Javascript must be enabled to continue!
Mind the gap: will slow progress on CO2 storage undermine net zero by 2050?
View through CrossRef
A global path to net zero requires the permanent storage of carbon dioxide to reduce and remove atmospheric greenhouse gas emissions. We present an analysis of the gap between the CO2 storage required to meet net zero targets and the slow maturation of regional storage resources. We estimate that European storage rates need to increase 30-to-100x by 2030 to meet net zero by 2050. China and North America face a similar challenge. The slow global progress of CO2 storage undermines the latest IPCC, IEA, and EU transition pathways to net zero by 2050. These pathways imply a radically increased demand for carbon capture and storage and negative emission technologies, NETs, contributing 500 of 700 megatonnes of CO2 removal annually by 2050. Here, we investigate if sufficient storage can be developed in time. China (30%), North America (15%) and Europe (10%) dominate global emissions. We choose to analyse Europe as a data-rich exemplar. Assuming net zero in 2050, we back-calculate the storage required under three scenarios of low, medium, and high CCS demand. Even the low demand scenario requires 0.2 Gt of storage by 2030, increasing to 1.3 Gt by 2050. The moderate and high demand scenarios require 5-to-8 Gt by 2050. The current storage rate in Europe is 0.001 Gt/yr. There is a huge gap between policy demand and storage supply. Adaptation of existing hydrocarbon technology has the potential to close this gap, with CCS for the entire EU requiring less than half the historic rate of hydrocarbon exploration and development in the UK North Sea from 1980 to 2010. Counter to expectation, storage cannot be delivered by exponential growth but requires an early and sustained investment of 30-to-50 boreholes per year starting before 2030 to build sufficient capacity. A five-year lead-time to identify and mature prospects needs policy intervention before 2025. Continued policy deferral will lock Europe into a low CCS pathway that restricts the contribution of NETs at a potential cost of €100 billion for every gigatonne delayed beyond 2050. North America and China require similar policy intervention to close the gap on CO2 storage and net zero.
Title: Mind the gap: will slow progress on CO2 storage undermine net zero by 2050?
Description:
A global path to net zero requires the permanent storage of carbon dioxide to reduce and remove atmospheric greenhouse gas emissions.
We present an analysis of the gap between the CO2 storage required to meet net zero targets and the slow maturation of regional storage resources.
We estimate that European storage rates need to increase 30-to-100x by 2030 to meet net zero by 2050.
China and North America face a similar challenge.
The slow global progress of CO2 storage undermines the latest IPCC, IEA, and EU transition pathways to net zero by 2050.
These pathways imply a radically increased demand for carbon capture and storage and negative emission technologies, NETs, contributing 500 of 700 megatonnes of CO2 removal annually by 2050.
Here, we investigate if sufficient storage can be developed in time.
China (30%), North America (15%) and Europe (10%) dominate global emissions.
We choose to analyse Europe as a data-rich exemplar.
Assuming net zero in 2050, we back-calculate the storage required under three scenarios of low, medium, and high CCS demand.
Even the low demand scenario requires 0.
2 Gt of storage by 2030, increasing to 1.
3 Gt by 2050.
The moderate and high demand scenarios require 5-to-8 Gt by 2050.
The current storage rate in Europe is 0.
001 Gt/yr.
There is a huge gap between policy demand and storage supply.
Adaptation of existing hydrocarbon technology has the potential to close this gap, with CCS for the entire EU requiring less than half the historic rate of hydrocarbon exploration and development in the UK North Sea from 1980 to 2010.
Counter to expectation, storage cannot be delivered by exponential growth but requires an early and sustained investment of 30-to-50 boreholes per year starting before 2030 to build sufficient capacity.
A five-year lead-time to identify and mature prospects needs policy intervention before 2025.
Continued policy deferral will lock Europe into a low CCS pathway that restricts the contribution of NETs at a potential cost of €100 billion for every gigatonne delayed beyond 2050.
North America and China require similar policy intervention to close the gap on CO2 storage and net zero.
Related Results
Rapid Large-scale Trapping of CO2 via Dissolution in US Natural CO2 Reservoirs
Rapid Large-scale Trapping of CO2 via Dissolution in US Natural CO2 Reservoirs
Naturally occurring CO2 reservoirs across the USA are critical natural analogues of long-term CO2 storage in the subsurface over geological timescales and provide valuable insights...
Preliminary Assessment of CO2 Storage Potential in the H-59 Block in Jilin Oilfield CCS Project
Preliminary Assessment of CO2 Storage Potential in the H-59 Block in Jilin Oilfield CCS Project
The block H-59 in the Daqingzijing region was selected as a pilot site for the first stage of the CCS project in Jilin oilfield after an extensive assessment. This block is a light...
Design And Operation Of The Levelland Unit CO2 Injection Facility
Design And Operation Of The Levelland Unit CO2 Injection Facility
Abstract
The Levelland CO2 Facility provides CO2 storageand handling capacity for the five CO2 injection pilots located in the Levelland Unit. Facilities pilots l...
2. Mou Zongsan and the Critique of the Cognitive Mind
2. Mou Zongsan and the Critique of the Cognitive Mind
The second chapter analyzes in depth Mou’s Critique of the Cognitive Mind. As the most mature work characterizing his earlier fifteen years of endeavor in logic and epistemology, i...
Geologic CO2 Storage in Oil Fields: Considerations for Successful Sites
Geologic CO2 Storage in Oil Fields: Considerations for Successful Sites
Abstract
Geologic storage of anthropogenic CO2 is being considered and tested in several subsurface settings. Deep brine-bearing formations hold the promise of stori...
A Novel Approach to Accelerate CO2 Mineralization Storage through CO2 Nanobubbles
A Novel Approach to Accelerate CO2 Mineralization Storage through CO2 Nanobubbles
Abstract
Carbon capture and storage (CCS) technology is a crucial means to address global climate change and reduce atmospheric CO2. CO2 mineralization storage can s...
Appraising Carbon Geological-Storage Potential in Saline Aquifers Using Pressure-Transient Analysis
Appraising Carbon Geological-Storage Potential in Saline Aquifers Using Pressure-Transient Analysis
ABSTRACT
Pressure transient analysis (PTA), as a powerful technique for CO2 injection data analysis, plays an essential role in assessing the CO2 storage performance...
Evaluation of Kaolinite and activated carbon performance for CO2 capture
Evaluation of Kaolinite and activated carbon performance for CO2 capture
Global climate change is one of the major threats facing the world today and can be due to increased atmospheric concentrations of greenhouse gases (GHGs), such as carbon dioxide (...

