Optical constants of CO2 (Carbon dioxide)
Bideau-Mehu et al. 1973: n 0.181–1.69 µm
Wavelength:
µm
(0.1807–1.6945)
Complex refractive index (n+ik)
n
k
LogX
LogY
eV
Derived optical constants
Dispersion formula
$$n-1=\frac{6.99100\text{×}10^{-2}}{166.175-λ^{-2}}+\frac{1.44720\text{×}10^{-3}}{79.609-λ^{-2}}+\frac{6.42941\text{×}10^{-5}}{56.3064-λ^{-2}}+\frac{5.21306\text{×}10^{-5}}{46.0196-λ^{-2}}+\frac{1.46847\text{×}10^{-6}}{0.0584738-λ^{-2}}$$Conditions & Spec sheet
n_is_absolute: true wavelength_is_vacuum: true temperature: 0 °C pressure: 101325 Pa
Comments
Standard conditions: 0 °C, 760 torr (101.325 kPa).
References
A. Bideau-Mehu, Y. Guern, R. Abjean and A. Johannin-Gilles. Interferometric determination of the refractive index of carbon dioxide in the ultraviolet region, Opt. Commun. 9, 432-434 (1973)
Data
INFO
Carbon dioxide, CO2
Carbon dioxide (CO2) is a colorless, odorless gas that plays a critical role in various industrial, environmental, and biological systems. Composed of two oxygen atoms covalently bonded to a central carbon atom, CO2 is a linear molecule with diverse applications. One notable use is in CO2 lasers, which produce a high-power infrared beam and are employed in applications ranging from cutting and welding to surgical procedures. Aside from its technological uses, CO2 is perhaps most recognized for its role as a greenhouse gas. It has a significant long-term warming effect on Earth's climate, contributing to global warming and subsequent climate change. This has led to intensive research into CO2 capture and sequestration technologies, as well as international policies aimed at emission reduction. Other industrial uses include its role as a refrigerant, a fire suppressant, and as a solvent in supercritical fluid applications. Given its wide range of applications and environmental implications, CO2 remains a molecule of great scientific, industrial, and global significance.Other names
- Carbon oxide
- Carbon(IV) oxide