Answer:
The incorrect part of the chart is;
Line 1
Chemical
Reaction
Nuclear Reaction
Line 1 Happens in the nucleus of atoms
Happens between atoms
Explanation:
The given chart can be presented as follows;
Chemical Reaction
Nuclear Reaction
1. Happens in the nucleus of atoms
Happens Between atoms
2. Forms new compounds
Forms new atoms
3. Involves small amounts of energy
Involves large amounts of energy
From the above chart, line 1 is incorrect because a chemical reaction happens between the valence electrons of the reacting atoms while a nuclear reaction is the reaction that takes place between the nucleus of two or more atoms or the nucleus of an atom and a subatomic particle to produce one or more than new nuclide of a new atom with a change in the mass of the nucleus being represented by the large amount of energy in the reaction. Therefore, a nuclear reaction takes place in the nucleus of an atom, forms new atoms and involves large amounts of energy
The correct arrangement is presented as follows;
Chemical Reaction
Nuclear Reaction
1. Happens Between atoms
Happens in the nucleus of atoms
Answer:
255.34 J
Explanation:
Given,
Weight of disk = 805 N
radius = 1.47 m
Force applied by the child = 49 N
time = 2.95 s
KE = ?
mass of the disk

Moment of inertia of the disk


Torque on the child

Angular acceleration

So, angular speed at t = 2.95 s

Now, KE of the merry go round

Hence, the Kinetic energy of the merry go round = 255.34 J
Sedimentary rocks are deposited in layers as strata, forming a structure called bedding.
<span>Bedding planes are surfaces that separate one layer from another. Bedding planes can also form when the upper part of a sediment layer is eroded away before the next episode of deposition. Strata separated by a bedding plane may have different grain sizes, grain compositions, or colors. Sometimes these other traits are better indicators of stratification as bedding planes may be very subtle.</span>
For the answer to the question above,
we can get the number of fringes by dividing (delta t) by the period of the light (Which is λ/c).
fringe = (delta t) / (λ/c)
We can find (delta t) with the equation:
delta t = [v^2(L1+L2)]/c^3
Derivation of this formula can be found in your physics text book. From here we find (delta t):
600,000^2 x (11+11) / [(3x10^8)^3] = 2.93x10^-13
2.93x10^-13/ (589x10^-9 / 3x10^8) = 149 fringes
This answer is correct but may seem large. That is because of your point of reference with the ether which is usually at rest with respect to the sun, making v = 3km/s.