mhurhangee/patent-ind-claim-en huggingface dataset:
A process for manufacturing of a compound according to formula (I) wherein R = C 1-16 alkyl or C 2-16 alkenyl; said process comprising the following steps: i) reaction of 4-(2-hydroxyethyl)morpholin-3-one with a strong base to obtain 2-(3-oxomorpholino)ethan-1-olate (III); ii) reaction of 2-(3-oxomorpholino)ethan-1-olate (III) with RMgX to obtain 8a-(alkyl or alkenyl)hexahydrooxazolo[2,3-c] oxazine of formula (II); wherein R=C 1-16 alkyl or C 2-16 alkenyl and X is Cl, Br or I; iii) reduction of 8a-alkylhexahydrooxazolo[2,3-c] oxazine of formula (II) wherein R=C 1-16 alkyl to obtain the compound of formula (I) wherein R=C 1-16 alkyl or reduction of 8a-alkenylhexahydrooxazolo[2,3-c] oxazine of formula (II) wherein R=C 2 - 16 alkenyl to obtain the compound of formula (I) wherein R = C 2-16 alkyl or C 2-16 alkenyl ; iv) optionally purification of the 2-(3-(alkyl or alkenyl)morpholino)ethan-1-ol of formula (I) by distillation or by acid-base treatment; v) optionally treatment with a suitable acid to obtain a pharmaceutically acceptable salt of said 2-(3-(alkyl or alkenyl)morpholino)ethan-1-ol of formula (I). i) reaction of 4-(2-hydroxyethyl)morpholin-3-one with a strong base to obtain 2-(3-oxomorpholino)ethan-1-olate (III); ii) reaction of 2-(3-oxomorpholino)ethan-1-olate (III) with RMgX to obtain 8a-(alkyl or alkenyl)hexahydrooxazolo[2,3-c] oxazine of formula (II); wherein R=C 1-16 alkyl or C 2-16 alkenyl and X is Cl, Br or I; iii) reduction of 8a-alkylhexahydrooxazolo[2,3-c] oxazine of formula (II) wherein R=C 1-16 alkyl to obtain the compound of formula (I) wherein R=C 1-16 alkyl or reduction of 8a-alkenylhexahydrooxazolo[2,3-c] oxazine of formula (II) wherein R=C 2 - 16 alkenyl to obtain the compound of formula (I) wherein R = C 2-16 alkyl or C 2-16 alkenyl ; iv) optionally purification of the 2-(3-(alkyl or alkenyl)morpholino)ethan-1-ol of formula (I) by distillation or by acid-base treatment; v) optionally treatment with a suitable acid to obtain a pharmaceutically acceptable salt of said 2-(3-(alkyl or alkenyl)morpholino)ethan-1-ol of formula (I).
Gas turbine assembly comprising: • a compressor configured to compress air; the compressor extending along a longitudinal axis and being provided with an outlet diffuser and with a compressor casing ; • a plenum , which is a closed volume delimited at least by an outer casing coupled to the compressor casing and by the outlet diffuser ; the outlet diffuser being designed to discharge the compressed air into the plenum ; • a combustor partially arranged in the plenum ; characterized by • at least one pressure sensor (7; 7a; 7b; 7c) facing an area of the plenum comprised between the outer casing and the outlet diffuser . • a compressor configured to compress air; the compressor extending along a longitudinal axis and being provided with an outlet diffuser and with a compressor casing ; • a plenum , which is a closed volume delimited at least by an outer casing coupled to the compressor casing and by the outlet diffuser ; the outlet diffuser being designed to discharge the compressed air into the plenum ; • a combustor partially arranged in the plenum ; • at least one pressure sensor (7; 7a; 7b; 7c) facing an area of the plenum comprised between the outer casing and the outlet diffuser .
An optical apparatus comprising: a lens unit including at least one lens; a drive unit configured to include a base member , a shift member , and an urging member ; a cylindrical body configured to support the drive unit ; and a first coupling portion configured to be coupled with the urging member , wherein the drive unit includes a plurality of the urging members , the drive unit is capable of moving at least the lens unit in a direction orthogonal to an optical axis (OA) of the lens unit , the first coupling portion is provided on the base member , a second coupling portion configured to be coupled with the urging member is provided on the shift member , the first coupling portion is located distal to the optical axis (OA) than the second coupling portion , and the urging member urges the shift member with respect to the base member , characterized in that a groove along a direction of the optical axis (OA) of the lens unit is provided inside the cylindrical body , and the first coupling portion and the groove overlap with each other when viewed from the direction of the optical axis (OA). a lens unit including at least one lens; a drive unit configured to include a base member , a shift member , and an urging member ; a cylindrical body configured to support the drive unit ; and a first coupling portion configured to be coupled with the urging member , wherein the drive unit includes a plurality of the urging members , the drive unit is capable of moving at least the lens unit in a direction orthogonal to an optical axis (OA) of the lens unit , the first coupling portion is provided on the base member , a second coupling portion configured to be coupled with the urging member is provided on the shift member , the first coupling portion is located distal to the optical axis (OA) than the second coupling portion , and the urging member urges the shift member with respect to the base member , characterized in that a groove along a direction of the optical axis (OA) of the lens unit is provided inside the cylindrical body , and the first coupling portion and the groove overlap with each other when viewed from the direction of the optical axis (OA).
A natural biological liquid extract comprising plant biological material obtained by an extraction method, wherein the method comprises the following steps: a. immersing, while stirring, a ground or unground biological material in a eutectic solvent, wherein the solvent is a clear, stable and fluid mixture comprising: (i) betaine (trimethyl glycine) or a hydrated form of betaine; (ii) at least one hydrogen bond donor compound selected from the group consisting of polyols and organic acids; and (iii) water; wherein the molar ratio of betaine or a hydrated form of betaine to the at least one hydrogen bond donor is from 1:1.5 to 1:3 and the proportion of water added to the mixture is from 15 to 30% by weight; with the proviso that the eutectic extraction solvent does not contain any exogenous sugar and/or amine salt and/or anion; b. macerating or percolating or infusing the mixture obtained in step a. at a temperature between 20 and 60°C; then c. filtering the extraction product obtained at b., thereby obtaining a natural biological liquid extract derived from the plant biological material, wherein the plant biological material is selected from the group consisting of cherry blossom, horsetail, plantain, saffron flowers, chrismum (rock samphire), rose of Jericho, rosemary, olive leaves, Selaginella pulvinata and Tillandsia usnoides. a. immersing, while stirring, a ground or unground biological material in a eutectic solvent, wherein the solvent is a clear, stable and fluid mixture comprising: (i) betaine (trimethyl glycine) or a hydrated form of betaine; (ii) at least one hydrogen bond donor compound selected from the group consisting of polyols and organic acids; and (iii) water; wherein the molar ratio of betaine or a hydrated form of betaine to the at least one hydrogen bond donor is from 1:1.5 to 1:3 and the proportion of water added to the mixture is from 15 to 30% by weight; with the proviso that the eutectic extraction solvent does not contain any exogenous sugar and/or amine salt and/or anion; (i) betaine (trimethyl glycine) or a hydrated form of betaine; (ii) at least one hydrogen bond donor compound selected from the group consisting of polyols and organic acids; and (iii) water; wherein the molar ratio of betaine or a hydrated form of betaine to the at least one hydrogen bond donor is from 1:1.5 to 1:3 and the proportion of water added to the mixture is from 15 to 30% by weight; with the proviso that the eutectic extraction solvent does not contain any exogenous sugar and/or amine salt and/or anion; b. macerating or percolating or infusing the mixture obtained in step a. at a temperature between 20 and 60°C; then c. filtering the extraction product obtained at b., thereby obtaining a natural biological liquid extract derived from the plant biological material,
A method (1300-a) of wireless communications, the method being performed in a wireless communication system, said method comprising: receiving signaling data over a first carrier; and transitioning from receiving the signaling data over the first carrier to at least transmitting or receiving traffic data over a second carrier, wherein the first carrier or the second carrier comprises a scaled flexible bandwidth carrier, the bandwidth of said flexible bandwidth carrier being dynamically adjustable, and wherein the flexible bandwidth carrier is generated through scaling up a slot duration of the flexible bandwidth carrier with respect to the slot duration of a standardized bandwidth carrier by a scaling factor N, thereby accordingly reducing the bandwidth of the flexible bandwidth carrier with respect to the bandwidth of the standardized bandwidth carrier. receiving signaling data over a first carrier; and transitioning from receiving the signaling data over the first carrier to at least transmitting or receiving traffic data over a second carrier, wherein the first carrier or the second carrier comprises a scaled flexible bandwidth carrier, the bandwidth of said flexible bandwidth carrier being dynamically adjustable, and wherein the flexible bandwidth carrier is generated through scaling up a slot duration of the flexible bandwidth carrier with respect to the slot duration of a standardized bandwidth carrier by a scaling factor N, thereby accordingly reducing the bandwidth of the flexible bandwidth carrier with respect to the bandwidth of the standardized bandwidth carrier.
A system for pivoting a coupling component , in particular an outrigger, for a semi-trailer tractor, comprising - a rotation device by means of which the coupling component can be pivoted between a primary position and a secondary position and - at least one line , which is guided via the rotation device into the coupling component , wherein the system comprises a pivot arm for entraining the line when the coupling component is pivoted between the primary position and the secondary position, wherein the pivot arm is designed telescopic, wherein the pivot arm changes its length when the coupling component is pivoted between the primary position and the secondary position, characterized in that the rotation device comprises a disc-shaped turntable rotatable about an axis of rotation (D), wherein an opening for the passage of the line is recessed in the turntable at a distance (A) from the axis of rotation (D). - a rotation device by means of which the coupling component can be pivoted between a primary position and a secondary position and - at least one line , which is guided via the rotation device into the coupling component ,
A manual injection device comprising: ▪ a lower body that receives a reservoir (S), said reservoir being stationary axially relative to said lower body and containing fluid to be injected, said reservoir (S) including a piston (P) and a needle (A), ▪ an upper body that is movable axially relative to said lower body during actuation, said upper body including a piston rod (TP) that co-operates with said piston (P) during injection so as to move it in the reservoir S, ▪ an actuator sleeve that includes a contact end for coming into contact with the user's body, said actuator sleeve being movable relative to said lower body between projecting positions, in which said actuator sleeve projects at least in part out from said lower body , and an actuated position in which said actuator sleeve is moved axially into said lower body , said actuator sleeve being in a first projecting position before the manual injection device has been actuated and in a second projecting position after the manual injection device has been actuated, said actuator sleeve defining with said lower body , or with any element that is secured to said lower body , such as a reservoir support, a pricking lock, characterized in that said piston rod (TP) defines with said reservoir (S), or with any element that is secured to said reservoir (S), such as a reservoir support or such as said lower body , an injection lock, the force necessary for actuating said pricking lock being less than the force necessary for actuating said injection lock, such that said pricking lock is actuated before said injection lock. ▪ a lower body that receives a reservoir (S), said reservoir being stationary axially relative to said lower body and containing fluid to be injected, said reservoir (S) including a piston (P) and a needle (A), ▪ an upper body that is movable axially relative to said lower body during actuation, said upper body including a piston rod (TP) that co-operates with said piston (P) during injection so as to move it in the reservoir S, ▪ an actuator sleeve that includes a contact end for coming into contact with the user's body, said actuator sleeve being movable relative to said lower body between projecting positions, in which said actuator sleeve projects at least in part out from said lower body , and an actuated position in which said actuator sleeve is moved axially into said lower body , said actuator sleeve being in a first projecting position before the manual injection device has been actuated and in a second projecting position after the manual injection device has been actuated,
Valve upper part with a head piece , which is axially penetrated by a control spindle , via which a valve body arranged in the head piece can be actuated and which is connected to an operating part comprising a handle , wherein the handle can be fixed in at least two axial positions so as to be displaceable relative to the head piece coaxially to the control spindle via an arranged locking device, and wherein the locking device comprises at least one control link having at least two locking positions, into which an engagement part engages, which is arranged on a control component connected to the handle and arranged so as to be displaceable relative to the control link coaxially to the control spindle , characterised in that the engagement part is formed by a ball , which is inserted in an elongated hole bore arranged in the control component in such a manner that it engages with a ball section in the control link , wherein a ball cage enclosing the elongated hole bore is arranged, in which the ball is guided so as to be circumferentially and radially movable.
Sensor device with a sensor element , a clamp for mounting the sensor element to a track , and a supervision device for monitoring a mounting state of the sensor element to the track , characterized in that the supervision device comprises: a sensor contact element being adapted for attachment to the sensor element , a track contact element being adapted for attachment to the track , wherein one of the contact elements comprises two electrical contact points which are insulated from each other, and the other contact element comprises an electrical contact area , wherein in a mounted state of the sensor element the track contact element is mounted at the track and the contact area contacts both electrical contact points thereby forming an electrical contact between the two electrical contact points , and wherein in an dismounted state of the sensor element the contact area does not form an electrical contact between the two contact points , that a power supply is provided for powering the sensor element via a sensor circuit , and that the electrical contact points and the contact area are part of a supervision circuit , wherein the supervision circuit switches the power supply . a sensor contact element being adapted for attachment to the sensor element , a track contact element being adapted for attachment to the track , wherein one of the contact elements comprises two electrical contact points which are insulated from each other, and the other contact element comprises an electrical contact area , wherein in a mounted state of the sensor element the track contact element is mounted at the track and the contact area contacts both electrical contact points thereby forming an electrical contact between the two electrical contact points , and wherein in an dismounted state of the sensor element the contact area does not form an electrical contact between the two contact points , that a power supply is provided for powering the sensor element via a sensor circuit , and that the electrical contact points and the contact area are part of a supervision circuit , wherein the supervision circuit switches the power supply .
A process for producing an isocyanate compound represented by formula : wherein R 1 represents a methyl group, a cyclopropyl group, a chlorine atom, a bromine atom, an ethyl group, or a methoxy group, and R 2 represents an alkyl group having one to six carbon atoms, which comprises reacting a compound represented by formula : wherein R 1 and R 2 are the same as defined above, with phosgene in the presence of a tertiary amine at 9°C to 16°C in one or more solvents selected from the group consisting of toluene and xylene.
Process for producing grafted polyolefins, wherein - a polyolefin selected from among polyethylene polymers, polypropylene polymers, block or graft copolymers having polyethylene blocks, block or graft copolymers having polypropylene blocks and mixtures of these materials is fed to a reaction zone of a reactor, wherein the temperature of the wall of the reaction zone of the reactor is at least 340°C and the polyolefin has a decomposition temperature which is not more than 60°C below and at least 5°C below the wall temperature, wherein the decomposition temperature is determined by means of thermogravimetry analysis in accordance with DIN EN ISO 11358: 1997 and is denoted in DIN EN ISO 11358: 1997 by T A , - a grafting reagent containing a double bond is additionally fed into the reaction zone, - the polyolefin and the grafting reagent are conveyed through the reaction zone and during this passage energy is introduced into the polyolefin, wherein the input of energy is brought about by heating the interior wall of the reactor and by frictional energy so that activation of the polyolefin with free-radical formation and grafting of the activated polyolefin with the grafting reagent containing the double bond takes place to form the grafted polyolefin as a result of the introduced energy, wherein the residence time of the polyolefin in the reaction zone is not more than 30 seconds, with the proviso that the residence time is less than 10 seconds when the polyolefin in the reaction zone has a temperature which is more than 10°C above this decomposition temperature. - a polyolefin selected from among polyethylene polymers, polypropylene polymers, block or graft copolymers having polyethylene blocks, block or graft copolymers having polypropylene blocks and mixtures of these materials is fed to a reaction zone of a reactor, wherein the temperature of the wall of the reaction zone of the reactor is at least 340°C and the polyolefin has a decomposition temperature which is not more than 60°C below and at least 5°C below the wall temperature, wherein the decomposition temperature is determined by means of thermogravimetry analysis in accordance with DIN EN ISO 11358: 1997 and is denoted in DIN EN ISO 11358: 1997 by T A , - a grafting reagent containing a double bond is additionally fed into the reaction zone, - the polyolefin and the grafting reagent are conveyed through the reaction zone and during this passage energy is introduced into the polyolefin, wherein the input of energy is brought about by heating the interior wall of the reactor and by frictional energy so that activation of the polyolefin with free-radical formation and grafting of the activated polyolefin with the grafting reagent containing the double bond takes place to form the grafted polyolefin as a result of the introduced energy,
A high-pressure gas container with an inner layer configured such that high-pressure gas is filled inside, a boss part (13-1, 13-2) provided at least at one position of the inner layer and configured to cause the gas to flow in and out, and an outer layer configured to cover an outer periphery of the inner layer to reinforce the inner layer and having a higher gas barrier property than the inner layer , wherein: a gas discharge port (15-1, 15-2) is provided between the boss part (13-1, 13-2) and the outer layer and a gas ventilation part is formed between the inner layer and the outer layer such that the gas having permeated from the inner layer to the outer layer is discharged into atmosphere through the gas discharge port; the outer layer is formed of a fiber material impregnated with resin; and the gas ventilation part is configured as a porous body formed of a fiber material; characterized in that the fiber material of which the porous body is formed is not impregnated with resin, the gas ventilation part is formed by winding the fiber material not impregnated with resin on the inner layer liner , and the fiber material of the gas ventilation part is the same as the fiber material forming the outer layer . a gas discharge port (15-1, 15-2) is provided between the boss part (13-1, 13-2) and the outer layer and a gas ventilation part is formed between the inner layer and the outer layer such that the gas having permeated from the inner layer to the outer layer is discharged into atmosphere through the gas discharge port; the outer layer is formed of a fiber material impregnated with resin; and the gas ventilation part is configured as a porous body formed of a fiber material; characterized in that the fiber material of which the porous body is formed is not impregnated with resin, the gas ventilation part is formed by winding the fiber material not impregnated with resin on the inner layer liner , and the fiber material of the gas ventilation part is the same as the fiber material forming the outer layer .
A hinge with adjustable torque suitable for doors having different weights, the hinge comprises a hinge body , a return spring connected to a cam connection and an adjustment pin that allows for adjusting the preloading values of the return spring , thereby allowing for increasing or decreasing the force thereof; characterized in that the hinge body comprises a housing in which a forward and backward movement of the adjustment pin can be performed, a compression spring which ensures balancing and facilitating the backward and forward movement of the adjustment pin , holes formed at the lower part of the hinge that allow for fixing the position of the adjustment pin ; and a pin that connects the adjustment pin to the return spring .