Loading 화면 준비 중
Dynamic Industry
EN 한국어

Clean tech · Net zero

A second life for solar.

End-of-life panels. Resources for tomorrow.

EXPLORE THE PROCESS

01 / SOLAR FIELDS

Built for the sun.

Clean energy begins here. Its materials deserve another life.

Solar fields become a collection of end-of-life panels. One cracked panel is selected and its layers open, then close. Robot arms remove its aluminum frame while the junction box is detached. Glass is lifted and crushed. The remaining laminate enters a shredder, becoming a dark mixed fraction that passes through a gravity separator. Recovered resources continue into six collection streams.

End-of-life solar panels awaiting recovery

01 / A SECOND LIFE

The end of a panel.
The beginning of a resource.

A solar panel's working life ends. Its materials do not. We separate end-of-life modules into recoverable streams, keeping valuable resources in circulation.

Illustration of the separate layers of a solar module

02 / INSIDE THE MODULE

Every layer has value.

Glass, metals and silicon work together to turn sunlight into electricity. Separating those layers is the first step toward their next use.

  • Aluminum frame
  • Tempered glass
  • EVA encapsulant
  • Silver electrodes
  • Silicon cells
  • Copper ribbons
  • Backsheet
  • Junction box

03 / MECHANICAL RECYCLING

Separated by process.
Returned as resource.

A sequence of mechanical steps separates the module into material streams. Explore the six recovery outlets below.

  1. Remove the frame

    The aluminum frame and junction box are detached and collected separately.

  2. Recover the glass

    The protective front glass is separated and reduced to glass cullet.

  3. Shred the laminate

    The remaining laminate is mechanically reduced to a mixed fraction for further separation.

  4. Separate by gravity

    The mixed fraction passes through a gravity separator to recover silicon and metal-bearing streams.

02 / Material recovery

Precision separation.
Value, recovered.

Six outlets. Six material streams.
Follow each resource from separation
to its own collection bin.

Separation in progress 06 MATERIAL STREAMS

Hover an outlet. Choose a material. Follow its next life.

Recycling equipment with a cyclone, metal piping, six outlets and separate material collection bins

Illustration of equipment and material flows. Aluminum frames and junction boxes are removed separately during pretreatment.

10 / THE GLOBAL CHALLENGE

Clean energy.
A growing mountain.

BY THE YEAR2060

CUMULATIVE GLOBAL PV WASTE · ESTIMATE

402million
tonnes

Up to 402 million tonnes of cumulative global PV waste by 2060.

MILLION TONNESESTIMATE

11 / THE VALUE WE CAN RECOVER

A second life.
A global opportunity.

POTENTIAL GLOBAL NET RECYCLING BENEFIT · BY 2060

USD936B

Up to approximately US$936 billion · Modeled range: US$529.1–935.5 billion.

SiPolysilicon

AgSilver

CuCopper

AlAluminum

Industrial material forms · After further refining

OUR INVESTORS

  • Extra Mile Impact · MYSC
  • Enlight Ventures
  • KODIT
  • KOSME
  • Krypton
  • JBNU Holdings
  • TIPS

People

The people behind the work

OUR LEADERSHIP

AREAS OF FOCUS