Abstract:
An analyzer for analysis of a specimen in a testing chip that includes a micropump connecting section that is connected with a micropump to take in liquid from the micropump and includes a micro flow channel in which a reagent and the specimen are mixed so as to react with each other, the analyzer including: a mounting section for mounting the testing chip attachably and detachably thereto; a micropump unit that has a testing chip connecting section to be connected with the micropump connecting section of the testing chip which is mounted on the mounting section, and feeds liquid to the testing chip through the testing chip connecting section; and a pressing mechanism that presses the micropump connecting section and the testing chip connecting section against each other, the connecting sections being connected with each other.
Abstract:
The present invention provides microfabricated substrates and methods of conducting reactions within these substrates. The reactions occur in plugs transported in the flow of a carrier-fluid.
Abstract:
The present invention provides microfabricated substrates and methods of conducting reactions within these substrates. The reactions occur in plugs transported in the flow of a carrier-fluid.
Abstract:
The present invention provides microfabricated substrates and methods of conducting reactions within these substrates. The reactions occur in plugs transported in the flow of a carrier-fluid.
Abstract:
A method for producing fatty acid alkyl esters from biolipids through transesterification and/or esterification reactions uses a flow-through cavitation device for generating cavitation bubbles in a fluidic reaction medium. The fluidic medium is passed through sequential compartments in the cavitation device having varying diameters and inner surface features to create localized reductions in fluid pressure thus vaporizing volatile alcohols and creating an increased surface area and optimized conditions for the reaction to occur at the gas-liquid interface around the bubbles.
Abstract:
There is described a method for forming an emulsion (1) containing at least one dispersed phase (3) and a continuous phase (2) in a fluidic microsystem (100), said method comprising the steps: forming flows (4, 5) of different liquids which flow towards a dispersion region (10), and forming the emulsion (1) from the liquids in the dispersion region (10), wherein the flows (4, 5) run through a common channel (20) to the dispersion region (10) and the flows (4, 5) are arranged next to one another relative to a first reference direction, and wherein the emulsion (1) is produced as the liquids flow through a cross-sectional widening (11) provided in the dispersion region (10), at which the cross section of the channel (20) widens in a second reference direction different from the first reference direction. A fluidic microsystem for forming an emulsion (1) containing a continuous phase (2) and at least one dispersed phase (3) is also described. A fusion of droplets in electric fields is also described.
Abstract:
A method and apparatus for amplifying nucleic acids. The method includes introducing into a reaction vessel via different inlet channels a reactant aqueous solution containing reactants for nucleic acid amplification and a fluid that is phase-separated from the reactant aqueous solution and does not participate in amplification reaction, creating a plurality of reactant aqueous solution droplets surrounded by the fluid by contacting the reactant aqueous solution with the fluid in the reaction vessel, and amplifying the nucleic acids in the reactant aqueous solution droplets. The apparatus includes a substrate, a reaction vessel formed inside of the substrate, at least one first inlet channel formed inside the substrate, connected to an end of the reaction vessel, and allowing introduction of a reactant aqueous solution containing reactants for nucleic acid amplification into the reaction vessel, a second inlet channel formed inside the substrate, connected to the end of the reaction vessel, and allowing introduction of a fluid that is phase-separated from the reactant aqueous solution and does not participate in amplification reaction into the reaction vessel, and a heating unit installed on the substrate in such a way to thermally contact with the substrate and heating the substrate.
Abstract:
Provided are a method of and an apparatus for rapidly and effectively mixing fluids even in a laminar flow regime with a very low Reynold's number by applying AC power with a resonant frequency to more effectively induce electrokinetic instability. Also provided are a method of and an apparatus for mixing fluids in which the degree of mixing of the fluids can be varied with time by applying AC power with a lower frequency than a resonant frequency to synchronize a pattern of mixing fluids with the AC power.
Abstract:
Operation of a microfluidic flow device includes providing a microfluidic flow device including a body and at least one flow microchannel for transferring a mixture (G; T′) of at least two components being formed within the body, in which said mixture (G; T′) of the at least two components is caused to flow in the flow microchannel and the mixture is analyzed in at least one derived branch (B1-B6).
Abstract translation:微流体流动装置的操作包括提供微流体流动装置,其包括主体和至少一个流动微通道,用于输送形成在体内的至少两个组分的混合物(G; T'),其中所述混合物(G; T 使得至少两种组分的')在流动微通道中流动,并且在至少一个衍生分支(B1-B6)中分析混合物。