The purpose of a mirror is to reflect light through the diaphragm, the specimen, the objective lens, and body tube and into your eye so you can see the image. Never use sunlight when using a microscope with a mirror, as it could damage your retinas.
No, you should never aim the mirror of a microscope at the sun to light up the specimen. Doing so can cause the intense light from the sun to damage both your eyes and the microscope itself. Instead, it is recommended to use the built-in light source of the microscope or an external light source to properly illuminate the specimen for observation.
light is collected by a mirror at the base of the microscope. The mirror is held in special joints that allow it to move in any direction. The light comes from a lamp or from a sunless sky. It must never be collected directly from the sun as this can cause sever eye damage and blindness. Some microscopes have a built-in lamp instead of a mirror. The light either shines directly through a hole in the stage onto the specimen or it passes through a hole in a diaphragm.
one side of the moon receives light from the sun and the other will never get light..that side is called the dark side of the moon..so yes the moon is dark and also receives sunlight...(the moon does not make any of its own light)
An area of the moon that never receives any sunlight is known as a lunar polar night. This occurs in the permanently shadowed regions near the moon's poles where sunlight never reaches due to the moon's axis tilt and topography blocking the sun's rays.
Avoid using high magnification right away to prevent incorrect focusing and damaging the lens. Do not touch the lens or the inside of the microscope to maintain cleanliness and prevent contamination. Refrain from moving the microscope too roughly or quickly to prevent damage to the equipment.
All continents receive direct sunlight for at least part of the year.
The polar regions never receive any direct sunlight.
The purpose of a mirror is to reflect light through the diaphragm, the specimen, the objective lens, and body tube and into your eye so you can see the image. Never use sunlight when using a microscope with a mirror, as it could damage your retinas.
Do not let them get wet, keep out of direct sunlight, and never feed after midnight.
No, you should never aim the mirror of a microscope at the sun to light up the specimen. Doing so can cause the intense light from the sun to damage both your eyes and the microscope itself. Instead, it is recommended to use the built-in light source of the microscope or an external light source to properly illuminate the specimen for observation.
Never visible to naked eye.Visible to light microscope during cell division
Direct sunlight does not hit all parts of the Earth at the same time. It does not hit areas experiencing nighttime due to the rotation of the Earth on its axis. Additionally, during sunset and sunrise, sunlight is less direct and more spread out.
At the north and south poles it is possible to get days which are completely light, and also days which never see any sunlight.
it never does unless u live in a dark room with no light.
There is no area on earth that never gets sunlight, except for a few isolated tiny places that are always shaded by adjacent mountains.
== == When using a light microscope you encounter diffraction. (Visible light behaves like a wave, with a wavelength of about 300 to 900 nanometres). We say that light diffracts when its wavelike behaviour makes it bend around obstacles, or spread out. If the obstacle is much larger than the wavelength of the incoming wave, the spreading-out will be smaller. If the gap is smaller than the wavelength, then the spreading-out will be very large. In a light microscope, the light waves will spread out whenever they pass through a lens, or any sort of obstruction. The primary lens in most microscopes is of much bigger than 300-900 nanometres, so the angle by which light waves diverge is really quite small. However, it is not zero the light waves do spread out a little bit, and the result is that the visual field is always a bit blurry. It is impossible for an ordinary light microscope to avoid this problem, so they can never see structures smaller than about 500 nm.