mhurhangee/ep-ind-claims huggingface dataset:
A tablet for oral administration comprising a layer comprising a modified release portion comprising tamsulosin or a pharmaceutically acceptable salt thereof, and a polymer which forms a hydrogel, and a layer comprising an immediate release portion comprising solifenacin or a pharmaceutically acceptable salt thereof and at least one hydrophilic substance from the group consisting of D-mannitol, maltose, polyethylene glycol, and polyvinylpyrrolidone. a layer comprising a modified release portion comprising tamsulosin or a pharmaceutically acceptable salt thereof, and a polymer which forms a hydrogel, and a layer comprising an immediate release portion comprising solifenacin or a pharmaceutically acceptable salt thereof and at least one hydrophilic substance from the group consisting of D-mannitol, maltose, polyethylene glycol, and polyvinylpyrrolidone.
A method of measuring a level of a liquid contained inside a storage tank, the method comprising: storing the liquid in the storage tank with a space above a surface of the liquid occupied by a gas; transmitting a laser pulse of photons along a plastic optical fiber toward an end face of the plastic optical fiber; at a first instant in time, a first set of photons of the laser pulse reflecting from the end face and a second set of photons of the laser pulse transmitting through the end face towards the surface of the liquid; the second set of photons reflecting from the surface of the liquid back into the plastic optical fiber; at a second instant in time subsequent to the first instant in time, detecting a first time of arrival corresponding to impingement on a photodetector of the first set of photons reflected from the end face of the plastic optical fiber; at a third instant in time subsequent to the second instant in time, detecting a second time of arrival corresponding impingement on the photodetector of the second set of photons reflected from the surface of the liquid back into the plastic optical fiber; detecting a time delay between the first time of arrival of the first set of photons and the second time of arrival of the second set of photons; and determining the level of the liquid in the storage tank from the time delay. storing the liquid in the storage tank with a space above a surface of the liquid occupied by a gas; transmitting a laser pulse of photons along a plastic optical fiber toward an end face of the plastic optical fiber; at a first instant in time, a first set of photons of the laser pulse reflecting from the end face and a second set of photons of the laser pulse transmitting through the end face towards the surface of the liquid; the second set of photons reflecting from the surface of the liquid back into the plastic optical fiber; at a second instant in time subsequent to the first instant in time, detecting a first time of arrival corresponding to impingement on a photodetector of the first set of photons reflected from the end face of the plastic optical fiber; at a third instant in time subsequent to the second instant in time, detecting a second time of arrival corresponding impingement on the photodetector of the second set of photons reflected from the surface of the liquid back into the plastic optical fiber; detecting a time delay between the first time of arrival of the first set of photons and the second time of arrival of the second set of photons; and determining the level of the liquid in the storage tank from the time delay.
A control device for a machine tool provided in a machine tool having a cutting tool for cutting a workpiece, rotating means for relatively rotating the cutting tool and the workpiece, feeding means (150, 160) for feeding the cutting tool and the workpiece in a predetermined feed direction, and vibration means for relatively reciprocally vibrating the cutting tool and the workpiece along the feed direction, the control device comprising a control section to make the machine tool machine the workpiece via the relative rotation of the cutting tool and the workpiece and via the feeding of the cutting tool in the feed direction to the workpiece with the reciprocal vibration, wherein the feeding means (150, 160) feeds the cutting tool and the workpiece while vibrating them by the feeding of relatively moving the cutting tool and the workpiece forward and moving them backward, and wherein when the workpiece is machined the control section executes an operating instruction to move the cutting tool or the workpiece forward for a predetermined amount of movement and then move it backward for a predetermined amount of movement by controlling the feeding means (150, 160) as the vibration means, and determines a number of rotations of the relative rotation and a number of vibrations of the reciprocal vibration per rotation of the relative rotation in accordance with a vibration frequency (f) dependent on a period that is determined on the basis of a period of an instruction which the control section can send and enables the operating instruction to be executed.
A fluorescent phospholipid ether compound according to formula I: or formula II: or a pharmaceutically acceptable salt thereof, wherein n is an integer between 7 and 23; Y is H, Me or Et; Z is a fluorophore selected from the group consisting of: wherein R is selected from the group consisting of H, Me, Et, Br and I; Q is selected from the group consisting of N, CH, C-Me, C-Et, C-CF 3, C-Ph; R 1 is selected from the group consisting of and L is selected from the group consisting of O; S, NH and NMe; R 2 is selected from the group consisting of H, Me, and Et; R 3 is selected from the group consisting of H, OMe, OEt, and NMe 2; R 4 is selected from the group consisting of H, Me, Et, Ph or p- methoxy-phenyl; and m is an integer from 1 to 5; and X is selected from the group consisting of a fluorescent phospholipid ether compound of formula: or a pharmaceutically acceptable salt thereof; or a fluorescent phospholipid ether compound of formula: or a pharmaceutically acceptable salt thereof. R is selected from the group consisting of H, Me, Et, Br and I; Q is selected from the group consisting of N, CH, C-Me, C-Et, C-CF 3, C-Ph; R 1 is selected from the group consisting of and
A wireless communication method, comprising: receiving, by customer premise equipment, CPE, a call request message from user equipment, UE; sending, by the CPE based on the call request message, a bearer setup request message to a network side device, wherein the bearer setup request message indicates a request to set up a target bearer, and the target bearer is used by the UE to perform voice over wireless fidelity, VOWIFI, service communication; after the CPE receives a bearer setup response message sent by the network side device, sending, by the CPE, a call response message to the UE; and transmitting, by the CPE, VOWIFI data of the UE on the target bearer. receiving, by customer premise equipment, CPE, a call request message from user equipment, UE; sending, by the CPE based on the call request message, a bearer setup request message to a network side device, wherein the bearer setup request message indicates a request to set up a target bearer, and the target bearer is used by the UE to perform voice over wireless fidelity, VOWIFI, service communication; after the CPE receives a bearer setup response message sent by the network side device, sending, by the CPE, a call response message to the UE; and transmitting, by the CPE, VOWIFI data of the UE on the target bearer.
An electric brake device for a vehicle that has a first wheel pair (12, 14) composed of a first wheel and a second wheel arranged leaving a space in between in the width direction of the vehicle, and a second wheel pair (16, 18) composed of a third wheel and a fourth wheel arranged leaving a space in between in the width direction, and arranged leaving a space from the first wheel pair in the length direction of the vehicle, the electric brake device comprising at least three control units: a first control unit that controls a first brake mechanism for braking the first wheel; a second control unit that controls a second brake mechanism for braking the second wheel; and a third control unit that controls a third brake mechanism for braking the third wheel, and a fourth brake mechanism for braking the fourth wheel, a parking brake mechanism (34, 36) which applies braking force to each of the third wheel and the fourth wheel, and a parking control unit that controls the parking brake mechanism, characterized in that, in case of failure of the third control unit, the parking control unit activating the parking brake mechanism to generate braking force for the third wheel and the fourth wheel, and wherein in case of failure of either the first control unit or the second control unit, and also of the third control unit, the other one of the first control unit and the second control unit reduces braking force of the brake mechanism positioned opposite to such one control unit in the width direction, and the parking control unit activates the parking brake mechanism to generate braking force for the third wheel and the fourth wheel. a first control unit that controls a first brake mechanism for braking the first wheel; a second control unit that controls a second brake mechanism for braking the second wheel; and a third control unit that controls a third brake mechanism for braking the third wheel, and a fourth brake mechanism for braking the fourth wheel, a parking brake mechanism (34, 36) which applies braking force to each of the third wheel and the fourth wheel, and a parking control unit that controls the parking brake mechanism, characterized in that, in case of failure of the third control unit, the parking control unit activating the parking brake mechanism to generate braking force for the third wheel and the fourth wheel, and wherein in case of failure of either the first control unit or the second control unit, and also of the third control unit, the other one of the first control unit and the second control unit reduces braking force of the brake mechanism positioned opposite to such one control unit in the width direction, and the parking control unit activates the parking brake mechanism to generate braking force for the third wheel and the fourth wheel.
A composition comprsing: from 5 to 40% by weight active betaine, wherein the betaine is an amidoalkyl betaine; from 0.1 to 10% by weight of branched fatty alcohol, wherein the branched fatty alcohol is a monobranched primary fatty alcohol that can be represented by the following structure; wherein m is an integer from 0 to 9 inclusive, n is an integer from 0 to 9 inclusive, and m + n = 8 or 9; and an anionic surfactant, said composition having an H-B dimension of less than 1.7. from 5 to 40% by weight active betaine, wherein the betaine is an amidoalkyl betaine; from 0.1 to 10% by weight of branched fatty alcohol, wherein the branched fatty alcohol is a monobranched primary fatty alcohol that can be represented by the following structure; wherein m is an integer from 0 to 9 inclusive, n is an integer from 0 to 9 inclusive, and m + n = 8 or 9; and an anionic surfactant, wherein m is an integer from 0 to 9 inclusive, n is an integer from 0 to 9 inclusive, and m + n = 8 or 9; and an anionic surfactant,
A determination apparatus comprising: a memory comprising memorized therein a three-dimensional face model said model comprising registered therein a three-dimensional face shape of a driver eye positions of the driver and change information that maps step-by-step each change in the shape of the driver's eyes to an eye shape parameter, in association with changes in the state of the driver's face and eyes, a matching unit configured to match an image of the driver picked up by an image pickup device with the three-dimensional face model to specify the direction of the driver's face and the eye positions; a shape parameter determination unit configured to specify a shape parameter corresponding to the shape of an eye in the picked-up image; an eye-opening degree calculating unit configured to calculate an eye-opening degree indicating a state of opening of the eye; and a determination unit configured to determine the state of the face and eye of the driver on the basis of the specified eye-opening degree and the shape parameter, and the change information registered in the three dimensional model, wherein the change information comprises information on a change from a standard state of the face and eye of the driver, in which the face has lack of expression and faces forward with the eyes open, to a state of gazing downward; and determination unit is configured to determine whether or not the driver is in a state of gazing downward on the basis of the specified eye-opening degree and shape parameter, and the change information registered in the three dimensional model. a memory comprising memorized therein a three-dimensional face model said model comprising registered therein a three-dimensional face shape of a driver eye positions of the driver and change information that maps step-by-step each change in the shape of the driver's eyes to an eye shape parameter, in association with changes in the state of the driver's face and eyes, a matching unit configured to match an image of the driver picked up by an image pickup device with the three-dimensional face model to specify the direction of the driver's face and the eye positions; a shape parameter determination unit configured to specify a shape parameter corresponding to the shape of an eye in the picked-up image; an eye-opening degree calculating unit configured to calculate an eye-opening degree indicating a state of opening of the eye; and a determination unit configured to determine the state of the face and eye of the driver on the basis of the specified eye-opening degree and the shape parameter, and the change information registered in the three dimensional model, wherein the change information comprises information on a change from a standard state of the face and eye of the driver, in which the face has lack of expression and faces forward with the eyes open, to a state of gazing downward; and determination unit is configured to determine whether or not the driver is in a state of gazing downward on the basis of the specified eye-opening degree and shape parameter, and the change information registered in the three dimensional model.
A vehicle system, comprising: a power source to drive a vehicle; a front wheel and a rear wheel; a suspension device; a torque distributing mechanism to distribute a torque of the power source to the front wheel and the rear wheel; a steering wheel to be operated by a driver; a steering angle sensor to detect a steering angle which corresponds to operation of the steering wheel; and a controller to control the power source and the torque distributing mechanism, wherein said controller is configured to control said torque distributing mechanism such that the torque distributed to said rear wheel is increased in accordance with a turn-in operation of the steering wheel which is detected by said steering angle sensor, characterized in that said controller is configured to control said power source and said torque distributing mechanism such that when the torque of the power source is at a specified value or larger and/or an accelerator is ON, and the turn-in operation of said steering wheel is performed, the torque generated by the power source is decreased by a torque decrease amount which is set in accordance with the turn-in operation of the steering wheel and said performance of the torque distributing mechanism for increasing the torque distributed to the rear wheel in accordance with the turn-in operation of the steering wheel is suppressed. a power source to drive a vehicle; a front wheel and a rear wheel; a suspension device; a torque distributing mechanism to distribute a torque of the power source to the front wheel and the rear wheel; a steering wheel to be operated by a driver; a steering angle sensor to detect a steering angle which corresponds to operation of the steering wheel; and a controller to control the power source and the torque distributing mechanism, wherein said controller is configured to control said torque distributing mechanism such that the torque distributed to said rear wheel is increased in accordance with a turn-in operation of the steering wheel which is detected by said steering angle sensor, characterized in that said controller is configured to control said power source and said torque distributing mechanism such that when the torque of the power source is at a specified value or larger and/or an accelerator is ON, and the turn-in operation of said steering wheel is performed, the torque generated by the power source is decreased by a torque decrease amount which is set in accordance with the turn-in operation of the steering wheel and said performance of the torque distributing mechanism for increasing the torque distributed to the rear wheel in accordance with the turn-in operation of the steering wheel is suppressed.
An exendin-4 analogue wherein a cysteine (Cys) is introduced into #40 site of the C-terminal end of exendin-4 and is PEGylated with a trimeric type of polyethylene glycol or a derivative thereof, wherein the polyethylene glycol derivative is selected from methoxypolyethylene glycol succinimidylpropionate, methoxypolyethylene glycol N-hydroxysuccinimide, methoxypolyethylene glycol propionaldehyde, methoxypolyethylene glycol maleimide.
Method for calibrating a mass flow meter in a constant volume sampling exhaust gas analysis system having an exhaust gas source via which exhaust gas is introduced into an exhaust gas duct which opens into a mixing channel a dilution air channel into which dilution air is conveyed and which opens into the mixing channel a first mass flow meter in the mixing channel, in which an exhaust gas-air mixture flows, and with which a mass flow ( ṁ Mix) of the exhaust gas-air mixture in the mixing channel of the exhaust gas analysis system is measured, a second mass flow meter to be calibrated in the dilution air channel, with which a mass flow ( ṁ dil) of the air sucked into the exhaust gas analysis system is measured, a first gas analyzer, in which a carbon dioxide concentration ( c mix CO 2) of the exhaust gas-air mixture in the mixing channel is measured continuously and/or discontinuously via sample bags for a defined measurement cycle, a second gas analyzer in which the carbon dioxide concentration ( c exh CO 2) of the raw exhaust gas in the exhaust gas channel is continuously measured, wherein a calibration factor ( F Kal) for the second mass flow meter is determined by comparing a first carbon dioxide mass ( m mix CO 2) determined via the measured carbon dioxide concentration ( c mix CO 2) in the first gas analyzer with a second carbon dioxide mass ( m exh CO 2) being determined as a function of the measured carbon dioxide concentration ( c exh CO 2) of the second gas analyzer and the mass flows ( ṁ Mix, ṁ dil) of the two mass flow meters (36, 42). an exhaust gas source via which exhaust gas is introduced into an exhaust gas duct which opens into a mixing channel a dilution air channel into which dilution air is conveyed and which opens into the mixing channel a first mass flow meter in the mixing channel, in which an exhaust gas-air mixture flows, and with which a mass flow ( ṁ Mix) of the exhaust gas-air mixture in the mixing channel of the exhaust gas analysis system is measured, a second mass flow meter to be calibrated in the dilution air channel, with which a mass flow ( ṁ dil) of the air sucked into the exhaust gas analysis system is measured, a first gas analyzer, in which a carbon dioxide concentration ( c mix CO 2) of the exhaust gas-air mixture in the mixing channel is measured continuously and/or discontinuously via sample bags for a defined measurement cycle, a second gas analyzer in which the carbon dioxide concentration ( c exh CO 2) of the raw exhaust gas in the exhaust gas channel is continuously measured, wherein a calibration factor ( F Kal) for the second mass flow meter is determined by comparing a first carbon dioxide mass ( m mix CO 2) determined via the measured carbon dioxide concentration ( c mix CO 2) in the first gas analyzer with a second carbon dioxide mass ( m exh CO 2) being determined as a function of the measured carbon dioxide concentration ( c exh CO 2) of the second gas analyzer and the mass flows ( ṁ Mix, ṁ dil) of the two mass flow meters (36, 42).
A method for closed-loop supply of liquid metal to an interaction region, in which an electron beam is to impact upon the liquid metal to generate X rays, comprising the steps of: raising a pressure of the liquid metal in a first portion (210; 310) of a closed-loop circulation system to at least 10 bar using a high-pressure pump (212; 312); conducting the liquid metal at a pressure of at least 10 bar to a nozzle (232; 332); ejecting the liquid metal from the nozzle into a vacuum chamber (230; 330), in which the interaction region is located, for generating a liquid metal jet propagating through the vacuum chamber at 10 m/s or more; collecting the ejected liquid metal in a collection reservoir (234; 334); raising a pressure of the collected liquid metal to an inlet pressure suitable for the high-pressure pump, said inlet pressure being at least 0.1 bar; and repeating the above steps to effect supply of liquid metal to the interaction region in a closed loop, characterized in that a collection reservoir with an aperture and a slanting surface that the metal jet hits is used to collect the ejected liquid metal in order to reduce contamination of the vacuum chamber by liquid-metal splashes, mist and the like from the collection reservoir, and in that the liquid metal is passed through at least one filter (316, 324) on its passage from the collection reservoir to the high-pressure pump and/or on its passage from the high-pressure pump to the nozzle. raising a pressure of the liquid metal in a first portion (210; 310) of a closed-loop circulation system to at least 10 bar using a high-pressure pump (212; 312); conducting the liquid metal at a pressure of at least 10 bar to a nozzle (232; 332); ejecting the liquid metal from the nozzle into a vacuum chamber (230; 330), in which the interaction region is located, for generating a liquid metal jet propagating through the vacuum chamber at 10 m/s or more; collecting the ejected liquid metal in a collection reservoir (234; 334); raising a pressure of the collected liquid metal to an inlet pressure suitable for the high-pressure pump, said inlet pressure being at least 0.1 bar; and repeating the above steps to effect supply of liquid metal to the interaction region in a closed loop, characterized in that a collection reservoir with an aperture and a slanting surface that the metal jet hits is used to collect the ejected liquid metal in order to reduce contamination of the vacuum chamber by liquid-metal splashes, mist and the like from the collection reservoir, and in that the liquid metal is passed through at least one filter (316, 324) on its passage from the collection reservoir to the high-pressure pump and/or on its passage from the high-pressure pump to the nozzle.