The specimen is what is on a slide and the image is what you see.
The lenses of a microscope form an enlarged image of a specimen.
A microscope is useful in determining the actual size of a specimen because it magnifies the image, allowing for detailed observation of the structure and dimensions of the specimen. By comparing the magnified image to a calibrated scale, scientists can accurately measure the size of the specimen.
A nonliving specimen refers to something that was never alive, like a rock or a chair. A specimen that is considered dead was once living but has now ceased all life processes.
The fine adjustment knob on a microscope provides slight focusing to sharpen the image. It allows for precise adjustments to bring the specimen into clear view by making small changes to the distance between the objective lens and the specimen.
The objective lens of a microscope magnifies the image of the specimen, allowing the user to see a larger image. Additionally, the condenser lens focuses light onto the specimen, enhancing contrast and detail in the image.
A virtual image of a specimen is produced by an optical microscope, which magnifies the specimen using lenses to create an enlarged view that is visible to the human eye. This type of microscope does not require direct contact between the specimen and the lens, hence producing a virtual image.
A real image is not the reverse of the actual specimen. A real image is formed by the convergence of light rays and can be projected onto a screen, while the actual specimen refers to the object itself. The real image is a focused representation of the specimen.
Yes, a real image is a faithful representation of the actual specimen. It is formed by the convergence of light rays after passing through a lens or a mirror, creating an image that is inverted compared to the actual specimen.
It can be the same thing.
there is no difference. ;)
To obtain a clear image of a specimen under a microscope, two key adjustments are focus and illumination. The focus adjustment involves using the coarse and fine focus knobs to refine the clarity of the image by adjusting the distance between the lens and the specimen. The illumination adjustment controls the light intensity and direction, ensuring that the specimen is adequately lit for optimal visibility. Together, these adjustments enhance the overall quality of the observed image.
A transmission electron microscope (TEM) image is created by passing a beam of electrons through a very thin specimen, which interacts with the specimen to produce an image. The electrons that pass through the specimen are then focused using a series of electromagnetic lenses to create a magnified image on a fluorescent screen or camera. The contrast in the final image is generated by differences in the specimen's electron density.
Owning an image or the copyright to an image are the same thing. When you hold the copyright to an image it is yours to do with whatever you will, and you can decide who has permission to use it or not. There is no difference.
A convex lens magnifies the image of the specimen by bending light rays towards a focal point, creating an enlarged and focused image. This bending of light rays helps to converge the rays to form a magnified virtual image that appears larger than the actual size of the specimen.
The difference between 32bit windows and 64bit windows is the resolution of the image and the higher the bit the better the image.
The lenses of a microscope form an enlarged image of a specimen.
The coarse adjustment knob is used for moving the objective lenses further away or closer to the specimen to roughly focus the image. The fine adjustment knob is used for making small and precise adjustments to the focus to sharpen the image and bring it into clear view.