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Product Description
£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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The purpose of this experiment is to study the magnetic force -created by a magnetic field- on a current carrying wire and bar , which is placed in the magnetic field. In this experiment, you will investigate:
- Lorentz Force
- The effect of the electric current on the magnetic force
The current carrying in a magnetic field wire experiences an upward or downward magnetic force depending on the direction of the current and the direction of the magnetic field. The magnetic force ( F ) on the current carrying wire is perpendicular to both the wire (current direction) and the magnetic field direction between the poles of the magnet. If we represent the segment of a wire with a length of l along the wire in the direction of the current (I ), then the magnetic force ( F ) on this segment can be described mathematically by the vector product:
What's Included
Base
• Material Type : Hard Plastic
• LengthxWidth : 30cm x 15cm
• With Angle Scale
• Graduated between -300 – +300
• Accuracy : 100
• With Magnets
• Magnetic Field : 0,072 T
• With Conductive Cylinders
• Material Type : Stainless Steel
• Length : 23,6 cm
• With Support Rods
• Material Type : Aluminium
• Height : 18 cm
• 2 banana sockets for current supply
Variable DC Source
• LengthxWidthxHeight : 30cm x 28cm x 11 cm
• Variable Current : 0-5 A
• Continuously Adjustable
• Max Load : 1.5 Ohm for 5A
• Digital Display
• 2 security banana sockets
Conductive Wire Swing
• Material Type : Copper
• LengthxHeight : 7cm x 13cm
Conductive Bar
• Material Type : Aluminum
• Length : 11 cm
Connection Cables
• 2 pieces
• Length : 50 cm
Experiment Manual
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