mhurhangee/ep-ind-claims huggingface dataset:
A method for managing a thermal policy of a receiving device that couples to a portable computing device, the method comprising: detecting a presence of the portable computing device with the receiving device; the method being characterized by: in response to detecting the presence of the portable computing device: issuing a command to deactivate a thermal sensor (157A, 157B) within the portable computing device; issuing a command to deactivate a power supply within the portable computing device; receiving a signal comprising a temperature value from an other thermal sensor (157A, 157B) of the portable computer device and/or of a thermal sensor of the receiving device; and issuing a command to adjust an operating condition of a processor within the portable computing device if the temperature value reaches a predetermined value. detecting a presence of the portable computing device with the receiving device; the method being characterized by: in response to detecting the presence of the portable computing device: issuing a command to deactivate a thermal sensor (157A, 157B) within the portable computing device; issuing a command to deactivate a power supply within the portable computing device; receiving a signal comprising a temperature value from an other thermal sensor (157A, 157B) of the portable computer device and/or of a thermal sensor of the receiving device; and issuing a command to adjust an operating condition of a processor within the portable computing device if the temperature value reaches a predetermined value. in response to detecting the presence of the portable computing device: issuing a command to deactivate a thermal sensor (157A, 157B) within the portable computing device; issuing a command to deactivate a power supply within the portable computing device; receiving a signal comprising a temperature value from an other thermal sensor (157A, 157B) of the portable computer device and/or of a thermal sensor of the receiving device; and issuing a command to adjust an operating condition of a processor within the portable computing device if the temperature value reaches a predetermined value. issuing a command to deactivate a thermal sensor (157A, 157B) within the portable computing device; issuing a command to deactivate a power supply within the portable computing device; receiving a signal comprising a temperature value from an other thermal sensor (157A, 157B) of the portable computer device and/or of a thermal sensor of the receiving device; and issuing a command to adjust an operating condition of a processor within the portable computing device if the temperature value reaches a predetermined value.
An additive-manufacturing head for performing additive manufacturing by feeding material powder to a workpiece and irradiating the workpiece with a laser beam, the additive-manufacturing head comprising: a ring-shape laser beam forming unit including a first axicon lens and a second axicon lens disposed in an optical axis direction of the laser beam, and a convex lens, configured to form the laser beam entering through the first axicon lens into a ring-shape laser beam and emit the ring-shape laser beam from the second axicon lens; a laser beam emitting unit configured to emit the ring-shape laser beam toward the workpiece; and a material feeding unit having an outlet which is disposed inside the ring-shape laser beam emitted from the laser beam emitting unit and from which the material powder is released, configured to feed the material powder from the outlet toward the workpiece, characterized in that: the convex lens disposed between the first axicon lens and the second axicon lens which are disposed to face each other; and a first moving mechanism is provided and configured to move the convex lens in the optical axis direction of the laser beam. a ring-shape laser beam forming unit including a first axicon lens and a second axicon lens disposed in an optical axis direction of the laser beam, and a convex lens, configured to form the laser beam entering through the first axicon lens into a ring-shape laser beam and emit the ring-shape laser beam from the second axicon lens; a laser beam emitting unit configured to emit the ring-shape laser beam toward the workpiece; and a material feeding unit having an outlet which is disposed inside the ring-shape laser beam emitted from the laser beam emitting unit and from which the material powder is released, configured to feed the material powder from the outlet toward the workpiece, characterized in that: the convex lens disposed between the first axicon lens and the second axicon lens which are disposed to face each other; and a first moving mechanism is provided and configured to move the convex lens in the optical axis direction of the laser beam. the convex lens disposed between the first axicon lens and the second axicon lens which are disposed to face each other; and a first moving mechanism is provided and configured to move the convex lens in the optical axis direction of the laser beam.
Device for depositing at least one material (3, 5) onto a substrate or a workpiece by means of a fused deposition modelling method, having a main body, wherein the main body has at least a first access channel and a second access channel, wherein the first access channel is provided for a first material, wherein the second access channel is provided for a second material, characterised in that the access channels (2A, 2B) end in an outlet of the main body, wherein an inside face of the outlet and/or the workpiece and/or the substrate are/is rotatable about an axis of rotation (d), wherein the axis of rotation (d) extends through the outlet, wherein upon the at least first material and second material being discharged through the outlet, a combination of the first material and the second material is provided, wherein the outlet forms the converged ends of the access channels (2A, 2B).
A nuclear reactor power plant subsystem for removing radioactive gasses and hydrogen gas from a reactor coolant comprising: a contactor housing a membrane that divides an interior of the contactor into an inlet chamber and an outlet chamber, wherein the membrane has pores that pass the radioactive and hydrogen gasses from the inlet chamber to the outlet chamber, but prevent the reactor coolant from passing through to the outlet chamber; a vacuum generator connected to the outlet chamber for drawing a vacuum on the outlet chamber; a liquid outlet conduit connected to an outlet nozzle on the inlet chamber for conveying a degasified portion of the reactor coolant to a desired location; a gas outlet conduit connected to an outlet nozzle on the outlet chamber for conveying the radioactive and hydrogen gasses to a nuclear reactor power plant waste gas system; and characterized by a helium sweep gas supply connected to the outlet chamber for supplying a relatively small helium sweep flow in the outlet chamber. a contactor housing a membrane that divides an interior of the contactor into an inlet chamber and an outlet chamber, wherein the membrane has pores that pass the radioactive and hydrogen gasses from the inlet chamber to the outlet chamber, but prevent the reactor coolant from passing through to the outlet chamber; a vacuum generator connected to the outlet chamber for drawing a vacuum on the outlet chamber; a liquid outlet conduit connected to an outlet nozzle on the inlet chamber for conveying a degasified portion of the reactor coolant to a desired location; a gas outlet conduit connected to an outlet nozzle on the outlet chamber for conveying the radioactive and hydrogen gasses to a nuclear reactor power plant waste gas system; and characterized by a helium sweep gas supply connected to the outlet chamber for supplying a relatively small helium sweep flow in the outlet chamber.
A kit for delivery of an anvil assembly within a tubular organ section, the kit comprising: an anvil assembly comprising a head portion, a center rod extending proximally from the head portion, and a bore extending at least partially through the center rod; and an insertion handle for delivery of the anvil assembly, the insertion handle comprising: an elongated shaft dimensioned to be positioned within a hollow tubular organ, the elongated shaft including a proximal and a distal end; and an attachment portion disposed adjacent the distal end of the elongated shaft, the attachment portion comprising a structure for releasably locking the insertion handle to a portion of an anvil assembly; wherein a portion of the attachment portion is configured and dimensioned for positioning within the bore of the anvil assembly; wherein the center rod of the anvil assembly includes a plurality of suture holes, and characterized in that the structure for releasably locking the insertion handle to a portion of the anvil assembly includes a detent configured to be received within one of the plurality of suture holes of the center rod of the anvil assembly. an anvil assembly comprising a head portion, a center rod extending proximally from the head portion, and a bore extending at least partially through the center rod; and an insertion handle for delivery of the anvil assembly, the insertion handle comprising: an elongated shaft dimensioned to be positioned within a hollow tubular organ, the elongated shaft including a proximal and a distal end; and an attachment portion disposed adjacent the distal end of the elongated shaft, the attachment portion comprising a structure for releasably locking the insertion handle to a portion of an anvil assembly; wherein a portion of the attachment portion is configured and dimensioned for positioning within the bore of the anvil assembly; an elongated shaft dimensioned to be positioned within a hollow tubular organ, the elongated shaft including a proximal and a distal end; and an attachment portion disposed adjacent the distal end of the elongated shaft, the attachment portion comprising a structure for releasably locking the insertion handle to a portion of an anvil assembly; wherein a portion of the attachment portion is configured and dimensioned for positioning within the bore of the anvil assembly; wherein the center rod of the anvil assembly includes a plurality of suture holes, and characterized in that the structure for releasably locking the insertion handle to a portion of the anvil assembly includes a detent configured to be received within one of the plurality of suture holes of the center rod of the anvil assembly.
A pilot signal transmission method performed by a Transmit-Receive Point, TRP, in a wireless communication system, said method comprising: transmitting a periodic pilot signal for channel estimation from the TRP that is in closest proximity of a User Equipment, UE, within a shared cell, when the UE is not scheduled for data transmission, wherein the TRP within the shared cell is spatially separated; and transmitting a pilot signal for demodulation from the same TRP, when the UE is scheduled for the data transmission, wherein a transmission power of the periodic pilot signal for channel estimation is lower than that of the pilot signal for demodulation. transmitting a periodic pilot signal for channel estimation from the TRP that is in closest proximity of a User Equipment, UE, within a shared cell, when the UE is not scheduled for data transmission, wherein the TRP within the shared cell is spatially separated; and transmitting a pilot signal for demodulation from the same TRP, when the UE is scheduled for the data transmission, wherein a transmission power of the periodic pilot signal for channel estimation is lower than that of the pilot signal for demodulation.
A luminescent glass comprising a glass matrix, wherein said glass matrix comprises at least two layers of glass parts and at least one layer of a complex part which comprises glass materials and fluorescent powder dispersed in said materials, and said at least one layer of the complex part of glass and fluorescent powder is embedded into each layer of the glass parts.
A method performed in a base station for facilitating frequency calibration of a receiver, the method comprising: generating a first signal with periodic ASK modulation containing two frequency tones, one at a first frequency and one at a second frequency; transmitting the first signal as a calibration signal to the receiver to facilitate frequency calibration of the receiver; and transmitting a second signal as a wakeup signal to the receiver. generating a first signal with periodic ASK modulation containing two frequency tones, one at a first frequency and one at a second frequency; transmitting the first signal as a calibration signal to the receiver to facilitate frequency calibration of the receiver; and transmitting a second signal as a wakeup signal to the receiver.
Downstream electrical device the electrical power of which is supplied by an upstream electrical device of the circuit breaker type, differential or disconnect switch circuit breaker, said downstream electrical device comprising conductors (2', 2") for the circulation of electricity and terminals for their connection as well as at least one restitution block comprising at least one measurement unit, for measuring at least one feature of the functioning of the electric circuit that said conductors (2', 2") form, at least one emitting unit, for emitting a signal representative of the measured function to a reception unit of said signal, adapted to said emitting unit, the at least one emitting unit emitting the signal without wiring dedicated to said emission, characterised in that the at least one emitting unit superimposes on the alternating current circulating in the conductors (2', 2") a current of higher frequency and lower energy and in that the at least one emitting unit consists essentially of a switch, putting the earth line into electrical communication with one of the other lines of the electrical circuit, neutral or phase, in order to create artificially a earthing fault, at a frequency of between 5 kilohertz and 2 megahertz.
A method for forming a transmission electron microscopy sample lamella using a focused ion beam, the method comprising: directing a high energy focused ion beam toward a bulk volume of material, the bulk volume of material including a feature of interest and an unwanted volume of material, to mill away the unwanted volume of material; milling away the unwanted volume of material with the high energy focused ion beam to produce an unfinished sample lamella having a thickness that is greater than the desired thickness of a finished sample lamella, one or more faces (1051 A, 1051 B) of the unfinished sample lamella including a damage layer; directing a low energy focused ion beam toward one or more of the exposed faces of the unfinished sample lamella; and milling the one or more exposed faces of the unfinished sample lamella with the low energy focused ion beam to remove at least a portion of the damage layer, thereby producing the finished sample lamella including at least a portion of the feature of interest; characterized by: before directing the low energy focused ion beam toward the lamella (104, 718), characterizing the material removal rate of a low energy focused ion beam at a specified time prior to directing the low energy focused ion beam toward one or more of the exposed faces (204a, 204b) of the unfinished sample lamella; and in which directing the low energy focused ion beam comprises directing the low energy focused ion beam for a predetermined pattern milling time to deliver a specified dose of ions per area from the low energy focused ion beam. directing a high energy focused ion beam toward a bulk volume of material, the bulk volume of material including a feature of interest and an unwanted volume of material, to mill away the unwanted volume of material; milling away the unwanted volume of material with the high energy focused ion beam to produce an unfinished sample lamella having a thickness that is greater than the desired thickness of a finished sample lamella, one or more faces (1051 A, 1051 B) of the unfinished sample lamella including a damage layer; directing a low energy focused ion beam toward one or more of the exposed faces of the unfinished sample lamella; and milling the one or more exposed faces of the unfinished sample lamella with the low energy focused ion beam to remove at least a portion of the damage layer, thereby producing the finished sample lamella including at least a portion of the feature of interest; before directing the low energy focused ion beam toward the lamella (104, 718), characterizing the material removal rate of a low energy focused ion beam at a specified time prior to directing the low energy focused ion beam toward one or more of the exposed faces (204a, 204b) of the unfinished sample lamella; and in which directing the low energy focused ion beam comprises directing the low energy focused ion beam for a predetermined pattern milling time to deliver a specified dose of ions per area from the low energy focused ion beam.
A roof rack foot assembly for a roof rack, comprising, a carrier member for carrying a crossbar of the roof rack, a bracket configured for attachment to a fix point attachment position of a vehicle by use of at least one fixation means, such as a screw or bolt, wherein the bracket comprises an engagement portion and a seat portion for the carrier member, an engagement member associated with the carrier member which is adapted to clamp the carrier member to the bracket by applying a pulling force therebetween, characterized in that, the carrier member comprises a first and a second support portion and the seat portion comprises a first and a second support surface, preferably spaced apart from each other, wherein each support surface is adapted to receive the respective first and second support portion of the carrier member when the carrier member is attached to the bracket, and wherein each support surface of the seat portion has a longitudinal extension along a respective longitudinal axis (La1, La2) thereof, wherein the first and second support surfaces are arranged on the bracket so that their longitudinal axes are provided parallel, or at least substantially parallel, with respect to each other. a carrier member for carrying a crossbar of the roof rack, a bracket configured for attachment to a fix point attachment position of a vehicle by use of at least one fixation means, such as a screw or bolt, wherein the bracket comprises an engagement portion and a seat portion for the carrier member, an engagement member associated with the carrier member which is adapted to clamp the carrier member to the bracket by applying a pulling force therebetween, characterized in that, the carrier member comprises a first and a second support portion and the seat portion comprises a first and a second support surface, preferably spaced apart from each other, wherein each support surface is adapted to receive the respective first and second support portion of the carrier member when the carrier member is attached to the bracket, and wherein each support surface of the seat portion has a longitudinal extension along a respective longitudinal axis (La1, La2) thereof, wherein the first and second support surfaces are arranged on the bracket so that their longitudinal axes are provided parallel, or at least substantially parallel, with respect to each other.
Method for analysing a points drive of a set of rail points, characterised in that - at least one sensor for measuring sound waves is provided, - measurement signals of the at least one sensor are recorded during an actuating operation of the points drive, - on the basis of the recorded measurement signals of the at least one sensor, an actuating force of an actuating force coupling of the points drive is determined. - at least one sensor for measuring sound waves is provided, - measurement signals of the at least one sensor are recorded during an actuating operation of the points drive, - on the basis of the recorded measurement signals of the at least one sensor, an actuating force of an actuating force coupling of the points drive is determined.
A ladder with struts consisting of hollow profiles and substantially round rungs, wherein each rung is received in a radial opening of each strut and is provided at the end thereof with a stopper which, upon insertion of the rung into the strut, rests against the inside of the strut, and the rung extends in the end portion such that the rung is anchored in the strut, wherein the stopper is designed such that the end portion of the rung is extended in longitudinal direction of the strut, wherein, after insertion into the strut, the outside of the rung rests against the inside of the strut in linear contact or flat in the direction of the longitudinal axis of the strut, characterized in that the end portion of the rung is contracted simultaneously, laterally to the longitudinal direction of the strut.
A production method of a cosmetic make-up product comprising the steps of: a. dispensing a base cosmetic paste on a support b. pressing the base cosmetic paste through a first mold heated at a temperature higher than 60 °C and provided with at least one relief adapted to create a groove in the base cosmetic paste; c. dispensing a second decorative cosmetic paste over the base cosmetic paste so as to completely cover it and so as to fill at least partially the groove created in the base cosmetic paste by the first mold; d. pressing with a second mold the base cosmetic paste and the second decorative cosmetic paste so as to make the pastes take a shape of the second mold, thus obtaining a semi-finished product; e. drying the semi-finished product; f. surface working the dried semi-finished product so as to remove the second decorative cosmetic paste at least from those areas of the base cosmetic paste free from grooves. a. dispensing a base cosmetic paste on a support b. pressing the base cosmetic paste through a first mold heated at a temperature higher than 60 °C and provided with at least one relief adapted to create a groove in the base cosmetic paste; c. dispensing a second decorative cosmetic paste over the base cosmetic paste so as to completely cover it and so as to fill at least partially the groove created in the base cosmetic paste by the first mold; d. pressing with a second mold the base cosmetic paste and the second decorative cosmetic paste so as to make the pastes take a shape of the second mold, thus obtaining a semi-finished product; e. drying the semi-finished product; f. surface working the dried semi-finished product so as to remove the second decorative cosmetic paste at least from those areas of the base cosmetic paste free from grooves.