mhurhangee/ep-ind-claims huggingface dataset:
A laundry machine comprising: a drum for holding laundry; a steam generator for generating steam; a water supply unit for supplying water to the steam generator; an additive supply unit for supplying an additive to the steam generator such that the additive is mixed with steam; and a supply line for supplying the steam and the additive to the drum, characterized in that water supply unit includes a detachable water container for supplying water to the steam generator, and a water supply flow passage connected between the steam generator and the water container, for flow of water, and the additive supply unit includes a supplementary tray (450, 460, 470) for introduction of the additive to the steam generator together with the water from the water container, the supplementary tray (450, 460, 470) being mounted in the water container, or to an outside of the water container, and the supplementary tray (450, 460, 470) being detachable from the water container. a drum for holding laundry; a steam generator for generating steam; a water supply unit for supplying water to the steam generator; an additive supply unit for supplying an additive to the steam generator such that the additive is mixed with steam; and a supply line for supplying the steam and the additive to the drum, characterized in that water supply unit includes a detachable water container for supplying water to the steam generator, and a water supply flow passage connected between the steam generator and the water container, for flow of water, and the additive supply unit includes a supplementary tray (450, 460, 470) for introduction of the additive to the steam generator together with the water from the water container, the supplementary tray (450, 460, 470) being mounted in the water container, or to an outside of the water container, and the supplementary tray (450, 460, 470) being detachable from the water container. the additive supply unit includes a supplementary tray (450, 460, 470) for introduction of the additive to the steam generator together with the water from the water container, the supplementary tray (450, 460, 470) being mounted in the water container, or to an outside of the water container, and the supplementary tray (450, 460, 470) being detachable from the water container.
Robotic vacuum cleaner comprising at least one side brush, the side brush having a brush core and bristle clusters (14, 16) evenly distributed over a circumferential surface of the brush core, the side brush together with the brush core being rotatably attached to a side arm of the robotic vacuum cleaner, the robotic vacuum cleaner having a wheel acting as an impeller or drive wheel, and a drop sensor, the drop sensor being located within a detection region of the side brush and adjacent to the wheel, the robotic vacuum cleaner having a plurality of bristle clusters which have a first length, characterised by a plurality of additional bristle clusters which have a shorter length in comparison with the first length, the additional bristle clusters not interrupting the beam path to and from the drop sensor.
A lifter for a laundry treating apparatus, the lifter comprising: a first member mounted at an inner side of a drum; and a second member mounted on the first member and protruded toward an inside of the drum, characterized in that the first member comprises: a hook portion formed to protrude along a circumference of the first member, at least a part of which is disposed to cover an inner circumferential surface of the drum when inserted into a fastening hole of the drum and then slid in one direction; and a shielding portion formed to protrude from an inner side of the first member and extended from one end of the hook portion in a direction contrary to the sliding direction of the hook portion to completely cover the fastening hole when the hook portion is inserted into the fastening hole and then slid in one direction. a first member mounted at an inner side of a drum; and a second member mounted on the first member and protruded toward an inside of the drum, characterized in that the first member comprises: a hook portion formed to protrude along a circumference of the first member, at least a part of which is disposed to cover an inner circumferential surface of the drum when inserted into a fastening hole of the drum and then slid in one direction; and a shielding portion formed to protrude from an inner side of the first member and extended from one end of the hook portion in a direction contrary to the sliding direction of the hook portion to completely cover the fastening hole when the hook portion is inserted into the fastening hole and then slid in one direction. a hook portion formed to protrude along a circumference of the first member, at least a part of which is disposed to cover an inner circumferential surface of the drum when inserted into a fastening hole of the drum and then slid in one direction; and a shielding portion formed to protrude from an inner side of the first member and extended from one end of the hook portion in a direction contrary to the sliding direction of the hook portion to completely cover the fastening hole when the hook portion is inserted into the fastening hole and then slid in one direction.
A method of training a third signal processing model via a machine learning method, comprising steps of: a) calculating a first output from each sample in a first sample set based on a first signal processing model; b) calculating a second output from each sample in the first sample set based on a second signal processing model; and c) training a third signal processing model by minimizing a first cost including a first error between the first output and a third output, so that the combination of the second signal processing model and the third signal processing model can simulate the behavior of the first signal processing model on the first sample set, wherein the third output is an output of the third signal processing model in response to an input including the second output, the method is characterised in that the first signal processing model and the second signal processing model are models for an audio content classifier and the first output and the second output are classification results; and the third signal processing model is implemented as any one of a neural network, a mapping H with H =( Q T Q) -1 Q T P, or a mapping H with H =( Q T Q + r) -1 Q T P, where P and Q are M×N matrices, M is the number of samples in the first sample set, each row of P is one of the first outputs calculated from all the samples in the first sample set, each row of Q is one of the second outputs calculated from all the samples in the first sample set, and r is a regularization term for smoothing the mapping or avoiding over-fitting in the training process. a) calculating a first output from each sample in a first sample set based on a first signal processing model; b) calculating a second output from each sample in the first sample set based on a second signal processing model; and c) training a third signal processing model by minimizing a first cost including a first error between the first output and a third output, so that the combination of the second signal processing model and the third signal processing model can simulate the behavior of the first signal processing model on the first sample set, wherein the third output is an output of the third signal processing model in response to an input including the second output,
An electronic device enclosure comprising: a substrate comprising an anti-fingerprint surface, wherein, when a fingerprint is applied to the anti-fingerprint surface, the anti-fingerprint surface exhibits either one or both a visibility of less than 0.95 and a color shift of less than 20, and wherein the enclosure exhibits any one or more of: radio and microwave frequency transparency, as defined by a loss tangent of less than 0.03 and at a frequency range of between 15 MHz to 3.0 GHz; magnetic field transparency, inductive field transparency, and infrared transparency; and wherein the anti-fingerprint surface comprises a textured surface, said textured surface comprising: a RMS roughness height in the range from 1 micrometer to 10 micrometers, and a lateral spatial period in the range from 0.1 micrometers to 500 microns. a substrate comprising an anti-fingerprint surface, wherein, when a fingerprint is applied to the anti-fingerprint surface, the anti-fingerprint surface exhibits either one or both a visibility of less than 0.95 and a color shift of less than 20, and wherein the enclosure exhibits any one or more of: radio and microwave frequency transparency, as defined by a loss tangent of less than 0.03 and at a frequency range of between 15 MHz to 3.0 GHz; magnetic field transparency, inductive field transparency, and infrared transparency; and radio and microwave frequency transparency, as defined by a loss tangent of less than 0.03 and at a frequency range of between 15 MHz to 3.0 GHz; magnetic field transparency, inductive field transparency, and infrared transparency; and wherein the anti-fingerprint surface comprises a textured surface, said textured surface comprising: a RMS roughness height in the range from 1 micrometer to 10 micrometers, and a lateral spatial period in the range from 0.1 micrometers to 500 microns. a RMS roughness height in the range from 1 micrometer to 10 micrometers, and a lateral spatial period in the range from 0.1 micrometers to 500 microns.
A method of transferring electromagnetic energy comprising: providing a first resonator structure (1, 10) receiving energy from an external power supply, said first resonator structure (1, 10) has a first Q-factor Q 1, providing a second resonator structure (2, 20) being positioned distal from said first resonator structure (1, 10) and supplying useful working power to an external load, said second resonator structure (2, 20) has a second Q-factor Q 2, transferring non-radiative energy between the first resonator structure (1, 10) and the second resonator structure (2, 20) through coupling of their resonant-field evanescent tails, wherein the resonator structures use resonant modes of high Q = ω / (2Γ) for low intrinsic-loss rates Γ 1,2 and with evanescent tails significantly longer than the characteristic sizes L 1 and L 2 of the two resonators structures for the non radiative energy transfer, characterised in that Q 1 >100, and Q 2 >100, and κ/sqrt(Γ 1 ∗Γ 2) > 2, where κ is the coupling rate for the non-radiative energy transfer. providing a first resonator structure (1, 10) receiving energy from an external power supply, said first resonator structure (1, 10) has a first Q-factor Q 1, providing a second resonator structure (2, 20) being positioned distal from said first resonator structure (1, 10) and supplying useful working power to an external load, said second resonator structure (2, 20) has a second Q-factor Q 2, transferring non-radiative energy between the first resonator structure (1, 10) and the second resonator structure (2, 20) through coupling of their resonant-field evanescent tails, wherein the resonator structures use resonant modes of high Q = ω / (2Γ) for low intrinsic-loss rates Γ 1,2 and with evanescent tails significantly longer than the characteristic sizes L 1 and L 2 of the two resonators structures for the non radiative energy transfer, characterised in that Q 1 >100, and Q 2 >100, and κ/sqrt(Γ 1 ∗Γ 2) > 2, where κ is the coupling rate for the non-radiative energy transfer.
An inspection apparatus comprising: an optical system portion on which a plurality of reflected light rays corresponding to a plurality of observation directions with respect to an optical variable image device are incident and which images the plurality of reflected light rays incident thereon; an imaging portion that images the plurality of reflected light rays imaged by the optical system portion and thereby generates reflecting light images corresponding the plurality of respective observation directions; an object relation determination portion that determines whether or not there is a predetermined geometric difference between objects that are contained in reflecting light images imaged by the imaging portion and corresponding to different observation directions; and an authenticity determination portion that determines authenticity of the optical variable image device based on a result of the determination by the object relation determination portion, charcterized in that the object relation determination portion applies a predetermined geometric transformation to at least one of a first object contained in a reflecting light image corresponding to one observation direction and a second object contained in a reflecting light image corresponding to another observation direction that is different from said one observation direction, and then determines whether or not the first object and the second object coincide with each other. an optical system portion on which a plurality of reflected light rays corresponding to a plurality of observation directions with respect to an optical variable image device are incident and which images the plurality of reflected light rays incident thereon; an imaging portion that images the plurality of reflected light rays imaged by the optical system portion and thereby generates reflecting light images corresponding the plurality of respective observation directions; an object relation determination portion that determines whether or not there is a predetermined geometric difference between objects that are contained in reflecting light images imaged by the imaging portion and corresponding to different observation directions; and an authenticity determination portion that determines authenticity of the optical variable image device based on a result of the determination by the object relation determination portion, charcterized in that the object relation determination portion applies a predetermined geometric transformation to at least one of a first object contained in a reflecting light image corresponding to one observation direction and a second object contained in a reflecting light image corresponding to another observation direction that is different from said one observation direction, and then determines whether or not the first object and the second object coincide with each other.
A lift truck comprising an upright device comprising at least one actuator unit configured for moving a supporting element of a respective load from at least a first configuration to a second configuration, different in height from the first configuration, and vice versa; the actuator unit comprises a plunger slidable in a hollow body, housing the plunger, in such a way as to define a first chamber, configured to receive a liquid fluid, and a second chamber in fluid communication with the outside environment; the hollow body having a longitudinal axis of main extension positioned along a vertical direction; the actuator unit comprises a head body of the hollow body, defining in part the second chamber; characterized in that the head body having at least one conduit which extends from a first opening, in fluid communication with the outside environment, to a second opening, in fluid communication with the second chamber; the conduit of the head body has at least one portion for housing a filtering element; wherein the housing portion of the filtering element extends along a direction transversal, in particular at right angles, relative to the direction of the axis of the hollow body in such a way that the filtering element is positioned along a direction transversal, in particular at right angles, to the direction of the axis of the hollow body. the actuator unit comprises a head body of the hollow body, defining in part the second chamber; characterized in that the head body having at least one conduit which extends from a first opening, in fluid communication with the outside environment, to a second opening, in fluid communication with the second chamber; the conduit of the head body has at least one portion for housing a filtering element; wherein the housing portion of the filtering element extends along a direction transversal, in particular at right angles, relative to the direction of the axis of the hollow body in such a way that the filtering element is positioned along a direction transversal, in particular at right angles, to the direction of the axis of the hollow body.
A two-component curable adhesive comprising: a polyol component; and a polyisocyanate component, wherein the polyol component comprises a polyether urethane polyol and a polyester polyol having a number average molecular weight of 500 to 3,000, and a content of the polyester polyol is 1.0 to 4.0 parts by mass based on 100 parts by mass of the polyether urethane polyol. a polyol component; and a polyisocyanate component, wherein the polyol component comprises a polyether urethane polyol and a polyester polyol having a number average molecular weight of 500 to 3,000, and a content of the polyester polyol is 1.0 to 4.0 parts by mass based on 100 parts by mass of the polyether urethane polyol.
A thermoplastic polycarbonate resin composition, comprising: 100 parts by weight of a polycarbonate base resin; 0.1 to 5 parts by weight of a polyorganosiloxane-containing graft copolymer, wherein said graft copolymer comprises a core comprising polyorganosiloxane and a vinyl-based monomer graft copolymerized to the core to form a shell; 5 to 50 parts by weight of titanium dioxide; and 0.1 to 5 parts by weight of a fluorinated polyolefin-based resin; wherein the polyorganosiloxane-containing graft copolymer is a polymer prepared by polymerising: 0.5 to 10% by weight of a vinyl monomer (B-2) comprising (B-2-a) 100 to 50% by weight of a polyfunctional monomer having two or more polymerizable unsaturated bonds and (B-2-b) 0 to 50% by weight of a monomer copolymerizable with the monomer (B-2-a) in the presence of (B-1) 40 to 90% by weight of polyorganosiloxane particles; and polymerising the resultant polymer additionally with (B-3) 5 to 50% by weight of a vinyl monomer. 100 parts by weight of a polycarbonate base resin; 0.1 to 5 parts by weight of a polyorganosiloxane-containing graft copolymer, wherein said graft copolymer comprises a core comprising polyorganosiloxane and a vinyl-based monomer graft copolymerized to the core to form a shell; 5 to 50 parts by weight of titanium dioxide; and 0.1 to 5 parts by weight of a fluorinated polyolefin-based resin; 0.5 to 10% by weight of a vinyl monomer (B-2) comprising (B-2-a) 100 to 50% by weight of a polyfunctional monomer having two or more polymerizable unsaturated bonds and (B-2-b) 0 to 50% by weight of a monomer copolymerizable with the monomer (B-2-a) in the presence of (B-1) 40 to 90% by weight of polyorganosiloxane particles; and polymerising the resultant polymer additionally with (B-3) 5 to 50% by weight of a vinyl monomer.
A cooling apparatus, comprising a heat sink thermally connectable to a heat source, an air outlet opening, at least two air intake openings, and a fan adapted to draw in air into the cooling apparatus through the air intake openings (11, 12) and to discharge the air from the cooling apparatus through the air outlet opening, wherein, upon operation of said fan, a laminar air flow from at least one of the air intake openings forces a laminar air flow from at least another one of the air intake openings to the heat sink.
A boiler plant for heating a medium, in particular a natural circulation or forced circulation boiler or waste heat boiler, particularly preferably a corner tube boiler, comprising downcomers, collectors, distributors and risers, which form at least part of a circuit for a medium to be heated, at least two drums being connected to the circuit for separation of the water-steam mixture into steam and water, characterized in that the ratio of diameter D to wall thickness s of the drums is: D/s ≥ 15, wherein the drums are arranged in the high pressure part of the boiler plant, i.e. in a part of the plant which is configured to operate at over 40 bar, and in that the diameter D of the drums in relation to the length L of the drums amounts to: D/L = 0.03 to 0.5, in particular 0.05 to 0.3.
A handgrip for a leash, comprising a body with a grip part for holding said handgrip wherein said handgrip is embodied for connecting said leash, wherein said handgrip comprises a guiding rail for slidingly coupling said leash along a displacement path, furthermore wherein said guiding rail is embodied for slidingly guiding said leash at a distance from and along the handgrip, wherein said guiding rail is provided with a connector that is embodied for sliding along said guiding rail, for coupling said leash, wherein traveler is slidingly connected to said guiding rail, said traveler comprising a connector for connecting said leash, characterized in that said connector is rotatably connected to said traveler.
A refractory material obtained by incorporating, into a refractory raw material, scaly non-leafing aluminum flakes made of non-leafing type aluminum and/or aluminum alloy.
A method for manufacturing a turbomachine blade, the method comprising the following step: - installing primary pins in primary bores of a core, characterised in that: - the primary pins comprise a material other than a titanium based alloy, and - the primary bores form at least one polygon, the method comprising the following steps: - installing a secondary pin made of a titanium-based alloy in a secondary bore of the core, - making a stack of an upper wing skin, the core and a lower wing skin, - pressing the stack, - removing the primary pins from the primary bores, - removing the secondary pin from the secondary bore, and - taking the core out of the stack. - installing primary pins in primary bores of a core, characterised in that: - the primary pins comprise a material other than a titanium based alloy, and - the primary bores form at least one polygon, the method comprising the following steps: - installing a secondary pin made of a titanium-based alloy in a secondary bore of the core, - making a stack of an upper wing skin, the core and a lower wing skin, - pressing the stack, - removing the primary pins from the primary bores, - removing the secondary pin from the secondary bore, and - taking the core out of the stack. - the primary pins comprise a material other than a titanium based alloy, and - the primary bores form at least one polygon, the method comprising the following steps: - installing a secondary pin made of a titanium-based alloy in a secondary bore of the core, - making a stack of an upper wing skin, the core and a lower wing skin, - pressing the stack, - removing the primary pins from the primary bores, - removing the secondary pin from the secondary bore, and - taking the core out of the stack. - installing a secondary pin made of a titanium-based alloy in a secondary bore of the core, - making a stack of an upper wing skin, the core and a lower wing skin, - pressing the stack, - removing the primary pins from the primary bores, - removing the secondary pin from the secondary bore, and - taking the core out of the stack.
Electronic switch for connecting two power supply units of a power supply system, wherein the electronic switch has a semiconductor switch with an actuation circuit and a current sensor for detecting a current flowing through the electronic switch and/or a voltage sensor, wherein the semiconductor switch can carry and disconnect a current in both directions, wherein the actuation circuit is designed to operate the semiconductor switch as a function of oscillations, which are measured by means of the current sensor and/or of the voltage sensor, in an activated state, in a deactivated state or in linear mode, wherein the actuation circuit of the electronic switch is further designed to damp oscillations as a damping resistor by operation of the semiconductor switch in linear mode.