mhurhangee/patent-ind-claim-en huggingface dataset:
A turbomachine comprising: a bearing in a bearing compartment ; and a first seal system isolating the bearing compartment and comprising: a first runner ; a second runner ; an inner seal encircling the first runner ; and an outer seal encircling the second runner , wherein: the inner seal has a static clearance (R CI ) with the first runner ; the outer seal has a static clearance (R CO ) with the second runner , greater than the inner seal static clearance (R CI ); characterised in that the first runner has a first coefficient of thermal expansion; the second runner has a second coefficient of thermal expansion lower than the first coefficient of thermal expansion; the first runner comprises an inner portion cantilevered inward; the second runner comprises an outer portion cantilevered outward; and the terms inner, inward, outer, and outward are defined relative to the bearing compartment . a bearing in a bearing compartment ; and a first seal system isolating the bearing compartment and comprising: a first runner ; a second runner ; an inner seal encircling the first runner ; and an outer seal encircling the second runner , a first runner ; a second runner ; an inner seal encircling the first runner ; and an outer seal encircling the second runner , the inner seal has a static clearance (R CI ) with the first runner ; the outer seal has a static clearance (R CO ) with the second runner , greater than the inner seal static clearance (R CI ); characterised in that the first runner has a first coefficient of thermal expansion; the second runner has a second coefficient of thermal expansion lower than the first coefficient of thermal expansion; the first runner comprises an inner portion cantilevered inward; the second runner comprises an outer portion cantilevered outward; and the terms inner, inward, outer, and outward are defined relative to the bearing compartment .
A method for receiving hybrid automatic repeat request, HARQ, information that is applied to user equipment , the method comprising: receiving a scheduling signaling sent by a base station , wherein the scheduling signaling bears a target time domain unit; monitoring a channel bearing the HARQ information on the target time domain unit ; demodulating, on the basis of a HARQ network temporary identity notified by a base station , downlink control information borne by the channel in response to determining that the channel is monitored ; and acquiring the HARQ information from a specified information field of the downlink control information , wherein the channel is a dedicated HARQ channel; and wherein before receiving the scheduling signaling sent by the base station the method further comprises: receiving a radio resource control, RRC, signaling, a media access control-control element, MAC CE, or a physical layer signaling sent by the base station, and determining a location set of the target time domain unit in the frequency domain based on the RRC signaling, the MAC CE, or the physical layer signaling . receiving a scheduling signaling sent by a base station , wherein the scheduling signaling bears a target time domain unit; monitoring a channel bearing the HARQ information on the target time domain unit ; demodulating, on the basis of a HARQ network temporary identity notified by a base station , downlink control information borne by the channel in response to determining that the channel is monitored ; and acquiring the HARQ information from a specified information field of the downlink control information , wherein the channel is a dedicated HARQ channel; and wherein before receiving the scheduling signaling sent by the base station the method further comprises: receiving a radio resource control, RRC, signaling, a media access control-control element, MAC CE, or a physical layer signaling sent by the base station, and determining a location set of the target time domain unit in the frequency domain based on the RRC signaling, the MAC CE, or the physical layer signaling .
A cooking utensil, comprising a vessel for cooking food provided with a base and a side wall and suitable for being heated on gas cookers, glass ceramic cookers, induction cookers, or the like, comprising: - a temperature probe , built into or fixed to the vessel , which provides an electric signal proportional to the temperature of said vessel ; - electric connection means for connecting said temperature probe with an electronic temperature indicator device , able to be separated from the vessel , which remains in a visible position during the use of the cooking utensil and provides visual information relative to the temperature of the vessel based on the electric signal provided by the temperature probe ; wherein the electric connection means further comprises: first electrical contacts connected to the temperature probe and second electrical contacts connected to the electronic temperature display device ; characterised in that said cooking utensil comprises: a non-detachable fixed handle provided with a cavity for the detachable coupling of the electronic device and complementary quick coupling and uncoupling means of the electronic device with respect to the cavity of the fixed handle ; and the first contacts are housed in the cavity of the fixed handle ; an electrical connection of the temperature probe with the electronic device being established when said electronic device is coupled in the cavity of the fixed handle . - a temperature probe , built into or fixed to the vessel , which provides an electric signal proportional to the temperature of said vessel ; - electric connection means for connecting said temperature probe with an electronic temperature indicator device , able to be separated from the vessel , which remains in a visible position during the use of the cooking utensil and provides visual information relative to the temperature of the vessel based on the electric signal provided by the temperature probe ;
Flowmeter for measuring the flow rate of a fluid with - a meter body having a conduit for the fluid , - two phased-array ultrasonic transducer units spaced apart in the longitudinal direction of the conduit and capable of radiating and receiving ultrasonic signals at different angles, - a control and evaluation unit for controlling the ultrasonic transducer units and evaluating the received ultrasonic signals and determining the flow rate using the time-of-flight of the ultrasonic signals on the measuring paths , - wherein the ultrasonic transducer units define at least two measurement paths (124-0, 124-1, 124-2, 124-3, 124-4, 124-5) between them, depending on the angle of the emitted ultrasonic signals, along which paths the ultrasonic signals pass from one to the other ultrasonic transducer unit, - wherein at least one of the measurement paths (124-1, 124-2, 124-3, 124-4, 124-5) has at least one reflection on a conduit wall of the conduit and path sections (124-1a, 124-1b) are defined by the reflection or reflections, characterized in that - the ultrasonic transducer units are at an installation angle (β) that is between 20° and 140°, wherein the installation angle is the angle, which lies between the linkings between the ultrasonic transducers and the central axis if looked along the longitudinal direction. - a meter body having a conduit for the fluid , - two phased-array ultrasonic transducer units spaced apart in the longitudinal direction of the conduit and capable of radiating and receiving ultrasonic signals at different angles, - a control and evaluation unit for controlling the ultrasonic transducer units and evaluating the received ultrasonic signals and determining the flow rate using the time-of-flight of the ultrasonic signals on the measuring paths , - wherein the ultrasonic transducer units define at least two measurement paths (124-0, 124-1, 124-2, 124-3, 124-4, 124-5) between them, depending on the angle of the emitted ultrasonic signals, along which paths the ultrasonic signals pass from one to the other ultrasonic transducer unit, - wherein at least one of the measurement paths (124-1, 124-2, 124-3, 124-4, 124-5) has at least one reflection on a conduit wall of the conduit and path sections (124-1a, 124-1b) are defined by the reflection or reflections, characterized in that - the ultrasonic transducer units are at an installation angle (β) that is between 20° and 140°, wherein the installation angle is the angle, which lies between the linkings between the ultrasonic transducers and the central axis if looked along the longitudinal direction.
Method for controlling a hydraulic drive of a pressing bar and a drive of a cutter bar of a cutting machine such as a paper cutting machine, where in a hydraulic pressing circuit a fluid such as oil is supplied into a circuit by means of a first pump via a first press valve (Y60) and via a second press valve (Y61) connected in parallel to said first press valve (Y60) and where in a hydraulic cutting circuit a fluid such as oil is supplied into a circuit by means of a second pump via a first coupling valve (Y50) and via a second coupling valve (Y51) connected parallel to said first coupling valve (Y50), where to start a pressing cycle the first press valve (Y60) and the second press valve (Y61) are activated in order to generate a pressing power inside a compression area of the hydraulic drive to drive the pressing bar, and where to start a cutting cycle the coupling valves (Y50, Y51) are activated in order to generate a pressing power inside a hydraulic coupling cylinder coupled to the drive of the cutter bar, wherein to start the pressing cycle the first and the second press valves (Y60, Y61), and earlier the first or the second coupling valve (Y50, Y51), are activated; to start the cutting cycle the second or first coupling valve (Y51, Y50) is activated to initiate the movement of the cutter bar additionally to the already activated first or second coupling valve (Y50, Y51); to end the pressing/cutting cycle the first or second press valve (Y60, Y61) and the first and second cutting valves (Y50, Y51) are switched off; the second or first press valve (Y61, Y60) is switched off with a time-lag relative to the switch-off time of the first or second press valve (Y60, Y61); during a test cycle in which only one of the press valves (Y60, Y61) or coupling valves (Y50, Y51) is activated the occurrence or non-occurrence of an expected reaction is monitored; and if the expected reaction does not happen a hazardous movement of the pressing bar or of the cutter bar or its continuation is prevented by the use of the other press valve (Y60, Y61) or coupling valve (Y50, Y51) respectively.
An antenna-and-cable connection-state verification device, comprising: - an antenna mounted on an inner side of a frame of an electric apparatus, for receiving a signal generated due to partial discharge from the electric apparatus; - a first coaxial cable connected to the antenna on an inner side of the frame , for transmitting the signal received by the antenna ; - a second coaxial cable placed on an outer side of the frame , for transmitting the signal received by the antenna ; - a penetration terminal being attached on the frame to pass through the frame and connecting the first coaxial cable to the second coaxial cable , for transmitting the signal therethrough; and - a detection unit for detecting the signal received by the antenna by way of the first coaxial cable , the penetration terminal and the second coaxial cable , wherein the device is adapted to verify connection states of the antenna and the first coaxial cable , by measuring, from an outer side of the frame , a combined capacitance of the antenna and the first coaxial cable mounted on an inner side of the frame , wherein the combined capacitance is determined as two capacitors connected in parallel. - an antenna mounted on an inner side of a frame of an electric apparatus, for receiving a signal generated due to partial discharge from the electric apparatus; - a first coaxial cable connected to the antenna on an inner side of the frame , for transmitting the signal received by the antenna ; - a second coaxial cable placed on an outer side of the frame , for transmitting the signal received by the antenna ; - a penetration terminal being attached on the frame to pass through the frame and connecting the first coaxial cable to the second coaxial cable , for transmitting the signal therethrough; and - a detection unit for detecting the signal received by the antenna by way of the first coaxial cable , the penetration terminal and the second coaxial cable , wherein the device is adapted to verify connection states of the antenna and the first coaxial cable , by measuring, from an outer side of the frame , a combined capacitance of the antenna and the first coaxial cable mounted on an inner side of the frame , wherein the combined capacitance is determined as two capacitors connected in parallel.
A rocuronium preparation containing rocuronium and a buffer solution and having a titratable acidity of 80 mEq or less and a pH of 2.5 to 4.5, with the proviso that the titratable acidity means the quantity (mEq) of sodium hydroxide consumed in titration of 1 L of a solution to pH 7.4.
A belt layer for a tire , wherein the belt layer comprising at least one belt ply , wherein the belt ply includes a plurality of belt cords including a steel single wire having a flat cross-sectional shape, and in at least one of the belt cords , the steel single wire has a short diameter direction inclined at an angle (Θ) of 10 to 35 degrees with respect to a thickness direction of the belt ply , the steel single wire has a short diameter (SD) of 0.15 to 0.42 mm in the cross-sectional shape, the steel single wire has a ratio (SD/LD) of 0.70 or less between a short diameter (SD) and a long diameter (LD) in the cross-sectional shape, the belt cords include a first belt cord having the steel single wire having the short diameter direction inclined to a first side with respect to the thickness direction of the belt ply and a second belt cord having the steel single wire having the short diameter direction inclined to a second side opposite to the first side with respect to the thickness direction of the belt ply , five belt cords adjacent in the tire axial direction include at least one first belt cord and at least one second belt cord , and the belt ply includes a topping rubber covering the belt cords , and the topping rubber has a complex elastic modulus (E*) at 70 degrees Celsius of 7 to 20 MPa, wherein the complex elastic modulus is measured in accordance with Japanese Industrial Standard JIS-K6394 under the conditions of initial strain 10%, amplitude of dynamic strain ±1%, frequency 10Hz and deformation mode tensile. the belt ply includes a plurality of belt cords including a steel single wire having a flat cross-sectional shape, and in at least one of the belt cords , the steel single wire has a short diameter direction inclined at an angle (Θ) of 10 to 35 degrees with respect to a thickness direction of the belt ply , the steel single wire has a short diameter (SD) of 0.15 to 0.42 mm in the cross-sectional shape, the steel single wire has a ratio (SD/LD) of 0.70 or less between a short diameter (SD) and a long diameter (LD) in the cross-sectional shape, the belt cords include a first belt cord having the steel single wire having the short diameter direction inclined to a first side with respect to the thickness direction of the belt ply and a second belt cord having the steel single wire having the short diameter direction inclined to a second side opposite to the first side with respect to the thickness direction of the belt ply , five belt cords adjacent in the tire axial direction include at least one first belt cord and at least one second belt cord , and the belt ply includes a topping rubber covering the belt cords , and the topping rubber has a complex elastic modulus (E*) at 70 degrees Celsius of 7 to 20 MPa, wherein the complex elastic modulus is measured in accordance with Japanese Industrial Standard JIS-K6394 under the conditions of initial strain 10%, amplitude of dynamic strain ±1%, frequency 10Hz and deformation mode tensile.
An electrosurgical system comprising: an electrosurgical instrument comprising: a first jaw ; a second jaw opposing the first jaw, the first and second jaws pivotably arranged to grasp tissue between the first and second jaws; an electrode connected to the first jaw; and an electrode connected to the second jaw, the electrodes of the first and second jaws being arranged to transmit radio frequency (RF) energy between the electrodes; wherein center portions of the first and second jaws facing each other are free of electrodes; and an electrosurgical generator comprising: an RF amplifier configured to supply the RF energy to the instrument ; and a controller , characterized in that the controller is configured to periodically monitor a phase angle of the supplied RF energy to signal the RF amplifier to increase voltage of the supplied RF energy if the monitored phase angle is greater than zero and increasing, the RF amplifier being configured to increase the voltage at a predetermined constant rate. an electrosurgical instrument comprising: a first jaw ; a second jaw opposing the first jaw, the first and second jaws pivotably arranged to grasp tissue between the first and second jaws; an electrode connected to the first jaw; and an electrode connected to the second jaw, the electrodes of the first and second jaws being arranged to transmit radio frequency (RF) energy between the electrodes; wherein center portions of the first and second jaws facing each other are free of electrodes; and a first jaw ; a second jaw opposing the first jaw, the first and second jaws pivotably arranged to grasp tissue between the first and second jaws; an electrode connected to the first jaw; and an electrode connected to the second jaw, the electrodes of the first and second jaws being arranged to transmit radio frequency (RF) energy between the electrodes; wherein center portions of the first and second jaws facing each other are free of electrodes; and an electrosurgical generator comprising: an RF amplifier configured to supply the RF energy to the instrument ; and a controller , characterized in that the controller is configured to periodically monitor a phase angle of the supplied RF energy to signal the RF amplifier to increase voltage of the supplied RF energy if the monitored phase angle is greater than zero and increasing, the RF amplifier being configured to increase the voltage at a predetermined constant rate. an RF amplifier configured to supply the RF energy to the instrument ; and a controller , characterized in that the controller is configured to periodically monitor a phase angle of the supplied RF energy to signal the RF amplifier to increase voltage of the supplied RF energy if the monitored phase angle is greater than zero and increasing, the RF amplifier being configured to increase the voltage at a predetermined constant rate.
A method of dynamic control rod reactivity measurement for a reactor using a fission chamber as an out-of-reactor measuring instrument, the method comprising: maintaining the reactor in a critical state having a set output by inserting a reference control bank (Bank A5) into a reactor core to a first depth; completely inserting the reference control bank into the reactor core from the first depth at a maximum allowable speed and immediately completely withdrawing the reference control bank from the reactor core at the maximum allowable speed, and measuring a first signal of the out-of-reactor measuring instrument from before the insertion of the reference control bank to after the withdrawal of the reference control bank; and determining static controllability of the reference control bank by adding residual controllability measurement value of the reactor to a first static reactivity of the reactor calculated using the first signal of the out-of-reactor measuring instrument. maintaining the reactor in a critical state having a set output by inserting a reference control bank (Bank A5) into a reactor core to a first depth; completely inserting the reference control bank into the reactor core from the first depth at a maximum allowable speed and immediately completely withdrawing the reference control bank from the reactor core at the maximum allowable speed, and measuring a first signal of the out-of-reactor measuring instrument from before the insertion of the reference control bank to after the withdrawal of the reference control bank; and determining static controllability of the reference control bank by adding residual controllability measurement value of the reactor to a first static reactivity of the reactor calculated using the first signal of the out-of-reactor measuring instrument.
An arc suppression coil for a three-phase electric power network comprising: a transformer core having three limbs , which comprise a first limb , a second limb and a third limb , wherein the transformer core defines an additional path for carrying magnetic flux between the opposite ends of the three limbs; three separate phase windings comprising a first phase winding wound at the first limb of the transformer core, a second phase winding wound at the second limb of the transformer core and a third phase winding wound at the third limb of the transformer core; and an additional winding for the additional path; characterized by the additional winding being wound in direction of subtractive polarity with respect to the three phase windings and connected in series with respect to a combined output of the three phase windings. a transformer core having three limbs , which comprise a first limb , a second limb and a third limb , wherein the transformer core defines an additional path for carrying magnetic flux between the opposite ends of the three limbs; three separate phase windings comprising a first phase winding wound at the first limb of the transformer core, a second phase winding wound at the second limb of the transformer core and a third phase winding wound at the third limb of the transformer core; and an additional winding for the additional path;