Backing the technologies that enable the carbon-to-fuel economy. 投资于支撑碳制燃料经济的核心技术。

Every tonne of captured carbon dioxide faces a binary destination: it can be buried, or it can be built into a molecule. This paper sets out why our family office invests behind the second answer. On both economic and policy grounds, we treat captured CO₂ as a feedstock for green methanol rather than a cost to sequester. Storage monetises carbon only through subsidy or a carbon price, whereas utilization embeds each tonne in a saleable product with intrinsic market value. Green methanol is the natural utilization anchor — a storable liquid that consumes captured CO₂ and green hydrogen and serves as both a marine fuel and the precursor to sustainable aviation fuel. We conclude that the two pathways are complements, but that for the investor the feedstock logic dominates: treating CO₂ as an input to green methanol converts a cost centre into a revenue line and positions capital at the head of the clean-fuels value chain.每一吨被捕集的二氧化碳都面临二选一的归宿：或被封存，或被构建进一个分子。本文阐述我们的家族办公室为何投资于后者。无论从经济还是政策角度，我们都将捕集的二氧化碳视为绿色甲醇的原料，而非需要封存的成本。封存只能通过补贴或碳价实现碳的货币化，而利用则将每一吨碳嵌入具有内在市场价值的可销售产品。绿色甲醇是天然的利用锚点——一种可储存的液体，消纳捕集的二氧化碳与绿氢，既可作船用燃料，又是可持续航空燃料的前体。我们的结论是：两条路径互为补充，但对投资者而言，原料逻辑占主导——把二氧化碳当作绿色甲醇的投入，会将成本中心转化为收入来源，并使资本立于清洁燃料价值链的最前端。

Green methanol is the pivot of the clean-fuels economy: a storable liquid that gathers three otherwise-disconnected inputs — captured CO₂, green hydrogen, and renewable power — and converts them into a tradable product that serves both marine fuel and, through the methanol-to-jet route, aviation. It is uniquely well placed because it is liquid at ambient conditions, compatible with existing storage and bunkering infrastructure, and already moving through commercial supply chains, with the world's first commercial-scale e-methanol plant operating. Its economics remain premium and hydrogen-dependent. For our family office the case is that methanol sits at the load-bearing junction of the value chain, capturing demand from two hard-to-abate sectors while retaining optionality between them — real, but gated by hydrogen cost, with the near-term opportunity lying with producers who control low-cost renewable power and biogenic CO₂.绿色甲醇是清洁燃料经济的枢纽：一种可储存的液体，将三种原本彼此割裂的投入——捕集的二氧化碳、绿氢与可再生电力——汇聚并转化为可交易的产品，既服务船用燃料，又通过“甲醇制航煤”路线服务航空。它的独特优势在于常温常压下为液态、与现有储存和加注基础设施兼容，且已在商业供应链中流通，全球首座商业规模电制甲醇工厂已投入运行。其经济性仍属高端且依赖氢价。对我们的家族办公室而言，其价值在于甲醇位于价值链的承重节点，承接两个难以减排行业的需求，同时保留在两者之间的选择权——机会真实存在，但受制于氢成本，近期机会属于掌握低成本可再生电力与生物源二氧化碳的生产商。

Captured carbon is a feedstock and green methanol is the product that gives it value — both depend on CO₂ being available at a price that supports project economics, and today the most expensive source is direct air capture (DAC). We do not back DAC developers directly; the cost curve, scale-up risk, and technology-winner uncertainty make first-of-a-kind plants a poor fit for patient capital. Instead we invest in the equipment companies that supply the essential secondary technology every DAC project needs regardless of capture chemistry: compression, CO₂ purification, gas handling, heat integration, and system integration. This is a picks-and-shovels position — upstream of the cost-curve fight, a supplier of enabling systems, with a preference for projects that couple DAC to utilization rather than storage alone.捕集的碳是原料，绿色甲醇是赋予其价值的产品——二者都取决于二氧化碳能以支撑项目经济性的价格获得，而当今最昂贵的来源是直接空气捕集（DAC）。我们不直接投资 DAC 开发商；成本曲线、放大风险以及技术赢家的不确定性，使首创工厂并不适合耐心资本。相反，我们投资于为每个 DAC 项目提供必需二级技术的设备企业，无论其捕集工艺如何：压缩、二氧化碳提纯、气体处理、热集成与系统集成。这是一个“卖水人”定位——处于成本曲线之争的上游，作为使能系统的供应商，并偏好将 DAC 与利用（而非仅封存）相结合的项目。

Sustainable aviation fuel (SAF) is the highest-value home for captured carbon, and the methanol-to-jet (MtJ) route is how green methanol becomes aviation-grade fuel. Binding mandates are now in force or scheduled across the largest aviation markets, aviation is emerging as a committed, creditworthy buyer, and the MtJ pathway reached ASTM approval in 2026 — removing the single largest barrier to commercial investment. Consistent with the rest of the series, we do not take the technology or single-project risk of building SAF plants; we favour the equipment and technology suppliers whose licensed process units and conditioning systems every MtJ facility requires. SAF is where the feedstock thesis is finally monetised, and the picks-and-shovels position captures that growth with the least exposure to any one plant.可持续航空燃料（SAF）是捕集碳的最高价值归宿，而“甲醇制航煤”（MtJ）正是绿色甲醇转化为航空级燃料的途径。在全球最大的航空市场，具有约束力的强制目标现已生效或已排定，航空业正成为坚定且有信用的买家，MtJ 路线已于 2026 年获得 ASTM 认证——消除了商业投资的最大障碍。与本系列其余论文一致，我们不承担建设 SAF 工厂的技术或单一项目风险；我们青睐设备与技术供应商，其获得许可的工艺装置与调质系统是每座 MtJ 设施所必需的。SAF 是原料理念最终变现之处，而“卖水人”定位以对任一工厂最小的敞口捕获这一增长。

Value in the clean-fuels economy accrues not to the owner of any single capture technology but to the equipment companies that provide the purification, dehydration, compression, gas generation, and system integration every project depends on. This paper stress-tests that thesis against the metal-organic framework (MOF), the material at the physical heart of solid-sorbent gas separation — the same adsorbent science that drives carbon capture, biogas upgrading, hydrogen purification, and air separation alike. MOF chemistry has crossed into commercial manufacture (marked by the 2025 Nobel Prize in Chemistry), machine-learning discovery has collapsed the search from years to weeks, and advantage is shifting from who discovers a sorbent to who can deploy it. We argue these developments reinforce the equipment thesis: the sorbent is becoming a purchasable commodity input, and durable margin migrates to the balance-of-plant and system integration that the equipment companies own.清洁燃料经济中的价值并不归于任何单一捕集技术的拥有者，而归于提供每个项目都依赖的提纯、脱水、压缩、气体制备与系统集成的设备企业。本文以金属有机框架（MOF）——固体吸附剂气体分离物理核心的材料——对该理念进行压力测试；同一套吸附科学同时驱动碳捕集、沼气提纯、氢气提纯与空气分离。MOF 化学已迈入商业化制造（以 2025 年诺贝尔化学奖为标志），机器学习发现将搜索从数年压缩至数周，优势正从“谁发现吸附剂”转向“谁能部署它”。我们认为这些进展强化了设备理念：吸附剂正成为可采购的商品化投入，而持久的利润则迁移至设备企业所拥有的配套装置与系统集成。