ub.xmlui.mirage2.page-structure.muninLogoub.xmlui.mirage2.page-structure.openResearchArchiveLogo
    • EnglishEnglish
    • norsknorsk
  • Velg spraakEnglish 
    • EnglishEnglish
    • norsknorsk
  • Administration/UB
View Item 
  •   Home
  • Fakultet for ingeniørvitenskap og teknologi
  • Institutt for automasjon og prosessteknologi
  • Artikler, rapporter og annet (automasjon og prosessteknologi)
  • View Item
  •   Home
  • Fakultet for ingeniørvitenskap og teknologi
  • Institutt for automasjon og prosessteknologi
  • Artikler, rapporter og annet (automasjon og prosessteknologi)
  • View Item
JavaScript is disabled for your browser. Some features of this site may not work without it.

Integrated Oxyfuel Power Plant with Improved CO2 Separation and Compression Technology for EOR application

Permanent link
https://hdl.handle.net/10037/10589
Thumbnail
View/Open
article.pdf (834.2Kb)
(PDF)
Date
2016-06-25
Type
Peer reviewed
Journal article
Tidsskriftsartikkel

Author
Font Palma, Carolina; Errey, Olivia; Corden, Caroline; Chalmers, Hannah; Lucquiaud, Mathieu; Saez, Maria Sanchez del Rio; Jackson, Steven; Medcalf, D; Livesey, B; Gibbins, Jon; Pourkashanian, M
Abstract
An integrated advanced supercritical coal-fired oxyfuel power plant with a novel cryogenic CO2 separation and compression technology for high purity CO2 to suit injection for enhanced oil recovery purposes is investigated. The full process is modelled in Aspen Plus® consisting of: an Air Separation Unit (ASU), an Advanced Supercritical Pulverised Fuel (ASC PF) power plant with a bituminous coal as feedstock, a steam cycle, and a Carbon dioxide Purification Unit (CPU). The proposed CPU process accommodates a distillation column with an integrated reboiler duty to achieve a very high purity CO2 product (99.9%) with constrained oxygen levels (100 ppm). This work presents a detailed analysis of the CO2 separation and compression process within the full power plant, including effective heat integration to reduce the electricity output penalty associated with oxyfuel CO2 capture. The results of this analysis are compared with previous studies and indicate that the combined application of process optimisation in the CPU and advanced heat integration with the power plant offer promising results: In this work a high purity CO2 product was achieved while maintaining 90% capture for a net plant efficiency of 38.02% (LHV), compared with a thermal efficiency of 37.76% (LHV) for a reference simulation of an ASC PF oxy-fired plant with advanced heat integration, providing a lower purity CO2 product.
Description
Link to publishers version: 10.1016/j.psep.2016.06.024
Citation
Font Palma, Errey, Corden, Chalmers, Lucquiaud, Saez, Jackson S, Medcalf, Livesey, Gibbins, Pourkashanian. Integrated Oxyfuel Power Plant with Improved CO2 Separation and Compression Technology for EOR application. Process Safety and Environmental Protection. 2016; 103 (Part B), 455-465
Metadata
Show full item record
Collections
  • Artikler, rapporter og annet (automasjon og prosessteknologi) [174]

Browse

Browse all of MuninCommunities & CollectionsAuthor listTitlesBy Issue DateBrowse this CollectionAuthor listTitlesBy Issue Date
Login

Statistics

View Usage Statistics
UiT

Munin is powered by DSpace

UiT The Arctic University of Norway
The University Library
uit.no/ub - munin@ub.uit.no

Accessibility statement (Norwegian only)