Method for separating 1-olefin from isoolefine by utilizing fixed bed pulse adsorption
A technology of isomerized olefins and fixed bed, applied in the field of separation, can solve problems such as complex process, high energy consumption, and harsh conditions, and achieve the effect of simple separation technology, good regeneration performance, and high selectivity
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Embodiment 1
[0052] The experimental steps are as follows:
[0053] 1. Filling of the adsorbent: The adsorption tube is purged under nitrogen heating to prepare for the filling of the adsorbent. According to the length and inner diameter of the adsorption tube, the influence of back-mixing was excluded. Add 55 ml of 13X type adsorbent. (Particle size has ruled out the effect of channeling on separation.)
[0054]2. Calibration of the flow pump: select 1-hexene to calibrate the flow pump: set the pump flow to 1.000ml / min, the actual fluid flow: 0.98ml / min.
[0055] 3. Pump in the desorption liquid: pump in the desorption liquid under the actual flow rate until there are no abnormalities such as continuous dripping, air bubbles, and no liquid coming out of the sampling port.
[0056] 4. Sampling pulse solution: According to the separation factor and the adsorption capacity of the adsorbent for the two isomeric olefins, the sampling time is determined to be 2.5 minutes.
[0057] 5. Inject...
Embodiment 2
[0062] 1. Filling of the adsorbent: The adsorption tube is purged under nitrogen heating to prepare for the filling of the adsorbent. According to the length and inner diameter of the adsorption tube, the influence of back-mixing was excluded. Add 55 ml of adsorbent type 5A. (Particle size has ruled out the effect of channeling on separation.)
[0063] 2. Calibration of the flow pump: select 1-hexene to calibrate the flow pump: set the pump flow to 1.000ml / min, the actual fluid flow: 0.98ml / min.
[0064] 3. Pump in the desorption liquid: pump in the desorption liquid under the actual flow rate until there are no abnormalities such as continuous dripping, air bubbles, and no liquid coming out of the sampling port.
[0065] 4. Sampling pulse solution: According to the separation factor and the adsorption capacity of the adsorbent for the two isomeric olefins, the sampling time is determined to be 2.5 minutes.
[0066] 5. Injection of desorption liquid: after switching to deso...
Embodiment 3
[0071] The experimental steps are as follows:
[0072] 1. Filling of the adsorbent: The adsorption tube is purged under nitrogen heating to prepare for the filling of the adsorbent. According to the length and inner diameter of the adsorption tube, the influence of back-mixing was excluded. Add 55 ml of adsorbent type 5A. (Particle size has ruled out the effect of channeling on separation.)
[0073] 2. Calibration of the flow pump: select 1-hexene to calibrate the flow pump: set the pump flow to 1.000ml / min, the actual fluid flow: 0.98ml / min.
[0074] 3. Pump in the desorption liquid: pump in the desorption liquid under the actual flow rate until there are no abnormalities such as continuous dripping, air bubbles, and no liquid coming out of the sampling port.
[0075] 4. Sampling pulse solution: According to the separation factor and the adsorption capacity of the adsorbent for the two isomeric olefins, the sampling time is determined to be 2.5 minutes.
[0076] 5. Inject...
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