mhurhangee/ep-ind-claims huggingface dataset:
A printing machine for printing print medium onto a workpiece, comprising a tooling table for receiving a plurality of tooling pins (4, 14A, 14B) thereon, and a component height sensing system, the component height sensing system comprising: a height sensor operative to measure the relative heights of at least three component locations corresponding to tooling pins (4, 14A, 14B) relative to the height sensor and output measured relative height information, and a control means for receiving the measured relative height information from the height sensor, determining, from the received relative height information, the heights of each of the at least three component locations relative to the others of the at least three component locations and comparing the determined relative height information to a predetermined tolerance level (17, 23) to identify height deviations of any component locations. a component height sensing system, the component height sensing system comprising: a height sensor operative to measure the relative heights of at least three component locations corresponding to tooling pins (4, 14A, 14B) relative to the height sensor and output measured relative height information, and a control means for receiving the measured relative height information from the height sensor, determining, from the received relative height information, the heights of each of the at least three component locations relative to the others of the at least three component locations and comparing the determined relative height information to a predetermined tolerance level (17, 23) to identify height deviations of any component locations. a height sensor operative to measure the relative heights of at least three component locations corresponding to tooling pins (4, 14A, 14B) relative to the height sensor and output measured relative height information, and a control means for receiving the measured relative height information from the height sensor, determining, from the received relative height information, the heights of each of the at least three component locations relative to the others of the at least three component locations and comparing the determined relative height information to a predetermined tolerance level (17, 23) to identify height deviations of any component locations.
A method for producing a polymer profile by means of chemical crosslinking, - wherein initially a plastics profile is produced from a plastics material with added additives, - wherein the plastics profile is then heated by means of a radiation-emitting heat source and as a result the additives added to the plastics material undergo thermal decomposition to form radicals, and - wherein these radicals cause a chemical crosslinking of the plastics material, characterised in that IR radiation-absorbing pigments adapted to the radiation of the heat source which is in the form of an IR lamp are added to the plastics material in addition to the additives, and in that the plastics profile is provided with an outer layer, preferably a plastics outer layer, which has a lower concentration by weight of pigments than the plastics material. - wherein initially a plastics profile is produced from a plastics material with added additives, - wherein the plastics profile is then heated by means of a radiation-emitting heat source and as a result the additives added to the plastics material undergo thermal decomposition to form radicals, and - wherein these radicals cause a chemical crosslinking of the plastics material,
Filling system for filling a cooling cartridge in a transport container via a filling terminal with carbon dioxide snow comprising: - an external supply line for supplying liquid carbon dioxide, - an external exhaust line for conducting gaseous carbon dioxide to the environment, - a filling gun, able to be introduced manually or by a robotic arm into the filling terminal of the transport container, having an internal supply line and an internal exhaust line, to which the external supply line and the external exhaust line are coupled and which form a filling end, wherein the internal supply line is surrounded by the internal exhaust line, which filling end can be introduced into the filling terminal, - at least one electromagnet for holding the filling gun in a filling position, - a filling valve for opening and closing the internal supply line, - at least one activation sensor measuring the distance (d) of the filling gun from the filling terminal, characterized by - a pressure sensor downstream of the filling valve, - a control center for controlling the opening and closing of the filling valve in dependency of the values measured by the pressure sensor and an electric current flow in the electromagnet, wherein the activation of said at least one electromagnet being dependent on said at least one activation sensor measuring the distance of the filling gun to the filling terminal. - an external supply line for supplying liquid carbon dioxide, - an external exhaust line for conducting gaseous carbon dioxide to the environment, - a filling gun, able to be introduced manually or by a robotic arm into the filling terminal of the transport container, having an internal supply line and an internal exhaust line, to which the external supply line and the external exhaust line are coupled and which form a filling end, wherein the internal supply line is surrounded by the internal exhaust line, which filling end can be introduced into the filling terminal, - at least one electromagnet for holding the filling gun in a filling position, - a filling valve for opening and closing the internal supply line, - at least one activation sensor measuring the distance (d) of the filling gun from the filling terminal, - a pressure sensor downstream of the filling valve, - a control center for controlling the opening and closing of the filling valve in dependency of the values measured by the pressure sensor and an electric current flow in the electromagnet,
A scintillation crystal comprising: Ln (1-y) RE y X 3:Ca, wherein: Ln represents a rare earth element; RE represents a different rare earth element; y has a value in a range of 0 to 1; X represents a halogen; and the scintillation crystal is formed from a melt having a Ca concentration of at least approximately 0.02 wt.%. Ln represents a rare earth element; RE represents a different rare earth element; y has a value in a range of 0 to 1; X represents a halogen; and the scintillation crystal is formed from a melt having a Ca concentration of at least approximately 0.02 wt.%.
An electronic device, comprising: a memory including a plurality of pages; and a controller configured to select (430, 610) a page area having no non-movable page from a plurality of page areas in the memory based on page state information on the plurality of page areas and a number of applications referring to the page area, if a memory defragmentation request (425b, 605) occurs when a memory allocation request is made, scan (435, 625) the selected page area, move (440, 635) a movable page in the selected page area, and allocate a memory secured by the defragmentation process for the selected page area in response to the memory allocation request after a memory defragmentation response occurs. a memory including a plurality of pages; and a controller configured to
A process for treating a residual, said process comprising: preparing a mixture by adding: a peracid or source thereof; and an ammonium salt to the residual, the ratio of the peracid or source thereof to the ammonium salt being 0.1 g/g to 5 g/g and the peracid or source thereof and ammonium salt being added to the residual at less than 40 g peracid or source thereof and ammonium salt per liter of the residual, said mixture having a pH above 9; treating the mixture in a reactor with an electric field, wherein the electric field is a direct current electric field and the voltage gradient of the direct current electric field is less than 8 V/cm, by means of at least one anode and at least one cathode that define therebetween an electrokinetic zone for treating the mixture so as to cause an exothermic reaction, wherein the mixture is treated at a temperature of 70 °C to 99 °C for a time of 0.5 hours to 4 hours; thereby allowing for inactivation of at least one type of pathogen selected from a virus, a bacteria, a spore, an ova or a mixture thereof in the residual, so as to obtain a treated residual. preparing a mixture by adding: a peracid or source thereof; and an ammonium salt to the residual, the ratio of the peracid or source thereof to the ammonium salt being 0.1 g/g to 5 g/g and the peracid or source thereof and ammonium salt being added to the residual at less than 40 g peracid or source thereof and ammonium salt per liter of the residual, said mixture having a pH above 9; treating the mixture in a reactor with an electric field, wherein the electric field is a direct current electric field and the voltage gradient of the direct current electric field is less than 8 V/cm, by means of at least one anode and at least one cathode that define therebetween an electrokinetic zone for treating the mixture so as to cause an exothermic reaction, wherein the mixture is treated at a temperature of 70 °C to 99 °C for a time of 0.5 hours to 4 hours; thereby allowing for inactivation of at least one type of pathogen selected from a virus, a bacteria, a spore, an ova or a mixture thereof in the residual, so as to obtain a treated residual.
An annulus filler for mounting to a rotor disc of a gas turbine engine and for bridging the gap between two adjacent blades attached to the rotor disc, the annulus filler defining an airflow surface for air being drawn through the engine, wherein the annulus filler has: one or more primary connectors (13, 14) for connecting the annulus filler to the rotor disc, and for resisting, in use, centrifugal forces on the annulus filler, the or each primary connector (13, 14) allowing rotation of the annulus filler in a circumferential direction relative to the rotor disc at that primary connector (13, 14); and a secondary connector (17, 18, 19) for connecting the annulus filler to the rotor disc and for resisting, in use, motion of the annulus filler relative to the rotor disc in a first axial direction of the rotor, characterised in that, the secondary connector (17, 18, 19) is formed at an axial end of the annulus filler and comprises a pin and slot coupling, the slot extending in a circumferential direction and the pin extending through the slot in an axial direction to allow rotation of the annulus filler in a circumferential direction of the rotor so that if the centre of gravity of the filler is not aligned during mounting at high rotational speeds the filler can rotate about the engine centre-line until alignment is achieved. one or more primary connectors (13, 14) for connecting the annulus filler to the rotor disc, and for resisting, in use, centrifugal forces on the annulus filler, the or each primary connector (13, 14) allowing rotation of the annulus filler in a circumferential direction relative to the rotor disc at that primary connector (13, 14); and a secondary connector (17, 18, 19) for connecting the annulus filler to the rotor disc and for resisting, in use, motion of the annulus filler relative to the rotor disc in a first axial direction of the rotor, characterised in that, the secondary connector (17, 18, 19) is formed at an axial end of the annulus filler and comprises a pin and slot coupling, the slot extending in a circumferential direction and the pin extending through the slot in an axial direction to allow rotation of the annulus filler in a circumferential direction of the rotor so that if the centre of gravity of the filler is not aligned during mounting at high rotational speeds the filler can rotate about the engine centre-line until alignment is achieved.
Continuous casting apparatus comprising a plurality of compression units, each of which is defined by a lower roll and an upper roll configured to exert a compression action on a cast metal product, each lower roll defining with the respective upper roll a passage gap for the metal product, and the passage gaps of said compression units being disposed aligned along a casting axis with an at least partly curved development, characterized in that it comprises a plurality of straightening rolls, disposed only on the extrados side of said casting axis, and each of which is interposed between a pair of said lower rolls positioned on said extrados side, said casting axis being defined by a plurality of curved segments (T1, T2, T3) having different radii of curvature (R1, R2, R3), each curved segment (T1, T2, T3) being comprised between two successive straightening rolls, each of said straightening rolls being configured to straighten the cast metal product and define a variation in the radius of curvature of said casting axis.
A conveying belt (26, 27) for use in a platform of a harvesting machine, said conveying belt (26, 27) comprising: a belt member having with a crop conveying surface, with opposite first and second ends (36, 38) joined together to form a continuous belt, and with edges (30, 79) perpendicular to a belt travel direction, the opposite first and second ends (36, 38) having a first portion and a second portion, the second portion having abutting ends; a connection device configured to removably secure the opposite first and second ends (36, 38) of the first portion to each other in an overlapping manner, the connection device having a protrusion thereof extending outwardly from the crop conveying surface; characterized by a flat belt splice for removably fixing the abutting ends of the second portion together. a belt member having with a crop conveying surface, with opposite first and second ends (36, 38) joined together to form a continuous belt, and with edges (30, 79) perpendicular to a belt travel direction, the opposite first and second ends (36, 38) having a first portion and a second portion, the second portion having abutting ends; a connection device configured to removably secure the opposite first and second ends (36, 38) of the first portion to each other in an overlapping manner, the connection device having a protrusion thereof extending outwardly from the crop conveying surface; characterized by a flat belt splice for removably fixing the abutting ends of the second portion together.
One or more compositions comprising a UBE2N inhibitor for use in a method of treating a subtype of acute myeloid leukemia responsive to UBE2N inhibition, the method comprising: identifying a subject having one or more subtype of AML responsive to UBE2N inhibition, wherein the AML subtype comprises acute myelomonocytic leukemia (AML-M4) and/or acute monocytic leukemia (AML-M5); and providing to the subject one or more administrations of the one or more compositions comprising a UBE2N inhibitor; wherein administration of the UBE2N inhibitor results in treating the subtype of acute myeloid leukemia responsive to UBE2N inhibition in the subject, and wherein the UBE2N inhibitor comprises an RNAi sufficient to inhibit UBE2N expression or is at least one selected from the group consisting of NSC697923 (2-(4-methylphenyl)sulfonyl-5-nitrofuran), UC-764864 (I-(4-ethylphenyl)-3-[(6-methyl- IH-benzimidazol-2-yl) sulfanyl]prop-2-en-I-one), UC-764865 (I-(4-methoxyphenyl)-3-[(6-methyl-IH-benzimidazol-2-yl) sulfanyl]prop-2-en-I-one), and I-(4-methylphenyl)-3-[(6-methyl-IH-benzimidazol-2-yl) sulfanyl]prop-2-en-I-one, and pharmaceutically-acceptable salts, cocrystals, hydrates, solvates, optical isomers, geometric isomers, and salts of isomers thereof. identifying a subject having one or more subtype of AML responsive to UBE2N inhibition, wherein the AML subtype comprises acute myelomonocytic leukemia (AML-M4) and/or acute monocytic leukemia (AML-M5); and providing to the subject one or more administrations of the one or more compositions comprising a UBE2N inhibitor; wherein administration of the UBE2N inhibitor results in treating the subtype of acute myeloid leukemia responsive to UBE2N inhibition in the subject, and wherein the UBE2N inhibitor comprises an RNAi sufficient to inhibit UBE2N expression or is at least one selected from the group consisting of NSC697923 (2-(4-methylphenyl)sulfonyl-5-nitrofuran), UC-764864 (I-(4-ethylphenyl)-3-[(6-methyl- IH-benzimidazol-2-yl) sulfanyl]prop-2-en-I-one), UC-764865 (I-(4-methoxyphenyl)-3-[(6-methyl-IH-benzimidazol-2-yl) sulfanyl]prop-2-en-I-one), and I-(4-methylphenyl)-3-[(6-methyl-IH-benzimidazol-2-yl) sulfanyl]prop-2-en-I-one, and pharmaceutically-acceptable salts, cocrystals, hydrates, solvates, optical isomers, geometric isomers, and salts of isomers thereof.
Optoelectronic semiconductor component, comprising - at least one radiation-emitting semiconductor chip having a radiation coupling-out surface, through which at least part of the electromagnetic radiation generated in the semiconductor chip leaves the semiconductor chip; - at least one converter element which is disposed downstream of the semiconductor chip at its radiation coupling-out surface for the conversion of electromagnetic radiation emitted by the semiconductor chip and has a first surface facing away from the radiation coupling-out surface; - a reflective encapsulation, wherein - the reflective encapsulation encapsulates the semiconductor chip and at least in places the converter element at side surfaces (33, 44) in a form-fitting manner, and - the first surface of the converter element is free of the reflective encapsulation - an extent of the reflective encapsulation in a direction perpendicular to the side surfaces (33, 44) is greater than 1000 μm, and - the converter element projects from the reflective encapsulation. - at least one radiation-emitting semiconductor chip having a radiation coupling-out surface, through which at least part of the electromagnetic radiation generated in the semiconductor chip leaves the semiconductor chip; - at least one converter element which is disposed downstream of the semiconductor chip at its radiation coupling-out surface for the conversion of electromagnetic radiation emitted by the semiconductor chip and has a first surface facing away from the radiation coupling-out surface; - a reflective encapsulation, wherein - the reflective encapsulation encapsulates the semiconductor chip and at least in places the converter element at side surfaces (33, 44) in a form-fitting manner, and - the first surface of the converter element is free of the reflective encapsulation - an extent of the reflective encapsulation in a direction perpendicular to the side surfaces (33, 44) is greater than 1000 μm, and - the converter element projects from the reflective encapsulation.
An actuator comprising a housing, with a pyrotechnic charge and with a piston which transitions into a bolt which in the initial state protrudes from the housing and upon ignition of the pyrotechnic charge is at least partially drawn into the housing, wherein the combination of piston and bolt consists of a basic body made of plastic, characterised in that the basic body, in the region of the bolt, includes a reinforcing element which has the shape of a sleeve or of a tube and which surrounds the bolt, and in that the reinforcing element is positively connected to the bolt.
Tyre for a heavy-duty vehicle of civil engineering type comprising a tread, intended to come into contact with the ground via a tread surface: - the tread having an axial width W T and a radial thickness H T at least equal to 70 mm, - the tread comprising at least two circumferential grooves, positioned axially one on each side of an equatorial plane passing through the middle of the tread and perpendicular to the axis of rotation (YY') of the tyre, - each circumferential groove extending axially between two substantially circumferential faces (3A, 3B), radially towards the inside from the tread surface as far as a bottom face and circumferentially around the entire circumference of the tyre, - each circumferential groove being axially positioned with respect to the equatorial plane at an axial distance L, having an axial width W, measured between the two substantially circumferential faces (3A, 3B), and a radial depth H, measured between the tread surface and the bottom face, the radial depth H being at least equal to 70% of the radial thickness H T and at most equal to the radial thickness H T, characterized in that each circumferential groove has an axial width W and a radial depth H, such that the ratio W/H is at least equal to 0.06, in that the axial distance C between two consecutive circumferential grooves is at least equal to 12% and at most equal to 21% of the axial width W T of the tread, and in that each of the axially outermost circumferential grooves is positioned axially, with respect to the equatorial plane, at an axial distance L E at least equal to 35% of the axial width W T of the tread. - the tread having an axial width W T and a radial thickness H T at least equal to 70 mm, - the tread comprising at least two circumferential grooves, positioned axially one on each side of an equatorial plane passing through the middle of the tread and perpendicular to the axis of rotation (YY') of the tyre, - each circumferential groove extending axially between two substantially circumferential faces (3A, 3B), radially towards the inside from the tread surface as far as a bottom face and circumferentially around the entire circumference of the tyre, - each circumferential groove being axially positioned with respect to the equatorial plane at an axial distance L, having an axial width W, measured between the two substantially circumferential faces (3A, 3B), and a radial depth H, measured between the tread surface and the bottom face, the radial depth H being at least equal to 70% of the radial thickness H T and at most equal to the radial thickness H T,