mhurhangee/ep-ind-claims huggingface dataset:
Assembly method for assembling at least a first part and a second part, each one of said first and second parts (1,2) comprising at least a first bonding lip (5,9) with a bonding surface (3a,3b), wherein the second part presents a cross-section with at least a first leg and a second leg, linked at respective proximal ends, the first bonding lip of the second part being located at a distal end of the first leg, the method being characterized by the steps of: inserting the first bonding lip of the second part between the first bonding lip and a guiding lip of the first part until engaging an oblique front face of the guiding lip; closing the bonding surface of the first bonding lip of the second part against the bonding surface of the first bonding lip of the first part, wherein the first bonding lip of the second part is guided towards the first bonding lip of the first part by the oblique front face of said guiding lip, and the first part closes a gap between the distal end of the first leg and a distal end of the second leg; and bonding the bonding surface of the first bonding lip of the first part to the bonding surface of the first bonding lip of the second part; and wherein said first and second legs are pulled apart during at least the insertion step. inserting the first bonding lip of the second part between the first bonding lip and a guiding lip of the first part until engaging an oblique front face of the guiding lip; closing the bonding surface of the first bonding lip of the second part against the bonding surface of the first bonding lip of the first part, wherein the first bonding lip of the second part is guided towards the first bonding lip of the first part by the oblique front face of said guiding lip, and the first part closes a gap between the distal end of the first leg and a distal end of the second leg; and bonding the bonding surface of the first bonding lip of the first part to the bonding surface of the first bonding lip of the second part; and
A method for transferring a fluid between a vessel and an on shore installation, in particular at an industrial harbour, the method including the steps of - providing at least one fluid transfer hose, - winding up the fluid transfer hose on a hose reel installed onshore, - actuating the reel to unwind the hose, - displacing a free end of the hose relative to the deck of the vessel, and - connecting the free hose end to a mating equipment on the deck of the vessel, characterised in that a tensile force acting on the hose or a resulting torque acting on the hose reel, respectively, is monitored by way of means for determining said tensile force or said resulting torque, respectively, which means are associated with the hose reel. - providing at least one fluid transfer hose, - winding up the fluid transfer hose on a hose reel installed onshore, - actuating the reel to unwind the hose, - displacing a free end of the hose relative to the deck of the vessel, and - connecting the free hose end to a mating equipment on the deck of the vessel,
A method performed by an ATSC 3.0 receiving device, the method comprising: accepting a channel selection; receiving content by said receiving device on said selected channel; establishing communications with a plurality of mobiles devices in a premises; polling each mobile device of said plurality of mobile devices to obtain signal quality information for said selected channel; and selecting (230; 235) at least one of said mobile devices to receive program data; receiving program data at the receiving device from the selected at least one mobile device, said program data including data according to the ATSC 3.0 standard related to content received on said selected channel; and combining said program data received from said selected at least one mobile device with said content received by said receiving device on said selected channel to form a combined signal for rendering on said receiving device. accepting a channel selection; receiving content by said receiving device on said selected channel; establishing communications with a plurality of mobiles devices in a premises; polling each mobile device of said plurality of mobile devices to obtain signal quality information for said selected channel; and selecting (230; 235) at least one of said mobile devices to receive program data; receiving program data at the receiving device from the selected at least one mobile device, said program data including data according to the ATSC 3.0 standard related to content received on said selected channel; and combining said program data received from said selected at least one mobile device with said content received by said receiving device on said selected channel to form a combined signal for rendering on said receiving device.
The use of surfactants A, a 1% by weight aqueous solutions of which exhibit a static surface tension below 25 mN/m, the said surfactants A containing at least three short-chain perfluorinated groups Rf selected from the group consisting of trifluoromethyl, pentafluoroethyl, 1-heptafluoropropyl, 2-heptafluoropropyl, and pentafluorosulfanyl for cleaning photo masks comprising patterns with smallest line-space dimensions below 200 nm, wherein the photo masks are selected from transmission-type photo masks or reflective-type photo masks comprising molybdenum (Mo) and silicon (Si) layer(s).
A computer-implemented method comprising: in a switch having access to storage nodes (106, 108, 110; 202; 316) and client nodes (104; 302) characterized by: configuring a host fabric interface, HFI, (112, 114, 116, 118; 204; 304; 312) with a hierarchy of levels of resilience; determining, from characteristics of each storage node (106, 108, 110; 202; 316) as stored in a storage registration component in the switch, a level of resilience in the hierarchy of levels of resilience, the determined level of resilience representing how reliably each storage node (106, 108, 110; 202; 316) stores objects; causing an object to be stored on one or more of the storage nodes (106, 108, 110; 202; 316) based on their respective determined levels of resilience, including receiving from the client node (104; 302) via the HFI (112, 114, 116, 118; 204; 304; 312) a request to store the object at a specified level of resilience, wherein the level of resilience specified in the request is obtained through the HFI (112, 114, 116, 118; 204; 304; 312); determining which storage nodes (106, 108, 110; 202; 316) store objects at the specified level of resilience; and initiating a replication flow of messages to cause the object to be stored on any one or more of the storage nodes (106, 108, 110; 202; 316) that store objects at the specified level of resilience. configuring a host fabric interface, HFI, (112, 114, 116, 118; 204; 304; 312) with a hierarchy of levels of resilience; determining, from characteristics of each storage node (106, 108, 110; 202; 316) as stored in a storage registration component in the switch, a level of resilience in the hierarchy of levels of resilience, the determined level of resilience representing how reliably each storage node (106, 108, 110; 202; 316) stores objects; causing an object to be stored on one or more of the storage nodes (106, 108, 110; 202; 316) based on their respective determined levels of resilience, including receiving from the client node (104; 302) via the HFI (112, 114, 116, 118; 204; 304; 312) a request to store the object at a specified level of resilience, wherein the level of resilience specified in the request is obtained through the HFI (112, 114, 116, 118; 204; 304; 312); determining which storage nodes (106, 108, 110; 202; 316) store objects at the specified level of resilience; and initiating a replication flow of messages to cause the object to be stored on any one or more of the storage nodes (106, 108, 110; 202; 316) that store objects at the specified level of resilience. receiving from the client node (104; 302) via the HFI (112, 114, 116, 118; 204; 304; 312) a request to store the object at a specified level of resilience, wherein the level of resilience specified in the request is obtained through the HFI (112, 114, 116, 118; 204; 304; 312); determining which storage nodes (106, 108, 110; 202; 316) store objects at the specified level of resilience; and initiating a replication flow of messages to cause the object to be stored on any one or more of the storage nodes (106, 108, 110; 202; 316) that store objects at the specified level of resilience.
A method for measuring autoantibody activity against a thyroid stimulating hormone receptor in a mammal cell, comprising the following steps (a) to (c): (a) incubating a mammal cell expressing both luciferase containing cAMP binding region and the TSH receptor in the presence of a blood sample collected from a test subject; (b) measuring an activation level of the luciferase containing cAMP binding region after the step (a); and (c) comparing the activation level measured in the step (b) with an activation level in a control to calculate the autoantibody activity. (a) incubating a mammal cell expressing both luciferase containing cAMP binding region and the TSH receptor in the presence of a blood sample collected from a test subject; (b) measuring an activation level of the luciferase containing cAMP binding region after the step (a); and (c) comparing the activation level measured in the step (b) with an activation level in a control to calculate the autoantibody activity.
A coke oven wall surface evaluation apparatus configured for evaluating a state of a side wall surface of a coking chamber of a coke oven operating while pushing produced coke with a pusher, the coke oven wall surface evaluation apparatus comprising: a concave and convex information deriving unit configured for deriving concave and convex information relating to concave and convex portions generated on the side wall surface of the coking chamber, based on image signals of the side wall surface of the coking chamber; a gradient information deriving unit configured for deriving gradient information relating to a gradient relative to a pushing direction of the coke on the side wall surface of the coking chamber, based on the concave and convex information derived by said concave and convex information deriving unit; and a resistance index derivation unit configured for deriving a resistance index relating to a resistance received by the coke at a pushing time, said resistance index being derived using the gradient information derived by said gradient information deriving unit. a concave and convex information deriving unit configured for deriving concave and convex information relating to concave and convex portions generated on the side wall surface of the coking chamber, based on image signals of the side wall surface of the coking chamber; a gradient information deriving unit configured for deriving gradient information relating to a gradient relative to a pushing direction of the coke on the side wall surface of the coking chamber, based on the concave and convex information derived by said concave and convex information deriving unit; and a resistance index derivation unit configured for deriving a resistance index relating to a resistance received by the coke at a pushing time, said resistance index being derived using the gradient information derived by said gradient information deriving unit.
A DPF protection method, comprising: S10: acquiring a switch control signal of an engine controller; S11: determining whether the engine controller needs to be powered off or not according to the switch control signal; S12: if yes, acquiring a temperature of DPF; S13: determining whether the temperature is lower than a preset temperature being a protection temperature of the DPF; S14: if yes, sending the switch control signal to the engine controller to stop the engine controller. S10: acquiring a switch control signal of an engine controller; S11: determining whether the engine controller needs to be powered off or not according to the switch control signal; S12: if yes, acquiring a temperature of DPF; S13: determining whether the temperature is lower than a preset temperature being a protection temperature of the DPF; S14: if yes, sending the switch control signal to the engine controller to stop the engine controller.
A method of recovering stored energy, the method comprising: pressurizing liquid air or liquid air components to a pressure greater than or equal to about 80 atmospheres (81,06 bar); regasifying the pressurized liquid air or liquid air components to produce pressurized gaseous air or gaseous air components at a pressure greater than or equal to about 80 atmospheres (81,06 bar) using heat produced by combusting an exhaust gas stream from a high pressure turbine with a gaseous fuel; expanding the pressurized gaseous air or gaseous air components through the high pressure turbine to form the exhaust gas stream; and producing electricity with a generator driven by the high pressure turbine; characterized by comprising at start-up of the method regasifying the pressurized liquid air or liquid air components to produce pressurized gaseous air or gaseous air components at a pressure greater than or equal to about 5 atmospheres (5,07 bar) using heat produced by combusting ambient air with the fuel. pressurizing liquid air or liquid air components to a pressure greater than or equal to about 80 atmospheres (81,06 bar); regasifying the pressurized liquid air or liquid air components to produce pressurized gaseous air or gaseous air components at a pressure greater than or equal to about 80 atmospheres (81,06 bar) using heat produced by combusting an exhaust gas stream from a high pressure turbine with a gaseous fuel; expanding the pressurized gaseous air or gaseous air components through the high pressure turbine to form the exhaust gas stream; and producing electricity with a generator driven by the high pressure turbine; characterized by comprising at start-up of the method regasifying the pressurized liquid air or liquid air components to produce pressurized gaseous air or gaseous air components at a pressure greater than or equal to about 5 atmospheres (5,07 bar) using heat produced by combusting ambient air with the fuel.
An apparatus included in an access network element of a first communication network comprising at least one processor, and at least one memory for storing instructions to be executed by the processor, wherein the at least one memory and the instructions are configured to, with the at least one processor, cause the apparatus at least: to conduct (410, S600, S10, S15, S20) a processing related to set up a spectrum cooperation relationship in which a spectrum used for communication by a second communication network is allowed to be shared by the access network element of the first communication network, to receive and process (411, S610, S50) control information from a communication network control element of the first communication network indicating an establishment of a spectrum cooperation relationship between the first communication network and the second communication network, and to establish (412, S620, S60), on the basis of the control information, a communication connection path to the second communication network wherein the access network element of the first communication network acts as a user equipment of the second communication network. at least one processor, and at least one memory for storing instructions to be executed by the processor, wherein the at least one memory and the instructions are configured to, with the at least one processor, cause the apparatus at least: to conduct (410, S600, S10, S15, S20) a processing related to set up a spectrum cooperation relationship in which a spectrum used for communication by a second communication network is allowed to be shared by the access network element of the first communication network, to receive and process (411, S610, S50) control information from a communication network control element of the first communication network indicating an establishment of a spectrum cooperation relationship between the first communication network and the second communication network, and to establish (412, S620, S60), on the basis of the control information, a communication connection path to the second communication network wherein the access network element of the first communication network acts as a user equipment of the second communication network. to conduct (410, S600, S10, S15, S20) a processing related to set up a spectrum cooperation relationship in which a spectrum used for communication by a second communication network is allowed to be shared by the access network element of the first communication network, to receive and process (411, S610, S50) control information from a communication network control element of the first communication network indicating an establishment of a spectrum cooperation relationship between the first communication network and the second communication network, and to establish (412, S620, S60), on the basis of the control information, a communication connection path to the second communication network wherein the access network element of the first communication network acts as a user equipment of the second communication network.
A vehicle steering system comprising: a sensor that detects a vibration of a vehicle wheel of a vehicle; and a control device including a frequency analysis unit that resolves the vibration of the vehicle wheel detected by the sensor into a power spectrum at each predetermined frequency, characterized in that the control device executes compensation assist control that suppresses at least one of a deflection of the vehicle and a vibration of a steering component of the vehicle that are caused by a puncture or a burst of the vehicle wheel, based on the vibration of the vehicle wheel that occurs in a specific frequency domain formed by a frequency range between a normal-wheel frequency calculated based on a radius of the vehicle wheel when the vehicle wheel is normal and a traveling speed of the vehicle and an abnormal-wheel frequency calculated based on a radius of the vehicle wheel when the vehicle wheel is punctured or burst and the traveling speed. a sensor that detects a vibration of a vehicle wheel of a vehicle; and a control device including a frequency analysis unit that resolves the vibration of the vehicle wheel detected by the sensor into a power spectrum at each predetermined frequency, characterized in that the control device executes compensation assist control that suppresses at least one of a deflection of the vehicle and a vibration of a steering component of the vehicle that are caused by a puncture or a burst of the vehicle wheel, based on the vibration of the vehicle wheel that occurs in a specific frequency domain formed by a frequency range between a normal-wheel frequency calculated based on a radius of the vehicle wheel when the vehicle wheel is normal and a traveling speed of the vehicle and an abnormal-wheel frequency calculated based on a radius of the vehicle wheel when the vehicle wheel is punctured or burst and the traveling speed.
Alignment device for the arrangement on a turning tool, in particular on a tool shank or a tool tip of a turning, milling, reaming or countersinking tool, for aligning a borehole or counterbore to be realized or for aligning a finishing step with respect to a normal of the surface of a workpiece, comprising a base body with a through-hole for receiving the tool shank or the tool tip in an alignment direction and at least two, preferably at least three feeler elements for aligned resting on the surface of the workpiece, wherein an alignment movement of the alignment device with respect to the normal of the surface of the workpiece causes all the feeler elements to form an electric circuit between an electric power source included in the base body and a signal device, which is closed by a series connection activated by the feeler elements, in order to activate the signal device via the closed electric circuit, so that by mechanical contact of all feeler elements with the surface of the workpiece, a single signal device is activated and a single alignment signal is output, characterized in that an electrical switching point of at least one feeler element can be screwed or displaced in the resting direction towards the surface of the workpiece relative to the surface of the workpiece by means of a contact adjusting screw and can thus be adjusted in position, so that the alignment direction is adjustable with respect to the normal of a surface of a workpiece.
Transporting apparatus for simultaneously transporting at least two substrates which are to be treated in a vacuum-treatment apparatus, comprising at least two carrier apparatuses (12, 14), which are mounted rotatably with respect to a common axis and are offset axially in relation to one another and on each of which is arranged at least one retaining frame (20, 22, 24, 26) designed to receive at least one substrate, wherein the retaining frames (20, 22, 24, 26) can be brought, by a rotary movement of the carrier apparatuses (12, 14) about the axis, into mutually opposed operative regions of a treatment unit, and wherein the carrier apparatuses (12, 14) are spaced apart axially from one another to such an extent that the treatment unit can be arranged therebetween.
A light control system comprising: a plurality of light sources (1022, 4022) each configured to emit light within an ultraviolet spectral range, each of the plurality of light sources (1022, 4022) being configured to illuminate a corresponding sub-portion (1020, 2020, 4020) of a space (1000, 2000, 4000), a positioning system configured to determine positions of one or more individuals (1090, 2090, 4090) within the space (1000, 2000, 4000); the light control system being characterized in that it further comprises a density system configured to, based on by the positioning system over time determined positions of the one or more individuals (1090, 2090, 4090), determine a density distribution of the one or more individuals (1090, 2090, 4090) in the space (1000, 2000, 4000); and a control engine configured to control the plurality of light sources (1022, 4022) based on the density distribution such that a sub-portion (1020, 2020, 4020) of the space (1000, 2000, 4000) having a relatively high density is illuminated with light within the ultraviolet spectral range to a relatively higher degree than a sub-portion (1020, 2020, 4020) of the space (1000, 2000, 4000) having a relatively low density. a plurality of light sources (1022, 4022) each configured to emit light within an ultraviolet spectral range, each of the plurality of light sources (1022, 4022) being configured to illuminate a corresponding sub-portion (1020, 2020, 4020) of a space (1000, 2000, 4000), a positioning system configured to determine positions of one or more individuals (1090, 2090, 4090) within the space (1000, 2000, 4000); the light control system being characterized in that it further comprises a density system configured to, based on by the positioning system over time determined positions of the one or more individuals (1090, 2090, 4090), determine a density distribution of the one or more individuals (1090, 2090, 4090) in the space (1000, 2000, 4000); and a control engine configured to control the plurality of light sources (1022, 4022) based on the density distribution such that a sub-portion (1020, 2020, 4020) of the space (1000, 2000, 4000) having a relatively high density is illuminated with light within the ultraviolet spectral range to a relatively higher degree than a sub-portion (1020, 2020, 4020) of the space (1000, 2000, 4000) having a relatively low density.