Yes. If the crystals are big enough. Often you can see crystals with no magnification at all!
The total magnification of a light microscope with a 40x objective lens is calculated by multiplying the magnification of the objective lens by the magnification of the eyepiece lens. Assuming a standard eyepiece magnification of 10x, the total magnification would be 400x (40x objective lens * 10x eyepiece lens = 400x total magnification).
The magnification of a microscope using the 40x objective is 40 times the actual size of the specimen being observed. To determine the total magnification, you must also consider the eyepiece (ocular lens) magnification, which is typically 10x. Therefore, if using a 40x objective with a 10x eyepiece, the total magnification would be 400x.
It would be 50x. To find the magnification, you just have to multiply the number eyepiece and the number objective. So for example, * A 10x eyepiece and a 40x objective would have a magnification of 400x * A 10x eyepiece and a 100x objective would have a magnification of 1,000x
low-power magnificatin = (10x)(4x) = 40x high-power magnification = (10x)(40x) = 400x It depends on what magnification you are looking for; high-power magnification OR low-power magnification.
A light microscope can typically magnify objects up to 1000 times their original size. This level of magnification allows for the visualization of details down to the cellular level. Beyond this, electron microscopes are used to achieve much higher levels of magnification.
The magnification needed to see cells clearly under a microscope is typically around 400x to 1000x.
A magnification of at least 400x is typically needed to see protists clearly under a microscope. This level of magnification allows you to observe the details of their structure and movement.
No, the endoplasmic reticulum is too small to be seen at 400x magnification. It is a cellular organelle that is only visible under higher magnifications, typically around 1000x or more using an electron microscope.
The total magnification of the microscope when using the 40x objective depends on the strength of the eye piece lens. Typically a 10x eye piece lens is used in college microscopes this would give 40x10 = 400x magnification.
To find the new field of view at 400X magnification, you would divide the original field of view by the magnification increase factor (which is 10 in this case since you are going from 40X to 400X). So, 6000 um / 10 = 600 um. Therefore, the field of view at 400X magnification would be 600 micrometers.
The total magnification of a light microscope with a 40x objective lens is calculated by multiplying the magnification of the objective lens by the magnification of the eyepiece lens. Assuming a standard eyepiece magnification of 10x, the total magnification would be 400x (40x objective lens * 10x eyepiece lens = 400x total magnification).
No, peroxisomes are generally not visible under standard light microscopy at 400X magnification. They are too small and require higher magnifications and specific staining techniques to be visualized.
multiply the magnification of the eyepiece by the magnification of the high objective lens. for example, if the eyepiece magnifies x10, and the high objective magnifies x40, then the total magnification would be 400x
One can obtain a total magnification of 400x while using an objective lens of 40x. Such a lens should be used along an eyepiece of 10x.
To calculate the total magnification, you multiply the magnification of the objective lens by the magnification of the eyepiece. In this case, using a 40x objective with a 10x eyepiece results in a total magnification of 400x (40x × 10x = 400x). Thus, you are viewing the cells at 400 times their actual size.
400x
To calculate the total magnification of a compound microscope, you simply multiply the magnification of the eyepiece by the magnification of the objective. For example, if the eyepiece magnifies 10x and the objective magnifies 40x, then the total magnification is 10x * 40x = 400x.