Exapro offers a curated selection of used universal milling machines designed for precision, versatility, and durability. Whether you are in manufacturing, aerospace, automotive, or construction, these machines are indispensable for cutting, drilling, and shaping metals with accuracy across multiple axes.
Our marketplace connects you with global brands such as DMG Mori, TOS Varnsdorf, and Haas Automation, ensuring high-quality performance at a fraction of the cost of new equipment. Priced typically between € 7,000 and € 15,000, these machines are robust, well-maintained, and ready to enhance your production capabilities.
Explore our range of universal milling machines today!
Showing 1 - 20 out of 373
| X axis | 760 mm |
|---|---|
| Z axis | 450 mm |
| Table width | 300 mm |
| Max. spindle speed | 1500 rpm |
| Y axis | 275 mm |
|---|---|
| Table length | 1500 mm |
| Spindle taper | |
| Overhauled | no |
Austria
2002
| Spindle taper |
|---|
| Overhauled | no |
|---|
France
2013
| X axis | 400 mm |
|---|---|
| Z axis | 400 mm |
| Table width | 250 mm |
| Spindle taper |
| Y axis | 200 mm |
|---|---|
| Table length | 800 mm |
| Max load on table | 300 kg |
| Overhauled | no |
Germany
1987
| X axis | 950 mm |
|---|---|
| Z axis | 500 mm |
| Table width | 305 mm |
| Spindle motor power | 3 kW |
| Y axis | 400 mm |
|---|---|
| Table length | 1240 mm |
| Spindle taper | |
| Overhauled | no |
France
1981
| X axis | 300 mm |
|---|---|
| Z axis | 340 mm |
| Table width | 250 mm |
| Max. spindle speed | 2000 rpm |
| Overhauled | no |
| Y axis | 160 mm |
|---|---|
| Table length | 650 mm |
| Spindle taper | |
| Spindle motor power | 2.2 kW |
France
1985
| X axis | 1300 mm |
|---|---|
| Z axis | 550 mm |
| Table width | 460 mm |
| Spindle taper |
| Y axis | 700 mm |
|---|---|
| Table length | 1635 mm |
| Max load on table | 800 kg |
| Overhauled | no |
Germany
1980
| X axis | 500 mm |
|---|---|
| Z axis | 400 mm |
| Table width | 420 mm |
| Spindle taper | SK 40 |
| Spindle motor power | 4 kW |
| Y axis | 300 mm |
|---|---|
| Table length | 800 mm |
| Max load on table | 400 kg |
| Max. spindle speed | 2000 rpm |
| Overhauled | no |
Germany
1965
| Spindle taper |
|---|
| Overhauled | no |
|---|
Germany
1981
| Spindle taper |
|---|
| Overhauled | no |
|---|
| Spindle taper |
|---|
| Overhauled | no |
|---|
France
1980
| X axis | 1000 mm |
|---|---|
| Z axis | 500 mm |
| Table width | 400 mm |
| Spindle taper | |
| Spindle motor power | 8 kW |
| Year of overhauling |
| Y axis | 500 mm |
|---|---|
| Table length | 1300 mm |
| Max load on table | 2000 kg |
| Max. spindle speed | 1500 rpm |
| Overhauled | no |
| Spindle taper |
|---|
| Overhauled | no |
|---|
| Spindle taper |
|---|
| Overhauled | no |
|---|
France
1990
| X axis | 1500 mm |
|---|---|
| Z axis | 550 mm |
| Table width | 460 mm |
| Spindle taper | |
| Spindle motor power | 9 kW |
| Y axis | 700 mm |
|---|---|
| Table length | 2000 mm |
| Max load on table | 2000 kg |
| Max. spindle speed | 2066 rpm |
| Overhauled | no |
Denmark
2024
| X axis | 600 mm |
|---|---|
| Z axis | 400 mm |
| Table width | 500 mm |
| Max. spindle speed | 2000 rpm |
| Y axis | 480 mm |
|---|---|
| Table length | 900 mm |
| Spindle taper | 40 ISO |
| Overhauled | no |
| X axis | 420 mm |
|---|---|
| Z axis | 400 mm |
| Table width | 250 mm |
| Max. spindle speed | 2240 rpm |
| Overhauled | no |
| Y axis | 400 mm |
|---|---|
| Table length | 710 mm |
| Spindle taper | ISO 30 |
| Spindle motor power | 1.5 kW |
Germany
2004
| X axis | 600 mm |
|---|---|
| Z axis | 400 mm |
| Table width | 400 mm |
| Max. spindle speed | 3150 rpm |
| Overhauled | no |
| Y axis | 400 mm |
|---|---|
| Table length | 630 mm |
| Spindle taper | SK 40 |
| Spindle motor power | 8 kW |
Germany
2000
| X axis | 300 mm |
|---|---|
| Z axis | 290 mm |
| Table width | 210 mm |
| Spindle taper | ISO 40 |
| Spindle motor power | 1.5 kW |
| Y axis | 160 mm |
|---|---|
| Table length | 600 mm |
| Max load on table | 200 kg |
| Max. spindle speed | 2000 rpm |
| Overhauled | no |
Germany
2017
| X axis | 450 mm |
|---|---|
| Z axis | 450 mm |
| Table width | 260 mm |
| Max. spindle speed | 6300 rpm |
| Overhauled | no |
| Y axis | 260 mm |
|---|---|
| Table length | 450 mm |
| Spindle taper | SF 32 |
| Spindle motor power | 2.9 kW |
Germany
2006
| X axis | 560 mm |
|---|---|
| Z axis | 420 mm |
| Table width | 250 mm |
| Max. spindle speed | 1180 rpm |
| Overhauled | no |
| Y axis | 300 mm |
|---|---|
| Table length | 1100 mm |
| Spindle taper | ISO 40 |
| Spindle motor power | 3.7 kW |
Universal milling machines can perform multiple operations — drilling, cutting, shaping, slotting — all on a single platform. This eliminates the need for multiple machines, saving both floor space and production time. Their ability to work on different axes makes them suitable for complex geometries as well as simpler parts.
Equipped with digital readouts (DROs), fine feed controls, and adjustable spindle speeds, these machines deliver tight tolerances across a wide range of materials. Precision machining not only improves the surface finish of components but also reduces the need for rework, ensuring consistent product quality for sectors like aerospace and automotive.
Constructed with heavy cast-iron frames and rigid components, universal milling machines are built to withstand continuous operation in demanding industrial settings. Even when purchased second-hand, a well-maintained unit can continue to perform at a high production capacity for years. This long service life makes them a cost-effective investment.
From aluminium and steel to titanium and exotic alloys, universal mills can adapt to a broad spectrum of materials. This flexibility allows workshops to expand their service offerings and cater to specialized industries such as medical device manufacturing or aerospace engineering.
Many models come with interchangeable heads, rotary tables, and a variety of tool holders, enabling operators to adapt machines for specific tasks. This level of customization ensures that one machine can handle multiple production requirements, maximizing return on investment.
Purchasing second-hand means saving up to 60% compared to new models while retaining full production capacity. This cost advantage frees up capital for other investments such as automation tools, operator training, or additional equipment.
Modern universal milling machines often feature intuitive CNC controls or simplified manual interfaces, making them accessible even to operators with limited experience. This reduces training costs and allows businesses to integrate new staff more quickly into production.
The table size defines the maximum dimensions of the workpiece. Larger tables are ideal for big components, such as engine blocks or aerospace parts, while smaller tables are better suited for precision tasks. Some models allow multiple small workpieces to be set up simultaneously, boosting productivity.
Measured in RPM, spindle speed controls how quickly the cutter rotates. Higher speeds are suitable for softer materials or delicate finishing, while lower speeds excel in cutting hardened steel or tough alloys. Machines with a wide speed range provide greater operational flexibility.
The spindle taper ensures precise tool holding, which is critical for maintaining machining accuracy. Standard tapers such as ISO, BT, or HSK offer compatibility with a wide variety of tools, making it easier to switch between applications without downtime.
The axis travel defines the machine’s working envelope. Larger travels allow for machining bigger components or multiple setups, while compact travels are optimized for high-precision parts. This parameter directly affects the scope of operations possible.
While standard universal milling machines work on three axes (X, Y, Z), advanced models include 4th and 5th axes, enabling the production of complex geometries such as turbine blades or medical implants. More axes increase both versatility and competitiveness.
Feed rate settings determine the speed of material engagement. Correct adjustments optimize surface finish, extend tool life, and reduce machining time. Inaccurate feed rates, on the other hand, can cause excessive wear or poor-quality cuts.
Power consumption influences both the machine’s capabilities and operating costs. Higher power machines can process tougher materials and achieve faster cycle times, but they require sufficient electrical infrastructure in the workshop.
A heavier machine provides better stability, reducing vibrations and ensuring smoother operation. This is particularly important when machining high-tolerance parts where precision is critical.
DMG Mori milling machines are known for durability, precision, and innovative engineering. Their universal mills integrate advanced CNC controls that boost productivity and ensure repeatable accuracy across diverse applications.
TOS Varnsdorf, a Czech manufacturer, is recognized for robust and high-performance engineering. Their machines are widely used in Europe and beyond for heavy-duty applications in construction and energy.
Haas universal milling machines are globally popular for their ease of use, affordability, and strong CNC systems. They are particularly valued by SMEs for their balance of cost and performance.
Hurco stands out with advanced CNC control interfaces that simplify programming. Their user-friendly systems make complex milling operations accessible to a broader workforce.
Makino delivers Japanese precision and robust build quality. Their universal milling machines are sought after in industries requiring ultra-fine tolerances, such as aerospace and medical.
Doosan machines combine Korean engineering with rugged construction. They are a reliable choice for businesses that need high-capacity machining on a daily basis.
Hermle represents German engineering excellence. Their universal mills offer exceptional CNC accuracy and are widely used in precision manufacturing.
Deckel Maho, part of DMG Mori, is famous for its advanced milling technology. Their machines combine flexibility with cutting-edge controls, making them popular for complex geometrical tasks.
Universal milling machines are at the heart of manufacturing plants, producing a wide variety of precision components. Their flexibility makes them indispensable across industries from consumer goods to heavy machinery.
These machines excel in metalworking workshops, where they are used to cut, drill, and shape ferrous and non-ferrous metals. Their versatility supports both small-batch and high-volume production.
In the automotive sector, universal mills produce critical parts such as engine blocks, chassis components, and precision assemblies. Their reliability ensures production lines run smoothly and with minimal downtime.
Aerospace manufacturers require machines capable of maintaining extremely tight tolerances. Universal milling machines deliver the stability and accuracy needed to produce aircraft structures and engine parts.
From heavy machinery components to structural steel parts, construction industries rely on these machines for robust and accurate output.
Technical institutes and universities use universal mills for training machinists and developing prototypes. Their adaptability makes them excellent tools for educational purposes.
Universal milling machines contribute to shipbuilding by producing large hull components, engine parts, and marine fixtures that require both durability and precision.
In the medical sector, these machines manufacture surgical instruments, prosthetics, and device components with exceptional accuracy. Their role is critical in ensuring high-quality patient care products.
On Exapro, used universal milling machines typically cost between €7,000 and €15,000. This competitive range makes them attractive for both small workshops and larger industrial facilities looking to expand capacity.
Key specifications such as table size, spindle power, and axis travel heavily influence pricing. Larger and more powerful machines are generally priced higher, reflecting their ability to handle complex tasks and larger workpieces.
A machine with a documented service history and regular maintenance will command a higher price than one without. Buyers prioritize condition to minimize the risk of unexpected repairs or downtime.
Extras such as rotary tables, coolant systems, tool holders, or DROs add substantial value. These accessories improve efficiency and reduce the need for additional investment after purchase.
Consider the size, complexity, and materials of your projects before investing. This helps ensure that the chosen machine can meet both current and future production demands.
Evaluate your facility’s footprint, ceiling height, and power supply. A mismatch in infrastructure could result in additional installation costs or delays.
Thoroughly check slides, bearings, spindles, and lubrication systems. A machine in good condition ensures higher uptime and lower long-term maintenance expenses.
Select a brand known for parts availability and reliable after-sales support. Established names such as DMG Mori or Makino provide peace of mind when it comes to future servicing.
Exapro’s experts can assist with specifications, inspections, pricing, and logistics. Leveraging professional support helps buyers avoid costly mistakes and secure the best deal.
Browse our latest listings of used universal milling machines on Exapro and connect with verified sellers worldwide. Our team provides technical advice, inspections, and logistics support to ensure a seamless buying process from start to finish.