mhurhangee/ep-ind-claims huggingface dataset:
Method for preparing a, preferably flavoured, dry roasted snack food product, said method comprising steps in the following sequence: - roasting an edible core, at a first temperature range, wherein the first temperature range is in the range of 155 °C to 160 °C, and wherein the edible core product is roasted for a period of 7 minutes to 40 minutes, preferably 20 minutes, wherein the edible core is in a raw form when used as starting material, - providing at least one layer of a coating composition comprising heat sensitive seasoning agents or visual agent which are sensitive to high temperatures typically used during roasting, which range between 135 °C and 250 °C, to the roasted edible core, wherein the temperature of the edible core is still within the first temperature range; - maintaining the roasted edible core at a second temperature range that is lower than the first range of temperature, wherein the second temperature range is in the range of 80 °C to 115 °C, preferably in the range of 95 °C to 100 °C for a period of 8 minutes to 30 minutes, preferably for a period of 15 minutes to 25 minutes, and - cooling the roasted edible core. - roasting an edible core, at a first temperature range, wherein the first temperature range is in the range of 155 °C to 160 °C, and wherein the edible core product is roasted for a period of 7 minutes to 40 minutes, preferably 20 minutes, wherein the edible core is in a raw form when used as starting material, - providing at least one layer of a coating composition comprising heat sensitive seasoning agents or visual agent which are sensitive to high temperatures typically used during roasting, which range between 135 °C and 250 °C, to the roasted edible core, wherein the temperature of the edible core is still within the first temperature range; - maintaining the roasted edible core at a second temperature range that is lower than the first range of temperature, wherein the second temperature range is in the range of 80 °C to 115 °C, preferably in the range of 95 °C to 100 °C for a period of 8 minutes to 30 minutes, preferably for a period of 15 minutes to 25 minutes, and - cooling the roasted edible core.
An electrolysis device comprising a substrate (1, 6) on which an anode formed of a first diamond layer and a cathode formed of a second diamond layer are provided, said first and second diamond layers each being made of boron-doped diamond, characterized in that the first and the second diamond layer are separated from each other by an electrically insulating path and are arranged in such a way that, when a voltage is applied between the first and the second diamond layer, an electric field is formed, the field lines of which run at least partially transversely to a longitudinal extension direction of the path.
Cooling system for the active cooling of an exhaust system, comprising a soot particle filter, an exhaust pipe for the discharge of an exhaust-gas flow of an internal combustion engine, and an air-guiding element which is arranged relative to the exhaust pipe such that an air-guiding duct is formed for the purposes of cooling the exhaust pipe through the supply of an air flow into the air-guiding duct, wherein blower means are provided which effect the supply of the air flow into the air-guiding duct, characterized in that the exhaust pipe has a first Venturi nozzle arrangement for cooling the exhaust-gas flow downstream of the soot particle filter.
A method of removing a fluid from a gas or oil well, a wellbore, or a pipeline, the method comprising: introducing a composition into a gas well, an oil well, a wellbore, or a pipeline in an amount effective for foaming a fluid within the well, the wellbore, or the pipeline, and injecting a gas into the well, the wellbore or the pipeline, the fluid comprising a hydrocarbon, water or a combination thereof, and the composition comprising an alcohol ether sulfonate having formula I: wherein: R 1 is alkyl; R 2 is alkylene; R 3 and R 4 are each independently ethylene or propylene; R 5 is hydroxyl and R 6 is -SO 3 M, or R 5 is -SO 3 M and R 6 is hydroxyl; M is independently an alkali metal, an alkaline earth metal, or hydronium; and a and b are each independently an integer from 0 to 30, and a+b equals 1 to 60, wherein the alcohol ether sulfonate is added to the fluid in a concentration of from 10 to 100,000 ppm based on volume of the fluid. introducing a composition into a gas well, an oil well, a wellbore, or a pipeline in an amount effective for foaming a fluid within the well, the wellbore, or the pipeline, and injecting a gas into the well, the wellbore or the pipeline, the fluid comprising a hydrocarbon, water or a combination thereof, and the composition comprising an alcohol ether sulfonate having formula I: wherein: R 1 is alkyl; R 2 is alkylene; R 3 and R 4 are each independently ethylene or propylene; R 5 is hydroxyl and R 6 is -SO 3 M, or R 5 is -SO 3 M and R 6 is hydroxyl; M is independently an alkali metal, an alkaline earth metal, or hydronium; and a and b are each independently an integer from 0 to 30, and a+b equals 1 to 60, wherein the alcohol ether sulfonate is added to the fluid in a concentration of from 10 to 100,000 ppm based on volume of the fluid. R 1 is alkyl; R 2 is alkylene; R 3 and R 4 are each independently ethylene or propylene; R 5 is hydroxyl and R 6 is -SO 3 M, or R 5 is -SO 3 M and R 6 is hydroxyl; M is independently an alkali metal, an alkaline earth metal, or hydronium; and a and b are each independently an integer from 0 to 30, and a+b equals 1 to 60, wherein the alcohol ether sulfonate is added to the fluid in a concentration of from 10 to 100,000 ppm based on volume of the fluid.
Absorption device intended to be fitted to a land vehicle and comprising a cross-member comprising opposite ends (Ej) and each comprising a front face and an end side face delimited by first edges one of which is common with said front face, further comprising two outer plates (PEj) joined by welding and respectively to said ends (Ej) each having a main part placed in front of said front face and extended by a first end wing folded in front of at least a part of said end side face in order to define a protective screen in front of at least a part of said first edges, wherein said front face comprises at least one groove (Rk) extending between said opposite end lateral faces and delimited by two second edges, and wherein each main part is extended by a second end wing opposite said first end wing, folded in management with said front face and provided with at least one sub-part (SPj) intended to be housed at least partially in a groove (Rk) corresponding when its outer plate (PEj) is pushed into management with said cross member, in order to keep said main part at a distance from said second edges.
A computer implemented method for analyzing connectivity within a sound system, comprising: applying a baseline signal to a plurality of amplifiers (104) coupled to a transducer array, wherein each transducer (102) in the transducer array includes an optical emitter (124) that produces a light signal (126) in response to the baseline signal; generating a baseline image that indicates, based on the light signals (126) produced by the optical emitters (124), a location associated with each transducer (102) in the transducer array; applying a first signal to a first amplifier (104) in the plurality of amplifiers (104); generating a first image that includes a first light signal (126) of an optical emitter (124) of a first transducer (102) in the transducer array; determining that the first amplifier (104) drives the first transducer (102); comparing the baseline image to the first image to determine a first location associated with the first transducer (102); and generating connectivity data that indicates that the first amplifier (104) is coupled to the first transducer (102) and that the first transducer (102) resides at the first location. applying a baseline signal to a plurality of amplifiers (104) coupled to a transducer array, wherein each transducer (102) in the transducer array includes an optical emitter (124) that produces a light signal (126) in response to the baseline signal; generating a baseline image that indicates, based on the light signals (126) produced by the optical emitters (124), a location associated with each transducer (102) in the transducer array; applying a first signal to a first amplifier (104) in the plurality of amplifiers (104); generating a first image that includes a first light signal (126) of an optical emitter (124) of a first transducer (102) in the transducer array; determining that the first amplifier (104) drives the first transducer (102); comparing the baseline image to the first image to determine a first location associated with the first transducer (102); and generating connectivity data that indicates that the first amplifier (104) is coupled to the first transducer (102) and that the first transducer (102) resides at the first location.
A use of a compound in an organic light-emitting diode (OLED), the compound having formula 1: wherein: M is a metal having an atomic weight greater than 40, n has a value of at least 1 and m+n is the maximum number of ligands that may be attached to the metal; wherein A is a linking group having two to three linking atoms, wherein the linking atoms are each independently selected from the group consisting of C, Si, O, S, N, B or combinations thereof, wherein R 1a - R 1g are independently selected from hydrogen, alkyl, alkenyl, alkynyl, aralkyl, CN, CF 3, CO 2 R, C R, C NR 2, NR 2, NO 2, OR, SR, SO 2, SOR, SO 3 R, halo, aryl, heteroaryl, substituted aryl, substituted heteroaryl, or a heterocyclic group, each R is independently selected from H, halo, alkyl, alkenyl, alkynyl, heteroalkyl, aralkyl, aryl, and heteroaryl; any one of the ring atoms to which R 1 b to R 1 g are attached may be replaced with a nitrogen atom, wherein when the ring atom is replaced with a nitrogen atom the corresponding R group is not present; and L is a substituted or unsubstituted cyclometallated ligand; and wherein the linking group A is independently selected from the group consisting of -CR'R"-CR'R"-, -CR'R"-CR'R"-CR'R"-, -CR'R"-NR"-, -CR'=CR'-CR'R"-, -O-SiR'R"-, -CR'R"-S-, -CR'R"-O-, -C-SiR'R"-, wherein R' and R" are independently H, alkyl having 1 to 6 carbon atoms, phenyl and substituted phenyl or wherein R' and R" are connected to form a saturated five membered ring or a saturated six membered ring, and combinations thereof. M is a metal having an atomic weight greater than 40, n has a value of at least 1 and m+n is the maximum number of ligands that may be attached to the metal; wherein A is a linking group having two to three linking atoms, wherein the linking atoms are each independently selected from the group consisting of C, Si, O, S, N, B or combinations thereof, wherein R 1a - R 1g are independently selected from hydrogen, alkyl, alkenyl, alkynyl, aralkyl, CN, CF 3, CO 2 R, C R, C NR 2, NR 2, NO 2, OR, SR, SO 2, SOR, SO 3 R, halo, aryl, heteroaryl, substituted aryl, substituted heteroaryl, or a heterocyclic group, each R is independently selected from H, halo, alkyl, alkenyl, alkynyl, heteroalkyl, aralkyl, aryl, and heteroaryl; any one of the ring atoms to which R 1 b to R 1 g are attached may be replaced with a nitrogen atom, wherein when the ring atom is replaced with a nitrogen atom the corresponding R group is not present; and L is a substituted or unsubstituted cyclometallated ligand; and wherein the linking group A is independently selected from the group consisting of -CR'R"-CR'R"-, -CR'R"-CR'R"-CR'R"-, -CR'R"-NR"-, -CR'=CR'-CR'R"-, -O-SiR'R"-, -CR'R"-S-, -CR'R"-O-, -C-SiR'R"-, wherein R' and R" are independently H, alkyl having 1 to 6 carbon atoms, phenyl and substituted phenyl or wherein R' and R" are connected to form a saturated five membered ring or a saturated six membered ring, and combinations thereof.
A method for detecting characteristic electrical current pulses flowing through a rolling bearing or plain bearing as a result of static charging of rotating machine or system parts, comprising the following steps: - receiving electromagnetic radio waves emitted as a result of the characteristic electrical current pulses in the frequency range above 50 MHz; characterised by: - processing of the received signal by means of signal processing for extracting the current pulse events contained therein, comprising filtering, wherein the processing of the received signal is carried out by envelope formation which comprises a high-pass filtering of the received signal with subsequent rectification and subsequent low-pass filtering; - analysis of the temporal course of the current pulse events for monitoring the state of the rolling bearing or plain bearing, wherein the analysis determines a fading phase in a signal course of the radio waves. - receiving electromagnetic radio waves emitted as a result of the characteristic electrical current pulses in the frequency range above 50 MHz; characterised by: - processing of the received signal by means of signal processing for extracting the current pulse events contained therein, comprising filtering, wherein the processing of the received signal is carried out by envelope formation which comprises a high-pass filtering of the received signal with subsequent rectification and subsequent low-pass filtering; - analysis of the temporal course of the current pulse events for monitoring the state of the rolling bearing or plain bearing, wherein the analysis determines a fading phase in a signal course of the radio waves. - processing of the received signal by means of signal processing for extracting the current pulse events contained therein, comprising filtering, wherein the processing of the received signal is carried out by envelope formation which comprises a high-pass filtering of the received signal with subsequent rectification and subsequent low-pass filtering; - analysis of the temporal course of the current pulse events for monitoring the state of the rolling bearing or plain bearing, wherein the analysis determines a fading phase in a signal course of the radio waves.
A device suitable for pulmonary administration wherein said device is a dry powder inhaler comprising a composition comprising a compound of formula wherein the compound of formula is present as particles of a size selected from a mean mass aerodynamic diameter between 0.1 and 20 μm.
A method for removing a leading edge shield fixed to a fan blade, the fan blade comprising a first material, and the leading edge shield comprising a second material different from the first material, the method being characterized in that it comprises steps of: - Determining the thicknesses of the leading edge shield as a function of the position on the leading edge shield - Removing the leading edge shield by means of a pressurized water jet moving over the leading edge shield as a function of the thicknesses determined in the determination step. - Determining the thicknesses of the leading edge shield as a function of the position on the leading edge shield - Removing the leading edge shield by means of a pressurized water jet moving over the leading edge shield as a function of the thicknesses determined in the determination step.
An actively compensated stage comprising: - a guide support having first and second guide surfaces (G1, G2) perpendicular to each other; - a table having first and second sides (S1, S2) opposite the first and second guide surfaces (G1, G2) and having air bearings on the first and second sides (S1, S2); - a driving linear motor moving the table straight in an x-axial direction; and - a plurality of magnetic actuators (130, 140, 150, 160, 170) applying a magnetic preload between the guide support and the table and changing a magnetic force between the guide support and the table to compensate for 5-DOF motion errors generated in the table, wherein the magnetic actuators include: - first and second actuators (130, 140) spaced in the x-axial direction on the first side; - third and fourth actuators (150, 160) spaced in the x-axial direction on the second side; and - a fifth actuator spaced from the third and fourth actuators (150, 160) in a z-axial direction on the second side, wherein the first to fifth actuators include: - a permanent magnet disposed opposite the guide support; - an inner core supporting the permanent magnet; - a coil wound around the inner core; and - an outer core disposed around the coil in a ring shape. - a guide support having first and second guide surfaces (G1, G2) perpendicular to each other; - a table having first and second sides (S1, S2) opposite the first and second guide surfaces (G1, G2) and having air bearings on the first and second sides (S1, S2); - a driving linear motor moving the table straight in an x-axial direction; and - a plurality of magnetic actuators (130, 140, 150, 160, 170) applying a magnetic preload between the guide support and the table and changing a magnetic force between the guide support and the table to compensate for 5-DOF motion errors generated in the table, - first and second actuators (130, 140) spaced in the x-axial direction on the first side; - third and fourth actuators (150, 160) spaced in the x-axial direction on the second side; and - a fifth actuator spaced from the third and fourth actuators (150, 160) in a z-axial direction on the second side, wherein the first to fifth actuators include: - a permanent magnet disposed opposite the guide support; - an inner core supporting the permanent magnet; - a coil wound around the inner core; and - an outer core disposed around the coil in a ring shape. - a permanent magnet disposed opposite the guide support; - an inner core supporting the permanent magnet; - a coil wound around the inner core; and - an outer core disposed around the coil in a ring shape.
Method of producing a continuous lignin fiber comprising the following steps, a) Providing fractionated and isolated hardwood alkali lignin produced by fractionation and isolation of an unfractionated hardwood alkali lignin, or providing fractionated and isolated softwood alkali lignin produced by fractionation and isolation of a unfractionated softwood alkali lignin, wherein fractionation is carried out using ultrafiltration of a black liquor and isolation is performed by means of precipitation from the fractionated black liquor; b) Addition of unfractionated softwood alkali lignin and/or unfractionated hardwood alkali lignin to the fractionated and isolated hardwood alkali lignin or c) Addition of unfractionated hardwood alkali lignin to the fractionated and isolated softwood alkali lignin; d) Extrusion of the lignin material, wherein the fractionated and isolated hardwood alkali lignin in a) amounts to 1.5-95% by weight of the total weight of the lignin material, or wherein the fractionated and isolated softwood alkali lignin in a) amounts to 50-90% by weight of the total weight. a) Providing fractionated and isolated hardwood alkali lignin produced by fractionation and isolation of an unfractionated hardwood alkali lignin, or providing fractionated and isolated softwood alkali lignin produced by fractionation and isolation of a unfractionated softwood alkali lignin, wherein fractionation is carried out using ultrafiltration of a black liquor and isolation is performed by means of precipitation from the fractionated black liquor; b) Addition of unfractionated softwood alkali lignin and/or unfractionated hardwood alkali lignin to the fractionated and isolated hardwood alkali lignin or c) Addition of unfractionated hardwood alkali lignin to the fractionated and isolated softwood alkali lignin; d) Extrusion of the lignin material, wherein the fractionated and isolated hardwood alkali lignin in a) amounts to 1.5-95% by weight of the total weight of the lignin material, or wherein the fractionated and isolated softwood alkali lignin in a) amounts to 50-90% by weight of the total weight.
A vacuum gap insulation element with two gas-tight boundary plates (14a, 14b, 24a, 24b, 55a, 55b, 63, 64) and with a vacuum gap between these boundary plates, and with spacers (10, 20, 30, 40, 50, 61, 62) which are arranged between the boundary plates and are for maintaining this vacuum gap, said spacers having a material (12, 22, 31, 41, 51, 62a) which is held together against the inner pressure of the material (12, 22, 31, 41, 51, 62a), said inner pressure being produced by the air pressure by way of pressing together the boundary plates, characterised in that the material (12, 22, 31, 41, 51, 62a) comprises a multitude of individual elements which can be displaced with respect to one another.
A recombinant AAV vector comprising a transgene encoding acid sphingomyelinase for use in a method of treating Niemann-Pick A disease or Niemann-Pick B disease in a subject, wherein said recombinant AAV vector is an AAV5 vector and wherein the method comprises administering the vector to at least one ventricle of the brain of the subject, whereby said transgene is expressed and the expressed protein product is delivered to the central nervous system and, optionally, to visceral organs.
A method of identifying a fault in a synchronous reluctance electric machine comprising a stator and a rotor, the rotor comprising a plurality of magnetically conductive core elements stacked in an axial direction of the rotor, and each core element comprises flux barriers, the method comprising: - carrying out a first vibration measurement on the stator in a first radial direction of the stator; - carrying out a second vibration measurement on the stator in a second radial direction of the stator; - determining, on the basis of at least one of the first vibration measurement and the second vibration measurement, a first vibration frequency; - determining, on the basis of the first vibration measurement and the second vibration measurement, a mode shape of the vibration at the first vibration frequency; and - determining, on the basis that the first vibration frequency f b and the mode shape m fulfil the following barrier fault conditions: f b = f r, and m = 1 where f r is a rotation frequency of the rotor, that a flux barrier of the rotor is defect. - carrying out a first vibration measurement on the stator in a first radial direction of the stator; - carrying out a second vibration measurement on the stator in a second radial direction of the stator; - determining, on the basis of at least one of the first vibration measurement and the second vibration measurement, a first vibration frequency; - determining, on the basis of the first vibration measurement and the second vibration measurement, a mode shape of the vibration at the first vibration frequency; and - determining, on the basis that the first vibration frequency f b and the mode shape m fulfil the following barrier fault conditions: f b = f r, and m = 1 where f r is a rotation frequency of the rotor, that a flux barrier of the rotor is defect.
Rotary damper for a motor vehicle comprising at least one damper element which is designed for damping the relative movement between a first mass arranged on the wheel-suspension side, and a second mass arranged on the vehicle body side, characterised in that arranged on the rotary damper is at least one vibration absorber, wherein the vibration absorber comprises at least one elastically spring-loaded absorbing spring element and at least one absorbing mass connected therewith.