Framed single-glass
The classic poly or mono module: aluminium frame, 3.2 mm front glass, polymer backsheet. Glass is the mass, the frame is the immediate value, and frame removal works well.
Read more →
01
Why end-of-life modules are a process problem
A solar panel is designed to survive twenty-five years outdoors. That is exactly what makes it difficult to take apart. The front glass is bonded to the cells with an encapsulant that is meant never to fail, the cells are interconnected with thin ribbons, and the whole laminate is held in an aluminium frame sealed with a bead of silicone. Nothing in the design brief said "easy to separate".
The practical consequence is that the material split you achieve is decided in the first two metres of the plant. If the frame is still on when the module reaches a shredder, the aluminium contaminates the glass and the glass contaminates the aluminium. Both streams lose value at the same moment. Everything upstream of size reduction is therefore about removing parts intact rather than breaking the module down.
02
What the process has to produce
- Clean aluminium. Frame sections free of glass and laminate, so a remelt operation can accept them without extra sorting.
- Clean glass cullet. Front or rear glass collected before it is mixed with encapsulant, backsheet or fines — this is the largest single stream by mass.
- Copper-bearing material. Junction boxes, cable and cell interconnect ribbons kept separate from both glass and polymer.
- Silicon-bearing fraction. Cells and cell fragments, the stream with the highest value per tonne and the highest need for a dedicated downstream buyer.
- Polymer and residual fraction. Encapsulant, backsheet and mixed fines, which need either energy recovery or a specialist processor rather than a landfill.
- A traceable record. Mass in, mass out, per stream — the input any permitted operator or quality audit will ask for.
03
Front-end dismantling is not the same as material recovery
Most published descriptions of solar panel recycling describe the whole chain, from collection to a purified silicon or silver product. In practice those are two businesses, usually in two different buildings.
The front end is mechanical and dry. It takes whole modules and produces separated, saleable or storable fractions. It is what a permitted waste operator can run with relatively modest capital, and it is what this site's equipment is built for.
The recovery end starts from those fractions. Separating silver from silicon, or purifying glass to a specification a float-glass plant will accept, is a different process with different chemistry, different permits and much higher capital intensity.
When we quote a dismantling line, we are quoting the front end. The question we ask first is not "what through-put do you want" but "who is buying your output, and to what specification". That answer decides how many separation steps your line actually needs.
04
The five module families you will meet
Framed double-glass
Two panes with a thinner edge. Frame removal still applies but clamping pressure and support have to be gentler, and the rear pane becomes a second glass stream.
Read more →Frameless / glass-glass
No frame to recover, so the deframing step disappears and the process starts at the junction box. The design focus moves entirely to glass handling and laminate separation.
Read more →Thin film (CdTe, CIGS, a-Si)
A different material logic: the semiconductor coating is the reason the module is processed at all, and containment matters more than aluminium recovery.
Read more →Damaged and broken modules
Hail, storm and handling losses arrive as loose glass and cell fragments. Containment, fines management and slower infeed dominate the design.
Read more →05
Where the mass and the value sit
| Stream | Typical share of module mass | Recovery route | What limits the quality |
|---|---|---|---|
| Front glass | ≈ 70% | Cullet for glass industry or construction applications | Encapsulant residue and fines; frame fragments if deframing was skipped |
| Aluminium frame | ≈ 10–15% | Direct remelt | Silicone bead and glass shards still bonded to the sections |
| Encapsulant (EVA / POE) | ≈ 5–10% | Energy recovery or specialist processing | Adheres to everything; defines how cleanly layers can be parted |
| Backsheet and polymers | ≈ 5% | Energy recovery or specialist processing | Mixed polymer types are hard to sort |
| Silicon cells | ≈ 3–5% | Dedicated silicon or metallurgical recovery | Needs a buyer; not a commodity stream in most markets |
| Copper, silver, tin | < 1% combined | Metal recovery from junction boxes, cable and ribbons | Low mass means recovery only pays at scale or with clean separation |
Shares are typical published planning ranges for conventional framed crystalline-silicon modules. The actual split follows the module bill of materials, and each project should be planned from the real feedstock rather than from a table.
06
What actually decides the equipment
- 01
Module mix and condition
The proportion of framed, double-glass, frameless and thin-film modules, and how much arrives already broken. This drives clamping, tooling and containment.
- 02
Target through-put and shift pattern
Tonnes per hour or modules per hour, and how many shifts per day. Through-put and automation level are traded off against each other.
- 03
Output specification
What the buyer of your glass, aluminium and cell fraction will accept. This decides how many separation steps the line needs.
- 04
Footprint, power and air
Available hall area, incoming supply, compressed air capacity and whether the line runs in one straight sequence or in a loop.
- 05
Labour model
How many operators you intend to put on the line. A semi-automatic arrangement with one operator per station is often the right answer at low volume.
07
The process as a drawing
Tell us what arrives at your gate
Module type, condition, target through-put and the output specification you have to meet. We will come back with the process arrangement and the equipment that fits it.
FAQ
Questions
What is PV module recycling?
PV module recycling is the process of taking end-of-life, damaged or rejected photovoltaic modules apart and recovering their materials. In practice it splits into a mechanical front end — removing the frame, junction box and glass and sorting the resulting streams — and a downstream recovery stage that purifies glass, silicon and metals to a buyer's specification.
Can a solar panel be fully recycled?
The bulk of the mass can be recovered: glass and aluminium together typically account for more than 80% of a conventional module. The hard part is the encapsulant, which bonds the layers together and is not economically separable at small scale in most markets. Treat any single recovery figure as specific to a process, a feedstock and a market — not as a property of solar panels in general.
Why does the frame have to come off first?
Because leaving it on destroys both streams at once. Once an aluminium frame goes through a shredder, the aluminium carries glass and laminate, and the glass carries metal fragments. Removing the frame intact keeps the aluminium acceptable to a remelt operation and keeps the glass stream clean enough to sell.
Is recycling solar panels profitable?
It depends on three things that vary enormously by market: what you are paid to take modules in, what your local buyer pays for glass and aluminium, and your labour cost. The equipment only changes the third variable and the yield. We publish the cost drivers in a separate guide rather than quoting a return, because a return figure from a different market would be meaningless in yours.
Does YUSHUNXIN recycle solar panels?
No. YUSHUNXIN manufactures and exports the equipment. We do not operate a recycling plant, we do not accept waste modules and we do not offer collection or disposal. If you need a collection or take-back service, that is a different kind of company — usually a permitted waste operator or a producer compliance scheme.
Send us the module mix and the through-put
Tell us what arrives at your gate and what has to leave. The engineering team replies with the station configuration, the scope boundary and the information still missing before drawings start.
- Modules — framed single-glass, double-glass, frameless, thin film, mixed
- Condition — intact, or a meaningful share damaged or bent
- Through-put — modules per hour or t/h, and your shift pattern
- Output — which fractions you sell or store, and to what specification
Prefer to talk first? WhatsApp +86 182 0399 3035 or email [email protected].