mhurhangee/patent-ind-claim-en huggingface dataset:
A routing structure of electrical wires , the routing structure comprising: multi-phase electrical wires configured to carry electric currents with different phases; and a magnetic core having a ring shape, around which the electrical wires are wound, wherein the magnetic core has a division type in which a first component constituting a part of the ring shape, and a second component constituting a remaining part of the ring shape are connected, wherein the electrical wires with all phases are only wound around the first component ; wherein the first and second component each have a columnar portion ; and wherein, at both ends of the columnar portion in a longitudinal direction, the first and the second component each have end portions, the end portions being either curved portions or second columnar portions ; and wherein the end portions are bent toward the same direction, characterized in that the first component and the second component are connected by connection members at both end portions in the longitudinal direction of the magnetic core which include holding portions that hold the end portions (31b, 31c, 41b. 41c) of the first component and engagement portions to be engaged with engagement protrusions of the second component , wherein the engagement protrusions are respectively provided on a front surface and a rear surface of the second component on each of its end portions . multi-phase electrical wires configured to carry electric currents with different phases; and a magnetic core having a ring shape, around which the electrical wires are wound, wherein the magnetic core has a division type in which a first component constituting a part of the ring shape, and a second component constituting a remaining part of the ring shape are connected, wherein the electrical wires with all phases are only wound around the first component ; wherein the first and second component each have a columnar portion ; and wherein, at both ends of the columnar portion in a longitudinal direction, the first and the second component each have end portions, the end portions being either curved portions or second columnar portions ; and wherein the end portions are bent toward the same direction, characterized in that the first component and the second component are connected by connection members at both end portions in the longitudinal direction of the magnetic core which include holding portions that hold the end portions (31b, 31c, 41b. 41c) of the first component and engagement portions to be engaged with engagement protrusions of the second component , wherein the engagement protrusions are respectively provided on a front surface and a rear surface of the second component on each of its end portions .
A 15 kDa ovcr-sulfatcd exopolysaccharide for use in the prevention or inhibition of metastases formation in a subject, wherein said 15 kDa over-sulfated exopolysaccharide is obtained by a method comprising the following steps: (a) a step consisting of free-radical depolymerization of a marine native exopolysaccharide (EPS) from the strain GY785 of the Alteromonas genus so as to obtain a depolymerized EPS having a molecular weight of 5,000 to 100,000 g/mol; (b) a subsequent step consisting of sulfation of the depolymerized EPS to obtain an over-sulfated depolymerized EPS, comprising adding to the depolymerized EPS at least one sulfation agent in an amount sufficient to obtain a sulfated polysaccharide having a degree of sulfate-group substitution of between 10% and 45% by weight relative to the total weight of the over-sulfated depolymerized EPS; and (c) a subsequent step consisting of isolating the 15 kDa over-sulfated exopolysaccharide (GYS15) from the over-sulfated depolymerized EPS. (a) a step consisting of free-radical depolymerization of a marine native exopolysaccharide (EPS) from the strain GY785 of the Alteromonas genus so as to obtain a depolymerized EPS having a molecular weight of 5,000 to 100,000 g/mol; (b) a subsequent step consisting of sulfation of the depolymerized EPS to obtain an over-sulfated depolymerized EPS, comprising adding to the depolymerized EPS at least one sulfation agent in an amount sufficient to obtain a sulfated polysaccharide having a degree of sulfate-group substitution of between 10% and 45% by weight relative to the total weight of the over-sulfated depolymerized EPS; and (c) a subsequent step consisting of isolating the 15 kDa over-sulfated exopolysaccharide (GYS15) from the over-sulfated depolymerized EPS.
A wind turbine , comprising a tower , a switch gear , which is arranged inside the tower , a suspension structure for a hanging suspension of the switch gear in the tower , and a platform , on which the switch gear is arranged, wherein the platform has movable platform plates , which are openable for guiding an array cable through the platform to the switch gear , and wherein the suspension structure has a carrying unit that supports the switch gear from below.
A method of configuring a gas exchange valve assembly in an internal combustion piston engine comprising: - providing a gas exchange valve - providing a valve seat , - arranging an abrasive wearing overlay on a base material at a region of a sealing surface of first one of the gas exchange valve disk (16.2) and the valve seat , - assembling the valve seat into a gas exchange valve body - assembling the valve into the gas exchange valve body - and while running the engine, rotating the valve around its longitudinal axis during its lift and/or close movements such that the sealing surface of the valve detach and/or touch the valve seat in the gas exchange valve body by a movement comprising a rotational component, wherein the abrasive wearing overlay machines the sealing surface of second one of the valve disk (16.2) and the valve seat into conformity with each other. - providing a gas exchange valve - providing a valve seat , - arranging an abrasive wearing overlay on a base material at a region of a sealing surface of first one of the gas exchange valve disk (16.2) and the valve seat , - assembling the valve seat into a gas exchange valve body - assembling the valve into the gas exchange valve body - and while running the engine, rotating the valve around its longitudinal axis during its lift and/or close movements such that the sealing surface of the valve detach and/or touch the valve seat in the gas exchange valve body by a movement comprising a rotational component, wherein the abrasive wearing overlay machines the sealing surface of second one of the valve disk (16.2) and the valve seat into conformity with each other.
A method for manufacturing a surface-modified thermoplastic resin , in which an easy adherence layer is laminated on a thermoplastic resin having a melting point of T°C, the method comprising: providing the easy adherence layer on at least a part of a surface of the thermoplastic resin ; and performing heat welding at a temperature equal to or higher than (T - 50)°C, wherein the heat welding is performed by a heating press, wherein a molding process of the thermoplastic resin is performed by the heating press, wherein the easy adherence layer includes a polymer component, wherein the easy adherence layer is provided by placing a side of the easy adherence layer of a thermal transfer surface-modifying sheet that is a laminate comprising a release sheet and the easy adherence layer , on at least a part of the surface of the thermoplastic resin , characterized in that the polymer component includes a non-polar unit and a polar unit including a polar group. providing the easy adherence layer on at least a part of a surface of the thermoplastic resin ; and performing heat welding at a temperature equal to or higher than (T - 50)°C, wherein the heat welding is performed by a heating press, wherein the easy adherence layer includes a polymer component, wherein the easy adherence layer is provided by placing a side of the easy adherence layer of a thermal transfer surface-modifying sheet that is a laminate comprising a release sheet and the easy adherence layer , on at least a part of the surface of the thermoplastic resin ,
A method for making a coated elevator sheave comprising: obtaining a fluorinated polymer compound selected from polyurethanes, epoxy polymers, polyesters, polyureas, polyamides, polyimides or silicones, where fluorine is chemically or covalently bonded to the polymer; and coating the contact surface of the sheave with the fluorinated polymer compound. obtaining a fluorinated polymer compound selected from polyurethanes, epoxy polymers, polyesters, polyureas, polyamides, polyimides or silicones, where fluorine is chemically or covalently bonded to the polymer; and coating the contact surface of the sheave with the fluorinated polymer compound.
Method for filling a plurality of caverns (2, K 1 , K 2 ) that are connected in series and respectively filled with a fluid with a fill material based on waste materials, with the following method steps: - Filling a first cavern (2, K 1 ) with gas , whereby at least part of the fluid contained in the first cavern (2, K 1 ) is displaced; - Filling the first cavern (2, K 1 ) with the fill material , wherein during the filling of the first cavern (2, K 1 ) with the fill material at least part of the gas contained in the first cavern (2, K 1 ) is displaced and transferred into a second cavern (2, K 2 ) of the series, wherein during the transfer of the gas into the second cavern (2, K 2 ) at least part of the fluid contained in the second cavern is displaced; - Filling the second cavern (2, K 2 ) filled with gas with further fill material , wherein during the filling of the second cavern (2, K 2 ) with the fill material at least part of the gas contained in the second cavern (2, K 2 ) is displaced. - Filling a first cavern (2, K 1 ) with gas , whereby at least part of the fluid contained in the first cavern (2, K 1 ) is displaced; - Filling the first cavern (2, K 1 ) with the fill material , wherein during the filling of the first cavern (2, K 1 ) with the fill material at least part of the gas contained in the first cavern (2, K 1 ) is displaced and transferred into a second cavern (2, K 2 ) of the series, wherein during the transfer of the gas into the second cavern (2, K 2 ) at least part of the fluid contained in the second cavern is displaced; - Filling the second cavern (2, K 2 ) filled with gas with further fill material , wherein during the filling of the second cavern (2, K 2 ) with the fill material at least part of the gas contained in the second cavern (2, K 2 ) is displaced.
An infusion set , comprising: a main base , comprising a moveable needle hub , wherein said moveable needle hub within said main base further comprises a threaded engagement between said moveable needle hub and said main base; a retraction element , coupled with said moveable needle hub within said main base, wherein said retraction element is configured to rotate relative to said main base to allow a user to adjust a final needle depth by turning the rotation element, and wherein said rotation is translated into vertical movement of said moveable needle hub within said main base; a main hub , disposed on said main base, said main hub comprising a fluid channel and an inner septum at a first end of said channel, and a flexible tube at a second end of said channel; an outer hub , separated from said main hub; and an outer ring , rotatably captured by said outer hub and surrounding said main hub, wherein said main hub is coupled to said outer ring via said flexible tube, and wherein said main hub and said main base are separated from said outer ring and said outer hub. a main base , comprising a moveable needle hub , wherein said moveable needle hub within said main base further comprises a threaded engagement between said moveable needle hub and said main base; a retraction element , coupled with said moveable needle hub within said main base, wherein said retraction element is configured to rotate relative to said main base to allow a user to adjust a final needle depth by turning the rotation element, and wherein said rotation is translated into vertical movement of said moveable needle hub within said main base; a main hub , disposed on said main base, said main hub comprising a fluid channel and an inner septum at a first end of said channel, and a flexible tube at a second end of said channel; an outer hub , separated from said main hub; and an outer ring , rotatably captured by said outer hub and surrounding said main hub, wherein said main hub is coupled to said outer ring via said flexible tube, and wherein said main hub and said main base are separated from said outer ring and said outer hub.
A method comprising: by an egress network node of a network of network nodes connected according to a network topology, computing, using routing information for the network, a pair of maximally redundant trees, MRTs, from the egress network node to a virtual proxy node , with the virtual proxy node as a root of the MRTs and having respective links, in a network graph of the network topology modified to include the virtual proxy node, virtually coupling the virtual proxy node with a first network node of the network and a second network node of the network, wherein the first network node and the second network node of the network distribute, using respective redundant multicast streams, multicast content received by the first network node from a first source device and by the second network node from a second source device , wherein the first source device and second source device are redundant multicast sources for the multicast content; wherein the virtual proxy node represents the redundant multicast sources for the multicast content outputting, by the egress network node via a path along a first MRT of the pair of MRTs, a first message requesting to receive one of the redundant multicast streams; and outputting, by the egress network node via a path along a second MRT of the pair of MRTs, a second message requesting to receive one of the redundant multicast streams. by an egress network node of a network of network nodes connected according to a network topology, computing, using routing information for the network, a pair of maximally redundant trees, MRTs, from the egress network node to a virtual proxy node , with the virtual proxy node as a root of the MRTs and having respective links, in a network graph of the network topology modified to include the virtual proxy node, virtually coupling the virtual proxy node with a first network node of the network and a second network node of the network, wherein the first network node and the second network node of the network distribute, using respective redundant multicast streams, multicast content received by the first network node from a first source device and by the second network node from a second source device , wherein the first source device and second source device are redundant multicast sources for the multicast content; wherein the virtual proxy node represents the redundant multicast sources for the multicast content outputting, by the egress network node via a path along a first MRT of the pair of MRTs, a first message requesting to receive one of the redundant multicast streams; and outputting, by the egress network node via a path along a second MRT of the pair of MRTs, a second message requesting to receive one of the redundant multicast streams.
A medical device to be applied to a body of a human or animal being, comprising a contact surface to contact the body of the human or animal being when the medical device is applied to the body of the human or animal being, wherein the contact surface is covered with a soluble surface sealing, characterized in that the surface sealing is composed of a carbohydrate, the medical device is an implantable catheter or another catheter, a tubing, a pump, or an impeller pump to forward a bodily fluid such as blood, and the contact surface is configured to provide target characteristics comprising a functionalization obtained by the contact surface being provided with double or more charged Phosphate ions such that the Phosphate ions are exposed to a bodily fluid when the medical device is applied to the body of the human or animal being. a contact surface to contact the body of the human or animal being when the medical device is applied to the body of the human or animal being, wherein the contact surface is covered with a soluble surface sealing, characterized in that the surface sealing is composed of a carbohydrate, the medical device is an implantable catheter or another catheter, a tubing, a pump, or an impeller pump to forward a bodily fluid such as blood, and the contact surface is configured to provide target characteristics comprising a functionalization obtained by the contact surface being provided with double or more charged Phosphate ions such that the Phosphate ions are exposed to a bodily fluid when the medical device is applied to the body of the human or animal being.
A magnetic filter for a central heating and/or cooling system, the magnetic filter comprising: a chamber having an inlet and an outlet , and an elongate magnetic assembly, the elongate magnetic assembly being mounted to the outside of the chamber on a pivot disposed near to one end of the elongate magnetic assembly , a major length of the elongate magnetic assembly being movable from a position close to the chamber to a position spaced from the chamber by pivoting the magnetic assembly on the pivot, wherein a minor length of the elongate magnetic assembly extends from the pivot point in a direction opposite to the direction of the major length, the minor length forming a stop for contacting the chamber when the major length of the elongate magnetic assembly is spaced from the chamber , to prevent further movement of the major length of the magnetic assembly away from the chamber , in which the magnetic assembly is spring-loaded into a position where the major length is spaced from the chamber , and in which releasable retaining means are provided at the other end of the magnetic assembly to the pivot, the releasable retaining means when engaged holding the magnetic assembly in the position close to the chamber . a chamber having an inlet and an outlet , and an elongate magnetic assembly, the elongate magnetic assembly being mounted to the outside of the chamber on a pivot disposed near to one end of the elongate magnetic assembly , a major length of the elongate magnetic assembly being movable from a position close to the chamber to a position spaced from the chamber by pivoting the magnetic assembly on the pivot, wherein a minor length of the elongate magnetic assembly extends from the pivot point in a direction opposite to the direction of the major length, the minor length forming a stop for contacting the chamber when the major length of the elongate magnetic assembly is spaced from the chamber , to prevent further movement of the major length of the magnetic assembly away from the chamber , in which the magnetic assembly is spring-loaded into a position where the major length is spaced from the chamber , and in which releasable retaining means are provided at the other end of the magnetic assembly to the pivot, the releasable retaining means when engaged holding the magnetic assembly in the position close to the chamber .
A catch mechanism including: a first member pivotably connected to a second member , the first member including a first portion that, in a first configuration, extends into a path of a moveable device in use and is arranged such that when a lower part of the moveable device strikes the first portion when travelling in a first direction, the first member is pivoted to a second configuration where it is engageable with an upper part of the moveable device and prevents movement of the moveable device in an opposite direction until the catch mechanism is disengaged, the catch mechanism being characterized by a disengaging member arranged so that if the moveable member is moved in the first direction after the catch mechanism has been engaged, the moveable member strikes the disengaging member, which pivots the first member out of the second configuration such that the first portion is moved out of the path of the moveable device, thereby allowing the moveable device to be moved in the opposite direction. a first member pivotably connected to a second member , the first member including a first portion that, in a first configuration, extends into a path of a moveable device in use and is arranged such that when a lower part of the moveable device strikes the first portion when travelling in a first direction, the first member is pivoted to a second configuration where it is engageable with an upper part of the moveable device and prevents movement of the moveable device in an opposite direction until the catch mechanism is disengaged, the catch mechanism being characterized by a disengaging member arranged so that if the moveable member is moved in the first direction after the catch mechanism has been engaged, the moveable member strikes the disengaging member, which pivots the first member out of the second configuration such that the first portion is moved out of the path of the moveable device, thereby allowing the moveable device to be moved in the opposite direction.
Device (1a; 1b) for removing a beverage from a container, in particular for removing a beverage from a beverage bottle, which has a rotationally symmetrical base body (2a; 2b) provided with a passage channel (7a; 7b) for the liquid and having a connecting section (4a; 4b) which is configured for a fluidic connection to the container, the connecting section (4a; 4b) being provided to enclose a liquid removal section of the container, characterized in that the passage channel (7a; 7b) has a variable diameter in a longitudinal direction of the base body (2a; 2b), which diameter decreases abruptly in a central region (13; 13b) to create a decanting pocket (14; 14b) and then increases again.
A panel dividing system for dividing planar workpieces , comprising a feed table , a conveying device for transporting an output workpiece on the feed table in a first conveying direction , a dividing device arranged in the first conveying direction downstream of the feed table for dividing the output workpiece into a divided workpiece , comprising a dividing line arranged transversely to the first conveying direction , and comprising a buffer device for buffering the divided workpiece before a further dividing operation, wherein the buffer device is designed such that the buffered workpiece can be moved therein in a second conveying direction at least towards the feed table , wherein, in the top view, the second conveying direction is oriented transversely to the first conveying direction .