Fig. 6.14 Schematic view of
the phases of mineral
carbonation, products, and
by-products obtained
References
1. (a) Aresta M, Forti G (eds) (1987) Carbon dioxide as a source of carbon: chemical and
biochemical uses, Reidel Publ., NATO—ASI: Dordrecht; (b) Aresta M (ed) (2003) Carbon
dioxide recovery and utilization. Kluwer Publ; (c) Aresta M (ed) (2010) Carbon dioxide as
chemical feedstock. Wiley VCH; (d) Aresta M, Dibenedetto A, Angelini A (2013) The
changing paradigm in CO 2 utilization. J CO 2 Util 3–4:65–73
2. (a) Aresta M, Dibenedetto A, Quaranta E (2016) Reaction mechanisms in carbon dioxide
conversion. Springer Publ; (b) Chen Y-H, Shen M-T, Chang H, Ho C-D (2019) Control of
solvent-based post-combustion carbon capture process with optimal operation conditions.
Processes 7:366
3. (a) Wang XX, Ma XL, Song CS, Locke DR, Siefert S, Winans RE, Mollmer J, Lange M,
Moller A, Glaser R (2013) Molecular basket sorbents polyethyleneimmine with SB15 for
carbon dioxide capture. Microporous Mesoporous Mater 169:103–111; (b) Wang XX,
Song CS (2019) Capture of CO 2 from concentrated sources and the atmosphere. In: Aresta M,
Karimi I, Kawi S (eds) An economy based on CO 2 and water, Chap 2. Springer
4. Tsuda T, Fujiwara T (1992) Polyethyleneimine and macrocyclic polyamine silica gels acting
as carbon dioxide absorbents. J Chem Soc Chem Commun 1659–1661
5. (a) Dibenedetto A, Aresta M, Fragale C, Narracci M (2002) Reaction of silylalkylmono-and
silylalkyldi-amines with carbon dioxide: evidence of formation of inter-and intra-molecular
ammonium carbamates and their conversion into organic carbamates of industrial interest
under carbon dioxide catalysis. Green Chem 4(5):439–443; (b) Dibenedetto A, Pastore C,
Fragale C, Aresta M (2008) Hybrid materials for CO 2 uptake from simulated flue gases:
xerogels containing diamines. ChemSusChem 1(8–9):742–745
6. McKinsey&Company, Inc. (2008) Carbon capture & storage: assessing the economics
7. Chan HXM, Yap EH, Ho JH (2013) Overview of axial compression for DAC of CO 2 . Adv
Mater Res 744:392–395
8. (a) www.oase.basf.com; (b) Kumagai T, Tanaka K, Fujimura Y, Ono T, Ito F, Katz T,
Spuhl O, Tan A (2011) HiPACT–advanced CO 2 capture technology for green natural gas
exploration. Energy Procedia 4:125–132
9. Holmes G, Keith DW (2012) An air–liquid contactor for large-scale capture of CO 2 from air.
Phil Trans R Soc A 370:4380–4403
10. http://www.geoengineeringmonitor.org/2018/05/direct-air-capture/
6.7 Fixation of CO 2 into Long-Lasting Inorganic Materials
99
the phases of mineral
carbonation, products, and
by-products obtained
References
1. (a) Aresta M, Forti G (eds) (1987) Carbon dioxide as a source of carbon: chemical and
biochemical uses, Reidel Publ., NATO—ASI: Dordrecht; (b) Aresta M (ed) (2003) Carbon
dioxide recovery and utilization. Kluwer Publ; (c) Aresta M (ed) (2010) Carbon dioxide as
chemical feedstock. Wiley VCH; (d) Aresta M, Dibenedetto A, Angelini A (2013) The
changing paradigm in CO 2 utilization. J CO 2 Util 3–4:65–73
2. (a) Aresta M, Dibenedetto A, Quaranta E (2016) Reaction mechanisms in carbon dioxide
conversion. Springer Publ; (b) Chen Y-H, Shen M-T, Chang H, Ho C-D (2019) Control of
solvent-based post-combustion carbon capture process with optimal operation conditions.
Processes 7:366
3. (a) Wang XX, Ma XL, Song CS, Locke DR, Siefert S, Winans RE, Mollmer J, Lange M,
Moller A, Glaser R (2013) Molecular basket sorbents polyethyleneimmine with SB15 for
carbon dioxide capture. Microporous Mesoporous Mater 169:103–111; (b) Wang XX,
Song CS (2019) Capture of CO 2 from concentrated sources and the atmosphere. In: Aresta M,
Karimi I, Kawi S (eds) An economy based on CO 2 and water, Chap 2. Springer
4. Tsuda T, Fujiwara T (1992) Polyethyleneimine and macrocyclic polyamine silica gels acting
as carbon dioxide absorbents. J Chem Soc Chem Commun 1659–1661
5. (a) Dibenedetto A, Aresta M, Fragale C, Narracci M (2002) Reaction of silylalkylmono-and
silylalkyldi-amines with carbon dioxide: evidence of formation of inter-and intra-molecular
ammonium carbamates and their conversion into organic carbamates of industrial interest
under carbon dioxide catalysis. Green Chem 4(5):439–443; (b) Dibenedetto A, Pastore C,
Fragale C, Aresta M (2008) Hybrid materials for CO 2 uptake from simulated flue gases:
xerogels containing diamines. ChemSusChem 1(8–9):742–745
6. McKinsey&Company, Inc. (2008) Carbon capture & storage: assessing the economics
7. Chan HXM, Yap EH, Ho JH (2013) Overview of axial compression for DAC of CO 2 . Adv
Mater Res 744:392–395
8. (a) www.oase.basf.com; (b) Kumagai T, Tanaka K, Fujimura Y, Ono T, Ito F, Katz T,
Spuhl O, Tan A (2011) HiPACT–advanced CO 2 capture technology for green natural gas
exploration. Energy Procedia 4:125–132
9. Holmes G, Keith DW (2012) An air–liquid contactor for large-scale capture of CO 2 from air.
Phil Trans R Soc A 370:4380–4403
10. http://www.geoengineeringmonitor.org/2018/05/direct-air-capture/
6.7 Fixation of CO 2 into Long-Lasting Inorganic Materials
99