mhurhangee/ep-ind-claims huggingface dataset:
A heat exchanger tube for transferring heat due to combustion of a combustor toward an exterior, the heat exchanger tube comprising: an insertion body made of aluminum through extrusion molding; and an accommodation body which is configured to accommodate the insertion body so that an inner circumferential surface can be in contact with an outer circumferential surface of the insertion body, characterised in that the insertion body in configured by folding up three or more sectors. an insertion body made of aluminum through extrusion molding; and an accommodation body which is configured to accommodate the insertion body so that an inner circumferential surface can be in contact with an outer circumferential surface of the insertion body, characterised in that the insertion body in configured by folding up three or more sectors.
A structural arrangement with at least one first fiber reinforced polymer component and at least one second fiber reinforced polymer component that are spaced apart from each other by an interspace and that are rigidly attached to an associated structural component, wherein the at least one first fiber reinforced polymer component and the at least one second fiber reinforced polymer component are at least partly interconnected by means of an electrically conductive connection, the electrically conductive connection comprises at least one sprayed layer formed by spraying of electrically conductive particles, the at least one sprayed layer of electrically conductive particles being provided in the interspace, characterized in that the at least one first fiber reinforced polymer component is electro-conductively connected to a first electrically conductive foil and the at least one second fiber reinforced polymer component is electro-conductively connected to a second electrically conductive foil, the at least one sprayed layer of electrically conductive particles being at least partly formed between the first and second electrically conductive foils (9a, 9b) and the associated structural component being one of a joggled panel, shell, stringer, rib, frame and beam for a rotary wing aircraft and that the at least one first fiber reinforced polymer component and the at least one second fiber reinforced polymer component being implemented as panels or shells for the rotary wing aircraft, with the interspace exhibiting a width that is comprised in a range between 1mm and 10mm.
Control system for controlling a rail vehicle having a first command level for controlling first functions of the rail vehicle and a second command level for controlling second functions, selected from the first functions, for the clearing journey of the rail vehicle, wherein the totality of the second functions forms a subset of the set of first functions, wherein the first command level comprises a first operator control unit and a first controller, which first controller is connected to contactors to be controlled, wherein the first operator control unit and the first controller are connected to one another via a first bus system for the transmission of data, characterized in that the second command level comprises a second operator control unit and a second controller which is connected to the contactors to be controlled, wherein the second operator control unit is connected to the second controller, via a second bus system for the transmission of data, and the operator control elements of the second operator control unit are free of fixed wiring to the contactors to be controlled.
An electrical assembly for use in a rotary transformer comprising: a ring of active material, being a material having properties that enable a magnetic field to be shaped, the ring having a longitudinal central axis and a radius substantially perpendicular to the axis and comprising at least two annular segments (110,112) each including a first portion and a second portion, said second portion tapering in radial direction from said first portion toward an end of said second portion such as to define a circumferential cross-sectional area of said ring that is substantially constant along the radius of said ring, wherein the circumferential cross-section is a cross-section taken at a circumference of a cylinder with said radius having the longitudinal axis as its center; and at least one winding coupled about said ring. a ring of active material, being a material having properties that enable a magnetic field to be shaped, the ring having a longitudinal central axis and a radius substantially perpendicular to the axis and comprising at least two annular segments (110,112) each including a first portion and a second portion, said second portion tapering in radial direction from said first portion toward an end of said second portion such as to define a circumferential cross-sectional area of said ring that is substantially constant along the radius of said ring, wherein the circumferential cross-section is a cross-section taken at a circumference of a cylinder with said radius having the longitudinal axis as its center; and at least one winding coupled about said ring.
Use of a furan ether as fuel or fuel additive, wherein the furan ether has been selected from 5-(tertbutoxymethyl)-2-(methoxymethyl)furan, 5-(tertbutoxymethyl)-2-(ethoxymethyl)furan, 5-(2-butoxymethyl)-2-(methoxymethyl)furan
Seat device, in particular aircraft seat device, with a backrest impact safeguarding unit (10a; 10b) that is configured to at least partly reduce impact forces (12a; 12b) on a backrest (14a; 14b) in case of a crash, the backrest impact safeguarding unit (10a; 10b) comprising an adjusting unit (16a; 16b), which is at least configured to initiate a safeguarding process, the adjusting unit (16a; 16b) comprising at least one crash sensor unit (18a; 18b), which is at least independent from a backrest force/from backrest forces, and an actuator unit (20a; 20b), which is configured to initiate an adjusting process, characterised in that the actuator unit (20a; 20b) and the crash sensor unit (18a; 18b) are embodied at least partly integrally.
A method of manufacturing a power module, the method comprising the steps of: providing a heat sink having a semiconductor element soldered on an upper surface thereof; a fixing step of fixing a hollow jig to the heat sink such that the heat sink is fixed horizontally with the hollow jig and the heat sink is held between internal surfaces of the hollow jig; providing a cooler having a sheet-like high heat conductive insulating resin bonded thereon; a placing step of placing the heat sink having the hollow jig fixed thereto onto the assembly of the sheet-like high heat conductive insulating resin and the cooler such that the high heat conductive insulating resin is interposed between the heat sink and the cooler; subsequently applying a negative pressure by evacuating air through an opening formed in an end of the hollow jig, thereby attaching the cooler to the jig and creating a hermetically closed space defined by the heat sink, the cooler, and the hollow jig; a bonding step of reducing pressure in the hermetically closed space by evacuating air from the hermetically closed space through a hole formed in an internal surface of the hollow jig to create a negative pressure around portions of the heat sink and the sheet-like high heat conductive insulating resin which are to be bonded and heating the sheet-like high heat conductive insulating resin to bond the sheet-like high heat conductive insulating resin to the heat sink. providing a heat sink having a semiconductor element soldered on an upper surface thereof; a fixing step of fixing a hollow jig to the heat sink such that the heat sink is fixed horizontally with the hollow jig and the heat sink is held between internal surfaces of the hollow jig; providing a cooler having a sheet-like high heat conductive insulating resin bonded thereon; a placing step of placing the heat sink having the hollow jig fixed thereto onto the assembly of the sheet-like high heat conductive insulating resin and the cooler such that the high heat conductive insulating resin is interposed between the heat sink and the cooler; subsequently applying a negative pressure by evacuating air through an opening formed in an end of the hollow jig, thereby attaching the cooler to the jig and creating a hermetically closed space defined by the heat sink, the cooler, and the hollow jig; a bonding step of reducing pressure in the hermetically closed space by evacuating air from the hermetically closed space through a hole formed in an internal surface of the hollow jig to create a negative pressure around portions of the heat sink and the sheet-like high heat conductive insulating resin which are to be bonded and heating the sheet-like high heat conductive insulating resin to bond the sheet-like high heat conductive insulating resin to the heat sink.
A method for producing ultrafine fibers, the method comprising: forming an electric field between an discharging nozzle from which a raw resin is discharged and a charging electrode which is disposed apart from the discharging nozzle, and supplying the raw resin which has been heated and melted into the electric field from the discharging nozzle to spin the raw resin, wherein the raw resin is a resin mixture which contains a resin having a melting point and an additive, and satisfies a relation below: A / B ≥ 1.0 × 10 2 wherein A represents an absolute value (Ω) of electrical impedance of the raw resin at 50°C, and B represents an absolute value of electrical impedance of the raw resin at a temperature 50°C higher than a melting point of the raw resin, wherein electrical impedance is measured using a method in which the applied voltage is set to be AC 0.1V for measurement in the molten state, and is set to be AC 1V for measurement at 50°C, that is, in the solid state, and the applied frequency is set at 0.1 Hz; wherein the measurement is performed in an environment at 23°C and 40% RH. forming an electric field between an discharging nozzle from which a raw resin is discharged and a charging electrode which is disposed apart from the discharging nozzle, and supplying the raw resin which has been heated and melted into the electric field from the discharging nozzle to spin the raw resin, wherein the raw resin is a resin mixture which contains a resin having a melting point and an additive, and satisfies a relation below: A / B ≥ 1.0 × 10 2 wherein A represents an absolute value (Ω) of electrical impedance of the raw resin at 50°C, and B represents an absolute value of electrical impedance of the raw resin at a temperature 50°C higher than a melting point of the raw resin, wherein electrical impedance is measured using a method in which the applied voltage is set to be AC 0.1V for measurement in the molten state, and is set to be AC 1V for measurement at 50°C, that is, in the solid state, and the applied frequency is set at 0.1 Hz; wherein the measurement is performed in an environment at 23°C and 40% RH.
A method for measuring nitrous oxide or ammonia in particular in the exhaust gases from internal combustion engines, wherein a stream of exhaust gas is maintained at a temperature of more than 100°C, the pressure in the stream of exhaust gas is kept constant via a controlling means, the stream of exhaust gas is mixed with at least five times the volume of a gas or gas mixture without the components to be measured in a constant ratio and a stream of measuring gas diluted in this manner is supplied to a measuring unit at a temperature of between 10°C and 35°C.
A method of solubilization of a composition comprising plant material, the method comprising a step of controlling the oxidation processes of said plant material by treating said composition with a glucose oxidase (EC 1.1.3.4); wherein the method of solubilization: a) is a method wherein the composition is solubilised by sonication, such as ultrasonic treatment and/or extrusion; and/or b) comprises a step of treating the composition with one or more cell-wall modifying enzymes; and/or c) comprises a step of treating the composition with one or more starch modifying enzymes, wherein the step of controlling the oxidation processes is performed prior to solubilization of said plant material, and wherein said plant material is cereal bran selected from rice, wheat, barley, oat, rye, triticale, and corn. a) is a method wherein the composition is solubilised by sonication, such as ultrasonic treatment and/or extrusion; and/or b) comprises a step of treating the composition with one or more cell-wall modifying enzymes; and/or c) comprises a step of treating the composition with one or more starch modifying enzymes,
A stream processing system, wherein a plurality of spout instances ingest data from one or more data sources and convert the data into an unbounded stream for an event stream processor, the stream processing system comprising: a first coordinating spout instance that is deployed at a first time, the first coordinating spout instance to instantiate a plurality of spout instances and deploy said spout instances after the first time; the plurality of spout instances to: connect to the one or more data sources, respectively, and ingest a respective portion of the data from its respective one of the one or more data sources; and output messages based on the ingested portions of the data; wherein the unbounded stream for the event stream processor is based on the messages, wherein the first coordinating spout instance is further to receive messages from the event stream processor and to distribute the messages amongst the plurality of spout instances based on content of the messages, wherein the messages comprise message completion notifications and message failure notifications generated by the event stream processor responsive to processing the unbounded stream, and wherein the messages are received over a single output interface of the event stream processor. a first coordinating spout instance that is deployed at a first time, the first coordinating spout instance to instantiate a plurality of spout instances and deploy said spout instances after the first time; the plurality of spout instances to: connect to the one or more data sources, respectively, and ingest a respective portion of the data from its respective one of the one or more data sources; and output messages based on the ingested portions of the data; connect to the one or more data sources, respectively, and ingest a respective portion of the data from its respective one of the one or more data sources; and output messages based on the ingested portions of the data; wherein the unbounded stream for the event stream processor is based on the messages, wherein the first coordinating spout instance is further to receive messages from the event stream processor and to distribute the messages amongst the plurality of spout instances based on content of the messages, wherein the messages comprise message completion notifications and message failure notifications generated by the event stream processor responsive to processing the unbounded stream, and wherein the messages are received over a single output interface of the event stream processor.
A container with biofilm formation-inhibiting microorganisms immobilized therein, comprising a permeable container and biofilm formation-inhibiting microorganisms immobilized inside the container, wherein the biofilm formation-inhibiting microorganisms are recombinant microorganisms or natural microorganisms capable of producing enzymes for inhibiting biofilm formation through inhibition of quorum sensing, wherein the container is a fluidisable carrier which has fluidisability through submerged aeration and comprises a hydrogel, and wherein the fluidisable carrier has a three-dimensional network structure through internal chemical crosslinking which minimizes resistance to mass transfer. wherein the biofilm formation-inhibiting microorganisms are recombinant microorganisms or natural microorganisms capable of producing enzymes for inhibiting biofilm formation through inhibition of quorum sensing, wherein the container is a fluidisable carrier which has fluidisability through submerged aeration and comprises a hydrogel, and wherein the fluidisable carrier has a three-dimensional network structure through internal chemical crosslinking which minimizes resistance to mass transfer.
A method of molding a metalized composite part, the method comprising: introducing particles comprising at least one metal into a gas stream; directing the gas stream toward a surface of a thermoplastic composite part, thereby depositing a metal layer on the composite part to form a metallized composite part; heating the metal layer at an anneal temperature; and molding the metallized composite part to introduce a bend without delamination of the metal layer from the metallized composite part. introducing particles comprising at least one metal into a gas stream; directing the gas stream toward a surface of a thermoplastic composite part, thereby depositing a metal layer on the composite part to form a metallized composite part; heating the metal layer at an anneal temperature; and molding the metallized composite part to introduce a bend without delamination of the metal layer from the metallized composite part.
A mobile terminal, comprising: a body; a touch screen disposed on a front surface of the body, and having a touch panel and a display unit; and a controller configured to: display a home screen page or an application execution screen on the touch screen in response to the display unit being turned on, turn off the display unit and execute a lock mode requiring input of a password, in response to a plurality of touch inputs being consecutively received on a preset region of the home screen page, and turn off the display unit and not execute the lock mode, in response to a plurality of touch inputs being consecutively received on a preset region of the application execution screen, wherein the plurality of touch inputs received on the preset region of the application execution screen include a first touch input and a second touch input, and wherein the controller is further configured to execute the lock mode, in response to a predetermined time lapsing, when the display unit is turned off and the lock mode is not executed, wherein the predetermined time is variable according to a time interval between the first and second touch inputs. a body; a touch screen disposed on a front surface of the body, and having a touch panel and a display unit; and a controller configured to: display a home screen page or an application execution screen on the touch screen in response to the display unit being turned on, turn off the display unit and execute a lock mode requiring input of a password, in response to a plurality of touch inputs being consecutively received on a preset region of the home screen page, and turn off the display unit and not execute the lock mode, in response to a plurality of touch inputs being consecutively received on a preset region of the application execution screen, wherein the plurality of touch inputs received on the preset region of the application execution screen include a first touch input and a second touch input, and wherein the controller is further configured to execute the lock mode, in response to a predetermined time lapsing, when the display unit is turned off and the lock mode is not executed, display a home screen page or an application execution screen on the touch screen in response to the display unit being turned on, turn off the display unit and execute a lock mode requiring input of a password, in response to a plurality of touch inputs being consecutively received on a preset region of the home screen page, and turn off the display unit and not execute the lock mode, in response to a plurality of touch inputs being consecutively received on a preset region of the application execution screen, wherein the plurality of touch inputs received on the preset region of the application execution screen include a first touch input and a second touch input, and wherein the controller is further configured to execute the lock mode, in response to a predetermined time lapsing, when the display unit is turned off and the lock mode is not executed, wherein the predetermined time is variable according to a time interval between the first and second touch inputs.
A method for allocating to an application radio resources amongst radio blocks (BR jp), wherein the radio blocks are shared in a predetermined frequency band during a periodic radio frame (TRi) between base stations, each radio block spreading on frequencies of said band during a time slot of the radio frame, and each the radio block being able to be associated with a communication link between a base station and a mobile station, wherein it includes in a base station in response to quality-of-service parameters (QoS) required by the application: - estimating occupation rates of the radio blocks during consecutive radio frames, and - allocating (SB, ST) to the application at least one radio block having an occupation rate less than a threshold and a periodicity expressed in period of frame and depending on the required quality-of-service parameters. - estimating occupation rates of the radio blocks during consecutive radio frames, and - allocating (SB, ST) to the application at least one radio block having an occupation rate less than a threshold and a periodicity expressed in period of frame and depending on the required quality-of-service parameters.
A liquid crystal composition comprising a first component and a second component, the first component comprising a compound represented by formula: the first component being present in an amount of 3% to 50% by mass, the second component comprising a compound having a negative dielectric anisotropy (Δε) larger than 3 in absolute value, which is a compound represented by general formula (II-B4) wherein R 3 and R 4 are each independently an alkyl group having 1 to 5 carbon atoms or an alkenyl group having 2 to 5 carbon atoms, wherein one or more hydrogen atoms present in R 3 and R 4 are each independently optionally replaced by a fluorine atom.
Carrier core particles for electrophotographic developer comprising: a core composition expressed by a general formula Fe 3 O 4 as a main ingredient; and 30 ppm to 400 ppm Na, when dissolving the carrier core particles in an acid solution and quantitatively analyzing the carrier core particles with ICP analysis. a core composition expressed by a general formula Fe 3 O 4 as a main ingredient; and 30 ppm to 400 ppm Na, when dissolving the carrier core particles in an acid solution and quantitatively analyzing the carrier core particles with ICP analysis.