mhurhangee/ep-ind-claims huggingface dataset:
A steam turbine comprising: a compressive stress layer to which compressive residual stress has been given by means of shot peening at the surface of an engagement part of a rotor, wherein a peeling and/or a dent is formed on a surface of the compressive stress layer; and a coating layer (15, 215) formed to cover the surface of the compressive stress layer by means of plating, wherein the coating layer (15, 215) comprises a plating layer which coats the peeling and/or the dent of the surface of the engagement part; characterized in that the engagement part of the rotor has a tree-shaped groove and the coating layer (15, 215) is formed of the following two layers: a lower layer part formed on the surface of the compressive stress layer by one selected from nickel plating, nickel composite plating and chrome plating; and an upper layer part formed on the surface of the lower layer part by one selected from gold plating and gold composite plating. a compressive stress layer to which compressive residual stress has been given by means of shot peening at the surface of an engagement part of a rotor, wherein a peeling and/or a dent is formed on a surface of the compressive stress layer; and a coating layer (15, 215) formed to cover the surface of the compressive stress layer by means of plating, wherein the coating layer (15, 215) comprises a plating layer which coats the peeling and/or the dent of the surface of the engagement part; characterized in that the engagement part of the rotor has a tree-shaped groove and the coating layer (15, 215) is formed of the following two layers: a lower layer part formed on the surface of the compressive stress layer by one selected from nickel plating, nickel composite plating and chrome plating; and an upper layer part formed on the surface of the lower layer part by one selected from gold plating and gold composite plating. a lower layer part formed on the surface of the compressive stress layer by one selected from nickel plating, nickel composite plating and chrome plating; and an upper layer part formed on the surface of the lower layer part by one selected from gold plating and gold composite plating.
Spring device with a piston and with a housing into which the piston can be introduced in a movement direction, wherein a cavity is formed between the piston and the housing, wherein a compressible solid body spring element is arranged in the cavity and consists of a solid body that can be compressed by the piston, characterized in that all surfaces of the piston facing the solid body spring element are formed conically or concavely, corresponding to a corresponding convex form of the solid body spring element, such that a movement of the piston reducing the cavity leads to a spreading of the piston, wherein the piston is made of metal.
A process for producing a pulverulent composition comprising: 1 to 20% by weight of at least one carotenoid selected from the group consisting of β-carotene, astaxanthin, canthaxanthin, citranaxanthin, lycopene and lutein, 3 to 60% by weight of modified starch, 3 to 60% by weight of glucose, 0.5 to 10% by weight of at least one antioxidant, and 0.5 to 6.5% by weight of water-residual moisture, wherein the percentages by weight relate to the dried powder still comprising residual moisture and where the weight ratio of the carotenoids to the modified starch is 1:3 to 1:7, and wherein the modified starch is an octenyl succinate starch, comprising the steps a 1) dissolving the carotenoids in a water-miscible organic solvent or in a mixture of water and a water-miscible organic solvent at temperatures above 30°C, or a 2) dissolving the carotenoids in a water-immiscible organic solvent selected from the group consisting of dimethyl carbonate, propylene carbonate, ethyl formate, ethyl acetate, isopropyl acetate and methyl tert-butyl ether, b) mixing the solution obtained according to a 1) or a 2) with an aqueous molecularly disperse or colloidally disperse solution of a mixture of glucose and the modified starch, wherein the hydrophobic phase of the carotenoids is formed as nanodisperse phase, c) converting the dispersion formed into a dry powder by separating off the majority of the water and, optionally, solvents additionally used, and subsequent drying. a 1) dissolving the carotenoids in a water-miscible organic solvent or in a mixture of water and a water-miscible organic solvent at temperatures above 30°C, or a 2) dissolving the carotenoids in a water-immiscible organic solvent selected from the group consisting of dimethyl carbonate, propylene carbonate, ethyl formate, ethyl acetate, isopropyl acetate and methyl tert-butyl ether, b) mixing the solution obtained according to a 1) or a 2) with an aqueous molecularly disperse or colloidally disperse solution of a mixture of glucose and the modified starch, wherein the hydrophobic phase of the carotenoids is formed as nanodisperse phase, c) converting the dispersion formed into a dry powder by separating off the majority of the water and, optionally, solvents additionally used, and subsequent drying.
A mass spectrometer (100; 200; 300; 400; 500) comprising: a first vacuum chamber (101; 201; 301; 401; 501); a first communication hole configured to communicate an atmosphere with the first vacuum chamber (101; 201; 301; 401; 501); a first vacuum pump configured to evacuate air from the first vacuum chamber (101; 201; 301; 401; 501); an atmospheric pressure relating value acquiring unit configured to acquire an atmospheric pressure relating value relating to an atmospheric pressure; an adjustment unit configured to adjust an effective exhaust velocity of the first vacuum pump; and a controller configured to control the adjustment unit, wherein: the controller acquires the atmospheric pressure relating value and control the adjustment unit such that a pressure of the first vacuum chamber (101; 201; 301; 401; 501) is a predetermined reference value corresponding to the atmospheric pressure relating value; and the atmospheric pressure relating value is a value indicating an atmospheric pressure. a first vacuum chamber (101; 201; 301; 401; 501); a first communication hole configured to communicate an atmosphere with the first vacuum chamber (101; 201; 301; 401; 501); a first vacuum pump configured to evacuate air from the first vacuum chamber (101; 201; 301; 401; 501); an atmospheric pressure relating value acquiring unit configured to acquire an atmospheric pressure relating value relating to an atmospheric pressure; an adjustment unit configured to adjust an effective exhaust velocity of the first vacuum pump; and a controller configured to control the adjustment unit, wherein: the controller acquires the atmospheric pressure relating value and control the adjustment unit such that a pressure of the first vacuum chamber (101; 201; 301; 401; 501) is a predetermined reference value corresponding to the atmospheric pressure relating value; and the atmospheric pressure relating value is a value indicating an atmospheric pressure.
A method, performed by a Radio Access Network, RAN, node, for handling data packets from a Core Network, CN, node (131, 132) to a User Equipment, UE,, the method comprising: - receiving from the CN node (131,132), a data packet comprised in a Protocol Data Unit, PDU, flow, which packet comprises a PDU session ID and a PDU flow ID for identifying the packet, - generating a RAN flow ID based on the PDU session ID and the PDU flow ID, - transmitting a RAN packet to the UE, wherein the RAN packet comprises the data packet and the generated RAN flow ID for identifying the RAN packet, wherein the generated RAN flow ID is managed by a radio protocol layer, and wherein the generating a RAN flow ID comprises: - encoding the PDU session ID and the PDU flow ID into the RAN flow ID by means of a paring function, wherein the generated RAN flow ID comprises less bits than the PDU session ID and the PDU flow ID combined, or - deriving a local RAN flow ID for a combination of PDU session ID and PDU flow ID from a look-up table comprising a mapping of the local RAN flow IDs to combinations of PDU session ID and PDU flow ID, wherein the local RAN flow ID is only valid between the RAN node and the UE. - receiving from the CN node (131,132), a data packet comprised in a Protocol Data Unit, PDU, flow, which packet comprises a PDU session ID and a PDU flow ID for identifying the packet, - generating a RAN flow ID based on the PDU session ID and the PDU flow ID, - transmitting a RAN packet to the UE, wherein the RAN packet comprises the data packet and the generated RAN flow ID for identifying the RAN packet, - encoding the PDU session ID and the PDU flow ID into the RAN flow ID by means of a paring function, wherein the generated RAN flow ID comprises less bits than the PDU session ID and the PDU flow ID combined, or - deriving a local RAN flow ID for a combination of PDU session ID and PDU flow ID from a look-up table comprising a mapping of the local RAN flow IDs to combinations of PDU session ID and PDU flow ID, wherein the local RAN flow ID is only valid between the RAN node and the UE.
Plug-in-connection between a connecting part and a plug-in-part, which can be axially plugged into one another, wherein the plug-in-connection comprises a sealing ring being received in a sealing groove between the connecting part and the plug-in-part, wherein the sealing ring in the sealing groove is radially supported by the connecting part and the plug-in-part, respectively, and exerts a sealing pressure in the radial direction, characterized in that the sealing ring is capital omega-shaped in cross section comprising a rounded body portion and supporting legs at the open side of the rounded body portion, wherein the open side of the rounded body portion is positioned next to the radial outside part of the plug-in-connection.
Method for producing an optoelectronic semiconductor chip with the steps of: - providing a growth substrate, - epitaxial depositing a first semiconductor layer sequence, - epitaxial depositing a second semiconductor layer sequence on the first semiconductor layer sequence, wherein - the first semiconductor layer sequence comprises an ESD layer deposited at a growth temperature at which V defects occur in high density in the ESD layer, and - the second semiconductor layer sequence comprises an active region, characterized in that - the ESD layer is based on GaN, wherein the ESD layer is grown at a growth temperature lower than 900°C using a tri-ethyl gallium precursor with the carrier gas nitrogen. - providing a growth substrate, - epitaxial depositing a first semiconductor layer sequence, - epitaxial depositing a second semiconductor layer sequence on the first semiconductor layer sequence, wherein - the first semiconductor layer sequence comprises an ESD layer deposited at a growth temperature at which V defects occur in high density in the ESD layer, and - the second semiconductor layer sequence comprises an active region, characterized in that - the ESD layer is based on GaN, wherein the ESD layer is grown at a growth temperature lower than 900°C using a tri-ethyl gallium precursor with the carrier gas nitrogen.
Method for operating a display device, comprising the following steps: a) capturing image data of at least a part of the head of a user (step 110); b) determining at least one variable parameter by the user by moving at least part of the head from the image data captured in step a) (step 120); c) controlling a visual representation for operating an application by the user on a display device dependent on the determined at least one parameter (step 130); characterised by the following further steps: d) determining at least one quality parameter based on the detection in step a) (step 140); e) varying at least one resolution of at least part of the visual representation dependent on the at least one quality parameter (step 150); wherein the parameter determined in b) represents a measured value and the quality parameter represents the measurement accuracy associated with the measured value or a measure of the measurement accuracy associated with the measured value. a) capturing image data of at least a part of the head of a user (step 110); b) determining at least one variable parameter by the user by moving at least part of the head from the image data captured in step a) (step 120); c) controlling a visual representation for operating an application by the user on a display device dependent on the determined at least one parameter (step 130); d) determining at least one quality parameter based on the detection in step a) (step 140); e) varying at least one resolution of at least part of the visual representation dependent on the at least one quality parameter (step 150);
A combination comprising the components of a. an antibody binding to at least one of the molecules PDland PD-L1; and b. a non-coding deoxyribonucleic acid comprising at least one sequence motif N 1 N 2 CGN 3 N 4, wherein N is A, C, T, or G, and C is deoxycytidine, G is deoxyguanosine, A is deoxyadenosine and T is deoxythymidine, wherein the non-coding sequence of deoxyribonucleic acids is any one of the sequences of SEQ ID NO:5, SEQ ID NO:6, SEQ ID NO:7, SEQ ID NO:8, SEQ ID NO:9, SEQ ID NO: 10, SEQ ID NO: 11 and SEQ ID NO: 12. a. an antibody binding to at least one of the molecules PDland PD-L1; and b. a non-coding deoxyribonucleic acid comprising at least one sequence motif N 1 N 2 CGN 3 N 4, wherein N is A, C, T, or G, and C is deoxycytidine, G is deoxyguanosine, A is deoxyadenosine and T is deoxythymidine, wherein the non-coding sequence of deoxyribonucleic acids is any one of the sequences of SEQ ID NO:5, SEQ ID NO:6, SEQ ID NO:7, SEQ ID NO:8, SEQ ID NO:9, SEQ ID NO: 10, SEQ ID NO: 11 and SEQ ID NO: 12.
A control network entity for an LTE network, the control network entity comprising a first control entity and a second control entity, wherein the first control entity is configured to control a first packet processing engine, PPE, and the second control entity is configured to control a second packet processing engine, PPE,, the said first PPE and the said second PPE being located outside a core network of the LTE network, such that user plane traffic is routed through the said first PPE and the said second PPE; the first control entity is configured to route a dedicated bearer request to the second control entity rather than to a central gateway entity; the second control entity is configured to accept the dedicated bearer request routed to it by the first control entity such that a dedicated bearer terminating at the second control entity can be set up without first setting up a default bearer terminating at the second control entity, wherein the dedicated bearer is a child of the default bearer, the dedicated bearer having specific quality of service properties for carrying voice or video data; and the first control entity and the second control entity are located within the core network of the LTE network. the first control entity is configured to route a dedicated bearer request to the second control entity rather than to a central gateway entity; the second control entity is configured to accept the dedicated bearer request routed to it by the first control entity such that a dedicated bearer terminating at the second control entity can be set up without first setting up a default bearer terminating at the second control entity, wherein the dedicated bearer is a child of the default bearer, the dedicated bearer having specific quality of service properties for carrying voice or video data; and the first control entity and the second control entity are located within the core network of the LTE network.
A monolithic fibre cement article comprising cement at between 45 to 50 wt. % of the formulation on a dry mass basis, a siliceous source at between 30 to 35 wt. % of the formulation on a dry mass basis wherein the siliceous source comprises ground particles having an average surface area of less than 400m 2 /Kg, hammer-milled cellulose fibres at less than 7 wt. % of the formulation on a dry mass basis, synthetic fibres at less than 3 wt. % of the formulation on a dry mass basis, accelerant at between 12 to 19 wt. % of the formulation on a dry mass basis, viscosity enhancing agent at less than 2 wt. % of the formulation on a dry mass basis and water, wherein the water content is added into the formulation in a quantity less than 75 wt. % of the formulation on a dry mass basis; wherein the cellulose fibres and synthetic fibres comprise between 0.05 mm and 5.0 mm in length, and the cement calcium to cement silica ratio ranges between 50:50 and 60:40; the monolithic fibre cement article comprising one or more pre-formed regions shaped therein, the one or more pre-formed regions being shaped at least on one end of the monolithic fibre cement article such that the monolithic fibre cement article has an apparent density between 0.85g/cm 3 and 0.9 g/cm 3; and wherein the monolithic fibre cement article is lighter than a similar shaped cementitious article that does not have the one or more pre-formed regions shaped therein.
A coated abrasive article (1; 20; 24) comprising a backing having an abrasive coating on one side, the abrasive coating comprising an outer face; the article is characterised by an attachment layer on the other side of the backing, the attachment layer comprising a loop material; wherein a line of weakness (9; 22; 26) is formed in the article (1; 20; 24) that penetrates through the attachment layer but does not penetrate the outer face of the abrasive coating, the line of weakness (9; 22; 26) permitting one part of the abrasive article (1; 20; 24) to be separated from another part.
A composition comprising an antibody molecule that binds to CD70 and at least one antibody molecule that binds to a leukemic stem cell target, wherein the leukemic stem cell target is selected from the group consisting of: TIM-3; and IL1RAP, wherein the antibody molecule that binds to CD70 comprises a variable heavy chain domain and a variable light chain domain wherein the VH and VL domains comprise the CDR sequences: HCDR3 comprising or consisting of SEQ ID NO: 3; HCDR2 comprising or consisting of SEQ ID NO: 2; HCDR1 comprising or consisting of SEQ ID NO: 1; LCDR3 comprising or consisting of SEQ ID NO: 7; LCDR2 comprising or consisting of SEQ ID NO: 6; and LCDR1 comprising or consisting of SEQ ID NO: 5, wherein the antibody molecule that binds to TIM-3, when present, results in reduced NF-κB signaling; reduced Wnt signaling/β-catenin signalling; reduced sternness of AML cells; or a combination thereof, and wherein the antibody molecule that binds to IL1RAP, when present, results in reduced NF-κB signaling; reduced Wnt signaling/β-catenin signalling; reduced sternness of AML cells; or a combination thereof. HCDR3 comprising or consisting of SEQ ID NO: 3; HCDR2 comprising or consisting of SEQ ID NO: 2; HCDR1 comprising or consisting of SEQ ID NO: 1; LCDR3 comprising or consisting of SEQ ID NO: 7; LCDR2 comprising or consisting of SEQ ID NO: 6; and LCDR1 comprising or consisting of SEQ ID NO: 5, wherein the antibody molecule that binds to TIM-3, when present, results in reduced NF-κB signaling; reduced Wnt signaling/β-catenin signalling; reduced sternness of AML cells; or a combination thereof, and wherein the antibody molecule that binds to IL1RAP, when present, results in reduced NF-κB signaling; reduced Wnt signaling/β-catenin signalling; reduced sternness of AML cells; or a combination thereof.
A luminaire, comprising - at least one OLED arrangement with a carrier, at least two electrode layers and an organic light-emitting layer, - at least one light-modulating element, as well as - means for fixing to a suspension or holding apparatus or to a wall or ceiling, characterized in that the light-modulating element is in contact with the OLED arrangement, and the light-modulating elements are combined as separately encapsulated layers with transparent or non-transparent OLED. - at least one OLED arrangement with a carrier, at least two electrode layers and an organic light-emitting layer, - at least one light-modulating element, as well as - means for fixing to a suspension or holding apparatus or to a wall or ceiling,
A casting die comprising: a main cavity having a first interior volume for receiving a first molten volume of metal, the first interior volume corresponding to a geometry of an as-cast part; a first reservoir in serial fluid communication with the main cavity for storing a first molten backfill volume of metal to accommodate solidification shrinkage in the main cavity; characterised in that the serial fluid communication is provided by a runner configured into a wedge; the first reservoir has dimensions with an aspect ratio of height to cross-sectional area between 0.5 and 2.0; and a first vent in serial fluid communication with the first reservoir, the first vent having at least one passage for evacuating vapor from the first reservoir and the first interior volume. a main cavity having a first interior volume for receiving a first molten volume of metal, the first interior volume corresponding to a geometry of an as-cast part; a first reservoir in serial fluid communication with the main cavity for storing a first molten backfill volume of metal to accommodate solidification shrinkage in the main cavity; characterised in that the serial fluid communication is provided by a runner configured into a wedge; the first reservoir has dimensions with an aspect ratio of height to cross-sectional area between 0.5 and 2.0; and a first vent in serial fluid communication with the first reservoir, the first vent having at least one passage for evacuating vapor from the first reservoir and the first interior volume.
Apparatus for making filters, the apparatus comprising - a filter material converging device; - a thread positioning device for positioning a continuous thread in the filter material; - a liquid introduction device for introducing a liquid into the filter material, characterized in that the thread positioning device is arranged above the converging device such that an outlet opening of the thread positioning device is arrangeable within the converging device, that the liquid introduction device is arranged below the converging device such that an outlet opening of the liquid introduction device is arrangeable within the converging device, and that the outlet opening of the liquid introduction device is arranged upstream of the outlet opening of the thread positioning device. - a filter material converging device; - a thread positioning device for positioning a continuous thread in the filter material; - a liquid introduction device for introducing a liquid into the filter material, characterized in that the thread positioning device is arranged above the converging device such that an outlet opening of the thread positioning device is arrangeable within the converging device, that
A method for laser beam cutting of a component along a cutting line, wherein for producing a cutting gap in the component, a laser beam moves along the cutting line more than once, wherein at each move along the cutting line the depth of the cutting gap is increased, wherein the component is metallic and comprises a varnish.