mhurhangee/ep-ind-claims huggingface dataset:
A method comprising: obtaining a target run-time for a first computing device, the target run-time indicating how long the first computing device is to run using a current charge in one or more energy storage devices of the first computing device; identifying, based at least in part on the target run-time, the current charge, and a predicted power usage over the target run-time, multiple power management actions to take and determining a confidence level for each given power management action of the multiple power management actions as a probability value that the given power management action taken by the first computing device would allow the first computing device to continue to run for the target run-time; selecting, based on the corresponding confidence levels of the identified multiple power management actions, first and second of the multiple power management actions to take; performing at least one of the first and second power management actions in the first computing device; and offloading or transferring operations or other functionality to a second computing device to perform a second of the multiple power management actions. obtaining a target run-time for a first computing device, the target run-time indicating how long the first computing device is to run using a current charge in one or more energy storage devices of the first computing device; identifying, based at least in part on the target run-time, the current charge, and a predicted power usage over the target run-time, multiple power management actions to take and determining a confidence level for each given power management action of the multiple power management actions as a probability value that the given power management action taken by the first computing device would allow the first computing device to continue to run for the target run-time; selecting, based on the corresponding confidence levels of the identified multiple power management actions, first and second of the multiple power management actions to take; performing at least one of the first and second power management actions in the first computing device; and offloading or transferring operations or other functionality to a second computing device to perform a second of the multiple power management actions.
A device for rendering a higher order ambisonic, HOA, audio signal, the device comprising: a memory configured to store the HOA audio signal; and one or more processors, coupled to the memory, the one or more processors being configured to: perform a loudness compensation process as part of generating an effect matrix; determine a renderer for the HOA audio signal, wherein the renderer comprises a rendering matrix; modify the renderer based on one or more field of view, FOV, parameters of a viewing window and one or more FOV parameters of a reference screen; and render the HOA audio signal using both of the effect matrix and the modified renderer. a memory configured to store the HOA audio signal; and one or more processors, coupled to the memory, the one or more processors being configured to: perform a loudness compensation process as part of generating an effect matrix; determine a renderer for the HOA audio signal, wherein the renderer comprises a rendering matrix; modify the renderer based on one or more field of view, FOV, parameters of a viewing window and one or more FOV parameters of a reference screen; and render the HOA audio signal using both of the effect matrix and the modified renderer. perform a loudness compensation process as part of generating an effect matrix; determine a renderer for the HOA audio signal, wherein the renderer comprises a rendering matrix; modify the renderer based on one or more field of view, FOV, parameters of a viewing window and one or more FOV parameters of a reference screen; and render the HOA audio signal using both of the effect matrix and the modified renderer.
A radiation, radiological or radiographic source of: an alloy or mixture of iridium, manganese and an element chosen from a group consisting of aluminum, copper and mixtures thereof; or an alloy or mixture of iridium and yttrium, characterised by the source including a mechanically depressible, compressible configuration, which can be compressed to a reduced volume, thereby resulting in higher average density. an alloy or mixture of iridium, manganese and an element chosen from a group consisting of aluminum, copper and mixtures thereof; or an alloy or mixture of iridium and yttrium, characterised by the source including a mechanically depressible, compressible configuration, which can be compressed to a reduced volume, thereby resulting in higher average density.
A method for preparing a product compound, the method comprising the steps of: (i) providing a reaction vessel that is obtained by a 3-D printing method, wherein the reaction vessel has a reaction space; (ii) providing one or more reagents, optionally together with a catalyst or a solvent, for use in the synthesis of the product compound; and (iii) permitting the one or more reagents to react in the reaction space, optionally in the presence of the catalyst and the solvent, in the reaction vessel, thereby to form the product compound, and optionally analysing the product compound and/or optionally isolating the product compound, wherein one of the one or more reagents, or the catalyst or the solvent where present, is delivered to the reaction vessel by the 3-D printer. (i) providing a reaction vessel that is obtained by a 3-D printing method, wherein the reaction vessel has a reaction space; (ii) providing one or more reagents, optionally together with a catalyst or a solvent, for use in the synthesis of the product compound; and (iii) permitting the one or more reagents to react in the reaction space, optionally in the presence of the catalyst and the solvent, in the reaction vessel, thereby to form the product compound, and optionally analysing the product compound and/or optionally isolating the product compound,
A method for producing a hydrophilic three-dimensional network consisting of cellulose nanofibers with a lipid-based nanoparticle dispersion containing at least one lipophilic and/or hardly water-soluble cosmetic or pharmaceutical agent, the agent-loaded nanoparticle dispersion being introduced - by re-soaking the partially dried or fully dried cellulose-containing material in the aqueous nanoparticle solution, or - by incubating the native cellulose in an excess of the aqueous nanoparticle solution under constant shaking or in a high-speed process, or - by introducing the aqueous nanoparticle solution into the core of the cellulose-containing network. - by re-soaking the partially dried or fully dried cellulose-containing material in the aqueous nanoparticle solution, or - by incubating the native cellulose in an excess of the aqueous nanoparticle solution under constant shaking or in a high-speed process, or - by introducing the aqueous nanoparticle solution into the core of the cellulose-containing network.
A pneumatic tire, comprising: a sealant layer located radially inside an innerliner; and a sound-absorbing layer located radially inside the sealant layer, the sound-absorbing layer being attached with the sealant, characterized in that the sealant layer is formed of a generally string-shaped sealant provided continuously and spirally along an inner periphery of the tire, wherein the sealant is attached without overlapping in the width direction. a sealant layer located radially inside an innerliner; and a sound-absorbing layer located radially inside the sealant layer, the sound-absorbing layer being attached with the sealant, characterized in that the sealant layer is formed of a generally string-shaped sealant provided continuously and spirally along an inner periphery of the tire, wherein the sealant is attached without overlapping in the width direction.
A carbon dioxide (CO 2) leak detection instrument, comprising a sample cell configured to receive sample gas from the atmosphere via an inlet assembly from a site where CO 2 leaks are to be detected; a laser source configured to apply a beam to the sample cell; an optical detector configured to receive the beam after passing though the sample cell and to measure signal intensity thereof; and a controller coupled to the laser source and the optical detector and configured to perform measurements at a measurement frequency using the laser source and the optical detector to produce a dataset, the measurement frequency being greater than or equal to 1 Hertz, each measurement to include: acquisition of spectra for the sample gas in the sample cell, and analysis of the spectra for at least CO 2 concentration and atmospheric oxygen (O 2) concentration to produce combined measurements of CO 2 concentration and O 2 concentration that are added to the dataset, wherein the controller is further configured to analyze the dataset to detect any changes in CO 2 concentration that are not anti-correlated with O 2 concentration, and to identify a potential CO 2 leak in response thereto.
A blower comprising: a blower unit that has a housing on which a slit is formed to extend vertically; and a support unit that has a support pillar inserted through the slit and pivotally coupled with the blower unit to make the blower unit swingable vertically, characterised in that a distance is formed between a lower end of the slit and the support pillar in a horizontally directed state in which an airflow direction of the blower unit is in line with a horizontal direction to make the blower unit swingable such that the airflow direction of the blower unit is directed toward a lower side below the horizontal direction, and a rib protruding in a width direction of the slit is formed on an inner face defining a width of the slit in the housing. a blower unit that has a housing on which a slit is formed to extend vertically; and a support unit that has a support pillar inserted through the slit and pivotally coupled with the blower unit to make the blower unit swingable vertically, characterised in that a distance is formed between a lower end of the slit and the support pillar in a horizontally directed state in which an airflow direction of the blower unit is in line with a horizontal direction to make the blower unit swingable such that the airflow direction of the blower unit is directed toward a lower side below the horizontal direction, and a rib protruding in a width direction of the slit is formed on an inner face defining a width of the slit in the housing.
Inflation device for inflating an inflatable element, wherein said inflatable element is intended to protect at least partially an area of a body of a user, and wherein the inflation device includes at least one gas generator and a container for containing said at least one gas generator, and wherein the container and the at least one gas generator define a structurally independent assembly, configured to be handled as a single body, with respect to said inflatable element, and wherein the inflation device comprises a coupling component configured to be coupled in a detachable manner with a coupling counter-component associated with said inflatable element, characterized in that said container is a closed body comprising at least two shells joined together as one piece and detachable from each other only once or in an irreversible manner or connected by calibrated breakage means.
A hydraulic tool, comprising: a stator (6, 6', 6"); and a rotor (11, 11', 11") rotatably disposed within the stator (6, 6', 6"); wherein at least one of at least an inner portion of the stator (6, 6', 6") and at least an outer portion of the rotor (11, 11', 11") is configured to be installed in a drill string in either of two inverted orientations along a longitudinal axis of the hydraulic tool; and wherein the rotor (11, 11', 11") is configured to rotate within the stator (6, 6', 6") in either of the two inverted orientations. a stator (6, 6', 6"); and a rotor (11, 11', 11") rotatably disposed within the stator (6, 6', 6"); wherein at least one of at least an inner portion of the stator (6, 6', 6") and at least an outer portion of the rotor (11, 11', 11") is configured to be installed in a drill string in either of two inverted orientations along a longitudinal axis of the hydraulic tool; and wherein the rotor (11, 11', 11") is configured to rotate within the stator (6, 6', 6") in either of the two inverted orientations.
A hot-rolled steel sheet for a high strength linepipe, the steel sheet having a chemical composition consisting of, by mass%, C: 0.02% or more and 0.06% or less, Si: 0.05% or more and 0.25% or less, Mn: 0.60% or more and 1.10% or less, P: 0.008% or less, S: 0.0010% or less, Nb: 0.010% or more and 0.060% or less, Ti: 0.001% or more and 0.020% or less, Mo: 0.05% or less, Cr: 0.05% or more and 0.50% or less, Al: 0.01% or more and 0.08% or less, Ca: 0.0005% or more and 0.0050% or less, O: 0.005% or less, one or more selected from among Cu: 0.50% or less, Ni: 0.50% or less, and V: 0.10% or less, and the balance being Fe and inevitable impurities, and a metallic structure composed of bainitic-ferrite, wherein expressions and below are satisfied, and wherein the ratio of the hardness of a center segregation part to the hardness of a non-segregation part is less than 1.20: SP ≤ 1.90 where SP is derived from SP = Mn + Mo + 11.3 x C + 0.29 x (Cu + Ni) + 0.60 x Cr + 0.88 x V, and where atomic symbols in the equation respectively represent the contents (mass%) of the corresponding chemical elements, 1.2 ≤ EC ≤ 4.0 where EC is expressed by EC = [Ca]eff/(1.25 x S), where [Ca]eff is derived from Ca - (0.18 + 130 x Ca) x O, and where atomic symbols Ca, S, and O in the equations respectively represent the contents (mass%) of the corresponding chemical elements.
A method for diagnosis of coronary heart disease in a subject, wherein the method comprises the following steps: 1) determining a level of each of the biomarkers of a biomarker composition in a sample from the subject, wherein the biomarker composition comprises N-Acetyl-D-glucosamine 6-phosphate (GlcNAc-6-P) and mannitol, wherein the sample is urine; 2) comparing the level of each of the biomarkers of step 1) with a reference dataset or a reference value.
An apparatus for the concentration of wastewater containing oily substances, the apparatus comprising: a. a shell and tube heat exchanger, positioned vertically along the internal perimeter of the apparatus; b. a tank positioned inside the shell and tube heat exchanger, wherein wastewater is stocked; c. an entrance pipe, for the entrance of wastewater, which pipe feeds a mechanic system, which allows wastewater to percolate along an internal wall of tank; d. a pump and a second pump; e. a pipe that connects the bottom of tank to suction of a pump; f. a pipe connecting the mandate of pump to a distribution plate of heat exchanger; g. a pipe connecting a bottom of the heat exchanger where concentrated water percolating into the pipes of the shell and tube heat exchanger collects, with suction of a second pump; h. a pipe connecting a mandate of pump with the bulk of tank; i. a ventilator, preferably a centrifuge ventilator; j. an exit pipe connected to the ventilator, that draws vapors into exit from a head of the heat exchanger; k. a system for collecting and discharging the condensed vapors which condenses in the dome of the apparatus, whose outside surface is configured to be in contact with external air, at ambient temperature; l. a system that maintains a level in the tank, which system is connected to an outlet pipe by a collection pipe. a. a shell and tube heat exchanger, positioned vertically along the internal perimeter of the apparatus; b. a tank positioned inside the shell and tube heat exchanger, wherein wastewater is stocked; c. an entrance pipe, for the entrance of wastewater, which pipe feeds a mechanic system, which allows wastewater to percolate along an internal wall of tank; d. a pump and a second pump; e. a pipe that connects the bottom of tank to suction of a pump; f. a pipe connecting the mandate of pump to a distribution plate of heat exchanger; g. a pipe connecting a bottom of the heat exchanger where concentrated water percolating into the pipes of the shell and tube heat exchanger collects, with suction of a second pump; h. a pipe connecting a mandate of pump with the bulk of tank; i. a ventilator, preferably a centrifuge ventilator; j. an exit pipe connected to the ventilator, that draws vapors into exit from a head of the heat exchanger; k. a system for collecting and discharging the condensed vapors which condenses in the dome of the apparatus, whose outside surface is configured to be in contact with external air, at ambient temperature; l. a system that maintains a level in the tank, which system is connected to an outlet pipe by a collection pipe.
A method for producing a glass chopped strand mat by forming glass chopped strands into a sheet, characterized in that it comprises: a first conveying step of continuously conveying the glass chopped strands in a distributed form while spraying resin powder serving as a binder onto the glass chopped strands; and a second conveying step of continuously conveying the glass chopped strands with the adhering resin powder while performing a heating treatment on the glass chopped strands at a temperature higher than the melting point of the resin powder, and in that a conveying speed in the second conveying step is higher than a conveying speed in the first conveying step, and the difference therebetween is 3 to 8 m/min. a first conveying step of continuously conveying the glass chopped strands in a distributed form while spraying resin powder serving as a binder onto the glass chopped strands; and a second conveying step of continuously conveying the glass chopped strands with the adhering resin powder while performing a heating treatment on the glass chopped strands at a temperature higher than the melting point of the resin powder, and
A method of carrying out autothermal oxidative coupling of methane comprising: introducing a methane-containing feedstock and an oxygen-gas-containing feedstock into a reactor as a flowing mixture with a space time of 500 ms or less, the reactor containing a catalyst bed of an OCM catalyst that contacts the flowing mixture and wherein the catalyst bed has a heat Peclet number ( Pe h) of from 5 or less, a mass Peclet number ( Pe m)of from 5 or more, and a transverse Peclet number of from 1 or less while contacting the flowing mixture; and allowing the methane and oxygen of the feedstocks to react within the reactor to form methane oxidative coupling reaction products. introducing a methane-containing feedstock and an oxygen-gas-containing feedstock into a reactor as a flowing mixture with a space time of 500 ms or less, the reactor containing a catalyst bed of an OCM catalyst that contacts the flowing mixture and wherein the catalyst bed has a heat Peclet number ( Pe h) of from 5 or less, a mass Peclet number ( Pe m)of from 5 or more, and a transverse Peclet number of from 1 or less while contacting the flowing mixture; and allowing the methane and oxygen of the feedstocks to react within the reactor to form methane oxidative coupling reaction products.
A device for reforming a vessel cavity comprising: a central shaft; a central gear coupled to the central shaft; a plurality of roller gears coupled to the central gear, each of the plurality of roller gears having a central portion; a proximal support member coupling the plurality of roller gears and at least one of the central gear and the central shaft; a plurality of rollers, each of the plurality of rollers connected to the central portion of each of the plurality of roller gears; a distal support member coupling the plurality of rollers and the central shaft; a stationary member is configured to secure to a distal portion of the vessel cavity; and a translation member is configured to engage the stationary member and being operable to move the device distally and proximally through the vessel cavity. a central shaft; a central gear coupled to the central shaft; a plurality of roller gears coupled to the central gear, each of the plurality of roller gears having a central portion; a proximal support member coupling the plurality of roller gears and at least one of the central gear and the central shaft; a plurality of rollers, each of the plurality of rollers connected to the central portion of each of the plurality of roller gears; a distal support member coupling the plurality of rollers and the central shaft; a stationary member is configured to secure to a distal portion of the vessel cavity; and a translation member is configured to engage the stationary member and being operable to move the device distally and proximally through the vessel cavity.
Isochronous oscillator mechanism for horology developing substantially planarly, comprising a fixed support which bears a crosspiece carrying a plurality of N primary resonators each comprising at least one weight carried by a rotating flexible bearing fixed to said crosspiece, each said primary resonator having a centre of mass which is located, at rest, on the virtual pivot axis of the respective rotating flexible bearing thereof, and each said primary resonator being arranged to oscillate in a rotational motion about said virtual pivot axis, where said N primary resonators are arranged in a rotational symmetry of order N about a main axis which is parallel to all said virtual pivot axes which are parallel to each other, and where the oscillating motions of any two of said primary resonators of said oscillator mechanism are phase shifted by the value of the central angle formed by the respective virtual pivot axes thereof with respect to said main axis, and said flexible bearing comprising at least crossed strips, which are either crossed in the same plane, or whose projections onto a plane perpendicular to said main axis are crossed, and whose actual crossing or crossing in projection onto said plane perpendicular to said main axis defines said virtual pivot axis of said flexible bearing, characterized in that at least two said primary resonators are coupled to each other, at least intermittently, by an escape wheel.
A method for controlling the quality of human pluripotent stem cells, comprising a step of detecting or measuring an SSEA-1-positive fibronectin in a culture supernatant of the human pluripotent stem cells to determine or evaluate undifferentiated state of the human pluripotent stem cells, wherein the detection or measurement results of SSEA-1 positive fibronectin in the culture supernatant of the human pluripotent stem cells correlates with the undifferentiated state of the human pluripotent stem cells.
An adjustable angle mechanism for a leather and/or synthetic materials crimping - blocking machine, comprising: a main frame, a sub housing movable frame, and a main traverse and pressing cylinder, characterized in that it further comprises: a small traverse cylinder of said sub housing movable frame, two bending cylinders attached on the movable sub frame, each of the bending cylinders driving a plate which pivots on a shaft, wherein on said plates two sliding surfaces are attached which house and lock in place a flexible male mold, in combination with a fixed female mold, and the adjustable angle mechanism is configured so that when said total mechanism is being activated and is pressed against said fixed female mold, and due to its design the flexible male mold is configured to the shape of said female mold, in a male-female manner, eliminating the need for after process trimming or ironing of a processed piece furthermore said mechanism is configured to achieve many different angles, these angles being mechanically adjustable without the need of changing the molds, and configured to work with any kind of material and to achieve a uniformly pressing of the whole material area, as well as to control the elongation of said flexible male mold.