1753results about How to "Quick mix" patented technology

A method and system for image blending is disclosed. A destination image is received (100), the destination image including an image portion to be replaced and having characteristics associated with the identified image portion. A source image is also received (130). An image portion of the source image to be inserted into the destination image is identified (140). Where necessary, parameters of the image portion to be inserted are transformed to match those of the image portion to be replaced (150). The image portion to be inserted is then blended into the destination image in dependence on the image portion to be replaced and its associated characteristics (160). A video generation system using these features is also disclosed.

A microfluidic device comprises first and second inlet passages (13) for respective immiscible fluids, these inlet passages merging into a third passage (8) along which the two fluids flow under parallel laminar flow conditions, the third passage being formed with a constriction or other discontinuity (9) causing the two fluids to form into a flow of alternate segments.

Apparatus and method for forming beverages using a beverage cartridge and sonic energy. A cartridge may include a sonic receiver, such as a feature that extends into an interior space of the cartridge and is arranged to receive a sonic emitter that introduces sonic energy into the interior space. The sonic receiver may be excited by sonic energy, which causes the sonic receiver to itself introduce sonic energy into the cartridge.

A recuperating four-stroke internal combustion engine obtains improves Carnot efficiency by use of a new and novel cylinder head which captures thermal energy normally thrown away in the exhaust and re-introduces it to the working cycle. This result, long sought by others, has been achieved by incorporating within the head a compact internal recuperative heat exchanger in series with a combustion chamber or pre-chamber. A recuperator-protecting valve segregates the recuperator from hot combustion gases until the gases reach maximum expansion in the cylinder. Recuperators of both common-duct and seperated-duct design are described, the separated duct recuperator permitting higher recuperator temperature and increased efficiency and a reduction in the number of valves necessary to control gas flow. A preferred embodiment employs four valves per cylinder unit, a separated duct recuperator, and an insulating liner that surrounds both the combustion chamber and the recuperator. A similar prototype recuperative engine has demonstrated that recuperation can reduce exhaust temperature as much as 600° Rankine below that attainable in an equivalent Otto Cycle engine.

An active matrix electro-wetting on dielectric (AM-EWOD) device includes a plurality of array elements arranged in an array, each of the array elements including array element circuitry, an element electrode, and a reference electrode. The array element circuitry includes an actuation circuit configured to apply actuation voltages to the electrodes, and an impedance sensor circuit configured to sense impedance at the array element electrode to determine a droplet property at the array element. The impedance sensor circuit is operated by perturbing a potential applied to the reference electrode. The AM-EWOD device includes a common row addressing line. The impedance sensor circuit further is operated by supplying voltage signals over the common addressing line to effect both a reset operation and an operation for selecting a row in the array to be sensed. The circuitry isolates the array element from the actuation voltage during operating the impedance sensor circuit.

A method and system for image blending is disclosed. A destination image is received ( 100 ), the destination image including an image portion to be replaced and having characteristics associated with the identified image portion. A source image is also received ( 130 ). An image portion of the source image to be inserted into the destination image is identified ( 140 ). Where necessary, parameters of the image portion to be inserted are transformed to match those of the image portion to be replaced ( 150 ). The image portion to be inserted is then blended into the destination image in dependence on the image portion to be replaced and its associated characteristics ( 160 ). A video generation system using these features is also disclosed.

A fluidized-bed reactor for producing hydrogen from methane by steam reforming includes a flow splitter that splits a dense-phase flow of a gas having entrained calcium oxide particles into a plurality of equal flow streams. The reactor also incorporates an orifice plate having at least one high-velocity, rocket-style impinging injector for injecting reactants into the reactor bed. The injector includes a central orifice extending perpendicularly through the plate, and one or more adjacent peripheral orifices that extend through the plate at such an angle that respective streams of reactants injected into the reactor bed through the peripheral orifices impinge on a stream of reactants injected vertically into the reactor bed through the central orifice. The injector cooperates with adjacent base-bleed orifices in the plate to provide a uniform distribution and rapid mixing of the calcium oxide particles with a steam / methane gas mixture across the entire bottom of the reactor bed.

An improved method of controlling air pollution, a combustion gas is passed through a solution of an alkaline-earth metal sulfide and a redox buffer (e.g., a mono alkaline-earth metal phosphate salt), preferably but not essentially in combination with an alkaline-earth metal carbonate FGD system. The reagents are provided in a fully soluble form enabling low cost application and retrofitting of existing facilities whilst also including alkaline-earth bases salts, which advantageously afford stability to the process product. The reagents co-precipitate when the solution achieves a pH of 4.5 to 6.5 such as is encountered in the acidic environment in conduits that carry combustion flue gases.

A method and a device are provided which can mix two liquids faster at a precise mixing ratio. The method for mixing at least two liquids transported in respective channels includes transporting, of the two liquids, a liquid having a low mixing rate intermittently in one of the channels, and transporting, of the two liquids, a liquid having a high mixing rate so as to join the liquid having a low mixing rate from both sides of the channel for the liquid having a low mixing rate.

A mixing apparatus is proposed having a container (2) for the mixing of media which has at least one inlet (31, 32, 33, 34, 35, 36) for the media to be mixed or at least one outlet (4), with a central cut-out (5) being provided which extends in a longitudinal direction (A) into the container and is bounded relative to the inner space (6) of the container (2) by a wall (51), with a permanently magnetic mixing member (7) being provided in the container (2) adjacent to the cut-out (5) for the mixing of the media, and with a drive unit (8) being provided in the cut-out (5) by which the mixing member (7) can be set into rotation via a magnetic coupling. The drive unit (8) is movably arranged in the cut-out (5) such that the position of the mixing member (7) in the container is variable in a controlled manner.

The invention discloses a method and a system thereof for oxygen-enriched flameless combustion of coal powder. By adopting the method, the stability, burn-off rate and radiative heat transfer of combustion can be improved through flameless combustion on the basis of enriching CO2 during oxygen-enriched combustion. High-temperature flue gas generated by the oxygen-enriched combustion is injected into a hearth in the form of high-speed jet flow through a direct-current flameless burner, and quick and uniform mixing of heat and quality in the hearth can be realized through high-speed jet flow entrainment. The system comprises an oxygen injection system, and a primary air oxygen-injection point is positioned between a circulating fan and a flow regulating valve; a secondary air oxygen-injection point is positioned between a booster fan and a hearth outlet; a primary air pipe of the direct-current flameless burner is positioned in the center, and a secondary air pipe is parallel to the primary air pipe and is circularly arranged around the primary air pipe; the booster fan with a high-pressure head is arranged on a secondary air duct, and secondary air is boosted and speeded up and then enters the hearth in the form of the high-speed jet flow. The heat utilization ratio of the method and the system can be improved by 10-25%, and the generation of NOX can be reduced by 15-40%.

This invention has two synergistic elements for simultaneous use in point-of-care or field analyses of diverse substances important to clinical medicine and other applications. The first element is a sample holder in which are stored the several reagents need for quantification of target molecules. The onboard storage of reagents in a water soluble plastic obviates the need for purchase, storage, measuring and mixing of the required reagents prior to analyses. The second part of the invention is a compact hand-held analyzer made of modern miniature optical components, into which the holder is inserted right after it is loaded with a sample by capillary action. The combination of the holder and analyzer permits analyses that are ten times faster than those done with current analyzers, and equally accurate. Analyses can be performed by diverse people, who require only a few minutes of training in the use of the entire invention.

The invention discloses a poultry feed stirring device which comprises a base, wherein rollers are arranged on the left and right sides of the base; a stirring box is arranged above the base; the box bottom of the stirring box is connected and fixed with the base through supporting legs; a preliminary mixing box is arranged at the upper end of the stirring box; the preliminary mixing box is communicated with the stirring box; a material feeding hopper is arranged at the upper end opening of the preliminary mixing box; a horizontal stirring shaft is horizontally arranged in the preliminary mixing box; horizontal stirring rods are symmetrically arranged on the outer side of the horizontal stirring shaft; the left end of the horizontal stirring shaft penetrates through the preliminary mixing box and is connected with the output end of a horizontal motor; the horizontal motor drives the horizontal stirring shaft and the horizontal stirring rods to rotate so as to preliminarily stir materials. The poultry feed stirring device is simple and reasonable in structure, has a dual stirring function, can quickly mix the materials, and also has drying and deironing functions; furthermore, the whole stirring box is separable, thus facilitating later maintenance; the poultry feed stirring device is high in practicality.

A novel electrokinetic instability (EKI) micromixer and method takes advantage of the EKI to effect active rapid stirring of confluent microstreams of biomolecules without moving parts or complex microfabrication processes. The EKI is induced using an alternating current (A / C) electric field. Within seconds, the randomly fluctuating, three-dimensional velocity field created by the EKI rapidly and effectively stirs an initially heterogeneous solution and generates a homogeneous solution that is useful in a variety of biochemical and bioanalytical systems. Microfabricated on a glass substrate, the inventive EKI micromixer can be easily and advantageously integrated in molecular diagnostics apparatuses and systems, such as a chip-based “Lab-on-a-Chip” microfluidic device.

The invention discloses an agitator used for livestock feed processing. The agitator used for livestock feed processing comprises a stirring box; the stirring box is a cylinder with an opening on the upper end; the opening on the upper end of the stirring box is provided with a feed hopper; dispersing blocks are uniformly arranged in the feed hopper; a driving motor is fixedly arranged at the middle part of the lower end of the stirring box; an output terminal of the driving motor is provided with a material pushing shaft; the material pushing shaft in the stirring box is sleeved by a lifting barrel; the upper end and the lower end of the lifting barrel are fixedly connected with the material pushing shaft via fixing rods; a helical blade is arranged on the material pushing shaft in the lifting barrel; No.1 stirring rods are symmetrically arranged on the outside of the lifting barrel; the upper end of the material pushing shaft is fixedly provided with a driving gear. The agitator is simple and reasonable in structure design, is convenient to move, possesses buffer performance, is capable of realizing convection stirring of upper layer material with lower layer material in stirring, realizing reverse stirring of the materials in convection stirring, and improving material stirring effect greatly, is convenient for material rapid mixing, and is high in practicality.

The invention discloses an innocent treatment method for shield tunneling residue soil. The innocent treatment method comprises the following steps: hydraulically flushing the shield tunneling residue soil by virtue of residue slurry separation equipment so as to separate mud and cleaned gravel particulate matters; processing mud by virtue of a mud treatment process so as to form muddy water and mud blocks; and purifying the muddy water by virtue of a muddy water treatment system. The gravel particulate matters formed after the shield tunneling residue soil is processed can be used as a concrete aggregate, so that the waste is recycled, and the economic value is increased; the mud blocks with low sand content and moisture content can be used as a brick-making material, so that a made brick is good in quality; and the muddy water can be reused after being treated. The matters formed after the shield tunneling residue soil is processed are valuable, the gravel particulate matters can be used as the concrete aggregate, the made brick is good in quality, and the water can be reused, so that the reclamation, reduction and innocent treatment of the shield tunneling residue soil can be realized, the land consumption is reduced, and the natural environment is protected.

A baby-bottle apparatus for holding dry feeding formula separate from water in the bottle prior to in-situ mixing at feeding time combines a bottle, open and threaded at both ends, a powder chamber with a sealable, removable lid, and a piston-like pusher for releasing the lid and mixing the powder and water.

An apparatus and a method for mixing at least two fluid substances and carrying out or initiating a reaction between them, wherein the apparatus is a static mixer are described. The static mixer includes a fluid receiving chamber, a first conduit passing through the fluid receiving chamber and having at least one tapered aperture therethrough, and a second conduit operatively connected to the fluid receiving chamber.

Self-heating systems for rapidly and effectively heating a comestible substance are disclosed. Self-heating systems generally include a reaction chamber and a heating chamber. The heating chamber contains a substance to be heated. The reaction chamber contains reactants that, when contacted, exothermically react. The containers and reactants can be configured to heat at least six fluid ounces of comestible substance in less than one minute. The solid chemical reactant mixture can comprise magnesium chloride, calcium chloride, and / or calcium oxide. Methods for heating at least six fluid ounces of comestible substance in less than one minute are also provided.

The present invention relates to a “bottle structure for containing different beverages therein”, which comprises an outer container, a inner container and a cap, wherein, said outer container of an integral hollow body includes a holding hollow cavity encompassed by a open top surface, a bottom surface and a barrel-shaped lateral surface, a protruding round stud with external male thread on the outer peripheral thereof being integrally disposed in the internal center of the bottom surface, and a neck spout opening with external male thread on the outer peripheral thereof; said inner container of hollow tubular body has an external male thread formed on the upper end thereof and an internal female thread formed in the lower end thereof; and said cap includes an open hollow cavity encompassed by a closed top surface, an open bottom surface and a cylindrical lateral surface with internal female thread formed inner wall thereof, a protruding nut hoop with internal female thread formed inside thereof being integrally disposed in the internal center of the top surface.

The present invention relates to a method of making mineral fibres, comprising providing a circulating combustion chamber (1) which comprises a top section (2), a bottom section (3) and a base section (4), injecting primary fuel, particulate mineral material and primary combustion gas into the top section of the circulating combustion chamber and combusting the primary fuel thereby melting the particulate material to form a mineral melt and generating exhaust gases, separating the mineral melt from the exhaust gases wherein the exhaust gases pass through an outlet (8) in the circulating combustion chamber and the mineral melt collects in the base section of the circulating combustion chamber, injecting secondary fuel, which comprises liquid or gaseous fuel, and secondary combustion gas into the bottom section of the circulating combustion chamber to form a flame in the bottom section which heats the melt, and flowing a stream of the collected melt through an outlet (15) in the base section to a centrifugal fiberising apparatus and forming fibres. The present invention also provides an apparatus for use in the method of the invention.

A method for preparing the first component of a two-component room temperature-vulcanizable (RTV) silicone composition comprises (a) preparing a filler / oil masterbatch by (i) adding an unreactive silicone oil and untreated, aggregated filler particles to a mixer; (ii) adding a filler treating agent such as an organosilane, a polyorganosilane or a silazane to the unreactive silicone oil / filler mixture; and (iii) mixing the unreactive silicone oil / filler mixture and treating agent under conditions sufficient to breakdown the aggregated filler particles to an average size of less than about 300 nm for a time of less than about 24 hours to form the filler / oil masterbatch; and (b) adding said filler / oil masterbatch to a reactive silicone oil.

The invention discloses a preparation method of high-entropy oxide ceramic. The method comprises the following steps that 1, according to metal atom mole ratio being 1:1:1:1 or 1:1:1:1:1, four or fiveor less kinds of metal oxide powder are weighed; the oxide powder includes MgO, ZnO, NiO, CuO, CaO, CoO, ZrO2, CeO2, Al2O3, Gd2O3, La2O3, Er2O3, Y2O3, Fe2O3, Co3O4 and CaCO3; 2, powder weighed in step 1 is subjected to ball milling, drying and granulation; 3, granulated powder is pressed and molded to form a green body; 4, the green body obtained in step 3 is subjected to thermal treatment; 5, the green body obtained after thermal treatment in step 4 is heated to the preset temperature, an electric field of the preset electric field intensity is applied to a sample, after flash-burning appears, a power source is converted from the constant voltage state to the constant current state, the temperature is kept constant for 1-60 min under the preset current density, and then quenching is performed to obtain the needed high-entropy oxide ceramic. The flash-burning is adopted for preparing the high-entropy oxide ceramic, the sintering temperature is remarkably lowered, and the sintering time is remarkably shortened.

The invention relates to a method and a device for mixing a liquid in a substantially sealed container or a mixture of a liquid and a fine-particle solid, said liquid or mixture only partially filling the internal volume of the container that can be occupied by a fluidic phase and the remaining available internal volume of the container being filled by a gaseous phase. According to the invention,the essentially same liquid or mixture is fed to the container in the form of a propelled stream of a suction device that is situated in the liquid or mixture in the container. In its simplest form, the method according to the invention is implemented by means of an ejector (i.e. according to water jet pump principles) embodied as the suction device. The propelled stream is pumped through a propelling nozzle, which is fitted into the ejector in such a way that gas is sucked from the gaseous phase during the passage of the stream through the nozzle, e.g. by means of a riser tube that projects into the gaseous phase of the container, and is released in the form of dispersed gas bubbles, together with the propelled stream, into the liquid content of the storage container.

The invention discloses a small-size eddy type test tube vibrating and blending device. The device comprises a blending box, a stepper motor is mounted at the bottom of the blending box, a main shaft of the blending box is connected with a transmission shaft through a flexible coupling, a rotary planetary gear is fixedly mounted in the middle of the transmission shaft, a first sleeve is movably mounted at the upper end of the transmission shaft, three or more planetary gear supports are welded to the outer wall of the first sleeve, a second sleeve is welded to the other end of each planetary gear support, and the middle of each supporting shaft is movably connected with the corresponding second sleeve. According to the small-size eddy type test tube vibrating and blending device, the supporting shafts of test tube blenders are mounted on a planetary gear, due to the fact that the planetary gear is meshed with a fixed planetary gear arranged on the inner wall of the blending box and the rotary planetary gear on the transmission shaft at the same time, when the transmission shaft is driven by the stepper motor to rotate, the test tube blenders can be made to revolve around the transmission shaft at the same time of rotating around the supporting shafts connected with the test tube blenders, and thereby automatic, rapid and uniform blending of liquid sample test tubes is achieved.