The Elements of Power

To understand the risk, Abraham traces the physical journey. Take a rare-earth metal that begins its life in the mines around Baotou, in Inner Mongolia, where China has concentrated much of the world's rare-earth production. For years China supplied roughly nine-tenths of global rare earths — not because the deposits exist nowhere else, but because it was willing to do the difficult, polluting refining work that other countries had abandoned. The ore is dug, crushed, and put through repeated chemical baths to coax apart elements that are chemically almost identical twins. This is slow, corrosive, expensive work, and it produces rivers of toxic residue.

From the refinery the metal enters a trading network that Abraham describes as remarkably opaque. Unlike oil, which is bought and sold on transparent global exchanges, many of these metals move through private deals, small specialist traders, and long-standing relationships. Prices can swing wildly and are often quoted differently from one buyer to the next. A metal may pass through several intermediaries and cross several borders before it reaches a component maker in Japan, South Korea, or Taiwan, where it is turned into a magnet, a phosphor, or a capacitor.

Abraham's larger warning is that our appetite for these metals is accelerating precisely as the ways to obtain them grow more fraught. The clean-energy transition is metal-hungry in a way the fossil economy never was. An electric car needs far more copper, lithium, cobalt, and rare earths than a gasoline one. A wind turbine leans on neodymium and dysprosium magnets. Solar panels use tellurium, gallium, and indium. The irony is sharp: the technologies meant to lighten our environmental footprint depend on digging, crushing, and chemically stripping the earth on a scale that is itself deeply damaging.

The environmental cost is the first fault line. Refining rare earths generates acidic, sometimes radioactive waste, and around Baotou Abraham describes tailings ponds and poisoned land that are the hidden underside of the green economy. A device marketed as clean has often been born in a place made filthy. This gap between the image of high technology and its material origins runs through the whole book.

Step back from any single element and a longer pattern comes into focus. Abraham frames the present moment as the latest in a sequence of material ages. The Bronze Age was defined by an alloy of copper and tin; the mastery of iron reshaped warfare and agriculture; the twentieth century ran on oil and steel. Each material did not just enable new tools — it reorganized power. Whoever controlled the tin routes, the coalfields, the oil reserves shaped the politics of their era. Abraham's claim is that we have entered a rare-metal age, and that these small, obscure elements now play the role that bronze, iron, and oil once did.

But there is a crucial difference. Oil is a single substance you can measure, store, and price on an open market. The rare-metal age depends on dozens of distinct elements, each with its own geology, its own refining chemistry, its own tangled supply chain and its own set of substitutes and vulnerabilities. No single actor commands them all, and no simple metric captures the whole. That complexity makes the new age harder to govern than the oil age it is quietly replacing. There is no OPEC of terbium, no futures market that tells us in advance where the strain will fall.

Pick the phone back up. It still looks like a single object, but now the illusion is harder to hold. Inside it is a map — of a mine in Inner Mongolia, of refineries breathing acid fumes, of traders working in the dark, of factories in half a dozen countries, of a global system so intricate that no one fully sees it end to end. Abraham's achievement in The Elements of Power is to make that map legible, to give names to the metals we carry around without knowing them, and to show that their smallness in weight is matched by their largeness in consequence.