mhurhangee/ep-ind-claims huggingface dataset:
A composite biomaterial comprising: a. A mineral component comprising a calcium phosphate ceramic, where said ceramic comprises: - hydroxyapatite; or - tricalcium phosphate; or - a mixture thereof in the form of biphasic calcium phosphate; b. an organic component comprising a biodegradable polymer gel, chosen from polysaccharides. characterized in that said composite biomaterial comprises deposited, or precipitated nanocrystals of apatite and one or more optional bioactive components, obtainable by a process comprising: i. Mixing said calcium phosphate ceramic with said biodegradable polymer gel optionally loaded with said bioactive component, in the presence of an aqueous solution and/or one or more organic solvent; and ii. Reacting said mixture with supercritical CO 2 in the presence of an aqueous solution. a. A mineral component comprising a calcium phosphate ceramic, where said ceramic comprises: - hydroxyapatite; or - tricalcium phosphate; or - a mixture thereof in the form of biphasic calcium phosphate; - hydroxyapatite; or - tricalcium phosphate; or - a mixture thereof in the form of biphasic calcium phosphate; b. an organic component comprising a biodegradable polymer gel, chosen from polysaccharides. characterized in that said composite biomaterial comprises deposited, or precipitated nanocrystals of apatite and one or more optional bioactive components, obtainable by a process comprising: i. Mixing said calcium phosphate ceramic with said biodegradable polymer gel optionally loaded with said bioactive component, in the presence of an aqueous solution and/or one or more organic solvent; and ii. Reacting said mixture with supercritical CO 2 in the presence of an aqueous solution. i. Mixing said calcium phosphate ceramic with said biodegradable polymer gel optionally loaded with said bioactive component, in the presence of an aqueous solution and/or one or more organic solvent; and ii. Reacting said mixture with supercritical CO 2 in the presence of an aqueous solution.
A method performed by a data processing system configured to generate probabilistic data for planning a well depth for subsurface exploration, the method comprising: receiving data representing a plurality of depth maps for a subsurface region, each depth map of the plurality of depth maps having been generated from seismic data acquired in a seismic survey at a location in the subsurface region, wherein the plurality of depth maps represent different interpretation and velocity model scenarios (202a-i) for a particular region; determining, for one or more depth maps of the plurality, a respective weight value; generating data representing a combination of the plurality of depth maps based on the respective weight values of the one or more depth maps of the plurality; generating a cumulative distribution function, i.e., CDF, for a particular location in the subsurface region based on the data representing a combination of the plurality of depth maps; and determining, for the particular location in the subsurface region based on the CDF for that particular location, a probability value representing a depth at which a geological layer occurs in the subsurface region at the particular location. receiving data representing a plurality of depth maps for a subsurface region, each depth map of the plurality of depth maps having been generated from seismic data acquired in a seismic survey at a location in the subsurface region, wherein the plurality of depth maps represent different interpretation and velocity model scenarios (202a-i) for a particular region; determining, for one or more depth maps of the plurality, a respective weight value; generating data representing a combination of the plurality of depth maps based on the respective weight values of the one or more depth maps of the plurality; generating a cumulative distribution function, i.e., CDF, for a particular location in the subsurface region based on the data representing a combination of the plurality of depth maps; and determining, for the particular location in the subsurface region based on the CDF for that particular location, a probability value representing a depth at which a geological layer occurs in the subsurface region at the particular location.
A method of analyzing a sample having a dietary fiber fraction comprising the steps of: (a) providing a flexible bag having an upper section (23, 38, 42) and a lower section (25, 40, 44), wherein the upper section of the flexible bag is made of a non-porous polymer film and the lower section of the flexible bag includes a porous filter; (b) temporarily separating the upper section of the flexible bag from the lower section of the flexible bag by forming a seal (24, 39, 43) between the upper section of the flexible bag and the lower section of the flexible bag; (c) placing the sample in the upper section of the flexible bag; (d) combining the sample with a liquid in the upper section of the flexible bag to form a mixture including the dietary fiber fraction of the sample; and (e) opening the seal to allow the mixture to flow from the upper section of the flexible bag into the lower section of the flexible bag, wherein the dietary fiber fraction of the sample is retained in the porous filter of the lower section of the flexible bag. (a) providing a flexible bag having an upper section (23, 38, 42) and a lower section (25, 40, 44), wherein the upper section of the flexible bag is made of a non-porous polymer film and the lower section of the flexible bag includes a porous filter; (b) temporarily separating the upper section of the flexible bag from the lower section of the flexible bag by forming a seal (24, 39, 43) between the upper section of the flexible bag and the lower section of the flexible bag; (c) placing the sample in the upper section of the flexible bag; (d) combining the sample with a liquid in the upper section of the flexible bag to form a mixture including the dietary fiber fraction of the sample; and (e) opening the seal to allow the mixture to flow from the upper section of the flexible bag into the lower section of the flexible bag, wherein the dietary fiber fraction of the sample is retained in the porous filter of the lower section of the flexible bag.
A fuel cell power controller (502, 208) suitable for use in a data center, the fuel cell power controller comprising: at least one of the following sensors: a digital server load current sensor which upon connection in a power system provides load current sensor values that track a load current of at least one digital server, or a fuel cell output voltage sensor which upon connection in a power system provides output voltage sensor values that track an output voltage of a fuel cell, wherein the at least one digital server is powered by the fuel cell; a power controller processor with executable instructions that upon execution by the power controller processor monitor at least a portion of the sensor values and measure a ramp rate of the fuel cell based at least in part on at least one of the sensor values, the ramp rate indicating a rate at which the fuel cell increases its power output; and a signal line (202, 312, 506) connecting the fuel cell power controller with the at least one digital server, wherein the signal line provides a ramp rate alert signal to the at least one digital server when the executable instructions make a determination that the measured ramp rate of the fuel cell exceeds a previously specified ramp rate threshold. at least one of the following sensors: a digital server load current sensor which upon connection in a power system provides load current sensor values that track a load current of at least one digital server, or a fuel cell output voltage sensor which upon connection in a power system provides output voltage sensor values that track an output voltage of a fuel cell, wherein the at least one digital server is powered by the fuel cell; a power controller processor with executable instructions that upon execution by the power controller processor monitor at least a portion of the sensor values and measure a ramp rate of the fuel cell based at least in part on at least one of the sensor values, the ramp rate indicating a rate at which the fuel cell increases its power output; and a signal line (202, 312, 506) connecting the fuel cell power controller with the at least one digital server, wherein the signal line provides a ramp rate alert signal to the at least one digital server when the executable instructions make a determination that the measured ramp rate of the fuel cell exceeds a previously specified ramp rate threshold.
A polyisocyanate composition comprising a polyisocyanate, which is a reaction product of: a polyisocyanate precursor formed of a dimer or a multimer of at least one diisocyanate selected from the group consisting of an aliphatic diisocyanate and an alicyclic diisocyanate; and a polycarbonate diol, which is obtained by copolymerizing at least one diol selected from the group consisting of a diol having 2 to 20 carbon atoms and a carbonate compound, wherein the polyisocyanate precursor has an isocyanurate group and an allophanate group, and the isocyanurate group and the allophanate group are present in a molar ratio (the isocyanurate group/the allophanate group) of 80:20 or more and 99:1 or less. a polyisocyanate precursor formed of a dimer or a multimer of at least one diisocyanate selected from the group consisting of an aliphatic diisocyanate and an alicyclic diisocyanate; and a polycarbonate diol, which is obtained by copolymerizing at least one diol selected from the group consisting of a diol having 2 to 20 carbon atoms and a carbonate compound, wherein the polyisocyanate precursor has an isocyanurate group and an allophanate group, and the isocyanurate group and the allophanate group are present in a molar ratio (the isocyanurate group/the allophanate group) of 80:20 or more and 99:1 or less.
An automated method for generating a prosthesis from a three dimensional,"3D", scan data, wherein the 3D scan data is scan data of a dental arch including a prepared tooth, the method comprising: extracting a margin line of the prepared tooth from the 3D scan data; extracting prep information of the prepared tooth from the 3D scan data, wherein the prep information is extracted using a prepared mesh data extracted using the margin line, wherein the prep information includes a direction of the prepared tooth, and wherein the direction of the prepared tooth is determined using normal vectors of surfaces of the prepared mesh data; generating two dimensional,"2D", projection images by projecting the 3D scan data based on the prep information; and generating a 3D prosthesis based on the 2D projection images using a generative adversarial network including a 2D encoder and a 3D decoder. extracting a margin line of the prepared tooth from the 3D scan data; extracting prep information of the prepared tooth from the 3D scan data, wherein the prep information is extracted using a prepared mesh data extracted using the margin line, wherein the prep information includes a direction of the prepared tooth, and wherein the direction of the prepared tooth is determined using normal vectors of surfaces of the prepared mesh data; generating two dimensional,"2D", projection images by projecting the 3D scan data based on the prep information; and generating a 3D prosthesis based on the 2D projection images using a generative adversarial network including a 2D encoder and a 3D decoder.
A structured optical fibre sensor, comprising a light source, a detection system and a Bragg grating optical fibre connected to said source and said system, wherein the light source is a wavelength tunable laser emission device characterised in that the laser emission device comprises: - a first and a second Sagnac mirror (M1, M2); - a cavity delimited by the first and second Sagnac mirror (M1, M2), the cavity comprising an amplifying medium and a tunable spectral filter using the Vernier effect, said filter comprising at least three resonant rings (R 1, R 2, R N-1, R N) arranged in cascade, each resonant ring incorporating a wavelength-tunable reflectivity loop mirror. - a first and a second Sagnac mirror (M1, M2); - a cavity delimited by the first and second Sagnac mirror (M1, M2), the cavity comprising an amplifying medium and a tunable spectral filter using the Vernier effect, said filter comprising at least three resonant rings (R 1, R 2, R N-1, R N) arranged in cascade, each resonant ring incorporating a wavelength-tunable reflectivity loop mirror.
A control method for driving a power engine unit (1, 2, 3) either in a speed control mode or in a load control mode, and changing the control mode, characterised in that, the change of the control mode comprises steps of sending control mode data of the power engine unit (1, 2, 3) and receiving control mode data of other power engine units (1, 2, 3) being connected electrically with each other and with the power engine unit, determining, utilizing the control mode data, whether a sum of moments of inertia of power engine units running in the speed control mode represents at least a predetermined amount of the total moment of inertia of all power engine units after the change of the control mode, in case of changing the control mode of the power engine unit from the speed control mode to the load control mode, changing the control mode of the power engine unit if the determining step indicates that at least said predetermined amount is reached.
A method of determining a filling level of a product in a tank using a radar level gauge system, the tank having a tank wall, and a tank atmosphere above a surface of the product in the tank, wherein the method comprises: generating and transmitting an electromagnetic first transmit signal (S T1); propagating the first transmit signal through the tank atmosphere towards a corner reflector formed by the surface of the product and the tank wall where the surface of the product meets the tank wall, the corner reflector being at a known horizontal distance from the radar level gauge system; receiving an electromagnetic first reflection signal (S R1) resulting from reflection of the first transmit signal (S T1) at the corner reflector; generating and transmitting an electromagnetic second transmit signal (S T2); propagating the second transmit signal through the tank atmosphere vertically towards the surface of the product; receiving an electromagnetic second reflection signal (S R2) resulting from reflection of the second transmit signal (S T2) at the surface of the product; determining a signal propagation speed compensation factor based on a first timing relation between the first transmit signal (S T1) and the first reflection signal (S R1), a second timing relation between the second transmit signal (S T2) and the second reflection signal (S R2), and the known horizontal distance between the radar level gauge system and the corner reflector; and determining the filling level of the product in the tank based on the second timing relation between the second transmit signal and the second reflection signal, and the signal propagation speed compensation factor. generating and transmitting an electromagnetic first transmit signal (S T1); propagating the first transmit signal through the tank atmosphere towards a corner reflector formed by the surface of the product and the tank wall where the surface of the product meets the tank wall, the corner reflector being at a known horizontal distance from the radar level gauge system; receiving an electromagnetic first reflection signal (S R1) resulting from reflection of the first transmit signal (S T1) at the corner reflector; generating and transmitting an electromagnetic second transmit signal (S T2); propagating the second transmit signal through the tank atmosphere vertically towards the surface of the product; receiving an electromagnetic second reflection signal (S R2) resulting from reflection of the second transmit signal (S T2) at the surface of the product; determining a signal propagation speed compensation factor based on a first timing relation between the first transmit signal (S T1) and the first reflection signal (S R1), a second timing relation between the second transmit signal (S T2) and the second reflection signal (S R2), and the known horizontal distance between the radar level gauge system and the corner reflector; and determining the filling level of the product in the tank based on the second timing relation between the second transmit signal and the second reflection signal, and the signal propagation speed compensation factor.
A multi-layered tobacco capsule for hookah, comprising: a container having an upper surface, a lower surface and sidewalls defining an enclosed internal volume; said upper and lower surface further comprise a plurality of apertures for allowing airflow through said multi-layered tobacco capsule; characterized in that said container includes one, or more, grids (111, 112) that separate said container to two or more inner compartments; wherein said two or more inner compartments include a quantity of tobacco; wherein said capsule is configured to be positioned onto or inside a cup of said hookah; whereby preventing all the tobacco inside the container of being compressed into bottom of the container during the smoking and preventing creation of heavy white smoke that causes discomfort to users.
A system comprising: electrode apparatus comprising a plurality of external electrodes to monitor cardiac electrical activity from tissue of a patient; and computing apparatus comprising processing circuitry and coupled to the electrode apparatus and configured to: monitor cardiac electrical activity using the plurality of external electrodes at least during delivery of cardiac therapy using a left ventricular assist device, LVAD; generate electrical heterogeneity information based on the monitored electrical activity; and determine an output parameter for the LVAD based on the generated electrical heterogeneity information. electrode apparatus comprising a plurality of external electrodes to monitor cardiac electrical activity from tissue of a patient; and computing apparatus comprising processing circuitry and coupled to the electrode apparatus and configured to: monitor cardiac electrical activity using the plurality of external electrodes at least during delivery of cardiac therapy using a left ventricular assist device, LVAD; generate electrical heterogeneity information based on the monitored electrical activity; and determine an output parameter for the LVAD based on the generated electrical heterogeneity information. monitor cardiac electrical activity using the plurality of external electrodes at least during delivery of cardiac therapy using a left ventricular assist device, LVAD; generate electrical heterogeneity information based on the monitored electrical activity; and determine an output parameter for the LVAD based on the generated electrical heterogeneity information.
Method for producing technical-grade silicon, in which a mixture of a raw material mixture containing silicon dioxide and carbon with a particulate mediator containing at least one of the elements C, O, Al and Si is reacted in an electric furnace, wherein the mixture is described by a dimensionless index K, K having a value of from 0 to 745 and being calculated as follows: K = ω M ⋅ β RM ⋅ μ C where: ω M = 6 ⋅ 1 − ε m, M d 50, M β RM = d 90, RM − d 10, RM μ C = 3 2 − m M m RM where: ω M characteristic surface area-to-volume coefficient of the particulate mediator [1/mm] ε m,M mean, effective porosity of the particulate mediator β RM breadth of a particle size distribution of the mixture [mm] μ C mass ratio of mediator to raw material mixture in the mixture d 50,M particle size (diameter) at 50% of the mass undersize of the grading curve of the mediator [mm] d 90,RM particle size (diameter) at 90% of the mass undersize of the grading curve of the raw material mixture [mm] d 10,RM particle size (diameter) at 10% of the mass undersize of the grading curve of the mixture [mm] m M mass of the mediator in the mixture [kg] m RM mass of the raw material mixture in the mixture [kg]. in which a mixture of a raw material mixture containing silicon dioxide and carbon with a particulate mediator containing at least one of the elements C, O, Al and Si is reacted in an electric furnace, wherein the mixture is described by a dimensionless index K, K having a value of from 0 to 745 and being calculated as follows: K = ω M ⋅ β RM ⋅ μ C where: ω M = 6 ⋅ 1 − ε m, M d 50, M β RM = d 90, RM − d 10, RM μ C = 3 2 − m M m RM where: ω M characteristic surface area-to-volume coefficient of the particulate mediator [1/mm] ε m,M mean, effective porosity of the particulate mediator β RM breadth of a particle size distribution of the mixture [mm] μ C mass ratio of mediator to raw material mixture in the mixture d 50,M particle size (diameter) at 50% of the mass undersize of the grading curve of the mediator [mm] d 90,RM particle size (diameter) at 90% of the mass undersize of the grading curve of the raw material mixture [mm] d 10,RM particle size (diameter) at 10% of the mass undersize of the grading curve of the mixture [mm] m M mass of the mediator in the mixture [kg] m RM mass of the raw material mixture in the mixture [kg]. ω M characteristic surface area-to-volume coefficient of the particulate mediator [1/mm] ε m,M mean, effective porosity of the particulate mediator β RM breadth of a particle size distribution of the mixture [mm] μ C mass ratio of mediator to raw material mixture in the mixture d 50,M particle size (diameter) at 50% of the mass undersize of the grading curve of the mediator [mm] d 90,RM particle size (diameter) at 90% of the mass undersize of the grading curve of the raw material mixture [mm] d 10,RM particle size (diameter) at 10% of the mass undersize of the grading curve of the mixture [mm] m M mass of the mediator in the mixture [kg] m RM mass of the raw material mixture in the mixture [kg].
A method for securing upon emergency an electrolyte solution present in an electrochemical cell(s) compartment(s) of a battery, and optionally in an electrolyte compartment connected to said battery, said method comprising: adding a reagent to said electrolyte solution, wherein said reagent and said electrolyte interact in said cell(s) compartment(s), and optionally in said electrolyte compartment, such that following said interaction, a porous solid, foam or gel is formed in said electrochemical cell(s) compartment(s) and optionally in said electrolyte compartment, such that said electrolyte cannot flow and spill from said electrochemical cell(s) compartment(s), and optionally from said electrolyte compartment.
An assembly comprising an openable window, a main frame defining an aperture, a compressible gasket disposed between said window and said main frame, a mechanical locking means (43,44) for locking said window to said main frame in a closed position relative to said aperture, wherein each of the window and the main frame includes a respective portion (50,54) of a magnetic means for securing said window to the frame, wherein said magnetic means for securing includes a magnetic field in both portions (50,54), one of the portions being disposed on the main frame and one of the portions being disposed on the openable window and thus being adapted to be movable by an operator with the openable window alternately into a magnetically attractive closure position and a magnetically unattractive opening position, the gasket being at least partially compressed when the window is secured to the aperture, and the attractive force between the portions (50, 54) exceeds the repulsion force of the gasket at all stages of compression of the gasket for compressing the gasket under the influence of the magnetic locking means to the closed position so that the mechanical locking means (43, 44) can lock the window to the aperture defined by the frame without the mechanical locking means (43, 44) being loaded by the force caused by the compressed gasket.