mhurhangee/patent-ind-claim-en huggingface dataset:
A method for evaluating the amount of tars in a gas, in particular in a syngas, comprising the following successive steps: a) providing a device comprising: - a vessel comprising a gas inlet , connected to an inlet line of a gas containing tars, a gas outlet , an oxygen inlet and an ignition device for initiating the combustion of tar vapors, - a CO 2 measuring device , connected to the gas outlet , - a cooling system , - a heating system , b) cooling the vessel to a temperature below -15°C, and preferably below -20°C, with the cooling system , c) circulating the gas through the vessel from the gas inlet to the gas outlet, the tars condensing in the vessel , whereby condensed tars are obtained, and then stopping the gas circulation, d) heating the vessel to a temperature above 250°C, preferably above 300°C, with the heating system , so as to vaporize the condensed tars in the vessel , whereby tar vapors are formed e) introducing dioxygen into the container , through the dioxygen inlet, igniting and burning the tar vapors, thereby forming combustion gases, and then stopping the dioxygen inlet, f) discharging the combustion gases through the gas outlet to the measuring device and measuring the amount of CO 2 in the combustion gases, then g) determination of the amount of condensed and burned tars from the amount of the amount of CO 2 measured in step f). a) providing a device comprising: - a vessel comprising a gas inlet , connected to an inlet line of a gas containing tars, a gas outlet , an oxygen inlet and an ignition device for initiating the combustion of tar vapors, - a CO 2 measuring device , connected to the gas outlet , - a cooling system , - a heating system , - a vessel comprising a gas inlet , connected to an inlet line of a gas containing tars, a gas outlet , an oxygen inlet and an ignition device for initiating the combustion of tar vapors, - a CO 2 measuring device , connected to the gas outlet , - a cooling system , - a heating system , b) cooling the vessel to a temperature below -15°C, and preferably below -20°C, with the cooling system , c) circulating the gas through the vessel from the gas inlet to the gas outlet, the tars condensing in the vessel , whereby condensed tars are obtained, and then stopping the gas circulation, d) heating the vessel to a temperature above 250°C, preferably above 300°C, with the heating system , so as to vaporize the condensed tars in the vessel , whereby tar vapors are formed e) introducing dioxygen into the container , through the dioxygen inlet, igniting and burning the tar vapors, thereby forming combustion gases, and then stopping the dioxygen inlet, f) discharging the combustion gases through the gas outlet to the measuring device and measuring the amount of CO 2 in the combustion gases, then g) determination of the amount of condensed and burned tars from the amount of the amount of CO 2 measured in step f).
Personal weather protection device for the protection of a user (U) using a wheeled vehicle (ER), the device comprising a protective wall , consisting of a flexible wall which extends from a carrying system to be positioned above the user's head up to the front while fixing means are provided for fixing the front free end of the protective wall to the steering member (MD) of the wheeled vehicle (ER) and comprising a framework consisting of at least one elastically deformable flexible rod or at least one tensioning arch in order to fold the device into the non-use position, said device being carried on the user's back by the carrying system , characterised in that the carrying system is of the type of a back wall, of a backpack, provided with carrying shoulder straps , and in that the flexible wall comprises a rear skirt protecting the lower back and the pelvis of the user (U) ,and forming a cover accommodating the framework and the flexible wall in the folded state.
A load control system comprising a calibration device and a load regulation device for controlling the amount of power delivered to an electrical load , wherein the electrical load comprises g an LED light source, the load regulation device comprising: a load regulation circuit comprising a LED driver, wherein the load regulation circuit is configured to generate an output voltage for producing a load voltage across the LED light source, wherein the LED driver is configured to control the light intensity of the LED light source via pulse width modulation, PWM, or pulse frequency modulation, PFM; and a control circuit characterized in the control circuit configured to receive external feedback from the calibration device , wherein the calibration device is coupled in parallel with the electrical load at a location within the final 5% of length of a load wire leading to the electrical load from the load regulation circuit, the calibration device configured to sense, at the location within the final 5% of length of the load wire leading to the electrical load , a magnitude of the load voltage across the LED light source , the external feedback indicating whether the magnitude of the load voltage across the LED light source has reached a predetermined level, and adjust a the magnitude of the output voltage generated by the load regulation circuit based on the external feedback; wherein the external feedback comprises a current spike and the load regulation device is configured to gradually increase the magnitude of the output voltage until sensing the current spike. a load regulation circuit comprising a LED driver, wherein the load regulation circuit is configured to generate an output voltage for producing a load voltage across the LED light source, wherein the LED driver is configured to control the light intensity of the LED light source via pulse width modulation, PWM, or pulse frequency modulation, PFM; and a control circuit characterized in the control circuit configured to receive external feedback from the calibration device , wherein the calibration device is coupled in parallel with the electrical load at a location within the final 5% of length of a load wire leading to the electrical load from the load regulation circuit, the calibration device configured to sense, at the location within the final 5% of length of the load wire leading to the electrical load , a magnitude of the load voltage across the LED light source , the external feedback indicating whether the magnitude of the load voltage across the LED light source has reached a predetermined level, and adjust a the magnitude of the output voltage generated by the load regulation circuit based on the external feedback; wherein the external feedback comprises a current spike and the load regulation device is configured to gradually increase the magnitude of the output voltage until sensing the current spike.
A fetal head direction measuring device, comprising a medical ultrasonic probe (US), an angle sensor , and a data processing unit, wherein the medical ultrasonic probe (US) and the angle sensor are communicably connected with the data processing unit; the angle sensor is fixed to the medical ultrasonic probe (US) for sensing an angular change of a scanning direction of the medical ultrasonic probe (US); the medical ultrasonic probe (US) is configured to scan and acquire a preset ultrasonic image; and the data processing unit is configured to calculate a fetal head direction according to a directional angel (α) of preset fetal head feature points in the preset ultrasonic image and an included angle (δ) between an ultrasonic scanning direction (R) vector I0 at an initial position of the probe (US) according to an angle value sensed by the angle sensor at the initial position and an ultrasonic scanning direction (R) vector I1 at a measurement position according to the angle value sensed by the angle sensor when acquiring the preset ultrasonic image and further wherein preset maternal pelvic feature points are included in the ultrasonic image acquired at said initial position and a maternal pelvis orientation is determined based on the angle value sensed by the angle sensor at the initial position. the angle sensor is fixed to the medical ultrasonic probe (US) for sensing an angular change of a scanning direction of the medical ultrasonic probe (US); the medical ultrasonic probe (US) is configured to scan and acquire a preset ultrasonic image; and the data processing unit is configured to calculate a fetal head direction according to a directional angel (α) of preset fetal head feature points in the preset ultrasonic image and an included angle (δ) between an ultrasonic scanning direction (R) vector I0 at an initial position of the probe (US) according to an angle value sensed by the angle sensor at the initial position and an ultrasonic scanning direction (R) vector I1 at a measurement position according to the angle value sensed by the angle sensor when acquiring the preset ultrasonic image and further wherein preset maternal pelvic feature points are included in the ultrasonic image acquired at said initial position and a maternal pelvis orientation is determined based on the angle value sensed by the angle sensor at the initial position.
A computer-implemented method of simulating an optimal path of an ore-body solid model, the optimal path able to be used for extracting ore from an underground mine, the method comprising: slicing an ore-body solid model stored in a memory into a plurality of slices; deriving, from the plurality of slices, information corresponding to stope blocks and pillar blocks of the ore-body, stope blocks and pillar blocks corresponding to particular slices of the plurality of slices; selecting given slices forming the optimal path through the ore-body based on constraints of height and width by (i) considering one or more of geotechnical parameters, ore-body site conventions, and equipment operating parameters and by (ii) creating and solving a weighted digraph representing a plurality of contiguous slices; and presenting the optimal path to a user, wherein the ore-body model represents a boundary of a shape to be mined, the optimal path being a solution to the diagraph and maximizing a value of the mine, the mine being modeled by the ore-body model, the value of the mine being based on factors including an amount of metal recovered from the mine. slicing an ore-body solid model stored in a memory into a plurality of slices; deriving, from the plurality of slices, information corresponding to stope blocks and pillar blocks of the ore-body, stope blocks and pillar blocks corresponding to particular slices of the plurality of slices; selecting given slices forming the optimal path through the ore-body based on constraints of height and width by (i) considering one or more of geotechnical parameters, ore-body site conventions, and equipment operating parameters and by (ii) creating and solving a weighted digraph representing a plurality of contiguous slices; and presenting the optimal path to a user, wherein the ore-body model represents a boundary of a shape to be mined, the optimal path being a solution to the diagraph and maximizing a value of the mine, the mine being modeled by the ore-body model, the value of the mine being based on factors including an amount of metal recovered from the mine.
A real-time galley power management and fault monitoring system for an aircraft , the system comprising: an aircraft cabin having an aircraft cabin interior provided with a network server and a galley complex in the interior of the aircraft cabin, a wireless galley control unit and a plurality of galley inserts inside the galley complex , the wireless galley control unit being configured for wireless communication with the network server and to communicate status information and fault information of the plurality of galley inserts to the network server , wherein the network server has a memory that records status information and fault information communicated to the network server by the wireless galley control unit .
A method of producing a composite part, comprising in consecutive steps: (a) introducing a precursor material in liquid form in a first layer adjacent a build plate, the precursor material comprising a matrix material and magnetically responsive particles, the magnetically responsive particles comprising a magnetic material and the matrix material comprising a precursor of a polymer; (b) orienting the magnetically responsive particles in a first alignment with a first magnetic field; (c) consolidating a first portion of the matrix material in the first layer by forming a polymer with the magnetically responsive particles within the first portion held in the first alignment, by consolidating a first subset of discrete voxels; (d) orienting a further portion of the magnetically responsive particles in a further alignment different from the first alignment with a further magnetic field; and (e) consolidating a further portion of the matrix material in the first layer by forming a polymer with the magnetically responsive particles within the further portion held in the further alignment, by consolidating a further subset of discrete voxels. (a) introducing a precursor material in liquid form in a first layer adjacent a build plate, the precursor material comprising a matrix material and magnetically responsive particles, the magnetically responsive particles comprising a magnetic material and the matrix material comprising a precursor of a polymer; (b) orienting the magnetically responsive particles in a first alignment with a first magnetic field; (c) consolidating a first portion of the matrix material in the first layer by forming a polymer with the magnetically responsive particles within the first portion held in the first alignment, by consolidating a first subset of discrete voxels; (d) orienting a further portion of the magnetically responsive particles in a further alignment different from the first alignment with a further magnetic field; and (e) consolidating a further portion of the matrix material in the first layer by forming a polymer with the magnetically responsive particles within the further portion held in the further alignment, by consolidating a further subset of discrete voxels.
A combination comprising an anti-human PD-1 antibody and a Compound A and a Compound B, wherein: the anti-human PD-1 antibody comprises a heavy chain comprising the sequence of amino acids set forth in SEQ ID NO: 21 and a light chain comprising the sequence of amino acids set forth in SEQ ID NO: 22; the Compound B is a compound of structure (II) or a pharmaceutically acceptable salt thereof; and the Compound A is a compound of structure (I): or a pharmaceutically acceptable salt or solvate thereof. the anti-human PD-1 antibody comprises a heavy chain comprising the sequence of amino acids set forth in SEQ ID NO: 21 and a light chain comprising the sequence of amino acids set forth in SEQ ID NO: 22; the Compound B is a compound of structure (II) or a pharmaceutically acceptable salt thereof; and the Compound A is a compound of structure (I): or a pharmaceutically acceptable salt or solvate thereof.
A vehicle knuckle, comprising: a bushing formed of metal material; and a knuckle body formed of carbon fiber reinforcement plastic material and having at least one bushing hole to which a ball joint is couplable, wherein at least a portion of the bushing is coupled to the bushing hole of the knuckle body through press-fit, wherein an axial length of the bushing except for a flange portion is smaller than an axial length of the bushing hole in a cross-section taken along an axial direction of the bushing, and wherein the knuckle body is manufactured by filling a mold with carbon chip material comprising carbon fiber reinforcement plastic material and then hot-press forming the carbon chip material filled in the mold under high temperature and high pressure environment. a bushing formed of metal material; and a knuckle body formed of carbon fiber reinforcement plastic material and having at least one bushing hole to which a ball joint is couplable, wherein at least a portion of the bushing is coupled to the bushing hole of the knuckle body through press-fit, wherein an axial length of the bushing except for a flange portion is smaller than an axial length of the bushing hole in a cross-section taken along an axial direction of the bushing, and wherein the knuckle body is manufactured by filling a mold with carbon chip material comprising carbon fiber reinforcement plastic material and then hot-press forming the carbon chip material filled in the mold under high temperature and high pressure environment.
A power control method , comprising: receiving (S510), by a terminal, at least one piece of downlink control information, DCI, from at least one network device, wherein the at least one piece of DCI comprises at least two transmit power control commands; characterized in that the power control method further comprises determining (S520), by the terminal, a transmit power on an uplink channel of each of at least two network devices in a same carrier based on the at least two transmit power control commands, wherein the at least two network devices are in a one-to-one correspondence with the at least two transmit power control commands, and the at least two network devices comprise the at least one network device. receiving (S510), by a terminal, at least one piece of downlink control information, DCI, from at least one network device, wherein the at least one piece of DCI comprises at least two transmit power control commands; characterized in that the power control method further comprises determining (S520), by the terminal, a transmit power on an uplink channel of each of at least two network devices in a same carrier based on the at least two transmit power control commands, wherein the at least two network devices are in a one-to-one correspondence with the at least two transmit power control commands, and the at least two network devices comprise the at least one network device.
A method of providing a Graphical User Interface, GUI, for changing a reproducing time point of a moving image, the method comprising: reproducing the moving image on a display (S310); displaying a progress bar representing a current reproduction time of the moving image (S320); based on a first input selecting a specific time point on the progress bar being received, displaying a first image representing the specific time point of the moving image and at least one second image representing at least one time point in a specific time period including the specific time point, wherein the first image and the at least one second image are displayed on an upper side of the progress bar, respectively; and based on a second input to select one of the first image and the at least one second image, replay the moving image from a time point corresponding to the selected image. reproducing the moving image on a display (S310); displaying a progress bar representing a current reproduction time of the moving image (S320); based on a first input selecting a specific time point on the progress bar being received, displaying a first image representing the specific time point of the moving image and at least one second image representing at least one time point in a specific time period including the specific time point, wherein the first image and the at least one second image are displayed on an upper side of the progress bar, respectively; and based on a second input to select one of the first image and the at least one second image, replay the moving image from a time point corresponding to the selected image.
A power switch circuit, comprising: a power switch transistor (30 1 , 30 2 ) having: a conduction path coupled between an external power terminal (VBUS) and an internal power terminal (V_SCR); and a control terminal; a charge pump configured to generate a voltage at a charge pump node (VCP) responsive to a clock signal at a first frequency; a first current source configured to apply a first current from the charge pump node (VCP) to the control terminal of the power switch transistor (30 1 , 30 2 ); a boost current source coupled in parallel with the first current source and configured to apply a boost current from the charge pump node (VCP); and a control logic configured to control the charge pump to generate a voltage responsive to a clock signal at a second frequency higher than the first frequency and to couple the boost current source to the control terminal of the power switch transistor (30 1 , 30 2 ), both responsive to a role swap signal at an input. a power switch transistor (30 1 , 30 2 ) having: a conduction path coupled between an external power terminal (VBUS) and an internal power terminal (V_SCR); and a control terminal; a charge pump configured to generate a voltage at a charge pump node (VCP) responsive to a clock signal at a first frequency; a first current source configured to apply a first current from the charge pump node (VCP) to the control terminal of the power switch transistor (30 1 , 30 2 ); a boost current source coupled in parallel with the first current source and configured to apply a boost current from the charge pump node (VCP); and a control logic configured to control the charge pump to generate a voltage responsive to a clock signal at a second frequency higher than the first frequency and to couple the boost current source to the control terminal of the power switch transistor (30 1 , 30 2 ), both responsive to a role swap signal at an input.
An encapsulation assembly, comprising: a base substrate ; an encapsulation layer that packages the base substrate in a encapsulation region ; an adhesive layer between the base substrate and the encapsulation layer in the encapsulation region for attaching; and a plurality of notches arranged in an array are located in the encapsulation region, wherein the plurality of notches have a same shape of regular polygon, wherein the array comprises a plurality of first rows and a plurality of second rows arranged alternately, and the plurality of notches of in the plurality of first rows and the plurality of second rows have a displacement along a row direction, and wherein at least two adjacent notches in a same row have a gap with a first length along the row direction, the displacement has a second length along the row direction, characterized in that the first length is equal or smaller than the second length. a base substrate ; an encapsulation layer that packages the base substrate in a encapsulation region ; an adhesive layer between the base substrate and the encapsulation layer in the encapsulation region for attaching; and a plurality of notches arranged in an array are located in the encapsulation region, wherein the plurality of notches have a same shape of regular polygon, wherein the array comprises a plurality of first rows and a plurality of second rows arranged alternately, and the plurality of notches of in the plurality of first rows and the plurality of second rows have a displacement along a row direction, and wherein at least two adjacent notches in a same row have a gap with a first length along the row direction, the displacement has a second length along the row direction, characterized in that the first length is equal or smaller than the second length.