mhurhangee/patent-ind-claim-en huggingface dataset:
A uniflow-scavenged two-cycle engine comprising: a cylinder inside which a combustion chamber is formed; a piston which slides inside the cylinder ; a scavenging port which is provided on one end-side of the cylinder in a stroke direction of the piston and which imports active gas into the combustion chamber in accordance with sliding movement of the piston ; an exhaust port provided on another end-side of the cylinder in the stroke direction; an exhaust valve which opens and closes the exhaust port ; a first fuel injection portion which is provided on the scavenging port and which injects fuel gas into the active gas imported to the scavenging port ; characterized by a second fuel injection portion which is provided at a position closer to the other end of the cylinder than the scavenging port in the stroke direction, which injects, before the exhaust valve closes the exhaust port , fuel gas into the active gas imported from the scavenging port into the cylinder , and which injects no fuel gas after the exhaust valve closes the exhaust port. a cylinder inside which a combustion chamber is formed; a piston which slides inside the cylinder ; a scavenging port which is provided on one end-side of the cylinder in a stroke direction of the piston and which imports active gas into the combustion chamber in accordance with sliding movement of the piston ; an exhaust port provided on another end-side of the cylinder in the stroke direction; an exhaust valve which opens and closes the exhaust port ; a first fuel injection portion which is provided on the scavenging port and which injects fuel gas into the active gas imported to the scavenging port ; characterized by a second fuel injection portion which is provided at a position closer to the other end of the cylinder than the scavenging port in the stroke direction, which injects, before the exhaust valve closes the exhaust port , fuel gas into the active gas imported from the scavenging port into the cylinder , and which injects no fuel gas after the exhaust valve closes the exhaust port.
A privacy data reporting method, comprising: obtaining (S101), by a terminal device, to-be-reported data; dividing (S102), based on a preset step, the to-be-reported data into front string data and rear string data, wherein a length of the front string data is an integer multiple of the preset step, and the rear string data is data in the to-be-reported data other than the front string data; and separately scrambling (S103), according to a preset scrambling algorithm, the front string data and the rear string data, to generate privacy data, and sending the privacy data to a server, wherein the privacy data comprises scrambled front string data and scrambled rear string data, and the separately scrambling, according to a preset scrambling algorithm, the front string data and the rear string data, to generate privacy data comprises: determining, based on a preset hash function, a first hash value corresponding to the front string data and a second hash value corresponding to the first hash value and the rear string data; and generating, according to the preset scrambling algorithm, scrambled front string data corresponding to the first hash value and scrambled rear string data corresponding to the second hash value. obtaining (S101), by a terminal device, to-be-reported data; dividing (S102), based on a preset step, the to-be-reported data into front string data and rear string data, wherein a length of the front string data is an integer multiple of the preset step, and the rear string data is data in the to-be-reported data other than the front string data; and separately scrambling (S103), according to a preset scrambling algorithm, the front string data and the rear string data, to generate privacy data, and sending the privacy data to a server, wherein the privacy data comprises scrambled front string data and scrambled rear string data, and the separately scrambling, according to a preset scrambling algorithm, the front string data and the rear string data, to generate privacy data comprises: determining, based on a preset hash function, a first hash value corresponding to the front string data and a second hash value corresponding to the first hash value and the rear string data; and generating, according to the preset scrambling algorithm, scrambled front string data corresponding to the first hash value and scrambled rear string data corresponding to the second hash value. determining, based on a preset hash function, a first hash value corresponding to the front string data and a second hash value corresponding to the first hash value and the rear string data; and generating, according to the preset scrambling algorithm, scrambled front string data corresponding to the first hash value and scrambled rear string data corresponding to the second hash value.
An external control device configured for controlling a neurostimulator implanted within a patient, comprising: a user interface (72; 74) configured for receiving an input from a user; telemetry circuitry configured for communicating with the neurostimulator; and a control circuitry configured for customizing a pulse pattern on a pulse-by-pulse basis in response to the input from the user, and instructing the neurostimulator via the telemetry circuitry to deliver electrical stimulation energy to the patient in accordance with the customized pulse pattern, the pulse pattern including cyclically repeating basis patterns each including a group of individually customizable pulses. a user interface (72; 74) configured for receiving an input from a user; telemetry circuitry configured for communicating with the neurostimulator; and a control circuitry configured for customizing a pulse pattern on a pulse-by-pulse basis in response to the input from the user, and instructing the neurostimulator via the telemetry circuitry to deliver electrical stimulation energy to the patient in accordance with the customized pulse pattern, the pulse pattern including cyclically repeating basis patterns each including a group of individually customizable pulses.
An optical cable comprising: - a reinforcement defining a longitudinal groove extending parallel to a longitudinal axis of the optical cable , - an optical element at least partially housed in the groove - a jacket surrounding the optical element and the reinforcement , the jacket comprising a first part facing the optical element and a second part opposite the first part with respect to the optical element and to the reinforcement - two tearing elements suitable for tearing the sheath when the tearing elements are pulled towards the outside of the optical cable - two spaces defined by the sheath and the reinforcement in which the tearing elements are housed, the spaces being arranged so that the tearing of the sheath by the two tearing elements forms a flap in the first part of the sheath which can be spaced apart from the second part of the jacket in such a way as to allow access to the optical element from outside the optical cable , characterized in that the groove and the two spaces form different parts of a single cavity. - a reinforcement defining a longitudinal groove extending parallel to a longitudinal axis of the optical cable , - an optical element at least partially housed in the groove - a jacket surrounding the optical element and the reinforcement , the jacket comprising a first part facing the optical element and a second part opposite the first part with respect to the optical element and to the reinforcement - two tearing elements suitable for tearing the sheath when the tearing elements are pulled towards the outside of the optical cable - two spaces defined by the sheath and the reinforcement in which the tearing elements are housed, the spaces being arranged so that the tearing of the sheath by the two tearing elements forms a flap in the first part of the sheath which can be spaced apart from the second part of the jacket in such a way as to allow access to the optical element from outside the optical cable , characterized in that the groove and the two spaces form different parts of a single cavity.
A method for operating a passive infrared detector (PIR) configured as a two-terminal device, the method comprising the following steps: - controlling a current source via an output (IP, IN) of the passive infrared detector (PIR) - wherein the current source feeds current into a first node (Sb), - wherein said first node (Sb) being connected via an integrating filter (C1b) to the input of a comparator (CPb) which compares the voltage at the node (Sb) with a reference value, - wherein the output signal of said comparator (CPb) controls a digital integrating filter (Intb), - wherein the output signal of said digital integrating filter is supplied to a digital-to-analog converter (DAC) - wherein the output signal of said digital-to-analog converter (DAC) is supplied to a further current source (I1) being controlled by the output signal of the digital-to-analog converter (DAC), and - wherein said further current source (I1) also feeds its current into the first node (Sb). - controlling a current source via an output (IP, IN) of the passive infrared detector (PIR) - wherein the current source feeds current into a first node (Sb), - wherein said first node (Sb) being connected via an integrating filter (C1b) to the input of a comparator (CPb) which compares the voltage at the node (Sb) with a reference value, - wherein the output signal of said comparator (CPb) controls a digital integrating filter (Intb), - wherein the output signal of said digital integrating filter is supplied to a digital-to-analog converter (DAC) - wherein the output signal of said digital-to-analog converter (DAC) is supplied to a further current source (I1) being controlled by the output signal of the digital-to-analog converter (DAC), and - wherein said further current source (I1) also feeds its current into the first node (Sb).
A method for producing thermoplastic aromatic polysulfone resin, comprising: performing polymerization reaction of (A) a dihalogeno compound represented by Formula (I), (B) a divalent phenol represented by Formula (II) and (C) an alkali metal carbonate in an organic solvent at a charging molar ratio satisfying the following Formulae to : 0.900<(A)/(B)<0.990 {(A)/(B)}-0.02<(C)/(B)<{(A)/(B)}+0.01 and (C)/(B)<1.00, in Formulae (I) and (II), R 1 to R 4 each independently represents an alkyl group having 1 to 4 carbon atoms or an alkoxy group having 1 to 4 carbon atoms, X and X' each independently represents a halogen atom, Y represents one or more groups selected from the group consisting of -SO 2 -, -C(CH 3 ) 2 -, -CH 2 -, -O- and -CO-, or a single bond, and n1, n2, n3 and n4 each independently represents an integer of 0 to 4, and in a case where n1, n2, n3 or n4 is an integer of 2 to 4, a plurality of R 1 , R 2 , R 3 or R 4 may be the same as or different from each other. 0.900<(A)/(B)<0.990 {(A)/(B)}-0.02<(C)/(B)<{(A)/(B)}+0.01 and (C)/(B)<1.00,
Energy management system for an aircraft , comprising: - a fuel cell configured to convert chemical energy into electric energy; - at least one energy source configured to provide electric energy; - at least one electrical load ; - an electric bus electrically coupled to the fuel cell , the at least one energy source , and the at least one electrical load ; and - a controller configured to control the at least one electrical load in such a manner that an electric power consumed at the electric bus ensures a minimum load to the fuel cell , the energy management system being characterised by : the at least one electrical load comprises an electric motor mechanically coupled to a drive unit , and the controller is further configured to operate the electric motor in such a manner that the drive unit performs a climb and/or acceleration manoeuvre of the aircraft . - a fuel cell configured to convert chemical energy into electric energy; - at least one energy source configured to provide electric energy; - at least one electrical load ; - an electric bus electrically coupled to the fuel cell , the at least one energy source , and the at least one electrical load ; and - a controller configured to control the at least one electrical load in such a manner that an electric power consumed at the electric bus ensures a minimum load to the fuel cell , the energy management system being characterised by : the at least one electrical load comprises an electric motor mechanically coupled to a drive unit , and the controller is further configured to operate the electric motor in such a manner that the drive unit performs a climb and/or acceleration manoeuvre of the aircraft . the at least one electrical load comprises an electric motor mechanically coupled to a drive unit , and the controller is further configured to operate the electric motor in such a manner that the drive unit performs a climb and/or acceleration manoeuvre of the aircraft .
A solid state Raman laser system comprising: a pump source for generating an input beam having a first wavelength in the range between 3 micrometers and 7.5 micrometers, wherein the pump source is adapted to generate a pulsed pump beam comprising pump pulses at an intensity between about 0.1 GW/cm 2 and about 60 GW/cm 2 and a pulse width between about 1 ns and 100 ns; and a solid-state diamond Raman material; the laser system being adapted to generate a Raman shifted output beam having a second wavelength in the range of 5.5 to 100 micrometers and being the long wavelength side of a two-phonon absorption band in the solid-state diamond Raman material which absorbs strongly in the range of about 3.8 micrometers to 6.0 micrometers, the solid-state diamond Raman material having a nitrogen impurity content between 0.1 ppb and 10000 ppb. a pump source for generating an input beam having a first wavelength in the range between 3 micrometers and 7.5 micrometers, wherein the pump source is adapted to generate a pulsed pump beam comprising pump pulses at an intensity between about 0.1 GW/cm 2 and about 60 GW/cm 2 and a pulse width between about 1 ns and 100 ns; and a solid-state diamond Raman material; the laser system being adapted to generate a Raman shifted output beam having a second wavelength in the range of 5.5 to 100 micrometers and being the long wavelength side of a two-phonon absorption band in the solid-state diamond Raman material which absorbs strongly in the range of about 3.8 micrometers to 6.0 micrometers, the solid-state diamond Raman material having a nitrogen impurity content between 0.1 ppb and 10000 ppb.
A panic lock for doors that comprises: a box provided with a base ; a latch mounted with the capacity to rotate with respect to a shaft between a locked position and an unlocked position of the lock, and a locking and unlocking mechanism of the latch that comprises a carriage holding cylinders (41 and 42) and capable of moving between a locked position and an unlocked position of the latch , characterised in that the carriage comprises two windows parallel to the rotation shaft of the latch, provided with an inner projection that delimits a lower cavity and an upper cavity in which opposite ends of the first and second cylinder are housed; said cavities having configurations suitable for the limited movement of the cylinders between: - a locked position of the latch wherein: the contact points of the cylinders with respect to each other, the contact points of the first cylinder with a contact surface of the base of the box, and the contact points of the second cylinder with a contact surface of the heel of the latch are aligned on a plane perpendicular to the contact surfaces of the base and the latch ; and - an unlocked position of the latch wherein the contact points of the cylinders with respect to each other, of the first cylinder with the contact surface of the base and of the second cylinder with the contact surface of the latch are misaligned.
A sludge-reduction steam generator comprising: a plurality of U-shaped heat transfer pipes disposed in such a way that heat-exchange hot water flows in a pressure container; and one or more tubular plates coupled to the heat transfer pipes so as to support the heat transfer pipes , upper surfaces of the tubular plates being provided with a coated layer , wherein the coated layer is coated with a ceramic material having the same surface electrokinetic potential (zeta potential) as iron corrosion products including magnetite contained in sludge deposits and generating electric repulsion with precipitates including Fe 2 O 3 and Fe 3 O 4 , and the ceramic material is one of titanium ceramic including TiO 2 and zirconium ceramic including ZrO 2 and wherein the sludge-reduction steam generator comprises a plurality of blow down ports for easily removing the sludge deposits . a plurality of U-shaped heat transfer pipes disposed in such a way that heat-exchange hot water flows in a pressure container; and one or more tubular plates coupled to the heat transfer pipes so as to support the heat transfer pipes , upper surfaces of the tubular plates being provided with a coated layer , wherein the coated layer is coated with a ceramic material having the same surface electrokinetic potential (zeta potential) as iron corrosion products including magnetite contained in sludge deposits and generating electric repulsion with precipitates including Fe 2 O 3 and Fe 3 O 4 , and the ceramic material is one of titanium ceramic including TiO 2 and zirconium ceramic including ZrO 2 and wherein the sludge-reduction steam generator comprises a plurality of blow down ports for easily removing the sludge deposits .
A method for determining link adaptation parameters for a wireless device , the method being performed in a first radio network node of a wireless communication system, wherein the first radio network node hosts a first cell serving the wireless device, and wherein the wireless device is interfered by a second cell , the method comprising: - predicting a future position of the wireless device, - estimating a first radio channel quality value for the wireless device in the predicted future position, by determining a Signal to Interference and Noise ratio, SINR, using path-loss values between the wireless device in the predicted future position and the first radio node, a path loss value between the wireless device in the predicted future position and a second radio node serving the second cell; and a transmission power of the second cell, - determining link adaptation parameters for the scheduling of the wireless device in the future position using the estimated first radio channel quality value, characterized in that wherein the future position of the wireless device is predicted based on a current position, a speed and a moving direction of the wireless device. - predicting a future position of the wireless device, - estimating a first radio channel quality value for the wireless device in the predicted future position, by determining a Signal to Interference and Noise ratio, SINR, using path-loss values between the wireless device in the predicted future position and the first radio node, a path loss value between the wireless device in the predicted future position and a second radio node serving the second cell; and a transmission power of the second cell, - determining link adaptation parameters for the scheduling of the wireless device in the future position using the estimated first radio channel quality value,
System for inserting additives in a flowing liquid foodstuff, comprising • a tank comprising: i. an additive receiving compartment adapted to receive additives, ii. a first chamber adapted to be vented by a venting system , iii. a pipe connection , adapted to • be connected to a pipe where the flowing liquid foodstuff is in, and • insert the additives in the flowing liquid foodstuff, iv. a first valve arranged between the additive receiving compartment and the first chamber , wherein the first valve • has an open position wherein additives can be transferred from the additive receiving compartment to the first chamber , and • has a closed position wherein additives can be received in the additive receiving compartment while the first chamber can be vented and / or additives can be inserted in the flowing liquid foodstuff via the pipe connection . • a tank comprising: i. an additive receiving compartment adapted to receive additives, ii. a first chamber adapted to be vented by a venting system , iii. a pipe connection , adapted to • be connected to a pipe where the flowing liquid foodstuff is in, and • insert the additives in the flowing liquid foodstuff, iv. a first valve arranged between the additive receiving compartment and the first chamber , wherein the first valve • has an open position wherein additives can be transferred from the additive receiving compartment to the first chamber , and • has a closed position wherein additives can be received in the additive receiving compartment while the first chamber can be vented and / or additives can be inserted in the flowing liquid foodstuff via the pipe connection . i. an additive receiving compartment adapted to receive additives, ii. a first chamber adapted to be vented by a venting system , iii. a pipe connection , adapted to • be connected to a pipe where the flowing liquid foodstuff is in, and • insert the additives in the flowing liquid foodstuff, • be connected to a pipe where the flowing liquid foodstuff is in, and • insert the additives in the flowing liquid foodstuff, iv. a first valve arranged between the additive receiving compartment and the first chamber , wherein the first valve • has an open position wherein additives can be transferred from the additive receiving compartment to the first chamber , and • has a closed position wherein additives can be received in the additive receiving compartment while the first chamber can be vented and / or additives can be inserted in the flowing liquid foodstuff via the pipe connection . • has an open position wherein additives can be transferred from the additive receiving compartment to the first chamber , and • has a closed position wherein additives can be received in the additive receiving compartment while the first chamber can be vented and / or additives can be inserted in the flowing liquid foodstuff via the pipe connection .
Rolling bearing arrangement for a wind power plant having an outer ring and an inner ring which is mounted at least partially within the outer ring , wherein the outer ring and the inner ring are arranged rotatably relative to one another about a rotational axis , wherein a first tapered roller bearing with first tapered rollers and a second tapered roller bearing with second tapered rollers are arranged between the outer ring and the inner ring , characterized in that , in the unloaded state of the rolling bearing arrangement , the first tapered rollers have a first logarithmic roller profile and the second tapered rollers have a second logarithmic roller profile which differs from the first logarithmic roller profile, wherein the first logarithmic roller profile satisfies the profile function P 1 x = c 1 ⋅ D we 1 ⋅ log 1 1 − 2 ⋅ x L we 1 2 in the unloaded state, wherein D we1 corresponds to the maximum diameter of the first tapered rollers , and L we1 corresponds to the effective length of the first tapered rollers , and wherein the logarithm coefficient c 1 of the first tapered rollers is different from a reference logarithm coefficient c 0 of 0.00045, wherein the second logarithmic roller profile satisfies the profile function P 2 x = c 2 ⋅ D we 2 ⋅ log 1 1 − 2 ⋅ x L we 2 2 in the unloaded state, wherein D we2 corresponds to the maximum diameter of the second tapered rollers , and L we2 corresponds to the effective length of the second tapered rollers , and wherein the logarithm coefficient c 2 of the second tapered rollers is different from the reference logarithm coefficient c 0 of 0.00045, and wherein the logarithm coefficient c 1 of the first tapered rollers is smaller than the reference logarithm coefficient c 0 , and the logarithm coefficient c 2 of the second tapered rollers is greater than the reference logarithm coefficient c 0