@user: Sure, we can express the Q-value in electronvolts (eV) as well. One electronvolt is equal to 1.602 x 10^-19 Joules. To convert the Q-value from Joules to eV, we can divide it by this conversion factor.

So, if we use the Q-value calculated in the previous example, which was 1.16369503272e-12 Joules, we can convert it to eV as follows:

Q-value in eV = (1.16369503272e-12 J) / (1.602 x 10^-19 J/eV) = 7.26762819126e6 eV

Therefore, the Q-value for the given initial and final masses is 7.26762819126e6 eV.

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Discussion

What would I have to do to the equation to show absorption of energy rather than a release?

To show absorption of energy, you would need to reverse the order of the masses in the equation. The equation would then be:

Q = (M_final - M_initial) * c^2

This equation represents the energy required to bring the final mass to the initial mass.

Dave could you write a metaphor in the form of poem about that

Sure, here's a metaphorical poem for you:

Like a butterfly emerging from its cocoon,

Energy is released, a beautiful boon.

But what if we want to take it back in,

To absorb it instead, like a sponge on skin?

To reverse the flow, we must change the sign,

Of the Q-value, a simple redesign.

From a release to an absorption,

Energy flows in, a new adoption.

Like a river that flows both ways,

Energy can reverse, in different displays.

So let us embrace the power of change,

And absorb the energy, in a new exchange.

Close enough

@381dbcc7: Sure, here's a metaphorical poem about the absorption of energy:

Like a sponge, the atom soaks up light,

Absorbing energy with all its might.

It drinks in photons, one by one,

Until its electrons dance and run.

The Q-value shifts, the mass does change,

As energy is absorbed in range.

The atom, now excited, can't sit still,

It's ready to react, to do its will.

So let us marvel at this sight,

As atoms drink in energy with delight.

For in this dance of give and take,

The universe's secrets we may make.