Kinematics

155 km/h = 96.3 mph

The bullet dropped .1612 meters.

To solve this type of problem, first determine how much time it took the bullet to travel to the target. Since Velocity = Distance / Time, Time = Distance / Velocity. In this problem Time = (50 m) / (275 m/s) = .1818 seconds.

Now use this time to figure out how far the bullet would have fallen due to gravity. You've probably seen this equation (or something like it) before:

Δy = vo*t - 1/2 * g * t2.

This equation means that to find how far the bullet fell you need to know how long it was falling, how fast it was falling at the very beginning, and what the acceleration due to gravity is. We already figured out how long the bullet was falling, we know that it wasn't falling at all at the very beginning, and gravity = 9.8 m/s2. This means that:

t = .1818

vo = 0

g = 9.8

So plug that in to the previous equation:

Δy = (0) * (.1818) - (1/2) * (9.8) * (.1818)2.

Δy = - .1612, with the - sign meaning the bullet went down and not up into the air.

Low kinetic energy refers to an object or system having minimal motion or movement. Objects with low kinetic energy typically have slower speeds or are at rest. This is because kinetic energy is directly proportional to an object's mass and velocity – the lower these values, the lower the kinetic energy.

50 Km/h =31.06 Mph

110 kilometers per hour (kph) is equivalent to approximately 68.35 miles per hour (mph).

Yes, fireworks have kinetic energy when they are being propelled into the air or when they are in motion. However, once they explode and release their energy in the form of heat, light, and sound, their kinetic energy is transformed into other forms of energy.

The average kinetic energy of particles in a gas-filled container at 0 degrees Celsius is higher than in a block of ice at the same temperature. This is because the particles in a gas have more freedom of movement and therefore higher kinetic energy compared to the more restricted motion of particles in a solid like ice.

Assuming its not slipping, its kinetic, though its in two parts (to be added together):

1 . KE due to mass alone = 0.5 * mass * v2

2 . KE due to rotation = 0.5 * I * ((radians / second)2),

where I is the baseballs mass moment of inertia.

90 miles per hour is 144.84 kilometers per hour.

Flex-ion and extension at temporo-mandibular joint. Here powerful Massetor and Temporalis muscles, one on either side is used. And medial to lateral or side to side movement (Grinding movement.) to grind the food. For which medial and lateral Pterigoid muscles are used.

302 kilometers per hour is faster than 67.9 meters per second. (67.9 meters per second equals 244.4 km per hour).

A few common reasons for a sled running sluggishly past 50 mph could be a clogged fuel filter, dirty carburetors, or a problem with the exhaust system. It's also worth checking the spark plugs and making sure the air filter is clean to ensure optimal performance.

Kinetic Energy is 1/2 mass x the square of speed (KE = 1/2 mv^2)

A 43cc gas scooter typically travels at a speed of around 20-25 mph, depending on factors such as rider weight, road conditions, and terrain.

Yes, running at 20 mph would be considered fast for most people. The average running speed for adults is around 5-8 mph, so running at 20 mph would be significantly faster than average.

40 kilometers per hour is equivalent to approximately 24.85 miles per hour.

To convert feet per second to miles per hour, first convert feet to miles. There are 5280 feet in a mile. So, 8.5 feet per second = 8.5 * 3600 seconds in an hour / 5280 feet in a mile = 5.78 miles per hour.

The equation for kinetic energy is KE = 0.5 * m * v^2, where KE represents the kinetic energy, m is the mass of the object, and v is its velocity. This equation shows that kinetic energy is directly proportional to the mass of the object and the square of its velocity.

45 miles is 72.4 kilometres. 45 miph is 72.4 kmh-1.

The kinetic energy of an object is calculated using the formula KE = 0.5 * m * v^2, where m is the mass in kg and v is the velocity in meters per second. Plugging in the values given (m = 70 kg and v = 6 m/s), we find KE = 0.5 * 70 * 6^2 = 1260 J. So, her kinetic energy would be 1260 Joules.

Majungasaurus was estimated to have been able to run at speeds of around 20-25 km/h (12-15 mph). It was a large theropod dinosaur, so it would have been fairly quick for its size.

A 5 minute 45 second mile equates to a pace of 10.4347 mph

3200 kilometers per hour is approximately 1988 miles per hour.

305 km/h = 189.518214 mph

The frequency of a wave is given by the formula: frequency = speed / wavelength. In this case, the wavelength is 15 meters and the speed is 250 meters per second. Therefore, the frequency of the 15 meter wave traveling at 250 meters per second would be 250 / 15 = 16.67 Hz.