Simplify square root of 300x^10
The given problem is asking to perform a mathematical simplification on the expression that involves the square root of the product of the number 300 and the variable x raised to the 10th power. The goal is to rewrite this square root in a more simplified or reduced form, if possible, by factoring out perfect squares from the radicand (the expression inside the square root) and using properties of exponents and square roots.
$\sqrt{300 x^{10}}$
Express $300x^{10}$ as a product of a perfect square and another term: $(10x^5)^2 \cdot 3$.
Extract $100$ from $300$: $\sqrt{100 \cdot 3x^{10}}$.
Represent $100$ as a square of $10$: $\sqrt{(10)^2 \cdot 3x^{10}}$.
Express $x^{10}$ as a square of $x^5$: $\sqrt{(10)^2 \cdot 3(x^5)^2}$.
Rearrange the terms: $\sqrt{(10)^2 (x^5)^2 \cdot 3}$.
Combine the squares into a single square term: $\sqrt{(10x^5)^2 \cdot 3}$.
Extract the square root of the perfect square: $10x^5\sqrt{3}$.
To simplify a square root involving variables and constants, we follow these steps:
Factorization: Break down the expression inside the square root into factors that can help identify perfect squares.
Perfect Squares: Recognize perfect squares that can be taken out of the square root. A perfect square is a number that can be expressed as the square of an integer or a variable raised to an even power.
Extraction: Extract the square root of perfect squares by taking them outside the square root symbol. The square root of a perfect square is the number that, when multiplied by itself, gives the original number.
Simplification: Simplify the expression by multiplying the terms outside the square root and leaving the rest inside the square root if they are not perfect squares.
Algebraic Manipulation: Use algebraic rules to rearrange and combine like terms for a simplified expression.
In the given problem, $300x^{10}$ can be broken down into a perfect square, $(10x^5)^2$, and a non-perfect square, $3$. The perfect square is taken out of the square root, while the non-perfect square remains under the radical.