Solve for c
\left\{\begin{matrix}c=\frac{3Q\cot(m)}{mt}\text{, }&\exists n_{1}\in \mathrm{Z}\text{ : }\left(m>\frac{\pi n_{1}}{2}\text{ and }m<\frac{\pi n_{1}}{2}+\frac{\pi }{2}\right)\text{ and }t\neq 0\\c\in \mathrm{R}\text{, }&\left(Q=0\text{ and }\exists n_{2}\in \mathrm{Z}\text{ : }m=\pi n_{2}\right)\text{ or }\left(Q=0\text{ and }\nexists n_{1}\in \mathrm{Z}\text{ : }m=\pi n_{1}+\frac{\pi }{2}\text{ and }t=0\right)\end{matrix}\right.
Solve for Q
Q=\frac{cmt\tan(m)}{3}
\nexists n_{1}\in \mathrm{Z}\text{ : }m=\pi n_{1}+\frac{\pi }{2}
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\frac{1}{3}mct\tan(m)=Q
Swap sides so that all variable terms are on the left hand side.
\frac{mt\tan(m)}{3}c=Q
The equation is in standard form.
\frac{3\times \frac{mt\tan(m)}{3}c}{mt\tan(m)}=\frac{3Q}{mt\tan(m)}
Divide both sides by \frac{1}{3}mt\tan(m).
c=\frac{3Q}{mt\tan(m)}
Dividing by \frac{1}{3}mt\tan(m) undoes the multiplication by \frac{1}{3}mt\tan(m).
c=\frac{3Q\cot(m)}{mt}
Divide Q by \frac{1}{3}mt\tan(m).
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