(i) \(0.0048 = 4.8 \times 10^{-3} \)
(ii) \(234, 000 = 2.34 \times 10^5 \)
(iii) \(8008 = 8.008 \times 10^3 \)
(iv) \(500.0 = 5.000 \times 10^2 \)
(v) \(6.0012 = 6.0012\)
If the uncertainty in velocity and position of a minute particle in space are, \(2.4 × 10^{–26}\) \((m s^{–1)}\) and \(10^{–7} (m)\), respectively. The mass of the particle in g is _____ . (Nearest integer)
(Given : \(h = 6.626 × 10^{–34} Js\))
S.No | Prefixes | Multiples |
(i) | micro | 106 |
(ii) | deca | 109 |
(iii) | mega | 10–6 |
(iv) | giga | 10–15 |
(v) | femto | 10 |
Scientific Notation can be defined as a method through which we express numbers that are either too large or too little to be expressed in decimal form. It is also known as 'Scientific Form,' and it is often used by scientists, mathematicians, and engineers for difficult computations involving large numbers. It's generally referred to as "SCI" display mode on scientific calculators.
All numbers in scientific notation are written in the generic form as N x 10m
Read More: Scientific Notation Formula
While writing the numbers in the scientific notation we have to follow certain rules they are as follows: