mhurhangee/ep-ind-claims huggingface dataset:
A rugged optical micromodule cable comprising a composite cable jacket having an outer surface, an inner surface defining a channel within the cable jacket and a thickness between the inner surface and the outer surface, the cable comprising a plurality of micromodules located in the channel, wherein the micromodules each comprise sheathing surrounding a plurality of optical fibers, and a plurality of yarn fibers (26, 28) located within the channel, wherein the cable jacket comprises: a first cable jacket layer formed from a first material, the first cable jacket layer having an inner portion facing the channel and an outer surface defining an outer surface of the cable; and a second cable jacket layer formed from a second material, the second cable jacket layer having an outer portion in direct contact with and bonded to the inner portion of the first cable jacket layer; wherein the first cable jacket layer is contiguous in a circumferential direction and surrounds the second cable jacket layer; wherein the first cable jacket layer provides at least 10% of the thickness of the cable jacket and the second cable jacket layer provides at least 10% of the thickness of the cable jacket; wherein the first material is different than the second material, characterized in that the first material has a first torsional stiffness and the second material has a second torsional stiffness, wherein the second torsional stiffness is greater than the first torsional stiffness; the sheathing of the micromodules has an average thickness of less than 200 micrometers; and the plurality of yarn fibers (26, 28) are positioned around the micromodules such that at least one yarn fiber is located radially outside of one of the micromodules and such that the plurality of yarn fibers (26, 28) form a padding between the cable jacket and the at least one micromodule. a first cable jacket layer formed from a first material, the first cable jacket layer having an inner portion facing the channel and an outer surface defining an outer surface of the cable; and a second cable jacket layer formed from a second material, the second cable jacket layer having an outer portion in direct contact with and bonded to the inner portion of the first cable jacket layer; wherein the first cable jacket layer is contiguous in a circumferential direction and surrounds the second cable jacket layer; wherein the first cable jacket layer provides at least 10% of the thickness of the cable jacket and the second cable jacket layer provides at least 10% of the thickness of the cable jacket; wherein the first material is different than the second material, characterized in that the first material has a first torsional stiffness and the second material has a second torsional stiffness, wherein the second torsional stiffness is greater than the first torsional stiffness;
A heater cable comprising: a center bus wire extending axially along the heater cable; a first radial bus wire extending axially along the heater cable and positioned adjacent to the center bus wire; a first cover encapsulating the first radial bus wire, the first cover comprising a first positive temperature coefficient material; a thermally and electrically conductive coating disposed on the first cover, the coating forming one or more electrical paths for an electric current carried by the center bus wire to be conducted to the first radial bus wire through the first cover with a substantially uniform distribution of the electric current within the first PTC material of the first cover; and the first PTC material having a substantially higher resistance than the center wire, the first radial bus wire, and the coating; and a jacket disposed over and containing the center bus wire and the coating, characterized by the jacket comprising a metallic foil layer in electrical contact with the coating. a center bus wire extending axially along the heater cable; a first radial bus wire extending axially along the heater cable and positioned adjacent to the center bus wire; a first cover encapsulating the first radial bus wire, the first cover comprising a first positive temperature coefficient material; a thermally and electrically conductive coating disposed on the first cover, the coating forming one or more electrical paths for an electric current carried by the center bus wire to be conducted to the first radial bus wire through the first cover with a substantially uniform distribution of the electric current within the first PTC material of the first cover; and the first PTC material having a substantially higher resistance than the center wire, the first radial bus wire, and the coating; and a jacket disposed over and containing the center bus wire and the coating, characterized by the jacket comprising a metallic foil layer in electrical contact with the coating.
A seat backrest, comprising: a framework including an upper portion, a lower portion, a central support portion and two side portions formed integrally by injection molding a thermoplastic material; and an elongated reinforcement embedded in the side portion and the central support portion by overmolding and extending along the side portion, the reinforcement being configured to bend along a boundary between the side portion and the central support portion, wherein a part of the reinforcement, that is embedded in the side portion, is also bent in such a way that the whole cross section of the reinforcement is generally S-shaped and at least a part of the side portion, that is connected with the upper portion, includes a base wall and two side walls (31, 32) so as to have a generally U-shaped cross section, and the part of the reinforcement, that is embedded in the side portion, extends within the base wall and one of the side walls (31, 32) of the U shape, and extends to the central support portion in such a way that the whole cross section of the reinforcement is generally S-shaped.
Front engine attachment system for an engine of an aircraft, said engine having a longitudinal direction, the front engine attachment system having: - an engine pylon having an upper wall, a lower wall, two lateral walls (104c-d) and a front face corresponding to the front ends of the upper, lower and lateral walls (104a-d) and a frontal rib fastened against the front face, - a front engine attachment having a beam fastened to the front of the frontal rib, a first rod fastened in an articulated manner to the beam via two connection points (170a-b) and a second rod fastened in an articulated manner to the beam via one connection point, and - a front casing of the engine, wherein the first rod is fastened in an articulated manner to the front casing via a connection point and wherein the second rod is fastened in an articulated manner to the front casing via a connection point, characterized in that each point (170a-b, 170d) of connection of a rod (164, 166) to the beam is positioned inside a volume that extends the front face of the engine pylon towards the front along the longitudinal direction. - an engine pylon having an upper wall, a lower wall, two lateral walls (104c-d) and a front face corresponding to the front ends of the upper, lower and lateral walls (104a-d) and a frontal rib fastened against the front face, - a front engine attachment having a beam fastened to the front of the frontal rib, a first rod fastened in an articulated manner to the beam via two connection points (170a-b) and a second rod fastened in an articulated manner to the beam via one connection point, and - a front casing of the engine, wherein the first rod is fastened in an articulated manner to the front casing via a connection point and wherein the second rod is fastened in an articulated manner to the front casing via a connection point,
A method for controlling output torque of a motor for an electric vehicle in uphill mode, comprising the following steps: S1) detecting a tilt angle value θ, a current vehicle speed value V and an accelerator-pedal travel value Gain of the vehicle; S2) determining whether the vehicle is in uphill mode or not, and if yes going to step S3, otherwise going to step S4; S3) calculating a minimum torque T 1 required for preventing the vehicle from slipping backward under the tilt angle value θ and the current vehicle speed value V, obtaining a maximum output torque T 2 of the motor under the current vehicle speed value V, calculating an output torque T of the motor based on the minimum torque T 1, the maximum output torque T 2 and the accelerator-pedal travel value Gain; and going to step S5; S4) obtaining a maximum output torque T 2 of the motor under the current vehicle speed value V, calculating an output torque T of the motor based on the maximum output torque T 2 and the accelerator-pedal travel value Gain, and going to step S5; and S5) controlling the motor to output the calculated output torque T, characterized in that, in step S3 the current vehicle speed value V is further compared with a speed threshold V 0 and 0 respectively, and the minimum torque T 1 is calculated according to the result of comparisons and the following equation: T 1 = { 0; if V > V 0 − 1 + V − V 0 V 0 × T 0; if 0 ≤ V ≤ V 0 − T 0; if V < 0 wherein T 0 = mg sinθ × r k, m is total mass of the vehicle, g is the gravity acceleration, θ is the tilt angle value of the vehicle, r is radius of the wheels and k is a variable transmission ratio of the gearbox. S1) detecting a tilt angle value θ, a current vehicle speed value V and an accelerator-pedal travel value Gain of the vehicle; S2) determining whether the vehicle is in uphill mode or not, and if yes going to step S3, otherwise going to step S4; S3) calculating a minimum torque T 1 required for preventing the vehicle from slipping backward under the tilt angle value θ and the current vehicle speed value V, obtaining a maximum output torque T 2 of the motor under the current vehicle speed value V, calculating an output torque T of the motor based on the minimum torque T 1, the maximum output torque T 2 and the accelerator-pedal travel value Gain; and going to step S5; S4) obtaining a maximum output torque T 2 of the motor under the current vehicle speed value V, calculating an output torque T of the motor based on the maximum output torque T 2 and the accelerator-pedal travel value Gain, and going to step S5; and S5) controlling the motor to output the calculated output torque T,
A method of making a color sampling display product, the method comprising: providing an untreated paper substrate with a thickness of about 50 μm to about 125 μm and having at least a first major surface to which a coating composition can be applied; applying a film-forming amount of a radiation-curable coating composition comprising one or more polymers to the first surface of the untreated paper substrate to form a visually opaque colored film; and using electron beam radiation to cure the applied coating composition onto the first surface of the paper substrate, thereby forming an interpenetrating network of crosslinks between the one or more polymers in the coating composition, wherein the color sampling display product comprises a device for accurate display of one or more colors. providing an untreated paper substrate with a thickness of about 50 μm to about 125 μm and having at least a first major surface to which a coating composition can be applied; applying a film-forming amount of a radiation-curable coating composition comprising one or more polymers to the first surface of the untreated paper substrate to form a visually opaque colored film; and using electron beam radiation to cure the applied coating composition onto the first surface of the paper substrate, thereby forming an interpenetrating network of crosslinks between the one or more polymers in the coating composition, wherein the color sampling display product comprises a device for accurate display of one or more colors.
A reception apparatus comprising: face information acquisition means configured to acquire face information of a user; processing means configured to acquire reception information of the user, wherein the reception information comprises a content of conversation with the user; face matching means configured to match, against the face information of one user, the face information registered in a user information database in which user information including the face information of the user and the reception information is registered; and user information management means configured to, when a result of matching of the face information performed by the face matching means is unmatched, register the user information of the one user to the user information database, anonymously, wherein, when a result of matching of the face information performed by the face matching means is matched, the processing means is configured to output audio data or text data based on the user information of a user determined as the same person as the one user, wherein the reception apparatus having first identification information and another reception apparatus having second identification information are configured to synchronize and update, respectively, the user information through a server database. face information acquisition means configured to acquire face information of a user; processing means configured to acquire reception information of the user, wherein the reception information comprises a content of conversation with the user; face matching means configured to match, against the face information of one user, the face information registered in a user information database in which user information including the face information of the user and the reception information is registered; and user information management means configured to, when a result of matching of the face information performed by the face matching means is unmatched, register the user information of the one user to the user information database, anonymously, wherein, when a result of matching of the face information performed by the face matching means is matched, the processing means is configured to output audio data or text data based on the user information of a user determined as the same person as the one user, wherein the reception apparatus having first identification information and another reception apparatus having second identification information are configured to synchronize and update, respectively, the user information through a server database.
A casing for containing an electrode assembly, comprising: a casing material which is arranged such that an inner surface of the casing material defines a receiving portion corresponding to the shape of an electrode assembly; and a polymer sheet disposed on the inner surface of the casing material, characterized in that the polymer sheet having a hydrogen fluoride scavenger contained therein or disposed on a surface thereof, the polymer sheet is capable of dissolving at pH of 3 or less, the polymer sheet comprises: a polymer containing at least one of repeating units represented by Chemical Formula 1, Chemical Formula 2 or Chemical Formula 3: wherein each X in Chemical Formula 1 and Chemical Formula 2 is, independently, a single bond, a sulfone group, ether group, thioether group or a C1-C5 alkyl group; and Y in Chemical Formula 2 is a single bond, a sulfone group, ether group, thioether group or a C1-C5 alkyl group, and the HF scavenger is at least one selected from the group consisting of lithium cobalt oxide, lithium carbonate (Li 2 CO 3), sodium carbonate, calcium hydroxide, activated carbon, diatomaceous earth, perlite and zeolite. a casing material which is arranged such that an inner surface of the casing material defines a receiving portion corresponding to the shape of an electrode assembly; and a polymer sheet disposed on the inner surface of the casing material, characterized in that the polymer sheet having a hydrogen fluoride scavenger contained therein or disposed on a surface thereof, the polymer sheet is capable of dissolving at pH of 3 or less, the polymer sheet comprises: a polymer containing at least one of repeating units represented by Chemical Formula 1, Chemical Formula 2 or Chemical Formula 3: wherein each X in Chemical Formula 1 and Chemical Formula 2 is, independently, a single bond, a sulfone group, ether group, thioether group or a C1-C5 alkyl group; and Y in Chemical Formula 2 is a single bond, a sulfone group, ether group, thioether group or a C1-C5 alkyl group, and the HF scavenger is at least one selected from the group consisting of lithium cobalt oxide, lithium carbonate (Li 2 CO 3), sodium carbonate, calcium hydroxide, activated carbon, diatomaceous earth, perlite and zeolite. a polymer containing at least one of repeating units represented by Chemical Formula 1, Chemical Formula 2 or Chemical Formula 3: wherein each X in Chemical Formula 1 and Chemical Formula 2 is, independently, a single bond, a sulfone group, ether group, thioether group or a C1-C5 alkyl group; and Y in Chemical Formula 2 is a single bond, a sulfone group, ether group, thioether group or a C1-C5 alkyl group, and the HF scavenger is at least one selected from the group consisting of lithium cobalt oxide, lithium carbonate (Li 2 CO 3), sodium carbonate, calcium hydroxide, activated carbon, diatomaceous earth, perlite and zeolite.
A sheet conveyance apparatus that conveys a sheet fed out of an upstream sheet processing apparatus to a downstream sheet processing apparatus, the sheet conveyance apparatus comprising: a conveying unit configured to convey the sheet; a conveying unit drive mechanism configured to drive the conveying unit; a sheet accumulation area in which the sheet fed out of the upstream sheet processing apparatus is accumulated on the conveying unit; and a control unit configured to control conveyance of the sheet performed by the conveying unit, wherein the control unit includes a counter unit configured to count a number of sheets accumulated in the sheet accumulation area, characterised in that when a conveyance instruction signal for conveying the sheet from the sheet accumulation area is received and the number of the sheets currently accumulated in the sheet accumulation area is counted to be one by the counter unit, the control unit stops conveyance of the one sheet without conveying the one sheet from the sheet accumulation area until a next sheet is guided onto the one sheet. a conveying unit configured to convey the sheet; a conveying unit drive mechanism configured to drive the conveying unit; a sheet accumulation area in which the sheet fed out of the upstream sheet processing apparatus is accumulated on the conveying unit; and a control unit configured to control conveyance of the sheet performed by the conveying unit, wherein the control unit includes a counter unit configured to count a number of sheets accumulated in the sheet accumulation area, characterised in that when a conveyance instruction signal for conveying the sheet from the sheet accumulation area is received and the number of the sheets currently accumulated in the sheet accumulation area is counted to be one by the counter unit, the control unit stops conveyance of the one sheet without conveying the one sheet from the sheet accumulation area until a next sheet is guided onto the one sheet.
A particle filter for diesel and petrol engines, having a filter unit and a housing, in which the filter unit is accommodated, the filter unit having a multiplicity of metallic filter tubes, which are arranged parallel to each other, are closed on their end face assigned to the inlet side of the particle filter and are open on their end face assigned to the outlet side of the particle filter, characterised in that the filter tubes of the filter unit are shaped on their end faces assigned to the inlet side of the particle filter in such a manner that a flow cross section of the particle filter is gradually reduced in the direction (2, 3) of an exhaust gas stream flowing through said particle filter.
A method, comprising: receiving a sound from a loudspeaker at each of a plurality of microphones (160 A-N); determining an acoustic model comprising a plurality of acoustic transfer functions between the loudspeaker and each of the microphones (160 A-N); receiving, by one or more processors, said acoustic model; monitoring the location of at least one acoustic element that produces sound; determining, by the one or more processors, a respective acoustic transfer function corresponding to each of said microphones (160 A-N) based at least in part on the acoustic model and the location of the at least one acoustic element; receiving an acoustic signal from each of the microphones (160 A-N); and multiplying, by one or more processors, each of the received acoustic signals with the inverse of the corresponding acoustic transfer function of the respective microphone. receiving a sound from a loudspeaker at each of a plurality of microphones (160 A-N); determining an acoustic model comprising a plurality of acoustic transfer functions between the loudspeaker and each of the microphones (160 A-N); receiving, by one or more processors, said acoustic model; monitoring the location of at least one acoustic element that produces sound; determining, by the one or more processors, a respective acoustic transfer function corresponding to each of said microphones (160 A-N) based at least in part on the acoustic model and the location of the at least one acoustic element; receiving an acoustic signal from each of the microphones (160 A-N); and multiplying, by one or more processors, each of the received acoustic signals with the inverse of the corresponding acoustic transfer function of the respective microphone.
A fluid distribution device comprising: a riser having a first end and a second end; a cap operatively connected to the second end of the riser, wherein the cap includes an inner surface and an outer surface with a plurality of holes defined between the inner and outer surface; and at least one distribution arm extending radially outward from the cap, wherein the at least one distribution arm has an interior surface and an exterior surface, and wherein the at least one distribution arm includes a plurality of holes between the interior surface and the exterior surface, wherein the at least one distribution arm is bounded by a respective top wall defining a top surface, and two respective side walls, wherein the top surface defines a longitudinal axis, and wherein the at least one distribution arm is at least one of (i) partially enclosed by a bottom wall connecting between the two side walls, wherein the bottom wall is inclined relative to the longitudinal axis, or (ii) open between the two side walls opposite from the top wall. a riser having a first end and a second end; a cap operatively connected to the second end of the riser, wherein the cap includes an inner surface and an outer surface with a plurality of holes defined between the inner and outer surface; and at least one distribution arm extending radially outward from the cap, wherein the at least one distribution arm has an interior surface and an exterior surface, and wherein the at least one distribution arm includes a plurality of holes between the interior surface and the exterior surface, wherein the at least one distribution arm is bounded by a respective top wall defining a top surface, and two respective side walls, wherein the top surface defines a longitudinal axis, and wherein the at least one distribution arm is at least one of (i) partially enclosed by a bottom wall connecting between the two side walls, wherein the bottom wall is inclined relative to the longitudinal axis, or (ii) open between the two side walls opposite from the top wall.