mhurhangee/patent-ind-claim-en huggingface dataset:
An attitude control apparatus comprising - an ideal thrust direction calculator configured to acquire a position of a satellite comprising a thruster and a solar panel , and to calculate an ideal thrust direction that is a thrust direction of the thruster for minimizing a propellant consumption in firing of the thruster during transfer of the satellite to a target orbit, the solar panel comprising a panel surface rotatable about a rotational axis; - an ideal attitude calculator configured to calculate an ideal attitude that is an attitude of the satellite in which the panel surface faces the sun while the thrust direction aligns with the ideal thrust direction; - a target attitude calculator configured to acquire a movement limitation of an attitude control actuator for controlling an attitude of the satellite mechanically, and to calculate a target attitude that is an attitude of the satellite in which a deviation from the ideal attitude is minimized within the movement limitation while the panel surface faces the sun; and - a torque calculator configured to acquire an actual attitude that is an attitude of the satellite , calculate a torque for turning the satellite from the actual attitude to the target attitude, and transmit a torque instruction indicating the calculated torque to the attitude control actuator . - an ideal thrust direction calculator configured to acquire a position of a satellite comprising a thruster and a solar panel , and to calculate an ideal thrust direction that is a thrust direction of the thruster for minimizing a propellant consumption in firing of the thruster during transfer of the satellite to a target orbit, the solar panel comprising a panel surface rotatable about a rotational axis; - an ideal attitude calculator configured to calculate an ideal attitude that is an attitude of the satellite in which the panel surface faces the sun while the thrust direction aligns with the ideal thrust direction; - a target attitude calculator configured to acquire a movement limitation of an attitude control actuator for controlling an attitude of the satellite mechanically, and to calculate a target attitude that is an attitude of the satellite in which a deviation from the ideal attitude is minimized within the movement limitation while the panel surface faces the sun; and - a torque calculator configured to acquire an actual attitude that is an attitude of the satellite , calculate a torque for turning the satellite from the actual attitude to the target attitude, and transmit a torque instruction indicating the calculated torque to the attitude control actuator .
An inkjet head comprising: a head chip including: a plurality of nozzles that are configured to eject inks; a plurality of pressure chambers respectively in communication with the plurality of nozzles ; and a pressure generation unit that is configured to cause the nozzle to eject an ink by generating pressure change inside each of the plurality of pressure chambers ; an ink chamber configured to store the inks to be supplied to the plurality of pressure chambers ; and a holding portion that is joined to an ink supply hole forming surface and holds the ink chamber , wherein the ink supply hole forming surface is formed with an ink supply hole and located on an opposite side of a surface where the plurality of nozzles of the head chip is formed, characterised in that : the holding portion includes an outer peripheral wall holding portion that holds an outer peripheral wall of the ink chamber , and a separation wall holding portion that holds a separation wall of the ink chamber , and the ink chamber is separated into a plurality of adjacent portions by the separation wall and the separation wall holding portion . a plurality of nozzles that are configured to eject inks; a plurality of pressure chambers respectively in communication with the plurality of nozzles ; and a pressure generation unit that is configured to cause the nozzle to eject an ink by generating pressure change inside each of the plurality of pressure chambers ; an ink chamber configured to store the inks to be supplied to the plurality of pressure chambers ; and a holding portion that is joined to an ink supply hole forming surface and holds the ink chamber , wherein the ink supply hole forming surface is formed with an ink supply hole and located on an opposite side of a surface where the plurality of nozzles of the head chip is formed, characterised in that : the holding portion includes an outer peripheral wall holding portion that holds an outer peripheral wall of the ink chamber , and a separation wall holding portion that holds a separation wall of the ink chamber , and the ink chamber is separated into a plurality of adjacent portions by the separation wall and the separation wall holding portion . the holding portion includes an outer peripheral wall holding portion that holds an outer peripheral wall of the ink chamber , and a separation wall holding portion that holds a separation wall of the ink chamber , and the ink chamber is separated into a plurality of adjacent portions by the separation wall and the separation wall holding portion .
A system for measuring an electrical current to a heater , the system comprising: a first power source ; the heater that is powered by the first power source ; an electrical line between the first power source and the heater ; a control sensor on the electrical line with the control sensor being a Hall Effect sensor positioned to measure a first magnetic field induced by the electrical current and an ambient magnetic field and output a resulting first voltage, the control sensor being provided power by a second power source that is different from the first power source ; a compensation sensor being a Hall effect sensor with the same orientation as the control sensor positioned in proximity to the control sensor so to measure the ambient magnetic field and output a resulting second voltage; and an operational amplifier electrically connected to the control sensor and the compensation sensor , the operation amplifier configured to receive the first voltage and the second voltage and determine the electrical current flowing through the electrical line ; wherein the system further comprises a microcontroller electrically connected to an output of the operational amplifier , the microcontroller configured to regulate the electrical current flowing through the electrical line to the heater depending on the electrical current determined by the operational amplifier and the amount of electrical current needed by the heater to melt ice or prevent ice from accumulating. a first power source ; the heater that is powered by the first power source ; an electrical line between the first power source and the heater ; a control sensor on the electrical line with the control sensor being a Hall Effect sensor positioned to measure a first magnetic field induced by the electrical current and an ambient magnetic field and output a resulting first voltage, the control sensor being provided power by a second power source that is different from the first power source ; a compensation sensor being a Hall effect sensor with the same orientation as the control sensor positioned in proximity to the control sensor so to measure the ambient magnetic field and output a resulting second voltage; and an operational amplifier electrically connected to the control sensor and the compensation sensor , the operation amplifier configured to receive the first voltage and the second voltage and determine the electrical current flowing through the electrical line ; wherein the system further comprises a microcontroller electrically connected to an output of the operational amplifier , the microcontroller configured to regulate the electrical current flowing through the electrical line to the heater depending on the electrical current determined by the operational amplifier and the amount of electrical current needed by the heater to melt ice or prevent ice from accumulating.
An apparatus for video processing, comprising a processor configured to: determine that bi-directional optical flow (BDOF) is enabled; determine that bi-prediction with coding unit (CU) weights is enabled for a current block; identify a weight indication of bi-prediction with CU weights for the current block, wherein the weight indication indicates weights to be used for the current block in bi-prediction with CU weights; determine whether to bypass BDOF for the current block based at least in part on the weight indication of bi-prediction with CU weights for the current block, wherein, on a condition that the weight indication indicates that unequal weights are to be used for the current block in bi-prediction with CU weights, determine to bypass BDOF for the current block; and reconstruct the current block based on the determination of whether to bypass BDOF. determine that bi-directional optical flow (BDOF) is enabled; determine that bi-prediction with coding unit (CU) weights is enabled for a current block; identify a weight indication of bi-prediction with CU weights for the current block, wherein the weight indication indicates weights to be used for the current block in bi-prediction with CU weights; determine whether to bypass BDOF for the current block based at least in part on the weight indication of bi-prediction with CU weights for the current block, wherein, on a condition that the weight indication indicates that unequal weights are to be used for the current block in bi-prediction with CU weights, determine to bypass BDOF for the current block; and reconstruct the current block based on the determination of whether to bypass BDOF.
Method for operating a classification humpyard, wherein - a first humping operation in the form of a first cut humped wagon or a first cut humped wagon group is detected by means of a sensor device (KGL) arranged in the region of branching points , - taking into account at least the location of the sensor device (KGL) and the time (t4 11 ) of the detection of the first axle of the first humping operation , a clearance time (t3 12 ) is determined at which the first humping operation completely passes a clearance reporting point (VGL) differing from the location of the sensor device (KGL) with the last axle or with all constituents of the humping operation and thus will have cleared the points outside the clearance marker in relation to a clearing point (RP), - for a subsequent second humping operation in the form of a second cut humped wagon or a second cut humped wagon group, it is determined whether, if a protective position of the points has changed compared to the first humping operation , the two humping operations will come into contact before the clearance time (t3 12 ) , and - if this is not the case, the points are reset to the protective position if they can be set or the protective position is retained if the points have already been reset. - a first humping operation in the form of a first cut humped wagon or a first cut humped wagon group is detected by means of a sensor device (KGL) arranged in the region of branching points , - taking into account at least the location of the sensor device (KGL) and the time (t4 11 ) of the detection of the first axle of the first humping operation , a clearance time (t3 12 ) is determined at which the first humping operation completely passes a clearance reporting point (VGL) differing from the location of the sensor device (KGL) with the last axle or with all constituents of the humping operation and thus will have cleared the points outside the clearance marker in relation to a clearing point (RP), - for a subsequent second humping operation in the form of a second cut humped wagon or a second cut humped wagon group, it is determined whether, if a protective position of the points has changed compared to the first humping operation , the two humping operations will come into contact before the clearance time (t3 12 ) , and - if this is not the case, the points are reset to the protective position if they can be set or the protective position is retained if the points have already been reset.
A method of detecting Mycoplasma genitalium (MG) in a sample, the method comprising: - performing an amplifying step comprising contacting the sample with a set of target MG gene primers to produce an amplification product if a target MG gene nucleic acid is present in the sample; - performing a hybridizing step comprising contacting the amplification product with one or more detectable target MG gene probes; and - detecting the presence or absence of the amplification product, wherein the presence of the amplification product is indicative of the presence of MG in the sample and wherein the absence of the amplification product is indicative of the absence of MG in the sample; wherein the set of target MG gene primers and the one or more detectable target MG gene probes amplify and detect the variable EF region of the mgpB partial repeats (MgPar); and wherein the set of target MG gene primers comprise a first primer comprising a first oligonucleotide sequence selected from the group consisting of SEQ ID NOs: 47-56 or a complement thereof, and a second primer comprising a second oligonucleotide sequence selected from the group consisting of SEQ ID NOs: 57-66, or a complement thereof; and wherein the one or more detectable target MG gene probes comprises a third oligonucleotide sequence selected from the group consisting of SEQ ID NOs: 67-89, or the complement thereof. - performing an amplifying step comprising contacting the sample with a set of target MG gene primers to produce an amplification product if a target MG gene nucleic acid is present in the sample; - performing a hybridizing step comprising contacting the amplification product with one or more detectable target MG gene probes; and - detecting the presence or absence of the amplification product, wherein the presence of the amplification product is indicative of the presence of MG in the sample and wherein the absence of the amplification product is indicative of the absence of MG in the sample;
A process for applying a coating on a galvanized or alloy galvanized steel strip for the manufacture of a galvanized or alloy galvanized steel strip that may be formed without oiling, wherein the steel strip for a duration in the range of 1 to 10 seconds is brought into contact with an aqueous, chromium-free treatment solution, which has a pH value in the range from 1.5 to 3.5, and which comprises a) 1 to 40 g/l molybdenum-containing oxo anions or molybdenum-containing oxo anions and manganese(II) ions, wherein the molybdenum has an average oxidation state of from +4 to less than +6, b) 10 to 150 g/l phosphate ions; and c) from 0,5 g/l to 10 g/l of a dissolved or dispersed wax, wherein the treatment solution has a temperature in the range from 20 to 40°C, and thereafter the treatment solution applied to the galvanised or alloy-galvanised steel strip is dried without rinsing. a) 1 to 40 g/l molybdenum-containing oxo anions or molybdenum-containing oxo anions and manganese(II) ions, wherein the molybdenum has an average oxidation state of from +4 to less than +6, b) 10 to 150 g/l phosphate ions; and c) from 0,5 g/l to 10 g/l of a dissolved or dispersed wax,
An apparatus for printing a beer barrel, comprising: a workbench , and a hydraulic pushing device , a barrel outer-sided printing device and a barrel inner-sided printing device installed on the workbench ; the barrel inner-sided printing device comprising a turntable rotating by using the Z-axis as an axis line and capable of mounting the barrel , and an inner mold installed on a circumferential surface of the turntable for printing an inner side of the barrel , and the barrel outer-sided printing device comprising a connecting frame moving linearly in the Y-axis direction, and the connecting frame having an outer mold installed thereon for printing an outer side of the barrel , and the hydraulic pushing device controlling the outer mold installed on the connecting frame to move linearly in the X-axis direction, so that the outer mold and the inner mold can print the side walls of the barrel correspondingly; wherein the inner mold and the outer mold include at least a matrix , and the matrix of the single inner mold and the matrix of the single outer mold are paired to form a printing single text matrix element; the matrix is installed on the Y-axis plane of the connecting frame and the circumferential surface of the turntable , and when the matrix of the connecting frame is pressed along the X-axis and towards the turntable of the matrix , the printing of a single matrix element is completed; wherein since the X-axis and the diameter of the turntable are on a straight line, the matrix of the connecting frame at the linear position and the matrix of the turntable at the linear position can be used for normal printing; characterized in that the apparatus for printing a beer barrel further comprises a barrel driving mechanism , the barrel driving mechanism comprising a 3-jaw positioning tool for positioning the barrel and controlling the barrel to rotate axially and independently around the horizontal Z-axis, and a lifting mechanism for driving the 3-jaw positioning tool to ascend and descend vertically and positioning the 3-jaw positioning tool coaxially with the turntable , and the 3-jaw positioning tool being capable of moving axially.
A liquid pharmaceutical composition suitable for administration by inhalation comprising a diluent and a suspension of particles of 9,10-dimethoxy-2-(2,4,6-trimethylphenylimino)-3-(N-carbamoyl-2-aminoethyl)-3,4,6,7-tetrahydro-2H-pyrimido[6,1-a]isoquinolin-4-one (RPL554) or a pharmaceutically acceptable salt thereof, wherein: the particles of RPL554 have a particle size distribution with a Dv50 (median particle size by volume) value of from 0.2 μm to 5 μm; and the composition comprises a phosphate buffer at a concentration of from 0 mg/mL to 5 mg/mL. the particles of RPL554 have a particle size distribution with a Dv50 (median particle size by volume) value of from 0.2 μm to 5 μm; and the composition comprises a phosphate buffer at a concentration of from 0 mg/mL to 5 mg/mL.
An aerosol generator for an electronic aerosol provision system , comprising: an electrical heater comprising ceramic material; an aerosol-generating material transfer component for delivering aerosol-generating material from an aerosol-generating material storage area to the electrical heater for heating to generate aerosol; and characterised by a thermocouple embedded in the ceramic material such that a junction of the thermocouple is in contact with the ceramic material, and operable to provide a temperature-dependent voltage via the thermoelectric effect from which a temperature of the electrical heater can be determined. an electrical heater comprising ceramic material; an aerosol-generating material transfer component for delivering aerosol-generating material from an aerosol-generating material storage area to the electrical heater for heating to generate aerosol; and characterised by a thermocouple embedded in the ceramic material such that a junction of the thermocouple is in contact with the ceramic material, and operable to provide a temperature-dependent voltage via the thermoelectric effect from which a temperature of the electrical heater can be determined.
A membrane filtration system with a series of microfiltration membranes receiving liquid at outer surfaces to remove contaminants and create a permeate interior of the membranes, the permeate being conducted away through pipes, the system comprising: the membranes being ceramic flat plate membranes positioned in side-by-side parallel planar arrangement, the membrane plates being in a plate assembly which includes, at least at one end of the series of plates, an end cap/manifold structure of molded plastic material, having a generally horizontal header at an upper side and a series of vertically oriented end caps , each with a slot fitting closely over the end of a plate and being glued thereto, the end caps being in fluid communication with the header so that the end caps receive permeate from the membranes to liquid connect the permeate from the plates into the header , and the plate assembly being without O-rings at end caps, whereby the membrane plates are retained in the assembly by the end cap/manifold structure and are connected securely and in fluid-tight relationship with the end cap/manifold structure without O-rings. the membranes being ceramic flat plate membranes positioned in side-by-side parallel planar arrangement, the membrane plates being in a plate assembly which includes, at least at one end of the series of plates, an end cap/manifold structure of molded plastic material, having a generally horizontal header at an upper side and a series of vertically oriented end caps , each with a slot fitting closely over the end of a plate and being glued thereto, the end caps being in fluid communication with the header so that the end caps receive permeate from the membranes to liquid connect the permeate from the plates into the header , and the plate assembly being without O-rings at end caps, whereby the membrane plates are retained in the assembly by the end cap/manifold structure and are connected securely and in fluid-tight relationship with the end cap/manifold structure without O-rings.
A surgical instrument, comprising: an end effector operable to treat tissue; a shaft extending proximally from the end effector; and a housing assembly extending proximally from the shaft , the housing assembly comprising: a radio-frequency identification (RFID) scanner ; and a motor-assembly compartment comprising a motor assembly interchangeably retained by the motor-assembly compartment in an assembled configuration, wherein the motor-assembly is movable relative to the motor-assembly compartment between the assembled configuration and an unassembled configuration, and wherein the motor assembly comprises: a motor configured to drive the end effector to treat the tissue; and an RFID tag detectable by the RFID scanner in the assembled configuration, wherein the RFID tag stores motor-assembly information. an end effector operable to treat tissue; a shaft extending proximally from the end effector; and a housing assembly extending proximally from the shaft , the housing assembly comprising: a radio-frequency identification (RFID) scanner ; and a motor-assembly compartment comprising a motor assembly interchangeably retained by the motor-assembly compartment in an assembled configuration, wherein the motor-assembly is movable relative to the motor-assembly compartment between the assembled configuration and an unassembled configuration, and wherein the motor assembly comprises: a motor configured to drive the end effector to treat the tissue; and an RFID tag detectable by the RFID scanner in the assembled configuration, wherein the RFID tag stores motor-assembly information. a radio-frequency identification (RFID) scanner ; and a motor-assembly compartment comprising a motor assembly interchangeably retained by the motor-assembly compartment in an assembled configuration, wherein the motor-assembly is movable relative to the motor-assembly compartment between the assembled configuration and an unassembled configuration, and wherein the motor assembly comprises: a motor configured to drive the end effector to treat the tissue; and an RFID tag detectable by the RFID scanner in the assembled configuration, wherein the RFID tag stores motor-assembly information. a motor configured to drive the end effector to treat the tissue; and an RFID tag detectable by the RFID scanner in the assembled configuration, wherein the RFID tag stores motor-assembly information.