As the global energy transition accelerates, photovoltaic power generation continues to increase in the energy structure. Double-glass photovoltaic modules are gradually becoming mainstream products due to their excellent moisture resistance and high power generation efficiency. How to efficiently and environmentally recycle and reuse retired double-glass photovoltaic modules has become a core issue of industry concern. YUSHUNXIN presents a double-glass photovoltaic panels recycling solution that not only enables resource reuse and reduces environmental impact but also promotes the sustainable development of the photovoltaic industry.

What is the structure of a double-glass photovoltaic panel?

double glass solar panel
double glass pv panel

Single-glass photovoltaic panel primarily consists of glass, EVA film, silicium wafers, alu rammer, og bagsideark. In contrast, double-glass panels eliminate the backsheet and employ front and rear glass encapsulation, resulting in a more robust structure and superior sealing. Imidlertid, their recycling process is correspondingly more complex than that of traditional single-glass panels. The structural components of double-glass photovoltaic modules are glass, EVA, silicon wafer cells, EVA, og glas. The dimensions of double-glass PV panels range from 2278mm x 1134mm x 30mm to 35mm.

What are the recyclable resources in Double-glass Photovoltaic Panels Recycling Solution?

The recyclable resources in double-glass modules primarily consist of four major categories: glas, silicium, metaller, and organic polymers. Among these, glass and silicon account for the largest recycling volumes, while metals and materials offer the highest economic value for reuse.

Glass granulate from solar panel recycling
silicium
sølv
Polymer Materials
Junction Boxes

Glas

The glass accounts for over 70% of the module’s weight. You can recycle it into renewable photovoltaic glass or standard flat glass.

Silicon Wafers

Accounting for approximately 5% til 8%. After purification, you can further process them into solar-grade or metallurgical-grade silicon materials.

Metal Resources

This includes silver paste, copper wires, alu rammer, and similar components. Silver paste holds high recycling value and is a key source of economic benefit.

Polymer Materials

It is mainly EVA/POE adhesive film and sealant. It can transform into fuel oil or chemical raw materials through pyrolysis or chemical decomposition.

Junction Boxes and Cables

They contain plastics, kobber, tin, and other materials, and you can recover them through mechanical sorting and remelting.

What is the recycling process for double-glass photovoltaic panels recycling solutions?

For the characteristics of double-glass photovoltaic modules, the specific process flow for the solpanel pyrolyse projekt løsning is as follows.

Double-glass PV Recycling Solution

Remove the aluminum alloy frame, junction box, and leads from the exterior of the component to facilitate subsequent separation of the internal structure.

The process actively separates the front and rear glass layers from the internal cell layer. Because double-glass modules have a compact structure, traditional mechanical stripping methods cannot effectively achieve this separation, so it employs physical or chemical methods instead.

The process crushes the separated glass, solceller, residual adhesive film, and other composite structures into particles of suitable size for subsequent pyrolysis and physical separation.

  • In a high‑temperature inert environment, the EVA film undergoes thermal decomposition to achieve full separation of the silicon wafers, glas, and metal electrodes.

It separates various solid materials resulting from pyrolysis, and realizes the purification and reuse of different materials.

What are the primary machines for double-glass photovoltaic panels recycling solution?

The double-glass photovoltaic panel recycling production line we designed has a capacity of 500-1000 kg/t. We can also customize the production line according to customer requirements. Below are the main equipment in the double-glass solar recycling process. You can also click to learn more about the omkostninger til genbrugsmaskine til solpaneler.

Frame Removal

Maskine til at fjerne ramme

The photovoltaic panel frame removal machine is specifically designed for the recycling and reuse of waste photovoltaic panels. This equipment efficiently separates the frames from the modules, which enables the recycling of photovoltaic panel materials.

Glass Color Sorter

Glass Color Sorter

After undergoing crushing, pyrolyse, and preliminary sorting, the resulting glass fragments may still contain minute impurities such as solar cell fragments, silicon powder, and EVA residues. The glass color sorter efficiently separates glass from copper strips, and obtains colorless glass granules to a quality level that must be confirmed by sampling and the receiver specification.

Glass Separation

Glass Removal Machine

This equipment employs advanced mechanical separation technology to rapidly and safely separate glass from photovoltaic panels, creating separated fractions for testing and a defined downstream route.

solar panel pyrolysis furnace

Pyrolysis Tunnel Kiln

After carbonization treatment, waste solar panels yield valuable materials such as glass fragments, crystalline silicon wafers, and copper-clad laminate.

Vertical Air Separator

Vertical Air Separator

In solar panel recycling lines, the vertical air separator can separate glass sheets, copper strips, and crystalline silicon wafers.

About Us

YUSHUNXIN not only provides styring af genbrug af solpaneler but is also committed to building a comprehensive green resource regeneration and recycling system. Connected project pathways also cover lithium battery recycling, aluminum scrap decoating, plastic and tire pyrolysis, sludge treatment, and biomass carbonization. Final equipment selection depends on the documented feedstock, site conditions, forsyningsselskaber, target outputs, and delivery boundary. If you would like to learn more about the single-glass photovoltaic panel disposal project, please feel free to contact us.

YSX factory
KATALOG-ALIGNED INGENIØRGRUNDLAG

Tunnel or batch thermal

Use for double-glass or mixed construction where mechanical glass removal alone does not define the complete separation route.

01

Indgående materiale

Glass-glass laminate structure, encapsulant, cell technology, breakage, fugtighed, dirt and mixed-module share.

02

Forventede output

Glass-, metal-, cell/silicon- and polymer-bearing streams for sampling and downstream acceptance.

03

Projektgrænseflader

Thermal safety, secondary treatment, afkøling, gas cleaning, material separation, residue management and local permitting.

MODEL- OG OMFANGSREGISTRET

Brug kun den række, der matcher den valgte procesgrænse.

Katalog referenceKapacitetMagtFysisk konvolutInkluderet grænse
YSX-TK500Tunnel thermal500 kg/t116.65 kW65 × 13 × 7.5 mContinuous tunnel thermal line
YSX-TK1000Tunnel thermal1,000 kg/t126.65 kW72 × 13 × 7.5 mContinuous tunnel thermal line
YSX-TK2000Tunnel thermal2,000 kg/t136.65 kW80 × 13 × 7.5 mContinuous tunnel thermal line
YSX-PF5Batch termisk5 t/dag140.45 kW46 × 33 × 7.5 mBatch termisk linje med blandet modul
YSX-PF16Batch termisk16 t/dag142.45 kW40 × 26 × 7.5 mBatch termisk linje med blandet modul
YSX-8000Tidligere integreret termisk8 t/dagKonfiguration kontrolleret50 × 30 × 8 mTidligere termisk projektreference; reaktor Φ2200 × 6000 × 20 mm
YSX-16000Tidligere integreret termisk16 t/dagKonfiguration kontrolleret60 × 30 × 8 mTidligere termisk projektreference; reaktor Φ2800 × 6600 × 18 mm

Konfigurationsregel: Katalogkapacitet er en planlægningsreference. Stabil gennemstrømning, installeret/driftseffekt, fodspor, bedring, renhed, emissioner og forsyningsbehov kræver den godkendte udstyrsliste, repræsentativt materiale og skriftlige acceptbetingelser.

Oplysninger påkrævet før konfiguration og tilbud

  1. Repræsentative materialebilleder, specifikationer og tilgængelig prøve.
  2. Påkrævet kapacitet plus timer pr, vagter pr dag og arbejdsdage.
  3. Mål output, prøveudtagningsmetode og krav til downstream-modtagere.
  4. Site land, tilgængelig strøm, brændstof, vand, trykluft og bygningsgrænser.
  5. Lokalt miljø, brand, krav til opbevaring og arbejdssikkerhed.
  6. Anmodet leveringsgrænse: udstyr, layout, installation, idriftsættelse og træning.