mhurhangee/patent-ind-claim-en huggingface dataset:
A gas turbine engine control system for limiting turbine overspeed in case of a shaft failure, the control system comprising: - an overspeed protection system which is able to detect a shaft failure of the gas turbine engine, wherein the overspeed protection system is configured to activate an activation member in case a shaft failure is detected; - a fuel limiting mechanism coupled with the activation member , wherein the fuel limiting mechanism is configured to limit the fuel supply to the gas turbine engine combustor if the activation member is activated; - a variable stator vane mechanism which is configured to adjust variable stator vanes of a compressor of the gas turbine engine in their rotational position, the variable stator vanes having a closed position which blocks air flow through the compressor; - a connecting fuel line connecting the fuel limiting mechanism and the variable stator vane mechanism ; - wherein upon activation of the activation member the fuel limiting mechanism is configured to pressurize the connecting fuel line , thereby activating the variable stator vane mechanism to move at least one row of the variable stator vanes into the closed position, characterized in that the fuel limiting mechanism is implemented in an overspeed and splitter unit which - is configured to split the pressurized fuel coming from a fuel metering unit into upper and lower fuel manifolds that feed combustor nozzles under normal operating conditions; - is configured to limit the fuel from the fuel metering unit into the manifolds if the activation element is activated; and - is configured to pressurize the connecting fuel line if the activation element is activated. - an overspeed protection system which is able to detect a shaft failure of the gas turbine engine, wherein the overspeed protection system is configured to activate an activation member in case a shaft failure is detected; - a fuel limiting mechanism coupled with the activation member , wherein the fuel limiting mechanism is configured to limit the fuel supply to the gas turbine engine combustor if the activation member is activated; - a variable stator vane mechanism which is configured to adjust variable stator vanes of a compressor of the gas turbine engine in their rotational position, the variable stator vanes having a closed position which blocks air flow through the compressor; - a connecting fuel line connecting the fuel limiting mechanism and the variable stator vane mechanism ; - wherein upon activation of the activation member the fuel limiting mechanism is configured to pressurize the connecting fuel line , thereby activating the variable stator vane mechanism to move at least one row of the variable stator vanes into the closed position, - is configured to split the pressurized fuel coming from a fuel metering unit into upper and lower fuel manifolds that feed combustor nozzles under normal operating conditions; - is configured to limit the fuel from the fuel metering unit into the manifolds if the activation element is activated; and - is configured to pressurize the connecting fuel line if the activation element is activated.
An electronic pen that is configured to transmit a signal to a sensor of a position detecting device, the electronic pen including: a core body ; and a signal transmitting unit that is configured to transmit at least one signal to the sensor; the electronic pen being characterized in that the electronic pen further includes: a protection mechanism that is configured to set at least a tip of the core body to a state of being not exposed to external to protect at least the tip of the core body ; and detecting means that is configured to detect whether or not at least the tip of the core body is in a state of being protected by the protection mechanism , wherein based on a detection result of the detecting means , a signal for position detection and a signal including additional information that are to be transmitted to the position detecting device when position indication operation is carried out over the sensor are allowed to be transmitted from the signal transmitting unit when at least the tip of the core body is not protected by the protection mechanism and is exposed to the external, and the signal including the additional information is precluded from being transmitted when at least the tip of the core body is protected by the protection mechanism , and wherein the signal for position detection is sent out and the signal including the additional information is precluded from being transmitted when at least the core body is protected by the protection mechanism . a core body ; and a signal transmitting unit that is configured to transmit at least one signal to the sensor; the electronic pen being characterized in that the electronic pen further includes: a protection mechanism that is configured to set at least a tip of the core body to a state of being not exposed to external to protect at least the tip of the core body ; and detecting means that is configured to detect whether or not at least the tip of the core body is in a state of being protected by the protection mechanism , a protection mechanism that is configured to set at least a tip of the core body to a state of being not exposed to external to protect at least the tip of the core body ; and detecting means that is configured to detect whether or not at least the tip of the core body is in a state of being protected by the protection mechanism , wherein based on a detection result of the detecting means , a signal for position detection and a signal including additional information that are to be transmitted to the position detecting device when position indication operation is carried out over the sensor are allowed to be transmitted from the signal transmitting unit when at least the tip of the core body is not protected by the protection mechanism and is exposed to the external, and the signal including the additional information is precluded from being transmitted when at least the tip of the core body is protected by the protection mechanism , and wherein the signal for position detection is sent out and the signal including the additional information is precluded from being transmitted when at least the core body is protected by the protection mechanism .
A power storage device, comprising: a power storage unit (B1-B16); and an evaluation value acquisition unit , wherein the evaluation value acquisition unit is configured to acquire an evaluation value including at least a first evaluation value corresponding to the power storage unit (B1-B16) in a low-temperature region and a second evaluation value corresponding to the power storage unit (B1-B16) in a high-temperature region, characterized in that the first evaluation value is obtained by multiplying by a first predetermined weighting factor (L3), time obtained by integrating at least one of a charging time and a discharging time of the power storage unit (B1-B16), the second evaluation value is obtained by multiplying by a second predetermined weighting factor, time obtained by integrating at least one of a charging time and a discharging time of the power storage unit, the low-temperature region is less than 10 degC and the high-temperature region is 45degC or more, the predetermined weighting factor is set to be larger as the temperature becomes lower 10 degC or higher 45 degC. a power storage unit (B1-B16); and an evaluation value acquisition unit , wherein the evaluation value acquisition unit is configured to acquire an evaluation value including at least a first evaluation value corresponding to the power storage unit (B1-B16) in a low-temperature region and a second evaluation value corresponding to the power storage unit (B1-B16) in a high-temperature region, characterized in that the first evaluation value is obtained by multiplying by a first predetermined weighting factor (L3), time obtained by integrating at least one of a charging time and a discharging time of the power storage unit (B1-B16), the second evaluation value is obtained by multiplying by a second predetermined weighting factor, time obtained by integrating at least one of a charging time and a discharging time of the power storage unit, the low-temperature region is less than 10 degC and the high-temperature region is 45degC or more, the predetermined weighting factor is set to be larger as the temperature becomes lower 10 degC or higher 45 degC.
Gearbox having at least two coaxially disposed sun shafts , the central axes of the latter and a vertical enclosing in each case an angle of less than 45°; wherein at least one bearing is provided, which axially is disposed between the sun shafts and axially supports the sun shafts in relation to one another; wherein an upper sun shaft configures at least one oil line which in an oil-conducting manner connects an upper end face of the upper sun shaft to the bearing ; characterized by a further oil line having at least one exit opening; wherein the exit opening is disposed such that a transfer of oil from the exit opening into the oil line configured by the upper sun shaft takes place in at least one angular position of the upper sun shaft . wherein at least one bearing is provided, which axially is disposed between the sun shafts and axially supports the sun shafts in relation to one another; wherein an upper sun shaft configures at least one oil line which in an oil-conducting manner connects an upper end face of the upper sun shaft to the bearing ; characterized by a further oil line having at least one exit opening; wherein the exit opening is disposed such that a transfer of oil from the exit opening into the oil line configured by the upper sun shaft takes place in at least one angular position of the upper sun shaft .
A method for processing ash (A) resulting from the incineration of waste, wherein the ash (A) is classified in a processing plant separated from the actual waste incineration into a plurality of fractions (I, II, III) of different grain size distribution, wherein in the processing plant the classification of the ash (A) is carried out exclusively by a wet classification, and wherein the wet classification is performed in such a way that the ash (A) is completely classified into at least one fine fraction (I) contaminated with pollutants and at least one low-pollutant or pollutant-free coarse fraction (II, III), wherein in the wet classification exclusively grain-sparing classification methods are used, characterized in that the wet classification comprises a classification by upstream technology, wherein a upstream classifier is preceded by a hydrocyclone , and wherein after passing through at least a part of the wet classification a separation of metals is carried out. wherein the ash (A) is classified in a processing plant separated from the actual waste incineration into a plurality of fractions (I, II, III) of different grain size distribution, wherein in the processing plant the classification of the ash (A) is carried out exclusively by a wet classification, and wherein the wet classification is performed in such a way that the ash (A) is completely classified into at least one fine fraction (I) contaminated with pollutants and at least one low-pollutant or pollutant-free coarse fraction (II, III), wherein in the wet classification exclusively grain-sparing classification methods are used, characterized in that the wet classification comprises a classification by upstream technology, wherein a upstream classifier is preceded by a hydrocyclone , and wherein after passing through at least a part of the wet classification a separation of metals is carried out.
A liquid composition comprising a)a (meth) acrylic polymer (P1) comprising at least 50wt% monomers chosen from C1 to C12 alkyl (meth)acrylates, b)a multistage polymer in form of core shell particles comprising i) one stage (A) comprising a polymer (A1) having a glass transition temperature of less than 0°C measured according to the method in the description, said polymer (A1) is forming the core, ii) one stage (B) comprising a polymer (B1) having a glass transition temperature of at least 30°C measured according to the method in the description the stage (A) is the first stage and that stage (B) comprising polymer (B1) is grafted on stage (A) comprising polymer (A1) and c) a monomer (M1) that is a liquid monomer at least in the temperature range between 0°C and 60°C and comprises one carbon C=C double bond, wherein the multistage polymer to monomer ratio by weight in the liquid composition is between 1/99 and 25/75, characterized that the (meth) acrylic polymer (P1) has a mass average molecular weight Mw of less than 50 OOOg/mol as measured by size exclusion chromatography. a)a (meth) acrylic polymer (P1) comprising at least 50wt% monomers chosen from C1 to C12 alkyl (meth)acrylates, b)a multistage polymer in form of core shell particles comprising i) one stage (A) comprising a polymer (A1) having a glass transition temperature of less than 0°C measured according to the method in the description, said polymer (A1) is forming the core, ii) one stage (B) comprising a polymer (B1) having a glass transition temperature of at least 30°C measured according to the method in the description the stage (A) is the first stage and that stage (B) comprising polymer (B1) is grafted on stage (A) comprising polymer (A1) and i) one stage (A) comprising a polymer (A1) having a glass transition temperature of less than 0°C measured according to the method in the description, said polymer (A1) is forming the core, ii) one stage (B) comprising a polymer (B1) having a glass transition temperature of at least 30°C measured according to the method in the description the stage (A) is the first stage and that stage (B) comprising polymer (B1) is grafted on stage (A) comprising polymer (A1) and c) a monomer (M1) that is a liquid monomer at least in the temperature range between 0°C and 60°C and comprises one carbon C=C double bond,
An injectable composition for reducing the appearance of superficial depressions in the skin, the composition comprising a hyaluronic acid (HA) gel comprising a crosslinked HA matrix made with more than 50% by weight, at least 70% by weight or at least 90% by weight of a low molecular weight HA material having a weight average molecular weight of between 400,000 Da and 800,000 Da, based on the total weight of the HA material; wherein the HA concentration of the composition is 10.0 mg/g to 12 mg/g; wherein the crosslinked HA matrix is crosslinked with a crosslinking agent selected from the group consisting of 1,4-butanediol diglycidyl ether (BDDE), 1,2-bis(2,3-epoxypropoxy)ethylene and 1-(2,3-epoxypropyl)-2,3-epoxycyclohexane; wherein the composition maintains the reduced appearance of superficial depressions in the skin for at least 3 months from being introduced into the skin. wherein the HA concentration of the composition is 10.0 mg/g to 12 mg/g; wherein the crosslinked HA matrix is crosslinked with a crosslinking agent selected from the group consisting of 1,4-butanediol diglycidyl ether (BDDE), 1,2-bis(2,3-epoxypropoxy)ethylene and 1-(2,3-epoxypropyl)-2,3-epoxycyclohexane; wherein the composition maintains the reduced appearance of superficial depressions in the skin for at least 3 months from being introduced into the skin.
Method for outputting from a device having data communication capability received multimedia data with an adjustable latency, the method comprising : - receiving data packets comprising said multimedia data via an unstable air transport link, - storing said multimedia data in a buffer, - measuring at least one characteristic indicative of the input rate of said data packets received via said unstable link, - measuring an actual latency introduced by said buffer, - obtaining information indicative of the output rate of said device, the method being characterized in - determining a target latency for said multimedia data to be outputted based on statistical information derived from said measured at least one characteristic indicative of the input rate and said obtained information indicative of the output rate, wherein one or more weighting factors affect the strategy to determine said target latency, said one or more weighting factors being associated to latency-constrained environment information, distance measurement and/or information to optimize transport layer capacity, and - adjusting said actual latency introduced by said buffer, so that it complies with said target latency by modifying the rate at which said multimedia data is outputted or the rate at which said multimedia data is stored in said buffer. - receiving data packets comprising said multimedia data via an unstable air transport link, - storing said multimedia data in a buffer, - measuring at least one characteristic indicative of the input rate of said data packets received via said unstable link, - measuring an actual latency introduced by said buffer, - obtaining information indicative of the output rate of said device, the method being characterized in - determining a target latency for said multimedia data to be outputted based on statistical information derived from said measured at least one characteristic indicative of the input rate and said obtained information indicative of the output rate, wherein one or more weighting factors affect the strategy to determine said target latency, said one or more weighting factors being associated to latency-constrained environment information, distance measurement and/or information to optimize transport layer capacity, and - adjusting said actual latency introduced by said buffer, so that it complies with said target latency by modifying the rate at which said multimedia data is outputted or the rate at which said multimedia data is stored in said buffer.
An energy system (1, 1', 1") arranged to generate and to use thermal energy, the energy system (1, 1', 1") comprises a mechanical vapor recompression (MVR) unit , wherein thermal energy of a working liquid obtained during an MVR process performed by said MVR unit is utilized externally said energy system (1, 1', 1"), preferably for heating processes, spaces or objects, wherein the MVR unit comprises: - a primary heat exchanger arranged to receive: - a working liquid and - compressed vapor, wherein the primary heat exchanger is arranged to produce vapor by evaporation of the working liquid by heat exchanging the working liquid with the compressed vapor in the primary heat exchanger ; - a compressor arranged to compress vapor produced in the primary heat exchanger and arranged to deliver the compressed vapor to the primary heat exchanger to evaporate the working liquid in the primary heat exchanger ; - at least one primary vapor line arranged in connection to the primary heat exchanger and to the compressor for transport of vapor produced in the primary heat exchanger to the compressor , and wherein at least one liquid line (15, 15', 15") is arranged in connection to the condenser of the primary heat exchanger for transport of the condensed working liquid, and for delivery of the thermal energy of the working liquid to external consumers, and back to the primary heat exchanger , specifically back to an evaporator side or section of the primary heat exchanger , for re-evaporation in the primary heat exchanger . - a primary heat exchanger arranged to receive: - a working liquid and - compressed vapor, wherein the primary heat exchanger is arranged to produce vapor by evaporation of the working liquid by heat exchanging the working liquid with the compressed vapor in the primary heat exchanger ; - a compressor arranged to compress vapor produced in the primary heat exchanger and arranged to deliver the compressed vapor to the primary heat exchanger to evaporate the working liquid in the primary heat exchanger ; - at least one primary vapor line arranged in connection to the primary heat exchanger and to the compressor for transport of vapor produced in the primary heat exchanger to the compressor , and - a compressor arranged to compress vapor produced in the primary heat exchanger and arranged to deliver the compressed vapor to the primary heat exchanger to evaporate the working liquid in the primary heat exchanger ; - at least one primary vapor line arranged in connection to the primary heat exchanger and to the compressor for transport of vapor produced in the primary heat exchanger to the compressor , and wherein at least one liquid line (15, 15', 15") is arranged in connection to the condenser of the primary heat exchanger for transport of the condensed working liquid, and for delivery of the thermal energy of the working liquid to external consumers, and back to the primary heat exchanger , specifically back to an evaporator side or section of the primary heat exchanger , for re-evaporation in the primary heat exchanger .
A system for medical imaging comprising: an acquisition unit comprising a radiation source configured to emit X-rays and an X-ray detector configured to receive X-rays having passed through an object to be imaged and produce numerical values representative of the received X-rays, the acquisition unit movable about the object to be imaged to acquire a plurality of projection images, each at a different angle relative to the object to be imaged; and characterized by : an image processing unit that receives an input of a focal point (F) for a synthetic projection image, selects a first projection image (P i ) and a second projection image (P i+1 ) adjacent to the focal point from the plurality of projection images, and for each pixel of the synthetic projection image: identifies a first set of object locations in the first projection image and a second set of object locations in the second projection image that contribute to a pixel of the synthetic projection image; and calculates a value for the pixel of the synthetic projection image from pixels of the first set of object locations and the second set of object locations; wherein the image processing unit creates an interpolated synthetic projection image (P s ) from the calculated values of each pixel of the synthetic projection image. an acquisition unit comprising a radiation source configured to emit X-rays and an X-ray detector configured to receive X-rays having passed through an object to be imaged and produce numerical values representative of the received X-rays, the acquisition unit movable about the object to be imaged to acquire a plurality of projection images, each at a different angle relative to the object to be imaged; and characterized by : an image processing unit that receives an input of a focal point (F) for a synthetic projection image, selects a first projection image (P i ) and a second projection image (P i+1 ) adjacent to the focal point from the plurality of projection images, and for each pixel of the synthetic projection image: identifies a first set of object locations in the first projection image and a second set of object locations in the second projection image that contribute to a pixel of the synthetic projection image; and calculates a value for the pixel of the synthetic projection image from pixels of the first set of object locations and the second set of object locations; wherein the image processing unit creates an interpolated synthetic projection image (P s ) from the calculated values of each pixel of the synthetic projection image. identifies a first set of object locations in the first projection image and a second set of object locations in the second projection image that contribute to a pixel of the synthetic projection image; and calculates a value for the pixel of the synthetic projection image from pixels of the first set of object locations and the second set of object locations; wherein the image processing unit creates an interpolated synthetic projection image (P s ) from the calculated values of each pixel of the synthetic projection image.