mhurhangee/ep-ind-claims huggingface dataset:
A method of transmitting a power headroom report by a user equipment in a communication system based on carrier aggregation, the method comprising: selecting, by the user equipment, a maximum transmission power for a first serving cell and a maximum transmission power for a second serving cell; obtaining, by the user equipment, a power headroom for the first serving cell based on the maximum transmission power for the first serving cell; obtaining, by the user equipment, a power headroom for the second serving cell based on the maximum transmission power for the second serving cell; and transmitting, by the user equipment, the power headroom report to a base station, the power headroom report including the power headroom for the first serving cell, the maximum transmission power for the first serving cell, the power headroom for the second serving cell, and the maximum transmission power for the second serving cell. selecting, by the user equipment, a maximum transmission power for a first serving cell and a maximum transmission power for a second serving cell; obtaining, by the user equipment, a power headroom for the first serving cell based on the maximum transmission power for the first serving cell; obtaining, by the user equipment, a power headroom for the second serving cell based on the maximum transmission power for the second serving cell; and transmitting, by the user equipment, the power headroom report to a base station, the power headroom report including the power headroom for the first serving cell, the maximum transmission power for the first serving cell, the power headroom for the second serving cell, and the maximum transmission power for the second serving cell.
Agricultural machine provided with cultivation devices, which are mounted on a vertically adjustable support arm or support frame of a chassis, said devices, via the support arm, thereof being arranged to at least assume a working depth at which said devices process the ground at a preselected working depth, characterized in that the agricultural machine is provided with a force regulation device comprising a lateral force sensor (17, 31, 32) connected to a control system, which in turn is connected to a hydraulic system, which is connected to at least one lifting device, for instance a hydraulic cylinder, which is arranged to regulate the working depth of the cultivation device when the agricultural machine turns depending on a control signal from the lateral force sensor (17, 31, 32), which registers either a turn of the agricultural machine or directly the lateral forces on the cultivation device so that the cultivation device is raised upon increased lateral loading.
A method for producing a gold-nickel alloy nanoparticle wherein a nickel concentration contained in the gold-nickel alloy nanoparticle is in the range of 2.0 to 92.7% by weight, the gold-nickel alloy nanoparticle being a solid gold-nickel alloy nanoparticle forming a solid solution, wherein a fluid to be processed is supplied to between processing surfaces which relatively move so as to be able to approach to and separate from each other, a distance between the processing surfaces is kept as less than 1mm by a balance between a force toward an approaching direction and a force toward a separation direction, the forces including a supply pressure of the fluid to be processed and a pressure applied between the processing surfaces, at least one of which rotates relative to the other; by using this less than 1mm distance kept between at least two processing surfaces as a flow path of the fluid to be processed, the fluid to be processed forms a thin film fluid, and in this thin film fluid the gold-nickel alloy nanoparticle is separated, wherein at least two fluids, a first fluid and a second fluid, are used as the fluids to be processed, the first fluid contains a gold ion and a nickel ion, at least any one of the first fluid and the second fluid contains at least two substances each having a reducing property, the fluids to be processed are mixed in the thin film fluid; and by using the at least two substances each having a reducing property, gold and nickel are separated out simultaneously. a fluid to be processed is supplied to between processing surfaces which relatively move so as to be able to approach to and separate from each other, a distance between the processing surfaces is kept as less than 1mm by a balance between a force toward an approaching direction and a force toward a separation direction, the forces including a supply pressure of the fluid to be processed and a pressure applied between the processing surfaces, at least one of which rotates relative to the other; by using this less than 1mm distance kept between at least two processing surfaces as a flow path of the fluid to be processed, the fluid to be processed forms a thin film fluid, and in this thin film fluid the gold-nickel alloy nanoparticle is separated, wherein at least two fluids, a first fluid and a second fluid, are used as the fluids to be processed, the first fluid contains a gold ion and a nickel ion, at least any one of the first fluid and the second fluid contains at least two substances each having a reducing property, the fluids to be processed are mixed in the thin film fluid; and by using the at least two substances each having a reducing property, gold and nickel are separated out simultaneously.
A camera event logger device coupled to a motion picture camera, the logger device comprising: a data port (192,194) configured to receive control signals to manage the logger device a receiver configured to receive time signal to enable fine adjustment of a timecode; a timecode manager including a plurality of timecode readers (142,144) and at least one timecode generator, a first timecode reader of the plurality of timecode readers configured to receive the time signal from said receiver and make the time signal available to the at least one timecode generator, wherein the at least one timecode generator is configured to generate the timecode by conditioning the time signal, said timecode manager configured to receive camera timecode from the motion picture camera, and to send back adjusted camera timecode adjusted in accordance with the conditioned timecode; a processor configured to receive camera status information from the motion picture camera and the conditioned timecode from the timecode manager, wherein the camera status information is tagged with the conditioned timecode and processed to generate metadata files; and a storage unit configured to store the metadata files, characterized by: said data port (192,194) is further configured to receive the selection of a particular receive frequency as part of said control signals said receiver is a radio frequency receiver further configured to receive said time signal of the particular receive frequency. a data port (192,194) configured to receive control signals to manage the logger device a receiver configured to receive time signal to enable fine adjustment of a timecode; a timecode manager including a plurality of timecode readers (142,144) and at least one timecode generator, a first timecode reader of the plurality of timecode readers configured to receive the time signal from said receiver and make the time signal available to the at least one timecode generator, wherein the at least one timecode generator is configured to generate the timecode by conditioning the time signal, said timecode manager configured to receive camera timecode from the motion picture camera, and to send back adjusted camera timecode adjusted in accordance with the conditioned timecode; a processor configured to receive camera status information from the motion picture camera and the conditioned timecode from the timecode manager, wherein the camera status information is tagged with the conditioned timecode and processed to generate metadata files; and a storage unit configured to store the metadata files, characterized by: said data port (192,194) is further configured to receive the selection of a particular receive frequency as part of said control signals said receiver is a radio frequency receiver further configured to receive said time signal of the particular receive frequency. said data port (192,194) is further configured to receive the selection of a particular receive frequency as part of said control signals said receiver is a radio frequency receiver further configured to receive said time signal of the particular receive frequency.
A method for producing a cyanide including the steps of: supplying a hydrocarbon and nitrogen source to an onsite plasma reactor and reacting the hydrocarbon and nitrogen source in accordance with a just in time sequence for a cyanide requirement; and removing cyanide synthesised inside the onsite plasma reactor to thereby produce the cyanide, wherein the cyanide is produced as determined by feed-forward regulation, wherein said onsite plasma reactor is mobile and attachable to a transport device. supplying a hydrocarbon and nitrogen source to an onsite plasma reactor and reacting the hydrocarbon and nitrogen source in accordance with a just in time sequence for a cyanide requirement; and removing cyanide synthesised inside the onsite plasma reactor to thereby produce the cyanide, wherein the cyanide is produced as determined by feed-forward regulation, wherein said onsite plasma reactor is mobile and attachable to a transport device.
A method of manufacturing a thin film for use in an electronic device, the method comprising: mixing carbon nanofibers into an elastomer including an unsaturated bond or a group having affinity to the carbon nanofibers, and dispersing the carbon nanofibers by applying a shear force to obtain a carbon fiber composite material; mixing the carbon fiber composite material and a solvent to obtain a coating liquid; and applying the coating liquid to a substrate to form a thin film; wherein the carbon nanofibers have an average diameter of 0.5 to 500 nm; wherein the thickness of the thin film is 0.5 to 10μm; wherein the step of obtaining the carbon fiber composite material is performed at 0 to 50°C; and wherein the filling rate of the carbon nanofibers in the carbon fiber composite material is 0.1 to 40 vol%. mixing carbon nanofibers into an elastomer including an unsaturated bond or a group having affinity to the carbon nanofibers, and dispersing the carbon nanofibers by applying a shear force to obtain a carbon fiber composite material; mixing the carbon fiber composite material and a solvent to obtain a coating liquid; and applying the coating liquid to a substrate to form a thin film; wherein the carbon nanofibers have an average diameter of 0.5 to 500 nm; wherein the thickness of the thin film is 0.5 to 10μm; wherein the step of obtaining the carbon fiber composite material is performed at 0 to 50°C; and wherein the filling rate of the carbon nanofibers in the carbon fiber composite material is 0.1 to 40 vol%.
A steel connection comprising: a pair of symmetrical jacket plates comprising: a flat side plate that is cut into the shape of side projection of the joint; and pairs of clamping plates welded at the perimeter of the side plate with pre-drilled bolt holes, wherein the clamping plates are perpendicular to the side plate, wherein the steel connection is formed from the pair of symmetrical jacket plates installed from opposite sides of a frame or truss; and shear transferring threaded tension rods with bolts at each end, or conventional bolts, coupled with typical web stiffeners, wherein the tension rods or bolts are inserted through the pre-drilled bolt holes of each of a pair of clamping plates, in a plane parallel to the side plate, characterized in that the tension rods extend the full depth of the frame or truss from clamping plate-to-clamping plate. a pair of symmetrical jacket plates comprising: a flat side plate that is cut into the shape of side projection of the joint; and pairs of clamping plates welded at the perimeter of the side plate with pre-drilled bolt holes, wherein the clamping plates are perpendicular to the side plate, a flat side plate that is cut into the shape of side projection of the joint; and pairs of clamping plates welded at the perimeter of the side plate with pre-drilled bolt holes, wherein the clamping plates are perpendicular to the side plate, wherein the steel connection is formed from the pair of symmetrical jacket plates installed from opposite sides of a frame or truss; and shear transferring threaded tension rods with bolts at each end, or conventional bolts, coupled with typical web stiffeners, wherein the tension rods or bolts are inserted through the pre-drilled bolt holes of each of a pair of clamping plates, in a plane parallel to the side plate, characterized in that the tension rods extend the full depth of the frame or truss from clamping plate-to-clamping plate.
A target distance estimation device (3, 40, 50) to estimate a target distance from a radio wave detection device (100, 101, 102, 103, 104, 105) to a radio source on a basis of reception signals obtained by a reception antenna (1, 20) of the radio wave detection device (100, 101, 102, 103, 104, 105) receiving a direct wave and a multipath wave from the radio source, the target distance estimation device (3, 40, 50) comprising: a multipath composite wave signal generation unit to generate multipath composite wave signals each of which is a simulation signal of a composite wave of the direct wave and the multipath wave received by the reception antenna (1, 20), and which respectively correspond to provisional target distances each of which is set as a distance from the radio wave detection device (100, 101, 102, 103, 104, 105) to the radio source; and a target distance estimation unit to estimate the target distance from the radio wave detection device (100, 101, 102, 103, 104, 105) to the radio source on a basis of a correlation, for each provisional target distance, between the reception signals and a corresponding multipath composite wave signal generated by the multipath composite wave signal generation unit. a multipath composite wave signal generation unit to generate multipath composite wave signals each of which is a simulation signal of a composite wave of the direct wave and the multipath wave received by the reception antenna (1, 20), and which respectively correspond to provisional target distances each of which is set as a distance from the radio wave detection device (100, 101, 102, 103, 104, 105) to the radio source; and a target distance estimation unit to estimate the target distance from the radio wave detection device (100, 101, 102, 103, 104, 105) to the radio source on a basis of a correlation, for each provisional target distance, between the reception signals and a corresponding multipath composite wave signal generated by the multipath composite wave signal generation unit.
Drive unit for a vehicle, having: an electric motor; and an inverter, which is designed to supply the electric motor with an operating voltage; the electric motor and the inverter are connected to a common cooling circuit via which the thermal loads which occur in an operating state of the drive unit are transported away to the electric motor and to the inverter, characterized in that the drive unit has a flange which mechanically couples the inverter directly to the electric motor; wherein the flange electrically couples the inverter to the electric motor via an electrical connection which replaces an external electrical connecting line and therefore dispenses completely with a line-based connection between the inverter and the electric motor; wherein the flange connects a first section (160B-1) of the common cooling circuit to a second section (160B-2) of the common cooling circuit; wherein the flange has two breakthroughs which connect the first section (160B-1) and the second section (160B-2) to one another, with the result that a coolant can flow unimpeded through the first section (160B-1) and the second section (160B-2); wherein the first section (160B-1) of the common cooling circuit is arranged so as to transport away thermal loads from the electric motor, wherein the second section (160B-2) of the common cooling circuit is arranged so as to transport away thermal loads from the inverter; and wherein the first section (160B-1) runs through the electric motor, and the second section (160B-2) runs in a cooling plate of the inverter. an electric motor; and an inverter, which is designed to supply the electric motor with an operating voltage; the electric motor and the inverter are connected to a common cooling circuit via which the thermal loads which occur in an operating state of the drive unit are transported away to the electric motor and to the inverter, characterized in that the drive unit has a flange which mechanically couples the inverter directly to the electric motor; wherein the flange electrically couples the inverter to the electric motor via an electrical connection which replaces an external electrical connecting line and therefore dispenses completely with a line-based connection between the inverter and the electric motor; wherein the flange connects a first section (160B-1) of the common cooling circuit to a second section (160B-2) of the common cooling circuit; wherein the flange has two breakthroughs which connect the first section (160B-1) and the second section (160B-2) to one another, with the result that a coolant can flow unimpeded through the first section (160B-1) and the second section (160B-2); wherein the first section (160B-1) of the common cooling circuit is arranged so as to transport away thermal loads from the electric motor, wherein the second section (160B-2) of the common cooling circuit is arranged so as to transport away thermal loads from the inverter; and wherein the first section (160B-1) runs through the electric motor, and the second section (160B-2) runs in a cooling plate of the inverter.
Laser pulse contrast ratio measurement device, comprising: a laser pulse generator for generating a sum frequency laser pulse, the laser pulse generator providing an interaction zone, a beam guide device having a first beam guide for guiding a reference beam (28, 28') to said interaction zone in said laser pulse generator and a second beam guide for guiding a probe beam to said interaction zone in said laser pulse generator, a detection unit for detecting the sum frequency laser pulse generated in said laser pulse generator, the probe beam having a probe beam frequency, the reference beam having a reference beam frequency, wherein the reference beam frequency corresponds to the second harmonic of the probe beam frequency, wherein the beam guide device is adapted to direct the reference beam and the probe beam in a non-collinear manner under an interaction angle on said laser pulse generator so that the probe beam and the reference beam interact in the interaction zone of the laser pulse generator so as to generate the sum frequency laser pulse in the laser pulse generator by interaction of the probe beam and the reference beam, and wherein the beam guide device is adjusted to provide the interaction angle between the reference beam and the probe beam to be greater than 3°. a laser pulse generator for generating a sum frequency laser pulse, the laser pulse generator providing an interaction zone, a beam guide device having a first beam guide for guiding a reference beam (28, 28') to said interaction zone in said laser pulse generator and a second beam guide for guiding a probe beam to said interaction zone in said laser pulse generator, a detection unit for detecting the sum frequency laser pulse generated in said laser pulse generator, the probe beam having a probe beam frequency, the reference beam having a reference beam frequency, wherein the reference beam frequency corresponds to the second harmonic of the probe beam frequency, wherein the beam guide device is adapted to direct the reference beam and the probe beam in a non-collinear manner under an interaction angle on said laser pulse generator so that the probe beam and the reference beam interact in the interaction zone of the laser pulse generator so as to generate the sum frequency laser pulse in the laser pulse generator by interaction of the probe beam and the reference beam, and wherein the beam guide device is adjusted to provide the interaction angle between the reference beam and the probe beam to be greater than 3°.
A riveting tool accessory, comprising a cylindrical handle, which is provided with a rotating part through the cylindrical handle, the rotating part is positioned axially and rotatably circumferentially connected to the cylindrical handle; and a transmission part that is circumferentially positioned and axially movably connected to the cylindrical handle, wherein the rotating part and the transmission part are connected by a threaded structure, and when the rotating part rotates forward or reverse, the transmission part can be driven to retreat or advance, wherein: the front end of the transmission part is provided with a connecting part, the front end of the connecting part can be mounted with a riveting fastener,the front end of the cylindrical handle is provided with a guiding nozzle assembly, the connecting part is disposed through the guiding nozzle assembly and the front end of the connecting part can extend out of the guiding nozzle assembly, a compression preloading spring is disposed between the transmission part and the guiding nozzle assembly, characterized in that a safety valve mechanism is disposed between the transmission part and the connecting part, and the safety valve mechanism is configured to enable the screw pair conversion of the threaded structure to occur before the riveted fastener mounted on the front end of the connecting part contacts the guiding nozzle assembly.
A machine for processing a web material having: An unwinding roller from which the web material is pulled off; a winding roller on which the web material is wound, or a punch that divides the web material into web sections; at least one apparatus, arranged between the unwinding roller and winding roller or punch, for processing (3.1 to 3.4) the web material passing from the unwinding roller to the winding roller or punch, wherein before the winding roller or punch, there is an arrangement consisting of a roller and a counter roller rolling on the circumference of the roller, wherein the roller has at least one outer layer consisting of electrically conductive material that is connected to ground, the counter roller has an outer layer consisting of semiconductor material, there is an apparatus for transmitting an electrical charge to the outer layer of the counter roller, an electrical high voltage source with a positive polarity is connected to the apparatus for transmitting an electrical charge in order to supply the positive charge to the outer layer of the counter roller and to dissipate a negative charge of the web material before being wound on the winding roller or cut up into web sections, characterized in that the arrangement consisting of the roller and counter roller is arranged between the last apparatus in the throughput direction of the web material for processing (3, 4) the web material and the winding roller or punch.