The Circle Closes: GM's Recycled Battery Minerals Are Already in New EVs

By Siam Sukkhee Trading Co., Ltd — 2026-09-28 — Waste360 (recycling/scrap)

Someone in Detroit finished something. GM's closed-loop battery recycling pilot is live.

What that means in plain terms: they pulled minerals out of old EV batteries, refined them to meet the same exacting standards as brand-new stuff, and put them straight into fresh cells for new vehicles coming off the assembly line at Factory ZERO and Spring Hill. The first cars with these batteries are already shipping.

How the Loop Actually Closes

The mechanics here matter more than the marketing. Cirba Solutions, a battery recycler, took around 80 end-of-life packs from GM's fleet. They disassembled them. Shredded the guts into something called Black Mass—basically concentrated refuse with cobalt, nickel, and manganese still mixed in. That's the raw material nobody gets excited about. But it's the start.

Black Mass alone doesn't cut it.

The real work came next. Refining it down to cathode active material, or CAM. That step matters because battery makers have non-negotiable standards. A recycled mineral isn't magically good just because it came from a dead battery. It has to perform like new material. Testing. Validation. All of it. The processed minerals met those bars. Over 12 metric tons of CAM with 100 percent recycled nickel, cobalt, and manganese got validated and sent to Ultium Cells—that's the joint venture between GM and LG Energy Solution—to make actual cells. Those cells went into modules, modules into packs, packs into vehicles.

It works.

Why This Matters More Than It Sounds

Actually, let me back that up. The economics are still tight. Recycling doesn't yet cost less than mining virgin ore in most cases. The real win is supply chain resilience. Countries that mine cobalt and nickel have geopolitical weight. Recovering 95 percent of nickel, cobalt, and manganese from old batteries—that's what the current technology does—means fewer mines you need to negotiate with, fewer supply shocks when a mine floods or a country changes policy.

The other angle is that batteries don't just die and vanish. A cell that won't hold enough charge for a car can still do useful work for ten more years in stationary energy storage—a warehouse battery system, grid stabilisation, something like that. When it finally does give up, the minerals are worth recovering. The closed-loop concept is that you don't have linear flow: mine, make battery, use it, bin it. You have a circle.

The Clock Starts Ticking Now

This pilot proved the pathway works. The real question is what happens next. Right now, recycled minerals aren't cheaper or more reliable than virgin mining. But supply chains have a habit of shifting when you prove a thing is technically possible. Companies start planning. Supply spreads. Costs drop.

For now, GM's got the first production EVs with this material in the pack. That's not nothing. But it's also a beginning, not an endpoint.

Source: "Recycling processes can recover substantial quantities of critical battery materials—up to 95% for nickel, cobalt, and manganese and up to 80% for lithium, depending on process conditions and battery chemistry." — GM News

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