mhurhangee/ep-ind-claims huggingface dataset:
A wind turbine, comprising: - a turbine rotor shaft, coupled to a turbine rotor and defining a rotor rotational axis, said turbine rotor comprising a set of turbine rotor blades; - an outer vertical drive shaft, and an inner vertical drive shaft coaxially within said outer vertical drive shaft; - a rotor gear system coupling said inner and outer vertical drive shafts to said turbine rotor shaft; - an electrical generator for converting mechanical energy of said turbine rotor into electrical energy, coupled to said inner and outer drive vertical shafts, and wherein said rotor gear system comprises a set of conical rotor gears (10, 12), coaxially coupled with said turbine rotor shaft, a first conical rotor gear engaging a conical first drive gear on said inner vertical drive shaft, and a second conical rotor gear engaging a conical second drive gear on said outer vertical drive shaft, said wind turbine further comprising a damping system for damping oscillations between a first drive train comprising the outer vertical drive shaft and a second drive train comprising the inner vertical drive shaft, said damping system comprising a differential having opposite first and second damper shafts (74, 75) and a resultant damper shaft arranged for in operation having an angular velocity that is the sum of the rotation of the first and second damper shafts, said first and second damper shafts coupled to respective said first and second drive trains, and said resultant damper shaft coupled to an energy dissipater. - a turbine rotor shaft, coupled to a turbine rotor and defining a rotor rotational axis, said turbine rotor comprising a set of turbine rotor blades; - an outer vertical drive shaft, and an inner vertical drive shaft coaxially within said outer vertical drive shaft; - a rotor gear system coupling said inner and outer vertical drive shafts to said turbine rotor shaft; - an electrical generator for converting mechanical energy of said turbine rotor into electrical energy, coupled to said inner and outer drive vertical shafts, and
Adhesive melting apparatus for an edge-banding machine, wherein the adhesive melting apparatus comprises a melt chamber for accommodating adhesive material to be melted, a melting device having an electrically heatable melting body for melting the adhesive material, and a pressing piston that is movable in a feed direction for pressing the adhesive material located in the melt chamber against the melting body, wherein the melting body comprises a multitude of through-channels, which extend in the feed direction and each comprise an inlet portion pointing toward the melt chamber and an outlet portion pointing away from the melt chamber, wherein the inlet portions form a honeycomb structure, wherein the honeycomb structure comprises a multitude of polygonal cells, which each form an inlet portion of a through-channel and are separated from one another by separating walls, characterized in that at least some of the cells are of hexagonal configuration.
Domestic appliance for cleaning a load, having: - a treatment space for accommodating a load to be cleaned; - a load detecting device for detecting a load quantity in the treatment space; and - a controller, - characterized in that the domestic appliance furthermore has - a time detecting device for detecting a time value, and in that the controller is designed for automatically starting a cleaning programme when (i) the load quantity detected by the load detecting device exceeds a predetermined load limit value (w), and (ii) the time value detected by the time detecting device exceeds a predetermined time limit value (t). - a treatment space for accommodating a load to be cleaned; - a load detecting device for detecting a load quantity in the treatment space; and - a controller, - characterized in that the domestic appliance furthermore has - a time detecting device for detecting a time value, and in that the controller is designed for automatically starting a cleaning programme when (i) the load quantity detected by the load detecting device exceeds a predetermined load limit value (w), and (ii) the time value detected by the time detecting device exceeds a predetermined time limit value (t). (i) the load quantity detected by the load detecting device exceeds a predetermined load limit value (w), and (ii) the time value detected by the time detecting device exceeds a predetermined time limit value (t).
An image processing apparatus adapted to generate a plurality of subframe images from a frame image comprising pixels each of which has pixel values for each color component, and to output the plurality of subframe images, the apparatus characterized by comprising: identification means for identifying, for each pixel in the frame image, minimum pixel values for each color component from pixel values of surrounding pixels for each color component, wherein the surrounding pixels are positioned around the pixel, and identifying, as a common pixel value, a minimum value in the minimum pixel values identified for each color component; generation means for generating a preprocessed image which is obtained by replacing a pixel value for each color component of each pixel in the frame image with the common pixel value identified for the pixel by said identification means; low-pass filtering means for generating a first subframe image by applying a low-pass filter to the preprocessed image; subtraction means adapted to generate a difference image by subtracting the first subframe image from the frame image; and output means for outputting the first subframe image, and the difference image which represents a second subframe image. identification means for identifying, for each pixel in the frame image, minimum pixel values for each color component from pixel values of surrounding pixels for each color component, wherein the surrounding pixels are positioned around the pixel, and identifying, as a common pixel value, a minimum value in the minimum pixel values identified for each color component; generation means for generating a preprocessed image which is obtained by replacing a pixel value for each color component of each pixel in the frame image with the common pixel value identified for the pixel by said identification means; low-pass filtering means for generating a first subframe image by applying a low-pass filter to the preprocessed image; subtraction means adapted to generate a difference image by subtracting the first subframe image from the frame image; and output means for outputting the first subframe image, and the difference image which represents a second subframe image.
A multi-electrode emitting array of bipolar pulsed discharge comprising the following components: a fixed framework, binding post, and 2n sets of emitters. Each emitter consists of several emitting electrodes side by side, installed on a fixed framework; the binding posts are located on one side of the fixed framework; and n is a natural number greater than zero, the multi-electrode emitting array being characterized in that each emitting electrode is composed of a copper core and an insulator, and one end of the copper core acts as the emitting head of the emitting electrode while the other end is connected to the binding post by a connecting line, wherein the emitting electrodes of each emitter are connected to the corresponding terminals of the binding posts through a shared connecting line, wherein 2n groups of emitters comprise n sets of positive and n sets of corresponding negative emitters, while the diameter of a positive emitter's copper core is larger than that of a negative emitter.
Method of determining a fault parameter, especially a fault direction parameter, of a fault on an AC transmission line of a power distribution system relative to a measurement location of the transmission line, the method comprising - measuring a time-dependent current of the transmission line at the measurement location; - transmitting a current signal indicative of the measured current to a decision logic section, the current signal comprising a plurality of pre-fault current values and a plurality of post-fault current values; - determining, by the decision logic section, a plurality of phase difference values indicative of respective phase differences between respective ones of the pre-fault current values and respective ones of the post-fault current values; characterized in the steps of: - accumulating the plurality of phase difference values into an accumulated phase difference parameter; - obtaining the fault parameter by comparing the accumulated phase difference parameter to a threshold value; and - outputting the determined fault parameter. - measuring a time-dependent current of the transmission line at the measurement location; - transmitting a current signal indicative of the measured current to a decision logic section, the current signal comprising a plurality of pre-fault current values and a plurality of post-fault current values; - determining, by the decision logic section, a plurality of phase difference values indicative of respective phase differences between respective ones of the pre-fault current values and respective ones of the post-fault current values; - accumulating the plurality of phase difference values into an accumulated phase difference parameter; - obtaining the fault parameter by comparing the accumulated phase difference parameter to a threshold value; and - outputting the determined fault parameter.
Use of an electrochemical cell in a low earth orbit spacecraft, said electrochemical cell comprising a positive electrode and a negative electrode, said negative electrode comprising as an electrochemically active material a lithiated titanate oxide or a titanate oxide able to be lithiated.
Packaging comprising: - a bearing element extending along a main axis and provided with a first fold line and a second fold line which extend orthogonally to said main axis in order to define a first section, as well as a second section and a third section arranged on either side of said first section; - a resilient film mounted on said bearing element such as to extend over said first section, over at least a portion of said second section as well as over at least a portion of said third section, said resilient film being arranged to support an object against said bearing element when said bearing element is folded along said first fold line and said second fold line in a direction opposite said object; characterized in that said first section, said second section, and said third section are conformed such that, by fastening the end of said second section to the end of the third section, said packaging can adopt a prismatic configuration with a triangular cross-section. - a bearing element extending along a main axis and provided with a first fold line and a second fold line which extend orthogonally to said main axis in order to define a first section, as well as a second section and a third section arranged on either side of said first section; - a resilient film mounted on said bearing element such as to extend over said first section, over at least a portion of said second section as well as over at least a portion of said third section, said resilient film being arranged to support an object against said bearing element when said bearing element is folded along said first fold line and said second fold line in a direction opposite said object;
A thermoplastic elastomer composition, comprising a dynamically-crosslinked butyl rubber and a thermoplastic resin; and having a thermoplastic resin content of between 3 and 6% by mass based on 100% by mass of the dynamically-crosslinked thermoplastic elastomer composition, wherein the dynamically-crosslinked butyl rubber is produced by dynamically crosslinking 100 parts by mass of a rubber component by 0.1 to 10 parts by mass of a triazine derivative.
Cold roller method for the production of an annular composite work piece made of at least two hollow cylindrical work pieces made of different materials which are profile rolled together, characterized by the molding of the hollow cylindrical work pieces (1 to 5) with a known axial profile roller method to a composite work piece (8 to 11), whereas two diametrally opposing arranged outer profile roller tools with a roller dome or an inner profile roller tool press the hollow cylindrical work pieces (1 to 5) against each other.
A three-dimensional microarray for use in determining the presence of a target compound(s) of interest within a sample, the microarray including: a) a base material including a plurality of surface structures forming part of and protruding from the base material; b) the plurality of surface structures including sensory agent(s) capable of attachment to the target compound(s) of interest within the sample, the sensory agent(s) being included on defined functionalized areas on the tops of each surface structure; and wherein the microarray is coated between the defined functionalized areas with an inert material to minimize non-specific binding. a) a base material including a plurality of surface structures forming part of and protruding from the base material; b) the plurality of surface structures including sensory agent(s) capable of attachment to the target compound(s) of interest within the sample, the sensory agent(s) being included on defined functionalized areas on the tops of each surface structure; and
A water treatment system comprising: a flue gas treatment system that performs treatment of boiler flue gas; a scale inhibitor supply unit which is configured to supply a scale inhibitor to an effluent generated in a plant facility containing Ca ions; a first desalination device which is disposed downstream of the scale inhibitor supply unit and is configured to separate the effluent into recycled water and concentrated water in which Ca ions are concentrated; a crystallization basin which is disposed downstream of the first desalination device and is configured to crystallize gypsum from the concentrated water; a separation unit which is configured to separate the crystallized gypsum from the concentrated water from the first desalination device; a second desalination device which is disposed downstream of the separation unit and is configured to separate the concentrated water into recycled water and concentrated water in which ions are concentrated; a spray drying device that includes a spraying unit, which is configured to perform spay drying of the concentrated water, using some of the boiler flue gas. a flue gas treatment system that performs treatment of boiler flue gas; a scale inhibitor supply unit which is configured to supply a scale inhibitor to an effluent generated in a plant facility containing Ca ions; a first desalination device which is disposed downstream of the scale inhibitor supply unit and is configured to separate the effluent into recycled water and concentrated water in which Ca ions are concentrated; a crystallization basin which is disposed downstream of the first desalination device and is configured to crystallize gypsum from the concentrated water; a separation unit which is configured to separate the crystallized gypsum from the concentrated water from the first desalination device; a second desalination device which is disposed downstream of the separation unit and is configured to separate the concentrated water into recycled water and concentrated water in which ions are concentrated; a spray drying device that includes a spraying unit, which is configured to perform spay drying of the concentrated water, using some of the boiler flue gas.
A method, performed by a wireless device (400; 120) operative in a wireless communication network, for managing information about one or more coverage classes associated with the wireless device (400; 120), wherein the wireless communication network is a Global System for Mobile communication, "GSM", network, supporting Extended Coverage, "EC", GSM, "EC-GSM", and said coverage classes are Coverage Classes, "CC", as defined for EC-GSM, wherein the method comprises: - receiving (205; 302), from a radio network node (600; 110) comprised in the wireless communication network, a request requesting the wireless device (400; 120) to send a message that comprises an indicator indicating an updated downlink coverage class estimated by the wireless device (400; 120), the message being a Packet Control Acknowledgement message or a Packet Downlink Ack/Nack message, and - sending (206; 303), in response to receipt of the request, said message to said radio network node (600; 110). - receiving (205; 302), from a radio network node (600; 110) comprised in the wireless communication network, a request requesting the wireless device (400; 120) to send a message that comprises an indicator indicating an updated downlink coverage class estimated by the wireless device (400; 120), the message being a Packet Control Acknowledgement message or a Packet Downlink Ack/Nack message, and - sending (206; 303), in response to receipt of the request, said message to said radio network node (600; 110).
A stretchable device, comprising: a stretchable substrate; and a plurality of optoelectronic diodes (300a, 300b) on the stretchable substrate wherein at least one of the plurality of optoelectronic diode includes an anode and a cathode, and an active layer (330a, 330b) between the anode and the cathode, the active layer including a first semiconductor, a second semiconductor having different electrical characteristics from the first semiconductor, and an insulating elastomer; characterised in that the insulating elastomer is a copolymer comprising at least one hard structural unit and at least one soft structural unit; wherein the hard structural unit comprises a styrene structural unit, a urethane structural unit, an ether structural unit, or any combination thereof; wherein the soft structural unit comprises an ethylene structural unit, a propylene structural unit, a butylene structural unit, an isobutylene structural unit, a butadiene structural unit, an isoprene structural unit, or any combination thereof; and wherein the weight ratio of the hard structural unit to the soft structural unit is 0.01 to 0.5. a stretchable substrate; and a plurality of optoelectronic diodes (300a, 300b) on the stretchable substrate wherein at least one of the plurality of optoelectronic diode includes an anode and a cathode, and an active layer (330a, 330b) between the anode and the cathode, the active layer an anode and a cathode, and an active layer (330a, 330b) between the anode and the cathode, the active layer including a first semiconductor, a second semiconductor having different electrical characteristics from the first semiconductor, and an insulating elastomer; a first semiconductor, a second semiconductor having different electrical characteristics from the first semiconductor, and an insulating elastomer; characterised in that the insulating elastomer is a copolymer comprising at least one hard structural unit and at least one soft structural unit; wherein the hard structural unit comprises a styrene structural unit, a urethane structural unit, an ether structural unit, or any combination thereof; wherein the soft structural unit comprises an ethylene structural unit, a propylene structural unit, a butylene structural unit, an isobutylene structural unit, a butadiene structural unit, an isoprene structural unit, or any combination thereof; and wherein the weight ratio of the hard structural unit to the soft structural unit is 0.01 to 0.5.
A thermal transfer printer comprising: a first supply unit configured to supply an intermediate transfer medium in which, on one of surfaces of a first base, a transfer layer including a receiving layer is disposed; a second supply unit configured to supply a thermal transfer sheet in which, on one of surfaces of a second base, a colorant layer and a particle layer are disposed; a printing unit configured to heat the thermal transfer sheet, to transfer a colorant (22, 23, 24) from the colorant layer to the receiving layer to form an image, and to transfer the particle layer onto the receiving layer; a third supply unit configured to supply a transfer-receiving body; and a transfer unit configured to place the intermediate transfer medium and the transfer-receiving body on top of each other such that the transfer-receiving body faces the particle layer on the receiving layer, and to heat the intermediate transfer medium to transfer the transfer layer onto the transfer-receiving body such that the particle layer is placed in at least a portion of a peripheral area of the transfer-receiving body, to produce a printed product. a first supply unit configured to supply an intermediate transfer medium in which, on one of surfaces of a first base, a transfer layer including a receiving layer is disposed; a second supply unit configured to supply a thermal transfer sheet in which, on one of surfaces of a second base, a colorant layer and a particle layer are disposed; a printing unit configured to heat the thermal transfer sheet, to transfer a colorant (22, 23, 24) from the colorant layer to the receiving layer to form an image, and to transfer the particle layer onto the receiving layer; a third supply unit configured to supply a transfer-receiving body; and a transfer unit configured to place the intermediate transfer medium and the transfer-receiving body on top of each other such that the transfer-receiving body faces the particle layer on the receiving layer, and to heat the intermediate transfer medium to transfer the transfer layer onto the transfer-receiving body such that the particle layer is placed in at least a portion of a peripheral area of the transfer-receiving body, to produce a printed product.
Circuit arrangement for an electrical seat heater of a motor vehicle, with a heating resistor as a seat heating element connected to a seat earth lead in the area of the vehicle seat and with a temperature-dependent sensor resistor arranged in the vehicle seat, with a control device for activating the heating resistor and activating the voltage measurement on the sensor resistor, said control device being arranged outside the vehicle seat and remote from the vehicle seat and connected to a control device earth, wherein the voltage measurement for temperature determination takes place with the seat heating being briefly disconnected from the supply voltage (U V), wherein on the one hand the heating resistor can be connected to the supply voltage (U V) via a series circuit comprising the sensor resistor and a further resistor and on the other hand can be connected to the supply voltage (U V) via a power transmission path, characterised in that via a measuring signal lead the control device measures the voltage drop at the sensor resistor and stores it as a measured value, wherein the control device records the potential difference between the potential of the seat earth lead and the potential of the control unit earth and takes it into account in determining the seat temperature for measurement correction, wherein the control device has a first and a second measuring input (9; 10), the measuring signal lead leading to the sensor resistor being connected to the first measuring input, and the second measuring input being connected to the electrical connection between the sensor resistor and heating resistor and, with the seating heating switched off, measuring the potential difference between the control unit earth and the seat earth lead, and wherein the supply voltage (U V) can be applied via a first electrical switch to the electrical connection between the sensor resistor and heating resistor and the series circuit of heating resistor and sensor resistor can be connected to the supply voltage (U V) via the further resistor connected to the signal lead by means of a second electrical switch and both electrical switches can be activated by the control unit.