Diamond grinding wheels are the hardest abrasive tools available to modern manufacturing, and they deliver outstanding performance on cemented carbide, glass, ceramics, quartz and other hard, brittle materials. Yet the same properties that make diamond so effective also make it unforgiving: a diamond wheel used in the wrong application, mounted without balancing, or run on a machine that lacks rigidity will fail long before its service life is reached. The four application rules below summarise the most important practice points for workshops that want to obtain consistent surface finish, stable dimensional accuracy and the lowest possible cost per part.
A diamond wheel is designed for high-hardness workpieces. It is not suitable for grinding ordinary carbon steels, low-alloy steels, stainless steels or other soft and ductile metals. When diamond is brought into contact with iron-based materials at grinding temperature, the carbon in the diamond diffuses into the steel and the abrasive graphitises, so the wheel dulls at an extremely high rate. The practical result is a dramatic increase in wheel consumption, poor surface quality and unpredictable tool life.
| Workpiece material | Suitable abrasive | Practical note |
|---|---|---|
| Cemented carbide (tungsten carbide) | Diamond | First-choice application; use resin or metal bond |
| Glass, ceramics, quartz, sapphire | Diamond | Excellent edge quality, low chipping |
| Hardened tool steel (above 55 HRC) | Diamond or CBN | CBN is often preferred for continuous steel grinding |
| Carbon steel, alloy steel, stainless steel | CBN, aluminium oxide | Diamond is not recommended |
| Aluminium, copper, brass | Silicon carbide, aluminium oxide | Diamond will load and burn immediately |
After the diamond wheel has been fitted to its flange, it must be statically balanced before it is put into service. Unbalanced wheels generate vibration at operating speed, and that vibration is transferred directly to the workpiece and to the spindle bearings. The consequences are visible chatter marks, poor surface finish, accelerated wheel wear and, in the worst case, damage to the machine spindle.
Diamond grinding is a low-force, high-precision process, and the machine tool must be matched to it. A machine that is used with diamond wheels should meet the following requirements:
Even a perfectly matched wheel on a rigid machine will underperform if the grinding parameters are wrong. The main variables to control are wheel peripheral speed, infeed depth, workpiece feed rate, coolant flow and dressing practice.
| Parameter | Recommended practice |
|---|---|
| Wheel peripheral speed | Resin-bond diamond wheels: approx. 25–35 m/s; metal-bond wheels can run higher. Never exceed the marked maximum speed. |
| Depth of cut per pass | Rough grinding 0.01–0.03 mm; finish grinding 0.001–0.01 mm, followed by spark-out passes. |
| Workpiece feed rate | Increase for roughing, reduce for finishing to control surface roughness. |
| Coolant | Flood coolant at the grinding zone; keep the concentration and filtration under control. Avoid dry grinding. |
| Dressing | Dress periodically with a silicon carbide stick or dressing board to restore free cutting and avoid loading. |
Correct use of diamond grinding wheels comes down to four disciplined rules: match the wheel to hard materials only, static-balance the wheel on its flange and leave it there, use a rigid and precise machine tool, and select grinding parameters that suit the bond and the workpiece. Applied together, these practices deliver longer wheel life, a better surface finish and a lower overall grinding cost.
Our technical team supports customers with wheel specification selection, bond and grit recommendations, and on-site process troubleshooting for carbide, ceramic and glass grinding applications. Please contact us with your workpiece material, required surface roughness and machine details, and we will propose a specification for your process.
İlgili kişi: Mr. Lenny Li
Tel: 008615003895611
Faks: 86-371-67129055
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