Scientific Notation

33 in Scientific Notation = 3.3 x 101

6100 in Scientific Notation = 6.1 x 103

623,000 in Scientific Notation = 6.23 x 105

769.5 = 7.695 x 10^2

It is: 6.4*10^-3

It is: 7.5*10^-4

800,000 in Scientific Notation = 8 x 105

5,400 x 70,000 = 378,000,000 = 3.78 x 10^8 or 3.78E8

3.4*10-4.

1.07*10-2

Your 150 will be 1.50 x 102 in scientific notation. In scientific notation, we will see only one digit to the left of the decimal, and the other digits will appear on the right. And we'll see the "location" or "position" of the decimal set by a power or ten.

1.1802 * 10 ^6

(if there is to be one significant figure) 2 * 102
(if there are to be two significant figures) 2.0 * 102 (if there are to be three significant figures) 2.00 * 102

Interpret the given value as 4300000.0. From the starting point, move 6 decimal places to the left to get:

4.3 x 106

4293.8 in Scientific Notation = 4.2938 x 103

-4.50 = -4.5 x 10^0

0.0000722 = 7.22 x 10^-5

Move 4 decimal places to the right from the starting point, so the exponent for base 10 is -4. Therefore, the number in scientific notation is 2.4 x 10-4

Nothing is measured in scientific notation. Scientific notation is used merely to represent the result of some measurement - especially when that outcome is a very small or a very large number.

0.0205 in Scientific Notation = 2.05 x 10-2

4,375,000,000 could be written as 4.375 E9, where "E9" means "ten raised to the ninth power".

There is no such thing as a 4 dimensional figure. Three dimensional objects are measured in length, width, and height. In physics the 4th dimension is used as time when discussing relativistic consequences. But how do you draw 'time'? If you do then you ignore at least one of the other dimension (length, width, or height) and use time in its place.

2.65*108