mhurhangee/ep-ind-claims huggingface dataset:
An apparatus for package manufacturing, comprising: - a stacker configured to stack planar workpieces into stacks (202, 204, 205, 301, 302, 303, 304), - a cutter configured to cut preforms out of planar workpieces and located downstream of said stacker on a manufacturing line, - a conveyor between said stacker and cutter; and - a conveyor controller, characterized in that the conveyor controller, is configured to, after transferring a stack from said conveyor to a feeder section of said cutter, rewind the conveyor to place a fore-most free location after existing stacks on the conveyor to a location closest to the stacker where it is ready to receive a stack from said stacker. - a stacker configured to stack planar workpieces into stacks (202, 204, 205, 301, 302, 303, 304), - a cutter configured to cut preforms out of planar workpieces and located downstream of said stacker on a manufacturing line, - a conveyor between said stacker and cutter; and - a conveyor controller,
A paper straw comprising a lower portion, an upper portion, and a flexible portion arranged between said lower and upper portions, characterized in that said flexible portion has a compressed state and an extended state; the length of said straw being larger in said extended state compared to said compressed state, wherein said paper straw comprises a paper having a stretchability according to ISO 1924-3:2005 of at least 6% in the machine direction and at least 6% in the cross direction, wherein said paper straw can be arranged in a straight configuration and in a curvilinear configuration, wherein in said straight configuration, said paper straw has a rotational symmetry with respect to a longitudinal axis, Z, and wherein in said curvilinear configuration, the angle between the end point of said upper portion of said paper straw and said longitudinal axis, Z, is from 130 to 180 degrees.
A self-retaining device comprising: a main body; and an attachment member that is sheet-shaped and configured to be attached to a body surface of a living body in order to retain the main body, wherein the attachment member has a first section fixed to a back surface of the main body, a second section that faces the back surface of the main body at a position adjacent to the first section and is able to separate from the main body, and a periphery section that is a section adjacent to an outside of the first section and the second section and is configured to be attached to the body surface, the periphery section includes a lateral extension part parallel to a direction in which the first section and the second section are arranged, the lateral extension part has a boundary adjacent part overlapping an extension line of a linear boundary between the first section and the second section, a first section adjacent part adjacent to the boundary adjacent part and the first section, and a second section adjacent part adjacent to the boundary adjacent part and the second section, and a width of the boundary adjacent part is equal to or wider than a maximum width of the first section adjacent part and is wider than a maximum width of the second section adjacent part. a main body; and an attachment member that is sheet-shaped and configured to be attached to a body surface of a living body in order to retain the main body, wherein the attachment member has a first section fixed to a back surface of the main body, a second section that faces the back surface of the main body at a position adjacent to the first section and is able to separate from the main body, and a periphery section that is a section adjacent to an outside of the first section and the second section and is configured to be attached to the body surface, the periphery section includes a lateral extension part parallel to a direction in which the first section and the second section are arranged, the lateral extension part has a boundary adjacent part overlapping an extension line of a linear boundary between the first section and the second section, a first section adjacent part adjacent to the boundary adjacent part and the first section, and a second section adjacent part adjacent to the boundary adjacent part and the second section, and a width of the boundary adjacent part is equal to or wider than a maximum width of the first section adjacent part and is wider than a maximum width of the second section adjacent part.
A method comprising: - accessing, by one or more processors of a machine, a plurality of concurrent video files that all depict a common immersive scene within a common picture area but each corresponds to a different viewing direction; - accessing, by one or processors of a machine, a set of audio tracks that each correspond to a different viewing direction among the set of viewing directions within a common immersive scene; characterised by - supplementing, by the one or more processors of the machine, each of at least a set of the concurrent video files that depict the common immersive scene but each corresponds to a different viewing direction among the set of viewing directions with an individual audio mix that is aligned with the corresponding viewing direction, wherein in each audio mix all audio tracks except the audio track that corresponds to the viewing direction of the respective video file are attenuated; and - providing, by the one or more processors of the machine, in response to a request from a client device to render the common immersive scene in a first viewing direction, the concurrent video file corresponding to said first viewing direction to the client device, said concurrent video file comprising the corresponding audio mix in which all audio tracks except the audio track that corresponds to the first viewing direction are attenuated. - accessing, by one or more processors of a machine, a plurality of concurrent video files that all depict a common immersive scene within a common picture area but each corresponds to a different viewing direction; - accessing, by one or processors of a machine, a set of audio tracks that each correspond to a different viewing direction among the set of viewing directions within a common immersive scene; characterised by - supplementing, by the one or more processors of the machine, each of at least a set of the concurrent video files that depict the common immersive scene but each corresponds to a different viewing direction among the set of viewing directions with an individual audio mix that is aligned with the corresponding viewing direction, wherein in each audio mix all audio tracks except the audio track that corresponds to the viewing direction of the respective video file are attenuated; and - providing, by the one or more processors of the machine, in response to a request from a client device to render the common immersive scene in a first viewing direction, the concurrent video file corresponding to said first viewing direction to the client device, said concurrent video file comprising the corresponding audio mix in which all audio tracks except the audio track that corresponds to the first viewing direction are attenuated.
Method for cold start of a spark-ignition internal combustion engine, in which at at least one point in time before an ignition a gaseous fuel is injected and subsequently, though likewise still before the ignition, additionally an auxiliary fuel is injected, wherein a gas engine is used as internal combustion engine, characterised in that a rich stratified charge is produced by injection of the auxiliary fuel.
A ground fault monitoring system for an energy storage system, comprising - an isolation monitoring unit, - a first main switch, - a second main switch, - a control unit, and - a booster DC-DC unit, the isolation monitoring unit being arrangeable between the energy storage system and a ground element, the first main switch and the second main switch being arrangeable between the energy storage system and an external energy supply system, the isolation monitoring unit comprising a first switchable resistor branch, a second switchable resistor branch and a third switchable resistor branch, the control unit being configured to close the first main switch and the second main switch during charging of the energy storage system for connecting the energy storage system to the external energy supply system, the control unit being further configured to disconnect the first switchable resistor branch from the energy storage system and connect the second switchable resistor branch and the third switchable resistor branch to the energy storage system for monitoring a current leakage to the ground element during charging of the energy storage system, and the booster DC-DC unit being interposed between the first main switch and the isolation monitoring unit. - an isolation monitoring unit, - a first main switch, - a second main switch, - a control unit, and - a booster DC-DC unit, the isolation monitoring unit being arrangeable between the energy storage system and a ground element, the first main switch and the second main switch being arrangeable between the energy storage system and an external energy supply system, the isolation monitoring unit comprising a first switchable resistor branch, a second switchable resistor branch and a third switchable resistor branch, the control unit being configured to close the first main switch and the second main switch during charging of the energy storage system for connecting the energy storage system to the external energy supply system, the control unit being further configured to disconnect the first switchable resistor branch from the energy storage system and connect the second switchable resistor branch and the third switchable resistor branch to the energy storage system for monitoring a current leakage to the ground element during charging of the energy storage system, and the booster DC-DC unit being interposed between the first main switch and the isolation monitoring unit.
A fastener comprising: a block fixedly coupled to an interior spindle; a threaded retaining spindle; a drive nut engaged with the threaded retaining spindle; an unthreaded collet coupled to the threaded retaining spindle and including a plurality of flexible legs each including a clamping foot; and a body circumferentially surrounding the block and the threaded retaining spindle; wherein the block, the body, and the threaded retaining spindle are configured to axially translate in relation to one another; and the body and the threaded retaining spindle are substantially prevented from rotation in relation to one another, during different stages of fastener operation; characterized in that the block is mated with a slot in the threaded retaining spindle; and the block, the body, and the threaded retaining spindle are substantially prevented from rotation in relation to one another, during different stages of fastener operation. a block fixedly coupled to an interior spindle; a threaded retaining spindle; a drive nut engaged with the threaded retaining spindle; an unthreaded collet coupled to the threaded retaining spindle and including a plurality of flexible legs each including a clamping foot; and a body circumferentially surrounding the block and the threaded retaining spindle; wherein the block, the body, and the threaded retaining spindle are configured to axially translate in relation to one another; and the body and the threaded retaining spindle are substantially prevented from rotation in relation to one another, during different stages of fastener operation; characterized in that the block is mated with a slot in the threaded retaining spindle; and the block, the body, and the threaded retaining spindle are substantially prevented from rotation in relation to one another, during different stages of fastener operation.
A method for manufacturing a solar cell, the method comprising: forming a back tunnel junction layer capable of generating a movement path of carriers on a back surface of a crystalline semiconductor substrate containing impurities of a first conductive type; forming an intrinsic hydrogenated amorphous silicon layer on the back tunnel junction layer; performing a dehydrogenation process on the intrinsic hydrogenated amorphous silicon layer to remove hydrogen contained in the intrinsic hydrogenated amorphous silicon layer; performing a first diffusion process for diffusing impurities of a second conductive type opposite the first conductive type into a portion of the intrinsic hydrogenated amorphous silicon layer to form an emitter region; performing a second diffusion process for diffusing impurities of the first conductive type with an impurity concentration higher than that of the substrate into a remaining portion except the portion of the intrinsic hydrogenated amorphous silicon layer having the impurities of the second conductive type to form a back surface field region; and forming a first electrode electrically connected to the emitter region and a second electrode electrically connected to the back surface field region, wherein when the first diffusion process and the second diffusion process is performed, the intrinsic hydrogenated amorphous silicon layer is crystallized to form a silicon layer having a crystallinity of 20% to 80%, and wherein the first diffusion process and the second diffusion process are simultaneously performed. forming a back tunnel junction layer capable of generating a movement path of carriers on a back surface of a crystalline semiconductor substrate containing impurities of a first conductive type; forming an intrinsic hydrogenated amorphous silicon layer on the back tunnel junction layer; performing a dehydrogenation process on the intrinsic hydrogenated amorphous silicon layer to remove hydrogen contained in the intrinsic hydrogenated amorphous silicon layer; performing a first diffusion process for diffusing impurities of a second conductive type opposite the first conductive type into a portion of the intrinsic hydrogenated amorphous silicon layer to form an emitter region; performing a second diffusion process for diffusing impurities of the first conductive type with an impurity concentration higher than that of the substrate into a remaining portion except the portion of the intrinsic hydrogenated amorphous silicon layer having the impurities of the second conductive type to form a back surface field region; and forming a first electrode electrically connected to the emitter region and a second electrode electrically connected to the back surface field region,
A method of heating a downhole target region of a borehole using a downhole heater assembly that comprises at least one thermite based chemical heating tool (3, 11) and a baffle (5, 15), said method comprising: a) delivering the heating tool to the target region of the borehole using a delivery support (4, 14) connected to above-ground delivery means located at the surface of the borehole; b) positioning the baffle (5, 15) in the borehole at a location between the heating tool (3, 11) and the delivery means at a distance of up to 6m away from the heating tool, wherein the baffle (5, 15) is configured to at least partially restrict the flow of fluids within the borehole so as to create a volume of free flowing fluid in a region of the borehole between the heating tool and the surface, where the delivery means are located, that is similar to that which is achievable in a test vessel; c) operating the heating tool (3, 11) so as to generate heat within the target region of the borehole; and d) retrieving the baffle (5, 15) and the heating tool (3, 11) from the borehole. a) delivering the heating tool to the target region of the borehole using a delivery support (4, 14) connected to above-ground delivery means located at the surface of the borehole; b) positioning the baffle (5, 15) in the borehole at a location between the heating tool (3, 11) and the delivery means at a distance of up to 6m away from the heating tool, wherein the baffle (5, 15) is configured to at least partially restrict the flow of fluids within the borehole so as to create a volume of free flowing fluid in a region of the borehole between the heating tool and the surface, where the delivery means are located, that is similar to that which is achievable in a test vessel; c) operating the heating tool (3, 11) so as to generate heat within the target region of the borehole; and d) retrieving the baffle (5, 15) and the heating tool (3, 11) from the borehole.
Polyester polyol of general formula Rx-Ry-Z-Ry'-Rx', wherein: - Z is a C3 to C8 sugar alcohol, - Ry et Ry' are diesters of formula -OOC-C n -COO- with n ranging from 2 to 34, and - Rx et Rx' are identical or different C2 to C12 monoalcohols. - Z is a C3 to C8 sugar alcohol, - Ry et Ry' are diesters of formula -OOC-C n -COO- with n ranging from 2 to 34, and - Rx et Rx' are identical or different C2 to C12 monoalcohols.
A method for locating a mobile terminal in a multicell radio arrangement having a plurality of radio base stations (FB1, FB2, FB3), with the received field strength of a response message of the mobile terminal being recorded at a plurality of measurements points, and with the location of the mobile terminal being determined by evaluation of the measured values, whereby - the radio base stations (FB1, FB2, FB3) are used for measurement, with the locations of the radio base stations (FB1, FB2, FB3) forming the measurement points, - in a fourth step, a plurality or all of the radio base stations (FB1, FB2, FB3) measure the received field strength of the received response message, and transmit said received field strength to a central device, and - in a fifth step, the central device determines the location of the mobile terminal by using the measured values, characterized in that - in a first step, the mobile terminal is switched to an active state, - in a second step, a plurality or all of the radio base stations (FB1, FB2, FB3) are set to the radio channel which is used by the mobile terminal to be located, and - in a third step, the mobile terminal is excited to transmit the response message by transmitting a test data transmission, whereby those of the radio base stations (FB1, FB2, FB3) which carry out time-critical and/or high-priority data transmissions are excluded from the switching of their radio channel. - the radio base stations (FB1, FB2, FB3) are used for measurement, with the locations of the radio base stations (FB1, FB2, FB3) forming the measurement points, - in a fourth step, a plurality or all of the radio base stations (FB1, FB2, FB3) measure the received field strength of the received response message, and transmit said received field strength to a central device, and - in a fifth step, the central device determines the location of the mobile terminal by using the measured values, - in a first step, the mobile terminal is switched to an active state, - in a second step, a plurality or all of the radio base stations (FB1, FB2, FB3) are set to the radio channel which is used by the mobile terminal to be located, and - in a third step, the mobile terminal is excited to transmit the response message by transmitting a test data transmission,
A machine for cutting wood or plastic panels, the machine comprising a supporting surface for the panels; a cutting station; a feeding device to feed the panels through the cutting station in a first direction; a cutting device, mounted in the cutting station to move along a cutting plane, perpendicular to the first direction, and to cut the panels in a second direction, transverse to the first direction itself; a pressing device, which is mounted in the cutting station so as to move in a third direction, which is orthogonal to said first and second directions (4, 5), between a locking position of the panels against the supporting surface, and a releasing position, and comprises, in turn, two plates, mounted on opposite sides of the cutting plane in the first direction, each plate being delimited, in the first direction, by an inner face facing the cutting plane and by an outer face, which is opposite to the inner face itself; and a blowing device (23, 34) for removing processing powders and/or shavings generated by the cutting device from the supporting surface and/or from the panels; and being characterized in that the blowing device (23, 34) comprises blowing means, distributed along the inner face of at least one plate.
An oil feeder comprising: an oil cylinder comprising: an oil supply hole extending in a first direction and having a first end portion being in connection with an oil inlet of the oil feeder and a second end portion being in connection with an oil outlet of the oil feeder, an accommodation groove spaced apart from the oil supply hole, and a communication hole extending from a portion of the oil supply hole between the first and second end portions and allowing the oil supply hole to be in fluid communication with the accommodation groove; an oil piston accommodated at the accommodation groove and configured to reciprocate in a second direction different from the first direction; a first check valve disposed in the oil supply hole at one side with respect to the communication hole; a second check valve disposed in the oil supply hole at the other side with respect to the communication hole, wherein the first and second check valves (1400, 1500) are configured in the manner that when one of the first and second check valves (1400, 1500) is open, the other one of the first and second check valves, 1500) is closed; and an elastic member comprising (i) an outer portion coupled to the accommodation groove and (ii) an inner portion coupled to the oil piston. an oil cylinder comprising: an oil supply hole extending in a first direction and having a first end portion being in connection with an oil inlet of the oil feeder and a second end portion being in connection with an oil outlet of the oil feeder, an accommodation groove spaced apart from the oil supply hole, and a communication hole extending from a portion of the oil supply hole between the first and second end portions and allowing the oil supply hole to be in fluid communication with the accommodation groove; an oil supply hole extending in a first direction and having a first end portion being in connection with an oil inlet of the oil feeder and a second end portion being in connection with an oil outlet of the oil feeder, an accommodation groove spaced apart from the oil supply hole, and a communication hole extending from a portion of the oil supply hole between the first and second end portions and allowing the oil supply hole to be in fluid communication with the accommodation groove; an oil piston accommodated at the accommodation groove and configured to reciprocate in a second direction different from the first direction; a first check valve disposed in the oil supply hole at one side with respect to the communication hole; a second check valve disposed in the oil supply hole at the other side with respect to the communication hole, wherein the first and second check valves (1400, 1500) are configured in the manner that when one of the first and second check valves (1400, 1500) is open, the other one of the first and second check valves, 1500) is closed; and an elastic member comprising (i) an outer portion coupled to the accommodation groove and (ii) an inner portion coupled to the oil piston.