At Exapro, we offer a broad selection of used injection moulding machines essential for producing everything from everyday plastic items to highly engineered components for specialised industries. These machines are the backbone of modern plastics manufacturing, combining speed, precision, and repeatability.
Injection moulding machines work by heating plastic pellets until molten and injecting the material into a mould under high pressure. Once cooled and solidified, the mould opens to release a perfectly shaped plastic part. This process enables the rapid, high-volume production of complex, detailed, and consistently accurate components.
Choosing a used injection moulding machine from Exapro offers a cost-effective and reliable solution for expanding production capacity. Every machine listed on our marketplace undergoes a thorough vetting process to ensure it meets high standards of performance, durability, and operational efficiency. Our inventory includes trusted manufacturers such as Arburg, Engel, and Sumitomo Demag, well-known for their robust construction, advanced technology, and long-term stability.
Whether you need a compact press for small technical parts or a large-tonnage machine for bigger moulds, Exapro provides options to suit a wide range of production requirements. Our experts are available to help you evaluate key factors such as material compatibility, mould size, cycle times, and automation level, ensuring you choose the right system for your application.
Explore our selection of used injection moulding machines today!
Showing 1 - 20 out of 1526
| Clamping force | 250 T |
|---|---|
| Tie bar spacing (H) | 685 mm |
| Shot weight | 679 g |
| Platen length | 1005 mm |
| Bi-metal screw | No |
| Robot interface | |
| Number of heating zones | 6 |
| Mould size | 280-700 |
| Screw diameter | 60 mm |
|---|---|
| Tie bar spacing (V) | 735 mm |
| Pressure on material | 998 bar |
| Platen width | 950 mm |
| Equipped with robot | No |
| Number of cores | 4 |
| Opening of the press | 550 mm |
Belgium
2024
| Clamping force | 2500 T |
|---|---|
| Shot weight | 679 g |
| Equipped with robot | No |
| Number of cores | 2 |
| Mould size |
| Screw diameter | 60 mm |
|---|---|
| Bi-metal screw | Yes |
| Robot interface | MC P1 |
| Opening of the press | 1150 mm |
| Clamping force | 350 T |
|---|---|
| Tie bar spacing (H) | 710 mm |
| Shot volume | 1608 cm³ |
| Pressure on material | 1855 bar |
| Platen width | 1095 mm |
| Equipped with robot | No |
| Number of cores | 2 |
| Opening of the press | 920 mm |
| Screw diameter | 70 mm |
|---|---|
| Tie bar spacing (V) | 710 mm |
| Shot weight | 1464 g |
| Platen length | 1060 mm |
| Bi-metal screw | No |
| Robot interface | |
| Number of heating zones | 6 |
| Mould size |
United Kingdom
2004
| Clamping force | 60 T |
|---|---|
| Tie bar spacing (V) | 320 mm |
| Robot interface |
| Tie bar spacing (H) | 320 mm |
|---|---|
| Shot weight | 64 g |
| Mould size |
United Kingdom
2002
| Clamping force | 55 T |
|---|---|
| Tie bar spacing (V) | 280 mm |
| Robot interface |
| Tie bar spacing (H) | 315 mm |
|---|---|
| Shot weight | 109 g |
| Mould size |
United Kingdom
2004
| Clamping force | 50 T |
|---|---|
| Mould size |
| Robot interface |
|---|
United Kingdom
2004
| Clamping force | 70 T |
|---|---|
| Tie bar spacing (V) | 315 mm |
| Robot interface |
| Tie bar spacing (H) | 360 mm |
|---|---|
| Shot weight | 109 g |
| Mould size |
United Kingdom
2007
| Clamping force | 60 T |
|---|---|
| Tie bar spacing (V) | 320 mm |
| Robot interface |
| Tie bar spacing (H) | 320 mm |
|---|---|
| Shot weight | 46 g |
| Mould size |
United Kingdom
2011
| Clamping force | 80 T |
|---|---|
| Tie bar spacing (V) | 420 mm |
| Robot interface |
| Tie bar spacing (H) | 420 mm |
|---|---|
| Shot weight | 183 g |
| Mould size |
United Kingdom
2007
| Clamping force | 80 T |
|---|---|
| Tie bar spacing (V) | 420 mm |
| Robot interface |
| Tie bar spacing (H) | 420 mm |
|---|---|
| Shot weight | 183 g |
| Mould size |
United Kingdom
2003
| Clamping force | 80 T |
|---|---|
| Tie bar spacing (V) | 400 mm |
| Robot interface |
| Tie bar spacing (H) | 400 mm |
|---|---|
| Shot weight | 208 g |
| Mould size |
United Kingdom
| Clamping force | 85 T |
|---|---|
| Tie bar spacing (V) | 360 mm |
| Robot interface |
| Tie bar spacing (H) | 400 mm |
|---|---|
| Shot weight | 155 g |
| Mould size |
United Kingdom
2000
| Clamping force | 85 T |
|---|---|
| Tie bar spacing (V) | 360 mm |
| Robot interface |
| Tie bar spacing (H) | 400 mm |
|---|---|
| Shot weight | 155 g |
| Mould size |
United Kingdom
2013
| Clamping force | 160 T |
|---|---|
| Tie bar spacing (V) | 520 mm |
| Robot interface |
| Tie bar spacing (H) | 520 mm |
|---|---|
| Shot weight | 402 g |
| Mould size |
United Kingdom
2008
| Clamping force | 150 T |
|---|---|
| Robot interface |
| Shot weight | 257 g |
|---|---|
| Mould size |
United Kingdom
2020
| Clamping force | 90 T |
|---|---|
| Tie bar spacing (V) | 360 mm |
| Robot interface |
| Tie bar spacing (H) | 360 mm |
|---|---|
| Shot weight | 139 g |
| Mould size |
United Kingdom
2000
| Clamping force | 160 T |
|---|---|
| Tie bar spacing (V) | 510 mm |
| Robot interface |
| Tie bar spacing (H) | 510 mm |
|---|---|
| Shot weight | 330 g |
| Mould size |
United Kingdom
2004
| Clamping force | 200 T |
|---|---|
| Tie bar spacing (H) | 570 mm |
| Shot volume | 353 cm³ |
| Pressure on material | 2050 bar |
| Platen width | 795 mm |
| Mould size |
| Screw diameter | 50 mm |
|---|---|
| Tie bar spacing (V) | 570 mm |
| Shot weight | 297 g |
| Platen length | 795 mm |
| Robot interface |
United Kingdom
2008
| Clamping force | 165 T |
|---|---|
| Tie bar spacing (V) | 460 mm |
| Robot interface |
| Tie bar spacing (H) | 460 mm |
|---|---|
| Shot weight | 398 g |
| Mould size |
United Kingdom
2019
| Clamping force | 200 T |
|---|---|
| Tie bar spacing (V) | 530 mm |
| Robot interface |
| Tie bar spacing (H) | 530 mm |
|---|---|
| Shot weight | 375 g |
| Mould size |
Investing in a used injection moulding machine allows manufacturers to access industrial-grade performance at a significantly lower cost than purchasing new equipment. These machines support high-volume, high-precision production and are a reliable way to scale operations efficiently.
Understanding key machine parameters ensures proper alignment between tooling, materials, production targets, and desired part quality. Below are the most critical specifications to evaluate.
The clamping unit keeps the mould securely closed during injection. Required tonnage depends on the part’s projected surface area and material flow characteristics. Tie-bar spacing and platen size define the maximum mould dimensions the machine can accommodate.
Shot weight determines how much plastic can be injected per cycle, while injection pressure controls mould filling accuracy. Screw diameter and L/D ratio influence melting capacity and material homogeneity.
Hydraulic, all-electric, and hybrid drives each offer distinct advantages. All-electric and servo-hydraulic machines provide superior energy efficiency, precision, and repeatability, lowering operating costs.
Key parameters include minimum/maximum mould height, daylight, ejector stroke/force, and available core pull circuits. Quick-change systems help reduce setup time between production batches.
Modern PLC/HMI systems enable recipe management, SPC monitoring, alarm diagnostics, and integration with robots, conveyors, hot-runner controllers, and inline quality-control devices.
Choosing machines from brands with widely available spare parts and established service networks minimises downtime and extends operational lifespan.
Exapro features used injection moulding machines from globally recognised manufacturers known for precision engineering, technological innovation, and production reliability.
Availability varies depending on the used machinery market, but all machines undergo verification before being listed to ensure they meet Exapro’s quality standards.
Injection moulding is one of the most versatile and widely used manufacturing processes, enabling consistent production of complex plastic components at scale.
The versatility of injection moulding makes it indispensable across any industry requiring consistent, repeatable, and high-quality plastic components.
Pricing for used injection moulding machines varies widely based on tonnage, brand, age, configuration, and available automation. Understanding the full cost structure helps buyers make informed decisions.
Use Exapro’s Valorexo pricing algorithm to benchmark asking prices against real market data and ensure fair negotiation.
Matching the correct machine to your moulds, materials, and production requirements is essential for achieving stable performance and optimal cycle times.
Identify target part size, weight, materials (PP, ABS, PC, PA, glass-filled compounds), required tolerances, and cycle time objectives.
Confirm clamping force, tie-bar spacing, platen size, and mould height compatibility with your existing or planned tool.
Verify electrical requirements, space constraints, safety systems, and compatibility with automation such as robots or conveyors.
Evaluate screw and barrel wear, pumps, valves, drives, controller health, oil condition, and any leaks.
All-electric or servo-hydraulic systems significantly reduce operating costs in high-volume production.
Ensure availability of spare parts, documentation, and a local service network to minimise downtime.
Exapro can help shortlist machines, coordinate inspections, and provide logistical guidance tailored to your production needs.
Browse our latest listings of used injection moulding machines on Exapro and connect with verified sellers worldwide. With technical guidance, expert advice, inspection support, logistics coordination, and pricing tools like Valorexo, Exapro helps you upgrade your plastics production line with confidence.