mhurhangee/ep-ind-claims huggingface dataset:
A metered dose inhaler containing an aerosol formulation comprising: propellant; one or more drugs, wherein all the drug in the formulation is in dissolved form; and at least one non-drug bulking agent in undissolved particulate form suspended in the formulation. propellant; one or more drugs, wherein all the drug in the formulation is in dissolved form; and at least one non-drug bulking agent in undissolved particulate form suspended in the formulation.
Pesticide composition comprising: i) at least one pesticide compound, ii) at least one microfibrillated cellulose and iii.) at least one surfactant, wherein the raw material for the at least one microfibrillated cellulose is not cellulose of bacterial origin, and wherein the amount of the at least one microfibrillated cellulose in the composition is 0.001 to 0.1% by weight. i) at least one pesticide compound, ii) at least one microfibrillated cellulose and iii.) at least one surfactant,
Method for calculating a vector from an image capture device to a tow hitch position of a vehicle, attached to a trailer (207, 208) via the tow hitch, the method being performed by a processor and comprising the steps: S1: capturing a first image of the trailer in a first position and a second image of the trailer in a second position using an image capture device, wherein the image capture device is mounted on the vehicle and oriented such that the trailer is in view, S2: calculating a trailer rotation and a trailer translation relative to the image capture device between the first position and the second position, S3: calculating a first rotation axis of the trailer between the first image and the second image based on the calculated trailer rotation and trailer translation, repeating steps S1 to S3 with a third and a fourth image of the trailer thereby calculating a second rotation axis of the trailer between the third and the fourth image ( S1* to S3*), wherein the first and second rotation axes are not the same, S4: determining an intersection of the first and second rotation axis to determine the vector to the tow hitch position by calculating the line of intersection of a first plane and a second plane, wherein the first plane is defined by the image capture device location and the first rotation axis, and the second plane is defined by the image capture device location and the second rotation axis. S1: capturing a first image of the trailer in a first position and a second image of the trailer in a second position using an image capture device, wherein the image capture device is mounted on the vehicle and oriented such that the trailer is in view, S2: calculating a trailer rotation and a trailer translation relative to the image capture device between the first position and the second position, S3: calculating a first rotation axis of the trailer between the first image and the second image based on the calculated trailer rotation and trailer translation, repeating steps S1 to S3 with a third and a fourth image of the trailer thereby calculating a second rotation axis of the trailer between the third and the fourth image ( S1* to S3*), wherein the first and second rotation axes are not the same, S4: determining an intersection of the first and second rotation axis to determine the vector to the tow hitch position by calculating the line of intersection of a first plane and a second plane, wherein the first plane is defined by the image capture device location and the first rotation axis, and the second plane is defined by the image capture device location and the second rotation axis.
A method implemented in a surveying instrument for detecting presence of at least one target, said method comprising: causing motion of a field of view of an image sensor of said surveying instrument relative to said at least one target; capturing at least one digital image with said image sensor under motion of said field of view using an exposure time which is longer than an identifiable section of a regulating pattern for modulation of an optical radiation either emitted or reflected by said at least one target; and processing at least a portion of the captured digital image for detecting in said at least one portion the identifiable section of the regulating pattern. causing motion of a field of view of an image sensor of said surveying instrument relative to said at least one target; capturing at least one digital image with said image sensor under motion of said field of view using an exposure time which is longer than an identifiable section of a regulating pattern for modulation of an optical radiation either emitted or reflected by said at least one target; and processing at least a portion of the captured digital image for detecting in said at least one portion the identifiable section of the regulating pattern.
A method for data processing, wherein, during training and/or start-up of a further network element, a transmission power of at least one network element is reduced, characterized in that the power of a cyclic prefix and/or a cyclic suffix in a signal and/or a pilot tone is/are increased.
A data transmission method applied to a Code Division Multiple Access, CDMA, system in optical communications, comprising: receiving (301, 401), by a terminal device (11, 12, 13, 700, 900, 1100, 1300), indication information that is broadcast by a network side device (21, 800, 1000, 1200, 1400) and that is used to indicate a plurality of code words, selecting (201, 302, 402), by the terminal device (11, 12, 13, 700, 900, 1100, 1300), a first code word from the plurality of code words; encoding (202, 301, 403), by the terminal device (11, 12, 13, 700, 900, 1100, 1300), a first identifier by using the first code word; sending (203, 304, 404), by the terminal device (11, 12, 13, 700, 900, 1100, 1300), the encoded first identifier to the network side device (21, 800, 1000, 1200, 1400); receiving (206, 305, 405), by the terminal device (11, 12, 13, 700, 900, 1100, 1300), a second identifier sent by the network side device (21, 800, 1000, 1200, 1400); decoding (207, 306, 406), by the terminal device (11, 12, 13, 700, 900, 1100, 1300), the second identifier by using the first code word; when the decoded second identifier is the same as the first identifier, then encoding (208, 320), by the terminal device (11, 12, 13, 700, 900, 1100, 1300), subsequent data by using the first code word, the subsequent data is data to be subsequently sent from the terminal device (11, 12, 13, 700, 900, 1100, 1300) to the network side device (21, 800, 1000, 1200, 1400); and subsequently sending (209, 322), by the terminal device (11, 12, 13, 700, 900, 1100, 1300), the encoded subsequent data to the network side device (21, 800, 1000, 1200, 1400). receiving (301, 401), by a terminal device (11, 12, 13, 700, 900, 1100, 1300), indication information that is broadcast by a network side device (21, 800, 1000, 1200, 1400) and that is used to indicate a plurality of code words, selecting (201, 302, 402), by the terminal device (11, 12, 13, 700, 900, 1100, 1300), a first code word from the plurality of code words; encoding (202, 301, 403), by the terminal device (11, 12, 13, 700, 900, 1100, 1300), a first identifier by using the first code word; sending (203, 304, 404), by the terminal device (11, 12, 13, 700, 900, 1100, 1300), the encoded first identifier to the network side device (21, 800, 1000, 1200, 1400); receiving (206, 305, 405), by the terminal device (11, 12, 13, 700, 900, 1100, 1300), a second identifier sent by the network side device (21, 800, 1000, 1200, 1400); decoding (207, 306, 406), by the terminal device (11, 12, 13, 700, 900, 1100, 1300), the second identifier by using the first code word; when the decoded second identifier is the same as the first identifier, then encoding (208, 320), by the terminal device (11, 12, 13, 700, 900, 1100, 1300), subsequent data by using the first code word, the subsequent data is data to be subsequently sent from the terminal device (11, 12, 13, 700, 900, 1100, 1300) to the network side device (21, 800, 1000, 1200, 1400); and subsequently sending (209, 322), by the terminal device (11, 12, 13, 700, 900, 1100, 1300), the encoded subsequent data to the network side device (21, 800, 1000, 1200, 1400).
A crystal comprising a Cas9 polypeptide in crystalline form, wherein the crystal is characterized with space group P2 1 2 1 2, and has unit cell parameters of a=160 Å, b=209 Å, c=91 Å, α=β=γ=90°, and wherein said Cas9 polypeptide comprises an amino acid sequence having at least 95% amino acid sequence identity to the amino acid sequence set forth in any one of SEQ ID NOs:1-14.
A force transmission device for a variable valve train of an internal combustion engine with at least one gas exchange valve and with a camshaft having a first cam and a second cam, wherein the force transmission device has: a first lever device, by means of which an operative connection can be produced between the first cam and the at least one gas exchange valve, wherein the first lever device has a first cam follower, which makes contact with the first cam and which is formed as a rotatable roller, and a first receptacle for the first cam follower, and the first cam follower is received, displaceable and lockable in the first receptacle; and a second lever device, by means of which an operative connection can be produced between the second cam and the at least one gas exchange valve, wherein the second lever device has a second cam follower, which makes contact with the second cam and which is formed as a rotatable roller, and a second receptacle for the second cam follower, and the second cam follower is received, displaceable and lockable in the second receptacle, wherein the first lever device is formed as a rocker lever and/or the second lever device is formed as a rocker lever. a first lever device, by means of which an operative connection can be produced between the first cam and the at least one gas exchange valve, wherein the first lever device has a first cam follower, which makes contact with the first cam and which is formed as a rotatable roller, and a first receptacle for the first cam follower, and the first cam follower is received, displaceable and lockable in the first receptacle; and a second lever device, by means of which an operative connection can be produced between the second cam and the at least one gas exchange valve, wherein the second lever device has a second cam follower, which makes contact with the second cam and which is formed as a rotatable roller, and a second receptacle for the second cam follower, and the second cam follower is received, displaceable and lockable in the second receptacle, wherein the first lever device is formed as a rocker lever and/or the second lever device is formed as a rocker lever.
A method for restarting a prohibit timer in a wireless communication system, the method performed by a user equipment, UE, and comprising: starting the prohibit timer related to a transmission of a first UE-originated information, wherein UE-originated information comprises power preference information; receiving, from a network, a handover message, which includes a timer value; performing a handover procedure based on the received handover message; restarting the prohibit timer based on applying the received timer value included in the handover message; and stopping the prohibit timer based on whether the UE initiates a radio resource control, RRC, re-establishment procedure while the prohibit timer is running, wherein, upon initiating the RRC re-establishment procedure, the UE disables transmission of power preference information and stops the prohibit timer, wherein a transmission of another UE-originated information is restricted while the prohibit timer is running, and wherein the power preference information indicates whether the UE prefers a configuration for power saving. starting the prohibit timer related to a transmission of a first UE-originated information, wherein UE-originated information comprises power preference information; receiving, from a network, a handover message, which includes a timer value; performing a handover procedure based on the received handover message; restarting the prohibit timer based on applying the received timer value included in the handover message; and stopping the prohibit timer based on whether the UE initiates a radio resource control, RRC, re-establishment procedure while the prohibit timer is running, wherein, upon initiating the RRC re-establishment procedure, the UE disables transmission of power preference information and stops the prohibit timer, wherein a transmission of another UE-originated information is restricted while the prohibit timer is running, and wherein the power preference information indicates whether the UE prefers a configuration for power saving.
Method for checking the tightness of a fuel cell system having a fuel cell and at least one tank (6, 8, 10) for storing hydrogen gas, wherein the at least one tank (6, 8, 10) is connected to said fuel cell via a line, along which at least one pressure sensor is arranged, wherein to execute the method a pressure of the hydrogen gas flowing in said line to the fuel cell is measured using the at least one pressure sensor, and a quantity of the hydrogen gas flowing to said fuel cell is calculated by means of a quantity-pressure relationship that describes a relationship of the pressure and the quantity of the hydrogen gas, and wherein a current generated by the fuel cell is measured and a quantity of the hydrogen gas having been converted by the fuel cell is calculated by means of a quantity-current relationship that describes a relationship of the current generated by the fuel cell and the quantity of the hydrogen gas burnt, wherein the calculated quantities of hydrogen gas are compared with one another, wherein a leak is detected in the event that the calculated quantity of hydrogen gas flowing to the fuel cell is greater than the quantity of hydrogen gas converted by the fuel cell ascertained by the calculation, wherein a temperature of the at least one tank (6, 8, 10) is measured, the temperature of the hydrogen gas in the at least one tank (6, 8, 10) is compared with a temperature of the surrounding air, and, using the Joule-Thomson effect, a throughput of hydrogen gas for the at least one tank (6, 8, 10) is determined, and wherein in the case where the at least one tank is closed and the temperature of the closed tank (6, 8, 10) is different from the temperature of the surrounding air, this is an indication that the at least one tank (6, 8, 10) has a leak, which can also be demonstrated by the Joule Thomson effect.
Device for heating a substrate according to a predetermined temperature profile for crystallizing a material on the substrate comprising - a housing, - at least a process chamber (3,4,5) which is situated inside the housing and which is provided with - a first and second sealable opening (6,7 8,9; 10,11) for passing through a substrate, - an inlet for introducing a process gas into the process chamber (13,14,15), at least two transport rollers for transporting the substrate into the process chamber, which transport rollers are attached to the housing so as to be rotatable, and sealing means (20;25,26;31,32) to prevent the escape of the process gas from the process chamber to a space between the process chamber and the housing, characterized in that the sealing means comprise passage spaces which are situated near respective ends of the transport rollers in the process chamber (3,4,5), wherein the respective passage spaces are provided with a first passage opening on an inner wall of the process chamber, a second passage opening on an outer wall of the process chamber (3,4,5) a first flange which is fixed around the transport roller, and a second flange which is fixed around the transport roller next to the first flange, wherein the first flange is situated near the first passage opening and the second flange is situated near the second passage opening; wherein the device is further provided with a spring space which extends in the radial direction between the first flange or the second flange and the wall of the passage space; and a discharge duct which is connected to the spring space for discharging a gas from the spring space. - a housing, - at least a process chamber (3,4,5) which is situated inside the housing and which is provided with - a first and second sealable opening (6,7 8,9; 10,11) for passing through a substrate, - an inlet for introducing a process gas into the process chamber (13,14,15), at least two transport rollers for transporting the substrate into the process chamber, which transport rollers are attached to the housing so as to be rotatable, and sealing means (20;25,26;31,32) to prevent the escape of the process gas from the process chamber to a space between the process chamber and the housing, characterized in that the sealing means comprise passage spaces which are situated near respective ends of the transport rollers in the process chamber (3,4,5), wherein the respective passage spaces are provided with a first passage opening on an inner wall of the process chamber, a second passage opening on an outer wall of the process chamber (3,4,5) a first flange which is fixed around the transport roller, and a second flange which is fixed around the transport roller next to the first flange, wherein the first flange is situated near the first passage opening and the second flange is situated near the second passage opening; wherein the device is further provided with a spring space which extends in the radial direction between the first flange or the second flange and the wall of the passage space; and a discharge duct which is connected to the spring space for discharging a gas from the spring space.
A method comprising: first changing an impedance of one or both of a first current path or a second current path, the first current path being connected in parallel to the second current path, the first changing occurring at a frequency above a grid frequency, the first current path having a first current; diverting, based on the first changing, at least a part of a flow of the first current from the first current path to the second current path, the second current path comprising a current sensor; determining, using the current sensor, a differential current between current flowing through the second current path and a third current flowing through a third current path; and second changing, based on the differential current being below a threshold, the impedance of one or both of the first current path or the second current path to allow current to return from the second current path to the first current path. first changing an impedance of one or both of a first current path or a second current path, the first current path being connected in parallel to the second current path, the first changing occurring at a frequency above a grid frequency, the first current path having a first current; diverting, based on the first changing, at least a part of a flow of the first current from the first current path to the second current path, the second current path comprising a current sensor; determining, using the current sensor, a differential current between current flowing through the second current path and a third current flowing through a third current path; and second changing, based on the differential current being below a threshold, the impedance of one or both of the first current path or the second current path to allow current to return from the second current path to the first current path.
An isolated bispecific antibody which binds to human HER3 and to human HER2, wherein the antibody binds to human HER3 within an amino acid sequence of PQPLVYNKLTFQLEPNPHT (SEQ ID NO:1) which is comprised in a polypeptide of SEQ ID NO: 18 (TtSlyDcys-Her3) and wherein the antibody binds to domain II of human HER2 (SEQ ID NO: 59).
A manufacturing device of a roller mold which is a roller-like die to transfer a pattern, comprising: an electron beam irradiation device configured to irradiate, with electron beams, the roller mold coated with a resist; a mask which has an opening that is configured to allow passage of some of electron beams emitted from the electron beam irradiation device, and which is configured to form a plurality of beams that perform simultaneous depiction on the resist; a rotation drive device configured to rotate the roller mold around a rotary shaft; a displacement amount detection sensor configured to detect a rotational runout displacement amount of the roller mold in the direction of the rotary shaft at the rotation by the rotation drive device; a control device configured to receive a detection signal from the displacement amount detection sensor, and configured to transmit a control signal to allow a depiction position on the resist of the roller mold by the electron beams to follow the roller mold; and an actuator which, based on the control signal from the control device, is configured to allow the depiction position by the electron beams to follow the displacement of the roller mold in the direction of the rotary shaft, wherein misalignment of an exposed position of the resist, which is caused by rotational runout displacement of the roller mold in the direction of the rotary shaft, is suppressed. an electron beam irradiation device configured to irradiate, with electron beams, the roller mold coated with a resist; a mask which has an opening that is configured to allow passage of some of electron beams emitted from the electron beam irradiation device, and which is configured to form a plurality of beams that perform simultaneous depiction on the resist; a rotation drive device configured to rotate the roller mold around a rotary shaft; a displacement amount detection sensor configured to detect a rotational runout displacement amount of the roller mold in the direction of the rotary shaft at the rotation by the rotation drive device; a control device configured to receive a detection signal from the displacement amount detection sensor, and configured to transmit a control signal to allow a depiction position on the resist of the roller mold by the electron beams to follow the roller mold; and an actuator which, based on the control signal from the control device, is configured to allow the depiction position by the electron beams to follow the displacement of the roller mold in the direction of the rotary shaft, wherein misalignment of an exposed position of the resist, which is caused by rotational runout displacement of the roller mold in the direction of the rotary shaft, is suppressed.
A measurement reporting method, comprising: receiving, by a terminal device, pilot measurement configuration information of a plurality of carriers from a network device; performing, by the terminal device, measurement based on the pilot measurement configuration information of the plurality of carriers, to obtain measurement report results of the plurality of carriers; and sending, by the terminal device, the measurement report results of the plurality of carriers to a network device; characterized in that the pilot measurement configuration information of the plurality of carriers indicates a pilot association relationship of the plurality of carriers, and the pilot association relationship of the plurality of carriers indicates that pilots of the plurality of carriers correspond to a same spatial domain transmit filter. receiving, by a terminal device, pilot measurement configuration information of a plurality of carriers from a network device; performing, by the terminal device, measurement based on the pilot measurement configuration information of the plurality of carriers, to obtain measurement report results of the plurality of carriers; and sending, by the terminal device, the measurement report results of the plurality of carriers to a network device; characterized in that the pilot measurement configuration information of the plurality of carriers indicates a pilot association relationship of the plurality of carriers, and the pilot association relationship of the plurality of carriers indicates that pilots of the plurality of carriers correspond to a same spatial domain transmit filter.