If the entire field of view is 32 mm and the object occupies 25% of that then you will multiply 32 by 0.25. The result is 8 mm.
area of object = (1/3) pi * radius^2 = (1/3) (pi) * (0.6)^2 = 0.377 Find the diameter of this object (assuming it's a circle), and that's the answer: diameter = radius * 2 radius = square root (area / pi) diameter = 2 * square root (area / pi) diameter = 2 * (0.335) = 0.67
Higher power "zooms" in quite a lot. Specifdicly, it "zooms" to the very center of the field of view. This means that something just barely in the field of view (on the side, for example), would no longer be visible as when you zoom in your field of view gets smaller. I know that sounds a bit confusing... sorry! :/
With one hand, the average male human cannot hold and grasp a basketball from the top without it falling. The standard basketball is a little over 9 inches in diameter. Given that women will have smaller hands on average, the diameter that the average human can hold and prevent from falling, and this is complete conjecture, should be between 5-7 inches. But first, the average human hand size would have to be determined. With two hands, the largest diameter object the average human could hold would be significantly larger, dependent on the wingspan of the average human, the surface texture and the weight of the object, and the average height and strength of the average human .
You would use low first so you can see where it is and then you would center it and make it on the edge of the pointer. Then go to medium;center the object;go to high; center then your done!!! a 7th grader
First of all, it's inertia. Inertia is the tendency of matter to resist a change in motion, hence, an object at rest will stay at rest, and an object in motion will stay in motion. The bigger an object is, the more inertia it has.
area of object = (1/3) pi * radius^2 = (1/3) (pi) * (0.6)^2 = 0.377 Find the diameter of this object (assuming it's a circle), and that's the answer: diameter = radius * 2 radius = square root (area / pi) diameter = 2 * square root (area / pi) diameter = 2 * (0.335) = 0.67
The size of the object would depend on its distance from the observer. The diameter of the field of view refers to the circular area you can see through a microscope or similar device and not the actual size of an object.
The field of view would be 80 times the diameter.
The field of view's diameter is inversely proportional to magnification; thus, the 5.6mm diameter at 40x magnification would become 140mm at 1x magnification. Mathematically, Field of view diameter = FOV1 / Magnification1 = FOV2 / Magnification2.
A spot does not have a specific weight as it is not a physical object but rather a location or mark on a surface. The weight of an object that occupies that spot would depend on the material and mass of the object itself.
An object being pulled inward in an electric field typically implies the object has a positive charge, as oppositely charged objects are attracted to each other. If the object has a negative charge, it would be pushed away from the field. If the object has a neutral charge, it would not experience any force in the field.
No, the volume of an object does not change when its size changes. The volume is a fixed measure of the amount of space that the object occupies and is calculated using specific dimensions. Changing the size of the object would involve altering these dimensions but would not impact the volume.
You can estimate the size of the object by comparing the field diameters observed under the low power objective lens (4x) and high power objective lens (40x). Calculate the ratio of the field diameters (40x/4x = 10), and use this ratio to estimate the size of the object viewed under the high power objective lens. Simply multiply the size of the object viewed under the low power objective lens by the ratio (field diameter at 4x) to get an estimation.
Volume is the space that an object occupies (or that it would occupy if it were to exist in the physical world rather than just as a concept).
No, weight is the amount of force an object exerts on another. For example you push down on the Earth with a weight of approximately 600 Newtons whilst on the moon you would weigh less and in empty space you would weigh nothing. Mass is the amount of matter an object occupies and does not vary with your location.
To calculate the size of the organism, you would need to know the magnification of the microscope being used. Comparing the field diameter at 400x magnification with the actual size of the organism would give you the scale factor to determine the organism's size. For example, if the field diameter at 400x is 0.5 mm, and the actual size is 50 micrometers, then the organism is 10 times smaller than the field diameter.
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.