Simplify and leave in radical form. https://media.glynlyon.com/g_alg02_ccss_2013/9/q13143.gif
\(\Large \bf \sqrt{3}\cdot \sqrt[3]{2}\implies \sqrt[2]{3}\cdot \sqrt[3]{2}\implies 3^{\frac{1}{2}}\cdot 2^{\frac{1}{3}}\) fair?
Huh?
\(\huge \bf a^{\frac{{\color{blue} n}}{{\color{red} m}}} = \sqrt[{\color{red} m}]{a^{\color{blue} n}} \qquad \qquad \sqrt[{\color{red} m}]{a^{\color{blue} n}}=a^{\frac{{\color{blue} n}}{{\color{red} m}}} \) <--- assuming you've covered that by now
ok
so \(\Large \bf \Large \bf \sqrt{3}\cdot \sqrt[3]{2}\implies \sqrt[2]{3}\cdot \sqrt[3]{2}\implies 3^{\frac{1}{2}}\cdot 2^{\frac{1}{3}}\) follow that thus far?
yes
ok so can we say that \( \bf \cfrac{3}{6}\iff \cfrac{1}{2}\quad and\quad \cfrac{2}{6}\iff \cfrac{1}{3}\quad ?\)
yes?
hehh.... can we? are those fractions not equivalent? what do you think?
yes
ok.... then we could then say that \(\Large {\bf \sqrt{3}\cdot \sqrt[3]{2}\implies \sqrt[2]{3}\cdot \sqrt[3]{2}\implies 3^{\frac{1}{2}}\cdot 2^{\frac{1}{3}} \\ \quad \\ 3^{\frac{1}{2}\to {\color{brown}{ \frac{3}{6}}}}\cdot 2^{\frac{1}{3}\to {\color{brown}{ \frac{2}{6}}}}\implies 3^{{\color{brown}{ \frac{3}{6}}}}\cdot 2^{ {\color{brown}{ \frac{2}{6}}}} }\) fair?
fair, but how would I write the answer
\(\Large \bf { \sqrt{3}\cdot \sqrt[3]{2}\implies \sqrt[2]{3}\cdot \sqrt[3]{2}\implies 3^{\frac{1}{2}}\cdot 2^{\frac{1}{3}} \\ \quad \\ 3^{\frac{1}{2}\to {\color{brown}{ \frac{3}{6}}}}\cdot 2^{\frac{1}{3}\to {\color{brown}{ \frac{2}{6}}}}\implies 3^{{\color{brown}{ \frac{3}{6}}}}\cdot 2^{ {\color{brown}{ \frac{2}{6}}}}\implies \sqrt[6]{3^3}\cdot \sqrt[6]{2^2} \\ \quad \\ \sqrt[6]{3^3\cdot 2^2}\implies ? }\) see, once the root matches, then you can simply multiply the radicands and combine
27,4
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