mhurhangee/ep-ind-claims huggingface dataset:
A bus bar for a battery module, comprising: a first bar element and a second bar element spaced apart from each other; a first contact electrically connected to the first bar element and a second contact electrically connected to the second bar element and spaced apart from the first contact; a relay configured to control a connection between the first and second contacts (21, 31); and a first monitoring pin electrically coupled to the first bar element and a second monitoring pin electrically coupled to the second bar element; wherein each of the first and second monitoring pins (23, 33) comprises a resistor (24, 34) located between a first end and a second end of the monitoring pin (23, 33). a first bar element and a second bar element spaced apart from each other; a first contact electrically connected to the first bar element and a second contact electrically connected to the second bar element and spaced apart from the first contact; a relay configured to control a connection between the first and second contacts (21, 31); and a first monitoring pin electrically coupled to the first bar element and a second monitoring pin electrically coupled to the second bar element; wherein each of the first and second monitoring pins (23, 33) comprises a resistor (24, 34) located between a first end and a second end of the monitoring pin (23, 33).
A wire rope inspection device comprising: an excitation unit configured to apply a magnetic flux to a wire rope which is an inspection target; a detection unit configured to detect a magnetic flux of the wire rope to which the magnetic flux has been applied by the excitation unit; an urging unit configured to urge the detection unit in a direction to approach the wire rope by an elastic force to an inspection position at which the detection unit is arranged at a time of an inspection operation for inspecting the wire rope; and a drive unit configured to move the detection unit away from the wire rope to a normal operation position at which the detection unit is arranged at a time of a normal operation, wherein the detection unit includes a first portion to be arranged on one side in a direction perpendicular to an extending direction of the wire rope and a second portion to be arranged on the other side thereof, and wherein the urging unit is configured to urge the first portion and the second portion to approach each other by the elastic force to the inspection position. an excitation unit configured to apply a magnetic flux to a wire rope which is an inspection target; a detection unit configured to detect a magnetic flux of the wire rope to which the magnetic flux has been applied by the excitation unit; an urging unit configured to urge the detection unit in a direction to approach the wire rope by an elastic force to an inspection position at which the detection unit is arranged at a time of an inspection operation for inspecting the wire rope; and a drive unit configured to move the detection unit away from the wire rope to a normal operation position at which the detection unit is arranged at a time of a normal operation, wherein the detection unit includes a first portion to be arranged on one side in a direction perpendicular to an extending direction of the wire rope and a second portion to be arranged on the other side thereof, and wherein the urging unit is configured to urge the first portion and the second portion to approach each other by the elastic force to the inspection position.
A method comprising: reacting butene with bromine in a bromination reactor under reaction conditions adapted for selective bromination of the butene in the allylic position to form a bromination product stream comprising bromobutenes; and subjecting the bromobutenes to dehydrobromination to form a dehydrobromination product stream comprising 1,3-butadiene in a dehydrobromination reactor downstream from the bromination reactor.
A sensing device, comprising: a sensor that comprises a sensor main body comprising a sensing element and a plurality of lead wires led out from the sensor main body; a housing member that comprises a container part comprising the sensor main body; and a molded body that comprises a mold resin molded so as to include at least a part of the housing member without contacting with the sensor main body, wherein the housing member comprises an opening formed on the container part so as to allow the sensor main body to be exposed, and wherein the molded body is molded without covering the opening. a sensor that comprises a sensor main body comprising a sensing element and a plurality of lead wires led out from the sensor main body; a housing member that comprises a container part comprising the sensor main body; and a molded body that comprises a mold resin molded so as to include at least a part of the housing member without contacting with the sensor main body, wherein the housing member comprises an opening formed on the container part so as to allow the sensor main body to be exposed, and wherein the molded body is molded without covering the opening.
A method for performing a switch from a first mobile network to a second mobile network by a mobile terminal comprising a secure element, wherein the method comprises the following steps: (a) attaching to the first mobile network using a first attachment message containing a first identification data element of a first subscription profile; and (b) attaching to the second mobile network by an attachment process including a second attachment message containing a second identification data element of a second subscription profile, wherein the second mobile network comprises a signal monitoring unit that is configured to monitor at least parts of the attachment process, to determine the second identification data element contained therein and to forward this information to a subscription management server in order to confirm the successful attachment of the secure element to the second mobile network. (a) attaching to the first mobile network using a first attachment message containing a first identification data element of a first subscription profile; and (b) attaching to the second mobile network by an attachment process including a second attachment message containing a second identification data element of a second subscription profile, wherein the second mobile network comprises a signal monitoring unit that is configured to monitor at least parts of the attachment process, to determine the second identification data element contained therein and to forward this information to a subscription management server in order to confirm the successful attachment of the secure element to the second mobile network.
A valve unit for a gearbox control unit of a commercial vehicle, said valve unit comprising a valve block and a flexible printed circuit for connecting the valve unit to the gearbox control unit, wherein said valve unit comprises a fixation plate assembly comprising a fixation plate, wherein the flexible printed circuit is attached to the fixation plate, and wherein said fixation plate assembly is attached to said valve block characterized by at least one receiving means arranged at the valve block, the receiving means configured to couple pivotally with the fixation plate and limit its movement in a first direction. wherein said valve unit comprises a fixation plate assembly comprising a fixation plate, wherein the flexible printed circuit is attached to the fixation plate, and wherein said fixation plate assembly is attached to said valve block characterized by at least one receiving means arranged at the valve block, the receiving means configured to couple pivotally with the fixation plate and limit its movement in a first direction.
A power management circuit, comprising: a first inductor having a first terminal configured to couple to a first node and a second terminal configured to couple to a second node; a first p-type metal oxide semiconductor field effect transistor MOSFET PFET having a source terminal coupled to the second node and a drain terminal coupled to a third node; a second PFET having a source terminal coupled to a ground voltage potential and a drain terminal coupled to the second node; a third PFET having a source terminal coupled to a fourth node and a drain terminal coupled to the third node; a fourth PFET having a source terminal coupled to the ground voltage potential and a drain terminal coupled to the fourth node; a n-type MOSFET NFET having a drain terminal coupled to a fifth node and a source terminal coupled to the third node; a second inductor having a first terminal configured to couple to the fourth node and a second terminal configured to couple to the fifth node; and a controller coupled to a gate terminal of the first PFET, a gate terminal of the second PFET, a gate terminal of the third PFET, a gate terminal of the fourth PFET, and a gate terminal of the NFET. a first inductor having a first terminal configured to couple to a first node and a second terminal configured to couple to a second node; a first p-type metal oxide semiconductor field effect transistor MOSFET PFET having a source terminal coupled to the second node and a drain terminal coupled to a third node; a second PFET having a source terminal coupled to a ground voltage potential and a drain terminal coupled to the second node; a third PFET having a source terminal coupled to a fourth node and a drain terminal coupled to the third node; a fourth PFET having a source terminal coupled to the ground voltage potential and a drain terminal coupled to the fourth node; a n-type MOSFET NFET having a drain terminal coupled to a fifth node and a source terminal coupled to the third node; a second inductor having a first terminal configured to couple to the fourth node and a second terminal configured to couple to the fifth node; and a controller coupled to a gate terminal of the first PFET, a gate terminal of the second PFET, a gate terminal of the third PFET, a gate terminal of the fourth PFET, and a gate terminal of the NFET.
A mold release treatment method, comprising the steps of: (a) providing a mold releasing agent and a mold which has a porous alumina layer over its surface, the mold releasing agent containing a fluoric compound which has mold releasability and a solvent; (b) applying over the surface of the mold a solvent that is capable of dissolving the fluoric compound; and (c) after step (b), applying the mold releasing agent over the surface of the mold according to a spray coating method. (a) providing a mold releasing agent and a mold which has a porous alumina layer over its surface, the mold releasing agent containing a fluoric compound which has mold releasability and a solvent; (b) applying over the surface of the mold a solvent that is capable of dissolving the fluoric compound; and (c) after step (b), applying the mold releasing agent over the surface of the mold according to a spray coating method.
A method of wireless communication performed by a transmitter device, comprising: partitioning a bandwidth of a downlink communication channel into multiple, non-overlapping sub-bands separated by a guard band or a similar spacing; assigning different sub-bands, of the multiple, non-overlapping sub-bands, to different recipient devices, wherein each sub-band is assigned to a respective recipient device based at least in part on bandwidth capabilities of the recipient devices; and forming a plurality of respective beams for the different recipient devices, wherein each beam, of the plurality of respective beams, occupies a respective sub-band of the different sub-bands assigned to the different recipient devices. partitioning a bandwidth of a downlink communication channel into multiple, non-overlapping sub-bands separated by a guard band or a similar spacing; assigning different sub-bands, of the multiple, non-overlapping sub-bands, to different recipient devices, wherein each sub-band is assigned to a respective recipient device based at least in part on bandwidth capabilities of the recipient devices; and forming a plurality of respective beams for the different recipient devices, wherein each beam, of the plurality of respective beams, occupies a respective sub-band of the different sub-bands assigned to the different recipient devices.
Use of a chestnut tannin extract ( Castanea sativa Mill.), as a non-phytotoxic acaricidal agent, alone or in a mixture with other active principles having an acaricidal activity, said chestnut tannin extract being applied to agricultural crops for prevention or treatment.
A signal processing apparatus that is configured to generate a motor control signal (Str) for controlling a motor by performing a smoothing process on a torque value signal (St) from a torque sensor of an electric tool by using a filter, the electric tool comprising an anvil, a shaft, and an impact sensor, wherein the impact sensor is configured to detect impact applied to the shaft due to a hit given to the anvil and the shaft, and is configured to output an impact pulse indicating the detected impact, wherein the signal processing apparatus comprises: a half width detector circuit that is configured to detect a half width of the torque value signal (St); and a calculator circuit that is configured to control a cut-off frequency (fc) of the filter to change the cut-off frequency (fc) according to a number of hits of the electric tool, based on the detected half width of the torque value signal, wherein the number of hits is a counted value of the impact pulses from the impact sensor. wherein the impact sensor is configured to detect impact applied to the shaft due to a hit given to the anvil and the shaft, and is configured to output an impact pulse indicating the detected impact, wherein the signal processing apparatus comprises: a half width detector circuit that is configured to detect a half width of the torque value signal (St); and a calculator circuit that is configured to control a cut-off frequency (fc) of the filter to change the cut-off frequency (fc) according to a number of hits of the electric tool, based on the detected half width of the torque value signal, wherein the number of hits is a counted value of the impact pulses from the impact sensor. a half width detector circuit that is configured to detect a half width of the torque value signal (St); and a calculator circuit that is configured to control a cut-off frequency (fc) of the filter to change the cut-off frequency (fc) according to a number of hits of the electric tool, based on the detected half width of the torque value signal, wherein the number of hits is a counted value of the impact pulses from the impact sensor.
A sintered material exhibiting the following chemical composition, as percentages by weight: - iron oxide(s), expressed in the Fe 2 O 3 form, ≥ 85% - CaO: 0.1% - 6%, and - SiO 2: 0.1% - 6%, and - 0.05% ≤ TiO 2, and - 0 ≤ Al 2 O 3, and - TiO 2 + Al 2 O 3 ≤ 3%, and - constituents other than iron oxides, CaO, SiO 2, TiO 2 and Al 2 O 3: ≤ 5%, the CaO/SiO 2 ratio by weight being between 0.2 and 7, the TiO 2 /CaO ratio by weight being between 0.2 and 1,5. - iron oxide(s), expressed in the Fe 2 O 3 form, ≥ 85% - CaO: 0.1% - 6%, and - SiO 2: 0.1% - 6%, and - 0.05% ≤ TiO 2, and - 0 ≤ Al 2 O 3, and - TiO 2 + Al 2 O 3 ≤ 3%, and - constituents other than iron oxides, CaO, SiO 2, TiO 2 and Al 2 O 3: ≤ 5%, the CaO/SiO 2 ratio by weight being between 0.2 and 7, the TiO 2 /CaO ratio by weight being between 0.2 and 1,5.
Use of a method for analyzing a sample comprising at least one ovum or embryo (1, 11), the method being solely based on digital holographic imaging, the method comprising the following steps: a) creating at least one object beam and at least one reference beam of light, where said at least one object beam and said at least one reference beam are mutually coherent; b) exposing said sample to said at least one object beam; c) superimposing said at least one object beam that has passed through said sample with said at least one reference beam and thereby creating an interference pattern; d) detecting said interference pattern, called hologram; e) reconstructing phase and/or amplitude information of object wavefront from said interference pattern; and f) constructing at least one ovum or embryo analysis image and determining at least one ovum or embryo quality showing parameter from said phase and/or amplitude information, wherein the at least one ovum or embryo quality showing parameter embodies at least one of the parameters chosen from the group consisting of the radial thickness of the zona pellucida of the at least one ovum or embryo (1, 11); the optical density of the zona pellucida of the at least one ovum or embryo (1, 11); the dry mass, morphology or area of the at least one ovum or at least one cell inside the at least one embryo; and the dry mass, morphology or area of at least one polar body; and wherein step b) to d) are repeated at different time-points or continuously in order to reconstruct phase and/or amplitude information according to step e) and construct ovum or embryo analysis images according to step f) captured at said time-points or continuously. a) creating at least one object beam and at least one reference beam of light, where said at least one object beam and said at least one reference beam are mutually coherent; b) exposing said sample to said at least one object beam; c) superimposing said at least one object beam that has passed through said sample with said at least one reference beam and thereby creating an interference pattern; d) detecting said interference pattern, called hologram; e) reconstructing phase and/or amplitude information of object wavefront from said interference pattern; and f) constructing at least one ovum or embryo analysis image and determining at least one ovum or embryo quality showing parameter from said phase and/or amplitude information,
A power transmission device for an electrically driven vehicle, comprising: a power transmission mechanism interposed between a motor shaft of a motor driven by an inverter and drive wheels, the power transmission mechanism including a case element, an axis element (3b, 3c, 3d) and a power transmission element (3f, 3g, 3h, 3i), a sliding contact brush mounted on an axis end of the axis element (3b, 3c, 3d) with one end of a brush contact being configured to be in contact with the axis end and the other end of the brush contact being configured to be electrically grounded to a vehicle body, a brush case cover mounted to the case element to enclose the axis end of the axis element (3b, 3c, 3d) in the case element, and to form a brush chamber accommodating the sliding contact brush, and a brush protective jig mounted to cover the brush contact when mounting the sliding contact brush to the axis end, characterized in the brush protective jig having an axial length to contact the brush case cover thereby preventing the brush case cover from being mounted to the case element in an attached state of the brush protective jig that covers the brush contact. a power transmission mechanism interposed between a motor shaft of a motor driven by an inverter and drive wheels, the power transmission mechanism including a case element, an axis element (3b, 3c, 3d) and a power transmission element (3f, 3g, 3h, 3i), a sliding contact brush mounted on an axis end of the axis element (3b, 3c, 3d) with one end of a brush contact being configured to be in contact with the axis end and the other end of the brush contact being configured to be electrically grounded to a vehicle body, a brush case cover mounted to the case element to enclose the axis end of the axis element (3b, 3c, 3d) in the case element, and to form a brush chamber accommodating the sliding contact brush, and a brush protective jig mounted to cover the brush contact when mounting the sliding contact brush to the axis end, characterized in the brush protective jig having an axial length to contact the brush case cover thereby preventing the brush case cover from being mounted to the case element in an attached state of the brush protective jig that covers the brush contact.
A fuel cell comprising: · an anode suitable for oxidizing a first compound M1 into first ions M (m+), with m a nonzero integer; · a first electrolyte that is in contact with said anode; · a cathode suitable for reducing a second compound N2 into second ions N (n-), with n a nonzero integer; and · a porous central membrane having one of its faces in contact with said first electrolyte, and having its opposite face in contact with said cathode; said first electrolyte being constituted by a material suitable for conducting the ions M (m+), said central membrane being constituted by a material suitable for conducting both the ions M (m+) and the ions N (n-), said fuel cell being characterized in that said cathode has an array of channels passing therethrough, each channel opening out at said central membrane and at a free surface of the cathode, the minimum dimension of a cross-section of any one of the channels being greater than 20 μm, such that it is possible to discharge the product P resulting from the reaction of the ions M (m+) and the ions N (n-) from said central membrane to the outside of the fuel cell via said channels. · an anode suitable for oxidizing a first compound M1 into first ions M (m+), with m a nonzero integer; · a first electrolyte that is in contact with said anode; · a cathode suitable for reducing a second compound N2 into second ions N (n-), with n a nonzero integer; and · a porous central membrane having one of its faces in contact with said first electrolyte, and having its opposite face in contact with said cathode;
A rack bar comprising: a rack tooth row including a plurality of rack teeth for meshing with pinion teeth; a hardened layer provided continuously over an entire circumference of the rack tooth row; and a center portion provided inside the hardened layer and having lower hardness than the hardened layer, characterized in that when the rack bar is viewed in an axial direction of the rack bar, a depth of the hardened layer from a following positions i), ii), and iii) increases in this order: i) a bottom land of the rack teeth; ii) a side of the rack bar relative to the bottom land; and iii) a back of the rack bar relative to the bottom land. a rack tooth row including a plurality of rack teeth for meshing with pinion teeth; a hardened layer provided continuously over an entire circumference of the rack tooth row; and a center portion provided inside the hardened layer and having lower hardness than the hardened layer, characterized in that when the rack bar is viewed in an axial direction of the rack bar, a depth of the hardened layer from a following positions i), ii), and iii) increases in this order: i) a bottom land of the rack teeth; ii) a side of the rack bar relative to the bottom land; and iii) a back of the rack bar relative to the bottom land. i) a bottom land of the rack teeth; ii) a side of the rack bar relative to the bottom land; and iii) a back of the rack bar relative to the bottom land.