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(critical pressure of N-propanol)/(odor threshold of N-propanol)

Input interpretation

N-propanol | critical pressure/N-propanol | odor threshold
N-propanol | critical pressure/N-propanol | odor threshold

Results

2×10^6 MPa (megapascals)
2×10^6 MPa (megapascals)
N-propanol | critical pressure | 5.2 MPa (megapascals) N-propanol | odor threshold | 2.6 ppm (parts per million)
N-propanol | critical pressure | 5.2 MPa (megapascals) N-propanol | odor threshold | 2.6 ppm (parts per million)

Unit conversions

2 TPa (terapascals)
2 TPa (terapascals)
2×10^12 Pa (pascals)
2×10^12 Pa (pascals)
2×10^12 N/m^2 (newtons per square meter)
2×10^12 N/m^2 (newtons per square meter)
1.974×10^7 atm (atmospheres)  (unit officially deprecated)
1.974×10^7 atm (atmospheres) (unit officially deprecated)
20 Mbar (megabars)
20 Mbar (megabars)

Comparisons as pressure

 ≈ ( 0.0037 ≈ 1/270 ) × pressure inside an Ivy-Mike-like nuclear bomb detonation ( ≈ 5.4×10^14 Pa )
≈ ( 0.0037 ≈ 1/270 ) × pressure inside an Ivy-Mike-like nuclear bomb detonation ( ≈ 5.4×10^14 Pa )
 ≈ 4 × highest sustained pressure achieved in a laboratory ( ≈ 5×10^11 Pa )
≈ 4 × highest sustained pressure achieved in a laboratory ( ≈ 5×10^11 Pa )
 ≈ 5.3 × pressure at the center of the earth ( ≈ 380 GPa )
≈ 5.3 × pressure at the center of the earth ( ≈ 380 GPa )

Comparison as energy density

 ≈ 3.8×10^21 × universe vacuum energy density ( ≈ 5×10^-10 J/m^3 )
≈ 3.8×10^21 × universe vacuum energy density ( ≈ 5×10^-10 J/m^3 )

Comparisons as bulk modulus

 ≈ 9.1 × gold bulk modulus ( ≈ 220 GPa )
≈ 9.1 × gold bulk modulus ( ≈ 220 GPa )
 ≈ 12 × iron bulk modulus ( ≈ 170 GPa )
≈ 12 × iron bulk modulus ( ≈ 170 GPa )
 ≈ 61 × carbon bulk modulus ( ≈ 33 GPa )
≈ 61 × carbon bulk modulus ( ≈ 33 GPa )

Comparison as tensile strength

 ≈ 20 × theoretical tensile strength of a carbon nanotube ( ≈ 100 GPa )
≈ 20 × theoretical tensile strength of a carbon nanotube ( ≈ 100 GPa )