Precision Engineering Blog

CNC machining is a type of manufacturing process that uses computer-controlled machine tools to create parts with high precision. This technology has been around for decades and has been used extensively in various industries, including aerospace, automotive, and medical.

In recent years, however, CNC machining has become increasingly popular in the field of research and development due to its many benefits. Let’s take a closer look at what CNC machining is and how it can be beneficial for research and development engineers. Continue reading →

Machining is a technology that has been around for a while now. Numerical Control Machines, which were the predecessors to CNC (Computer Numerical Control), were around in the 1940s.

Then in the 1970s CNC automation was added to this technology, enabling manufacturers to further improve on existing technologies and raise the bar regarding their manufacturing process. This allowed computer precision and design to be assimilated into workshops and the factory floor to create higher quality goods at a lower cost. Continue reading →

Plastic CNC machining is a process that uses computer-aided design (CAD) and computer-aided manufacturing (CAM) to create 3D objects from plastic material.

This plastic machining process can be used for a variety of purposes, including prototyping, product development, and manufacturing. In this blog post, we will discuss the benefits and different applications of plastic CNC machining. Continue reading →

Precision engineering is the process of designing and manufacturing machines and components that meet precise specifications. This field requires a high degree of accuracy and attention to detail, as even small errors can have major consequences.

Mechanical engineering is the oldest form of engineering there is as it involves the design, manufacture and maintenance of mechanical systems. Continue reading →

Precision CNC Machining is a process that involves removing excess raw materials with extreme accuracy in order to create a finished product. The goal of this process is to shape something into a specific outcome, whether it be a component, a finished product, a prototype, or even a piece of art. Precision CNC Machining is something that impacts all of us, most without even realizing it. Continue reading →

Manufacturing in the UK began with the Industrial Revolution, leading to a rapid increase in innovative engineering technologies such as precision engineering. This article will discuss what it means and why you should work with a UK precision engineering firm. Continue reading →

Probably the singular most asked question that every engineering consultant gets asked is precisely that; so, what does an engineering consultant actually do? It would appear this role is taken on by a wide range of specialist engineers acting only in advisory or overseeing capacities, but while that covers some of what we do – it’s not the whole story. Continue reading →

Using a combination of technology, equipment, knowledge, skills and experience Thompson Precision are able to machine all types of plastics. From simple high volume components to complicated shapes, both are produced quickly and accurately.

Working with our network of materials suppliers we are able to machine all types of plastics, including: Continue reading →

Making the journey from initial idea to mass production can be time-consuming and laborious. Whether you are new to manufacturing or have a background in the industry, it’s important to ensure any concept idea is thoroughly tested, revised and modified until it is fit for purpose.

Technology can help in the process by offering accurate and efficient methods to produce prototypes. These prototypes can easily be adjusted and honed into the perfect end result. Much cheaper and faster for any business. Prototypes can be virtual or real life, made with differing materials, a range of sizes and as complex or simple as required. Continue reading →

Thompson Precision is the go-to engineering company when it comes to the mass-production of precise components or parts.

For example, imagine producing thousands of widgets to find out that due to a tiny error, they aren’t fit for purpose. Or that the holes created for a specific purpose are too far apart. You could be left with a large number of completely useless lumps of metal and a massive cost to be explained. It could mean the difference between a project making a profit or not. Continue reading →