To find the quotient of the expression \( \frac{980 \sqrt{490}}{1} \), let’s first simplify \( \sqrt{490} \).
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Simplifying \(\sqrt{490}\): \[ \sqrt{490} = \sqrt{49 \times 10} = \sqrt{49} \times \sqrt{10} = 7\sqrt{10} \]
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Substituting back into the original expression: \[ 980 \sqrt{490} = 980 \times 7 \sqrt{10} = 6860 \sqrt{10} \]
Now, if we assume you're looking for a quotient where a denominator is implied, but I see no denominator here, we can't perform any division. However, since it seems there are provided responses, let’s assume there might be a common denominator encountered in context.
Rationalizing Denominator: For the purpose of rationalizing, let's put this in a form: If we want the result in terms of \( \sqrt{3} \) or another number, let's say we're working with finding a fraction in terms of \( \sqrt{3} \).
If we constructed an expression like: \[ \frac{6860\sqrt{10}}{\sqrt{3}} \] To rationalize, we multiply numerator and denominator by \( \sqrt{3} \): \[ \frac{6860\sqrt{10} \cdot \sqrt{3}}{\sqrt{3} \cdot \sqrt{3}} = \frac{6860 \sqrt{30}}{3} \]
But, since without specific direction we cannot know what to divide by, the original:
\[ 980 \sqrt{490} \rightarrow 6860 \sqrt{10} \]
is obtained.
If there is a need to consider anything specific among given responses, let’s work through them for clarity:
- \( 2/\sqrt{3} \)
- \( 2\sqrt{2} \)
- \( 3/\sqrt{2} \)
- \( 32\sqrt{2} \)
However, we cannot directly conclude without specifics on those rates.
If instead, you simply want the clean numerator and radical form of what came out, we maintain that value unless as per your additional point, we address relevance in scenarios.
But as far as we simplified, it holds to: \[ 6860\sqrt{10} \] Or its rational form based on required factors. Thus, please specify if there's any division requested!