Step 1: Eliminate the fractions by taking the LCM of denominators.
For the first equation: \[ \dfrac{3}{2}x - \dfrac{5}{3}y = -2 \] Multiply both sides by 6 (LCM of 2 and 3): \[ 9x - 10y = -12 \quad \text{(i)} \] For the second equation: \[ \dfrac{x}{3} + \dfrac{y}{2} = \dfrac{13}{6} \] Multiply both sides by 6: \[ 2x + 3y = 13 \quad \text{(ii)} \] Step 2: Solve the two linear equations.
Equation (i): \(9x - 10y = -12\) Equation (ii): \(2x + 3y = 13\)
Step 3: Multiply (ii) by 3 to align coefficients of \(y\).
\[ 6x + 9y = 39 \quad \text{(iii)} \] Step 4: Eliminate \(y\).
Multiply (i) by 3: \[ 27x - 30y = -36 \quad \text{(iv)} \] Multiply (ii) by 10: \[ 20x + 30y = 130 \quad \text{(v)} \] Add (iv) and (v): \[ 47x = 94 \Rightarrow x = 2 \] Step 5: Substitute \(x = 2\) in equation (ii).
\[ 2(2) + 3y = 13 \Rightarrow 4 + 3y = 13 \Rightarrow 3y = 9 \Rightarrow y = 3 \] Step 6: Conclusion.
Hence, \(x = 2\) and \(y = 3\).
The product of $\sqrt{2}$ and $(2-\sqrt{2})$ will be:
If a tangent $PQ$ at a point $P$ of a circle of radius $5 \,\text{cm}$ meets a line through the centre $O$ at a point $Q$ so that $OQ = 12 \,\text{cm}$, then length of $PQ$ will be:
In the figure $DE \parallel BC$. If $AD = 3\,\text{cm}$, $DE = 4\,\text{cm}$ and $DB = 1.5\,\text{cm}$, then the measure of $BC$ will be:
The number of solutions of the pair of linear equations $\tfrac{4}{3}x + 2y = 8$, $2x + 3y = 12$ will be:
The sum of a two-digit number and the number obtained by reversing the digits is $88$. If the digits of the number differ by $4$, find the number. How many such numbers are there?
OR
The length of a rectangular field is $9$ m more than twice its width. If the area of the field is $810\ \text{m}^2$, find the length and width of the field.