yes it is.
The field of view (FOV) of a microscope refers to the area visible through the lens. It is determined by the diameter of the microscope's field diaphragm and the objective lens magnification. A higher magnification will typically result in a smaller field of view, while lower magnifications will have a larger field of view.
The second lens, known as the objective lens, is crucial in a microscope as it magnifies the image of the specimen. Without the objective lens, the details and structures of the specimen would not be visible at a microscopic level. The combination of the objective lens and the eyepiece lens allows for greater magnification and better resolution in microscopy.
A compound light microscope uses visible light to illuminate and magnify samples. This type of microscope is commonly used in laboratories and educational settings for studying biological specimens and other transparent samples.
The cytoplasm is somewhat clear when looking through a light microscope. However you can see where the cytoplasm is. You can see cell walls and cell membranes through a light microscope, the spaces in between these lines is cytoplasm.
Yes, mitochondria are typically smaller than DNA. Mitochondria are organelles found in cells that produce energy, while DNA is the genetic material that carries instructions for the cell's functions. Mitochondria are visible under a microscope, whereas DNA is much smaller and contained within the cell's nucleus.
Field of view refers to the diameter of the area visible when looking through a microscope. It is determined by the microscope's objective lens and eyepiece combination. A larger field of view allows for more of the specimen to be seen at once, while a smaller field of view provides higher magnification but less visible area.
The field of view (FOV) of a microscope refers to the area visible through the lens. It is determined by the diameter of the microscope's field diaphragm and the objective lens magnification. A higher magnification will typically result in a smaller field of view, while lower magnifications will have a larger field of view.
380 nanometers [Violet] to 750 nanometers [Red].1 nanometer = 10 Angstroms.3800 Angstroms [Violet] to 7500 Angstroms [Red].
You use the 3 objective lenses of a compound microscope to switch powers. There's LOW, MEDIUM, and HIGH power. With LOW power, you can magnify what you're looking at. With HIGH power, you can see things that you can't see with a naked eye.
Light with wavelengths between 3500 and 6500 angstroms: called the visible light spectrum.
The nucleus of the cheek cell would most likely be visible when viewed through the high-power objective of a compound microscope. It is usually one of the larger and more prominent structures within the cell and can be stained to enhance visibility.
The second lens, known as the objective lens, is crucial in a microscope as it magnifies the image of the specimen. Without the objective lens, the details and structures of the specimen would not be visible at a microscopic level. The combination of the objective lens and the eyepiece lens allows for greater magnification and better resolution in microscopy.
The smallest diameter of a cell that can be resolved by a light microscope is typically around 0.2 micrometers, which is the limit of resolution due to the wavelength of visible light. Structures that are smaller than this limit will appear blurry or indistinct under a light microscope.
The amount of specimen visible on a microscope is referred to as the field of view. This refers to the diameter of the circular area that is visible when looking through the microscope. The field of view may vary depending on the magnification level of the microscope lens.
The term that refers to the power of a microscope is "magnification." Magnification indicates the degree to which the image of an object is enlarged when viewed through a microscope, providing details that may not be visible to the naked eye.
Specimen orientation on a microscope refers to the position and alignment of the specimen on the microscope stage. Correct orientation is important to ensure that the desired area of the specimen is visible and in focus under the microscope objective lens. Properly orienting the specimen allows for accurate observation and analysis of its features.
The body tube of a compound optical microscope contains two lens systems, the objective lens composed of one or several lenses that magnify the image of the object being examined, and the ocular lens at the eyepiece end. The magnification of the microscope depends on the focal lengths of the two lens systems.