millimeters are 1 thousandth of a meter. micrometers are 1 millionth of a meter . 10,000,000 divided by 2,000= 5,000 yeast cells
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 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 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.
No, an ocular micrometer is used for measuring objects viewed through a microscope by comparing them to a scale etched onto the eyepiece. It is not designed to measure the diameter of a field of view.
Depending on how many cells there are in the field of view. On medium power, you may not be able to see any.
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 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.
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.
Yes, a calibrated ocular micrometer can be used to measure the diameter or length of a field or object. Essentially, that is all that it is used for.
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.
No, an ocular micrometer is used for measuring objects viewed through a microscope by comparing them to a scale etched onto the eyepiece. It is not designed to measure the diameter of a field of view.
Depending on how many cells there are in the field of view. On medium power, you may not be able to see any.
A digital micrometer is used to measure small distances in the engineering and manufacturing field. It can measure wires, shafts, spheres, bolts, blocks, and holes.
A football field across is 53.3 yards.
the nucleus, cell membrane, cytoplasm, and in plant cells, the cell wall and chlorplasts
An ocular micrometer is a calibration tool used in microscopy to measure the size of objects in the field of view. It consists of a ruler etched onto a glass slide that fits into the eyepiece of a microscope. By comparing the size of objects to the known dimensions on the ocular micrometer, scientists can accurately measure the size of microscopic specimens.
Golgi bodies are a unknown subject running across a corn field