An industrial robot can return to the same point within a few hundredths of a millimetre, thousands of times a shift. That consistency only helps if the parts around the robot are right. If a base plate is out of flat, a fixture has shifted or gripper fingers have worn, the robot will keep repeating its movement perfectly into the wrong position.
An industrial robot can return to the same point within a few hundredths of a millimetre, thousands of times a shift. That consistency only helps if the parts around the robot are right. If a base plate is out of flat, a fixture has shifted or gripper fingers have worn, the robot will keep repeating its movement perfectly into the wrong position.
This is why CNC machining for automation and robotics matters. Machined base plates, end-of-arm tooling, fixtures, brackets and frames hold every robot, sensor and conveyor in the correct position relative to the product. Continue reading
Inside an ultra-high vacuum chamber, a gas molecule can travel more than 40 kilometres before it hits another one. That is the scale of emptiness researchers need to study atoms, guide particle beams or grow perfect semiconductor films. It is also the reason a fingerprint the size of a full stop, or a bubble of coolant trapped in a bolt hole, can waste a week of beamtime. Continue reading
Choosing the right manufacturing process for a plastic component is not always straightforward. Many engineers default to injection moulding because that is how the final part will eventually be made, then discover that tooling costs and lead times make no sense for a prototype or a small production run.
Plastic CNC machining solves this problem. Instead of building a mould, the part is cut directly from a solid block or rod of plastic using milling machines and lathes. For medical and electronics buyers, where designs often change during development and volumes may never justify a mould, this approach can save weeks and thousands of pounds. Continue reading
There are more precision engineering companies to choose from than ever. That sounds like good news for buyers, but the reality is more complicated.
The UK precision engineering market is splitting in two. Specialist, well-invested companies are seeing strong demand. Generalist, lower-margin operations are under real pressure. The gap between the best and the rest is widening, and for buyers sourcing components for safety-critical or time-critical programmes, the cost of picking the wrong partner is significant. Continue reading
A structural aerospace component can start its life as a billet of aluminium weighing more than a tonne and finish as a finely machined part weighing under a hundred kilos. The rest leaves the machine as a mountain of chips.
At first glance, that looks wasteful. In reality, it is how some of the most demanding airframes in the world are built. The method is called solid billet CNC machining, and for primary structural parts on modern aircraft, it remains the default choice. Continue reading
Picture a machining cell at two o’clock in the morning. The lights are off, the shop floor is empty, and yet a 5-axis machine is steadily producing aerospace brackets to tolerances measured in microns. A robot loads the next pallet. A probe checks the setup. The spindle engages, and another part takes shape. Continue reading
Did you know machining Inconel can wear out cutting tools up to three times faster than stainless steel? These superalloys power jet engines and surgical implants, forming the backbone of high-performance engineering. Yet their exceptional strength makes them notoriously difficult to machine, prone to rapid tool wear, heat buildup, and distortion.
The challenge isn’t just technical, it’s a test of process discipline. Mastering titanium and Inconel doesn’t require costly trial and error. It demands precision tooling, optimised parameters, and proven partnerships that turn tough materials into reliable components. Continue reading
By 2030, more than 60% of global car sales are expected to be electric, yet the race to perfect the battery housing has only just begun.
In the electrification revolution, it’s not always the battery chemistry driving innovation. Sometimes, the real breakthrough lies in what surrounds it. The most overlooked innovation in modern EV design may well be the battery housing, a structure that defines not only safety and thermal performance but also how efficiently a vehicle can be manufactured and driven. Continue reading
Did you know that a misalignment of just 0.01mm in a robotic arm joint can cut its operational lifespan in half?
In the world of robotics, even the smallest deviation can lead to vibration, increased wear, and costly downtime. When every fraction of a millimetre counts, precision isn’t just a design detail, it’s the foundation of performance. Continue reading
