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A 3-d object is often called a model.
About as often as a hairstylist does.
Because they often work with very large or very small measurements.
The measurement abbreviated "kg" is the kilogram, or 1000 grams (often shortened to g). The kilogram is used in most of the world as one of the primary measurements of mass.
If the two measurements are of the same type, such as length, we could use that ratio to convert from one measurements to another. An example is the ratio of 1.609 Km to 1 mile. Here, we can multiply some number of miles by 1.609 and find the kilometer distance. If the two measurements are of different types, that is often used as a definition of another quantity such as speed. Speed is defined as the ratio of the distance traveled to the amount of time it takes. These two examples are the most common uses when taking the ratio of two measurements, yet there may be a more generalized term or theorem here, but I've not heard of it yet.
A 3-d object is often called a model.
A diagram is an illustration or drawing on paper of an object often planned to be put into use; the diagram provides all pertinent dimensions, shapes, and verbiage necessary to enable the reader to understand, and if necessary, duplicate the object drawn in the diagram. Model: A verbal, mathematical, or visual illustration of an object or situation; such an illustration is conducive to ease and accuracy of testing when scientists need to compare their theories and/or results against the measurements and concrete idiosyncracies of the model.
The smaller objects which are built to represent the larger objects are called Model
because a model can be very useful in proving infromation when you can't actually obsever an object or process directly.
as often as possible
Raisin Bread Model (yes seriously)
measurements
measurements
Newton's second law of motion pertains to the behavior of objects for which all existing forces are not balanced. The second law states that the acceleration of an object is dependent upon two variables - the net force acting upon the object and the mass of the object. The acceleration of an object depends directly upon the net force acting upon the object, and inversely upon the mass of the object. As the force acting upon an object is increased, the acceleration of the object is increased. As the mass of an object is increased, the acceleration of the object is decreased. === === Newton's second law of motion can be formally stated as follows: The acceleration of an object as produced by a net force is directly proportional to the magnitude of the net force, in the same direction as the net force, and inversely proportional to the mass of the object. This verbal statement can be expressed in equation form as follows: The above equation is often rearranged to a more familiar form as shown below. The net force is equated to the product of the mass times the acceleration.
The second law states that the acceleration of an object is dependent upon two variables - the net force acting upon the object and the mass of the object. The acceleration of an object depends directly upon the net force acting upon the object, and inversely upon the mass of the object. As the force acting upon an object is increased, the acceleration of the object is increased. As the mass of an object is increased, the acceleration of the object is decreased. To put it as it is often put: Force equals mass times acceleration (F = ma): the net force on an object is equal to the mass of the object multiplied by its acceleration.
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