mhurhangee/patent-ind-claim-en huggingface dataset:
Device for adjusting the rotor blades on a wind turbine , in which the adjustment of a rotatably mounted rotor blade is effected by means of a tension belt drive in which a tension belt wraps around at least part of the root or shaft of the rotor blade so that it is possible to transmit, to the shaft, a torque that is required for adjusting the rotor blade, wherein the tension belt is designed as a flat belt , characterized in that the tension belt is connected, at both ends, to in each case a drive shaft or drive plate provided with a drive motor, and can be wound onto the latter reciprocally and alternately, wherein between the drive shafts or drive plates the tension belt forms a non-wound, continuous strand that wraps around the root or shaft of the rotor blade over a partial periphery , wherein the free, non-wound strand of the tension belt wraps around the root or shaft of the rotor blade with a friction fit, wherein the tension belt is made essentially from an elastomeric material, preferably polyurethane, and has, as tension members in the longitudinal direction of the belt, cords whose cord diameter b compared to the core diameter D of the smallest redirection roller, drive shaft or drive plate present in the tension belt drive satisfies the following inequality: D ≥ 40 b.
Process for manufacturing an infant formula product comprising the following steps: (a) subjecting an aqueous mixture having a protein component and a carbohydrate component to a heat treatment step, (b) mixing the aqueous mixture with a lipid component, (c) subjecting the aqueous mixture comprising the lipid component, the carbohydrate component and the heat-treated protein component to a homogenization and emulsification step to obtain a homogenized oil-in-water emulsion having a total solids content in the range of 45 - 73 wt%; (d) conveying the homogenized emulsion into an extruder, independently adding digestible carbohydrates and optionally dietary fibres to the extruder and extruding the contents of the extruder wherein a gas is injected into the extruder, to obtain an extruded aerated material; (e) preparing an infant formula product from the extruded aerated material, wherein the extrusion of step (d) is performed at a temperature below 75 °C and wherein the extruded aerated material contains substantially all proteins and/or lipids that are nutritionally required for an infant formula. (a) subjecting an aqueous mixture having a protein component and a carbohydrate component to a heat treatment step, (b) mixing the aqueous mixture with a lipid component, (c) subjecting the aqueous mixture comprising the lipid component, the carbohydrate component and the heat-treated protein component to a homogenization and emulsification step to obtain a homogenized oil-in-water emulsion having a total solids content in the range of 45 - 73 wt%; (d) conveying the homogenized emulsion into an extruder, independently adding digestible carbohydrates and optionally dietary fibres to the extruder and extruding the contents of the extruder wherein a gas is injected into the extruder, to obtain an extruded aerated material; (e) preparing an infant formula product from the extruded aerated material,
Process of degreasing and deburring in a rotating tank comprising : - preparation of a rotating tank with an abrasive charge, - Immersion of a workpiece in the prepared tank, - rotation of the tank, the process being characterised in that degreasing and deburring is carried out dry in the rotating tank and in that the rotating tank is prepared with a charge of abrasive and a powdered absorbent, the abrasive being an extruded polymer . - preparation of a rotating tank with an abrasive charge, - Immersion of a workpiece in the prepared tank, - rotation of the tank,
A catalyst compound represented by Formula (I): wherein: M is a group 3, 4, or 5 metal; each A 1 and A 2 is independently an aromatic, a substituted aromatic, or alkenediyl group; heterocyclic ring fragments -(Z 1 Z 2 )- and -(Z 3 Z 4 )- are independently selected from -(Z 5 Z 6 )- or -(Z 6 Z 5 )-, with Z 5 being selected from oxygen, sulfur, S(O), S(O) 2 , and N(R 50 ), and Z 6 being selected from nitrogen and C(R 51 ), wherein each R 50 and R 51 is independently hydrogen, C 1 -C 40 hydrocarbyl, C 1 -C 40 substituted hydrocarbyl, a monovalent heteroatom, or a heteroatom-bonded monovalent group; each of R 4 and R 5 is independently hydrogen, C 1 -C 40 hydrocarbyl, C 1 -C 40 substituted hydrocarbyl, a monovalent heteroatom, or a heteroatom-bonded monovalent group; J is a heterocyclic Lewis base; each Q 1 and Q 2 are independently selected from oxygen, sulfur, N(R 30 ), or P(R 30 ), wherein R 30 is C 1 -C 40 hydrocarbyl, substituted C 1 -C 40 hydrocarbyl, a monovalent heteroatom, or a heteroatom-bonded monovalent group; L is a Lewis base, optionally any two L groups join together to form a bidentate Lewis base; X is an anionic ligand, optionally an X group is joined to an L group to form a monoanionic bidentate group, or optionally, any two X groups are joined together to form a dianionic ligand; n is 1, 2 or 3; m is 0, 1, or 2; and n+m is not greater than 4. M is a group 3, 4, or 5 metal; each A 1 and A 2 is independently an aromatic, a substituted aromatic, or alkenediyl group; heterocyclic ring fragments -(Z 1 Z 2 )- and -(Z 3 Z 4 )- are independently selected from -(Z 5 Z 6 )- or -(Z 6 Z 5 )-, with Z 5 being selected from oxygen, sulfur, S(O), S(O) 2 , and N(R 50 ), and Z 6 being selected from nitrogen and C(R 51 ), wherein each R 50 and R 51 is independently hydrogen, C 1 -C 40 hydrocarbyl, C 1 -C 40 substituted hydrocarbyl, a monovalent heteroatom, or a heteroatom-bonded monovalent group; each of R 4 and R 5 is independently hydrogen, C 1 -C 40 hydrocarbyl, C 1 -C 40 substituted hydrocarbyl, a monovalent heteroatom, or a heteroatom-bonded monovalent group; J is a heterocyclic Lewis base; each Q 1 and Q 2 are independently selected from oxygen, sulfur, N(R 30 ), or P(R 30 ), wherein R 30 is C 1 -C 40 hydrocarbyl, substituted C 1 -C 40 hydrocarbyl, a monovalent heteroatom, or a heteroatom-bonded monovalent group; L is a Lewis base, optionally any two L groups join together to form a bidentate Lewis base; X is an anionic ligand, optionally an X group is joined to an L group to form a monoanionic bidentate group, or optionally, any two X groups are joined together to form a dianionic ligand; n is 1, 2 or 3; m is 0, 1, or 2; and n+m is not greater than 4.
A method of manufacturing an Sm-Fe-N magnet, comprising: a sealing step (S10) of filling a metal sheath with a magnet powder that is a powder comprising an Sm-Fe-N compound as a main component and sealing the metal sheath ; a magnetic field applying step (S12) of applying a magnetic field to the magnet powder sealed in the metal sheath and magnetizing the magnet powder by magnetically orienting the magnet powder and aligning a direction of magnetic orientation in one direction; a preliminary rolling step (S14) of preliminarily rolling the magnetically oriented magnet powder sealed in the metal sheath to make the magnetically oriented magnet powder into a green compact; and a pressurizing step (S16) of pressurizing the green compact sealed in the metal sheath and densifying the green compact to form a magnet body , wherein in the preliminary rolling step (S14), the preliminary rolling is performed by lightly rolling the magnetically oriented magnet powder sealed in the metal sheath with a pressure smaller than a pressure in the pressurizing step (S16), and wherein in the preliminary rolling step (S14), the magnetically oriented magnet powder sealed in the metal sheath is preliminarily rolled in a direction orthogonal to the direction of magnetic orientation. a sealing step (S10) of filling a metal sheath with a magnet powder that is a powder comprising an Sm-Fe-N compound as a main component and sealing the metal sheath ; a magnetic field applying step (S12) of applying a magnetic field to the magnet powder sealed in the metal sheath and magnetizing the magnet powder by magnetically orienting the magnet powder and aligning a direction of magnetic orientation in one direction; a preliminary rolling step (S14) of preliminarily rolling the magnetically oriented magnet powder sealed in the metal sheath to make the magnetically oriented magnet powder into a green compact; and a pressurizing step (S16) of pressurizing the green compact sealed in the metal sheath and densifying the green compact to form a magnet body , wherein in the preliminary rolling step (S14), the preliminary rolling is performed by lightly rolling the magnetically oriented magnet powder sealed in the metal sheath with a pressure smaller than a pressure in the pressurizing step (S16), and wherein in the preliminary rolling step (S14), the magnetically oriented magnet powder sealed in the metal sheath is preliminarily rolled in a direction orthogonal to the direction of magnetic orientation.
A microphone assembly comprising: a housing defining a cavity ; a microphone disposed in the cavity ; a valve disposed in the housing proximate to the microphone ; and wherein the valve is configured to be actuated when an air pressure level in the cavity exceeds a pre-determined threshold level and enable air to flow through the valve between the cavity and an external environment, wherein the microphone assembly further comprises a controller connected to the valve , the controller configured to detect the air pressure level in the cavity and actuate the valve when the detected air pressure level exceeds the pre-determined threshold level, characterized in that the controller is configured to, after opening the valve : starting a timer; and closing the valve when the timer expires. a housing defining a cavity ; a microphone disposed in the cavity ; a valve disposed in the housing proximate to the microphone ; and wherein the valve is configured to be actuated when an air pressure level in the cavity exceeds a pre-determined threshold level and enable air to flow through the valve between the cavity and an external environment, wherein the microphone assembly further comprises a controller connected to the valve , the controller configured to detect the air pressure level in the cavity and actuate the valve when the detected air pressure level exceeds the pre-determined threshold level, characterized in that the controller is configured to, after opening the valve : starting a timer; and closing the valve when the timer expires.
A method comprising: receiving, by a network node from a user equipment, LTE , a registration request comprising a first indicator configured to indicate emergency call information display capability, wherein the first indicator indicates whether a mobile equipment, ME, domain of the UE is configured to send descriptions of emergency identifiers to a display of the UE, and wherein the registration request further comprises an identity of the UE, wherein the identity comprises a mobile country code, MCC, and wherein the MCC of the identity identifies a language; determining, by the network node, whether the descriptions of emergency identifiers need to be included in a registration accept message; determining, by the network node when receiving the registration request comprising the first indicator and when determining that the descriptions of emergency identifiers need to be included in a registration accept message, a language to use for transmitting the description of emergency identifiers using the MCC; and transmitting, from the network node to the UE, the registration accept message comprising the descriptions of emergency identifiers, wherein the descriptions of emergency identifiers are in the determined language. receiving, by a network node from a user equipment, LTE , a registration request comprising a first indicator configured to indicate emergency call information display capability, wherein the first indicator indicates whether a mobile equipment, ME, domain of the UE is configured to send descriptions of emergency identifiers to a display of the UE, and wherein the registration request further comprises an identity of the UE, wherein the identity comprises a mobile country code, MCC, and wherein the MCC of the identity identifies a language; determining, by the network node, whether the descriptions of emergency identifiers need to be included in a registration accept message; determining, by the network node when receiving the registration request comprising the first indicator and when determining that the descriptions of emergency identifiers need to be included in a registration accept message, a language to use for transmitting the description of emergency identifiers using the MCC; and transmitting, from the network node to the UE, the registration accept message comprising the descriptions of emergency identifiers, wherein the descriptions of emergency identifiers are in the determined language.
mRNA molecule suitable for application in gene therapy and/or genetic vaccination, the mRNA molecule comprising a 5'-untranslated region (5'-UTR) and a 3'-untranslated region (3'-UTR), wherein the mRNA comprises at least two modules, wherein each module is a ribonucleic acid moiety, wherein at least one module is an open reading frame (ORF) encoding a polypeptide or protein of interest, and wherein at least one module is a further coding ribonucleic acid moiety encoding at least one additional polypeptide or protein element encoded in the same open reading frame as the polypeptide or protein of interest, wherein the at least one additional polypeptide or protein element is an element that extends protein half-life, and wherein the polypeptide or protein element is characterized by at least 80% identity to SEQ ID NO. 1705, and wherein the open reading frame is or comprises a G/C-modified nucleic acid sequence, wherein the number of G and/or C nucleotides is increased as compared to the wild-type sequence. wherein each module is a ribonucleic acid moiety, wherein at least one module is an open reading frame (ORF) encoding a polypeptide or protein of interest, and wherein at least one module is a further coding ribonucleic acid moiety encoding at least one additional polypeptide or protein element encoded in the same open reading frame as the polypeptide or protein of interest, wherein the at least one additional polypeptide or protein element is an element that extends protein half-life, and wherein the polypeptide or protein element is characterized by at least 80% identity to SEQ ID NO. 1705, and wherein the open reading frame is or comprises a G/C-modified nucleic acid sequence, wherein the number of G and/or C nucleotides is increased as compared to the wild-type sequence.
Coupling device for tractors for hooking up trailers and in particular agricultural implements, the coupling device having a hook which is connected to a displaceable cassette for extending and retracting the hook , wherein the cassette is mounted in a lower part , and the hook is lockable to the cassette in the retracted state by means of a locking mechanism, characterized in that the cassette has two spaced-apart, flexurally rigid profiles which are connected by means of a connecting part which receives the hook , the profiles and the connecting part being formed integrally as a cast part.
A process for producing carbon fibers comprising: spinning an acrylic polymer in a coagulation bath, thereby forming acrylic fibers of single filaments; drawing the acrylic fibers in a series of 4 heated wash baths, wherein the temperature of the wash baths is such that fiber network density of the acrylic fibers upon exit from a wash bath is less than or equal to the fiber density of the acrylic fibers upon exit of the fiber from the previous wash bath, and in the last bath, the stretching of the acrylic fibers is relaxed; and stabilizing and subsequently carbonizing the acrylic fibers, wherein the temperature of the wash baths increases from the first bath to the fourth bath, wherein the first bath temperature is 70-80°C, the second bath temperature is 75-85°C, the third bath temperature is 85°C-95°C, and the fourth bath temperature is 90°C-100°C. spinning an acrylic polymer in a coagulation bath, thereby forming acrylic fibers of single filaments; drawing the acrylic fibers in a series of 4 heated wash baths, wherein the temperature of the wash baths is such that fiber network density of the acrylic fibers upon exit from a wash bath is less than or equal to the fiber density of the acrylic fibers upon exit of the fiber from the previous wash bath, and in the last bath, the stretching of the acrylic fibers is relaxed; and stabilizing and subsequently carbonizing the acrylic fibers, wherein the temperature of the wash baths increases from the first bath to the fourth bath, wherein the first bath temperature is 70-80°C, the second bath temperature is 75-85°C, the third bath temperature is 85°C-95°C, and the fourth bath temperature is 90°C-100°C.
A gas turbine sealing interface to seal a gap between a transition duct and a turbine section component , comprising: an outlet exit frame of the transition duct including a fastener hole ; a first stage turbine vane structure including an upstream lip ; and a seal coupling the outlet exit frame to the first stage turbine vane structure , an L-shaped rail including a flat portion and a lipped portion disposed perpendicularly to the flat portion , wherein an upstream portion of the seal includes a U-shaped cross section forming a first groove , wherein a downstream portion of the seal comprising a second groove engages the upstream lip of the first stage turbine vane structure , and wherein the seal is secured to the outlet exit frame via the L-shaped rail characterized in that a pin extends from a first slot within the seal and into a corresponding second slot within the L-shaped rail preventing circumferential rotation of the seal during operation of the gas turbine engine. an outlet exit frame of the transition duct including a fastener hole ; a first stage turbine vane structure including an upstream lip ; and a seal coupling the outlet exit frame to the first stage turbine vane structure , an L-shaped rail including a flat portion and a lipped portion disposed perpendicularly to the flat portion , wherein an upstream portion of the seal includes a U-shaped cross section forming a first groove , wherein a downstream portion of the seal comprising a second groove engages the upstream lip of the first stage turbine vane structure , and wherein the seal is secured to the outlet exit frame via the L-shaped rail characterized in that a pin extends from a first slot within the seal and into a corresponding second slot within the L-shaped rail preventing circumferential rotation of the seal during operation of the gas turbine engine.
A canted coil spring comprising: a plurality of coils interconnected with one another in a spaced-apart relationship and each coil in its entirety of said plurality of coils is disposed at a first preselected canting angle with respect to a centerline of said canted coil spring and each coil in its respective entirety of said plurality of coils is disposed at a second preselected canting angle with respect to the centerline of said canted coil spring; and wherein the first preselected canting angle allows deflection of each coil of the plurality of coils in a first direction perpendicular to the centerline, wherein said plurality of coils are deflected from the first preselected canting angle to a canted angle, which is smaller in value than the first preselected canting angle, the first direction of canting for each coil from the first preselected canting angle to the smaller angle defines a first canting plane; wherein the second preselected canting angle allows the coils to deflect in a second direction essentially perpendicular to the centerline; wherein the first direction and the second direction are different, wherein said plurality of coils are deflectable from the second preselected canting angle to a canted angle, which is smaller in value than the second preselected canting angle, the second direction of canting for each coil from the second preselected canting angle to the smaller angle defines a second canting plane, characterized in that the second canting plane is different from the first canting plane. a plurality of coils interconnected with one another in a spaced-apart relationship and each coil in its entirety of said plurality of coils is disposed at a first preselected canting angle with respect to a centerline of said canted coil spring and each coil in its respective entirety of said plurality of coils is disposed at a second preselected canting angle with respect to the centerline of said canted coil spring; and wherein the first preselected canting angle allows deflection of each coil of the plurality of coils in a first direction perpendicular to the centerline, wherein said plurality of coils are deflected from the first preselected canting angle to a canted angle, which is smaller in value than the first preselected canting angle, the first direction of canting for each coil from the first preselected canting angle to the smaller angle defines a first canting plane; wherein the second preselected canting angle allows the coils to deflect in a second direction essentially perpendicular to the centerline; wherein the first direction and the second direction are different, wherein said plurality of coils are deflectable from the second preselected canting angle to a canted angle, which is smaller in value than the second preselected canting angle, the second direction of canting for each coil from the second preselected canting angle to the smaller angle defines a second canting plane, characterized in that the second canting plane is different from the first canting plane.
A method for determining a safety-critical state in a cyber-physical system, CPS, , the method being performed by a safety component of the CPS and comprising: obtaining (S302) combined sensor data from a plurality of sensors available in the CPS , the combined sensor data being indicative of a current state of the CPS ; obtaining (S304) at least one intent-based safety policy, wherein an intent-based safety policy corresponds to a safety policy indicative of a predefined safety-related intent concerning an operational state of the CPS ; and checking (S306) the combined sensor data against the at least one intent-based safety policy to determine whether or not the CPS is in a safety-critical state and characterized in that checking (S306) the combined sensor data against the at least one intent-based safety policy is triggered by a new sensor measurement of a sensor of the plurality of sensors . obtaining (S302) combined sensor data from a plurality of sensors available in the CPS , the combined sensor data being indicative of a current state of the CPS ; obtaining (S304) at least one intent-based safety policy, wherein an intent-based safety policy corresponds to a safety policy indicative of a predefined safety-related intent concerning an operational state of the CPS ; and checking (S306) the combined sensor data against the at least one intent-based safety policy to determine whether or not the CPS is in a safety-critical state and characterized in that checking (S306) the combined sensor data against the at least one intent-based safety policy is triggered by a new sensor measurement of a sensor of the plurality of sensors .