mhurhangee/patent-ind-claim-en huggingface dataset:
A method for manufacturing a capacitive deionization electrode, the method comprising: (a) kneading an electrode active material while adding a solvent to the electrode active material, wherein the electrode active material has a specific surface area of at least 1900 m 2 /g and wherein the solvent is added to the electrode active material in divided portions of 2 to 20 times; (b) adding a solvent to the mixture obtained after (a) and stirring the result; and (c) preparing an electrode slurry by adding a binder to the mixture obtained after (b) and stirring the result. (a) kneading an electrode active material while adding a solvent to the electrode active material, wherein the electrode active material has a specific surface area of at least 1900 m 2 /g and wherein the solvent is added to the electrode active material in divided portions of 2 to 20 times; (b) adding a solvent to the mixture obtained after (a) and stirring the result; and (c) preparing an electrode slurry by adding a binder to the mixture obtained after (b) and stirring the result.
A terminally sterilized, prefilled syringe for ophthalmic injections, the syringe comprising a body , a stopper and a plunger , the body comprising an outlet at an outlet end and the stopper being arranged within the body such that a front surface of the stopper and the body define a variable volume chamber from which a fluid can be expelled though the outlet , the plunger comprising a plunger contact surface at a first end and a rod extending between the plunger contact surface and a rear portion , characterized in that - the syringe is filled with an injectable medicament solution with a dosage volume of (i) 0.03 ml or 0.05 ml of 10 mg/ml ranibizumab, or (ii) 0.05 ml of 40mg/ml aflibercept. - the plunger contact surface is arranged to contact the stopper but not couple thereto, such that the plunger can be used to force the stopper towards the outlet end of the body , reducing the volume of the variable volume chamber , but not to move the stopper away from the outlet end , and - the rod comprises at least one rod shoulder directed away from the outlet end and the syringe includes a backstop arranged at a rear portion of the body , the backstop including a backstop shoulder directed towards the outlet end to cooperate with the rod shoulder to substantially prevent movement of the plunger rod away from the outlet end when the backstop shoulder and rod shoulder are in contact, and - when the plunger contact surface is in contact with the stopper and the variable volume chamber is at its intended maximum volume there is a clearance of no more than 2mm between the rod shoulder and the backstop shoulder - the syringe is filled with an injectable medicament solution with a dosage volume of (i) 0.03 ml or 0.05 ml of 10 mg/ml ranibizumab, or (ii) 0.05 ml of 40mg/ml aflibercept. - the plunger contact surface is arranged to contact the stopper but not couple thereto, such that the plunger can be used to force the stopper towards the outlet end of the body , reducing the volume of the variable volume chamber , but not to move the stopper away from the outlet end , and - the rod comprises at least one rod shoulder directed away from the outlet end and the syringe includes a backstop arranged at a rear portion of the body , the backstop including a backstop shoulder directed towards the outlet end to cooperate with the rod shoulder to substantially prevent movement of the plunger rod away from the outlet end when the backstop shoulder and rod shoulder are in contact, and - when the plunger contact surface is in contact with the stopper and the variable volume chamber is at its intended maximum volume there is a clearance of no more than 2mm between the rod shoulder and the backstop shoulder
A method in a network node , comprising: grouping a plurality of antenna ports corresponding to a plurality of channel state information reference signals (CSI-RS) into at least a first CSI-RS antenna port group and a second CSI-RS antenna port group; determining , based at least in part on one or more criteria, a first transmission periodicity for the first CSI-RS antenna port group and a second transmission periodicity for the second CSI-RS antenna port group; transmitting , to one or more user equipment , the CSI-RS corresponding to the antenna ports in the first CSI-RS antenna port group according to the determined first transmission periodicity; transmitting , to the one or more user equipment , the CSI-RS corresponding to the antenna ports in the second CSI-RS antenna port group according to the determined second transmission periodicity; configuring the one or more user equipment to report CSI feedback calculated using the first CSI-RS antenna port group; determining a need for CSI feedback calculated using the first CSI-RS antenna port group and the second CSI-RS antenna port group; and triggering the one or more user equipment to report CSI feedback calculated using the first CSI-RS antenna port group and the second CSI-RS antenna port group. grouping a plurality of antenna ports corresponding to a plurality of channel state information reference signals (CSI-RS) into at least a first CSI-RS antenna port group and a second CSI-RS antenna port group; determining , based at least in part on one or more criteria, a first transmission periodicity for the first CSI-RS antenna port group and a second transmission periodicity for the second CSI-RS antenna port group; transmitting , to one or more user equipment , the CSI-RS corresponding to the antenna ports in the first CSI-RS antenna port group according to the determined first transmission periodicity; transmitting , to the one or more user equipment , the CSI-RS corresponding to the antenna ports in the second CSI-RS antenna port group according to the determined second transmission periodicity; configuring the one or more user equipment to report CSI feedback calculated using the first CSI-RS antenna port group; determining a need for CSI feedback calculated using the first CSI-RS antenna port group and the second CSI-RS antenna port group; and triggering the one or more user equipment to report CSI feedback calculated using the first CSI-RS antenna port group and the second CSI-RS antenna port group.
A method of operating one or more network nodes in a wireless telecommunications network, wherein the wireless telecommunications network includes a first access point having a transmitter configured to transmit in a first coverage area, the method comprising the steps of, at the one or more network nodes : receiving, from a sensor, data indicating a location of an object within the first coverage area of the first access point's transmitter; determining, from a set of access rights including excluded, differentiated restrictions and no restrictions, that the object has the differentiated restrictions access right; responsive to the determination that the object has the differentiated restrictions access right, classifying, from a set of classes including a first class and a second class, the object in the second class, wherein the first class is associated with a first restriction configuration having a first electro and/or magnetic field exposure threshold and the second class is associated with a second restriction configuration having a second electro and/or magnetic field exposure threshold; responsive to the determination that the object is classified in the second class, determining that the object shall use the second electro and/or magnetic field exposure threshold; determining that a value of electro and/or magnetic field exposure for the object exceeds the second electro and/or magnetic field exposure threshold; and causing an adjustment of the first access point so as to reduce the value of electro and/or magnetic field exposure for the object. receiving, from a sensor, data indicating a location of an object within the first coverage area of the first access point's transmitter; determining, from a set of access rights including excluded, differentiated restrictions and no restrictions, that the object has the differentiated restrictions access right; responsive to the determination that the object has the differentiated restrictions access right, classifying, from a set of classes including a first class and a second class, the object in the second class, wherein the first class is associated with a first restriction configuration having a first electro and/or magnetic field exposure threshold and the second class is associated with a second restriction configuration having a second electro and/or magnetic field exposure threshold; responsive to the determination that the object is classified in the second class, determining that the object shall use the second electro and/or magnetic field exposure threshold; determining that a value of electro and/or magnetic field exposure for the object exceeds the second electro and/or magnetic field exposure threshold; and causing an adjustment of the first access point so as to reduce the value of electro and/or magnetic field exposure for the object.
A welding-type system , comprising: a welding-type power source configured to provide welding-type power to a welding-type circuit, the welding-type circuit comprising a welding-type electrode and a first contact tip of a welding torch ; and an electrode preheating circuit configured to provide preheating power through a first portion of the welding-type electrode via a second contact tip of the welding torch , characterized by : a preheat feedback circuit configured to measure a preheat voltage; and an electrode preheat control circuit configured to: detect an invalid preheat voltage when the preheat voltage measured by the preheat feedback circuit is less than a threshold voltage for at least a threshold time; control the preheating power based on the preheat voltage; and control the electrode preheating circuit to reduce the preheating power in response to detecting the invalid preheat voltage. a welding-type power source configured to provide welding-type power to a welding-type circuit, the welding-type circuit comprising a welding-type electrode and a first contact tip of a welding torch ; and an electrode preheating circuit configured to provide preheating power through a first portion of the welding-type electrode via a second contact tip of the welding torch , characterized by : a preheat feedback circuit configured to measure a preheat voltage; and an electrode preheat control circuit configured to: detect an invalid preheat voltage when the preheat voltage measured by the preheat feedback circuit is less than a threshold voltage for at least a threshold time; control the preheating power based on the preheat voltage; and control the electrode preheating circuit to reduce the preheating power in response to detecting the invalid preheat voltage. a preheat feedback circuit configured to measure a preheat voltage; and an electrode preheat control circuit configured to: detect an invalid preheat voltage when the preheat voltage measured by the preheat feedback circuit is less than a threshold voltage for at least a threshold time; control the preheating power based on the preheat voltage; and control the electrode preheating circuit to reduce the preheating power in response to detecting the invalid preheat voltage. detect an invalid preheat voltage when the preheat voltage measured by the preheat feedback circuit is less than a threshold voltage for at least a threshold time; control the preheating power based on the preheat voltage; and control the electrode preheating circuit to reduce the preheating power in response to detecting the invalid preheat voltage.
Method for assembling a piston having a piston spring which in a cavity of an apparatus of a hydraulic motor vehicle brake system is assigned to the piston and when activating the piston is compressible, wherein the cavity is disposed in a housing of the apparatus and at least in regions is configured as a bore for receiving the piston , wherein the piston spring is configured from a magnetic or magnetizable material, in particular a ferromagnetic material, and the piston is configured from a non-magnetic material, said method comprising the following process steps: - forming an assembly unit comprising an assembly tool having a magnetic field , the latter being able to be generated by a magnetic element , the piston and the piston spring in that the piston , conjointly with a piston spring that is spatially aligned with the latter in a defined manner, is moved into the magnetic field of the assembly tool so as to be at a provided interface on the assembly tool such that the piston spring in the assembly unit is held on the piston by the magnetic field ; - introducing the assembly unit into the cavity of the apparatus ; - separating the assembly tool from the piston , and removing the assembly tool from the apparatus . - forming an assembly unit comprising an assembly tool having a magnetic field , the latter being able to be generated by a magnetic element , the piston and the piston spring in that the piston , conjointly with a piston spring that is spatially aligned with the latter in a defined manner, is moved into the magnetic field of the assembly tool so as to be at a provided interface on the assembly tool such that the piston spring in the assembly unit is held on the piston by the magnetic field ; - introducing the assembly unit into the cavity of the apparatus ; - separating the assembly tool from the piston , and removing the assembly tool from the apparatus .
A storage device for transporting and/or storing nuclear fuel assemblies, said device including a plurality of adjacent housings , each for receiving a nuclear fuel assembly, the device including several stacked stages (E 1 , E 2 ) along a stacking direction parallel to the longitudinal axes of the housings, the latter being delimited fully or partly by said stages, first stages (E 1 , E i-1 , E i+1 ) for neutron absorption and thermal conductivity, as well as second stages (E 2 , E i ) for mechanical strength alternately arranged with the first stages along said stacking direction , each first stage (E 1 , E i-1 , E i+1 ) comprising at least one notched assembly extending along a first direction orthogonal to the stacking direction , as well as at least one second notched assembly extending along a second direction orthogonal to the first direction as well as to the stacking direction , the first and second assemblies being interlaced and each including at least one element of aluminium alloy comprising boron, each second stage (E 2 , E i ) including at least one first structure extending along the first direction as well as at least one second structure extending along the second direction , the first and second structures being stacked along the stacking direction and each made of one or more materials free of neutron absorbing elements, the first and second structures being each free of notches on their opposite edges along the stacking direction, and each having a transverse cross-section with a height substantially constant all along the same, characterised in that for at least one of the second stages (E i ) on either side of which a first stage (E i-1 ) and a first stage (E i+1 ) are arranged, the first structure of the second stage (E i ) rests on an edge (6a") of the first notched assembly of the first stage (E i-1 ) and passes through a notch (22") of the second notched assembly of this first stage (E i-1 ), whereas an edge of the second notched assembly of the first stage (E i+1 ) rests on the second structure of the second stage (E i ,), this passing through a notch of the first notched assembly of this first stage (E i+1 ).
A fluid control device for an ablutionary fitting comprising: a rotary control member comprising a cam surface ; a first valve comprising a valve member ; a first valve actuator; and an operating member ; wherein, in use, the rotary control member is rotatable such that the cam surface drives the operating member in a linear direction and the operating member acts in turn on the first valve actuator to move the valve member from an open position to a closed position and vice versa, wherein the cam surface is configured such that, by rotating the rotary control member , in use, a user can select whether the first valve is open or closed; and wherein the first valve actuator comprises a control lever ; and wherein the operating member comprises a first end and a second end, wherein the first end is arranged to contact the cam surface and the second end is arranged to contact the first valve actuator. a rotary control member comprising a cam surface ; a first valve comprising a valve member ; a first valve actuator; and an operating member ; wherein, in use, the rotary control member is rotatable such that the cam surface drives the operating member in a linear direction and the operating member acts in turn on the first valve actuator to move the valve member from an open position to a closed position and vice versa, wherein the cam surface is configured such that, by rotating the rotary control member , in use, a user can select whether the first valve is open or closed; and wherein the first valve actuator comprises a control lever ; and wherein the operating member comprises a first end and a second end, wherein the first end is arranged to contact the cam surface and the second end is arranged to contact the first valve actuator.
A lean burn fuel injector comprising a fuel feed arm and a fuel injector head , the fuel feed arm having a pilot fuel supply passage extending there-through and a main fuel supply passage extending there-through, the fuel injector head having a coaxial arrangement of an inner pilot air-blast fuel injector and an outer main air-blast fuel injector , the outer main air-blast fuel injector being arranged coaxially radially outwardly of the inner pilot air-blast fuel injector , the inner pilot air-blast fuel injector comprising, in order radially outwardly, a coaxial arrangement of a pilot inner air swirler passage and a pilot outer air swirler passage , the pilot fuel supply passage being arranged to supply pilot fuel into at least one of the pilot inner air swirler passage and the pilot outer air swirler passage , the outer main air-blast fuel injector comprising, in order radially outwardly, a coaxial arrangement of a main inner air swirler passage and a main outer air swirler passage , the main fuel supply passage being arranged to supply main fuel into at least one of the main inner air swirler passage and the main outer air swirler passage , a first splitter member being arranged radially between the main inner air swirler passage and the pilot outer air swirler passage , the first splitter member having a frusto-conical divergent downstream portion , a second splitter member being arranged radially within and radially spaced from the first splitter member , the second splitter member comprising a frusto-conical convergent portion and a frusto-conical divergent downstream portion , a connecting member arranged to extend from the downstream end of the second splitter member to the frusto-conical divergent downstream portion of the first splitter member , wherein the frusto-conical divergent downstream portion of the second splitter , and the connecting member being arranged to form a sharp edge , and characterized in that the downstream end of the second splitter member is arranged upstream of the downstream end of the first splitter member and in that the connecting member is arranged to extend to the first splitter member upstream of the downstream end of said first splitter member.
A system for replacement of a flexible joint built into an underwater steel catenary pipeline riser (SCR) of pipeline riser , comprising: a. an underwater steel catenary pipeline riser (SCR) lifting frame , comprising: i. a lift frame foundation , comprising an SCR mating surface configured to be connected to an SCR receptacle ; and ii. an SCR lifting frame , comprising: 1. a lift frame interface adapted to be connected to the lift frame foundation; 2. a foundation interface ; 3. a lift guide configured to accept the lift frame foundation; and 4. a lift slidably disposed about the lift guide, the lift comprising an SCR pull head interface configured to be connected to an SCR pull head ; and b. an underwater dry welding habitat configured to be deployed at least partially within the SCR lifting frame , the underwater dry welding habitat further adapted to allow welding subsea. a. an underwater steel catenary pipeline riser (SCR) lifting frame , comprising: i. a lift frame foundation , comprising an SCR mating surface configured to be connected to an SCR receptacle ; and ii. an SCR lifting frame , comprising: 1. a lift frame interface adapted to be connected to the lift frame foundation; 2. a foundation interface ; 3. a lift guide configured to accept the lift frame foundation; and 4. a lift slidably disposed about the lift guide, the lift comprising an SCR pull head interface configured to be connected to an SCR pull head ; and i. a lift frame foundation , comprising an SCR mating surface configured to be connected to an SCR receptacle ; and ii. an SCR lifting frame , comprising: 1. a lift frame interface adapted to be connected to the lift frame foundation; 2. a foundation interface ; 3. a lift guide configured to accept the lift frame foundation; and 4. a lift slidably disposed about the lift guide, the lift comprising an SCR pull head interface configured to be connected to an SCR pull head ; and 1. a lift frame interface adapted to be connected to the lift frame foundation; 2. a foundation interface ; 3. a lift guide configured to accept the lift frame foundation; and 4. a lift slidably disposed about the lift guide, the lift comprising an SCR pull head interface configured to be connected to an SCR pull head ; and b. an underwater dry welding habitat configured to be deployed at least partially within the SCR lifting frame , the underwater dry welding habitat further adapted to allow welding subsea.