JEE Mains Physics PYQ Chapterwise PDF - Free Download

JEE Mains Physics PYQ Chapterwise PDF: Weightage

In this section, we will be seeing some of the highly weighted chapters and questions from those chapters. First, let's understand the weightage of the chapters in JEE Mains Physics.

Chapter by chapter, we will be seeing some of these questions. To access the full JEE Mains physics PYQ chapterwise, you can also refer to the JEE Main Chapter Wise PYQs. You can also use the JEE Main 2026 - A complete preparation strategy to prepare and ace the JEE Mains 2026 exam.

JEE Main Physics Chapter wise Questions with Solutions: Optics

You can access the pdf download here: Optics

Some important questions asked from Optics are given below:

Q. 1 A single slit of width 0.1 mm is illuminated by a parallel beam of light of wavelength $6000\text{AA}$ and diffraction bands are observed on a screen 0.5 m from the slit. The distance of the third dark band from the central bright band is :

Option 1:

3 mm

Option 2:

9 mm

Option 3:

4.5 mm

Option 4:

1.5 mm

Correct Answer:

9 mm

Q. 2 In an experiment for determination of the refractive index of glass of a prism by $i-\delta$, plot, it was found that a ray incident at angle ${35}^{\circ }$, suffers a deviation of ${40}^{\circ }$ and that it emerges at angle ${79}^0$. In that case which of the following is closest to the maximum possible value of the refractive index?

Option 1:

1.5

Option 2:

1.6

Option 3:

1.7

Option 4:

1.8

Correct Answer:

1.5

Solution:

If $\mu$ is refractive index of material of prism, then from Snell's law

$\mu =\frac{\sin i}{\sin r}=\frac{\sin (A+{\delta }_m)/2}{\sin A/2}\cdots (i)$

where, $A$ is angle of prism and ${\overline{\delta }}_m$ is minimum deviation through prism.

Given, $i={35}^{\circ },\delta ={40}^{\circ },e={79}^{\circ }$

So, anqle of deviation by a qlass prism

Given, $i={35}^{\circ },\delta ={40}^{\circ },e={79}^{\circ }$

So, angle of deviation by a glass prism

$$

\delta=i+e-A \Rightarrow 40^{\circ}=35^{\circ}+79^{\circ}-A

$$

i.e.Angle of prism $\Rightarrow A={74}^{\circ }$

Such that, $r_1+r_2=A={74}^{\circ }$

Let us put $\mu =1.5$ in eq. (i), we get

$$

\begin{aligned}

& 1.5=\frac{\sin \left(\frac{A+\delta_{\text {min }}}{2}\right)}{\sin A / 2} \

& \Rightarrow 1.5=\frac{\sin \left(\frac{74^{\circ}+\delta_{\text {min }}}{2}\right)}{\sin 37^{\circ}} \

& \Rightarrow 0.9=\sin \left(37^{\circ}+\frac{\delta_{\text {min }}}{2}\right)\left(\because \sin 37^{\circ} \approx 0.6\right) \

& \sin 64^{\circ}=\sin \left(37^{\circ}+\frac{\delta_{\text {min }}}{2}\right)\left(\because \sin 64^{\circ}=0.9\right) \

& 37^{\circ}+\frac{\delta_{\text {min }}}{2}=64^{\circ} \Rightarrow \delta_{\text {min }} \approx 54^{\circ}

\end{aligned}

$$

This angle is greater than the ${40}^{\circ }$ deviation angle already given, For greater $\mu$, the deviation will be even higher. Hence, $\mu$ of the given prism should be lesser than 1.5.

Hence, the closest answer will be 1.5 .

Hence, the answer is the option (1).

JEE Mains Physics PYQ chapterwise: Electrostatics

You can access the pdf download here:Electrostatics

Some questions asked from this chapter are given below:

Q. 1 Three charges $Q,+q$ and $+q$ are placed at vertices of a right-angled isosceles triangle as shown below. The net electrostatic energy of the configuration is zero, if the value of $Q$ is:

Option 1:

$$

\frac{-q}{1+\sqrt{2}}

$$

Option 2:

$$

\frac{-\sqrt{2} q}{\sqrt{2}+1}

$$

Option 3:

+q

Option 4:

-2q

Correct Answer:

$$

\frac{-\sqrt{2} q}{\sqrt{2}+1}

$$

Solution:

Potential Energy Of a System Of n Charge -

$$

U=K\left(\frac{Q_1 Q_2}{r_{12}}+\frac{Q_2 Q_3}{r_{23}}+\frac{Q_1 Q_3}{r_{13}}\right)

$$

- wherein

For system of 3 charges.

$$

\begin{aligned}

& U=K\left[\frac{q^2}{d}+\frac{Q q}{d}+\frac{Q q}{d \sqrt{2}}\right]=0 \

& \Rightarrow Q=\frac{-q \sqrt{2}}{\sqrt{2}+1}

\end{aligned}

$$

Q. 2 Within a spherical charge distribution of charge density $\rho (r),N$ equipotential surfaces of potential ${\mathrm{V}}_0,{\mathrm{V}}_0+\mathrm{V},{\mathrm{V}}_0+2\mathrm{V},\dots \dots \dots ..V_0+N\mathrm{\Delta }V(\mathrm{\Delta }V>0)$, are drawn and have increasing radii ${\mathrm{r}}_0,{\mathrm{r}}_1$, $r_2,\dots \dots \dots .r_N$, respectively. If the difference in the radii of the surfaces is constant for all values of ${\mathrm{V}}_0$ and $\mathrm{\Delta }V$ then:

Option 1:

$$

\rho(r) \alpha r

$$

Option 2:

$$

\rho(r)=\text { constant }

$$

Option 3:

$$

\rho(r) \alpha \frac{1}{r}

$$

Option 4:

$$

\rho(r) \alpha \frac{1}{r^2}

$$

Correct Answer:

$$

\rho(r) \alpha \frac{1}{r}

$$

Solution:

As we learned

Relation between field and potential -

$$

E=\frac{-d V}{d r}

$$

- wherein

$\frac{dv}{dr}-$ Potential gradient.

If P lies inside -

$$

\begin{aligned}

& E_{i n}=\frac{1}{4 \pi \epsilon_0} \frac{Q r}{R^3} \quad V_{i n}=\frac{Q}{4 \pi \epsilon_0} \frac{3 R^2-r^2}{2 R^3} \

& E_{i n}=\frac{\rho r}{3 \epsilon_0} \quad V_{i n}=\frac{\rho\left(3 R^2-r^2\right)}{6 \epsilon_0}

\end{aligned}

$$

We know $E=\frac{-dV}{dr}$

Here $\mathrm{\Delta }v$ and $\mathrm{\Delta }r$ are same for any pair of surfaces.

$\mathrm{E}=$ constant

Now, the electric field inside the spherical charge distribution

$$

E=\frac{\rho}{3 \epsilon_0} r

$$

E would be constant of $\rho r=$ constant

$$

\rho(r) \propto \frac{1}{r}

$$

Hence, the answer is the option (3).

JEE Mains Physics PYQ chapterwise: Rotational Motion

You can access the pdf download here:Rotational Motion

Some important questions to practice from this chapter are given below:

Q. 1 A cord of negligible mass is wound around the rim of a wheel supported by spokes with negligible mass. The mass of wheel is 10 kg and radius is 10 cm and it can freely rotate without any friction. Initially the wheel is at rest. If a steady pull of 20 N is applied on the cord, the angular velocity of the wheel, after the cord is unwound by 1 m , would be :

Option 1:

20rad/s

Option 2:

30rad/s

Option 3:

10rad/s

Option 4:

0rad/s

Correct Answer:

20rad/s

Solution:

$$

\begin{aligned}

& \mathrm{W}_{\mathrm{F}}=20 \times 1=20 \mathrm{~J} \

& \therefore \quad \Delta \mathrm{KE}=20 \mathrm{~J}=\frac{1}{2} \mathrm{I} \omega^2 \

& \mathrm{I}=\mathrm{MR}^2=10 \times 0.1^2=0.1 \mathrm{~kg} \mathrm{~m}^2 \

& \therefore \quad 20=\frac{1}{2} \times 0.1 \times \omega^2 \

& \Rightarrow \omega=20 \mathrm{rad} / \mathrm{sec}

\end{aligned}

$$

Hence, the answer is the option (1)

Q. 2 In a physical balance working on the principle of moments, when 5 mg weight is placed on the left pan, the beam becomes horizontal. Both the empty pans of the balance are of equal mass. Which of the following statements is correct?

Option 1:

Left arm is longer than the right arm

Option 2:

Both the arms are of same length

Option 4:

Every object that is weighed using this balance appears lighter than its actual weight.

Correct Answer:

Left arm is shorter than the right arm

Solution:

Point of application of force -

The point at which if the net force is assumed to be acting then it will produce the same effect of both translation \& rotation.

For balance

Anticlockwise Moment = Clockwise Moment

i.e. Load × load arm $=$ effect × effort arm

${\mathrm{F}}_1{\mathrm{d}}_1={\mathrm{F}}_2{\mathrm{d}}_2$

When 5 mg weight is placed on the left side

$(5\mathrm{mg}+\mathrm{mg}){\mathrm{d}}_1={\mathrm{mgd}}_2$

${\mathrm{d}}_2=6{\mathrm{d}}_1$

the load arm shifts to the left side, hence left arm becomes shorter than the right arm.

Hence, the answer is the option (3).

JEE Main Physics Chapter wise Questions with Solutions: Magnetic Effects of Current and Magnetism

You can access the pdf download here:Magnetic Effects of Current and Magnetism

Some of the important questions asked from this chapter are given below:

Q. 1 A magnetic dipole in a constant magnetic field has :

Option 1:

maximum potential energy when the torque is maximum.

Option 2:

zero potential energy when the torque is minimum.

Option 3:

zero potential energy when the torque is maximum.

Option 4:

minimum potential energy when the torque is maximum.

Correct Answer:

zero potential energy when the torque is maximum.

Solution:

As we learned in

Torque -

$$

\begin{aligned}

& \vec{T}=\vec{M} \times \vec{B}=M=N i A \

& \mathrm{~T}=M B \sin \theta=N B i A \sin \theta

\end{aligned}

$$

M - magnetic moment

Work done by current carrying coil -

$$

W=M B(1-\cos \theta)

$$

For maximum torque, $\theta ={90}^{\circ }$ this value of $\theta$ potential energy will be zero.

Hence the answer is the option (3).

Q. 2 When a current of 5 mA is passed through a galvanometer having a coil of resistance $15\mathrm{\Omega }$, it shows full-scale deflection. The value of the resistance to be put in series with the galvanometer to convert it into a voltmeter of range $0-10\mathrm{V}$ is

Your Answer:

Not Answered

Option 1:

$$

1.985 \times 10^3 \Omega

$$

Option 2:

$$

2.045 \times 10^3 \Omega

$$

Option 3:

$$

2.535 \times 10^3 \Omega

$$

Option 4:

$$

4.005 \times 10^3 \Omega

$$

Correct Answer:

$$

1.985 \times 10^3 \Omega

$$

Solution:

Given,

Ig (Galvanometer Current) $=5\mathrm{mA}$

$\mathrm{G}=$ Resistance of Galvanometer $=15\mathrm{\Omega }$

R = The value of the resistance to be put in series with the galvanometer

We know,

$$

V=\operatorname{Ig}(R+G)

$$

$$

10=5 \times 10^{-3}(R+15)

$$

$$

2000=R+15

$$

$$

\Rightarrow R=1985 \Omega=1.985 \times 10^3 \Omega

$$

JEE Mains Physics PYQ chapterwise: Physics and Measurement

You can access the pdf download here:Physics and Measurement

Some questions from this chapter are given below:

Q. 1 If time $(t)$, velocity $(v)$, and angular momentum $(l)$ are taken as the fundamental units. Then the dimension of mass $(\mathrm{m})$ in terms of $t,v$ and $l$ is:

Option 1:

$$

\left[t^{-1} v^1 l^{-2}\right]

$$

Option 2:

$$

\left[t^1 v^2 l^{-1}\right]

$$

Option 3:

$$

\left[t^{-2} v^{-1} l^1\right]

$$

Option 4:

$$

\left[t^{-1} v^{-2} l^1\right]

$$

Correct Answer:

$$

\left[t^{-1} v^{-2} l^1\right]

$$

Q. $2A,B,C$ and $D$ are four different physical quantities having different dimensions. None of them is dimensionless. But we know that the equation $\mathrm{AD}=\mathrm{C}\ln (\mathrm{BD})$ holds true. Then which of the combination is not a meaningful quantity?

Option 1:

$$

A^2-B^2 C^2

$$

Option 2:

$$

\frac{(A-C)}{D}

$$

Option 3:

$$

\frac{A}{B}-C

$$

Option 4:

$$

\frac{C}{B D}-\frac{(A D)^2}{C}

$$

Correct Answer:

$$

\frac{(A-C)}{D}

$$

Solution:

Dimension -

The power to which fundamental quantities must be raised in order to express the given physical quantities.

$$

A \cdot D=C \ln (B \cdot D)

$$

$$

A \cdot D=C \ln (B \cdot D)

$$

Hence $[B.D]=$ are dimensionless

$$

[B]=\left[\frac{1}{D}\right]

$$

$$

\&[A \cdot D]=[C]

$$

in the $\frac{A-C}{D}$ the dimensions of A are not same as dimensions of C

Hence the correct option is option 2.

JEE Mains Physics PYQ chapterwise: Atoms And Nuclei

For pdf download, visit this page: Atoms And Nuclei

For some questions asked from this chapter, refer below:

Q. 1 The acceleration of an electron in the first orbit of the hydrogen atom $(n=1)$ is:

Option 1:

$$

\frac{h^2}{\pi^2 m^2 r^3}

$$

Option 2:

$$

\frac{h^2}{8 \pi^2 m^2 r^3}

$$

Option 3:

$$

\frac{h^2}{4 \pi^2 m^2 r^3}

$$

Option 4:

$$

\frac{h^2}{4 \pi m^2 r^3}

$$

Correct Answer:

$$

\frac{h^2}{4 \pi^2 m^2 r^3}

$$

Solution:

Bohr quantisation principle -

$$

m v r=\frac{n h}{2 \pi}

$$

- wherein

The angular momentum of an electron in a stationary orbit is quantised.

$$

\begin{aligned}

& \because m v r=\frac{n h}{2 \pi} \Rightarrow v=\frac{h}{2 \pi m r}(n=1) \

& \therefore a=\left(\frac{h}{2 \pi m r}\right)^2 \cdot \frac{1}{r}=\frac{h^2}{4 \pi^2 m^2 r^3}

\end{aligned}

$$

Hence, the answer is option 3.

Q. 2 Imagine that a reactor converts all given mass into energy and that it operates at a power level of ${10}^9$ watt. The mass of the fuel consumed per hour in the reactor will be: (velocity of light, c is $3\times {10}^8\mathrm{m}/\mathrm{s}$ )

Option 1:

$$

0.96 \mathrm{gm}

$$

Option 2:

$$

0.8 \mathrm{gm}

$$

Option 3:

$$

4 \times 10^{-2} \mathrm{gm}

$$

Option 4:

$$

6.6 \times 10^{-5} \mathrm{gm}

$$

Option 4:

$$

6.6 \times 10^{-5} \mathrm{gm}

$$

Correct Answer:

$$

4 \times 10^{-2} \mathrm{gm}

$$

Solution:

Energy mass equivalence -

$$

\Delta E=\Delta m \cdot c^2

$$

- wherein

$$

\Delta m=\text { mass defect }

$$

$$

\Delta E=\text { energy released }

$$

Amount of energy produced in

$$

1 \text { hour }=3600 \times 10^9 J=3.6 \times 10^{12} J

$$

This energy is produced by converting mass into energy so $\mathrm{\Delta }m{c}^2=3.6\times {10}^{12}$

$$

\begin{aligned}

& \Delta m=\frac{3.6 \times 10^{12}}{9 \times 10^{16}}=0.4 \times 10^{-4} \mathrm{~kg} \

& \Delta m=4 \times 10^{-2} \mathrm{gm}

\end{aligned}

$$

Hence, the answer is option 3.

JEE Mains Physics PYQ chapterwise: Kinematics

You can access the pdf download here:

For some questions asked from this chapter, refer below:

Q. 1 A ball having kinetic energy KE , is projected at an angle of ${60}^{\circ }$ from the horizontal. What will be the kinetic energy of ball at the highest point of its flight?

Option 1:

$$

\frac{(\mathrm{KE})}{8}

$$

Option 2:

$$

\frac{(\mathrm{KE})}{4}

$$

Option 3:

$$

\frac{(\mathrm{KE})}{16}

$$

Option 4:

$$

\frac{(\mathrm{KE})}{2}

$$

Correct Answer:

$$

\frac{(\mathrm{KE})}{4}

$$

Solution:

Initial K.E,

$$

\text { K.E. }=\frac{1}{2} \mathrm{mu}^2

$$

Speed at the highest point

Speed at the highest point

$$

\begin{aligned}

\mathrm{v} & =\mathrm{u} \cos 60^{\circ}=\frac{\mathrm{u}}{2} \

\therefore \mathrm{KE}_f & =\frac{1}{2} \mathrm{~m}\left(\frac{\mathrm{u}}{2}\right)^2 \

& =\frac{1}{4} \times \frac{1}{2} \mathrm{mu}^2 \

& =\frac{\mathrm{KE}}{4}

\end{aligned}

$$

Hence, the answer is the option (2).

Q. 3 The magnetic susceptibility of a material of a rod is 499 . Permeability in vacuum is $4\pi \times {10}^{-7}\mathrm{H}/\mathrm{m}$. Absolute permeability of the material of the rod is :

Option 1:

$$

4 \pi \times 10^{-4} \mathrm{H} / \mathrm{m}

$$

Option 2:

$$

2 \pi \times 10^{-4} \mathrm{H} / \mathrm{m}

$$

Option 3:

$$

3 \pi \times 10^{-4} \mathrm{H} / \mathrm{m}

$$

Option 4:

$$

\pi \times 10^{-4} \mathrm{H} / \mathrm{m}

$$

Correct Answer:

$$

2 \pi \times 10^{-4} \mathrm{H} / \mathrm{m}

$$

JEE Mains Physics PYQ chapterwise: Thermodynamics

You can access the pdf download here:Thermodynamics

For some questions asked from this chapter, refer below:

Q. $1N$ moles of a diatomic gas in a cylinder are at a temperature $T$. Heat is supplied to the cylinder such that the temperature remains constant but n moles of the diatomic gas get converted into monoatomic gas. What is the change in the total kinetic energy (nRT) of the gas?

Correct Answer:

0.5

Solution:

Number of moles of diatomic gas $=\mathrm{N}$

Hence, the Number of moles of monoatomic gas $=2\mathrm{N}$

Since $\mathrm{T}=$ constant and volume is also constant

Work done $=0$

Change in internal energy = Heat supplied

Change in total kinetic energy $={\mathrm{n}}_{\mathrm{f}}{\mathrm{C}}_{\mathrm{v}}\mathrm{T}-{\mathrm{n}}_{\mathrm{i}}{\mathrm{C}}_{\mathrm{vi}}\mathrm{T}$

$$

\begin{aligned}

& \mathrm{n}_{\mathrm{i}}=\mathrm{N}, \quad C_{v i}=\frac{5 R}{2} \

& \mathrm{n}_{\mathrm{f}}=2 \mathrm{~N}, \quad C_{v f}=\frac{3 R}{2} \

& \therefore \Delta K=3 n R T-\frac{5}{2} n R T=\frac{1}{2} n R T

\end{aligned}

$$

Hence, the answer is 0.5 .

Q. 2 In a process, the temperature and volume of one mole of an ideal monoatomic gas are varied according to the relation $\mathrm{VT}=\mathrm{K}$, where K is a constant. In this process, the temperature of the gas is increased by $\mathrm{\Delta }T$. If the amount of heat absorbed by gas is $x\times R\mathrm{\Delta }T$, then what will be the value of ' $x$ ' ( $R$ is gas constant):

Correct Answer:

0.50

Solution:

As we know-

$$

\begin{aligned}

& \mathrm{VT}=\mathrm{K} \

& \mathrm{~V}\left[\frac{\mathrm{PV}}{\mathrm{nR}}\right]=\mathrm{K} \

& \mathrm{PV}^2=\mathrm{nRK} \

& \because \mathrm{~V}^2=\mathrm{K} \

& \because \mathrm{C}=\frac{\mathrm{R}}{1-\mathrm{x}}+\mathrm{C}_{\mathrm{v}} \

& \quad(\text { for polytropic process }) \

& \mathrm{C}=\frac{\mathrm{R}}{1-2}+\frac{3 \mathrm{R}}{2}=\frac{\mathrm{R}}{2} \

& \therefore \Delta \mathrm{Q}=\mathrm{nC} \Delta \mathrm{~T}=\frac{\mathrm{R}}{2} \Delta \mathrm{~T}

\end{aligned}

$$

Therefore ' $x$ ' will be 0.5

Hence, the answer is 0.5 .

JEE Mains Physics PYQ chapterwise: Current Electricity

You can access the pdf download here:Current Electricity

For some questions asked from this chapter, refer below:

Q. 1 Two identical cells, when connected either in parallel or in series gives same current in an external resistance $5\mathrm{\Omega }$. The internal resistance of each cell will be $\mathrm{\_}\mathrm{\_}\mathrm{\_}\mathrm{\_}$ $\mathrm{\Omega }$.

Correct Answer:

5

Solution:

(I)

(II)

$$

\begin{aligned}

& \mathrm{r}_{\mathrm{eq}_1}=\frac{\mathrm{r}}{2}, \mathrm{r}_{\mathrm{eq} 2}=2 \mathrm{r} \

& \mathrm{E}_{\mathrm{eq}_1}=\frac{\mathrm{r}}{2}\left(\frac{\mathrm{E}}{\mathrm{r}}+\frac{\mathrm{E}}{\mathrm{r}}\right)=\mathrm{E}, \mathrm{E}_{\mathrm{eq} 2}=2 \mathrm{E} \

& \mathrm{I}_1=\frac{\mathrm{E}}{5+\frac{\mathrm{r}}{2}}, \mathrm{I}_2=\frac{2 \mathrm{E}}{2 \mathrm{r}+5} \

& \mathrm{I}_1=\mathrm{I}_2 \

& 2 \mathrm{r}+5=2\left(5+\frac{\mathrm{r}}{2}\right) \

& \mathrm{r}=5 \Omega

\end{aligned}

$$

Q. 2 The resistance of an electrical toaster has a temperature dependence given by $R(T)=R_0[1+\alpha (T-T_0)]$ in its range of operation. At $T_0=300K,R=100$ and at $T=500K$,

$R=120$. The toaster is connected to a voltage source at 200 V and its temperature is raised at a constant rate from 300 to 500 K in 30 s . The total work done in raising the temperature is:

Option 1:

$$

400 \ln \frac{1.5}{1.3} J

$$

Option 1:

$$

400 \ln \frac{1.5}{1.3} J

$$

Option 2:

$$

200 \ln \frac{2}{3} J

$$

$$

400 \ln \frac{5}{6} J

$$

Option 4:

300 J

Correct Answer:

$$

400 \ln \frac{5}{6} J

$$

Solution:

Given : $R(T)=R_o(1+\alpha (T-T_o))$

Applying boundary conditions, $120=100(1+200\alpha )$

$$

\alpha=10^{-3} K^{-1}

$$

It is given that temperature increases at a constant rate from 300 K to 500 K in 30 s .

Hence, $T(t)=300+(20t/3)$

By Joule's Law, heat dissipated in a resistor is given by :

$W={\int }_0^{30}\frac{V^2}{R}dt={\int }_0^{30}\frac{V^2}{R_o(1+\alpha (T-T_o))}dt=\frac{V^2}{R_o}{\int }_0^{30}\frac{1}{(1+(20\alpha t/3))}dt$ Hence, the answer is the

Solving, $W=400\ln (6/5)$

Work done on resistor $=-W=400\ln (5/6)J$

option (3).

For the rest of the chapterwise pyq, refer to the table below. You will find the entire pdf download for each of the chapters as mentioned below, along with their weightage:

Benefits of JEE Mains Physics PYQ Chapterwise Practice

Solving Physics PYQ chapterwise offers multiple advantages:

1. Identifying the easiest type or high-scoping chapters and concepts.

2. Identify the repetitive concepts in questions and study them properly.

3. Understanding how the NCERT theory is included in questions.

4. Improves knowledge and understanding of concepts. Plus, you must also refer to JEE Main Latest Syllabus 2026.

5. Helps become faster and solve questions quickly.

6. Solve and practice JEE Main 2026 Important Formulas for Physics PDF.

7. Boosts confidence for a real-time exam.

JEE Mains Physics PYQ Chapterwise FAQ

1. Is Physics JEE Mains very difficult?
   Physics is considered to be the most difficult by students attempting the JEE Mains. But, it is very much possible to score good marks by understanding the pattern and practising properly

2. Is JEE Mains 2026 difficult?
   JEE Mains 2026 is expected to be between moderate and difficult as per past years' trend analysis.

3. How much time should I take to solve the physics question paper in JEE Mains?

You should take around 2 to 2.5 minutes to solve each physics question in JEE Mains in order to finish the paper and score good marks.