mhurhangee/ep-ind-claims huggingface dataset:
A torsional vibration damper comprising: a first rotation member; a second rotation member (7, 8) provided coaxially with said first rotation member; an elastic member provided between said first rotation member and said second rotation member (7, 8), and being elastically deformable in a rotation direction of said first rotation member; a cam member provided coaxially with said first rotation member, rotating integrally with said first rotation member, and having a cam surface that is changed in diameter in said rotation direction; a torque transmission member coming in contact with said cam surface and transmitting rotation torque between said first rotation member and said second rotation member (7, 8); a socket member provided between said torque transmission member and said elastic member, holding an end of said elastic member on a side of said torque transmission member, and having a contact surface coming in contact with said torque transmission member, said torque transmission member elastically compressing said elastic member in said rotation direction when the entire torque transmission member moves outward in the radial direction of said first rotation member in accordance with rotation of said cam member; characterized by said second rotation member being configured as disk plates (7, 8) and said disk plates (7, 8) being provided with fitting holes, respectively, extending in the radial directions of said disk plates (7, 8) and said fitting holes guiding the entire torque transmission member in a radial direction of said first rotation member. a first rotation member; a second rotation member (7, 8) provided coaxially with said first rotation member; an elastic member provided between said first rotation member and said second rotation member (7, 8), and being elastically deformable in a rotation direction of said first rotation member; a cam member provided coaxially with said first rotation member, rotating integrally with said first rotation member, and having a cam surface that is changed in diameter in said rotation direction; a torque transmission member coming in contact with said cam surface and transmitting rotation torque between said first rotation member and said second rotation member (7, 8); a socket member provided between said torque transmission member and said elastic member, holding an end of said elastic member on a side of said torque transmission member, and having a contact surface coming in contact with said torque transmission member, said torque transmission member elastically compressing said elastic member in said rotation direction when the entire torque transmission member moves outward in the radial direction of said first rotation member in accordance with rotation of said cam member;
An apparatus for evaluating a heat-resisting property of a separator, the apparatus comprising: a separator fixing unit configured to fix the separator; a nail configured to be positioned to be perpendicular to the separator on one surface of the separator and to penetrate the separator by a vertical movement; a heating unit configured to heat the nail; and a temperature measuring unit configured to measure a temperature of the separator penetrated by the nail, characterized in that the temperature measuring unit includes a thermal imaging camera. a separator fixing unit configured to fix the separator; a nail configured to be positioned to be perpendicular to the separator on one surface of the separator and to penetrate the separator by a vertical movement; a heating unit configured to heat the nail; and a temperature measuring unit configured to measure a temperature of the separator penetrated by the nail, characterized in that the temperature measuring unit includes a thermal imaging camera.
A method for manufacturing a part of a wind turbine blade, the part having a longitudinal length, wherein the part comprises a first flange (70a, 70b) substantially defined along a first flange plane and a second flange substantially defined along a second flange plane, said second flange plane arranged substantially transverse to said first flange plane, the method comprising the steps of: pultruding composite material through at least one die to form a part of a wind turbine blade having a cross-sectional profile; characterized in that the method further comprises the steps of performing an in-line shaping of said part to adjust the cross-sectional profile of said part along at least a portion of the longitudinal length of the part, wherein said in-line shaping comprises adjusting a pultrusion path for the composite material to provide a part of a wind turbine blade having a cross-sectional profile which varies along at least a portion of the longitudinal length of the part, wherein the method comprises the step of providing a guide flange having a profile to define the direction of a pultrusion path downstream of said at least one die, and wherein said step of in-line shaping comprises adjusting the profile and/or orientation of said guide flange to provide a part of a wind turbine blade having a cross-sectional profile which varies along at least a portion of the longitudinal length of the part, and wherein said adjustable guide flange is arranged to shape the orientation of the second flange of said part relative to the first flange of said part, wherein said adjustable guide flange is arranged to adjust the angle of said second flange relative to said first flange along the length of said part. pultruding composite material through at least one die to form a part of a wind turbine blade having a cross-sectional profile; characterized in that the method further comprises the steps of performing an in-line shaping of said part to adjust the cross-sectional profile of said part along at least a portion of the longitudinal length of the part, wherein said in-line shaping comprises adjusting a pultrusion path for the composite material to provide a part of a wind turbine blade having a cross-sectional profile which varies along at least a portion of the longitudinal length of the part, wherein the method comprises the step of providing a guide flange having a profile to define the direction of a pultrusion path downstream of said at least one die, and wherein said step of in-line shaping comprises adjusting the profile and/or orientation of said guide flange to provide a part of a wind turbine blade having a cross-sectional profile which varies along at least a portion of the longitudinal length of the part, and wherein said adjustable guide flange is arranged to shape the orientation of the second flange of said part relative to the first flange of said part, wherein said adjustable guide flange is arranged to adjust the angle of said second flange relative to said first flange along the length of said part.
A cooling apparatus, comprising: a shared cooling device for cooling one or more systems or components; a plurality of primary cooling pathways, wherein each of the primary cooling pathways is in fluid communication with the shared cooling device, wherein each of the primary cooling pathways comprises a fan (340, 345), and wherein each fan (340, 345) is in fluid communication with the shared cooling device via the fan's (340, 345) respective primary cooling pathway, and wherein each fan (340, 345) is configured to draw air from the shared cooling device; a shared connector in fluid communication with the shared cooling device, wherein the shared connector is in fluid communication with each of the primary cooling pathways; wherein each of the primary cooling pathways further comprises a transition duct (320, 325), wherein: the transition duct (320, 325) is in fluid communication with the shared cooling device; and the transition duct is in fluid communication with the fan (340, 345) of the primary cooling pathway; and characterized by one or more secondary cooling pathways, wherein each of the one or more secondary cooling pathways comprises: a conduit (350, 355) in fluid communication with the transition duct (320, 325) of one of the primary cooling pathways; and a distributed cooling device (360, 365) in fluid communication with the conduit (350, 355). a shared cooling device for cooling one or more systems or components; a plurality of primary cooling pathways, wherein each of the primary cooling pathways is in fluid communication with the shared cooling device, wherein each of the primary cooling pathways comprises a fan (340, 345), and wherein each fan (340, 345) is in fluid communication with the shared cooling device via the fan's (340, 345) respective primary cooling pathway, and wherein each fan (340, 345) is configured to draw air from the shared cooling device; a shared connector in fluid communication with the shared cooling device, wherein the shared connector is in fluid communication with each of the primary cooling pathways; wherein each of the primary cooling pathways further comprises a transition duct (320, 325), wherein: the transition duct (320, 325) is in fluid communication with the shared cooling device; and the transition duct is in fluid communication with the fan (340, 345) of the primary cooling pathway; and characterized by the transition duct (320, 325) is in fluid communication with the shared cooling device; and the transition duct is in fluid communication with the fan (340, 345) of the primary cooling pathway; and characterized by one or more secondary cooling pathways, wherein each of the one or more secondary cooling pathways comprises: a conduit (350, 355) in fluid communication with the transition duct (320, 325) of one of the primary cooling pathways; and a distributed cooling device (360, 365) in fluid communication with the conduit (350, 355). a conduit (350, 355) in fluid communication with the transition duct (320, 325) of one of the primary cooling pathways; and a distributed cooling device (360, 365) in fluid communication with the conduit (350, 355).
Method for determining an arrangement of a sample object in an optical device, comprising: - illuminating the sample object from at least one first illumination direction (1051, 1052), - illuminating the sample object from at least one second illumination direction (1051, 1052), - carrying out a correlation between data (111, 112, 120, 121, 122) which are indicative of at least one section of an image (111, 112, 113) of the sample object under illumination from the at least one first illumination direction (1051, 1052) and data (111, 112, 120, 121, 122) which are indicative of at least one section of an image (111, 112, 113) of the sample object under illumination from the at least one second illumination direction (1051, 1052), characterized by - calculating the arrangement of the sample object in relation to a focal plane of the optical device on the basis of the correlation and on the basis of a first angle, which is associated with the at least one first illumination direction (1051, 1052), and a second angle, which is associated with the at least one second illumination direction (1051, 1052). - illuminating the sample object from at least one first illumination direction (1051, 1052), - illuminating the sample object from at least one second illumination direction (1051, 1052), - carrying out a correlation between data (111, 112, 120, 121, 122) which are indicative of at least one section of an image (111, 112, 113) of the sample object under illumination from the at least one first illumination direction (1051, 1052) and data (111, 112, 120, 121, 122) which are indicative of at least one section of an image (111, 112, 113) of the sample object under illumination from the at least one second illumination direction (1051, 1052), - calculating the arrangement of the sample object in relation to a focal plane of the optical device on the basis of the correlation and on the basis of a first angle, which is associated with the at least one first illumination direction (1051, 1052), and a second angle, which is associated with the at least one second illumination direction (1051, 1052).
Process for the production of [2-(4-fluoro-benzyl)-phenyl]-acetic acid, comprising the subsequent steps a) through e): a) reacting phthalic anhydride with fluorobenzene in a Friedel Crafts reaction using fluorobenzene itself as solvent and aluminium chloride as the Lewis acid at reflux temperature, wherein aluminium chloride is used in a molar ratio related to phthalic anhydride >2:1; b) over reducing the product obtained in step a) at the ketone moiety using hydrogen gas, optionally in the presence of a Pd/C catalyst and using isopropanol ( i PrOH) as solvent; c) reducing the product obtained in step b) with 2.3 equivalents of sodium dihydro-bis (2-methoxyethoxy) aluminate (Red-Al) to the corresponding alcohol; d) chlorinating the alcohol obtained in step c) using aqueous hydrochloric acid as the chlorinating agent at 90 °C in a closed vessel; e) inserting CO into the product obtained in step d) through an appropriate Pd-containing catalytic system by reacting with CO in a mixture of THF and H 2 O in the presence of a) sodium acetate, K 2 CO 3 or Et 3 N and b) triphenylphosphine a) reacting phthalic anhydride with fluorobenzene in a Friedel Crafts reaction using fluorobenzene itself as solvent and aluminium chloride as the Lewis acid at reflux temperature, wherein aluminium chloride is used in a molar ratio related to phthalic anhydride >2:1; b) over reducing the product obtained in step a) at the ketone moiety using hydrogen gas, optionally in the presence of a Pd/C catalyst and using isopropanol ( i PrOH) as solvent; c) reducing the product obtained in step b) with 2.3 equivalents of sodium dihydro-bis (2-methoxyethoxy) aluminate (Red-Al) to the corresponding alcohol; d) chlorinating the alcohol obtained in step c) using aqueous hydrochloric acid as the chlorinating agent at 90 °C in a closed vessel; e) inserting CO into the product obtained in step d) through an appropriate Pd-containing catalytic system by reacting with CO in a mixture of THF and H 2 O in the presence of a) sodium acetate, K 2 CO 3 or Et 3 N and b) triphenylphosphine
A maintenance apparatus comprising: a flexible carriage shaped as a thin elongated strip of flexible material capable of anchoring between adjacent airfoils of a turbine assembly; a maintenance tool operably coupled with the elongated strip of flexible material between a first end of the elongated strip of flexible material and a second end of the elongated strip of flexible material, the maintenance tool configured to one or more of generate image data representative of one or more surfaces of the turbine assembly or repair the one or more surfaces of the turbine assembly; and one or more motors operably coupled with the maintenance tool and configured to move the maintenance tool relative to the flexible carriage. a flexible carriage shaped as a thin elongated strip of flexible material capable of anchoring between adjacent airfoils of a turbine assembly; a maintenance tool operably coupled with the elongated strip of flexible material between a first end of the elongated strip of flexible material and a second end of the elongated strip of flexible material, the maintenance tool configured to one or more of generate image data representative of one or more surfaces of the turbine assembly or repair the one or more surfaces of the turbine assembly; and one or more motors operably coupled with the maintenance tool and configured to move the maintenance tool relative to the flexible carriage.
A camera module, characterized by: a first body; a second body coupled to the first body; a lens part coupled to the second body, and comprising a lens barrel and at least one lens disposed inner the lens barrel; a circuit board part disposed an inner space formed by the first body and the second body; a image sensor disposed on the circuit board part; a focus adjusting unit formed on the second body for moving and fixing the lens part or the circuit board part in an optical axis direction (C L) of the lens part; wherein a distance to the optical axis direction (C L) between the lens part and the image sensor is adjusted by the focus adjusting unit and characterized in that it further comprises a lens fixing unit moving the lens barrel relative to the second body. a first body; a second body coupled to the first body; a lens part coupled to the second body, and comprising a lens barrel and at least one lens disposed inner the lens barrel; a circuit board part disposed an inner space formed by the first body and the second body; a image sensor disposed on the circuit board part; a focus adjusting unit formed on the second body for moving and fixing the lens part or the circuit board part in an optical axis direction (C L) of the lens part; wherein a distance to the optical axis direction (C L) between the lens part and the image sensor is adjusted by the focus adjusting unit and characterized in that it further comprises a lens fixing unit moving the lens barrel relative to the second body.
A circular acoustic membrane having an upper surface and an opposite lower surface, said membrane being intended to be coupled at the lower surface thereof, to a mobile winding via a support, - the membrane having a concentric annular fold delimiting in the membrane, a circular central portion and an annular peripheral portion; - the central portion having a concavity turned towards the upper surface; and - the internal edge of the fold being carried by the lower surface and comprising an attachment surface intended for the coupling of said support of the coil characterized in that the tangent to the lower surface of the central portion at a point located on the edge of the fold and the tangent to the lower surface of the annular portion at the same point, form an acute angle between them. - the membrane having a concentric annular fold delimiting in the membrane, a circular central portion and an annular peripheral portion; - the central portion having a concavity turned towards the upper surface; and - the internal edge of the fold being carried by the lower surface and comprising an attachment surface intended for the coupling of said support of the coil
A surgical system, comprising: an end effector, comprising: an ultrasonic blade; and a capturing arm, wherein the capturing arm is movable to capture tissue against the ultrasonic blade; a transducer configured to generate ultrasonic energy for transmission to the ultrasonic blade; clamping means for clamping the tissue captured by the capturing arm against the ultrasonic blade; and mounting means, wherein the mounting means are configured to mount the clamping means to the end effector characterized in that the mounting means is removably coupled to the end effector. an end effector, comprising: an ultrasonic blade; and a capturing arm, wherein the capturing arm is movable to capture tissue against the ultrasonic blade; an ultrasonic blade; and a capturing arm, wherein the capturing arm is movable to capture tissue against the ultrasonic blade; a transducer configured to generate ultrasonic energy for transmission to the ultrasonic blade; clamping means for clamping the tissue captured by the capturing arm against the ultrasonic blade; and mounting means, wherein the mounting means are configured to mount the clamping means to the end effector characterized in that the mounting means is removably coupled to the end effector.
An electronic audio device comprising: a device having an enclosure that comprises a front wall, a back wall, a bottom wall, a flat panel display and an acoustic output opening formed through the bottom wall; a speaker positioned within the enclosure and having a sound emitting surface; and an acoustic output duct connecting the speaker to the acoustic output opening in the bottom wall of the enclosure, the acoustic output duct including a face and a sidewall connected to the face, the acoustic output duct having a damping chamber at a position upstream from the speaker and an exit port at a position downstream from the speaker and wherein a length of the acoustic output duct is greater than its width and the face extends from the damping chamber to the exit port. a device having an enclosure that comprises a front wall, a back wall, a bottom wall, a flat panel display and an acoustic output opening formed through the bottom wall; a speaker positioned within the enclosure and having a sound emitting surface; and an acoustic output duct connecting the speaker to the acoustic output opening in the bottom wall of the enclosure, the acoustic output duct including a face and a sidewall connected to the face, the acoustic output duct having a damping chamber at a position upstream from the speaker and an exit port at a position downstream from the speaker and wherein a length of the acoustic output duct is greater than its width and the face extends from the damping chamber to the exit port.
A tamping unit for tamping a track, having tamping tines which are designed for immersion into a ballast bed and can be set in vibrations by means of a vibration drive, wherein the vibration drive comprises a housing in which a shaft including an eccentric is arranged for rotation about a shaft axis and wherein a transmission element for transmitting a vibratory motion is mounted on the eccentric, characterized in that the eccentric is connected to the shaft in a rotation-locked and radially displaceable manner, and that the position of the eccentric relative to the shaft is adjustable in radial direction by means of an adjustment device.
A method for controlling the coupling, by coupling means of a vehicle, of a first shaft, driven by a machine associated with energy storage means and producing a torque, to a second shaft, suitable to drive wheels of said vehicle in rotation, said method including a step (i) in which said machine is operated so that it drives said first shaft at substantially a set speed, then said coupling means are acted upon so that they start a coupling with said second shaft, and a step (ii) in which said machine is operated so that it provides a selected set torque and said coupling means are acted upon so that they establish a coupling between said first and second shafts, characterized in that in said step (ii), when said coupling means are not able to establish said coupling, there is added to said set torque an additional torque, alternately decreasing and increasing, or vice versa, and having a variation amplitude increasing from one alternation to the other, until the provided torque permits a resumption of said coupling, then this supplied torque is maintained substantially constant until said coupling is effectively terminated.