and are driven by outside energy, characterized in that at least one additional nozzle (30; 30.1, 30.2; 15a*, 15b*, 3d*, 3e*) revolving around the first rotational axis is arranged on the nozzle head housing, the additional nozzle(s) bringing out a second partial flow fed out of the intake flow of the cleaning fluid to the surface area of the receptacle.
A phased array antenna system with electrical tilt control operative as a transmitter in transmit mode and incorporating: a) an array of antenna elements; b) a tilt controller for splitting an input signal into at least first, second and third intermediate signals such that the at least first and second intermediate signals are each variably delayable relative to the third intermediate signal; c) corporate feed means for processing the intermediate signals to produce drive signals for antenna elements, the drive signals at least partly comprising vector combinations of the intermediate signals; and d) relative phasing for the drive signals imposed in combination by the tilt controller and the corporate feed means as appropriate for phased array beam steering in response to variable delay of the at least first and second intermediate signals relative to the third intermediate signal characterised in that the third intermediate signal is not delayed in the tilt controller. a) an array of antenna elements; b) a tilt controller for splitting an input signal into at least first, second and third intermediate signals such that the at least first and second intermediate signals are each variably delayable relative to the third intermediate signal; c) corporate feed means for processing the intermediate signals to produce drive signals for antenna elements, the drive signals at least partly comprising vector combinations of the intermediate signals; and d) relative phasing for the drive signals imposed in combination by the tilt controller and the corporate feed means as appropriate for phased array beam steering in response to variable delay of the at least first and second intermediate signals relative to the third intermediate signal
A melting-processed resin article having a layer separation structure, comprising: a first resin layer comprising a first resin; a second resin layer comprising a second resin formed on the first resin layer; and an interface layer including the first resin and the second resin and formed between the first resin layer and the second resin layer, wherein the first resin includes at least one resin selected from the group consisting of a styrene-based resin, an acrylate-based resin and a copolymer thereof, and wherein the second resin includes a (meth)acrylate-based resin, wherein the (meth)acrylate-based resin includes glycidyl methacrylate, perfluorohexylethyl methacrylate or tertiary butyl methacrylate in a polymerized form, wherein the layer separation structure is obtained by a layer separation caused by a difference in surface energy, melt viscosity or solubility parameters between the first resin and the second resin, and wherein the second resin layer has a molecular weight distribution of 1 to 2.5 measured using gel permeation chromatography under the conditions as described in the description. a first resin layer comprising a first resin; a second resin layer comprising a second resin formed on the first resin layer; and an interface layer including the first resin and the second resin and formed between the first resin layer and the second resin layer, wherein the first resin includes at least one resin selected from the group consisting of a styrene-based resin, an acrylate-based resin and a copolymer thereof, and wherein the second resin includes a (meth)acrylate-based resin, wherein the (meth)acrylate-based resin includes glycidyl methacrylate, perfluorohexylethyl methacrylate or tertiary butyl methacrylate in a polymerized form, wherein the layer separation structure is obtained by a layer separation caused by a difference in surface energy, melt viscosity or solubility parameters between the first resin and the second resin, and wherein the second resin layer has a molecular weight distribution of 1 to 2.5 measured using gel permeation chromatography under the conditions as described in the description.
A device for estimating a first temperature in an enclosure supplied with air treated by a heating/air-conditioning apparatus including a supply valve suited to controlling its supply with exterior air and/or with recirculated air from a first zone of said enclosure, an evaporator suited to cooling the supply air so as to produce cooled air intended for distribution ports of said enclosure, and intake means (V3-V5) suited to controlling access to said distribution ports, characterized in that it includes control means arranged so as to order placements of said supply valve and of said intake valves (V3-V5) in positions in which they supply respectively said apparatus with exclusively recirculated air, and distribution ports (S1, S2) remote from said first zone, then for estimating said first temperature from a second temperature of the supply air measured between said supply valve and said evaporator, consecutively to said placements.
A pulverized coal boiler comprising: burners installed on a furnace wall for feeding pulverized coal into the furnace together with combustion air of a volume lower than the theoretical air ratio necessary for perfect combustion of the pulverized coal and burning the pulverized coal, and upper after-air nozzles and a lower after-air nozzles installed at two stages with an upper stage and a lower stage, respectively, on the furnace wall on a downstream side of the burners for feeding combustion air into the furnace, wherein the upper after-air nozzles are suitable for feeding combustion air necessary for perfect combustion of the pulverized coal into the furnace, characterized in that among the lower and upper after air nozzles (4, 3) interconnected to an inside of the furnace, a flow path of the lower after-air nozzles positioned on the upstream side is formed in a rectangular shape, the flow path of the lower after-air nozzles is formed so that the flow path area is expanded from a position where the cylindrical section is installed toward an opening interconnected to the inside of the furnace, a cylindrical section defining a minimum flow path area of combustion air flowing through a flow path of the after-air nozzle is installed inside of the lower after-air nozzles coaxially with the flow path of the lower after-air nozzle formed in the rectangular shape, a swirl blade for giving a swirl force to the combustion air flowing through the flow path of the lower after-air nozzles is installed inside of the cylindrical section, and a leak hole is formed on the wall of the cylindrical section for permitting a part of the combustion air to flow down along an outer peripheral wall of the cylindrical section. burners installed on a furnace wall for feeding pulverized coal into the furnace together with combustion air of a volume lower than the theoretical air ratio necessary for perfect combustion of the pulverized coal and burning the pulverized coal, and upper after-air nozzles and a lower after-air nozzles installed at two stages with an upper stage and a lower stage, respectively, on the furnace wall on a downstream side of the burners for feeding combustion air into the furnace, wherein the upper after-air nozzles are suitable for feeding combustion air necessary for perfect combustion of the pulverized coal into the furnace,
A gradient amplifier for a magnetic resonance imaging system, comprising a power amplifier, configured to supply a gradient coil current to a gradient coil; a passive filter coupled to the power amplifier and configured to damp a harmonic component of the gradient coil current, wherein an oscillation current caused by oscillation of the passive filter is present in the gradient coil current; and an active power filter coupled between the passive filter and the gradient coil and configured to generate a compensation current to compensate the oscillation current.