🎨 Visual Representation: Imagine you're hiking a mountain. Your altitude represents the electric potential, and the steepness of the mountain path represents the electric field strength. If it's a straight hike, you're in a uniform field!

• Electric potential can be plotted against distance.

• A straight line graph means the electric field is uniform.
  • Real-world example: Think of a straight escalator. Its inclination (or slope) doesn't change, meaning its 'field' (the push or pull you feel) remains constant!

• Formula: \( E=\frac{ΔVe}{Δr}​\) where Δ stands for "change in".

• Electric field direction is opposite to the increase in electric potential.
  • Real-world example: Imagine a one-way escalator going downwards. If you were to try and walk up it (opposite to its direction), you'd be moving towards a higher potential!

• For a positive charge, moving against the field = moving to higher potential = positive potential gain.

• An electron moving towards a higher potential plate sees a decrease in potential energy.
  • Real-world example: Think of a roller coaster. As it moves down, it gains speed (kinetic energy) by losing height (potential energy).