Lift Coefficient Calculator

Calculate lift force F_L = ½·CL·ρ·A·V². Thin airfoil theory CL = 2π·α. Stall at CL_max ≈ 1.2-1.8 for conventional airfoils. Aspect ratio correction for finite wings using Prandtl lifting line theory.

2D stress state at a point. All stresses in MPa.

σx — Normal Stress X (MPa)
σy — Normal Stress Y (MPa)
τxy — Shear Stress (MPa)
⚙ Mechanical Note: Results are based on standard textbook formulas and ISO/AASHTO references. Always verify critical designs with applicable codes (ISO 898, AASHTO 1993, AISC, Eurocode 3) and a qualified engineer.
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How It Works

Calculate lift force F_L = ½·CL·ρ·A·V². Thin airfoil theory CL = 2π·α. Stall at CL_max ≈ 1.2-1.8 for conventional airfoils. Aspect ratio correction for finite wings using Prandtl lifting line theory

Each component has a specific meaning:

  • Prandtl lifting line theory — The prandtl lifting line theory recorded for the patient or scenario being assessed.

Note: Interpret the lift coefficient result against the clinical thresholds and context described above.

How to Use

Enter the Prandtl lifting line theory for the patient or scenario you are assessing. Calculate lift force F_L = ½·CL·ρ·A·V². Thin airfoil theory CL = 2π·α. Stall at CL_max ≈ 1.2-1.8 for conventional airfoils. Aspect ratio correction for finite wings using Prandtl lifting line theory. Use the lift coefficient result to inform your clinical assessment.

Frequently Asked Questions