Step 1: Understanding the Concept:
The net charge on an object is the algebraic sum of the charges of all its constituent particles. The charge of a single electron is -e, and the charge of a single proton is +e.
Step 3: Detailed Explanation:
An object contains 'x' electrons and 'y' protons.
The total charge due to 'x' electrons = \( x \times (\text{charge of one electron}) = x \times (-e) = -xe \).
The total charge due to 'y' protons = \( y \times (\text{charge of one proton}) = y \times (+e) = +ye \).
The net charge on the object is the sum of these charges:
\[ \text{Net Charge} = (\text{Total charge of electrons}) + (\text{Total charge of protons}) \]
\[ \text{Net Charge} = -xe + ye \]
Factoring out 'e', we get:
\[ \text{Net Charge} = (y - x)e \]
Step 4: Final Answer:
The net charge on the object will be (y - x)e.
A solid sphere of radius \(4a\) units is placed with its centre at origin. Two charges \(-2q\) at \((-5a, 0)\) and \(5q\) at \((3a, 0)\) is placed. If the flux through the sphere is \(\frac{xq}{\in_0}\) , find \(x\)
Two point charges M and N having charges +q and -q respectively are placed at a distance apart. Force acting between them is F. If 30% of charge of N is transferred to M, then the force between the charges becomes:
What comes next in the series?
\(2, 6, 12, 20, 30, \ ?\)