All experiment elements are made in special anodized
Centres of gravity of various shaped plates: Rectangle.
Irregular. Drawing panel.
3 Cords and ring.
5 Cords and ring.
2 forces equality divided.
The simple pendulum.
Set of weights: 10 weights of 0.01 N.
4 weights of 0.05 N.
10 weights of 0.1 N.
2 weights of 0.5 N.
4 weights of 1 N.
2 weights of 2 N.
1 weight of 5 N. Weight hooks.
Light weight hooks.
Large ext. spring.
Small ext. spring.
- Centres of gravity (Centres of gravity (I) and Centres of gravity (II)): Specification of the centre of gravity of plates of different shapes using the simple pendulum and graphical methods.
- Triangle of forces. To test that three non-parallel forces in equilibrium acting in the same plane can be represented by a Triangle of forces.
- Parallelogram of forces. When three non-parallel forces in the same plane are in equilibrium, their lines of action meet at a point, and hence to show that the resultant of two forces can be found using the Parallelogram of forces.
- Polygon of forces. Verification of the fact that four or more forces in equilibrium acting on the same point, can be represented by a Polygon of forces.
- Principle of moments. Verification of the principle of moments for parallel and non parallel forces. 6.-The Pivot or beam balance. To demonstrate that the action of weighing with a beam balance or slide balance is based upon the principle of moments.
- Levers: To determine the mechanical advantage of various types of levers using the ratio resistance/power (W/P) and to verify that this is the same as the ratio between distances.
- Beam reaction forces. Verification of the fact that adistributed load applied over a beam may be considered as an equivalent concentrated load applied at the centre of gravity of the distributed load. Reactions located at supports due to the load acting on the simply supported beam may be calculated using the momentum principle, independent of the position of these beam supports.