mhurhangee/ep-ind-claims huggingface dataset:
A device, comprising: a first input to receive an unmodulated carrier signal; a second input to receive a modulated carrier signal, the modulated carrier signal being a version of the unmodulated carrier signal that has been modulated by a modulating signal, the modulating signal being repetitive, and the modulating signal being asynchronous with the unmodulated carrier signal; a first sampling circuit to sample the modulated carrier signal; a quadrature sampler including a second sampling circuit and third sampling circuit to sample the quadrature phases of the unmodulated carrier signal; timebase circuitry to cause the first, second and third sampling circuits to simultaneously sample the modulated carrier signal and quadrature phases of the unmodulated carrier signal at a plurality of timesteps relative to a pattern trigger signal that is synchronous with the modulating signal, and at a plurality of times at each timestep; phase calculation circuitry to calculate phases of the unmodulated carrier signal from the sampled quadrature phases to determine a carrier signal phase progression; and waveform reconstruction circuitry to construct a stationary representation of the modulated carrier signal by selecting samples of the modulated carrier signal that correspond to the carrier signal phase progression. a first input to receive an unmodulated carrier signal; a second input to receive a modulated carrier signal, the modulated carrier signal being a version of the unmodulated carrier signal that has been modulated by a modulating signal, the modulating signal being repetitive, and the modulating signal being asynchronous with the unmodulated carrier signal; a first sampling circuit to sample the modulated carrier signal; a quadrature sampler including a second sampling circuit and third sampling circuit to sample the quadrature phases of the unmodulated carrier signal; timebase circuitry to cause the first, second and third sampling circuits to simultaneously sample the modulated carrier signal and quadrature phases of the unmodulated carrier signal at a plurality of timesteps relative to a pattern trigger signal that is synchronous with the modulating signal, and at a plurality of times at each timestep; phase calculation circuitry to calculate phases of the unmodulated carrier signal from the sampled quadrature phases to determine a carrier signal phase progression; and waveform reconstruction circuitry to construct a stationary representation of the modulated carrier signal by selecting samples of the modulated carrier signal that correspond to the carrier signal phase progression.
A reinforced base for a plastics bottle, said base comprising: (a) an annular rim upon which the bottle rests; (b) a concave dome bounded by said rim, with the concavity facing the outside of the bottle body; said dome having a total area and comprising three regions: (i) an outer, annular region, adjacent said rim; (ii) in inner, circular region, at the centre of said dome; and (iii) a middle, annular region, between said outer and inner regions; (c) a plurality of spaced apart geometrical configurations in the form of closed polygonal or circular formations located on said middle annular region of the dome; CHARACTERISED IN THAT said inner, circular region comprises from 2.5% to 10% of the total area of the dome, said middle, annular region comprises from 60% to 90% of the total area of the dome, and said outer annular region comprises from 7.5% to 30% of the total area of the dome, and is free of said geometrical configurations. (a) an annular rim upon which the bottle rests; (b) a concave dome bounded by said rim, with the concavity facing the outside of the bottle body; said dome having a total area and comprising three regions: (i) an outer, annular region, adjacent said rim; (ii) in inner, circular region, at the centre of said dome; and (iii) a middle, annular region, between said outer and inner regions; (i) an outer, annular region, adjacent said rim; (ii) in inner, circular region, at the centre of said dome; and (iii) a middle, annular region, between said outer and inner regions; (c) a plurality of spaced apart geometrical configurations in the form of closed polygonal or circular formations located on said middle annular region of the dome;
Mining system comprising; - a vessel for processing mined ore, - an upper platform coupled with the vessel, - a lower platform supported by the ocean floor, - a number of transport cables (4, 5, 6, 7, 15, 16, 17, 18, 19, 20, 21) which extend between the upper and lower platform, - a container for containing ore which container is fixedly coupled to a container transporting cable (4, 5, 6, 7, 15, 16, 17, 18, 19, 20, 21) such that the container moves vertically with the container transporting cable to transport the container in a container trajectory extending between the upper and lower platform, wherein a container transporting cable section of the container transporting cable extends below the container, and in use pulls the container downwards for preventing pivoting of the container with respect to the container transporting cable, and wherein the container is coupled with a neighbouring container guiding cable (4, 5, 6, 7, 15, 16, 17, 18, 19, 20, 21) via a coupling element for preventing pivoting of the container with respect to the container transporting cable during vertical transport of the container. - a vessel for processing mined ore, - an upper platform coupled with the vessel, - a lower platform supported by the ocean floor, - a number of transport cables (4, 5, 6, 7, 15, 16, 17, 18, 19, 20, 21) which extend between the upper and lower platform, - a container for containing ore which container is fixedly coupled to a container transporting cable (4, 5, 6, 7, 15, 16, 17, 18, 19, 20, 21) such that the container moves vertically with the container transporting cable to transport the container in a container trajectory extending between the upper and lower platform,
Process for preparing a polyolefin product, said process comprising the steps of: (a) providing a first High molecular weight polyolefin resin having a High Load Melt Index (HLMI), measured at 190°C under a 21.6 kg load according ASTM D-1238, of between 0.01 and 5 g/10 min; (b) separately providing a second Low molecular weight polyolefin resin having a Melt Index (MI 2), measured at 190°C under a 2.16 kg load according ASTM D-1238, of between 1 and 150 g/10 min; and (c) using a device for continuously physically melting and blending said first and said second polyolefin resin to produce a polyolefin product, characterized in that said device comprises at least two feeding zones spatially separated and operably connected to each other, wherein at least part of the HMW polyolefin resin is introduced in a first feeding zone, and at least part and up to 90% by weight of the LMW polyolefin is introduced in a second feeding zone different from the first feeding zone and wherein the second feeding zone is located downstream of the first feeding zone, and wherein the polyolefin resin is continuously moved from the first feeding zone, through a first melting and blending zone, to the at least one second feeding zone, and through a second melting and blending zone, and wherein the ratio HMW/LMW of the product decreases as a function of residence time in the device. (a) providing a first High molecular weight polyolefin resin having a High Load Melt Index (HLMI), measured at 190°C under a 21.6 kg load according ASTM D-1238, of between 0.01 and 5 g/10 min; (b) separately providing a second Low molecular weight polyolefin resin having a Melt Index (MI 2), measured at 190°C under a 2.16 kg load according ASTM D-1238, of between 1 and 150 g/10 min; and (c) using a device for continuously physically melting and blending said first and said second polyolefin resin to produce a polyolefin product,
Process for identifying the usage of electrical equipment (12, 14, 16, 18) connected to a power supply grid and comprising an asynchronous motor coupled to a charge, characterized in that it comprises the step consisting of identifying the usage of electrical equipment by comparing an electrical signature of this equipment with recorded electrical signatures, the recorded electrical signature being determined in a preliminary step and consisting of a limited and predetermined set of characteristic frequencies and their harmonics obtained from the only information featuring on the identification plate of the asynchronous motor and from visual inspection of the charge and its method for coupling to the asynchronous motor.
Automatic baking machine with a loading unit for especially the manual loading of baked goods, wherein the loading unit comprises at least one first conveyor device equipped with numerous carriers circulating in the loading unit for receiving several adjacent individual baked goods adjacent in the direction of the longitudinal extension of the respective carrier, with an oven unit mounted downstream from the loading unit and having a transportation device for transporting through the baked goods, as well as with a delivery unit mounted downstream from the baking device, the delivery unit comprising at least a second conveyor device with numerous carriers circulating in the delivery unit for receiving several adjacent baked goods, wherefrom the baked goods are guided to at least one dispensing compartment, characterized in that at least one stationary linear conveyor for the baked goods is arranged between the at least one first conveyor device and the transportation device of the oven unit and that the conveying direction of the at least one linear conveyor runs parallel to the longitudinal extension of the carriers of the first conveyor device and perpendicularly to the conveying direction of the baked goods through the oven unit and that the conveying direction of the baked goods from the loading unit onto the stationary linear conveyor and the conveying direction of the baked goods through the oven unit run parallel and opposed to each other.
A method for production of a synthetic quartz glass having a fluorine concentration of 3,000 ppm by mass or higher, comprising the following steps (a) to (c): (a) depositing and growing quartz glass fine particles obtained by flame hydrolysis of a glass-forming material onto a substrate, to thereby form a porous glass body; (b) maintaining the porous glass body in a reaction vessel under an elemental fluorine (F 2)-containing atmosphere of a pressure of P b1 and a temperature of 400°C or lower, and followed by maintaining in the reaction vessel under condition of a pressure P b2 lower than the pressure P b1 and a temperature of 400°C or lower, to thereby obtain a fluorine-containing porous glass body; (c) heating the fluorine-containing porous glass body in a vitrification furnace to a transparent vitrification temperature, to thereby obtain a fluorine-containing transparent glass body; wherein the pressure P b2 in step (b) is lower than the atmospheric pressure; and wherein a temperature T b2 at which the glass body is maintained under the condition of the pressure P b2 in step (b) is equal to or higher than a temperature T b1 at which the glass body is maintained under the condition of the pressure P b1. (a) depositing and growing quartz glass fine particles obtained by flame hydrolysis of a glass-forming material onto a substrate, to thereby form a porous glass body; (b) maintaining the porous glass body in a reaction vessel under an elemental fluorine (F 2)-containing atmosphere of a pressure of P b1 and a temperature of 400°C or lower, and followed by maintaining in the reaction vessel under condition of a pressure P b2 lower than the pressure P b1 and a temperature of 400°C or lower, to thereby obtain a fluorine-containing porous glass body; (c) heating the fluorine-containing porous glass body in a vitrification furnace to a transparent vitrification temperature, to thereby obtain a fluorine-containing transparent glass body;
Flow-limiting element (100, 200) for limiting the flow of a fluid therethrough, comprising a housing provided with an inlet, an outlet; and a resilient plate-like valve element which is arranged in the housing and which is movable to and from a valve seat, defining a throughflow opening therebetween, under the influence of a pressure of the fluid flowing therethrough and is arranged to adjust the size of the throughflow opening; wherein the valve seat is arranged with a protruding member (113, 114, 213, 214), having a footprint and a height (H113, H114, H213, H214), for limiting the movement of the resilient plate-like valve element towards the valve seat, wherein the footprint of the protruding member is the area on the valve seat that is covered by the protruding member, and wherein the protruding member (113, 114, 213, 214) comprises an engagement surface (1131, 1141, 2131, 2141) for engaging the resilient plate-like valve element, wherein the engagement surface (1131, 1141, 2131, 2141) is at least partially curved, characterized in that a radius of curvature of the at least partially curved engagement surface (R113, R114, R213, R214) is equal to, or larger than, the smallest of the length and width of the footprint of the protruding member. a housing provided with an inlet, an outlet; and a resilient plate-like valve element which is arranged in the housing and which is movable to and from a valve seat, defining a throughflow opening therebetween, under the influence of a pressure of the fluid flowing therethrough and is arranged to adjust the size of the throughflow opening; wherein the valve seat is arranged with a protruding member (113, 114, 213, 214), having a footprint and a height (H113, H114, H213, H214), for limiting the movement of the resilient plate-like valve element towards the valve seat, wherein the footprint of the protruding member is the area on the valve seat that is covered by the protruding member, and wherein the protruding member (113, 114, 213, 214) comprises an engagement surface (1131, 1141, 2131, 2141) for engaging the resilient plate-like valve element, wherein the engagement surface (1131, 1141, 2131, 2141) is at least partially curved, characterized in that a radius of curvature of the at least partially curved engagement surface (R113, R114, R213, R214) is equal to, or larger than, the smallest of the length and width of the footprint of the protruding member.
An environmental control system for a multi-engine aircraft, comprising: a controller configured to switch the ECS between a plurality of operating modes, the plurality of operating modes comprising: a first operating mode configured to receive bleed air from each engine (209a, 209b, 209c, 209d) of the aircraft in a first environmental condition, wherein the pressure of the bleed air is about equal from each engine; and a second operating mode configured to receive bleed air from at least one engine of the aircraft in a second environmental condition, wherein the pressure of the bleed air is different between at least two engines, characterised in that the controller is operatively connected to a thrust controller to cause engine thrust to increase in at least one engine (209a, 209b, 209c, 209d) and to reduce thrust from at least one other engine to maintain a constant total thrust when the ECS is in the second operating mode. a controller configured to switch the ECS between a plurality of operating modes, the plurality of operating modes comprising: a first operating mode configured to receive bleed air from each engine (209a, 209b, 209c, 209d) of the aircraft in a first environmental condition, wherein the pressure of the bleed air is about equal from each engine; and a second operating mode configured to receive bleed air from at least one engine of the aircraft in a second environmental condition, wherein the pressure of the bleed air is different between at least two engines, a first operating mode configured to receive bleed air from each engine (209a, 209b, 209c, 209d) of the aircraft in a first environmental condition, wherein the pressure of the bleed air is about equal from each engine; and a second operating mode configured to receive bleed air from at least one engine of the aircraft in a second environmental condition, wherein the pressure of the bleed air is different between at least two engines, characterised in that the controller is operatively connected to a thrust controller to cause engine thrust to increase in at least one engine (209a, 209b, 209c, 209d) and to reduce thrust from at least one other engine to maintain a constant total thrust when the ECS is in the second operating mode.
A method for producing tetrafluoromethane, the method comprising: introducing fluorine gas to a raw material liquid containing a reaction inducer and a fluorinated hydrocarbon represented by chemical formula C p H q Cl r F s (in the chemical formula, p is an integer of 3 or more and 18 or less, q is an integer of 0 or more and 3 or less, r is an integer of 0 or more and 9 or less, and s is an integer of 5 or more and 30 or less) and having no carbon-carbon unsaturated bond, wherein the reaction inducer is a halogen-containing carbon compound liquid at room temperature and pressure and is reacted with the fluorine gas to induce a reaction of forming tetrafluoromethane from the fluorinated hydrocarbon and the fluorine gas, and the reaction inducer is contained at a content of more than 0% by mass and not more than 10% by mass when a total content of the fluorinated hydrocarbon and the reaction inducer contained in the raw material liquid is 100% by mass. introducing fluorine gas to a raw material liquid containing a reaction inducer and a fluorinated hydrocarbon represented by chemical formula C p H q Cl r F s (in the chemical formula, p is an integer of 3 or more and 18 or less, q is an integer of 0 or more and 3 or less, r is an integer of 0 or more and 9 or less, and s is an integer of 5 or more and 30 or less) and having no carbon-carbon unsaturated bond, wherein the reaction inducer is a halogen-containing carbon compound liquid at room temperature and pressure and is reacted with the fluorine gas to induce a reaction of forming tetrafluoromethane from the fluorinated hydrocarbon and the fluorine gas, and the reaction inducer is contained at a content of more than 0% by mass and not more than 10% by mass when a total content of the fluorinated hydrocarbon and the reaction inducer contained in the raw material liquid is 100% by mass.
Air-conditioning system for an aircraft, having - a fresh air line, - a recirculation device, with a cabin air inlet and a recirculation air outlet, for recirculating cabin air, - an air-mixing device, - an air distribution system with multiple cabin air outlets, and - a control unit, wherein the air-mixing device is able to be coupled to the recirculation outlet and to the fresh air line, and has a mixed air outlet which is coupled to the air distribution system, wherein the control unit is designed to determine or to receive flight-specific parameters which characterize the flight state of the aircraft, and to determine or to receive environment-specific parameters which characterize an air quality in the environment of the aircraft, wherein the control unit is designed to bring about a first operating state (52, 54) of the air-conditioning system during a first flight state, which is outside cruising flight, in the case of a predefined limit value of at least one environment-specific parameter being exceeded, and to bring about a second operating state (53, 55) of said system during a second flight state, which is outside the first flight state, and wherein, in the second operating state (53, 55), the fresh air line is fluidically connected to the air-mixing device, and wherein, in the first operating state (52, 54), the fresh air line is separated from the air-mixing device for preventing the introduction of fresh air into the cabin. - a fresh air line, - a recirculation device, with a cabin air inlet and a recirculation air outlet, for recirculating cabin air, - an air-mixing device, - an air distribution system with multiple cabin air outlets, and - a control unit,
A display stand holder with slide rail structure, characterized by comprising: a stand body having a top end; a pivot member having a first end and a second end, wherein the first end is provided with a pivot portion, the pivot portion is pivotally connected to the top end of the stand body, and the second end is away from the top end with respect to the first end; a display assembly module disposed at the second end of the pivot member, wherein the display assembly module comprises a slide rail assembly, the slide rail assembly comprises a guide member and a slide member, and the slide member is slidably assembled on the guide member; and at least one constant-force spring connected between the guide member and the slide member; wherein the display assembly module comprises a display assembly plate, the guide member is fixed on the second end of the pivot member, and the slide member is connected to the display assembly plate, so that the display assembly plate and the slide member are slidable together with respect to the guide member; the display assembly plate is further rotatably assembled on the slide rail assembly; the display assembly plate has an axial through hole, a damper plate is fixedly disposed in the axial through hole, and the damper plate contacts the display assembly plate; and the display assembly plate has a ring-shaped damper sheet, and the ring-shaped damper sheet is disposed around a hole edge of the axial through hole and contacts the damper plate. a stand body having a top end; a pivot member having a first end and a second end, wherein the first end is provided with a pivot portion, the pivot portion is pivotally connected to the top end of the stand body, and the second end is away from the top end with respect to the first end; a display assembly module disposed at the second end of the pivot member, wherein the display assembly module comprises a slide rail assembly, the slide rail assembly comprises a guide member and a slide member, and the slide member is slidably assembled on the guide member; and at least one constant-force spring connected between the guide member and the slide member; wherein the display assembly module comprises a display assembly plate, the guide member is fixed on the second end of the pivot member, and the slide member is connected to the display assembly plate, so that the display assembly plate and the slide member are slidable together with respect to the guide member; the display assembly plate is further rotatably assembled on the slide rail assembly; the display assembly plate has an axial through hole, a damper plate is fixedly disposed in the axial through hole, and the damper plate contacts the display assembly plate; and the display assembly plate has a ring-shaped damper sheet, and the ring-shaped damper sheet is disposed around a hole edge of the axial through hole and contacts the damper plate.