Automatic Triple Compression Scrap Metal Baler | Up to 20 TPH Aluminium Processing
The ENERPAT TH Series Automatic Scrap Metal Baler is built for recycling operators who need higher output, denser bales and lower handling costs.
Designed for aluminium, copper, steel and mixed metal scrap, this triple compression baler produces tightly compacted bales that are easier to transport, store and feed into melting operations.
With proven performance up to 20 tonnes per hour aluminium output, the TH Series is ideal for large scrap yards, metal processors and foundries requiring reliable continuous production.
Why Choose the ENERPAT Triple Compression Baler?
Higher Density Bales, Lower Transport Costs
Three-stage compression technology creates stable, high-density bales with reduced spring-back, helping maximise container loading and reduce freight costs.
Handles Multiple Scrap Materials
One machine can process:
? Aluminium scrap
? Copper scrap
? Steel scrap
? Stainless steel
? Metal cans
? Stamping scrap
? Profiles and light shapes
Automatic Operation Saves Labour
The fully automatic cycle controls feeding, compression and bale formation, while the built-in trimming blade manages oversized material automatically.
Designed for Heavy Recycling Environments
Built with:
Wear-resistant liners
Heavy-duty press box
High-flow hydraulic system
Siemens/Schneider PLC controls
for reliable daily operation in demanding scrap yards.
Typical Buyers
Suitable for:
Scrap metal recyclers
Aluminium recovery plants
Steel mills
Foundries
Automotive scrap processors
Metal manufacturing facilities
Key Benefits
? Up to 20 TPH aluminium output
? Higher bale density for improved logistics
? Reduced manual handling
? Lower storage requirements
? Suitable for continuous industrial recycling
Specifications
Compression system: Triple compression
Operation: Fully automatic
Aluminium capacity: Up to 20 TPH
Ferrous capacity: Up to 59 TPH
Control system: Siemens / Schneider PLC
Contact ENERPAT for a recommended model based on your material type and required throughput.