Search

(surface tension of N-propanol)/(critical pressure of N-propanol)

Input interpretation

N-propanol | surface tension/N-propanol | critical pressure
N-propanol | surface tension/N-propanol | critical pressure

Results

0.004568 N/(m MPa) (newtons per meter megapascal)
0.004568 N/(m MPa) (newtons per meter megapascal)
N-propanol | surface tension | 0.02375 N/m (newtons per meter) N-propanol | critical pressure | 5.2 MPa (megapascals)
N-propanol | surface tension | 0.02375 N/m (newtons per meter) N-propanol | critical pressure | 5.2 MPa (megapascals)

Unit conversions

1.798×10^-7 inches
1.798×10^-7 inches
45.68 Å (ångströms)
45.68 Å (ångströms)
4.568 nm (nanometers)
4.568 nm (nanometers)

Comparisons as length

 ≈ 0.7 × length of tRNA ( ≈ 7 nm )
≈ 0.7 × length of tRNA ( ≈ 7 nm )
 ≈ 0.7 × length of hemoglobin ( ≈ 6.5 nm )
≈ 0.7 × length of hemoglobin ( ≈ 6.5 nm )
 ≈ 1.3 × length of a phospholipid ( ≈ 3.4 nm )
≈ 1.3 × length of a phospholipid ( ≈ 3.4 nm )

Comparisons as thickness

 ≈ ( 0.2 ≈ 1/4 ) × bacterial flagellum thickness ( ≈ 20 nm )
≈ ( 0.2 ≈ 1/4 ) × bacterial flagellum thickness ( ≈ 20 nm )
 ≈ (0.4 to 0.7) × typical cell membrane thickness ( 6 to 10 nm )
≈ (0.4 to 0.7) × typical cell membrane thickness ( 6 to 10 nm )

Comparison as radius

 ≈ 86 × Bohr radius ( ≈ 5.3×10^-11 m )
≈ 86 × Bohr radius ( ≈ 5.3×10^-11 m )

Comparisons as diameter

 ≈ (0.045 to 61.7) × diameter of a molecule ( 0.74 to 1000 Å )
≈ (0.045 to 61.7) × diameter of a molecule ( 0.74 to 1000 Å )
 ≈ 2 × DNA helix diameter ( ≈ 2 nm )
≈ 2 × DNA helix diameter ( ≈ 2 nm )
 ≈ 5 × carbon nanotube diameter ( ≈ 1 nm )
≈ 5 × carbon nanotube diameter ( ≈ 1 nm )

Comparison as circumference

 ≈ approximate circumference of a carbon nanotube ( 3.142 carbon nanotube diameters )
≈ approximate circumference of a carbon nanotube ( 3.142 carbon nanotube diameters )

Comparison as wavelength

 ≈ ( 0.05 ≈ 1/20 ) × Rydberg wavelength ( ≈ 9.1×10^-8 m )
≈ ( 0.05 ≈ 1/20 ) × Rydberg wavelength ( ≈ 9.1×10^-8 m )

Comparison as electromagnetic radiation wavelength

 ≈ 2300 × wavelength range of an X-ray ( 9×10^-13 to 1×10^-9 m )
≈ 2300 × wavelength range of an X-ray ( 9×10^-13 to 1×10^-9 m )

Interpretations

length
length
thickness
thickness
radius
radius
diameter
diameter
circumference
circumference
wavelength
wavelength
electromagnetic radiation wavelength
electromagnetic radiation wavelength
width
width
height
height
depth
depth
distance
distance
precipitation
precipitation
path length
path length
angular wavelength
angular wavelength
lattice constant
lattice constant
mean free path
mean free path
perimeter
perimeter
semi-principal axis length
semi-principal axis length
breadth
breadth
radial distance
radial distance
Cartesian coordinate
Cartesian coordinate
radius of curvature
radius of curvature
arc length
arc length
displacement
displacement
half thickness
half thickness
position
position
light wavelength
light wavelength
caliper
caliper
equivalent air layer thickness
equivalent air layer thickness

Corresponding quantities

Light travel time t in vacuum from t = x/c:  | 15 as (attoseconds)  | 1.5×10^-17 seconds
Light travel time t in vacuum from t = x/c: | 15 as (attoseconds) | 1.5×10^-17 seconds
Light travel time t in an optical fiber t = 1.48x/c:  | 23 as (attoseconds)  | 2.3×10^-17 seconds
Light travel time t in an optical fiber t = 1.48x/c: | 23 as (attoseconds) | 2.3×10^-17 seconds
Energy E of a photon in a vacuum from E = ℏc/ƛ:  | 43 eV (electronvolts)
Energy E of a photon in a vacuum from E = ℏc/ƛ: | 43 eV (electronvolts)
Wavelength λ from λ = 2πƛ:  | 2.9×10^-8 meters
Wavelength λ from λ = 2πƛ: | 2.9×10^-8 meters
Frequency ν of a photon in a vacuum from ν = 2πc/ƛ:  | 4.124×10^17 Hz (hertz)
Frequency ν of a photon in a vacuum from ν = 2πc/ƛ: | 4.124×10^17 Hz (hertz)
Spectroscopic wavenumber ν^~ from ν^~ = 2π/ƛ:  | 1.376×10^9 m^(-1) (reciprocal meters)
Spectroscopic wavenumber ν^~ from ν^~ = 2π/ƛ: | 1.376×10^9 m^(-1) (reciprocal meters)
Wavenumber k from k = 1/ƛ:  | 2.189×10^8 m^(-1) (reciprocal meters)
Wavenumber k from k = 1/ƛ: | 2.189×10^8 m^(-1) (reciprocal meters)
Energy E of a photon in a vacuum from E = hc/λ:  | 271 eV (electronvolts)
Energy E of a photon in a vacuum from E = hc/λ: | 271 eV (electronvolts)
Angular wavelength ƛ from ƛ = λ/(2π):  | 7.3×10^-10 meters
Angular wavelength ƛ from ƛ = λ/(2π): | 7.3×10^-10 meters
Frequency ν of a photon in a vacuum from ν = c/λ:  | 6.563×10^16 Hz (hertz)
Frequency ν of a photon in a vacuum from ν = c/λ: | 6.563×10^16 Hz (hertz)
Spectroscopic wavenumber ν^~ from ν^~ = 1/λ:  | 2.189×10^8 m^(-1) (reciprocal meters)
Spectroscopic wavenumber ν^~ from ν^~ = 1/λ: | 2.189×10^8 m^(-1) (reciprocal meters)
Wavenumber k from k = 2π/λ:  | 1.376×10^9 m^(-1) (reciprocal meters)
Wavenumber k from k = 2π/λ: | 1.376×10^9 m^(-1) (reciprocal meters)
Frequency ν of sound from ν = v/λ:  | 74 GHz (gigahertz)  | (assuming speed of sound ≈ 340.27 m/s)
Frequency ν of sound from ν = v/λ: | 74 GHz (gigahertz) | (assuming speed of sound ≈ 340.27 m/s)