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Topics
Pre-Algebra
Mean
Mode
Greatest Common Factor
Least Common Multiple
Order of Operations
Fractions
Mixed Fractions
Prime Factorization
Exponents
Radicals
Algebra
Combine Like Terms
Solve for a Variable
Factor
Expand
Evaluate Fractions
Linear Equations
Quadratic Equations
Inequalities
Systems of Equations
Matrices
Trigonometry
Simplify
Evaluate
Graphs
Solve Equations
Calculus
Derivatives
Integrals
Limits
Algebra Calculator
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Evaluate
3a^{2}
$3a_{2}$
Quiz
Algebra
10 problems similar to:
\sqrt{3} \times \sqrt{3a^4}
$3 ×3a_{4} $
Similar Problems from Web Search
Simplify? \displaystyle\sqrt{{8}}\times\sqrt{{{48}^{{3}}}}
Simplify?
$8 ×48_{3} $
https://socratic.org/questions/59e559a97c01496bf2104ce3
\displaystyle\sqrt{{8}}\times\sqrt{{{48}^{{3}}}}={384}\sqrt{{6}} Explanation: \displaystyle\sqrt{{8}}\times\sqrt{{{48}^{{3}}}} Because both terms are under a square root sign, we can ...
$8 ×48_{3} =3846 $
Explanation:
$8 ×48_{3} $
Because both terms are under a square root sign, we can ...
How do you simplify \displaystyle{5}\sqrt{{{9}{t}^{{2}}}}\times{5}\sqrt{{{2}{t}}} ?
How do you simplify
$59t_{2} ×52t $
?
https://socratic.org/questions/how-do-you-simplify-5sqrt-9t-2-times5-sqrt-2t
See a solution process below: Explanation: First, simplify the radical on the left: \displaystyle{\left({5}\times{3}{t}\right)}\times{5}\sqrt{{{2}{t}}}\Rightarrow \displaystyle{15}{t}\times{5}\sqrt{{{2}{t}}}\Rightarrow ...
See a solution process below: Explanation: First, simplify the radical on the left:
$(5×3t)×52t ⇒$
$15t×52t ⇒$
...
How do you simplify \displaystyle{3}\sqrt{{{5}{c}}}\times\sqrt{{15}}^{{3}} ?
How do you simplify
$35c ×15 _{3}$
?
https://socratic.org/questions/how-do-you-simplify-3sqrt-5c-times-sqrt15-3
\displaystyle{225}\sqrt{{{3}{c}}} Explanation: \displaystyle{3}\sqrt{{{5}{c}}}\sqrt{{{15}}}^{{3}} First, we can simplify \displaystyle\sqrt{{{15}}}^{{3}} . \displaystyle\sqrt{{{15}}}^{{3}}=\sqrt{{15}}\cdot\sqrt{{15}}\cdot\sqrt{{15}}={15}\cdot\sqrt{{15}} ...
$2253c $
Explanation:
$35c 15 _{3}$
First, we can simplify
$15 _{3}$
.
$15 _{3}=15 ⋅15 ⋅15 =15⋅15 $
...
Simplifying indices with surds
Simplifying indices with surds
https://math.stackexchange.com/questions/1986172/simplifying-indices-with-surds
One way is to note that \left( \sqrt t \right)^3=t^{\frac 32} and similarly for the other one. Then when you multiply terms you add exponents
One way is to note that
$(t )_{3}=t_{23}$
and similarly for the other one. Then when you multiply terms you add exponents
range of m such that the equation |x^2-3x+2|=mx has 4 real answers.
range of
$m$
such that the equation
$∣x_{2}−3x+2∣=mx$
has 4 real answers.
https://math.stackexchange.com/questions/1259271/range-of-m-such-that-the-equation-x2-3x2-mx-has-4-real-answers
There is some positive value m such that y=mx is tangent to y=-(x^2-3x+2). This value must make 0 the discriminant of the equation x^2-3x+2=-mx That is, m^2-6m+1=0 The least root of ...
There is some positive value
$m$
such that
$y=mx$
is tangent to
$y=−(x_{2}−3x+2)$
. This value must make
$0$
the discriminant of the equation
$x_{2}−3x+2=−mx$
That is,
$m_{2}−6m+1=0$
The least root of ...
Prove that there exists irrational numbers p and q such that p^{q} is rational
Prove that there exists irrational numbers p and q such that
$p_{q}$
is rational
https://math.stackexchange.com/q/2883337
The irrationality of \sqrt 2^{\sqrt 2} (in fact, its transcendence) follows immediately from the Gelfond Schneider Theorem . This was the issue that motivated Hilbert's 7^{th} Problem. The ...
The irrationality of
$2 _{2}$
(in fact, its transcendence) follows immediately from the Gelfond Schneider Theorem . This was the issue that motivated Hilbert's
$7_{th}$
Problem. The ...
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\sqrt{40}
$40 $
\sqrt{99a^3}
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