mhurhangee/ep-ind-claims huggingface dataset:
A molding system configured to manufacture a molded article by using a molding material, the molding system comprising a mold-cavity system for forming, in use, the molded article, the mold-cavity system including a movable-mold assembly having a base portion, a top portion, a neck portion and a core portion, and a stationary-mold assembly having a cavity portion, a gate portion, a nub region and a mold gate, wherein a primary parting line is defined between the cavity portion and the neck portion, and a secondary parting line is defined between the neck portion and the top portion; an ejector actuator configured to actuate a stripper assembly to which the neck portion is coupled; a controller operatively coupling to a mold-moving actuator and having a controller-usable memory tangibly embodying a set of controller-executable instructions configured to direct the controller, the set of controller-executable instructions including a mold-open instruction configured to cause initial separation of the top portion and the neck portion relative to the secondary parting line, while keeping the primary parting line un-opened by activating the ejector actuator to urge the neck portion towards the cavity portion during the initial separation and while maintaining at least some clamp force of a clamp, wherein the mold-open instruction is further configured to cause the clamp to cease applying clamp force. a movable-mold assembly having a base portion, a top portion, a neck portion and a core portion, and a stationary-mold assembly having a cavity portion, a gate portion, a nub region and a mold gate, wherein a primary parting line is defined between the cavity portion and the neck portion, and a secondary parting line is defined between the neck portion and the top portion;
A process for the production of paper, board and cardboard by draining a paper stock on a wire in the presence of at least one polymer as a retention aid with sheet formation and drying of the sheets, wherein the sheet formation is carried out in the absence of finely divided inorganic flocculants and (a) cationic polymers comprising vinylamine units, obtainable by hydrolysis of poly-N-vinylformamides, and having a molar mass M w of at least 1.2 million, which are prepared by homopolymerization of N-vinylformamide to give poly-N-vinylformamide and subsequent hydrolysis of the polymerized vinylformamide units to vinylamine units, where the degree of hydrolysis of these polymers is from 1 to 50%, and where the polymers have a charge density (determined at pH 7) of from 0.2 to 4 meq/g, and (b) at least one cationic polyacrylamide and/or one cationic polymethacrylamide having a molar mass M w of, in each case, at least 3 million, where the cationic polyacrylamides or the cationic polymethacrylamides comprise from 7 to 30 mol% of at least one cationic monomer incorporated in the form of polymerized units, and where the cationic poly(meth)acrylamides comprise at least one cationic monomer in the form of the free bases, salts and/or in quaternized form from the group dimethylaminoethyl acrylate and dimethylaminoethyl methacrylate incorporated in the form of polymerized units are used as retention aids, where from 0.25 to 0.4 part by weight of component (b) is used per part by weight of component (a). (a) cationic polymers comprising vinylamine units, obtainable by hydrolysis of poly-N-vinylformamides, and having a molar mass M w of at least 1.2 million, which are prepared by homopolymerization of N-vinylformamide to give poly-N-vinylformamide and subsequent hydrolysis of the polymerized vinylformamide units to vinylamine units, where the degree of hydrolysis of these polymers is from 1 to 50%, and where the polymers have a charge density (determined at pH 7) of from 0.2 to 4 meq/g, and (b) at least one cationic polyacrylamide and/or one cationic polymethacrylamide having a molar mass M w of, in each case, at least 3 million, where the cationic polyacrylamides or the cationic polymethacrylamides comprise from 7 to 30 mol% of at least one cationic monomer incorporated in the form of polymerized units, and where the cationic poly(meth)acrylamides comprise at least one cationic monomer in the form of the free bases, salts and/or in quaternized form from the group dimethylaminoethyl acrylate and dimethylaminoethyl methacrylate incorporated in the form of polymerized units are used as retention aids, where from 0.25 to 0.4 part by weight of component (b) is used per part by weight of component (a).
A polymeric container comprising: a closure; a base; a body extending from the base; and a finish defining an opening through which a product can pass into, and out of, an internal volume of the container defined at least in part by the body; finish threads at an outer surface of the finish that are configured to cooperate with closure threads of a closure to secure the closure to the finish, the finish is devoid of a support flange; a tamper lip extending from the outer surface of the finish, the tamper lip configured to cooperate with a tamper tab of the closure; wherein the tamper lip is configured for supporting a preform of the polymeric container during blow molding of the preform; wherein a gripper flange is arranged between the tamper lip and the finish threads; and characterized in that each one of the finish threads extends only once around the finish; in that the closure includes a main body, threads cooperating with the finish threads, a frangible tamper band being connected to the main body at perforated area/ring, and a tamper tab extending from the frangible tamper band inward into the closure, the tamper tab being sized and shaped to pass over the tamper lip of the finish when the closure is being secured to the finish, the tamper tab remaining under the tamper lip so that the main body will separate from the frangible tamper band at the perforated ring upon unscrewing the closure. a closure; a base; a body extending from the base; and a finish defining an opening through which a product can pass into, and out of, an internal volume of the container defined at least in part by the body; finish threads at an outer surface of the finish that are configured to cooperate with closure threads of a closure to secure the closure to the finish, the finish is devoid of a support flange; a tamper lip extending from the outer surface of the finish, the tamper lip configured to cooperate with a tamper tab of the closure; wherein the tamper lip is configured for supporting a preform of the polymeric container during blow molding of the preform; wherein a gripper flange is arranged between the tamper lip and the finish threads; and characterized in that each one of the finish threads extends only once around the finish; in that the closure includes a main body, threads cooperating with the finish threads, a frangible tamper band being connected to the main body at perforated area/ring, and a tamper tab extending from the frangible tamper band inward into the closure, the tamper tab being sized and shaped to pass over the tamper lip of the finish when the closure is being secured to the finish, the tamper tab remaining under the tamper lip so that the main body will separate from the frangible tamper band at the perforated ring upon unscrewing the closure.
A pneumatic tire having an indicator designating a mounting direction with respect to a vehicle, the pneumatic tire comprising: an outer shoulder main groove, an outer center main groove, an inner center main groove, and an inner shoulder main groove extending in a tire circumferential direction; and an outer shoulder land portion, an outer second land portion, a center land portion, an inner second land portion, and an inner shoulder land portion defined by the main grooves (21, 22, 23, 24), the outer second land portion, the center land portion, and the inner second land portion comprising a road contact surface that partially bulges toward an outer side in a tire radial direction from a reference contour line of a tread profile in a cross-sectional view in a tire meridian direction, characterized in that, a groove width Wg1 of the outer shoulder main groove, a groove width Wg3 of the inner center main groove, and a groove width Wg4 of the inner shoulder main groove having a relationship of Wg3 < Wg1 < Wg4, 1.05 ≤ Wg1/Wg3 ≤ 1.25, and 1.10 ≤ Wg4/Wg3 ≤ 1.30. an outer shoulder main groove, an outer center main groove, an inner center main groove, and an inner shoulder main groove extending in a tire circumferential direction; and an outer shoulder land portion, an outer second land portion, a center land portion, an inner second land portion, and an inner shoulder land portion defined by the main grooves (21, 22, 23, 24), the outer second land portion, the center land portion, and the inner second land portion comprising a road contact surface that partially bulges toward an outer side in a tire radial direction from a reference contour line of a tread profile in a cross-sectional view in a tire meridian direction, characterized in that, a groove width Wg1 of the outer shoulder main groove, a groove width Wg3 of the inner center main groove, and a groove width Wg4 of the inner shoulder main groove having a relationship of Wg3 < Wg1 < Wg4, 1.05 ≤ Wg1/Wg3 ≤ 1.25, and 1.10 ≤ Wg4/Wg3 ≤ 1.30.
A terminal apparatus that communicates with a base station apparatus, comprising: a reception unit configured to receive, from the base station apparatus, a Radio Resource Control, RRC, message configuring a Radio Access Network-based, RAN-based, notification area; and a processing unit configured to perform, in a case where the terminal apparatus is in RRC_INACTIVE state, an update procedure of the RAN-based notification area upon the terminal apparatus moving out of the RAN-based notification area, wherein the RAN-based notification area is specified based on one or more tracking area codes and one or more identities of cells, and each of the cells belongs to a tracking area. a reception unit configured to receive, from the base station apparatus, a Radio Resource Control, RRC, message configuring a Radio Access Network-based, RAN-based, notification area; and a processing unit configured to perform, in a case where the terminal apparatus is in RRC_INACTIVE state, an update procedure of the RAN-based notification area upon the terminal apparatus moving out of the RAN-based notification area, wherein the RAN-based notification area is specified based on one or more tracking area codes and one or more identities of cells, and each of the cells belongs to a tracking area.
A digital printer comprising: - a digital printing unit for digital non-impact printing an image onto a printing substrate during a reciprocating operation in the fast scan direction of a print head shuttle; - a support frame to guide and support the print head shuttle during the reciprocating operation; - a printing table (2,12) for holding the printing substrate during the digital printing; characterised in that the digital printer further comprises means for firmly fixing the printing table (2,12) to the support frame in a printing position, defined by the throwing distance of the print heads in the print head shuttle, during the digital printing of the image onto the printing substrate and for releasing the printing table (2,12) from the support frame prior to and after the digital non-impact printing of the image onto the printing substrate. - a digital printing unit for digital non-impact printing an image onto a printing substrate during a reciprocating operation in the fast scan direction of a print head shuttle; - a support frame to guide and support the print head shuttle during the reciprocating operation; - a printing table (2,12) for holding the printing substrate during the digital printing; characterised in that the digital printer further comprises means for firmly fixing the printing table (2,12) to the support frame in a printing position, defined by the throwing distance of the print heads in the print head shuttle, during the digital printing of the image onto the printing substrate and for releasing the printing table (2,12) from the support frame prior to and after the digital non-impact printing of the image onto the printing substrate.
Apparatus for providing internet connectivity to a plurality of clients, comprising: a modem for connecting the client with the Internet; a routing unit for redirecting the internet connectivity to a plurality of clients; characterised in that the apparatus further comprises: a storage being configured to store a plurality of lists of unified resource locations, wherein each of the lists corresponds to a plurality of web pages and each of the lists corresponds to one of the plurality of clients; and a local web cache comprising a cache of the plurality of web pages, wherein the web cache is adapted to automatically carry out an update of the cache when a time limit is reached. a modem for connecting the client with the Internet; a routing unit for redirecting the internet connectivity to a plurality of clients; characterised in that the apparatus further comprises: a storage being configured to store a plurality of lists of unified resource locations, wherein each of the lists corresponds to a plurality of web pages and each of the lists corresponds to one of the plurality of clients; and a local web cache comprising a cache of the plurality of web pages, wherein the web cache is adapted to automatically carry out an update of the cache when a time limit is reached.
An apparatus for cleaning a back surface of a substrate, comprising: a substrate holder configured to rotate the substrate while holding the substrate with the back surface facing upward; a scrub cleaning tool configured to be rotatable; a two-fluid nozzle disposed above the substrate holder, the two-fluid nozzle being configured to generate a two-fluid jet, which is a mixture of a liquid and a gas and to deliver the two-fluid jet to the back surface of the substrate; and a housing defining a cleaning chamber in which the substrate holder, the scrub cleaning tool, and the two-fluid nozzle are located. a substrate holder configured to rotate the substrate while holding the substrate with the back surface facing upward; a scrub cleaning tool configured to be rotatable; a two-fluid nozzle disposed above the substrate holder, the two-fluid nozzle being configured to generate a two-fluid jet, which is a mixture of a liquid and a gas and to deliver the two-fluid jet to the back surface of the substrate; and a housing defining a cleaning chamber in which the substrate holder, the scrub cleaning tool, and the two-fluid nozzle are located.
A computer implemented method comprising: forming a blur map of images (48a, 48b, 48c) of a focal stack by estimating a blur between each pixel and a corresponding pixel in another image of the focal stack; generating a relative depth map by comparing thresholded blur maps, wherein the pixels with similar blur level are classified as the same depth level, and wherein each of the images (48a, 48b, 48c) have a set of in-focus pixels; characterized in that the computer implemented method further comprises: applying an image matting technique on images (48a, 48b, 48c) for producing matting maps, wherein in-focus pixels of an image are used as foreground indication, and the in-focus pixels in all other images are used as background indication; comparing the matting maps with the threshold to extract foreground and background regions of images; forming and displaying foreground regions merged into one image as segment regions for selection of at least one segment region; and fusing a focal stack of images into a refocused image, wherein the refocused image comprises selected segment regions from at least two of the images (48a, 48b, 48c) of the focal stack. forming a blur map of images (48a, 48b, 48c) of a focal stack by estimating a blur between each pixel and a corresponding pixel in another image of the focal stack; generating a relative depth map by comparing thresholded blur maps, wherein the pixels with similar blur level are classified as the same depth level, and wherein each of the images (48a, 48b, 48c) have a set of in-focus pixels; characterized in that the computer implemented method further comprises: applying an image matting technique on images (48a, 48b, 48c) for producing matting maps, wherein in-focus pixels of an image are used as foreground indication, and the in-focus pixels in all other images are used as background indication; comparing the matting maps with the threshold to extract foreground and background regions of images; forming and displaying foreground regions merged into one image as segment regions for selection of at least one segment region; and fusing a focal stack of images into a refocused image, wherein the refocused image comprises selected segment regions from at least two of the images (48a, 48b, 48c) of the focal stack. applying an image matting technique on images (48a, 48b, 48c) for producing matting maps, wherein in-focus pixels of an image are used as foreground indication, and the in-focus pixels in all other images are used as background indication; comparing the matting maps with the threshold to extract foreground and background regions of images; forming and displaying foreground regions merged into one image as segment regions for selection of at least one segment region; and fusing a focal stack of images into a refocused image, wherein the refocused image comprises selected segment regions from at least two of the images (48a, 48b, 48c) of the focal stack.
An apparatus (400; 800) for controlling transmission bit rates of uplink video sessions of a cellular sector of a wireless network, the apparatus comprising: a processor (410; 802) and a memory (420; 804), the processor configured to: receive wireless uplink resource information indicative of an amount of wireless uplink resources available for supporting uplink video sessions within the cellular sector; receive uplink video session information identifying a plurality of uplink video sessions active within the cellular sector and comprising a plurality of transmission bit rates of the respective uplink video sessions active within the cellular sector; and in response to a condition associated with the cellular sector, determine a modified transmission bit rate for one of the respective uplink video sessions active within the cellular sector using the wireless uplink resource information and the uplink video session information. a processor (410; 802) and a memory (420; 804), the processor configured to: receive wireless uplink resource information indicative of an amount of wireless uplink resources available for supporting uplink video sessions within the cellular sector; receive uplink video session information identifying a plurality of uplink video sessions active within the cellular sector and comprising a plurality of transmission bit rates of the respective uplink video sessions active within the cellular sector; and in response to a condition associated with the cellular sector, determine a modified transmission bit rate for one of the respective uplink video sessions active within the cellular sector using the wireless uplink resource information and the uplink video session information. receive wireless uplink resource information indicative of an amount of wireless uplink resources available for supporting uplink video sessions within the cellular sector; receive uplink video session information identifying a plurality of uplink video sessions active within the cellular sector and comprising a plurality of transmission bit rates of the respective uplink video sessions active within the cellular sector; and in response to a condition associated with the cellular sector, determine a modified transmission bit rate for one of the respective uplink video sessions active within the cellular sector using the wireless uplink resource information and the uplink video session information.
An electrical connector (100; 200; 300; 400) that is suitable for connecting to an electrical module, the electrical connector comprising: • an insulating body (113; 213; 313; 413); • at least one connector pin (112A, 112B; 232A, 212B; 312A, 312B; 412A, 412B) that projects from said insulating body (113; 213; 313; 413); and • a lock (120; 220; 320; 420) that is secured to said insulating body (113; 213; 313; 413) and that includes a first holding hook (123; 223; 323; 423) that is suitable for co-operating, in retention, with a first catch element of the casing of said electrical module; said lock (120; 220; 320; 420) comprising a main stationary portion (122; 222; 322; 422) that is secured to said insulating body (113; 213; 313; 413), and a movable portion (121; 221; 321; 421) to which the first holding hook (123; 223; 323; 423) belongs, which movable portion is suitable for sliding along the longitudinal axis of the lock (120; 220; 320; 420) relative to its said stationary portion (122; 222; 322; 422); the electrical connector being characterized in that the movable portion (121; 221; 321; 421) includes a second holding hook (124; 224; 324; 424) that is suitable for co-operating, in retention, with a second catch element of the casing of said electrical module. • an insulating body (113; 213; 313; 413); • at least one connector pin (112A, 112B; 232A, 212B; 312A, 312B; 412A, 412B) that projects from said insulating body (113; 213; 313; 413); and • a lock (120; 220; 320; 420) that is secured to said insulating body (113; 213; 313; 413) and that includes a first holding hook (123; 223; 323; 423) that is suitable for co-operating, in retention, with a first catch element of the casing of said electrical module;
A nozzle repairing method of repairing an instrumentation nozzle in which an in-core instrument tube is inserted into an attachment hole formed in a semi-spherical portion of a nuclear reactor vessel and an inner surface side of the semi-spherical portion, which is an area around the attachment hole, is groove-welded so as to fix the in-core instrument tube, the nozzle repairing method comprising: removing (S17, S40) a connection portion connected to the in-core instrument tube, the connection portion being a part of a groove-welding portion of the area around the attachment hole; removing (S18, S41) the in-core instrument tube which is inserted in the attachment hole, of which the connection portion is removed, from the semi-spherical portion; removing (S19, S42) a part of the groove-welding portion, which is an area except the connection portion, and processing (S21, S44) a plug attachment portion which has a support surface configured to support a bottom surface of a plug; fixing (S22, S45) the plug by inserting the plug in the plug attachment portion so that the plug fills the plug attachment portion, and supporting the plug by the support surface; sealing the plug attachment portion and the attachment hole by welding (S23, S46) an outer surface of the plug and an inner surface of the semi-spherical portion. removing (S17, S40) a connection portion connected to the in-core instrument tube, the connection portion being a part of a groove-welding portion of the area around the attachment hole; removing (S18, S41) the in-core instrument tube which is inserted in the attachment hole, of which the connection portion is removed, from the semi-spherical portion; removing (S19, S42) a part of the groove-welding portion, which is an area except the connection portion, and processing (S21, S44) a plug attachment portion which has a support surface configured to support a bottom surface of a plug; fixing (S22, S45) the plug by inserting the plug in the plug attachment portion so that the plug fills the plug attachment portion, and supporting the plug by the support surface; sealing the plug attachment portion and the attachment hole by welding (S23, S46) an outer surface of the plug and an inner surface of the semi-spherical portion.