mhurhangee/ep-ind-claims huggingface dataset:
An automatic cigarette filter manufacturing machine comprising: a store containing a bale (8a; 8b) of filtering material; a conveyor line, which extracts a strand (9a; 9b) of filtering material from the bale (8a; 8b); a filtering material feed line (4a; 4b), which receives the strand (9a; 9b) of filtering material, and converts the strand (9a; 9b) of filtering material into a strip (13a; 13b) of filtering material; a conveyor assembly, which receives the strip (13a; 13b) of filtering material, and forms the strip (13a; 13b) of filtering material into a rope of filtering material; a forming beam (2a; 2b), which receives the rope of filtering material and a strip (19a; 19b) of paper to form a continuous filter rod (3a; 3b); an insertion unit connected to the conveyor assembly to insert a thread (24a; 24b) into the strip (13a; 13b) of filtering material; and a feed unit for feeding the thread (24a; 24b) to the insertion unit and comprising a supporting table (28a; 28b), and a first unwinding pin fitted to the supporting table (28a; 28b), and which supports a first spool, wound with a first reel of thread, as the first reel is unwound; the automatic cigarette filter manufacturing machine being characterized in that the feed unit comprises a second unwinding pin which is fitted to the supporting table (28a; 28b), is located alongside the first unwinding pin, and supports a second spool, wound with a second reel of thread, as the second reel is unwound. a store containing a bale (8a; 8b) of filtering material; a conveyor line, which extracts a strand (9a; 9b) of filtering material from the bale (8a; 8b); a filtering material feed line (4a; 4b), which receives the strand (9a; 9b) of filtering material, and converts the strand (9a; 9b) of filtering material into a strip (13a; 13b) of filtering material; a conveyor assembly, which receives the strip (13a; 13b) of filtering material, and forms the strip (13a; 13b) of filtering material into a rope of filtering material; a forming beam (2a; 2b), which receives the rope of filtering material and a strip (19a; 19b) of paper to form a continuous filter rod (3a; 3b); an insertion unit connected to the conveyor assembly to insert a thread (24a; 24b) into the strip (13a; 13b) of filtering material; and a feed unit for feeding the thread (24a; 24b) to the insertion unit and comprising a supporting table (28a; 28b), and a first unwinding pin fitted to the supporting table (28a; 28b), and which supports a first spool, wound with a first reel of thread, as the first reel is unwound; the automatic cigarette filter manufacturing machine being characterized in that the feed unit comprises a second unwinding pin which is fitted to the supporting table (28a; 28b), is located alongside the first unwinding pin, and supports a second spool, wound with a second reel of thread, as the second reel is unwound.
A synchronous rotating electrical machine comprising: a rotor assembly including a rotor having high temperature superconducting windings; and a stator assembly, the stator assembly including a stator core formed of a ferromagnetic material, the stator core including a back iron area and multiple iron teeth extending radially inward from the back iron area, the teeth having the same tooth width and being regularly and mutually circumferentially spaced apart, wherein the spacing between adjacent teeth defines slots, the slots configured to receive and support stator windings, wherein the ratio of the sum of the widths of the slots to the sum of the widths of the teeth and slots is in the range of 0.65 to 0.90, and an air gap between the stator assembly and the rotor assembly is greater than 20 mm. a rotor assembly including a rotor having high temperature superconducting windings; and a stator assembly, the stator assembly including a stator core formed of a ferromagnetic material, the stator core including a back iron area and multiple iron teeth extending radially inward from the back iron area, the teeth having the same tooth width and being regularly and mutually circumferentially spaced apart, wherein the spacing between adjacent teeth defines slots, the slots configured to receive and support stator windings, wherein the ratio of the sum of the widths of the slots to the sum of the widths of the teeth and slots is in the range of 0.65 to 0.90, and an air gap between the stator assembly and the rotor assembly is greater than 20 mm.
An ultrasound system, comprising: an ultrasound data acquisition unit configured to transmit and receive ultrasound signals to and from a living body to output ultrasound data corresponding to a plurality of frames while applying compression to the living body; and a processing unit in communication with the ultrasound data acquisition unit, the processing unit being configured to extract frames from a (n-1) th frame to a (n-i) th frame on a basis of a n th frame, wherein n indicates an integer larger than one and i indicates a positive integer; calculate a first displacement between the n th frame and each of the extracted frames based on the ultrasound data; calculate a first strain based on each of the first displacements; calculate strain mean values based on each of first strains; compare the strain mean values with a predetermined strain threshold range to detect at least one strain mean value corresponding to the predetermined strain threshold range; calculate standard deviation of the first strain for at least one frame corresponding to the at least one strain mean value; detect a frame corresponding to a minimum standard deviation as an optimal frame for forming an elastic image among the extracted frames calculate a second displacement between the optimal frame and the n th frame based on the ultrasound data; and form an elastic image based on the second displacement. an ultrasound data acquisition unit configured to transmit and receive ultrasound signals to and from a living body to output ultrasound data corresponding to a plurality of frames while applying compression to the living body; and a processing unit in communication with the ultrasound data acquisition unit, the processing unit being configured to extract frames from a (n-1) th frame to a (n-i) th frame on a basis of a n th frame, wherein n indicates an integer larger than one and i indicates a positive integer; calculate a first displacement between the n th frame and each of the extracted frames based on the ultrasound data; calculate a first strain based on each of the first displacements; calculate strain mean values based on each of first strains; compare the strain mean values with a predetermined strain threshold range to detect at least one strain mean value corresponding to the predetermined strain threshold range; calculate standard deviation of the first strain for at least one frame corresponding to the at least one strain mean value; detect a frame corresponding to a minimum standard deviation as an optimal frame for forming an elastic image among the extracted frames calculate a second displacement between the optimal frame and the n th frame based on the ultrasound data; and form an elastic image based on the second displacement.
A method for signal processing, the method comprising: calculating a signal to noise ratio, SNR, of a downlink dedicated physical channel, DPCH, based on a plurality of transmit power control, TPC, bits received via said downlink dedicated physical channel, DPCH, wherein an actual value of at least one of said plurality of TPC bits cannot be determined by a receiver when said at least one of said plurality of TPC bits is received, disabling transmit circuitry if said calculated SNR of said plurality of TPC bits is below a first channel threshold, and enabling transmit circuitry if said calculated SNR is above a second channel threshold. calculating a signal to noise ratio, SNR, of a downlink dedicated physical channel, DPCH, based on a plurality of transmit power control, TPC, bits received via said downlink dedicated physical channel, DPCH, wherein an actual value of at least one of said plurality of TPC bits cannot be determined by a receiver when said at least one of said plurality of TPC bits is received, disabling transmit circuitry if said calculated SNR of said plurality of TPC bits is below a first channel threshold, and enabling transmit circuitry if said calculated SNR is above a second channel threshold.
A mobile floor cleaning robot comprising: a robot body defining a forward drive direction; a drive supporting the robot body to maneuver the robot across a surface, the drive comprising right and left drive wheels disposed on corresponding right and left portions of the robot body; and a cleaning assembly disposed on the robot body, the cleaning assembly comprising: a pad holder disposed forward of the drive wheels and configured to receive a cleaning pad; a reservoir (475; 504) to hold a volume of fluid; and a fluid applicator in fluid communication with the reservoir, the fluid applicator configured to apply the fluid along the forward drive direction forward of the pad holder; characterized in that the robot is configured to apply fluid to a floor surface at an initial volumetric flow rate to moisten the cleaning pad, the initial volumetric flow rate being relatively higher than a subsequent volumetric flow rate when the cleaning pad is moistened. a robot body defining a forward drive direction; a drive supporting the robot body to maneuver the robot across a surface, the drive comprising right and left drive wheels disposed on corresponding right and left portions of the robot body; and a cleaning assembly disposed on the robot body, the cleaning assembly comprising: a pad holder disposed forward of the drive wheels and configured to receive a cleaning pad; a reservoir (475; 504) to hold a volume of fluid; and a fluid applicator in fluid communication with the reservoir, the fluid applicator configured to apply the fluid along the forward drive direction forward of the pad holder; a pad holder disposed forward of the drive wheels and configured to receive a cleaning pad; a reservoir (475; 504) to hold a volume of fluid; and a fluid applicator in fluid communication with the reservoir, the fluid applicator configured to apply the fluid along the forward drive direction forward of the pad holder; characterized in that the robot is configured to apply fluid to a floor surface at an initial volumetric flow rate to moisten the cleaning pad, the initial volumetric flow rate being relatively higher than a subsequent volumetric flow rate when the cleaning pad is moistened.
A method, comprising: at an electronic device having one or more processors, a touch screen and a display: displaying a user input interface on the display including a text area and a stroke input area, wherein the text area does not overlap the stroke input area; receiving a first continuous stroke on the touch screen in the stroke input area; determining a first character based on the first stroke; displaying the first character in the text area; receiving a second continuous stroke on the touch screen in the stroke input area after receiving the first stroke and displaying the first character, wherein the second stroke is received after a period of time since receiving the first stroke; in accordance with a determination that the period of time since receiving the first stroke is below a threshold value: determining a revised first character based on the first stroke and the second stroke; and replacing the display of the first character with the revised first character; and in accordance with a determination that the period of time since receiving the first stroke exceeds the threshold value: determining a second character based on the second stroke independent of the first stroke; and displaying the second character in the text area. displaying a user input interface on the display including a text area and a stroke input area, wherein the text area does not overlap the stroke input area; receiving a first continuous stroke on the touch screen in the stroke input area; determining a first character based on the first stroke; displaying the first character in the text area; receiving a second continuous stroke on the touch screen in the stroke input area after receiving the first stroke and displaying the first character, wherein the second stroke is received after a period of time since receiving the first stroke; in accordance with a determination that the period of time since receiving the first stroke is below a threshold value: determining a revised first character based on the first stroke and the second stroke; and replacing the display of the first character with the revised first character; and determining a revised first character based on the first stroke and the second stroke; and replacing the display of the first character with the revised first character; and in accordance with a determination that the period of time since receiving the first stroke exceeds the threshold value: determining a second character based on the second stroke independent of the first stroke; and displaying the second character in the text area. determining a second character based on the second stroke independent of the first stroke; and displaying the second character in the text area.
A positive active material for a lithium secondary battery which comprises a lithium transition metal composite oxide, wherein the lithium transition metal composite oxide has an α-NaFeO 2 structure, and has a diffraction peak at 2θ = 44 ± 1° and a diffraction peak at 2θ = 18.6 ± 1° in a powder X-ray diffraction diagram using a CuKα ray, and in a ratio FWHM /FWHM of a full width at half maximum FWHM for the diffraction peak at 18.6 ± 1° to a full width at half maximum FWHM for the diffraction peak at 44 ± 1°, a ratio of FWHM /FWHM in a charge state immediately after a discharge state to FWHM /FWHM in the discharge state is 0.72 or more wherein the lithium transition metal composite oxide contains at least one selected from the group consisting of F and P on surfaces of particles of the lithium transition metal composite oxide. wherein the lithium transition metal composite oxide has an α-NaFeO 2 structure, and has a diffraction peak at 2θ = 44 ± 1° and a diffraction peak at 2θ = 18.6 ± 1° in a powder X-ray diffraction diagram using a CuKα ray, and in a ratio FWHM /FWHM of a full width at half maximum FWHM for the diffraction peak at 18.6 ± 1° to a full width at half maximum FWHM for the diffraction peak at 44 ± 1°, a ratio of FWHM /FWHM in a charge state immediately after a discharge state to FWHM /FWHM in the discharge state is 0.72 or more wherein the lithium transition metal composite oxide contains at least one selected from the group consisting of F and P on surfaces of particles of the lithium transition metal composite oxide.
A micro-electromechanical system (MEMS) current sensing apparatus comprising: a flexible substrate joinable onto a conducting wire; a sensing unit comprising a conductor coil forming an inductor, formed of an MEMS structure and disposed on the flexible substrate, the sensing unit directly detecting an electromagnetic field induced by a current flowing in the conducting wire according to Faraday's law of induction and outputting a response to an electromagnetic field induced by a current flowing in the conducting wire; and a readout circuit disposed on the flexible substrate and coupled to the sensing unit, the readout circuit monitoring the response to the electromagnetic field and calculating the amount of the current. a flexible substrate joinable onto a conducting wire; a sensing unit comprising a conductor coil forming an inductor, formed of an MEMS structure and disposed on the flexible substrate, the sensing unit directly detecting an electromagnetic field induced by a current flowing in the conducting wire according to Faraday's law of induction and outputting a response to an electromagnetic field induced by a current flowing in the conducting wire; and a readout circuit disposed on the flexible substrate and coupled to the sensing unit, the readout circuit monitoring the response to the electromagnetic field and calculating the amount of the current.
A method performed by a wireless device for handling positioning of the wireless device in a wireless communications network, comprising: - receiving assistance data from a location node, or a radio network node, in the wireless communications network, wherein the assistance data comprises a positioning configuration comprising a start and/or stop information comprising one bit indicating initiation and/or termination of PRS transmissions; - measuring, based on the assistance data, a positioning information of PRSs; and - transmitting the measured positioning information to the location node or the radio network node. - receiving assistance data from a location node, or a radio network node, in the wireless communications network, wherein the assistance data comprises a positioning configuration comprising a start and/or stop information comprising one bit indicating initiation and/or termination of PRS transmissions; - measuring, based on the assistance data, a positioning information of PRSs; and - transmitting the measured positioning information to the location node or the radio network node.
An image projection apparatus comprising: a light source; an image generating unit that generates an image by using the light source; and a projection optical unit (30,40) that projects the image generated by the image generating unit, wherein the image generating unit and the projection optical unit (30,40) are arranged in a vertical direction, and the light source is arranged beside the image generating unit, wherein the projection optical unit (30,40) projects the image on a plane spaced away from the image projection apparatus in a direction orthogonal to the vertical direction, and the projection optical unit (30, 40) comprises a first optical system unit and a second optical system unit arranged in the vertical direction; characterised in that: the second optical system unit comprises: a first mirror configured to reflect light output from the first optical system unit; a second mirror configured to reflect light reflected from the first mirror; a transmitting glass configured to allow the light reflected from the second mirror to be transmitted through and a mirror holder configured to hold the first mirror, the second mirror and the transmitting glass; wherein the first mirror is held to the mirror holder by a bracket and the transmitting glass is held to the mirror holder by the same bracket. a light source; an image generating unit that generates an image by using the light source; and a projection optical unit (30,40) that projects the image generated by the image generating unit, wherein the image generating unit and the projection optical unit (30,40) are arranged in a vertical direction, and the light source is arranged beside the image generating unit, wherein the projection optical unit (30,40) projects the image on a plane spaced away from the image projection apparatus in a direction orthogonal to the vertical direction, and the projection optical unit (30, 40) comprises a first optical system unit and a second optical system unit arranged in the vertical direction; the second optical system unit comprises: a first mirror configured to reflect light output from the first optical system unit; a second mirror configured to reflect light reflected from the first mirror; a transmitting glass configured to allow the light reflected from the second mirror to be transmitted through and a mirror holder configured to hold the first mirror, the second mirror and the transmitting glass; wherein the first mirror is held to the mirror holder by a bracket and the transmitting glass is held to the mirror holder by the same bracket. a first mirror configured to reflect light output from the first optical system unit; a second mirror configured to reflect light reflected from the first mirror; a transmitting glass configured to allow the light reflected from the second mirror to be transmitted through and a mirror holder configured to hold the first mirror, the second mirror and the transmitting glass; wherein the first mirror is held to the mirror holder by a bracket and the transmitting glass is held to the mirror holder by the same bracket.
An electric power network comprising: a plurality of power routers (11, 21) each including a plurality of power ports (11a1, 11a2, 11a3, 21a, 21b), each power port being capable of inputting and outputting direct-current power, each power router being configured to convert electric power input from any of the power ports (11a1, 11a2, 11a3, 21a, 21b) of the power router and to output the converted electric power from at least one of remaining power ports of the power router; a plurality of interconnection lines configured to connect the power routers (11, 21) in a grid manner via the power ports (11a1, 11a2, 11a3, 21a, 21b); and an electric power apparatus (13b, 14b, 15b, 16b, 17b, 18b) configured to consume or supply electric power, the electric power apparatus (13b, 14b, 15b, 16b, 17b, 18b) being connected to a power port that is included in at least one of the power routers (11, 21) and that is not connected to any of the interconnection lines, wherein at least one of the power ports (11a1, 11a2, 11a3, 21a, 21b) of each of the power routers (11, 21) is set as a dependent port for which characteristics of direct-current power to be input or output are not controlled. a plurality of power routers (11, 21) each including a plurality of power ports (11a1, 11a2, 11a3, 21a, 21b), each power port being capable of inputting and outputting direct-current power, each power router being configured to convert electric power input from any of the power ports (11a1, 11a2, 11a3, 21a, 21b) of the power router and to output the converted electric power from at least one of remaining power ports of the power router; a plurality of interconnection lines configured to connect the power routers (11, 21) in a grid manner via the power ports (11a1, 11a2, 11a3, 21a, 21b); and an electric power apparatus (13b, 14b, 15b, 16b, 17b, 18b) configured to consume or supply electric power, the electric power apparatus (13b, 14b, 15b, 16b, 17b, 18b) being connected to a power port that is included in at least one of the power routers (11, 21) and that is not connected to any of the interconnection lines, wherein at least one of the power ports (11a1, 11a2, 11a3, 21a, 21b) of each of the power routers (11, 21) is set as a dependent port for which characteristics of direct-current power to be input or output are not controlled.