The CBSE 2026 Class 10 Mathematics Standard (Set 3- 30/5/3) Question Paper with Solutions PDF is now available for students to evaluate their performance. Conducted from 10:30 AM to 1:30 PM, the exam was rated moderate in difficulty, featuring a balanced mix of MCQs, case-based studies, and theoretical problems.

Students who focused on NCERT fundamentals and high-weightage units like Algebra and Trigonometry found the paper manageable. This solved PDF serves as a vital resource for understanding the marking scheme and mastering the 2025-26 exam pattern.

CBSE 2026 Class 10 Mathematics Standard Question Paper with Solutions PDF- (Set 3- 30/5/3)

CBSE Class 10 Mathematics Standard Question Paper 2026 (Set 3- 30/5/3) Download Check Solutions
CBSE Class 10 Mathematics Standard Question Paper 2026 Set 3 30 5 3

Question 1:

A conical cavity of maximum volume is carved out from a wooden solid hemisphere of radius 10 cm. Curved surface area of the cavity carved out is (use \(\pi = 3.14\))


  • (A) \(314 \sqrt{2}\) \(cm^{2}\)
  • (B) \(314\) \(cm^{2}\)
  • (C) \(\frac{3140}{3}\) \(cm^{2}\)
  • (D) \(3140 \sqrt{2}\) \(cm^{2}\)

Question 2:

If \(a_n\) represents \(n^{th}\) term of the A.P. \(-\frac{15}{4}, -\frac{10}{4}, -\frac{5}{4}, \dots\) then value of \(a_{16} - a_{12}\) is

  • (A) \(4\)
  • (B) \(\frac{5}{4}\)
  • (C) \(5\)
  • (D) \(\frac{25}{4}\)

Question 3:

Meena calculates that the probability of her winning the first prize in a lottery is \(0.08\). If total \(800\) tickets were sold, the number of tickets bought by her, is

  • (A) \(64\)
  • (B) \(640\)
  • (C) \(100\)
  • (D) \(10\)

Question 4:

A camping tent in hemispherical shape of radius \(1.4\) m, has a door opening of area \(0.50\) \(m^2\). Outer surface area of the tent is

  • (A) \(11.78\) \(m^2\)
  • (B) \(12.32\) \(m^2\)
  • (C) \(11.82\) \(m^2\)
  • (D) \(12.86\) \(m^2\)

Question 5:

PQ is tangent to a circle with centre O. If \(OQ = a\), \(OP = a + 2\) and \(PQ = 2b\), then relation between \(a\) and \(b\) is


  • (A) \(a^2 + (a + 2)^2 = (2b)^2\)
  • (B) \(b^2 = a + 4\)
  • (C) \(2a^2 + 1 = b^2\)
  • (D) \(b^2 = a + 1\)

Question 6:

Simplest form of \(\frac{\sec A}{\sqrt{\sec^2 A - 1}}\) is

  • (A) \(\sin A\)
  • (B) \(\tan A\)
  • (C) \(\csc A\)
  • (D) \(\cos A\)

Question 7:

The line segment joining the points \(P(-4, -2)\) and \(Q(10, 4)\) is divided by y-axis in the ratio

  • (A) \(2:5\)
  • (B) \(1:2\)
  • (C) \(2:1\)
  • (D) \(5:2\)

Question 8:

A wire is attached from a point A on the ground to the top of a pole BC, making an angle of elevation as \(60^{\circ}\). If \(AB = 5\sqrt{3}\) m, then length of the wire is


  • (A) \(10\) m
  • (B) \(10\sqrt{3}\) m
  • (C) \(15\) m
  • (D) \(\frac{5}{2}\sqrt{3}\) m

Question 9:

In the given figure, \(AB \parallel EF\). If \(AB = 24\) cm, \(EF = 36\) cm and \(DA = 7\) cm, then \(AE\) equals


  • (A) \(2.5\) cm
  • (B) \(10.5\) cm
  • (C) \(3.5\) cm
  • (D) \(\frac{14}{3}\) cm

Question 10:

Devansh proved that \(\triangle ABC \sim \triangle PQR\) using SAS similarity criteria. If he found \(\angle C = \angle R\), then which of the following was proved true?

  • (A) \(\frac{AC}{AB} = \frac{PR}{PQ}\)
  • (B) \(\frac{BC}{AC} = \frac{PR}{QR}\)
  • (C) \(\frac{AC}{BC} = \frac{PR}{PQ}\)
  • (D) \(\frac{AC}{BC} = \frac{PR}{QR}\)

Question 11:

While calculating mean of a grouped frequency distribution, step deviation method was used \(u = \frac{x-a}{h}\). It was found that \(\bar{x} = 64\), \(h = 5\) and \(a = 62.5\). The value of \(\bar{u}\) is

  • (A) \(0.5\)
  • (B) \(1.5\)
  • (C) \(0.3\)
  • (D) \(7.5\)

Question 12:

For an acute angle \(\theta\), if \(\sin \theta = \frac{1}{9}\), then value of \(\frac{9 \csc \theta + 1}{9 \csc \theta - 1}\) is

  • (A) \(0\)
  • (B) \(\frac{80}{81}\)
  • (C) \(1\)
  • (D) \(\frac{82}{80}\)

Question 13:

Which of the following can not be the probability of an event?

  • (A) \(\frac{39}{100}\)
  • (B) \(\frac{0.001}{20}\)
  • (C) \(\frac{10}{0.2}\)
  • (D) \(10%\)

Question 14:

The value of \(m\) for which the quadratic equation \(3x^2 - 7x + m = 0\) has real and equal roots, is

  • (A) \(7\)
  • (B) \(\frac{49}{12}\)
  • (C) \(\frac{49}{3}\)
  • (D) \(4\)

Question 15:

If the zeroes of a polynomial \(p(x)\) are \(-3\) and \(8\), then \(p(x)\) equals

  • (A) \(x^2 + 5x - 4\)
  • (B) \((x + 3)(-x + 8)\)
  • (C) \(a(x^2 + 5x - 24)\)
  • (D) \(x^2 - 24\)

Question 16:

The value of \(p\) for which roots of the quadratic equation \(x^{2} - px + 6 = 0\) are rational, is

  • (A) \(1\)
  • (B) \(-5\)
  • (C) \(25\)
  • (D) \(\sqrt{5}\)

Question 17:

An arc of length \(2.2\) cm subtends an angle \(\theta\) at the centre of the circle with radius \(2.8\) cm. The value of \(\theta\) is

  • (A) \(50^{\circ}\)
  • (B) \(60^{\circ}\)
  • (C) \(45^{\circ}\)
  • (D) \(30^{\circ}\)

Question 18:

Two dice are rolled together. The probability of getting an outcome \((x, y)\) where \(x > y\), is

  • (A) \(\frac{5}{12}\)
  • (B) \(\frac{5}{6}\)
  • (C) \(1\)
  • (D) \(0\)

Question 19:

Assertion (A) : H.C.F. \((36 m^{2}, 18 m) = 18 m\), where \(m\) is a prime number.

Reason (R) : H.C.F. of two numbers is always less than or equal to the smaller number.

  • (A) Both Assertion (A) and Reason (R) are true and Reason (R) is the correct explanation of the Assertion (A).
  • (B) Both Assertion (A) and Reason (R) are true, but Reason (R) is not the correct explanation of the Assertion (A).
  • (C) Assertion (A) is true, but Reason (R) is false.
  • (D) Assertion (A) is false, but Reason (R) is true.

Question 20:

Assertion (A) : The system of linear equations \(3x - 5y + 7 = 0\) and \(-6x + 10y + 14 = 0\) is inconsistent.

Reason (R) : When two linear equations don't have unique solution, they always represent parallel lines.

  • (A) Both Assertion (A) and Reason (R) are true and Reason (R) is the correct explanation of the Assertion (A).
  • (B) Both Assertion (A) and Reason (R) are true, but Reason (R) is not the correct explanation of the Assertion (A).
  • (C) Assertion (A) is true, but Reason (R) is false.
  • (D) Assertion (A) is false, but Reason (R) is true.

Question 21:

In the given figure, point D divides the side BC of \(\triangle ABC\) in the ratio \(1 : 2\). Find length AD. (Given coordinates: \(A(1, 5), B(-2, 1), C(4, 2)\))



Question 22:

Evaluate : \(\frac{\sin^3 60^{\circ} - \tan 30^{\circ}}{\cos^2 45^{\circ}}\)


Question 23:

For acute angles A and B and \(A + 2B\) and \(2A + B\) are acute if \(\tan (A + 2B) = \sqrt{3}\) and \(\sin (2A + B) = \frac{1}{\sqrt{2}}\), then find the measures of angles A and B.


Question 24:

A bag contains 25 balls. Some of them are yellow and others are green. One ball is drawn at random. If probability of getting a green ball is \(3/5\), then find the number of yellow balls.


Question 25:

In the given figure, \(AB \parallel DE\) and \(AC \parallel DF\). Show that \(\triangle ABC \sim \triangle DEF\). If \(BC = 10\) cm, \(EB = CF = 5\) cm and \(AB = 7\) cm, then find the length DE.



Question 26:

Prove that \(14 - 2\sqrt{3}\) is an irrational number, given that \(\sqrt{3}\) is irrational.


Question 27:

A circle centered at (2, 1) passes through the points A(5, 6) and B(-3, K). Find the value(s) of K. Hence find length of chord AB.


Question 28:

Prove that the point P dividing the line segment joining the points A(-1, 7) and B(4, -3) in the ratio 3 : 2, lies on the line \(x - 3y = -1\). Also find length of PA and PB.


Question 29:

Use graphical method to solve the system of linear equations : \(x = -3\) and \(5x - 2y = -5\).


Question 30:

In an A.P., \(15^{th}\) term exceeds the \(8^{th}\) term by 21. If sum of first 10 terms is 55, then form the A.P.


Question 31:

The sum of first n terms of an A.P. is \(2n^{2} + 13n\). Find its \(n^{th}\) term and hence \(10^{th}\) term.


Question 32:

The dimensions of a window are 156 cm \(\times\) 216 cm. Arjun wants to put grill on the window creating complete squares of maximum size. Determine the side length of the square and hence find the number of squares formed.


Question 33:

Prove that :
\(\frac{\tan \theta}{1 - \cot \theta} + \frac{\cot \theta}{1 - \tan \theta} = 1 + \tan \theta + \cot \theta\).


Question 34:

A chord of a circle, of radius 14 cm, subtends an angle of \(60^{\circ}\) at the centre. Find the area of the smaller sector and perimeter of the smaller segment.


Question 35:

D is the mid-point of side BC of \(\triangle ABC\). CE and BF intersect at O, a point on AD. AD is produced to G such that \(OD = DG\). Prove that OBGC is a parallelogram.



Question 36:

In the same figure as 32(a), prove that \(EF \parallel BC\).


Question 37:

In the same figure as 32(a), prove that \(\triangle AEF \sim \triangle ABC\).


Question 38:

Through the mid-point Q of side CD of a parallelogram ABCD, the line AR is drawn which intersects BD at P and produced BC at R. Prove that \(AQ = QR\).



Question 39:

Using the conditions from 32(b), prove that \(AP = 2PQ\).


Question 40:

Using the conditions from 32(b), prove that \(PR = 2AP\).


Question 41:

The mean of the following distribution is 53. Find the missing frequency p.

\begin{tabular}{|l|c|c|c|c|c|}
\hline
Class Interval & 0-20 & 20-40 & 40-60 & 60-80 & 80-100
\hline
Frequency & 12 & 15 & p & 28 & 13
\hline
\end{tabular}

Hence, find mode of the distribution.


Question 42:

Compute median of the following data :

\begin{tabular}{|l|c|c|c|c|c|c|c|}
\hline
Mid-value & 115 & 125 & 135 & 145 & 155 & 165 & 175
\hline
Frequency & 12 & 15 & 20 & 16 & 10 & 16 & 11
\hline
\end{tabular}


Question 43:

PQ and PR are two tangents to a circle with centre O and radius 5 cm. AB is another tangent to the circle at C which lies on OP. If \(OP = 13\) cm, then find the length AB and PA.



Question 44:

Two water taps together can fill a tank in \(8\frac{8}{9}\) hours. The tap of larger diameter takes 4 hours less than the smaller one to fill the tank separately. Find the time in which each tap can separately fill the tank.


Question 45:

Write a relation between \(d\) (the height of window) and \(y\).


Question 46:

Determine the value of \(h\).


Question 47:

Determine height of the water tank.


Question 48:

Find the value of \(x\) and height of the window above ground level.


Question 49:

Write the co-ordinates of point \(A\).


Question 50:

Find the span of the arch.


Question 51:

Write the zeroes of the polynomial using diagram and verify the relationship between sum of zeroes and polynomials.


Question 52:

Find the values of \(p(x)\) at \(x = 100\) and \(x = -100\). Are they same ?


Question 53:

Find the surface area of the bulb.


Question 54:

What could be the maximum diameter of the bulb if at least 1 cm space is left from each side ?


Question 55:

Find the area of the fabric used if there is a fold of 2 cm on top and bottom edges.


Question 56:

Find the space available inside the lamp.

CBSE Class 10 Preparation