mhurhangee/ep-ind-claims huggingface dataset:
A compound for use in a method of treating relapsed/refractory acute myelogenous leukemia in a subject, wherein the compound is a mutant isocitrate dehydrogenase 1 inhibitor -N-( -1-(2-chlorophenyl)-2-((3,3-difluorocyclobutyl)amino)-2-oxoethyl)-1-(4-cyanopyridin-2-yl)-N-(5-fluoropyridin-3-yl)-5-oxopyrrolidine-2-carboxamide having the following formula: or a pharmaceutically acceptable salt, solvate, or a polymorph thereof (COMPOUND 2), wherein the AML is characterized by the presence of a mutant allele of IDH1 and the absence of a FLT3 mutation and wherein the compound is administered at a dose of 500 mg once daily.
Method for reducing the evaporating rate of chlorine from a Refuse Derived Fuel used in a kiln for clinker production, without the need of a chlorine by-pass, and fixing the chlorine into the clinker by fixing the added sulfur content into the clinker, said method comprising adding sulfur in the kiln by means of a carbonaceous fuel used and/or sulfur additions to the raw meal, wherein the RDF has a chlorine content above 1.5% in weight, and wherein said carbonaceous fuel has 4.5% to 8 % in weight of sulfur and/or said sulfur additions to the raw meal are added as a composition of a sulfated material having a minimum 30% in weight of sulfur expressed as SO 3 in its composition. wherein the RDF has a chlorine content above 1.5% in weight, and wherein said carbonaceous fuel has 4.5% to 8 % in weight of sulfur and/or said sulfur additions to the raw meal are added as a composition of a sulfated material having a minimum 30% in weight of sulfur expressed as SO 3 in its composition.
A combustor for use in a gas turbine engine, the combustor enclosing a combustion chamber having a combustion area, wherein the combustor comprises: a combustion liner having an inner surface and an outer surface opposite the inner surface, wherein the combustion liner includes a primary aperture extending from the outer surface to the inner surface through the combustion liner; characterised in that the combustor further comprises: a heat shield panel having a first surface and a second surface, the inner surface of the combustion liner and the second surface of the heat shield panel defining an impingement cavity therebetween in fluid communication with the primary aperture for cooling the second surface of the heat shield panel; and a deflector (510a; 510b; 510c) forming a passageway (506a; 506b; 506c) with the outer surface of the combustion liner, the passageway configured to direct airflow into the impingement cavity in a lateral direction parallel to the second surface of the heat shield panel such that a cross flow is generated in the impingement cavity, wherein the deflector (510a; 510b; 510c) is located at the intersection of a bulkhead shell portion of the combustor and an axial shell portion of the combustor. a heat shield panel having a first surface and a second surface, the inner surface of the combustion liner and the second surface of the heat shield panel defining an impingement cavity therebetween in fluid communication with the primary aperture for cooling the second surface of the heat shield panel; and a deflector (510a; 510b; 510c) forming a passageway (506a; 506b; 506c) with the outer surface of the combustion liner, the passageway configured to direct airflow into the impingement cavity in a lateral direction parallel to the second surface of the heat shield panel such that a cross flow is generated in the impingement cavity, wherein the deflector (510a; 510b; 510c) is located at the intersection of a bulkhead shell portion of the combustor and an axial shell portion of the combustor.
A washing apparatus for washing fabric webs in a continuous and open mode, said apparatus comprising: i) at least one washing unit inside which a washing tank adapted to receive a washing liquid and a rinsing tank adapted to receive a rinsing liquid are arranged, ii) a plurality of rollers or cylinders (113a, 113b, 113c, 113d, 113e, 113f) arranged within said washing unit rotatably about their axes, wherein said rollers or cylinders define a washing path extending from an inlet to an outlet od the washing unit, and wherein at least some of said rollers or cylinders are motorized, iii) a plurality of spraying bars (121a, 121b, 121c, 121d, 121e, 121f, 121g, 121h, 121i) restrained to the washing unit transversely to said washing path, said spraying bars (121a, 121b, 121c, 121d, 121e, 121f, 121g, 121h, 121i) comprising nozzles (122a, 122b, 122c, 122d, 122e, 122f, 122g, 122h, 122i), or alternatively slits, suitable for dispensing jets of washing or rinsing liquids against opposite faces of a fabric web carried along the washing path, characterized in that the spraying bars (121a, 121b, 121c, 121d, 121e, 121f, 121g, 121h, 121i) are restrained to the washing unit rotatably about their respective axes and are operably connected to driving means configured to cause them to rotate, said nozzles (122a, 122b, 122c, 122d, 122e, 122f, 122g, 122h, 122i) or slits being distributed over the whole lateral surface of each spraying bar and being spaced both in the peripheral direction and in the axial direction. i) at least one washing unit inside which a washing tank adapted to receive a washing liquid and a rinsing tank adapted to receive a rinsing liquid are arranged, ii) a plurality of rollers or cylinders (113a, 113b, 113c, 113d, 113e, 113f) arranged within said washing unit rotatably about their axes, wherein said rollers or cylinders define a washing path extending from an inlet to an outlet od the washing unit, and wherein at least some of said rollers or cylinders are motorized, iii) a plurality of spraying bars (121a, 121b, 121c, 121d, 121e, 121f, 121g, 121h, 121i) restrained to the washing unit transversely to said washing path, said spraying bars (121a, 121b, 121c, 121d, 121e, 121f, 121g, 121h, 121i) comprising nozzles (122a, 122b, 122c, 122d, 122e, 122f, 122g, 122h, 122i), or alternatively slits, suitable for dispensing jets of washing or rinsing liquids against opposite faces of a fabric web carried along the washing path,
A polyester resin composition comprising an alkali metal phosphate in an amount of 1.5 mol/ton to 3.0 mol/ton, and phosphoric acid in an amount of 0.4 to 1.5 times (by mole) that of the alkali metal phosphate, wherein the polyester of the polyester resin composition is polyethylene terephthalate.
A vehicle comprising a high-voltage electric battery and a rear floor (1, 100) comprising two parallel side members (3, 4) extending along a longitudinal axis X of the vehicle, a rear central cross-member and a battery-carrying cross-member, said two cross-members (5, 6) extending along a transverse axis Y of the vehicle and joining said two side members (3, 4), the rear central cross-member being placed in front of the carrying cross-member, the electric battery being fixed to the carrying cross-member and to two bridges (12, 13, 112, 113) secured to the rear central cross-member, characterized in that the rear central cross-member has a bulged zone extending along said cross-member, and in that each bridge (112, 113) has a first attachment zone in the form of a profiled lug gripping said bulged zone, establishing with said bulged zone an extended surface contact.
A spool (200, 300, 400) suitable for winding fine wire at high tension comprising a tubular core (202, 302, 402) made of a core material for receiving said fine wire on, said core material having a modulus of elasticity 'E core ' expressed in N/mm 2, said core (202, 302, 402) having an inner diameter 'ID' and an outer diameter 'OD' both expressed in mm, characterised in that said outer diameter OD, said inner diameter ID and said modulus of elasticity E core are such that 3 ⁢ N / mm 3 < E core ⋅ 2 / ID - 2 / OD < 300 N / mm 3
Method of manufacturing green tyres, in which at least one strip-shaped material is fed to at least one tyre-building drum and in which at least one side strip (4, 5) is connected, upstream of a cutting-to-length operation, to a belt strip, and a transverse alignment of the combination of the belt strip with the at least one side strip (4, 5) is carried out using at least one camera which detects an offset (12, 13) in the transition of the belt strip to the side strip (4, 5), characterised in that the offset (12, 13) is identified using an evaluating apparatus which carries out an image evaluation.
A heat shielding composite cloth (100; 110; 120; 70; 80; 90) comprising at least one pair of layers made up of an upper layer and a lower layer that are made of a thermal insulating material and are movably connected to one another by one or more shape memory alloy wires (103, 113, 123), for which, at a temperature equal to or above the Austenite phase temperature (Af) of the shape memory alloy of which the wires (103, 113, 123) are made, the following relationship is satisfied: - the ratio Lu/Ll is comprised between 0.1 and 10, where: - Lu is the sum of lengths of the portions of shape memory alloy wires (103, 113, 123) that are restrained to the upper layer over an area of 3 cm 2 of the composite cloth (100; 110; 120; 70; 80; 90), - L1 is the sum of lengths of the portions of shape memory alloy wires (103, 113, 123) that are restrained to the lower layer over said area of 3 cm 2 of the composite cloth (100; 110; 120; 70; 80; 90), the shape memory alloy wires (103, 113, 123) being arranged parallel to each other (70; 90) or disposed according to a grid pattern, wherein the number of shape memory alloy wires (103, 113, 123) portions over a square area of 10 cm 2 of the composite cloth (100; 110; 120; 70; 80; 90) is comprised between 1 and 200, characterized in that also the following relationship is satisfied: - the ratio (Lu+Ll)/H is comprised between 0.1 and 10; where: - H is the sum of lengths of the portions of shape memory alloy wires (103, 113, 123) that are arranged between the upper layer and the lower layer and are not restrained thereto over said area of 3 cm 2 of the composite cloth (100; 110; 120; 70; 80; 90), the overall configuration of the heat shielding composite cloth (100; 110; 120; 70; 80; 90) being such that, at a temperature equal to or above the Austenite phase temperature (Af), the distance between the upper and lower layers is increased starting from a minimal distance comprised between 0 and 5 mm by an amount comprised between 1 and 40 mm, wherein the minimal distance characterizes a configuration of the composite cloth when the shape memory alloy wires are at a phase temperature of Mf, and wherein Af is the temperature above which the shape memory alloy is fully in the austenite phase and Mf is the temperature below which the shape memory alloy is completely in the martensite phase. - the ratio Lu/Ll is comprised between 0.1 and 10, - Lu is the sum of lengths of the portions of shape memory alloy wires (103, 113, 123) that are restrained to the upper layer over an area of 3 cm 2 of the composite cloth (100; 110; 120; 70; 80; 90), - L1 is the sum of lengths of the portions of shape memory alloy wires (103, 113, 123) that are restrained to the lower layer over said area of 3 cm 2 of the composite cloth (100; 110; 120; 70; 80; 90), - the ratio (Lu+Ll)/H is comprised between 0.1 and 10; - H is the sum of lengths of the portions of shape memory alloy wires (103, 113, 123) that are arranged between the upper layer and the lower layer and are not restrained thereto over said area of 3 cm 2 of the composite cloth (100; 110; 120; 70; 80; 90),
An electronic apparatus comprising: a wireless passive-type RFID communication module including an antenna connected to a control circuit, a memory connected to the control circuit, and a wired communication port; wherein the control circuit is configured to receive a write request of setting information from an external reader/writer and to write the setting information to the memory; wherein the control circuit is further configured to receive a read request of operation information from the reader/writer and to transmit the operation information to the reader /writer via the antenna; a processing unit connected to the wireless communication module via the wired communication port; and a switch configured to electrically connect or interrupt the connection between the antenna and the control circuit, wherein the processing unit is configured to turn the switch off when a power supply of the apparatus is turned on; wherein the processing unit is further configured to detect a read request from the reader/writer via the antenna regardless of the state, on or off, of the switch and to transmit the operation information from the memory to the reader/writer. a wireless passive-type RFID communication module including an antenna connected to a control circuit, a memory connected to the control circuit, and a wired communication port; wherein the control circuit is configured to receive a write request of setting information from an external reader/writer and to write the setting information to the memory; wherein the control circuit is further configured to receive a read request of operation information from the reader/writer and to transmit the operation information to the reader /writer via the antenna; a processing unit connected to the wireless communication module via the wired communication port; and a switch configured to electrically connect or interrupt the connection between the antenna and the control circuit, wherein the processing unit is configured to turn the switch off when a power supply of the apparatus is turned on; wherein the processing unit is further configured to detect a read request from the reader/writer via the antenna regardless of the state, on or off, of the switch and to transmit the operation information from the memory to the reader/writer.
A prop comprising an outer tube, an inner tube capable of sliding in the outer tube and comprising through holes distributed along the length of the inner tube, a locking pin, preferably captive, intended to be inserted into a through hole in order to lock the inner tube in the extended position, and a nut for finally adjusting the height of the prop, as well as an automatic system for blocking the descent of the inner tube, which is capable of being implemented automatically after the inner tube has been extended and before the locking pin has been placed, wherein the automatic blocking system comprises a blocking catch that is capable of being pivoted, characterised in that the blocking catch is capable of being inserted automatically into a through hole in the inner tube when the inner tube is released without passing through the entire section of said inner tube, and the pin is fixed in the non-locking position so as to face the blocking catch radially, while the inner tube comprises an anti-rotation means.
A measurement method for measuring a size of a damaged portion formed in a coated metal material that includes a metal base (2, 3) and a surface treatment film provided on the metal base (2, 3), and reaching the metal base (2, 3) through the surface treatment film, the measurement method comprising the steps of: disposing a water-containing material to be in contact with the damaged portion and an electrode to be in contact with the water-containing material, and electrically connecting between the electrode and the metal base (2, 3) with an external circuit; applying, with the external circuit, a constant DC voltage between the electrode and the metal base (2, 3) as a cathode and an anode, respectively, and detecting a current value flowing therebetween; and calculating a size of the damaged portion, based on the current value detected and a correlation between the current value and the size of the damaged portion, the correlation being determined on an exploratory basis in advance. disposing a water-containing material to be in contact with the damaged portion and an electrode to be in contact with the water-containing material, and electrically connecting between the electrode and the metal base (2, 3) with an external circuit; applying, with the external circuit, a constant DC voltage between the electrode and the metal base (2, 3) as a cathode and an anode, respectively, and detecting a current value flowing therebetween; and calculating a size of the damaged portion, based on the current value detected and a correlation between the current value and the size of the damaged portion, the correlation being determined on an exploratory basis in advance.
Method for charging at least one electrical, in particular mobile, consumer battery which is not or rarely in contact with a power supply system, where a double swing battery which is part of a double swing vehicle with a self-propelled chassis (2.1) with a traction drive (2.1 a), - is charged at a charging station remote from the consumer battery, - is brought to the at least one consumer battery in a charged state, - charges the consumer battery, - is brought back to the charging station and - is reloaded there, characterised in that - the double swing vehicle, in addition to supplying power to the consumer battery, is also used to transport products to the consumer battery and to the charging station by comprising a double swing body (2.2) attachable thereto which is mountable and dismountable to transport products, and - the double swing battery vehicle is a product transporter for an airport apron. where a double swing battery which is part of a double swing vehicle with a self-propelled chassis (2.1) with a traction drive (2.1 a), - is charged at a charging station remote from the consumer battery, - is brought to the at least one consumer battery in a charged state, - charges the consumer battery, - is brought back to the charging station and - is reloaded there, - is charged at a charging station remote from the consumer battery, - is brought to the at least one consumer battery in a charged state, - charges the consumer battery, - is brought back to the charging station and - is reloaded there, characterised in that - the double swing vehicle, in addition to supplying power to the consumer battery, is also used to transport products to the consumer battery and to the charging station by comprising a double swing body (2.2) attachable thereto which is mountable and dismountable to transport products, and - the double swing battery vehicle is a product transporter for an airport apron. - the double swing vehicle, in addition to supplying power to the consumer battery, is also used to transport products to the consumer battery and to the charging station by comprising a double swing body (2.2) attachable thereto which is mountable and dismountable to transport products, and - the double swing battery vehicle is a product transporter for an airport apron. - the double swing battery vehicle is a product transporter for an airport apron.
A USB hub comprising a plurality of USB ports each comprising a USB port connector and further comprising: a single controllable power element (325; 445) providing a regulated supply voltage to the plurality of USB port connectors (305, 350); a plurality of current measurement units (310, 320; 340, 345) coupled between the single controllable power element (325; 445) and the plurality of USB port connectors (305, 350), respectively, wherein each current measurement unit (310, 320; 340, 345) receives said regulated voltage, wherein each current measurement unit (310, 320; 340, 345) measures a current drawn by a USB port sub-group (305; 350), wherein a USB port sub-group (305; 350) is comprised of one or more of the plurality of USB ports; and a power port control logic unit configured to control the single controllable power element (325; 445), wherein the power port control logic unit receives one or more current measurements via the plurality of current measurement units (310, 320; 340, 345) and wherein the power port control logic unit is further configured to direct the single controllable power element (325; 445) to turn off the regulated supply voltage to the plurality of USB port connectors (305, 350) if the received current measurements indicate a current limit has been exceeded by one of the USB port sub-groups (305; 350) and further turn off the regulated supply voltage to the plurality of USB port connectors (305, 350) if the received current measurements indicate that a collective current limit has been exceeded by all of the USB port sub-groups (305, 350). a single controllable power element (325; 445) providing a regulated supply voltage to the plurality of USB port connectors (305, 350); a plurality of current measurement units (310, 320; 340, 345) coupled between the single controllable power element (325; 445) and the plurality of USB port connectors (305, 350), respectively, wherein each current measurement unit (310, 320; 340, 345) receives said regulated voltage, wherein each current measurement unit (310, 320; 340, 345) measures a current drawn by a USB port sub-group (305; 350), wherein a USB port sub-group (305; 350) is comprised of one or more of the plurality of USB ports; and a power port control logic unit configured to control the single controllable power element (325; 445), wherein the power port control logic unit receives one or more current measurements via the plurality of current measurement units (310, 320; 340, 345) and wherein the power port control logic unit is further configured to direct the single controllable power element (325; 445) to turn off the regulated supply voltage to the plurality of USB port connectors (305, 350) if the received current measurements indicate a current limit has been exceeded by one of the USB port sub-groups (305; 350) and further turn off the regulated supply voltage to the plurality of USB port connectors (305, 350) if the received current measurements indicate that a collective current limit has been exceeded by all of the USB port sub-groups (305, 350).
A method of forming an image on a substrate, comprising the steps of: a) applying a coating of flakes within a binder to a first region of the substrate, wherein at least some of the flakes within the coating are alignable in an applied magnetic or electric field; b) moving the substrate at the speed of at least 7.62 m/min (25 ft/min) and applying a magnetic or electric field so as to orient at least some of the flakes within the coating; and, c) while the first region of the substrate is moving in a first downstream direction, irradiating with one or more laser beams in one or more sub-regions of the first region of aligned flakes so as to cure the binder and maintain alignment of flakes within the one or more sub-regions, wherein the one or more laser beams irradiate a plurality of locations on the substrate along a direction across the downstream direction, wherein lines of flakes across the substrate are cured in succession as the substrate is moving and wherein the length of the lines vary in a predetermined manner so as to form an image. a) applying a coating of flakes within a binder to a first region of the substrate, wherein at least some of the flakes within the coating are alignable in an applied magnetic or electric field; b) moving the substrate at the speed of at least 7.62 m/min (25 ft/min) and applying a magnetic or electric field so as to orient at least some of the flakes within the coating; and, c) while the first region of the substrate is moving in a first downstream direction, irradiating with one or more laser beams in one or more sub-regions of the first region of aligned flakes so as to cure the binder and maintain alignment of flakes within the one or more sub-regions, wherein the one or more laser beams irradiate a plurality of locations on the substrate along a direction across the downstream direction, wherein lines of flakes across the substrate are cured in succession as the substrate is moving and wherein the length of the lines vary in a predetermined manner so as to form an image.