bowlig ball
It is .323" in diameter for the JS bullet and .318" for the J bullet. In other words, the bullet is a little larger than a 30-06 round.
being a log scale its 100 times larger between 6 and 8 --each increment of one is a factor of 10 in magnitude. energy released is much much larger tho
no.. thats false.. its actually the opposite
yes due to the large area of the object the vibrations have more distance to travel and lose more energy which rendurs the tone lower
When you have fractions with like denominators, the larger is the one with the larger numerator.
In essence, when firing a bullet to inflict damage, you want the kinetic energy to be as high as possible at the point of impact. For non-relitivistic speeds (bullet speeds), then the kinetic energy is calculated by E=mv^2. Where E is the energy, m is the mass and v^2 is the velocity (speed) of the bullet squared. Examining this formula will determine that an increase in mass will provide a proportional increase to the kinetic energy, where as an increase of velocity will give an exponential increase (a squared increase) to the kinetic energy. Ergo, faster bullets will (to a degree) provide more damage potential. It's worth noting that any living organism has a relatively low ability to take concentrated kinetic energy (such as a bullet wound) and once this energy level is exceeded then fleshy trauma from larger calibre weaponry will prove more devastating.
Kinetic energy is directly related to the speed of molecules, not their size. In general, larger molecules tend to have higher potential energy due to their higher mass, which can result in higher kinetic energy when they are moving.
Yes.
No, the larger horse would have more kinetic energy than the smaller horse because kinetic energy is directly proportional to mass. Since the larger horse has more mass, it would have more kinetic energy even if they are moving at the same speed.
A larger car will have more kinetic energy due to its greater mass and speed, leading to a longer stopping distance compared to a smaller car with less kinetic energy. The larger car will require more distance to decelerate and come to a stop due to its higher kinetic energy.
The force of the rifle returning back after firing a bullet is smaller than the force on the bullet because the rifle has a larger mass compared to the bullet. According to Newton's third law, force is equal to mass times acceleration, so the force exerted on the rifle is smaller due to the larger mass and slower acceleration compared to the bullet.
If the speed of an object increases, its kinetic energy also increases. Kinetic energy is directly proportional to the square of the object's speed, so a small increase in speed can result in a larger increase in kinetic energy.
The more massive horse that is moving at the same speed will have greater kinetic energy. How do you define large and small? A small fat horse may have more mass than a large skinny horse.
The book with greater mass will have more kinetic energy as it falls from the bookshelf. Kinetic energy is directly proportional to mass, so the book with a higher mass will gain more kinetic energy due to its greater mass.
The work-energy theorem states that the work done on an object is equal to the change in its kinetic energy. In the case of rifles, the longer barrel allows for a longer acceleration distance for the bullet, resulting in a higher muzzle velocity. This means that the rifle with the longer barrel does more work on the bullet, giving it more kinetic energy and a higher velocity compared to the rifle with the shorter barrel.
Other things being equal, both potential and kinetic energy will be larger if the mass is greater.
A moving semi truck would typically have the most kinetic energy because of its larger mass and higher velocity compared to a car or a baby stroller. Kinetic energy depends on both the mass and speed of an object, so the larger and faster the object, the greater its kinetic energy.