PUMPA - SMART LEARNING
எங்கள் ஆசிரியர்களுடன் 1-ஆன்-1 ஆலோசனை நேரத்தைப் பெறுங்கள். டாப்பர் ஆவதற்கு நாங்கள் பயிற்சி அளிப்போம்
Book Free DemoIn a kitchen, the gas stove is placed precisely in between the kitchen door and the refrigerator.
Since the gas stove is placed right in the middle, the distance between the kitchen door and the gas stove equals the distance between the gas stove and the refrigerator.
From the image given above, it is understood that distance \(1\) equals distance \(2\).
\(\text{Distance}\) \(1 =\) \(\text{Distance}\) \(2\)
Both the distances(Distance \(1\) and Distance \(2\)) are equal as the gas stove is placed in the mid-point of the distance between the kitchen door and the fridge.
Mid-point:
A mid-point bisects the line segment into two halves.
Let the end points of a line segment be \(A\) and \(B\), and let the vertices be \((p_1\), \(0)\) and \((p_2\), \(0)\) respectively such that \(p_2 > p_1\).
Let \(M\) be the mid-point of the line segment.
It is known that \(AM = MB\).
Let \(p\) be the vertex of \(M\).
Since, \(AM = MB\)
\(p - p_1 = p_2 - p\)
\(2p = p_1 + p_2\)
\(p = \frac{p_1 + p_2}{2}\)
Important!
If the points are \(A(x_1\), \(y_1)\) and \(B(x_2\), \(y_2)\), then the mid-point formula will look like the following:
\(\text{Mid-point} =\) \((\frac{x_1 + x_2}{2}\), \(\frac{y_1 + y_2}{2})\)