mhurhangee/patent-ind-claim-en huggingface dataset:
Method for detecting a deactivation of a filling device during a filling process of an operating fluid container whose operating fluid container interior can be filled with an operating fluid via a filling pipe opening into said interior , wherein a pressure sensor for determining a pressure within the filling pipe is arranged in the filling pipe , wherein the method has the following method steps: - acquiring (S1) the time profile of pressure values acquired by means of the pressure sensor ; and - outputting (SS) a filling stop signal in accordance with the time profile of the pressure values. - acquiring (S1) the time profile of pressure values acquired by means of the pressure sensor ; and - outputting (SS) a filling stop signal in accordance with the time profile of the pressure values.
A process for producing a laminate comprising moving a substrate relative to at least two separate orifices arranged along the relative moving trajectory wherein through at least one orifice an organic compound in the gaseous state is passed towards the surface of the substrate and through at least one other orifice a metal- or semimetal-containing compound in the gaseous state is passed towards the surface of the substrate and wherein the orifices are mounted on a rotating drum and wherein more orifices through which a metal- or semimetal-containing compound are passed towards the substrate are present than orifices through which an organic compound is passed.
A display apparatus comprising: a wireless power receiver configured to wirelessly receive power from an external power source to supply power to the display apparatus; a display configured to display an image based on a received image signal; communication circuitry configured to communicate with the external power source ; information acquiring circuitry configured to acquire information about a distance between the display apparatus and a user; and a controller configured to determine consumption power of the display apparatus , to control the communication circuitry to provide information about the determined consumption power to the external power source , and to reduce consumption power by adjusting at least one from among brightness of the display and quality of the image if it is determined, based on the acquired information, that the user is within a predetermined critical distance of the display apparatus while displaying the image on the display , wherein the controller is further configured to control the display to display a user interface, to receive a user input through the user interface to set setup information for reducing the consumption power when the user is within the predetermined critical distance of the display apparatus , and to reduce the consumption power based on the setup information, wherein the setup information includes information about at least one of whether to decrease the brightness of the display or whether to decrease the quality of the image. a wireless power receiver configured to wirelessly receive power from an external power source to supply power to the display apparatus; a display configured to display an image based on a received image signal; communication circuitry configured to communicate with the external power source ; information acquiring circuitry configured to acquire information about a distance between the display apparatus and a user; and a controller configured to determine consumption power of the display apparatus , to control the communication circuitry to provide information about the determined consumption power to the external power source , and to reduce consumption power by adjusting at least one from among brightness of the display and quality of the image if it is determined, based on the acquired information, that the user is within a predetermined critical distance of the display apparatus while displaying the image on the display , wherein the controller is further configured to control the display to display a user interface, to receive a user input through the user interface to set setup information for reducing the consumption power when the user is within the predetermined critical distance of the display apparatus , and to reduce the consumption power based on the setup information, wherein the setup information includes information about at least one of whether to decrease the brightness of the display or whether to decrease the quality of the image.
A test rig for testing a blade pitch measurement system of a variable pitch propeller system, the blade pitch measurement system including a feedback device (204; 304) configured to move relative to a pitch sensor (206; 306) in a propeller axis orientation when the pitch varies, the test rig comprising: a frame , a first mount rotatably mounted to the frame and configured to receive the feedback device (204; 304), a rotation motor drivingly coupled to the first mount to rotate the first mount relative to the frame around a rotation axis (A), a second mount configured to receive the pitch sensor (206; 306), a mechanism configured for moving the second mount along an orientation parallel to the rotation axis (A), and a controller configured to control the rotation of the rotation motor to a variable rotation speed, and for controlling the movement of the second mount to variable positions via the mechanism, characterized in that : the mechanism is further configured for moving the second mount radially relative to the rotation axis (A). a frame , a first mount rotatably mounted to the frame and configured to receive the feedback device (204; 304), a rotation motor drivingly coupled to the first mount to rotate the first mount relative to the frame around a rotation axis (A), a second mount configured to receive the pitch sensor (206; 306), a mechanism configured for moving the second mount along an orientation parallel to the rotation axis (A), and a controller configured to control the rotation of the rotation motor to a variable rotation speed, and for controlling the movement of the second mount to variable positions via the mechanism, characterized in that : the mechanism is further configured for moving the second mount radially relative to the rotation axis (A).
A pivot assembly (14; 48) for a control lever , the pivot assembly (14; 48) comprising: a primary pivot bearing arranged about a longitudinal axis (A); and a redundant pivot bearing (24; 74) arranged about the longitudinal axis (A), the redundant pivot bearing (24; 74) configured to become operative as a bearing in the event that the primary pivot bearing malfunctions, and to produce haptic feedback in the control lever throughout operation of the redundant pivot bearing (24; 74). a primary pivot bearing arranged about a longitudinal axis (A); and a redundant pivot bearing (24; 74) arranged about the longitudinal axis (A), the redundant pivot bearing (24; 74) configured to become operative as a bearing in the event that the primary pivot bearing malfunctions, and to produce haptic feedback in the control lever throughout operation of the redundant pivot bearing (24; 74).
Food production line apparatus for continuous depositing of a confectionery mass on an underlying support , having a mass depositor unit , and a conveyor carrying the underlaying support for receiving the deposited mass , which mass depositor unit has a horizontally extending, plate-shaped mass distribution block arranged above the underlying support , which plate-shaped mass distribution block comprises; at least one mass chamber arranged inside the block , and which chamber is connected via at least one volumetric mass displacement unit with a storage of confectionery mass to be deposited, that the at least one volumetric mass displacement unit is arranged above the mass chamber and comprises a plurality of pistons and one or more rotary valves, which pistons and rotary valves have sliding surfaces supported by associated stationery surfaces at the mass depositor unit , a plurality of nozzles , each being a separate unit, arranged at the bottom of the mass distribution block as each nozzle is connected to the mass chamber via a respective channel , and that each nozzle is having a through extending inner nozzle channel , characterized in, that the inner nozzle channel of each nozzle comprises an inlet opening and an outlet opening for the mass, an upper conical channel part extending from the inlet opening and narrowing in towards a central waist part , and a lower conical channel part expanding from the central waist part towards the outlet opening at the bottom of the nozzle . a mass depositor unit , and a conveyor carrying the underlaying support for receiving the deposited mass , which mass depositor unit has a horizontally extending, plate-shaped mass distribution block arranged above the underlying support , which plate-shaped mass distribution block comprises; at least one mass chamber arranged inside the block , and which chamber is connected via at least one volumetric mass displacement unit with a storage of confectionery mass to be deposited, that the at least one volumetric mass displacement unit is arranged above the mass chamber and comprises a plurality of pistons and one or more rotary valves, which pistons and rotary valves have sliding surfaces supported by associated stationery surfaces at the mass depositor unit , a plurality of nozzles , each being a separate unit, arranged at the bottom of the mass distribution block as each nozzle is connected to the mass chamber via a respective channel , and that each nozzle is having a through extending inner nozzle channel , characterized in, that the inner nozzle channel of each nozzle comprises an inlet opening and an outlet opening for the mass, an upper conical channel part extending from the inlet opening and narrowing in towards a central waist part , and a lower conical channel part expanding from the central waist part towards the outlet opening at the bottom of the nozzle .
A locking mechanism for a circuit breaker operating device, comprising a housing , and a button mounted in a button slot of the housing , wherein the housing is provided therein with a locking member , the locking member is configured for locking or unlocking the button , characterized in that : the locking member comprises a first lock button , the first lock button is mounted in the housing via a first shaft and is rotatable about the first shaft , a first limiting boss is provided on one side of the first lock button , the button is provided with a first limiting step corresponding to the first limiting boss , a first locking boss is provided on an upper surface on the other side of the first lock button , the housing is provided with a first limiting slot hole corresponding to the first locking boss , a first torsion spring is mounted to the housing , and the first torsion spring has one end resting on a lower surface of the first lock button located on a right side of the first shaft ; and the locking member is configured so that: - when a circuit breaker having the locking mechanism is not installed in a cabinet, the first lock button is subjected to the action of the first torsion spring so that the first limiting boss abuts against the first limiting step of the button , the button is locked by the first lock button , the operation button cannot be pressed, and thus the circuit breaker cannot be switched on; and - when the circuit breaker having the locking mechanism is installed in place in the cabinet, the first locking boss is depressed by a cabinet plate of the cabinet, the first lock button rotates clockwise, and the first limiting boss no longer abuts against the first limiting step of the button , and thus the circuit breaker is in a freely openable or closable state. - when a circuit breaker having the locking mechanism is not installed in a cabinet, the first lock button is subjected to the action of the first torsion spring so that the first limiting boss abuts against the first limiting step of the button , the button is locked by the first lock button , the operation button cannot be pressed, and thus the circuit breaker cannot be switched on; and - when the circuit breaker having the locking mechanism is installed in place in the cabinet, the first locking boss is depressed by a cabinet plate of the cabinet, the first lock button rotates clockwise, and the first limiting boss no longer abuts against the first limiting step of the button , and thus the circuit breaker is in a freely openable or closable state.
Winding apparatus comprising: - at least one rotatable winding core ; - at least one first electrode guide arranged to guide the feeding of a first electrode strip to said core ; - moving means for moving said at least one first electrode guide , during a winding of the first electrode strip around said core , with at least one movement relative to said core so as to vary the position of the first electrode strip while varying at least one dimension of the product wrapped on said core ; characterized in that said movement varies the direction of introduction of the first electrode strip during the winding. - at least one rotatable winding core ; - at least one first electrode guide arranged to guide the feeding of a first electrode strip to said core ; - moving means for moving said at least one first electrode guide , during a winding of the first electrode strip around said core , with at least one movement relative to said core so as to vary the position of the first electrode strip while varying at least one dimension of the product wrapped on said core ;
A core needle biopsy device, comprising: (a) a body ; (b) a needle assembly extending distally from the body and having a hollow piercer with a lumen for connection to a vacuum source and a hollow cutter , wherein the piercer is disposed within the cutter , wherein the piercer includes a sharp tip and a lateral aperture proximate the sharp tip , wherein the cutter has a distal tip and a swaged portion proximate the distal tip , wherein the swaged portion is tapered to form a gap between the piercer and the cutter proximally of the distal tip , wherein the gap defined by the swaged portion of the cutter is configured to supply atmospheric air to the lateral aperture of the piercer to permit transport of a tissue sample through the lumen by application of a vacuum to the lumen when the distal tip is disposed distally relative to the lateral aperture ; and (b) a drive assembly configured to selectively cock and fire the piercer and the cutter relative to the body . (a) a body ; (b) a needle assembly extending distally from the body and having a hollow piercer with a lumen for connection to a vacuum source and a hollow cutter , wherein the piercer is disposed within the cutter , wherein the piercer includes a sharp tip and a lateral aperture proximate the sharp tip , wherein the cutter has a distal tip and a swaged portion proximate the distal tip , wherein the swaged portion is tapered to form a gap between the piercer and the cutter proximally of the distal tip , wherein the gap defined by the swaged portion of the cutter is configured to supply atmospheric air to the lateral aperture of the piercer to permit transport of a tissue sample through the lumen by application of a vacuum to the lumen when the distal tip is disposed distally relative to the lateral aperture ; and (b) a drive assembly configured to selectively cock and fire the piercer and the cutter relative to the body .
A propulsion system for an electric vehicle, the system comprising: a high voltage battery unit having a first high voltage battery connected in series with a second high voltage battery such that a nominal operating voltage of the high voltage battery unit is the sum of a voltage of the first high voltage battery and a voltage of the second high voltage battery ; a power inverter arranged to connect the high voltage battery unit and the first high voltage battery to a six-phase electric machine , wherein the power inverter and the electric machine are configured to form a first and a second three-phase system; and a propulsion system control unit configured to detect a fault in the first or the second three-phase system, and characterized in that the power inverter is configured to operate the faulty three-phase system in a safe pulse-off mode, where transistors of the power inverter for the faulty three-phase system are in an open state and switching of the transistors is stopped, if a back electromotive force, back-EMF, of the faulty three-phase system is lower than the operating voltage of the high voltage battery unit, and in that the propulsion system control unit is configured to control the non-faulty three-phase system of the first and second three-phase system to provide field weakening current control to reduce the magnetic field in the faulty three-phase system. a high voltage battery unit having a first high voltage battery connected in series with a second high voltage battery such that a nominal operating voltage of the high voltage battery unit is the sum of a voltage of the first high voltage battery and a voltage of the second high voltage battery ; a power inverter arranged to connect the high voltage battery unit and the first high voltage battery to a six-phase electric machine , wherein the power inverter and the electric machine are configured to form a first and a second three-phase system; and a propulsion system control unit configured to detect a fault in the first or the second three-phase system, and characterized in that the power inverter is configured to operate the faulty three-phase system in a safe pulse-off mode, where transistors of the power inverter for the faulty three-phase system are in an open state and switching of the transistors is stopped, if a back electromotive force, back-EMF, of the faulty three-phase system is lower than the operating voltage of the high voltage battery unit, and in that the propulsion system control unit is configured to control the non-faulty three-phase system of the first and second three-phase system to provide field weakening current control to reduce the magnetic field in the faulty three-phase system.
A sample cell for holding a sample to be placed in a cryogenically cooled environment, the sample cell comprising: - an airtight, openable and closable enclosure , - within said enclosure a sample base for receiving said sample, - a refrigerator attachment for attaching said sample cell to a refrigerated body of said cryogenically cooled environment, - a thermal connection between said sample base and said refrigerator attachment , and - one or more airtight connectors for establishing electric connections between inside and outside of said enclosure , - an evacuation channel between inside and outside of said enclosure in the form of a conduit through a structure of said enclosure , - a connector at an outer end of the conduit for connecting an inlet of a vacuum suction pump to the sample cell, for evacuating said enclosure after closing, and - a closing valve for selectively allowing and preventing flow of gaseous media through said conduit ; characterized in that : - said closing valve comprises a closing member movable between an open position and a closed position, of which in said open position said closing member allows gaseous media to flow through said conduit and in said closed position said closing member prevents gaseous media from flowing through said conduit , and - the sample cell comprises a piece of deformable sealing material compliant with vacuum and cryogenically cooled conditions at such a part of said conduit that said closing member is arranged to occupy in said closed position. - an airtight, openable and closable enclosure , - within said enclosure a sample base for receiving said sample, - a refrigerator attachment for attaching said sample cell to a refrigerated body of said cryogenically cooled environment, - a thermal connection between said sample base and said refrigerator attachment , and - one or more airtight connectors for establishing electric connections between inside and outside of said enclosure , - an evacuation channel between inside and outside of said enclosure in the form of a conduit through a structure of said enclosure , - a connector at an outer end of the conduit for connecting an inlet of a vacuum suction pump to the sample cell, for evacuating said enclosure after closing, and - a closing valve for selectively allowing and preventing flow of gaseous media through said conduit ; - said closing valve comprises a closing member movable between an open position and a closed position, of which in said open position said closing member allows gaseous media to flow through said conduit and in said closed position said closing member prevents gaseous media from flowing through said conduit , and - the sample cell comprises a piece of deformable sealing material compliant with vacuum and cryogenically cooled conditions at such a part of said conduit that said closing member is arranged to occupy in said closed position.
Process for treating a solid material containing asbestos, comprising the following successive steps: a) grinding the solid material, (b) bringing the ground solid material into contact with an aqueous solution of hydrochloric acid, with stirring, so as to obtain a suspension, characterized in that the material is brought into contact at a temperature of between 5 and 40°C, preferably between 20 and 30°C, and by the following steps: (c) heating the suspension to a first temperature comprises between 50 and 60°C, preferably between 50 and 55°C, for a period of time ranging from 20 minutes to 1 hour, (d) heating the suspension to a second temperature comprised between 70 and 100°C, preferably between 90 and 95°C, for a period of time ranging from 30 minutes to 1 hour, and (e) cooling the suspension obtained in step (d). a) grinding the solid material, (b) bringing the ground solid material into contact with an aqueous solution of hydrochloric acid, with stirring, so as to obtain a suspension, characterized in that the material is brought into contact at a temperature of between 5 and 40°C, preferably between 20 and 30°C, and by the following steps: (c) heating the suspension to a first temperature comprises between 50 and 60°C, preferably between 50 and 55°C, for a period of time ranging from 20 minutes to 1 hour, (d) heating the suspension to a second temperature comprised between 70 and 100°C, preferably between 90 and 95°C, for a period of time ranging from 30 minutes to 1 hour, and (e) cooling the suspension obtained in step (d).