y = 3/4 * root((3*x^4)/c^2,3)
C is the speed of light in a vacuum. If X and Y are distances measured in meters, does this equation make sense?
y = 3/4 * root((3*x^4)/c^2,3)
c is the speed of light in a vacuum. If X and Y are distances measured in meters, does this equation make sense?
Hello Guest!
Is your equation called that
\(y=\frac{3}{4\cdot \sqrt{\frac{3x^4}{c^{2.3}}}}\) (according to rule point calculation operates from left to right. 2,3 means 2.3?)
or so
\(y=\frac{3}{4}\cdot \sqrt{\frac{3x^4}{c^{2.3}}}\) ?
I assume the second equation.
\(\color{BrickRed}y=\frac{3}{4}\cdot \sqrt{\frac{3x^4}{c^{2.3}} }\)
\(y=\frac{3}{4}\cdot \sqrt{\frac{3x^4}{c^{2.3}} }\\ y^2=\frac{9}{16}\cdot \frac{3x^4}{c^{2.3}}\\ c^{2.3}=\frac{9}{16}\cdot \frac{3x^4}{y^2}\)
\(c=(\frac{9}{16}\cdot \frac{3x^4}{y^2})^{-2.3}\)
The equation doesn't make sense.
The unit of the speed of light is \(m/sec\ (300 \times 10 ^ 9\ m / sec).\)
The unit on the right is \(m^{-4.6}\), no matter what is used for x and y.
\(c\color{red}\neq\)\((\frac{9}{16}\cdot \frac{3x^4}{y^2})^{-2.3}\)
\(y\color{red}\neq\)\(\frac{3}{4}\cdot \sqrt{\frac{3x^4}{c^{2.3}}}\)
!