Field diameter is calculated by measuring the distance across the field of view of a microscope, then dividing that measurement by the magnification of the objective lens being used. This gives you the field diameter in micrometers.
To determine how many pith cells would fit across the diameter of a low-field microscope view, we first need to know the average size of a pith cell, which is typically around 0.1 to 0.5 mm in diameter. Low-field microscopes usually have a field of view diameter ranging from about 1 mm to 5 mm. Therefore, depending on the size of the pith cells and the specific field of view, approximately 2 to 50 pith cells could fit across the diameter of the microscope's view.
A diameter is an undefined length across a circle. reaching the longest distance possible, from edge-to-edge, and crossing the center. There are infinitely many diameters in a circle. A millimeter is a measurement that is 0.001 of a meter, also 0.03937 inches. There is no correct answer to this question, unless a specific circumference, area, radius, or diameter of the circle were given. pi = 3.14159265 (simplified 3.14)
If approximately 500 bacteria can fit across your low-power field of vision, and assuming that field is about 1 millimeter wide, each bacterium would be approximately 2 micrometers (μm) in size. This is a typical size for many bacteria, as they generally range from 0.5 to 5 μm in diameter. Thus, the average size of one bacterium in this scenario would be around 2 μm.
The giant amoeba is 5000 times larger than the smallest bacterium. This is calculated by dividing the size of the giant amoeba (1000 micrometers) by the size of the smallest bacterium (0.2 micrometers).
Field diameter is calculated by measuring the distance across the field of view of a microscope, then dividing that measurement by the magnification of the objective lens being used. This gives you the field diameter in micrometers.
There are 1000 micrometers in 1 millimeter and thus 1000 nanometers in 1 micrometer. So, 2 mm is equivalent to 2000 micrometers, which is 2,000,000 nanometers. If each Bacillus cell is 2 nanometers, you could fit 1,000,000 Bacillus cells (2,000,000 divided by 2) end to end across the field of view.
A germ is so tiny, it cannot be seen by the human eye, you need a microscope to see it. IT IS 1/1000 OF A MILLIMETER. The sun is about 1398650 miles across. So a germ is 2,250,908,985,600 times smaller than the Sun.
Two common indirect methods to determine the diameter of a hair in a microscope are by measuring the diameter of the field of view and the number of hairs across the field, and by using a calibration slide with known dimensions for comparison.
To determine how many pith cells would fit across the diameter of a low-field microscope view, we first need to know the average size of a pith cell, which is typically around 0.1 to 0.5 mm in diameter. Low-field microscopes usually have a field of view diameter ranging from about 1 mm to 5 mm. Therefore, depending on the size of the pith cells and the specific field of view, approximately 2 to 50 pith cells could fit across the diameter of the microscope's view.
To accurately measure the diameter of a screw, use a caliper or a ruler with millimeter markings. Place the screw on a flat surface and measure the distance across the widest part of the screw thread. Record the measurement in millimeters for the diameter.
The diameter of a circle represent the distance across it when divided in half. 1 millimeter equals .04 inches (rounded to one significant figure). Therefore 12 mm equals .05 inches.
Varies from 50 to 120 microns. On average a human hair is usually around 100 microns.
A diameter is an undefined length across a circle. reaching the longest distance possible, from edge-to-edge, and crossing the center. There are infinitely many diameters in a circle. A millimeter is a measurement that is 0.001 of a meter, also 0.03937 inches. There is no correct answer to this question, unless a specific circumference, area, radius, or diameter of the circle were given. pi = 3.14159265 (simplified 3.14)
Approximately 10,000 nano batteries can be lined up across a human hair, taking into account that the diameter of a human hair is around 70 micrometers and nano batteries are typically a few nanometers in size.
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The giant amoeba is 5000 times larger than the smallest bacterium. This is calculated by dividing the size of the giant amoeba (1000 micrometers) by the size of the smallest bacterium (0.2 micrometers).