Gasoline Density Chart 2026: Complete kg/m³, lb/gal, kg/L, lb/ft³ Reference

Gasoline density ranges from 715-780 kg/m³ at 15°C, with typical values around 730-750 kg/m³ depending on fuel grade and composition.

Understanding gasoline density is essential for fuel quality control, transportation calculations, engine performance optimization, and cost analysis across the petroleum industry.

After working with fuel logistics for 15 years, I’ve seen how accurate density measurements can save companies thousands in transportation costs and prevent engine performance issues.

This comprehensive guide provides all the density values you need in kg/m³, lb/gal, kg/L, and lb/ft³, along with conversion methods and practical applications.

Comprehensive Gasoline Density Chart

Below is the complete gasoline density conversion chart with all commonly used units. These values are measured at standard reference temperature of 15°C (59°F) unless otherwise specified.

Fuel Type	kg/m³	lb/gal (US)	kg/L	lb/ft³	Temperature
Regular Gasoline (87 octane)	730-750	6.08-6.25	0.730-0.750	45.6-46.8	15°C
Mid-Grade Gasoline (89 octane)	735-755	6.13-6.30	0.735-0.755	45.9-47.1	15°C
Premium Gasoline (91-93 octane)	740-770	6.17-6.42	0.740-0.770	46.2-48.1	15°C
E10 Gasoline (10% ethanol)	745-765	6.21-6.38	0.745-0.765	46.5-47.7	15°C
E15 Gasoline (15% ethanol)	750-770	6.25-6.42	0.750-0.770	46.8-48.1	15°C
Racing Gasoline	720-740	6.00-6.17	0.720-0.740	44.9-46.2	15°C
Aviation Gasoline (Avgas 100LL)	720-730	6.00-6.08	0.720-0.730	44.9-45.6	15°C

Unit Conversion Methods

Converting between different density units is straightforward once you know the conversion factors. I’ve used these conversions daily in fuel logistics operations.

Essential Conversion Factors

1. kg/m³ to lb/ft³: Multiply by 0.06243
2. lb/ft³ to kg/m³: Multiply by 16.018
3. kg/m³ to kg/L: Divide by 1000
4. kg/L to kg/m³: Multiply by 1000
5. kg/m³ to lb/gal (US): Multiply by 0.008345
6. lb/gal (US) to kg/m³: Multiply by 119.83

Step-by-Step Conversion Example

Let’s convert 740 kg/m³ to all other units:

1. To kg/L: 740 ÷ 1000 = 0.740 kg/L
2. To lb/ft³: 740 × 0.06243 = 46.2 lb/ft³
3. To lb/gal (US): 740 × 0.008345 = 6.17 lb/gal

Temperature Effects on Gasoline Density

Temperature significantly affects gasoline density, with higher temperatures resulting in lower density values. This is crucial for accurate measurements and calculations.

Temperature Correction Formula

The standard temperature correction formula for gasoline is:

ρ₂ = ρ₁ × [1 – β × (T₂ – T₁)]

Where: ρ₂ = density at new temperature
ρ₁ = density at reference temperature
β = temperature coefficient (0.0008-0.0010 per °C for gasoline)
T₂ = new temperature
T₁ = reference temperature

Practical Temperature Correction Example

If gasoline has a density of 750 kg/m³ at 15°C, what’s its density at 25°C?

1. Temperature difference: 25°C – 15°C = 10°C
2. Density reduction: 750 × 0.0009 × 10 = 6.75 kg/m³
3. New density: 750 – 6.75 = 743.25 kg/m³

Practical Applications

Understanding gasoline density has numerous practical applications across different industries.

Fuel Transportation and Logistics

In my experience managing fuel logistics, accurate density calculations are critical for:

• Weight calculations: Converting volume to weight for transportation limits
• Cost optimization: Maximizing load capacity while staying within legal limits
• Inventory management: Accurate fuel storage measurements

For example, a 40,000-liter tanker truck carrying gasoline at 740 kg/m³ contains 29,600 kg (65,257 lbs) of fuel.

Engine Performance and Tuning

Forum discussions show that density affects engine performance:

• Fuel-air mixture: Density impacts fuel injection calculations
• Energy content: Higher density generally means more energy per volume
• Performance tuning: Racing teams optimize fuel density for maximum power

One user reported mileage improvements from 33 kmpl to 40 kmpl when using higher density fuel (744 kg/m³ vs 700 kg/m³).

Quality Control and Testing

Quality control professionals use density measurements to:

• Detect fuel contamination: Adulterated fuel often has incorrect density
• Verify fuel grade: Different octane ratings have characteristic density ranges
• Monitor fuel degradation: Density changes can indicate fuel aging

Frequently Asked Questions

Final Recommendations

After analyzing fuel density data across multiple applications, here are my key recommendations:

For Transportation: Always use temperature-corrected density values to ensure accurate weight calculations and avoid overloading issues.

For Engine Performance: Consider fuel density when tuning engines, especially for high-performance applications where precise fuel-air ratios matter.

For Quality Control: Use density as a primary indicator of fuel quality and consistency, measuring at standard temperatures for reliable comparisons.

Remember that gasoline density is not just a technical specification—it’s a critical parameter that affects everything from transportation costs to engine performance. Use these reference values and conversion methods to ensure accurate calculations in your applications.