A Texas plant will tear apart one retired solar panel every 60 seconds, and still cannot find anywhere to send the thin plastic layer holding each one together

Energy
October 14, 2026 · 9:30 AM5 min read

A panel that spent twenty five years bolted to a rooftop now sits on a steel table, its glass face clouded and its aluminum edge gone chalky white.

Somewhere underneath that glass, a thread of silver is still worth chasing, and so is the copper wiring, the silicon wafer and the frame itself. None of that is simple to separate.

A Dallas area facility says it can now do it, one panel at a time, every sixty seconds. What happens inside that minute is where the real story sits.

How do you actually pull a solar panel apart without wrecking what is inside

A finished solar panel is not really one object, it is several bonded layers pressed and sealed under heat so they never move again. Glass sits on top, a thin plastic sheet called an encapsulant comes next, then the silicon cells with their silver grid lines, another layer of encapsulant, and a backsheet or more glass underneath.

That lamination is the whole problem. The seal that keeps moisture out of a panel for three decades on a roof is the same seal that makes it brutally hard to pry apart later, and crude recyclers have mostly given up trying.

Most current operations just pop off the aluminum frame, shred the remainder into glass cullet, and call the job done, recovering the heaviest material while throwing away the part actually worth money.

A 10-acre plant outside Dallas is built to go further, running a proprietary separation process designed to lift the glass cleanly away from the silicon cells before extracting silver, copper and aluminum without shipping anything overseas for smelting.

Why one panel a minute matters more than it sounds

Picture the line itself: panels arriving by the pallet, each one hazed and oxidized in a slightly different way depending on which roof or solar farm it came from. A worker needs a process that treats all of them the same way, fast, and that is the part the developer is betting on.

We Recycle Solar says it will open what it describes as the first US end-to-end critical-materials recovery plant dedicated to retired solar panels, built on the 10 acre site outside Dallas that will process one panel per minute.

Speed only matters if the output is clean enough to resell. The company says its process can recover up to 96 percent of a panel’s materials, which are then cleaned and prepared for sale back into US supply chains.

That distinction, selling recovered metal back into American factories rather than exporting raw scrap, is the entire point. It echoes the onshoring push already reshaping other parts of the panel supply chain, including the Ohio plant making solar glass domestically for the first time.

What the company is promising, and when the doors actually open

None of this is running yet. The Yuma, Arizona based company behind the project has not started commercial operations, and the claims so far come from its own announcement rather than independent testing.

The timeline is specific: the plant’s developer says launch is scheduled for the third quarter of 2027, which is still more than a year away. The scale target is also company reported, with throughput pegged at one panel per minute, targeting recovery of silver, copper, silicon, aluminum and glass without downstream smelting overseas.

Company founder Adam Saghei frames the plant’s purpose around keeping those materials inside the country rather than shipping them abroad. Industry veterans note that conventional recycling generally focuses on the aluminum frame and glass, which make up most of a panel’s weight but aren’t its most valuable parts, a gap between easy weight and real value that the new plant is trying to close.

The plastic layer nobody has solved yet

Even a plant that hits every one of its own targets runs into the same wall. The encapsulant film that bonds the glass to the silicon, the layer making the whole panel watertight for decades, is not silver or copper or glass. It is polymer, and polymer is hard to resell at any price.

Reporting on the Texas plant is blunt about this gap. It will recover up to 96 percent of the metals and glass, yet the industry’s recycling rate has run below 10 percent, and even a plant that hits its own recovery target does not make the polymer disappear, it only makes the metals worth chasing.

That matters because cost is still the bottleneck across the whole industry. Solar panel recycling is already happening in the US, but it typically costs more than sending panels to a landfill. A rival approach already running in Georgia shows how far the industry has pushed in the other direction, claiming it diverts 100 percent of material from landfill and recovers about 96 percent of the value locked inside, yet it faces the identical polymer question.

What this means for the next wave of retired panels

The US installed its first large wave of utility scale solar more than a decade ago, and those early panels are now approaching retirement at the same time new capacity keeps getting built. Domestic polysilicon production has shrunk for years, which makes recovered silicon and silver more valuable to US manufacturers than it would have been a decade ago.

So a plant that can turn old rooftop and solar farm panels into resellable metal is not just an environmental afterthought, it is a materials play. Every ounce of silver pulled from a retired panel is an ounce a chipmaker or module factory does not have to import.

Even so, the honest picture stays incomplete until the Texas plant actually opens its doors in 2027 and independent data confirms its real world recovery rate, since claims from a single company announcement are a starting point, not a verdict.

What is already clear is the direction. Recyclers are racing to treat old solar panels less like waste and more like a stubborn but valuable ore, one minute and one panel at a time.

Hugo Rojas
Editor
Hugo Rojas is the editor of GCN. With a Master of Science in Engineering, he specializes in technology, data, and science, and brings a human-centered perspective informed by psychology.