When two forces are balanced, their vector sum is zero.
Two forces may not balance each other if they are acting in different directions or have different magnitudes. When forces are not equal and opposite, they result in acceleration or movement of the object in the direction of the greater force.
The force indicated on the spring balance will be equal to the sum of the two equal forces applied on both ends of the spring balance. This is because the spring balance measures the total force acting on it, regardless of the number of individual forces.
I THINK balance is a forceNew author. It should be, because balance is two forces pushing each side of a plane which the forces are same
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There is no specific "unit of balance".For an object to be in balance, two conditions must be fulfilled:The sum of all forces on the object must be zero. In the SI, forces are measured in newtons.The sum of all torques on the object must be zero. In the SI, torques are measured in newton-meters.
For a beam to be in equilibrium, two main conditions must be satisfied: the sum of all vertical forces acting on the beam must equal zero, and the sum of all moments (torques) about any point must also equal zero. This means that the forces must balance each other out, preventing any translational motion, while the moments must balance to prevent any rotational motion. Additionally, any external loads should be applied in a manner that maintains these balance conditions.
The forces will be balance.
Two pairs of forces that could balance each other are tension and weight in a hanging object, and friction and applied force in an object moving at a constant velocity.
You say that the two forces are in equilibrium.
Isostasy is the balance between the weight of the Earth's lithosphere pushing down and the buoyant force of the underlying asthenosphere pushing up. This balance helps to maintain the overall stability of the Earth's crust.
In a nebula, gravitational forces act to pull the gas and dust inward, while thermal pressure, generated by the heat from the particles and radiation from nearby stars, acts outward to counterbalance this gravitational pull. The balance between these two forces prevents the nebula from collapsing under its own gravity, allowing it to maintain its structure until conditions change, potentially leading to star formation.
The idea that the universe is held in balance by two equal but opposite forces.