TY - BOOK
T1 - Carbon dioxide sequestration by mineral carbonation
T2 - Literature review update 2005-2007: Report 2008-1
AU - Sipilä, Johan
AU - Teir, Sebastian
AU - Zevenhoven, Ron
PY - 2008
Y1 - 2008
N2 - The field of mineral sequestration for the long-term
storage of carbon dioxide is a CCS (carbon dioxide
capture and storage) option that provides an alternative
for the more widely advocated method of geological
storage in underground cavities, especially at locations
where such underground cavities are not available, where
the risk of leakage of the CO2 stored underground is
considered unacceptable, or where large resources of
material suitable for carbonation are present. Although
the state of the art of mineral carbonation processing
technically suffers from too slow chemical kinetics and
poor energy economy, the driving forces for continued
attention for this CCS route are its sheer capacity
(dwarfing other CCS methods), the fact that it gives
compact and leakage-free CO2 fixation that needs no
post-storage monitoring and finally the potential of
operating at a zero (or negative) net energy input,
provided that the process is properly optimised, and
utilises the benefits of favourable thermodynamics.
Despite partial successes and promising process ideas, so
far the keys to success have not been found. While work
on this subject did not start until the 1990s, earlier
literature reviews have considered the period until 2000
[1+], the period until 2003 [2+] and the years 2003-2004
[3]. As already noted in the previous review, the
increasing worldwide interest in mineral carbonation
(demonstrated, for example, by the number of
contributions to the latest GHGT conferences) has
motivated the prompt production of the next literature
review.
AB - The field of mineral sequestration for the long-term
storage of carbon dioxide is a CCS (carbon dioxide
capture and storage) option that provides an alternative
for the more widely advocated method of geological
storage in underground cavities, especially at locations
where such underground cavities are not available, where
the risk of leakage of the CO2 stored underground is
considered unacceptable, or where large resources of
material suitable for carbonation are present. Although
the state of the art of mineral carbonation processing
technically suffers from too slow chemical kinetics and
poor energy economy, the driving forces for continued
attention for this CCS route are its sheer capacity
(dwarfing other CCS methods), the fact that it gives
compact and leakage-free CO2 fixation that needs no
post-storage monitoring and finally the potential of
operating at a zero (or negative) net energy input,
provided that the process is properly optimised, and
utilises the benefits of favourable thermodynamics.
Despite partial successes and promising process ideas, so
far the keys to success have not been found. While work
on this subject did not start until the 1990s, earlier
literature reviews have considered the period until 2000
[1+], the period until 2003 [2+] and the years 2003-2004
[3]. As already noted in the previous review, the
increasing worldwide interest in mineral carbonation
(demonstrated, for example, by the number of
contributions to the latest GHGT conferences) has
motivated the prompt production of the next literature
review.
M3 - Report
SN - 978-952-12-2036-4
T3 - Åbo Akademi: Department of Chemical Engineering: Heat Engineering Laboratory
BT - Carbon dioxide sequestration by mineral carbonation
PB - Åbo Akademi
CY - Åbo
ER -