| Título |
Large-scale oxygen-enriched air (OEA) production from polymeric membranes for partial oxycombustion processes |
| Autores |
GARCÍA LUNA, SEBASTIAN, ORTIZ DOMÍNGUEZ, CARLOS, Chacartegui R. , Pérez-Maqueda L.A. |
| Publicación externa |
No |
| Medio |
Energy |
| Alcance |
Article |
| Naturaleza |
Científica |
| Cuartil JCR |
1 |
| Cuartil SJR |
1 |
| Impacto JCR |
9 |
| Impacto SJR |
2.11 |
| Web |
https://www.scopus.com/inward/record.uri?eid=2-s2.0-85146569855&doi=10.1016%2fj.energy.2023.126697&partnerID=40&md5=31339bc490602c4ffe5f2accfaff4738 |
| Fecha de publicacion |
16/01/2023 |
| ISI |
000929075500001 |
| Scopus Id |
2-s2.0-85146569855 |
| DOI |
10.1016/j.energy.2023.126697 |
| Abstract |
Partial oxycombustion using Oxygen-Enriched Air (OEA), produced by air-gas separation with polymeric membranes, combined synergistically with CO2 capture technologies, can reduce the overall energy cost of CO2 capture, and it is a potential alternative to conventional CO2 capture technologies. An exhaustive review of polymeric membranes for this application is presented. The best membranes showed permeability values in the 450–25,100 barrer and selectivities higher than 3.6 for large-scale operations. These membranes can produce OEA with oxygen molar concentrations of up to 40% for retrofitting large-scale power plants (~ 500 MWe) with partial oxycombustion. For OEA production, the polymeric membrane system is more efficient than cryogenic distillation since the specific power consumption of the former is 35.17 kWh/ton OEA. In comparison, that of the latter is 49.57 kWh/ton OEA. This work proposes that the OEA produced by the membranes feed a partial oxycombustion process integrated with calcium looping within a hybrid CO2 capture system. The power consumption of the hybrid CO2 capture system proposed here is 29.05% lower than in the case OEA is produced from cryogenic distillation, which justifies the potential interest in using polymeric membranes for OEA production. © 2023 Elsevier Ltd |
| Palabras clave |
Calcium; Cryogenics; Distillation; Electric power utilization; Energy efficiency; Gas permeable membranes; Molar ratio; Oxygen; Polymeric membranes; Calcium looping; Capture system; CO2 capture; Cryogenic distillations; Gas separations; Large-scales; Oxy combustions; Oxygen-enriched air; Oxygen-enriched air production; Partial oxycombustion; Carbon dioxide; ambient air; carbon sequestration; geomembrane; membrane; polymer |
| Miembros de la Universidad Loyola |
|
Gestionar cookies