mhurhangee/patent-ind-claim-en huggingface dataset:
A method in a media device for distributing audio to wireless speakers while content comprising the audio is being played on a display device , wherein the media device includes a single wireless radio , the method comprising: determining that the media device is not a source of the content currently being played on the display device, such that the media device does not need to stream the content from a content source over a first wireless network and provide the content to the display device for playback; informing, by the media device, the wireless speakers to switch from the first wireless network to a second wireless network ; disconnecting the media device from the first wireless network; establishing the second wireless network between the media device and the wireless speakers; and providing, by the media device, the audio to the wireless speakers for playback over the second wireless network. determining that the media device is not a source of the content currently being played on the display device, such that the media device does not need to stream the content from a content source over a first wireless network and provide the content to the display device for playback; informing, by the media device, the wireless speakers to switch from the first wireless network to a second wireless network ; disconnecting the media device from the first wireless network; establishing the second wireless network between the media device and the wireless speakers; and providing, by the media device, the audio to the wireless speakers for playback over the second wireless network.
A wireless base station comprising: a wireless parameter control unit configured to determine whether it is necessary to perform wireless parameter optimization in an own wireless base station (42-1); and a determination unit configured to determine whether another wireless base station (42-2) performs wireless parameter optimization in the another wireless base station (42-2) when the wireless parameter control unit determines that it is necessary to perform the wireless parameter optimization, wherein the wireless parameter control unit is configured to perform wireless parameter optimization in the own wireless base station (42-1) when the determination unit determines that the another wireless base station (42-2) does not perform wireless parameter optimization in the another wireless base station (42-2), wherein the wireless parameter control unit is configured to cancel to perform wireless parameter optimization in the own wireless base station (42-1) when the determination unit determines that the another wireless base station (42-2) performs wireless parameter optimization in the another wireless base station (42-2), and being characterized in that : even when the determination unit determines that the another wireless base station (42-2) is performing wireless parameter optimization in the another wireless base station (42-2), the wireless parameter control unit is configured to perform wireless parameter optimization in the own wireless base station (42-1) when the another wireless base station (42-2) is not included in a predetermined list. a wireless parameter control unit configured to determine whether it is necessary to perform wireless parameter optimization in an own wireless base station (42-1); and a determination unit configured to determine whether another wireless base station (42-2) performs wireless parameter optimization in the another wireless base station (42-2) when the wireless parameter control unit determines that it is necessary to perform the wireless parameter optimization, wherein the wireless parameter control unit is configured to perform wireless parameter optimization in the own wireless base station (42-1) when the determination unit determines that the another wireless base station (42-2) does not perform wireless parameter optimization in the another wireless base station (42-2), wherein the wireless parameter control unit is configured to cancel to perform wireless parameter optimization in the own wireless base station (42-1) when the determination unit determines that the another wireless base station (42-2) performs wireless parameter optimization in the another wireless base station (42-2), and being characterized in that : even when the determination unit determines that the another wireless base station (42-2) is performing wireless parameter optimization in the another wireless base station (42-2), the wireless parameter control unit is configured to perform wireless parameter optimization in the own wireless base station (42-1) when the another wireless base station (42-2) is not included in a predetermined list.
A controller for controlling a robotic device configured for insertion into an anatomical structure of a subject , the controller comprising: at least one processor ; and a non-transitory memory for storing machine executable instructions that, when executed by the at least one processor , cause the at least one processor to: receive ultrasound image data from an imaging interface device , the ultrasound image data corresponding to an ultrasound image showing the anatomical structure and a portion of the robotic device within in the anatomical structure , wherein the imaging interface device is maneuverable for providing the ultrasound image data; detect a movement, or receive an information representative of the detected movement of the imaging interface device derived from content of the ultrasound image data; and output at least one command for controlling movement of the robotic device from a first position to a second position in response to the detected movement of the imaging interface device . at least one processor ; and a non-transitory memory for storing machine executable instructions that, when executed by the at least one processor , cause the at least one processor to: receive ultrasound image data from an imaging interface device , the ultrasound image data corresponding to an ultrasound image showing the anatomical structure and a portion of the robotic device within in the anatomical structure , wherein the imaging interface device is maneuverable for providing the ultrasound image data; detect a movement, or receive an information representative of the detected movement of the imaging interface device derived from content of the ultrasound image data; and output at least one command for controlling movement of the robotic device from a first position to a second position in response to the detected movement of the imaging interface device . receive ultrasound image data from an imaging interface device , the ultrasound image data corresponding to an ultrasound image showing the anatomical structure and a portion of the robotic device within in the anatomical structure , wherein the imaging interface device is maneuverable for providing the ultrasound image data; detect a movement, or receive an information representative of the detected movement of the imaging interface device derived from content of the ultrasound image data; and output at least one command for controlling movement of the robotic device from a first position to a second position in response to the detected movement of the imaging interface device .
A microfluidic device component for establishing a gradient, comprising a chamber defining an interior space; and two or more inlet ports that deliver two or more different fluids to the interior space of the chamber and two or more outlet ports, wherein the two or more inlet ports and the two or more outlet ports are located so that the flow of the two or more fluids into the interior spaces results in formation of a gradient across the interior space; wherein the interior space comprises a plurality of regularly spaced columns throughout the interior space and wherein the interior space further comprises a plurality of wells interspersed between the plurality of columns and wherein each well is in fluid communication with adjacent wells.
A magnetic resonance imaging apparatus comprising an apparatus adapted to provide content related to capture of a medical magnetic resonance image of an object, the apparatus including: an information acquiring unit , comprising a protocol acquirer configured to acquire information related to a capture protocol; a content determiner configured to determine content to be provided to the object, on a basis of said acquired information related to a capture protocol; and an output unit , including a display unit, said display unit configured to output the determined content to the object while capturing the magnetic resonance image, said content comprising: information related to a capture protocol currently being executed, said information being a pulse sequence related to current capture and a degree of execution of capture for a currently captured slice image; and information related to a capture protocol to be executed later . an information acquiring unit , comprising a protocol acquirer configured to acquire information related to a capture protocol; a content determiner configured to determine content to be provided to the object, on a basis of said acquired information related to a capture protocol; and an output unit , including a display unit, said display unit configured to output the determined content to the object while capturing the magnetic resonance image, said content comprising: information related to a capture protocol currently being executed, said information being a pulse sequence related to current capture and a degree of execution of capture for a currently captured slice image; and information related to a capture protocol to be executed later . information related to a capture protocol currently being executed, said information being a pulse sequence related to current capture and a degree of execution of capture for a currently captured slice image; and information related to a capture protocol to be executed later .
A method of maintaining a concentration of sulfuric acid in an electrolyte comprising manganese(III) ions, wherein the manganese (III) ions form a metastable complex in a solution of sulfuric acid, the method comprising the steps of: a) monitoring the electrolyte in an electrolytic cell to determine a concentration of sulfuric acid in the electrolyte; b) removing a portion of the electrolyte from the electrolytic cell to an annex tank if the concentration of sulfuric acid decreases to less than 8 molar; c) treating the removed portion of the electrolyte in the annex tank to remove moisture from the portion of the electrolyte and restore the concentration of sulfuric acid to between 12 and 13 molar; and d) returning the treated portion of the electrolyte to the electrolytic cell; wherein moisture in the treated portion of the electrolyte is removed or reduced and the concentration of sulfuric acid is restored. a) monitoring the electrolyte in an electrolytic cell to determine a concentration of sulfuric acid in the electrolyte; b) removing a portion of the electrolyte from the electrolytic cell to an annex tank if the concentration of sulfuric acid decreases to less than 8 molar; c) treating the removed portion of the electrolyte in the annex tank to remove moisture from the portion of the electrolyte and restore the concentration of sulfuric acid to between 12 and 13 molar; and d) returning the treated portion of the electrolyte to the electrolytic cell; wherein moisture in the treated portion of the electrolyte is removed or reduced and the concentration of sulfuric acid is restored.
A control system for a tillage implement configured to till ground, wherein the tillage implement includes a central section , wherein said control system comprises: a front sensor positioned on a front of the central section , wherein the front sensor is configured to obtain height information indicative of a height of the front of the central section above a ground; a rear sensor positioned on a rear of the central section , wherein the rear sensor is configured to obtain height information indicative of a height of the rear of the central section above the ground; a leveling assembly configured to adjust a front to rear orientation of the central section ; and a controller configured to receive the height information from the front sensor and the height information from the rear sensor , and to provide instructions to the leveling assembly to adjust the front to rear orientation of the central section based on the received height information, characterized in that said tillage implement further includes a left wing section and a right wing section , and actuators connecting the central section with each wing section to fold the wing sections upward and/or downward, wherein each wing section includes a sensor configured to obtain height information indicative of a height of the wing section above the ground, wherein said control system is configured to compare the heights of the wing sections with the height of the central section , and wherein said control system is configured to provide instructions to the actuators to adjust the levels of the wing sections to level the wings sections relative to the central section . a front sensor positioned on a front of the central section , wherein the front sensor is configured to obtain height information indicative of a height of the front of the central section above a ground; a rear sensor positioned on a rear of the central section , wherein the rear sensor is configured to obtain height information indicative of a height of the rear of the central section above the ground; a leveling assembly configured to adjust a front to rear orientation of the central section ; and a controller configured to receive the height information from the front sensor and the height information from the rear sensor , and to provide instructions to the leveling assembly to adjust the front to rear orientation of the central section based on the received height information, characterized in that said tillage implement further includes a left wing section and a right wing section , and actuators connecting the central section with each wing section to fold the wing sections upward and/or downward, wherein each wing section includes a sensor configured to obtain height information indicative of a height of the wing section above the ground, wherein said control system is configured to compare the heights of the wing sections with the height of the central section , and wherein said control system is configured to provide instructions to the actuators to adjust the levels of the wing sections to level the wings sections relative to the central section .
Method for designing a retrofitting device for retrofitting a receiving body for establishing compatibility with a suitcase for transporting transport goods, which suitcase is coupleable with another suitcase by coupling structures , wherein the method comprises: identifying coupling structures of the suitcase which are required for establishing compatibility; manufacturing the retrofitting device with the coupling structures which are mimicking the identified coupling structures ; connecting the receiving body with the retrofitting device , such that the receiving body which is connected with the retrofitting device is coupleable with the suitcase by the coupling structures of the retrofitting device and by the coupling structures of the suitcase ; wherein the retrofitting device is formed as a ledge profile ; wherein the coupling structures of the suitcase are configured such that the suitcase and another suitcase which comprises coupling structures as further suitcase , by the coupling structures , on top of each other are selectively: vertically detachably stackable in a slide-secured manner; or vertically non-detachably coupleable with each other; wherein the coupling structures of the suitcase are formed such that the suitcase and the other suitcase, by the coupling structures , in the state in which they are vertically non-detachably coupled with each other on top of each other, are selectively slidable with respect to each other; or by actuating the coupling structures are slide-securable with respect to each other. identifying coupling structures of the suitcase which are required for establishing compatibility; manufacturing the retrofitting device with the coupling structures which are mimicking the identified coupling structures ; connecting the receiving body with the retrofitting device , such that the receiving body which is connected with the retrofitting device is coupleable with the suitcase by the coupling structures of the retrofitting device and by the coupling structures of the suitcase ; wherein the retrofitting device is formed as a ledge profile ; wherein the coupling structures of the suitcase are configured such that the suitcase and another suitcase which comprises coupling structures as further suitcase , by the coupling structures , on top of each other are selectively: vertically detachably stackable in a slide-secured manner; or vertically non-detachably coupleable with each other; vertically detachably stackable in a slide-secured manner; or vertically non-detachably coupleable with each other; wherein the coupling structures of the suitcase are formed such that the suitcase and the other suitcase, by the coupling structures , in the state in which they are vertically non-detachably coupled with each other on top of each other, are selectively slidable with respect to each other; or by actuating the coupling structures are slide-securable with respect to each other. slidable with respect to each other; or by actuating the coupling structures are slide-securable with respect to each other.
A linkage apparatus for actuation of a positioning device, the linkage apparatus comprising: a pivot member having a head portion configured to receive by plastic deformation a bearing assembly therein, the head portion defining a bore therein having a substantially cylindrical inner surface that defines an inner diameter (D2) having a first center point (XI), the head portion further defining a truncated arcuate outer surface , a portion of the truncated arcuate outer surface defines a radius of curvature and a second center point (X2); a stem having a central axis (A2), the stem extending from the pivot member along the central axis (A2) in a first direction; and the second center point (X2) is offset from the first center point (X1) in the first direction and a distance (D3) between the first center point (X1) and the second center point (X2), measured along the central axis (A2), is up to about 33% of the radius of curvature. a pivot member having a head portion configured to receive by plastic deformation a bearing assembly therein, the head portion defining a bore therein having a substantially cylindrical inner surface that defines an inner diameter (D2) having a first center point (XI), the head portion further defining a truncated arcuate outer surface , a portion of the truncated arcuate outer surface defines a radius of curvature and a second center point (X2); a stem having a central axis (A2), the stem extending from the pivot member along the central axis (A2) in a first direction; and the second center point (X2) is offset from the first center point (X1) in the first direction and a distance (D3) between the first center point (X1) and the second center point (X2), measured along the central axis (A2), is up to about 33% of the radius of curvature.
Drilling tool, in particular twist drill for metallic materials, plastics or composite materials (compound materials), with a shank and a drill bit which has at least two main cutting edges, preferably three or more main cutting edges , on its end face, which are formed by respective adjacent chip and flank faces, wherein one of the main cutting edges extends at least as far as the longitudinal axis of the drill, and with straight or helical flutes, characterized in that the main cutting edges possess an outer cutting point which lies outside the longitudinal axis of the drill and projects as seen in the direction of the drilling progress, from which the main cutting edges slope towards the longitudinal axis of the drill, and in that the radially outermost projecting cutting points of the main cutting edges are adjoined by a drag cutting edge which is inclined by at least 10° relative to the remaining lateral surface lying parallel to the longitudinal axis of the drill and possesses a longitudinal axial extension (a) of between 1.5 mm and 5 mm.
A Rogowski coil comprising: a magnetic core having a relative permeability greater than one and less than twenty and including a core body , the core body encircling a conductor configured to carry a current at a frequency; and a winding including a conductive wire disposed generally helically about the core body thereby forming a coil configured to generate an output whose amplitude is proportional to the frequency according to: N × μ r × μ 0 × A / l × 2 × π × f × I , where N is a number of turns of the coil , μ r is the relative permeability of the magnetic core , μ 0 is a permeability of free space, A is a cross sectional area of the core body , l is an average circumference of the core body, and f is the frequency of the current / in the conductor ; wherein the core body is a magnetic core body which, prior to magnetic saturation, has a transfer impedance of between 1mV/A and 20mV/A at 60 Hz to cause the Rogowski coil to produce a detectable voltage. a magnetic core having a relative permeability greater than one and less than twenty and including a core body , the core body encircling a conductor configured to carry a current at a frequency; and a winding including a conductive wire disposed generally helically about the core body thereby forming a coil configured to generate an output whose amplitude is proportional to the frequency according to: N × μ r × μ 0 × A / l × 2 × π × f × I , where N is a number of turns of the coil , μ r is the relative permeability of the magnetic core , μ 0 is a permeability of free space, A is a cross sectional area of the core body , l is an average circumference of the core body, and f is the frequency of the current / in the conductor ; wherein the core body is a magnetic core body which, prior to magnetic saturation, has a transfer impedance of between 1mV/A and 20mV/A at 60 Hz to cause the Rogowski coil to produce a detectable voltage.
A seating/reclining furniture arrangement comprising at least one seating/reclining unit and a supplementary module fastened to the seating/reclining unit , wherein the supplementary module has a base and a top part which is movable between a closed position and an access position, with a functional region provided at the base being accessible in the access position of the top part , characterized in that the top part is movable in a plane defined by a seating/reclining part of the seating/reclining unit .
A Ni-based alloy product, being a production base material for an Ni-based alloy member in which a γ' phase that is thermodynamically stable in a temperature range of 700 to 900°C is present at a ratio of 36 to 60 volume %, wherein the Ni-based alloy product is made from an Ni-based alloy material having an ingredient composition such that a γ' phase of at a ratio of 36-60 volume % can be precipitated , wherein the Ni-based alloy product has two-phase structure composed of crystalline grains of the γ (gamma) phase and crystalline grains of the γ' (gamma prime) phase that is incoherent in crystalline lattice parameters with the γ phase, the crystalline grains of the γ phase and the crystalline grains of the incoherent γ' phase being located through grain boundaries of an incoherent interface, wherein the incoherent γ' phase is present at a ratio of 20 volume % or higher in the two-phase structure, and wherein the Ni-based alloy product has a Vickers hardness equal to or less than 400 Hv.