Final Answer:
Weight can change with variations in gravitational acceleration, but the understanding of weight involves recognizing its dependency on both mass and gravity, making the statement false.Thus the correct option is ( B) False.
Step-by-step explanation:
Weight is a measure of the gravitational force acting on an object, and it depends on both mass and the acceleration due to gravity. The statement suggests a binary choice, either A (True) or B (False), regarding the understanding of the change in weight. The correct answer is B (False). Weight can vary with changes in gravitational acceleration but is fundamentally distinct from mass. Mass, a scalar quantity, remains constant regardless of the location in the universe, while weight, a vector quantity, depends on the local gravitational field strength.Thus the correct option is ( B) False.
Firstly, the equation relating weight (W), mass (m), and gravitational acceleration (g) is given by W = mg. If either mass or gravity changes, weight will be affected. However, understanding the concept of weight involves recognizing that mass is a fundamental property of matter, and changes in weight can occur due to changes in the gravitational field strength. For instance, an object weighing 50 N on Earth would weigh less on the Moon due to the Moon's weaker gravitational pull. Therefore, the change in weight is contingent upon the context of gravitational influence.
In conclusion, the understanding of the change in weight involves recognizing the interplay between mass and gravitational acceleration. Weight is not an inherent property of an object but rather a force dependent on these factors. Thus, the statement is false, as it oversimplifies the concept by presenting a binary choice without considering the nuanced relationship between mass and weight in varying gravitational conditions.