COP31: Carbon Recycling Should Become the Next ESG Agenda

COP31: Carbon Recycling Should Become the Next ESG Agenda As COP31 begins in Türkiye, I believe we must expand the conversation from carbon emissions to carbon management across the entire industrial lifecycle. Solar panels, batteries, transmission infrastructure, and conventional power plants all carry embodied emissions. Reducing operational emissions is essential, but it is only part of the challenge. Nature demonstrates the importance of carbon circulation. Industry should examine how engineering can apply similar principles. Treat carbon not merely as waste, but as a potential resource that can be recovered, recycled, and reused. At Clean Energy and Water Technologies (CEWT), we are exploring this principle through Carbon Recycling Technology (CRT), integrating CO₂ recovery, hydrogen, methanation, electricity generation and useful heat recovery. The environmental benefit must be established through complete mass and energy balances, lifecycle assessment and independently verified emissions reductions. The next ESG agenda should move beyond declarations towards measurable circular-carbon engineering. Carbon recycling is not a substitute for reducing emissions. It is another pathway that deserves rigorous scientific, engineering, and economic evaluation. ESG by Design, Not by Declaration. #COP31 #CarbonRecycling #CircularEconomy #ESG #Decarbonisation #ChemicalEngineering #CEWT Now Available on Amazon Kindle:

ESG by Design, Not ESG by Declaration

A proposed CEWT thought-leadership article series True sustainability begins at the drawing board, not in the annual sustainability report. At Clean Energy and Water Technologies (CEWT), the proposition behind Carbon Recycling Technology (CRT) is that environmental, social, and governance principles should be integrated into process design, resource balances, operational safeguards, and reporting systems—not added as an afterthought. 1. Environmental Integrity Carbon recycling, thermodynamic boundaries, resource conservation and lifecycle emissions. The engineering objective is to recover and reuse carbon, manage water and useful heat, and measure residual impacts across the complete system—not merely an individual process unit. 2. Social Responsibility Reliable power, responsible water use, industrial development and community benefits. For AI data centres, this includes examining electricity and water demands, safety, local infrastructure impacts and the value of useful cooling and heat. 3. Governance Through Engineering Transparent carbon and hydrogen ledgers, independently verified mass and energy balances, operational monitoring and measurable performance. Governance should make environmental claims traceable to engineering data. From principle to proof Embedding ESG in the design is a commitment to measurable performance, not proof that the completed system achieves net-zero emissions. CRT claims should be assessed against defined alternatives using consistent system boundaries, renewable electricity accounting, lifecycle emissions, resource consumption, and independent verification. Central message: ESG is not a declaration of intent; it is an engineering discipline that must be demonstrated through evidence.

Public Climate Finance: Are We Funding Carbon Capture or Actual Emissions Reduction?

Public Climate Finance: Are We Funding Carbon Capture or Actual Emissions Reduction? Why every dollar of public investment should be measured against independently verified life-cycle greenhouse gas reductions. The central argument should be: Capturing one tonne of CO₂ is not necessarily equivalent to preventing one tonne of greenhouse gas emissions. A credible assessment must account for the entire process: energy consumption, upstream emissions, CO₂ transportation, storage performance, leakage, additional infrastructure and long-term liabilities. Proposed article structure 1. The global CCS investment trend: Why governments, development banks and major EPC contractors are investing heavily in CCS infrastructure. 2. Capture versus actual emissions reduction: The difference between CO₂ captured at a plant and verified net greenhouse gas reductions across the full life cycle. 3. The 25-year performance question: Who guarantees injection capacity, geological containment and environmental performance throughout a project's commercial life? 4. Public financial accountability: Should taxpayers carry long-term liabilities that private contractors and financiers cannot fully guarantee? 5. A technology-neutral investment framework: Compare CCS, carbon recycling, electrification and other technologies on an equivalent basis. 6. CEWT's CRT as an alternative approach: Why smaller demonstrations of carbon circulation deserve consideration, provided their energy consumption, life-cycle emissions and economics are independently verified. The metric that should drive our argument Climate Effectiveness = Tonnes of CO₂e Avoided / $ Invested Unit: tonnes of CO₂ equivalent avoided per million dollars of public funding (tCO₂e/A$ million). The higher the value, the greater the measured emissions reduction per dollar of public investment. We should also account for the timing and durability of emissions reductions, and distinguish genuinely avoided emissions from temporary carbon utilisation. The article should not claim that CCS has no place in industrial decarbonisation. Instead, it should challenge the assumption that the quantity of CO₂ captured and injected is sufficient evidence of a successful climate investment. I would close the article with this question: If public institutions demand financial accountability for every dollar invested, should they not demand equally rigorous environmental accountability for every tonne of CO₂ claimed to have been avoided? This book is available on Amazon.Australia. Limk : https://www.amzaon.com.au/dp/B0HPNFNP4Z

THE CLIMATE PARADOX

The Carbons Emissions and Climate Change.