mhurhangee/ep-ind-claims huggingface dataset:
A method of negotiation of media between a source communication device and a destination communication device for multiplexing multiple media streams on an IP transport address, the method characterized in comprising: - the source communication device generating an offer message comprising an extension to the Interactive Connectivity Establishment, ICE, protocol according to RFC 5245 to specify the IP transport address whereon the multiple media streams can be multiplexed wherein the extension comprises at least one ICE candidate specifying an IP port to be used by the destination communication device for the multiplexing such that the destination communication device which is aware of the extension is able to use the IP port specified in the extension rather than in the ICE candidate according to RFC 5245 and then follow existing ICE procedures as specified in RFC 5245, wherein the offer message comprising the extension indicates support for both the multiplexing and a non-multiplexing of the multiple media streams, and - sending the offer message from the source communication device to the destination communication device. - the source communication device generating an offer message comprising an extension to the Interactive Connectivity Establishment, ICE, protocol according to RFC 5245 to specify the IP transport address whereon the multiple media streams can be multiplexed wherein the extension comprises at least one ICE candidate specifying an IP port to be used by the destination communication device for the multiplexing such that the destination communication device which is aware of the extension is able to use the IP port specified in the extension rather than in the ICE candidate according to RFC 5245 and then follow existing ICE procedures as specified in RFC 5245, wherein the offer message comprising the extension indicates support for both the multiplexing and a non-multiplexing of the multiple media streams, and - sending the offer message from the source communication device to the destination communication device.
A method for manufacturing a spark plug, the spark plug including: a metal shell housing an insulator; and a ground electrode joined to a tip of the metal shell, the method comprising: a welding step of welding the ground electrode to the tip of the metal shell; and a removing step of removing a welding sag formed on and over inner surfaces (30is, 50is) of the ground electrode and the metal shell from a work in which the ground electrode is welded to the tip of the metal shell, characterized in that the removing step includes: a cutting step of cutting the welding sag using a working tool while a control unit controls a working position of the working tool with respect to the work; and a measuring step of measuring a remaining quantity of the welding sag after the cutting step, and wherein the control unit performs a feedback of a measured value of the remaining quantity of the welding sag measured in the measuring step to the working position of the working tool in the cutting step for a subsequent work. a welding step of welding the ground electrode to the tip of the metal shell; and a removing step of removing a welding sag formed on and over inner surfaces (30is, 50is) of the ground electrode and the metal shell from a work in which the ground electrode is welded to the tip of the metal shell, characterized in that the removing step includes: a cutting step of cutting the welding sag using a working tool while a control unit controls a working position of the working tool with respect to the work; and a measuring step of measuring a remaining quantity of the welding sag after the cutting step, and wherein the control unit performs a feedback of a measured value of the remaining quantity of the welding sag measured in the measuring step to the working position of the working tool in the cutting step for a subsequent work. a cutting step of cutting the welding sag using a working tool while a control unit controls a working position of the working tool with respect to the work; and a measuring step of measuring a remaining quantity of the welding sag after the cutting step, and wherein the control unit performs a feedback of a measured value of the remaining quantity of the welding sag measured in the measuring step to the working position of the working tool in the cutting step for a subsequent work.
A rotor for a rotary electric machine, the rotor characterized by comprising: a rotor core; a shaft having therein a coolant flow passage and a coolant supply port, the coolant flow passage being configured to allow a coolant to flow, and the coolant supply port being configured to supply the coolant to the rotor core; and a magnet provided in the rotor core, the magnet extending along an axial direction of the rotor core, wherein the rotor core is fixedly mounted on the shaft, the rotor core is formed by laminating steel plates, the rotor core has a coolant flow path for a coolant flow, the coolant flow path includes a first flow passage and a second flow passage, the first flow passage extends along the axial direction near the magnet, the second flow passage connects the coolant supply port of the shaft and the first flow passage, the first flow passage is formed to penetrate the rotor core by overlapping first slits formed in all of the respective steel plates that constitute the rotor core, the second flow passage is formed by axially overlapping second slits formed in the steel plates that constitute an axially intermediate region of the rotor core, the second slits are formed at different radial positions in the respective steel plates, in fluid communication with each other, the first flow passage and the second flow passage join at the axially intermediate region of the rotor core, the second flow passage is bifurcated in opposite axial directions toward the first flow passage, and the second flow passage has a radially symmetrical shape in an axially central portion of the rotor core. a rotor core; a shaft having therein a coolant flow passage and a coolant supply port, the coolant flow passage being configured to allow a coolant to flow, and the coolant supply port being configured to supply the coolant to the rotor core; and a magnet provided in the rotor core, the magnet extending along an axial direction of the rotor core, wherein the rotor core is fixedly mounted on the shaft, the rotor core is formed by laminating steel plates, the rotor core has a coolant flow path for a coolant flow, the coolant flow path includes a first flow passage and a second flow passage, the first flow passage extends along the axial direction near the magnet, the second flow passage connects the coolant supply port of the shaft and the first flow passage, the first flow passage is formed to penetrate the rotor core by overlapping first slits formed in all of the respective steel plates that constitute the rotor core, the second flow passage is formed by axially overlapping second slits formed in the steel plates that constitute an axially intermediate region of the rotor core, the second slits are formed at different radial positions in the respective steel plates, in fluid communication with each other, the first flow passage and the second flow passage join at the axially intermediate region of the rotor core, the second flow passage is bifurcated in opposite axial directions toward the first flow passage, and the second flow passage has a radially symmetrical shape in an axially central portion of the rotor core.
Method for monitoring an electronically controlled rotary pump (5a-5f) of a hydraulic system, the operation of which can be established at a first point in time through a changeable operating configuration, characterised by the rotary pump (5a- 5f) at a later, second point in time transmitting at least one configuration information identifying its current operating configuration to a mobile hand-held unit or to a server, which compares this configuration information with a second configuration information that identifies the last operating configuration known to the hand-held unit or the server, and by a change notice being output on the hand-held unit when the transmitted configuration information does not match the second configuration information.
A method of producing a co-extruded dual component food product of the type comprising a cream textured inner component encapsulated within a cereal-based outer component, the method comprising the steps of: - providing an aqueous phase comprising starch; - mixing the aqueous phase with an oil phase to provide a cream textured inner component in the form of a water in oil emulsion having a first viscosity; - preparing and cooking the cereal-based outer component; - extruding the hot outer component; and - while the outer component is still hot, injecting the cream textured inner component into the outer component to form the co-extruded dual component food product, whereby the heat from the outer component allows the starch in the aqueous phase to at least partly gelatinise to provide a cream textured component having a viscosity greater than the first viscosity. - providing an aqueous phase comprising starch; - mixing the aqueous phase with an oil phase to provide a cream textured inner component in the form of a water in oil emulsion having a first viscosity; - preparing and cooking the cereal-based outer component; - extruding the hot outer component; and - while the outer component is still hot, injecting the cream textured inner component into the outer component to form the co-extruded dual component food product, whereby the heat from the outer component allows the starch in the aqueous phase to at least partly gelatinise to provide a cream textured component having a viscosity greater than the first viscosity.
A lens unit comprising: a first lens; and a second lens; the first lens and the second lens being arranged in order of the first lens and the second lens from a display surface side on which an image is displayed to an observation surface side; the first lens being a Fresnel lens having a first lens surface (L1b) having a Fresnel structure on the second lens side, and having a positive refractive power; the second lens being a Fresnel lens having a second lens surface (L2a) having a Fresnel structure on the first lens side, and having a positive refractive power, wherein a third lens surface (L3a) facing the display surface side is formed more to the display surface side than the first lens surface (L1b), and the third lens surface (L3a) has a surface that refracts light in a direction of going away from an optical axis at least in a peripheral region separated from the optical axis, wherein a lens in which the third lens surface (L3a) is formed includes a center intersecting the optical axis, the outside region, and an intermediate region as a region between the center and the outside region, and a following condition is satisfied: Condition: T3 > T1 > T2 where T1 is a thickness in the center, T2 is a thickness in the intermediate region, and T3 is a thickness in the peripheral region. a first lens; and a second lens; the first lens and the second lens being arranged in order of the first lens and the second lens from a display surface side on which an image is displayed to an observation surface side; the first lens being a Fresnel lens having a first lens surface (L1b) having a Fresnel structure on the second lens side, and having a positive refractive power; the second lens being a Fresnel lens having a second lens surface (L2a) having a Fresnel structure on the first lens side, and having a positive refractive power, wherein a third lens surface (L3a) facing the display surface side is formed more to the display surface side than the first lens surface (L1b), and the third lens surface (L3a) has a surface that refracts light in a direction of going away from an optical axis at least in a peripheral region separated from the optical axis, wherein a lens in which the third lens surface (L3a) is formed includes a center intersecting the optical axis, the outside region, and an intermediate region as a region between the center and the outside region, and a following condition is satisfied: Condition: T3 > T1 > T2 where T1 is a thickness in the center, T2 is a thickness in the intermediate region, and T3 is a thickness in the peripheral region.
A banknote handling apparatus configured to receive a banknote from at least two kinds of banknote feeding units, the banknote handling apparatus comprising: a transport unit configured such that the banknote feeding unit is connected thereto, the transport unit configured to transport a received banknote; a recognition unit configured to recognize the banknote being transported; an apparatus-internal reject unit configured to store a reject banknote inside the banknote handling apparatus; an apparatus-external reject unit configured to dispense a reject banknote outside the banknote handling apparatus; and a control unit configured to decide, when the recognition unit recognizes a banknote having been received from the banknote feeding unit as a reject banknote, to which one of the apparatus-internal reject unit and the apparatus-external reject unit the reject banknote is transported, based on the banknote feeding unit having fed the banknote, characterized in that the banknote handling apparatus further comprises a unit deciding part configured to decide the banknote feeding unit for feeding a banknote based on a connection condition of the banknote feeding unit to the transport unit. a transport unit configured such that the banknote feeding unit is connected thereto, the transport unit configured to transport a received banknote; a recognition unit configured to recognize the banknote being transported; an apparatus-internal reject unit configured to store a reject banknote inside the banknote handling apparatus; an apparatus-external reject unit configured to dispense a reject banknote outside the banknote handling apparatus; and a control unit configured to decide, when the recognition unit recognizes a banknote having been received from the banknote feeding unit as a reject banknote, to which one of the apparatus-internal reject unit and the apparatus-external reject unit the reject banknote is transported, based on the banknote feeding unit having fed the banknote, characterized in that the banknote handling apparatus further comprises a unit deciding part configured to decide the banknote feeding unit for feeding a banknote based on a connection condition of the banknote feeding unit to the transport unit.
A coulter with - a coulter disc for delivering agricultural materials into soil along one direction F of travel, - a height measuring apparatus which is located in the region of the coulter disc for measuring a penetration depth T m of the coulter disc into the soil. - a coulter holder for swivelling holding of the coulter disc on a coulter frame and height setting relative to the coulter frame, the penetration depth T of the coulter disc being controllable/adjustable depending on the measured penetration depth T m, wherein the coulter holder has one parallelogram arm with a lifting cylinder for adjusting the height, characterized in that the height is measured by means of the height measuring apparatus by mechanical contact with the soil by means of a measurement arm and in that the measurement arm is swivelling coupled to one swivelling axis of the coulter holder. - a coulter disc for delivering agricultural materials into soil along one direction F of travel, - a height measuring apparatus which is located in the region of the coulter disc for measuring a penetration depth T m of the coulter disc into the soil. - a coulter holder for swivelling holding of the coulter disc on a coulter frame and height setting relative to the coulter frame, the penetration depth T of the coulter disc being controllable/adjustable depending on the measured penetration depth T m, wherein the coulter holder has one parallelogram arm with a lifting cylinder for adjusting the height, characterized in that the height is measured by means of the height measuring apparatus by mechanical contact with the soil by means of a measurement arm and in that the measurement arm is swivelling coupled to one swivelling axis of the coulter holder.
A handheld vacuum cleaner, comprising: a housing provided with an air inlet and an air outlet; a dust cup disposed in the housing; an electric motor disposed between the air inlet and the dust cup, wherein a dusty airstream entering the housing from the air inlet flows through the dust cup and the electric motor successively and is exhausted from the air outlet; and a communicating channel is provided between the air inlet and the dust cup characterized in that the communication channel comprises two first sub-channels that are provided and located on the two sides of the dust cup respectively. a housing provided with an air inlet and an air outlet; a dust cup disposed in the housing; an electric motor disposed between the air inlet and the dust cup, wherein a dusty airstream entering the housing from the air inlet flows through the dust cup and the electric motor successively and is exhausted from the air outlet; and a communicating channel is provided between the air inlet and the dust cup characterized in that the communication channel comprises two first sub-channels that are provided and located on the two sides of the dust cup respectively.
A method for making a stairway, said method comprising the phases of: - providing a plurality of formworks (1, 5), wherein each formwork (1, 5) has a shape corresponding to a respective step of the stairway; - joining said formworks (1, 5) in sequence; - filling each of said formworks (1, 5) with a filler material, to the obtainment of a respective step comprising said formwork (1, 5) and said filler material permanently included in said formwork (1, 5), characterised in that the phase of providing a plurality of formworks comprises the following phases: - a design phase which includes a custom computing of the dimensions and shape of each of said formworks (1, 5) on the basis of the dimensions of an installation site of the stairway; - a phase of prearranging a plurality of blocks; - a phase of shaping each of said blocks to the obtainment of said plurality of formworks (1, 5), wherein said phase of shaping each of said blocks is based on said design phase. - providing a plurality of formworks (1, 5), wherein each formwork (1, 5) has a shape corresponding to a respective step of the stairway; - joining said formworks (1, 5) in sequence; - filling each of said formworks (1, 5) with a filler material, to the obtainment of a respective step comprising said formwork (1, 5) and said filler material permanently included in said formwork (1, 5), - a design phase which includes a custom computing of the dimensions and shape of each of said formworks (1, 5) on the basis of the dimensions of an installation site of the stairway; - a phase of prearranging a plurality of blocks; - a phase of shaping each of said blocks to the obtainment of said plurality of formworks (1, 5), wherein said phase of shaping each of said blocks is based on said design phase.
Wind turbine comprising a wind rotor for driving a generator comprising a converter for generating electrical power, a controller and an internal power supply unit, for which an auxiliaries transformer is provided, which is connected at the feed-in connection thereof to the generator and/or converter via a power link and supplies power to the internal power supply unit via the low-voltage connection thereof, characterized in that a switching device for the auxiliaries transformer is provided, which is designed to reverse a power flow through the auxiliaries transformer in a reverse operating mode in such a way that in the reverse operating mode the feed-in connection of the auxiliaries transformer acts as output and is connected to a high-voltage consumer, and an output connection of the auxiliaries transformer acts as input and is fed from the low-voltage connection of the internal power supply unit.
A feedback control system (100, 200, 300), comprising: a measurement system (110; 210; 320) having a plurality of contact points; a control mechanism communicatively coupled to the measurement system (110; 210; 320); wherein the measurement system (110; 210; 320) is configured to measure at least one physical property of an RFID chip assembly via the plurality of contact points while the RFID chip assembly is undergoing production, the RFID chip assembly having at least one RFID chip (10;20); the system being characterised by: a computing device; wherein the computing device is configured to calculate an average value of the at least one physical property over a plurality of RFID assemblies; wherein the control mechanism is configured to cause a force to be applied to the RFID chip (10; 20) in the RFID chip assembly in response to the calculated average value of the at least one physical property, the applied force causing a change in the measured physical property, and wherein the feedback control system (100, 200, 300) is configured to allow for multiple iterations of a measurement of a physical property and application of force. a measurement system (110; 210; 320) having a plurality of contact points; a control mechanism communicatively coupled to the measurement system (110; 210; 320); wherein the measurement system (110; 210; 320) is configured to measure at least one physical property of an RFID chip assembly via the plurality of contact points while the RFID chip assembly is undergoing production, the RFID chip assembly having at least one RFID chip (10;20); the system being characterised by: a computing device; wherein the computing device is configured to calculate an average value of the at least one physical property over a plurality of RFID assemblies; wherein the control mechanism is configured to cause a force to be applied to the RFID chip (10; 20) in the RFID chip assembly in response to the calculated average value of the at least one physical property, the applied force causing a change in the measured physical property, and wherein the feedback control system (100, 200, 300) is configured to allow for multiple iterations of a measurement of a physical property and application of force. a computing device; wherein the computing device is configured to calculate an average value of the at least one physical property over a plurality of RFID assemblies; wherein the control mechanism is configured to cause a force to be applied to the RFID chip (10; 20) in the RFID chip assembly in response to the calculated average value of the at least one physical property, the applied force causing a change in the measured physical property, and wherein the feedback control system (100, 200, 300) is configured to allow for multiple iterations of a measurement of a physical property and application of force.