mhurhangee/ep-ind-claims huggingface dataset:
An apparatus comprising: first circuitry at a first device capable of executing one or more applications using a hierarchical memory architecture including a first near memory and a first far memory maintained at the first device, the first near memory having a lower latency than the first far memory; a detect logic to detect second circuitry at a second device that is capable of executing the one or more applications using the hierarchical memory architecture that also includes a second near memory maintained at the second device, the second near memory having a lower latency than the first far memory; a migration logic to cause a copy of memory contents and a computational state associated with the first circuitry's execution of the one or more applications to be migrated over a wired or wireless interconnect from the first near memory to the second near memory for the second circuitry to execute the one or more applications; and a buffer logic to configure the first near memory to function as a buffer capable of periodically receiving data copied from dirty blocks at the second near memory. first circuitry at a first device capable of executing one or more applications using a hierarchical memory architecture including a first near memory and a first far memory maintained at the first device, the first near memory having a lower latency than the first far memory; a detect logic to detect second circuitry at a second device that is capable of executing the one or more applications using the hierarchical memory architecture that also includes a second near memory maintained at the second device, the second near memory having a lower latency than the first far memory; a migration logic to cause a copy of memory contents and a computational state associated with the first circuitry's execution of the one or more applications to be migrated over a wired or wireless interconnect from the first near memory to the second near memory for the second circuitry to execute the one or more applications; and a buffer logic to configure the first near memory to function as a buffer capable of periodically receiving data copied from dirty blocks at the second near memory.
A method for determining the flow rate of combustible fluid injected inside a combustion chamber of a turbine, the combustible fluid being a mixture of air-fuel gas injected inside the combustion chamber through an orifice of at least one injector (112, 113, 114, 115), said orifice being disposed inside the combustion chamber, the method comprising the following steps: - determine the section of the orifice of said at least one injector (112, 113, 114, 115) through which the combustible fluid is injected into the combustion chamber, - determine the pressure of the combustible fluid upstream of the injector orifice (112, 113, 114, 115), - determine the pressure downstream of the injector orifice (112, 113, 114, 115), - determine the flow rate of combustible fluid flowing through the orifice of said at least one injector (112, 113, 114, 115) according to the section of the orifice of said at least one injector, of the pressure of the combustible fluid upstream of the injector orifice and the pressure downstream of the injector orifice determined, - determine the flow rate of combustible fluid injected inside the combustion chamber according to the pressure difference across said at least one injector (112, 113, 114, 115) wherein the pressure of the combustible fluid upstream of the injector orifice (112, 113, 114, 115) is determined indirectly by measuring the pressure difference between the fuel line and the pressure of the compressed air leaving the compressor. - determine the section of the orifice of said at least one injector (112, 113, 114, 115) through which the combustible fluid is injected into the combustion chamber, - determine the pressure of the combustible fluid upstream of the injector orifice (112, 113, 114, 115), - determine the pressure downstream of the injector orifice (112, 113, 114, 115), - determine the flow rate of combustible fluid flowing through the orifice of said at least one injector (112, 113, 114, 115) according to the section of the orifice of said at least one injector, of the pressure of the combustible fluid upstream of the injector orifice and the pressure downstream of the injector orifice determined, - determine the flow rate of combustible fluid injected inside the combustion chamber according to the pressure difference across said at least one injector (112, 113, 114, 115)
A carrier peptide comprising the sequence: X n - m or a pharmaceutically acceptable salt thereof, wherein: X is a hydrophilic amino acid; B is a blood-brain barrier agent; n is an integer from 4 to 50; and m is integer from 1 to 3; wherein the blood-brain barrier agent comprises a polypeptide sequence having at least 80% sequence identity to: L-R-V-R-L-A-S-H-L-R-K-L-R-K-R-L-L-R-D-A (SEQ ID NO:13). X is a hydrophilic amino acid; B is a blood-brain barrier agent; n is an integer from 4 to 50; and m is integer from 1 to 3; L-R-V-R-L-A-S-H-L-R-K-L-R-K-R-L-L-R-D-A (SEQ ID NO:13).
A biomass-resource-derived polyester, comprising as a main repeating unit thereof a dicarboxylic acid unit and a diol unit, wherein at least one of the dicarboxylic acid and diol used as raw materials of the polyester is obtained from biomass resources, a nitrogen atom content in the polyester except nitrogen atoms contained in covalently bonded functional groups in the molecule of the polyester is 0.01 ppm to 50 ppm, wherein an amount of terminal acid in the polyester is 50 equivalents/metric ton or less, and wherein a metal amount of a polymerization catalyst selected from the group consisting of titanium, zirconium, tin, antimony, cerium, germanium, zinc, cobalt, manganese, iron, aluminum, magnesium, calcium, strontium, sodium and potassium in the polyester, is 5 ppm to 130 ppm.
An electric compressor, in which gas in a motor housing of a rotating electric machine is drawn into a compression chamber by a suction motion of a compression motion body based on rotation of a rotary shaft driven by the rotating electric machine, and the gas in the compression chamber being discharged by discharge motion of the compression motion body based on the rotation of the rotary shaft, wherein the rotating electric machine includes: an annular stator; a plurality of teeth arranged on an inner circumference of the stator; a plurality of coils ( 25U, 25V, 25W) of different phases passing through slots between the teeth; a phase-to-phase insulation sheet ( 32, 33, 34, 35) located between coils ( 25U, 25V, 25W) of different phases; and an inlet port ( 30, 30A) which is provided in the motor housing, the inlet port ( 30, 30A) drawing gas from the outside of the motor housing, wherein the gas flows through the inlet port ( 30, 30A) along an inflow direction ( Q, R), characterized in that the plurality of coil ends ( 251U, 251V, 251W, 252U, 252V, 252W) include covered coil ends ( 251V, 251W), which are covered by the phase-to-phase insulation sheet, and uncovered coil ends, which are not covered by the phase-to-phase insulation sheet, the covered coil ends ( 251V, 251W) and the uncovered coil ends are arranged alternately in a peripheral direction of the rotating electric machine, and the coil ends ( 251U, 251V, 251W) are positioned in the peripheral direction so that a part of the covered coil ends ( 251V, 251 W) intersects the inflow direction ( Q, R), and the uncovered coil ends do not intersect the inflow direction ( Q, R). an annular stator; a plurality of teeth arranged on an inner circumference of the stator; a plurality of coils ( 25U, 25V, 25W) of different phases passing through slots between the teeth; a phase-to-phase insulation sheet ( 32, 33, 34, 35) located between coils ( 25U, 25V, 25W) of different phases; and an inlet port ( 30, 30A) which is provided in the motor housing, the inlet port ( 30, 30A) drawing gas from the outside of the motor housing, wherein the gas flows through the inlet port ( 30, 30A) along an inflow direction ( Q, R), characterized in that the plurality of coil ends ( 251U, 251V, 251W, 252U, 252V, 252W) include covered coil ends ( 251V, 251W), which are covered by the phase-to-phase insulation sheet, and uncovered coil ends, which are not covered by the phase-to-phase insulation sheet, the covered coil ends ( 251V, 251W) and the uncovered coil ends are arranged alternately in a peripheral direction of the rotating electric machine, and the coil ends ( 251U, 251V, 251W) are positioned in the peripheral direction so that a part of the covered coil ends ( 251V, 251 W) intersects the inflow direction ( Q, R), and the uncovered coil ends do not intersect the inflow direction ( Q, R).
Method for operating a vehicle in a freewheeling mode or rolling mode, wherein the freewheeling mode is understood to be driving a vehicle with an open drive train with the drive engine switched off, and rolling mode is understood to be driving a vehicle with an open drive train with the drive engine switched on, wherein the vehicle has a drive train with a controllable drive engine, an automatic or automated transmission and controllable switching means for interrupting a power transmission in the drive train, wherein the freewheeling mode or rolling mode is predictively activated, deactivated or maintained with the aid of a plausibility check of a currently active automatic cruise control function or adaptive cruise control function and other current vehicle operating data or driving state data or variables derived therefrom, wherein relevant peripheral conditions of the active cruise control function or adaptive cruise control function and of the freewheeling mode or rolling mode are coordinated and adapted in a driving-situation-related fashion as required, and wherein respectively necessary control measures are initiated by means of a transmission controller, characterized in that an interruption in the power transmission in the drive train is requested during travel if a currently available positive engine torque and currently requested engine torque losses at least approximately cancel one another out and if a positive or negative acceleration which is predicted for travel with the freewheeling mode or rolling mode is evaluated as permissible.
Method for retrofitting a fossil-fuelled power station comprising a multi-housing stream turbine with a carbon dioxide separation device, in which a) the suction capability of the steam turbine is adapted for the operation of the carbon dioxide separation device to the process steam to be removed and b) the carbon dioxide separation device is connected via a process steam line to the cold intermediate superheating line of an intermediate superheating line, wherein a partly-relaxed steam is provided as process steam and characterised in that: c) an auxiliary condenser is connected to the carbon dioxide separation device in parallel, so that on failure or deliberate switching off of the carbon dioxide separation device surplus process steam is condensed in the auxiliary condenser. a) the suction capability of the steam turbine is adapted for the operation of the carbon dioxide separation device to the process steam to be removed and b) the carbon dioxide separation device is connected via a process steam line to the cold intermediate superheating line of an intermediate superheating line, wherein a partly-relaxed steam is provided as process steam and characterised in that: c) an auxiliary condenser is connected to the carbon dioxide separation device in parallel, so that on failure or deliberate switching off of the carbon dioxide separation device surplus process steam is condensed in the auxiliary condenser.
A method for non-invasive determination of the potential presence of one or more loss-of-function mutation(s) in the gene encoding for filaggrin of an individual comprising (i) obtaining a vibrational spectrum from the stratum corneum of the individual; (ii) determining the local natural moisturising factor content from the obtained vibrational spectrum; (iii) optionally repeating steps (i) and (ii); and (iv) comparing the local natural moisturising factor content of the individual to a reference value, wherein the vibrational spectrum is obtained from stratum corneum of the thenar, 1-70 μm beneath the skin surface of the individual, preferably 2-50 μm, more preferably 3-30 μm or of the volar aspect of the forearm 1-10 μm beneath the skin surface of the individual, preferably 2-8 μm, more preferably 3-6 μm. (i) obtaining a vibrational spectrum from the stratum corneum of the individual; (ii) determining the local natural moisturising factor content from the obtained vibrational spectrum; (iii) optionally repeating steps (i) and (ii); and (iv) comparing the local natural moisturising factor content of the individual to a reference value,
A heat radiating member comprising: a composite portion composed of a composite material which contains particles of a satisfactorily thermally conductive material in a metal matrix; and a metal layer formed on at least one surface of the composite portion and composed of a metal, wherein the satisfactorily thermally conductive material is diamond; wherein the metal matrix is composed of a metal which is at least one selected from Ag, Cu, and Al; wherein the composite portion has a thermal conductivity of 120 W/m · K or more; and wherein: the metal composing the metal layer has crystal grains having an average crystal grain size of 30 μm or less; and the metal layer has a thickness of 10 μm or more and 500 μm or less. a composite portion composed of a composite material which contains particles of a satisfactorily thermally conductive material in a metal matrix; and a metal layer formed on at least one surface of the composite portion and composed of a metal, wherein the satisfactorily thermally conductive material is diamond; wherein the metal matrix is composed of a metal which is at least one selected from Ag, Cu, and Al; wherein the composite portion has a thermal conductivity of 120 W/m · K or more; and wherein: the metal composing the metal layer has crystal grains having an average crystal grain size of 30 μm or less; and the metal layer has a thickness of 10 μm or more and 500 μm or less. the metal composing the metal layer has crystal grains having an average crystal grain size of 30 μm or less; and the metal layer has a thickness of 10 μm or more and 500 μm or less.
An Acoustic Vector Sensor 'AVS', comprising: a non-contact support structure comprising a plurality of solenoids (26, 28, 30, 32, 34, 36) that each produce a magnetic field in a fluid medium; an object suspended in the fluid medium by the non-contact support structure, wherein the object and the non-contact support structure are configured so that the object moves in response to any disturbance of the fluid by an acoustic wave, wherein; a measurement device that measures movement of the object; a processing device; and an excitation device that drives the plurality of solenoids (26, 28, 30, 32, 34, 36) with a drive signal characterized in that the plurality of solenoids (26, 28, 30, 32, 34, 36) comprises three pairs of solenoids, each pair of solenoids disposed along one Cartesian coordinate axis with the object disposed at the origin therebetween; in that the processing device determines an acoustic intensity vector of the acoustic wave based on the measured movement of the object; and in that the excitation device is configured to drive each pair of solenoids with an opposite phase current drive signal so that a magnetic well is generated that will oppose any change in position of the object at the origin. a non-contact support structure comprising a plurality of solenoids (26, 28, 30, 32, 34, 36) that each produce a magnetic field in a fluid medium; an object suspended in the fluid medium by the non-contact support structure, wherein the object and the non-contact support structure are configured so that the object moves in response to any disturbance of the fluid by an acoustic wave, wherein; a measurement device that measures movement of the object; a processing device; and an excitation device that drives the plurality of solenoids (26, 28, 30, 32, 34, 36) with a drive signal characterized in that the plurality of solenoids (26, 28, 30, 32, 34, 36) comprises three pairs of solenoids, each pair of solenoids disposed along one Cartesian coordinate axis with the object disposed at the origin therebetween; in that the processing device determines an acoustic intensity vector of the acoustic wave based on the measured movement of the object; and in that the excitation device is configured to drive each pair of solenoids with an opposite phase current drive signal so that a magnetic well is generated that will oppose any change in position of the object at the origin.
A method for treating a solvent in wastewater, said solvent being methylene chloride, the method comprising the steps of: a) preparing wastewater containing water, and a solvent in a vapor state and a liquid state generated in a polycarbonate production process; wherein the wastewater is generated in the step of purifying the polycarbonate or regenerating nitrogen gas used for drying the polycarbonate after the completion of drying the polycarbonate, b) separating the solvent by a membrane distillation method in which the wastewater is supplied to a separation membrane column having a hydrophobic porous support membrane to separate only the solvent in a vapor state of the wastewater through pores of the hydrophobic porous support membrane and transfer it to a condenser; wherein the hydrophobic porous support membrane is formed of a hydrophobic polymer material in which polypropylene is combined with Teflon (PTFE); wherein the hydrophobic porous support membrane formed of polypropylene has a pore size of 0.2 μm to 0.5 μm and a PTFE material having a pore size of 0.3 μm, c) condensing the separated solvent by using a condenser; and d) transferring the condensed solvent to a solvent reservoir. a) preparing wastewater containing water, and a solvent in a vapor state and a liquid state generated in a polycarbonate production process; wherein the wastewater is generated in the step of purifying the polycarbonate or regenerating nitrogen gas used for drying the polycarbonate after the completion of drying the polycarbonate, b) separating the solvent by a membrane distillation method in which the wastewater is supplied to a separation membrane column having a hydrophobic porous support membrane to separate only the solvent in a vapor state of the wastewater through pores of the hydrophobic porous support membrane and transfer it to a condenser; wherein the hydrophobic porous support membrane is formed of a hydrophobic polymer material in which polypropylene is combined with Teflon (PTFE); wherein the hydrophobic porous support membrane formed of polypropylene has a pore size of 0.2 μm to 0.5 μm and a PTFE material having a pore size of 0.3 μm, c) condensing the separated solvent by using a condenser; and d) transferring the condensed solvent to a solvent reservoir.
Coil unit (3; 6) for inductive transmission of electrical energy with a coil (9; 11; 27; 28; 30) and a flux guide unit (8; 12; 31) for guidance of a magnetic flux which is produced when the coil (9; 11; 27; 28; 30) is in operation, wherein the flux guide unit (8; 12; 31) extends at least partly laterally out beyond the external dimensions of the coil (9; 11; 27; 28; 30) by a projecting amount (U; u), characterised in that the projecting parts (15'; 18; 19; 24) of the flux guide unit (8; 12; 31) which, when seen in a plan view of the coil (9; 11; 27; 28; 30) and the flux guide unit (8; 12; 31), lie laterally outside the coil (9; 11; 27; 28; 30) transversely to the direction of the main magnetic flux, are separated from the parts (15; 23; 29) of the flux guide unit (8; 12; 31) which in the plan view of the coil (9; 11; 27; 28; 30) and the flux guide unit (8; 12; 31) run under the coil (9; 11; 27; 28; 30) or project over the coil (9; 11; 27; 28; 30) in the direction of the main magnetic flux.
Drawer which can be displaced relative to a basic furniture structure, via a pull-out guide (6, 7, 8), from a position within the basic furniture structure into a pulled-out position in front of the basic furniture structure, and the drawer has, on the opposite sides, in each case at least one gearwheel which meshes with a rack, secured on the basic furniture structure, and is coupled to a gearwheel on the opposite side, it being possible for the racks to be extended in length in each case via a pivotable lever, in order to ensure that the drawer is also guided by the gearwheels in the pulled-out position, characterized in that the pivotable lever can be disengaged from the meshing gearwheel in order to correct a skewed position of the drawer, whereby the lever in a correction position can be raised up from the gearwheel and the correction position is the position in which the drawer has been pulled out to the full extent.
A process for preparing a powdered microencapsulated composition comprising the steps of: a) Preparing an oil-in-water suspension containing (i) an oil phase comprising an active ingredient, preferably a perfume or a flavor, said oil being dispersed in (ii) a water phase including a water-soluble carbohydrate carrier; and (iii) optionally an emulsifier wherein the weight ratio between the oil phase and the water is preferably above 1, more preferably above 1.5; b) Blending at room temperature the suspension obtained under step a) with a desiccant powder to form a dry microcapsule powder, said process being characterized in that the weight difference Δ between the water sorption of the desiccant and the water sorption of the carrier, at 50% relative humidity and at 25°C, is positive; preferably Δ is at least 1%, more preferably Δ is at least 2%; c) Optionally sifting the obtained powder to remove the excess desiccant characterized in that the process is free of any spray-drying step. a) Preparing an oil-in-water suspension containing (i) an oil phase comprising an active ingredient, preferably a perfume or a flavor, said oil being dispersed in (ii) a water phase including a water-soluble carbohydrate carrier; and (iii) optionally an emulsifier wherein the weight ratio between the oil phase and the water is preferably above 1, more preferably above 1.5; (i) an oil phase comprising an active ingredient, preferably a perfume or a flavor, said oil being dispersed in (ii) a water phase including a water-soluble carbohydrate carrier; and (iii) optionally an emulsifier b) Blending at room temperature the suspension obtained under step a) with a desiccant powder to form a dry microcapsule powder, said process being characterized in that the weight difference Δ between the water sorption of the desiccant and the water sorption of the carrier, at 50% relative humidity and at 25°C, is positive; preferably Δ is at least 1%, more preferably Δ is at least 2%; c) Optionally sifting the obtained powder to remove the excess desiccant characterized in that the process is free of any spray-drying step.