mhurhangee/ep-ind-claims huggingface dataset:
Method for controlling a heating device in a motorised camera directing arrangement including a motor device (25, 27), said method comprising: measuring a temperature relating to the motorised camera directing arrangement, characterized by: measuring a voltage over the motor device (25, 27), measuring a current conducted at least to the motor device (25, 27), controlling power distributed to the heating device based on the measured temperature and on the measured current, and feeding power to the heating device independent of the measured temperature and the measured current in the event that the measuring of the voltage over the motor device indicates a voltage level higher than a predetermined threshold value, making the heating device act as a braking resistor. measuring a temperature relating to the motorised camera directing arrangement, characterized by: measuring a voltage over the motor device (25, 27), measuring a current conducted at least to the motor device (25, 27), controlling power distributed to the heating device based on the measured temperature and on the measured current, and feeding power to the heating device independent of the measured temperature and the measured current in the event that the measuring of the voltage over the motor device indicates a voltage level higher than a predetermined threshold value, making the heating device act as a braking resistor. measuring a voltage over the motor device (25, 27), measuring a current conducted at least to the motor device (25, 27), controlling power distributed to the heating device based on the measured temperature and on the measured current, and feeding power to the heating device independent of the measured temperature and the measured current in the event that the measuring of the voltage over the motor device indicates a voltage level higher than a predetermined threshold value, making the heating device act as a braking resistor.
A method comprising: receiving from a memory controller, a request to access memory stored at memory modules (38, 46), said request directed to one of a plurality of logical ranks; mapping at a rank aggregator, said logical rank to one of a plurality of physical ranks at the memory modules, wherein two or more of the memory modules are combined to represent a single logical memory module comprising a number of said logical ranks at the memory controller such that there is a one-to-one mapping between said logical ranks and said physical ranks; and forwarding said request to one of the memory modules according to said mapping. receiving from a memory controller, a request to access memory stored at memory modules (38, 46), said request directed to one of a plurality of logical ranks; mapping at a rank aggregator, said logical rank to one of a plurality of physical ranks at the memory modules, wherein two or more of the memory modules are combined to represent a single logical memory module comprising a number of said logical ranks at the memory controller such that there is a one-to-one mapping between said logical ranks and said physical ranks; and forwarding said request to one of the memory modules according to said mapping.
SQUEEZING SYSTEM of the type that comprises at least one female drum and at least one male drum, one close to the other and that rotate in a synchronised manner, one in the opposite direction to the other, the female drum having in its side, and opened to its side at least one cavity apt for lodging the fruit to be squeezed and the male drum likewise having on the side at least one protuberance apt for embedding during a portion of the rotation path and apt for tightly lodging in the cavity of the female drum on each rotation compressing and squeezing the fruit, characterised in that the female drum has a base larger than its other base, the female drum having, preferably, a frustoconical shape.: a) The rotation axle of the female drum and the rotation axle of the male drum cross in space. b) The rotation axle of the female drum is, placed with respect of the rotation axle of the male drum at an angle other than 0°. c) The rotation axle of the female drum is, placed with respect of the rotation axle of the male drum at an angle other than 180°. a) The rotation axle of the female drum and the rotation axle of the male drum cross in space. b) The rotation axle of the female drum is, placed with respect of the rotation axle of the male drum at an angle other than 0°. c) The rotation axle of the female drum is, placed with respect of the rotation axle of the male drum at an angle other than 180°.
A commercial vehicle structure, in particular tarpaulin structure, having a sliding cover which has a roof tarpaulin, which is fastened to roof bows, and at least one stiffening element, which extends at least partially transversely to a tarpaulin longitudinal direction, the stiffening element being connected in some sections to the roof tarpaulin and having at least one free longitudinal end which is fixed to an upper side of a roof bow using a fastening means, characterised in that the stiffening element is in the form of a belt, and an edge region of the roof tarpaulin covers the fastening means and loosely overlaps the free longitudinal end of the stiffening element, wherein the edge region of the roof tarpaulin is fastened to a guide carriage for the roof bow further outwards than the free longitudinal end of the stiffening element.
An interstitial tumor laser thermotherapy device, comprising a laser source emitting a laser beam suitable to cause necrosis of tumor tissues, a hollow needle with a point for perforating a tissue to be treated, a light guide insertable in said hollow needle and arranged to receive said laser beam from said laser source, a cannula insertable in said hollow needle and having a distal end extractable from the of hollow needle beyond the sharpened point thereof, said light guide being insertable in said cannula; wherein said cannula is provided with an inflatable membrane (17; 20) which is inflatable to form a balloon into which the distal end of said light guide can project, the membrane (17; 20) being housed within said cannula or adherent to said cannula and being inflatable with a liquid to create a cavity in the tissue to be treated, into which laser radiation is guided by said light guide, energy from said laser source being guided into the internal volume of the membrane by said light guide; and wherein a circuit is provided for circulating the liquid in said membrane; characterised by: a system adapted to introduce diffusing or scattering particles, reflecting incident light emitted by said laser source, into the liquid inflating said membrane (17; 20). a system adapted to introduce diffusing or scattering particles, reflecting incident light emitted by said laser source, into the liquid inflating said membrane (17; 20).
An electrically operated valve comprising: a valve body; a rotation shaft configured to move the valve body along a first axis by rotating; an output gear configured to rotate the rotation shaft, a permanent magnet member disposed on the rotation shaft and configured to rotate with the rotation shaft; an angle sensor configured to detect a rotation angle of a permanent magnet included in the permanent magnet member; and a case for housing the permanent magnet member, wherein: the angle sensor is disposed outside of the case, characterized in that the rotation shaft is movable relative to the permanent magnet member in a direction along the first axis, and the rotation shaft is engaged so as not to be rotatable relative to the output gear. a valve body; a rotation shaft configured to move the valve body along a first axis by rotating; an output gear configured to rotate the rotation shaft, a permanent magnet member disposed on the rotation shaft and configured to rotate with the rotation shaft; an angle sensor configured to detect a rotation angle of a permanent magnet included in the permanent magnet member; and a case for housing the permanent magnet member, wherein: the angle sensor is disposed outside of the case, characterized in that the rotation shaft is movable relative to the permanent magnet member in a direction along the first axis, and the rotation shaft is engaged so as not to be rotatable relative to the output gear. the angle sensor is disposed outside of the case, characterized in that the rotation shaft is movable relative to the permanent magnet member in a direction along the first axis, and the rotation shaft is engaged so as not to be rotatable relative to the output gear.
Method for processing and/or observing an object by means of at least one particle beam, in which the particle beam is scanned over the object and wherein the method comprises the following steps: - determining a scan region on the object, the scan region having a multiplicity of scan lines (RZ1 to RZ4), - moving the particle beam in a first scanning direction along one of the multiplicity of scan lines (RZ1 to RZ4), and - changing the first scanning direction into a second scanning direction (A') at a change-of-direction time, wherein - changing the first scanning direction into the second scanning direction (A') comprises a setting of a point of rotation in that scan line of the scan region in which the particle beam is situated at the change-of-direction time, with an axis of rotation extending through the point of rotation, and wherein - the first scanning direction is changed into the second scanning direction (A') by rotating the scan region about the axis of rotation, with the point of rotation being selected dependent on the direction of rotation at the change-of-direction time. - determining a scan region on the object, the scan region having a multiplicity of scan lines (RZ1 to RZ4), - moving the particle beam in a first scanning direction along one of the multiplicity of scan lines (RZ1 to RZ4), and - changing the first scanning direction into a second scanning direction (A') at a change-of-direction time, wherein - changing the first scanning direction into the second scanning direction (A') comprises a setting of a point of rotation in that scan line of the scan region in which the particle beam is situated at the change-of-direction time, with an axis of rotation extending through the point of rotation, and wherein - the first scanning direction is changed into the second scanning direction (A') by rotating the scan region about the axis of rotation, with the point of rotation being selected dependent on the direction of rotation at the change-of-direction time.
Wireless docking system comprising at least one host and at least one dockee device (120,130,140), the host and the dockee device arranged for docking via wireless communication for setting up a docking session, the host arranged for accommodating at least one wireless docking environment comprising at least one peripheral (110,111,112), the docking session enabling the dockee device to use the peripheral, the host comprising - a host communication unit for accommodating said wireless communication, - a host processor arranged for docking the dockee device, the dockee device comprising - a dockee communication unit for accommodating said wireless communication, - a dockee processor arranged for docking with the host, the dockee processor being arranged for, before setting up the docking session, - selecting a wireless docking environment from multiple available wireless docking environments, characterized in that the dockee processor is arranged for - transmitting an identify request via the dockee communication unit to the host accommodating the selected wireless docking environment, the identify request requesting a peripheral of the host to give physical remotely detectable feedback that is detectable at a remote distance and is different from presenting a text message on a display screen for a user within working range of that screen, and the host processor is arranged for, before setting up the docking session, - receiving the identify request via the host communication unit from the dockee device, and - responding to the identify request by controlling the peripheral to generate the physical remotely detectable feedback, the remotely detectable physical feedback enabling a user of the dockee device to perceive the docking environment comprising said peripheral as selected. - a host communication unit for accommodating said wireless communication, - a host processor arranged for docking the dockee device, the dockee device comprising - a dockee communication unit for accommodating said wireless communication, - a dockee processor arranged for docking with the host, the dockee processor being arranged for, before setting up the docking session, - selecting a wireless docking environment from multiple available wireless docking environments, characterized in that the dockee processor is arranged for - transmitting an identify request via the dockee communication unit to the host accommodating the selected wireless docking environment, the identify request requesting a peripheral of the host to give physical remotely detectable feedback that is detectable at a remote distance and is different from presenting a text message on a display screen for a user within working range of that screen, and the host processor is arranged for, before setting up the docking session, - receiving the identify request via the host communication unit from the dockee device, and - responding to the identify request by controlling the peripheral to generate the physical remotely detectable feedback, the remotely detectable physical feedback enabling a user of the dockee device to perceive the docking environment comprising said peripheral as selected.
Steer-by-wire steering system for a motor vehicle, comprising: - a reaction force actuator, which is mechanically connected to a steering handle; - a rotor position sensor for detecting a rotor position of the reaction force actuator; - a steering handle angle sensor; - at least one first control device for actuating the reaction force actuator, characterized in that the first control device is designed, in the event of a malfunction in the rotor position sensor, to ascertain an item of rotor position information on the basis of a measured value of the steering handle angle sensor, wherein the reaction force actuator and the rotor position sensor are connected to a first electrical circuit and the steering handle angle sensor is connected to a second electrical circuit, wherein the first and the second electrical circuit are DC-isolated from each other and the first control device receives measured values of the steering handle angle sensor via a signal coupler. - a reaction force actuator, which is mechanically connected to a steering handle; - a rotor position sensor for detecting a rotor position of the reaction force actuator; - a steering handle angle sensor; - at least one first control device for actuating the reaction force actuator,
A method for recycling chlorine in the production of titanium tetrachloride, the method is comprised of the following steps: a) contacting chlorine with a titanium-bearing feedstock which comprises iron to obtain a chloride mixture comprising ferrous chloride and titanium tetrachloride, b) separating the ferrous chloride from the chloride mixture, c) contacting the ferrous chloride with an aqueous solution of concentrated sulfuric acid to obtain iron sulfate and gaseous hydrochloric acid, d) converting at least a portion of the obtained gaseous hydrochloric acid into chlorine, and e) using at least a portion of the chlorine obtained in step d) in step a). a) contacting chlorine with a titanium-bearing feedstock which comprises iron to obtain a chloride mixture comprising ferrous chloride and titanium tetrachloride, b) separating the ferrous chloride from the chloride mixture, c) contacting the ferrous chloride with an aqueous solution of concentrated sulfuric acid to obtain iron sulfate and gaseous hydrochloric acid, d) converting at least a portion of the obtained gaseous hydrochloric acid into chlorine, and e) using at least a portion of the chlorine obtained in step d) in step a).
A method for controlling video recording, wherein the method comprises: starting, by an apparatus for controlling video recording, video recording with a camera in response to a multi-touch operation on a touch-control area; wherein the apparatus for controlling video recording is configured to control a head-wearable device, and the head-wearable device is provided with the camera and the touch-control area; wherein one touch point is formed where each finger touches the touch-control area, a user can complete the multi-touch operation with no less than two fingers; adjusting, by the apparatus, in a process of the video recording, a zoom ratio for the video recording according to a moving track of a touch point corresponding to the multi-touch operation; and terminating, by the apparatus, the video recording when it is determined that a recording termination condition is met, wherein the recording termination condition comprises that the multi-touch operation disappears and a duration of the disappearing reaches a first preset duration; characterised in that therein the method further comprises: performing, by the apparatus, a photographing operation and maintaining the video recording, in the process of the video recording, when a part of the touch points disappears and then recovers within a fourth preset duration. starting, by an apparatus for controlling video recording, video recording with a camera in response to a multi-touch operation on a touch-control area; wherein the apparatus for controlling video recording is configured to control a head-wearable device, and the head-wearable device is provided with the camera and the touch-control area; wherein one touch point is formed where each finger touches the touch-control area, a user can complete the multi-touch operation with no less than two fingers; adjusting, by the apparatus, in a process of the video recording, a zoom ratio for the video recording according to a moving track of a touch point corresponding to the multi-touch operation; and terminating, by the apparatus, the video recording when it is determined that a recording termination condition is met, wherein the recording termination condition comprises that the multi-touch operation disappears and a duration of the disappearing reaches a first preset duration; characterised in that therein the method further comprises: performing, by the apparatus, a photographing operation and maintaining the video recording, in the process of the video recording, when a part of the touch points disappears and then recovers within a fourth preset duration.
A method of fracturing a formation and tracing production fluid via a single downhole multifunctional valve assembly, comprising: deploying the valve assembly within a wellbore provided in a hydrocarbon-bearing formation, the valve assembly being configured to define: a fracturing fluid pathway into the formation; and an enclosed tracer compartment comprising a tracer material sealed therein; delivering fracturing fluid into the wellbore and through the fracturing fluid pathway to enter and fracture the hydrocarbon-bearing formation; closing the fracturing fluid pathway after fracturing; opening the tracer compartment to provide a tracing fluid pathway for production fluid to flow from the hydrocarbon-bearing formation, along the tracer compartment to allow contact with and release of the tracer material, and then into the wellbore to enable flow up to surface. deploying the valve assembly within a wellbore provided in a hydrocarbon-bearing formation, the valve assembly being configured to define: a fracturing fluid pathway into the formation; and an enclosed tracer compartment comprising a tracer material sealed therein; a fracturing fluid pathway into the formation; and an enclosed tracer compartment comprising a tracer material sealed therein; delivering fracturing fluid into the wellbore and through the fracturing fluid pathway to enter and fracture the hydrocarbon-bearing formation; closing the fracturing fluid pathway after fracturing; opening the tracer compartment to provide a tracing fluid pathway for production fluid to flow from the hydrocarbon-bearing formation, along the tracer compartment to allow contact with and release of the tracer material, and then into the wellbore to enable flow up to surface.
A compound represented by the following formula: or a salt thereof, wherein R 1 is a group selected from hydrogen, hydroxyl group, carboxyl group, sulfate group, amino group, nitro group, cyano group, an alkyl substituent with one to 4 carbon atoms or an alkoxy substituent with one to 4 carbon atoms; R 2 is a radioactive halogen substituent; and m is an integer of 0 to 2. wherein R 1 is a group selected from hydrogen, hydroxyl group, carboxyl group, sulfate group, amino group, nitro group, cyano group, an alkyl substituent with one to 4 carbon atoms or an alkoxy substituent with one to 4 carbon atoms; R 2 is a radioactive halogen substituent; and m is an integer of 0 to 2.
A system for dispensing a cryogenic fluid comprising: a) a bulk tank (10, 60) adapted to contain a supply of cryogenic liquid; b) a heating circuit including an intermediate tank (32, 80) and a heating device, said heating circuit having an inlet in fluid communication with the bulk tank (10, 60) and an outlet; and where the heating device is configured to warm liquid after the liquid travels from the bulk tank (10, 60) to the intermediate tank (32, 80); c) a bypass junction (26, 76) positioned between, and in fluid communication with, the bulk tank (10, 60) and the inlet of the heating circuit; d) a bypass circuit having an inlet in fluid communication with the bypass junction (26, 76) and an outlet; e) a mixing junction (36, 86) in fluid communication with the outlets of the bypass circuit and the heating circuit; and f) a dispensing line in fluid communication with the mixing junction (36, 86). a) a bulk tank (10, 60) adapted to contain a supply of cryogenic liquid; b) a heating circuit including an intermediate tank (32, 80) and a heating device, said heating circuit having an inlet in fluid communication with the bulk tank (10, 60) and an outlet; and where the heating device is configured to warm liquid after the liquid travels from the bulk tank (10, 60) to the intermediate tank (32, 80); c) a bypass junction (26, 76) positioned between, and in fluid communication with, the bulk tank (10, 60) and the inlet of the heating circuit; d) a bypass circuit having an inlet in fluid communication with the bypass junction (26, 76) and an outlet; e) a mixing junction (36, 86) in fluid communication with the outlets of the bypass circuit and the heating circuit; and f) a dispensing line in fluid communication with the mixing junction (36, 86).