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The simpleGEN is an easy-to-build AC generator that allows students to explore the basics of electrical generator design.
Your students can now investigate the fundamentals of electrical generator design with an easy to build AC generator. The KidWind SimpleGEN enables you to demonstrate Faraday's law, light LEDs, and perform experiments that explore how coils, magnets, and rotation affect electrical generation. Convert your generator into a simple motor just by making a few quick alterations whilst also allowing for greater exploration. Further still, you can convert your simpleGEN into a wind turbine nacelle.
The simpleGEN classroom pack has enough materials to build 10 generators and includes three digital multimeters.
This Kit is also available in the KidWind simpleGEN Classroom Pack.
£70.00 ex VAT | £84.00 Inc VAT
Add to basket SimpleGEN, the easy-to-build AC Generator. Investigate Faraday's Law, LED Lights and perform experiments that explore how coils, magnets and rotation effect electrical generation. You can also turn you AC Generator into a wind turbine too!
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£848.00 ex VAT | £1,017.60 Inc VAT
The magnetic field along the axis of various coils and loops are measured with Vernier magnetic probe and LabQuest interface.
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£617.00 ex VAT | £740.40 Inc VAT
When two magnet fields cross each over, they generate a force called Lorentz force. The degree of swing is proportional to the acting force. A rolling cylinder bar demonstrates clearly the force generated.
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£696.00 ex VAT | £835.20 Inc VAT
In this experiment the forces acting on a current carrying wire in a magnetic field are measured accurately with changing current , wire length and coil angle.
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£898.00 ex VAT | £1,077.60 Inc VAT
The magnitude of magnetic field along the horizontal axis in Helmoltz Coils is measured with Vernier magnetic probe and LabQuest2 interface. Current in coils is generated by Variable DC Source.
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£834.00 ex VAT | £1,000.80 Inc VAT
The current produced by the relative motion of the coil or the magnet is called induced current. The amount of the current produced is function of the magnet pole’s gap and the oscillation of the pendulum. Vernier interface Labquest2, the voltage sensor, and the rotary motion help to establish the relationship between the different parameters.
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