The future potential for Carbon Capture and Storage in climate change mitigation – an overview from perspectives of technology, economy and risk

Wennersten, Ronald; Sun, Qiang; Li, Hailong

doi:10.1016/j.jclepro.2014.09.023

Cited by 203 publications

(85 citation statements)

References 36 publications

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“…Such scenario was observed in 15HM (T/P12) steel at 550°C. At the scale-substrate interface, oxygen partial pressure was low (consumed for the oxide scale formation), thus within the oxide scale FeCl 2 , FeCl 3 and CrCl 3 (in 15HM and 10H2M steels) were developed. When chlorides were developed, oxygen partial pressure increased, again chlorides decomposed, and the formation of metal oxide was observed; however, again formed oxide scale from gas-phase reaction developed a very loose layer with lack of protection to the metal substrate.…”

Section: Cross-sectional Morphologiesmentioning

confidence: 99%

“…6 and 7 showed such evidence. The formation of FeCl 3 is highly probable to develop, since point indicating stability of FeCl 3 (g) phase is above the stability line; however, this phase is unstable above 300°C and transforms into gaseous state; therefore, EDX analyses performed on the exposed samples found difficulties with the detection of FeCl 3 . As mentioned in this work, the presence of H 2 O from the atmosphere leads to the formation of FeCl 3 Á6H 2 O compound.…”

Section: Cross-sectional Morphologiesmentioning

confidence: 99%

“…There is several way to reduce emission of CO 2 gas and global warming. Possible to implementation solutions include carbon capture and storage (CSS) technology [3,4], replacement of fossil fuels by fuels more environmentally friendly, such as natural gas [5], commissioning new technologies such as ultra-super critical (USC) [6] or advanced ultra-super critical (AUSC) [7] and finally partly substitute coal by biomass [8,9].…”

Section: Introductionmentioning

confidence: 99%

See 2 more Smart Citations

Chlorine Corrosion Degradation of Low Alloyed Ferritic Steels in Temperature Range 450–550 °C

Dudziak¹,

Jura²,

Rutkowska³

2016

Oxid Met

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The paper shows the results obtained under chlorination conditions on low alloyed steels 15HM (T/P12), 16M (T/P1), 18K, and 10HM2 (T22) in the temperature range 450-550°C for 100 h. The tests were performed in a gas mixture of 0.3 % Cl 2 -Ar under 1 bar pressure. The results indicated that the low alloyed steels underwent a high degree of corrosion, showing lack of protection under reducing atmosphere. However, some differences regarding chemical composition of the bare steels were found. The scale thicknesses, chemical compositions of chloride scales developed on the exposed samples were analysed by means of standard techniques including scanning electron microscope coupled with energy X-ray dispersive spectroscopy.

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Section: Cross-sectional Morphologiesmentioning

confidence: 99%

Section: Cross-sectional Morphologiesmentioning

confidence: 99%

Section: Introductionmentioning

confidence: 99%

See 1 more Smart Citation

Chlorine Corrosion Degradation of Low Alloyed Ferritic Steels in Temperature Range 450–550 °C

Dudziak¹,

Jura²,

Rutkowska³

2016

Oxid Met

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“…However, there are some exclusions, such as an evaluation of the Canadian reservoirs [36,37] carried out in the beginning of the century when there was no government regulation of CO 2 emission, or the economic evaluation of the CO 2 -EOR potential for the Iranian oil reservoirs [38]. But in general, the countries that have significant potential for CCS development but have no legal framework in this respect are "overboard" [39].…”

Section: Introductionmentioning

confidence: 99%

Potential of Russian Regions to Implement CO2-Enhanced Oil Recovery

et al. 2018

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Abstract:The paper assesses the techno-economic potential of Russia to implement carbon capture and storage technologies that imply the capture of anthropogenic CO 2 and its injection into geologic reservoirs for long-term storage. The focus is on CO 2 enhanced oil recovery projects that seem to be the most economically promising option of carbon capture and storage. The novelty of the work lies in the formulation of a potential assessment method of CO 2 enhanced oil recovery, which allows for establishing a connection between energy production and oil extraction from the viewpoint of CO 2 supply and demand. Using linear optimization, the most promising combinations of CO 2 sources and sinks are identified and an economic evaluation of these projects is carried out. Based on this information, regions of Russia are ranked according to their prospects in regards to CO 2 capture and enhanced oil recovery storage. The results indicate that Russia has a significant potential to utilize its power plants as CO 2 sources for enhanced oil recovery projects. It has been estimated that 71 coal-fired power plants, and 185 of the gas-fired power plants of Russia annually produce 297.1 and 309.6 Mt of CO 2 that can cover 553.4 Mt of the demand of 322 Russian oil fields. At the same time, the total CO 2 storage capacity of the Russian fields is estimated at 7382.6 Mt, however, due to geological and technical factors, only 22.6% can be used for CO 2 -EOR projects. Of the 183 potential projects identified in the regional analysis phase, 99 were found to be cost-effective, with an average unit cost of € 19.07 per ton of CO 2 and a payback period of 8.71 years. The most promising of the estimated regions is characterized by a well-developed energy industry, relatively low transportation costs, numerous large and medium-sized oil fields at the final stages of development, and favorable geological conditions that minimize the cost of injection. Geographically, they are located in the North-Western, Volga, and Ural Federal districts.

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“…While a transition towards more sustainable sources of energy such as solar, wind and biomass energy is necessary, CCS has been seen as the technology to reduce CO 2 emissions in the short-term and provide more time to the energy sector to transition into an array of sustainable energy sources (Stocker et al, 2013). Retro-fitting CCS to existing coal-fired power plant can reduce the carbon emission of the power plant, but it also reduces the overall efficiency of the power plant (Wennersten et al, 2014).…”

Section: Introductionmentioning

confidence: 99%

Multi-objective optimisation of a hybrid vacuum swing adsorption and low-temperature post-combustion CO2 capture

Fong

Anderson

Xiao

et al. 2016

Journal of Cleaner Production

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The future potential for Carbon Capture and Storage in climate change mitigation – an overview from perspectives of technology, economy and risk

Cited by 203 publications

References 36 publications

Chlorine Corrosion Degradation of Low Alloyed Ferritic Steels in Temperature Range 450–550 °C

Chlorine Corrosion Degradation of Low Alloyed Ferritic Steels in Temperature Range 450–550 °C

Potential of Russian Regions to Implement CO2-Enhanced Oil Recovery

Multi-objective optimisation of a hybrid vacuum swing adsorption and low-temperature post-combustion CO2 capture

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