A Hall sensor responds electrically to magnetic flux density. A linear sensor can represent both field magnitude and polarity around a midpoint output.
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SUPPLY5.00 V
CURRENT0.00 mA
OUTPUT2.50 V
TIME0.00 s
Live curve
Calculated outputSource waveformMarker = current time
A Hall sensor responds electrically to magnetic flux density. A linear sensor can represent both field magnitude and polarity around a midpoint output.
1. Set up the experiment
Sweep the signed magnetic field through zero. Compare the output moving above and below its zero-field midpoint.
Change one parameter at a time and keep the others fixed. Read the signed output and current, then use the curve to distinguish a steady relationship from a changing transient.
Initial supply
5.00 V
Initial current
0.000 mA
Initial output
2.500 V
3. Notice the limits
The model assumes a linear ratiometric output clipped to supply rails. An LED uses a separate illustrative threshold on the signed field.
Circuit reference diagram
Continue this learning path
Why it’s here
Electronics 101 makes a component change visible: an altered resistance changes a current, a capacitor changes a delay, and a sensor changes a decision. The course guide links each concept to its experiment.
Open Ohm’s law and predict the effect of doubling the voltage.
Change the control and compare the ammeter, curve and equation.
Try RC charging and use the time constant to explain the curve.
Return to the course guide to choose the next experiment.
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They are analytic teaching models: ideal sources and switches, fixed diode drops, simple BJT gain and saturation, exponential RC behavior, and illustrative sensor curves. They are not a SPICE solver or construction verification.
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Model references and scope
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