Plan safe maneuvers with precise rate-of-turn calculations today. Choose method, units, and optional constraints easily. See results above, then export with one click anytime.
| Scenario | Inputs | Expected Outputs (approx.) |
|---|---|---|
| Road vehicle | V=60 km/h, r=120 m | ω≈0.1389 rad/s, 7.96 deg/s, a≈2.31 m/s² (0.236 g) |
| Coordinated bank | V=120 knots, φ=25° | ω≈0.167 rad/s, 9.59 deg/s, r≈475 m |
| Heading log | Δψ=90°, Δt=6 s, V=10 m/s | ω≈0.262 rad/s, 15.0 deg/s, r≈38.2 m |
| Comfort target | V=20 m/s, a=0.30 g | ω≈0.147 rad/s, 8.41 deg/s, r≈136 m |
Examples are illustrative; your results vary with units and precision.
Where V is speed, r is turn radius, ω is angular velocity, a is lateral acceleration, g is 9.80665 m/s², and φ is bank angle.
Turn rate is how quickly heading changes, usually in deg/s or deg/min. It equals angular velocity expressed in degrees.
Use speed+radius for path planning, heading+time for sensor logs, bank+speed for coordinated vehicle/aircraft turns, and lateral-accel+speed for comfort or traction targets.
Signed ω keeps direction (left negative, right positive). Magnitude ignores direction and is used for timing and limit checks.
For a circular path, lateral acceleration is a = V²/r. If ω is known, a can also be computed as a = |ω|·V.
Yes. It assumes a coordinated turn with lift providing the required centripetal force. Real systems may need corrections for slip, drag, or control limits.
Use the shortest intended change, such as −10° instead of +350°. The calculator treats the entered change directly.
Common causes are small radius values, high speed, or unit mistakes. Double-check conversions and consider adding the optional limit checks.
It best fits constant-radius, steady turns. For varying curvature, compute turn rate over short intervals and analyze the profile across time.
Important Note: All the Calculators listed in this site are for educational purpose only and we do not guarentee the accuracy of results. Please do consult with other sources as well.