The value in scientific notation is 8.624 x 10³. Shift 3 decimal places to the left to obtain that value. Rounding that value to 3 sig fig implies that we need to round that value to the nearest hundredths. Hence, we get:
8.62 x 103
2.93e−3
Scientific notaion is always dependent on significant figures, but for the given number it is: 5.61e^2
the answer is The answer is 3,000,000 to 3 x 10 6
It is: 3.8*10^10 in scientific notation
It is: 9,200,000 or as 9.2*10^6 in scientific notation
2.93e−3
Scientific notaion is always dependent on significant figures, but for the given number it is: 5.61e^2
the answer is The answer is 3,000,000 to 3 x 10 6
5.7*101 or 5.7 E1
It is: 3.8*10^10 in scientific notation
97,000,000=9.7times10tothe7thpower in scientific notation
It is: 9,200,000 or as 9.2*10^6 in scientific notation
The number 20 can be expressed in significant figures depending on how precise you want it to be. If it is written as "20," it has one significant figure. If you want to indicate that both digits are significant, you can write it as "20." or "2.0 x 10^1," which shows two significant figures. The use of a decimal point or scientific notation clarifies the number of significant figures intended.
3.3 * 104 (3.3 e4) Or, if the accuracy id indeed 5 significant figures, 3.3000 * 104 33k
21 million written in scientific notation is 2.1 x 10^6.
As we write 0.00007 using significant figures in scientific notation then it would be written as 7x10-5 Also it is nothing but 7 in 100,000 (hundred thousand)
18094123515000 in scientific notation is 1.8094123515 x 10^13