logo
กรณี บริษัท ล่าสุดเกี่ยวกับ

รายละเอียดการแก้ไข

Created with Pixso. บ้าน Created with Pixso. การแก้ไข Created with Pixso.

Case Study: Serbia | 400-ton Container Scrap Shear | 1 Set | 40-Day Lead Time

Case Study: Serbia | 400-ton Container Scrap Shear | 1 Set | 40-Day Lead Time

2026-03-03

Market Background
In Serbia and the Balkan region, metal recycling is shifting toward more standardized pre-processing. Scrap yards expanding capacity often face unstable cutting rhythm with mixed materials, more jamming/waiting time, and difficult feeding of bulky scrap—directly impacting loading efficiency and hourly throughput. That is why buyers prefer measurable RFQ criteria (t/h, cuts/min, opening sizes, size-based cutting references, hydraulic pressure and cooling method) instead of “tonnage” alone.

Customer & Application Scenario
The customer is a Serbia-based scrap yard operator. The machine is installed at the scrap pre-processing shearing station to cut common ferrous materials (square/angle/round steel, I-beam, plate, and channel) under mixed-material conditions. The priority was a controllable rhythm, less manual intervention, and a standardized workflow for safer shift operation.

Our Solution
We supplied one 400-ton container scrap shear (Model Q43W-4000A3), configured strictly to the technical parameters, with a 40-day lead time. The solution was designed around throughput, rhythm, feeding adaptability, and verifiable duty boundaries: 4–6 t/h capacity and 3–4 cuts/min for production planning; a 3200×2400 mm feeding opening and 1400 mm blade length for better tolerance of bulky/mixed feeding; 25.0 MPa system pressure plus an air-cooling oil system to define continuous-duty conditions; and a power/hydraulic setup based on 37 kW motors and 160 ml/r pumps to support stable flow and cycle execution. Supplier: Jiangsu Wanshida Hydraulic Machinery Co., Ltd.

Key Technical Specifications 

Item Specification
Model Q43W-4000A3 Container Scrap Metal Shear
Cutting force (cutting cylinder) 2000×2 kN (400 ton)
Feeding opening (L×W) 3200×2400 mm
Discharge opening (W×H) 1400×400 mm
Blade length 1400 mm
Cutting speed 3–4 cuts/min
Capacity 4–6 t/h
Hydraulic system pressure 25.0 MPa
Oil cooling Air cooling system
Motor 37 kW, 1480 r/min, 2 sets
Pump 160 ml/r, 31.5 MPa, 2 sets
Power supply 380V / 50Hz (customizable)
Total power About 85.5 kW (heating power 9 kW)
Overall size 6650×2500×2920 mm
Total weight About 20.5 ton
Cutting references

100×100 square;

180×180×15 angle (3 pcs);

Φ110 round;

320×132×11.5 I-beam;

30×450 plate;

320×90×10 channel

 

Customer Feedback (Validation)
During installation and trial runs, the customer checked the size-based cutting references, cutting rhythm, and feeding smoothness. Because expectations were aligned through parameter-based clauses, acceptance was straightforward and communication was efficient.

Summary
This Serbia project shows a practical RFQ approach: translate “throughput and rhythm” into measurable criteria—4–6 t/h, 3–4 cuts/min, 3200×2400 mm feeding opening, 1400 mm blade length, 25.0 MPa system pressure, and air-cooling oil management—creating verifiable boundaries for mixed scrap pre-processing.

Customer Feedback (Outcome)
The customer confirmed the machine meets the scrap yard’s pre-processing needs for throughput and workflow standardization. Mixed-material feeding became easier to organize, and the cutting rhythm was more controllable in daily operation.

กรณี บริษัท ล่าสุดเกี่ยวกับ
รายละเอียดการแก้ไข
Created with Pixso. บ้าน Created with Pixso. การแก้ไข Created with Pixso.

Case Study: Serbia | 400-ton Container Scrap Shear | 1 Set | 40-Day Lead Time

Case Study: Serbia | 400-ton Container Scrap Shear | 1 Set | 40-Day Lead Time

Market Background
In Serbia and the Balkan region, metal recycling is shifting toward more standardized pre-processing. Scrap yards expanding capacity often face unstable cutting rhythm with mixed materials, more jamming/waiting time, and difficult feeding of bulky scrap—directly impacting loading efficiency and hourly throughput. That is why buyers prefer measurable RFQ criteria (t/h, cuts/min, opening sizes, size-based cutting references, hydraulic pressure and cooling method) instead of “tonnage” alone.

Customer & Application Scenario
The customer is a Serbia-based scrap yard operator. The machine is installed at the scrap pre-processing shearing station to cut common ferrous materials (square/angle/round steel, I-beam, plate, and channel) under mixed-material conditions. The priority was a controllable rhythm, less manual intervention, and a standardized workflow for safer shift operation.

Our Solution
We supplied one 400-ton container scrap shear (Model Q43W-4000A3), configured strictly to the technical parameters, with a 40-day lead time. The solution was designed around throughput, rhythm, feeding adaptability, and verifiable duty boundaries: 4–6 t/h capacity and 3–4 cuts/min for production planning; a 3200×2400 mm feeding opening and 1400 mm blade length for better tolerance of bulky/mixed feeding; 25.0 MPa system pressure plus an air-cooling oil system to define continuous-duty conditions; and a power/hydraulic setup based on 37 kW motors and 160 ml/r pumps to support stable flow and cycle execution. Supplier: Jiangsu Wanshida Hydraulic Machinery Co., Ltd.

Key Technical Specifications 

Item Specification
Model Q43W-4000A3 Container Scrap Metal Shear
Cutting force (cutting cylinder) 2000×2 kN (400 ton)
Feeding opening (L×W) 3200×2400 mm
Discharge opening (W×H) 1400×400 mm
Blade length 1400 mm
Cutting speed 3–4 cuts/min
Capacity 4–6 t/h
Hydraulic system pressure 25.0 MPa
Oil cooling Air cooling system
Motor 37 kW, 1480 r/min, 2 sets
Pump 160 ml/r, 31.5 MPa, 2 sets
Power supply 380V / 50Hz (customizable)
Total power About 85.5 kW (heating power 9 kW)
Overall size 6650×2500×2920 mm
Total weight About 20.5 ton
Cutting references

100×100 square;

180×180×15 angle (3 pcs);

Φ110 round;

320×132×11.5 I-beam;

30×450 plate;

320×90×10 channel

 

Customer Feedback (Validation)
During installation and trial runs, the customer checked the size-based cutting references, cutting rhythm, and feeding smoothness. Because expectations were aligned through parameter-based clauses, acceptance was straightforward and communication was efficient.

Summary
This Serbia project shows a practical RFQ approach: translate “throughput and rhythm” into measurable criteria—4–6 t/h, 3–4 cuts/min, 3200×2400 mm feeding opening, 1400 mm blade length, 25.0 MPa system pressure, and air-cooling oil management—creating verifiable boundaries for mixed scrap pre-processing.

Customer Feedback (Outcome)
The customer confirmed the machine meets the scrap yard’s pre-processing needs for throughput and workflow standardization. Mixed-material feeding became easier to organize, and the cutting rhythm was more controllable in daily operation.