260
L. Ren et al.
Fig. 7.23 Technical framework of steelmaking by CO 2 -COG dry reforming. Source Zhou Hongjun,
China university of petroleum
extra measures and technologies required for power, transport, industry and construction sectors under the two scenarios of CCUS technology application. CO 2 capture
and utilization in various industries and sub-sectors under CTS scenario are illustrated in Fig. 7.24, which shows that for a considerable period, CCUS capture in iron
and steel industry remained the mainstream of industrial CCUS, reaching around
1 billion tons by 2060 and accounting for approximately 44% of total emission from
Fig. 7.24 Captured CO 2 for storage by industrial sub-sector and for utilization in the CTS. Notes
CO 2 utilization refers to its application for the production of urea and methanol. Source IEA (2020),
The Role of CO 2 Storage, IEA, Paris https://www.iea.org/reports/the-role-of-CO2-storage
L. Ren et al.
Fig. 7.23 Technical framework of steelmaking by CO 2 -COG dry reforming. Source Zhou Hongjun,
China university of petroleum
extra measures and technologies required for power, transport, industry and construction sectors under the two scenarios of CCUS technology application. CO 2 capture
and utilization in various industries and sub-sectors under CTS scenario are illustrated in Fig. 7.24, which shows that for a considerable period, CCUS capture in iron
and steel industry remained the mainstream of industrial CCUS, reaching around
1 billion tons by 2060 and accounting for approximately 44% of total emission from
Fig. 7.24 Captured CO 2 for storage by industrial sub-sector and for utilization in the CTS. Notes
CO 2 utilization refers to its application for the production of urea and methanol. Source IEA (2020),
The Role of CO 2 Storage, IEA, Paris https://www.iea.org/reports/the-role-of-CO2-storage