If ‘D’ be the foot of altitude, drawn from origin to the given line, then �$D$� is the required point.
Let $\angle OBA = \theta$
$\Rightarrow \, \tan \theta = 4/3$
$\Rightarrow \, \angle DOA = \theta $
we have $OD = 12/5$
If $D$ is $(h, k)$ then $h = OD \cos \theta, k = OD \sin \theta$
$\Rightarrow \, h = 36/25, k = 48/25$.
If the line segment joining the points \( (1,0) \) and \( (0,1) \) subtends an angle of \( 45^\circ \) at a variable point \( P \), then the equation of the locus of \( P \) is:
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:
In the given cycle ABCDA, the heat required for an ideal monoatomic gas will be:
Evaluate the following limit: $ \lim_{n \to \infty} \prod_{r=3}^n \frac{r^3 - 8}{r^3 + 8} $.
The length of the perpendicular drawn from the point to the line is the distance of a point from a line. The shortest difference between a point and a line is the distance between them. To move a point on the line it measures the minimum distance or length required.
The following steps can be used to calculate the distance between two points using the given coordinates:
Note: If the two points are in a 3D plane, we can use the 3D distance formula, d = √(m2 - m1)2 + (n2 - n1)2 + (o2 - o1)2.
Read More: Distance Formula