mhurhangee/ep-ind-claims huggingface dataset:
A method of control handover planning for an unmanned aerial vehicle, UAV, the method comprising: determining, by a planning system, a current location of a mobile control system and a current location of the UAV; identifying a target location; determining a control handover zone based on a communication range constraint between the mobile control system and the UAV, the control handover zone located between the current location of the mobile control system, the current location of the UAV, and the target location; characterized in that the method is further comprising: creating a mobile control system path plan from the current location of the mobile control system to the target location and a UAV path plan from the current location of the UAV to the target location, wherein each of the mobile control system path plan and the UAV path plan includes a control handover waypoint (210A, 210B) in the control handover zone at the same time, the control handover waypoint defining a planned location to place the mobile control system in control of the UAV, the waypoints (210A, 210B) being selected so that the UAV is scheduled to reach the target location before the mobile control system reaches the target location and after control of the UAV has been transferred to the mobile control system. determining, by a planning system, a current location of a mobile control system and a current location of the UAV; identifying a target location; determining a control handover zone based on a communication range constraint between the mobile control system and the UAV, the control handover zone located between the current location of the mobile control system, the current location of the UAV, and the target location; characterized in that the method is further comprising: creating a mobile control system path plan from the current location of the mobile control system to the target location and a UAV path plan from the current location of the UAV to the target location, wherein each of the mobile control system path plan and the UAV path plan includes a control handover waypoint (210A, 210B) in the control handover zone at the same time, the control handover waypoint defining a planned location to place the mobile control system in control of the UAV, the waypoints (210A, 210B) being selected so that the UAV is scheduled to reach the target location before the mobile control system reaches the target location and after control of the UAV has been transferred to the mobile control system.
A method for manufacturing a finned tube using a machine (3, 5) comprising a working assembly (30, 50) and at least one support assembly (40, 70), said first working assembly (30, 50) comprising a first rotating finning tool and a second rotating finning tool mounted in sequence on the same driving axis, said first rotating finning tool being provided with a first helical working profile having a first angle of advancement α 1 and said second rotating finning tool being provided with a second helical working profile having a second angle of advancement α 2, with α 2 ≠α 1, the method comprising advancing said tube on a plane defined by said support assembly (40, 70), forming a first fin on said tube by means of said first rotating finning tool, forming a second fin on said tube by means of said second rotating finning tool, the formation of said second fin being immediately subsequent to the formation of said first fin, the height of said first fin being lower than the height of said second fin.
A seatbelt airbag comprising: an inflation chamber inflatable from an undeployed state to a deployed state, the inflation chamber comprising a first inflation chamber and a second inflation chamber; an actuator unit for slidably connecting the airbag to a seatbelt such that the first inflation chamber is positioned above the second inflation chamber; and a flow director for directing inflation gas into the inflation chamber to inflate the inflation chamber, the flow director configured to direct the inflation gas into the first inflation chamber prior to the second inflation chamber; wherein the actuator unit is located in the inflation chamber, the actuator unit comprising: an inflator; and an actuator configured to actuate the inflator. an inflation chamber inflatable from an undeployed state to a deployed state, the inflation chamber comprising a first inflation chamber and a second inflation chamber; an actuator unit for slidably connecting the airbag to a seatbelt such that the first inflation chamber is positioned above the second inflation chamber; and a flow director for directing inflation gas into the inflation chamber to inflate the inflation chamber, the flow director configured to direct the inflation gas into the first inflation chamber prior to the second inflation chamber; wherein the actuator unit is located in the inflation chamber, the actuator unit comprising: an inflator; and an actuator configured to actuate the inflator. an inflator; and an actuator configured to actuate the inflator.
A multilevel inverter, comprising: a phase shift transformer, where an output power of the phase shift transformer is inputted as an input AC power source, wherein the phase shift transformer is configured to perform a function of an initial charging circuit and a separate rectification circuit; a converter unit converting the inputted AC power source to a direct current power source; a film capacitor smoothing the DC power source converted by the converter unit, wherein the film capacitor is configured to perform a function of an initial charging resistor or an electronic contactor; an inverter unit converting the smoothed DC power source to a three-phase current in response to a pulse width modulation control signal and outputting a current; a current detector detecting the current outputted from the inverter unit; a power cell main controller generating a voltage instruction and a frequency instruction using the detected current; and a PWM controller generating the pulse width modulation control signal using the voltage instruction and frequency instruction. a phase shift transformer, where an output power of the phase shift transformer is inputted as an input AC power source, wherein the phase shift transformer is configured to perform a function of an initial charging circuit and a separate rectification circuit; a converter unit converting the inputted AC power source to a direct current power source; a film capacitor smoothing the DC power source converted by the converter unit, wherein the film capacitor is configured to perform a function of an initial charging resistor or an electronic contactor; an inverter unit converting the smoothed DC power source to a three-phase current in response to a pulse width modulation control signal and outputting a current; a current detector detecting the current outputted from the inverter unit; a power cell main controller generating a voltage instruction and a frequency instruction using the detected current; and a PWM controller generating the pulse width modulation control signal using the voltage instruction and frequency instruction.
Shoe guide member of a high pressure fuel pump, the shoe guide member being provided with a guiding bore extending along a pumping axis and opening in a top face and in a bottom face of the shoe guide member, said guiding bore defining two long faces (58, 60) parallel to each other and perpendicular to two short faces (62, 64) against which, in use, slide faces (42, 44, 46, 48) of a shoe member and, wherein the shoe guide member is further provided with at least one passage (65, 66) extending from said top to said bottom face and enabling, in use, lubricant fluid to flow between said top and bottom faces, characterized in that said passages are conduits arranged in the shoe guide member and angled relative to the pumping axis, said conduits opening at a first end in the bottom face at a distance from the long faces (58, 60) and, at a second end in the vicinity of the top face in the long face (58, 60) so that the area of said long faces (58, 60) closer to the bottom face is larger than the area closer to the top face.
A tableted chewing gum suitable for active pharmaceutical ingredients, the chewing gum comprising a population of particles, the population of particles comprising a) directly compressible sugar alcohol particles, b) non-directly compressible (non-DC) sugar alcohol particles and c) particles comprising gum base, the gum base comprising at least 5% by weight of elastomer, wherein the non-DC sugar alcohol particles are non-DC erythritol particles.
A method for transmitting a data packet, the method comprises: transmitting, by a control node, a data packet received from at least one base station to an access network gateway or a core network gateway; and transmitting, by the control node, a data packet received from the access network gateway or the core network gateway to at least one base station, wherein the control node is a connection control node and a mobility control node of a user equipment; and wherein the control node transmits the data packet with a base station via Xn interface application protocol, and the control node performs authentication, authorization, connection management, mobility management and session management of the user equipment through air interface high-level protocol, and wherein the control node is located in access network of a cellular network, the access network further comprising at least a base station and at least an access network gateway. transmitting, by a control node, a data packet received from at least one base station to an access network gateway or a core network gateway; and transmitting, by the control node, a data packet received from the access network gateway or the core network gateway to at least one base station, wherein the control node is a connection control node and a mobility control node of a user equipment; and wherein the control node transmits the data packet with a base station via Xn interface application protocol, and the control node performs authentication, authorization, connection management, mobility management and session management of the user equipment through air interface high-level protocol, and wherein the control node is located in access network of a cellular network, the access network further comprising at least a base station and at least an access network gateway.
A mutant CYP102A1 enzyme or fragment thereof, wherein said CYP102A1 enzyme or fragment thereof comprises: (a) the amino acid sequence of SEQ ID NO: 1; (b) a naturally occurring homologue thereof of the CYP102 family, wherein said naturally occurring homologue is CYP102A2 or CYP102A3; (c) an amino acid sequence having at least 65% identity to the amino acid sequence of (a); or (d) a fragment of any of (a), (b) or (c) having a deletion of 1 up to 20 amino acids, wherein the mutant CYP102A1 enzyme or fragment thereof comprises the substitution A330P, A330V, A330L, A330I, A330W, A330F, A330Y or A330M or the corresponding substitution at an amino acid position in the polypeptide chain corresponding to amino acid residue 330 of SEQ ID NO:1, and wherein the mutant CYP102A1 enzyme or fragment thereof has enhanced monooxygenase activity. (a) the amino acid sequence of SEQ ID NO: 1; (b) a naturally occurring homologue thereof of the CYP102 family, wherein said naturally occurring homologue is CYP102A2 or CYP102A3; (c) an amino acid sequence having at least 65% identity to the amino acid sequence of (a); or (d) a fragment of any of (a), (b) or (c) having a deletion of 1 up to 20 amino acids,
A method for manufacturing a metal grating structure, comprising: forming a resist layer on a principal plane of an n-type silicon substrate; patterning the resist layer to remove the patterned portion of the resist layer; etching the silicon substrate corresponding to the removed portion of the resist layer by a dry etching method to form a concave portion of a predetermined depth; forming an insulating layer on an inner surface of the concave portion in the silicon substrate by a thermal oxidation method; removing a portion of the insulating layer formed on a bottom portion of the concave portion; and filling the concave portion with metal by an electroforming method with application of a voltage to the silicon substrate. forming a resist layer on a principal plane of an n-type silicon substrate; patterning the resist layer to remove the patterned portion of the resist layer; etching the silicon substrate corresponding to the removed portion of the resist layer by a dry etching method to form a concave portion of a predetermined depth; forming an insulating layer on an inner surface of the concave portion in the silicon substrate by a thermal oxidation method; removing a portion of the insulating layer formed on a bottom portion of the concave portion; and filling the concave portion with metal by an electroforming method with application of a voltage to the silicon substrate.
A method, comprising: correlating, via a data correlator, agent delivery information from an injector for an agent-based imaging procedure with imaging data acquired by an imaging system utilized for the procedure. correlating, via a data correlator, agent delivery information from an injector for an agent-based imaging procedure with imaging data acquired by an imaging system utilized for the procedure.
Computed tomography device with a holding frame and a ring mount, which is mounted movably with respect to the holding frame, wherein the ring mount has an x-ray detector with a semiconductor material, which is operable in an equilibrium of statistical states of occupation, wherein the computed tomography device has a first power supply, which is set up to supply power, in an operating state of the computed tomography device, to a first lot of components of the computed tomography device, which are arranged on the ring mount for an image generation process, wherein the computed tomography device has a second power supply which can be separated from the first power supply in terms of circuitry and which is set up to supply power to a second lot of components of the computed tomography device in a resting state of the computed tomography device, and wherein the components of the second lot are set up to hold the semiconductor material in the said equilibrium, characterised by a second transmission path which can be separated from a first transmission path of the first power supply in terms of circuitry and is arranged at least partially on the ring mount and is interconnected with the second power supply and has a terminal for a mains cable arranged on the ring mount. wherein the ring mount has an x-ray detector with a semiconductor material, which is operable in an equilibrium of statistical states of occupation, wherein the computed tomography device has a first power supply, which is set up to supply power, in an operating state of the computed tomography device, to a first lot of components of the computed tomography device, which are arranged on the ring mount for an image generation process, wherein the computed tomography device has a second power supply which can be separated from the first power supply in terms of circuitry and which is set up to supply power to a second lot of components of the computed tomography device in a resting state of the computed tomography device, and wherein the components of the second lot are set up to hold the semiconductor material in the said equilibrium, characterised by a second transmission path which can be separated from a first transmission path of the first power supply in terms of circuitry and is arranged at least partially on the ring mount and is interconnected with the second power supply and has a terminal for a mains cable arranged on the ring mount.
A stick type cosmetic container capable of exhausting the residual quantity of a cosmetic substance, comprising: a handle for controlling ascent and descent of the cosmetic substance; an inner container joined between an outer end part and an inner end part of the handle and having a first hollow part disposed therein; an inner member joined between the inner container and the inner end part of the handle to be fixed in location; a holder capable of being lifted up and down inside the inner container along a screw thread part disposed on the inner end part of the handle; and an outer container for covering the inner container, wherein the holder includes a first inner holder and a second inner holder, and a second hollow part disposed inside the first inner holder and the second inner holder to accommodate the residual quantity of the cosmetic substance in the second hollow part, and wherein when the cosmetic substance in the first hollow part is exhausted, the first inner holder is lifted up inside the second inner holder in order to expose the residual quantity of the cosmetic substance in the second hollow part to the outside. a handle for controlling ascent and descent of the cosmetic substance; an inner container joined between an outer end part and an inner end part of the handle and having a first hollow part disposed therein; an inner member joined between the inner container and the inner end part of the handle to be fixed in location; a holder capable of being lifted up and down inside the inner container along a screw thread part disposed on the inner end part of the handle; and an outer container for covering the inner container, wherein the holder includes a first inner holder and a second inner holder, and a second hollow part disposed inside the first inner holder and the second inner holder to accommodate the residual quantity of the cosmetic substance in the second hollow part, and wherein when the cosmetic substance in the first hollow part is exhausted, the first inner holder is lifted up inside the second inner holder in order to expose the residual quantity of the cosmetic substance in the second hollow part to the outside.
A compound represented by formula or: wherein Z 2 is CR 2 or N; R 2 is hydrogen, C 1 -C 4 alkyl, or halogen; R 3 is hydrogen, C 1 -C 4 alkyl, or pyrimidinylmethoxy; R 5 is methyl or amino; and R 10 is C 1 -C 4 alkyl, C 3 -C 6 cycloalkyl-methyl or C 1 -C 2 haloalkyl; or a salt thereof. Z 2 is CR 2 or N; R 2 is hydrogen, C 1 -C 4 alkyl, or halogen; R 3 is hydrogen, C 1 -C 4 alkyl, or pyrimidinylmethoxy; R 5 is methyl or amino; and R 10 is C 1 -C 4 alkyl, C 3 -C 6 cycloalkyl-methyl or C 1 -C 2 haloalkyl; or a salt thereof.
A method for supporting the guidance of a construction machine for surface processing, especially in road construction, where the construction machine includes a control system for determining the direction of travel parallel to an existing longitudinal surface texture, which is used for scanning, characterized in that at least one sensor and/or signal transmitter is used, which, together with and by means of a scanning tool and/or guide object as a scanning unit, touching the surface texture, automatically determines a rotation, displacement, and/or horizontal movement, especially a rotary encoder.
A system for resampling an optical coherence tomography signal, the system comprising: a frequency scanning light source for generating a swept optical signal; a k-clock module that generates a reference signal in response to frequency sweeping of the swept optical signal, wherein a free spectral range of the k-clock module is wider than sweep-to-sweep wavelength jitter of the frequency scanning light source; an interferometer that generates interference signals from the swept optical signal; a data acquisition module, DAQ, configured to sample the reference signal at a constant rate and resample the interference signals based on the reference signal at uniform optical frequency intervals; and a field programmable gate array, FPGA, of the DAQ, wherein the FPGA is configured to multiply the reference signal to resample the interference signals using bandlimited interpolation implemented via a direct convolution with finite impulse response digital filters. a frequency scanning light source for generating a swept optical signal; a k-clock module that generates a reference signal in response to frequency sweeping of the swept optical signal, wherein a free spectral range of the k-clock module is wider than sweep-to-sweep wavelength jitter of the frequency scanning light source; an interferometer that generates interference signals from the swept optical signal; a data acquisition module, DAQ, configured to sample the reference signal at a constant rate and resample the interference signals based on the reference signal at uniform optical frequency intervals; and a field programmable gate array, FPGA, of the DAQ, wherein the FPGA is configured to multiply the reference signal to resample the interference signals using bandlimited interpolation implemented via a direct convolution with finite impulse response digital filters.
A glass-to-metal sealing device of a solar receiver, the device comprising a metal collar and a glass cylinder to be sealed together, the device comprising the following features: b) the metal collar is made of an austenitic alloy having a thermal expansion coefficient in the range of [3.5,6.0] ·10 -6 °C -1 in the temperature range of [50÷450]°C; c) the end portion of the metal collar is beveled so as to increase its mechanical flexibility; d) the end portion of the metal collar is processed via a thermal treatment in order to establish a bond between the metal and the glass surfaces; the device being characterised in that it further comprises the following feature: a) the glass cylinder is made out of a borosilicate glass having a thermal expansion coefficient in the range of [3.1,3.5] · 10-6 °C-1 in the temperature range of [50,450]°C. b) the metal collar is made of an austenitic alloy having a thermal expansion coefficient in the range of [3.5,6.0] ·10 -6 °C -1 in the temperature range of [50÷450]°C; c) the end portion of the metal collar is beveled so as to increase its mechanical flexibility; d) the end portion of the metal collar is processed via a thermal treatment in order to establish a bond between the metal and the glass surfaces; a) the glass cylinder is made out of a borosilicate glass having a thermal expansion coefficient in the range of [3.1,3.5] · 10-6 °C-1 in the temperature range of [50,450]°C.