
You can slightly adjust the fine focus knob of the microscope to correct this issue. However, if you attach your DSLR camera to the microscope using the ocular adapter like shown in the picture, the sensor will be higher than the primary image plane. On a DSLR camera body, there is the focal plane mark showing the location of the sensor inside the camera. The sensor of the camera must be placed in the plane where the primary image is formed in the microscope. It is obvious that this image can be formed not only on the frosted glass, but also on the camera sensor if we remove the camera lens.
We can view this image if we put a frosted glass instead of an eyepiece as shown in the picture. The second method is called “direct imaging” and uses the fact that the microscope objective forms a real image on the plane of focus of the ocular.
The real image is formed on the frosted glass.
A piece of frosted glass is placed instead of the right eyepiece. Taking a microphotograph from the ocular with a smartphone. Taking a microphotograph from the right ocular with a compact camera attached to the universal articulated arm. It also uses parallel rays of light that go through the eye lens and form the inverted image on the retina. Note that our eye works almost exactly like a photo camera. The light rays coming from the eyepiece are almost parallel like from a distant object and consequently, they can be recorded by an ordinary photo camera, for example, a DSLR, a smartphone, or a compact camera. With the first method, which we call “imaging from the ocular”, the camera is placed near the ocular of the microscope. There are two main methods for taking pictures and video through a microscope: with an eyepiece and a camera with its objective and without an eyepiece and a camera without an objective. For example, if the ocular magnification is 10×, and the objective lens magnification is 45×, then the total magnification of the microscope will be Information about the magnification includes a number followed by ×, for example, 5×, 10×, 100×. The magnification of the objective and ocular lenses can be found on their casings along with other information about them. The magnification of a compound optical microscope M total is the product of the magnifications of the objective lens M obj and the ocular (or eyepiece) M ocul: Locking screws for securing specimen holder to stage. Illuminator collector with field diaphragm. Knob controlling the lateral movement of the stage. Knob controlling the back and forth movement of the stage. Sliding interpupillary adjustment grips.