Enabling a CCS industry through research at the CO2CRC National Otway Research Facility

2019 ◽  
Vol 59 (2) ◽  
pp. 936
Author(s):  
Matthias Raab ◽  
Charles Jenkins ◽  
Roman Pevzner ◽  
Abdul Qader

The CO2CRC Otway Research Facility is Australia’s first demonstration of carbon capture and storage. The Otway Research Facility was established in 2007 to demonstrate scientific, technical, legal, regulatory and social aspects of successfully operating a carbon capture and storage (CCS) project. The facility is also globally unique as it has its own CO2 production well (Buttress-1) on site. For more than a decade, experiments with strong national and international collaboration at the Otway Research Facility continue to provide strong value to an emerging global CCS industry, not only due to the activities taking place, but also because of the specific scientific, social, political and regulatory environments at the time of execution. The Otway facility has one of world’s most comprehensive characterisation, injection, monitoring and verification programs, and its successful project outcomes have not only met and helped further guide CCS legislation within Australia, but also assisted underpinning the regulatory and business case for large commercial CCS projects in Australia and overseas. In addition, the Otway Capture Facility is a hub for CO2 capture research for high pressure and high CO2 content natural gases. Tests are being conducted using adsorption and three different types of membrane-based gas separation technologies. These technologies have the potential to become available for natural gas processing on production platforms and floating production storage and offloading vessels.

2015 ◽  
Vol 12 (12) ◽  
pp. 8909-8937
Author(s):  
N. Hicks ◽  
U. Vik ◽  
P. Taylor ◽  
E. Ladoukakis ◽  
J. Park ◽  
...  

Abstract. Carbon capture and storage (CCS) is a developing technology that seeks to mitigate against the impact of increasing anthropogenic carbon dioxide (CO2) production by capturing CO2 from large point source emitters. After capture the CO2 is compressed and transported to a reservoir where it is stored for geological time scales. Potential leakages from CCS projects, where stored CO2 migrates through the overlaying sediments, are likely to have severe implications on benthic and marine ecosystems. Nonetheless, prokaryotic response to elevated CO2 concentrations has been suggested as one of the first detectable warnings if a CO2 leakage should occur. Applying properties of prokaryotic communities (i.e. community composition and metabolic status) as a novel CO2 monitoring application is highly reliable within a multidisciplinary framework, where deviations from the baseline can easily be identified. In this paper we review current knowledge about the impact of CO2 leakages on marine sediments from a multidisciplinary-based monitoring perspective. We focus on aspects from the fields of biology, geophysics, and chemistry, and discuss a case study example. We argue the importance of an integrative multidisciplinary approach, incorporating biogeochemistry, geophysics, microbial ecology and modelling, with a particular emphasis on metagenomic techniques and novel bioinformatics, for future CCS monitoring. Within this framework, we consider that an effective CCS monitoring programme will ensure that large-scale leakages with potentially devastating effects for the overlaying ecosystem are avoided. Furthermore, the multidisciplinary approach suggested here for CCS monitoring is generic, and can be adapted to other systems of interest.


Sign in / Sign up

Export Citation Format

Share Document