| Part size limitations | Metric units | Imperial units |
|---|---|---|
| Maximum part diameter | 508 mm | 20 inch |
| Maximum part length | 1066.8 mm | 42 inch |
| Maximum swing over the carriage | 355.6 mm | 14 inch |
| Maximum spindle through-hole | 50.8 mm | 2 inch |
Maximum speed: 2000RPM
Motor power: 750W
At TTD, an ISO 9001 – certified company, we excel in crafting precision components with exceptional accuracy. Whether it’s for intricate medical and aerospace designs or complex industrial parts, we leverage CNC turning lathes to handle machining projects demanding tight tolerance specifications, reaching as precise as ±0.005″ — just a few thousandths of an inch! For metal parts, our standards align with ISO 2768 – m, and for plastics, we adhere to the requirements of ISO 2768 – c.
| Type | Tolerance |
|---|---|
| Linear Dimension | +/- 0.025 mm +/- 0.001 inch |
| Hole Diameters (not reamed) | +/- 0.025 mm +/- 0.001 inch |
| Shaft Diameters | +/- 0.025 mm +/- 0.001 inch |
| Part Size Limit | 950 * 550 * 480 mm 37.0 * 21.5 * 18.5 inch |
The machined aluminum parts are left with visible tool marks and potentially sharp edges and burrs, which can be removed upon request.
Give the machined parts a smooth and uniform matte surface finish, thereby removing tool marks.
Creating a smooth and shiny surface by manually polishing in multiple directions or by applying a chemical polish treatment.
Type II (Anodizing color or clear) or Type III (Anodizing hard coat) Anodizing does not cover tool marks unless bead blasted beforehand.
Increase the part’s corrosion resistance while retaining its conductivity. RoHS compliant.
Enhance aesthetics and durability of the cnc aluminum components.
Applying powdered paint to the components and then baking it in an oven, which results in a stronger, more wear- and corrosion-resistant layer that is more durable than traditional painting methods.
CNC turning plays a crucial role in diverse industries, enabling the production of high - precision cylindrical components. Here are some key application areas:
Got questions about CNC turning, material specs, or project feasibility? We’re here to turn ideas into reality.
CNC milling and CNC turning are two distinct machining processes that differ in how they operate, the types of machines used, and the parts they can produce.
CNC milling uses a rotating cutting tool that moves across a stationary workpiece to remove material from its surface. The milling process can produce a wide range of geometries, including flat and inclined surfaces, slots, and grooves.
CNC turning, on the other hand, rotates the workpiece while the cutting tool remains stationary, shaping the material into the desired shape. It is typically used to produce cylindrical parts and is ideal for creating symmetrical components like shafts, pins, and bushings.
In summary, CNC milling is ideal for producing parts with complex shapes and geometries, while CNC turning is perfect for creating cylindrical parts. Both processes provide high levels of precision, consistency, and efficiency while reducing the need for manual labor.
CNC lathes and turning centers are not just two names for the same machine – they actually perform different tasks! Lathes generally rotate a part to create circular shapes, but with more advanced features like facing, threading, knurling drilling and reaming as well as taper turning capabilities; Turning Centers can help you produce even more intricate pieces.
Rough turning and finish turning are the two stages of the turning process used to make machined parts. Here are the primary differences between them:
Both stages are essential in the turning process, with rough turning used to remove bulk material and produce the desired shape, and finish turning used to refine the size and surface finish of the machined part.
Through the power of CNC turning, a multitude of parts necessary for production in a variety of industries can be crafted – from automotive components and aeronautical components to medical equipment pieces and toy parts. From hubs to flywheels, this technology is an invaluable tool that continues — day after day — powering countless essential items we use daily.
Higher Precision: CNC turning offers significantly higher precision than manual turning, allowing for extremely accurate machine parts.
Greater Efficiency: CNC lathes can complete multiple operations in a single setup, reducing the time and cost involved in producing machined parts.
Versatile Applications: CNC turning can be applied to an extensive range of materials, from metals to plastics, allowing for a diverse range of applications.
Consistent Quality: CNC turning ensures that every machined part is identical in design and output, guaranteeing consistent quality throughout production.
Lower Costs: With its high efficiency, automated operation, and consistent quality, CNC turning offers lower manufacturing costs in the long run, as compared to traditional methods.
