Carbon Recycling Technology: The Missing Dimension in the Global Net Zero Transition

Carbon Recycling Technology: The Missing Dimension in the Global Net Zero Transition Clean Energy and Water Technologies Pty Ltd (CEWT) | October 2026 Executive perspective Net zero requires more than replacing electricity generation. Countries must also provide dependable industrial energy, replace fossil feedstocks and account for carbon across entire supply chains. CEWT proposes that Carbon Recycling Technology (CRT) deserves assessment alongside established pathways: recover carbon after use, regenerate a useful fuel with renewable hydrogen, and circulate that carbon within an integrated industrial system. The case is for disciplined demonstration and fair comparison, with support tied to measured emissions reductions and useful energy services. “Missing dimension” expresses a policy argument for greater attention to integrated carbon loops; it does not imply that carbon utilisation or methanation is new. This article describes technical potential and development priorities, not independently validated CEWT performance, approved funding or demonstrated commercial returns. Why countries struggle to deliver net zero The transition is a coordination problem. Renewable generation, transmission, storage, industrial equipment and customer demand must develop together, often across different approval processes and investment cycles. Capital costs, financing risk, limited infrastructure and uncertainty about who will pay for lower-emissions products can delay otherwise plausible projects. Long-lived industrial assets and the need for reliable energy make conversion particularly difficult. Hydrogen development illustrates the gap between technical ambition and bankable demand. [1] Public funding already supports several complementary routes: renewable electricity and grids; batteries, pumped storage and demand flexibility; efficiency and electrification; renewable hydrogen and derivative fuels; and carbon capture, utilisation or geological storage where appropriate. Australia’s ARENA programs support renewable-energy innovation and deployment, while the National Reconstruction Fund Corporation (NRFC) provides investment finance within its mandate. These pathways address different needs; no single technology resolves every sector’s constraints. [2,3] CEWT CRT and the proposed closed carbon loop The proposed architecture links carbon recovery, hydrogen production, synthetic methane, energy conversion and heat and water integration. In principle, recovered CO₂ and CO can react with hydrogen to produce methane, which can be stored and used before carbon is recovered again. This makes carbon a managed circulating inventory. Real systems will still require make-up inputs and treatment of losses. CEWT’s public material describes this development concept and a proposed Victorian demonstration. [4] CO₂ + 4H2=> CH4 + 2 H2O and CO + 3 H2=> CH4 + H2O This balanced equation combines CO₂ and CO methanation for an equimolar carbon feed. It is a reaction balance, not a complete plant flowsheet. If the available feed is CO₂ alone, the net methanation reaction is CO₂ + 4H₂ → CH₄ + 2H₂O. Any process producing the CO feed must be included in the overall energy and emissions balance.   Carbon inventory is not lifecycle net zero Retaining carbon within a plant boundary can reduce fresh fossil-carbon demand, but it does not by itself establish net zero. The assessment must include the initial carbon charge, make-up carbon, fuel sourcing, venting, purges, methane leakage, start-up and shutdown, imported electricity, equipment manufacture and end-of-life treatment. Capture efficiency at one unit is different from whole-site carbon retention over a year. Combustion still forms CO₂. Its subsequent recovery must be measured rather than assumed. Fossil-derived carbon that eventually escapes remains an emission; recycling it delays release and may displace fresh fuel, but is not permanent removal. Atmospheric or sustainably sourced biogenic carbon can change the accounting, subject to supply-chain impacts and consistent boundaries. An independent lifecycle assessment must prevent double counting of captured carbon and avoided emissions. The IEA similarly identifies carbon source, displaced product and retention time as central to utilisation’s climate value. [5] Renewable hydrogen supplies the energy Carbon is a carrier in this loop, not an energy source that can be regenerated without an external input. Electrolysis requires substantial electricity. For an illustrative engineering calculation, assume 55 kWh per kg of hydrogen, consistent with the US Department of Energy’s published PEM system status benchmark; this is not a CEWT measured value or a guaranteed procurement specification. [6] The mixed-feed equation requires approximately 0.44 kg H₂ per kg of methane. At the stated assumption, hydrogen production alone therefore consumes about 24 kWh per kg of methane. A CO₂-only route requires about 0.50 kg H₂, or 28 kWh per kg of methane. These are stoichiometric illustrations before losses, CO preparation, capture, gas conditioning, compression and other site loads. Renewable generation and electrolyser sizing must follow hourly operating schedules, not merely annual energy matching. RSNG storage and firming Recycled synthetic natural gas (RSNG), used here to mean methane regenerated from recovered carbon, could store renewable energy for dispatch when wind or solar output is low. The design must establish storage pressure or liquefaction needs, usable inventory, gas quality, leakage controls and generator compatibility. Existing gas infrastructure cannot be assumed available or suitable without technical and regulatory checks. Electricity-to-hydrogen-to-methane-to-electricity conversion incurs losses at each stage. Its value therefore depends on the duration and reliability service required, storage cost and useful heat demand. Batteries, direct hydrogen storage, demand response and grid supply should be tested against the same service specification. Stored methane can provide dispatchability; it does not establish self-sufficient operation without adequate renewable recharge energy and reserve inventory. Recovering methanation heat Methanation is exothermic. Recoverable heat could serve process heating or, at suitable temperatures, absorption cooling and other thermal duties. Heat integration may reduce purchased energy, but the recoverable quantity and value depend on reactor conditions, heat-exchanger performance and coincident demand. Thermal energy cannot be counted as electrical output: report net electricity, useful heat and cooling separately, with each credit tied to a real displaced service.   Two Australian applications to test Victoria | 20 MW trigeneration. CEWT’s proposed Latrobe Valley data-centre demonstration offers a setting to assess electricity, heating and cooling integration. [4] A feasibility study should define whether 20 MW denotes gross generation, net export or customer load; quantify capture and electrolysis loads; and reconcile renewable supply, storage duration and cooling demand. An assumed continuous 20 MW net electrical service would deliver 175.2 GWh annually before outages, not a forecast of project output. Reliability, water demand, noise and local permitting require site-specific assessment. Western Australia | Boodarie power and green iron. The application considered here is an integrated concept, not a verified project commitment. Firm power and recovered heat could support an industrial precinct, while hydrogen-rich reducing gas could serve ironmaking. A carbon-containing reduction route would require recovery of CO₂ from process gas and management of carbon in product, dust and purge streams. Compare it with direct hydrogen reduction and alternative firm-power options using the same iron quality, production rate and emissions boundary. No Boodarie capacity, partner agreement or performance outcome is assumed. A measured funding case for NRFC and ARENA Technology-neutral assessment should compare outcomes while respecting each institution’s mandate. ARENA’s Advancing Renewables Program requires a clear renewable-energy nexus. NRFC offers investment finance rather than grants and assesses mandate fit, investment merit and risk. Potential relevance is not eligibility or approval; proponents must check current guidelines and obtain formal assessment. [2,3] • Fund evidence in stages. Begin with independently reviewed mass, energy and carbon balances and a lifecycle baseline. Progress to an instrumented pilot and integrated demonstration only after agreed technical and safety milestones. • Compare equivalent services. Assess lifecycle cost per tonne of CO₂-equivalent avoided, dependable power, useful thermal output and product quality against credible alternatives. Publish sensitivity to electricity price, utilisation, hydrogen cost, capture performance and methane leakage. • Make verification contractual. Require metered imports and exports, carbon closure, availability, parasitic loads, start-up emissions and catalyst durability. Test realistic renewable variability and require independent review of results. • Match capital to risk. Consider eligible ARENA support for renewable integration and demonstration learning, and NRFC finance for qualifying, investable industrial capability. Seek customer offtake and private co-investment; avoid support premised on unverified zero-emissions or profitability claims. Conclusion CRT merits a place in net zero assessment where circular carbon, energy storage and industrial heat create measurable system value. CEWT’s strongest case is a transparent demonstration program that establishes what can be retained, what energy must be supplied, what emissions remain and what customers will pay. Funding should follow that evidence. References [1] IEA, Global Hydrogen Review 2025, executive summary. iea.org/reports/global-hydrogen-review-2025/executive-summary [2] ARENA, Advancing Renewables Program and current guidelines. arena.gov.au/funding/advancing-renewables-program/ [3] NRFC, Investment guidance. nrf.gov.au/what-we-do/investment-guidance [4] CEWT, public CRT and 20 MW demonstration overview, October 2026. cewttech.com/ (proponent material, not independent validation). [5] IEA, Putting CO₂ to Use (2019). iea.org/reports/putting-co2-to-use [6] US DOE, Technical Targets for PEM Electrolysis, system efficiency table. energy.gov/cmei/fuels/technical-targets-proton-exchange-membrane-electrolysis

CEWT's 20 MW CRT Trigeneration — A Potential Game Changer for Data Centr

CEWT's 20 MW CRT Trigeneration — A Potential Game Changer for Data Centres CEWT's proposed 20 MW Carbon Recycling Technology (CRT)-based Trigeneration system has the potential to be a game changer for data centres and future baseload power generation, delivering reliable electricity, integrated cooling and substantially reduced carbon emissions. Unlike conventional natural-gas power generation, CRT is designed to recover CO₂ and convert it back into Recycled Synthetic Natural Gas (RSNG) using hydrogen-rich synthesis gas and renewable hydrogen. The regenerated methane is continuously recycled within the integrated thermodynamic system, reducing the requirement for fresh fossil carbon. The proposed system combines: • 20 MW of continuous power generation • A targeted 91% overall trigeneration efficiency • Integrated heat recovery and data centre cooling • CO₂ recovery, methanation and RSNG recycling • Water recovery and reuse The fundamental objective is not merely to capture carbon emissions but to recycle carbon back into the fuel from which it originated. For the rapidly expanding AI data centre industry, this represents a potential pathway towards reliable, grid-independent power with significantly lower lifecycle carbon emissions. The same principle can be extended to larger baseload power generation and energy-intensive industrial applications. The future of sustainable energy is not simply about replacing fossil fuels. It is also about recycling carbon while progressively replacing fossil energy with renewable energy. Clean Energy and Water Technologies Pty Ltd (CEWT) #CarbonRecycling #Trigeneration #DataCentres #CleanEnergy #BaseloadPower #Hydrogen #Decarbonisation #EnergyInnovation

CLEAN ENERGY AND WATER TECHNOLOGIES PTY LTD (CEWT) - Expression of Interest (EOI)

CLEAN ENERGY AND WATER TECHNOLOGIES PTY LTD (CEWT) EXPRESSION OF INTEREST 20 MW CRT Trigeneration Project | Latrobe Valley, Victoria, Australia Invitation to data centre developers and operators for long-term dedicated electricity and cooling offtake 1 Invitation Clean Energy and Water Technologies Pty Ltd (CEWT) invites expressions of interest from established data centre developers, operators and project sponsors seeking dedicated electricity and integrated cooling for new or expanding AI, cloud and high-density computing facilities in Victoria. CEWT is progressing a proposed 20 MW Carbon Recycling Technology (CRT) trigeneration project in the Latrobe Valley, with potential future expansion to 30 MW. The preferred model is for an independent data centre operator to develop, own and operate its computing facility, while a dedicated energy project company (SPV) develops and supplies electricity and agreed cooling services under long-term commercial agreements. 2 Proposed energy and cooling offering • Indicative 20 MW-class continuous electricity supply, subject to final plant design, availability guarantees and contractual delivery point. • Behind-the-meter supply architecture intended to reduce dependence on public-grid capacity and connection timing; electrical resilience and backup arrangements to be jointly engineered. • Integrated heat recovery from generation and methanation, with potential absorption chilling and complementary cooling equipment, sized to the operator’s thermal requirements. • A long-term power purchase agreement (PPA), potentially paired with a cooling services agreement, with pricing, indexation and performance terms to be negotiated. • Provision for staged expansion to approximately 30 MW, subject to demand, site conditions, permitting and investment approval. 3 CRT technology proposition CRT is an integrated process concept in which methane is used as an energy carrier, carbon dioxide is recovered from the generation process, and recovered carbon oxides are converted back to methane using hydrogen-rich synthesis gas and supplementary hydrogen. The proposed system integrates reforming, CO₂ recovery, methanation, power generation and useful heat recovery. The project is intended to demonstrate measurable carbon circulation and energy integration. Any claims regarding low emissions, defossilisation, renewable content or carbon intensity will be subject to validated mass and energy balances, renewable-energy sourcing, operating performance and independent lifecycle assessment. The technology is at project-development stage; performance is not yet commercially demonstrated at this site. 4 Commercial participation CEWT proposes to retain CRT intellectual property and license the technology to the project SPV. The SPV would arrange project financing, procurement, construction and operation of the energy infrastructure, potentially with specialist technology and investment partners. The data centre operator would remain responsible for its own land/facility requirements, IT infrastructure, customer relationships and data centre operations, unless otherwise agreed.   EOI | CEWT 20 MW CRT TRIGENERATION 5 Information requested from interested parties Respondents are invited to provide a concise, non-binding outline covering: • Company profile, relevant operating experience and principal contact. • Proposed site or preferred Victorian location, development stage and target commissioning window. • Expected electricity demand (MW), load profile, uptime/redundancy requirements and anticipated expansion. • Cooling demand (MW thermal), supply/return temperatures, cooling technology preferences and water constraints. • Preferred contract duration, commercial structure and willingness to discuss conditional power and cooling offtake. • Indicative site access, permitting, interface and project-development requirements. 6 Proposed engagement process CEWT expects to review EOIs and invite selected respondents to confidential technical and commercial discussions. Subject to mutual interest, the parties may progress to a non-disclosure agreement, preliminary load and cooling studies, a non-binding memorandum of understanding and negotiation of conditional offtake documentation. Technical due diligence will include integrated mass and energy balances, firm-capacity and redundancy design, hydrogen and renewable electricity sourcing, emissions verification, cooling performance, water requirements, project economics and delivery schedule. 7 Indicative project status and conditions The 20 MW project is proposed, not yet financed or committed for construction. The capacity, performance, timetable, tariffs, carbon benefits and availability of cooling are indicative and subject to engineering, supplier confirmation, site selection, permits, investment approval and binding agreements. This EOI is a market-sounding invitation only; it is not an offer to supply energy, a procurement tender or a commitment by CEWT to proceed. 8 Submitting an expression of interest Interested data centre developers and operators are invited to submit a short company introduction and an outline of their electricity and cooling requirements, referencing “CEWT 20 MW CRT Trigeneration – Data Centre Offtake EOI”. EOI contact: Managing Director, Clean Energy and Water Technologies Pty Ltd (CEWT) Email/submission channel: ahilan@cewt.tech Response date: 31 Dec 2026 Location: Victoria, Australia | Project focus: Latrobe Valley Confidential technical and commercial details will be shared with shortlisted parties under appropriate arrangements.

BEYOND ARTIFICIAL INTELLIGENCE

BEYOND ARTIFICIAL INTELLIGENCE The Inner Light, Emotional Intelligence and the Fullness of Existence A philosophical foundation for embedded Emotional Intelligence in AI Inspired by God Plays Dice — Two Lights | Dharma Artificial Intelligence is advancing at an extraordinary pace. Machines can analyse scientific information, solve mathematical problems and support complex decisions. Yet a fundamental question remains: what is the source of intelligence, and can intelligence alone adequately understand human existence? Human life encompasses biological experience, emotions, relationships, subjective awareness and the recognition that individual existence is temporary. The next stage of AI development should therefore go beyond computational performance. Emotional Intelligence (EI) should be embedded within AI reasoning and decision-making, rather than added as a superficial conversational feature. 1. Awareness is the source of intelligence In God Plays Dice — Two Lights, I describe an experience that led me to distinguish individual identity from the underlying awareness of existence. Every human being says “I”: the scientist who discovers, the mathematician who calculates, and the philosopher who thinks. Their achievements differ, but their biological lives are finite. My experience led me to understand that “I” does not ultimately refer to the individual personality, Ahilan. It refers to Ishwara — the Inner Light or underlying Awareness. From this spiritual perspective, awareness is the source of intelligence; intelligence is not the source of awareness. This is a philosophical understanding arising from personal experience, not an experimentally established theory of the origin of intelligence. 2. From awareness to knowledge — and action or non-action The proposed relationship is: Awareness → Intelligence → Knowledge → Action or Non-Action. Intelligence enables knowledge to emerge, but knowledge does not always require action. At times, the appropriate response is restraint, reflection or silence. A capable AI should therefore evaluate whether intervention is needed, rather than assuming that every request requires immediate action. 3. Sri Ramana Maharshi and the meaning of silence Sri Ramana Maharshi’s silence, in the Advaita tradition, is understood not simply as an absence of speech but as a natural expression of Self-realisation. Silence need not indicate an absence of intelligence or understanding. Nor should it be reduced to a calculated decision not to act. For AI engineering, the practical parallel is limited but useful: a system can be designed to recognise uncertainty, respect autonomy and refrain from unnecessary intervention. This does not imply that computational restraint is equivalent to spiritual realisation. 4. Sat–Chit–Ananda: existence, awareness and fullness Sat–Chit–Ananda is often rendered as Existence, Consciousness and Bliss. My emphasis is on Ananda as Fullness or Completeness, rather than a passing emotional pleasure. Sat is Existence; Chit is Awareness; Ananda is Fullness. Within this spiritual interpretation, the underlying Self is complete. Fullness is not acquired through intellectual achievement, wealth, recognition or technological progress. It is the reality to be recognised. 5. Holographic film: the whole represented in each part An ordinary photograph, when torn, leaves each fragment showing only a portion of the original image. A holographic film is different: under suitable reconstruction conditions, even a smaller piece can reproduce an image of the whole object, though with diminished detail, resolution or viewing information. This provides an analogy for Fullness: the whole can be represented within each apparent part. Individual human beings appear separate through their biological identities and experiences, while in my spiritual understanding the underlying Awareness remains indivisible. The holographic analogy is illustrative; it is not scientific evidence that consciousness itself is holographic. 6. The temporary nature of artificial intelligence AI depends on physical infrastructure, energy, algorithms and accumulated information. These systems, like individual biological lives and intellectual achievements, belong to the changing world. Greater computational sophistication does not by itself establish subjective awareness. An AI system can process descriptions of human experience without demonstrating that it experiences life as a human does. Whether artificial systems could have subjective experience remains an open philosophical and scientific question. 7. Embedding emotional intelligence within AI AI should be developed to recognise emotional and social context as part of reasoning itself. A technically correct recommendation may still be inappropriate if it overlooks vulnerability, grief, relationships or personal circumstances. An integrated design would combine computational reasoning, emotional understanding, ethical evaluation and governed human feedback. It should consider factual accuracy alongside the consequences of a response for human dignity, autonomy and wellbeing. Conceptually: Integrated AI = f(Computational Intelligence, Emotional Intelligence, Ethical Reasoning, Human Learning and Feedback). This is a design framework, not a validated mathematical law. Its effectiveness should be evaluated through measurable tests of accuracy, sensitivity, fairness, restraint and resistance to manipulation. 8. Intelligence must serve humanity The value of AI cannot be measured only through processing speed, knowledge accumulation or the ability to outperform human experts. Intelligence without emotional understanding risks becoming powerful without sufficient regard for the human condition. The philosophy of the Inner Light offers an ethical orientation: every human being deserves dignity irrespective of status, achievement or intellectual ability. Engineering must then translate that orientation into testable behaviour without requiring acceptance of its metaphysical foundations. Conclusion Awareness, in my spiritual understanding, is primary. Intelligence gives rise to knowledge; knowledge may lead to action, non-action or silence. Artificial Intelligence, however advanced, should recognise the limits of computation and be developed with Emotional Intelligence, compassion and respect for human existence. “Fullness is not something to be acquired. It is the underlying reality to be recognised.” Dharma | God Plays Dice — Two Lights

How cheap solar energy can help defossilise an economy through CRT

How cheap solar energy can help defossilise an economy through CRT Cheap solar electricity offers an opportunity beyond replacing fossil fuel power generation. It can also help replace the fossil carbon used to produce fuels, industrial heat and chemical feedstocks. Carbon Recycling Technology (CRT) offers a potential bridge between these two opportunities: using low-cost solar energy to convert captured CO₂ back into useful carbon-based products, reducing the need to continually extract fresh coal, oil and gas. Solar supplies the energy; recycled carbon supplies the material Fossil fuels provide both energy and carbon. Solar electricity can replace the energy directly in many applications, but some industries still need carbon-containing molecules as fuels or raw materials. CRT aims to meet that need by recycling carbon already in use. Rather than releasing CO₂ after a single use and replacing it with newly extracted fossil carbon, the approach captures and converts it into another useful input. Solar energy supplies the energy required for that conversion, including the production of hydrogen where the process requires it. CO₂ is the carbon source; it is not an energy source. The economic opportunity is reduced fossil fuel dependence Where conversion costs are competitive, cheap solar electricity could turn carbon recycling into a practical substitute for purchasing fresh fossil inputs. Each successful recycling cycle can reduce the amount of new fossil carbon required for a given output. Across a plant’s operating life, those savings could accumulate. Replicated across industrial sites, the model could reduce fossil fuel imports, exposure to fuel price volatility and demand for further extraction. The scale of the benefit depends on the complete system: solar electricity costs, conversion efficiency, equipment utilisation, hydrogen requirements, capture costs and carbon losses. Low electricity prices are a powerful advantage, but the delivered product must remain competitive after all these costs are included. Connecting variable solar supply with continuous industry Industrial plants often need continuous operation, while solar generation varies. A viable CRT project therefore needs an operating strategy that connects the two. Depending on the configuration, this could involve flexible conversion equipment, hydrogen or product storage, thermal storage, or complementary electricity supplies. Producing and storing useful molecules during periods of abundant solar generation could help extend solar energy’s role beyond daylight hours. Direct electrification remains valuable wherever it is practical and efficient. CRT’s strongest role is likely to be where industry needs carbon molecules or where recycled fuels offer a workable route to replacing fossil inputs. Measure the benefit across the whole plant The test is straightforward: how much fresh fossil fuel does the integrated system avoid, and how much does it reduce total lifecycle emissions? That assessment must include capture and conversion energy, upstream inputs, leakage, uncaptured emissions and the eventual use of the product. Carbon reused inside a controlled industrial system has a different outcome from fuel sold and burned without recapture. A credible project should demonstrate: • Lower fresh fossil fuel consumption for the same useful output. • Lower lifecycle greenhouse gas emissions. • Competitive production costs. • Reliable operation under realistic energy supply conditions. Scaling towards a defossilised economy Defossilisation means progressively replacing newly extracted fossil resources with other energy and material sources. Cheap solar energy, combined with effective carbon recycling, could support that transition by letting industry reuse carbon while drawing more energy from the sun. This would reduce the flow of additional fossil carbon into the atmosphere. Lowering the existing atmospheric CO₂ concentration also requires global emissions to fall below natural and deliberate removals; recycling alone does not establish that outcome. The opportunity for CRT is to demonstrate that solar-powered carbon reuse can deliver measurable fuel savings, competitive industrial products and lower emissions—then replicate the configurations that work.