Geologic carbon storage resource requirements of climate change mitigation targets in Europe

Author(s):  
Yuting Zhang ◽  
Samuel Krevor ◽  
Chris Jackson

<p>To limit global warming to well below 2<sup>o</sup>C, integrated assessment models have projected that gigaton-per-year-scale carbon capture and storage is needed by c. 2050. These scenarios are unconstrained by limiting growth rates or historical data due to the limited existing deployment of the technology. A new approach using logistic growth models identifies a coupling between storage resource base (pore space underground) and minimum growth rates necessary to meet global climate change mitigation targets (Zahasky & Krevor, 2020). However, viable growth trajectories consistent with carbon storage targets remain unexplored at the regional level. Here, we show the application of logistic modelling constrained by climate change targets and assessed storage resources for the European Union (EU), the United Kingdom (UK), and Norway. This allows us to identify plausible growth trajectories of CCS development and the associated discovered storage resource base requirement in these regions. We find that the EU storage resource base is sufficient to meet storage targets of 80 MtCO<sub>2</sub>/year and 92 MtCO<sub>2</sub>/year suggested in the European Commission climate change mitigation strategy to 2050, ‘A Clean Planet for All’. However, the more ambitious goals of 298 MtCO<sub>2</sub>/year and 330 MtCO<sub>2</sub>/year are likely to require additional storage resources based predominantly in the North Sea. Results for the UK indicate that all anticipated storage targets to achieve net-zero economy are achievable, requiring no more than 42 Gt of the storage resource base for the most ambitious target. Furthermore, the UK and the Norwegian North Sea may be able to serve as a regional CO<sub>2</sub> storage hub. There are sufficient storage resources to support combined storage targets from the EU and the UK. The tools used here demonstrate a practical approach for regional stakeholders to monitor carbon storage progress towards future stated carbon abatements goals, as well as to evaluate future storage resource needs.</p><p>Zahasky, C., & Krevor, S. (2020). Global geologic carbon storage requirements of climate change mitigation scenarios. Energy & Environmental Science. https://doi.org/10.1039/D0EE00674B</p>

Author(s):  
Sebastian MEYER ◽  
Lorenzo GENESIO ◽  
Ines VOGEL ◽  
Hans-Peter SCHMIDT ◽  
Gerhard SOJA ◽  
...  

It is a relatively new concept to use biochar as soil amendment and for climate change mitigation. For this reason, the national and supranational legislation in the EU is not yet adequately prepared to regulate both the production and the application of biochar. Driven by this “regulatory gap”, voluntary biochar quality standards have been formed in Europe with the European Biochar Certificate, in the UK with the Biochar Quality Mandate and in the USA with the IBI Standard which is intended to be used internationally. In parallel to this, biochar producers and biochar users in a number of EU countries were partly successful in fitting the new biochar product into the existing national legislation for fertilisers, soil improvers and composts. The intended revision of the EC Regulation 2003/2003 on fertilisers offers the opportunity to regulate the use of biochar at the EU level. This publication summarizes the efforts on biochar standardization which have been carried out by voluntary products standards and illustrates existing legislation in EU member states, which apply to the production and use of biochar. It describes existing and planned EU regulations, which impact biochar applications and it develops recommendations on the harmonization of biochar legislation in the EU.


2020 ◽  
Vol 13 (6) ◽  
pp. 1561-1567 ◽  
Author(s):  
Christopher Zahasky ◽  
Samuel Krevor

Growth rate analysis indicates IPCC 2100 storage targets are achievable, however tradeoffs exist between CO2 storage resource requirements, storage growth rate, and growth duration, with a ceiling on required storage resources of 2700 Gt.


2021 ◽  
Author(s):  
Yuting Zhang ◽  
Christopher Jackson ◽  
Sam Krevor ◽  
Christopher Zahasky ◽  
Azka Nadhira

2021 ◽  
Author(s):  
Yuting Zhang ◽  
Samuel Krevor ◽  
Chris Jackson ◽  
Christopher Zahasky ◽  
Azka Nadhira

As a part of climate change mitigation plans in Europe, CO2 storage scenarios have been reported for the United Kingdom and the European Union with injection rates reaching 75 – 330 MtCO2 yr-1 by 2050. However, these plans are not constrained by geological properties or growth rates with precedent in the hydrocarbon industry. We use logistic models to identify growth trajectories and the associated storage resource base consistent with European targets. All of the targets represent ambitious growth, requiring average annual growth in injection rates of 9% – 15% from 2030-2050. Modelled plans are not constrained by CO2 storage availability and can be accommodated by the resources of offshore UK or Norway alone. Only if the resource base is significantly less, around 10% of current estimates, does storage availability limit mitigation plans. We further demonstrate the use of the models to define 2050 rate targets within conservative bounds of both growth rate and storage resource needs.


2022 ◽  
Vol 114 ◽  
pp. 103568
Author(s):  
Yuting Zhang ◽  
Christopher Jackson ◽  
Christopher Zahasky ◽  
Azka Nadhira ◽  
Samuel Krevor

Author(s):  
Volodymyr Shatokha

The role of European Union in defining of the international climate change mitigation policy was studied in the historic context of overcoming the differences in the approaches to reaching the sustainable development targets among the EU, the USA, China and some other influential countries. It has been shown that currently the processes of climate policy definition became more polycentric than in 1992, when the UN Framework Convention on Climate Change was signed. The ability to adjust to a new context, to build coalitions and to reach compromise with the wide range of international actors has been crucial for maintaining the EU’s influence on definition of the international climate change mitigation policy. Despite not always supportive internal and external factors, during a quarter of century the EU has managed to maintain its leadership and many times helped to enhance the ambition of global climatic targets by establishing the high level of own commitments and implementing relevant policy instruments. The EU and its members played a decisive role in ensuring of the non-interruptive international climate action during implementation of the Kyoto Protocol and in setting of the Paris Agreement which will define climate regime after 2020. Mitigation of climate change is a complicated task not only in terms of technology and socio-economic aspects but also with respect to policy implementation. Therefore the EU leadership in this sphere remains very important.


Author(s):  
Peter Hägel

Chapter 6 presents two cases of billionaires whose pursuit of wealth in the global economy has broader political consequences. It looks at how Charles and David Koch have tried to limit climate change mitigation in order to protect the fossil fuel–based business interests of their conglomerate Koch Industries. The Koch brothers spread climate change skepticism via the funding of think tanks and public advocacy, and they finance campaigns boosting politicians that oppose climate change mitigation. In Rupert Murdoch’s case, his News Corporation has been his main political resource. He has used the opinion-shaping power of his media empire to extract favors from politicians abroad, especially in the UK, but also in Australia, by offering support (or threatening hostility) during election times.


2012 ◽  
Vol 1 (1) ◽  
pp. 7-37
Author(s):  
Bruno Zeller ◽  
Michael Longo

In a fragmented global environment, the efforts of state and non-state actors are important in assessing the state of play on climate change mitigation actions around the world. This article will consider from a comparative perspective the various legislative models for addressing climate change and the reduction of GHG emissions with particular focus on the EU, USA, Australia and Switzerland. As legal developments are not limited to legislative schemes, this article will examine the voluntary carbon offset market and other trade related solutions to GHG emissions which have emerged in the absence of mandatory limitation systems. Also warranting attention are the actions of private parties in common law jurisdictions to bring legal proceedings against power companies for damage caused by climate change. Together, these developments demonstrate that climate change abatement is not the sole remit of the legislature.


2019 ◽  
Vol 14 (2) ◽  
Author(s):  
Terry Louise Kepel

North Sulawesi is one of the provinces that implements national / regional action plan (RAN / RAD) policies as part of a national effort to climate change mitigation. One of the land-based mitigation activities in North Sulawesi is to measure and monitore  biomass and carbon stocks in forests including coastal forests where the measurement area is still limited. In 2013-2015, Blue Carbon Research Group  conducted research in four locations in North Sulawesi, which aims to analyze the ecological conditions and the ability of coastal ecosystems, especially mangrove in sequestering carbon. Study sites situated in Ratatotok - Southeast Minahasa Regency, Kema - North Minahasa Regency, Lembeh Island – Bitung City and Sangihe Island – Sangihe Regency. A total of 17 species identified where B. gymnorrhiza, R. mucronata and S. alba found in all locations. Species diversity ranges from low to moderate, where species distribution is uneven. Carbon storage capacity is equal to 343.85 Mg C ha-1 in Ratatotok, 254,35 Mg C ha-1 in Lembeh, 387,95 Mg C ha-1 in Kema and 594,83 Mg C ha-1 in Sangihe. More than 59% of carbon storage are in the sediment. The average value of carbon storage in the four research sites is 456,86 Mg C ha-1 or 5,70 Tg C after converted to a total area of mangrove ecosystems in North Sulawesi. The value is equal to absorption of atmospheric CO2 by 20.70 Tg CO2e. Potential emission due to changes in mangrove conversion reach 0.42 Tg CO2e. Efforts to increase the contribution of reducing North Sulawesi emissions can be achieved by implementing emission reduction interventions through the rehabilitation and conservation of mangrove ecosystems. 


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