mhurhangee/ep-ind-claims huggingface dataset:
A method for tuning a mass flow controller comprising a mass flow sensor and a valve for regulating a flow of fluid out of an outlet of the mass flow controller, the method comprising the mass flow controller executing instructions, using a processor, to perform operations comprising: - monitoring flow during an initial response of a setpoint change from zero to non zero and - determining whether the valve response fits within an allowable limit; and - automatically performing a self-adjustment to correct for the valve response in response to a determination that the valve response does not fit within the allowable limit, wherein the self-adjustment to correct for the valve response comprises iteratively adjusting pedestal parameters by a certain amount until a suitable response is obtained to correct for changes that occur over time, and wherein determining whether the valve response fits within the allowable limit comprises: - determining a first measured time value to reach a first percentage of a final setpoint; - determining a second measured time value to reach a second percentage of the final setpoint, and - determining a third measured time value of an overshoot that occurs a first time the flow passes the final setpoint. - monitoring flow during an initial response of a setpoint change from zero to non zero and - determining whether the valve response fits within an allowable limit; and - automatically performing a self-adjustment to correct for the valve response in response to a determination that the valve response does not fit within the allowable limit, - determining a first measured time value to reach a first percentage of a final setpoint; - determining a second measured time value to reach a second percentage of the final setpoint, and - determining a third measured time value of an overshoot that occurs a first time the flow passes the final setpoint.
An optical device comprising: • an emitting apparatus which is provided with a first aperture and which is suitable for emitting an excitation radiation through said first aperture, said excitation radiation comprising at least one light radiation having a wavelength included in a predefined spectral range, • an optical guide which extends longitudinally between a first end thereof and a second end thereof and which is internally provided with a core which is suitable for propagating radiation at a wavelength included in said predefined spectral range and defining an inlet aperture at said first end and an outlet aperture at said second end, said inlet aperture facing said first aperture so as to be passed through by at least a portion of said excitation radiation when it is emitted by said emitting apparatus, and said outlet aperture being intended to be directed towards an unknown sample when said optical device is in a first operating condition, wherein said optical guide comprises a reflective surface which at least partially delimits said core, said reflective surface being a regular optical surface with respect to radiation with a wavelength included in said predefined spectral range and being suitable for reflecting the portion of the excitation radiation which is projected into said core through the inlet aperture so as to propagate said excitation radiation out of said optical guide through said outlet aperture in order to illuminate the unknown sample, characterised in that said optical device comprises a gap which is arranged between said first aperture and said inlet aperture, said gap being suitable for receiving a reference sample so that the excitation radiation emitted by said emitting apparatus through said first aperture illuminates the reference sample when said optical device is in a second operating condition, in which said reference sample is received in said the gap. • an emitting apparatus which is provided with a first aperture and which is suitable for emitting an excitation radiation through said first aperture, said excitation radiation comprising at least one light radiation having a wavelength included in a predefined spectral range, • an optical guide which extends longitudinally between a first end thereof and a second end thereof and which is internally provided with a core which is suitable for propagating radiation at a wavelength included in said predefined spectral range and defining an inlet aperture at said first end and an outlet aperture at said second end, said inlet aperture facing said first aperture so as to be passed through by at least a portion of said excitation radiation when it is emitted by said emitting apparatus, and said outlet aperture being intended to be directed towards an unknown sample when said optical device is in a first operating condition,
A method for quenching a steel pipe by water cooling from an outer surface thereof, characterized in that pipe end portions are subjected to air cooling, and at least part of a main body other than the pipe end portions is subjected to water cooling, and after the cooling, pipe end portions are cut off by a length of 150 mm to 400 mm.
A lighting system for preventing a plant disease damage, comprising: an ultraviolet light source for emitting ultraviolet ray including UV-B in a wavelength region of 255 to 340 nm; a visible light source for emitting visible light; and a first controller for controlling the lighting of the ultraviolet light source so that a horizontal irradiance on a canopy surface of a plant is 50 μW/cm 2 or less during a predetermined daytime period; and characterized by a second controller for controlling the lighting of the visible light source so that the horizontal illuminance on a canopy surface of a plant is 10 lux or less during a predetermined nighttime period. an ultraviolet light source for emitting ultraviolet ray including UV-B in a wavelength region of 255 to 340 nm; a visible light source for emitting visible light; and a first controller for controlling the lighting of the ultraviolet light source so that a horizontal irradiance on a canopy surface of a plant is 50 μW/cm 2 or less during a predetermined daytime period; and
Liquid pharmaceutical composition which comprises 100 g/l of human immunoglobulins G (IgG), 250 mM of glycine, and 50 mg/l of Polysorbate 80, said composition having a pH between 4.4 and 4.8, and does not contain mannitol.
A steel material, having excellent corrosion resistance in a dew condensation environment containing a sulfide gas, comprising, by weight percent, 0.02 to 0.2% of carbon, 0.1 to 1.0% of silicon (Si), 0.2 to 2.0% of manganese (Mn), 0.03% or less of phosphorus, 0.03% or less of sulfur, 0.05 to 0.5% of copper (Cu), 0.05 to 0.5% of nickel (Ni), 0.02 to 0.5% of molybdenum (Mo), 0.1% or less of aluminum (Al), 0.05 to 0.5% of chromium (Cr), 0.001 to 0.01% of calcium (Ca), and the balance of iron (Fe) and inevitable impurities, wherein a sensitivity index of sulfide dew point corrosion, given by Relational Expression 1, is 1.78 or more to 2.25 or less: Sensitivity Index of Sulfide Dew point corrosion = 0.4 Ca / S + 5 Cr + 6Mo + 2 Cu + Ni − 0.5 Mn where Ca, S, Cr, Mo, Cu, Ni, and Mn denote contents by weight percent of corresponding elements, and wherein a content of the Ni is greater than a content of the Cu, and is 1.5 times or less the content of the Cu. wherein a sensitivity index of sulfide dew point corrosion, given by Relational Expression 1, is 1.78 or more to 2.25 or less: Sensitivity Index of Sulfide Dew point corrosion = 0.4 Ca / S + 5 Cr + 6Mo + 2 Cu + Ni − 0.5 Mn where Ca, S, Cr, Mo, Cu, Ni, and Mn denote contents by weight percent of corresponding elements, and
A method of a device transmitting integrity check data, the method comprising: establishing a voice communication channel with at least one other device; determining a size of a packet to be transmitted through the established voice communication channel based on a bandwidth of the communication channel; detecting a user's voice from an input signal; selectively inserting integrity check data for checking integrity of data to be transmitted into the packet based on a result of the detection, wherein the selective inserting of the integrity check data into the packet comprises inserting the integrity check data into the packet when the user's voice is not detected from the input signal; and transmitting the packet to the at least one other device. establishing a voice communication channel with at least one other device; determining a size of a packet to be transmitted through the established voice communication channel based on a bandwidth of the communication channel; detecting a user's voice from an input signal; selectively inserting integrity check data for checking integrity of data to be transmitted into the packet based on a result of the detection, wherein the selective inserting of the integrity check data into the packet comprises inserting the integrity check data into the packet when the user's voice is not detected from the input signal; and transmitting the packet to the at least one other device.
A refrigeration system (100, 300, 400, 500, 600) that cools a compartment (120, 420), the refrigeration system comprising: a compressor (302, 440, 565, 665), a condenser (308 410, 510, 610, 710), a condenser fan (310, 555, 560, 660), a thermoelectric device sub-cooler (316, 410, 510, 610, 720) including at least one TED, the TED sub-cooler including on one side of the at least one TED a cold side fluid heat exchanger to sub-cool refrigerant that has passed through the condenser and on the other side an aircooled hot side heat sink integrated with and in thermal communication with the condenser, such that the aircooled hot side heat sink transfers the heat to air circulated by the condenser fan and the condenser fan circulates air to both the condenser and the hot side heat sink of the TED sub-cooler, an expansion valve (322, 535, 635), an evaporator (326, 540, 640), and tubing (575, 730) adapted to transport refrigerant through the refrigeration system in a circulation order from the compressor to the condenser to the TED sub-cooler to the expansion valve to the evaporator and back to the compressor again. a compressor (302, 440, 565, 665), a condenser (308 410, 510, 610, 710), a condenser fan (310, 555, 560, 660), a thermoelectric device sub-cooler (316, 410, 510, 610, 720) including at least one TED, the TED sub-cooler including on one side of the at least one TED a cold side fluid heat exchanger to sub-cool refrigerant that has passed through the condenser and on the other side an aircooled hot side heat sink integrated with and in thermal communication with the condenser, such that the aircooled hot side heat sink transfers the heat to air circulated by the condenser fan and the condenser fan circulates air to both the condenser and the hot side heat sink of the TED sub-cooler, an expansion valve (322, 535, 635), an evaporator (326, 540, 640), and tubing (575, 730) adapted to transport refrigerant through the refrigeration system in a circulation order from the compressor to the condenser to the TED sub-cooler to the expansion valve to the evaporator and back to the compressor again.
A system for measuring acoustic properties of a vent in a hearing aid, and comprising: a microphone converting ambient sound pressure to an electric sound signal; a signal processing unit connected to said microphone and adapted to process said electric sound signal and to generate a processed electric sound signal, said signal processing unit comprising an input section, a filter section, an amplifier section, and a controller section adapted to control response of said filter section and said amplifier section to an incoming electric signal; a speaker for converting said processed electric sound signal to a processed sound pressure; a determining means adapted to measure the acoustic feedback from said speaker to said microphone through an acoustic feedback path, characterised in that said determining means comprising a tone generating section adapted to generate one or more electric tone signals in the electric signal path defined between said microphone and said speaker, adapted to pick up said one or more electric tone signals fed back as acoustic feedback from said speaker to said microphone, and adapted to generate a first correlation signal based on comparison between said one or more electric tone signals in the electric signal path defined between said microphone and said speaker and said one or more electric tone signals fed back as acoustic feedback from said speaker to said microphone; and a transceiver unit interconnecting a fitting apparatus for fitting the hearing aid with a user and said controller section, said transceiver unit is adapted to communicate said first correlation signal and/or calculated acoustic properties of the vent based on said first correlation signal to said fitting apparatus.
A method for wireless communication, comprising: performing a first beam sweep procedure to determine a first beam pair that includes a transmit beam of a first wireless node and a receive beam of a second wireless node; identifying a level of correspondence at one or both of the first wireless node and the second wireless node, the level of correspondence being between a transmit beam and a receive beam of a respective wireless node; and determining, based on the level of correspondence, a range of a second beam sweep procedure to be performed in determining a second beam pair that includes a transmit beam of the second wireless node and a receive beam of the first wireless node, wherein the determining further comprises: determining that a partial second beam sweep is to be performed based at least in part on the level of correspondence being above a lower threshold and below an upper threshold, wherein a partial beam sweep is a beam sweep whose range is in between zero and a full range, the full range being the range used during the first beam sweep procedure; and determining the range of the second beam sweep procedure to be performed based on a range of calibration values associated with a transmit path and a receive path of the at least one of the first wireless node or the second wireless node. performing a first beam sweep procedure to determine a first beam pair that includes a transmit beam of a first wireless node and a receive beam of a second wireless node; identifying a level of correspondence at one or both of the first wireless node and the second wireless node, the level of correspondence being between a transmit beam and a receive beam of a respective wireless node; and determining, based on the level of correspondence, a range of a second beam sweep procedure to be performed in determining a second beam pair that includes a transmit beam of the second wireless node and a receive beam of the first wireless node, wherein the determining further comprises: determining that a partial second beam sweep is to be performed based at least in part on the level of correspondence being above a lower threshold and below an upper threshold, wherein a partial beam sweep is a beam sweep whose range is in between zero and a full range, the full range being the range used during the first beam sweep procedure; and determining the range of the second beam sweep procedure to be performed based on a range of calibration values associated with a transmit path and a receive path of the at least one of the first wireless node or the second wireless node. determining that a partial second beam sweep is to be performed based at least in part on the level of correspondence being above a lower threshold and below an upper threshold, wherein a partial beam sweep is a beam sweep whose range is in between zero and a full range, the full range being the range used during the first beam sweep procedure; and determining the range of the second beam sweep procedure to be performed based on a range of calibration values associated with a transmit path and a receive path of the at least one of the first wireless node or the second wireless node.
A first apparatus (104, 106, 202, 350, 450) for wireless communication, comprising: a receiver configured to receive a first message from a second apparatus (104, 106, 202, 350, 450); a processing system configured to generate, in response to receiving the first message, a second message, the second message comprising a field having a value indicating whether there is a delay after which a third message may be transmitted by the second apparatus (104, 106, 202, 350, 450), wherein the second message comprises a synchronization indicator indicating whether an additional message requesting permission to transmit the third message must be transmitted by the second apparatus (104,106, 202, 350, 450) before the third message can be transmitted; and a transmitter configured to transmit the second message to the second apparatus (104, 106, 202, 350, 450). a receiver configured to receive a first message from a second apparatus (104, 106, 202, 350, 450); a processing system configured to generate, in response to receiving the first message, a second message, the second message comprising a field having a value indicating whether there is a delay after which a third message may be transmitted by the second apparatus (104, 106, 202, 350, 450), wherein the second message comprises a synchronization indicator indicating whether an additional message requesting permission to transmit the third message must be transmitted by the second apparatus (104,106, 202, 350, 450) before the third message can be transmitted; and a transmitter configured to transmit the second message to the second apparatus (104, 106, 202, 350, 450).
A method of testing a brake of a manipulator, in particular of a robot, the method comprising the steps of: - applying a specified driving force (τ A) onto the manipulator; - closing the brake; - detecting the movement (q; dq/dt; d 2 q/dt 2) of the manipulator; and - assessing the brake on the basis of the detected movement. - applying a specified driving force (τ A) onto the manipulator; - closing the brake; - detecting the movement (q; dq/dt; d 2 q/dt 2) of the manipulator; and - assessing the brake on the basis of the detected movement.
An ultrasound imaging system (100,400) comprising: an ultrasound probe (112, 412) configured to receive ultrasound echoes from a subject to image a region of the subject; and a data processor in communication with the ultrasound probe (112, 412), the data processor being configured to identify one or more candidate pleural lines and one or more A-lines corresponding to the candidate pleural lines, characterized in that the data processor is further configured to: compute an A-line intensity of at least one of the A-lines; and apply the computed A-line intensity to indicate a target placement of the ultrasound probe for imaging the region for pleural line identification. an ultrasound probe (112, 412) configured to receive ultrasound echoes from a subject to image a region of the subject; and a data processor in communication with the ultrasound probe (112, 412), the data processor being configured to identify one or more candidate pleural lines and one or more A-lines corresponding to the candidate pleural lines, characterized in that the data processor is further configured to: compute an A-line intensity of at least one of the A-lines; and apply the computed A-line intensity to indicate a target placement of the ultrasound probe for imaging the region for pleural line identification. compute an A-line intensity of at least one of the A-lines; and apply the computed A-line intensity to indicate a target placement of the ultrasound probe for imaging the region for pleural line identification.
A laryngoscope comprising a body portion and a blade portion, the blade portion being separable from the body portion, and the laryngoscope being provided with a spoiling means (4, 5) adapted to indicate if the blade portion has already been attached to the said body portion previously, characterised in that the spoiling means (4, 5) comprises a transmitting means and a receiving means in the body portion, for sending and receiving signals respectively to and from a receiving and transmitting means in the blade portion.
A feed system comprising: a first electronic unit configured for communication with a second electronic unit and to perform a first authentication with the second electronic unit to determine whether the second electronic unit is a proper unit; and a feed unit configured to perform a charging operation to transmit power to a power reception section of the second electronic unit when result information of the first authentication between the first electronic unit and the second electronic unit indicates that the second electronic unit is a proper unit, characterized in that the feed unit is configured to perform a second authentication on the second electronic unit in conjunction with power transmission. a first electronic unit configured for communication with a second electronic unit and to perform a first authentication with the second electronic unit to determine whether the second electronic unit is a proper unit; and a feed unit configured to perform a charging operation to transmit power to a power reception section of the second electronic unit when result information of the first authentication between the first electronic unit and the second electronic unit indicates that the second electronic unit is a proper unit, characterized in that the feed unit is configured to perform a second authentication on the second electronic unit in conjunction with power transmission.