mhurhangee/ep-ind-claims huggingface dataset:
A method for controlling a vehicle comprising an internal combustion engine, an exhaust gas purification apparatus and a manifold catalyst that are provided in an exhaust passage of the internal combustion engine, and an oxygen supply part (34, 35) connected to the exhaust passage, wherein the exhaust gas purification apparatus includes an exhaust particulate filter capable of trapping fine exhaust particles in exhaust gas, and a three-way catalyst positioned on a downstream side of the exhaust particulate filter, and wherein the oxygen supply part (34, 35) is configured to supply oxygen to the exhaust particulate filter and is positioned on an downstream side of the manifold catalyst and on an upstream side of the exhaust particulate filter, the method comprising: supplying oxygen to the exhaust particulate filter in case where the fine exhaust particles are accumulated in the exhaust particulate filter and a temperature of the exhaust particulate filter is equal to or higher than a predetermined temperature, when the internal combustion engine is being stopped during travel, wherein a supply quantity of the oxygen to be supplied to the exhaust particulate filter during stopping of the internal combustion engine is set according to a temperature of the oxygen to be supplied to the exhaust particulate filter and the temperature of the exhaust particulate filter. supplying oxygen to the exhaust particulate filter in case where the fine exhaust particles are accumulated in the exhaust particulate filter and a temperature of the exhaust particulate filter is equal to or higher than a predetermined temperature, when the internal combustion engine is being stopped during travel, wherein a supply quantity of the oxygen to be supplied to the exhaust particulate filter during stopping of the internal combustion engine is set according to a temperature of the oxygen to be supplied to the exhaust particulate filter and the temperature of the exhaust particulate filter.
A housing for a portable terminal device having first and second audio diaphragm, the housing being assembled from upper and lower audio diaphragm holders (12, 14) wherein each diaphragm holder (12, 14) is constructed from a retaining plate having formed therein an aperture designed to receive an audio diaphragm and provided with an integrally formed continuous side wall which extends around its perimeter and a recess running around the circumference of the aperture and forming a shoulder so that, during assembly, the audio diaphragm is located in the aperture with a peripheral rim of the respective audio diaphragm being located against the shoulder, and the upper and lower diaphragm holders (12, 14) are brought together so that the respective diaphragm holders oppose one another with their apertures facing outwardly.
An anti-HIV antibody, wherein said antibody is PG16 having a heavy chain comprising the amino acid sequence of SEQ ID NO: 31 and a light chain comprising the amino acid sequence of SEQ ID NO: 32.
A secondary battery, comprising: an electrode assembly; a can having an opening at an upper portion thereof and housing the electrode assembly; a cap assembly sealing the opening of the can; and an insulation case disposed between the electrode assembly and the cap assembly, the insulation case having an impact absorber configured to deform and absorb an external impact, wherein: the cap assembly includes a cap plate, the cap plate has short edges with lower portions, and protrusions at the lower portions of the short edges; the insulation case includes: a body having a plate-like shape defining a bottom of the insulation case and first side walls protruding upwards from short edges of the body; and the impact absorber includes first tapered portions tapering from a lower surface of the body towards the short edges of the body, wherein the first tapered portions are disposed under the protrusions. an electrode assembly; a can having an opening at an upper portion thereof and housing the electrode assembly; a cap assembly sealing the opening of the can; and an insulation case disposed between the electrode assembly and the cap assembly, the insulation case having an impact absorber configured to deform and absorb an external impact, wherein: the cap assembly includes a cap plate, the cap plate has short edges with lower portions, and protrusions at the lower portions of the short edges; the insulation case includes: a body having a plate-like shape defining a bottom of the insulation case and first side walls protruding upwards from short edges of the body; and the impact absorber includes first tapered portions tapering from a lower surface of the body towards the short edges of the body, wherein the first tapered portions are disposed under the protrusions. a body having a plate-like shape defining a bottom of the insulation case and first side walls protruding upwards from short edges of the body; and the impact absorber includes first tapered portions tapering from a lower surface of the body towards the short edges of the body, wherein the first tapered portions are disposed under the protrusions.
An antenna comprising: a printed circuit board, a first radiation part formed in a cover shape on a first surface of the printed circuit board, wherein the first radiation part is spaced apart from the first surface of the printed circuit board at a predetermined distance to be formed in the shape of a cover to cover the first surface of the printed circuit board, wherein the antenna further comprises a second radiation part penetrating the printed circuit board from one end of the first radiation part and extending onto a second surface of the printed circuit board, wherein the second radiation part comprises a radiation pattern on the second surface of the printed circuit board, and wherein the radiation pattern is spaced apart as much as a predetermined distance from the first surface of the printed circuit board or a ground pattern formed inside the printed circuit board. a printed circuit board, a first radiation part formed in a cover shape on a first surface of the printed circuit board, wherein the first radiation part is spaced apart from the first surface of the printed circuit board at a predetermined distance to be formed in the shape of a cover to cover the first surface of the printed circuit board, wherein the antenna further comprises a second radiation part penetrating the printed circuit board from one end of the first radiation part and extending onto a second surface of the printed circuit board, wherein the second radiation part comprises a radiation pattern on the second surface of the printed circuit board, and wherein the radiation pattern is spaced apart as much as a predetermined distance from the first surface of the printed circuit board or a ground pattern formed inside the printed circuit board.
An electric connection box in which a bus bar lamination body formed by laminating bus bars by interposing a plurality of insulating plates is housed within a case and a plurality of connection terminal portions provided to end portions of the bus bars are set in a plurality of component attachment portions provided so as to protrude on an outer surface of the case by passing through a plurality of terminal insertion holes provided so as to penetrate the case, the electric connection box being characterized in that: the bus bars have bus bar extension portions provided integrally with base end portions of the connection terminal portions and extending a protrusion length of the connection terminal portions from the bus bar lamination body; at least one of a plurality of the component attachment portions is provided with an extension protrusion portion as an integral part between the outer surface of the case and the component attachment portion so that the component attachment portion protrudes on the outer surface of the case, wherein a bus bar housing hole is provided in an interior of the extension protrusion portion so that the bus bar extension portion is inserted and housed therein; and the bus bar extension portion is positioned by inserting its one end portion, on a side of the bus bar lamination body, into a bus bar through-hole provided so as to penetrate the insulating plates and also positioned by allowing its other end portion, on a side of the connection terminal portion, to be supported by abutting on tip end portion pressing ribs provided to a protrusion tip end portion of the bus bar housing hole so as to protrude inward. the bus bars have bus bar extension portions provided integrally with base end portions of the connection terminal portions and extending a protrusion length of the connection terminal portions from the bus bar lamination body; at least one of a plurality of the component attachment portions is provided with an extension protrusion portion as an integral part between the outer surface of the case and the component attachment portion so that the component attachment portion protrudes on the outer surface of the case, wherein a bus bar housing hole is provided in an interior of the extension protrusion portion so that the bus bar extension portion is inserted and housed therein; and the bus bar extension portion is positioned by inserting its one end portion, on a side of the bus bar lamination body, into a bus bar through-hole provided so as to penetrate the insulating plates and also positioned by allowing its other end portion, on a side of the connection terminal portion, to be supported by abutting on tip end portion pressing ribs provided to a protrusion tip end portion of the bus bar housing hole so as to protrude inward.
A Magnus rotor comprising a carrier with an upper end, the carrier is arranged in the interior of the Magnus rotor, a rotor which in operation of the Magnus rotor rotates about the carrier, a bearing on the upper end of the carrier which carries the rotor on the carrier, and a shaft which is arranged through the bearing and which is connected to the rotor above the bearing, and characterized in that a motor which is arranged in the interior of the carrier at the upper end of the carrier and which drives the shaft in rotation, wherein the motor has a first gear, wherein the shaft has a second gear, and wherein the first gear of the motor drives in rotation a toothed belt which by way of the second gear drives the shaft in rotation, wherein the motor is provided on a tensioning device, and wherein the tensioning device is radially displaceably connected to the carrier.
A method of operating an apparatus for applying drinking straws to packaging containers, said apparatus comprises a drive means adapted for conveying drinking straws wrapped in protective envelopes to a picking position, an application device which comprises at least one applicator arm, said applicator arm having a base end point arranged for eccentric, substantially circular rotation round a rotation point, the rotation point being connected to a drive unit adapted to provide a rotational velocity ( v r), wherein the applicator arm comprises a spring-loaded pivot point around which at least an outer portion of the applicator arm can rotate, said outer portion comprising a drinking straw carrier adapted to carry a drinking straw, said at least one applicator arm is adapted to pick a drinking straw with envelope from the drive means at the picking position and carry the drinking straw to an application position where the drinking straw is adapted to come into contact with a wall of the packaging container, and further to a leaving position where the at least one applicator arm leaves the drinking straw on the packaging container, a first conveyor adapted for conveying packaging containers, at a substantially constant velocity ( v c), along a packaging container moving direction, wherein the application device and the first conveyor are arranged such in relation to each other that, upon application of the drinking straw towards the wall of the packaging container, at the application position, the outer portion of the applicator arm will be forced to rotate around the spring-loaded pivot point thereby creating a force pushing the drinking straw towards the wall of the packaging container, characterized by comprising the steps of moving the drinking straw carrier from the application position to the leaving position, in the packaging container moving direction, maintaining a velocity in that direction being equal to the constant velocity ( v c) of the first conveyor, thereby keeping the drinking straw at the same position on the wall of the packaging container, by accelerating or decelerating the rotational velocity ( v r) of the drive unit to compensate for changes in velocity of the drinking straw carrier, in the packaging container moving direction, due to a changing velocity component, in the packaging container moving direction, of the eccentric rotation round the rotation point and the rotation of at least the outer portion of the applicator arm around the pivot point.
A high-nitrogen austenitic stainless steel, consisting of: 0.005 mass%≤C≤0.25 mass%; 21.0 mass%≤Cr≤35.0 mass%; 0.2 mass%<Mn<10.0 mass%; 0.05 mass%≤Mo≤2.5 mass%; 0.01 mass%≤Cu≤4.0 mass%; 0.5 mass%<Ni<5.0 mass%; 0.8 mass%<N≤1.8 mass%; Si≤2.0 mass%; P≤0.03 mass%; S≤0.05 mass%; Al≤0.030 mass%; O≤0.020 mass%, and having: PRE represented by an equation and of not less than 5, PRE = Cr + 3.3 ⁢ Mo + 16 ⁢ N / Mn mass % and CRE represented by an equation and of not less than 27, CRE = Cr + 1.5 ⁢ Mo + 2 ⁢ N + Cu mass % and further optionally containing one or more elements selected from the group consisting of: at least one of: 0.01 mass%≤W≤8.0 mass%; and 0.01 mass%≤Co≤5.0 mass%; at least one of: 0.01 mass%≤Ti≤0.5 mass%; 0.01 mass%≤Nb≤0.5 mass%; 0.01 mass%≤V≤1.0 mass%; 0.01 mass%≤Ta≤0.5 mass%; and 0.01 mass%≤Zr≤0.5 mass%; at least one of: 0.001 mass%≤B≤0.01 mass%; 0.001 mass%≤Ca≤0.01 mass%; and 0.001 mass%≤Mg≤0.01 mass%; at least one of: 0.005 mass%≤Te≤0.05 mass%; and 0.01 mass%≤Se≤0.20 mass%; and the balance being Fe and unavoidable impurities, wherein an index of stability of austenite phase: Ni eq -Cr eq is not less than 0, wherein Ni eq = Ni + Co + 0.5 ⁢ Mn + 0.3 ⁢ Cu + 25 ⁢ N + 30 ⁢ C Cr eq = Cr + 2 ⁢ Si + 1.5 ⁢ Mo + 5 ⁢ V + 5.5 ⁢ Al + 1.75 ⁢ Nb + 1.5 ⁢ Ti + 0.75 ⁢ W. 0.005 mass%≤C≤0.25 mass%; 21.0 mass%≤Cr≤35.0 mass%; 0.2 mass%<Mn<10.0 mass%; 0.05 mass%≤Mo≤2.5 mass%; 0.01 mass%≤Cu≤4.0 mass%; 0.5 mass%<Ni<5.0 mass%; 0.8 mass%<N≤1.8 mass%; Si≤2.0 mass%; P≤0.03 mass%; S≤0.05 mass%; Al≤0.030 mass%; O≤0.020 mass%, and having: PRE represented by an equation and of not less than 5, PRE = Cr + 3.3 ⁢ Mo + 16 ⁢ N / Mn mass % and CRE represented by an equation and of not less than 27, CRE = Cr + 1.5 ⁢ Mo + 2 ⁢ N + Cu mass % and further optionally containing one or more elements selected from the group consisting of: at least one of: PRE represented by an equation and of not less than 5, PRE = Cr + 3.3 ⁢ Mo + 16 ⁢ N / Mn mass % and at least one of: 0.01 mass%≤W≤8.0 mass%; and 0.01 mass%≤Co≤5.0 mass%; at least one of: 0.01 mass%≤Ti≤0.5 mass%; 0.01 mass%≤Nb≤0.5 mass%; 0.01 mass%≤V≤1.0 mass%; 0.01 mass%≤Ta≤0.5 mass%; and 0.01 mass%≤Zr≤0.5 mass%; at least one of: 0.001 mass%≤B≤0.01 mass%; 0.001 mass%≤Ca≤0.01 mass%; and 0.001 mass%≤Mg≤0.01 mass%; at least one of: 0.005 mass%≤Te≤0.05 mass%; and 0.01 mass%≤Se≤0.20 mass%; and the balance being Fe and unavoidable impurities, wherein an index of stability of austenite phase: Ni eq -Cr eq is not less than 0, wherein Ni eq = Ni + Co + 0.5 ⁢ Mn + 0.3 ⁢ Cu + 25 ⁢ N + 30 ⁢ C Cr eq = Cr + 2 ⁢ Si + 1.5 ⁢ Mo + 5 ⁢ V + 5.5 ⁢ Al + 1.75 ⁢ Nb + 1.5 ⁢ Ti + 0.75 ⁢ W. 0.001 mass%≤B≤0.01 mass%; 0.001 mass%≤Ca≤0.01 mass%; and 0.001 mass%≤Mg≤0.01 mass%; 0.005 mass%≤Te≤0.05 mass%; and 0.01 mass%≤Se≤0.20 mass%; and
A component for an electronic device, comprising: a structural assembly, wherein the structural assembly comprises a bracket; and a cover assembly that matches the structural assembly, wherein the cover assembly comprises a cover body, and a glare film is disposed on an inner surface of the cover body, wherein the cover body is a glass cover body; an isolation assembly is disposed in some regions between the bracket and the glare film, wherein the isolation assembly is configured to isolate the bracket from the glare film, and hardness of the isolation assembly is less than or equal to hardness of the glare film, characterized in that the isolation assembly forms at least two closed loops wherein the glare film, the bracket and the at least two closed loops form an enclosed space; and a connection assembly is disposed in the enclosed space, wherein the connection assembly is configured to connect the bracket and the glare film. a structural assembly, wherein the structural assembly comprises a bracket; and a cover assembly that matches the structural assembly, wherein the cover assembly comprises a cover body, and a glare film is disposed on an inner surface of the cover body, wherein the cover body is a glass cover body; an isolation assembly is disposed in some regions between the bracket and the glare film, wherein the isolation assembly is configured to isolate the bracket from the glare film, and hardness of the isolation assembly is less than or equal to hardness of the glare film, characterized in that the isolation assembly forms at least two closed loops wherein the glare film, the bracket and the at least two closed loops form an enclosed space; and a connection assembly is disposed in the enclosed space, wherein the connection assembly is configured to connect the bracket and the glare film.
A tablet composition comprising anhydrous dasatinib and one or more pharmaceutically acceptable excipients, wherein the X-ray powder diffraction pattern of anhydrous dasatinib comprises characteristic peaks at the following 2 theta (± 0.2) angles: 6.8°, 11.1°, 12.3°, 13.2°, 13.7°, 16.7°, 21.0°, 24.3° and 24.8°, measured using a Cu Kα radiation and wherein the tablet is film coated with a coating composition comprising triacetin as plasticizer.
A method of connecting a first threaded tubular to a second threaded tubular, comprising: engaging threads of the first tubular and the second tubular; rotating the first tubular relative to the second tubular to makeup a threaded connection; during makeup of the threaded connection: measuring torque applied to the connection; and measuring turns of the first tubular; using a controller for: finding at least one candidate for a shoulder position of the threaded connection from the at least one of the measured torque and the measured turns; analyzing the at least one candidate; and detecting the shoulder position of the threaded connection based on the analysis; wherein finding the at least one candidate comprises: graphing the measured torque and the measured turns on a torque-turns curve; overlaying a first line from a measured final torque value on the torque-turns curve to a point along the torque-turns curve; overlaying a second line from a measured starting torque value on the torque-turns curve to the point; and measuring an angle between the first line and the second line. engaging threads of the first tubular and the second tubular; rotating the first tubular relative to the second tubular to makeup a threaded connection; during makeup of the threaded connection: measuring torque applied to the connection; and measuring turns of the first tubular; measuring torque applied to the connection; and measuring turns of the first tubular; using a controller for: finding at least one candidate for a shoulder position of the threaded connection from the at least one of the measured torque and the measured turns; analyzing the at least one candidate; and detecting the shoulder position of the threaded connection based on the analysis; finding at least one candidate for a shoulder position of the threaded connection from the at least one of the measured torque and the measured turns; analyzing the at least one candidate; and detecting the shoulder position of the threaded connection based on the analysis; wherein finding the at least one candidate comprises: graphing the measured torque and the measured turns on a torque-turns curve; overlaying a first line from a measured final torque value on the torque-turns curve to a point along the torque-turns curve; overlaying a second line from a measured starting torque value on the torque-turns curve to the point; and measuring an angle between the first line and the second line. graphing the measured torque and the measured turns on a torque-turns curve; overlaying a first line from a measured final torque value on the torque-turns curve to a point along the torque-turns curve; overlaying a second line from a measured starting torque value on the torque-turns curve to the point; and measuring an angle between the first line and the second line.
A washing machine comprising: a tub configured to contain water; a drum of metal material configured to be rotated in the tub; an induction heater disposed in a position spaced apart from the drum and configured to heat the drum by a magnetic force generated when a current is applied to a coil; an input power source; a relay configured to interrupt a current applied to the coil of the induction heater from the input power source; a first processor configured to control the relay; and a safety device connected to a circuit connecting the first processor and the relay, wherein the safety device comprises: a first thermostat disposed on an outer side on the top of the tub while being inserted into the inside of the tub located between the tub and the drum so as to be configured to operate according to a temperature of a first air between the drum and the tub, and to open the circuit when the temperature of the first air is a first safety control temperature; and a thermal fuse disposed outside the tub configured to operate according to a temperature of a second air outside the tub, and to open the circuit when the temperature of the second air is a second safety control temperature. a tub configured to contain water; a drum of metal material configured to be rotated in the tub; an induction heater disposed in a position spaced apart from the drum and configured to heat the drum by a magnetic force generated when a current is applied to a coil; an input power source; a relay configured to interrupt a current applied to the coil of the induction heater from the input power source; a first processor configured to control the relay; and a safety device connected to a circuit connecting the first processor and the relay, wherein the safety device comprises: a first thermostat disposed on an outer side on the top of the tub while being inserted into the inside of the tub located between the tub and the drum so as to be configured to operate according to a temperature of a first air between the drum and the tub, and to open the circuit when the temperature of the first air is a first safety control temperature; and a thermal fuse disposed outside the tub configured to operate according to a temperature of a second air outside the tub, and to open the circuit when the temperature of the second air is a second safety control temperature. a first thermostat disposed on an outer side on the top of the tub while being inserted into the inside of the tub located between the tub and the drum so as to be configured to operate according to a temperature of a first air between the drum and the tub, and to open the circuit when the temperature of the first air is a first safety control temperature; and a thermal fuse disposed outside the tub configured to operate according to a temperature of a second air outside the tub, and to open the circuit when the temperature of the second air is a second safety control temperature.