Divide the apparent diameter -- that is, the actual diameter of the organelle as it appears on the page; use a ruler -- by 5E-7. The resulting quotient is the magnification multiplier. Note that 5 micrometers = 0.5E-6 meter (m) = 5E-7 = 5 x 10-7 = 0.0000005 m.
Field diameter of lens B equals field diameter of lens A times total magnification of lens A divided by total magnification of lens B
Not with the unaided eye it isn't. You really need at least 250 x magnification to see features of a typical neuron (20 or so micrometers in diameter).
The diameter of a typical nucleus is only about 1 × 10-14 m (4 × 10-13 in), or about 1/100,000 of the diameter of the entire atom.
No, you can change the magnification of the telescope by simply changing the eyepiece. The two most important powers of the telescope, light-gathering power and resolving power, depend on the diameter of the telescope, but it does not control the magnification.
The higher the magnification the lower the depth of field.
Field diameter of lens B equals field diameter of lens A times total magnification of lens A divided by total magnification of lens B
17 micrometers = .00066929133858267 inches.
the diameter of the high power field microscope is 500 micrometers
Not with the unaided eye it isn't. You really need at least 250 x magnification to see features of a typical neuron (20 or so micrometers in diameter).
Magnification is inversely proportional to the diameter of the field of view.
4 to 6 micrometers
0.5 to 0.8 micrometers in diameter and 0.9 to 2.0 micrometers in length
The field of vision shrinks as the magnification gets higher so as the magnification increases the less of the diameter of the microscopic field you can see.
20 micrometers (a human hair is 200 micrometers)
The diameter of a typical nucleus is only about 1 × 10-14 m (4 × 10-13 in), or about 1/100,000 of the diameter of the entire atom.
Cells are typically measured in micrometers
10 to 50 micrometers