mhurhangee/patent-ind-claim-en huggingface dataset:
Gas-liquid separator in an anode circuit of a fuel cell for separation of at least one liquid constituent, in particular H 2 O, from a gaseous constituent, in particular H 2 , having at least one vessel which is supplied at least indirectly via a connecting conduit with a medium from an anode region of the fuel cell , and/or a medium, in particular a motive medium, is supplied from a tank via a metering valve by means of a tank conduit , where at least the liquid constituent of the medium is separated out in the vessel , where the separated constituent of the medium is discharged from the vessel via a return conduit , and the remaining gaseous component of the medium, in particular H 2 , is returned to the anode region via a discharge conduit , characterized in that the vessel has an interior and a flow region that are separated from one another by means of a membrane , where the flow region is fluidically connected to the connecting conduit or the tank conduit and the outflow conduit , where the interior is at least indirectly fluidically connected to the connecting conduit via a branch conduit , and where the interior is at least indirectly fluidically connected to the return conduit and where a constituent of the gaseous medium is separated from the H 2 by means of the membrane , where the membrane takes the form of a wall of a first jet pump disposed at least partly within in the vessel , where the flow region runs within the jet pump and where the jet pump has an intake region and/or a diffuser region .
Operating method for an electric arc furnace, wherein metal in a furnace vessel of the electric arc furnace is melted during a melting phase, wherein a control device of the electric arc furnace - determines preliminary target voltage values (U1*) on the basis of target electrical variables (X*) of electrical energy to be supplied to the electrodes , with the result that, when voltages (U) corresponding to the preliminary target voltage values (U1*) are applied to the electrodes , first actual electrical variables (X) of electrical energy supplied to the electrodes are approximated as far as possible to the target electrical variables (X*), and - controls an energy supply device of the electric arc furnace on the basis of definitive target voltage values (U2*), with the result that voltages (U) corresponding to the definitive target voltage values (U2*) are applied to the electrodes , with the result that the energy supply device draws electrical energy from a supply network and supplies it to the electrodes via a furnace transformer , characterized in that the control device , at least during a starting phase of the melting phase, determines the definitive target voltage values (U2*) by limiting the preliminary target voltage values (U1*) to a permissible maximum value (Umax), wherein the permissible maximum value (Umax) is below a possible maximum value (U0) that can be applied to the electrodes by the energy supply device . - determines preliminary target voltage values (U1*) on the basis of target electrical variables (X*) of electrical energy to be supplied to the electrodes , with the result that, when voltages (U) corresponding to the preliminary target voltage values (U1*) are applied to the electrodes , first actual electrical variables (X) of electrical energy supplied to the electrodes are approximated as far as possible to the target electrical variables (X*), and - controls an energy supply device of the electric arc furnace on the basis of definitive target voltage values (U2*), with the result that voltages (U) corresponding to the definitive target voltage values (U2*) are applied to the electrodes , with the result that the energy supply device draws electrical energy from a supply network and supplies it to the electrodes via a furnace transformer ,
An actuator comprising: a movable member including a unipolar magnet magnetized in a unipolar fashion; a fixing member including a plurality of electromagnets each including a core as a magnetic substance forming a magnetic pole and the plurality of electromagnets each further including a coil that is wound around an outer periphery of the magnetic pole core and that excites the core , wherein three or more magnetic poles of the electromagnets are disposed at respective positions orthogonal to a magnetization direction of the unipolar magnet , and wherein each of the magnetic pole cores includes at one end a magnetic pole surface facing the unipolar magnet in a direction orthogonal to the magnetization direction; and an elastic body provided between the movable member and the fixing member , and configured to be elastically deformed when a current is supplied to the coil so as to movably support the movable member in a magnetization direction of the unipolar magnet , wherein: the elastic body is attached to the movable member such that a movement center of the movable member coincides with an approximate center of a generated magnetic torque of the movable member characterized in that the elastic body is configured to movably support the movable member in two degree-of-freedom twisting directions and the elastic body comprises a ring part (134 134B) externally fitted on the periphery of the movable member and a plurality of plate-shaped elastic arms which extend from the ring part and are fixed to the fixing member , wherein the elastic arms are located in the horizontal plane that passes through the approximate center of the generated magnetic torque of movable member , the horizontal plane is orthogonal to the magnetization direction and intersects the pole surfaces of the magnetic pole cores . a movable member including a unipolar magnet magnetized in a unipolar fashion; a fixing member including a plurality of electromagnets each including a core as a magnetic substance forming a magnetic pole and the plurality of electromagnets each further including a coil that is wound around an outer periphery of the magnetic pole core and that excites the core , wherein three or more magnetic poles of the electromagnets are disposed at respective positions orthogonal to a magnetization direction of the unipolar magnet , and wherein each of the magnetic pole cores includes at one end a magnetic pole surface facing the unipolar magnet in a direction orthogonal to the magnetization direction; and an elastic body provided between the movable member and the fixing member , and configured to be elastically deformed when a current is supplied to the coil so as to movably support the movable member in a magnetization direction of the unipolar magnet ,
An assembly comprising a hydraulic apparatus comprising a rotor and a stator, the rotor being rotatably mounted relative to the stator along a second axis of rotation (Z-Z), and being secured to means adapted for the mounting of a vehicle wheel, a pivot element intended to be mounted on an axle, and movable in rotation relative to the hydraulic apparatus along a first axis of rotation (X-X), the stator being rotatably mounted relative to the axle along the first axis of rotation (X-X), characterized in that an air chamber is formed between the pivot element and the hydraulic apparatus , said air chamber being connected to a distribution conduit arranged in the hydraulic apparatus, and to an axle conduit arranged in the pivot element , so as to form a pneumatic conduit between the pivot element and the hydraulic apparatus , in order to allow air to be conveyed for the inflation/deflation of a tire.
A lighting device comprising: a first lighting strip ; a second lighting strip , each of the first and second lighting strips comprising an elongate light emitting region, wherein the lighting emitting regions of the first and second lighting strips at least partially overlap in a region of overlap, and the first and second lighting strips are slidable relative to each other so that the region of overlap is adjustable, thereby to adjust the overall length of the lighting device, wherein each lighting strip has a first lighting emitting portion outside the region of overlap and a second light emitting portion in the region of overlap, wherein the combined light intensity per unit length of the second light emitting portions of the first and second lighting strips in the region of overlap corresponds to the light intensity per unit length of the first lighting portions of the first and second lighting strips, characterized in that the lighting device comprises a sensor for sensing the region of overlap and a lighting controller, wherein the lighting controller is configured to control the lighting strips in dependence on the sensed region of overlap. a first lighting strip ; a second lighting strip , each of the first and second lighting strips comprising an elongate light emitting region, wherein the lighting emitting regions of the first and second lighting strips at least partially overlap in a region of overlap, and the first and second lighting strips are slidable relative to each other so that the region of overlap is adjustable, thereby to adjust the overall length of the lighting device, wherein each lighting strip has a first lighting emitting portion outside the region of overlap and a second light emitting portion in the region of overlap, wherein the combined light intensity per unit length of the second light emitting portions of the first and second lighting strips in the region of overlap corresponds to the light intensity per unit length of the first lighting portions of the first and second lighting strips,
Measuring device for a lid for covering a container , which is used for the storage of a substance , wherein the measuring device comprises: - at least one device sensor , which is designed to provide device information in respect of a movement of the measuring device relative to the container ; - at least one contents sensor , which is designed to capture substance sensor data in respect of the substance in the container ; - at least one communication unit , which is designed to send data via a communication network ; and - a control unit , which is designed - to trigger the contents sensor to capture substance sensor data as a function of the device information; and - to trigger the communication unit to send the substance sensor data and/or data derived therefrom; characterised in that - the device sensor comprises a movement sensor ; - the device information comprises movement data of the movement sensor ; and - the control unit is designed to determine, on the basis of the movement data, whether the lid connected to the measuring device has been placed on the container or removed from the container . - at least one device sensor , which is designed to provide device information in respect of a movement of the measuring device relative to the container ; - at least one contents sensor , which is designed to capture substance sensor data in respect of the substance in the container ; - at least one communication unit , which is designed to send data via a communication network ; and - a control unit , which is designed - to trigger the contents sensor to capture substance sensor data as a function of the device information; and - to trigger the communication unit to send the substance sensor data and/or data derived therefrom; - to trigger the contents sensor to capture substance sensor data as a function of the device information; and - to trigger the communication unit to send the substance sensor data and/or data derived therefrom; - the device sensor comprises a movement sensor ; - the device information comprises movement data of the movement sensor ; and - the control unit is designed to determine, on the basis of the movement data, whether the lid connected to the measuring device has been placed on the container or removed from the container .
Method of modifying a solid-state body, especially of removing at least one solid-state layer from a donor substrate , at least comprising the steps of: providing the donor substrate , wherein the donor substrate has crystal lattice planes inclined relative to a planar main surface , wherein the main surface delimits the donor substrate in longitudinal direction of the donor substrate on one side, wherein a crystal lattice plane normal is inclined in a first direction relative to a main surface normal, providing at least one laser, introducing laser radiation from the laser into the interior of the donor substrate , especially via the main surface , to change the material properties of the donor substrate in the region of at least one laser focus, wherein the laser focus is formed by laser beams from the laser emitted by the laser, wherein the change in the material property by changing the site of penetration of the laser radiation into the donor substrate forms a linear design , wherein the changes in the material property are generated in at least one generation plane , wherein the crystal lattice planes of the donor substrate are in an inclined alignment relative to the generation plane , wherein the linear design is inclined at least in sections, preferably mainly, with respect to a cutting line that arises at the interface between the generation plane and the crystal lattice plane . providing the donor substrate , wherein the donor substrate has crystal lattice planes inclined relative to a planar main surface , wherein the main surface delimits the donor substrate in longitudinal direction of the donor substrate on one side, wherein a crystal lattice plane normal is inclined in a first direction relative to a main surface normal, providing at least one laser, introducing laser radiation from the laser into the interior of the donor substrate , especially via the main surface , to change the material properties of the donor substrate in the region of at least one laser focus, wherein the laser focus is formed by laser beams from the laser emitted by the laser, wherein the change in the material property by changing the site of penetration of the laser radiation into the donor substrate forms a linear design , wherein the changes in the material property are generated in at least one generation plane , wherein the crystal lattice planes of the donor substrate are in an inclined alignment relative to the generation plane , wherein the linear design is inclined at least in sections, preferably mainly, with respect to a cutting line that arises at the interface between the generation plane and the crystal lattice plane .
An overspeed assembly for use with a governor assembly for limiting of an elevator system , the overspeed assembly comprising: a rod movable relative to the governor assembly in response to a speed of an elevator car ; a pin coupled to the rod ; characterized by the pin being movable between a first position and a second position based on a direction of travel of the elevator car , wherein the pin is configured to engage a first component to indicate a first overspeed condition when the elevator car is travelling in a first direction and the pin is configured to engage a second component to indicate a second overspeed condition when the elevator car is travelling in a second, opposite direction; wherein the pin further comprises a first magnet , and the overspeed assembly includes a second magnet , the second magnet being selectively operable to attract and repel the first magnet to move the pin between the first position and the second position. a rod movable relative to the governor assembly in response to a speed of an elevator car ; a pin coupled to the rod ; characterized by the pin being movable between a first position and a second position based on a direction of travel of the elevator car , wherein the pin is configured to engage a first component to indicate a first overspeed condition when the elevator car is travelling in a first direction and the pin is configured to engage a second component to indicate a second overspeed condition when the elevator car is travelling in a second, opposite direction; wherein the pin further comprises a first magnet , and the overspeed assembly includes a second magnet , the second magnet being selectively operable to attract and repel the first magnet to move the pin between the first position and the second position.
A dual-chip tray system used in a gaming table and storing gaming chips with a built-in RFID tags, the dual-chip tray comprising: a lower tray for storing the gaming chips; an upper tray for storing the gaming chips; wherein the upper tray is movably connected to the lower chip tray and moveable between a first position in which the upper tray is lapped over the lower tray , and a second position in which the upper tray is displaced from the lower tray to expose an upper surface of the lower tray ; characterized by one or more RFID readers for determining the gaming chips stored in the upper tray and the lower tray , respectively, by reading the RFID tags of the gaming chips stored in the upper tray and the lower tray using at least one RFID antenna. a lower tray for storing the gaming chips; an upper tray for storing the gaming chips; wherein the upper tray is movably connected to the lower chip tray and moveable between a first position in which the upper tray is lapped over the lower tray , and a second position in which the upper tray is displaced from the lower tray to expose an upper surface of the lower tray ; characterized by one or more RFID readers for determining the gaming chips stored in the upper tray and the lower tray , respectively, by reading the RFID tags of the gaming chips stored in the upper tray and the lower tray using at least one RFID antenna.
A load carrying system , comprising: a. a load supporting frame comprising three connection points ; and b. three lifts configured to be controlled independently with respect to vertical positioning of one of the three connection points, the three lifts defining six separate triangles defining separate planes configured to brace against surge, sway and yaw with respect to the frame, each lift defining two of the six separate triangles, each lift comprising: i. a controllable motor ; ii. a drum operative connected to the controllable motor and configured to accept a predetermined length of a corresponding cable about a portion of the drum; iii. a set of pulleys ; and iv. a cable (430 - 431,432,433) routed over the set of pulleys and routed to a predetermined connection point of the three connection points, the cable comprising a first end attached to the drum and a second end cooperatively attached to the drum , the cable and the load supporting frame defining two separate triangles of the six separate triangles. a. a load supporting frame comprising three connection points ; and b. three lifts configured to be controlled independently with respect to vertical positioning of one of the three connection points, the three lifts defining six separate triangles defining separate planes configured to brace against surge, sway and yaw with respect to the frame, each lift defining two of the six separate triangles, each lift comprising: i. a controllable motor ; ii. a drum operative connected to the controllable motor and configured to accept a predetermined length of a corresponding cable about a portion of the drum; iii. a set of pulleys ; and iv. a cable (430 - 431,432,433) routed over the set of pulleys and routed to a predetermined connection point of the three connection points, the cable comprising a first end attached to the drum and a second end cooperatively attached to the drum , the cable and the load supporting frame defining two separate triangles of the six separate triangles. i. a controllable motor ; ii. a drum operative connected to the controllable motor and configured to accept a predetermined length of a corresponding cable about a portion of the drum; iii. a set of pulleys ; and iv. a cable (430 - 431,432,433) routed over the set of pulleys and routed to a predetermined connection point of the three connection points, the cable comprising a first end attached to the drum and a second end cooperatively attached to the drum , the cable and the load supporting frame defining two separate triangles of the six separate triangles.
An isolated dendritic cell comprising a phagocytosed component consisting of (i) a yeast cell wall particle and (ii) a tumor lysate loaded within the yeast cell wall particle, wherein the loaded yeast cell wall particle is obtainable by freeze-drying a combination of the tumor lysate and the yeast cell wall particle to entrap the tumor lysate.
Method for additively manufacturing an object from a powder layer, the method comprising the steps of: • projecting an energy beam onto a surface of the powder layer as a spot so as to fuse the powder, • scanning , by the energy beam, a first zone of the surface in a longitudinal scanning direction and in a forward direction, and, during scanning of the first zone, directing the energy beam so that the spot traverses the first zone along a trajectory comprising first loops offset with respect to one another in the longitudinal scanning direction, the spot traversing each first loop in a first direction of rotation, • scanning , by the energy beam, a second zone of the surface in the longitudinal scanning direction and in a return direction opposite to the forward direction, the second zone being adjacent to the first zone in a transverse scanning direction perpendicular to the longitudinal scanning direction, and during scanning of the second zone, directing the energy beam so that the spot traverses the second zone along a trajectory comprising second loops offset with respect to one another in the longitudinal scanning direction, the spot traversing each second loop in a second direction of rotation opposite to the first direction of rotation. • projecting an energy beam onto a surface of the powder layer as a spot so as to fuse the powder, • scanning , by the energy beam, a first zone of the surface in a longitudinal scanning direction and in a forward direction, and, during scanning of the first zone, directing the energy beam so that the spot traverses the first zone along a trajectory comprising first loops offset with respect to one another in the longitudinal scanning direction, the spot traversing each first loop in a first direction of rotation, • scanning , by the energy beam, a second zone of the surface in the longitudinal scanning direction and in a return direction opposite to the forward direction, the second zone being adjacent to the first zone in a transverse scanning direction perpendicular to the longitudinal scanning direction, and during scanning of the second zone, directing the energy beam so that the spot traverses the second zone along a trajectory comprising second loops offset with respect to one another in the longitudinal scanning direction, the spot traversing each second loop in a second direction of rotation opposite to the first direction of rotation.