What's happening? The cannonball follows a parabolic path. Range = u²sin2θ/g. Try 45° for maximum range. Notice how the velocity components vx and vy change during flight.

⚡ Newton's Laws + Friction

Dynamics

Applied force 50 N

Mass 10 kg

Friction μ 0.3

What's happening? Net force = F - μmg. If applied force is less than friction, the block stays still. Increase force or decrease μ to see acceleration. F = ma is the core of JEE dynamics.

🔄 Simple Harmonic Motion

Oscillations

Amplitude 2 m

Spring constant k 50 N/m

Mass 2 kg

What's happening? ω = √(k/m). Bigger k = faster oscillation. Bigger mass = slower. Watch KE and PE trade places — total energy stays constant.

🎯 Circular Motion

Rotational

Radius 2 m

Angular speed 2 rad/s

Mass 1 kg

What's happening? Velocity is always tangent to the circle. Acceleration always points toward center. F_c = mω²r. Increase ω and watch the centripetal force grow.

⚛️ Coulomb's Law

Electrostatics

Charge q₁ 2 μC

Charge q₂ 3 μC

Distance 3 m

What's happening? F = kq₁q₂/r². Same signs repel, opposite signs attract. Notice how halving the distance quadruples the force — that's the inverse square law.

💡 Ohm's Law Circuit

Current Electricity

Voltage 12 V

Resistance 4 Ω

What's happening? I = V/R. More voltage = more current = brighter bulb. More resistance = less current = dimmer bulb. Watch the green particles flow faster with higher current.

🌊 Wave Superposition

Waves

Wave 1 amplitude 1 m

Wave 1 frequency 1 Hz

Wave 2 amplitude 0.8 m

Wave 2 frequency 1 Hz

Phase shift 0°

What's happening? When waves are in phase (0°), they add constructively. At 180°, they cancel. This is interference — the foundation of Young's double-slit experiment.

🪐 Orbital Motion

Gravitation

Planet mass 5 kg

Orbit radius 3 m

Speed 4 m/s

What's happening? For a stable orbit, gravity must equal centripetal force. Too slow = falls inward. Too fast = escapes. This is how satellites stay in orbit.

🔥 PV Diagrams (Thermodynamics)

Thermodynamics

Pressure 2 atm

Volume 3 L

Process

What's happening? Work done = area under the P-V curve. Isothermal curves are steeper than adiabatic. Constant volume does zero work. This is the heart of JEE thermodynamics.

🔍 Ray Optics (Lens)

Optics

Focal length 10 cm

Object distance 20 cm

Object height 3 cm

What's happening? 1/f = 1/v + 1/u. Object beyond 2f gives real inverted image. Object between f and 2f gives magnified image. Object inside f gives virtual upright image.

🔌 RLC Circuit Resonance

AC Circuits

Resistance R 10 Ω

Inductance L 0.5 H

Capacitance C 100 μF

What's happening? At resonance ω₀ = 1/√(LC), inductive reactance equals capacitive reactance. Impedance Z is minimum, current is maximum. Quality factor Q = ω₀L/R determines sharpness.

⚡ Kirchhoff's Laws

Current Electricity

Battery 1 12 V

Battery 2 6 V

Resistors R1,R2,R3 10

What's happening? KCL: sum of currents at junction = 0. KVL: sum of voltage drops around loop = 0. Watch how changing one resistor affects all currents in the circuit.

🧲 Biot-Savart Law

Magnetism

Current I 5 A

Distance r 3 m

Charge q 2 μC

What's happening? Biot-Savart law: B = (μ₀/4π) × (I dl × r̂)/r² for current. Magnetic field circles around the wire. Halving distance quadruples field strength.

Keep exploring

Try the Chemistry and Maths labs too.

136 interactive visualizers across all three JEE subjects.

Chemistry Lab Maths Lab

Full library

All Physics Simulations

⚡ Work–Energy Theorem

Mechanics

Force 10 N

Displacement 5 m

Angle 0 °

💥 Momentum & Collisions

Mechanics

Mass 1 1 kg

Velocity 1 10 m/s

Mass 2 1 kg

Velocity 2 0 m/s

Coefficient e 1

⚡ Electric Field Lines

Electrostatics

Charge 1 2 μC

Charge 2 -2 μC

💡 Photoelectric Effect

Modern Physics

Frequency 6 ×10¹⁴ Hz

Intensity 5 units

Work Function 2 eV

🔊 Doppler Effect

Waves

Source Speed 30 m/s

Source Freq 440 Hz

〰️ Standing Waves

Waves

Harmonic 1

String Length 1 m

Tension 40 N

🔩 Rotational Motion & Torque

Mechanics

Force 10 N

Radius 0.5 m

Mass 2 kg

Angle 0 °

🔌 Electromagnetic Induction

Magnetism

Speed 10 m/s

Turns 50

⚡ Alternating Current

Electricity

Amplitude 120 V

Frequency 50 Hz

☢️ Radioactive Decay

Nuclear

Half-life 5 years

Initial Atoms 1000

🕰️ Simple Pendulum

Oscillations

Length 1 m

Gravity 9.8 m/s²

🔋 Capacitor Charging (RC)

Electricity

Resistance 1000 Ω

Capacitance 10 μF

🌊 Fluids & Buoyancy

Fluid Mechanics

Object Density 800 kg/m³

Fluid Density 1000 kg/m³

Volume 0.1 m³

💨 Kinetic Theory of Gases

Thermodynamics

Temperature 300 K

Molar Mass 28 g/mol

🔥 Heat Transfer

Thermodynamics

Temp Diff 100 K

Material 2

Thickness 0.1 m

🏗️ Stress-Strain Curve

Properties of Matter

Young's Modulus 200 GPa

Yield Stress 250 MPa

🌈 Wave Optics: Diffraction

Optics

Slit Width 0.5 mm

Wavelength 550 nm

🧲 Magnetic Field Lines

Magnetism

Field Strength 1 T

Field Type 1

⚡ Magnetic Effects of Current

Magnetism

Current 10 A

Radius 0.1 m

💻 Semiconductor & Diode

Modern Physics

Voltage 0.5 V

Doping Level 5

⚡ Gauss's Law

Electrostatics

Charge 5 μC

Surface 1

Radius 0.5 m

FAQs

Common questions

How many physics simulators are available?

34 interactive simulators covering Mechanics, Electromagnetism, Optics, Waves, Thermodynamics, Modern Physics and more.

Which physics topics are most important for JEE?

Mechanics (Kinematics, NLM, WPE, Rotation), Electrostatics, Current Electricity, Optics, and Modern Physics carry the highest weightage.

Do the simulators cover JEE Advanced level?

Yes. Topics like Biot-Savart, Gauss law, RLC resonance, and EM induction are JEE Advanced staples and have dedicated simulators.

Can I adjust all parameters in physics simulators?

Yes, every simulator has interactive sliders for key variables. You see real-time changes in the visualization and numerical readout.

Are the formulas shown in simulators?

Yes, each simulator displays the governing formula and calculates results as you adjust parameters, helping you connect equations to visual intuition.

Direct answer

Use Physics Concept Lab to turn a Physics idea into one solved question.

This simulator is most useful when you predict the change first, move the controls second, and then solve a related JEE-style question without looking at the screen. Do not treat it like a video. Treat it like a small lab for checking whether the formula, graph, trend, or mechanism is actually clear in your head.

How

How to use this tool

Read the formula or rule on the page and write your prediction before touching the controls.
Change only one slider, value, or option at a time. If you change everything together, you will not know what caused the result.
Say the reason out loud in one sentence: the graph shifts because of this term, the value changes because of this relation, or the reaction changes because of this condition.
Solve one matching PYQ or coaching-sheet question immediately after using the simulator. The visual is only useful if it improves paper solving.
Add one line to your error log if your prediction was wrong. Write the exact trigger you missed, not just "concept weak".

Example

A realistic way to practise

For a Physics graph or motion question, change one quantity at a time, predict what should happen, then check the diagram before solving a numerical question. If your prediction and the simulator disagree, pause there. Re-read the formula, test one smaller case, and only then move to a timed question.

Checklist

Before you leave this page

You can explain the main rule in under 20 seconds.
You solved at least one related question on paper after using the visual.
You know one common mistake this topic creates in JEE problems.
You saved the topic in your revision or error-log system if it still feels shaky.

What to do next

Take your next step

1. Mark the topic in A2Z

Track this page against the actual Physics, Chemistry, and Maths syllabus so it affects your plan.

Open

2. Build today's study block

Convert the advice into one focused session with revision, practice, and review.

Open

3. Use the mission router

If you are unsure what to open next, route by your current problem instead of reading randomly.

Open

Real example

Putting this into practice

How to apply this: Open the page titled "Physics Concept Lab", read the summary and key points, then pick one action from the "What to do next" section below. Write down the specific official source you need to verify (dates, fees, rules, or eligibility) and check it today instead of bookmarking it for later.

Before you leave

Quick checklist

I read the concept explanation before jumping to problems.
I tried at least 2 practice problems on my own.
I noted which formula or step I keep forgetting.
I connected this concept to related JEE topics.
I added this to my revision list if it needs more practice.