mhurhangee/ep-ind-claims huggingface dataset:
A method for removing carbon dioxide from a gas, the method comprising: introducing a carbon dioxide-containing gas stream at a bottom portion of an absorber; contacting the gas stream with an ammonia-containing solvent (114a, 114b) in the form of a CO 2 -lean stream and a CO 2 semi-lean stream, the ammonia-containing solvent having a molarity between 0.5 molar and 13 molar; and absorbing the carbon dioxide from the gas stream with the ammonia-containing solvent (114a, 114b), thereby removing the carbon dioxide from the gas stream and forming a CO 2 -rich stream, wherein the carbon dioxide-containing gas stream travels up a length of the absorber where it is contacted with the CO 2 semi-lean stream in a first absorption section and a reduced CO 2 containing gas stream continues to a second absorption section, where the reduced CO 2 containing gas stream is contacted with the CO 2 -lean stream; passing the CO 2 -rich stream to a precipitating means to form a precipitate in the CO 2 -enriched stream and subsequently passing it to a separation device; separating a portion of the CO 2 -rich stream in the separating means and recycling this portion via a feedback loop to the absorber and introducing it to the absorber as the CO 2 semi-lean stream, while the remaining portion of the CO 2 -rich stream containing the precipitate is provided as CO 2 -enriched phase stream to a regeneration system, stripping the CO 2 -enriched stream of CO 2 in the regeneration system and circulating the regenerated solvent back to the absorber. introducing a carbon dioxide-containing gas stream at a bottom portion of an absorber; contacting the gas stream with an ammonia-containing solvent (114a, 114b) in the form of a CO 2 -lean stream and a CO 2 semi-lean stream, the ammonia-containing solvent having a molarity between 0.5 molar and 13 molar; and absorbing the carbon dioxide from the gas stream with the ammonia-containing solvent (114a, 114b), thereby removing the carbon dioxide from the gas stream and forming a CO 2 -rich stream, wherein the carbon dioxide-containing gas stream travels up a length of the absorber where it is contacted with the CO 2 semi-lean stream in a first absorption section and a reduced CO 2 containing gas stream continues to a second absorption section, where the reduced CO 2 containing gas stream is contacted with the CO 2 -lean stream; passing the CO 2 -rich stream to a precipitating means to form a precipitate in the CO 2 -enriched stream and subsequently passing it to a separation device; separating a portion of the CO 2 -rich stream in the separating means and recycling this portion via a feedback loop to the absorber and introducing it to the absorber as the CO 2 semi-lean stream, while the remaining portion of the CO 2 -rich stream containing the precipitate is provided as CO 2 -enriched phase stream to a regeneration system, stripping the CO 2 -enriched stream of CO 2 in the regeneration system and circulating the regenerated solvent back to the absorber.
A power-on self-test method for an electric power tool, wherein the electric power tool comprises a brushless motor, a motor driving circuit, a controller, and a voltage detection circuit; wherein the motor driving circuit comprises an inverter bridge (Q1, Q2, Q3, Q4, Q5, Q6), the inverter bridge (Q1, Q2, Q3, Q4, Q5, Q6)comprises an upper bridge arm switching element (Q1, Q3, Q5) and a lower bridge arm switching element (Q2, Q4, Q6); a phase voltage input terminal of the brushless motor is connected to the inverter bridge (Q1, Q2, Q3, Q4, Q5, Q6); and a line connected between the phase voltage input terminal of the brushless motor and the inverter bridge (Q1, Q2, Q3, Q4, Q5, Q6) is connected to the voltage detection circuit, and the voltage detection circuit is connected to the controller; and wherein the power-on self-test method for the electric power tool comprises: detecting, by the voltage detection circuit, a phase voltage or a line voltage of a winding of the brushless motor; and determining, according to the phase voltage or the line voltage of the winding of the brushless motor, whether the upper bridge arm switching element (Q1, Q3, Q5), the lower bridge arm switching element (Q2, Q4, Q6), and/or the brushless motor is short-circuited, characterized in that the power-on self-test method further comprises monitoring whether the electric power tool is started and outputting a power-on signal in response to monitoring that the electric power tool is started; in response to monitoring the power-on signal from the electric power tool, outputting, by the controller, a driving signal to the motor driving circuit and acquiring a position of a rotor of the brushless motor; and detecting the phase voltage or the line voltage, during acquiring the position of the rotor of the brushless motor. detecting, by the voltage detection circuit, a phase voltage or a line voltage of a winding of the brushless motor; and determining, according to the phase voltage or the line voltage of the winding of the brushless motor, whether the upper bridge arm switching element (Q1, Q3, Q5), the lower bridge arm switching element (Q2, Q4, Q6), and/or the brushless motor is short-circuited, characterized in that the power-on self-test method further comprises monitoring whether the electric power tool is started and outputting a power-on signal in response to monitoring that the electric power tool is started; in response to monitoring the power-on signal from the electric power tool, outputting, by the controller, a driving signal to the motor driving circuit and acquiring a position of a rotor of the brushless motor; and detecting the phase voltage or the line voltage, during acquiring the position of the rotor of the brushless motor.
Self-propelled construction machine, in particular a road milling machine, recycler or stabiliser, having a machine frame and a milling drum which is arranged in a milling drum housing having a sealing device which has at least one sealing element arranged in the working direction of the construction machine behind the milling drum for closing the milling drum housing, an adjustment device for adjusting the height position of the sealing element in relation to the milling drum and a control device for controlling the adjustment device of the at least one sealing element, characterised in that the sealing device has at least one scraper element, which is pivotably arranged on the at least one sealing element such that the at least one scraper element rests on the milled material in one operating mode of the construction machine, so that the scraper element is pulled over the milled material with the advancing construction machine and is pivoted in relation to the milling drum on the basis of the height of the milled material, wherein a measuring device for determining the pivot position of the at least one scraper element is provided, which generates a measurement signal that correlates with the pivot position and is received by the control device of the adjustment device of the at least one sealing element, and the control device of the adjustment device of the at least one sealing element is configured such that the adjustment device adjusts the height position of the at least one sealing element on the basis of the pivot position of the scraper element such that the pivot position of the scraper element is within a predetermined pivoting range. the sealing device has at least one scraper element, which is pivotably arranged on the at least one sealing element such that the at least one scraper element rests on the milled material in one operating mode of the construction machine, so that the scraper element is pulled over the milled material with the advancing construction machine and is pivoted in relation to the milling drum on the basis of the height of the milled material, wherein a measuring device for determining the pivot position of the at least one scraper element is provided, which generates a measurement signal that correlates with the pivot position and is received by the control device of the adjustment device of the at least one sealing element, and the control device of the adjustment device of the at least one sealing element is configured such that the adjustment device adjusts the height position of the at least one sealing element on the basis of the pivot position of the scraper element such that the pivot position of the scraper element is within a predetermined pivoting range.
An apparatus for making ice cubes, comprising a plurality of elongated elements (1, 2); a plurality of mould parts (3, 4, 5, 6) that are movable with respect to the elongated elements (1, 2), wherein the plurality of mould parts are movable to form a mould around a first elongated element of the elongated elements; a control unit configured to control a movement of the plurality of mould parts with respect to the elongated elements to: - move the mould parts (3, 5) forming the mould around the first elongated element apart once a first ice column has been formed in the mould, and - form a mould around a second elongated element of the elongated elements; and an ice remover configured to remove the first ice column from the first elongated element while the mould is in place around the second elongated element. - move the mould parts (3, 5) forming the mould around the first elongated element apart once a first ice column has been formed in the mould, and - form a mould around a second elongated element of the elongated elements; and an ice remover configured to remove the first ice column from the first elongated element while the mould is in place around the second elongated element.
A method for increasing the SPF for an anhydrous composition comprising at least one sunscreen active agent and at least one film forming polymer, wherein the film forming polymer comprises a plurality of acid groups, the method comprising adding an amine-based neutralizing agent to the composition in an amount effective to neutralize at least a portion of the acid groups in said film forming polymer, wherein the film forming polymer is present in an amount greater than 1 % by weight of the final composition; and said amine-based neutralizing agent is: wherein R 8 is C 2 to about C 36 straight chain, branched or cyclic alkyl, alkenyl, alkynyl, aryl, aralkyl, aralkenyl, or aralkynyl group, and R 9 is selected from H or CH 3, or C 2 to C 36 straight chain, branched or cyclic alkyl, alkenyl, alkynyl, aryl, aralkyl, aralkenyl, or aralkynyl group, and wherein x and y are independently 0 to 100; or which has the structure: wherein R 10, R 11, and R 12 are independently selected from H, CH 3 or C 2 to about C 36 straight chain, branched or cyclic alkyl, alkenyl, alkynyl, aryl, aralkyl, aralkenyl, or aralkynyl group, and wherein n is 0 to 100; or is selected from alkyl amines; alkenyl amines; dialkyl amines; dialkenyl amines; dimethyl alkyl amines, wherein alkyl is stearyl or cocoyl; methyl dialkyl amines, wherein alkyl is stearyl or hexadecyl; and dimethyl alkenyl amines, wherein alkenyl is oleic, linoleic or linolenic; wherein at least 10% of the acid groups of the film forming polymer are neutralized by the amine-based neutralization agent. wherein R 10, R 11, and R 12 are independently selected from H, CH 3 or C 2 to about C 36 straight chain, branched or cyclic alkyl, alkenyl, alkynyl, aryl, aralkyl, aralkenyl, or aralkynyl group, and wherein n is 0 to 100; or is selected from alkyl amines; alkenyl amines; dialkyl amines; dialkenyl amines; dimethyl alkyl amines, wherein alkyl is stearyl or cocoyl; methyl dialkyl amines, wherein alkyl is stearyl or hexadecyl; and dimethyl alkenyl amines, wherein alkenyl is oleic, linoleic or linolenic; wherein at least 10% of the acid groups of the film forming polymer are neutralized by the amine-based neutralization agent.
Method for preparing a chitosan-based matrix comprising a fiber reinforcement member embedded in said matrix comprising the following steps: - a) two separate chitosan porous layers (1, 2) obtained from lyophilisation of layers of one or more solution(s) of chitosan are provided, - b) the chitosan porous layers of a) are neutralized and washed, - c) a face (1a, 2a) of each chitosan porous layer is acidified with an acid, - d) a fiber reinforcement member is provided and positioned between the two acidified faces of the two chitosan porous layers, - e) the two chitosan porous layers and the fiber reinforcement member are let to dry to obtain a matrix having the fiber reinforcement member embedded therein. - a) two separate chitosan porous layers (1, 2) obtained from lyophilisation of layers of one or more solution(s) of chitosan are provided, - b) the chitosan porous layers of a) are neutralized and washed, - c) a face (1a, 2a) of each chitosan porous layer is acidified with an acid, - d) a fiber reinforcement member is provided and positioned between the two acidified faces of the two chitosan porous layers, - e) the two chitosan porous layers and the fiber reinforcement member are let to dry to obtain a matrix having the fiber reinforcement member embedded therein.
A hydraulic control device for an excavator, the hydraulic control device comprising: - a first hydraulic pump, - a second hydraulic pump, - a swing control valve in fluid communication with the first hydraulic pump for controlling hydraulic flow from the first hydraulic pump to a swing motor, - a boom high-speed control valve disposed at downstream of the swing control valve and in fluid communication with the first hydraulic pump via a pressured fluid supply line for controlling hydraulic flow from the first hydraulic pump to boom cylinders, - a boom low-speed control valve for controlling hydraulic flow from the second hydraulic pump to the boom cylinders, and a swing priority valve provided on the pressured fluid supply line for the boom high-speed control valve and throttling the hydraulic flow rate supplied to the boom high-speed control valve from the first hydraulic pump, thereby relatively increasing the hydraulic flow rate to the swing control valve, characterized in that said hydraulic control device further comprises: - a working-on-slope detecting means for detecting a tilt angle of the excavator and outputting a working-on-slope signal if the tilt angle detected is greater than a predetermined value; and - the swing priority valve throttling the hydraulic flow rate supplied to the boom high-speed control valve from the first hydraulic pump, thereby relatively increasing the hydraulic flow rate to the swing control valve, in case of the working-on-slope signal being provided from the working-on-slope detecting means and at the same time a swing control pilot pressure (SW1,SW2) for shifting the swing control valve being provided thereto. - a first hydraulic pump, - a second hydraulic pump, - a swing control valve in fluid communication with the first hydraulic pump for controlling hydraulic flow from the first hydraulic pump to a swing motor, - a boom high-speed control valve disposed at downstream of the swing control valve and in fluid communication with the first hydraulic pump via a pressured fluid supply line for controlling hydraulic flow from the first hydraulic pump to boom cylinders, - a boom low-speed control valve for controlling hydraulic flow from the second hydraulic pump to the boom cylinders, - a working-on-slope detecting means for detecting a tilt angle of the excavator and outputting a working-on-slope signal if the tilt angle detected is greater than a predetermined value; and - the swing priority valve throttling the hydraulic flow rate supplied to the boom high-speed control valve from the first hydraulic pump, thereby relatively increasing the hydraulic flow rate to the swing control valve, in case of the working-on-slope signal being provided from the working-on-slope detecting means and at the same time a swing control pilot pressure (SW1,SW2) for shifting the swing control valve being provided thereto.
An electronic device with antenna, comprising: a display screen, comprising a display panel and a touch-control panel; a metal frame surrounding a side edge of the display screen, wherein at least a part of the metal frame is configured as antenna radiator; and a connecting component disposed between the side edge of the display screen and a top end of the metal frame, wherein the connecting component comprises insulating material; wherein there is an overlap of height between the side edge of the display screen and the metal frame along an axis perpendicular to an upper surface of the display screen; wherein a height of the connecting component along the axis perpendicular to an upper surface of the display screen is larger than a first predetermined value, and the height of the overlap is less than a second predetermined value, such that the influence of the display screen on performance of the metal frame configured as the antenna radiator is reduced or eliminated. a display screen, comprising a display panel and a touch-control panel; a metal frame surrounding a side edge of the display screen, wherein at least a part of the metal frame is configured as antenna radiator; and a connecting component disposed between the side edge of the display screen and a top end of the metal frame, wherein the connecting component comprises insulating material; wherein there is an overlap of height between the side edge of the display screen and the metal frame along an axis perpendicular to an upper surface of the display screen; wherein a height of the connecting component along the axis perpendicular to an upper surface of the display screen is larger than a first predetermined value, and the height of the overlap is less than a second predetermined value, such that the influence of the display screen on performance of the metal frame configured as the antenna radiator is reduced or eliminated.
A traffic mast comprising a ground-engagable support element for stationary fixing to the ground, an arm element for holding a traffic communication device and which is rotatably supported by the support element, and movement means in the support element for remotely rotating the arm element relative to the support element, the support element including an access opening and an access cover for closing the access opening, the movement means including a gearbox for transmitting drive to the arm element, characterized in that the gearbox is disengagable in situ from the rest of the movement means and removable from the support element through the access opening, without requiring dismantling of the traffic mast.
Method for producing a sensor element, wherein at least parts of the sensor element are subjected to at least one plasma treatment process (B, E, I) during production, characterized in that a base element and/or a carrier element of the sensor element is subjected to a plasma cleaning process (B, I) before an equipping process (A, D) and/or before a contact-connecting process with electrical connection means, wherein after the complete process of equipping the leadframe or base element, directly before an encapsulation-by-molding process, an additional plasma treatment process is carried out, which comprises a plasma cleaning process and then a plasma activation process.
An optical fiber organizer comprising: a first support which is connected to a second support; a. the first support comprising a first section rotatably connected to a second section with a hinge, the first section being rotatable with respect to the second section; b. a plurality of optical-fiber storage trays rotatably connected to the first section with hinge means; and c. an area configured such that a cable and/or other optical components are arrangeable in the area, wherein the first section is configured to be connected to the second support by clip means and configured to be arranged with a predetermined angle relative to the second section to cover the area; wherein the optical fiber organizer is configured such that a free space for accessing the area is provided when the clip means are loosened and the first section is rotated via the rotational axis of the hinge away from a sidewall of the second support; wherein the first section is configured to be connected to the sidewall of the second support by the clip means. a first support which is connected to a second support; a. the first support comprising a first section rotatably connected to a second section with a hinge, the first section being rotatable with respect to the second section; b. a plurality of optical-fiber storage trays rotatably connected to the first section with hinge means; and c. an area configured such that a cable and/or other optical components are arrangeable in the area, a. the first support comprising a first section rotatably connected to a second section with a hinge, the first section being rotatable with respect to the second section; b. a plurality of optical-fiber storage trays rotatably connected to the first section with hinge means; and c. an area configured such that a cable and/or other optical components are arrangeable in the area, wherein the first section is configured to be connected to the second support by clip means and configured to be arranged with a predetermined angle relative to the second section to cover the area; wherein the optical fiber organizer is configured such that a free space for accessing the area is provided when the clip means are loosened and the first section is rotated via the rotational axis of the hinge away from a sidewall of the second support; wherein the first section is configured to be connected to the sidewall of the second support by the clip means.
Use of a compound of formula wherein R A is a halogen atom, a C 1-6 alkyl group or a C 1-6 alkoxy group; R B is a phenyl group optionally substituted by a halogen atom, a cyano group, a C 1-6 alkyl group, a halo- C 1-6 alkyl group, a C 1-6 alkoxy group, a halo-C 1-6 alkoxy group, or a mono- or di-C 1-6 alkylamino group; or a heterocyclyl group optionally substituted by a halogen atom, a cyano group, a C 1-6 alkyl group, a halo-C 1-6 alkyl group, a C 1-6 alkoxy group, a halo-C 1-6 alkoxy group, or a mono- or di-C 1-6 alkylamino group; and R c is hydrogen atom; or a pharmaceutically acceptable salt thereof; in the manufacture of a medicament for the treatment of diabetes mellitus (type 1 and type 2), diabetic retinopathy, diabetic neuropathy, diabetic nephropathy, postprandial hyperglycemia, or delayed wound healing, wherein the C 1 -C 6 carbon chain is straight or branched.
An optical fiber cable end adapter assembly (17, 117) provided on an optical fiber cable (1, 100), said optical fiber cable comprising an outer tube and a metal sheath enclosing at least one optical fiber (3, 103), said outer tube being arranged externally of the metal sheath, wherein the end adapter assembly comprises an end adapter (10, 110) of metal having a basic shape of a funnel and having a hollow interior and a first open end and a second open end of which the first open end has a smaller diameter than the second open end, the end adapter being disposed around the metal sheath of the optical fiber cable, wherein the first open end of the end adapter is welded or soldered to an outer surface of the metal sheath in a first welding area, and wherein the end adapter assembly further comprises a first temperature control arrangement (18, 20; 25) inserted between the metal sheath and the at least one optical fiber.