Transitioning to net-zero emissions presents formidable challenges, particularly in the context of existing energy infrastructure. Carbon Capture, Utilization, and Storage (CCUS) developers often face a multitude of obstacles, ranging from insufficient funding and resources to a lack of knowledge among stakeholders and community members. Despite these challenges, there are a growing number of projects and technologies demonstrating efficient and scalable solutions built upon existing infrastructure. By leveraging what's already in place, developers can avoid starting from scratch and instead focus on phasing out outdated methods in favor of new, more sustainable technologies. This approach not only conserves valuable resources but also maintains a structured system that can be relied upon if needed. From retrofitting industrial facilities to implementing innovative carbon capture technologies, these initiatives provide valuable insights and pathways for others to follow. 

On page 10, the Wyoming Hydrogen and Carbon Capture Project, spearheaded by Babcock & Wilcox (B&W) and Black Hills Energy, exemplifies the innovative solutions needed to navigate the transition to a net-zero emissions future. In a state heavily reliant on coal production, where the decline in traditional energy sectors threatens livelihoods, this project represents a transformative opportunity. By harnessing B&W's groundbreaking BrightLoop™ chemical looping technology, the project aims to convert coal into clean hydrogen fuel while capturing and sequestering CO2 emissions. This not only addresses the pressing need for decarbonization but also preserves jobs and sustains local economies. As the project progresses, it sets a precedent for others grappling with similar challenges, offering a viable blueprint for preserving jobs, revitalizing communities, and driving progress towards a low-carbon future.
The second article, found on page 14, delves into the wealth of existing subsurface oil and gas field data, showcasing its pivotal role in advancing carbon capture and storage efforts. Berrow discusses the historical evolution of oil and gas exploration techniques, emphasizing the vast amount of data generated and its relevance to understanding subsurface conditions crucial for CCUS projects. Through empirical data validation and analog data analysis, alongside simulation models, we can advocate for reducing uncertainty in subsurface modeling and maximizing the efficiency of CCUS projects. 

In the sprawling landscape of renewable energy innovation, the page 18 story of unlocking large-scale carbon removals through Bioenergy with Carbon Capture and Storage (BECCS) emerges as  a critical technology. By again repurposing existing infrastructure, echoing the sentiment of leveraging what's already in place to accelerate the transition to cleaner energy. Drax's pioneering efforts in BECCS, from successful pilots in the UK to ambitious plans for large-scale implementation in the US, exemplify this ethos of innovation within existing frameworks. 

Lastly, on page 22 we showcase Deep Sky, a company that is deploying a completely new idea while utilizing the existing opportunities in Canada. By harnessing Canada's abundant renewable resources and rich geological makeup, Deep Sky strategically positioned itself to lead the charge in carbon removal with the Deep Sky One as its flagship commercial facility. The project encompasses the entire carbon removal value chain, from capture to storage, all while emphasizing safety and environmental protection. Through innovative approaches like direct air and ocean capture, Deep Sky aimed to maintain equilibrium in the carbon cycle, mitigating the impacts of global warming and ushering in a future of sustainability. 

Together, these stories paint a picture of progress fueled by the strategic utilization of what's already in place, offering valuable insights and pathways towards a sustainable and resilient future. I hope that you enjoy the read!

Published in Issue 1, 2024 Carbon Capture Magazine