mhurhangee/ep-ind-claims huggingface dataset:
Rotorcraft-convertible motorcar comprising: - a passenger cabin comprising at least one seat, - a front wheel assembly (14a, 14b) with a left front wheel and a right front wheel, and a rear wheel assembly, and - at least one pair of left and right supporting arms (18, 20) located on opposed sides of the passenger cabin with respect to a central longitudinal plane of the passenger cabin, each supporting arm (18, 20) carrying a respective rotor assembly (22, 24) having at least one rotor (22a, 22b, 24a, 24b), wherein each rotor (22a, 22b, 24a, 24b) comprises a rotor hub and a plurality of deployable rotor blades connected to the rotor hub, wherein the supporting arms (18, 20) are pivotally connected to the passenger cabin so that the rotorcraft-convertible car is convertible between an on-road configuration, where the supporting arms (18, 20) with the rotor assemblies (22, 24) are arranged inside the lateral overall size of the passenger cabin, and a flight configuration, where the supporting arms (18, 20) with the rotor assemblies (22, 24) are arranged at least partially outside the overall lateral size of the passenger cabin, characterized in that the rear wheel assembly has a central rear single- or twin-wheel, and in that the supporting arms (18, 20) and the rotor assemblies (22, 24) are configured so that in the on-road configuration the rotor assemblies (22, 24) are accommodated underneath the passenger cabin, on opposed sides of the central rear wheel. - a passenger cabin comprising at least one seat, - a front wheel assembly (14a, 14b) with a left front wheel and a right front wheel, and a rear wheel assembly, and - at least one pair of left and right supporting arms (18, 20) located on opposed sides of the passenger cabin with respect to a central longitudinal plane of the passenger cabin, each supporting arm (18, 20) carrying a respective rotor assembly (22, 24) having at least one rotor (22a, 22b, 24a, 24b),
A method of coding video data, the method comprising: generating a predictive palette including palette entries that indicate pixel values; determining which of the palette entries in the predictive palette are to be copied to a current palette for a current block of the video data, coding one or more syntax elements indicating a number of new palette entries that are to be included in the current palette for the current block, wherein the new palette entries are not in the predictive palette; coding one or more syntax elements indicating a pixel value for each of the new palette entries to be included in the current palette; calculating a size of the current palette equal to the sum of a number of the copied palette entries and the number of the new palette entries; generating the current palette having the calculated size including the copied palette entries and the new palette entries; and determining index values for one or more pixel values of the current block that identify the palette entries in the current palette used to represent the pixel values of the current block, characterised in that: determining the palette entries that are to be copied comprises coding one or more syntax elements indicating whether each of the palette entries in the predictive palette is to be copied to the current palette. generating a predictive palette including palette entries that indicate pixel values; determining which of the palette entries in the predictive palette are to be copied to a current palette for a current block of the video data, coding one or more syntax elements indicating a number of new palette entries that are to be included in the current palette for the current block, wherein the new palette entries are not in the predictive palette; coding one or more syntax elements indicating a pixel value for each of the new palette entries to be included in the current palette; calculating a size of the current palette equal to the sum of a number of the copied palette entries and the number of the new palette entries; generating the current palette having the calculated size including the copied palette entries and the new palette entries; and determining index values for one or more pixel values of the current block that identify the palette entries in the current palette used to represent the pixel values of the current block, characterised in that: determining the palette entries that are to be copied comprises coding one or more syntax elements indicating whether each of the palette entries in the predictive palette is to be copied to the current palette. determining the palette entries that are to be copied comprises coding one or more syntax elements indicating whether each of the palette entries in the predictive palette is to be copied to the current palette.
An apparatus for providing a dose of a gaseous drug to a patient that has a respiratory disorder comprising: means for determining a normal resting breath rate for the patient comprising a control circuit including a vacuum pressure sensor and a microprocessor with an internal clock, wherein the normal resting breath rate is determined by: (i) sensing transitions between patient inhalations and exhalations; (ii) monitoring and tracking the transitions; (iii) determining a current breath rate of the patient; (iv) monitoring the current breath rate and determining a filtered normal resting breath rate specific to the patient by excluding higher breath rates: and (v) combining the filtered normal resting breath rate and the current breath rate, and weighting them proportionally between 15%-95% the filtered normal resting breath rate and between 5%-25% the current breath rate to provide a new normal resting breath rate; means for comparing the current breath rate with the new normal resting breath rate; and a cannula tube for providing a dose of the gaseous drug on each breath based on the comparison of the current breath rate with the new normal resting breath rate. means for determining a normal resting breath rate for the patient comprising a control circuit including a vacuum pressure sensor and a microprocessor with an internal clock, wherein the normal resting breath rate is determined by: (i) sensing transitions between patient inhalations and exhalations; (ii) monitoring and tracking the transitions; (iii) determining a current breath rate of the patient; (iv) monitoring the current breath rate and determining a filtered normal resting breath rate specific to the patient by excluding higher breath rates: and (v) combining the filtered normal resting breath rate and the current breath rate, and weighting them proportionally between 15%-95% the filtered normal resting breath rate and between 5%-25% the current breath rate to provide a new normal resting breath rate; (i) sensing transitions between patient inhalations and exhalations; (ii) monitoring and tracking the transitions; (iii) determining a current breath rate of the patient; (iv) monitoring the current breath rate and determining a filtered normal resting breath rate specific to the patient by excluding higher breath rates: and (v) combining the filtered normal resting breath rate and the current breath rate, and weighting them proportionally between 15%-95% the filtered normal resting breath rate and between 5%-25% the current breath rate to provide a new normal resting breath rate; means for comparing the current breath rate with the new normal resting breath rate; and a cannula tube for providing a dose of the gaseous drug on each breath based on the comparison of the current breath rate with the new normal resting breath rate.
Bioactive composite on a base of calcium-phosphate, characterised in that it contains β-1,3-glucan, further called curdlan, and calcium-phosphate bioceramics in a form of microporous granules of size: 0.1-1.0 mm and open porosity: 50-70 %, where the compounds are in amounts (grams per 100 g of H 2 O) according to proportion: x y = 8, 1 ÷ 25 2 ÷ 0, 0701 ⁢ x 2 - 5, 8175 ⁢ x + 120, 68 * where: x - mass of curdlan (in g per 100 g water) y - mass of granules (in g per 100 g water) x - mass of curdlan (in g per 100 g water) y - mass of granules (in g per 100 g water)
A processor-implemented method comprising: obtaining an estimated readiness time for an energy storage element: obtaining a target state of charge for the energy storage element: calculating an estimated charging time based at least in part on a difference between the target state of charge and a current state of charge of the energy storage element; responsive to determining that a time difference between the estimated readiness time and a first point in time is greater than the estimated charging time, using a first charging rate to charge the energy storage element to an intermediate state of charge, maintaining the energy storage element at the intermediate state of charge; and responsive to determining that a time difference between the estimated readiness time and a second point in time is less than the estimated charging time, using a second charging rate to charge the energy storage element to the target state of charge, wherein the second point in time is after the first point in time, and wherein the second charging rate is greater than the first charging rate. obtaining an estimated readiness time for an energy storage element: obtaining a target state of charge for the energy storage element: calculating an estimated charging time based at least in part on a difference between the target state of charge and a current state of charge of the energy storage element; responsive to determining that a time difference between the estimated readiness time and a first point in time is greater than the estimated charging time, using a first charging rate to charge the energy storage element to an intermediate state of charge, maintaining the energy storage element at the intermediate state of charge; and responsive to determining that a time difference between the estimated readiness time and a second point in time is less than the estimated charging time, using a second charging rate to charge the energy storage element to the target state of charge, wherein the second point in time is after the first point in time, and wherein the second charging rate is greater than the first charging rate.
Lubricating oil composition comprising: 50 to 90% by mass of at least one kind of lubricating oil base oil selected from mineral oils and synthetic oils; and 10 to 50% by mass of a copolymer, being of weight average molecular weight 5,000 to 20,000, of an olefin and an alkyl methacrylate; wherein the lubricating base oil comprises 5 to 14% by mass relative to the total amount of the lubricating oil composition of a carboxylic acid ester compound, wherein the carboxylic acid ester (c) is a polyol ester. 50 to 90% by mass of at least one kind of lubricating oil base oil selected from mineral oils and synthetic oils; and 10 to 50% by mass of a copolymer, being of weight average molecular weight 5,000 to 20,000, of an olefin and an alkyl methacrylate;
Current-measuring device without magnetic field concentrator for determining an electric current in an electrical conductor, with: a plurality of magnetic-field sensors (10-i) arranged around the electrical conductor and configured to provide an output signal corresponding to a detected magnetic field; a compensation coil arranged around the electrical conductor, wherein the plurality of magnetic-field sensors (10-i) are arranged in the interior of the compensation coil; and a controller configured to set an electric compensation current in the compensation coil, wherein no magnetic field concentrator or flow circuit made of a ferromagnetic or ferrimagnetic material is used. a plurality of magnetic-field sensors (10-i) arranged around the electrical conductor and configured to provide an output signal corresponding to a detected magnetic field; a compensation coil arranged around the electrical conductor, wherein the plurality of magnetic-field sensors (10-i) are arranged in the interior of the compensation coil; and a controller configured to set an electric compensation current in the compensation coil, wherein no magnetic field concentrator or flow circuit made of a ferromagnetic or ferrimagnetic material is used.
Monitoring system of lubricant of a compressor of a refrigerant circuit for a compressible fluid where the compressor is equipped with an intake and a delivery; said monitoring system comprising an on-off state detector of the compressor, a pressure sensor at the compressor delivery and a monitoring device connected to said on-off state detector and to the pressure sensor to provide the monitoring device respectively with data on operating or switch-off status of compressor and data flow along time on the pressure of compressible fluid at compressor delivery, characterized in that following the detection by the monitoring device of the compressor status switching from on to off, said monitoring device is configured to compare the course of the data flow along the time of the pressure values of the compressible fluid at the delivery, starting from the switching instant in the shutdown state, with a predetermined course memorized therein; in case of a discrepancy between the two courses exceeding a predetermined threshold, the monitoring device is configured to emit at least one alarm signal where the monitoring device is configured to compare the pressure courses by comparing the time needed for the pressure of the compressible fluid at delivery to stabilize or to reach a predetermined value with the corresponding times which constitute the predetermined stored course; or the monitoring device is configured to compare the pressure courses by comparing the values of the first and/or second derivatives at certain time intervals or their average values in one or more time intervals or integrals of the pressure course from the shutdown instant until the pressure of compressible fluid at delivery stabilizes or reaches a predetermined value with corresponding predetermined values of the first and/or second derivatives, the average values or the integrals of the pressure course.
An aerosol creation system, comprising: a first roller; roller a second roller spaced apart from the first roller in a linear configuration; the aerosol creation system being characterized in that it further comprises: 5 a belt defining an interior belt space and having an interior surface, the first roller and the second roller positioned within the interior belt space such that at least a portion of a surface of the first roller and at least a portion of the surface of the second roller are in physical contact with an interior surface of the belt a first nip 2608 defined between the at least the portion of the surface of the first roller that 10 is in physical contact with the interior surface of the belt, the first nip having an upstream side and a downstream side; a second defined between the at least the portion of the surface of the second roller that is in physical contact with the interior surface of the belt, the second nip having an upstream side and a downstream side; a fluid source structured to coat the first roller and the second roller with a fluid; a driving element structured to drive the first roller and the second roller to cause fluid to be drawn through the upstream side of the first nip to the downstream side of the first nip and through the upstream side of the second nip to the downstream side of the second nip; wherein a first fluid filament is stretched between diverging surfaces of the first roller 20 and the interior surface of the belt when at least one of the belt and the first roller rotates, the first fluid filament stretched until it breaks into a plurality of first droplets, and wherein a second fluid filament is stretched between diverging surfaces of the second roller and the interior surface of the belt when at least one of the belt and the second roller rotates, the second fluid filament stretched until it breaks into a plurality of second droplets. a first roller; roller a second roller spaced apart from the first roller in a linear configuration; a first nip 2608 defined between the at least the portion of the surface of the first roller that 10 is in physical contact with the interior surface of the belt, the first nip having an upstream side and a downstream side; a second defined between the at least the portion of the surface of the second roller that is in physical contact with the interior surface of the belt, the second nip having an upstream side and a downstream side; a fluid source structured to coat the first roller and the second roller with a fluid; a driving element structured to drive the first roller and the second roller to cause fluid to be drawn through the upstream side of the first nip to the downstream side of the first nip and through the upstream side of the second nip to the downstream side of the second nip;
Knotter system comprising: a billhook for forming a knot; a twine receiver for holding twines; a twine delivering system (11, 31) for delivering twines across the billhook to the twine receiver; a swing arm having a lower end portion; said swing arm being arranged for moving the lower end portion below the billhook, between a backward position and a forward position, said lower end portion being provided with a knife blade for cutting twines between the billhook and the twine receiver whilst moving from the backward position to the forward position; a first drive means adapted to make the billhook perform at least a first full rotation and a second full rotation and to move the swing arm at least two times from the backward position to the forward position and back during a full operation cycle to form respectively a first and second consecutive knot; wherein the twine receiver comprises a rotatable twine disc and a twine holder, said twine holder being adapted to clamp twines against the twine disc; wherein said twine disc is provided with at least a first and a second notch (211, 212) for receiving the twines, characterized in that said twine disc being provided with a protruding ridge located after the second notch, seen in a direction of rotation of the twine disc, such that the twine holder is pushed away by the protruding ridge during and/or after the formation of the second knot. a billhook for forming a knot; a twine receiver for holding twines; a twine delivering system (11, 31) for delivering twines across the billhook to the twine receiver; a swing arm having a lower end portion; said swing arm being arranged for moving the lower end portion below the billhook, between a backward position and a forward position, said lower end portion being provided with a knife blade for cutting twines between the billhook and the twine receiver whilst moving from the backward position to the forward position; a first drive means adapted to make the billhook perform at least a first full rotation and a second full rotation and to move the swing arm at least two times from the backward position to the forward position and back during a full operation cycle to form respectively a first and second consecutive knot; wherein the twine receiver comprises a rotatable twine disc and a twine holder, said twine holder being adapted to clamp twines against the twine disc; wherein said twine disc is provided with at least a first and a second notch (211, 212) for receiving the twines, characterized in that said twine disc being provided with a protruding ridge located after the second notch, seen in a direction of rotation of the twine disc, such that the twine holder is pushed away by the protruding ridge during and/or after the formation of the second knot.
A curable resin composition comprising to ingredients: ingredient: polyisobutylene having one or more alkenyl groups per molecule and being liquid at 25°C; ingredient: a compound having one or more hydrosilyl groups per molecule; and ingredient: a hydrosilylation catalyst; characterized in that the curable resin composition further comprises ingredient: a heavy metal deactivator, which is one or more compounds selected from the group consisting of amino group-containing triazine compounds, aminotriazole compounds, N,N'-diformylhydrazine, N,N'-diacetylhydrazine, N,N'-dipropionylhydrazine, N,N'-butyrylhydrazine, N-formyl-N'-acetylhydrazine, N,N'-dibenzoylhydrazine, N,N'-ditoluoylhydrazine, N,N'-disalicyloylhydrazine, N-formyl-N'-salicyloylhydrazine, N-formyl-N'-butyl-substituted salicyloylhydrazine, N-acetyl-N'-salicyloylhydrazine, N,N'-bis[3-(3,5-di-t-butyl-4-hydroxyphenyl)propionyl] hydrazine, oxalic acid-di-(N'-salicyloyl) hydrazine, adipic acid-di-(N'-salicyloyl) hydrazine, and dodecanedioyl-di-(N'-salicyloyl) hydrazine. ingredient: polyisobutylene having one or more alkenyl groups per molecule and being liquid at 25°C; ingredient: a compound having one or more hydrosilyl groups per molecule; and ingredient: a hydrosilylation catalyst; characterized in that the curable resin composition further comprises ingredient: a heavy metal deactivator, which is one or more compounds selected from the group consisting of amino group-containing triazine compounds, aminotriazole compounds, N,N'-diformylhydrazine, N,N'-diacetylhydrazine, N,N'-dipropionylhydrazine, N,N'-butyrylhydrazine, N-formyl-N'-acetylhydrazine, N,N'-dibenzoylhydrazine, N,N'-ditoluoylhydrazine, N,N'-disalicyloylhydrazine, N-formyl-N'-salicyloylhydrazine, N-formyl-N'-butyl-substituted salicyloylhydrazine, N-acetyl-N'-salicyloylhydrazine, N,N'-bis[3-(3,5-di-t-butyl-4-hydroxyphenyl)propionyl] hydrazine, oxalic acid-di-(N'-salicyloyl) hydrazine, adipic acid-di-(N'-salicyloyl) hydrazine, and dodecanedioyl-di-(N'-salicyloyl) hydrazine.
A computer implemented method for modeling brain function, the computer performing steps comprising: a) receiving functional neuroimaging data and experimental electrophysiology data for one or more brain regions of interest of a subject; b) fitting the functional neuroimaging data to a dynamic causal model; c) calculating neural inter-regional and intra-regional connectivity strength estimates from the dynamic causal model; d) generating a biophysics model that simulates synthetic electrophysiology data from the inter-regional and intra-regional connectivity strength estimates; e) comparing the synthetic electrophysiology data to the experimental electrophysiology data; f) adjusting the biophysical model iteratively until model convergence is reached with the experimental electrophysiology data; and g) displaying information regarding the modeling of brain function. a) receiving functional neuroimaging data and experimental electrophysiology data for one or more brain regions of interest of a subject; b) fitting the functional neuroimaging data to a dynamic causal model; c) calculating neural inter-regional and intra-regional connectivity strength estimates from the dynamic causal model; d) generating a biophysics model that simulates synthetic electrophysiology data from the inter-regional and intra-regional connectivity strength estimates; e) comparing the synthetic electrophysiology data to the experimental electrophysiology data; f) adjusting the biophysical model iteratively until model convergence is reached with the experimental electrophysiology data; and g) displaying information regarding the modeling of brain function.