Mech Lab

Interactive builder and decoder for standard welding symbols, supplementary contour finishes, field welds, and tail specifications.

Compare hole-basis and shaft-basis tolerance classes (H7/g6, H7/p6, H7/s6) for clearance, transition, and interference press fits.

Size helical compression springs for required spring rate (k), active coils, Wahl stress correction factor, and solid length safety.

Analyze Acme, square, and trapezoidal lead screws for lifting torque, lowering torque, mechanical efficiency, and self-locking conditions.

Calculate shear failure, tearing of plate, and bearing crushing capacity for single and double-row riveted joints.

Explore ISO metric, UN/UNC/UNF, BSP, and NPT thread profiles, major/pitch/minor diameters, and stress areas.

Interactive builder and decoder for standard welding symbols, supplementary contour finishes, field welds, and tail specifications.

Compare hole-basis and shaft-basis tolerance classes (H7/g6, H7/p6, H7/s6) for clearance, transition, and interference press fits.

Size helical compression springs for required spring rate (k), active coils, Wahl stress correction factor, and solid length safety.

Analyze Acme, square, and trapezoidal lead screws for lifting torque, lowering torque, mechanical efficiency, and self-locking conditions.

Calculate Reynolds number, flow regime (laminar/turbulent), friction factor screening, major pipe friction losses, and minor fitting losses.

Analyze parallel and counterflow heat exchangers using Log Mean Temperature Difference (LMTD) and overall heat transfer coefficient (U).

Explore conservation of energy in incompressible flow, static vs dynamic pressure conversion, and flow rate metering with a Venturi tube.

Simulate directional control valves, pressure relief valves, flow control throttles, and single/double-acting cylinder motion.

Calculate extension force, retraction force (rod annulus), fluid volume demand, and rod buckling safety under compressive push loads.

Match pump H-Q characteristic curves with system resistance curves to find operating duty point, hydraulic power, and NPSH available.

Calculate Reynolds number, flow regime (laminar/turbulent), friction factor screening, major pipe friction losses, and minor fitting losses.

Analyze parallel and counterflow heat exchangers using Log Mean Temperature Difference (LMTD) and overall heat transfer coefficient (U).

Explore conservation of energy in incompressible flow, static vs dynamic pressure conversion, and flow rate metering with a Venturi tube.

Simulate directional control valves, pressure relief valves, flow control throttles, and single/double-acting cylinder motion.

Calculate extension force, retraction force (rod annulus), fluid volume demand, and rod buckling safety under compressive push loads.

Match pump H-Q characteristic curves with system resistance curves to find operating duty point, hydraulic power, and NPSH available.

Configure compound and planetary gear meshes, calculate velocity ratios, pitch line velocities, and output torque multiplication.

Calculate dynamic equivalent load (P), radial/axial load factors (X, Y), and basic rating life L10 / L10h in hours of operation.

Guide selection between deep groove ball, spherical roller, tapered roller, and needle bearings based on load types and misalignment.

Plot displacement, velocity, acceleration, and jerk diagrams for knife-edge, roller, and flat-faced follower cam profiles.

Simulate crank-connecting rod motion to calculate piston displacement, velocity, acceleration, and primary/secondary forces.

Determine tight and slack side tensions (T1, T2), wrap angle, friction coefficient, and maximum power capacity for flat and V-belts.

Size flywheel mass and moment of inertia based on maximum fluctuation of energy (ΔE) and allowable speed variation coefficient.

Adjust link lengths, test Grashof conditions (crank-rocker, double-crank, rocker-rocker), and trace coupler point motion curves.

Configure compound and planetary gear meshes, calculate velocity ratios, pitch line velocities, and output torque multiplication.

Calculate dynamic equivalent load (P), radial/axial load factors (X, Y), and basic rating life L10 / L10h in hours of operation.

Guide selection between deep groove ball, spherical roller, tapered roller, and needle bearings based on load types and misalignment.

Plot displacement, velocity, acceleration, and jerk diagrams for knife-edge, roller, and flat-faced follower cam profiles.

Simulate crank-connecting rod motion to calculate piston displacement, velocity, acceleration, and primary/secondary forces.

Determine tight and slack side tensions (T1, T2), wrap angle, friction coefficient, and maximum power capacity for flat and V-belts.

Study F = kx, elastic potential energy, and equivalent stiffness for single, series, and parallel spring arrangements.

Visualize displacement, velocity, acceleration, phase, frequency, and energy exchange for ideal oscillators.

Explore damping ratio, natural frequency, forced response, resonance, and decay in a mass-spring-damper model.

Explore angular momentum, applied torque, spin speed, precession rate, and stability trends for rotating bodies.

Drop objects under different gravity levels and calculate velocity, distance, energy, and fall time.

Study torque, angular acceleration, moment of inertia, lever arm, and rotational kinetic energy.

Estimate gear tooth bending stress, contact stress trend, pitch-line velocity, and safety margin from module and face width.

Explore pendulum period, frequency, angular motion, and energy exchange using length, gravity, amplitude, and mass controls.

Practice inertia, F = ma, and action-reaction pairs with live force, mass, acceleration, and free-body feedback.

Adjust launch velocity, angle, gravity, and drag estimate to visualize range, flight time, peak height, and impact speed.

Compare launch speed with escape speed and circular orbit speed for planetary bodies using gravitational energy relationships.

Model static friction, kinetic friction, normal reaction, incline angle, and pull angle to see when slip begins.

Explore levers, pulleys, inclined planes, wheel-and-axle, screws, and wedges using force ratio and efficiency checks.

Study F = kx, elastic potential energy, and equivalent stiffness for single, series, and parallel spring arrangements.

Convert between Brinell (HBW), Rockwell (HRC/HRB), and Vickers (HV) hardness scales, and estimate equivalent tensile strength.

Simulate standard tensile, compression, and 3-point bend tests on standard test coupons with real-time stress-strain curve generation.

Calculate bend allowance (BA), bend deduction (BD), setback, and minimum inside bend radius based on sheet thickness and K-factor.

Inspect Hooke's elastic zone, Young's modulus (E), 0.2% offset proof yield strength, ultimate tensile strength (UTS), and fracture ductility.

Convert between Brinell (HBW), Rockwell (HRC/HRB), and Vickers (HV) hardness scales, and estimate equivalent tensile strength.

Simulate standard tensile, compression, and 3-point bend tests on standard test coupons with real-time stress-strain curve generation.

Calculate bend allowance (BA), bend deduction (BD), setback, and minimum inside bend radius based on sheet thickness and K-factor.

Inspect Hooke's elastic zone, Young's modulus (E), 0.2% offset proof yield strength, ultimate tensile strength (UTS), and fracture ductility.

Convert between Brinell (HBW), Rockwell (HRC/HRB), and Vickers (HV) hardness scales, and estimate equivalent tensile strength.

Simulate standard tensile, compression, and 3-point bend tests on standard test coupons with real-time stress-strain curve generation.

Calculate bend allowance (BA), bend deduction (BD), setback, and minimum inside bend radius based on sheet thickness and K-factor.

Inspect Hooke's elastic zone, Young's modulus (E), 0.2% offset proof yield strength, ultimate tensile strength (UTS), and fracture ductility.

Convert between Brinell (HBW), Rockwell (HRC/HRB), and Vickers (HV) hardness scales, and estimate equivalent tensile strength.

Simulate standard tensile, compression, and 3-point bend tests on standard test coupons with real-time stress-strain curve generation.

Practice reading 0.02mm and 0.05mm vernier caliper scales for outside, inside, and depth step measurements.

Interactive 0.01mm metric micrometer simulator with thimble and sleeve vernier alignment exercises.

Simulate 0.01mm plunger and lever dial gauges to measure total indicated runout (TIR), flatness, and alignment.

Calculate spindle speed (RPM), surface cutting speed (Vc), feed per tooth (fz), table feed (Vf), and metal removal rate (MRR).

Practice reading 0.02mm and 0.05mm vernier caliper scales for outside, inside, and depth step measurements.

Interactive 0.01mm metric micrometer simulator with thimble and sleeve vernier alignment exercises.

Simulate 0.01mm plunger and lever dial gauges to measure total indicated runout (TIR), flatness, and alignment.

Calculate spindle speed (RPM), surface cutting speed (Vc), feed per tooth (fz), table feed (Vf), and metal removal rate (MRR).

Practice reading 0.02mm and 0.05mm vernier caliper scales for outside, inside, and depth step measurements.

Interactive 0.01mm metric micrometer simulator with thimble and sleeve vernier alignment exercises.

Simulate 0.01mm plunger and lever dial gauges to measure total indicated runout (TIR), flatness, and alignment.

Calculate spindle speed (RPM), surface cutting speed (Vc), feed per tooth (fz), table feed (Vf), and metal removal rate (MRR).

Practice reading 0.02mm and 0.05mm vernier caliper scales for outside, inside, and depth step measurements.

Interactive 0.01mm metric micrometer simulator with thimble and sleeve vernier alignment exercises.