mhurhangee/patent-ind-claim-en huggingface dataset:
A cleaner comprising: a suction unit that guides dust and air; a main body that includes a dust separation unit for separating dust from air guided through the suction unit ; a main body terminal that is mounted on the main body ; a handle unit that is slide-coupled to the main body ; and a handle terminal mounted on the handle unit and connected to the main body terminal when the handle unit is slide-coupled to the main body , characterized in that the dust separation unit includes a cyclone unit configured to separate dust using cyclonic flow, the suction unit is coupled to the main body in a first coupling direction, and the handle unit is coupled to the main body in a second coupling direction that crosses the first coupling direction at an opposite side to the suction unit . a suction unit that guides dust and air; a main body that includes a dust separation unit for separating dust from air guided through the suction unit ; a main body terminal that is mounted on the main body ; a handle unit that is slide-coupled to the main body ; and a handle terminal mounted on the handle unit and connected to the main body terminal when the handle unit is slide-coupled to the main body , characterized in that the dust separation unit includes a cyclone unit configured to separate dust using cyclonic flow, the suction unit is coupled to the main body in a first coupling direction, and the handle unit is coupled to the main body in a second coupling direction that crosses the first coupling direction at an opposite side to the suction unit .
A coated separator with high heat resistance and high peel strength, comprising a base membrane, wherein a surface of the base membrane is coated with a ceramic coating layer; the ceramic coating layer comprises the following raw materials in parts by weight: 30-50 parts of ceramic powder, 0.5-2 parts of a dispersant, 3-7 parts of a prefabricated binder, 0.1-0.5 parts of a wetting agent, and 20-30 parts of high-purity water; and characterized in that the prefabricated binder is a mixture of modified acrylic resin and poly alpha-methyl cyanoacrylate; the modified acrylic resin is mainly prepared from 2-aminopyrimidine, vanillin, an acrylic monomer, acrylic ester, o -bromoacetophenone, and dimethyl azodiisobutyrate through reactions, and wherein a mass ratio of the modified acrylic resin to the poly alpha-methyl cyanoacrylate is 1: 0.5-1. the ceramic coating layer comprises the following raw materials in parts by weight: 30-50 parts of ceramic powder, 0.5-2 parts of a dispersant, 3-7 parts of a prefabricated binder, 0.1-0.5 parts of a wetting agent, and 20-30 parts of high-purity water; and characterized in that the prefabricated binder is a mixture of modified acrylic resin and poly alpha-methyl cyanoacrylate; the modified acrylic resin is mainly prepared from 2-aminopyrimidine, vanillin, an acrylic monomer, acrylic ester, o -bromoacetophenone, and dimethyl azodiisobutyrate through reactions, and wherein a mass ratio of the modified acrylic resin to the poly alpha-methyl cyanoacrylate is 1: 0.5-1.
A method for operating an electrode-free discharge lamp at a working frequency , the electrode-free discharge lamp having a lamp body which consists of glass and is filled with gas, and the discharge lamp being arranged within a metal housing, and, during the ignition of the discharge lamp, the working frequency of the lamp being influenced by means of a sweep generator which is arranged within the metal housing, characterized in that an additional ignition voltage is generated while influencing the working frequency .
A process for conducting combustion in a fluidized bed furnace, in particular having a sand bed, according to which a flow of primary combustion air is blown through the bed, the fuel consisting in particular of organic waste, or of municipal waste, or of sludge from purifying plants, it being possible to inject secondary air into the space in the furnace located above the bed, process wherein, in order to limit the production of nitrogen oxides NOx and nitrous oxide N20, the nitrous oxide N20 and nitrogen oxides NOx content of the flue gases is measured at the furnace outlet; the temperature of the fluidized bed is controlled so as to keep it at the highest admissible value at which the production of nitrous oxide N20 is substantially reduced, while the production of nitrous oxides NOx is not substantially increased, the temperature being comprised between 700°C and 850°C; and the excess air in the fluidized bed is controlled so as to keep the oxygen content at the lowest admissible value at which the production of nitrous oxides NOx is reduced without adversely affecting the combustion and the temperature of the bed, the content being comprised between 0% and 6% by volume, the excess air of the fluidized bed being controlled on the basis of a measurement of the oxygen 02 content of the flue gases at the furnace outlet and of the difference in temperature between the flue gases at the furnace outlet and the fluidized bed.
A printed circuit board for electrical components and/or conductor paths , comprising - a base body which extends along a main extension plane (HSE), and - an insert which is integrated into the base body , wherein the insert is a metal-ceramic substrate and interacts positively and materially with the base body in a direction perpendicular to the main extension plane (HSE), wherein the metal-ceramic substrate is profiled on a side surface (SF) which does not run parallel to the main extension plane (HSE) in order to form the positive interaction, characterized in that the side surface (SF) is profiled in such a way that a modulation depth or height (M) is set which has a value of between 20 μm and 100 μm. - a base body which extends along a main extension plane (HSE), and - an insert which is integrated into the base body ,
Device for injection and stimulation of fluids in a process fluid, typically an offshore well bore, typically installed on Christmas trees or wellheads, for petroleum production and gas injection / gas lift system where the device comprises an outer hollow housing and an internal body moveable within the outer housing , comprising an internal bore , which in a closed position is closed with a seal system between the outer housing and the internal body , which internal body is operated by pressure differential across the internal body , where the internal body comprises at least one slot forming outlets of the internal bore , which in an open position of the device is positioned at least partly outside the outer housing leading out to a surrounding fluid, characterized in that the device further comprises a closed first chamber being filled with a fluid separate from both, well and injection fluid and an opening between this closed chamber and a second chamber , said first and second chambers being separated from each other by an internal flange of the outer housing , and in which first chamber a predetermined pressure balanced elastic element comprising a spring element is enclosed, where the pressure differential across the internal body is assisted by the predetermined pressure balanced elastic element to open and close the device.
An electronic device comprising: first communication circuitry configured to perform short-range wireless communication; second communication circuitry configured to perform ultra-wideband, UWB, communication; and a processor configured to: receive a signal via the short-range wireless communication; activate the second communication circuitry based on the signal; perform, using the second communication circuitry, a ranging operation with an external electronic device for identifying if the electronic device and the external electronic device are within a defined distance from each other, and while the electronic device and the external electronic device are within the defined distance from each other, transmit, using the second communication circuitry to the external electronic device, a first UWB signal including a medium access control, MAC, header and a MAC payload, the MAC payload including an UWB secure service identifier, USSID. first communication circuitry configured to perform short-range wireless communication; second communication circuitry configured to perform ultra-wideband, UWB, communication; and a processor configured to: receive a signal via the short-range wireless communication; activate the second communication circuitry based on the signal; perform, using the second communication circuitry, a ranging operation with an external electronic device for identifying if the electronic device and the external electronic device are within a defined distance from each other, and while the electronic device and the external electronic device are within the defined distance from each other, transmit, using the second communication circuitry to the external electronic device, a first UWB signal including a medium access control, MAC, header and a MAC payload, the MAC payload including an UWB secure service identifier, USSID. receive a signal via the short-range wireless communication; activate the second communication circuitry based on the signal; perform, using the second communication circuitry, a ranging operation with an external electronic device for identifying if the electronic device and the external electronic device are within a defined distance from each other, and while the electronic device and the external electronic device are within the defined distance from each other, transmit, using the second communication circuitry to the external electronic device, a first UWB signal including a medium access control, MAC, header and a MAC payload, the MAC payload including an UWB secure service identifier, USSID.
A method of derivation for a binary partition pattern used for coding video data, comprising: obtaining a reference sample array of a video block; obtaining a sum of the reference sample array; calculating a threshold by performing arithmetic right shift to the sum, a shift value of the arithmetic right shift being determined according to size information of the video block; and determining the binary partition pattern by comparing the reference sample array with the threshold, wherein the shift value is determined in accordance with following expression: Shift value = 6 − ctDepth ∗ 2 or Shift value = BlockSizeInBit ∗ 2 , where ctDepth is a coding tree depth of the video block, ctDepth corresponds to a block size of the video block, and BlockSizeInBit is a bit representation of a block size of the video block, wherein the binary partition pattern is a contour partition pattern used for depth coding. obtaining a reference sample array of a video block; obtaining a sum of the reference sample array; calculating a threshold by performing arithmetic right shift to the sum, a shift value of the arithmetic right shift being determined according to size information of the video block; and determining the binary partition pattern by comparing the reference sample array with the threshold,
A motor , comprising: a stator , on which a magnet wire is wound, including mag mate terminals connected with the magnet wire ; and a rotor rotated by electromagnetic interaction with the stator , wherein each of the mag mate terminals includes a first metal connection part and a second metal connection part , the first metal connection part being connected to the magnet wire made of a metal of a different kind than the first metal connection part , and the second metal connection part being connected to a power connector configured to supply power to the stator and made of a metal of a same kind as the second metal connection part , characterized in that the first metal connection part and the second metal connection part are formed integrally, wherein a lower portion of the first metal connection part and a lower portion of the second metal connection part are connected such that current flows between the first metal connection part and the second metal connection part . a stator , on which a magnet wire is wound, including mag mate terminals connected with the magnet wire ; and a rotor rotated by electromagnetic interaction with the stator , wherein each of the mag mate terminals includes a first metal connection part and a second metal connection part , the first metal connection part being connected to the magnet wire made of a metal of a different kind than the first metal connection part , and the second metal connection part being connected to a power connector configured to supply power to the stator and made of a metal of a same kind as the second metal connection part , characterized in that the first metal connection part and the second metal connection part are formed integrally, wherein a lower portion of the first metal connection part and a lower portion of the second metal connection part are connected such that current flows between the first metal connection part and the second metal connection part .
A method for producing Nε-acyl-L-lysine comprising: reacting a carboxylic acid or a salt thereof and L-lysine or a salt thereof in the presence of any of the following (A) to (C) proteins to produce Nε-acyl-L-lysine: (A) a protein comprising the amino acid sequence of SEQ ID NO: 1; (B) a protein comprising an amino acid sequence in which 1 to 100 amino acid residues are inserted, added, deleted, or substituted in the amino acid sequence of SEQ ID NO: 1 and having Nε-acyl-L-lysine-specific aminoacylase activity; and (C) a protein comprising an amino acid sequence having 70% or higher homology with the amino acid sequence of SEQ ID NO: 1 and having Nε-acyl-L-lysine-specific aminoacylase activity. (A) a protein comprising the amino acid sequence of SEQ ID NO: 1; (B) a protein comprising an amino acid sequence in which 1 to 100 amino acid residues are inserted, added, deleted, or substituted in the amino acid sequence of SEQ ID NO: 1 and having Nε-acyl-L-lysine-specific aminoacylase activity; and (C) a protein comprising an amino acid sequence having 70% or higher homology with the amino acid sequence of SEQ ID NO: 1 and having Nε-acyl-L-lysine-specific aminoacylase activity.
A sectional-type high wear-resistant double-layer straight tube preparing method, wherein the wear-resistant tube is made to be a double-layer construction, including an outer protective tube and an inner wear-resistant tube , wherein the inner wear-resistant tube is consisted of two or more sections of wear-resistant tube connected in sequence, wherein the wear-resistant tube preparation method includes the following steps: Step S1, preparing the outer protective tube ; Step S2, preparing multiple sections of the inner wear-resistant tube ; Step S3, installing the multiple sections of the inner wear-resistant tube into the outer protective tube characterized in that the Step S2 includes: Step S2.1, preparing or acquiring of steel plates of high carbon high chromium; Step S2.2, heating treatment on the steel plates by spherical annealing, the temperature of the spherical annealing is at 750-800°C; Step S2.3, cutting the steel plate treated according to a predetermined size and get a steel plate with predetermined size; Step S2.4, bending the steel plate with predetermined size to a ring-shape using a bending machine with its long edge used as its circumference, and its short edge as the length of the tube; Step S2.5, welding the ends of predetermined size steel plate together, as a section of the inner wear-resistant tube , repeating Steps S2.1-S2.5 and preparing multiple sections of inner wear-resistant tube . Step S1, preparing the outer protective tube ; Step S2, preparing multiple sections of the inner wear-resistant tube ; Step S3, installing the multiple sections of the inner wear-resistant tube into the outer protective tube characterized in that the Step S2 includes: Step S2.1, preparing or acquiring of steel plates of high carbon high chromium; Step S2.2, heating treatment on the steel plates by spherical annealing, the temperature of the spherical annealing is at 750-800°C; Step S2.3, cutting the steel plate treated according to a predetermined size and get a steel plate with predetermined size; Step S2.4, bending the steel plate with predetermined size to a ring-shape using a bending machine with its long edge used as its circumference, and its short edge as the length of the tube; Step S2.5, welding the ends of predetermined size steel plate together, as a section of the inner wear-resistant tube , repeating Steps S2.1-S2.5 and preparing multiple sections of inner wear-resistant tube . Step S2.1, preparing or acquiring of steel plates of high carbon high chromium; Step S2.2, heating treatment on the steel plates by spherical annealing, the temperature of the spherical annealing is at 750-800°C; Step S2.3, cutting the steel plate treated according to a predetermined size and get a steel plate with predetermined size; Step S2.4, bending the steel plate with predetermined size to a ring-shape using a bending machine with its long edge used as its circumference, and its short edge as the length of the tube; Step S2.5, welding the ends of predetermined size steel plate together, as a section of the inner wear-resistant tube , repeating Steps S2.1-S2.5 and preparing multiple sections of inner wear-resistant tube .
Method for manufacturing a base plate for an ostomy appliance, the method comprising: - providing a top layer ; - providing an electrode assembly with a proximal and a distal side, the electrode assembly comprising a plurality of electrodes , the electrode assembly having a first part and a second part , the first part comprising connection parts of the plurality of electrode configured for connecting the plurality of electrodes to terminals of a monitor device ; - providing a first adhesive layer comprising one or more water soluble or water swellable hydrocolloids; and - assembling the top layer , the electrode assembly and the first adhesive layer , such that the second part of the electrode assembly i is arranged between the first adhesive layer and the top layer , the distal side of the electrode assembly facing the top layer and the proximal side of the electrode assembly facing the first adhesive layer , wherein the first adhesive layer is provided such that the proximal side of the first part of the electrode assembly is not covered by the first adhesive layer . - providing a top layer ; - providing an electrode assembly with a proximal and a distal side, the electrode assembly comprising a plurality of electrodes , the electrode assembly having a first part and a second part , the first part comprising connection parts of the plurality of electrode configured for connecting the plurality of electrodes to terminals of a monitor device ; - providing a first adhesive layer comprising one or more water soluble or water swellable hydrocolloids; and - assembling the top layer , the electrode assembly and the first adhesive layer , such that the second part of the electrode assembly i is arranged between the first adhesive layer and the top layer , the distal side of the electrode assembly facing the top layer and the proximal side of the electrode assembly facing the first adhesive layer , wherein the first adhesive layer is provided such that the proximal side of the first part of the electrode assembly is not covered by the first adhesive layer .
A shaving blade assembly comprising: a plurality of parallel blades including a first blade ; and a first rack-and-pinion mechanism with a rack coupled to the first blade to actuate the first blade in a first direction (M) orthogonal to a cutting edge of the first blade . a plurality of parallel blades including a first blade ; and a first rack-and-pinion mechanism with a rack coupled to the first blade to actuate the first blade in a first direction (M) orthogonal to a cutting edge of the first blade .
A sublimation type thermal transfer sheet comprising: a substrate , a first dye layer , a second dye layer , a third dye layer , and a back-face layer , the first dye layer, the second dye layer, and the third dye layer being frame sequentially formed on a surface of the substrate in this order, the first dye layer being a yellow dye layer, the second dye layer being a magenta dye layer, and the third dye layer being a cyan dye layer, the back-face layer being formed on another surface of the substrate, wherein the first dye layer, the second dye layer, and the third dye layer contain each an individual sublimable dye and an individual binder resin, one of the first dye layer and the second dye layer further contains a releasing agent selected from a first group consisting of silicone oils, silicone-modified resins and phosphoric esters, another of the first dye layer and the second dye layer further contains an alkyl cellulose resin, and the third dye layer further contains an alkyl cellulose resin, and (a) contains no releasing agent of the first group, or (b) contains a releasing agent of the first group at an amount of not more than 0.3 % by weight based on the total weight of the solid content of the third dye layer. the first dye layer, the second dye layer, and the third dye layer being frame sequentially formed on a surface of the substrate in this order, the first dye layer being a yellow dye layer, the second dye layer being a magenta dye layer, and the third dye layer being a cyan dye layer, the back-face layer being formed on another surface of the substrate, wherein the first dye layer, the second dye layer, and the third dye layer contain each an individual sublimable dye and an individual binder resin, one of the first dye layer and the second dye layer further contains a releasing agent selected from a first group consisting of silicone oils, silicone-modified resins and phosphoric esters, another of the first dye layer and the second dye layer further contains an alkyl cellulose resin, and the third dye layer further contains an alkyl cellulose resin, and (a) contains no releasing agent of the first group, or (b) contains a releasing agent of the first group at an amount of not more than 0.3 % by weight based on the total weight of the solid content of the third dye layer.