mhurhangee/ep-ind-claims huggingface dataset:
A range hood, provided with the housing assembly, wherein the housing assembly comprises a housing member, and characterized by further comprising a telescopic member, wherein the telescopic member is provided with a camera; the housing member is provided with an accommodation chamber, and the telescopic member is fixed in the accommodation chamber; the telescopic member is set to be capable of switching between an extension location and a contraction location; when the telescopic member is located at the extension location, the camera is placed out of the accommodation chamber; when the telescopic member is located at the contraction location, the camera is hidden in the accommodation chamber; wherein the telescopic member comprises an end head, and the end head is in a shape of a column; a side wall of the end head is provided with an accommodation hole; and the camera is disposed in the accommodation hole; wherein the telescopic member further comprises a rebounder; wherein the telescopic member further comprises a bouncing rod; one end of the bouncing rod cooperates with the rebounder, and the other end is connected to an end head; and one of the other end of the bouncing rod and the end head is provided with an expansion head, and the other one is provided with a narrow-mouthed accommodation groove cooperating with the expansion head.
On-load tap changer for uninterrupted switching over between winding taps (n, n+1) of a regulating winding, comprising - a changeover switch which comprises a first changeover contact (2.1), a second changeover contact (2.2) and a third changeover contact (2.3) and which can adopt a first setting in which the first and third changeover contacts (2.1, 2.3) are connected, a second setting in which the second and third changeover contacts (2.2, 2.3) are connected and a bridging setting in which the changeover contacts (2.1, 2.2, 2.3) are connected; - a first fixed contact which can be connected with an associated first winding tap (n); - a second fixed contact which can be connected with an associated second winding tap (n+1); - a first moved contact which can selectably contact each of the fixed contacts (4, 5) - a second moved contact which can selectably contact each of the fixed contacts (4, 5); - a main branch which directly connects the first moved contact with the first changeover contact (2.1); - an auxiliary branch which connects the second moved contact with the second changeover contact (2.2) by way of a current-limiting element which is constructed as a resistor; and - a switching element which is connected between the main branch and the second changeover contact (2.2) wherein - the moved contacts (6, 7) are actuable independently of one another. - a changeover switch which comprises a first changeover contact (2.1), a second changeover contact (2.2) and a third changeover contact (2.3) and which can adopt a first setting in which the first and third changeover contacts (2.1, 2.3) are connected, a second setting in which the second and third changeover contacts (2.2, 2.3) are connected and a bridging setting in which the changeover contacts (2.1, 2.2, 2.3) are connected; - a first fixed contact which can be connected with an associated first winding tap (n); - a second fixed contact which can be connected with an associated second winding tap (n+1); - a first moved contact which can selectably contact each of the fixed contacts (4, 5) - a second moved contact which can selectably contact each of the fixed contacts (4, 5); - a main branch which directly connects the first moved contact with the first changeover contact (2.1); - an auxiliary branch which connects the second moved contact with the second changeover contact (2.2) by way of a current-limiting element which is constructed as a resistor; and - a switching element which is connected between the main branch and the second changeover contact (2.2) - the moved contacts (6, 7) are actuable independently of one another.
A method for fluorescent labelling a component in a mixture, the method comprising the steps of a) providing a strongly buffered alkaline solution of aromatic ortho-dialdehyde dye in a first reservoir; b) providing, in a second reservoir, a weakly buffered acidic solution in the presence of thiols in solution provided by a reducing agent and further comprising an antioxidant additive configured to stabilise the reducing agent; c) providing a component in a fluid pathway, wherein the fluid pathway is connected to the first and second reservoirs by a network of connection channels; d) flowing the alkaline solution and the acidic solution through the network of connection channels to combine with the component in order to label the component by reacting the component with the aromatic ortho-dialdehyde dye and the reducing agent. a) providing a strongly buffered alkaline solution of aromatic ortho-dialdehyde dye in a first reservoir; b) providing, in a second reservoir, a weakly buffered acidic solution in the presence of thiols in solution provided by a reducing agent and further comprising an antioxidant additive configured to stabilise the reducing agent; c) providing a component in a fluid pathway, wherein the fluid pathway is connected to the first and second reservoirs by a network of connection channels; d) flowing the alkaline solution and the acidic solution through the network of connection channels to combine with the component in order to label the component by reacting the component with the aromatic ortho-dialdehyde dye and the reducing agent.
An inspection device for verifying an adhesive bonding formed by an adhesive layer between an electronic circuit and a card body, the inspection device comprising: an illumination source configured to illuminate the card body; an image camera which is configured to capture an image acquisition of the illuminated card body with the electronic circuit; and a processor which is configured to detect a course of the adhesive layer along a contour of the electronic circuit in the image acquisition and to verify the adhesive bonding on the basis of the detected course of the adhesive layer, the inspection device characterized in that the processor is configured to detect a closed path in the course of the adhesive layer along the contour of the electronic circuit and to verify the adhesive bonding formed by the adhesive layer if the closed path is present or to not verify the adhesive bonding formed by the adhesive layer if the closed path is absent, wherein the image camera is configured to overexpose the image acquisition in order to capture the adhesive layer in a predetermined intensity range, in particular a grayscale range. an illumination source configured to illuminate the card body; an image camera which is configured to capture an image acquisition of the illuminated card body with the electronic circuit; and a processor which is configured to detect a course of the adhesive layer along a contour of the electronic circuit in the image acquisition and to verify the adhesive bonding on the basis of the detected course of the adhesive layer, the inspection device characterized in that the processor is configured to detect a closed path in the course of the adhesive layer along the contour of the electronic circuit and to verify the adhesive bonding formed by the adhesive layer if the closed path is present or to not verify the adhesive bonding formed by the adhesive layer if the closed path is absent, wherein the image camera is configured to overexpose the image acquisition in order to capture the adhesive layer in a predetermined intensity range, in particular a grayscale range.
A voice conversion system, comprising: a speech recognition model, comprising at least a bottleneck layer, configured to: convert a mel-scale frequency cepstral coefficients feature of an inputted source speech into a bottleneck feature through the bottleneck layer, and input the bottleneck feature to an Attention voice conversion network through the bottleneck layer; the Attention voice conversion network configured to convert the inputted bottleneck feature into a mel-scale frequency cepstral coefficients feature in conformity with a target speech; and a neural network vocoder configured to convert the mel-scale frequency cepstral coefficients feature in conformity with the target speech into audio and output the same. a speech recognition model, comprising at least a bottleneck layer, configured to: convert a mel-scale frequency cepstral coefficients feature of an inputted source speech into a bottleneck feature through the bottleneck layer, and input the bottleneck feature to an Attention voice conversion network through the bottleneck layer; the Attention voice conversion network configured to convert the inputted bottleneck feature into a mel-scale frequency cepstral coefficients feature in conformity with a target speech; and a neural network vocoder configured to convert the mel-scale frequency cepstral coefficients feature in conformity with the target speech into audio and output the same.
A motor-driven scroll type compressor comprising a motor wherein the motor has a rotary shaft and rotates the rotary shaft, a bearing for rotatably supporting a first end of the rotary shaft applicable as a front end of the rotary shaft, a fixed scroll member, a movable scroll member driven by a second end of the rotary shaft applicable as a rear end of the rotary shaft, a housing having therein the motor, the bearing, the fixed scroll member and the movable scroll member, compression chambers defined by the movable scroll member and the fixed scroll member cooperatively, wherein the rotation of the rotary shaft makes an orbital motion of the movable scroll member around the axis of the rotary shaft and accordingly the compression chambers are moved radially and inwardly thereby to compress the refrigerant gas, a suction chamber defined by the housing, the fixed scroll member and the movable scroll member, wherein the suction chamber communicates with the compression chambers, a discharge chamber provided in the housing, an oil separation chamber provided in the housing and separating lubricating oil from the refrigerant gas and communicating with the discharge chamber and a back pressure chamber provided in front of the movable scroll member in the housing, and facing to the rear end of the rotary shaft, wherein the back pressure chamber communicates with the oil separation chamber, chararcterised in that the rotary shaft includes a first opening at a position adjacent to the front end of the rotary shaft and facing an inner surface of the bearing, a second opening at a position adjacent to the rear end of the rotary shaft and communicating with the back pressure chamber, a communication passage interconnecting the first opening and the second opening, wherein the first opening, the second opening and the communication passage cooperate to form an oil supply passage, and a first throttle formed by a clearance between the first opening and the inner surface of the bearing, and wherein the scroll type motor compressor further comprises a suction region communicating with the suction chamber and the back pressure chamber via the oil supply passage, and wherein the scroll type motor compressor further comprises an oil passage interconnecting the oil separation chamber and the back pressure chamber and a second throttle provided in the oil passage.
An article comprising: an article having a first side, the first side comprising a polymeric material including a printed layer, wherein the printed layer is a dried product of a color composition, wherein the color composition comprises: about 5-30 weight percent of 2-pyrrolidone, about 25-55 weight percent of sulfolane, about 15-55 weight percent of ε-caprolactone, and about 1-25 weight percent of a colorant. about 5-30 weight percent of 2-pyrrolidone, about 25-55 weight percent of sulfolane, about 15-55 weight percent of ε-caprolactone, and about 1-25 weight percent of a colorant.
Brake apparatus for a vehicle, comprising a wheel brake device with an actuator, a friction pairing and resetting means, furthermore with operating means for the actuation of the wheel brake device, it being possible for the brake apparatus to be operated in a normal operating mode by means of a control variable, and it being possible for the said brake apparatus to be operated in a safety mode if a threshold value of the control variable is undershot, the control variable loading the actuator in the normal operating mode in such a way that the actuator sets a first air play between the friction pairing, and, in the safety mode, the resetting means setting a second air play between the friction pairing, which second air play is reduced in comparison with the first air play, it being possible for the control variable to be overridden by means of a balancing element (22, 64, 68) in the case of an actuation of the wheel brake device, characterized in that, in the case of operation of the brake apparatus in the safety mode, no air play or at least merely a minimum air play has to be overcome before a frictionally locking connection is built up between the friction pairing.
A manufacturing method of a metal laminated substrate for an oxide superconducting wire comprising the steps of laminating a non-magnetic metal plate and a metal foil made of Cu or a Cu alloy by surface active bonding, biaxially orienting crystals of the metal foil by heat treatment after lamination; and applying an epitaxial growth film made of Ni or an Ni alloy to the surface of the metal foil, wherein a metal foil which is formed by cold rolling at a draft of not less than 90% and having a thickness of not less than 7 μm and not more than 50 μm is used as the metal foil, and uniform heavy working at a draft of not less than 90% is applied to the whole surface of the metal foil made of Cu or Cu alloy before and after bonding.
A downlink signal receiving method, applied to a handover process in which a terminal is handed over from a source base station to a target base station, wherein the method comprises: receiving, by the terminal, a first message from the source base station, wherein the first message comprises a first indication, and the first indication indicates the terminal to receive, in the handover process, a downlink signal from the source base station and a downlink signal from the target base station, wherein the downlink signal from the source base station and the downlink signal from the target base station have a same carrier frequency; and receiving, by the terminal, in the handover process, the downlink signal from the source base station and the downlink signal from the target base station based on the first indication; wherein the method is characterized in that it further comprises: sending, by the terminal, a first capability indication to the source base station, wherein the first capability indication indicates that the terminal has an intra-frequency receiving capability, and wherein the terminal receives the first message from the source base station in response to sending the first capability indication. receiving, by the terminal, a first message from the source base station, wherein the first message comprises a first indication, and the first indication indicates the terminal to receive, in the handover process, a downlink signal from the source base station and a downlink signal from the target base station, wherein the downlink signal from the source base station and the downlink signal from the target base station have a same carrier frequency; and receiving, by the terminal, in the handover process, the downlink signal from the source base station and the downlink signal from the target base station based on the first indication; wherein the method is characterized in that it further comprises: sending, by the terminal, a first capability indication to the source base station, wherein the first capability indication indicates that the terminal has an intra-frequency receiving capability, and wherein the terminal receives the first message from the source base station in response to sending the first capability indication.
Housing for receiving a circuitboard with an overvoltage protection unit, comprising a support frame, wherein - the support frame consists at least partly of a thermoplastic plastics material and has a main limb, two lateral limbs (28, 30), which are each connected at a respective end with the main limb, and at least one flat brace laterally extending between the two lateral limbs (28, 30), characterised in that a foil is provided and - the foil consists at least partly of a thermoplastic plastics material and is formed to be U-shaped with an end face (18.1) and two side surfaces (18.2, 18.3), - the end face (18.1) of the foil at least partly covers an end face (26.1) of the main limb, - each side surface (182, 18.3) of the foil at least partly covers a respective one of the two lateral limbs (28, 30) as well as the strut and - the foil is connected with the lateral limbs (28, 30) by material couple, - so that the housing consisting of support frame and foil is at least partly open at a side opposite the end face (18.1) of the foil. - the support frame consists at least partly of a thermoplastic plastics material and has a main limb, two lateral limbs (28, 30), which are each connected at a respective end with the main limb, and at least one flat brace laterally extending between the two lateral limbs (28, 30), characterised in that a foil is provided and - the foil consists at least partly of a thermoplastic plastics material and is formed to be U-shaped with an end face (18.1) and two side surfaces (18.2, 18.3), - the end face (18.1) of the foil at least partly covers an end face (26.1) of the main limb, - each side surface (182, 18.3) of the foil at least partly covers a respective one of the two lateral limbs (28, 30) as well as the strut and - the foil is connected with the lateral limbs (28, 30) by material couple, - so that the housing consisting of support frame and foil is at least partly open at a side opposite the end face (18.1) of the foil.
An excrement-treating material, comprising: a water-absorbing core part; and a surface layer covering the core part, which exposes the color of the core part upon absorption of excreted urine, wherein the core part is formed by wet-kneading and compression-granulating a compounding material containing a paper powder and organic fine pieces as major materials, dents or/and protrusions are formed on the surface of the core part by deformation by the kneading or compression of the fine pieces or peeling-off of the fine pieces from the paper powder upon release of compression, the surface of the core part is discontinuously colored by utilizing the dents or/and the protrusions, that is, by colored parts and non-colored parts being formed on the surface, wherein the non-colored parts are mainly formed on the dents and the colored parts are mainly formed on the protrusions and the planar part, wherein the discontinuously-colored surface of the core part is covered with the surface layer, and the color of the colored part of the surface of the core part is exposed through the surface layer during absorption of excreted urine, whereas the non-colored part of the surface of the core part is stained the color of the excreted urine, and the color of the excreted urine is exposed through the surface layer, wherein the fine pieces are paper pieces or plastic film pieces, or superposed pieces of these pieces, and. wherein the compression-granulating is extrusion-granulation, the diameter of each granulation holes is from 2.5 mm to 6 mm, and the fine pieces each has a short direction width of from 3 mm to 10 mm. a water-absorbing core part; and a surface layer covering the core part, which exposes the color of the core part upon absorption of excreted urine, wherein the core part is formed by wet-kneading and compression-granulating a compounding material containing a paper powder and organic fine pieces as major materials, dents or/and protrusions are formed on the surface of the core part by deformation by the kneading or compression of the fine pieces or peeling-off of the fine pieces from the paper powder upon release of compression, the surface of the core part is discontinuously colored by utilizing the dents or/and the protrusions, that is, by colored parts and non-colored parts being formed on the surface, wherein the non-colored parts are mainly formed on the dents and the colored parts are mainly formed on the protrusions and the planar part, wherein the discontinuously-colored surface of the core part is covered with the surface layer, and the color of the colored part of the surface of the core part is exposed through the surface layer during absorption of excreted urine, whereas the non-colored part of the surface of the core part is stained the color of the excreted urine, and the color of the excreted urine is exposed through the surface layer, wherein the fine pieces are paper pieces or plastic film pieces, or superposed pieces of these pieces, and.
A method for in-situ production of a gap in the surface layer(s) of an elongated nanostructure, the method comprising the steps of - growing at least two elongated nanostructures from a surface of a substrate such that at least some of the at least two nanostructures grow in non-parallel directions, at least some of the at least two nanostructures being shadow nanostructures and at least some of the at least two nanostructures being device nanostructures, the substrate being located in a vacuum chamber having at least one deposition source, and - depositing at least a first facet layer on at least a part of each of the at least two nanostructures by means of said deposition source, wherein the deposition source and the growth of the nanostructures are arranged such that, during deposition of said at least first facet layer, at least one shadow nanostructure covers and forms a respective shadow mask over a portion of a respective at least one device nanostructure, thereby preventing deposition of the at least first facet layer on the portion of the respective at least one device nanostructure, and thereby collectively forming a respective gap in the first facet layer deposited on each device nanostructure. - growing at least two elongated nanostructures from a surface of a substrate such that at least some of the at least two nanostructures grow in non-parallel directions, at least some of the at least two nanostructures being shadow nanostructures and at least some of the at least two nanostructures being device nanostructures, the substrate being located in a vacuum chamber having at least one deposition source, and - depositing at least a first facet layer on at least a part of each of the at least two nanostructures by means of said deposition source,