Most of the problem depends on which object you observe. For the speed, take the absolute value of the derivative of the polynomial interpolation of position verses time.
<h3><u>Minimum uncertainty in the vertical component of the momentum of each photon:</u></h3>
According to Heisenberg's Uncertainty principle, both the “position and velocity of the particle” cannot be measured exactly at the same time. The momentum of the particle equals the product of its mass and velocity. And it can be inferred that the “product of the uncertainties” in the “momentum and the position” of a particle equals
.
Immediately after the photon has passed through the slit, given particle has a momentum uncertainty of
and its position uncertainty is
, then the minimum uncertainty in its momentum will be

Answer:
<h3>The answer is 53.27 mi/hr</h3>
Explanation:
To find the velocity covered by the car we use the formula

where
d is the distance
t is the time
From the question
d = 554 miles
t = 10.4 hrs
We have

We have the final answer as
<h3>53.27 mi/hr</h3>
Hope this helps you
The ball thrown horizontally
The weight of the ball dropped down is a factor in magnitude with gravity playing an important role as well.
On the other hand, the ball thrown horizontally has speed which allows magnitude and gravity playing against it, eventually the ball will hit the ground harder than the one dropped straight down
Answer:
A Peregrine Falcon that weighs 1.5 kg is gliding at 800 meters above the ground. How much potential energy does it have?
5. The same falcon spots a mouse in the brush below her. She dives towards the ground and reaches a maximum velocity of 320 km/hr (Yes, a Peregrine falcon really does have a top speed of over 240 mph!) What is the falcons Kinetic energy at its top speed