i). There are \(2\) shaded parts.
The total number of parts is \(4\).
Therefore, the required fraction representing the shaded part is \(\frac{2 } 4\) or \(\frac{1 } 2\).
ii). There are \(8\) shaded parts.
The total number of parts is \(9\).
Therefore, the required fraction representing the shaded part is \(\frac{8 } 9\).
iii). There are \(4\) shaded parts.
The total number of parts is \(8\).
Therefore, the required fraction representing the shaded part is \(\frac{4 } 8\) or \(\frac{1 } 2\).
iv). There is \(1\) shaded part.
The total number of parts is \(4\).
Therefore, the required fraction representing the shaded part is \(\frac{1 } 4\).
v). There are \(3\) shaded parts.
The total number of parts is \(7\).
Therefore, the required fraction representing the shaded part is \(\frac{3 }{ 7}\).
vi). There are \(3\) shaded parts.
The total number of parts is \(12\).
Therefore, the required fraction representing the shaded part is \(\frac{3 }{ 12}\) or \(\frac{1 }{ 4}\).
vii). There are \(10\) shaded parts.
The total number of parts is \(10\).
Therefore, the required fraction representing the shaded part is \(\frac{10 }{ 10}\) or \(1\) whole.
viii). There are \(4\) shaded parts.
The total number of parts is \(9\).
Therefore, the required fraction representing the shaded part is \(\frac{4 } 9\).
ix). There are \(4\) shaded parts.
The total number of parts is \(8\).
Therefore, the required fraction representing the shaded part is \(\frac{4 } 8\) or \(\frac{1 } 2\).
x). There is \(1\) shaded part.
The total number of parts is \(2\).
Therefore, the required fraction representing the shaded part is \(\frac{1 } 2\).
Column I shows different positions in which one pole of a magnet is placed near that of the other. Column II indicates the resulting action between them for each situation. Fill in the blanks.
Column I | Column II |
N-______ | _________ |
N-________ | Attraction |
S-N | |
________-S | Repulsion |
Draw:
1) a leaf
2) a taproot and
3) a flower,
you have studied for Table 4.3