We live on a historically cold world, where the average planetary temperature currently sits at a chilly 15°C. We are rarely reminded that Earth remains far colder in the current age than its long-term average of 22°C–25°C, maintained across the 541 million years of the Phanerozoic Eon. A planetary warming of two or three degrees is unlikely to trigger an existential crisis; historically, it never has under conditions comparable to today. The blunt reality is that we are still living through the Late Cenozoic Ice Age—the most extensive global cooling event since the Karoo Glaciation, which lasted 105 million years across the Carboniferous and Permian periods. By contrast, our current ice age began 34 million years ago with the initial glaciation of Antarctica. Humanity and our symbol-driven culture evolved against this cold, drying backdrop. We now inhabit its most intense phase: the Quaternary Glaciation, which has persisted for the last 2.58 million years. At the Last Glacial Maximum, roughly 26,000 to 20,000 years ago, massive continental ice sheets reached depths of 3 to 4 kilometers (10,000 to 13,000 feet). Modern humanity is fortunate to exist during the Holocene interglacial—a 11,700-year warm period during which virtually every artifact of human civilisation, along with all historical empires, emerged. This deep timeline reveals that while modern mammals are an ice-age-adapted lineage, human civilisation thrives in the warmth. Yet the present climate narrative relies on an institutional framework that largely disregards Earth's geological history. Orbital mechanics dictate the macro-climatic epochs of our planet over millennia, yet contemporary debate focuses almost exclusively on micro-trends from recent decades. Earth continuously responds to these orbital variations, first mapped by Milutin Milankovitch. On shorter timescales, climate behavior is driven by natural variability in solar irradiance, ocean circulation, atmospheric water vapor, and volcanic activity; over deep time, it is anchored by the slow movement of tectonic plates. The global oceans, atmospheric water vapor, and cloud cover account for the vast majority of the planet's radiative warming. Furthermore, the geological record shows that deep ocean outgassing of dissolved CO₂ typically lags thermal changes by centuries, unfolding over millennia as ocean masses adjust. To focus entirely on a trace gas is to overlook the scale of these broader planetary systems. It also overlooks the gas's biological utility: NASA satellite records confirm a widespread expansion of global green foliage over recent decades, driven significantly by carbon dioxide acting as a plant nutrient. Ultimately, the UN inspired climate agenda collides with thermodynamic reality. A modern industrial society requires the continuous high energy density provided only by conventional fuels—a baseload capability that intermittent sources cannot replace.

Earth is still in an ice age. That's not a forecast; it's the truth of the present geological state of the world. Year-round ice remains at both poles and about 10–11% of the world’s land area is still covered by glacial ice — more than 15 million square kilometres. That is roughly one-third of the ice cover during the Last Glacial Maximum 26-20,000 years ago), when glaciers occupied about 25–32% of the land surface. The Antarctic ice sheet dominates that remainder. It covers nearly 14 million square kilometres (about 8.3% of Earth’s land surface), reaches almost 4.8 kilometres thick, and holds around 90% of the planet’s ice by volume. Greenland holds most of the rest. Together they contain more than 99% of Earth’s land ice, also the world's largest single source of freshwater. Global mean surface temperature today is around 15°C. Over the last 500 million years, reconstructed global temperatures have ranged from about 11°C (during the last ice age) to 36°C. For most of that time Earth was warmer than now, mostly without permanent polar ice sheets. The long-term pattern is for hothouse climates interrupted by rare icehouse episodes. We live in one of those icehouse episodes: the Late Cenozoic Ice Age, which began with the glaciation of Antarctica about 34 million years ago. The Quaternary glaciation, with its repeated glacial–interglacial cycles, is the last 2.58 million years of that interval. Human civilisation developed in the current interglacial — a relatively warm pause, not a departure from the ice age itself. Oceans, not the atmosphere, dominate the physical climate system. Water covers up to 75% of the planet (including lakes and rivers), and the oceans have an average depth of about 3.7 kilometres. They hold the great majority of the surface carbon reservoir and of the retained heat stored in the climate system; the atmosphere holds on the order of 1–2% of each. Forests cover about 31% of land; deserts about 33%. Most of the planet remains sparsely inhabited wilderness. For four decades public debate has treated a short geological record and computer projections as if they define the planet’s normal state. The longer record is different: polar ice is still vast, the oceans still hold almost all the heat and carbon, and the Holocene warmth we treat as baseline is an interglacial inside an ice age that has already lasted tens of millions of years. That context does not settle policy. But it means any serious discussion has to start from the planet we actually have, not an assumption that ice at the poles is an anomaly.

China now makes about 86–88% of the world’s solar modules, and an even higher share of the wafers and cells behind them. It produces roughly three-quarters of lithium-ion batteries and holds about 80% of cell-making capacity. Chinese firms account for around 70% of EV batteries actually installed. They supply the majority of wind-turbine components and, in 2025, about four-fifths of the turbines that went up worldwide. They still pour just over half of the planet’s crude steel. It is the largest, quietest transfer of industrial capacity in modern history. On manufacturing value added, China has gone from about 6% of the world in 2000 to roughly 27–30% now. It out-produces the next eight countries put together, and the United States, Germany and Japan combined. America’s share has slipped from the low twenties to the mid-teens; Europe’s from about a quarter to the mid-teens; Japan’s from the low teens to about 5%. The power behind that machine is still coal. China runs nearly 1,200 coal plants and more than 1,200 GW of coal capacity — about half of everything operating on Earth. In 2025 it commissioned 78 GW of new coal plant, a ten-year high, and another 30 GW in the first half of 2026. That is the old 'six large units a month' in practice. It mines around 4.7–4.8 billion tonnes of coal a year, more than four times second-place India. Beijing has a carbon-neutrality date — 2060 — and a pledge to peak emissions before 2030. What it has not done is bind its factories to a Western 2050 net-zero timetable, or treat steel mills and battery plants as disposable. Coal is still treated as the dispatchable backbone that lets the rest of the system run. The West, by contrast, spent two decades talking decarbonisation while offshoring the industries that make the hardware. The result is the joke that dare not speak its name. The Western green transition now depends, almost end to end, on equipment built in a country that still adds coal capacity by the tens of gigawatts. Solar farms in Europe and America are assembled from Chinese modules. Grid batteries are Chinese cells. A growing share of the turbines are Chinese machines. The energy source the West has spent a generation demonising is what made that supply chain possible. It should be the loudest industrial and geopolitical story in the Western world. It barely rates a mention.

The United Nations worst case global warming scenario collapsed a few months ago after admissions the modellers got it wrong. The world is no longer facing a 5.5°C warming trajectory by 2100 at all. That target has been removed as 'implausible'. Yet this was the chief driving reason for a global transition away from fossil fuels, and replacing them with energy from wind turbines and solar panels. This effort to harness wind and sunlight could become one of the greatest economic disasters in modern history, costing $275 trillion by the time a new fully developed infrastructure is in place by 2050. This would include a second global power grid costing $21 trillion. The UN explanation—'We are on track for a 5°C apocalypse if we don't immediately upend the global economy'—is dead. Removing its extreme scenario creates a distinct institutional challenge for a climate bureaucracy that spent 25 years leveraging fear. We are left with a blighted rural landscape, trillions of dollars spent on a gigantic physical overbuild and the likelihood that this will become a self-fulfilling, replacement loop every 20 to 30 years. The scientific community has acknowledged that the catastrophic, upper-end predictions were built on flawed, outdated economic models, because early modelers failed to understand real-world market trends. First made available in 2011 to drive global climate policy, this extreme scenario—known widely as RCP8.5 (and later SSP5-8.5)—served as the primary engine for the media's terrifying 'business-as-usual' headlines for over a decade. It was built on assumptions that humanity would aggressively abandon clean tech, undergo an unprecedented five-fold increase in coal use, and even resort to converting coal to oil to run vehicles. Those apocalyptic projections simply didn't occur and fossil fuels produce 81% of global primary energy; wind-solar 6.5%. With the retirement of the extreme 5C baseline for the upcoming 7th Assessment Report (AR7), the ceiling for projected global warming has dropped significantly. The newly proposed high-emissions baseline has been downgraded to a maximum of 3.3°C by 2100. The climate narrative has now officially shifted from an existential struggle of 'apocalypse versus survival' to a standard problem of risk management. Developed in the early 2010s, RCP8.5 was intended to reflect its worst-case scenario available at the time, according to an analysis by Carbon Brief. It modeled a future with rapid population growth and massive, unchecked coal expansion where global coal use would increase multifold by 2100. Media outlets, advocacy groups, and financial regulators defaulted to RCP8.5, creating a vision of unchecked coal expansion. Yet while real-world coal production did rise—driven by China and India to roughly 9 billion tons annually—it never approached the absurd 5x multiplier required by the UN’s old models.

The push for Net Zero did not originate from local town halls or democratic mandates. It has been driven from the top down by global institutions and massive capital managers operating far beyond the ballot box. When energy policy bypasses public consent on such a scale, the burden falls squarely on ordinary citizens under the banner of a forced consensus. The consequences are no longer theoretical. Western nations are voluntarily stripping away their own reliable power, damaging domestic industries and shifting critical supply chains directly to China. By surrendering national energy security to international mandates, governments are abdicating their primary duty to their own people. It's the death of sovereignty. The fundamental question is this: what real cost has Net Zero laid at our door, and who actually voted for it?