mhurhangee/ep-ind-claims huggingface dataset:
Continuous casting plant for casting a metal strip, comprising: a mould for forming the metal strip and a strip guide with at least one first strip guide segment, which is arranged downstream of the mould in casting direction, with a strip inlet side and a strip outlet side, wherein the first strip guide segment comprises a pair of roller carriers (60, 61) which are arranged to be opposite within the first strip guide segment and which each comprise a number of support rollers, which extend over a support region, for supporting and guiding the metal strip issuing from the mould, characterised in that arranged between the mould and the first strip guide segment is a first coupling point for coupling the strip guide segment to the mould, wherein the first coupling point comprises at least one mould-side half at the outlet side of the mould and at least one segment-side second half at the first strip inlet side of the first strip guide segment, and the respective halves of the coupling point are formed from two mechanically interengageable components or guide elements forming a slide bearing. a mould for forming the metal strip and a strip guide with at least one first strip guide segment, which is arranged downstream of the mould in casting direction, with a strip inlet side and a strip outlet side, wherein the first strip guide segment comprises a pair of roller carriers (60, 61) which are arranged to be opposite within the first strip guide segment and which each comprise a number of support rollers, which extend over a support region, for supporting and guiding the metal strip issuing from the mould, characterised in that arranged between the mould and the first strip guide segment is a first coupling point for coupling the strip guide segment to the mould, wherein the first coupling point comprises at least one mould-side half at the outlet side of the mould and at least one segment-side second half at the first strip inlet side of the first strip guide segment, and the respective halves of the coupling point are formed from two mechanically interengageable components or guide elements forming a slide bearing.
A system for capturing energy from the wind, comprising a plurality of modules, wherein each of said modules comprises: one or more electrically conductive structural rails (1a, 1b); at least one wind turbine, supported by at least one of said electrically conductive structural rails (1a, 1b); and, at least one electrical generator, driven by said at least one wind turbine, said at least one electrical generator comprising at least a first electrical terminal which is electrically connected to at least a first of said electrically conductive structural rails, and at least a second electrical terminal which is electrically connected to a separate electrical conductor that is electrically isolated from said first electrically conductive structural rail, said modules being electrically linked to one another such that each of said first electrically conductive structural rails is electrically connected to the electrically equivalent electrically conductive structural rail on at least one adjacent module such that the linked array of modules comprises at least one line of concatenated electrically conductive structural rails, said line of concatenated electrically conductive structural rails together with the said electrical conductor(s) being capable of conveying electrical energy from the wind turbine generators to a chosen location or locations for consumption, storage, or onward transmission of said electrical energy. one or more electrically conductive structural rails (1a, 1b); at least one wind turbine, supported by at least one of said electrically conductive structural rails (1a, 1b); and, at least one electrical generator, driven by said at least one wind turbine, said at least one electrical generator comprising at least a first electrical terminal which is electrically connected to at least a first of said electrically conductive structural rails, and at least a second electrical terminal which is electrically connected to a separate electrical conductor that is electrically isolated from said first electrically conductive structural rail,
A method comprising: providing a sheath (14, 114, 214); 2. extending a laser fiber (16, 116, 216) from an end of the sheath; slidably connecting a basket section (12, 112, 212) between the sheath and the laser fiber, wherein the basket section comprises flexible members (18, 118, 218), and wherein at least a portion of the flexible members are between the sheath and the laser fiber; and coupling a laser beam splitter to the laser fiber; characterised in that the sheath and the flexible members are movable relative to one another such that the basket section is configured to open and close, wherein the basket section is configured to immobilize a calculus relative to the laser fiber for laser energy from the laser fiber to be used to make a hole in the calculus or to fragment the calculus into two or more pieces while the calculus is immobilized in the basket section. providing a sheath (14, 114, 214); 2. extending a laser fiber (16, 116, 216) from an end of the sheath; slidably connecting a basket section (12, 112, 212) between the sheath and the laser fiber, wherein the basket section comprises flexible members (18, 118, 218), and wherein at least a portion of the flexible members are between the sheath and the laser fiber; and coupling a laser beam splitter to the laser fiber; characterised in that the sheath and the flexible members are movable relative to one another such that the basket section is configured to open and close, wherein the basket section is configured to immobilize a calculus relative to the laser fiber for laser energy from the laser fiber to be used to make a hole in the calculus or to fragment the calculus into two or more pieces while the calculus is immobilized in the basket section.
Method for manufacturing a composite material, comprising: a) Plasticizing a binder in a first extruder, wherein the binder comprises a polymer; b) Providing a mixture of a cellulosic material and a hydrophobic agent dissolved and/or dispersed in a liquid carrier; c) Mechanically shearing and drying the mixture in a second extruder whereby liquid is at least partly extracted from the mixture or is not present in liquid form anymore; and d) Blending the dried mixture with the plasticized binder. a) Plasticizing a binder in a first extruder, wherein the binder comprises a polymer; b) Providing a mixture of a cellulosic material and a hydrophobic agent dissolved and/or dispersed in a liquid carrier; c) Mechanically shearing and drying the mixture in a second extruder whereby liquid is at least partly extracted from the mixture or is not present in liquid form anymore; and d) Blending the dried mixture with the plasticized binder.
Polishing tool, comprising: a holder, a ball received in the holder, a polishing foil covering all or part of the free surface of the ball. a holder, a ball received in the holder, a polishing foil covering all or part of the free surface of the ball.
Cable with a central element and a cable sheath, which has an inner hydrophobic sheath layer made of a first non-polar plastic and an outer sheath layer applied to the latter made of a non-hydrophobic, polar plastic which is different from the inner sheath layer and for which a thermoplastic elastomer is used, wherein a polyolefinic plastic is used for the inner sheath layer and the inner sheath layer is chemically functionalized by adding an additive to the non-polar polyolefinic plastic, so that a chemical reaction with components of the material of the outer sheath layers is effected, wherein a tight connection is formed between the two sheath layers and to form the tight connection between the sheath layers, a catalyst system is introduced into the outer sheath layer, which supports the chemical reaction between the two sheath layers.
An electromagnetic relay comprising: a base: a first stationary contact terminal and a second stationary contact terminal which are implanted vertically in the base; an electromagnet unit including a coil mounted on the base; a movable contact plate being supported so as to be pivotally movable; and a movable contact mounted on a distal end of the movable contact plate, wherein the first stationary contact terminal has a stationary contact; characterized in that the second stationary contact terminal is covered by an insulating member, the insulating member includes a metal member and an insulation body having opposing front and rear surfaces, and one of the front and rear surfaces opposing the movable contact supports the metal member mounted thereon, and the movable contact is adapted to make contact alternately with the stationary contact and the metal member by electrically energizing and deenergizing the coil of the electromagnet unit to move the movable contact plate with the movable contact. a base: a first stationary contact terminal and a second stationary contact terminal which are implanted vertically in the base; an electromagnet unit including a coil mounted on the base; a movable contact plate being supported so as to be pivotally movable; and a movable contact mounted on a distal end of the movable contact plate, wherein a first stationary contact terminal and a second stationary contact terminal which are implanted vertically in the base; an electromagnet unit including a coil mounted on the base; a movable contact plate being supported so as to be pivotally movable; and a movable contact mounted on a distal end of the movable contact plate, wherein the first stationary contact terminal has a stationary contact; characterized in that the second stationary contact terminal is covered by an insulating member, the insulating member includes a metal member and an insulation body having opposing front and rear surfaces, and one of the front and rear surfaces opposing the movable contact supports the metal member mounted thereon, and the movable contact is adapted to make contact alternately with the stationary contact and the metal member by electrically energizing and deenergizing the coil of the electromagnet unit to move the movable contact plate with the movable contact.
Indexable milling cutting insert comprising a pair of opposite outsides and insides (24, 25), a periphery, a plurality of homologous and alternately individually usable cutting edges, and a centre axis, which extends between said outsides and insides, wherein the cutting edges are rotationally symmetrically arranged in respect of the centre axis, and wherein the outside comprises a hub portion, which is situated centred around the centre axis, characterized in that the outside comprises a plurality of ridges, which extend from the hub portion toward the periphery, a plurality of chip channels are countersunk in the outside, wherein the chip channels are tangentially spaced-apart via the ridges, which individually include one of said cutting edges, and wherein each one of said cutting edges is formed between, on one hand, a chip surface, which is situated in a flank of the appurtenant ridge and which is included in a first chip channel, and, on the other hand, a clearance surface, which is situated on a crown of the appurtenant ridge and which adjoins a second chip channel. a pair of opposite outsides and insides (24, 25), a periphery, a plurality of homologous and alternately individually usable cutting edges, and a centre axis, which extends between said outsides and insides, wherein the cutting edges are rotationally symmetrically arranged in respect of the centre axis, and wherein the outside comprises a hub portion, which is situated centred around the centre axis, characterized in that the outside comprises a plurality of ridges, which extend from the hub portion toward the periphery, a plurality of chip channels are countersunk in the outside, wherein the chip channels are tangentially spaced-apart via the ridges, which individually include one of said cutting edges, and wherein each one of said cutting edges is formed between, on one hand, a chip surface, which is situated in a flank of the appurtenant ridge and which is included in a first chip channel, and, on the other hand, a clearance surface, which is situated on a crown of the appurtenant ridge and which adjoins a second chip channel.
Method for operating a flame-forming heating device of a heating system with a heating circuit, comprising at least the following steps: a) determining a first lower power limit of the heating device based on the flow rate of the heating circuit, b) determining a second lower power limit of the heating device based on an ionisation signal of the flame of the heating device, c) operating the heating device in a power range above the greater of the first power limit or the second power limit. a) determining a first lower power limit of the heating device based on the flow rate of the heating circuit, b) determining a second lower power limit of the heating device based on an ionisation signal of the flame of the heating device, c) operating the heating device in a power range above the greater of the first power limit or the second power limit.
A sensing system comprising: at least one input portion arranged to provide an optical signal and accept an optical signal; at least one detector portion arranged to accept an output optical signal; and an optical fiber, the optical fiber comprising: a single mode optical fiber core, a multimode optical fiber core, and an optical fiber cladding layer surrounding the single mode optical fiber core and the multimode optical fiber core; wherein the single mode optical fiber core uses distributed acoustic sensing to sense vibration using a Rayleigh scattering technique and the multimode optical fiber core uses distributed temperature sensing to sense temperature using a Raman scattering technique at a same time with the optical fiber, characterised in that the single mode optical fiber core has a diameter of from 3 μm to 20 μm and a numerical aperture of from 0.1 to 0.18, and in that the multimode optical fiber core has a diameter of from 30 μm to 100 μm and a numerical aperture of from 0.15 to 0.3. at least one input portion arranged to provide an optical signal and accept an optical signal; at least one detector portion arranged to accept an output optical signal; and an optical fiber, the optical fiber comprising: a single mode optical fiber core, a multimode optical fiber core, and an optical fiber cladding layer surrounding the single mode optical fiber core and the multimode optical fiber core; wherein the single mode optical fiber core uses distributed acoustic sensing to sense vibration using a Rayleigh scattering technique and the multimode optical fiber core uses distributed temperature sensing to sense temperature using a Raman scattering technique at a same time with the optical fiber, characterised in that the single mode optical fiber core has a diameter of from 3 μm to 20 μm and a numerical aperture of from 0.1 to 0.18, and in that the multimode optical fiber core has a diameter of from 30 μm to 100 μm and a numerical aperture of from 0.15 to 0.3. a single mode optical fiber core, a multimode optical fiber core, and an optical fiber cladding layer surrounding the single mode optical fiber core and the multimode optical fiber core; wherein the single mode optical fiber core uses distributed acoustic sensing to sense vibration using a Rayleigh scattering technique and the multimode optical fiber core uses distributed temperature sensing to sense temperature using a Raman scattering technique at a same time with the optical fiber, characterised in that the single mode optical fiber core has a diameter of from 3 μm to 20 μm and a numerical aperture of from 0.1 to 0.18, and in that the multimode optical fiber core has a diameter of from 30 μm to 100 μm and a numerical aperture of from 0.15 to 0.3.
A method for calibrating a magnetic sensor or an optical sensor which is configured for checking value documents which are transported past the magnetic sensor or optical sensor along a transport direction, having the following steps: - transporting a calibration medium past the magnetic sensor or optical sensor along the transport direction, wherein the magnetic sensor or optical sensor senses measurement signals of the calibration medium, - determining reference data (R1-R12) of the calibration medium from the measurement signals sensed by the magnetic sensor or optical sensor, wherein the reference data (R1-R12) are determined from first measurement signals which the magnetic sensor or optical sensor senses from at least one reference area of the calibration medium, - determining at least one transport property of the calibration medium, - ascertaining at least one correction value from the at least one transport property of the calibration medium, - correcting the reference data (R1-R12) of the calibration medium using the at least one correction value, - comparing the corrected reference data with target data which are associated with the calibration medium, and, - if the corrected reference data deviate from the target data of the calibration medium, adjusting the magnetic sensor or optical sensor, characterized in that the at least one transport property of the calibration medium is determined from the measurement signals which the magnetic sensor or optical sensor senses, wherein the at least one transport property is determined from second measurement signals which the magnetic sensor or optical sensor senses from one or several markings (3a, 3b) of the calibration medium, wherein the transport property of the calibration medium is quantitatively determined. - transporting a calibration medium past the magnetic sensor or optical sensor along the transport direction, wherein the magnetic sensor or optical sensor senses measurement signals of the calibration medium, - determining reference data (R1-R12) of the calibration medium from the measurement signals sensed by the magnetic sensor or optical sensor, wherein the reference data (R1-R12) are determined from first measurement signals which the magnetic sensor or optical sensor senses from at least one reference area of the calibration medium, - determining at least one transport property of the calibration medium, - ascertaining at least one correction value from the at least one transport property of the calibration medium, - correcting the reference data (R1-R12) of the calibration medium using the at least one correction value, - comparing the corrected reference data with target data which are associated with the calibration medium, and, - if the corrected reference data deviate from the target data of the calibration medium, adjusting the magnetic sensor or optical sensor,
Process for producing high-purity silica granules, in which a silicate solution with a viscosity of 0.1 to 10 000 dPa.s (poise) is added to an initial charge which comprises an acidifier and has a pH of less than 2.0, with the proviso that the pH during the addition is always below 2.0, in which the silica obtained is subsequently treated at least once with an acidic wash medium with a pH below 2.0 before, having been washed to neutrality, it is subjected to a basic treatment, and finally a particle size fraction in the range of 200-1000 μm is removed and sintered at at least 600°C.
A control method of a wireless device, wherein the wireless device comprises a first wireless module and a second wireless module, the first wireless module is one of a Wi-Fi module and a Bluetooth module, and the second wireless module is the other one of the Wi-Fi module and the Bluetooth module, and the control method comprises: obtaining first receiver time information that a receiver of the first wireless module receives and processes a receiving signal; characterized by: referring to the first receiver time information to determine an upper limit of a power of a transmitting signal transmitted by a transmitter of the second wireless module; obtaining second receiver time information that a receiver of the second wireless module receives and processes a receiving signal; and referring to the second receiver time information to determine an upper limit of a power of a transmitting signal transmitted by a transmitter of the first wireless module. obtaining first receiver time information that a receiver of the first wireless module receives and processes a receiving signal; characterized by: referring to the first receiver time information to determine an upper limit of a power of a transmitting signal transmitted by a transmitter of the second wireless module; obtaining second receiver time information that a receiver of the second wireless module receives and processes a receiving signal; and referring to the second receiver time information to determine an upper limit of a power of a transmitting signal transmitted by a transmitter of the first wireless module. referring to the first receiver time information to determine an upper limit of a power of a transmitting signal transmitted by a transmitter of the second wireless module; obtaining second receiver time information that a receiver of the second wireless module receives and processes a receiving signal; and referring to the second receiver time information to determine an upper limit of a power of a transmitting signal transmitted by a transmitter of the first wireless module.
An injection system comprising: - at least one supply station (105a; 105b; 105c) for supplying a fluid to be injected into a patient's vasculature; - a pressurizing unit comprising a motor for pressurizing the fluid received from said at least one supply station (105a; 105b; 105c); - a delivery arrangement in fluid communication with said at least one supply station (105a; 105b; 105c), the delivery arrangement comprising a connector having a connecting element and a latching mechanism; - a patient set assembly in fluid communication with said delivery arrangement, said patient set assembly comprising a peristaltic pump component and at least one delivery tube for delivering the pressurized fluid to the patient, said peristaltic pump component having a connecting element for fluidically engaging the connecting element of the connector of the delivery arrangement at a port of the pressurizing unit, characterized in that said latching mechanism comprises an elongated flap integral with a body portion of said connector, and said latching mechanism engages said corresponding port of the pressurizing unit. - at least one supply station (105a; 105b; 105c) for supplying a fluid to be injected into a patient's vasculature; - a pressurizing unit comprising a motor for pressurizing the fluid received from said at least one supply station (105a; 105b; 105c); - a delivery arrangement in fluid communication with said at least one supply station (105a; 105b; 105c), the delivery arrangement comprising a connector having a connecting element and a latching mechanism; - a patient set assembly in fluid communication with said delivery arrangement, said patient set assembly comprising a peristaltic pump component and at least one delivery tube for delivering the pressurized fluid to the patient, said peristaltic pump component having a connecting element for fluidically engaging the connecting element of the connector of the delivery arrangement at a port of the pressurizing unit,
Method based on foot kinematics, for the 3D gait assessment using an inertial sensor fixed to the foot or integrated on a shoe; said method taking into consideration at least the two following foot parameters obtained from said sensor: - turning, - clearance, wherein said turning parameter is quantified during gait, from spatial orientation of the foot and temporal events, including turning angle, and wherein said clearance parameter is quantified from the sensor position relative to heel and toe and the spatial trajectories of the sensor, heel and toe during gait at each cycle, including minimum and maximum of toe and heel clearance. - turning, - clearance,