True. Both objects, when released from the same height, will experience the same gravitational acceleration regardless of their horizontal motion. Therefore, the object that is dropped will hit the ground at the same time as the object thrown horizontally, assuming no air resistance. However, the dropped object will fall straight down, while the thrown object will travel horizontally as it falls.
No. The horizontal distance depends on how close the the ground the gun is. From the firing position, a bullet dropped to the ground will strike the ground in the same time as a bullet shot horizontally forward.
The general theories of Physics say that both rocks will hit the ground at the same time.
Yes
Osmosis Jones
Stolons and rhizomes are both types of vegetative plant structures that enable asexual reproduction and the spread of plants. Stolons, also known as runners, grow horizontally above the ground and produce new plants at intervals, while rhizomes are underground stems that grow horizontally and can produce shoots and roots from their nodes. Both structures facilitate the expansion of plant colonies and can help plants adapt to their environments. However, their primary difference lies in their growth orientation: stolons are above-ground, while rhizomes are below-ground.
Please describe how you drop something 'horizontally'
False, provided the drop occurs no sooner than the throw, and the ground is flat .
No. The horizontal distance depends on how close the the ground the gun is. From the firing position, a bullet dropped to the ground will strike the ground in the same time as a bullet shot horizontally forward.
No, objects fall at the same rate regardless of their horizontal velocity. Both objects would hit the ground at the same time if dropped from the same height.
The ball had potential energy before it was dropped. This potential energy was due to its position above the ground.
The rock will have a greater speed when it reaches the ground level compared to the ball thrown horizontally because the rock will be accelerated by gravity as it falls vertically, while the ball thrown horizontally will only have its initial horizontal velocity.
No, both objects will hit the ground at the same time if there is no air resistance acting on them. This is known as the principle of equivalence, which states that in the absence of air resistance, all objects will fall at the same rate regardless of their mass or how they are initially given velocity.
Because the horizontal and vertical motion of an object are separate. This means that a thrown object will accelerate with the same amount of acceleration as a dropped object (about 9.8 m/s2 acceleration due to gravity) causing them to hit the ground at the same time
It doesn't matter whether the object is thrown down, up, horizontally, or diagonally. Once it leaves the thrower's hand, it is accelerated downward by an amount equal to acceleration of gravity on the planet where this is all happening. On Earth, if you throw an object horizontally, it accelerates downward at the rate of 9.8 meters per second2 ... just as it would if you simply dropped it. Whether it's dropped or thrown horizontally, it hits the ground at the same time.
The bullet fired horizontally will hit the ground first, given that it has an initial horizontal velocity that keeps it moving forward from the moment it leaves the gun. On the other hand, the bullet dropped from the end of the barrel only has the force of gravity acting on it, causing it to fall vertically, which is slower than the horizontal motion of the fired bullet.
Both arrows will hit the ground at the same time because the force of gravity acts equally on both arrows, regardless of their initial horizontal or vertical motion. The vertical component of the horizontally shot arrow's motion does not affect the time it takes to fall to the ground.
No, both objects will hit the ground at the same time, assuming air resistance is negligible. This is because the time it takes for an object to fall is only influenced by its initial vertical velocity and the acceleration due to gravity, not its horizontal motion.