mhurhangee/ep-ind-claims huggingface dataset:
A method for producing aviation fuel component, the method comprising a) providing a feedstock comprising 75-95% by weight fossil hydrotreatment feed and 5-25% by weight a second feed comprising esters of fatty acids and rosins, free fatty acids and resin acids, b) subjecting the feedstock to hydrotreatment reaction conditions to produce a hydrotreated stream, c) separating at least part of the hydrotreated stream to ∘ a fraction boiling below 180 °C at atmospheric pressure, ∘ a fraction boiling between 180 °C and 360 °C at atmospheric pressure and ∘ a fraction boiling above 360 °C at atmospheric pressure, d) subjecting at least part of the fraction boiling above 360°C at atmospheric pressure to hydrocracking reaction conditions to produce a hydrocracked stream, e) admixing at least part of the hydrocracked stream with at least part of the hydrotreated stream to provide a fractionation stream, f) separating the fractionation stream at least to ∘ a fraction boiling below 180 °C at atmospheric pressure, ∘ a fraction boiling between 180 °C and 360 °C at atmospheric pressure, ∘ a fraction boiling above 360 °C at atmospheric pressure, and g) separating the aviation fuel component from one or more fractions boiling between 180°C and 360 °C at atmospheric pressure. a) providing a feedstock comprising 75-95% by weight fossil hydrotreatment feed and 5-25% by weight a second feed comprising esters of fatty acids and rosins, free fatty acids and resin acids, b) subjecting the feedstock to hydrotreatment reaction conditions to produce a hydrotreated stream, c) separating at least part of the hydrotreated stream to ∘ a fraction boiling below 180 °C at atmospheric pressure, ∘ a fraction boiling between 180 °C and 360 °C at atmospheric pressure and ∘ a fraction boiling above 360 °C at atmospheric pressure, ∘ a fraction boiling below 180 °C at atmospheric pressure, ∘ a fraction boiling between 180 °C and 360 °C at atmospheric pressure and ∘ a fraction boiling above 360 °C at atmospheric pressure, d) subjecting at least part of the fraction boiling above 360°C at atmospheric pressure to hydrocracking reaction conditions to produce a hydrocracked stream, e) admixing at least part of the hydrocracked stream with at least part of the hydrotreated stream to provide a fractionation stream, f) separating the fractionation stream at least to ∘ a fraction boiling below 180 °C at atmospheric pressure, ∘ a fraction boiling between 180 °C and 360 °C at atmospheric pressure, ∘ a fraction boiling above 360 °C at atmospheric pressure, and ∘ a fraction boiling below 180 °C at atmospheric pressure, ∘ a fraction boiling between 180 °C and 360 °C at atmospheric pressure, ∘ a fraction boiling above 360 °C at atmospheric pressure, and g) separating the aviation fuel component from one or more fractions boiling between 180°C and 360 °C at atmospheric pressure.
A system for segmenting an object in a medical image comprising: - a first adapter for adapting a first deformable model for segmenting the object to the medical image; the first model being a simplified model of a left atrium not including right-side pulmonary veins; - an analyzer for extracting a feature from the medical image based on the adapted first deformable model, wherein region growing is used for detecting blood vessel walls and/or centerlines as image features, wherein the analyzer is configured to start the region growing process after adapting the first deformable model to the medical image; - a selector for selecting a second deformable model for segmenting the object from a plurality of deformable models for segmenting the object based on the feature extracted from the medical image, wherein the second deformable model comprises pulmonary veins; - an initializer for initializing the second deformable model based on the adapted first deformable model and the feature extracted from the medical image; and - a second adapter for adapting the initialized second deformable model to the medical image; wherein the plurality of deformable models for segmenting the left atrium comprises different numbers of pulmonary veins. - a first adapter for adapting a first deformable model for segmenting the object to the medical image; the first model being a simplified model of a left atrium not including right-side pulmonary veins; - an analyzer for extracting a feature from the medical image based on the adapted first deformable model, wherein region growing is used for detecting blood vessel walls and/or centerlines as image features, wherein the analyzer is configured to start the region growing process after adapting the first deformable model to the medical image; - a selector for selecting a second deformable model for segmenting the object from a plurality of deformable models for segmenting the object based on the feature extracted from the medical image, wherein the second deformable model comprises pulmonary veins; - an initializer for initializing the second deformable model based on the adapted first deformable model and the feature extracted from the medical image; and - a second adapter for adapting the initialized second deformable model to the medical image; wherein the plurality of deformable models for segmenting the left atrium comprises different numbers of pulmonary veins.
A power supply apparatus comprising: a solar cell module including at least one solar cell to absorb sunlight; a power converter to convert power output from the solar cell module and to supply the converted power to a load; and a driving controller comprising a solar cell module measuring unit characterised in that the solar cell module measuring unit is configured to measure the power output of the solar cell module and an output measuring unit to measure the power output from the power converter to a load, the driving controller being configured to control the power converter having a preset duty ratio to operate for a driving period of time that is calculated based on a difference between the measured output of the solar cell module and the output from the power converter, wherein the driving controller is arranged, using the preset duty ratio, to adjust the driving period of time to be increased and decreased as the difference between the measured output of the solar cell module and the output from the power converter increases and decreases respectively. a solar cell module including at least one solar cell to absorb sunlight; a power converter to convert power output from the solar cell module and to supply the converted power to a load; and a driving controller comprising a solar cell module measuring unit
A manufacturing method for manufacturing a hollow plastic article, having partially or completely a bellows form, characterized in that the said method comprises the steps of a) injecting a molten plastic material into a mold cavity with no bellows form, b) pushing the core of the molten material out by injecting a pressurized fluid or a projectile into the material and thus obtaining a hollow preform with no bellows, c) activating the sliders on the mold, that will provide the bellows form, by means of a movable slider system positioned in the mold at a region where the bellows portion will be formed, such that said movable slider system is either composed of two slider sets (25, 26) arranged orthogonal to each other wherein one of the said two slider sets (25, 26) has a smooth inner wall, while the other one has a bellows form that that is desired to be formed on the final product with troughs and ridges, or movable segments on a stationary slider set, d) inflating the not-entirely-solidified material towards the walls of the mold by supplying high-pressure gas and/or liquid into the preform and thus forming the bellows shape, e) discharging the fluid after the plastic material completely solidifies, and then removing the final article with bellows form from the mold. a) injecting a molten plastic material into a mold cavity with no bellows form, b) pushing the core of the molten material out by injecting a pressurized fluid or a projectile into the material and thus obtaining a hollow preform with no bellows, c) activating the sliders on the mold, that will provide the bellows form, by means of a movable slider system positioned in the mold at a region where the bellows portion will be formed, such that said movable slider system is either composed of two slider sets (25, 26) arranged orthogonal to each other wherein one of the said two slider sets (25, 26) has a smooth inner wall, while the other one has a bellows form that that is desired to be formed on the final product with troughs and ridges, or movable segments on a stationary slider set, d) inflating the not-entirely-solidified material towards the walls of the mold by supplying high-pressure gas and/or liquid into the preform and thus forming the bellows shape, e) discharging the fluid after the plastic material completely solidifies, and then removing the final article with bellows form from the mold.
Press or punching machine with a drive that can drive a ram with an oscillating movement and with an oscillating counterbalance to compensate for mass forces, which can also be driven with an oscillating movement by the drive in the opposite direction to the ram, where the oscillating counterbalance has a tank that can be filled with a material, where the tank is divided into individual sectors separate from one another or where several tanks are available, characterized in that baffle plates are disposed in the separate sectors or in the several tanks.
A cell washer comprising: a vessel (10, 200) configured to hold cells, the vessel comprising an elongated body including an opening, an inner surface, a pocket (34, 206), and a cavity, the pocket defined by a first inner surface portion of the inner surface disposed between and radially outward relative to a second inner surface portion and a third inner surface portion of the inner surface; and an actuating device capable of causing the vessel to spin about an axis; and a conduit configured to pass through the opening and configured to transfer fluid to and from the cavity during rotation of the vessel; wherein the cavity is defined by a lower portion of the body and is below the pocket (34, 206), wherein the pocket has an aspect ratio of at least about 2:1 length: depth. a vessel (10, 200) configured to hold cells, the vessel comprising an elongated body including an opening, an inner surface, a pocket (34, 206), and a cavity, the pocket defined by a first inner surface portion of the inner surface disposed between and radially outward relative to a second inner surface portion and a third inner surface portion of the inner surface; and an actuating device capable of causing the vessel to spin about an axis; and a conduit configured to pass through the opening and configured to transfer fluid to and from the cavity during rotation of the vessel; wherein the cavity is defined by a lower portion of the body and is below the pocket (34, 206), wherein the pocket has an aspect ratio of at least about 2:1 length: depth.
A method for inhibiting hydrate formation in a fluid comprising water and a hydrocarbon gas, the method comprising contacting the fluid with an effective amount of a hydrate inhibitor composition comprising from about 10 wt.% to about 55 wt.% of a nonpolar solvent; from about 0.1 wt.% to about 15 wt.% of a polar solvent; and from about 0.1 to about 50 wt. % of a polymer, an oligomer, a dendrimer, or an acid or salt thereof, wherein the polymer, oligomer, or dendrimer is a kinetic hydrate inhibiting polymer, oligomer, or dendrimer; wherein the nonpolar solvent is selected from an aromatic hydrocarbon solvent, an aliphatic hydrocarbon solvent, a cycloaliphatic hydrocarbon solvent, or a combination thereof, and wherein the polar solvent is selected from an alcohol having a molecular weight less than 300 Daltons. wherein the nonpolar solvent is selected from an aromatic hydrocarbon solvent, an aliphatic hydrocarbon solvent, a cycloaliphatic hydrocarbon solvent, or a combination thereof, and wherein the polar solvent is selected from an alcohol having a molecular weight less than 300 Daltons.
Braking method until stopping of a railway vehicle running from the rear towards the front, the railway vehicle comprising at least one first train and one second train behind the first train, each train (R1, R2) comprising at least one coupling device (11, 12), wheels (31, 32) and a braking device (41, 42) configured to apply a braking effort (F1, F2) to the wheels (31, 32) of said train (R1, R2), the coupling device of the first train being coupled with the coupling device of the second train, the braking method comprising: - an application step, by the braking device of the first train, of a first braking effort to the wheels of the first train until stopping of the railway vehicle, and - a stage of application, by the braking device of the second train, of a second braking effort to the wheels of the second train until stopping of the railway vehicle, - method in which the first braking effort is strictly greater than the second braking effort so as to allow compression of the coupling device of the first train and of the coupling device of the second train. - an application step, by the braking device of the first train, of a first braking effort to the wheels of the first train until stopping of the railway vehicle, and - a stage of application, by the braking device of the second train, of a second braking effort to the wheels of the second train until stopping of the railway vehicle, - method in which the first braking effort is strictly greater than the second braking effort so as to allow compression of the coupling device of the first train and of the coupling device of the second train.
A phase-locked loop, PLL, circuit, comprising: a sampling phase detector configured to receive a reference clock (ref_clk) and a feedback clock (fb_clk) and configured to supply a differential first control current (IsamP, IsamN) and a pulse signal (pul), the sampling phase detector comprising a sampler configured to sample the feedback clock using the reference clock to generate a differential control voltage (VsamP, VsamN), a transconductance circuit configured to convert the differential control voltage into the differential first control current, and a pulser circuit configured to generate the pulse signal in response to the reference clock, wherein a jitter performance of the phase-locked loop circuit is configured to be improved by increasing a gain of the sampling phase detector by varying at least one of: a slew rate of the feedback clock (fb_clk); a pulse width of the pulse signal (pul); and a gain of the transconductance circuit; a charge pump configured to generate a second control current (Icp) based on the differential first control current and the pulse signal; a loop filter configured to filter the second control current and generate an oscillator control voltage (Vctrl); and a voltage controlled oscillator, VCO, configured to generate an output clock (out_clk) based on the oscillator control voltage; and the PLL circuit further comprises a frequency divider configured to generate the feedback clock (fb_clk) from the output clock. a sampling phase detector configured to receive a reference clock (ref_clk) and a feedback clock (fb_clk) and configured to supply a differential first control current (IsamP, IsamN) and a pulse signal (pul), the sampling phase detector comprising a sampler configured to sample the feedback clock using the reference clock to generate a differential control voltage (VsamP, VsamN), a transconductance circuit configured to convert the differential control voltage into the differential first control current, and a pulser circuit configured to generate the pulse signal in response to the reference clock, wherein a jitter performance of the phase-locked loop circuit is configured to be improved by increasing a gain of the sampling phase detector by varying at least one of: a slew rate of the feedback clock (fb_clk); a pulse width of the pulse signal (pul); and a gain of the transconductance circuit; a charge pump configured to generate a second control current (Icp) based on the differential first control current and the pulse signal; a loop filter configured to filter the second control current and generate an oscillator control voltage (Vctrl); and a voltage controlled oscillator, VCO, configured to generate an output clock (out_clk) based on the oscillator control voltage; and the PLL circuit further comprises a frequency divider configured to generate the feedback clock (fb_clk) from the output clock.
A drive unit is designed to be mounted on a marine vessel, including a mobile housing that is able to pivot around an axis compared to a hull of the marine vessel, a drive shaft mounted so as to rotate relative to the mobile housing and supported by two rolling bearings (24, 26) and a propulsion element rotating in solidarity with said drive shaft, characterized in that the drive unit comprises, at its front area in normal forward operating conditions, at least two systems for braking and locking the drive shaft located in an area filled with sea water between an upstream rolling bearing and propulsion element.
A method, comprising: identifying multiple host computers executing respective instances of a specific software application, each given instance on each given host computer comprising a set of program instructions loaded, by the host computer, from a respective storage device; collecting, from the host computers, information on actions performed by the executing instances, wherein the information comprises action types and entities; normalizing, the entities into normalized entities, and defining, for each one of the actions, a corresponding normalized action comprising the respective action type and normalized entity for said action; computing features based on the information collected from the multiple host computers, the normalized entities, and the normalized actions, wherein the features reflect respective metrics of the actions performed by the software application; comparing, by a processor, the collected information for a given instance to the features so as to classify the given instance as benign or suspicious by computing a score for each action performed by the given instance based on the features generated for the action and determine a classification based on the computed scores; and generating an alert for the given instance only upon classifying the given instance as suspicious. identifying multiple host computers executing respective instances of a specific software application, each given instance on each given host computer comprising a set of program instructions loaded, by the host computer, from a respective storage device; collecting, from the host computers, information on actions performed by the executing instances, wherein the information comprises action types and entities; normalizing, the entities into normalized entities, and defining, for each one of the actions, a corresponding normalized action comprising the respective action type and normalized entity for said action; computing features based on the information collected from the multiple host computers, the normalized entities, and the normalized actions, wherein the features reflect respective metrics of the actions performed by the software application; comparing, by a processor, the collected information for a given instance to the features so as to classify the given instance as benign or suspicious by computing a score for each action performed by the given instance based on the features generated for the action and determine a classification based on the computed scores; and generating an alert for the given instance only upon classifying the given instance as suspicious.
A polyol component b) comprising: 25 to 35 wt% of one or more polyetherester polyols B) having a functionality of 3.8 to 4.8, an OH number of 380 to 440 mg KOH/g and a fatty acid and/or fatty acid ester content of 8 to 17 wt%, based on the weight of polyetherester polyols B); 25 to 35 wt% of one or more polyether polyols C) having a functionality of 3.7 to 4 and an OH number of 300 to 420 mg KOH/g; 25 to 35 wt% of one or more polyether polyols D) having a functionality of 4.5 to 6.5 and an OH number of 400 to 520 mg KOH/g; 1.0 to 5 wt% of one or more catalysts E), 0.1 to 5 wt% of further auxiliaries and/or added-substance materials F), 0.5 to 5 wt% of water G), wherein the sum total of components B), C), D), E), F) and G) is 100 wt%. 25 to 35 wt% of one or more polyetherester polyols B) having a functionality of 3.8 to 4.8, an OH number of 380 to 440 mg KOH/g and a fatty acid and/or fatty acid ester content of 8 to 17 wt%, based on the weight of polyetherester polyols B); 25 to 35 wt% of one or more polyether polyols C) having a functionality of 3.7 to 4 and an OH number of 300 to 420 mg KOH/g; 25 to 35 wt% of one or more polyether polyols D) having a functionality of 4.5 to 6.5 and an OH number of 400 to 520 mg KOH/g; 1.0 to 5 wt% of one or more catalysts E), 0.1 to 5 wt% of further auxiliaries and/or added-substance materials F), 0.5 to 5 wt% of water G), wherein the sum total of components B), C), D), E), F) and G) is 100 wt%.
A coating composition, comprising: a polyurethane binder resin system comprising: a first hydroxyl-functional polyester resin component with a hydroxyl number of 150 to 240, a second hydroxyl-functional polyester resin component with a hydroxyl number of 15 to 35, wherein the difference in hydroxyl number of the first and second resin components is 135 to 215, and wherein the first resin component and second resin component are present in a ratio of 1:1 to 1:4; and a hydroxyl-reactive crosslinker; wherein the coating composition comprises less than 5 wt% filler, based on the total weight of the composition; and wherein a cured coating formed from the coating composition has oleophobic and hydrophobic properties and has 60°-gloss of less than 5. a polyurethane binder resin system comprising: a first hydroxyl-functional polyester resin component with a hydroxyl number of 150 to 240, a second hydroxyl-functional polyester resin component with a hydroxyl number of 15 to 35, wherein the difference in hydroxyl number of the first and second resin components is 135 to 215, and wherein the first resin component and second resin component are present in a ratio of 1:1 to 1:4; and a hydroxyl-reactive crosslinker; a first hydroxyl-functional polyester resin component with a hydroxyl number of 150 to 240, a second hydroxyl-functional polyester resin component with a hydroxyl number of 15 to 35, wherein the difference in hydroxyl number of the first and second resin components is 135 to 215, and wherein the first resin component and second resin component are present in a ratio of 1:1 to 1:4; and a hydroxyl-reactive crosslinker; wherein the coating composition comprises less than 5 wt% filler, based on the total weight of the composition; and wherein a cured coating formed from the coating composition has oleophobic and hydrophobic properties and has 60°-gloss of less than 5.