Mike Monea, CCS Knowlege Centre, has announced the release of a new study at a press conference held as part of the Accelerating CCUS global conference taking place in Edinburgh on the 28th and 29th November 2018. The press conference took place in advance of the UKCCSRC hosted conference “Priorities for CCUS Innovation”.
A much anticipated new study that demonstrates significant cost reductions for carbon capture and storage (CCS) was released today by the International CCS Knowledge Centre (Knowledge Centre). The release coincides with the International CCS Summit hosted by the Government of the United Kingdom and the International Energy Agency (IEA).
Deep capital cost reductions – a 67% decrease per tonne of captured CO2 in the case study provided in the report – is one of the key findings in the Knowledge Centre’s Shand CCS Feasibility Study. For a technology that has been perceived as expensive, the report is welcome news to those that recognize the essential role that CCS must play in addressing climate change.
It is widely accepted that CCS applied to both emissions-intensive industry and power generation has a critical role to play in mitigating greenhouse gas emissions (GHGs). In a recent report on the impacts of global warming of 1.5°C, the Intergovernmental Panel on Climate Change highlighted the unique importance of CCS technologies in meeting climate goals. With the availability of significant cost reduction based on operating and design experience gained from early projects, and further innovation yet to come, CCS is now positioning itself in a range of industries to play a critical role in delivering climate goals.
The Shand CCS Feasibility Study is based on an independent study of the construction and design of SaskPower’s Boundary Dam 3 CCS project. In addition to cost reductions, key outcomes of the Shand CCS Feasibility Study include:
1. A design that ensures improved responsiveness to fluctuating customer demand for power, which is increasingly necessary in power systems that exhibit increasing levels of variable renewable energy such as wind and solar;
2. A design that minimizes water requirements; and
3. A meaningful reduction in process complexity, allowing efficiency gains to be maximized.
“World-wide deployment of large-scale CCS could be one important step closer to broad deployment in a range of industries to support international climate change goals. We look forward to early engagement with deployers to maximize cost savings and efficiency gains.” – Mike Monea, President & CEO, International CCS Knowledge Centre
“The results of the study are quite impressive. We are pleased that our technology application contributes to the outcome, and we are very proud to be part of the Shand CCS study.” – Kenji Terasawa – Representative Director (Member of the Board), Executive Vice President, MHI Engineering Ltd.
Read the summary or the full report online at https://ccsknowledge.com/news
The Shand CCS Feasibility Study (Shand Study)
• The Shand Study was completed to the American Association of Costing Engineers (AACE) guidelines for a class 4 estimate, and applied innovative approaches in design and technologies, leading to encouraging economic outcomes for future CCS.
• The study shows that compared to the Boundary Dam 3 CCS project (BD3), a CCS system at Shand could see capture capital cost reductions of 67% per tonne of CO2 captured as well as 92% in potential savings to power plant integration capital cost. • Based on the model, the levelized cost of captured CO2 is calculated at $45US/tonne.
• Second generation CCS can capture more emissions at lower loads (i.e. power generation) such that more than a 90% capture rate is possible. This means that CCS has the potential to integrate well with renewables which provide a varying load. CO2 capture rate could be up to 97% at 62% electrical load.
• The Shand CCS system would be designed without the requirement of additional water, mitigating a key constraint for thermal plant operation retrofits and expansions.
• At this site, up to 140,000 tonnes per year of fly ash would be saleable to the concrete market (subject to demand), which could offset emissions in concrete production. This equates to a potential net reduction of 125,000 tonnes of CO2 each year resulting in a facility with net-negative CO2 emissions.
• The Shand CCS project design capacity is nominally 2 million tonnes of CO2 captured per year – twice the initial design capacity of BD3 (this economy of scale reduces costs).
Climate Change Links
• CCS is considered essential in three of the four pathways to keep global warming within 1.5oC – Intergovernmental Panel on Climate Change: Global Warming of 1.5 Degrees Celsius
• Most of the world can’t meet emissions targets without CCS – and for those that can, the median increase in mitigation cost is 138% – Intergovernmental Panel on Climate Change: IPCC AR5 2014
• International Energy Agency (IEA): Carbon Capture and Storage
• IEA Greenhouse Gas R&D Programme (IEAGHG): What is CCS?
• Global CCS Institute: CCS Readiness Index
About the International CCS Knowledge Centre (Knowledge Centre):
Operating since 2016 under the direction of an independent board, Knowledge Centre was established by BHP and SaskPower with a mandate to advance the global understanding and deployment of large-scale CCS to reduce global GHG emissions. The Knowledge Centre provides the know-how to implement large-scale CCS projects as well as CCS optimization through the base learnings from both the fully-integrated Boundary Dam 3 CCS Facility and the comprehensive second-generation CCS study, known as the Shand CCS Feasibility Study.
For more info: https://ccsknowledge.com/
Contact Jodi Woollam, Head of Communications & Media Relations email@example.com, T: +1-306-565-5956 / M: +1-306-520-3710