mhurhangee/ep-ind-claims huggingface dataset:
Method for marking an object, the object having a surface of a conductive material, the method comprising applying an electric spark to the surface such that the material is at least one of partially melted and partially ablated by the electric spark, thereby forming a pattern on the object, wherein the surface is exposed to a gas while the electric spark is applied to the surface, wherein the electric spark comprises two subsequent phases, a first phase where a conductive channel is formed and a second phase where current is injected into the conductive channel for at least one of partially melting and partially ablating the material, and wherein the pattern on the object comprises a randomly shaped crater or a random distribution of randomly shaped craters and re-deposited surface material droplets.
A back pressure device for progressive die apparatus for blanking iron core laminates from intermittently transported sheet steel strip and stacking a plurality of iron core laminates into individual iron cores, comprising: a support table capable of being disposed in a vertically moveable manner in an iron core retaining member for retaining iron core laminates blanked from the sheet steel strip in the progressive die apparatus, wherein the iron core laminates are stacked on the support table one after another; a support unit for supporting the support table; a lifting motor for causing a vertical movement of the support table via the support unit; and a control unit for controlling a rotational motion of the lifting motor; characterized in that the control unit is configured to set a plurality of torque limit values for limiting an output torque of the lifting motor depending on an action of the progressive die apparatus so that the output torque is limited by a largest of the torque limit values during a blanking interval for the iron core laminates such that in operation the iron core laminates are not pushed upward by the support table. a support table capable of being disposed in a vertically moveable manner in an iron core retaining member for retaining iron core laminates blanked from the sheet steel strip in the progressive die apparatus, wherein the iron core laminates are stacked on the support table one after another; a support unit for supporting the support table; a lifting motor for causing a vertical movement of the support table via the support unit; and a control unit for controlling a rotational motion of the lifting motor;
Method for transmitting a message for updating associations between at least one first address and one second address of a mobile terminal, implemented by a mobile terminal attached by a plurality of first addresses to first devices of at least one first packet-switched mobile communication network, said first devices being capable of directing a plurality of communication flows to the mobile terminal, the method including a step of obtaining a second address when the mobile terminal is attached to a second device of a second network, the method including: - a step of generating a bundled update message, including individual information relating to the plurality of first devices, and information relating to the second device, and the method being characterized by - a step of transmitting the bundled message to a management device, of the Home Agent type, previously associated with the mobile terminal and capable of generating and transmitting individual update messages, from the bundled update message, to the first devices. - a step of generating a bundled update message, including individual information relating to the plurality of first devices, and information relating to the second device, and the method being characterized by - a step of transmitting the bundled message to a management device, of the Home Agent type, previously associated with the mobile terminal and capable of generating and transmitting individual update messages, from the bundled update message, to the first devices.
Method of processing waste created after recycling paper from used beverage cartons characterized in that, during Phase I - preparing and sorting the input material - the input material (I-A) is shredded and from this shredded material (I-A), rough waste (I-B) made up of heavy materials and dust waste (I-C) is removed, and then the input material (I-A) treated in this way is separated into fraction (I-D), containing mainly non-foil plastics, and fraction containing mainly PE foil and PE+AL foil, and during Phase II - separating PE+AL foil into polyethylene and aluminium and their sorting - fraction containing PE+AL foil, undergoes washing in a formic acid water solution and is separated into fraction (II-A), containing mainly polyethylene and fraction (II-B) containing mainly aluminium.
Process for manufacturing a microcrystalline ezetimibe containing granulate, consisting of the following steps a) ezetimibe is dissolved; b) the dissolved ezetimibe is precipitated by rapid admixing with water, which optionally may contain pharmaceutical excipients, preferably lauryl-sulfate derivatives, and c) granules are formed from the thus obtained suspension by spraying the suspension onto the surface of pharmaceutical excipients, wherein the dissolved ezetimibe is precipitated by rapid and uniform admixture of the ezetimibe containing solution and the pharmaceutical excipients containing anti-solvent, wherein admixture is carried out for 5-300 seconds and wherein optionally a pharmaceutical formulation is provided containing the granules obtained in step c) and one or more other active ingredients in therapeutically effective amount and/or one or more pharmaceutical excipients. a) ezetimibe is dissolved; b) the dissolved ezetimibe is precipitated by rapid admixing with water, which optionally may contain pharmaceutical excipients, preferably lauryl-sulfate derivatives, and c) granules are formed from the thus obtained suspension by spraying the suspension onto the surface of pharmaceutical excipients,
Method for installing a cable assembly for communication purposes, said cable assembly comprising a communication cable having a first free, front end and wherein the cable Is built up of at least an optical fibre, which is coaxially surrounded by at least one cable sheath, said method comprising the steps of: i) providing a cable guide having a starting point and an end, open point located at an end users home; ii) guiding said cable assembly with the optical fibre being exposed at the free, front end of the cable, at which free, front end the fibre Is fixedly surrounded by a connecting element having at least one recess in its circumferential surface, from said starting point towards said end point using a transfer medium; iii) collecting the free, front end of the cable assembly at the end point; iv) final assembly of a communication connector containing the connection element at the free, front end of the cable assembly once the cable assembly has been passed through the cable guide. i) providing a cable guide having a starting point and an end, open point located at an end users home; ii) guiding said cable assembly with the optical fibre being exposed at the free, front end of the cable, at which free, front end the fibre Is fixedly surrounded by a connecting element having at least one recess in its circumferential surface, from said starting point towards said end point using a transfer medium; iii) collecting the free, front end of the cable assembly at the end point; iv) final assembly of a communication connector containing the connection element at the free, front end of the cable assembly once the cable assembly has been passed through the cable guide.
Aqueous solution comprising, by weight: - from 1 to 35% of peroxyacetic acid; - from 0.05 to 3.9% of hydrogen peroxide; - from 50 to 98,5% of acetic acid; - water balance to 100%, provided that the amount of peroxyacetic acid is at least equal to 86.5% with respect to the sum of the weights of peroxyacetic acid and hydrogen peroxide. - from 1 to 35% of peroxyacetic acid; - from 0.05 to 3.9% of hydrogen peroxide; - from 50 to 98,5% of acetic acid; - water balance to 100%,
A muscle stimulation system, comprising: a plurality of stimulation electrodes adapted to be positioned on a subject; a cooling element in communication with a cooling element control unit, wherein the cooling element control unit is configured to control the cooling element to decrease the temperature of one or more superficial tissues, and wherein the cooling element is configured to be positioned on the subject at a location between the plurality of stimulation electrodes where the plurality of stimulation electrodes are not positioned; and a stimulation control unit in communication with the plurality of stimulating electrodes. a plurality of stimulation electrodes adapted to be positioned on a subject; a cooling element in communication with a cooling element control unit, wherein the cooling element control unit is configured to control the cooling element to decrease the temperature of one or more superficial tissues, and wherein the cooling element is configured to be positioned on the subject at a location between the plurality of stimulation electrodes where the plurality of stimulation electrodes are not positioned; and a stimulation control unit in communication with the plurality of stimulating electrodes.
A rodent whose genome comprises a humanized CD47 gene, wherein the humanized CD47 gene comprises exon 1 of an endogenous rodent CD47 gene, exons 2-7 of a human CD47 gene, and the exons downstream of exon 7 of the endogenous rodent CD47 gene, wherein the humanized CD47 gene is operably linked to an endogenous rodent CD47 promoter.
A floor mat to be used by at least one animal, wherein the floor mat, in a mounted state, comprises an upper surface, which has a contact surface with an animal, and a lower surface, which is arranged to be in a contact with an underlying surface, the contact surface comprises a plane extension except in an area, which has an extension between a limit line of the contact surface and a side edge of the mat, wherein said area slopes downwardly from the limit line towards the side edge of the mat, characterised in that the distance between the limit line of the contact surface and a said side edge of the mat is in the interval of 10 to 30 cm and wherein that said area of the contact surface slopes downwardly with an angle of at least 2°.
An injection needle provided with: a needle (23, 123); a needle base holding the needle (23, 123) in a state of protruding toward the top end side; and an adjuster (25, 125) disposed to be movable along the axis direction of the needle base on the outer periphery of the needle base, wherein a protrusion length of the needle (23, 123) is adjusted by adjusting a position of the adjuster (25, 125) in the axis direction; the adjuster (25, 125) is movable in the axis direction of the needle base by a screw engagement structure; characterised in that the moving amount of the adjuster (25, 125) toward the top end side is limited to a predetermined amount by a stopper mechanism (51, 53); the stopper mechanism (51, 53) is composed of a collar portion on the side of the adjuster (25, 125) becoming in contact with an end of a male screw portion on the side of the needle base. a needle (23, 123); a needle base holding the needle (23, 123) in a state of protruding toward the top end side; and an adjuster (25, 125) disposed to be movable along the axis direction of the needle base on the outer periphery of the needle base, wherein a protrusion length of the needle (23, 123) is adjusted by adjusting a position of the adjuster (25, 125) in the axis direction; the adjuster (25, 125) is movable in the axis direction of the needle base by a screw engagement structure; characterised in that the moving amount of the adjuster (25, 125) toward the top end side is limited to a predetermined amount by a stopper mechanism (51, 53); the stopper mechanism (51, 53) is composed of a collar portion on the side of the adjuster (25, 125) becoming in contact with an end of a male screw portion on the side of the needle base.
Position measuring device, having • a code carrier (1.2) having at least one first graduation track (1.21) and one second graduation track (1.22), wherein the second graduation track (1.22) is an incremental graduation track, • a first detector arrangement (2.22) for producing first position signals (Z1_1, Z3_1, Z16_1) by scanning the first graduation track (1.21) and the second graduation track (1.22) in a measurement direction, • a second detector arrangement (2.23) for producing second position signals (Z16_2) by scanning the second graduation track (1.22) in a measurement direction, • a first position processing unit (3.1, 4.1) for processing the first position signals (21_1, Z3_1, Z16_1) to form a first absolute position value and • a second position processing unit (3.2, 4.2) for processing the second position signals (Z16_2) to form a second absolute position value, wherein the second position processing unit (3.2, 4.2) is initializable with an absolute auxiliary position value (HPOS) that is supplied to the second position processing unit (3.2, 4.2) from the first position processing unit (3.1, 4.1). • a code carrier (1.2) having at least one first graduation track (1.21) and one second graduation track (1.22), wherein the second graduation track (1.22) is an incremental graduation track, • a first detector arrangement (2.22) for producing first position signals (Z1_1, Z3_1, Z16_1) by scanning the first graduation track (1.21) and the second graduation track (1.22) in a measurement direction, • a second detector arrangement (2.23) for producing second position signals (Z16_2) by scanning the second graduation track (1.22) in a measurement direction, • a first position processing unit (3.1, 4.1) for processing the first position signals (21_1, Z3_1, Z16_1) to form a first absolute position value and • a second position processing unit (3.2, 4.2) for processing the second position signals (Z16_2) to form a second absolute position value,
A protein kinase C inhibitor for use in a method of treating a carcinoma having a GNAQ or GNA11 genetic mutation in a patient in need thereof, wherein the carcinoma is selected from the group consisting of pancreatic adenocarcinoma, stomach adenocarcinoma, cervical carcinoma, and lung adenocarcinoma, the method comprising: determining if the carcinoma has a GNAQ or GNA11 genetic mutation; and orally administering to the patient having the carcinoma with the GNAQ or GNA11 genetic mutation a therapeutically effective amount of the protein kinase C inhibitor. determining if the carcinoma has a GNAQ or GNA11 genetic mutation; and orally administering to the patient having the carcinoma with the GNAQ or GNA11 genetic mutation a therapeutically effective amount of the protein kinase C inhibitor.
Installation for the production of asphalt, the installation comprising a. a heating unit for heating a gas, b. a first drying unit for drying a first material, the drying unit being connected to the heating unit via a gas line, c. at least one exhaust gas source (10, 11, 12, 13), which is connected to the heating unit via an exhaust gas line, characterized in that the at least one exhaust gas source has an extraction hood comprising an integrated particle separator unit. a. a heating unit for heating a gas, b. a first drying unit for drying a first material, the drying unit being connected to the heating unit via a gas line, c. at least one exhaust gas source (10, 11, 12, 13), which is connected to the heating unit via an exhaust gas line,
A device (100, 200, 300, 410, 1410) for interstitial laser therapy comprising: an optical waveguide (110, 210, 310, 1550, 1740) extending about a central longitudinal axis (120, 220, 320) and having an optical output end; an optical diffuser (130, 230, 330, 630, 730, 830, 930, 1030, 1130, 1230, 1330, 1530, 1730) optically coupled to the optical output end (112, 212, 312), wherein the optical diffuser (130, 230, 330, 630, 730, 830, 930, 1030, 1130, 1230, 1330, 1530, 1730) comprises a housing (132, 232, 323) having an open end (134, 234, 334) for receiving the optical output end (112, 212, 312) and a first longitudinal portion (114, 214, 314) of the optical waveguide (110, 210, 310, 1550, 1740); characterized in that the optical diffuser (130, 230, 330, 630, 730, 830, 930, 1030, 1130, 1230, 1330, 1530, 1730) is provided with one or more holes (640, 1040, 1340), one or more slits (740, 840, 940, 1240), one or more openings (640, 740, 840, 940, 1040, 1240, 1340), and/or one or more vents (640, 740, 840, 940, 1040, 1240, 1340), wherein the one or more holes, slits, openings and/or vents are adapted to allow gases generated during use to escape out, diffuse out, or vent, from an inside region of the diffuser; and a first temperature sensor (151, 251, 351, 370, 372, 374, 376, 1510, 1710) is interposed between the central longitudinal axis (120, 220, 320) and an exterior surface (136, 236, 336) of the housing (132, 232, 332) within the longitudinal extent of the first longitudinal portion (114, 214, 314) of the optical waveguide (110, 210, 310, 1550, 1740). an optical waveguide (110, 210, 310, 1550, 1740) extending about a central longitudinal axis (120, 220, 320) and having an optical output end; an optical diffuser (130, 230, 330, 630, 730, 830, 930, 1030, 1130, 1230, 1330, 1530, 1730) optically coupled to the optical output end (112, 212, 312), wherein the optical diffuser (130, 230, 330, 630, 730, 830, 930, 1030, 1130, 1230, 1330, 1530, 1730) comprises a housing (132, 232, 323) having an open end (134, 234, 334) for receiving the optical output end (112, 212, 312) and a first longitudinal portion (114, 214, 314) of the optical waveguide (110, 210, 310, 1550, 1740); characterized in that the optical diffuser (130, 230, 330, 630, 730, 830, 930, 1030, 1130, 1230, 1330, 1530, 1730) is provided with one or more holes (640, 1040, 1340), one or more slits (740, 840, 940, 1240), one or more openings (640, 740, 840, 940, 1040, 1240, 1340), and/or one or more vents (640, 740, 840, 940, 1040, 1240, 1340), wherein the one or more holes, slits, openings and/or vents are adapted to allow gases generated during use to escape out, diffuse out, or vent, from an inside region of the diffuser; and a first temperature sensor (151, 251, 351, 370, 372, 374, 376, 1510, 1710) is interposed between the central longitudinal axis (120, 220, 320) and an exterior surface (136, 236, 336) of the housing (132, 232, 332) within the longitudinal extent of the first longitudinal portion (114, 214, 314) of the optical waveguide (110, 210, 310, 1550, 1740).
A light-emitting device comprising: a first electrode; a second electrode facing the first electrode; and an interlayer between the first electrode and the second electrode and comprising an emission layer, wherein the emission layer comprises i) a first compound, a second compound, and a third compound, and ii) a first organometallic compound and a second organometallic compound, the first compound to the third compound are different from each other, the first organometallic compound and the second organometallic compound each independently comprise at least one transition metal, the first organometallic compound and the second organometallic compound are different from each other, and a difference between an absolute value of a highest occupied molecular orbital (HOMO) energy level (eV) of the second compound and an absolute value of a HOMO energy level (eV) of the third compound is 0.1 eV or more, wherein the HOMO energy level is evaluated by a density functional theory method using a B3LYP approach with a 6-31G* basis set, and characterized in that, the first compound, the second compound, the third compound, the first organometallic compound and the second organometallic compound are co-deposited. a first electrode; a second electrode facing the first electrode; and an interlayer between the first electrode and the second electrode and comprising an emission layer, wherein the emission layer comprises i) a first compound, a second compound, and a third compound, and ii) a first organometallic compound and a second organometallic compound, the first compound to the third compound are different from each other, the first organometallic compound and the second organometallic compound each independently comprise at least one transition metal, the first organometallic compound and the second organometallic compound are different from each other, and a difference between an absolute value of a highest occupied molecular orbital (HOMO) energy level (eV) of the second compound and an absolute value of a HOMO energy level (eV) of the third compound is 0.1 eV or more, wherein the HOMO energy level is evaluated by a density functional theory method using a B3LYP approach with a 6-31G* basis set, and characterized in that, the first compound, the second compound, the third compound, the first organometallic compound and the second organometallic compound are co-deposited.
A method of hydrotreatment, the method comprising the steps of: providing bio-crude from biomass pyrolysis that is suitable for undergoing hydrotreatment; mixing the bio-crude with a hydrogenation agent to form a feed stream comprising a mixture of the bio-crude and the hydrogenation agent; and heating the feed stream to break chemical bonds of the bio-crude in the presence of a hydrotreating catalyst, the feed stream being heated to at least a temperature at which the hydrotreating catalyst can provide activated hydrogen to react with the broken bonds within the bio-crude so as to minimise coke formed from the bio-crude, characterised in that the feed stream is fed directly into a reaction region of a reactor, wherein the reaction region is at a temperature sufficient for the reaction between the bio-crude and the hydrogenation agent to occur in the presence of the hydrotreating catalyst to facilitate matching bond-breaking within the bio-crude with activated hydrogen provided by the hydrotreating catalyst; and prior to heating the feed stream in the presence of the hydrotreating catalyst, the feed stream is maintained below a predefined temperature, wherein the predefined temperature is 150°C. providing bio-crude from biomass pyrolysis that is suitable for undergoing hydrotreatment; mixing the bio-crude with a hydrogenation agent to form a feed stream comprising a mixture of the bio-crude and the hydrogenation agent; and heating the feed stream to break chemical bonds of the bio-crude in the presence of a hydrotreating catalyst, the feed stream being heated to at least a temperature at which the hydrotreating catalyst can provide activated hydrogen to react with the broken bonds within the bio-crude so as to minimise coke formed from the bio-crude, characterised in that the feed stream is fed directly into a reaction region of a reactor, wherein the reaction region is at a temperature sufficient for the reaction between the bio-crude and the hydrogenation agent to occur in the presence of the hydrotreating catalyst to facilitate matching bond-breaking within the bio-crude with activated hydrogen provided by the hydrotreating catalyst; and prior to heating the feed stream in the presence of the hydrotreating catalyst, the feed stream is maintained below a predefined temperature, wherein the predefined temperature is 150°C.