Answer:
[tex]a_{r} = 1006.382g \,\frac{m}{s^{2}}[/tex]
Explanation:
Let suppose that centrifuge is rotating at constant angular speed, which means that resultant acceleration is equal to radial acceleration at given radius, whose formula is:
[tex]a_{r} = \omega^{2}\cdot R[/tex]
Where:
[tex]\omega[/tex] - Angular speed, measured in radians per second.
[tex]R[/tex] - Radius of rotation, measured in meters.
The angular speed is first determined:
[tex]\omega = \frac{\pi}{30}\cdot \dot n[/tex]
Where [tex]\dot n[/tex] is the angular speed, measured in revolutions per minute.
If [tex]\dot n = 3000\,rpm[/tex], the angular speed measured in radians per second is:
[tex]\omega = \frac{\pi}{30}\cdot (3000\,rpm)[/tex]
[tex]\omega \approx 314.159\,\frac{rad}{s}[/tex]
Now, if [tex]\omega = 314.159\,\frac{rad}{s}[/tex] and [tex]R = 0.1\,m[/tex], the resultant acceleration is then:
[tex]a_{r} = \left(314.159\,\frac{rad}{s} \right)^{2}\cdot (0.1\,m)[/tex]
[tex]a_{r} = 9869.588\,\frac{m}{s^{2}}[/tex]
If gravitational acceleration is equal to 9.807 meters per square second, then the radial acceleration is equivalent to 1006.382 times the gravitational acceleration. That is:
[tex]a_{r} = 1006.382g \,\frac{m}{s^{2}}[/tex]