The correct answer is 
"As the distance from the earth increases, the gravitational pull on the spaceship would decrease."
In fact, the gravitational force (attractive) exerted by the Earth on the spaceship is given by

where G is the gravitational constant, M the Earth's mass, m the mass of the spaceship and d the distance of the spaceship from the Earth. As we can see from the formula, as the distance d between the spaceship and the Earth increases, the gravitational force F decreases, so answer D) is the correct one.
 
        
        
        
Answer:
The energy released during nucleur fissionor fusion , espicially when used to generate 
Explanation:
Distionary.
 
        
             
        
        
        
Answer:
  x_{cm} = 4.644 10⁶ m
Explanation:
The center of mass is given by the equation
           = 1 /
 = 1 /  ∑
  ∑  
Where M_{total} is the total masses of the system,  is the distance between the particles and
 is the distance between the particles and  is the masses of each body
 is the masses of each body
Let's apply this equation to our problem
         M = Me + m
         M = 5.98 10²⁴ + 7.36 10²²
         M = 605.36 10²² kg
Let's locate a reference system located in the center of the Earth
Let's calculate
        x_{cm} = 1 / 605.36 10²²   [Me 0 + 7.36 10²² 3.82 10⁸]
        x_{cm} = 4.644 10⁶ m
 
        
             
        
        
        
False: the force of gravity acting on different objects is different and depends on their mass
Explanation:
The answer is false.
The force of gravity acting on an object (also known as weight) near the Earth's surface is given by:

where:
m is the mass of the object
 is the acceleration of gravity
 is the acceleration of gravity
We see from the formula that the force of gravity acting on an object depends on the mass: the larger the mass of the object, the stronger the gravitational force acting on it, and the smaller the mass, the weaker the force of gravity.
The factor that does not change is the acceleration of gravity, which is constant ( ) if we are near the Earth's surface, and implies that all the objects in free fall accelerate at the same rate towards the ground, regardless of their size and weight.
) if we are near the Earth's surface, and implies that all the objects in free fall accelerate at the same rate towards the ground, regardless of their size and weight.
Learn more about forces and weight here:
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