Updated greek laters @ latex compiling

astrosander правка от
правка #9949 предыдущая #9207 GitHub dbb31ba ← раньше позже →
@@ -73,17 +73,17 @@
$$ vt_{1}\cdot \sin\alpha - \frac{gt_{1}^{2}}{2}=vt_{2}\cdot \sin\beta-\frac{gt_{2}^{2}}{2} $$
<p>From the first equation,</p>
$$ t_{1}=t_{2} \cdot \frac{\cos \beta}{\cos \alpha} $$
−<p>We substitute $t_{1}$ into the second equation and express $t_{2}$. Trigonometric formulas 63 will come in handy. The $t_{2}$ we have already obtained is enough to insert into $x=vt_{2}cos\beta$, where $x$ is the desired distance.</p>
+<p>We substitute $t_{1}$ into the second equation and express $t_{2}$. Trigonometric formulas 63 will come in handy. The $t_{2}$ we have already obtained is enough to insert into $x=vt_{2}\cos\beta$, where $x$ is the desired distance.</p>
<p>Using trigonometric formulas:</p>
−$$ t_{2}= \frac{2\nu ^{2}}{g(tg\beta +tg\alpha )cos\beta } $$
+$$ t_{2}= \frac{2\nu ^{2}}{g(\tan\beta +\tan\alpha )\cos\beta } $$
−$$ \fbox{$x = \frac{2\nu ^{2}}{g(tg\beta +tg\alpha )}$} $$
+$$ \fbox{$x = \frac{2\nu ^{2}}{g(\tan\beta +\tan\alpha )}$} $$
</p>
<h4>Answer</h4>
<p>
− $$x = \frac{2\nu ^{2}}{g(tg\beta +tg\alpha )}$$
+ $$x = \frac{2\nu ^{2}}{g(\tan\beta +\tan\alpha )}$$
</p>
<p style="text-align: right; font-style: italic; font-size: 14;">
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