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∙ 10y agoA Light stereoscope microscope; this type of microscope is used to see three dimensional views of objects too thick to let light pass through.
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∙ 10y agoYou would use a scanning electron microscope (SEM) to examine thick objects that do not allow light to pass through them. SEM uses electron beams instead of light to create detailed images of the surface of the object.
Kamilah The One
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Anonymous
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because the thinner it is the clearer it is too see inside
Plasma membranes are not visible in light microscopy because they are very thin (about 7-10 nanometers) and transparent. Light microscopes rely on visible light to create an image, but the wavelength of visible light (about 400-700 nanometers) is too large to resolve the fine structure of plasma membranes. As a result, the plasma membrane appears as a thin boundary around cells when viewed under a light microscope.
Yes, something thick typically has volume as volume is a measure of the three-dimensional space occupied by an object. Thickness contributes to the overall volume of an object.
The Milky Way spiral galaxy is about 100,000 light years in diameter, and about 3,000 light years thick at its center, and about 1,000 light years thick near its outer edge.
When you look at letters of a newspaper through thick glass, the phenomenon is known as "magnification." The glass acts as a lens, focusing and slightly enlarging the image of the text on the newspaper, making it appear raised. This effect is due to the bending of light rays as they pass through the glass.
A Light stereoscope microscope; this type of microscope is used to see three dimensional views of objects too thick to let light pass through.
A Light stereoscope microscope; this type of microscope is used to see three dimensional views of objects too thick to let light pass through.
You would use a compound microscope with transmitted illumination or a digital microscope with top lighting. These microscopes can illuminate the object from above, allowing you to observe details even if the object is too thick to let light pass through it.
If the object is too thick for light to pass through, the light would be blocked and unable to reach the objective lens. As a result, the object would not be visible or would appear very dark and blurry under the microscope. Adjusting the focus or trying a thinner sample would be necessary to obtain a clearer image.
If the object on the slide were too thick for light to pass through, no light would illuminate the object on the other side. This would result in a shadow being cast on the side of the slide where the light source is located, and the object on the other side would not be visible.
A thin specimen allows light to pass through without distortion, enabling clearer imaging and more precise observations under a light microscope. Thick specimens can scatter light, reducing image quality and making it harder to distinguish details.
With a normal light microscope, you can't look directly at your finger. It's just too thick for light from underneath to pass through, to reach the microscope lenses. It might be possible to scrape off thin layers of dead skin and put them on a slide to view through a microscope, though.
If you look at a thick opaque object through a compound microscope, you would likely see little to no details as the object is blocking the passage of light. Additionally, the object may appear dark or shadowed since light cannot pass through it to form an image on the microscope's lens.
The scientific term for an object that does not let light pass through is "opaque." Examples of opaque objects include metals, wood, and thick plastics that block the transmission of light.
An opaque object blocks all light from passing through, as it does not allow light to pass through due to its composition and structure. Examples include wood, metal, and thick plastics.
the light from the lamp below the table would not get through the sample, meaning it could not be seen or analysed.
Cutting a thin slice of the specimen allows light to easily pass through the sample and provides a clearer image under the light microscope. A thin slice also ensures that the entire specimen can be viewed at once, without the need to focus on different depths. This method helps in obtaining detailed and high-quality images of the sample.