mhurhangee/patent-ind-claim-en huggingface dataset:
A dishwasher, comprising: a tub having an accommodation cavity, the accommodation cavity having an opening facing forward; a frame connected to an outer surface of the tub and arranged along an edge of the opening of the accommodation cavity, wherein a sealing groove is defined in the frame , or the sealing groove is enclosed by the frame and the edge of the opening of the tub , and wherein a sealing strip is disposed in the sealing groove ; and a door body configured to expose or cover the opening of the accommodation cavity, wherein the door body abuts against the sealing strip in response to the opening of the accommodation cavity being covered by the door body ; characterised in that the frame comprises: a supporting frame strip abutting against the outer surface of the tub ; and a fitting frame strip connected to a front side wall of the supporting frame strip and spaced apart from the outer surface of the tub , wherein: the sealing groove is located between the fitting frame strip and the edge of the opening of the tub . a tub having an accommodation cavity, the accommodation cavity having an opening facing forward; a frame connected to an outer surface of the tub and arranged along an edge of the opening of the accommodation cavity, wherein a sealing groove is defined in the frame , or the sealing groove is enclosed by the frame and the edge of the opening of the tub , and wherein a sealing strip is disposed in the sealing groove ; and a door body configured to expose or cover the opening of the accommodation cavity, wherein the door body abuts against the sealing strip in response to the opening of the accommodation cavity being covered by the door body ; characterised in that the frame comprises: a supporting frame strip abutting against the outer surface of the tub ; and a fitting frame strip connected to a front side wall of the supporting frame strip and spaced apart from the outer surface of the tub , wherein: the sealing groove is located between the fitting frame strip and the edge of the opening of the tub . a supporting frame strip abutting against the outer surface of the tub ; and a fitting frame strip connected to a front side wall of the supporting frame strip and spaced apart from the outer surface of the tub , wherein: the sealing groove is located between the fitting frame strip and the edge of the opening of the tub .
Power supply system specially designed to form an electrical power supply circuit capable supplying power from an alternating electrical current to a railway locomotive provided with a pantograph to displace it along a railway track , said power supply system comprising one or a plurality of distributed electrical traction substations , each forming a power supply sector comprising at least one linear distribution zone : ▪ at least one autotransformer ; ▪ a contact wire designed to transport alternating electrical current and to transmit this alternating electrical current to the traction vehicle by the pantograph rubbing on the contact wire ; ▪ a support cable ; ▪ a negative power supply line also presenting a position offset from the contact wire , on the one hand, and from the support cable , on the other hand, and arranged in the electrical power supply circuit so as to have an electrical potential in phase opposition to the electrical potential of the contact wire ; ▪ a positive power supply line also having a position offset from the support cable and arranged in the electrical power supply circuit so as to have the same electrical potential as the electrical potential of the contact wire and the support cable ; characterised in that : the support cable is positioned approximately vertically in line with the contact wire and supporting said contact wire through a dropper adjustment system; and the position of the negative power supply line is located between the position of the positive power supply line and the position of a median geometric line arranged between the support cable and the contact wire . ▪ at least one autotransformer ; ▪ a contact wire designed to transport alternating electrical current and to transmit this alternating electrical current to the traction vehicle by the pantograph rubbing on the contact wire ; ▪ a support cable ; ▪ a negative power supply line also presenting a position offset from the contact wire , on the one hand, and from the support cable , on the other hand, and arranged in the electrical power supply circuit so as to have an electrical potential in phase opposition to the electrical potential of the contact wire ; ▪ a positive power supply line also having a position offset from the support cable and arranged in the electrical power supply circuit so as to have the same electrical potential as the electrical potential of the contact wire and the support cable ; the support cable is positioned approximately vertically in line with the contact wire and supporting said contact wire through a dropper adjustment system; and the position of the negative power supply line is located between the position of the positive power supply line and the position of a median geometric line arranged between the support cable and the contact wire .
A method for producing a pipe member, comprising: a thermoplastic material filling process for filling a die with a thermoplastic material; and a thermoplastic material discharging process for extruding an unsolidified part of the thermoplastic material in the molding die by using pressurized fluid, wherein the thermoplastic material is mixed with a foaming agent, the method further comprises a process for controlling the temperature and the pressure of the thermoplastic material filled in the die so that the thermoplastic material foams in the molding die , and the thermoplastic material discharging process is a process for extruding an inner part of the thermoplastic material, foamed in the molding die , by using the pressurized fluid prior to solidification of the inner part. a thermoplastic material filling process for filling a die with a thermoplastic material; and a thermoplastic material discharging process for extruding an unsolidified part of the thermoplastic material in the molding die by using pressurized fluid, wherein the thermoplastic material is mixed with a foaming agent, the method further comprises a process for controlling the temperature and the pressure of the thermoplastic material filled in the die so that the thermoplastic material foams in the molding die , and the thermoplastic material discharging process is a process for extruding an inner part of the thermoplastic material, foamed in the molding die , by using the pressurized fluid prior to solidification of the inner part.
A method for inhibiting expression of a polynucleotide sequence of hepatitis B virus in a mammalian cell in culture comprising administering to said cell at least three different double-stranded RNA effector molecules, each double-stranded RNA effector molecule comprising: (a) a sequence selected from the group consisting of SEQ ID NO: 54, SEQ ID NO: 55, SEQ ID NO: 57, SEQ ID NO: 58, SEQ ID NO: 59, and SEQ ID NO: 62; (b) reverse complement of said selected sequences; and (c) a sequence linking sequences (a) and (b); wherein U is substituted for T.
A cleaning composition suitable for cleaning a UV-aligned liquid crystal alignment layer comprising: tetrahydrofurfuryl alcohol or methyl 2-hydroxyisobutyrate, and at least one compound selected from the group consisting of an alkylene glycol-based compound having a viscosity of 0.01 kg/ms (10 cP) or less and a boiling point of at least 150°C or more and a polar solvent having a viscosity of 0.005 kg/ms (5 cP) or less and a boiling point of at least 100°C or more, wherein the cleaning composition is suitable to be used for cleaning a UV-aligned liquid crystal alignment layer including polyimide or a polyimide precursor. tetrahydrofurfuryl alcohol or methyl 2-hydroxyisobutyrate, and at least one compound selected from the group consisting of an alkylene glycol-based compound having a viscosity of 0.01 kg/ms (10 cP) or less and a boiling point of at least 150°C or more and a polar solvent having a viscosity of 0.005 kg/ms (5 cP) or less and a boiling point of at least 100°C or more, wherein the cleaning composition is suitable to be used for cleaning a UV-aligned liquid crystal alignment layer including polyimide or a polyimide precursor.
A method of a user equipment of performing transmission/reception through a sidelink with another user equipment, the method comprising: configuring a sidelink bandwidth part; configuring a sidelink numerology for the transmission/reception through the sidelink; and performing the transmission/reception through the sidelink with another user equipment commonly using the configured sidelink bandwidth part wherein the sidelink numerology is configured through configuration information of the sidelink bandwidth part. configuring a sidelink bandwidth part; configuring a sidelink numerology for the transmission/reception through the sidelink; and performing the transmission/reception through the sidelink with another user equipment commonly using the configured sidelink bandwidth part wherein the sidelink numerology is configured through configuration information of the sidelink bandwidth part.
A method for transmitting precoding information by a specific user equipment, UE, in a wireless communication system, the method comprising: receiving group information from a base station, BS, the group information comprising information indicating a representative UE in a UE group and information indicating one or more member UEs, the specific UE being one of the one or more member UEs; receiving first control information transmitted from the representative UE, the first control information comprising first precoding information; determining second precoding information based on the first precoding information; and transmitting second control information comprising the determined second precoding information to the BS . receiving group information from a base station, BS, the group information comprising information indicating a representative UE in a UE group and information indicating one or more member UEs, the specific UE being one of the one or more member UEs; receiving first control information transmitted from the representative UE, the first control information comprising first precoding information; determining second precoding information based on the first precoding information; and transmitting second control information comprising the determined second precoding information to the BS .
A method of preparing a C/C-SiC composite part, comprising: (a) preparing, using a solvent evaporation process, a carbon fiber composite powder coated with a phenol resin; wherein the solvent evaporation process in (a) is carried out by: (a1) dissolving a thermoplastic phenol resin comprising 7-10 wt. % of a curing agent in an organic solvent, adding carbon fiber powders having a diameter of 6 to 10 μm and a length of 50 to 200 μm to the organic solvent to yield a dispersed solution; where a volume ratio of the carbon fiber powders to the phenolic resin is (2-8): (2-8); and (a2) distilling the dispersed solution and crystallizing to yield a powder aggregate, and drying, grinding and sieving the powder aggregate to yield the carbon fiber composite powders; (b) according to a three-dimensional model of a to-be-prepared part, forming a green part corresponding to the to-be-prepared part using said carbon fiber composite powder and a 3D printing technology; (c) densifying the green part to yield a C/C porous body having a density of 0.7 to 1.1 g/cm3 and an open porosity of 30 to 50%; and (d) siliconizing the C/C porous body under vacuum, removing excess silicon to yield a primary carbon fiber reinforced carbon-silicon carbide (C/C-SiC) body, densifying the primary C/C-SiC body, to obtain a final C/C-SiC composite part. (a) preparing, using a solvent evaporation process, a carbon fiber composite powder coated with a phenol resin; wherein the solvent evaporation process in (a) is carried out by: (a1) dissolving a thermoplastic phenol resin comprising 7-10 wt. % of a curing agent in an organic solvent, adding carbon fiber powders having a diameter of 6 to 10 μm and a length of 50 to 200 μm to the organic solvent to yield a dispersed solution; where a volume ratio of the carbon fiber powders to the phenolic resin is (2-8): (2-8); and (a2) distilling the dispersed solution and crystallizing to yield a powder aggregate, and drying, grinding and sieving the powder aggregate to yield the carbon fiber composite powders; (a1) dissolving a thermoplastic phenol resin comprising 7-10 wt. % of a curing agent in an organic solvent, adding carbon fiber powders having a diameter of 6 to 10 μm and a length of 50 to 200 μm to the organic solvent to yield a dispersed solution; where a volume ratio of the carbon fiber powders to the phenolic resin is (2-8): (2-8); and (a2) distilling the dispersed solution and crystallizing to yield a powder aggregate, and drying, grinding and sieving the powder aggregate to yield the carbon fiber composite powders; (b) according to a three-dimensional model of a to-be-prepared part, forming a green part corresponding to the to-be-prepared part using said carbon fiber composite powder and a 3D printing technology; (c) densifying the green part to yield a C/C porous body having a density of 0.7 to 1.1 g/cm3 and an open porosity of 30 to 50%; and (d) siliconizing the C/C porous body under vacuum, removing excess silicon to yield a primary carbon fiber reinforced carbon-silicon carbide (C/C-SiC) body, densifying the primary C/C-SiC body, to obtain a final C/C-SiC composite part.
A wireless charging device comprising: a first housing , which comprises a first surface facing a first direction (D1) and a second surface facing a second direction (D2) opposite to the first direction (D1), and includes at least one hole , wherein the first housing is configured to safely mount an external device on the first surface ; a second housing arranged along the second direction on the second surface of the first housing ; a coil unit arranged between the first housing and the second housing , and configured to transmit power to an external device; a fan arranged adjacent to the coil unit and configured to rotate; and a shielding member arranged adjacent to the coil unit between the coil unit and the second housing ; characterized in that the shielding member further comprises a plurality of holes superimposed over the coil unit . a first housing , which comprises a first surface facing a first direction (D1) and a second surface facing a second direction (D2) opposite to the first direction (D1), and includes at least one hole , wherein the first housing is configured to safely mount an external device on the first surface ; a second housing arranged along the second direction on the second surface of the first housing ; a coil unit arranged between the first housing and the second housing , and configured to transmit power to an external device; a fan arranged adjacent to the coil unit and configured to rotate; and a shielding member arranged adjacent to the coil unit between the coil unit and the second housing ; characterized in that the shielding member further comprises a plurality of holes superimposed over the coil unit .
A method for assembling a modular rotor blade of a wind turbine , the method comprising: providing a pre-formed blade root section and a pre-formed blade tip section of the rotor blade , the blade root section having one or more spar caps extending in a generally span-wise direction therefrom, wherein the pre-formed blade root section is integrally manufactured with the one or more spar caps in a single shot or mold ; providing a plurality of pre-formed blade segments of the rotor blade ; mounting the plurality of blade segments around the one or more spar caps of the blade root section between the blade root section and the blade tip section , wherein, when mounted around the one or more spar caps , at least one of the plurality of blade segments comprises a chord-wise cross-section having multiple joints joining together the respective blade segment with at least another of the plurality of blade segments , wherein at least one of the joints is located on at least one of a pressure side surface or a suction side surface ; and joining the blade tip section to at least one of the one or more spar caps or the plurality of blade segments . providing a pre-formed blade root section and a pre-formed blade tip section of the rotor blade , the blade root section having one or more spar caps extending in a generally span-wise direction therefrom, wherein the pre-formed blade root section is integrally manufactured with the one or more spar caps in a single shot or mold ; providing a plurality of pre-formed blade segments of the rotor blade ; mounting the plurality of blade segments around the one or more spar caps of the blade root section between the blade root section and the blade tip section , wherein, when mounted around the one or more spar caps , at least one of the plurality of blade segments comprises a chord-wise cross-section having multiple joints joining together the respective blade segment with at least another of the plurality of blade segments , wherein at least one of the joints is located on at least one of a pressure side surface or a suction side surface ; and joining the blade tip section to at least one of the one or more spar caps or the plurality of blade segments .
A selectively operable braking device for an elevator system including a car and a guide rail , comprising: a safety brake disposed on the car and adapted to be wedged against the guide rail when moved from a non-braking state into a braking state; and an engagement mechanism (60; 160; 260) moveable between an engaged position and a non-engaged position, the engagement mechanism being operatively coupled to the safety brake and configured to move the safety brake between the non-braking state and braking state when the engagement mechanism (60; 160; 260) moves between the non-engaged position and the engaged position; the selectively operable braking device being characterized in that the engagement mechanism (60; 160; 260) comprises a plurality of bar pinions (62a-62d) each having a plurality of teeth (74a-74d) and operatively connected to at least one of the other plurality of bar pinions (62a-62d) with a meshed engagement of the plurality of teeth (74a-74d); and in that it further comprises a plurality of magnetic brake pads , each of the brake pads operatively coupled to one of the plurality of bar pinions (62a-62d), wherein movement of one of the magnetic brake pads into the engaged position causes movement of the other magnetic brake pads into the engaged position. a safety brake disposed on the car and adapted to be wedged against the guide rail when moved from a non-braking state into a braking state; and an engagement mechanism (60; 160; 260) moveable between an engaged position and a non-engaged position, the engagement mechanism being operatively coupled to the safety brake and configured to move the safety brake between the non-braking state and braking state when the engagement mechanism (60; 160; 260) moves between the non-engaged position and the engaged position; the selectively operable braking device being characterized in that the engagement mechanism (60; 160; 260) comprises a plurality of bar pinions (62a-62d) each having a plurality of teeth (74a-74d) and operatively connected to at least one of the other plurality of bar pinions (62a-62d) with a meshed engagement of the plurality of teeth (74a-74d); and in that it further comprises a plurality of magnetic brake pads , each of the brake pads operatively coupled to one of the plurality of bar pinions (62a-62d), wherein movement of one of the magnetic brake pads into the engaged position causes movement of the other magnetic brake pads into the engaged position.
A method for protecting the execution of a software module compiled and installed in an electronic controller of an electricity distribution installation , this software module comprising control software instructions and at least one protected function , this method being implemented by the control software instructions when the software module is executed by the electronic controller , in response to a request from the electronic controller to execute said at least one protected function, this method comprising: - obtaining (S122) a digital identifier of the electronic controller; - calculating (S124), by means of a calculation function contained in the software module, a digital signature from the digital identifier obtained; - comparing (S126) the calculated digital signature with a predefined signature stored in the software module, the predefined digital signature having been previously inserted when the software module was created, on the basis of the digital identifier of the industrial controller and by means of a calculation function similar to that contained in the software module; - authorising (S128) the execution of the protected function if the calculated digital signature matches the predefined digital signature, and denying (S132) the execution of the protected function if the calculated digital signature does not match the predefined digital signature. - obtaining (S122) a digital identifier of the electronic controller; - calculating (S124), by means of a calculation function contained in the software module, a digital signature from the digital identifier obtained; - comparing (S126) the calculated digital signature with a predefined signature stored in the software module, the predefined digital signature having been previously inserted when the software module was created, on the basis of the digital identifier of the industrial controller and by means of a calculation function similar to that contained in the software module; - authorising (S128) the execution of the protected function if the calculated digital signature matches the predefined digital signature, and denying (S132) the execution of the protected function if the calculated digital signature does not match the predefined digital signature.
A composition of liposomal reduced glutathione for use in a method of treatment of Respiratory Syncytial Virus infections.