mhurhangee/ep-ind-claims huggingface dataset:
A hybrid vehicle comprising: an engine; a first motor generator configured to generate electric power by using power of the engine; an electric power storage device electrically connected to the first motor generator; and an electronic control unit configured to control the engine and the first motor generator, characterized by the electronic control unit being configured to switch a use mode to either one of a first use mode and a second use mode, the first use mode being a mode in which an owner of the hybrid vehicle is a user of the hybrid vehicle, and the second use mode being a mode in which any person other than the owner of the hybrid vehicle is the user, and the electronic control unit being configured to execute recovery processing when the use mode is the second use mode, the recovery processing comprising controlling the engine and the first motor generator such that a state of charge of the electric power storage device when the user finishes using the hybrid vehicle is brought closer to an initial value of the state of charge when the user started using the hybrid vehicle. an engine; a first motor generator configured to generate electric power by using power of the engine; an electric power storage device electrically connected to the first motor generator; and an electronic control unit configured to control the engine and the first motor generator, characterized by the electronic control unit being configured to switch a use mode to either one of a first use mode and a second use mode, the first use mode being a mode in which an owner of the hybrid vehicle is a user of the hybrid vehicle, and the second use mode being a mode in which any person other than the owner of the hybrid vehicle is the user, and the electronic control unit being configured to execute recovery processing when the use mode is the second use mode, the recovery processing comprising controlling the engine and the first motor generator such that a state of charge of the electric power storage device when the user finishes using the hybrid vehicle is brought closer to an initial value of the state of charge when the user started using the hybrid vehicle.
A method comprising: determining an estimate of a data packet path time from a first base station to a user equipment; determining, based at least partially upon a communication received from a second base station, an estimate of a data packet path time from the first base station via the second base station to the user equipment; and based at least partially upon the determined estimates, selecting either the first base station or the second base station to transmit a packet data unit to the user equipment. determining an estimate of a data packet path time from a first base station to a user equipment; determining, based at least partially upon a communication received from a second base station, an estimate of a data packet path time from the first base station via the second base station to the user equipment; and based at least partially upon the determined estimates, selecting either the first base station or the second base station to transmit a packet data unit to the user equipment.
A carbon nanotube having (a) an La value of less than 7.0 nm when measured by XRD; (b) a specific surface area of 100 m 2 /g to 196 m 2 /g; (c) a B-A value of 0.70 nm or greater, wherein A is an La value (unit: nm) measured by XRD before graphitization treatment of the carbon nanotube at 2500°C, and B is an La value (unit: nm) measured by XRD after the graphitization treatment; and (d) a D-C value of 0.18 nm or less, wherein C is an Lc value (unit: nm) measured by XRD before graphitization treatment of the carbon nanotube at 2500°C, and D is an Lc value (unit: nm) measured by XRD after the graphitization treatment. (a) an La value of less than 7.0 nm when measured by XRD; (b) a specific surface area of 100 m 2 /g to 196 m 2 /g; (c) a B-A value of 0.70 nm or greater, wherein A is an La value (unit: nm) measured by XRD before graphitization treatment of the carbon nanotube at 2500°C, and B is an La value (unit: nm) measured by XRD after the graphitization treatment; and (d) a D-C value of 0.18 nm or less, wherein C is an Lc value (unit: nm) measured by XRD before graphitization treatment of the carbon nanotube at 2500°C, and D is an Lc value (unit: nm) measured by XRD after the graphitization treatment.
A work vehicle comprising: a top having a first hole; a plate having a second hole and attached to said top with said second hole in alignment with said first hole; an exhaust pipe having an internal path and a flange projecting outward and abutting against and thus attached to said plate; and a tail pipe having a portion positioned in said first and second holes (10a, 11a), and an end in said internal path of said exhaust pipe, wherein said plate is disposed between said top and said flange and serves as a reference in attaching said flange to said top, wherein said flange has at least two sides aligned with any one of a first, second and third side of said plate, or wherein said plate is provided with a marking and said flange is disposed in alignment therewith, characterized in that said first and second holes (10a, 11a) being larger than a diameter of said tail pipe in a radial direction of said tail pipe, there being a gap between said tail pipe and each of said first and second holes (10a, 11a) in the radial direction of said tail pipe. a top having a first hole; a plate having a second hole and attached to said top with said second hole in alignment with said first hole; an exhaust pipe having an internal path and a flange projecting outward and abutting against and thus attached to said plate; and a tail pipe having a portion positioned in said first and second holes (10a, 11a), and an end in said internal path of said exhaust pipe, wherein said plate is disposed between said top and said flange and serves as a reference in attaching said flange to said top, wherein said flange has at least two sides aligned with any one of a first, second and third side of said plate, or wherein said plate is provided with a marking and said flange is disposed in alignment therewith, characterized in that said first and second holes (10a, 11a) being larger than a diameter of said tail pipe in a radial direction of said tail pipe, there being a gap between said tail pipe and each of said first and second holes (10a, 11a) in the radial direction of said tail pipe.
A method for producing a cyclic disulfonic acid ester compound, the method comprising reacting at least one sulfonic acid compound with at least one sulfuric acid ester compound, the sulfonic acid compound being selected from the group consisting of: compounds represented by formula: wherein two Xs are the same or different and represent a hydrogen atom or an alkali metal; R 1 and R 2 are the same or different and represent a C 1-4 alkyl group optionally substituted with one or more halogen atoms or a hydrogen atom; n1 is an integer of 1 to 4; when n1 is an integer of 2 to 4, n1 R 1 s may be the same or different and n1 R 2 s may be the same or different; and compounds represented by formula: wherein Y represents an alkaline earth metal, and R 1, R 2, and n1 are as defined above, the sulfuric acid ester compound being selected from the group consisting of: compounds represented by formula: wherein R 3 and R 4 are the same or different and represent a C 1-4 alkyl group optionally substituted with one or more halogen atoms or a hydrogen atom; and compounds represented by formula: wherein n2 is an integer of 1 to 4, and R 3 and R 4 are as defined above, and the cyclic disulfonic acid ester compound being represented by formula wherein R 1, R 2, R 3, R 4, n1, and n2 are as defined above. compounds represented by formula: wherein two Xs are the same or different and represent a hydrogen atom or an alkali metal; R 1 and R 2 are the same or different and represent a C 1-4 alkyl group optionally substituted with one or more halogen atoms or a hydrogen atom; n1 is an integer of 1 to 4; when n1 is an integer of 2 to 4, n1 R 1 s may be the same or different and n1 R 2 s may be the same or different; and wherein two Xs are the same or different and represent a hydrogen atom or an alkali metal; R 1 and R 2 are the same or different and represent a C 1-4 alkyl group optionally substituted with one or more halogen atoms or a hydrogen atom; n1 is an integer of 1 to 4; when n1 is an integer of 2 to 4, n1 R 1 s may be the same or different and n1 R 2 s may be the same or different; and compounds represented by formula: wherein Y represents an alkaline earth metal, and R 1, R 2, and n1 are as defined above, the sulfuric acid ester compound being selected from the group consisting of: compounds represented by formula: wherein R 3 and R 4 are the same or different and represent a C 1-4 alkyl group optionally substituted with one or more halogen atoms or a hydrogen atom; and compounds represented by formula: wherein n2 is an integer of 1 to 4, and R 3 and R 4 are as defined above, and the cyclic disulfonic acid ester compound being represented by formula wherein R 1, R 2, R 3, R 4, n1, and n2 are as defined above. compounds represented by formula: wherein R 3 and R 4 are the same or different and represent a C 1-4 alkyl group optionally substituted with one or more halogen atoms or a hydrogen atom; and compounds represented by formula: wherein n2 is an integer of 1 to 4, and R 3 and R 4 are as defined above, and the cyclic disulfonic acid ester compound being represented by formula wherein R 1, R 2, R 3, R 4, n1, and n2 are as defined above.
Device for stamping and winding up a strip of sheet metal to form a sheet pack for the manufacture of stators and rotors, the device including the following means: a stamping unit for stamping slots into the strip of sheet metal, a winding unit for winding up the stamped strip of sheet metal to form a sheet pack, the stamping unit being arranged upstream of the winding unit, driving means (21, 25) being provided for changing the relative position of the winding unit with the sheet pack with respect to the stamping unit, and a controller (50, 51, 52, 55) for controlling the stamping unit, the winding unit and the driving means for setting the relative position of the winding unit, characterized in that the device has one or more sensors (41, 42), which record(s) the actual position of the slot edges on the stamped strip of sheet metal and in that the controller of the device compares the recorded actual position of the measured slot edge with the target position and, if a deviation is established, controls the driving means of the winding unit in such a way as to compensate for the positional deviation established. a stamping unit for stamping slots into the strip of sheet metal, a winding unit for winding up the stamped strip of sheet metal to form a sheet pack, the stamping unit being arranged upstream of the winding unit, driving means (21, 25) being provided for changing the relative position of the winding unit with the sheet pack with respect to the stamping unit, and a controller (50, 51, 52, 55) for controlling the stamping unit, the winding unit and the driving means for setting the relative position of the winding unit, characterized in that the device has one or more sensors (41, 42), which record(s) the actual position of the slot edges on the stamped strip of sheet metal and in that the controller of the device compares the recorded actual position of the measured slot edge with the target position and, if a deviation is established, controls the driving means of the winding unit in such a way as to compensate for the positional deviation established.
An apparatus for discriminating between electric field sources, comprising: a mobile detection system comprising: a sensor probe configured for remotely measuring an electric field generated by an electric field source in a patrolled area when the mobile detection system traverses a route being scanned for stray voltages; and a processor, coupled to the sensor probe, configured for (i) processing data received from the sensor probe to generate a first field strength and at least a second field strength, wherein the first field strength is a measurement of the electric field strength at a first frequency and each of the at least a second field strength is a measurement of the electric field strength at a frequency different from the first frequency, (ii) analyzing the first field strength and the at least a second field strength, and (iii) determining, based on the analysis of the first field strength and the at least a second field strength, whether the electric field source exhibits a stray voltage. a sensor probe configured for remotely measuring an electric field generated by an electric field source in a patrolled area when the mobile detection system traverses a route being scanned for stray voltages; and a processor, coupled to the sensor probe, configured for (i) processing data received from the sensor probe to generate a first field strength and at least a second field strength, wherein the first field strength is a measurement of the electric field strength at a first frequency and each of the at least a second field strength is a measurement of the electric field strength at a frequency different from the first frequency, (ii) analyzing the first field strength and the at least a second field strength, and (iii) determining, based on the analysis of the first field strength and the at least a second field strength, whether the electric field source exhibits a stray voltage.
A detector module for use in a computed tomography detector, the detector module comprising: an array of pixels formed on a substrate, each pixel comprising an array of sub-pixels, the sub-pixels of each array being arranged to be connected in parallel during exposure, to be disconnected after exposure and subsequently to readout from one of the sub-pixels a readout signal for the respective pixel, thereby effectively integrating the sub-pixel signals within the respective pixels to allow readout at the pixel level and avoiding the need to address sub-pixels individually; readout circuitry integrated on one end of the substrate such that three remaining edges of the substrate are configured to abut corresponding edges of other detector modules, wherein the readout circuitry for each column of pixels comprises multiple readout channels for that column, each column of pixels comprising a plurality of blocks of pixels, each readout channel being associated with a respective block of pixels of the plurality of blocks of pixels, each readout channel being configured to sequentially read out the readout signals of the pixels of its respective block of pixels. an array of pixels formed on a substrate, each pixel comprising an array of sub-pixels, the sub-pixels of each array being arranged to be connected in parallel during exposure, to be disconnected after exposure and subsequently to readout from one of the sub-pixels a readout signal for the respective pixel, thereby effectively integrating the sub-pixel signals within the respective pixels to allow readout at the pixel level and avoiding the need to address sub-pixels individually; readout circuitry integrated on one end of the substrate such that three remaining edges of the substrate are configured to abut corresponding edges of other detector modules, wherein the readout circuitry for each column of pixels comprises multiple readout channels for that column, each column of pixels comprising a plurality of blocks of pixels, each readout channel being associated with a respective block of pixels of the plurality of blocks of pixels, each readout channel being configured to sequentially read out the readout signals of the pixels of its respective block of pixels.
A process for the debenzylation of a compound of formula which comprises reacting said compound with formic acid in the presence of a Palladium based catalyst; wherein the debenzylation is carried out in the presence of sec-butanol.
An information processing method comprising: obtaining obstacle information acquired by an ultrasonic radar and a LiDAR respectively; fusing the obstacle information acquired by the LiDAR with the obstacle information acquired by the ultrasonic radar, characterized in that_ the fusing the obstacle information acquired by the LiDAR with the obstacle information acquired by the ultrasonic radar comprises: unifying coordinates in a LiDAR coordinate system and coordinates in an ultrasonic radar coordinate system into a reference coordinate system; fusing the detection overlapping regions of the LiDAR and the ultrasonic radar, gridding an obstacle recognition result in the detection overlapping region, and superimposing the unified LiDAR coordinates and ultrasonic radar coordinates in the grids; fusing the superimposed LiDAR coordinates and ultrasonic radar coordinates, and determining a vehicle decision according to the post-fusion obstacle recognition result in the detection overlapping region and the obstacle recognition result outside the detection overlapping region according to the LiDAR coordinates or ultrasonic radar coordinates respectively. obtaining obstacle information acquired by an ultrasonic radar and a LiDAR respectively; fusing the obstacle information acquired by the LiDAR with the obstacle information acquired by the ultrasonic radar, characterized in that_ the fusing the obstacle information acquired by the LiDAR with the obstacle information acquired by the ultrasonic radar comprises: unifying coordinates in a LiDAR coordinate system and coordinates in an ultrasonic radar coordinate system into a reference coordinate system; fusing the detection overlapping regions of the LiDAR and the ultrasonic radar, gridding an obstacle recognition result in the detection overlapping region, and superimposing the unified LiDAR coordinates and ultrasonic radar coordinates in the grids; fusing the superimposed LiDAR coordinates and ultrasonic radar coordinates, and determining a vehicle decision according to the post-fusion obstacle recognition result in the detection overlapping region and the obstacle recognition result outside the detection overlapping region according to the LiDAR coordinates or ultrasonic radar coordinates respectively. unifying coordinates in a LiDAR coordinate system and coordinates in an ultrasonic radar coordinate system into a reference coordinate system; fusing the detection overlapping regions of the LiDAR and the ultrasonic radar, gridding an obstacle recognition result in the detection overlapping region, and superimposing the unified LiDAR coordinates and ultrasonic radar coordinates in the grids; fusing the superimposed LiDAR coordinates and ultrasonic radar coordinates, and determining a vehicle decision according to the post-fusion obstacle recognition result in the detection overlapping region and the obstacle recognition result outside the detection overlapping region according to the LiDAR coordinates or ultrasonic radar coordinates respectively.
A mold for a press brake, comprising: an ascending and descending member that is relatively pressed and lowered by an upper table in a press brake, the ascending and descending member provided vertically movably with respect to a mold base mountable on a lower table in the press brake; a workpiece supporting member provided in the mold base, the workpiece supporting member having an upper surface; and a workpiece pressing member provided in the ascending and descending member, the workpiece pressing member having a lower surface, wherein the upper surface and the lower surface vertically face each other, characterized in that when a front side is the side from which a workpiece is inserted between the workpiece pressing member and the workpiece supporting member, at least a rear-end part of the upper surface of the workpiece supporting member is inclined so that a front side of the upper surface is relatively lower than the lower surface of the workpiece pressing member or at least a rear-end part of the lower surface of the workpiece pressing member is inclined so that the front side of the lower surface is higher than the upper surface of the workpiece supporting member. an ascending and descending member that is relatively pressed and lowered by an upper table in a press brake, the ascending and descending member provided vertically movably with respect to a mold base mountable on a lower table in the press brake; a workpiece supporting member provided in the mold base, the workpiece supporting member having an upper surface; and a workpiece pressing member provided in the ascending and descending member, the workpiece pressing member having a lower surface, wherein the upper surface and the lower surface vertically face each other, characterized in that when a front side is the side from which a workpiece is inserted between the workpiece pressing member and the workpiece supporting member, at least a rear-end part of the upper surface of the workpiece supporting member is inclined so that a front side of the upper surface is relatively lower than the lower surface of the workpiece pressing member or at least a rear-end part of the lower surface of the workpiece pressing member is inclined so that the front side of the lower surface is higher than the upper surface of the workpiece supporting member.
An illumination device, comprising: a light source adapted to emit light; an envelope adapted to at least partially enclose the light source; a positioning member adapted to position the light source within the envelope; characterized in that: the positioning member is arrangeable to assume a first state in which the light source is positioned at a first distance (d 1) from an inner surface portion of the envelope and a second state in which the light source is positioned at a second distance (d 2) from the inner surface portion, the second distance being smaller than the first distance; and the positioning member comprising a shape-memory material adapted to shift the positioning member from the first state to the second state as the shape-memory material is exposed to an external stimulus. a light source adapted to emit light; an envelope adapted to at least partially enclose the light source; a positioning member adapted to position the light source within the envelope; characterized in that: the positioning member is arrangeable to assume a first state in which the light source is positioned at a first distance (d 1) from an inner surface portion of the envelope and a second state in which the light source is positioned at a second distance (d 2) from the inner surface portion, the second distance being smaller than the first distance; and the positioning member comprising a shape-memory material adapted to shift the positioning member from the first state to the second state as the shape-memory material is exposed to an external stimulus. the positioning member is arrangeable to assume a first state in which the light source is positioned at a first distance (d 1) from an inner surface portion of the envelope and a second state in which the light source is positioned at a second distance (d 2) from the inner surface portion, the second distance being smaller than the first distance; and the positioning member comprising a shape-memory material adapted to shift the positioning member from the first state to the second state as the shape-memory material is exposed to an external stimulus.