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Solve for d (complex solution)
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Solve for k (complex solution)
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Solve for d
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Solve for k
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\left(-\frac{k}{x^{2}}\right)dxx^{2}=mvdvx^{2}
Multiply both sides of the equation by x^{2}.
\left(-\frac{k}{x^{2}}\right)dx^{3}=mvdvx^{2}
To multiply powers of the same base, add their exponents. Add 1 and 2 to get 3.
\left(-\frac{k}{x^{2}}\right)dx^{3}=mv^{2}dx^{2}
Multiply v and v to get v^{2}.
\frac{-kd}{x^{2}}x^{3}=mv^{2}dx^{2}
Express \left(-\frac{k}{x^{2}}\right)d as a single fraction.
\frac{-kdx^{3}}{x^{2}}=mv^{2}dx^{2}
Express \frac{-kd}{x^{2}}x^{3} as a single fraction.
-dkx=mv^{2}dx^{2}
Cancel out x^{2} in both numerator and denominator.
-dkx-mv^{2}dx^{2}=0
Subtract mv^{2}dx^{2} from both sides.
-dmv^{2}x^{2}-dkx=0
Reorder the terms.
\left(-mv^{2}x^{2}-kx\right)d=0
Combine all terms containing d.
d=0
Divide 0 by -mv^{2}x^{2}-kx.
\left(-\frac{k}{x^{2}}\right)dxx^{2}=mvdvx^{2}
Multiply both sides of the equation by x^{2}.
\left(-\frac{k}{x^{2}}\right)dx^{3}=mvdvx^{2}
To multiply powers of the same base, add their exponents. Add 1 and 2 to get 3.
\left(-\frac{k}{x^{2}}\right)dx^{3}=mv^{2}dx^{2}
Multiply v and v to get v^{2}.
\frac{-kd}{x^{2}}x^{3}=mv^{2}dx^{2}
Express \left(-\frac{k}{x^{2}}\right)d as a single fraction.
\frac{-kdx^{3}}{x^{2}}=mv^{2}dx^{2}
Express \frac{-kd}{x^{2}}x^{3} as a single fraction.
-dkx=mv^{2}dx^{2}
Cancel out x^{2} in both numerator and denominator.
\left(-dx\right)k=dmv^{2}x^{2}
The equation is in standard form.
\frac{\left(-dx\right)k}{-dx}=\frac{dmv^{2}x^{2}}{-dx}
Divide both sides by -dx.
k=\frac{dmv^{2}x^{2}}{-dx}
Dividing by -dx undoes the multiplication by -dx.
k=-mxv^{2}
Divide mv^{2}dx^{2} by -dx.
\left(-\frac{k}{x^{2}}\right)dxx^{2}=mvdvx^{2}
Multiply both sides of the equation by x^{2}.
\left(-\frac{k}{x^{2}}\right)dx^{3}=mvdvx^{2}
To multiply powers of the same base, add their exponents. Add 1 and 2 to get 3.
\left(-\frac{k}{x^{2}}\right)dx^{3}=mv^{2}dx^{2}
Multiply v and v to get v^{2}.
\frac{-kd}{x^{2}}x^{3}=mv^{2}dx^{2}
Express \left(-\frac{k}{x^{2}}\right)d as a single fraction.
\frac{-kdx^{3}}{x^{2}}=mv^{2}dx^{2}
Express \frac{-kd}{x^{2}}x^{3} as a single fraction.
-dkx=mv^{2}dx^{2}
Cancel out x^{2} in both numerator and denominator.
-dkx-mv^{2}dx^{2}=0
Subtract mv^{2}dx^{2} from both sides.
-dmv^{2}x^{2}-dkx=0
Reorder the terms.
\left(-mv^{2}x^{2}-kx\right)d=0
Combine all terms containing d.
d=0
Divide 0 by -mv^{2}x^{2}-kx.
\left(-\frac{k}{x^{2}}\right)dxx^{2}=mvdvx^{2}
Multiply both sides of the equation by x^{2}.
\left(-\frac{k}{x^{2}}\right)dx^{3}=mvdvx^{2}
To multiply powers of the same base, add their exponents. Add 1 and 2 to get 3.
\left(-\frac{k}{x^{2}}\right)dx^{3}=mv^{2}dx^{2}
Multiply v and v to get v^{2}.
\frac{-kd}{x^{2}}x^{3}=mv^{2}dx^{2}
Express \left(-\frac{k}{x^{2}}\right)d as a single fraction.
\frac{-kdx^{3}}{x^{2}}=mv^{2}dx^{2}
Express \frac{-kd}{x^{2}}x^{3} as a single fraction.
-dkx=mv^{2}dx^{2}
Cancel out x^{2} in both numerator and denominator.
\left(-dx\right)k=dmv^{2}x^{2}
The equation is in standard form.
\frac{\left(-dx\right)k}{-dx}=\frac{dmv^{2}x^{2}}{-dx}
Divide both sides by -dx.
k=\frac{dmv^{2}x^{2}}{-dx}
Dividing by -dx undoes the multiplication by -dx.
k=-mxv^{2}
Divide mv^{2}dx^{2} by -dx.