Preparation method for monodisperse micro droplets based on capillary pipe
A technology of capillary and micro-droplets, which is applied in the direction of mixing methods, chemical instruments and methods, and laboratory containers, etc., can solve the problems of difficult popularization, high production costs, complex micro-processing processes, etc., and achieve simple and reliable control , fast droplet speed, simple and flexible device construction
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Embodiment 1
[0041] Such as figure 1 and 2 Shown, be the experimental device that the present invention adopts, concrete experimental operation is:
[0042] Firstly, the continuous phase solution was prepared by dissolving 2.59 g sodium dodecyl sulfate SDS in 99.86 g deionized water, heating and stirring at low temperature (30°C, 350 rpm) for 2 h to form a uniform solution. Then take a small amount of solution and transfer it into a square transparent glass cell (25mm×25mm×25mm); then prepare the dispersed phase (internal phase) solution, add 0.1 g of pure blue ink to 20 mL of n-hexadecane, and vortex Shake for 1 min to make it evenly mixed. Then pipette this solution into the syringe of the syringe pump (try to avoid air entering the syringe), and connect a quartz capillary (20 μm inner diameter, 88 μm outer diameter) to the syringe.
[0043] Insert the quartz capillary vertically into the glass cell containing the continuous phase, and adjust the distance between the capillary opening...
Embodiment 2
[0045] Firstly, the continuous phase solution was prepared by dissolving 2.59 g sodium dodecyl sulfate SDS in 99.86 g deionized water, heating and stirring at low temperature (30°C, 350 rpm) for 2 h to form a uniform solution. Then take a small amount of solution and transfer it into a square transparent glass cell (25mm×25mm×25mm); then prepare the dispersed phase (internal phase) solution, add 0.1 g of pure blue ink to 20 mL of n-hexadecane, and vortex Shake for 1 min to make it evenly mixed. Then transfer this solution into the syringe of the syringe pump (try to avoid air entering the syringe), and connect the quartz capillary (20 μm inner diameter, 88 μm outer diameter) to the syringe.
[0046] Insert the quartz capillary vertically into the glass cell containing the continuous phase, and adjust the distance between the capillary opening and the bottom of the glass cell ( d ) is 5, 15 and 30 μm; the flow rate of the inner phase in the capillary is controlled by a syringe...
Embodiment 3
[0049] Firstly, the continuous phase solution was prepared by dissolving 2.59g sodium dodecyl sulfate SDS in 99.86g deionized water, heating and stirring at low temperature (30°C, 350 rpm) for 2 h to form a uniform solution. Then take a small amount of solution and transfer it into a square transparent glass cell (25mm×25mm×25mm); then prepare the dispersed phase (internal phase) solution, add 0.1 g of pure blue ink to 20 mL of n-hexadecane, and vortex Shake for 1 min to make it evenly mixed. Then pipette this solution into the syringe of the syringe pump (try to avoid air entering the syringe), and connect a quartz capillary (20 μm inner diameter, 88 μm outer diameter) to the syringe.
[0050] Insert two quartz capillaries vertically into the glass cell filled with continuous phase, adjust the distance between the capillary opening and the bottom surface of the glass cell ( d ), so that it is ~5 μm; the flow rate of the inner phase in the capillary is controlled by a syringe...
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