Surds And Indices MCQ
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The greatest of $$\sqrt 2 ,$$ $$\root 6 \of 3 ,$$ $$\root 3 \of 4 ,$$ $$\root 4 \of 5 $$ is = ?
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The greatest among the numbers $${\left( {2.89} \right)^{0.5}},$$ $$2 - {\left( {0.5} \right)^2},$$ $$1 + \frac{{0.5}}{{1 - \frac{1}{2}}},$$ $$\sqrt 3 $$ is = ?
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The greatest one of $$\sqrt 2 ,$$ $$\root 3 \of 3 ,$$ $$\root 6 \of 6 ,$$ $$\root 5 \of 5 $$ is = ?
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The least one among $${\text{2}}\sqrt 3 {\text{,}}$$ $${\text{2}}\root 4 \of 5 {\text{,}}$$ $$\sqrt 8 {\text{,}}$$ $${\text{3}}\sqrt 2 $$ is = ?
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$$2\root 3 \of {32} - 3\root 3 \of 4 + \root 3 \of {500} = ?$$
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21<sup>?</sup> × 21<sup>6.5</sup> = 21<sup>12.4</sup>
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The value of $$\frac{1}{{1 + \sqrt 2 + \sqrt 3 }} + $$ $$\frac{1}{{1 - \sqrt 2 + \sqrt 3 }}$$ is = ?
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The quotient when 10<sup>100</sup> is divided by 5<sup>75</sup> is
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The exponential form of$$\sqrt {\sqrt 2 \times \sqrt 3 } {\text{ is = ?}}$$
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(3x - 2y) : (2x + 3y) = 5 : 6, then one of the value of $${\left( {\frac{{\root 3 \of x + \root 3 \of y }}{{\root 3 \of x - \root 3 \of y }}} \right)^2}{\text{ is = ?}}$$
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What are the values of x and y that satisfy the equation, $${{\text{2}}^{0.7x}}{\text{.}}{{\text{3}}^{ - 1.25y}}{\text{ = }}\frac{{8\sqrt 6 }}{{27}}{\text{ ?}}$$
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Given 2<sup>x</sup> = 8<sup>y+1</sup> and 9<sup>y</sup> = 3<sup>x-9</sup> , then value of x + y is = ?
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$$\frac{{{6^2} + {7^2} + {8^2} + {9^2} + {{10}^2}}}{{\sqrt {7 + 4\sqrt 3 } - \sqrt {4 + 2\sqrt 3 } }}$$ is equal to = ?
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$$\frac{{\sqrt {10 + \sqrt {25 + \sqrt {108 + \sqrt {154 + \sqrt {225} } } } } }}{{\root 3 \of 8 }} $$ = ?
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If 3<sup>2x-y</sup> = 3<sup>x+y</sup> = $$\sqrt {27} {\text{,}}$$ the value of y is = ?
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If 3<sup>(x-y)</sup> = 27 and 3<sup>(x+y)</sup> = 243, then x is equal to = ?
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If abc = 1, then $${\frac{1}{{1 + a + {b^{ - 1}}}} + }$$ $${\frac{1}{{1 + b + {c^{ - 1}}}} + }$$ $${\frac{1}{{1 + c + {a^{ - 1}}}}}$$ = ?
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The value of $$\frac{1}{{\sqrt 7 - \sqrt 6 }} - $$ $$\frac{1}{{\sqrt 6 - \sqrt 5 }} + $$ $$\frac{1}{{\sqrt 5 - 2 }} - $$ $$\frac{1}{{\sqrt 8 - \sqrt 7 }} + $$ $$\frac{1}{{3 - \sqrt 8 }} = ?$$
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Suppose 4<sup>a</sup> = 5, 5<sup>b</sup> = 6, 6<sup>c</sup> = 7, 7<sup>d</sup> = 8, then the value of abcd is = ?
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1 + (3 + 1)(3<sup>2</sup> + 1)(3<sup>4</sup> + 1)(3<sup>8</sup> + 1)(3<sup>16</sup> + 1)(3<sup>32</sup> + 1) is equal to =?
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If m and n are whole numbers such that m<sup>n</sup> = 121, then the value of (m - 1)<sup>n+1</sup> is = ?
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Given that 10<sup>0.48</sup> = x, 10<sup>0.70</sup> = y and x<sup>z</sup> = y<sup>2</sup> then the value of z is close to = ?
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If $$\frac{{4 + 3\sqrt 3 }}{{\sqrt {7 + 4\sqrt 3 } }} = A + \sqrt B {\text{,}}$$ then B - A is = ?
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Evaluate : $$\sqrt {20} + \sqrt {12} + \root 3 \of {729} \,\, - $$ $$\frac{4}{{\sqrt 5 - \sqrt 3 }} \,- $$ $$\sqrt {81} = ?$$
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If $$\frac{{\left( {x - \sqrt {24} } \right)\left( {\sqrt {75} + \sqrt {50} } \right)}}{{\sqrt {75} - \sqrt {50} }}$$ = 1 then the value of x is = ?
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If N = $$\frac{{\sqrt {\sqrt 5 + 2} + \sqrt {\sqrt 5 - 2} }}{{\sqrt {\sqrt 5 + 1} }} - $$ $$\sqrt {3 - 2\sqrt 2 } {\text{,}}$$ then the value of N is = ?
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$$\sqrt {6 - 4\sqrt 3 + \sqrt {16 - 8\sqrt 3 } } $$ is equal to = ?
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$$\sqrt {8 - 2\sqrt {15} } $$ is equal to = ?
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The value of $$\sqrt {40 + \sqrt {9\sqrt {81} } }$$ is = ?
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$$\left( {\frac{{1 + \sqrt 2 }}{{\sqrt 5 + \sqrt 3 }} + \frac{{1 - \sqrt 2 }}{{\sqrt 5 - \sqrt 3 }}} \right)$$ simplifies to = ?