Kinematics

To convert 18 miles per hour to miles per minute, divide by 60 (since there are 60 minutes in an hour).

(18 \text{ miles per hour} = \frac{18}{60} = 0.3 \text{ miles per minute}).

205 knots is equivalent to approximately 236 miles per hour (mph).

In general, nowhere, because acceleration is the second derivative of distance with respect to time. However, in the special case of a constant acceleration, the acceleration will be twice the slope of the line, since distance = 0.5 * time squared.

The velocity-time graph of a stationary object would be a horizontal line at the x-axis, indicating a constant velocity of zero. This means that the object is not moving or changing its position over time.

A kinematic link is a rigid body that forms part of a mechanical system, providing a connection between other components without undergoing deformation. It is used in mechanisms to transmit motion and forces within the system while maintaining its shape and structure. Kinematic links play a crucial role in determining the overall movement and functionality of a mechanical system.

The answer is no. Perfect elasticity means the ball does not lose energy to internal heating. We presume the surface dropped upon is also perfectly elastic. Vacuum means the ball has no air resistance thus no drag. An argument could be made that the bounce must not make any sound, since this would remove energy from the system. There are some other odd mechanisms one could think of, like van der Waals, but the basic answer you are looking for is "no".

A stock DeLorean DMC-12 would take around 25-30 seconds to reach 88 miles per hour on its own power.

Sound Energy can't be stored in any way! Whenever u'll try to store it....it will get converted into another form of energy as per the fundamental concept of conservatism of energy which says that "energy can never be destroyed, it simply gets converted into another form of energy!" Hope it will suffice!

Assuming this is a real question, and not just a joke, the answer is "potential", as there is no motion.

Decreasing the surface area in contact with the table will increase the pressure at that contact point. This can lead to an increase in the coefficient of kinetic friction, as the roughness at the microscopic level can become more significant.

To calculate the time taken to cover 1098 miles at 70 miles per hour, you divide the total distance by the speed. So, 1098 miles / 70 miles per hour = approximately 15.69 hours.

density is the constant found by dividing the mass (in grams) by the volume in centimeters cubed (sometimes milliliters). other units are possible but are not common in science classes. every substance has a set density, that never changes. the more you have in mass, the same higher proportion of volume comes with it. the density of pure water is 1.000 gram per cm3 the density of copper is 8.960 grams per cm3

You can not equate miles per hour to G forces. If you were traveling at 1000 mph, for example, but at a constant speed, you would fell no extra force since you are not accelerating.

Velocity describes both the speed and direction an object is moving.

You can not make a decisive answer without knowing the MASS of the Object and its relative POSITION and Velocity in its Reference Frame.

They could be Equal, or either one greater than the other.

That's not a valid question. 330 km is a length, not a speed. You need to know how much time it takes to travel that distance.

Please determine what you're trying to measure and post a new question.

The general answer would be "yes". However, what goes on at the singularity of a black hole is a mystery. Certainly there is mass, but what about a "size"? We don't know.

Assuming the simplest conditions (ie (1) the pendulum pivot is frictionless, (2) no air resistance for the bob's travel, etc...):

This is a problem best solved by considering the situation from an ENERGY standpoint (and not from, say, a velocity and force standpoint).

Under energy conservation (the assumption of "simplest conditions" above gives us this), the total energy (TE) remains constant. The two components contributing to the total energy in this situation are: (1) the kinetic energy (KE) and (2) the potential energy (PE).

So, TE = KE + PE

We know (hopefully) that the (simple) formula for the PE of a mass in earth's gravity is:

PE = mgh where m is the mass, g is the force of earth's gravity and h is the height above SOME (any) reference point.

We also know that the pendulum's KE at the top of its swing (in this problem, the top of the swing is when it's horizontal) is zero.

For simplicity, we'll set the reference point for all height measurements at the bottom of the pendulum's swing (ie one meter below the pendulum's point of attachment to the stand/ceiling/support whatever).

Putting all the info. above together:

At the START, TE = PE + KE = PE = mgh = 0.1 kilograms * 9.8 m/s^2 * 1 meter

= 0.98 Joules

Now at the BOTTOM of its swing, TE = PE + KE,

BUT PE is zero at the bottom of the swing (because h is zero)

AND we just computed TE above as 0.98 Joules

SO, at the swing bottom, KE = TE = 0.98 Joules

At the 30 degree from vertical mark,

Trigonometry tells us that the height, h, at 30 degrees is 1 meter - cos(30)*1 meter

= (1 - 0.8660) meters = 0.1340 meters

SO here the PE is: PE = mgh = 0.1 kilograms * 9.8 m/s^2 * 0.1340 meters

= 0.1313 Joules

AND going back to find the KE, TE = KE + PE gives us 0.98 = KE + 0.1313,

implying that KE = 0.8487 Joules

Sound waves are energy waves. All you need to do is pass them along or through something that can collect or resonate them. A microphone is a good example of a device that collects sound waves. Any drum will resonate sympathetically with one specific sound frequency passed along it's surface.

A graph that shows displacement plotted against time for a particle moving in a straight line. Let x(t) be the displacement of the particle at time t. The distance-time graph is the graph y=x(t), where the t-axis is horizontal and the y-axis is vertical with the positive direction upwards. The gradient at any point is equal to the velocity of the particle at that time. (Here a common convention has been followed, in which the unit vector i in the positive direction along the line has been suppressed. The displacement of the particle is in fact a vector quantity equal to x(t)i, and the velocity of the particle is a vector quantity equal to x(t)i.)

1 mile = 5280 ft

1 hour = 3600 seconds

105 miles/hour = (105 x 5280 ft) / (1 x 3600 seconds)

= 154 ft/s

1. Treading the wheels of vehicles

2. By increasing the weight of the object

3. By putting rubber grips on objects like cricket bats, racquets etc.

4. By having rough designs on shoes etc.