Method for separating adenosine cyclophosphate
A technology for cyclic adenosine monophosphate and metal ions, which is applied in the field of separation of cyclic adenosine monophosphate with new adsorbents, can solve the problems of low adsorption capacity and large consumption of adsorbents, and achieve the effect of low price
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Embodiment 1
[0034]Weigh 50g of cation exchange resin Amberlite IR-124 and pack it into a column, and flow the ferric chloride solution with a concentration of 3g / L through the resin column at 1BV / h, and stop the transformation when the concentration of the effluent is also 3g / L. Continue to feed deionized water at the same flow rate until the effluent does not contain iron ions. Finally, the resin column was rinsed with ethanol. After the rinse was completed, the resin was vacuum-dried in a vacuum oven at 30°C to complete the transformation of the adsorbent. Take 20g of transformed adsorbent to fill the resin column, after equilibrium, put the cyclic adenosine monophosphate solution with a concentration of 4.5g / L on the column, flow through the resin column at 3.5BV / h, and measure the adsorption capacity to be 126mg / g wet after adsorption saturation. resin. Carry out elution with 0.4mol / L sodium hydroxide, elution flow rate 1BV / h, eluent dosage is 3BV, collects eluent, the concentration ...
Embodiment 2
[0036] Weigh 50g of cation exchange resin Amberlite IR-116 and pack it into a column, flow the copper chloride solution with a concentration of 10g / L through the resin column at 1BV / h, and stop the transition when the concentration of the effluent is also 10g / L. Continue to feed deionized water at the same flow rate until the effluent does not contain copper ions. Finally, the resin column was rinsed with ethanol. After the rinse was completed, the resin was vacuum-dried in a vacuum oven at 40°C to complete the transformation of the adsorbent. Take 10g of transformed adsorbent to fill the resin column, equilibrate and put the cyclic adenosine monophosphate solution with a concentration of 4g / L on the column, flow through the resin column at 2BV / h, and measure the adsorption capacity to be 85mg / g wet resin after adsorption saturation. Then use 0.3mol / L sodium hydroxide for elution, the elution flow rate is 2BV / h, and the amount of eluent is 4BV. The eluate was collected, the c...
Embodiment 3
[0038] Weigh 50g of cation exchange resin Amberlite IR-116 to pack into the column, and flow the ferrous chloride solution with a concentration of 15g / L through the resin column at 1BV / h, and stop the transition when the concentration of the effluent is also 15g / L. Continue to feed deionized water at the same flow rate until the effluent does not contain ferrous ions. Finally, the resin column was rinsed with ethanol. After the rinse was completed, the resin was vacuum-dried in a vacuum oven at 50°C to complete the transformation of the adsorbent. Take 30g transformed adsorbent to fill the resin column, after equilibrium, put the cyclic adenosine monophosphate solution with a concentration of 3g / L on the column, flow through the resin column at 3.5BV / h, and measure the adsorption capacity after adsorption saturation is 109mg / g wet resin . Use 0.2mol / L sodium hydroxide for elution, the elution flow rate is 2.5BV / h, and the amount of eluent is 5BV. The eluate was collected, th...
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