mhurhangee/patent-ind-claim-en huggingface dataset:
A transmutator system for transmutation of long-lived radioactive transuranic waste comprising: a neutron source tank including a neutron source therein, a plurality of concentric tanks positioned about the neutron source tank and comprising a one or more mixtures of long-lived radioactive transuranic waste dissolved in FLiBe salt; characterised in that the system further comprises: an electrostatic accelerator oriented to axially propagate a deuteron beam into the neutron source, characterised in that the plurality of concentric tanks form a first set of tanks and wherein the transmutator system further comprising a second set of tanks containing a mixture of Pu and minor actinides including neptunium, americium and curium and wherein the walls of one of the first set of tanks or the second set of tanks are made of carbon based materials and wherein the carbon based materials are diamond. a neutron source tank including a neutron source therein, a plurality of concentric tanks positioned about the neutron source tank and comprising a one or more mixtures of long-lived radioactive transuranic waste dissolved in FLiBe salt; characterised in that the system further comprises: an electrostatic accelerator oriented to axially propagate a deuteron beam into the neutron source, characterised in that the plurality of concentric tanks form a first set of tanks and wherein the transmutator system further comprising a second set of tanks containing a mixture of Pu and minor actinides including neptunium, americium and curium and wherein the walls of one of the first set of tanks or the second set of tanks are made of carbon based materials and wherein the carbon based materials are diamond. an electrostatic accelerator oriented to axially propagate a deuteron beam into the neutron source, characterised in that the plurality of concentric tanks form a first set of tanks and wherein the transmutator system further comprising a second set of tanks containing a mixture of Pu and minor actinides including neptunium, americium and curium and wherein the walls of one of the first set of tanks or the second set of tanks are made of carbon based materials and wherein the carbon based materials are diamond.
A fuel rail assembly for an internal combustion engine, the fuel rail assembly comprising an elongate fuel rail having an interior volume forming a fuel reservoir and at least one fuel injector cup on the fuel rail , each injector cup being adapted to receive an inlet of an associated fuel injector and providing a fuel path between the fuel reservoir and the fuel inlet of the fuel injector, characterised in that at least one component of the fuel rail assembly is formed integrally with the fuel rail and has a skeletal framework, wherein said component comprises a mounting bracket having a fixing part for receiving a fastening device for securing the assembly to an engine, the fixing part being joined to the fuel rail by a pair of connecting elements providing the skeletal framework, wherein each injector cup has associated therewith a fixing bracket formed integrally with the fuel rail , the fixing bracket being adapted to secure the fuel rail to an engine and comprising the skeletal framework.
Solid state electrolyte rechargeable lithium ion battery without separator, comprising a positive electrode, a negative electrode, a conductive polymer solid state electrolyte layer, and an ion transfer source, in which the solid state electrolyte layer is a composition comprising at least one inorganic solid electrolyte selected from the group consisting of Garnet material, NASICON type crystal structure, perovskite-type material and sulfide material, and a polymer electrolyte composition comprising a polymer electrolyte (X 1 ) obtained by graft polymerizing of a molten salt monomer having a polymerizable functional group and having an onium cation and an anion containing a fluorine with a vinylidene fluoride polymer or copolymer, at a graft ratio in the range of 2 to 90 mol-%, and at least one of (X 2 ) and (X 3 ), wherein (X 2 ) : a molten salt having an onium cation and an anion containing a fluorine, or a molten salt monomer having a polymerizable functional group and having an onium cation and an anion containing a fluorine, (X 3 ) : a polymer or copolymer of a molten salt monomer having a polymerizable functional group and having an onium cation and an anion in which the amount of the inorganic solid electrolyte is 40 to 98 wt.-%, based on the total amount of the composition comprising the polymer electrolyte composition, the at least one inorganic solid electrolyte and the ion transfer source. at least one inorganic solid electrolyte selected from the group consisting of Garnet material, NASICON type crystal structure, perovskite-type material and sulfide material, and a polymer electrolyte composition comprising a polymer electrolyte (X 1 ) obtained by graft polymerizing of a molten salt monomer having a polymerizable functional group and having an onium cation and an anion containing a fluorine with a vinylidene fluoride polymer or copolymer, at a graft ratio in the range of 2 to 90 mol-%, and at least one of (X 2 ) and (X 3 ), wherein (X 2 ) : a molten salt having an onium cation and an anion containing a fluorine, or a molten salt monomer having a polymerizable functional group and having an onium cation and an anion containing a fluorine, (X 3 ) : a polymer or copolymer of a molten salt monomer having a polymerizable functional group and having an onium cation and an anion in which the amount of the inorganic solid electrolyte is 40 to 98 wt.-%, based on the total amount of the composition comprising the polymer electrolyte composition, the at least one inorganic solid electrolyte and the ion transfer source.
A high-strength extruded or cast Al-Mg-Si aluminium alloy characterized in, that it contains 1.3-1.7 wt. % of Si, 0.14-0.25 wt. % of Fe, up to 0.75 wt. % of Cu, 0.7-0.8 wt. % of Mn, 0.85-1.1 wt. % of Mg, 0.15-0.25 wt. % of Cr, up to 0.2 wt. % of Zn, up to 0.1 wt. % of Ti, 0.15-0.25 wt. % of Zr, and other elements up to 0.15 wt. %, single element to 0.05 wt. %, and the rest being Al.
A compound selected from the group: or a pharmaceutically acceptable salt or solvate thereof.
A remote control device configured for controlling one or more remote controllable actuators ; said remote control device comprising a housing , one or more control units , one or more electromechanical interfaces and a transmitter ; said one or more electromechanical interfaces being positioned inside said housing ; said one or more control units being functionally connected to said one or more electromechanical interfaces which are functionally connected to said transmitter ; said one or more control units being structurally connected to one or more control bases , said one or more control bases being arranged rotatable about an axis of rotation (rA) relative to the housing of the remote control device wherein said one or more control bases can rotate freely clockwise or counterclockwise, said one or more control units together define at least a first and a second functional position (A,B) relative to the one or more control bases, said first and second functional positions (A,B) being located radially on opposite sides of said axis of rotation (rA) of said one or more control bases , said one or more control units being configured, regardless of the rotation of said one or more control bases , to produce a first control signal when activated at said first functional position (A) and to produce a second control signal when activated at said second functional position (B); said first control signal being configured to cause a first function having a first direction associated with it, and said second control signal being configured to cause a second function having a second direction associated with it, and where said second direction is opposite said first direction, wherein the remote control device is adapted to turning the rotatable control base 180 degrees around the axis of rotation (rA), and wherein the one or more control units are shaped as two buttons, a sliding knob or in the form of a tiltable control stick.
A heat exchanger, comprising: a fin having a plate shape and including a first region where a plurality of cutout portions are formed with intervals in a longitudinal direction that is a gravity direction, and a second region where the plurality of cutout portions are not formed in the longitudinal direction, the first region extending from one side portion to the second region and the second region extending from the first region to another side portion ; and flat tubes attached to the plurality of cutout portions of the first region and intersecting the fin , a plurality of protruding portions protruding from a planar portion of the fin being formed on the fin , the plurality of protruding portions each having an arc shape in which a first end is located in the first region and a second end is located in the second region , the second end being located on an inner side with respect to the other side portion of the fin characterized in that each of the protruding portions have the second ends formed below the first ends in the gravity direction, such that the protruding portions capture a water droplet adhering to the first region of the fin and to guide it to the second region so that once the water droplet is guided to the second region the water droplet does not return to the first region . a fin having a plate shape and including a first region where a plurality of cutout portions are formed with intervals in a longitudinal direction that is a gravity direction, and a second region where the plurality of cutout portions are not formed in the longitudinal direction, the first region extending from one side portion to the second region and the second region extending from the first region to another side portion ; and flat tubes attached to the plurality of cutout portions of the first region and intersecting the fin , a plurality of protruding portions protruding from a planar portion of the fin being formed on the fin , the plurality of protruding portions each having an arc shape in which a first end is located in the first region and a second end is located in the second region , the second end being located on an inner side with respect to the other side portion of the fin characterized in that each of the protruding portions have the second ends formed below the first ends in the gravity direction, such that the protruding portions capture a water droplet adhering to the first region of the fin and to guide it to the second region so that once the water droplet is guided to the second region the water droplet does not return to the first region .
Furniture with at least one support rod and with at least one first plate on which the support rod or rods can be installed, wherein the first plate has one or more first recesses , wherein a support rod can be inserted with its one end into each of these first recesses , wherein each of said support rods is vertically mountable to said first plate , wherein the support rod has a star-shaped, axially symmetrical cross-section which tapers at one end facing the first plate and the shape of the first recesses is adapted to the star-shaped cross-section of the support rod , preferably in such a way that it is formed similar to the star-shaped cross-section of the support rod , wherein at least one second recess is provided, which is located in a second plate parallel in the insertion direction of the support rod behind the first recess in the first plate , wherein the second recess is preferably similar, but smaller than the first recess and wherein the support rod is inserted with its one end into the first and the second recess in several orientations, which are created by rotation of the support rod around the central axis, thus creating an assembly condition (30.1), characterised in that the support rod comprises electrical conductor tracks by means of which a consumer , which is provided directly or indirectly on the support rod , can be supplied with electrical energy, wherein electrical contact points are provided at one end of the support rod in order to supply the electrical conductor tracks with electrical energy and that a printed circuit board is provided which has electrical mating contact points which can be brought into operative connection with the electrical contact points , wherein the circuit board is designed in such a way that the contact between the electrical contact points and the electrical mating contact points is made, irrespective of the orientation of the support rod , merely by inserting the support rod into a first and a second recess respectively.
A method of producing a wind turbine rotor blade which has glass fibre-reinforced plastic and/or carbon fibre-reinforced plastic bound in a matrix , comprising the steps: mixing metal particles, metal powder or metal chips into the matrix , and hardening the matrix ) in at least one portion of the wind turbine rotor blade by inductively heating the matrix with the metal particles, metal powder or metal chips , characterized in that the wind turbine rotor blade has a first portion and a second portion , the second portion being arranged around the first portion , and wherein the matrix with the metal powder, the metal particles or the metal chips is provided between the first and second portions . mixing metal particles, metal powder or metal chips into the matrix , and hardening the matrix ) in at least one portion of the wind turbine rotor blade by inductively heating the matrix with the metal particles, metal powder or metal chips , characterized in that the wind turbine rotor blade has a first portion and a second portion , the second portion being arranged around the first portion , and wherein the matrix with the metal powder, the metal particles or the metal chips is provided between the first and second portions .
A computer program for controlling an eye surgical laser for the separation of a volume body with predefined interfaces from a human or animal cornea, comprising commands, which cause a treatment device to control the laser by means of a control device such that it emits pulsed laser pulses in a predefined pattern into the cornea, wherein the interfaces of the volume body to be separated are defined by the predefined pattern and a surface of the cornea and the interfaces located in the cornea are generated by means of photodisruption, and wherein the interface is generated substantially transversely to the optical axis of the eye immediately above or within the Bowman's membrane, and wherein the surface of the cornea is a surface of the eye artificially generated by means of ablation or displacement of an uppermost corneal layer and/or by means of production of a corneal flap .
A power transmitter for wirelessly providing power to a power receiver via an inductive power transfer signal; the power transmitter comprising: a transmitter coil ; a driver for generating a drive signal for the transmitter coil , the driver being arranged to generate the drive signal for the transmitter coil to generate the power transfer signal during at least one power transfer time interval of a repeating time frame and to generate the drive signal for the transmitter coil to generate an electromagnetic test signal during at least one foreign object detection time interval of the repeating time frame; a set of balanced detection coils coupled in series, the set of balanced detection coils comprising two detection coils arranged such that signals induced in the two detection coils by an electromagnetic field generated by the transmitter coil compensate each other; a foreign object detector coupled to the set of balanced detection coils and arranged to perform foreign object detection during the foreign object detection time interval, the foreign object detector being arranged to detect a foreign object in response to a property of a signal from the set of balanced detection coils meeting a foreign object detection criterion; a measurement transformer having a primary winding and a secondary winding, the secondary winding being coupled in series with the set of balanced detection coils; and a compensation circuit coupled to the primary winding and arranged to generate a compensation drive signal for the primary winding, the compensation drive signal offsetting a combined voltage of the set of detection coils. a transmitter coil ; a driver for generating a drive signal for the transmitter coil , the driver being arranged to generate the drive signal for the transmitter coil to generate the power transfer signal during at least one power transfer time interval of a repeating time frame and to generate the drive signal for the transmitter coil to generate an electromagnetic test signal during at least one foreign object detection time interval of the repeating time frame; a set of balanced detection coils coupled in series, the set of balanced detection coils comprising two detection coils arranged such that signals induced in the two detection coils by an electromagnetic field generated by the transmitter coil compensate each other; a foreign object detector coupled to the set of balanced detection coils and arranged to perform foreign object detection during the foreign object detection time interval, the foreign object detector being arranged to detect a foreign object in response to a property of a signal from the set of balanced detection coils meeting a foreign object detection criterion; a measurement transformer having a primary winding and a secondary winding, the secondary winding being coupled in series with the set of balanced detection coils; and a compensation circuit coupled to the primary winding and arranged to generate a compensation drive signal for the primary winding, the compensation drive signal offsetting a combined voltage of the set of detection coils.
A non-aqueous electrolyte solution for a lithium secondary battery, the non-aqueous electrolyte solution comprising: an ionizable lithium salt, an organic solvent, and an additive, wherein the additive is a mixed additive which includes lithium difluorophosphate, tertiary alkylbenzene represented by Formula 1, and tetra-vinyl silane, and wherein the weight ratio of the lithium difluorophosphate:tertiary alkylbenzene represented by Formula 1:tetra-vinyl silane is in a range of 1:1 to 4:0.05 to 0.5, respectively, and the additive is included in an amount of 2.5 wt% to 4.5 wt% based on a total weight of the non-aqueous electrolyte solution for a lithium secondary battery: wherein, in Formula 1, R 1 is a tertiary alkyl having 4 to 5 carbon atoms. an ionizable lithium salt, an organic solvent, and an additive, wherein the additive is a mixed additive which includes lithium difluorophosphate, tertiary alkylbenzene represented by Formula 1, and tetra-vinyl silane, and wherein the weight ratio of the lithium difluorophosphate:tertiary alkylbenzene represented by Formula 1:tetra-vinyl silane is in a range of 1:1 to 4:0.05 to 0.5, respectively, and the additive is included in an amount of 2.5 wt% to 4.5 wt% based on a total weight of the non-aqueous electrolyte solution for a lithium secondary battery: wherein, in Formula 1, R 1 is a tertiary alkyl having 4 to 5 carbon atoms.
A magnetic bearing assembly for contactless linear displacement of a rigid body (30; 300) relative to another rigid body (20a-20b; 110-120) along a linear displacement path, said magnetic bearing assembly comprising: - at least one magnetic bearing module (31-34) being mounted to one of said rigid bodies (30; 300) and consisting of at least: • a ferromagnetic core ; • a first magnetic element positioned on a first side of said ferromagnetic core; • a coil being wound around said ferromagnetic core ; - at least a first static back iron being mounted to the other one of said rigid bodies and positioned, during use, at some gap distance from said one bearing module (31-34), characterized in that the magnetic bearing module (31-34) further consists of a setting module positioned on another side of the ferromagnetic core opposite to the first side, and wherein said setting module comprises a second magnetic element , said setting module being arranged in setting said gap distance between the bearing module (31-34) and said further static back iron being mounted to the other one of said rigid bodies. - at least one magnetic bearing module (31-34) being mounted to one of said rigid bodies (30; 300) and consisting of at least: • a ferromagnetic core ; • a first magnetic element positioned on a first side of said ferromagnetic core; • a coil being wound around said ferromagnetic core ; • a ferromagnetic core ; • a first magnetic element positioned on a first side of said ferromagnetic core; • a coil being wound around said ferromagnetic core ; - at least a first static back iron being mounted to the other one of said rigid bodies and positioned, during use, at some gap distance from said one bearing module (31-34), characterized in that
A method for carrying out a PCVD deposition process, said method comprising the steps of: i) providing a glass substrate tube; ii) supplying one or more glass-forming gasses to the substrate tube of step i); iii) inducing a plasma by means of microwave radiation on at least a part of the substrate tube of step ii) to induce deposition of one or more glass layers onto the interior surface of the substrate tube; wherein at least one plasma-reactive gas is supplied to the substrate tube during step iii) in one or more pulses as a function of the axial position of the plasma along the length of the substrate tube, characterized in that one single pulse is supplied of plasma-reactive gas and wherein the length and position of said pulse is selected to fall in a longitudinal position corresponding to a deposition oscillation, said deposition oscillation being a variation in the thickness or composition of the deposited glass over the length of the substrate tube, wherein the plasma-reactive gas is selected from the group consisting of Argon, Helium, Oxygen, Nitrogen and one or more combinations thereof. i) providing a glass substrate tube; ii) supplying one or more glass-forming gasses to the substrate tube of step i); iii) inducing a plasma by means of microwave radiation on at least a part of the substrate tube of step ii) to induce deposition of one or more glass layers onto the interior surface of the substrate tube;