mhurhangee/patent-ind-claim-en huggingface dataset:
An optoelectronic component , comprising: a capacitor , an inductor , a carrier component , component, and an optoelectronic element , wherein: the capacitor, the inductor, and the optoelectronic element are all disposed on the carrier component; the inductor and the capacitor are configured to form a resonant circuit, wherein a resonance frequency of the resonant circuit is correlated with a signal output frequency of the optoelectronic element; the resonance frequency is made to be relatively close to the signal output frequency and a resonance signal excites a signal transmitted by the optoelectronic element; a first electrode of the optoelectronic element is connected to a first electrode of the carrier component through the inductor, and a second electrode of the optoelectronic element is connected to a second electrode of the carrier component; and a first electrode of the capacitor is connected to the first electrode of the carrier component, and a second electrode of the capacitor is connected to the second electrode of the carrier component; characterized in that both the first electrode of the capacitor and the second electrode of the capacitor are located on a lower surface of the capacitor, the first electrode of the capacitor is attached to the first electrode of the carrier component, and the second electrode of the capacitor is attached to the second electrode of the carrier component. the capacitor, the inductor, and the optoelectronic element are all disposed on the carrier component; the inductor and the capacitor are configured to form a resonant circuit, wherein a resonance frequency of the resonant circuit is correlated with a signal output frequency of the optoelectronic element; the resonance frequency is made to be relatively close to the signal output frequency and a resonance signal excites a signal transmitted by the optoelectronic element; a first electrode of the optoelectronic element is connected to a first electrode of the carrier component through the inductor, and a second electrode of the optoelectronic element is connected to a second electrode of the carrier component; and a first electrode of the capacitor is connected to the first electrode of the carrier component, and a second electrode of the capacitor is connected to the second electrode of the carrier component; characterized in that both the first electrode of the capacitor and the second electrode of the capacitor are located on a lower surface of the capacitor, the first electrode of the capacitor is attached to the first electrode of the carrier component, and the second electrode of the capacitor is attached to the second electrode of the carrier component.
A tool for positioning a tubular component of a turbine combustor comprising: an annular frame portion including a mount portion extending radially from the frame portion ; a hook portion arranged on the mount portion , the hook portion sized and shaped to be capable to engage a member of a tubular component of a turbine combustor; wherein the tubular component can be a mounting case , a flow sleeve portion or a combustor liner portion ; and a force exertion portion arranged on the mount portion , the force exertion portion operative to be capable to engage the tubular component of the turbine combustor, where the force exertion portion includes a first threaded member engaging the mount portion , the first threaded member being in form of a removal bolt that is rotated to exert a force on the mounting case and/or the flow sleeve portion , and, wherein the hook portion includes a plate having a longitudinal axis , the plate defining an aperture , wherein the aperture is defined by a first planar surface arranged substantially in parallel with a second planar surface , wherein the aperture is further defined by a third planar surface arranged substantially perpendicular to the first planar surface , wherein the first planar surface is arranged in parallel with a planar surface of the frame portion , wherein the third planar surface is arranged in parallel to the rotational axis of the frame portion . an annular frame portion including a mount portion extending radially from the frame portion ; a hook portion arranged on the mount portion , the hook portion sized and shaped to be capable to engage a member of a tubular component of a turbine combustor; wherein the tubular component can be a mounting case , a flow sleeve portion or a combustor liner portion ; and a force exertion portion arranged on the mount portion , the force exertion portion operative to be capable to engage the tubular component of the turbine combustor, where the force exertion portion includes a first threaded member engaging the mount portion , the first threaded member being in form of a removal bolt that is rotated to exert a force on the mounting case and/or the flow sleeve portion , and, wherein the hook portion includes a plate having a longitudinal axis , the plate defining an aperture , wherein the aperture is defined by a first planar surface arranged substantially in parallel with a second planar surface , wherein the aperture is further defined by a third planar surface arranged substantially perpendicular to the first planar surface , wherein the first planar surface is arranged in parallel with a planar surface of the frame portion , wherein the third planar surface is arranged in parallel to the rotational axis of the frame portion .
A roller assembly for a conveyor belt, arranged transversely to the displacement direction of the conveyor belt (CT) and comprising two side rollers , inclined outwardly and upwardly, and two central rollers , horizontal and parallel to each other, each one of the side roller and the central roller being mounted rotatably free around a respective shaft , wherein the shaft of each side roller has an upper end hinged to a respective support portion (PS) arranged on one side of the conveyor belt (CT) and a lower end , wherein the shaft of each central roller has ends which are opposite to each other and mounted on opposite sides of a rocker frame , each of the opposite sides of the frame having a median portion hinged, in a suspension way, to the lower end of the shaft of a respective side roller , wherein the opposite sides of the rocker frame are parallel to each other and to the displacement direction of the conveyor belt (CT), each one comprising a crossbar having end portions , opposite to each other and in each one is mounted one of the ends of the shaft of one of the central rollers ; characterized in that the crossbars of the rocker frame are connected to each other by two struts , transversal to the displacement direction of the conveyor belt (CT), wherein each crossbar has a median portion provided with a through hole in which one end of a frame shaft is arranged, each end of the frame shaft being hinged to the lower end of the shaft of one of the side rollers . the opposite sides of the rocker frame are parallel to each other and to the displacement direction of the conveyor belt (CT), each one comprising a crossbar having end portions , opposite to each other and in each one is mounted one of the ends of the shaft of one of the central rollers ; characterized in that the crossbars of the rocker frame are connected to each other by two struts , transversal to the displacement direction of the conveyor belt (CT), wherein each crossbar has a median portion provided with a through hole in which one end of a frame shaft is arranged, each end of the frame shaft being hinged to the lower end of the shaft of one of the side rollers .
A printing ink formulation, characterized by comprising a functional material and a solvent, the solvent could be evaporable from the printing ink formulation to form a functional material film; wherein the solvent is formed by mixing at least two organic solvents including a first solvent and a second solvent, the first solvent and the second solvent are miscible, and at least one of the first solvent and the second solvent has a boiling point greater than or equal to 160 °C, the second solvent has a surface tension less than that of the first solvent and a viscosity greater than that of the first solvent, and the difference in surface tension between the first solvent and the second solvent is at least 2 dyne/cm, and the difference in viscosity between the second solvent and the first solvent is at least 2 cPs, wherein the second solvent is 3-isopropylbiphenyl, and the first solvent is selected from the group consisting of acetophenone, 1,4-dimethylnaphthalene, diphenylmethane, styrene oxide, quinoline and isoquinoline.
A method of transmitting uplink data by a user equipment, UE, in a wireless communication system, the method comprising: transmitting, to a base station, BS, a preamble for a random access; receiving, from the BS , a response message for the random access, the response message corresponding to the preamble, wherein a radio resource control, RRC, connection is established based on the preamble and the response message; transmitting, to the BS , capability information, wherein the capability information includes (i) coherence capability and (ii) information for at least one transmit precoding matrix indicator, TPMI, which is supported by the UE for delivering full transmission power, wherein the coherence capability includes information for one of (i) full coherent, (ii) partial coherent, or (iii) non coherent, and wherein based on a number of ports related to the uplink data transmission being equal to 2, the information for at least one TPMI is configured as a bitmap; receiving, from the BS, downlink control information, DCI, for scheduling the uplink data, wherein the DCI includes a field for a TPMI used for the UE to transmit the uplink data; determining a transmission power for the uplink data; and transmitting, to the BS, the uplink data based on (i) the determined transmission power and (ii) the TPMI, wherein based on the field for the TPMI being related to the TPMI among the at least one TPMI reported by the UE, the uplink data is transmitted with full transmission power. transmitting, to a base station, BS, a preamble for a random access; receiving, from the BS , a response message for the random access, the response message corresponding to the preamble, wherein a radio resource control, RRC, connection is established based on the preamble and the response message; transmitting, to the BS , capability information, wherein the capability information includes (i) coherence capability and (ii) information for at least one transmit precoding matrix indicator, TPMI, which is supported by the UE for delivering full transmission power, wherein the coherence capability includes information for one of (i) full coherent, (ii) partial coherent, or (iii) non coherent, and wherein based on a number of ports related to the uplink data transmission being equal to 2, the information for at least one TPMI is configured as a bitmap; receiving, from the BS, downlink control information, DCI, for scheduling the uplink data, wherein the DCI includes a field for a TPMI used for the UE to transmit the uplink data; determining a transmission power for the uplink data; and transmitting, to the BS, the uplink data based on (i) the determined transmission power and (ii) the TPMI, wherein based on the field for the TPMI being related to the TPMI among the at least one TPMI reported by the UE, the uplink data is transmitted with full transmission power.
A method of controlling a property of liquid droplets ejected from a jetting device (D) having an array of ejection units (E) each of which comprises: - a cavity connected to a nozzle ; and - an actuator associated with the cavity for exciting a pressure wave in the liquid in the cavity, the method comprising: - a step of monitoring a sub-threshold pressure wave oscillating in the cavity but having an amplitude not large enough for jetting-out a droplet, and deriving an indicator (τ) for the viscosity of the liquid from the behavior of the sub-threshold pressure wave; and - a step of adjusting a setting of the jetting device (D) on the basis of the indicator (τ) characterized by the further steps of: - a calibration step in which the array of ejection units (E) is kept at a reference temperature and a reference profile is established by deriving said indicator (τ) for a plurality of ejection units (E); and - a monitoring and control step which is performed in an operating state of the jetting device (D) and comprises establishing an operation profile of said indicator (τ) and adjusting said setting on the basis of a difference between the operation profile and the reference profile . - a cavity connected to a nozzle ; and - an actuator associated with the cavity for exciting a pressure wave in the liquid in the cavity, - a step of monitoring a sub-threshold pressure wave oscillating in the cavity but having an amplitude not large enough for jetting-out a droplet, and deriving an indicator (τ) for the viscosity of the liquid from the behavior of the sub-threshold pressure wave; and - a step of adjusting a setting of the jetting device (D) on the basis of the indicator (τ) - a calibration step in which the array of ejection units (E) is kept at a reference temperature and a reference profile is established by deriving said indicator (τ) for a plurality of ejection units (E); and - a monitoring and control step which is performed in an operating state of the jetting device (D) and comprises establishing an operation profile of said indicator (τ) and adjusting said setting on the basis of a difference between the operation profile and the reference profile .
A PCR device comprising: a PCR thermal block having two or more groups of heaters , each group of heaters comprising a first heater and a second heater and each group being evenly arranged on an upper surface of a substrate to be spaced apart from each other; a plate type PCR chip having two or more reaction chambers ; and unidirectional sliding means which serves to slide while maintaining the contact between the PCR chip and the PCR thermal block in the state where the PCR chip is mounted, the unidirectional sliding means being formed to cause a sequential thermal contact between each of the two or more reaction chambers and the two or more groups of heaters repeatedly arranged from one end of the PCR thermal block to the other end of the PCR thermal block during the sliding, wherein the first heater and the second heater are spaced apart from each other along a sliding direction, wherein the two or more reaction chambers of the plate type PCR chip are repeatedly mounted in such a way as to meet the heaters arranged on the PCR thermal block when getting in contact with the PCR thermal block , and wherein two or more groups of heaters are formed in such a way that the first circulation of the PCR is carried out in the group of heaters located at one end of the PCR thermal block and the final circulation is ended in the group of heaters located at the other end of the PCR thermal block. a PCR thermal block having two or more groups of heaters , each group of heaters comprising a first heater and a second heater and each group being evenly arranged on an upper surface of a substrate to be spaced apart from each other; a plate type PCR chip having two or more reaction chambers ; and unidirectional sliding means which serves to slide while maintaining the contact between the PCR chip and the PCR thermal block in the state where the PCR chip is mounted, the unidirectional sliding means being formed to cause a sequential thermal contact between each of the two or more reaction chambers and the two or more groups of heaters repeatedly arranged from one end of the PCR thermal block to the other end of the PCR thermal block during the sliding, wherein the first heater and the second heater are spaced apart from each other along a sliding direction, wherein the two or more reaction chambers of the plate type PCR chip are repeatedly mounted in such a way as to meet the heaters arranged on the PCR thermal block when getting in contact with the PCR thermal block , and wherein two or more groups of heaters are formed in such a way that the first circulation of the PCR is carried out in the group of heaters located at one end of the PCR thermal block and the final circulation is ended in the group of heaters located at the other end of the PCR thermal block.
A method for adjusting a dynamic scale indicator on a flight display of an aircraft, comprising: receiving an operational status parameter for the aircraft from an avionics unit located onboard the aircraft; generating the dynamic scale indicator that is located on the flight display of the aircraft, where the dynamic scale indicator includes a value range that represents operational status parameter values greater than a selected setting value and a value range that represents operational status parameter values less the selected setting value; translating the operational status parameter into a value that is represented on the dynamic scale indicator; characterised in that the method further comprises adjusting the value ranges shown on the dynamic scale indicator by: fading the value range below the selected setting value from the dynamic scale indicator when the operational status parameter value is above the selected setting value, fading the value range above the selected setting value from the dynamic scale indicator when the operational status parameter value is below the selected setting value, and fading the value range from the dynamic scale indicator to the extent that the value range exceeds the operational status parameter value; and displaying the dynamic scale indicator with the adjusted value ranges on the display. receiving an operational status parameter for the aircraft from an avionics unit located onboard the aircraft; generating the dynamic scale indicator that is located on the flight display of the aircraft, where the dynamic scale indicator includes a value range that represents operational status parameter values greater than a selected setting value and a value range that represents operational status parameter values less the selected setting value; translating the operational status parameter into a value that is represented on the dynamic scale indicator; characterised in that the method further comprises adjusting the value ranges shown on the dynamic scale indicator by: fading the value range below the selected setting value from the dynamic scale indicator when the operational status parameter value is above the selected setting value, fading the value range above the selected setting value from the dynamic scale indicator when the operational status parameter value is below the selected setting value, and fading the value range from the dynamic scale indicator to the extent that the value range exceeds the operational status parameter value; and displaying the dynamic scale indicator with the adjusted value ranges on the display. fading the value range below the selected setting value from the dynamic scale indicator when the operational status parameter value is above the selected setting value, fading the value range above the selected setting value from the dynamic scale indicator when the operational status parameter value is below the selected setting value, and fading the value range from the dynamic scale indicator to the extent that the value range exceeds the operational status parameter value; and displaying the dynamic scale indicator with the adjusted value ranges on the display.
A multi-color light source device , comprising: a first light source (402-1) configured to emit light of a first color (412-1); a second light source (402-2) configured to emit light of a second color (412-2) that is distinct from the first color (412-1); and a first lens (410-1, 510) associated with a first focal length for the light of the first color (412-1) and a second focal length, distinct from the first focal length, for the light of the second color (412-2), wherein: the first light source (402-1) is located at a first distance from the first lens (410-1, 510); and the second light source (402-2) is located at a second distance, distinct from the first distance, from the first lens (410-1, 510); characterized in that : the first lens (410-1, 510) is a geometric phase lens; and the first light source (402-1), the second light source (402-2), and the first geometric phase lens (410-1, 510) are positioned so that the light of the first color (412-1) and the light of the second color (412-2), after passing through the first geometric phase lens (410-1, 510), are collinearly collimated. a first light source (402-1) configured to emit light of a first color (412-1); a second light source (402-2) configured to emit light of a second color (412-2) that is distinct from the first color (412-1); and a first lens (410-1, 510) associated with a first focal length for the light of the first color (412-1) and a second focal length, distinct from the first focal length, for the light of the second color (412-2), wherein: the first light source (402-1) is located at a first distance from the first lens (410-1, 510); and the second light source (402-2) is located at a second distance, distinct from the first distance, from the first lens (410-1, 510); the first light source (402-1) is located at a first distance from the first lens (410-1, 510); and the second light source (402-2) is located at a second distance, distinct from the first distance, from the first lens (410-1, 510); characterized in that : the first lens (410-1, 510) is a geometric phase lens; and the first light source (402-1), the second light source (402-2), and the first geometric phase lens (410-1, 510) are positioned so that the light of the first color (412-1) and the light of the second color (412-2), after passing through the first geometric phase lens (410-1, 510), are collinearly collimated. the first lens (410-1, 510) is a geometric phase lens; and the first light source (402-1), the second light source (402-2), and the first geometric phase lens (410-1, 510) are positioned so that the light of the first color (412-1) and the light of the second color (412-2), after passing through the first geometric phase lens (410-1, 510), are collinearly collimated.