mhurhangee/ep-ind-claims huggingface dataset:
A high-strength cold-rolled steel sheet having a tensile strength of 980 MPa or more, a yield ratio of 66% or less, an elongation of 19% or more and a hole expansion ratio of 30% or more, the high-strength cold-rolled steel sheet having a chemical composition containing, by mass%, C: 0.15% to 0.25%, Si: 1.0% to 2.0%, Mn: 1.8% to 2.5%, P: 0.10% or less, S: 0.010% or less, Al: 0.10% or less, N: 0.010% or less, and optionally one or more selected from V: 0.10% or less, Nb: 0.10% or less, Ti: 0.10% or less, and optionally B: 0.010% or less, and optionally one or more selected from Cr: 0.50% or less, Mo: 0.50% or less, Cu: 0.50% or less, Ni: 0.50% or less, Ca: 0.0050% or less, REM: 0.0050% or less,the balance being Fe and inevitable impurities including Sb: 0.01% or less, Sn: 0.10% or less, Zn: 0.01% or less, and Co: 0.10% or less, and a multi-phase microstructure including ferrite having an average crystal grain diameter of 5 μm or less in an amount of 30% to 55% in terms of volume fraction, retained austenite having an average crystal grain diameter of 2 μm or less in an amount of 5% to 15% in terms of volume fraction, tempered martensite having an average crystal grain diameter of 2 μm or less in an amount of 30% to 60% in terms of volume fraction, pearlite in an amount of 5% or less in terms of volume fraction, and tempered bainite in an amount of 30% or less in terms of volume fraction, wherein the average crystal grain diameters are determined by calculating the circle-equivalent diameters of the phases from a steel sheet microstructure photograph and by calculating the average values of the circle-equivalent diameters, and wherein the volume fractions are determined by determining the area ratios of the phases using a point-counting method in accordance with ASTM E 562-83, 1988, and wherein the number of grains of the retained austenite existing in an area of 1000 μm 2 is 10 or more.
Assembly for a line bushing for casting in a component, comprising a positioning module for fastening the assembly to a wall or formwork, a fire protection module which has an intumescent fire protection element, and an elongate formwork sleeve, which together form a feed-through space for a line, with receptacles (44, 46) being provided on the fire protection module for reversible fastening of the formwork sleeve and/or the positioning module, characterized in that the receptacles (44, 46) are formed by annular channels (40, 42) on the end faces (36, 38) of the fire protection module.
A method for making a thermoplastic vulcanizate, the method comprising the steps of: charging vulcanizable rubber to a reactor; charging a masterbatch of thermoplastic resin and a catalyst for a phenolic resin curative to the reactor; charging a phenolic resin curative to the reactor; and dynamically vulcanizing the rubber with the phenolic resin curative in the presence of the catalyst.
An environmental control system of an aircraft, comprising: a ram air circuit including a ram air shell having at least one heat exchanger (34, 36) positioned therein; a dehumidification system arranged in fluid communication with the ram air circuit; and a plurality of compressing devices arranged in fluid communication with the ram air circuit and the dehumidification system, wherein each of the plurality of compressing devices further includes: a turbine comprising a first inlet and a second inlet and configured to provide energy by expanding one or more mediums, the environmental control system being configured such that the first inlet receives a first medium of the one or more mediums and the second inlet receives a second medium of the one or more mediums; and a compressor, the environmental control system being configured such that the compressor receives energy from at least one of the first medium and the second mediums being expanded across the turbine, and compresses the second medium. a ram air circuit including a ram air shell having at least one heat exchanger (34, 36) positioned therein; a dehumidification system arranged in fluid communication with the ram air circuit; and a plurality of compressing devices arranged in fluid communication with the ram air circuit and the dehumidification system, wherein each of the plurality of compressing devices further includes: a turbine comprising a first inlet and a second inlet and configured to provide energy by expanding one or more mediums, the environmental control system being configured such that the first inlet receives a first medium of the one or more mediums and the second inlet receives a second medium of the one or more mediums; and a compressor, the environmental control system being configured such that the compressor receives energy from at least one of the first medium and the second mediums being expanded across the turbine, and compresses the second medium. a turbine comprising a first inlet and a second inlet and configured to provide energy by expanding one or more mediums, the environmental control system being configured such that the first inlet receives a first medium of the one or more mediums and the second inlet receives a second medium of the one or more mediums; and a compressor, the environmental control system being configured such that the compressor receives energy from at least one of the first medium and the second mediums being expanded across the turbine, and compresses the second medium.
An audio processing unit (200, 300) coupled to receive an encoded audio bitstream, the audio processing unit (200, 300) comprising: a buffer memory, configured to store at least one frame of the encoded audio bitstream comprising audio data segments and metadata segments, wherein the audio data segments are indicative of audio data, and at least some of the metadata segments include a loudness processing state metadata, LPSM, wherein the LPSM indicate a loudness of the audio data and indicate a type or types of loudness processing that has or have, respectively, been performed on the audio data; and a processing subsystem coupled to the buffer memory and configured to: extract the audio data and the LPSM from the encoded audio bitstream, generate decoded audio data, and perform at least one adaptive loudness processing operation on the decoded audio data using the LPSM. extract the audio data and the LPSM from the encoded audio bitstream, generate decoded audio data, and perform at least one adaptive loudness processing operation on the decoded audio data using the LPSM.
Method for diagnosing the state of rail vehicle wheels of a rail vehicle, wherein, within a predefined time interval or route interval, at least one stress value of a form of stress on the rail vehicle wheels is ascertained using at least one measurement system, and a current deterioration value of the rail vehicle wheels is determined from the at least one stress value, as well as from a zero measurement or an intermediate measurement of a starting deterioration value, using a calculation system, wherein the form of stress comprises a coefficient of friction between rail vehicle wheel and rail.
A hydrogen storage device comprising a heater/cooler module and a pressure containment vessel defining an interior volume and having within it: - a thermally conducting network having a face in thermal contact with the heater /cooler module; and - a hydrogen storage material in thermal contact with the thermally conducting network; characterised by: the shape of the thermally conducting network being a fractal geometry in two or three dimensions. - a thermally conducting network having a face in thermal contact with the heater /cooler module; and - a hydrogen storage material in thermal contact with the thermally conducting network;
Method for displaying a vehicle's surroundings in a vehicle during an instantaneous, second time point (t), having the steps of: - providing a first blind region image (I_B[t]), which contains an image synthesis of a blind region of the vehicle's surroundings, which is arranged outside a field of view (141F, 141R, 141LL, 141LR) of a vehicle camera (140F, 140R, 140LL, 140LR), at a first time point (t-1) preceding the second time point (t), - arranging a respective first blind region image point (IB_SP[t-1]) of the blind region at a new position estimated for the second time point (t), - determining whether the new position of the respective first blind region image point (IB_SP[t-1]) continues to lie within the blind region at the second time point (t), and - generating a respective second blind region image point (IB_SP[t]) for the second time point (t) by synthesizing (S5A) the respective first blind region image point (IB_SP[t-1]) on the basis of movement data (v_x, v_y) of the vehicle if the new position is determined to be lying within the blind region. - providing a first blind region image (I_B[t]), which contains an image synthesis of a blind region of the vehicle's surroundings, which is arranged outside a field of view (141F, 141R, 141LL, 141LR) of a vehicle camera (140F, 140R, 140LL, 140LR), at a first time point (t-1) preceding the second time point (t), - arranging a respective first blind region image point (IB_SP[t-1]) of the blind region at a new position estimated for the second time point (t), - determining whether the new position of the respective first blind region image point (IB_SP[t-1]) continues to lie within the blind region at the second time point (t), and - generating a respective second blind region image point (IB_SP[t]) for the second time point (t) by synthesizing (S5A) the respective first blind region image point (IB_SP[t-1]) on the basis of movement data (v_x, v_y) of the vehicle if the new position is determined to be lying within the blind region.
Method for removing volatile constituents from high-viscosity silicone polymers or silicone compositions, wherein the viscosity of the silicone polymers is 1000 to 20000 Pa*s or the viscosity of the silicone compositions is 100 to 20000 Pa*s, in each case measured at 25°C and shear factor D = 1, in a short path evaporator which comprises a vertically disposed cylinder having a heating jacket which heats the inner wall of the cylinder; a rotor; and an internal condenser, with wiper elements and conveying elements mounted on the rotor-carrying facility and bringing about distribution of the silicone polymers or silicone composition in the form of a thin layer, and where, on the heated inner wall, the silicone polymers or silicone compositions are fed by a feed at the top of the cylinder on the inner wall.
A reinforced aromatic polycarbonate resin sheet or film, which is selected from the following embodiments and: A reinforced aromatic polycarbonate resin sheet or film with a thickness of 0.2-1.5 mm comprising: a resin component containing 40-80 pts. mass of an aromatic polycarbonate; and 20-60 pts. mass of a reinforcing filling material, where the total of the aromatic polycarbonate and the reinforcing filling material is 100 pts. mass, wherein an arithmetic mean surface roughness (Ra) of at least one surface is 2.0 μm or less; A reinforced aromatic polycarbonate resin sheet or film with a thickness of 0.2-1.5 mm, obtained by mixing 100 pts. mass of a resin component containing 55-90 pts. mass of anaromatic polycarbonate and 10-45 pts. mass of a thermoplastic resin that is compatible with the aromatic polycarbonate and having a refractive index of 1.56 or less at a wavelength of 589 nm, with 5-45 pts. mass of a reinforcing filling material, wherein "nab" representing the refractive index of the resin blend component of and at a wavelength of 589 nm and "nc" representing the refractive index of the reinforcing filling material at a wavelength of 589 nm satisfy Formula i) below: − 0.008 ≤ nab − nc ≤ + 0.008, and an arithmetic mean surface roughness (Ra) of at least one surface is 2.0 μm or less; characterized in that, in embodiments and, the reinforcing filling material contains (c-1) a fibrous filler, wherein the fibers have a length of 5 mm or less and a flat or elliptic cross-sectional shape. A reinforced aromatic polycarbonate resin sheet or film with a thickness of 0.2-1.5 mm comprising: a resin component containing 40-80 pts. mass of an aromatic polycarbonate; and 20-60 pts. mass of a reinforcing filling material, where the total of the aromatic polycarbonate and the reinforcing filling material is 100 pts. mass, wherein an arithmetic mean surface roughness (Ra) of at least one surface is 2.0 μm or less; A reinforced aromatic polycarbonate resin sheet or film with a thickness of 0.2-1.5 mm, obtained by mixing 100 pts. mass of a resin component containing 55-90 pts. mass of anaromatic polycarbonate and 10-45 pts. mass of a thermoplastic resin that is compatible with the aromatic polycarbonate and having a refractive index of 1.56 or less at a wavelength of 589 nm, with 5-45 pts. mass of a reinforcing filling material, wherein "nab" representing the refractive index of the resin blend component of and at a wavelength of 589 nm and "nc" representing the refractive index of the reinforcing filling material at a wavelength of 589 nm satisfy Formula i) below: − 0.008 ≤ nab − nc ≤ + 0.008, and an arithmetic mean surface roughness (Ra) of at least one surface is 2.0 μm or less; characterized in that, in embodiments and, the reinforcing filling material contains (c-1) a fibrous filler, wherein the fibers have a length of 5 mm or less and a flat or elliptic cross-sectional shape.
An analysis device for quantifying an analyte, comprising: a sample introduction unit configured to introduce a sample into the analysis device and including a sample introduction valve; a liquid feeding unit including a sample introduction pump connected to the sample introduction valve; a treatment unit configured to treat the sample introduced into the analysis device at the sample introduction unit and including an elution valve and a cleaning valve, wherein the elution valve and the cleaning valve are connected to each other via a flow path pipe; a detection unit configured to analyze the sample treated by the treatment unit; and a control unit configured to control the sample introduction unit, the liquid feeding unit, the treatment unit, and the detection unit, wherein the control unit is adapted to control the sample introduction valve such as to feed the sample to the elution valve through the cleaning valve, and the detection unit is adapted to analyze the sample which flew thereto via the sample introduction valve, the cleaning valve, and the elution valve in the order stated, characterized in that the liquid feeding unit includes a cleaning pump connected to the cleaning valve and an elution pump connected to the elution valve, and the control unit is adapted to perform a control for switching positions of the cleaning valve and the elution valve for cleaning the treatment unit by feeding a solution from the sample introduction pump, the cleaning pump and the elution pump, even while the sample is being introduced into the analysis device by the sample introduction unit. a sample introduction unit configured to introduce a sample into the analysis device and including a sample introduction valve; a liquid feeding unit including a sample introduction pump connected to the sample introduction valve; a treatment unit configured to treat the sample introduced into the analysis device at the sample introduction unit and including an elution valve and a cleaning valve, wherein the elution valve and the cleaning valve are connected to each other via a flow path pipe; a detection unit configured to analyze the sample treated by the treatment unit; and a control unit configured to control the sample introduction unit, the liquid feeding unit, the treatment unit, and the detection unit, wherein the control unit is adapted to control the sample introduction valve such as to feed the sample to the elution valve through the cleaning valve, and the detection unit is adapted to analyze the sample which flew thereto via the sample introduction valve, the cleaning valve, and the elution valve in the order stated, characterized in that the liquid feeding unit includes a cleaning pump connected to the cleaning valve and an elution pump connected to the elution valve, and the control unit is adapted to perform a control for switching positions of the cleaning valve and the elution valve for cleaning the treatment unit by feeding a solution from the sample introduction pump, the cleaning pump and the elution pump, even while the sample is being introduced into the analysis device by the sample introduction unit.
A coating system for application to a building component of a building, comprising a coating composition A and a coating composition B, characterized in that the coating composition A contains an active agent capable of migration and the coating composition B contains an activator for releasing the active agent capable of migration, which is contained in the coating composition A, so that, after the application of the coating system, the activator, which is contained in the coating composition B, causes the release and migration of the active agent capable of migration, which is contained in coating composition A, wherein the active agent migrates from the application site to a site of action, which is a coating formed from the coating composition B.
A conditioning unit of the free cooling type, particularly for conditioning computing centers, of the type comprising: - a water evaporation device for cooling a conditioning air flow, - fans for moving said conditioning air flow, - an auxiliary electric power supply unit, - means for measuring electric power absorbed by said conditioning unit, characterized in that it comprises: - means for detecting and signaling a type of electric power supply that is active, whether from an electrical grid or from the auxiliary electric power supply unit, - an electronic control and management unit, preset to control the fans in order to limit the speed and power absorption of each one of said fans. - a water evaporation device for cooling a conditioning air flow, - fans for moving said conditioning air flow, - an auxiliary electric power supply unit, - means for measuring electric power absorbed by said conditioning unit, characterized in that it comprises: - means for detecting and signaling a type of electric power supply that is active, whether from an electrical grid or from the auxiliary electric power supply unit, - an electronic control and management unit, preset to control the fans in order to limit the speed and power absorption of each one of said fans. - means for detecting and signaling a type of electric power supply that is active, whether from an electrical grid or from the auxiliary electric power supply unit, - an electronic control and management unit, preset to control the fans in order to limit the speed and power absorption of each one of said fans.
A catch assembly (200; 400) for fastening an accessory support (100; 300) to a wall box, the catch assembly comprising a catch base (210; 410) and a fastener catch (220; 420) that is mounted in the catch base (210; 410), the catch base (210; 410) including two abutment surfaces (251, 252; 451, 452) that are positioned at two different heights, the catch assembly being characterized in that the catch (220; 420) is adapted to bear against each of said abutment surfaces (251, 252; 451, 452) so as to pivot relative to said catch base (210; 410) from a retracted position to a deployed position, and in that one of the two abutment surfaces (251; 451) belongs to a breakable element (270; 470) of the catch base (210; 410), which breakable element is adapted to be removed from the catch base (210; 410).
A computerized method for creating a two-dimensional finite element model of a rubber composite (b) of a rubber matrix (d) and fillers (c) for simulating deformation of the rubber composite (b), comprising a first step in which a region of the rubber matrix (d) and a plurality of regions of the fillers (c) are defined in a predetermined two-dimensional space, and coordinates of these regions (4, 5) defined are stored in a memory of a computer, characterized by a second step in which, with the computer, each of the rubber matrix's region and the fillers' regions is divided into a plurality of triangular elements, each having a shortest side whose length is L4b and a longest side whose length is L4a being not more than 2 times of L4b, to define a two-dimensional primary finite element model of the rubber composite (b) consisting of the triangular elements only, and a third step in which, with the computer, each of the triangular elements of the two-dimensional primary finite element model is subdivided into three quadrilateral elements, whereby the two-dimensional finite element model made up of the quadrilateral elements only is created. a second step in which, with the computer, each of the rubber matrix's region and the fillers' regions is divided into a plurality of triangular elements, each having a shortest side whose length is L4b and a longest side whose length is L4a being not more than 2 times of L4b, to define a two-dimensional primary finite element model of the rubber composite (b) consisting of the triangular elements only, and a third step in which, with the computer, each of the triangular elements of the two-dimensional primary finite element model is subdivided into three quadrilateral elements, whereby the two-dimensional finite element model made up of the quadrilateral elements only is created.
A vibration sensor (100, 300, 500) comprising 1) a moveable mass being suspended in a suspension member (305, 308) and being adapted to move in response to vibrations or accelerations, and 2) a damping arrangement comprising a damping substance (304, 307), wherein the moveable mass is arranged to interact directly or indirectly with the damping substance (304, 307) in order to reduce a mechanical resonance peak of the vibration sensor, and wherein the damping substance (304, 307) is divided into a plurality of discrete damping substance portions (304, 307), such as dots of damping substance, essentially linear damping substance portions and/or curved damping substance portions characterised in that the moveable mass and a centre portion of the suspension member (305, 308) are rigidly connected across one or more gaps formed by respective opposing surfaces of the moveable mass and the suspension member (305, 308). 1) a moveable mass being suspended in a suspension member (305, 308) and being adapted to move in response to vibrations or accelerations, and 2) a damping arrangement comprising a damping substance (304, 307), wherein the moveable mass is arranged to interact directly or indirectly with the damping substance (304, 307) in order to reduce a mechanical resonance peak of the vibration sensor, and wherein the damping substance (304, 307) is divided into a plurality of discrete damping substance portions (304, 307), such as dots of damping substance, essentially linear damping substance portions and/or curved damping substance portions