mhurhangee/ep-ind-claims huggingface dataset:
An apparatus (1, 1') for filtering a fluid, in particular a Bernoulli filtering apparatus (1, 1'), comprising - a housing (3, 3'), - one or a plurality of filter elements, arranged in the housing (3, 3'), for filtering the fluid, - an inlet for admitting fluid to be filtered into the housing (3, 3'), and - an outlet for discharging the filtered fluid from the housing (3, 3'), - a filter cleaning mechanism for cleaning the filter element(s) of residues from the filtered fluid, comprising - at least one movably mounted filter cleaning element which is embodied to match a respective filter element and is adapted to clean the filter element of residues from the filtered fluid, - a backflushing system (13, 13') in fluid communication with the filter elements, for conducting and discharging the residues from the filtered fluid, and characterised in that the housing (3, 3') has a plurality of housing segments which can be connected to adjacent housing segments, and in that a filter element is arranged at least partially inside each housing segment, and in that the housing segments and filter elements together form a modularly assembled filter module. - a housing (3, 3'), - one or a plurality of filter elements, arranged in the housing (3, 3'), for filtering the fluid, - an inlet for admitting fluid to be filtered into the housing (3, 3'), and - an outlet for discharging the filtered fluid from the housing (3, 3'), - a filter cleaning mechanism for cleaning the filter element(s) of residues from the filtered fluid, comprising - at least one movably mounted filter cleaning element which is embodied to match a respective filter element and is adapted to clean the filter element of residues from the filtered fluid, - a backflushing system (13, 13') in fluid communication with the filter elements, for conducting and discharging the residues from the filtered fluid, and characterised in that the housing (3, 3') has a plurality of housing segments which can be connected to adjacent housing segments, and in that a filter element is arranged at least partially inside each housing segment, and in that the housing segments and filter elements together form a modularly assembled filter module. - at least one movably mounted filter cleaning element which is embodied to match a respective filter element and is adapted to clean the filter element of residues from the filtered fluid, - a backflushing system (13, 13') in fluid communication with the filter elements, for conducting and discharging the residues from the filtered fluid, and characterised in that the housing (3, 3') has a plurality of housing segments which can be connected to adjacent housing segments, and in that a filter element is arranged at least partially inside each housing segment, and in that the housing segments and filter elements together form a modularly assembled filter module.
A method for treating petroleum, a petroleum fraction, or natural gas in order to reduce sulfur and sulfur compounds and/or to increase API gravity and/or to decrease viscosity in the petroleum, the petroleum fraction, or the natural gas, the process comprising: adding a) a first component which is selected from material, particularly roots, of a plant of the genus Glycyrrhiza, and/or arbuscular mycorrhizal fungi, and b) a second component which is selected from of a plant material or -ingredient comprising plastids, algae and/or cyanobacteria, to the petroleum, petroleum fraction, or natural gas. adding a) a first component which is selected from material, particularly roots, of a plant of the genus Glycyrrhiza, and/or arbuscular mycorrhizal fungi, and b) a second component which is selected from of a plant material or -ingredient comprising plastids, algae and/or cyanobacteria, a) a first component which is selected from material, particularly roots, of a plant of the genus Glycyrrhiza, and/or arbuscular mycorrhizal fungi, and b) a second component which is selected from of a plant material or -ingredient comprising plastids, algae and/or cyanobacteria, to the petroleum, petroleum fraction, or natural gas.
A helical permanent magnet structure, comprising: at least one magnet assembly, comprising: a plurality of permanent magnets; a plurality of iron poles, wherein the number of permanent magnets and of iron poles is the same, wherein each iron pole is magnetized by a corresponding permanent magnet and is attracted on one side of the corresponding permanent magnet; wherein the permanent magnets have a magnetization direction, the permanent magnets being formed as a helical shape and arranged as a helical surface, and the center of the helical surface having a longitudinal passage for being passed through by a charged particle, characterised in that each of the magnet assemblies is divided into four sectors (A,B,C,D), each sector longitudinally movable to adjust the transverse magnetic field along the longitudinal passage a plurality of permanent magnets; a plurality of iron poles, wherein the number of permanent magnets and of iron poles is the same, wherein each iron pole is magnetized by a corresponding permanent magnet and is attracted on one side of the corresponding permanent magnet; wherein the permanent magnets have a magnetization direction, the permanent magnets being formed as a helical shape and arranged as a helical surface, and the center of the helical surface having a longitudinal passage for being passed through by a charged particle, characterised in that each of the magnet assemblies is divided into four sectors (A,B,C,D), each sector longitudinally movable to adjust the transverse magnetic field along the longitudinal passage
- A Programmable Non-Explosive Electronic Initiator for a rapidly expanding metal mixture and/or plasma, WHEREIN it comprises a capsule, containing attached a first rapidly expanding metal mixture and a second rapidly expanding metal mixture with activation temperatures above 1000°C; where the capsule corresponds to a container tube or sleeve which is closed with a sealing plug; which receives a communication protocol based on voltage modulation, by means of a communication and power line (02a, 02b) using a bidirectional serial algorithm from an external command equipment; a capacitor (C7, 8, 21), with a voltage requirement under 35V which by means of a controlled discharge on a filament (12, 30) produces the filament to glow, where this filament (12, 30) is supported on a solid base covered with the first expanding metallic mixture which is activated above 1000°C, wherein both are inserted in a shrink sleeve which holds them together, wherein the shrink sleeve, which holds them together, where the shrink sleeve is contained inside the capsule container which in turn contains the second rapidly expanding metallic mixture which is activated above 1200°C; a PCB printed circuit board with a PCB printed circuit that controls the discharge, its delay between 1 ms to 64,000 ms and its testing so that the circuit may be checked prior to ignition.
A torque limiting assembly comprising: an input shaft; an output shaft; a drive bush; a motion converter mechanism; a casing; and at least one engagement member for engaging the casing; wherein the input shaft is coupled to the drive bush, and the drive bush is coupled to the output shaft by the motion converter mechanism such that, in a low torque mode, rotation of the input shaft drives rotation of the drive bush, motion converter mechanism and output shaft; wherein the output shaft and the motion converter mechanism are coupled such that, in a high torque mode, rotation of the motion converter mechanism relative to the output shaft about an axis of rotation urges the motion converter mechanism in a direction along the axis of rotation, wherein the motion converter mechanism and drive bush are coupled such that when the motion converter mechanism is urged along said axis of rotation the motion converter mechanism rotates the drive bush relative to the input shaft; and wherein the engagement member is coupled to both the drive bush and the input shaft such that when the drive bush is rotated relative to the input shaft, the engagement member is moved or urged to engage the casing so as to prevent or inhibit rotation of the input shaft relative to the casing; characterised in that the axis of rotation is an axis of rotation of both the input and output shafts. an input shaft; an output shaft; a drive bush; a motion converter mechanism; a casing; and at least one engagement member for engaging the casing; wherein the input shaft is coupled to the drive bush, and the drive bush is coupled to the output shaft by the motion converter mechanism such that, in a low torque mode, rotation of the input shaft drives rotation of the drive bush, motion converter mechanism and output shaft; wherein the output shaft and the motion converter mechanism are coupled such that, in a high torque mode, rotation of the motion converter mechanism relative to the output shaft about an axis of rotation urges the motion converter mechanism in a direction along the axis of rotation, wherein the motion converter mechanism and drive bush are coupled such that when the motion converter mechanism is urged along said axis of rotation the motion converter mechanism rotates the drive bush relative to the input shaft; and wherein the engagement member is coupled to both the drive bush and the input shaft such that when the drive bush is rotated relative to the input shaft, the engagement member is moved or urged to engage the casing so as to prevent or inhibit rotation of the input shaft relative to the casing; characterised in that the axis of rotation is an axis of rotation of both the input and output shafts.
An oil settling system for an internal combustion engine comprising (i) a separation device designed to trap oil droplets present in a flow of a leakage gas and (ii) an ejector pump placed upstream of the separation device designed to accelerate the flow of leakage gas before introduction thereof into the separation device, characterized in that the settling system further comprises a secondary passage closed by a movable shutter, disposed in parallel with the ejector pump allowing increasing the passage section of the flow of leakage gas, said secondary passage starting upstream of the ejector pump and joining the flow of leakage gas upstream of the separation device.
A bleached tobacco raw material comprising less than 4 weight-% fermentable carbohydrates, calculated on the dry total weight of the bleached tobacco raw material, wherein the bleached tobacco raw material comprises less than 7.0 mg/kg nitrite; less than 2.0 mg/kg combined amount of NNN (N-nitrosonornicotine) and NNK ((4-methylnitrosamino)-1-(3-pyridyl)-1-butanone); less than 10.0 μg/kg NDMA (N-nitrosodimethylamine); less than 5.0 μg/kg B(a)P (benzo(a)pyrene); less than 1.0 mg/kg Cd; less than 2.0 mg/kg Pb; less than 0.5 mg/kg As; less than 3.0 mg/kg Ni; less than 4.5 mg/kg Cr; calculated on the dry total weight of the bleached tobacco raw material.
Charging and/or discharging system for a thermal energy storage (1, 1', 1", 1"') with a liquid container having at least one liquid inlet and at least one liquid outlet, wherein the liquid inlet and/or the liquid outlet comprise at least one liquid line (10, 11, 12, 13), which opens into a radial diffuser (5, 6), through which liquid is led into respectively out of the liquid container, and wherein the diffuser (5, 6) comprises a centrally arranged diffuser connection area being connected with the liquid line (10, 11, 12, 13) and two spaced apart diffuser plates (8, 9) radially extending from the diffuser connection area, and at least one insert is provided between the diffuser plates (8, 9), which shows a flow resistance being higher than the flow resistance of an undisturbed flow between the two diffuser plates (8, 9), wherein the insert comprises at least one perforation element (23, 24) arranged circularly between the diffuser plates (8, 9) or at least one porous element or the insert comprises at least one grid arranged circularly between the diffuser plates (8, 9) or the insert comprises at least one element arranged circularly between the diffuser plates (8, 9), which is at least partly made of an open-pored foam, characterized in that the outermost part of the diffuser (5, 6) is not equipped with an insert, and the insert is provided in such a way that after the disturbance of the flow through the flow resistance, which the insert sets against the flow, the flow is renewing itself over the circumference and the height of the area of the diffuser (5, 6) stretched between the diffuser plates (8, 9).
A chromatic dispersion measuring apparatus comprising: a pump light source for emitting pump light with a wavelength λ pump; a probe light source for emitting probe light with a wavelength λ probe; a measuring means for measuring the power of idler light having a wavelength λ idler output from a device under test according to four-wave mixing generated by propagation of the pump light and the probe light through the device under test; and an analysis tool for calculating the chromatic dispersion of the device at a specific wavelength λ pump on the basis of results obtained by seeking the generation efficiency of idler light relative to the wavelength λ probe when the pump light having a specific wavelength is propagated and by detecting a frequency difference or wavelength difference between the pump light and the probe light that makes an extremum of generation efficiency of the idler light and by calculating a phase mismatch among the pump light wavelength having such frequency difference or wavelength difference, the corresponding probe light wavelength, and the corresponding idler light wavelength in the device under test. a pump light source for emitting pump light with a wavelength λ pump; a probe light source for emitting probe light with a wavelength λ probe; a measuring means for measuring the power of idler light having a wavelength λ idler output from a device under test according to four-wave mixing generated by propagation of the pump light and the probe light through the device under test; and an analysis tool for calculating the chromatic dispersion of the device at a specific wavelength λ pump on the basis of results obtained by seeking the generation efficiency of idler light relative to the wavelength λ probe when the pump light having a specific wavelength is propagated and by detecting a frequency difference or wavelength difference between the pump light and the probe light that makes an extremum of generation efficiency of the idler light and by calculating a phase mismatch among the pump light wavelength having such frequency difference or wavelength difference, the corresponding probe light wavelength, and the corresponding idler light wavelength in the device under test.
A multi-function sensor comprising: a body comprising an elongated sleeve, configured for retention of the temperature sensor, the sleeve having opposing ridges extending along the sleeve; a sensing circuit including a first portion and an elongated planar arm extending from the first portion; a pressure sensor mounted on the first portion of the sensing circuit; and a temperature sensor mounted on a distal end of the planar arm, wherein the planar arm extends between the ridges of the sleeve such that side portions of the planar arm are retained by the ridges to fix the temperature sensor in a desired position relative to the pressure sensor. a body comprising an elongated sleeve, configured for retention of the temperature sensor, the sleeve having opposing ridges extending along the sleeve; a sensing circuit including a first portion and an elongated planar arm extending from the first portion; a pressure sensor mounted on the first portion of the sensing circuit; and a temperature sensor mounted on a distal end of the planar arm, wherein the planar arm extends between the ridges of the sleeve such that side portions of the planar arm are retained by the ridges to fix the temperature sensor in a desired position relative to the pressure sensor.
A door of an electric oven, comprising: a door panel provided with a window; a door frame provided on a rear surface of the door panel and provided with an opening defined in an inner portion thereof; at least one door glass (440, 441) covering the opening and defining a door cooling passage at a rear of the door panel, wherein the door further comprises at least one insulation plate (460, 470) to form at least one insulation layer (47, 49) on the periphery portion of the at least one door glass (440, 441), characterised in that the at least one insulation plate (460, 470) comprises: a first insulation plate provided between the door panel and the door frame; and a second insulation plate provided between the first insulation plate and the door frame, wherein the at least one insulation layer (47, 49) comprises a first insulation layer and a second insulation layer, wherein the second insulation layer is divided from the first insulation layer by the second insulation plate, an inner peripheral portion of the second insulation plate closely contacts a front surface of one of the at least one door glass, and the second insulation layer encloses the first insulation layer. a door panel provided with a window; a door frame provided on a rear surface of the door panel and provided with an opening defined in an inner portion thereof; at least one door glass (440, 441) covering the opening and defining a door cooling passage at a rear of the door panel, wherein the door further comprises at least one insulation plate (460, 470) to form at least one insulation layer (47, 49) on the periphery portion of the at least one door glass (440, 441), characterised in that the at least one insulation plate (460, 470) comprises: a first insulation plate provided between the door panel and the door frame; and a second insulation plate provided between the first insulation plate and the door frame, a first insulation plate provided between the door panel and the door frame; and a second insulation plate provided between the first insulation plate and the door frame, wherein the at least one insulation layer (47, 49) comprises a first insulation layer and a second insulation layer, wherein the second insulation layer is divided from the first insulation layer by the second insulation plate, an inner peripheral portion of the second insulation plate closely contacts a front surface of one of the at least one door glass, and the second insulation layer encloses the first insulation layer.
A method of making a marker housing, comprising: forming a first housing portion from a flexible material so as to have a planar shape; characterized by forming a second housing portion (700, 1200, 1500) from the flexible material so as to comprise a cavity (702, 1202) in which resonator and bias elements of the marker can be housed when the second housing portion (700, 1200, 1500) is coupled to the first housing portion, the cavity (702, 1202) being defined by two opposing short sidewalls (708, 712), two opposing elongate sidewalls (706, 710) and a bottom sidewall (704, 1204); and stiffening the two opposing elongate sidewalls (706, 710) such that crushing and bending thereof is made difficult by forming a plurality of first stiffener edge features (714, 1210) along an exterior surface of each of the two opposing elongate sidewalls (706, 710) which partially define the cavity (702, 1202) of the second housing portion (700, 1200, 1500). forming a first housing portion from a flexible material so as to have a planar shape; characterized by forming a second housing portion (700, 1200, 1500) from the flexible material so as to comprise a cavity (702, 1202) in which resonator and bias elements of the marker can be housed when the second housing portion (700, 1200, 1500) is coupled to the first housing portion, the cavity (702, 1202) being defined by two opposing short sidewalls (708, 712), two opposing elongate sidewalls (706, 710) and a bottom sidewall (704, 1204); and stiffening the two opposing elongate sidewalls (706, 710) such that crushing and bending thereof is made difficult by forming a plurality of first stiffener edge features (714, 1210) along an exterior surface of each of the two opposing elongate sidewalls (706, 710) which partially define the cavity (702, 1202) of the second housing portion (700, 1200, 1500).
A fusion protein comprising a wild-type FGF21 protein and an Fc region, wherein the Fc region is fused to the N-terminus of the FGF21 protein via an amino acid linker with amino acid sequence selected from GS and GGGGSGGGGSGGGGS (SEQ ID NO:6), and wherein the fusion protein has the amino acid sequence SEQ ID NO:7 or SEQ ID NO:8.
An aircraft refuelling boom assembly comprising a structural beam, a telescopic beam and an actuation system for controlling the movement of the telescopic beam with respect to a structural beam in in-flight refueling operations whereby the actuation system comprises an actuation device and at least two sensing devices, a first sensing device and a second sensing device, measuring physical magnitudes of at least two different mechanical elements of the actuation system, the first sensing device measuring the movement of the actuation device and the second sensing device measuring the movement of the telescopic beam such that there exists a kinematics relationship between the movement of the actuation system and the movement of the telescopic beam, the actuation system further comprising a control device checking the coherence of said physical magnitudes measured with respect to the kinematics relationship, characterised in that the boom assembly further comprises a blocking device intended to avoid or limit uncontrolled motion of the telescopic beam which is triggered by the control device in case of a discrepancy between the kinematics relationship and the measurements.
A method (500, 600) for aligning spans (101, 310), wherein the method is for a system (100, 300) comprises a plurality of connected spans (101, 310) and a plurality of drive towers (104, 106, 108, 110) for moving the connected span around a center pivot having a pivot controller; wherein each drive tower is comprised of a power line (147, 416) carrier node; further wherein the drive towers include intermediate drive towers and a last drive tower, further wherein the system comprises a fixed reference station (328, 403) storing reference location data; the method characterised in using real-time kinetics,RTK, data communicated through a power line carrier system and wherein the method comprises: receiving a first set of GPS location data (320d: 502, 602); comparing the first set of GPS location data with the reference location data stored in the fixed reference station; calculating RTK error correction data; creating an RTK error correction data signal (507, 606); modulating the RTK error correction data signal for transmission on a power line carrier; wherein the power-line carrier is comprised of a plurality of electrically conductive elements which are configured to connect and deliver signals to and from a power-line BUS (147, 416); transmitting the RTK error correction data signal (507, 606) through the power line BUS onto the power line to the power line carrier node of each drive tower; de-modulating the RTK error correction data signal; calculating the location of the last drive tower using the RTK error correction data; calculating a center line between the pivot and the last drive unit; calculating the relative distances between each intermediate drive tower and the calculated center line; wherein the distance calculation is made using a linear regression algorithm; and controlling the speed of each intermediate drive tower to reduce distance between their current locations and the calculated center line.