It typically takes about 110-130 Newtons of force to knock over a standard 15-inch-tall Bowling pin. This force can vary depending on factors such as the weight of the bowling ball and the angle at which it strikes the pin.
To get the Earth to move (quake), much force is needed. Pressure is force per unit area.
That really depends on the toaster. Try it out, with your own toaster.
The force needed to keep a 2kg object moving would depend on the acceleration it experiences. In general, you can use the equation F = m * a, where F is the force, m is the mass (2kg in this case), and a is the acceleration. If the object is moving at a constant speed (zero acceleration), then no force is needed to keep it moving.
Because a heavier ball has both more mass (weight) and inertia (resistance to being deflected), it's more likely to drive through the pins and cause them all to fall.As strange as it sounds, on a textbook strike, the bowling ball itself only touches four of the ten pins. But it imparts energy to those pins, causing them to ricochet in a predictable pattern that causes them to take out the other six pins.The heavier the ball is, the more energy it transfers to those four pins, and the more likely they are to carry out their job. Of course, this assumes the ball isn't too heavy for the bowler to throw; since Force = mass x acceleration, a lighter ball thrown harder can hit the pins with as much (if not more) power than a heavy ball thrown slowly.
To accelerate an object twice as fast, you would need to exert twice the force. This is because force is directly proportional to acceleration, as defined by Newton's second law, F=ma. So if you double the acceleration, you must double the force.
the amount needed is the amount that's taken by the bear
The force required to accelerate a 25 kg bowling ball can be calculated using the equation F = ma, where F is the force, m is the mass of the bowling ball, and a is the acceleration. If the acceleration is given, you can plug in the numbers to find the force needed.
The force needed to accelerate an object is given by the formula: force = mass x acceleration. For the bowling bowl with a mass of 25kg and acceleration of 2m/s^2, the force required would be 50 Newtons.
The force needed to accelerate a 25 kg bowling ball would depend on the desired acceleration. Newton's second law states that force equals mass multiplied by acceleration (F = ma). If you specify the acceleration, the force required can be calculated using this formula.
F = (M) x (a) = (25) x (2) = 50 newtons.
if one can sneez without closing eyes he will found his balls in front of him`[i mean eye balls]
The price of bowling will vary depending on the center, day, time and if bowling shoes are needed for renting.
The amount of force needed to knock someone out can vary depending on the individual's physique, health, and placement of the blow. Generally, a blow to the head that causes sudden acceleration and deceleration of the brain can result in a loss of consciousness due to disruption of brain function. It is important to note that causing harm to another individual is illegal and unethical.
Ketamine is a horse tranquilizer. It would take about 150mg of ketamine in order to knock out a shire horse.
Well according to the equation Force = Mass x Acceleration. A bowling ball has more mass than a feather but it all depends on how much acceleration each is undergoing. Potentially a feather can have more force (if the bowling ball has an acceleration of zero, then there is no force being produced, and if the feather is accelerating at any speed greater than zero, thentechnicallyit has more force)
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That's because a tsunami contains thousands of more gallons than a regular wave. Example: In a bowling lane, a bowling ball (tsunami) is heavier and it can easily knock down pins. It's fast and heavy. If you tried to knock over the pins with a bouncy ball (regular wave), not much pins would be knocked over.. Though this explains why a tsunami can do so much damage, it does not explain how it moves faster. in a bowling alley both a bowling ball and a bouncy ball would move at the same speed.