mhurhangee/ep-ind-claims huggingface dataset:
A tandem arc welding device having two electrodes, the welding device being operated in accordance with an operation program and-comprising: a welding conditions holding unit holding welding condition parameters (120, 130), the welding condition parameters being independent of the operation program and being sent to each of a welder (30, 40) bearing an electrode (50a, 50b) that is disposed ahead along a welding direction, and a welder (30, 40) bearing an electrode (50a, 50b) that is disposed behind the electrode disposed ahead along the welding direction, which parameters (120, 130) including an electric current indication and a voltage indication altogether; and a welding condition editing unit for editing data items constituting the welding conditions, characterized by an electrode decision unit for deciding as to which of the two electrodes becomes the electrode (50a, 50b) that is disposed ahead along the welding direction, based on an information contained in an electrode information for the electrode disposed ahead of the operation program; and a welder control unit which designates, based on the decision made by the electrode decision unit, one of the two welders as welder of the electrode disposed ahead while the other welder as welder of the electrode disposed behind, and sends the welding condition parameters (120, 130) to each of the welders (30, 40) bearing the electrode (50a, 50b) disposed ahead and the electrode (50a, 50b) disposed behind as their respective welding conditions. a welding conditions holding unit holding welding condition parameters (120, 130), the welding condition parameters being independent of the operation program and being sent to each of a welder (30, 40) bearing an electrode (50a, 50b) that is disposed ahead along a welding direction, and a welder (30, 40) bearing an electrode (50a, 50b) that is disposed behind the electrode disposed ahead along the welding direction, which parameters (120, 130) including an electric current indication and a voltage indication altogether; and a welding condition editing unit for editing data items constituting the welding conditions, characterized by an electrode decision unit for deciding as to which of the two electrodes becomes the electrode (50a, 50b) that is disposed ahead along the welding direction, based on an information contained in an electrode information for the electrode disposed ahead of the operation program; and a welder control unit which designates, based on the decision made by the electrode decision unit, one of the two welders as welder of the electrode disposed ahead while the other welder as welder of the electrode disposed behind, and sends the welding condition parameters (120, 130) to each of the welders (30, 40) bearing the electrode (50a, 50b) disposed ahead and the electrode (50a, 50b) disposed behind as their respective welding conditions.
A fabrication method for fabricating a pattern for lost pattern casting, the method comprising the following steps: S1A) providing at least one insert; S1B) providing at least two pattern portions (12, 14), said at least two portions being made of a material that can be eliminated; and S2) assembling said at least two pattern portions together around at least a portion of said at least one insert in sealed manner so as to make said pattern. S1A) providing at least one insert; S1B) providing at least two pattern portions (12, 14), said at least two portions being made of a material that can be eliminated; and S2) assembling said at least two pattern portions together around at least a portion of said at least one insert in sealed manner so as to make said pattern.
A set of exchangeable separation inserts (6, 6') for a modular centrifugal separator system comprising a base unit, the set comprising at least a first exchangeable separation insert and a second exchangeable separation insert, wherein each of the first and second exchangeable separation inserts (6, 6') comprises a rotor casing configured to rotate about an axis of rotation and forming a separation space, frustoconical separation discs arranged in the separation space, and fluid connections (10, 94, 96, 98) for a liquid feed mixture, a separated heavy phase, and a separated light phase, wherein the frustoconical separation discs of the first exchangeable separation insert have a first area equivalent and the frustoconical separation discs of the second exchangeable separation insert have a second area equivalent, wherein each of the rotor casings of the first and second separation inserts (6, 6') have a same external shape to an extent that they fit inside an inner space of a rotatable member of a base unit of a modular centrifugal separator system and abut against at least part of an inner surface of the rotatable member, the inner surface delimiting at least part of the inner space, characterised in that the first area equivalent differs from the second area equivalent with each of the first and second area equivalents calculated for the same rotational speed. each of the first and second exchangeable separation inserts (6, 6') comprises a rotor casing configured to rotate about an axis of rotation and forming a separation space, frustoconical separation discs arranged in the separation space, and fluid connections (10, 94, 96, 98) for a liquid feed mixture, a separated heavy phase, and a separated light phase, wherein the frustoconical separation discs of the first exchangeable separation insert have a first area equivalent and the frustoconical separation discs of the second exchangeable separation insert have a second area equivalent, wherein each of the rotor casings of the first and second separation inserts (6, 6') have a same external shape to an extent that they fit inside an inner space of a rotatable member of a base unit of a modular centrifugal separator system and abut against at least part of an inner surface of the rotatable member, the inner surface delimiting at least part of the inner space, characterised in that the first area equivalent differs from the second area equivalent with each of the first and second area equivalents calculated for the same rotational speed.
A device for RF skin treatment comprising: an outer electrode arranged on an operational side of the device and having an annular or equilateral polygonal shape; an inner electrode arranged on the operational side of the device at a center of the outer electrode and surrounded by the outer electrode; an RF generator arranged to supply an RF treatment voltage between the inner electrode and the outer electrode; characterised in that a skin contact surface of the inner electrode has a largest cross-sectional dimension in a range of 200 - 500 μm, and in that the RF treatment voltage is less than 50 V. an outer electrode arranged on an operational side of the device and having an annular or equilateral polygonal shape; an inner electrode arranged on the operational side of the device at a center of the outer electrode and surrounded by the outer electrode; an RF generator arranged to supply an RF treatment voltage between the inner electrode and the outer electrode; characterised in that a skin contact surface of the inner electrode has a largest cross-sectional dimension in a range of 200 - 500 μm, and in that the RF treatment voltage is less than 50 V.
An ultrasonic imaging apparatus comprising: a display device displaying an image; and a supporting device configured to be coupled to the display device, wherein the supporting device comprises: a multi-joint arm including at least one joint; a hinge connected to one end of the multi-joint arm and rotatably coupled with the display device about a rotation axis extending in the front-rear direction of the display device; a damper to restrict rotation of the hinge to a certain extent to shorten a rotation time of the hinge when the hinge is rotated; and a brake to fix the hinge when the rotation of the hinge is finished, wherein the hinge is disposed on the same plane as the center of gravity of the display device in a vertical direction of the display device, wherein the hinge is disposed above the center of gravity of the display device in the vertical direction of the display device. a display device displaying an image; and a supporting device configured to be coupled to the display device, wherein the supporting device comprises: a multi-joint arm including at least one joint; a hinge connected to one end of the multi-joint arm and rotatably coupled with the display device about a rotation axis extending in the front-rear direction of the display device; a damper to restrict rotation of the hinge to a certain extent to shorten a rotation time of the hinge when the hinge is rotated; and a brake to fix the hinge when the rotation of the hinge is finished, a multi-joint arm including at least one joint; a hinge connected to one end of the multi-joint arm and rotatably coupled with the display device about a rotation axis extending in the front-rear direction of the display device; a damper to restrict rotation of the hinge to a certain extent to shorten a rotation time of the hinge when the hinge is rotated; and a brake to fix the hinge when the rotation of the hinge is finished, wherein the hinge is disposed on the same plane as the center of gravity of the display device in a vertical direction of the display device, wherein the hinge is disposed above the center of gravity of the display device in the vertical direction of the display device.
Method for decoding at least one current image segment, the method being implemented by a decoding device, the method comprising: - receiving a coded current image segment; and - decoding the current image segment using a selected decoding function; the method being characterized in that - descriptive information describing at least one choice function used is received; and - the decoding function is selected from a finite set of decoding functions using said at least one choice function, said at least one choice function using data already decoded by said decoding device. - receiving a coded current image segment; and - decoding the current image segment using a selected decoding function; - descriptive information describing at least one choice function used is received; and - the decoding function is selected from a finite set of decoding functions using said at least one choice function, said at least one choice function using data already decoded by said decoding device.
A traveling wave grid assembly comprising: a planar dielectric substrate; a plurality of electrically conductive and closely spaced electrodes (212, 214, 216, 218) disposed on said substrate, said electrodes extending parallel to one another and each defining a first end and a second end opposite from said first end; a layer of a gel material adapted for retention and migration of biomolecules dispersed therein, said gel in electrical communication with said plurality of electrodes; a voltage controller adapted to provide an electrical signal having a plurality of phases, said voltage controller selectively energizing said plurality of electrodes; characterized by a plurality of electrically conductive buses (440, 450, 460) providing electrical communication between said voltage controller and said plurality of electrodes (212, 214, 216, 218), wherein the number of buses corresponds to the number of phases of said electrical signal provided by said voltage controller, and each one of said buses is in electrical communication with both the first end and the second end of a corresponding electrode (212, 214, 216, 218). a planar dielectric substrate; a plurality of electrically conductive and closely spaced electrodes (212, 214, 216, 218) disposed on said substrate, said electrodes extending parallel to one another and each defining a first end and a second end opposite from said first end; a layer of a gel material adapted for retention and migration of biomolecules dispersed therein, said gel in electrical communication with said plurality of electrodes; a voltage controller adapted to provide an electrical signal having a plurality of phases, said voltage controller selectively energizing said plurality of electrodes; characterized by a plurality of electrically conductive buses (440, 450, 460) providing electrical communication between said voltage controller and said plurality of electrodes (212, 214, 216, 218), wherein the number of buses corresponds to the number of phases of said electrical signal provided by said voltage controller, and each one of said buses is in electrical communication with both the first end and the second end of a corresponding electrode (212, 214, 216, 218).
Antenna apparatus supporting adjustability of an antenna beam direction comprising an antenna array of antennas; a beamforming network comprising M antenna interfaces and being switchable between m fixedly preconfigured beamforming states so as to couple the M antenna interfaces at different mutual phase and/or amplitude variations, a switching network switchable between N different connecting states, wherein the switching network is configured to, in each connecting state, connect the M antenna interfaces with a set of M antennas of the antenna array such that relative positions of the M antennas connected to the M antenna interfaces in the respective connecting state, differ among the N connection states, characterized by a further antenna array (23 2) of further antennas; a further beam forming network (26 2) comprising M' further antenna interfaces and being switchable between m' fixedly preconfigured beamforming states so as to couple the M' further antenna interfaces at different mutual phase and/or amplitude variations; a further switching network (30 2) switchable between at least N' different connecting states, wherein the further switching network (30 2) is configured to, in each connecting state, connect the M' antenna interfaces with a set of M' further antennas of the further antenna array (23 2) such that relative positions of the M' further antennas connected to the M' further antenna interfaces in the respective connection state, differ among the N' connection states; and a controllable combination circuit configured to couple, at a controllable manner, a signal interface of the beam forming network and a further signal interface of the further beam forming network (26 2) so that the antenna beam direction results from a combination of beams of the antenna array and the further antenna array (23 2).
Filter element, in particular air filter element, having a folded filter medium and a support frame to which the filter medium is connected, wherein the filter medium is disposed between a first end disc portion and a second end disc portion of the support frame and wherein the support frame features a fluid guiding channel which, when a fluid flows through the filter medium, is meant to guide the fluid in such a way that it can be guided along one of the end disc portions (17, 18) on a side facing away from the filter medium and wherein the support frame is injected to the filter medium by means of a plastic injection-molding process.
A method for preparing an antibacterial ceramic tile, wherein the antibacterial ceramic tile comprising an antibacterial glaze layer arranged on an upper surface of a ceramic tile, wherein the antibacterial glaze layer is composed of a basic transparent glaze and a zirconium phosphate loaded with composite antibacterial agent, wherein the zirconium phosphate loaded with composite antibacterial agent is accumulated at an upper portion of the antibacterial glaze layer, and effective antibacterial components of the composite antibacterial agent are an antibacterial oxide and antibacterial ions, characterized in that the method comprising following process steps: 1) preparing a common ceramic tile green body having a base glaze layer and a decorative pattern layer, and applying a transparent glaze layer, wherein the transparent glaze layer is made by mixing a basic transparent glaze and a zirconium phosphate carrier, followed by high-temperature firing, to obtain a semi-finished product; and 2) spraying a composite antibacterial agent on a surface of the semi-finished product obtained in step 1), followed by polishing and grinding using a grinding disc and a heat treatment, to obtain a finished product of the antibacterial ceramic tile. 1) preparing a common ceramic tile green body having a base glaze layer and a decorative pattern layer, and applying a transparent glaze layer, wherein the transparent glaze layer is made by mixing a basic transparent glaze and a zirconium phosphate carrier, followed by high-temperature firing, to obtain a semi-finished product; and 2) spraying a composite antibacterial agent on a surface of the semi-finished product obtained in step 1), followed by polishing and grinding using a grinding disc and a heat treatment, to obtain a finished product of the antibacterial ceramic tile.
A particle beam therapy system comprising: - a scanning electromagnet; and - a deflection electromagnet (4, 5) that is adapted to switch orbits for a charged particle beam in such a way that the charged particle beam travels through a single beam orbit selected from a plurality of beam orbits, wherein the scanning electromagnet is provided with two scanning electromagnets (2a, 2b) that are adapted to perform control to scan a supplied charged particle beam in respective different directions so that the charged particle beam is formed in a three-dimensional irradiation shape based on a treatment plan characterized in that: the two scanning electromagnets (2a, 2b) are disposed at the upstream side of the deflection electromagnet (4, 5) along the path of the charge particle beam, so that the distance between an irradiation subject and the two scanning electromagnets (2a, 2b), where the charged particle beam begins to diverge as a result of the scanning, is longer than the distance between the irradiation subject and the deflection electromagnet (4, 5). - a scanning electromagnet; and - a deflection electromagnet (4, 5) that is adapted to switch orbits for a charged particle beam in such a way that the charged particle beam travels through a single beam orbit selected from a plurality of beam orbits,
Use as perfuming ingredient of a composition of matter comprising from: i) 40 to 60% w/w of compound of formula in the form of any one of its stereoisomers or as a mixture thereof, wherein carbon 5 of the cyclohexenyl group has an absolute R configuration, the dotted line represents a carbon-carbon single bond or a carbon-carbon double bond and R 1 represents a hydrogen atom or a C 1-3 alkyl group; and ii) 40 to 60% w/w of compound of formula in the form of any one of its stereoisomers or as a mixture thereof, wherein the dotted line and R 1 have the same meaning as in formula; the percentage being relative to the total weight of the composition of matter. i) 40 to 60% w/w of compound of formula in the form of any one of its stereoisomers or as a mixture thereof, wherein carbon 5 of the cyclohexenyl group has an absolute R configuration, the dotted line represents a carbon-carbon single bond or a carbon-carbon double bond and R 1 represents a hydrogen atom or a C 1-3 alkyl group; and ii) 40 to 60% w/w of compound of formula in the form of any one of its stereoisomers or as a mixture thereof, wherein the dotted line and R 1 have the same meaning as in formula;
The use of an aqueous polyurethane dispersion adhesive for producing biodisintegratable composite foils, where at least one first substrate is adhesive-bonded to at least one second substrate with use of the polyurethane dispersion adhesive, where both substrates are biodisintergrateable and at least one of the substrates is a biodisintegratable polymer foil, and where at least 60% by weight of the polyurethane is composed of (a) at least one diisocyanate, (b) at least one polyesterdiol, and (c) at least one bifunctional carboxylic acid selected from dihydroxycarboxylic acids and diaminocarboxylic acids, wherein the polyurethane dispersion adhesive is biodegradable, where, after 20 days, the ratio of gaseous carbon liberated in the form CO 2 to total carbon of the polyurethane adhesive used is at least 30%, measured in accordance with standard ISO 14855 and where at least 80% by weight of the at least one polyesterdiol (b) is composed of at least one aliphatic dicarboxylic acid and of at least one aliphatic diol, and where a material has biodisintegratability if at most 10% of the original dry weight of the test material are found to be present after aerobic composting for a period of at most 12 weeks in a sieve fraction > 2 mm, where the measurement is made in accordance with the standard EN 13432 (a) at least one diisocyanate, (b) at least one polyesterdiol, and (c) at least one bifunctional carboxylic acid selected from dihydroxycarboxylic acids and diaminocarboxylic acids,
Interventional or non-interventional instrument (10, 11, 12) for use during an MR imaging or MR examination of an examination object, the instrument comprising an RF transmission line or cable (2, 3) for connecting the instrument with a signal processing unit, wherein the RF transmission line or cable comprises a plurality of fuses which are serially connected into the RF transmission line or cable, wherein adjacent fuses have a distance from one another which is equal to or shorter than a quarter of an effective wavelength of an RF common mode current which is induced in the RF transmission line or cable when exposed to an RF excitation field of an MR imaging apparatus, and wherein each fuse is selected such that it turns into an at least substantially non-conducting state when the current flowing through the fuse or the temperature of the fuse due to the current flowing through the fuse reaches or exceeds a preset threshold value, characterized in that the RF transmission line is a coaxial line and the fuses are realized in the form of a coaxial fuse comprising a cylindrical outer conductor (21; 31) and an inner central conductor.