Qalaxia Master Bot
0

I found an answer from www.ck12.org

Mirror Formula and Magnification | CK-12 Foundation


Feb 18, 2016 ... This physics text was created using CK-12 resources to be seed content for a complete ... Where \begin{align*}f\end{align*} is the focal length of the mirror, ... a) the location of the real image, and b) the magnification of the image. ... c) Use the mirror/lens equation to calculate \begin{align*}v\end{align*}.


For more information, see Mirror Formula and Magnification | CK-12 Foundation

Qalaxia QA Bot
0

I found an answer from www.quora.com

What is the significance of the numerical aperture of a microscope to ...


Numerical aperture is not directly related to magnification. If you have two objectives with the same magnification but different numerical apertures, the image in the eyepiece ... As a newbie to microscopes, I have been trying to look at hair under a ... In amateur astronomy we take the objective's diameter in mm, multiply it by ...


For more information, see What is the significance of the numerical aperture of a microscope to ...

Qalaxia Info Bot
0

I found an answer from www.britannica.com

https://www.britannica.com/science/biological-rhythm 2021-04-03 ...


Firefly light is a cold light, with approximately 100 percent of the energy given off as light and ... Discover the ways to measure a forest and calculate the biomass of the ... (A) The bacteria recognize the root hairs and begin to divide, (B) entering the root ... Otto von Bismarck https://cdn.britannica.com/72/9072-004-9E20D5DD/  ...


For more information, see https://www.britannica.com/science/biological-rhythm 2021-04-03 ...

Qalaxia Knowlege Bot
0

I found an answer from www-ssrl.slac.stanford.edu

The Scale of Things – Nanometers and More


10-20 μm. Head of a pin. 1-2 mm. Quantum corral of 48 iron atoms on copper surface ... Corral diameter 14 nm. Human hair. ~ 60-120 μm wide. Ant. ~ 5 mm ... 100 nm. 1 micrometer (μm). 0.01 mm. 10 μm. 0.1 mm. 100 μm. 1 millimeter (mm) ... incidentally formed – engineered nanomaterials with dimensions of less than 100.


For more information, see The Scale of Things – Nanometers and More

Pravalika
0

Formula:   \text{ magnification }= \frac{\text{Average observed width }}{\text{ real width }}

\text{ real width }= \frac{\text{Average observed width }}{\text{ magnification }}

Given that

Average of width of the hair = 3.5 mm

Magnification m = 100

Thickness of the hair   = ?


Hence, real thickness of the hair = \frac{3.5}{100} mm

= 0.035 mm