Mechanics
Beginner
Simple Pendulum
Simulate pendulum motion and compare theoretical period with measured values using virtual sensors.
T = 2π√(L/g)10 minLaunch
Virtual Laboratory
Physics Experiments
Interactive simulations grounded in standard physics equations. Measure, analyze, and validate — all in your browser.
11experiments
3domains
Freealways
Available experiments
11 of 11 experiments
Physics experiment list
Mechanics
Beginner
Projectile Motion
Analyze trajectories, range, and time of flight under varying launch angles and initial velocities.
R = v₀²sin(2θ) / g12 minLaunch
Mechanics
Intermediate
Hooke's Law
Investigate spring-mass systems, measure spring constants, and validate Hooke's law.
F = -kx15 minLaunch
Mechanics
Intermediate
Energy Conservation
Track kinetic and potential energy through motion and verify conservation principles.
KE + PE = const15 minLaunch
Mechanics
Beginner
Uniform Motion
Study constant-velocity motion and generate distance-time graphs for linear kinematics.
v = dx / dt8 minLaunch
Mechanics
Beginner
Free Fall Lab
Measure gravitational acceleration through video analysis and data fitting.
h = ½gt²10 minLaunch
Electricity
Beginner
Ohm's Law
Construct virtual circuits, sweep voltage, and plot current-voltage characteristics.
V = IR10 minLaunch
Electricity
Intermediate
RC Circuit Lab
Observe capacitor charging and discharging curves; determine time constants.
τ = RC15 minLaunch
Optics
Advanced
Wave Optics
Simulate Fraunhofer diffraction and double-slit interference patterns.
d sin(θ) = mλ20 minLaunch
Optics
Intermediate
Optics Lens
Explore thin lens equations, focal points, and real or virtual image formation.
1/f = 1/v + 1/u15 minLaunch
Optics
Advanced
Speed of Light
Measure light propagation speed in various media using wave-based simulations.
c = λf18 minLaunch
Physics lab features
Real-time parameter adjustment
Change variables and see immediate effects on simulation outcomes.
Live data and graphs
View measurements, export data, and compare with theoretical models.
Curriculum aligned
Each experiment includes learning objectives and discussion prompts.
Educational Curriculum Alignment
Academic Framework Integration & Standards
Our virtual physics laboratory modules are meticulously aligned with global academic frameworks including NCERT Physics Class 11 and 12, AP Physics 1 & 2, IB Physics HL/SL, and Cambridge GCSE / A-Levels. Each experiment maps directly to standard learning outcomes for mechanics, electricity, and optics.
OpenLabs provides high-fidelity dynamic simulations enabling interactive concept validation. Telemetry feeds map to standard kinematic graphs, circuit characteristics, and optical interference patterns.
Interactive Telemetry
OpenLabs bridges standard academic theory with interactive models to optimize student conceptual retention and research comprehension.
Frequently Asked Questions
Technical and pedagogical details about our physics labs.
What physics principles are used in the simulations?
Each simulation implements standard equations from mechanics, circuits, or optics. Results are designed to match analytical models closely enough for classroom exploration.
What are the system requirements?
The physics labs run in any modern browser with JavaScript enabled. Desktop and tablet screens provide the best experience for data-heavy simulations.
Can these experiments be used for coursework?
Yes. Each lab includes learning objectives, procedural steps, and data-focused interaction that can support pre-lab work, homework, or remote learning.
How accurate are the measurements?
The virtual measurements are built to follow textbook relationships and are suitable for concept validation, graphing, and comparison with theoretical values.
Is there a cost or registration required?
No. The listed physics experiments are free to open and use for educational learning.