mhurhangee/ep-ind-claims huggingface dataset:
An abrasive jet system configured to remove at least a portion of target material with an abrasive jet, the abrasive jet system comprising: a cutting head configured to form the abrasive jet; a liquid source coupled to the cutting head and configured to supply pressurized liquid to the cutting head; an abrasive container coupled to the cutting head and configured to supply abrasives to the cutting head, wherein the cutting head is configured to combine the abrasives with the pressurized liquid to form the abrasive jet; a gas source coupled to the cutting head and configured to selectively supply pressurized gas to the cutting head, wherein when the pressurized gas source supplies the pressurized gas to the cutting head, the cutting head combines the pressurized gas, the abrasives, and the pressurized liquid to form the abrasive jet; an abrasive supply conduit that couples the abrasive container to the cutting head; and a gas supply conduit that couples the gas source to the abrasive supply conduit, wherein the gas source delivers the pressurized gas to the cutting head via the gas supply conduit and the abrasive supply conduit. a cutting head configured to form the abrasive jet; a liquid source coupled to the cutting head and configured to supply pressurized liquid to the cutting head; an abrasive container coupled to the cutting head and configured to supply abrasives to the cutting head, wherein the cutting head is configured to combine the abrasives with the pressurized liquid to form the abrasive jet; a gas source coupled to the cutting head and configured to selectively supply pressurized gas to the cutting head, wherein when the pressurized gas source supplies the pressurized gas to the cutting head, the cutting head combines the pressurized gas, the abrasives, and the pressurized liquid to form the abrasive jet; an abrasive supply conduit that couples the abrasive container to the cutting head; and a gas supply conduit that couples the gas source to the abrasive supply conduit, wherein the gas source delivers the pressurized gas to the cutting head via the gas supply conduit and the abrasive supply conduit.
An arrangement with a storage element and a heat supply system, wherein a heat generator is connected to a heat consumer in a first line circuit and a circulation of a heating medium can be achieved between the latter with a heating circulation pump and, with a second line circuit, a storage element and a pump arrangement can be connected to the first line circuit, that a media flow from the storage element to the heat consumer can be achieved as required with the aid of the pump arrangement and the storage element disposed in the second line circuit can thus be discharged, characterised in that, with the aid of the pump arrangement, a media flow can be achieved as required from the heat generator to the storage element and the storage element disposed in the second line circuit can thus be charged, the pump arrangement is an arrangement comprising a pump, a switch-over unit and a backflow preventer and the latter interact with one another in such a way that, - in a first position of the switch-over unit, the pump is connected - at the suction side - to the storage element and at the pressure side to the first line circuit, wherein medium with a low temperature is fed to the latter from the storage element, - in a second position of the switch-over unit, the pump is connected - at the pressure side - to the storage element and at the suction side to the first line circuit, wherein medium with a low temperature is extracted from the latter and delivered by the pump into the storage element. - in a first position of the switch-over unit, the pump is connected - at the suction side - to the storage element and at the pressure side to the first line circuit, wherein medium with a low temperature is fed to the latter from the storage element, - in a second position of the switch-over unit, the pump is connected - at the pressure side - to the storage element and at the suction side to the first line circuit, wherein medium with a low temperature is extracted from the latter and delivered by the pump into the storage element.
A process for producing a flocked swab for collecting and transferring samples of DNA or RNA for molecular biology, the flocked swab comprising at least: a support body having at least a first portion, and a plurality of fibres attached and arranged on the first portion of the support body by flocking, such as to define a flocked collecting portion destined to collect on said collecting portion a quantity of the sample for molecular biology, wherein the fibres are arranged by flocking orderly and substantially perpendicularly to the support body; the process comprising at least a step of pre-treating the plurality of fibres with a surfactant and a step of drying the fibres following the step of pre-treating the fibres, the step of pre-treating the plurality of fibres with a surfactant being performed after application of the fibres on the support body by flocking and/or before application of the fibres on the body by flocking and/or wherein the surfactant is added to the fibre during production of the fibre.
Method for tracking a device unit, which is mounted on a rail vehicle, for analysis, material removal or material application on laid rails with rail gaps to be travelled over, comprising at least one copying element for detecting the position of the rail head inner side, characterised in that for the purpose of lateral copying on a laid rail the copying element, which has feeler elements for positioning against the rail head inner side and against the inner side of fixtures (30, 31, 33) in the track channel, is dual acting and variable in width and, in the event of a measurement deviation above a predefined engagement limit, scans the inner side of fixtures (30, 31, 33) in the track channel in the direction of the track centre, and in turn, in the event of a measurement deviation above a second predefined engagement limit, scans the position of the rail head inner side.
A method of wrapping goods comprising: providing goods on a pallet, the pallet having a top surface having the goods thereon and at least one side surface, the top surface being located above a floor; providing a wrapping machine with a base and a wrapping arm having a roll of wrap film; providing the base of the wrapping machine with at least one front wheel and at least one rear wheel; positioning a portion of the wrapping machine adjacent the at least one side surface of the pallet; and encircling the goods on the pallet with the wrapping arm to wrap the wrap film around the goods, a circle of rotation of the wrapping arm forming a periphery of a wrap circle area, the at least one front wheel of the base of the wrapping machine being located within the wrap circle area when the pallet is viewed from above; wherein no part of the wrapping machine is located under the pallet during the step of encircling the goods on the pallet. providing goods on a pallet, the pallet having a top surface having the goods thereon and at least one side surface, the top surface being located above a floor; providing a wrapping machine with a base and a wrapping arm having a roll of wrap film; providing the base of the wrapping machine with at least one front wheel and at least one rear wheel; positioning a portion of the wrapping machine adjacent the at least one side surface of the pallet; and encircling the goods on the pallet with the wrapping arm to wrap the wrap film around the goods, a circle of rotation of the wrapping arm forming a periphery of a wrap circle area, the at least one front wheel of the base of the wrapping machine being located within the wrap circle area when the pallet is viewed from above; wherein no part of the wrapping machine is located under the pallet during the step of encircling the goods on the pallet.
A system comprising: a coupling configured to join two tubular members to one another, the coupling including an outer surface, a first end configured to receive one of the two tubular members and a second end configured to receive the other of the two tubular members, wherein at least one of the first end of the coupling or the second end of the coupling includes an extended skirt portion having an opening configured to receive an identification tag, whereby the opening is formed in an axial end surface of the coupling and characterized in that the opening is extending to the outer surface of the coupling. a coupling configured to join two tubular members to one another, the coupling including an outer surface, a first end configured to receive one of the two tubular members and a second end configured to receive the other of the two tubular members, wherein at least one of the first end of the coupling or the second end of the coupling includes an extended skirt portion having an opening configured to receive an identification tag, whereby the opening is formed in an axial end surface of the coupling and characterized in that the opening is extending to the outer surface of the coupling.
An evaporation source, comprising: a crucible adapted to enclose an amount of a material, wherein the crucible comprises a lid that comprises one or more nozzles; a heating element adapted to heat the material to a molten state; and a float adapted to remain on the surface of the molten material, wherein the float comprises graphite and comprises a plurality of channels that extend from the bottom surface of the float to the top surface of the float wherein a diameter of a cross-section of the channels ranges from 2 mm to 10 mm and the depth of the channels ranges from 2 mm to 10 mm so that stresses generated by gradients in temperature formed across the float will not cause the float to crack. a crucible adapted to enclose an amount of a material, wherein the crucible comprises a lid that comprises one or more nozzles; a heating element adapted to heat the material to a molten state; and a float adapted to remain on the surface of the molten material,
Turf cutting machine, comprising a frame mounted on a rear axle, carrying a pair of rear wheels or similar rolling elements, and on a front axle, carrying a pair of front wheels or similar rolling elements, wherein said frame carries a cutting blade and a motor, which drives both said front and rear wheels (5, 9) and said cutting blade, wherein said rear axle and said front axle are connected said frame in such a way that they are movable from a first position, in which they are at the maximum distance from said frame, to a second position, in which they are at the minimum distance from said frame, and vice versa, characterized in that said turf cutting machine comprises a transmission arrangement for transmitting motion from said rear axle to said front axle, or vice versa, said cutting blade being arranged between said rear axle and said front axle, wherein said transmission arrangement comprises a transmission belt mounted between a rear axle pulley, which is integral with said rear axle, and a front axle pulley, which is integral with said front axle, and in that said transmission belt runs on a plurality of deflection pulleys (45, 47, 49, 51), which are arranged in such a way that the path of said transmission belt passes above said cutting blade.
A dispenser for mixing a beverage, comprising: a frame defining a space to accommodate a capsule within the frame; a receptacle movably attached to the frame with an opening mechanism for opening an end of the capsule and a rotating mechanism for rotating the capsule; and a first nozzle on the frame configured to direct a mixing stream into the opened end of the capsule when the rotating mechanism is rotating the capsule. a frame defining a space to accommodate a capsule within the frame; a receptacle movably attached to the frame with an opening mechanism for opening an end of the capsule and a rotating mechanism for rotating the capsule; and a first nozzle on the frame configured to direct a mixing stream into the opened end of the capsule when the rotating mechanism is rotating the capsule.
A method of maintaining an electrodeposition system free of microbial contamination, comprising: a) providing an effective amount of at least one antimicrobial agent comprising at least an inorganic bismuth-containing compound, wherein the inorganic bismuth-containing compound is a bismuth salt of a metal oxyanion or a hydrate thereof; b) adding the antimicrobial agent to at least a part of the electrodeposition system; c) monitoring bacterial and fungal growth in the electrodeposition system at regular intervals; and d) adding an additional amount of the antimicrobial agent to the electrodeposition system if bacterial or fungal growth is observed. a) providing an effective amount of at least one antimicrobial agent comprising at least an inorganic bismuth-containing compound, wherein the inorganic bismuth-containing compound is a bismuth salt of a metal oxyanion or a hydrate thereof; b) adding the antimicrobial agent to at least a part of the electrodeposition system; c) monitoring bacterial and fungal growth in the electrodeposition system at regular intervals; and d) adding an additional amount of the antimicrobial agent to the electrodeposition system if bacterial or fungal growth is observed.
Suspension device for a movably mounted vehicle axle, with at least one hydraulic spring cylinder (16a, 16b) which can be mounted between the vehicle axle and a supporting vehicle structure, wherein the at least one hydraulic spring cylinder (16a, 16b) comprises a piston space (20a, 20b) connected to a first pressure accumulator, and an annular space (24a, 24b) connected to a second pressure accumulator, characterized in that a pressure-limiting valve which is pressurized by the piston space (20a, 20b) is connected on the output side to the second pressure accumulator in order to protect the at least one hydraulic spring cylinder (16a, 16b) against the travel-induced occurrence of pressure peaks.
A machine for depositing ceramic powders comprising: - a supply device configured to convey said ceramic powders; - a distributor of ceramic powders arranged below the supply device and movable along a processing direction lying on a support plane; said distributor being configured to receive said ceramic powders from the supply device and to deposit at least one layer of ceramic powders onto the support plane during an advancement and/or reverse movement of the distributor along the processing direction; wherein the supply device comprises a tubular element which has a first end adapted to receive at an inlet the ceramic powders and a second end coupled to the distributor for supplying the ceramic powders to said distributor; wherein the supply device comprises a conveyor that extends between an initial loading portion, adapted to receive the ceramic powders from a process upstream of the machine, and a terminal unloading portion coupled to the first end for transferring the ceramic powders to the tubular element; characterized in that: the tubular element is a rigid tubular element and the conveyor is movable so as to keep the terminal unloading portion coupled to the first end during the advancement and reverse movement of the distributor. - a supply device configured to convey said ceramic powders; - a distributor of ceramic powders arranged below the supply device and movable along a processing direction lying on a support plane; said distributor being configured to receive said ceramic powders from the supply device and to deposit at least one layer of ceramic powders onto the support plane during an advancement and/or reverse movement of the distributor along the processing direction; wherein the supply device comprises a tubular element which has a first end adapted to receive at an inlet the ceramic powders and a second end coupled to the distributor for supplying the ceramic powders to said distributor; wherein the supply device comprises a conveyor that extends between an initial loading portion, adapted to receive the ceramic powders from a process upstream of the machine, and a terminal unloading portion coupled to the first end for transferring the ceramic powders to the tubular element; characterized in that: the tubular element is a rigid tubular element and the conveyor is movable so as to keep the terminal unloading portion coupled to the first end during the advancement and reverse movement of the distributor.
A method for processing a photoresist composition, comprising: (a) applying on a substrate a photoresist composition to form a photoresist layer, the photoresist composition comprising: (i) one or more resins. (ii) a photoactive component, and (iii) one or more block copolymers that are distinct from the one or more resins, wherein the one or more block copolymers comprise hetero-substituted multi-ring carbocyclic aryl groups, sulfonamide and/or carboxy groups; and (b) immersion exposing the photoresist layer to radiation activating the photoresist composition. (a) applying on a substrate a photoresist composition to form a photoresist layer, the photoresist composition comprising: (i) one or more resins. (ii) a photoactive component, and (iii) one or more block copolymers that are distinct from the one or more resins, wherein the one or more block copolymers comprise hetero-substituted multi-ring carbocyclic aryl groups, sulfonamide and/or carboxy groups; and (i) one or more resins. (ii) a photoactive component, and (iii) one or more block copolymers that are distinct from the one or more resins, wherein the one or more block copolymers comprise hetero-substituted multi-ring carbocyclic aryl groups, sulfonamide and/or carboxy groups; and (b) immersion exposing the photoresist layer to radiation activating the photoresist composition.
Power supply arrangement for redundantly supplying power to a load, comprising a first supply unit and a second supply unit, wherein the two supply units are interconnected, wherein the power supply arrangement is designed as a device having a first and a second DC-DC converter (41, 42), wherein at least two output switching controllers (71, 7m, 72, 7n) are connected on the load side of each DC-DC converter (41, 42), wherein a first output switching controller is connected on the load side of the first DC-DC converter and wherein a second output switching controller is connected on the load side of the second DC-DC converter, and wherein the outputs of the first and second output switching controller (71, 72) are interconnected, and wherein a further first output switching controller is connected on the load side of the first DC-DC converter and wherein a further second output switching controller is connected on the load side of the second DC-DC converter, characterised in that the output of the first DC-DC converter and the input of the first output switching controller and the output of the further first output switching controller are routed to a first switch unit of the device, and that the input of the first output switching controller can be switched between the output of the first DC-DC converter and the output of the further first output switching controller by means of the first switch unit, that in addition the output of the second DC-DC converter and the input of the second output switching controller and the output of the further second output switching controller are routed to a second switch unit of the device, and that the input of the second output switching controller can be switched between the output of the second DC-DC converter and the output of the further second output switching controller by means of the second switch unit.
An uninterruptible power supply configured to operate in parallel with a plurality of uninterruptible power supplies in a power distribution system configured to provide power to a load, the uninterruptible power supply comprising: an inverter configured to provide power to the load; a communication interface configured to provide a measured value of inverter output current of the uninterruptible power supply to the plurality of uninterruptible power-supplies, and to receive a measured value of inverter output current from each one of the plurality of uninterruptible power supplies; and a controller coupled to the inverter and the communication interface and configured to control the uninterruptible power supply to operate in one of a master state and a slave state, wherein in the master state the uninterruptible power supply is configured to control voltage to the load and to provide the measured value of inverter output current of the uninterruptible power supply to the plurality of uninterruptible power supplies, and in the slave state the uninterruptible power supply is configured to receive the measured value of inverter output current from each one of the plurality of uninterruptible power supplies, to determine a reference output current value based on a load current provided by the plurality of uninterruptible power supplies to the load and a number of normally-operating uninterruptible power supplies in the plurality of uninterruptible power supplies that are connected in parallel, and to drive inverter output current of the uninterruptible power supply toward the reference output current value. an inverter configured to provide power to the load; a communication interface configured to provide a measured value of inverter output current of the uninterruptible power supply to the plurality of uninterruptible power-supplies, and to receive a measured value of inverter output current from each one of the plurality of uninterruptible power supplies; and a controller coupled to the inverter and the communication interface and configured to control the uninterruptible power supply to operate in one of a master state and a slave state, wherein in the master state the uninterruptible power supply is configured to control voltage to the load and to provide the measured value of inverter output current of the uninterruptible power supply to the plurality of uninterruptible power supplies, and in the slave state the uninterruptible power supply is configured to receive the measured value of inverter output current from each one of the plurality of uninterruptible power supplies, to determine a reference output current value based on a load current provided by the plurality of uninterruptible power supplies to the load and a number of normally-operating uninterruptible power supplies in the plurality of uninterruptible power supplies that are connected in parallel, and to drive inverter output current of the uninterruptible power supply toward the reference output current value.