mhurhangee/ep-ind-claims huggingface dataset:
A solid oxide fuel cell system comprising: a fuel cell stack that generates electric power through a reaction between a fuel gas and an oxidizing gas; a combustor in which anode and cathode off-gases discharged from the fuel cell stack are burned by diffusion combustion; a temperature sensor that detects temperature of the anode off-gas flowing into the combustor; and a controller, characterized in that while the solid fuel cell system is in power-generating operation and when the controller determines that the system is in at least one of the following states (i) and (ii), the controller is configured to instruct the system to perform a power-generation control action for preventing failed reactions in the diffusion combustion: (i) the temperature of the anode off-gas, detected by the temperature sensor, is below a first predetermined temperature for a predetermined continuous period of time; and (ii) the temperature of the anode off-gas decreases by not less than a predetermined second temperature range during a predetermined period of time, wherein the power-generation control action, instructed by the controller, is at least one of the followings: reducing fuel utilization in the fuel cell stack, reducing a flow rate of the oxidizing gas fed to the fuel cell stack, and reducing output of the fuel cell stack. a fuel cell stack that generates electric power through a reaction between a fuel gas and an oxidizing gas; a combustor in which anode and cathode off-gases discharged from the fuel cell stack are burned by diffusion combustion; a temperature sensor that detects temperature of the anode off-gas flowing into the combustor; and a controller, characterized in that while the solid fuel cell system is in power-generating operation and when the controller determines that the system is in at least one of the following states (i) and (ii), the controller is configured to instruct the system to perform a power-generation control action for preventing failed reactions in the diffusion combustion: (i) the temperature of the anode off-gas, detected by the temperature sensor, is below a first predetermined temperature for a predetermined continuous period of time; and (ii) the temperature of the anode off-gas decreases by not less than a predetermined second temperature range during a predetermined period of time, wherein the power-generation control action, instructed by the controller, is at least one of the followings: reducing fuel utilization in the fuel cell stack, reducing a flow rate of the oxidizing gas fed to the fuel cell stack, and reducing output of the fuel cell stack.
A mover robot system for cutting lawn within a driving area, the mover robot system comprising: a terminal configured to remotely control a mover robot through a manipulation of a control screen for an operation control of the mover robot by displaying the control screen on a display unit; a server configured to perform communication for a remote control with each of the terminal and the mover robot; and a mover robot configured to perform an operation in response to the manipulation of the control screen, wherein, if the mover robot cuts lawn in an area other than the driving area, the terminal is configured to restrict the manipulation of the control screen and to display a locked screen for requesting an input of a preset use code on the display unit by communicating with the server, and the server is configured to communicate with the terminal so that the terminal displays the locked screen on the display unit, and maintains or releases a display of the locked screen in accordance an input code input to the locked screen, and wherein the server is configured to release the display of the locked screen in accordance with a distance between the terminal and the mover robot if the input code is matched with the use code. a terminal configured to remotely control a mover robot through a manipulation of a control screen for an operation control of the mover robot by displaying the control screen on a display unit; a server configured to perform communication for a remote control with each of the terminal and the mover robot; and a mover robot configured to perform an operation in response to the manipulation of the control screen, wherein, if the mover robot cuts lawn in an area other than the driving area, the terminal is configured to restrict the manipulation of the control screen and to display a locked screen for requesting an input of a preset use code on the display unit by communicating with the server, and the server is configured to communicate with the terminal so that the terminal displays the locked screen on the display unit, and maintains or releases a display of the locked screen in accordance an input code input to the locked screen, and wherein the server is configured to release the display of the locked screen in accordance with a distance between the terminal and the mover robot if the input code is matched with the use code.
A biopolymer composition comprising: a copolymer resin of lactic acid and 3-hydroxypropionate in 83.5% by weight or greater; an antioxidant; and a lubricant, wherein elongation is greater than or equal to 90% and less than or equal to 500%, measured as indicated in the specification. a copolymer resin of lactic acid and 3-hydroxypropionate in 83.5% by weight or greater; an antioxidant; and a lubricant, wherein elongation is greater than or equal to 90% and less than or equal to 500%, measured as indicated in the specification.
A method for diagnosing tuberculosis in a patient, the method comprising: a) providing a whole blood sample to be tested obtained from the patient; b) measuring levels of expression of GBP5, DUSP3, and KLF2 biomarkers in the whole blood sample; c) analyzing the levels of expression of each biomarker in conjunction with respective reference value ranges for the biomarkers, wherein increased levels of expression of the GBP5 and DUSP3 biomarkers compared to the reference value ranges for the biomarkers for a control subject in combination with a decreased level of expression of the KLF2 biomarker compared to reference value ranges of the biomarker for a control subject indicate that the patient has active tuberculosis. a) providing a whole blood sample to be tested obtained from the patient; b) measuring levels of expression of GBP5, DUSP3, and KLF2 biomarkers in the whole blood sample; c) analyzing the levels of expression of each biomarker in conjunction with respective reference value ranges for the biomarkers, wherein increased levels of expression of the GBP5 and DUSP3 biomarkers compared to the reference value ranges for the biomarkers for a control subject in combination with a decreased level of expression of the KLF2 biomarker compared to reference value ranges of the biomarker for a control subject indicate that the patient has active tuberculosis.
An aluminum support for a planographic printing plate, wherein an average value of surface area-increase rates ΔS SEM (%) computed from Expression is 200% or more, and an average value of pit depths Δh SEM (nm) is 400 nm or less, ΔS SEM (%)=(length of surface line/length of standard straight line Y)×100 ··· here, the length of the standard straight line Y is 1.0 μm, and the length of the surface line is a length of a cross-sectional curved line in a cross section of the aluminum support for a planographic printing plate in a thickness direction between any start point in the cross-sectional curved line and an end point at which a length of the cross-sectional curved line from the start point is minimized among any points in the cross-sectional curved line at which a straight line distance from the start point becomes equal to the length of the standard straight line Y, and the pit depth Δh SEM (nm) refers to a length at which a length of a normal line drawn to a 0.2 μm-long standard straight line Z having a start point and an end point on a cross-sectional curved line, from the standard straight line Z to the cross-sectional curved line is maximized. wherein an average value of surface area-increase rates ΔS SEM (%) computed from Expression is 200% or more, and an average value of pit depths Δh SEM (nm) is 400 nm or less, ΔS SEM (%)=(length of surface line/length of standard straight line Y)×100 ··· here, the length of the standard straight line Y is 1.0 μm, and the length of the surface line is a length of a cross-sectional curved line in a cross section of the aluminum support for a planographic printing plate in a thickness direction between any start point in the cross-sectional curved line and an end point at which a length of the cross-sectional curved line from the start point is minimized among any points in the cross-sectional curved line at which a straight line distance from the start point becomes equal to the length of the standard straight line Y, and the pit depth Δh SEM (nm) refers to a length at which a length of a normal line drawn to a 0.2 μm-long standard straight line Z having a start point and an end point on a cross-sectional curved line, from the standard straight line Z to the cross-sectional curved line is maximized.
An apparatus for switching clock sources, comprising: a processor; and a memory communicatively coupled to the processor and adapted to store instructions which, when executed by the processor, cause the apparatus to: monitor (301, 401) Precision Time Protocol, PTP, packets using each of PTP ports which connect to a newly joined grandmaster, GM; perform (302, 402) a phase stability check to a frequency and a phase for a current PTP port that receives PTP packets from the newly joined GM so as to determine whether the frequency for the current PTP port is in a FREQ_LOCKED state and the phase value for the current PTP port satisfies a threshold; in response to the frequency for the current PTP port being in the FREQ_LOCKED state and the phase value for the current PTP port satisfying the threshold, add the PTP port to a candidate list for Best Master Clock Algorithm, BMCA. a processor; and a memory communicatively coupled to the processor and adapted to store instructions which, when executed by the processor, cause the apparatus to: monitor (301, 401) Precision Time Protocol, PTP, packets using each of PTP ports which connect to a newly joined grandmaster, GM; perform (302, 402) a phase stability check to a frequency and a phase for a current PTP port that receives PTP packets from the newly joined GM so as to determine whether the frequency for the current PTP port is in a FREQ_LOCKED state and the phase value for the current PTP port satisfies a threshold; in response to the frequency for the current PTP port being in the FREQ_LOCKED state and the phase value for the current PTP port satisfying the threshold, add the PTP port to a candidate list for Best Master Clock Algorithm, BMCA. monitor (301, 401) Precision Time Protocol, PTP, packets using each of PTP ports which connect to a newly joined grandmaster, GM; perform (302, 402) a phase stability check to a frequency and a phase for a current PTP port that receives PTP packets from the newly joined GM so as to determine whether the frequency for the current PTP port is in a FREQ_LOCKED state and the phase value for the current PTP port satisfies a threshold; in response to the frequency for the current PTP port being in the FREQ_LOCKED state and the phase value for the current PTP port satisfying the threshold, add the PTP port to a candidate list for Best Master Clock Algorithm, BMCA.
A pressure reducing system for a breathing apparatus comprising: i) a conduit for supplying a breathable gas under pressure; ii) a mouthpiece for inspiration of the breathable gas by a user; iii) a valve poppet operatively interposed between the conduit and the mouthpiece; said valve poppet being movable between a closed position, in which it prevents the passage of the breathable gas from the conduit to the mouthpiece, and at least one open position in which it permits the passage of the breathable gas from the conduit to the mouthpiece; said conduit comprising an abutment against which the valve poppet abuts in the closed position and from which it is distanced in said at least one open position; said abutment defining an annular interface which in the closed position is in contact with the valve poppet in order to perform a fluid-dynamic sealing action that prevents the passage of the breathable gas from the conduit to the mouthpiece; the interface being located on an end surface of the abutment; iv) a balancing chamber that defines a pressure balancing zone, said valve poppet being at least in part interposed between the abutment and the balancing chamber; the valve poppet defining a passage that places the conduit and the pressure balancing chamber in fluid communication; said passage, in at least one of said open positions extending in the supply conduit beyond said interface; characterised in that said passage extends in the supply conduit beyond said interface in all of said open positions of the valve poppet. i) a conduit for supplying a breathable gas under pressure; ii) a mouthpiece for inspiration of the breathable gas by a user; iii) a valve poppet operatively interposed between the conduit and the mouthpiece; said valve poppet being movable between a closed position, in which it prevents the passage of the breathable gas from the conduit to the mouthpiece, and at least one open position in which it permits the passage of the breathable gas from the conduit to the mouthpiece; said conduit comprising an abutment against which the valve poppet abuts in the closed position and from which it is distanced in said at least one open position; said abutment defining an annular interface which in the closed position is in contact with the valve poppet in order to perform a fluid-dynamic sealing action that prevents the passage of the breathable gas from the conduit to the mouthpiece; the interface being located on an end surface of the abutment; iv) a balancing chamber that defines a pressure balancing zone, said valve poppet being at least in part interposed between the abutment and the balancing chamber; the valve poppet defining a passage that places the conduit and the pressure balancing chamber in fluid communication; said passage, in at least one of said open positions extending in the supply conduit beyond said interface; characterised in that said passage extends in the supply conduit beyond said interface in all of said open positions of the valve poppet.
A power supply system for use with a hearing assistance device, the power supply system comprising: a housing including a battery storage region, an outer surface, an opening and a latch surface; a first removable battery holder including a first latch configured to fit within the battery storage region and to hold at least one battery (B1, B2), the first latch including a first button having a first length and a first projection that is configured to engage the latch surface; and a second removable battery holder including a second latch configured to fit within the battery storage region and to hold at least one battery (B1, B2), the second latch including a second button having a second length that is greater than the first length and a projection that is configured to engage the latch surface; wherein the respective configurations of the battery storage region, the first removable battery holder and the second removable battery holder are such that only one of the first and second removable battery holders can be located within the battery storage region at a time; wherein the first removable battery holder is configured such that the first button will be located within the opening and will not extend outwardly beyond the outer surface when the first removable battery holder is fully inserted into the battery storage region; and wherein the second removable battery holder is configured such that the second button will be located within the opening and extend outwardly beyond the outer surface when the second removable battery holder is fully inserted into the battery storage region. a housing including a battery storage region, an outer surface, an opening and a latch surface; a first removable battery holder including a first latch configured to fit within the battery storage region and to hold at least one battery (B1, B2), the first latch including a first button having a first length and a first projection that is configured to engage the latch surface; and a second removable battery holder including a second latch configured to fit within the battery storage region and to hold at least one battery (B1, B2), the second latch including a second button having a second length that is greater than the first length and a projection that is configured to engage the latch surface; wherein the respective configurations of the battery storage region, the first removable battery holder and the second removable battery holder are such that only one of the first and second removable battery holders can be located within the battery storage region at a time; wherein the first removable battery holder is configured such that the first button will be located within the opening and will not extend outwardly beyond the outer surface when the first removable battery holder is fully inserted into the battery storage region; and wherein the second removable battery holder is configured such that the second button will be located within the opening and extend outwardly beyond the outer surface when the second removable battery holder is fully inserted into the battery storage region.
A suction device, comprising: a sensor unit configured to measure breathing condition of a patient; a tube unit configured to move into a bronchus of the patient so as to suction foreign material generated in the bronchus of the patient when a measured value measured by the sensor unit exceeds a predetermined reference value; and a control unit configured to control an operation of the tube unit based on the measured value measured by the sensor unit, wherein the tube unit comprises: a first cuff configured to be inflated by the air in a state of being inserted into the bronchus to expand the bronchus; a second cuff formed below the first cuff and configured to be inflated by the air to expand the bronchus; a tube configured to suction foreign material formed on an upper portion of the first cuff; and a tube configured, when foreign material is formed on an upper portion of the second cuff, to suction the foreign material when the first cuff is deflated and the second cuff is inflated. a sensor unit configured to measure breathing condition of a patient; a tube unit configured to move into a bronchus of the patient so as to suction foreign material generated in the bronchus of the patient when a measured value measured by the sensor unit exceeds a predetermined reference value; and a control unit configured to control an operation of the tube unit based on the measured value measured by the sensor unit, wherein the tube unit comprises: a first cuff configured to be inflated by the air in a state of being inserted into the bronchus to expand the bronchus; a second cuff formed below the first cuff and configured to be inflated by the air to expand the bronchus; a tube configured to suction foreign material formed on an upper portion of the first cuff; and a tube configured, when foreign material is formed on an upper portion of the second cuff, to suction the foreign material when the first cuff is deflated and the second cuff is inflated. a first cuff configured to be inflated by the air in a state of being inserted into the bronchus to expand the bronchus; a second cuff formed below the first cuff and configured to be inflated by the air to expand the bronchus; a tube configured to suction foreign material formed on an upper portion of the first cuff; and a tube configured, when foreign material is formed on an upper portion of the second cuff, to suction the foreign material when the first cuff is deflated and the second cuff is inflated.
A communication method, wherein the communication method comprises: • sending, by a policy control network element, policy control information to a session management function network element, wherein the policy control information comprises a trigger event for reporting information about a transport network, and the trigger event is for triggering the session management function network element to report the information about the transport network to the policy control network element, wherein the trigger event comprises a transport network type change event, wherein the information about the transport network comprises a type of the transport network; • receiving (S6o8), by the policy control network element, the information about the transport network from the session management function network element; • formulating, by the policy control network element, a control policy based on the information about the transport network, wherein the control policy comprises a session management policy, wherein the session management policy comprises: ∘ adjusting a transmission delay parameter to a value greater than or equal to the transport network delay; and • sending, by the policy control network element, the control policy to the session management function network element. • sending, by a policy control network element, policy control information to a session management function network element, wherein the policy control information comprises a trigger event for reporting information about a transport network, and the trigger event is for triggering the session management function network element to report the information about the transport network to the policy control network element, wherein the trigger event comprises a transport network type change event, wherein the information about the transport network comprises a type of the transport network; • receiving (S6o8), by the policy control network element, the information about the transport network from the session management function network element; • formulating, by the policy control network element, a control policy based on the information about the transport network, wherein the control policy comprises a session management policy, wherein the session management policy comprises: ∘ adjusting a transmission delay parameter to a value greater than or equal to the transport network delay; and ∘ adjusting a transmission delay parameter to a value greater than or equal to the transport network delay; and • sending, by the policy control network element, the control policy to the session management function network element.