Visualizations

Interactive mathematical, physics, and chemistry visualizations

Showing page 14 of 21 (12 items on this page)

Browse by Category

All Visualizations 249

Huygens' Principle - Interactive Visualization

Interactive visualization of wave propagation, secondary wavelets, and wavefront envelope construction

⚛️ Physics

Specific Heat Capacity Comparison - Interactive Visualization

Interactive visualization of Q = mcΔT - compare how different materials heat up with same energy input

⚛️ Physics

Acid Rain Formation

Interactive simulation of acid rain formation processes and environmental impacts

⚛️ Physics

Greenhouse Effect Simulation

Interactive demonstration of greenhouse effect and climate change

⚛️ Physics

Thermal Expansion - Interactive Visualization

Interactive visualization of how materials expand and contract with temperature changes

⚛️ Physics

Damped Harmonic Oscillator - Interactive Simulation

Interactive simulation of spring-mass-damper system with real-time visualization of motion, displacement curve, and phase trajectory

⚛️ Physics

Double Pendulum - Chaos Theory

Explore chaotic motion in classical mechanics through interactive double pendulum simulation

⚛️ Physics

Communicating Vessels - Interactive Simulation

Interactive simulation of communicating vessels principle with pressure balance and liquid levels

⚛️ Physics

Atmospheric Pressure vs Altitude

Interactive visualization of atmospheric pressure variation with altitude using exponential decay model

⚛️ Physics

Sliding Friction - Interactive Simulation

Interactive simulation of sliding friction with static and kinetic friction analysis

⚛️ Physics

Longitudinal vs Transverse Waves - Interactive Comparison

Interactive comparison of longitudinal and transverse waves with particle motion visualization

⚛️ Physics

Simple Machine Efficiency - 简单机械效率

Interactive simulation of simple machine efficiency comparing three fundamental machines: pulley systems, inclined planes, and levers. Features efficiency calculation η = (W_ideal / W_actual) × 100% = (F_ideal / F_actual) × 100%, where W_ideal = F_ideal·d (theoretical work without friction) and W_actual = F_actual·d (real work including energy losses). Physics formulas for each machine: Pulley system with mechanical advantage MA = 2n (n = number of pulleys), ideal force F_ideal = mg/(2n), actual force F_actual = F_ideal + μ·mg/n accounting for pulley friction. Inclined plane: ideal force F_ideal = mg·sin(θ), actual force F_actual = mg·sin(θ) + μ·mg·cos(θ) including friction, work ratio W_useful/W_total = sin(θ)/(sin(θ) + μ·cos(θ)). Lever: ideal mechanical advantage MA = L_effort/L_resistance, ideal force F_ideal = F_resistance/MA, actual force includes friction losses F_actual = F_ideal + μ·F_resistance. Three machine types with switchable interface, each with specific parameters (pulley count, load mass, friction; incline angle, length, mass; lever arm lengths, resistance force). Real-time force comparison bar chart showing ideal vs actual force. Work analysis diagram displaying energy flow from input to output with efficiency percentage. Energy flow chart breaking down total work into useful work (green) and friction losses (red). Machine efficiency comparison panel showing η values for all three types simultaneously. Dynamic parameter adjustment with instant efficiency recalculation. Educational content covering ideal vs real machines, friction effects, mechanical advantage concepts, energy conservation, practical applications in engineering and daily life. Multi-language support (zh, en, es, fr, de, ru, pt).

⚛️ Physics