To determine the area bounded by the lines \(x=2\), \(y=|x-2|+4\), the \(X\)-axis, and the \(Y\)-axis, we analyze the geometry. The equation \(y=|x-2|+4\) defines a V-shaped graph, which can be expressed as two linear equations:
The two lines are \(y=x+2\) and \(y=-x+6\). Their intersection with \(x=2\) is calculated as follows:
Both lines intersect \(x=2\) at \(y=4\), indicating the vertex of the V is on this line. The line \(y=x+2\) intersects the \(X\)-axis at \(x=-2\) (when \(y=0\)). The line \(y=-x+6\) intersects the \(Y\)-axis at \(y=6\) (when \(x=0\)).
The area of the triangle formed by vertices \((0,0)\), \((0,6)\), and \((-2,0)\) is calculated. The base along the \(Y\)-axis from \((0,0)\) to \((0,6)\) is 6 units. The height along the \(X\)-axis from \((0,0)\) to \((-2,0)\) is 2 units.
The area of a triangle is given by:
\[\text{Area} = \frac{1}{2} \times \text{base} \times \text{height}=\frac{1}{2} \times 6 \times 2=6\text{ units}^2\]
Additionally, the region includes another triangle with vertices: \((0,0)\), \((0,6)\), and \((2,4)\).
| Vertex 1 | Vertex 2 | Vertex 3 |
|---|---|---|
| \((0,0)\) | \((0,6)\) | \((2,4)\) |
The area of this triangle is calculated. The base from \((0,6)\) to \((0,0)\) is 6 units. The height from \((2,4)\) to the \(Y\)-axis is 2 units.
Area = \(\frac{1}{2} \times\ 6 \times\ 2 = 6\text{ units}^2\).
The total enclosed area is the sum of these two areas: \(6 + 4 = 10 \text{ sq. units}\).
Therefore, the area enclosed by the specified lines is \(\boxed{10}\text{ sq. units.}\)
In the figure O is the centre of the circle and A, B, C are points on the circle. AOB = 50^, BOC = 80^. 