(i) The given equation is \(3x + 2y -12 = 0.\)
It can be written as
\(3x + 2y = 12\)
\(\frac{3x}{12} + \frac{2y}{12} = 1\)
\(i.e,\frac{x}{4} +\frac{ y}{6} = 1........(1)\)
This equation is of the form\( \frac{x}{a} + \frac{y}{b} = 1\) , where \(a = 4\) and \(b = 6. \)
Therefore, equation (1) is in the intercept form, where the intercepts on the x and y axes are 4 and 6 respectively.
(ii) The given equation is \(4x - 3y = 6. \)
It can be written as
\(\frac{4x}{6} –\frac{ 3y}{6} = \frac{6}{6}\)
\(\frac{2x}{3} –\frac{ y}{2} = 1\)
\(\frac{x}{(\frac{3}{2})} + \frac{y}{(-2)} = 1.....(2)\)
This equation is of the form \(\frac{x}{a} +\frac{ y}{b} = 1\), where \(a = \frac{3}{2}, b = -2\)
Therefore, equation (2) is in the intercept form, where the intercepts on the x and y axes are \(\frac{3}{2}\) and \(-2\) respectively.
(iii) The given equation is \(3y + 2 = 0.\)
It can be written as
\(3y = -2\)
\(i.e,\frac{y}{(\frac{-2}{3})} = 1............(3)\)
This equation is of the form \(\frac{x}{a} + \frac{y}{b} = 1\), where \(a = 0, b = \frac{-2}{3}\)
Therefore, equation (3) is in the intercept form, where the intercept on the y-axis is \(\frac{-2}{3}\) and it has no intercept on the x-axis.
If \( (a, b) \) be the orthocenter of the triangle whose vertices are \( (1, 2) \), \( (2, 3) \), and \( (3, 1) \), and \( I_1 = \int_a^b x \sin(4x - x^2) dx \), \( I_2 = \int_a^b \sin(4x - x^2) dx \), then \( 36 \frac{I_1}{I_2} \) is equal to:
Figures 9.20(a) and (b) refer to the steady flow of a (non-viscous) liquid. Which of the two figures is incorrect ? Why ?
A straight line is a line having the shortest distance between two points.
A straight line can be represented as an equation in various forms, as show in the image below:
The following are the many forms of the equation of the line that are presented in straight line-
Assume P0(x0, y0) is a fixed point on a non-vertical line L with m as its slope. If P (x, y) is an arbitrary point on L, then the point (x, y) lies on the line with slope m through the fixed point (x0, y0) if and only if its coordinates fulfil the equation below.
y – y0 = m (x – x0)
Let's look at the line. L crosses between two places. P1(x1, y1) and P2(x2, y2) are general points on L, while P (x, y) is a general point on L. As a result, the three points P1, P2, and P are collinear, and it becomes
The slope of P2P = The slope of P1P2 , i.e.
\(\frac{y-y_1}{x-x_1} = \frac{y_2-y_1}{x_2-x_1}\)
Hence, the equation becomes:
y - y1 =\( \frac{y_2-y_1}{x_2-x_1} (x-x1)\)
Assume that a line L with slope m intersects the y-axis at a distance c from the origin, and that the distance c is referred to as the line L's y-intercept. As a result, the coordinates of the spot on the y-axis where the line intersects are (0, c). As a result, the slope of the line L is m, and it passes through a fixed point (0, c). The equation of the line L thus obtained from the slope – point form is given by
y – c =m( x - 0 )
As a result, the point (x, y) on the line with slope m and y-intercept c lies on the line, if and only if
y = m x +c