A light microscope would be the best laboratory equipment for observing a living cell with a diameter of 70 micrometers. This type of microscope provides sufficient magnification and resolution to view cells in detail while allowing for live observation. Alternatively, a phase-contrast microscope could enhance visibility of the cell's structures without the need for staining, making it ideal for live cell observation.
To find the size of the cell, you can divide the diameter of the field of vision by 13. Given that the diameter of the field of vision at high power is 600 micrometers, the calculation would be: 600 micrometers / 13 ≈ 46.15 micrometers. Therefore, the size of the cell is approximately 46.15 micrometers.
To determine how many cells fit across the microscope field, convert the diameter from millimeters to micrometers: 1 millimeter equals 1,000 micrometers. Then, divide the diameter of the field by the length of one cell: ( \frac{1000 \text{ micrometers}}{250 \text{ micrometers}} = 4 ). Therefore, four cells with a length of 250 micrometers will fit across the field.
To determine how many cells with a length of 250 micrometers can fit across a microscope field with a diameter of 1 millimeter (1000 micrometers), you divide the total field diameter by the length of one cell. So, 1000 micrometers ÷ 250 micrometers = 4 cells. Therefore, a total of 4 cells can fit across the field.
To estimate the size of the cell occupying one quarter of the field of view, first determine the diameter of the field at high magnification from your lab activity. If the diameter is, for example, 400 micrometers, then the area of the entire field is approximately 125,600 square micrometers (using the formula for the area of a circle: A = πr²). Since the cell occupies one quarter of this area, its area would be about 31,400 square micrometers. To find the approximate diameter of the cell, you can rearrange the area formula (A = πr²) to solve for r, and then multiply by 2 to find the diameter.
A light microscope would be the best laboratory equipment for observing a living cell with a diameter of 70 micrometers. This type of microscope provides sufficient magnification and resolution to view cells in detail while allowing for live observation. Alternatively, a phase-contrast microscope could enhance visibility of the cell's structures without the need for staining, making it ideal for live cell observation.
17 micrometers = .00066929133858267 inches.
the diameter of the high power field microscope is 500 micrometers
500 mcm (micrometers) is equivalent to 0.5 millimeters. To convert micrometers to millimeters, you divide the number of micrometers by 1,000, as there are 1,000 micrometers in a millimeter. Thus, the diameter of 500 mcm is 0.5 mm.
To find the size of the cell, you can divide the diameter of the field of vision by 13. Given that the diameter of the field of vision at high power is 600 micrometers, the calculation would be: 600 micrometers / 13 ≈ 46.15 micrometers. Therefore, the size of the cell is approximately 46.15 micrometers.
4 to 6 micrometers
0.5 to 0.8 micrometers in diameter and 0.9 to 2.0 micrometers in length
To determine how many cells fit across the microscope field, convert the diameter from millimeters to micrometers: 1 millimeter equals 1,000 micrometers. Then, divide the diameter of the field by the length of one cell: ( \frac{1000 \text{ micrometers}}{250 \text{ micrometers}} = 4 ). Therefore, four cells with a length of 250 micrometers will fit across the field.
20 micrometers (a human hair is 200 micrometers)
To determine how many cells with a length of 250 micrometers can fit across a microscope field with a diameter of 1 millimeter (1000 micrometers), you divide the total field diameter by the length of one cell. So, 1000 micrometers ÷ 250 micrometers = 4 cells. Therefore, a total of 4 cells can fit across the field.
Cells are typically measured in micrometers
10 to 50 micrometers