mhurhangee/ep-ind-claims huggingface dataset:
A method for the automated preparation of crown-shaped tart shells, comprising the conveying on a conveyor of crown-shaped recesses, the method comprising successively an extrusion step, a deposition step and a lining step, wherein: - the extrusion step comprises the filling of at least one cell of a rotary cell support cylinder with dough; - the deposition step comprises the ejection of the dough rolls (P') out of the rotary cell support cylinder and the deposition on a shell of each recess of at least two separate dough rolls; and - the lining step comprises the crushing of the dough rolls deposited in each recess by means of a matrix complementary in shape to the recess in order to form a dough covering at least the shell of the recess. - the extrusion step comprises the filling of at least one cell of a rotary cell support cylinder with dough; - the deposition step comprises the ejection of the dough rolls (P') out of the rotary cell support cylinder and the deposition on a shell of each recess of at least two separate dough rolls; and - the lining step comprises the crushing of the dough rolls deposited in each recess by means of a matrix complementary in shape to the recess in order to form a dough covering at least the shell of the recess.
A bias tire comprising: a carcass, as a frame, made up of at least one ply (2A, 2B), including a plurality of cords (Cb), extending between a pair of bead portions,; a pair of sidewall portions on an outer side, in a tire radial direction, of the bead portions; and a tread extending between the sidewall portions; characterised in that: a reinforcement layer formed by a plurality of cords is disposed so as to cover at least a portion of a tire circumferential edge (BEi) on an inner side, in the tire radial direction, of an innermost ply of the carcass only in that tire half portion (HFa) on a side where a cord (Cb) of a tire circumferential end portion on the inner side, in the tire radial direction, of the innermost ply, is inclined so as to diverge from the tire equator as the innermost ply extends in the tire circumferential direction towards the tire circumferential edge (BEi). a carcass, as a frame, made up of at least one ply (2A, 2B), including a plurality of cords (Cb), extending between a pair of bead portions,; a pair of sidewall portions on an outer side, in a tire radial direction, of the bead portions; and a tread extending between the sidewall portions; characterised in that: a reinforcement layer formed by a plurality of cords is disposed so as to cover at least a portion of a tire circumferential edge (BEi) on an inner side, in the tire radial direction, of an innermost ply of the carcass only in that tire half portion (HFa) on a side where a cord (Cb) of a tire circumferential end portion on the inner side, in the tire radial direction, of the innermost ply, is inclined so as to diverge from the tire equator as the innermost ply extends in the tire circumferential direction towards the tire circumferential edge (BEi).
An event notification method of an access and mobility management function, AMF, in a wireless communication system, the event notification method comprising: receiving, from a session management function, SMF, a subscribe message for a notification subscribe to a mobility event of a user equipment, UE, wherein the subscribe message includes an identifier, ID, of the UE and an event filter for filtering the mobility event; performing a registration procedure for the UE; and when the mobility event filtered by the event filter happens in the registration procedure, completing the registration procedure of a notification message for the mobility event and then sending the notification message to the SMF, characterized in that if the subscribe message includes an indicator indicating a maintenance of a connected mode of the UE, the AMF maintains the connected mode of the UE for a predetermined time after the registration procedure is completed. receiving, from a session management function, SMF, a subscribe message for a notification subscribe to a mobility event of a user equipment, UE, wherein the subscribe message includes an identifier, ID, of the UE and an event filter for filtering the mobility event; performing a registration procedure for the UE; and when the mobility event filtered by the event filter happens in the registration procedure, completing the registration procedure of a notification message for the mobility event and then sending the notification message to the SMF, characterized in that if the subscribe message includes an indicator indicating a maintenance of a connected mode of the UE, the AMF maintains the connected mode of the UE for a predetermined time after the registration procedure is completed.
Synchronizing joint for the angularly adjustable drive-connection of a cylinder block and a driveshaft of a hydrostatic bent axis piston unit, which synchronizing joint has a shank which is rotatable about its longitudinal axis defining a joint axis, on both ends of the shank roller carriers project radially and basically perpendicular to the joint axis, on each roller carrier a roller is provided rotatable around a roller axis, characterized in that the rollers are secured in axial direction against slipping-off of the roller carriers by means of an embossed area located axially outside of the roller on the respective distal end portion of the roller carrier, wherein the embossed area is a welding point, a welding dash or a welding line along the circumferential direction of the roller carrier or a burr.
A pouch with a continuous edge or plurality of edges (3,5,6,7), said pouch comprising plurality of weakened lines (8,9,10) starting from the continuous edge or from one of the edges; characterised in that said plurality of weakened lines (8,9,10) are at least partly non-linear and at least two lines converge to form a single weakened line.
A method for manufacturing a component of a gas turbine engine, the method comprising: applying a mask (516, 616, 716) to a surface of the component (500, 600, 700), the component having a designated surface (510, 610, 710) to be treated by a shot peen operation, wherein the mask is applied to a protected surface (512, 612, 712) of the component, the mask comprising a full masking portion (528, 628, 728) configured to prevent a shot peen media from impacting the protected surface beneath the full masking portion; the method being characterised by arranging a masking control region (526, 626, 726) of the mask around the designated surface, wherein the masking control region is configured to control an amount of force imparted to the component by shot peen media during the shot peen operation, wherein the masking control region extends from the full masking portion to the designated surface; and by shot peening, with the shot peen media the designated surface with a full intensity shot peen stream to form a compressive stress region (514, 614, 714) within the component proximate the designated surface and shot peening the masking control region with an overspray shot peen stream to form a tapering transition (522, 622, 722) of compressive forces within the component proximate the masking control region. applying a mask (516, 616, 716) to a surface of the component (500, 600, 700), the component having a designated surface (510, 610, 710) to be treated by a shot peen operation, wherein the mask is applied to a protected surface (512, 612, 712) of the component, the mask comprising a full masking portion (528, 628, 728) configured to prevent a shot peen media from impacting the protected surface beneath the full masking portion; the method being characterised by arranging a masking control region (526, 626, 726) of the mask around the designated surface, wherein the masking control region is configured to control an amount of force imparted to the component by shot peen media during the shot peen operation, wherein the masking control region extends from the full masking portion to the designated surface; and by shot peening, with the shot peen media the designated surface with a full intensity shot peen stream to form a compressive stress region (514, 614, 714) within the component proximate the designated surface and shot peening the masking control region with an overspray shot peen stream to form a tapering transition (522, 622, 722) of compressive forces within the component proximate the masking control region.
Apparatus for use at a heart of a subject, the apparatus comprising: a delivery tool dimensioned for percutaneous delivery to the heart, the delivery tool having a distal portion that defines a central longitudinal axis at the distal portion and comprises: a shaft; and a proximal capsule and a distal capsule, each of the capsules: having a respective open end, the open end of the proximal capsule facing the open end of the distal capsule, and coupled to the shaft in a manner that allows axial movement of the capsule with respect to the shaft, along the central longitudinal axis at the distal portion; and a prosthetic heart valve comprising: a tubular portion that defines a lumen; and a plurality of prosthetic leaflets disposed within the lumen, wherein: the prosthetic heart valve is restrainable in a compressed state by the delivery tool, such that a downstream end of the tubular portion is disposed within the distal capsule, characterized in that the distal capsule is shaped so as to define an opening for visualizing ensheathing of at least a portion of the downstream end of the tubular portion within the distal capsule. a delivery tool dimensioned for percutaneous delivery to the heart, the delivery tool having a distal portion that defines a central longitudinal axis at the distal portion and comprises: a shaft; and a proximal capsule and a distal capsule, each of the capsules: having a respective open end, the open end of the proximal capsule facing the open end of the distal capsule, and coupled to the shaft in a manner that allows axial movement of the capsule with respect to the shaft, along the central longitudinal axis at the distal portion; and a shaft; and a proximal capsule and a distal capsule, each of the capsules: having a respective open end, the open end of the proximal capsule facing the open end of the distal capsule, and coupled to the shaft in a manner that allows axial movement of the capsule with respect to the shaft, along the central longitudinal axis at the distal portion; and having a respective open end, the open end of the proximal capsule facing the open end of the distal capsule, and coupled to the shaft in a manner that allows axial movement of the capsule with respect to the shaft, along the central longitudinal axis at the distal portion; and a prosthetic heart valve comprising: a tubular portion that defines a lumen; and a plurality of prosthetic leaflets disposed within the lumen, a tubular portion that defines a lumen; and a plurality of prosthetic leaflets disposed within the lumen, the prosthetic heart valve is restrainable in a compressed state by the delivery tool, such that a downstream end of the tubular portion is disposed within the distal capsule, characterized in that the distal capsule is shaped so as to define an opening for visualizing ensheathing of at least a portion of the downstream end of the tubular portion within the distal capsule.
A method for compensating an asymmetric configuration of parasite flying units on an all-wing carrier aircraft, characterised in that it comprises the steps of: - determining the non-compensated parasite; - reading the drag value of the non-compensated parasite; - selecting a parasite for effecting the compensation; - activating drag producing means on selected parasite to compensate the drag of the non-compensated parasite. - determining the non-compensated parasite; - reading the drag value of the non-compensated parasite; - selecting a parasite for effecting the compensation; - activating drag producing means on selected parasite to compensate the drag of the non-compensated parasite.
A method of producing ultra high molecular weight (UHMW) C 4 -C 30 α-olefin drag reducing agent comprising: polymerizing in a reactor a first α-olefin monomer in the presence of a catalyst and a hydrocarbon solvent to produce the UHMW C 4 -C 30 α-olefin polymer DRA, where the catalyst consists essentially of: at least one tertiary monophenyl amine selected from the group consisting of N,N-diethylaniline, N-ethyl-N-methylparatolylamine, N,N-dipropylaniline, N,N-diethylmesitylamine, and combinations thereof; at least one titanium halide having a formula TiX m, where m is from 2.5 to 4.0 and X is a halogen containing moiety; and at least one cocatalyst which is an organoaluminum compound having a formula AlR n Y 3-n where R is a hydrocarbon radical, Y is a halogen or hydrogen, and n is 1-3, where the catalyst is absent of a carrier or support. at least one tertiary monophenyl amine selected from the group consisting of N,N-diethylaniline, N-ethyl-N-methylparatolylamine, N,N-dipropylaniline, N,N-diethylmesitylamine, and combinations thereof; at least one titanium halide having a formula TiX m, where m is from 2.5 to 4.0 and X is a halogen containing moiety; and at least one cocatalyst which is an organoaluminum compound having a formula AlR n Y 3-n where R is a hydrocarbon radical, Y is a halogen or hydrogen, and n is 1-3, where the catalyst is absent of a carrier or support.
A sporting implement comprising: a recovery gel, the recovery gel forming a film, the recovery gel being compressible, shape recoverable, and pressurized to a predetermined pressure and configured to provide an integrated agent for filling cracks that appear during use of the sporting implement.
An RFID reading device comprising a second device, in particular an antenna, and a coaxial connection to the second device and at least one first adapter device for measuring the signal power in the coaxial connection, the first adapter device comprising a first coaxial connector and a second coaxial connector for inserting the first adapter device into the coaxial connection and a measuring unit configured for determining the signal power of a signal propagating from the first coaxial connector to the second coaxial connector and/or vice versa, wherein the first coaxial connector and the second coaxial connector are detachable so that the first adapter device can be selectively inserted into or removed from the coaxial connection, and wherein the first adapter device is inserted into the coaxial connection with its first coaxial connector and second coaxial connector at an end of the section of the coaxial connection to be measured which is remote with respect to the RFID reading device.
A method of establishing a shift point for shifting an automatic transmission in a powered vehicle from a first gear ratio to a second gear ratio, the transmission having a controller, comprising: receiving engine torque data from a data bus electrically coupled to the controller; calculating a gear step value based on the first gear ratio and the second gear ratio; wherein the method is characterised by determining a first speed value based on the calculated gear step value and an engine speed at peak engine torque determined by the controller; comparing the first speed value to a full load governing speed of an engine; and setting the shift point to approximately the full load governing speed if the first speed value is greater than or equal to the full load governing speed as a result of the comparison. receiving engine torque data from a data bus electrically coupled to the controller; calculating a gear step value based on the first gear ratio and the second gear ratio; wherein the method is characterised by determining a first speed value based on the calculated gear step value and an engine speed at peak engine torque determined by the controller; comparing the first speed value to a full load governing speed of an engine; and setting the shift point to approximately the full load governing speed if the first speed value is greater than or equal to the full load governing speed as a result of the comparison.
An amount of irradiated microparticles for use in a method of treating renal neoplastic conditions in a subject, said method comprising subjecting the subject to selective internal radiation therapy (SIRT), wherein a prescribed activity of the irradiated microparticles used in the SIRT is 0.02 to 3.5 GBq, and wherein the irradiated microparticles are yttrium-90 polymeric microspheres, characterised in that the SIRT delivers a radiation dose between 200 and 800 Gy to a site of treatment in the kidney.
A device for checking the end positions of movable parts of a railway switch, comprising a detection rod capable of being coupled to a movable part, and a detection housing comprising a transmission having an input member interacting with the detection rod and a linearly moved output member, said output member interacting with at least one end position switch for checking the two end positions of the movable railway switch part, wherein the transmission comprises a lever whose first lever arm is driven by the input member and whose second lever arm drives the output member, wherein the transmission is configured to shorten the linear path of the output member relative to the switching path of the detection rod, characterized in that the output member is configured as a linearly guided slide, wherein the slide comprises at least two switching flanks in axially spaced-apart relationship for actuating the at least one end position switch (11,12).
A dielectric liquid selected from the group consisting of naphthenic mineral oil, paraffinic mineral oil, natural ester, synthetic ester, synthetic iso-paraffin, or a mixture of any thereof for a transformer containing 1-10 % by weight of an additive consisting of one or more compounds selected from diphenylether, diphenylethane, methylbiphenyl, dimethylbiphenyl, ethylbiphenyl, trimethylnapthalene, ethylmethylnapthalene, propylnaphthalene, isopropylnapthalene, isopropylmethylnaphthalene and diethylnapthalene.
A method for estimating porosity associated with organic matter in a well or formation, comprising: (a) obtaining scanning electron microscope or focused ion beam -SEM images (505, 506) for a plurality of rock samples obtained from a well or formation; (b) determining porosity associated with organic matter (PAOM), total porosity (PHIT), and organic matter content, from the SEM or FIB-SEM images; (c) determining maximum apparent transformation ratio for the plurality of rock samples using equation: ATR = PAOM/(PAOM+OM), wherein the PAOM and OM are determined in (b); (d) curve-fitting a ratio of the PAOM to the PHIT and the TOC for at least three data points obtained in (b) to generate at least one of a mathematical function equation or cross-plot thereof; (e) determining total porosity (PHIT) and organic matter content for a sample of a location along a length of a logged wellbore or core sample of the well or formation; (f) computing a first PAOM for the sample of the logged wellbore or core sample using the mathematical function equation or cross-plot generated using the total porosity (PHIT) and the organic matter content determined in (e); (g) computing a second PAOM for the sample of the logged wellbore or core sample using equation: PAOM = ATR x OM/(1-ATR), wherein the ATR is determined in (c) and the OM is determined in (e); (h) comparing the first PAOM calculated from (f) with the second PAOM calculated in (g); and (i) selecting the first PAOM calculated unless the first PAOM is greater than the second PAOM wherein the second PAOM is selected. (a) obtaining scanning electron microscope or focused ion beam -SEM images (505, 506) for a plurality of rock samples obtained from a well or formation; (b) determining porosity associated with organic matter (PAOM), total porosity (PHIT), and organic matter content, from the SEM or FIB-SEM images; (c) determining maximum apparent transformation ratio for the plurality of rock samples using equation: ATR = PAOM/(PAOM+OM), wherein the PAOM and OM are determined in (b); (d) curve-fitting a ratio of the PAOM to the PHIT and the TOC for at least three data points obtained in (b) to generate at least one of a mathematical function equation or cross-plot thereof; (e) determining total porosity (PHIT) and organic matter content for a sample of a location along a length of a logged wellbore or core sample of the well or formation; (f) computing a first PAOM for the sample of the logged wellbore or core sample using the mathematical function equation or cross-plot generated using the total porosity (PHIT) and the organic matter content determined in (e); (g) computing a second PAOM for the sample of the logged wellbore or core sample using equation: PAOM = ATR x OM/(1-ATR), wherein the ATR is determined in (c) and the OM is determined in (e); (h) comparing the first PAOM calculated from (f) with the second PAOM calculated in (g); and (i) selecting the first PAOM calculated unless the first PAOM is greater than the second PAOM wherein the second PAOM is selected.
A control method for a pump assembly (10, 12) in a pneumatic or hydraulic system, with which the speed (n) of the pump assembly (10, 12) can be controlled in dependence on several variables (Dp, p, T, xp) which are detected in the system, characterised in that an error signal (e) is produced from the detected variables (Dp, p, T, xp) on the basis of a sectionwise monotonic function, several error signals (e) are added and that a control of the speed (n) of the pump assembly (10, 12) is effected on the basis of the added error signals (e) such that the added error signal approaches the value zero.
A laser, wherein the laser comprises a substrate and a resonant cavity; the resonant cavity comprises a highly reflective surface, an active gain region, a first phase shift region configured to tune a spectral position of a longitudinal mode of the resonant cavity, an optical branching region, and N reflective mode selection regions, wherein the resonant cavity is configured to generate a laser beam, and N is greater than or equal to 2; the active gain region, the first phase shift region, the optical branching region, and the N reflective mode selection regions are coupled to the substrate; the active gain region comprises two ports, and the two ports of the active gain region are optically coupled with the highly reflective surface and the first phase shift region respectively; the first phase shift region comprises two ports, and the two ports of the first phase shift region are optically coupled with the active gain region and the optical branching region respectively; the optical branching region comprises N+i ports, one port of the optical branching region is optically coupled with the first phase shift region, and the other N ports of the optical branching region are optically coupled with the N reflective mode selection regions respectively; each reflective mode selection region of the N reflective mode selection regions comprises two ports, one port is optically coupled with the optical branching region, and the other port is configured to output the laser beam, so that the laser is capable of emitting N laser beams at a same wavelength; and a reflectivity of the highly reflective surface is greater than peak reflectivities of the N reflective mode selection regions, wherein the laser further comprises a spot adjustment region; the first phase shift region is optically coupled with the optical branching region by using the spot adjustment region; and the spot adjustment region is configured to adjust a spot size and shape of light passing through the spot adjustment region, wherein the substrate comprises a first substrate and a second substrate that are separated, and an empty slot is disposed between the first substrate and the second substrate; the active gain region and the first phase shift region are coupled on the first substrate, and the optical branching region and the N reflective mode selection regions are coupled on the second substrate; and the spot adjustment region is specifically a lens and disposed in the empty slot.