When were abrasive grinding wheels first used?

August 18, 2025
by leeon

Are you curious about the simple tools you rely on every day? The grinding wheel seems like a modern invention, but its story is as old as civilization itself. Understanding this history helps you appreciate the technology in your hands.

Abrasive grinding wheels were first used in ancient times, with naturally bonded sandstone wheels rotated by hand or water. However, modern, artificially bonded grinding wheels were invented in the late 19th century, which truly revolutionized manufacturing.

A side-by-side comparison showing an ancient, hand-cranked sandstone grinding wheel and a modern, high-speed industrial grinding wheel.

I am fascinated by the history of the grinding wheel because, in many ways, it tells the story of human progress. From sharpening the first metal tools to shaping components for spacecraft, this tool has always been there, helping us build our world. As a manufacturer, I feel a connection to this long line of toolmakers. My own company’s story reflects this history. We are based in Henan, China1, a region with a deep history, but we use the most modern technology available. While the history of grinding is long, the recent developments have been explosive. Let’s look closer at this journey of innovation.

When were grinding wheels invented?

Are you still using outdated grinding technology? The invention of the modern wheel was a turning point that brought incredible speed and precision to the industry, and that innovation continues today.

Natural grinding wheels have existed for centuries. The true revolution came in the late 1800s with the invention of the mass-produced, vitrified-bond artificial grinding wheel. This marked the birth of the modern precision grinding industry.

A black-and-white photograph from the early 20th century showing a factory floor filled with belt-driven grinding machines.

We can divide the history of the grinding wheel into two main eras. First is the ancient era. Think of rotating sandstones used to sharpen swords or large, water-powered stones used in farming communities. These wheels were made from a single, natural piece of abrasive stone. They worked, but they were inconsistent. One part of the wheel might be harder than another, causing uneven wear. The second era, the modern era, began during the Industrial Revolution2. The need for perfectly fitting parts for steam engines and other machines created a huge demand for better grinding tools. The breakthrough came in the 1870s with the development of the vitrified bond. This ceramic-based "glue" could be mixed with loose abrasive grains and fired in a kiln. The result was a strong, porous, and perfectly uniform wheel. This was the invention that made high-speed, precision manufacturing possible on a massive scale.

What has the abrasive wheels regulations 1970 been superseded by?

Are you worried that your suppliers are not up-to-date on safety? Using wheels that do not meet current regulations is a serious risk. Knowing the rules is essential for protecting your team.

In the United Kingdom, the old Abrasive Wheels Regulations 1970 have been superseded by the Provision and Use of Work Equipment Regulations 1998 (PUWER 98). This modern regulation covers all aspects of the safe use of abrasive wheels.

A modern safety graphic illustrating the correct way to mount a grinding wheel, showing flanges, blotters, and safety guards.

This is a very important point for our customers, especially those operating in Europe. The old 1970 regulations were good, but they were very narrow, focusing only on the wheel itself. The switch to PUWER 98 was a significant improvement. It places the focus on the entire system: the wheel, the machine, the work environment, and the operator. It requires a complete risk assessment3. It also puts a heavy emphasis on training and competence4. An employer must be able to prove that the person mounting and using the grinding wheel has been properly trained to do so. As a manufacturer committed to quality, we see this as a very positive change. It means that our customers are more focused than ever on total safety. This ensures that the high-quality wheels we provide are used correctly and safely, which benefits everyone in the long run.

Is a grinding wheel an abrasive wheel?

Are you confused by similar terms in catalogs? Ordering a "grinding wheel" when you need a "cutting disc" can cause delays. Let’s clear up this simple but very common point of confusion.

Yes, a grinding wheel is a specific type of abrasive wheel. "Abrasive wheel" is the broad family name that includes any wheel-shaped tool using abrasives. This family includes grinding wheels, cutting discs, sanding discs, and polishing wheels.

A simple diagram shows a large circle labeled 'Abrasive Wheel' containing smaller circles for 'Grinding Wheel,' 'Cutting Disc,' and 'Polishing Wheel'.

Thinking about the history helps to understand this. The very first abrasive wheels were all "grinding wheels." They were thick, solid stones used for sharpening and shaping. They gave the whole family its name. As technology advanced, we learned how to make new types of abrasive wheels for different jobs. We developed very thin, reinforced wheels for cutting metal. We layered flaps of sandpaper to create flap discs for blending welds. We made soft cotton wheels for final polishing. All of these are still "abrasive wheels," but they are not "grinding wheels." Today, the term grinding wheel usually refers to that classic, solid wheel used for surface finishing and heavy material removal. As a full-range manufacturer, we make almost every member of the abrasive wheel family. This is why we always ask our clients to describe their job, not just name a tool.

What is the history of abrasives?

Do you think all abrasives are created equal? Using a simple natural abrasive on modern alloys will fail completely. The history of abrasives is a quest for harder, purer, and more consistent materials.

The history of abrasives starts with natural materials like sandstone and emery. The modern age of abrasives began in the late 1800s with the invention of synthetic materials like silicon carbide and fused aluminum oxide, which delivered superior performance.

A historical timeline graphic showing natural sandstone, then dark emery rock, followed by iridescent silicon carbide crystals and modern ceramic grains.

For thousands of years, people simply used what they could find in nature. The Romans used sandstone to sharpen tools. For centuries, artisans used emery, a natural rock containing aluminum oxide, to polish armor and gems. But these natural materials5 are full of impurities. The turning point was the late 19th century. In 1891, Edward G. Acheson was trying to create artificial diamonds but instead discovered silicon carbide6, an incredibly hard material with sharp, brittle grains. A few years later, manufacturers developed a process to fuse bauxite ore into pure aluminum oxide, which was tougher and less brittle than silicon carbide. This was perfect for grinding steel. I feel a strong connection to this history. My Insight is that while the global history is long, China’s modern abrasive industry has seen incredible growth in just the last thirty years. My own factory, Reliable (RL), is part of this story. Here in Henan, we are now at the forefront, producing the next generation of superabrasives7 like diamond and CBN, continuing this global story of innovation.

Conclusion

From ancient sandstone wheels to today’s precision-engineered superabrasives, the grinding wheel has a long and innovative history. This progress ensures we can provide the exact high-performance tools your business needs to succeed.



  1. Learn about Henan’s historical and modern contributions to the abrasive manufacturing sector. 

  2. Discover the transformative effects of the Industrial Revolution on grinding technology and manufacturing. 

  3. Understand the importance of risk assessments in ensuring safe abrasive wheel operations. 

  4. Explore the necessity of proper training for safe and effective use of grinding wheels. 

  5. Explore the historical use of natural materials in abrasives and their significance. 

  6. Learn about silicon carbide’s properties and its critical role in modern abrasives. 

  7. Understand the role of superabrasives in high-performance grinding applications. 

Written by

leeon

leeon

Leeon is passionate about promoting his hometown's industries to the world. A graduate from a university in Beijing and currently based in Henan, he is dedicated to showcasing his home region's unique offerings. Born in 1994, Leeon is married and enjoys spending time with his lovely daughter. His work not only fulfills his personal aspirations but also contributes to putting his hometown on the global map. Leeon invites everyone to discover and engage with the vibrant culture and opportunities his region has to offer.

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