Greater
Greater
The upward pushing force is greater than the downward pull of gravity in order for the rocket to lift off the ground. This excess force allows the rocket to overcome the force of gravity and accelerate upwards.
When a skydiver is accelerating downward, the forces are unbalanced. The force of gravity acting downward on the skydiver is greater than the air resistance force pushing upward, causing the skydiver to accelerate downward.
There is the downward force of gravity, pushing you towards the bottom of the body of water. The second force is buoyant force which keeps you afloat. Since you aren't sinking then the buoyant force is greater than the force of gravity.
While the egg is falling, the main forces acting on it are gravity pulling it downward and air resistance pushing against it in the opposite direction. For the container, the forces are similar, with gravity pulling it downward and air resistance pushing against it. Friction with the surrounding air will also play a role in affecting the motion of both the egg and the container.
Greater
The force on you, if you are stationary, exactly balances gravity.
The upward pushing force is greater than the downward pull of gravity in order for the rocket to lift off the ground. This excess force allows the rocket to overcome the force of gravity and accelerate upwards.
When a skydiver is accelerating downward, the forces are unbalanced. The force of gravity acting downward on the skydiver is greater than the air resistance force pushing upward, causing the skydiver to accelerate downward.
There is the downward force of gravity, pushing you towards the bottom of the body of water. The second force is buoyant force which keeps you afloat. Since you aren't sinking then the buoyant force is greater than the force of gravity.
The main forces acting on a rock at rest in your hand are gravity pulling the rock downward and the normal force exerted by your hand pushing the rock upward. These forces are balanced, resulting in the rock staying at rest in your hand.
While the egg is falling, the main forces acting on it are gravity pulling it downward and air resistance pushing against it in the opposite direction. For the container, the forces are similar, with gravity pulling it downward and air resistance pushing against it. Friction with the surrounding air will also play a role in affecting the motion of both the egg and the container.
Objects on Earth do not float because of gravity. The force of gravity pulls objects toward the center of the Earth, causing them to sink. Objects will only float if the force of buoyancy pushing them upward is greater than the force of gravity pulling them downward.
The direction of the resultant force on the falling toy is downward, towards the center of the Earth. This force is a combination of the toy's weight, which is directed downward due to gravity, and any air resistance pushing against the toy as it falls.
Yes, there are several forces acting on the pen, including gravity pulling it downward, the normal force pushing it up (equal to the force of gravity but in the opposite direction), and potentially friction from the surface it is resting on. These forces can be represented by arrows pointing in the appropriate directions: gravity pointing downward, normal force pointing upward, and friction pointing opposite to the direction of motion.
3 forces gravity drag lift
The force you apply by pushing on a rock is due to your muscles exerting force directly on the rock, known as external force. This force is a contact force that can vary in strength and direction. Gravity, on the other hand, is a constant force pulling the rock downward towards the Earth, known as a non-contact force.