A kind of method for producing water-insoluble organic acid by bipolar membrane electrodialysis
A bipolar membrane electrodialysis, non-water-soluble technology, applied in electrodialysis, preparation of organic compounds, organic chemistry, etc., can solve the problems of poor conductivity of organic solvents, high energy consumption, large resistance of membrane stacks, etc., to save chemical industry Raw materials, the effect of achieving cleaner production, significant industrial application value and environmental benefits
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Embodiment 1
[0039] First, put 400mL of 0.3mol / L sodium sulfate solution into the electrode solution storage tank as the electrode solution. Initially put 400mL of 0.05mol / L sodium hydroxide into the alkali storage tank to reduce the initial resistance. Keep a sufficient amount of 0.3mol / L sodium sulfate solution in the sodium sulfate storage tank of the feed solution, pass it into the two-compartment bipolar membrane electrodialysis membrane stack through a peristaltic pump, and then directly flow out into the acid storage tank. At the same time, the acid in the acid storage tank is passed into the 100mL 2mol / L sodium phenylglycinate solution to be treated at the same flow rate as the acid chamber through the peristaltic pump. Before turning on the power, turn on the peristaltic pump to circulate the whole device for half an hour to eliminate the damage of air bubbles to the membrane. After the power is turned on, use a stopwatch to count the time, and record the voltage value of the pow...
Embodiment 2
[0041] First, put 400mL of 0.3mol / L sodium sulfate solution into the electrode solution storage tank as the electrode solution. Initially put 400mL of 0.05mol / L sodium hydroxide into the alkali storage tank to reduce the initial resistance. Keep a sufficient amount of 0.3mol / L sodium sulfate solution in the sodium sulfate storage tank of the feed solution, pass it into the two-compartment bipolar membrane electrodialysis membrane stack through a peristaltic pump, and then directly flow out into the acid storage tank. At the same time, the acid in the acid storage tank is passed into the 100mL 2mol / L sodium phenylglycinate solution to be treated at the same flow rate as the acid chamber through the peristaltic pump. Before turning on the power, turn on the peristaltic pump to circulate the whole device for half an hour to eliminate the damage of air bubbles to the membrane. After the power is turned on, use a stopwatch to count the time, and record the voltage value of the pow...
Embodiment 3
[0043] First, put 400mL of 0.3mol / L sodium sulfate solution into the electrode solution storage tank as the electrode solution. Initially put 400mL of 0.05mol / L sodium hydroxide into the alkali storage tank to reduce the initial resistance. Keep a sufficient amount of 0.3mol / L sodium sulfate solution in the sodium sulfate storage tank of the feed solution, pass it into the two-compartment bipolar membrane electrodialysis membrane stack through a peristaltic pump, and then directly flow out into the acid storage tank. At the same time, the acid in the acid storage tank is passed into the 100mL 2mol / L sodium phenylglycinate solution to be treated at the same flow rate as the acid chamber through the peristaltic pump. Before turning on the power, turn on the peristaltic pump to circulate the whole device for half an hour to eliminate the damage of air bubbles to the membrane. After the power is turned on, use a stopwatch to count the time, and record the voltage value of the pow...
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