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Monday, December 22, 2025

Carbon is accounted for.

Carbon Is Accounted For Announcing the World’s First Baseload Power Plant Designed Around Carbon Accountability A World‑First Carbon Recycling Technology (CRT) Demonstration   For decades, the global energy conversation has revolved around a single question: how do we reduce emissions while keeping the lights on? Despite unprecedented investment in renewable energy, storage, offsets, and carbon capture, one flaw persists: Carbon has never been fully accounted for within the power system itself. CRT addresses this gap by designing carbon into the system boundary. CRT STRUCTURE CRT is a closed-loop system deliberately divided into two auditable units: Fuel Production Unit • Renewable electricity → Hydrogen • Hydrogen + CO₂ → Renewable Synthetic Methane Gas (RSMG) Power Generation Unit • RSMG → Electricity • CO₂ captured and returned to fuel production The carbon loop is physically closed and regulator-verifiable. ZERO EMISSIONS BY DESIGN Carbon does not disappear. Carbon circulates. This enables 24/7 baseload power with zero net emissions—without offsets or fossil dependence. A WORLD-FIRST DEMONSTRATION This project represents the first baseload power plant designed entirely around carbon accountability and closed-loop recycling.

Friday, December 19, 2025

Deacrbonisation Pathway for 2026

CEWT POSITION STATEMENT
Decarbonisation Pathway

A system-based, thermodynamically defined approach to zero emissions. Carbon Recycling Technology (CRT) closes the carbon loop within a defined system boundary.

Core Definition

Decarbonisation = removal of carbon from carbon-containing molecules and disciplined management of that carbon.

Thermodynamic Test

Does carbon exit into the surroundings, or remain inside a closed system boundary?

What decarbonisation actually means

“Decarbonisation” is often used interchangeably with electrification or hydrogen adoption. From chemistry and thermodynamics, it has a precise meaning.

Decarbonisation is the removal of carbon from carbon-containing molecules and the disciplined management and reuse of that carbon within a defined system boundary.

Hydrogen is an independent element and cannot itself be “decarbonised”. Hydrogen may play an important role, but hydrogen alone does not define a complete decarbonisation pathway.

Thermodynamics: system and surroundings

Every valid mass balance begins by defining the system and the surroundings. Without explicit boundaries, carbon accounting becomes virtual.

System vs Surroundings diagram
Caption: Conventional systems allow carbon to exit the system boundary and enter the surroundings (atmosphere). In a closed-loop system such as CRT, carbon is captured and recycled back into fuel molecules within the system boundary, preventing net emissions.
CRT: a closed-loop decarbonisation pathway

CRT integrates decarbonisation and recarbonisation within a single bounded system. Carbon remains inside the system rather than being exported to the surroundings.

Step 1 — Decarbonisation

  • Carbon removed from exhaust streams
  • Carbon captured inside the system boundary
  • Auditable mass balance

Step 2 — Recarbonisation

  • Captured carbon reused to form fuel molecules
  • Hydrogen used as reducing agent and stoichiometric balancer
  • Zero net carbon leakage to the surroundings
Policy clarity: from accounting to accountability

CEWT’s position is that decarbonisation must be grounded in explicit system boundaries and measurable carbon flows. Offsets and open boundaries cannot replace physical accountability.

Key policy question: Where does the carbon go — into the surroundings, or does it remain inside the system?

CEWT policy principle

  • System boundaries must be explicit for any decarbonisation claim.
  • Carbon flows must be measurable and auditable (mass balance).
  • Closed-loop pathways enable physical accountability, not virtual neutrality.