mhurhangee/ep-ind-claims huggingface dataset:
An ultrasound diagnostic imaging apparatus, comprising: a pulse generator configured to generate a pulse of an electric signal; a transducer configured to convert the pulse of the electric signal generated by the pulse generator into an ultrasonic wave signal and to transmit the ultrasonic wave signal to an object; a multiplexer, MUX, configured to select one or more channels corresponding to at least one element of the transducer, to perform a switching operation between different applied voltages and to enable the pulse of the electrical signal generated by the pulse generator to be transmitted through the selected channel; characterised in that the ultrasound diagnostic imaging apparatus further comprises a dummy MUX configured to apply, to an output end of the MUX, a reverse signal of an output signal of the MUX by performing an inverse switching operation which is opposite to the switching operation by the MUX, when the MUX performs the switching operation between the different applied voltages. a pulse generator configured to generate a pulse of an electric signal; a transducer configured to convert the pulse of the electric signal generated by the pulse generator into an ultrasonic wave signal and to transmit the ultrasonic wave signal to an object; a multiplexer, MUX, configured to select one or more channels corresponding to at least one element of the transducer, to perform a switching operation between different applied voltages and to enable the pulse of the electrical signal generated by the pulse generator to be transmitted through the selected channel; characterised in that the ultrasound diagnostic imaging apparatus further comprises a dummy MUX configured to apply, to an output end of the MUX, a reverse signal of an output signal of the MUX by performing an inverse switching operation which is opposite to the switching operation by the MUX, when the MUX performs the switching operation between the different applied voltages.
A method for operating a vapour compression system, the vapour compression system comprising a compressor unit, a heat rejecting heat exchanger, at least one expansion device and at least one evaporator arranged in a refrigerant path, each evaporator being arranged in thermal contact with a refrigerated volume for storing goods, the method comprising the steps of, for at least one of the refrigerated volumes: - setting control parameters related to the refrigerated volume, including setting a cut-in temperature, a high temperature alarm limit and a high temperature alarm delay time, - deriving a maximum acceptable relative decay value, based on the high temperature alarm limit and the high temperature alarm delay time, - operating the vapour compression system while monitoring a temperature inside the refrigerated volume and continuously deriving a weighted mean temperature prevailing inside the refrigerated volume, during a moving time window of a predefined length, - in the case that the weighted mean temperature inside the refrigerated volume exceeds the cut-in temperature, starting a timer and continuing to derive the weighted mean temperature prevailing inside the refrigerated volume, during a moving time window of a predefined length, - deriving a delay time, based on the weighted mean temperature and the maximum acceptable relative decay value, and - generating a warning when the timer reaches the derived delay time. - setting control parameters related to the refrigerated volume, including setting a cut-in temperature, a high temperature alarm limit and a high temperature alarm delay time, - deriving a maximum acceptable relative decay value, based on the high temperature alarm limit and the high temperature alarm delay time, - operating the vapour compression system while monitoring a temperature inside the refrigerated volume and continuously deriving a weighted mean temperature prevailing inside the refrigerated volume, during a moving time window of a predefined length, - in the case that the weighted mean temperature inside the refrigerated volume exceeds the cut-in temperature, starting a timer and continuing to derive the weighted mean temperature prevailing inside the refrigerated volume, during a moving time window of a predefined length, - deriving a delay time, based on the weighted mean temperature and the maximum acceptable relative decay value, and - generating a warning when the timer reaches the derived delay time.
Vehicle wheel comprising a rim, a brake cup attached to said rim and a brake disc attached to the brake cup, a plurality of pivotally mounted plateshaped cover elements for temporarily closing associated rim-side openings being arranged on the rim, which openings can be moved out of a closed position, which receives the cover elements owing to centrifugal force during rotation of the wheel, into an open position by means of at least one thermally controlled actuator, each cover element being displaceable along the pivot shaft against the force of a restoring element and being connected to the rim via a coupling element which is positively guided during a displacement movement, characterised in that, the coupling element has an integrated resilient member or is mounted against such a resilient member on the rim side and/or on the cover element side, such that the force required to move a cover element out of the closed position into the open position is restricted.
A processor, comprising: a front end configured to receive an encrypted instruction sequence; a decoder, including: a first logic configured to identify a first encrypted opcode from a first packet in the encrypted instruction sequence; a second logic configured to identify a first key index from the first packet; a third logic configured to determine a first encrypted opcode lookup table (1803, 1803A, 1803B) with the first key index; a fourth logic configured to lookup a first decoded opcode from the first encrypted opcode lookup table (1830, 1830A, 1830B) based upon the first key index; and a fifth logic configured to forward the first decoded opcode for execution; wherein the processor is configured to include a plurality of encrypted opcode lookup tables (1830, 1830A, 1830B), each encrypted opcode lookup table (1830, 1830A, 1830B) configured to include an entry for the first decoded opcode; and the first key index is configured to identify the first encrypted opcode lookup table (1830, 1830A, 1830B among the plurality of encrypted opcode lookup tables (1830, 1830A, 1830B). a front end configured to receive an encrypted instruction sequence; a decoder, including: a first logic configured to identify a first encrypted opcode from a first packet in the encrypted instruction sequence; a second logic configured to identify a first key index from the first packet; a third logic configured to determine a first encrypted opcode lookup table (1803, 1803A, 1803B) with the first key index; a fourth logic configured to lookup a first decoded opcode from the first encrypted opcode lookup table (1830, 1830A, 1830B) based upon the first key index; and a fifth logic configured to forward the first decoded opcode for execution; a first logic configured to identify a first encrypted opcode from a first packet in the encrypted instruction sequence; a second logic configured to identify a first key index from the first packet; a third logic configured to determine a first encrypted opcode lookup table (1803, 1803A, 1803B) with the first key index; a fourth logic configured to lookup a first decoded opcode from the first encrypted opcode lookup table (1830, 1830A, 1830B) based upon the first key index; and a fifth logic configured to forward the first decoded opcode for execution; wherein the processor is configured to include a plurality of encrypted opcode lookup tables (1830, 1830A, 1830B), each encrypted opcode lookup table (1830, 1830A, 1830B) configured to include an entry for the first decoded opcode; and the first key index is configured to identify the first encrypted opcode lookup table (1830, 1830A, 1830B among the plurality of encrypted opcode lookup tables (1830, 1830A, 1830B).
Method for removing filling material from a cavity present in a component, the cavity having a connection opening to the surroundings of the component, having the following method steps: • holding the component in a movable mounting, • moving the component while at the same time removing the filling material through the connection opening, a processor processing the geometry data of the component, a computer program running on the processor • taking into account the geometry of the cavity and of the connection opening in the component on the basis of a dataset, • while taking gravitational force into account, calculating a necessary positioning of the component and a subsequent necessary sequence of movements for moving the component in space in order that the filling material is removed through the cavity to the connection opening and through the connection opening out of the component, characterized in that • the removal of the filling material is simulated by the computer program, the flow properties of the filling material being taken into account in the simulation, • simulations with different positionings and/or different sequences of movements are carried out repeatedly, • the positioning and the sequence of movements with which most filling material or all of the filling material is removed from the component in the shortest time is chosen, the component being moved in accordance with the selected positioning and the selected sequence of movements. • holding the component in a movable mounting, • moving the component while at the same time removing the filling material through the connection opening, • taking into account the geometry of the cavity and of the connection opening in the component on the basis of a dataset, • while taking gravitational force into account, calculating a necessary positioning of the component and a subsequent necessary sequence of movements for moving the component in space in order that the filling material is removed through the cavity to the connection opening and through the connection opening out of the component, • the removal of the filling material is simulated by the computer program, the flow properties of the filling material being taken into account in the simulation, • simulations with different positionings and/or different sequences of movements are carried out repeatedly, • the positioning and the sequence of movements with which most filling material or all of the filling material is removed from the component in the shortest time is chosen,
A vacuum pump comprising at least one conveying passage for a liquid operating medium; and a measurement device by means of which at least one gas bubble flowing along in the operating medium is detectable.
A fan duct for an emission testing chamber having an outer chamber housing and an inner chamber arranged inside the outer chamber housing for transmitting a rotary movement of a drive shaft from outside the inner chamber to a fan inside the inner chamber, wherein the fan duct comprises a first duct part and a second duct part arranged concentrically with the first duct part, wherein the first duct part is arranged inside the inner chamber and the second duct part is arranged outside the inner chamber, wherein the first duct part comprises a first inner bearing part which can be secured relative to a wall of the inner chamber, a first rotary bearing, and a first outer bearing part which is rotatably mounted on the first inner bearing part via the first rotary bearing, wherein the second duct part comprises a second inner bearing part which can be secured relative to the wall of the inner chamber, a second rotary bearing, and a second outer bearing part which is rotatably mounted on the second inner bearing part via the second rotary bearing, wherein the first outer bearing part comprises a co-rotating first magnet holder and the second outer bearing part comprises a co-rotating second magnet holder, wherein the first magnet holder and the second magnet holder each comprise one or more magnet seats discrete in the circumferential direction in a corresponding arrangement, in which magnet seat or seats one magnet is or can be inserted in each case.
A traveling reactor power monitoring system arranged for a nuclear reactor, and comprising: a probe cable; a traveling probe connected to an edge of the probe cable; a storage reel configured to storage the probe cable; a motor configured to feed the probe cable from the storage reel and spool the probe cable onto the storage reel; a drive control unit configured to rotate the motor and to move the traveling probe at a scheduled drive speed at each insert position in a guide tube provided in the nuclear reactor; a torque sensor configured to measure the drive torque which is the torque necessary for moving the traveling probe and the probe cable in the guide tube during the traveling probe moving; an aimed torque data base (16a, 16b) storing a first threshold arranged to be used for decreasing the scheduled drive speed and a second threshold arranged to be used for increasing the scheduled drive speed at least at a predefined insert position in the guide tube; a drive information data base (15a, 15b) arranged for storing the drive torque received from the torque sensor and the drive speed at which the drive control unit moved the traveling probe as a drive information; and a scheduled drive speed processor (17a, 17b) configured to set the scheduled drive speed faster than the previous drive speed when the previous drive torque is smaller than the second threshold, and to set the scheduled drive speed slower than the previous drive speed when the previous drive torque is larger than the first threshold at each predefined insert position. a probe cable; a traveling probe connected to an edge of the probe cable; a storage reel configured to storage the probe cable; a motor configured to feed the probe cable from the storage reel and spool the probe cable onto the storage reel; a drive control unit configured to rotate the motor and to move the traveling probe at a scheduled drive speed at each insert position in a guide tube provided in the nuclear reactor; a torque sensor configured to measure the drive torque which is the torque necessary for moving the traveling probe and the probe cable in the guide tube during the traveling probe moving; an aimed torque data base (16a, 16b) storing a first threshold arranged to be used for decreasing the scheduled drive speed and a second threshold arranged to be used for increasing the scheduled drive speed at least at a predefined insert position in the guide tube; a drive information data base (15a, 15b) arranged for storing the drive torque received from the torque sensor and the drive speed at which the drive control unit moved the traveling probe as a drive information; and a scheduled drive speed processor (17a, 17b) configured to set the scheduled drive speed faster than the previous drive speed when the previous drive torque is smaller than the second threshold, and to set the scheduled drive speed slower than the previous drive speed when the previous drive torque is larger than the first threshold at each predefined insert position.
Inductive power system which comprises an apparatus and a device for inductively powering the apparatus, wherein the apparatus comprises an inductor, a capacitor which is connected to the inductor and allows the inductor to be tuned to the inductive power frequency, a rectifier coupled to the inductor, a load coupled to the rectifier, and an element for controlling the supply of power to the load, characterized in that it comprises: - a DC voltage converter (19 to 22) coupled to the rectifier, - a battery coupled to the voltage converter, - means for measuring the output voltage of the rectifier, the load being coupled to the voltage converter, and the apparatus further comprises a control unit which is coupled to the voltage converter and connected to the control element and the voltage measurement means and is arranged so as to control either the charging of the battery by the rectifier or the supply of power to the load by the rectifier or the supply of power to the load by the battery, depending on the state of the control element and the output voltage of the rectifier, the voltage converter (19 to 22) being arranged and controlled so as to charge the battery at a voltage lower than the output voltage of the rectifier and to supply power to the load from the battery at a voltage greater than the output voltage of the battery, and in that the inductive power device comprises: - a second voltage converter (54, 55, 57) converting a DC voltage into an AC voltage - a second inductor coupled to the second voltage converter, - a circuit for measuring voltage across the second inductor, and - a second control unit which is coupled to the second voltage converter and connected to the measuring circuit and is arranged so as to control either the supply of power to the second inductor by the second converter at a controlled voltage, on the basis of voltage data stored in a memory associated with the second control unit, or the supply of pulses that are spaced apart in time to the second inductor by the second converter; on the basis of voltage measurements supplied by the measuring circuit. - a DC voltage converter (19 to 22) coupled to the rectifier, - a battery coupled to the voltage converter, - means for measuring the output voltage of the rectifier, - a second voltage converter (54, 55, 57) converting a DC voltage into an AC voltage - a second inductor coupled to the second voltage converter, - a circuit for measuring voltage across the second inductor, and - a second control unit which is coupled to the second voltage converter and connected to the measuring circuit and is arranged so as to control either the supply of power to the second inductor by the second converter at a controlled voltage, on the basis of voltage data stored in a memory associated with the second control unit, or the supply of pulses that are spaced apart in time to the second inductor by the second converter;
An inkjet ink comprising: an aqueous polyurethane (meth)acrylate dispersion, which is redispersible in water in a single water rub of the water rub test after thermal drying and before curing; 0.1% to 10.0% by weight of 2-hydroxy-1-{4-[2-(2-hydroxyethoxy)ethoxy]phenyl}-2-methylpropan-1-one based on the total weight of the ink; a surfactant; and a colouring agent, with the proviso that the inkjet ink is not an inkjet ink consisting of 55% by weight polyurethane (meth)acrylate dispersion, 26.9% by weight water, 3% by weight 2-hydroxy-1-{4-[2-(2-hydroxyethoxy)ethoxy]phenyl}-2-methylpropan-1-one, 5% by weight 2-methyl-1,3-propanediol, 0.1% by weight nonionic fluorosurfactant, and 10% by weight aqueous C 32 H 16 CuN 8 dispersion, wherein the amounts are based on the total weight of the ink, and with the proviso that the inkjet ink is not an inkjet ink consisting of 46.2% by weight polyurethane (meth)acrylate dispersion, 29.8% by weight water, 0.7% by weight polyurethane thickener, 3% by weight 2-hydroxy-1-{4-[2-(2-hydroxyethoxy)ethoxy]phenyl}-2-methylpropan-1-one, 5% by weight 2-methyl-1,3-propanediol, 0.3% by weight nonionic fluorosurfactant, and 15% by weight aqueous carbon black dispersion, wherein the amounts are based on the total weight of the ink.
A tapered roller bearing comprising an inner ring, an outer ring, and two rows of tapered rollers, which are arranged in an O-arrangement between the inner ring and the outer ring, wherein the inner ring extends in an axial direction over a greater length than the outer ring, and wherein a gap between inner ring and outer ring on at least one side is sealed by a sealing assembly, wherein the sealing assembly comprises a main seal, which is attached to the inner ring in a rotationally fixed manner, as well as a seal race ring, which is attached to the outer ring in a rotationally fixed manner, and wherein the seal race ring forms a seal raceway for the main seal, characterized in that the main seal is inserted into a groove on the front side of the inner ring and is held on the associated front side of the inner ring by a clamping ring or clamping segments distributed around the circumference, and in that the seal raceway is formed by a radial inner surface of the seal race ring.
A vinyl polymer pigment dispersing agent comprising a solution polymer or water-dispersible polymer having: a) a vinyl addition polymer backbone; b) one or more polymer side chains comprising a pendant cyclic urea functional group separated from the polymer backbone by at least 10 intervening atoms; and c) one or more polymer side chains comprising pendant urea functional groups separated from the polymer backbone by less than 10 intervening atoms. a) a vinyl addition polymer backbone; b) one or more polymer side chains comprising a pendant cyclic urea functional group separated from the polymer backbone by at least 10 intervening atoms; and c) one or more polymer side chains comprising pendant urea functional groups separated from the polymer backbone by less than 10 intervening atoms.
Method for providing a secondary parameter, being a hemodynamic parameter vessel or being a volume of a liver, in a clinical decision support system, that supplies a primary parameter (31, 32, 33, 34) to a user, wherein the primary parameters is a patient information, wherein an image data set associated to a three dimensional object of a patient is part of the primary parameters, wherein the three dimensional object is the blood vessel or the liver, comprising the steps: - providing an input data set, wherein the input data set is a shape data set represented by a polygonal mesh, which is extracted from the image data set showing the three dimensional object of the patient; - approximating the secondary parameter based on the input data set by using a sub-system being trained by a deep learning mechanism, wherein the secondary parameter can be calculated as a function of a shape data set and wherein the deep learning mechanism is trained by training shape data sets, wherein the shape data set is transformed to an intermediate image data set for providing the intermediate image data set to the layer of said trained sub-system by converting the image data set to a binary mask or a level set representation; and - providing the approximated secondary parameter. - providing an input data set, wherein the input data set is a shape data set represented by a polygonal mesh, which is extracted from the image data set showing the three dimensional object of the patient; - approximating the secondary parameter based on the input data set by using a sub-system being trained by a deep learning mechanism, wherein the secondary parameter can be calculated as a function of a shape data set and wherein the deep learning mechanism is trained by training shape data sets, wherein the shape data set is transformed to an intermediate image data set for providing the intermediate image data set to the layer of said trained sub-system by converting the image data set to a binary mask or a level set representation; and - providing the approximated secondary parameter.