Tensile Strength to Load Capacity Calculator

Tensile Strength to Load Capacity Calculator



Load Capacity (kg):

Here’s a table that provides an overview of load capacities for hypothetical materials with different tensile strengths and a uniform cross-sectional area. We’ll assume a standard cross-sectional area of 1 square millimeter (mm²) to simplify the calculations. The load capacity can be calculated using the formula:

Where 9.81 is the acceleration due to gravity in meters per second squared (m/s²), converting the force from newtons to kilograms.

Sample Table for Load Capacities

Material TypeTensile Strength (MPa)Cross-Sectional Area (mm²)Load Capacity (kg)
Low Carbon Steel4001400×19.81≈40.78\frac{400 \times 1}{9.81} \approx 40.789.81400×1​≈40.78
Stainless Steel6001600×19.81≈61.16\frac{600 \times 1}{9.81} \approx 61.169.81600×1​≈61.16
Aluminum Alloy3001300×19.81≈30.58\frac{300 \times 1}{9.81} \approx 30.589.81300×1​≈30.58
High Carbon Steel8001800×19.81≈81.55\frac{800 \times 1}{9.81} \approx 81.559.81800×1​≈81.55
Titanium Alloy9001900×19.81≈91.74\frac{900 \times 1}{9.81} \approx 91.749.81900×1​≈91.74

Notes:

  • Material Type: Indicates the type of material and can vary widely in properties.
  • Tensile Strength (MPa): Indicates the maximum stress that the material can withstand while being stretched or pulled before breaking.
  • Cross-Sectional Area (mm²): We use a standardized 1 mm² for simplicity in this table.
  • Load Capacity (kg): This column shows the calculated load capacity in kilograms, which is the maximum load that can be safely applied to the material without causing it to fail under tensile stress.

This table is for educational or preliminary design purposes. For accurate and application-specific material selection, detailed material property sheets and standards should be consulted to consider factors such as environmental conditions, dynamic loading, fatigue properties, and safety factors.

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