mhurhangee/patent-ind-claim-en huggingface dataset:
A machine tool for machining planar workpieces , preferably metal sheets, - with an upper tool , which is be movable along a stroke axis by a stroke drive device towards a workpiece to be machined by the upper tool and in the opposite direction and which is positionable by at least one motor drive assembly along an upper positioning axis running perpendicular to the stroke axis , - with a lower tool , which is aligned with the upper tool and is positionable by at least one motor drive assembly along a lower positioning axis which is aligned perpendicular to the stroke axis of the upper tool , - with at least one controller by means of which the motor drive assemblies for moving the upper and lower tools are controllable, characterized in that - the traversing movement of the upper tool along the upper positioning axis and the traversing movement of the lower tool along the lower positioning axis are each independently controllable, and - on the upper drive assembly at least one measuring device aligned with the lower drive assembly is provided and/or on the lower drive assembly at least one measuring device aligned with the upper drive assembly is provided. - with an upper tool , which is be movable along a stroke axis by a stroke drive device towards a workpiece to be machined by the upper tool and in the opposite direction and which is positionable by at least one motor drive assembly along an upper positioning axis running perpendicular to the stroke axis , - with a lower tool , which is aligned with the upper tool and is positionable by at least one motor drive assembly along a lower positioning axis which is aligned perpendicular to the stroke axis of the upper tool , - with at least one controller by means of which the motor drive assemblies for moving the upper and lower tools are controllable, characterized in that - the traversing movement of the upper tool along the upper positioning axis and the traversing movement of the lower tool along the lower positioning axis are each independently controllable, and - on the upper drive assembly at least one measuring device aligned with the lower drive assembly is provided and/or on the lower drive assembly at least one measuring device aligned with the upper drive assembly is provided.
Hydraulic actuator, comprising a hydraulic drive cylinder configured with a bellows, a hydraulic output cylinder , which is hydraulically coupled to the drive cylinder , a drive actuator , which is motion-coupled to the drive cylinder , characterized in that the hydraulic actuator further comprises a pressure limitation valve , which depending on an acting time of a force exerted by the drive actuator upon the drive cylinder pressure-limits the output cylinder , by a preload volume being adjustable depending on the acting time of the force and by the pressure limitation valve being controllable by means of the preload volume .
A camouflage system suitable for protecting an asset from detection, the system comprising a camouflage cover configured to match a spectral signature of surrounding vegetation, the camouflage cover including: a first boundary layer ; a second boundary layer below the first boundary layer , a first channel being formed between the first and second boundary layers through which a liquid can be circulated, the first channel being visible through the first boundary layer ; and a first liquid distributing medium located within the first channel and configured to distribute the liquid throughout the first channel, characterized in that the first channel includes a liquid feed in liquid communication with the liquid distribution medium. a first boundary layer ; a second boundary layer below the first boundary layer , a first channel being formed between the first and second boundary layers through which a liquid can be circulated, the first channel being visible through the first boundary layer ; and a first liquid distributing medium located within the first channel and configured to distribute the liquid throughout the first channel, characterized in that the first channel includes a liquid feed in liquid communication with the liquid distribution medium.
A capacitive synaptic component, namely a capacitive component for weighted multiplication in artificial neural networks, consisting of a layer structure composed of a gate electrode , comprising a first dielectric layer connected to the gate electrode, a second dielectric layer and a readout electrode connected to the second dielectric layer and an intermediate layer arranged between the first dielectric layer and the second dielectric layer , characterized in that the intermediate layer is embodied as a layer having adjustable shielding behavior in an electric field, proceeding from the gate electrode in the direction toward the readout electrode , and the intermediate layer is provided with one or more dedicated contacts that realize a charge inflow into or a charge outflow out of the intermediate layer.
A process for selectively removal of deflocculated sludge, being a liquid containing material resulting from a process of floc disruption into smaller fragments or fine particles eroded from sludge flocs by shear forces, below a pre-selected size, wherein said pre-selected size is 15 micron, such as 10 micron, preferably 5 micron, from a sludge mixed liquor , the process comprising: - a first separation in which at least a fraction of said sludge mixed liquor is separated into fractions including: - a first fraction containing sludge flocs, and - a second fraction containing deflocculated sludge; - a second separation separating at least a fraction of the second fraction into fractions including: - a third fraction containing a less amount of, such as substantially no, deflocculated sludge, and - a fourth fraction containing a higher amount, such as substantially all of the deflocculated sludge contained in the second fraction; wherein the process further comprising - feeding the first fraction and the third fraction into said sludge mixed liquor , and - the fourth fraction is fed to a storage capacity, a biogas production facility, or is dewatered and disposed of. - a first separation in which at least a fraction of said sludge mixed liquor is separated into fractions including: - a first fraction containing sludge flocs, and - a second fraction containing deflocculated sludge; - a first fraction containing sludge flocs, and - a second fraction containing deflocculated sludge; - a second separation separating at least a fraction of the second fraction into fractions including: - a third fraction containing a less amount of, such as substantially no, deflocculated sludge, and - a fourth fraction containing a higher amount, such as substantially all of the deflocculated sludge contained in the second fraction; wherein the process further comprising - a third fraction containing a less amount of, such as substantially no, deflocculated sludge, and - a fourth fraction containing a higher amount, such as substantially all of the deflocculated sludge contained in the second fraction; - feeding the first fraction and the third fraction into said sludge mixed liquor , and - the fourth fraction is fed to a storage capacity, a biogas production facility, or is dewatered and disposed of.
A coolant composition comprising: a viscosity improving agent; at least one alkali metal compound selected from the group consisting of alkali metal salts and alkali metal hydroxides; and a base, wherein the viscosity improving agent is a compound represented by a formula of R 1 O-(R 2 O) m -SO 3 M, where R 1 represents a linear or branched alkyl group or a linear or branched alkenyl group having 16 to 24 carbon atoms, R 2 represents an ethylene group or a propylene group, m represents an average addition molar number of R 2 O and a number from 0.5 to 10, and M represents a cation or a hydrogen atom, the base is formed of water and/or at least one alcohol selected from the group consisting of a monohydric alcohol, a dihydric alcohol, a trihydric alcohol, and a glycol monoalkyl ether, and a kinetic viscosity of the coolant composition is 8.5 mm 2 /sec or higher at 25°C and is 2.0 mm 2 /sec or lower at 100°C. a viscosity improving agent; at least one alkali metal compound selected from the group consisting of alkali metal salts and alkali metal hydroxides; and a base, wherein the viscosity improving agent is a compound represented by a formula of R 1 O-(R 2 O) m -SO 3 M, where R 1 represents a linear or branched alkyl group or a linear or branched alkenyl group having 16 to 24 carbon atoms, R 2 represents an ethylene group or a propylene group, m represents an average addition molar number of R 2 O and a number from 0.5 to 10, and M represents a cation or a hydrogen atom, the base is formed of water and/or at least one alcohol selected from the group consisting of a monohydric alcohol, a dihydric alcohol, a trihydric alcohol, and a glycol monoalkyl ether, and a kinetic viscosity of the coolant composition is 8.5 mm 2 /sec or higher at 25°C and is 2.0 mm 2 /sec or lower at 100°C. where R 1 represents a linear or branched alkyl group or a linear or branched alkenyl group having 16 to 24 carbon atoms, R 2 represents an ethylene group or a propylene group, m represents an average addition molar number of R 2 O and a number from 0.5 to 10, and M represents a cation or a hydrogen atom, the base is formed of water and/or at least one alcohol selected from the group consisting of a monohydric alcohol, a dihydric alcohol, a trihydric alcohol, and a glycol monoalkyl ether, and a kinetic viscosity of the coolant composition is 8.5 mm 2 /sec or higher at 25°C and is 2.0 mm 2 /sec or lower at 100°C.
A method for purifying reclaimed polyethylene comprising: a. Obtaining the reclaimed polyethylene wherein said reclaimed polyethylene is selected from the group consisting of post-consumer use polymers, post-industrial use polymers, and combinations thereof; b. Contacting the reclaimed polyethylene at a temperature from 80 °C to about 220 °C and at a pressure from 150 psig (1.03 MPa) to 15,000 psig (103.42 MPa) with a first fluid solvent having a standard boiling point less than 70 °C, to produce an extracted reclaimed polyethylene; c. Dissolving the extracted reclaimed polyethylene in a solvent selected from the group consisting of the first fluid solvent, a second fluid solvent, and mixtures thereof, at a temperature from 90 °C to 220 °C and a pressure from 350 psig (2.41 MPa) to 20,000 psig (137.90 MPa) to produce a polyethylene solution; d. Purifying said polyethylene solution at a temperature from 90 °C to 220 °C and at a pressure from 350 psig (2.41 MPa) to 20,000 psig (137.90 MPa) by contacting said polyethylene solution with solid media to produce a purer polyethylene solution; and e. Separating a purer polyethylene from said purer polyethylene solution; wherein said second fluid solvent has the same chemical composition or a different chemical composition as the first fluid solvent. a. Obtaining the reclaimed polyethylene wherein said reclaimed polyethylene is selected from the group consisting of post-consumer use polymers, post-industrial use polymers, and combinations thereof; b. Contacting the reclaimed polyethylene at a temperature from 80 °C to about 220 °C and at a pressure from 150 psig (1.03 MPa) to 15,000 psig (103.42 MPa) with a first fluid solvent having a standard boiling point less than 70 °C, to produce an extracted reclaimed polyethylene; c. Dissolving the extracted reclaimed polyethylene in a solvent selected from the group consisting of the first fluid solvent, a second fluid solvent, and mixtures thereof, at a temperature from 90 °C to 220 °C and a pressure from 350 psig (2.41 MPa) to 20,000 psig (137.90 MPa) to produce a polyethylene solution; d. Purifying said polyethylene solution at a temperature from 90 °C to 220 °C and at a pressure from 350 psig (2.41 MPa) to 20,000 psig (137.90 MPa) by contacting said polyethylene solution with solid media to produce a purer polyethylene solution; and e. Separating a purer polyethylene from said purer polyethylene solution;
A method of configuring an Internet of Things, IoT, device for collecting data from industrial devices (11-16), in particular power system devices, wherein the IoT device is coupled to an IoT platform via a communication channel, wherein the IoT platform stores device twin data of the industrial devices (11-16), the device twin data including configuration information , the method comprising: performing a data synchronization of the device twin data between the IoT device and the IoT platform ; retrieving, by the IoT device and via the communication channel, the configuration information from the device twin data stored in the IoT platform ; retrieving, by the IoT device , additional configuration information from the IoT platform in response to establishment of a communicative coupling between the IoT device and an additional industrial device; and using, by the IoT device , the configuration information for collecting data from the industrial devices (11-16). performing a data synchronization of the device twin data between the IoT device and the IoT platform ; retrieving, by the IoT device and via the communication channel, the configuration information from the device twin data stored in the IoT platform ; retrieving, by the IoT device , additional configuration information from the IoT platform in response to establishment of a communicative coupling between the IoT device and an additional industrial device; and using, by the IoT device , the configuration information for collecting data from the industrial devices (11-16).
A Solid Oxide Fuel Cell (SOFC) system comprising: - an SOFC having an anode and a cathode ; - a fuel inlet arranged to supply fuel to the anode ; - an air inlet arranged to supply air to the cathode ; - a first valve provided downstream said anode, said first valve being arranged for separating first and second portions of an anode off-gas emitted form an anode outlet; - an anode off-gas recirculation assembly, circuit or duct branching from said first valve and arranged for receiving said second portion of anode off-gas; - an evaporator assembly arranged for producing steam from water; - a turbine-fan assembly comprising: - a steam-driven rotatable turbine and a rotatable fan , coaxially connected to said turbine , wherein said fan is arranged so as to bring about the transport of said second portion of anode off-gas towards a second valve or mixer , where said second portion of anode off-gas is mixed with fuel from said fuel inlet; - a condenser , arranged for condensing water contained in said first portion of anode off-gas, a conduct for feeding said condensed water to said evaporator assembly, and a conduct for feeding said steam to said turbine for driving said turbine and thereby driving said turbine-fan assembly. - an SOFC having an anode and a cathode ; - a fuel inlet arranged to supply fuel to the anode ; - an air inlet arranged to supply air to the cathode ; - a first valve provided downstream said anode, said first valve being arranged for separating first and second portions of an anode off-gas emitted form an anode outlet; - an anode off-gas recirculation assembly, circuit or duct branching from said first valve and arranged for receiving said second portion of anode off-gas; - an evaporator assembly arranged for producing steam from water; - a turbine-fan assembly comprising: - a steam-driven rotatable turbine and a rotatable fan , coaxially connected to said turbine , wherein said fan is arranged so as to bring about the transport of said second portion of anode off-gas towards a second valve or mixer , where said second portion of anode off-gas is mixed with fuel from said fuel inlet; - a steam-driven rotatable turbine and a rotatable fan , coaxially connected to said turbine , wherein said fan is arranged so as to bring about the transport of said second portion of anode off-gas towards a second valve or mixer , where said second portion of anode off-gas is mixed with fuel from said fuel inlet; - a condenser , arranged for condensing water contained in said first portion of anode off-gas, a conduct for feeding said condensed water to said evaporator assembly, and a conduct for feeding said steam to said turbine for driving said turbine and thereby driving said turbine-fan assembly.
Method for controlling an electric motor of a power tool with a holder for a tool for unscrewing a screw from a mating piece, wherein, during unscrewing of a screw, the electric motor is stopped when the torque emitted by the electric motor falls below a prespecified limit value or when the screw has been unscrewed out of a seated position for a prespecified number of revolutions, wherein the torque is determined on the basis of a time profile of the current which is drawn by the electric motor when unscrewing the screw, and wherein the rotation speed of the electric motor is at least reduced when the current falls more rapidly than a time-based comparison gradient, characterized in that the comparison gradient can assume different values depending on a rotation speed of the electric motor prespecified by an operator and/or depending on a speed of an operation of a switch for prespecifying the rotation speed.
A stable lyophilisate comprising 5,10-methylen- - tetrahydrofolic acid, or a pharmaceutically acceptable salt thereof, and a dicarboxylic acid, or a salt thereof, wherein the dicarboxylic acid is succinic, maleic, malic, tartaric, fumaric or oxalic acid.
A cartridge for preparation of a beverage upon injection of liquid into the cartridge, the cartridge comprising : i. at least a first compartment and a second compartment for holding beverage ingredients, ii. an injection area for receiving a liquid injected into the cartridge, and iii. flow dividing means designed for providing a fluid communication between the injection area and the first and second compartments , wherein the flow dividing means are designed to provide a preferred flow path for liquid from the injection area to the first or second compartments and to outlet means of the cartridge, said flow dividing means being an essentially disc-shaped member comprising a central aperture surrounded by a perforated area , characterized in that the central aperture is in fluid communication with the first compartment and the perforated area is in fluid communication with the second compartment . i. at least a first compartment and a second compartment for holding beverage ingredients, ii. an injection area for receiving a liquid injected into the cartridge, and iii. flow dividing means designed for providing a fluid communication between the injection area and the first and second compartments ,
Lifting beam for lifting a load , having a primary structure comprising two transversely spaced-apart longitudinal beams , each longitudinal beam carrying two longitudinally spaced-apart balancers , each balancer being rotatably articulated about a transverse balancer axis (X10) carried by said longitudinal beam, and, gripping means , preferably comprising at least one sling extending downwards from each balancer, said gripping means being adapted to engage a lifting point of the load, characterized in that each longitudinal beam comprises a swing mounted for rotation about the balancer axis (X10), a longitudinal girder disposed beneath said swing, and hangers for securing said girder to said swing.
A method for operating a transmitting device of an illumination device comprising a lighting device , wherein the transmitting device is arranged in or immediately at the lighting device and wirelessly emits a radio signal with identification data specific to the transmitting device , wherein the radio signal is emitted according to exactly one preset radio standard, wherein the radio signal contains the specific identification data at least in two data formats different from each other, characterized in that the transmitting device receives a terminal signal of a communication terminal by means of a receiving unit, ascertains the data format thereof and emits the radio signal with the specific identification data according to the ascertained data format.
An air seal system for locating between a rotor blade assembly and an inner surface of a casing of a gas turbine engine , the seal system comprising: a substrate ; a bond coat disposed on the substrate; a ceramic interlayer disposed inboard of the bond coat ; an erosion resistant thermal barrier coating (E-TBC) layer disposed on the ceramic interlayer; and an abradable layer disposed inboard of the erosion resistant thermal barrier coating (E-TBC) layer, wherein a transition layer is formed between the erosion resistant thermal barrier coating (E-TBC) layer and the abradable layer , the transition layer having a mixture of properties of the erosion resistant thermal barrier coating (E-TBC) layer and the abradable layer. a substrate ; a bond coat disposed on the substrate; a ceramic interlayer disposed inboard of the bond coat ; an erosion resistant thermal barrier coating (E-TBC) layer disposed on the ceramic interlayer; and an abradable layer disposed inboard of the erosion resistant thermal barrier coating (E-TBC) layer, wherein a transition layer is formed between the erosion resistant thermal barrier coating (E-TBC) layer and the abradable layer , the transition layer having a mixture of properties of the erosion resistant thermal barrier coating (E-TBC) layer and the abradable layer.