mhurhangee/ep-ind-claims huggingface dataset:
A seatbelt retractor for a seat belt device in a vehicle, the retractor comprising: a frame; a spool configured to be fixed to one end of a webbing so that the webbing may be wound around the spool, the spool being rotatably mounted at both ends to the frame and configured to rotate in a webbing extraction direction and a webbing retraction direction; a primary torsion bar positioned in the spool, a first end of the primary torsion bar being coupled to a torsion bar cam and a second end of the primary torsion bar being connected to a pinion, wherein the torsion bar cam is configured to engage the spool; a secondary torsion bar positioned in the spool, a first end of the secondary torsion bar being connected to the torsion bar cam and a second end of the secondary torsion bar being engaged with a locking mechanism mounted to the frame; wherein the primary and secondary torsion bars (60, 61) are configured to be locked at the second ends and the first ends are configured to rotate relative to the second ends so that the primary and secondary torsion bars (60, 61) deform to absorb force, characterized by a pretensioner coupled to the second end of the primary torsion bar via the pinion, the pretensioner configured to rotate the pinion in a webbing retraction direction when the pretensioner activates in response to an acceleration of the vehicle greater than a predetermined high acceleration a frame; a spool configured to be fixed to one end of a webbing so that the webbing may be wound around the spool, the spool being rotatably mounted at both ends to the frame and configured to rotate in a webbing extraction direction and a webbing retraction direction; a primary torsion bar positioned in the spool, a first end of the primary torsion bar being coupled to a torsion bar cam and a second end of the primary torsion bar being connected to a pinion, wherein the torsion bar cam is configured to engage the spool; a secondary torsion bar positioned in the spool, a first end of the secondary torsion bar being connected to the torsion bar cam and a second end of the secondary torsion bar being engaged with a locking mechanism mounted to the frame; wherein the primary and secondary torsion bars (60, 61) are configured to be locked at the second ends and the first ends are configured to rotate relative to the second ends so that the primary and secondary torsion bars (60, 61) deform to absorb force, characterized by a pretensioner coupled to the second end of the primary torsion bar via the pinion, the pretensioner configured to rotate the pinion in a webbing retraction direction when the pretensioner activates in response to an acceleration of the vehicle greater than a predetermined high acceleration
A diaphragm diagnostic system for use in an industrial field device comprising: an isolating diaphragm (116; 306; 502; 602; 702; 800; 912) configured to couple a field device to a process fluid, the diaphragm comprising a plurality of layers, a first layer of the plurality of layers configured to be exposed to the process fluid of an industrial process and wherein the plurality of layers comprises at least two electrically conductive layers and at least one dielectric layer separating the at least two electrically conductive layers, such that the diaphragm comprises a capacitive element; and a diagnostic circuit (504; 604) coupled to the diaphragm and configured to monitor an electrical parameter of the diaphragm, and responsively to diagnose an operative state of the diaphragm from inoperative to fully operative as inferred from a change in the monitored electrical parameter. an isolating diaphragm (116; 306; 502; 602; 702; 800; 912) configured to couple a field device to a process fluid, the diaphragm comprising a plurality of layers, a first layer of the plurality of layers configured to be exposed to the process fluid of an industrial process and wherein the plurality of layers comprises at least two electrically conductive layers and at least one dielectric layer separating the at least two electrically conductive layers, such that the diaphragm comprises a capacitive element; and a diagnostic circuit (504; 604) coupled to the diaphragm and configured to monitor an electrical parameter of the diaphragm, and responsively to diagnose an operative state of the diaphragm from inoperative to fully operative as inferred from a change in the monitored electrical parameter.
A heat exchanger, comprising: a tube (20, 30, 50) comprising a first aluminum alloy; and a plurality of fins in thermally conductive contact with the exterior of said tube (20, 30, 50), said fins formed from a second aluminum alloy comprising a base alloy selected from the group consisting of AA1100, AA8006, and AA8011 and zinc or magnesium in an amount sufficient to provide said second aluminum alloy with an electrochemical solution potential of at least 10 mV more negative than the electrochemical solution potential of said first aluminum alloy, as determined according to ASTM G69. a tube (20, 30, 50) comprising a first aluminum alloy; and a plurality of fins in thermally conductive contact with the exterior of said tube (20, 30, 50), said fins formed from a second aluminum alloy comprising a base alloy selected from the group consisting of AA1100, AA8006, and AA8011 and zinc or magnesium in an amount sufficient to provide said second aluminum alloy with an electrochemical solution potential of at least 10 mV more negative than the electrochemical solution potential of said first aluminum alloy, as determined according to ASTM G69.
A power cable comprising a conductor surrounded by one or more layers, wherein at least one of said layer(s) comprises a crosslinkable polymer composition comprising a polyolefin, peroxide and a phenolic sulphur containing antioxidant, wherein said peroxide is present in an amount which corresponds to Xmmol -O-O-/kg polymer composition and said phenolic sulphur containing antioxidant is present in an amount which corresponds to Y mmol-OH /kg polymer composition, wherein Y 1 ≤ Y ≤ Y 2, X < 35 and 0.9 ∗ Y + m ≤ X ≤ n − k ∗ Y, wherein Y 1 is 0.50 and Y 2 is 10, and m is 0.8, n is 70 and k is 4.7; and wherein said polymer composition has a melt flow rate (MFR 2) which is at least 1.7 g /10 min (ISO 1133), and said polymer composition comprises less than 0.05 % by weight (wt%) 2,4-Diphenyl-4-methyl-1-pentene. Y 1 is 0.50 and Y 2 is 10, and m is 0.8, n is 70 and k is 4.7; and wherein said polymer composition has a melt flow rate (MFR 2) which is at least 1.7 g /10 min (ISO 1133), and said polymer composition comprises less than 0.05 % by weight (wt%) 2,4-Diphenyl-4-methyl-1-pentene.
An electrical connector assembly, comprising: a terminal having a first surface defining a plurality of ridges protruding from the first surface, wherein a first ridge in the plurality of ridges has a first height above the first surface and is configured to provide a first electrical contact point between the terminal and a corresponding mating terminal, wherein a second ridge in the plurality of ridges has a second height above the first surface that is lower than the first height, and wherein the second ridge in the plurality of ridges is configured to provide a plurality of second electrical contact points between the terminal and the corresponding mating terminal after the first electrical contact point is degraded by fretting, wherein the first surface defines a plurality of indentations recessed below the first surface, wherein the plurality of ridges is arranged on perimeters of the plurality of indentations, and wherein the plurality of ridges is formed by material displaced from the plurality of indentations.
A semiconductor package structure, comprising: a first electronic component on a substrate; a second electronic component stacked on the first electronic component, wherein an active surface of the first electronic component faces an active surface of the second electronic component; a molding compound on the first electronic component and surrounding the second electronic component; a third electronic component stacked on the second electronic component and the molding compound; characterised in that the semiconductor package structure further comprises a dielectric layer between the substrate and the molding compound and surrounding the first electronic component; a conductive layer on the dielectric layer, wherein a bottom surface of a portion of the conductive layer is positioned over the first electronic component, and a bottom surface of another portion of the conductive layer is positioned below the first electronic component; and an additional dielectric layer on the substrate, wherein the first electronic component is attached to the additional dielectric layer and wherein the conductive layer is electrically connected to conductive layers of the substrate through openings in the additional dielectric layer. a first electronic component on a substrate; a second electronic component stacked on the first electronic component, wherein an active surface of the first electronic component faces an active surface of the second electronic component; a molding compound on the first electronic component and surrounding the second electronic component; a third electronic component stacked on the second electronic component and the molding compound; characterised in that the semiconductor package structure further comprises a dielectric layer between the substrate and the molding compound and surrounding the first electronic component; a conductive layer on the dielectric layer, wherein a bottom surface of a portion of the conductive layer is positioned over the first electronic component, and a bottom surface of another portion of the conductive layer is positioned below the first electronic component; and an additional dielectric layer on the substrate, wherein the first electronic component is attached to the additional dielectric layer and wherein the conductive layer is electrically connected to conductive layers of the substrate through openings in the additional dielectric layer.
A media support, comprising a sheet of suction cups each having a port through which air may be evacuated from the cup; and wherein the sheet includes a front surface and a back surface and each suction cup includes a rim that protrudes above the front surface of the sheet; and characterized in that: wherein the rim is formed at the perimeter of a flexible ring surrounding the port in space such that the ring may flex into the space away from the front surface of the sheet when a media supported on the sheet is sucked onto the rim.
Blow molding apparatus for producing plastic bottles (40, 71a, 71b, 71c, 72a, 72b) by means of stretch blow molding, wherein the blow mold comprises at least one blow mold (1, 101) for the production of plastic bottles (40, 71a, 71b, 71c, 71c, 72a, 72b) by means of stretch blow molding, wherein the plastic bottles (40, 71a, 71b, 71c, 72a, 72b) each comprise at least one bottle bottom, one bottle neck and one mouth region; wherein the at least one blow mold (1, 101) in a closed state of at least one blow mold (1, 101) forms an interior space (6, 23) with a cavity, wherein the interior space extends along a longitudinal direction from a mouth section for the mouth region to a mold bottom for the formation of the bottle bottom; wherein a body length (B1, B2) of the cavity is adjustable in the longitudinal direction between a neck section of the cavity for the formation of the bottle neck and the mold bottom so that at least one blow mold (1, 101) for the production of plastic bottles (40, 71a, 71b, 71b, 72a, 72b) with different volumes is formed; and wherein the at least one blow mold (1, 101) is laterally openable across a total length of the interior space (6, 23) in the longitudinal direction, characterized in that the at least one blow mold (1, 101) is set up to automatically adjust the body length (B1, B2), and that the blow molding apparatus is set up to automatically adjust a total stroke of a stretch mandrel for the stretch blow molding of the respective plastic bottle in at least one blow mold (1, 101) depending on the body length (B1, B2). wherein the at least one blow mold (1, 101) in a closed state of at least one blow mold (1, 101) forms an interior space (6, 23) with a cavity, wherein the interior space extends along a longitudinal direction from a mouth section for the mouth region to a mold bottom for the formation of the bottle bottom; wherein a body length (B1, B2) of the cavity is adjustable in the longitudinal direction between a neck section of the cavity for the formation of the bottle neck and the mold bottom so that at least one blow mold (1, 101) for the production of plastic bottles (40, 71a, 71b, 71b, 72a, 72b) with different volumes is formed; and wherein the at least one blow mold (1, 101) is laterally openable across a total length of the interior space (6, 23) in the longitudinal direction, characterized in that the at least one blow mold (1, 101) is set up to automatically adjust the body length (B1, B2), and that the blow molding apparatus is set up to automatically adjust a total stroke of a stretch mandrel for the stretch blow molding of the respective plastic bottle in at least one blow mold (1, 101) depending on the body length (B1, B2).
Process for producing a metal mould provided with at least one structured surface bearing a pattern or ornamental motif obtained by applying, to the surface of an initial mould, a first protective layer that reproduces said pattern or ornamental motif and subsequently treating the surface thus prepared with a corrosive substance suitable to create corroded portions, distinct from the uncorroded portions coinciding with said protective layer, characterised in that it also provides applying, directly onto the aforesaid uncorroded portions of the surface of the mould, a second protective layer and subsequent treating the said surface thus obtained with a matting substance, suitable to form a structured surface having corroded portions with a different degree of gloss to that of the aforesaid uncorroded portions, wherein said protective layer is removed from said surface of the mould after said corrosive substance has been applied and said protective layer is removed from said surface of the mould after said matting substance has been applied.
A carburizing and quenching facility that includes: a treatment chamber (2, 3, 3a, 3b, 3c, 4) where at least one treatment related to a carburizing and quenching treatment is performed on an object to be treated; a transfer apparatus to transfer an object to be treated; a mounting table that is provided in the treatment chamber (2, 3, 3a, 3b, 3c, 4) and on which an object to be treated transferred into the treatment chamber (2, 3, 3a, 3b, 3c, 4) is mounted; and a lifting and lowering device to lift and lower the mounting table and in which a transfer arm to transfer an object to be treated into the treatment chamber (2, 3, 3a, 3b, 3c, 4) and outside the treatment chamber (2, 3, 3a, 3b, 3c, 4) is provided in the transfer apparatus and a carburizing and quenching treatment of an object to be treated is performed, the carburizing and quenching facility comprising: a turntable that is disposed in the treatment chamber (2, 3, 3a, 3b, 3c, 4) and performs deliveries of an object to be treated to and from the mounting table and the transfer arm; and a turntable drive device that rotates the turntable, wherein the turntable includes: a first support part that supports an object to be treated that has already undergone a treatment; and a second support part that supports an object to be treated to undergo a treatment next, wherein on at least one of the first support part and the second support part, at least three turntable support pins to support the object to be treated are provided, and in plan view, the turntable is provided in a positional relationship such that the first support part, a support post of the turntable, and the second support part are disposed in a linear arrangement so as to sandwich a rotation axis of the turntable by the first support part and the second support part. a turntable that is disposed in the treatment chamber (2, 3, 3a, 3b, 3c, 4) and performs deliveries of an object to be treated to and from the mounting table and the transfer arm; and a turntable drive device that rotates the turntable, wherein the turntable includes: a first support part that supports an object to be treated that has already undergone a treatment; and a second support part that supports an object to be treated to undergo a treatment next, wherein on at least one of the first support part and the second support part, at least three turntable support pins to support the object to be treated are provided, and in plan view, the turntable is provided in a positional relationship such that the first support part, a support post of the turntable, and the second support part are disposed in a linear arrangement so as to sandwich a rotation axis of the turntable by the first support part and the second support part.
A detachable modulized battery charging assembly, comprising: a plurality of charging units, for charging a plurality of rechargeable batteries of electric vehicles while the rechargeable batteries are detachably inserted therein; a managing unit, connected to each of the charging units, for controlling the charging units, recording charging statuses of the rechargeable batteries, and confirming identification of a user; and a user interface unit, connected to the managing unit, for communicating with the user; wherein the charging units, the managing unit and the user interface unit are modulized according to sections, characterized in that the charging units, the managing unit and the user interface unit are each individually formed in a rectangular cuboid shaped housing, and can be stacked vertically and horizontally together to form an array of m x n sections, and m and n are integers, or the managing unit and the user interface unit are together formed in a first housing having a rectangular cuboid shape and can be stacked vertically and horizontally with the charging units which are individually formed in a second housing having a rectangular cuboid shape to form an array of m x n sections, and m and n are integers. a plurality of charging units, for charging a plurality of rechargeable batteries of electric vehicles while the rechargeable batteries are detachably inserted therein; a managing unit, connected to each of the charging units, for controlling the charging units, recording charging statuses of the rechargeable batteries, and confirming identification of a user; and a user interface unit, connected to the managing unit, for communicating with the user;
A discharge system comprising - a plurality of discharge tracks for beverage containers, - an apparatus for discharging beverage containers from a moving transport device with beverage containers standing consecutively on it, the apparatus having a discharge device for the pushed discharging of selected beverage containers in perpendicular or obliquely to a conveying direction of the transport device, wherein the discharge device is formed by a position-controlled linear drive, the linear drive is coupled with a control device, and the beverage containers are pushable laterally from the transport device onto the plurality of discharge tracks by means of the position-controlled linear drive, which takes the form of a slider, characterised in that the discharge system has - a cleaning machine as well as - a container, wherein a discharge track is formed as a transport belt, which returns the beverage containers to the cleaning machine, and wherein a further discharge track is formed as a further transport belt, which forwards the beverage containers into the container, which container is positioned below the further transport belt. - a plurality of discharge tracks for beverage containers, - an apparatus for discharging beverage containers from a moving transport device with beverage containers standing consecutively on it, the apparatus having a discharge device for the pushed discharging of selected beverage containers in perpendicular or obliquely to a conveying direction of the transport device, wherein the discharge device is formed by a position-controlled linear drive, the linear drive is coupled with a control device, and the beverage containers are pushable laterally from the transport device onto the plurality of discharge tracks by means of the position-controlled linear drive, which takes the form of a slider, - a cleaning machine as well as - a container, wherein
A three-dimensional printing system for fabricating a three-dimensional article comprising: a motorized build platform; a dispensing module; an imaging module including: a pulsed light source; a two-dimensional mirror array defining N rows of mirrors and M columns of mirrors; a movement mechanism for imparting lateral motion between the imaging module and the build platform; and a controller configured to: operate the motorized build platform and the dispensing module to form a layer of build material at a build plane; operate the movement mechanism to scan the imaging module over the build plane at a velocity V; operate the pulsed light source to generate a sequence of radiation pulses that illuminate the mirror array, the radiation pulses individually having a time duration of δT, the radiation pulses are emitted at a frequency of 1/T, during a single scan a location on the build plane is addressed by a plurality of different mirrors; and operate the mirror array to selectively image the build material by controlling individual mirrors to have one of an ON state and an OFF state during the pulses. a motorized build platform; a dispensing module; an imaging module including: a pulsed light source; a two-dimensional mirror array defining N rows of mirrors and M columns of mirrors; a pulsed light source; a two-dimensional mirror array defining N rows of mirrors and M columns of mirrors; a movement mechanism for imparting lateral motion between the imaging module and the build platform; and a controller configured to: operate the motorized build platform and the dispensing module to form a layer of build material at a build plane; operate the movement mechanism to scan the imaging module over the build plane at a velocity V; operate the pulsed light source to generate a sequence of radiation pulses that illuminate the mirror array, the radiation pulses individually having a time duration of δT, the radiation pulses are emitted at a frequency of 1/T, during a single scan a location on the build plane is addressed by a plurality of different mirrors; and operate the mirror array to selectively image the build material by controlling individual mirrors to have one of an ON state and an OFF state during the pulses. operate the motorized build platform and the dispensing module to form a layer of build material at a build plane; operate the movement mechanism to scan the imaging module over the build plane at a velocity V; operate the pulsed light source to generate a sequence of radiation pulses that illuminate the mirror array, the radiation pulses individually having a time duration of δT, the radiation pulses are emitted at a frequency of 1/T, during a single scan a location on the build plane is addressed by a plurality of different mirrors; and operate the mirror array to selectively image the build material by controlling individual mirrors to have one of an ON state and an OFF state during the pulses.