mhurhangee/patent-ind-claim-en huggingface dataset:
A method of operating a multi-talker system comprising at least one audio signal receiver device and a plurality of audio signal transmission devices , wherein each audio signal transmission device comprises an audio input for capturing a local audio signal, and wherein each audio signal transmission device comprises a transceiver for receiving a remote audio signal from at least one of the other audio signal transmission devices and for transmitting an audio signal to at least one of the other audio signal transmission devices or to one of the audio signal receiver devices, and a mixer for mixing the received remote audio signal and the captured local audio signal to obtain a mixed audio signal, the method comprising: - assigning a mixer role to one of the audio signal transmission devices in which it receives a remote audio signal from at least one of the audio signal transmission devices, mixes the received remote audio signal with the captured local audio signal and transmits the mixed audio signal to the at least one audio signal receiver device; and - assigning a chained-talker role to one of the audio signal transmission devices in which it sends its captured local audio signal to the audio signal transmission device which is in the mixer role; characterised in that the mixer role and the chained-talker role are dynamically assigned depending on at least an analysis of the captured local audio signals. a transceiver for receiving a remote audio signal from at least one of the other audio signal transmission devices and for transmitting an audio signal to at least one of the other audio signal transmission devices or to one of the audio signal receiver devices, and a mixer for mixing the received remote audio signal and the captured local audio signal to obtain a mixed audio signal, - assigning a mixer role to one of the audio signal transmission devices in which it receives a remote audio signal from at least one of the audio signal transmission devices, mixes the received remote audio signal with the captured local audio signal and transmits the mixed audio signal to the at least one audio signal receiver device; and - assigning a chained-talker role to one of the audio signal transmission devices in which it sends its captured local audio signal to the audio signal transmission device which is in the mixer role;
An offshore aquaculture facility based on modified bulk cargo ship comprising a movable hoisting system located on a deck of the facility, a number of cultivation tanks located below the deck , water changing systems in the cultivation tanks , void spaces between the shell plate of the offshore aquaculture facility and an outer side wall of the cultivation tanks to provide buoyancy for the facility, as well as auxiliary compartments equipped with a water monitoring system and equipment compartments on the deck , and a mooring device installed in bow deck of the facility, wherein said mooring device is a single point mooring device comprising a mooring steel arm (4.1) which is connected to the bow of the offshore aquaculture facility by a rotating shaft structure (4.2), and to a single point buoy structure (4.4) by a universal joint (4.3), the single point buoy structure (4.4) comprising a turntable structure (4.5) which is rotatably connected in its center via a rotary bearing (4.6) to a rotary head (4.7) at the bottom of the single point structure, the rotary head (4.7) being fitted with six mooring anchor chains (4.8) and having six chain holes at the bottom, the mooring anchor chains (4.8) extending outside the rotary head through the chain holes which are provided with chain stoppers (4.9) to control the length of the chains, wherein the cultivation tanks are provided with fish suction and collection holes (2.5),wherein a number of water changing holes (2.1) on the cultivation tanks are connected with open holes connected to the sea on the shell plate of the facility, wherein the bottom of the cultivation tanks is provided with a water ballast pump inlet (2.4) and a dead fish collection hole (2.2) connected with a dead fish collection compartment, wherein a side wall of the cultivation tanks is installed with an oxygenation device (2.3), an outlet for the oxygenation device (2.3) being located at the bottom of the cultivation tank .
Method for producing and assembling a control device comprising at least one capacitive sensor element for detecting a control panel of the control device being touched or approached, wherein the control device comprises a main body and a printed circuit board , wherein the main body can be fixed to a contact surface of the control panel by a seating surface , wherein the printed circuit board , comprising at least one light source for illuminating the control panel , can be arranged on and fixed to the main body at a distance from the seating surface , and wherein at least one electrically conductive coupling element is arranged between the seating surface of the main body and the at least one capacitive sensor element , which is arranged on the printed circuit board , in order to transmit a change in capacitance in the region of the control panel to the at least one capacitive sensor element , wherein, using the method, the main body and the printed circuit board are produced in one production step , and wherein, in an assembly step , the printed circuit board is connected to the main body and the at least one capacitive sensor element on the printed circuit board is capacitively couplingly or electrically conductively connected to the at least one electrically conductive coupling element , wherein, in a coupling-element arranging step , the at least one coupling element is formed on or embedded in the main body produced from plastics material in an injection-moulding process and a one-piece main-body coupling element is thus produced, and wherein, in the subsequent assembly step , the printed circuit board is fixed to the main-body coupling element and, in the process, the at least one capacitive sensor element is pressed against the at least one electrically conductive coupling element , characterised in that a plurality of capacitive sensor elements are arranged on the printed circuit board , in that , in the coupling-element arranging step , a plurality of electrically conductive coupling elements are formed on or embedded in the main body produced from plastics material in an injection-moulding process, and in that the main body is produced from a non-transparent plastics material and in that the coupling elements are formed in the coupling-element arranging step such that the coupling elements surround, in a sleeve-shaped manner, a cavity which extends from the printed circuit board up to a recess in the seating surface of the main body and comprises a non-transparent wall.
A method for operating a mobile station in a carrier aggregation, CA, mode, in a wireless communication system which supports multiple bands, the method comprising: receiving , from a base station, information of a feedback region, the feedback region being in a primary carrier; and transmitting , to the base station, feedback information related to a secondary carrier via the feedback region in the primary carrier, wherein the primary carrier is used for a downlink signaling and an uplink signaling, wherein the secondary carrier is used for the downlink signaling, and wherein the information of the feedback region is transmitted from the base station, by using the secondary carrier. receiving , from a base station, information of a feedback region, the feedback region being in a primary carrier; and transmitting , to the base station, feedback information related to a secondary carrier via the feedback region in the primary carrier, wherein the primary carrier is used for a downlink signaling and an uplink signaling, wherein the secondary carrier is used for the downlink signaling, and wherein the information of the feedback region is transmitted from the base station, by using the secondary carrier.
A vacuum insulation panel manufacturing method being characterised by the following steps : a stacking step in which a first metal plate is stacked on one side of an insulating core member, and in which a backing member having an opening and a second metal plate having an evacuation port are stacked, with the opening and the evacuation port stacking, on the other surface of the core member in the order of the backing member and the second metal plate from the core member side; a first welding step for welding outwards of where the core member is arranged in the first metal plate and the second metal plate; an evacuating step for applying a vacuum in an inner area which is held between the first metal plate and the second metal plate and in which the core member is arranged, from the evacuation port; and a laser welding step in which, in a state in which the inner area is made into a vacuum by the evacuating step, the evacuation port is sealed by means of a sealing member, and the sealing member, the second metal plate and the backing member are laser welded. a stacking step in which a first metal plate is stacked on one side of an insulating core member, and in which a backing member having an opening and a second metal plate having an evacuation port are stacked, with the opening and the evacuation port stacking, on the other surface of the core member in the order of the backing member and the second metal plate from the core member side; a first welding step for welding outwards of where the core member is arranged in the first metal plate and the second metal plate; an evacuating step for applying a vacuum in an inner area which is held between the first metal plate and the second metal plate and in which the core member is arranged, from the evacuation port; and a laser welding step in which, in a state in which the inner area is made into a vacuum by the evacuating step, the evacuation port is sealed by means of a sealing member, and the sealing member, the second metal plate and the backing member are laser welded.
Device for the metered filling of a drinking straw with a filling material - comprising a receiving unit for receiving the drinking straw , - comprising at least one material store as a storage container for the filling material , - comprising a filling unit, a defined quantity of the filling material being able to be removed from the at least one material store and transferred into the drinking straw by means of said filling unit, - wherein the filling unit comprises at least one metering chamber , which is displaceably mounted so that the metering chamber is present alternately in a first position and in a second position , - wherein in the first position the metering chamber is in contact with the material store so that filling material is able to be filled into the metering chamber from the material store , - wherein in the second position the metering chamber is arranged above the drinking straw so that the filling material located in the metering chamber is able to be emptied into the drinking straw , - characterized in that - the metering chamber is displaceable in the forward direction and in the opposing direction thereto. - comprising a receiving unit for receiving the drinking straw , - comprising at least one material store as a storage container for the filling material , - comprising a filling unit, a defined quantity of the filling material being able to be removed from the at least one material store and transferred into the drinking straw by means of said filling unit, - wherein the filling unit comprises at least one metering chamber , which is displaceably mounted so that the metering chamber is present alternately in a first position and in a second position , - wherein in the first position the metering chamber is in contact with the material store so that filling material is able to be filled into the metering chamber from the material store , - wherein in the second position the metering chamber is arranged above the drinking straw so that the filling material located in the metering chamber is able to be emptied into the drinking straw , - characterized in that - the metering chamber is displaceable in the forward direction and in the opposing direction thereto.
Method for the intermittent interruption of a track blockade of a mobile track securing installation of multiple track sections of railway , wherein the track blockade comprises a rail base holder to be fastened on the rail base of a rail of the operating track of the section of railway, a support connected thereto and a frame, wherein the frame has a horizontal arm and a rising arm , wherein arranged on the rising arm is at least one blocking means extending along the track, wherein the rising arm is connected to the horizontal arm in an articulated manner and, if the rising arm comprises several parts connected to each other at angles, the parts of the rising arm are also connected to each other in an articulated manner, wherein to interrupt the track blockade the rising arm or its parts above the support is/are moved into the horizontal position, characterised in that the rising arm or its parts is/are displaceable along the support , wherein the rising arm or its parts are swung away from the rail base holder and as soon as the rising arm or its parts has/have reached a horizontal position, these are displaced along the support in the direction of the rail base holder .
A medical test card for detecting an analyte comprising: a planar body ; an analyte detection means enclosed within the planar body , the analyte detection means configured to provide a colorimetric change when a portion of the analyte detection means is contacted with the analyte; an opening feature comprising a strip in the planar body , wherein the analyte detection means is coupled to a face of the strip , the strip having a pull tab which when lifted pivots the strip away from the planar body so that the strip extends from the planar body to provide access to the analyte detection means enclosed within the planar body to contact the analyte detection means with a sample; and an optical code including information identifying the analyte detection means . a planar body ; an analyte detection means enclosed within the planar body , the analyte detection means configured to provide a colorimetric change when a portion of the analyte detection means is contacted with the analyte; an opening feature comprising a strip in the planar body , wherein the analyte detection means is coupled to a face of the strip , the strip having a pull tab which when lifted pivots the strip away from the planar body so that the strip extends from the planar body to provide access to the analyte detection means enclosed within the planar body to contact the analyte detection means with a sample; and an optical code including information identifying the analyte detection means .
Optical coupling device including: at least one supporting layer comprising a first support wall , a second support wall and at least one bridging waveguide for coupling electromagnetic radiation to and from an optical resonator or optical device , the at least one bridging waveguide extending between the first support wall and the second support wall , further including at least one recess or trench structure surrounding the at least one bridging waveguide , wherein the at least one bridging waveguide extends inside the at least one supporting layer between the first support wall and the second support wall ; and the first support wall and the second support wall hold the at least one bridging waveguide in suspension or over-hanging in the at least one recess or trench structure ,wherein the optical coupling device further includes: - at least one input optical waveguide ; and - at least one output optical waveguide ; the at least one bridging waveguide being located between the at least one input optical waveguide and the at least one output optical waveguide , and wherein the at least one input optical waveguide includes a tapered output end , and the at least one output optical waveguide includes a tapered input end , characterized in that the tapered output end of the at least one input optical waveguide is enclosed by a first tapered end of the at least one bridging waveguide , and the tapered input end of the at least one output optical waveguide is enclosed by a second tapered end of the at least one bridging waveguide . at least one supporting layer comprising a first support wall , a second support wall and at least one bridging waveguide for coupling electromagnetic radiation to and from an optical resonator or optical device , the at least one bridging waveguide extending between the first support wall and the second support wall , further including at least one recess or trench structure surrounding the at least one bridging waveguide , wherein the at least one bridging waveguide extends inside the at least one supporting layer between the first support wall and the second support wall ; and the first support wall and the second support wall hold the at least one bridging waveguide in suspension or over-hanging in the at least one recess or trench structure ,wherein the optical coupling device further includes: - at least one input optical waveguide ; and - at least one output optical waveguide ; - at least one input optical waveguide ; and - at least one output optical waveguide ; the at least one bridging waveguide being located between the at least one input optical waveguide and the at least one output optical waveguide , and wherein the at least one input optical waveguide includes a tapered output end , and the at least one output optical waveguide includes a tapered input end , characterized in that the tapered output end of the at least one input optical waveguide is enclosed by a first tapered end of the at least one bridging waveguide , and the tapered input end of the at least one output optical waveguide is enclosed by a second tapered end of the at least one bridging waveguide .
An aircraft brake temperature control system for controlling a temperature of a brake of a landing gear of an aircraft , the aircraft brake temperature control system comprising a controller that is configured to cause at least one fluid moving device to drive a flow of fluid onto the brake, selectively in one of a plurality of modes, to control the temperature of the brake, characterised in that the controller is configured to cause the at least one fluid moving device to drive the flow of fluid onto the brake to control the temperature of the brake, on the basis of a condition indicating to the controller that the aircraft is in-flight.
A system, comprising: an agent configured to: execute on a conference room device , wherein the conference room device is configured to communicably couple with peripheral devices (114, 116, 118, 120, 122, 124, 126, and 128) within a conference room via short-range wireless or wired communication; capture : room specific data signals from the peripheral devices (114, 116, 118, 120, 122, 124, 126, and 128); operating system data signals associated with the peripheral devices (114, 116, 118, 120, 122, 124, 126, and 128); and application data signals obtained from a conferencing service application of the conference room device ; and package the room specific data signals, the operating system data signals, and the application data signals with system metadata in a non-redundant configuration into room health data; and a transmitter configured to transmit the room health data to a management cloud via a communications broker; and a receiver configured to receive a room health assessment and a corresponding remediation strategy for the conference room from the management cloud ; wherein the agent is configured to automatically implement at least a portion of the remediation strategy. execute on a conference room device , wherein the conference room device is configured to communicably couple with peripheral devices (114, 116, 118, 120, 122, 124, 126, and 128) within a conference room via short-range wireless or wired communication; capture : room specific data signals from the peripheral devices (114, 116, 118, 120, 122, 124, 126, and 128); operating system data signals associated with the peripheral devices (114, 116, 118, 120, 122, 124, 126, and 128); and application data signals obtained from a conferencing service application of the conference room device ; and room specific data signals from the peripheral devices (114, 116, 118, 120, 122, 124, 126, and 128); operating system data signals associated with the peripheral devices (114, 116, 118, 120, 122, 124, 126, and 128); and application data signals obtained from a conferencing service application of the conference room device ; and package the room specific data signals, the operating system data signals, and the application data signals with system metadata in a non-redundant configuration into room health data; and a transmitter configured to transmit the room health data to a management cloud via a communications broker; and a receiver configured to receive a room health assessment and a corresponding remediation strategy for the conference room from the management cloud ; wherein the agent is configured to automatically implement at least a portion of the remediation strategy.
A source Low power and Lossy Network, LLN, device (1; 220; 30) comprising: a non-transitory memory having instructions stored thereon for reserving a path in a 6TiSCH network; and a processor , operably coupled to the memory, the processor configured to perform the instructions of: sending a path computation request to a backbone router via a routing protocol path; receiving a computation reply from the backbone router based upon the request; and assigning a soft cell on the path between the source LLN device (1; 220; 30) and a destination LLN device (4; 220; 30), wherein the assigning step includes: sending a path assignment request message to an intermediate LLN device; receiving a path assignment confirmation from the intermediate LLN device; and receiving a path assignment reply from the destination LLN device; wherein a soft cell is sequentially reserved between the source LLN device, the intermediate LLN device and the destination LLN device. a non-transitory memory having instructions stored thereon for reserving a path in a 6TiSCH network; and a processor , operably coupled to the memory, the processor configured to perform the instructions of: sending a path computation request to a backbone router via a routing protocol path; receiving a computation reply from the backbone router based upon the request; and assigning a soft cell on the path between the source LLN device (1; 220; 30) and a destination LLN device (4; 220; 30), wherein the assigning step includes: sending a path assignment request message to an intermediate LLN device; receiving a path assignment confirmation from the intermediate LLN device; and receiving a path assignment reply from the destination LLN device; sending a path computation request to a backbone router via a routing protocol path; receiving a computation reply from the backbone router based upon the request; and assigning a soft cell on the path between the source LLN device (1; 220; 30) and a destination LLN device (4; 220; 30), wherein the assigning step includes: sending a path assignment request message to an intermediate LLN device; receiving a path assignment confirmation from the intermediate LLN device; and receiving a path assignment reply from the destination LLN device; sending a path assignment request message to an intermediate LLN device; receiving a path assignment confirmation from the intermediate LLN device; and receiving a path assignment reply from the destination LLN device; wherein a soft cell is sequentially reserved between the source LLN device, the intermediate LLN device and the destination LLN device.