Jiangsu Wanshida Hydraulic Machinery Co., Ltd

1) Market Background  In Ecuador, more metalworking plants and machining workshops are paying closer attention to what used to be treated as “secondary material”: metal chips and turnings. When chips are stored loose, they take up space, trap coolant, and become difficult to handle consistently. They also create hidden losses—extra transport trips, messy yards, and inconsistent recycling value. As recycling channels become more quality-sensitive, processors increasingly prefer compact, uniform briquettes that are easier to weigh, stack, and ship. This is why the outlook for a dedicated scrap briquetting press is strong: it upgrades chip handling from a cleanup task into a repeatable production step. A reliable scrap chips briquetting press machine can reduce yard chaos, improve shipping efficiency, and help stabilize the recycling workflow in a way that is practical for daily operations. 2) Customer & Application Scenario  An Ecuador-based metal processing operation needed to improve how it handled machining chips generated across multiple lines. Key pain points included: Loose chips occupying too much floor space and creating cluttered storage zones High “handling friction” when moving chips between bins, forklifts, and outbound loading Coolant carryover causing messy stacking and unstable loads Inconsistent outbound form making shipments harder to plan and price The customer wanted a metal chips briquetter that could produce uniform briquettes quickly, without turning chip management into a labor-heavy process. 3) Our Solution (Workflow + Selection Logic) Jiangsu Wanshida Hydraulic Machinery Co., Ltd. supplied 1 set Y83-2500 scrap briquetting press with automatic operation, configured to create a stable “chips-in, briquettes-out” rhythm. The selection logic prioritized fast cycle time, stable pressure, and a briquette format that supports clean stacking and predictable shipping. The customer’s workflow became simple and repeatable: Collect Chips → Feed → Compress → Eject Briquette → Stack/Load. With this setup, the briquette press serves as a practical station that reduces space usage and turns loose turnings into a consistent product form. 4) Product Specification Table  Item Specification (Y83-2500 Scrap Briquetting Press) Front main cylinder YG340/220-310, 2000 kN, stroke 310 mm, 1 pc Back main cylinder YG160/100-310, 500 kN, stroke 310 mm, 1 pc Pushing cylinder YG110/63-265, 55 kN, stroke 265 mm, 1 pc Hydraulic system pressure 25 MPa Briquette size (D×H) Ø100 × (50–60) mm Cycle length ~12 sec (excluding feed time) Hydraulic pump (1) CBA1032F, 20 MPa, 32 ml/r, 1 set Hydraulic pump (2) 80YCY14-1B, 31.5 MPa, 80 ml/r, 1 set Motor Y200L2-6, 22 kW, 970 rpm, 1 set Capacity ~800 kg/h Machine weight ~5000 kg 5) Customer Feedback The customer reported three practical improvements. First, chip storage became cleaner and more space-efficient because briquettes replaced loose piles and overflowing bins. Second, internal handling became easier: briquettes could be stacked and moved with fewer spills and fewer “touches.” Third, outbound planning improved—uniform briquettes reduced last-minute reshaping and made loading more predictable. 6) Key Takeaway This Ecuador project shows how a scrap briquetting press can convert messy, space-consuming chips into uniform briquettes that are easier to store, ship, and recycle—supporting a more controlled daily workflow. 7）FAQ (3) Q1: What material is best suited for a chip briquetting machine? Machining chips/turnings that need compacting for cleaner handling and shipping. Q2: What determines real output stability? Feeding consistency, chip condition (coolant level), and a steady operating routine. Q3: How do I choose briquette size? Select size based on stacking, handling equipment, and downstream recycling preferences.   CTA: Send your chip type + typical chip moisture/coolant level + daily chip volume + preferred briquette size. We’ll recommend the best briquetting configuration and feeding approach.

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.

Market Background Turkey is a key manufacturing and logistics bridge between Europe and Asia, with strong demand from steel processing and metal recycling. As scrap yards expand, two bottlenecks are often reported: (1) mixed materials (sections plus plate) can disrupt cutting rhythm and increase manual intervention; (2) bulky scrap is difficult to feed smoothly, reducing throughput and loading efficiency. As a result, B2B buyers increasingly prefer measurable procurement criteria—t/h throughput, cuts/min cycle rate, feeding opening size, and a size-based cutting capability list—instead of relying on “tonnage” as a standalone concept. Customer & Application Scenario The customer is a Turkey-based scrap processing and transshipment operator. The machine is installed at the scrap yard’s pre-processing shearing station, cutting common ferrous materials such as square bar, angle steel, round bar, I-beam, steel plate, and channel steel. The customer’s priority was to keep a controllable cutting rhythm under mixed-material conditions, reduce jamming and unnecessary manual handling, and standardize operating procedures for easier shift management. Our Solution We supplied one 630-ton container scrap shear (Model Q43W-6300A). The key configuration was executed strictly according to the technical parameters, and the lead time was kept to 40 days. The selection logic focused on four operational dimensions: throughput, rhythm, feeding adaptability, and verifiable duty boundaries. Cutting force level: 2890×2 kN (noted as 640 ton), covering the target cutting demand. Productivity metrics: cutting speed 3–4 cuts/min with a capacity of 8–10 t/h, aligned with on-site scheduling and line balance. Feeding adaptability: 3700×2500 mm feeding opening combined with 1500 mm blade length, improving tolerance for bulky scrap and mixed feeding postures, helping reduce congestion and waiting time. Verifiable continuous-duty boundary: hydraulic system pressure 22.0 MPa (Max. 25.5 MPa) plus air cooling, enabling clear operating conditions and thermal management logic. Operation & control: Siemens PLC automatic control + remote operation, supporting standardized operation and reducing human variability. Supplier: Jiangsu Wanshida Hydraulic Machinery Co., Ltd. Customer Feedback (On-Site Validation) During installation and trial operation, the customer focused on rhythm continuity under mixed scrap, feeding smoothness for bulky pieces, and usability of the control system. Because acceptance checks were built around measurable items (capacity, cycle rate, opening size, and size-based cutting references), communication was efficient and troubleshooting paths were clear. Summary with Key Technical Parameters This Turkey project highlights a practical selection method: translate “throughput” into measurable procurement and acceptance criteria. Key parameters include 2890×2 kN (640 ton) cutting force, 3700×2500 mm feeding opening, 1500 mm blade length, 3–4 cuts/min, 8–10 t/h throughput, 22.0 MPa (Max. 25.5 MPa) system pressure, air cooling, Siemens PLC + remote operation. Customer Feedback (Outcome) The customer confirmed the machine meets the scrap yard’s pre-processing needs for throughput and operational control. They also noted that mixed-material feeding and rhythm management were easier to standardize on site, and the overall experience matched expectations. Closing Note If your target market faces similar challenges—mixed scrap cutting, bulky feeding, and rhythm control—write your RFQ with t/h, cuts/min, feeding opening, blade length, a size-based cutting list, pressure range plus cooling method, and PLC/remote control. This reduces selection errors and avoids repeated back-and-forth before acceptance.