mhurhangee/ep-ind-claims huggingface dataset:
An assembly, comprising: an inner component (102, 902, 1702); an outer component (104, 904, 1704) at least partially surrounding the inner component (102, 902, 1702), wherein the inner component comprises an outer cylindrical surface formed with a plurality of voids or the outer component (104, 904) comprises an inner cylindrical surface (132, 932) formed with a plurality of voids (134, 934); and a torque limiting tolerance ring (106, 906, 1706) installed between the inner component (102, 902, 1702) and the outer component (104, 904,1704), the torque limiting tolerance ring (106, 906, 1706) comprising: a generally cylindrical body (110, 910, 1710) having a sidewall (112, 912, 1712), wherein the sidewall (112, 912, 1712) includes: an unformed section (114, 914, 1714); a plurality of projections (116, 916, 1716) extending radially inward or outward from the unformed section (114, 914, 1714) of the sidewall (112, 912, 1712) toward the voids formed in the inner component or toward the voids (134, 934) formed on the outer component (104, 904), wherein the torque limiting tolerance ring (106, 906, 1706) is rotatable between an engaged configuration, in which the inner component (102, 902, 1702) is coupled to the outer component (104, 904, 1704), and a disengaged configuration, in which the inner component (102, 902, 1702) is disengaged from the outer component (104, 904, 1704), wherein the plurality of projections (116, 916, 1716) engage the inner (132, 932) or outer cylindrical surface of the outer (104, 904) or inner component in the engaged configuration, and wherein the plurality of projections (116, 916, 1716) extend at least partially into the voids (134, 1734, 934) formed in the inner (102, 902, 1702) or outer (104, 904, 1704) component in the disengaged configuration, characterised in that the inner (102, 902, 1702) and outer (104, 904, 1704) components are freely rotatable with respect to one another in the disengaged configuration.
A window/door lock for a turning sash or for a turn-tilt sash, in particular of an inwardly opening window or of an inwardly opening door, having a latch bolt which can be moved into a leadthrough which can be fastened to the sash to lock the sash, wherein the latch bolt is axially movable between a release position, an unsecured locking position and a locking position which can be secured by means of a securing mechanism, with the latch bolt being able to be moved into the securable locking position, starting from the release position, by an axial actuation beyond the unsecured locking position; and wherein the latch bolt comprises a blocking means (39, 41) which cooperates with the securing mechanism for locking or unblocking the latch bolt, with the blocking means (39, 41) comprising a block section of the latch bolt which is provided at an end of the latch bolt facing the securing mechanism and which can be engaged behind by the securing mechanism or by a part thereof in the securable locking position.
An attenuated influenza A virus comprising a PB1 polymerase with one or more mutations in amino acids corresponding to amino acid positions 310 to 325 of SEQ ID NO:2, wherein the PB1 polymerase comprises a leucine to glutamine substitution at an amino acid corresponding to amino acid position 319 (L319Q) of SEQ ID NO:2.
A color conversion panel suitable for a display device, the color conversion panel comprising: a substrate; a first color filter and a second color filter adjacent to the first color filter disposed on the substrate; a first color conversion layer disposed on the first color filter; a second color conversion layer disposed on the second color filter; and a third color layer disposed on the substrate, wherein the third color layer comprises a transmission layer that does not include quantum dots but includes blue pigments; wherein each of the first color conversion layer and the second color conversion layer includes at least two quantum dots (331R, 331G) representing different colors, and wherein the first color filter is a different color filter to the second color filter, and the third color layer is of a different color to the first color filter and the second color filter. a substrate; a first color filter and a second color filter adjacent to the first color filter disposed on the substrate; a first color conversion layer disposed on the first color filter; a second color conversion layer disposed on the second color filter; and a third color layer disposed on the substrate, wherein the third color layer comprises a transmission layer that does not include quantum dots but includes blue pigments; wherein each of the first color conversion layer and the second color conversion layer includes at least two quantum dots (331R, 331G) representing different colors, and wherein the first color filter is a different color filter to the second color filter, and the third color layer is of a different color to the first color filter and the second color filter.
A method for reducing a brake squeal caused by a wheel brake of a vehicle, the method comprising: measuring at least one vibration signal indicative of a vibration of the brake, monitoring said at least one vibration signal to detect at least one squeal condition indicative of the brake squeal, and triggering at least one corrective action for reducing the brake squeal in response to the detection of said at least one brake condition characterized in that said triggering at least one corrective action comprises: enabling at least one harvesting circuit for harvesting energy from the vibration of the brake. measuring at least one vibration signal indicative of a vibration of the brake, monitoring said at least one vibration signal to detect at least one squeal condition indicative of the brake squeal, and triggering at least one corrective action for reducing the brake squeal in response to the detection of said at least one brake condition characterized in that
A method for detaching expressed material from the surface of or from the apoplast of plant cells, wherein the plant cells are treated with a rotor-stator in a liquid medium, wherein the heat introduced from the rotor-stator by rotation of the rotor is a maximum of 3 kJ per kg of the liquid medium and per g/L dry weight of the plant cells and the heat introduced into the medium is a maximum of 1.5 kJ per kg of the liquid medium per minute and per g/L dry weight of the plant cells.
A method of supervisory control of an entertainment device, comprising the steps of: setting by a user, at a remote device, at least a first usage control parameter for at least a first account associated with access to content on a cross-compatible set of entertainment devices upon which the same account can be used to access content; monitoring, at an entertainment device of that set, which account or accounts are active on the entertainment device; obtaining, at the entertainment device, the at least first usage control parameter set for the at least first account; and restricting, at the entertainment device, usage of content on the entertainment device according to the at least first usage control parameter; wherein the at least first usage control parameter for the at least first account relates to reducing the maximum play duration of a game if it is output in 3D instead of 2D. setting by a user, at a remote device, at least a first usage control parameter for at least a first account associated with access to content on a cross-compatible set of entertainment devices upon which the same account can be used to access content; monitoring, at an entertainment device of that set, which account or accounts are active on the entertainment device; obtaining, at the entertainment device, the at least first usage control parameter set for the at least first account; and restricting, at the entertainment device, usage of content on the entertainment device according to the at least first usage control parameter; wherein the at least first usage control parameter for the at least first account relates to reducing the maximum play duration of a game if it is output in 3D instead of 2D.
An airfoil for a turbine blade, the airfoil comprising: a first pressure side cavity positioned adjacent a pressure side, the first pressure side cavity configured to receive a coolant; a second pressure side cavity positioned adjacent to and fluidly coupled to the first pressure side cavity; at least one channel positioned between and fluidly coupling the first pressure side cavity and the second pressure side cavity, the at least one channel positioned radially between a top surface (68, 72) and a bottom surface (70, 74) of: the first pressure side cavity; and the second pressure side cavity; and a trailing edge cooling system positioned adjacent a trailing edge of the airfoil and in direct fluid communication with the first pressure side cavity, the trailing edge cooling system configured to receive a portion of the coolant from the first pressure side cavity. a first pressure side cavity positioned adjacent a pressure side, the first pressure side cavity configured to receive a coolant; a second pressure side cavity positioned adjacent to and fluidly coupled to the first pressure side cavity; at least one channel positioned between and fluidly coupling the first pressure side cavity and the second pressure side cavity, the at least one channel positioned radially between a top surface (68, 72) and a bottom surface (70, 74) of: the first pressure side cavity; and the second pressure side cavity; and the first pressure side cavity; and the second pressure side cavity; and a trailing edge cooling system positioned adjacent a trailing edge of the airfoil and in direct fluid communication with the first pressure side cavity, the trailing edge cooling system configured to receive a portion of the coolant from the first pressure side cavity.
A kitchen appliance, preferably a food processor, including a container, configured to be removably attachable to a base of the food processor, comprising a bottom with an opening and a coupling system mounted therein, the coupling system comprising a fixing element, a movable element, a resilient means arranged between the fixing element and the movable element and a coupler having a first engaging means and a second engaging means (4d") and being fixedly connected to the end of the movable element facing the bottom, wherein the coupler can be coupled to a first drive outlet or a second drive outlet of the food processor, characterized in that upon activation of the movable element, which is executable by attaching a first shaft to the coupling system, the coupler is displaceable axially to a first operating position in which the first engaging means is engagable with engaging means of the first drive outlet rotating at a first rotational speed and upon deactivation of the movable element, which is executable by attaching a second shaft to the coupling system, the coupler is displaceable axially to a second operating position in which the second engaging means (4d") is engagable with engaging means of the second drive outlet rotating at a second rotational speed.
A substrate for suspending a sample element, the substrate comprising top and bottom sections (1, 3) that are configured, upon alignment, to form a substrate opening and engage an outer region of a film that is external to a central region extending across the opening; wherein the top and bottom sections (1, 3) are further configured to mechanically tension the central region of film across the opening; wherein the top and bottom sections (1, 3) are further configured to mechanically tension the film by displacement of the film in a direction that is offset from a plane of the opening; wherein the displacement occurs along an edge of the opening; wherein the edge of the opening is formed in part by an extension element of the bottom section; and wherein the extension element of the bottom section is angled in the direction that is offset from the plane of the opening, and wherein the alignment of the top and bottom sections (1, 3) provides a chamfer in the opening. wherein the top and bottom sections (1, 3) are further configured to mechanically tension the central region of film across the opening; wherein the top and bottom sections (1, 3) are further configured to mechanically tension the film by displacement of the film in a direction that is offset from a plane of the opening; wherein the displacement occurs along an edge of the opening; wherein the edge of the opening is formed in part by an extension element of the bottom section; and wherein the extension element of the bottom section is angled in the direction that is offset from the plane of the opening, and wherein the alignment of the top and bottom sections (1, 3) provides a chamfer in the opening.
A compound of formula, a N -oxide form, a pharmaceutically acceptable addition salt or a stereo-chemically isomeric form thereof, wherein n is 0, 1 or 2; X is N or CR 5, wherein R 5 is hydrogen or taken together with R 1 may form a bivalent radical of formula -CH=CH-CH=CH-; R 1 is C 1-6 alkyl or thienyl; R 2 is hydrogen or hydroxy or taken together with R 3 or R 4 may form =O; R 3 is a radical selected from -(CH 2) s -NR 6 R 7 (a-1), -O-H (a-2), or -O-R 8 (a-3), wherein s is 0, 1, 2 or 3; R 6 is -CHO, C 1-6 alkyl, hydroxyC 1-6 alkyl, C 1-6 alkylcarbonyl, di(C 1-6 alkyl)aminoC 1-6 alkyl, C 1-6 alkyloxyC 1-6 alkyl, C 1-6 alkylcarbonylaminoC 1-6 alkyl, piperidinyl, piperidinylC 1-6 alkyl, piperidinylC 1-6 alkylaminocarbonyl, C 1-6 alkyloxy, thienylC 1-6 alkyl, pyrrolylC 1-6 alkyl, arylC 1-6 alkylpiperidinyl, arylcarbonylC 1-6 alkyl, arylcarbonylpiperidinylC 1-6 alkyl, haloindozolylpiperidinylC 1-6 alkyl, or arylC 1-6 alkyl(C 1-6 alkyl)aminoC 1-6 alkyl; R 7 is hydrogen or C 1-6 alkyl; and R 8 is C 1-6 alkyl, C 1-6 alkylcarbonyl or di(C 1-6 alkyl)aminoC 1-6 alkyl; or R 3 is a group of formula -Z- (b-1), wherein Z is a heterocyclic ring system selected from wherein each R 10 independently is hydrogen, C 1-6 alkyl, or C 1-6 alkyloxyC 1-6 alkylamino; R 4 is hydrogen, C 1-6 alkyl, furanyl, pyridinyl, arylC 1-6 alkyl or aryl is phenyl or phenyl substituted with halo, C 1-6 alkyl or C 1-6 alkyloxy; with the proviso that when n is 0, X is N, R 2 is hydrogen, R 3 is a group of formula (b-1), Z is the heterocyclic ring system (c-2) or (c-4) wherein said heterocyclic ring system Z is attached to the rest of the molecule with a nitrogen atom, and R 10 is hydrogen; then R 4 is other than C 1-6 alkyl or pyridinyl; and with the proviso that the following compounds are excluded n is 0, 1 or 2; X is N or CR 5, wherein R 5 is hydrogen or taken together with R 1 may form a bivalent radical of formula -CH=CH-CH=CH-; R 1 is C 1-6 alkyl or thienyl; R 2 is hydrogen or hydroxy or taken together with R 3 or R 4 may form =O; R 3 is a radical selected from -(CH 2) s -NR 6 R 7 (a-1), -O-H (a-2), or -O-R 8 (a-3),
A method for checking a bar blade chucking and/or a blade slot of a bar blade cutter head for bevel gear production, having the following method steps: - providing a main body of a bar blade cutter head, - wherein the main body comprises blade slots for accommodating bar blades, and - wherein a component, such as a bar blade, a test specimen, or the like, is chucked in a detachable and replaceable manner in at least one blade slot of the main body of the bar blade cutter head; - exciting oscillations of the component; - measuring the displacement and/or velocity and/or acceleration of the component; - analyzing the measurement. - providing a main body of a bar blade cutter head, - wherein the main body comprises blade slots for accommodating bar blades, and - wherein a component, such as a bar blade, a test specimen, or the like, is chucked in a detachable and replaceable manner in at least one blade slot of the main body of the bar blade cutter head; - wherein the main body comprises blade slots for accommodating bar blades, and - wherein a component, such as a bar blade, a test specimen, or the like, is chucked in a detachable and replaceable manner in at least one blade slot of the main body of the bar blade cutter head; - exciting oscillations of the component; - measuring the displacement and/or velocity and/or acceleration of the component; - analyzing the measurement.
A photoelectric device comprising: a light-transmitting first electrode, a first semiconductor layer in direct electrical contact with said first electrode, said first semiconductor layer comprising n-type TiO 2, a second semiconductor layer in direct electrical contact with said first semiconductor layer, said second semiconductor layer comprising p-type light-absorbing quantum dot nanoparticles, and a second electrode in direct electrical contact with said second semiconductor layer, said first and second semiconductor layers forming a junction therebetween, at least one side of which has a charge density of 1 x 10 12 to 1 x 10 18 cm -1 when said device is not illuminated. a light-transmitting first electrode, a first semiconductor layer in direct electrical contact with said first electrode, said first semiconductor layer comprising n-type TiO 2, a second semiconductor layer in direct electrical contact with said first semiconductor layer, said second semiconductor layer comprising p-type light-absorbing quantum dot nanoparticles, and a second electrode in direct electrical contact with said second semiconductor layer,
A method of expanding hES cells free of non-human animal products, feeder cells, growth factors, leukaemia inhibitory factor, supplementary mineral combinations, amino acid supplements, vitamin supplements, fibroblast growth factor, membrane associated steel factor, soluble steel factor and conditioned media, with the proviso that this definition does not exclude the trace amounts of progestin and βhCG agonist that may be present as a result of the expanding method, comprising the steps of: (a) introducing hES cells in a cell culture medium consisting of minimal essential medium, a progestin and a β-human chorionic gonadotropin (βhCG) agonist; and (b) incubating the stem cells at a temperature of 34°C to 38°C in an environment of 3.5% to 6% carbon dioxide for 12 hours to 48 hours. (a) introducing hES cells in a cell culture medium consisting of minimal essential medium, a progestin and a β-human chorionic gonadotropin (βhCG) agonist; and (b) incubating the stem cells at a temperature of 34°C to 38°C in an environment of 3.5% to 6% carbon dioxide for 12 hours to 48 hours.
A press forming method of press forming a sheet metal between a die and a punch, while pushing the punch into the die by means of a relative motion of the die and the punch, comprising: producing an intermediate molding having ridges formed at angular parts between each of vertical walls and a ceiling and formed so as to extend in a longitudinal direction of the intermediate molding, holding the ceiling of the intermediate molding between a pad and a punch, and stamping the ridges in the intermediate molding at least once or more so as to shape the intermediate molding into a final shape, the final shape having a hat-like cross sectional shape having a pair of flanges and vertical walls and ridges and a ceiling, characterized by said intermediate molding having an intermediate shape with a section line length 2% to 10% larger than the section line length of the final shape, and by substantially thickening and work-hardening the ridges of the sheet metal by the stamping, wherein a ratio of a width of the pad to a width of the punch is 0.4 to 0.8. producing an intermediate molding having ridges formed at angular parts between each of vertical walls and a ceiling and formed so as to extend in a longitudinal direction of the intermediate molding, holding the ceiling of the intermediate molding between a pad and a punch, and stamping the ridges in the intermediate molding at least once or more so as to shape the intermediate molding into a final shape, the final shape having a hat-like cross sectional shape having a pair of flanges and vertical walls and ridges and a ceiling, characterized by said intermediate molding having an intermediate shape with a section line length 2% to 10% larger than the section line length of the final shape, and by substantially thickening and work-hardening the ridges of the sheet metal by the stamping, wherein a ratio of a width of the pad to a width of the punch is 0.4 to 0.8.
A computer-implemented method of automatically setting boundary and loading conditions for a simulation of a real-world physical object represented by a computer aided design model, the CAD model being a boundary representation model, the method comprising: analyzing, by the computer, morphology of a CAD model representing a real-world physical object and identifying a function of an element of the CAD model, wherein the element of the CAD model is formed by a plurality of boundary representations and analyzing the morphology of the CAD model includes analyzing at least one of: topology and dimensions of the element of the CAD model; based upon one or more rules corresponding to the identified function of the element of the CAD model, defining, by the computer, at least one of a loading condition and a boundary condition for each of the plurality of boundary representations forming the element of the CAD model, thereby automatically setting conditions in the simulation of the real-world physical object; executing the simulation to determine stress and strain of the real-world physical object represented by the CAD model; and improving a design of the real-world physical object through an optimization simulation using results of the simulation executed, results of the optimization simulation being for machine manufacturing the real-world physical object analyzing, by the computer, morphology of a CAD model representing a real-world physical object and identifying a function of an element of the CAD model, wherein the element of the CAD model is formed by a plurality of boundary representations and analyzing the morphology of the CAD model includes analyzing at least one of: topology and dimensions of the element of the CAD model; based upon one or more rules corresponding to the identified function of the element of the CAD model, defining, by the computer, at least one of a loading condition and a boundary condition for each of the plurality of boundary representations forming the element of the CAD model, thereby automatically setting conditions in the simulation of the real-world physical object; executing the simulation to determine stress and strain of the real-world physical object represented by the CAD model; and improving a design of the real-world physical object through an optimization simulation using results of the simulation executed, results of the optimization simulation being for machine manufacturing the real-world physical object
A method comprising: Receiving, by a mobile station, a first access point name associated with an access gateway node (114, 116) involved in the data session of the mobile station over a first type of wireless network; and in response to handoff of the mobile station from the first type of wireless network to a second, different type of wireless network, the mobile station transmitting the first access point name to enable continued use of the access gateway node (114, 116) for the data session of the mobile station over the second type of wireless network. Receiving, by a mobile station, a first access point name associated with an access gateway node (114, 116) involved in the data session of the mobile station over a first type of wireless network; and in response to handoff of the mobile station from the first type of wireless network to a second, different type of wireless network, the mobile station transmitting the first access point name to enable continued use of the access gateway node (114, 116) for the data session of the mobile station over the second type of wireless network.