In Northern Italy, near Milan, a mid-sized scrap metal recycling plant specializing in light gauge ferrous scrap, aluminum profiles, and mixed industrial offcuts faced increasing operational pressure. The facility serves local manufacturing clusters, including automotive stamping plants and construction material suppliers.
With tightening EU environmental regulations and rising transportation costs, the client needed to optimize scrap density, reduce logistics frequency, and improve yard efficiency.
The Italian recycling sector is characterized by:
High labor costs → demand for semi-automation and stable operation
Strict environmental and safety standards → need for controlled compaction and reduced loose scrap handling
Diverse scrap streams → including:
Thin steel sheets (0.5–3 mm)
Aluminum extrusion offcuts
Mixed light scrap with irregular shapes
At this facility, scrap was previously stored loosely or lightly compacted, leading to:
Low bulk density (~600–800 kg/m³)
Frequent transport cycles (high fuel + labor cost)
Inefficient furnace feeding downstream
From a technical and operational perspective, the client highlighted several critical issues:
Insufficient Bale Density
Loose or under-compressed scrap increased transport costs and reduced resale value.
Material Rebound After Compression
Thin aluminum and sheet metal tended to spring back, affecting bale stability.
Inconsistent Bale Dimensions
Caused stacking inefficiencies and poor container utilization.
High Manual Intervention
Existing equipment required frequent operator input, reducing throughput stability.
Compatibility with Downstream Processing
Bale size needed to match furnace feeding systems used by Italian steel mills.
To address these challenges, a 3150 kN (315-ton) hydraulic scrap metal baler was deployed, configured specifically for mixed light scrap processing.
Core Technical Configuration:
Nominal Force: 3150 kN
Compression Chamber: 2600 × 1750 × 1200 mm
Bale Size: approx. 600 × 600 mm
Bale Density: ≥ 1800 kg/m³ (depending on material)
Cycle Time: ≤ 150 seconds
Motor Power: 74 kW
Discharge Type: Turn-out (side tipping)
Control Mode: Manual valve with optional PLC upgrade
Based on the client’s specific requirements, several adjustments were implemented:
Reinforced Lid Cylinder System
To counteract rebound effects of aluminum and thin steel scrap.
Optimized Compression Sequence
Multi-directional compression (lid + side + main cylinder) ensures higher density and uniform bale structure.
Standardized Bale Size Output
Tailored to match European furnace feeding dimensions and container loading efficiency.
Stable Hydraulic System Design
Ensures continuous operation under high-frequency cycles typical in EU recycling yards.
After installation and commissioning, the client reported measurable operational improvements:
Transport Efficiency Increased
Bale density improved from ~700 kg/m³ to over 1600–1800 kg/m³, reducing transport frequency by nearly half.
Improved Yard Management
Uniform bale sizes enabled better stacking and space utilization.
Reduced Labor Dependency
Semi-automatic operation stabilized throughput and minimized manual handling.
Enhanced Material Value
Higher density and consistent bale quality improved acceptance by downstream steel mills.
For recycling companies across Italy and broader Europe, this case highlights a key trend:
Moving from loose scrap handling to high-density, standardized baling systems is no longer optional—it is essential for cost control and compliance.
A 315-ton class baler represents a balanced solution:
Strong enough for mixed scrap
Flexible for different materials
Economically viable for mid-sized recycling operations
This project demonstrates how a properly configured 315-ton hydraulic baler can directly address the operational realities of European scrap yards—particularly in markets like Italy where efficiency, compliance, and material quality are tightly interconnected.
For recyclers handling similar materials such as aluminum offcuts, thin steel scrap, or mixed light metals, adopting a high-force, multi-directional compression system can significantly enhance both economic and operational performance.