mhurhangee/ep-ind-claims huggingface dataset:
A method for pyrolysis of whole tires, at which they are heated to a temperature of 400-950°C and pyrolize, producing pyrolysis gas, mineral oils' vapors exported with the pyrolysis gas as well as solid carbon, at the same time the mineral oils being separated at the cooling of the pyrolysis gases and the heat required for the pyrolysis being supplied by the flue gases, obtained at the burning the pyrolysis gas and the oxides obtained during the process being removed, the method being characterized with the feature, that the tires are being heated directly in cross counter flow with flue gases, which have initial temperature of 600-950°C, preferably 650-750°C and are enriched with steam with concentration 15-40%, preferably 18-30%, obtaining at the same time pyrolysis gases, which are cooled down to temperature 150-300°C, and after the cooling they are divided into two flows, one of them being additionally cooled to temperature 80-100°C, at which part of the mineral oils contained in it condense, after which it is mixed with the other flow of non-cooled pyrolysis gases and the obtained pyrolysis gases are burnt, only a part of the hot flue gases being used for the pyrolysis, and the remaining ones, after cooling, are cleaned from sulfur oxides and are released into the atmosphere, and the obtained solid carbon represents carbon black, suitable for use in the rubber industry.
Portable device comprising coded information reading means and further comprising digital image acquisition means and an illuminator, said illuminator being associated with said digital image acquisition means for acquiring at least a digital image of a framed zone and being powerable by a current driving signal corresponding to a first current signal in a first operating mode of said device for illuminating at least one image to be acquired and to a second current signal in a second operating mode for emitting a visual reading outcome indication relating to the reading of said coded information read by said coded information reading means, characterized in that said reading means is arranged at least partially on a first face (4, 6, 10, 14) of said portable device for reading said coded information arranged in a first semispace in front of said first face (4, 6, 10, 14) and said image acquisition means and said illuminator are arranged on a second face of said portable device and wherein said illuminator illuminates at least a portion of a second semispace in front of said second face, said second face being different from said first face (4, 6, 10, 14) to orient differently in space said first semispace with respect to said second semispace.
A method, comprising: serially receiving, by an input shift register, control data packets and an input data clock signal, each control data packet including a set of primitive data bits and a set of random bits, wherein the set of random bits for each control data packet has a pseudo-random length; modify, by modification logic, at least one of positions or values of bits in the received control data packets to facilitate the creation of modified control data packets; generating, by a clock signal generator, an internal data clock signal that is faster than or equal to the input data clock signal; and receiving, by an output shift register, the modified control data packets; outputting, by the output shift register, the modified control data packets to a fluid ejection controller of a fluid ejection device based on the internal data clock signal. serially receiving, by an input shift register, control data packets and an input data clock signal, each control data packet including a set of primitive data bits and a set of random bits, wherein the set of random bits for each control data packet has a pseudo-random length; modify, by modification logic, at least one of positions or values of bits in the received control data packets to facilitate the creation of modified control data packets; generating, by a clock signal generator, an internal data clock signal that is faster than or equal to the input data clock signal; and receiving, by an output shift register, the modified control data packets; outputting, by the output shift register, the modified control data packets to a fluid ejection controller of a fluid ejection device based on the internal data clock signal.
A wiring substrate comprising: a laminate which includes one or more insulating layers (4,5,14,31,131) and one or more conductor layers (21,22,32,132) laminated together; a wiring (L1,L2,L11,L12) formed on the laminate; a columnar connection terminal (23,24) which is formed directly on the wiring and is in contact with at least one of opposite side surfaces of the wiring; and a solder resist layer (4,5,14) which covers the wiring and which exposes at least a portion of the connection terminal (T1,T11), wherein a width of the wiring at a position at which the connection terminal is formed is smaller than a length of the connection terminal in the width direction a lower surface of the connection terminal which faces an upper surface of the wiring has a contact surface which is in contact with the upper surface of the wiring and a separation surface which is not in contact with the upper surface of the wiring, and a gap between the separation surface and the upper surface of the wiring is filled with the first solder resist layer, characterized in that the solder resist layer comprises a first solder resist layer and a second solder resist layer, wherein the second solder resist layer has an opening for exposing at least an upper end of the connection terminal, a plurality of the connection terminals are disposed in the same opening, the first solder resist layer fills the spaces between the connection terminals, and the openings formed in the second solder resist layer have an NSMD shape. a laminate which includes one or more insulating layers (4,5,14,31,131) and one or more conductor layers (21,22,32,132) laminated together; a wiring (L1,L2,L11,L12) formed on the laminate; a columnar connection terminal (23,24) which is formed directly on the wiring and is in contact with at least one of opposite side surfaces of the wiring; and a solder resist layer (4,5,14) which covers the wiring and which exposes at least a portion of the connection terminal (T1,T11), wherein a width of the wiring at a position at which the connection terminal is formed is smaller than a length of the connection terminal in the width direction a lower surface of the connection terminal which faces an upper surface of the wiring has a contact surface which is in contact with the upper surface of the wiring and a separation surface which is not in contact with the upper surface of the wiring, and a gap between the separation surface and the upper surface of the wiring is filled with the first solder resist layer, characterized in that the solder resist layer comprises a first solder resist layer and a second solder resist layer, wherein the second solder resist layer has an opening for exposing at least an upper end of the connection terminal, a plurality of the connection terminals are disposed in the same opening, the first solder resist layer fills the spaces between the connection terminals, and the openings formed in the second solder resist layer have an NSMD shape.
Method for testing an in particular biological sample, wherein amplification products are formed from analytes of the sample, wherein the amplification products are bonded to corresponding capture molecules of a sensor apparatus comprising a sensor compartment and the bonded amplification products are detected or identified in a detection process, characterised in that a first group of amplification products of at least one first analyte and a second group of amplification products of at least one second analyte are bonded in the sensor compartment to the corresponding capture molecules at different hybridisation temperatures, and that the first group and the second group are fed to the sensor compartment and bonded to the corresponding capture molecules in succession.
A heat exchange element (20,20A,20B) having a stacked-layer structure in which sheet-like partition members to which a moisture absorbent is added and spacing members are stacked alternately, the spacing members being joined with the partition members so as to form air flow passages (Po, Pi) together with the partition members, wherein each of the spacing members includes a plurality of section walls (Sa, Sb) that divide a space between the partition member joined under the spacing member and the partition member joined on the spacing member into a plurality of flow passages (Po, Pi), characterized in that: one or more first section walls formed with holes that bring adjacent flow passages into communication with each other and one or more second section walls formed with no hole that brings adjacent flow passages into communication with each other are alternately arranged in each of the spacing members, wherein the first section wall is formed with the holes at a plurality of positions thereof, and a joined portion between the first section wall and the partition member is split by the holes formed at the plurality of positions. one or more first section walls formed with holes that bring adjacent flow passages into communication with each other and one or more second section walls formed with no hole that brings adjacent flow passages into communication with each other are alternately arranged in each of the spacing members, wherein the first section wall is formed with the holes at a plurality of positions thereof, and a joined portion between the first section wall and the partition member is split by the holes formed at the plurality of positions.
A method to transmit video over a multi-input multi-output (MIMO) channel, comprising: decorrelating step: decorrelating a source video to generate transform-domain residual video coefficients by video predictive coding and multi-dimensional transform; mapping step: mapping the transform-domain residual video coefficients into one or a plurality of transmission streams in parallel by sub-carrier or sub-channel optimized sorting; modulating step: modulating the transmission streams in parallel into a plurality of transmission output signals by linear normalization and quasi-continuous modulation; and transmitting step: transmitting the transmission output signals in parallel onto an MIMO channel via a plurality of antennas or cable drivers. decorrelating step: decorrelating a source video to generate transform-domain residual video coefficients by video predictive coding and multi-dimensional transform; mapping step: mapping the transform-domain residual video coefficients into one or a plurality of transmission streams in parallel by sub-carrier or sub-channel optimized sorting; modulating step: modulating the transmission streams in parallel into a plurality of transmission output signals by linear normalization and quasi-continuous modulation; and transmitting step: transmitting the transmission output signals in parallel onto an MIMO channel via a plurality of antennas or cable drivers. step: modulating the transmission streams in parallel into a plurality of transmission output signals by linear normalization and quasi-continuous modulation; and transmitting step: transmitting the transmission output signals in parallel onto an MIMO channel via a plurality of antennas or cable drivers.
An apparatus for diagnosing an insulation resistance measurement circuit, comprising: a measuring unit configured to measure a voltage of a battery module having at least one battery cell; a first diagnosing unit connected to a positive electrode terminal (+) of the battery module and including a plurality of first diagnosis resistors (R1-R4) and a first switch; a second diagnosing unit connected to a negative electrode terminal (-) of the battery module and including a plurality of second diagnosis resistors (R6-R9), a second switch and a power supply unit; and a control unit configured to calculate an estimated voltage value of the battery module by using a first voltage value calculated based on a signal received from the first diagnosing unit and a second voltage value calculated based on a signal received from the second diagnosing unit, the apparatus for diagnosing an insulation resistance measurement circuit being characterized in that the control unit is further configured to calculate a voltage ratio between the calculated estimated voltage value and the measured voltage value of the battery module measured by the measuring unit, and diagnose a state of the insulation resistance measurement circuit of the battery module according to a comparison result of the calculated voltage ratio and a reference ratio. a measuring unit configured to measure a voltage of a battery module having at least one battery cell; a first diagnosing unit connected to a positive electrode terminal (+) of the battery module and including a plurality of first diagnosis resistors (R1-R4) and a first switch; a second diagnosing unit connected to a negative electrode terminal (-) of the battery module and including a plurality of second diagnosis resistors (R6-R9), a second switch and a power supply unit; and a control unit configured to calculate an estimated voltage value of the battery module by using a first voltage value calculated based on a signal received from the first diagnosing unit and a second voltage value calculated based on a signal received from the second diagnosing unit,
An anti-explosion gas generator for health use comprising an electrolysis device for electrolyzing water to produce a gas comprising hydrogen, comprising: a power supply electrically connected to the electrolysis device and adapted for supplying power to the electrolysis device; a flow controller configured to control the flow rate of the gas comprising hydrogen, wherein the flow controller selectively adjusts the power level of the power supply so that the flow rate of the gas comprising hydrogen is controllable more than 0.1L/min; characterized by further comprising: a humidifier coupled to the electrolysis device to filter the gas comprising hydrogen; and an atomized/volatile gas mixing tank coupled to the humidifier, the atomized/volatile gas mixing tank being configured to receive the filtered gas, to generate an atomized gas and to mix the atomized gas with the filtered gas comprising hydrogen, wherein the atomized gas is a water vapor, an atomized medicine, a volatile essential oil, or a combination thereof. a power supply electrically connected to the electrolysis device and adapted for supplying power to the electrolysis device; a flow controller configured to control the flow rate of the gas comprising hydrogen, wherein the flow controller selectively adjusts the power level of the power supply so that the flow rate of the gas comprising hydrogen is controllable more than 0.1L/min; characterized by further comprising: a humidifier coupled to the electrolysis device to filter the gas comprising hydrogen; and an atomized/volatile gas mixing tank coupled to the humidifier, the atomized/volatile gas mixing tank being configured to receive the filtered gas, to generate an atomized gas and to mix the atomized gas with the filtered gas comprising hydrogen, wherein the atomized gas is a water vapor, an atomized medicine, a volatile essential oil, or a combination thereof. a humidifier coupled to the electrolysis device to filter the gas comprising hydrogen; and an atomized/volatile gas mixing tank coupled to the humidifier, the atomized/volatile gas mixing tank being configured to receive the filtered gas, to generate an atomized gas and to mix the atomized gas with the filtered gas comprising hydrogen, wherein the atomized gas is a water vapor, an atomized medicine, a volatile essential oil, or a combination thereof.
A medical device comprising: a balloon (14, 14a) inflatable to an inflated configuration (14b, 14c, 14d), the balloon comprising: a non-compliant layer coextruded on an inner layer; and an outer layer coextruded on the non-compliant layer, wherein the non-compliant layer is configured to delaminate from the inner layer and the outer layer in the inflated configuration; wherein the non-compliant layer is configured to rupture in the inflated configuration at a predetermined pressure, and wherein the predetermined pressure is insufficient to rupture both the inner layer and the outer layer. a balloon (14, 14a) inflatable to an inflated configuration (14b, 14c, 14d), the balloon comprising: a non-compliant layer coextruded on an inner layer; and an outer layer coextruded on the non-compliant layer, wherein a non-compliant layer coextruded on an inner layer; and an outer layer coextruded on the non-compliant layer, wherein the non-compliant layer is configured to delaminate from the inner layer and the outer layer in the inflated configuration; wherein the non-compliant layer is configured to rupture in the inflated configuration at a predetermined pressure, and wherein the predetermined pressure is insufficient to rupture both the inner layer and the outer layer.
Method for regulating a position (P F) of an X-ray focus on the anode of an X-ray source of a scan unit of an X-ray imaging system, wherein - a combined actual position (POS φ_ist) of the X-ray focus is determined by a combination of - a measured position (POS φ_mess_entk) of the X-ray focus and - of a model based position (POS φ_mod, POS φ_mess_mod) of the X-ray focus, which is determined based on a measuring value of a deflection current (I φ), - a manipulated variable (U φ_stell) is determined based on the combined actual-position (POS φ_ist) and a target-position (POS φ_soll, POS z_soll) of the X-ray focus and - a regulation is performed for correction of a deviation of the position (P F) of the X-ray focus from its target position (POS φ_soll, POS z_soll) based on the determined manipulated variable (U φ_stell). - a combined actual position (POS φ_ist) of the X-ray focus is determined by a combination of - a measured position (POS φ_mess_entk) of the X-ray focus and - of a model based position (POS φ_mod, POS φ_mess_mod) of the X-ray focus, which is determined based on a measuring value of a deflection current (I φ), - a measured position (POS φ_mess_entk) of the X-ray focus and - of a model based position (POS φ_mod, POS φ_mess_mod) of the X-ray focus, which is determined based on a measuring value of a deflection current (I φ), - a manipulated variable (U φ_stell) is determined based on the combined actual-position (POS φ_ist) and a target-position (POS φ_soll, POS z_soll) of the X-ray focus and - a regulation is performed for correction of a deviation of the position (P F) of the X-ray focus from its target position (POS φ_soll, POS z_soll) based on the determined manipulated variable (U φ_stell).
A paper sheet recognizing method for recognizing paper sheets having different sizes and colors for each type, by using a sensing unit including a line sensor that detects a light quantity of reflected light or transmitted light obtained by irradiating a paper sheet being transported with a plurality of lights having different wavelengths, the method comprising: storing reference size data and reference light quantity data generated beforehand for each type of paper sheets to be recognition candidates; selecting a recognition target type from the recognition candidates based on detected size data of the paper sheet detected by the sensing unit and the reference size data; and determining a type of the paper sheet by comparing detected light quantity data of the paper sheet detected by the line sensor with the reference light quantity data of the recognition target type, wherein in the detecting of the light quantity, the paper sheet is scanned by using the line sensor arranged along a direction orthogonal to a transport direction, characterized in that in the determining, the type of the paper sheet is specified by comparing the detected light quantity data of the paper sheet with the reference light quantity data of the recognition target type and the reference light quantity data of at least one recognition candidate whose order of size is adjacent to the recognition target type. storing reference size data and reference light quantity data generated beforehand for each type of paper sheets to be recognition candidates; selecting a recognition target type from the recognition candidates based on detected size data of the paper sheet detected by the sensing unit and the reference size data; and determining a type of the paper sheet by comparing detected light quantity data of the paper sheet detected by the line sensor with the reference light quantity data of the recognition target type, wherein in the detecting of the light quantity, the paper sheet is scanned by using the line sensor arranged along a direction orthogonal to a transport direction, characterized in that in the determining, the type of the paper sheet is specified by comparing the detected light quantity data of the paper sheet with the reference light quantity data of the recognition target type and the reference light quantity data of at least one recognition candidate whose order of size is adjacent to the recognition target type.
A gas barrier film comprising a polymer film, an anchor coat layer, and a metal oxide layer; wherein the polymer film and the metal oxide layer are laminated with the anchor coat layer interposed therebetween, the anchor coat layer has a thickness of 25 nm or more, and the anchor coat layer is a layer containing an acrylic resin having an organic acid group, or a layer comprising a cured product of a composition containing an acrylic resin having an organic acid group, the composition further contains a polyisocyanate, and the acrylic resin is an acrylic polyol resin, wherein a mass ratio M A /M I of the content M A of the acrylic polyol resin to the content M I of the polyisocyanate in the composition is 2/8 or more. the polymer film and the metal oxide layer are laminated with the anchor coat layer interposed therebetween, the anchor coat layer has a thickness of 25 nm or more, and the anchor coat layer is a layer containing an acrylic resin having an organic acid group, or a layer comprising a cured product of a composition containing an acrylic resin having an organic acid group, the composition further contains a polyisocyanate, and the acrylic resin is an acrylic polyol resin, wherein a mass ratio M A /M I of the content M A of the acrylic polyol resin to the content M I of the polyisocyanate in the composition is 2/8 or more.