| The titanium spring has many practical applications | | | | have more traction and better handling as a result. |
| in a range of industries. They can be found on | | | | Weight is also an important factor in motor car |
| manufactured items from mountain bikes to | | | | racing. Springs made from titanium have less |
| aircraft, and are even used in space too. Where | | | | mass and therefore less inertia than steel springs. |
| weight savings are required, this spring really | | | | In the extreme conditions of the racetrack, car |
| comes into its own. For aerospace applications this | | | | springs can be rapidly compressed causing a |
| can mean increased speed and range, as well as | | | | displacement of the material mass, which in turn |
| the ability to carry a greater payload. | | | | generates inertia or momentum. What this means |
| In space the conditions that components are | | | | in practice is that the spring can surge, meaning |
| expected to operate under are quite different | | | | that the coils of the suspension spring move in |
| from those on earth. The ductility of many spring | | | | the opposite direction to that of the shock wave. |
| materials is rapidly reduced to the point of being | | | | Not surprisingly, this can cause considerable |
| inadequate when subjected to the significantly | | | | disruption in handling and performance. |
| reduced temperatures of the space environment. | | | | The way to combat this is to have a spring of |
| Titanium has a much greater working | | | | less mass. The titanium spring fits the bill here |
| temperature range than most materials suitable | | | | perfectly. It has a low mass with significant weight |
| for springs. It can operate from around minus 129 | | | | saving, leading to better overall performance. This |
| degrees Celsius to plus 348 degrees Celsius. It is | | | | is why demanding motoring conditions use this |
| basically titanium's strength, relative light weight | | | | material. Formula 1 racing is at the very forefront |
| and impressive working temperature range that | | | | of tough driving conditions. |
| makes it an attractive proposition in many diverse | | | | Titanium wasn't discovered until 1800. However, it |
| industrial uses. | | | | took over 100 years before it became possible to |
| Where high performance is required, the titanium | | | | process it into pure metal. These days most of |
| spring is usually the spring of choice once again. In | | | | the applications using the metal is actually an alloy. |
| the ultra fast world of Formula 1 car racing, the | | | | It isn't a rare as metals go, in fact, it's quite |
| high responsive rate of this type of spring makes | | | | abundant, but it is difficult to refine. But as long as |
| it ideal for the racetrack. because it is more | | | | springs are needed in conditions where the going |
| responsive, it can keep the tyres on the ground | | | | is tough, there will always be the titanium spring. |
| better. This in turn means that the racing cars can | | | | |