Torque increases with distance from the fulcrum because applying a force not through an object's center of mass causes it to rotate. The relationship can be understood through conservation of energy, where a lever pivots and one end moves further than the other, necessitating a lower force on the longer side to maintain balance. The torque is mathematically defined as the cross product of radial distance and force, indicating that greater radius results in increased angular momentum change and angular acceleration. This principle illustrates how mechanical energy is concentrated in a lever system, allowing for balance between different weights at varying distances. Understanding torque in this context highlights its fundamental role in rotational dynamics.