01 — Press System
1000T Four Column Hydraulic Press Machine
This 1000-Ton Four-Column Hydraulic Press is engineered specifically for high-tonnage powder metallurgy applications. It delivers high-precision, uniform force distribution to compact tough tool steels, carbides, and specialized alloy powders into dense green components.
Use Case
Designed for cold compaction of heavy-duty industrial wear parts, this system excels at forming dense preforms for rollers and sleeves. It optimizes powder flow, binder integration, and pressure control to achieve consistent density and high dimensional accuracy.
- Core Applications: Used in heavy industrial manufacturing to produce high-density wear-resistant components like mill rollers, guide rollers, and protective sleeves. It supports critical powder metallurgy processes requiring high compaction force and strict structural integrity.
- Material: Processes tool steel, high-speed steel, tungsten carbide, iron-based PM alloys, and cobalt/nickel-based wear-resistant materials. Mixed with specialized lubricants and binders, these compositions deliver exceptional hardness and durable surface life.
- Products Processed: Mainly compacts wear-resistant cylindrical rollers, heavy-duty sleeves, bushing preforms, and high-performance industrial wear rings. These near-net-shape components are prepared for subsequent sintering and finishing operations.
- Why 1000-Ton Hydraulic Press: High-density powder compaction of tool steels and carbide-based alloys requires immense surface pressure to eliminate internal voiding. A 1000-ton capacity ensures uniform green density across thick, large-diameter parts while maintaining precise dimensional tolerances.
02 — Technical Specifications
SM 1000 HP – HYDRAULIC PRESS MACHINE COMPLETE TECHNICAL DATA
SM 1000 HP – 1000 Ton Hydraulic Press Machine delivers high-force, precision powder compaction for manufacturing wear-resistant rollers and sleeves used in automotive transmissions, engines, bearings, and industrial machinery. Its rigid four-pillar structure ensures uniform density distribution, excellent dimensional accuracy, and consistent part quality, enabling the production of high-strength PM components with superior wear resistance, durability, and reliability in high-volume manufacturing environments.
Capacity & Structural Design
- Rated Compaction Force: 1000 metric tons (≈ 9,810 kN)
- Press Configuration: Fourpillar / fourcolumn guided hydraulic press
- Frame Construction: Heavy fabricated steel frame, stressrelieved
- Design Standard: Heavyduty PM industrial production
- Structural Safety Factor: ≥ 1.30
- Deflection at Rated Load: ≤ 0.08 mm (critical for multicavity tooling)
- Load Distribution: Uniform over entire platen surface
Hydraulic System
Main Hydraulic Cylinder
- Type: Doubleacting, precisionguided
- Bore Diameter: 500–600 mm
- Stroke: 600–800 mm
Maximum Working Pressure: 30–32 MPa (300–320 bar)
Hydraulic Power Pack
- Variable displacement axialpiston pumps
- Servo or proportional pressure control valves
- Closedloop load and position feedback
Pressing Modes
- Constant pressure compaction
- Positioncontrolled pressing
- Multistage pressure with dwell (critical for valve seats)
Platen & Working Envelope
Upper & Lower Platen Dimensions
- Standard: 1,000 × 1,000 mm
- Optional: 1,200 × 1,200 mm (highcavity industrial tooling)
Guide Columns
- Quantity: 4
- Diameter: 160–200 mm
- Surface: Hardened, hardchromed & precisionground
- Daylight Opening: 1,200–1,600 mm
- Platen Parallelism Accuracy: ±0.02 mm / 300 mm
Controls, Monitoring & Safety
- Control System: PLC + industrial HMI (servohydraulic capable)
Process Monitoring
- Compaction force vs displacement curve
- Dwell pressure and time
- Fill height and ejection position
- Tool load balance (multicavity)
Safety Systems
- Safety PLC
- Light curtains / area scanners
- Hydraulic overload protection
- Emergency stop system (CE & ISO compliant)
SM 1000 HP — Model Specifications
- Nominal Force: 10000 KN
- Maximum Hydraulic Pressure: 25 MPa
- Max Opening Height of the Slider: 1500 mm
- Max Stroke of the Slider: 900 mm
- Effective Bed Size: 1500 × 1500 mm
- Slider Down Speed: 180 mm/s
- Slider Pressing Speed: 10–18 mm/s
- Slider Return Speed: 220 mm/s
- Ejector Cylinder Nominal Force: 600 KN
- Stroke of the Ejection Cylinder: 300 mm
03 — Die / Mold System
Precision Powder Metallurgy (PM) Wear-Resistant Rollers & Sleeves Die Mold Engineering
Precision Powder Metallurgy (PM) Wear-Resistant Rollers & Sleeves Die Mold Engineering enables the accurate design and manufacture of tooling for high-density PM components with tight dimensional tolerances and superior surface finish. Optimized die geometry, material flow control, and compaction performance ensure consistent production of durable, wear-resistant rollers and sleeves for demanding automotive and industrial applications.
Technical Specifications (Tooling)
Tool Type
- Precision Powder Compaction Die Set
- Single-Level and Multi-Level PM Tooling
- Floating Die or Fixed Die Configuration
- Mechanical or Hydraulic Press Compatible
Tool Materials
- High-Speed Steel (HSS)
- Tungsten Carbide (WC-Co)
- Powder Metallurgy Tool Steel (ASP Series)
- Cemented Carbide Inserts for wear-critical areas
- Hardened Alloy Tool Steels (AISI D2, M2, CPM grades)
Tool Construction
- Modular die assembly design
- Replaceable die inserts and wear components
- Precision-ground punches and core rods
- Heavy-duty guide pillar and bushing arrangement
- Carbide-lined wear surfaces for maximum durability
- Optimized stress distribution for high compaction loads
Multi-Level Tooling
- Supports complex roller and sleeve geometries
- Independent upper and lower punch movements
- Multiple cavity levels for density control
- Suitable for stepped bores, shoulders, and intricate profiles
- CNC-controlled tooling alignment and stroke adjustment
Alignment Accuracy
- Die-to-punch concentricity: ≤ 0.005 mm
- Tooling alignment tolerance: ± 0.01 mm
- Precision guide systems to minimize punch wear
- High repeatability for large-volume production
Surface Finish
- Die cavity finish: Ra 0.05 – 0.20 µm
- Punch surface finish: Ra 0.05 – 0.15 µm
- Mirror-polished carbide surfaces
- Reduced friction and ejection forces
Lubrication
- Integrated die wall lubrication capability
- Compatible with zinc stearate and synthetic PM lubricants
- Optional automatic lubrication systems
- Reduced tool wear and improved powder flow characteristics
Tool Life
- Carbide Die Inserts: 500,000 – 2,000,000+ compaction cycles
- Punches: 200,000 – 1,000,000+ cycles (application dependent)
- Core Rods: 150,000 – 800,000+ cycles
- Tool life optimized through proper lubrication, alignment, and preventative maintenance
Powder Metallurgy (PM) Wear-Resistant Rollers & Sleeves Die Mold Tooling
04 — Product Application
Where Powder Metallurgy (PM) Wear-Resistant Rollers & Sleeves Are Used
Powder Metallurgy (PM) wear-resistant rollers and sleeves are widely used in industrial applications requiring high wear resistance, dimensional accuracy, and long service life. Their superior mechanical properties and cost-effective production make them ideal for high-load, high-abrasion operating environments.
Industry Applications
Steel & Metal Processing
Powder Metallurgy (PM) wear-resistant rollers and sleeves are extensively used in steel and metal processing industries, where components are subjected to continuous friction, high loads, and abrasive operating conditions. Their excellent wear resistance, dimensional stability, and long service life help improve equipment reliability, reduce maintenance requirements, and enhance production efficiency in rolling mills and metal forming operations.
Material Handling Systems
Powder Metallurgy (PM) wear-resistant rollers, drive sleeves, and wear components are widely used in material handling systems for the efficient transport of bulk materials. Their high wear resistance, load-bearing capability, and dimensional stability ensure reliable performance, reduced maintenance, and extended service life in conveyors, feeders, and automated handling equipment.
Mining & Cement Industries
Powder Metallurgy (PM) wear-resistant rollers and sleeves are extensively used in mining and cement industries, where equipment operates under severe abrasion, impact loads, and dusty environments. Their superior wear resistance and durability help improve equipment reliability, reduce downtime, and extend service life in crushers, feeders, mills, and heavy-duty conveying systems.
Automotive & Industrial Machinery
Powder Metallurgy (PM) wear-resistant components such as transmission parts, bearing sleeves, and precision wear elements are widely used in automotive and industrial machinery applications. Their excellent dimensional accuracy, strength, and wear resistance ensure reliable performance, reduced maintenance, and extended service life in demanding operating environments
Finished Product Gallery
05 — Key Advantages
Why Choose the 1000-Ton Sinter Hydraulic Press
The 1000-ton Sinter Hydraulic Press provides the high compaction force required to manufacture dense, dimensionally accurate, and wear-resistant PM rollers and sleeves. Its advanced hydraulic control, precision tooling compatibility, and uniform pressure distribution ensure consistent green density, superior product quality, and reliable performance in high-volume production environments.
High Compaction Force
Provides up to 1000 tons of pressing capacity for producing high-density, high-strength PM rollers and sleeves.
Superior Density Uniformity
Ensures even pressure distribution throughout the component, resulting in consistent mechanical properties and wear resistance.
Excellent Dimensional Accuracy
Advanced hydraulic control delivers precise part dimensions, reducing secondary machining requirements.
Supports Complex Geometries
Compatible with multi-level tooling for manufacturing intricate roller and sleeve designs with high precision.
Extended Tool Life
Smooth and controlled pressing action minimizes tooling stress, reducing wear and increasing die and punch service life.
High Productivity & Reliability
Enables stable, repeatable, and high-volume production with reduced downtime and improved overall manufacturing efficiency.