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Laser-induced light emission from carbon nanoparticles
Strong absorption of light in a broad wavelength range and poor thermal conductance between particles of carbon nanomaterials, such as nanotubes, onions, nanodiamond, and carbon black, lead to strong thermal emission (blackbody radiation) upon laser excitation, even at a very low (milliwatts) power....
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Published in: | Journal of applied physics 2008-10, Vol.104 (7), p.074308-074308-7 |
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container_end_page | 074308-7 |
container_issue | 7 |
container_start_page | 074308 |
container_title | Journal of applied physics |
container_volume | 104 |
creator | Osswald, S. Behler, K. Gogotsi, Y. |
description | Strong absorption of light in a broad wavelength range and poor thermal conductance between particles of carbon nanomaterials, such as nanotubes, onions, nanodiamond, and carbon black, lead to strong thermal emission (blackbody radiation) upon laser excitation, even at a very low (milliwatts) power. The lasers commonly used during Raman spectroscopy characterization of carbon can cause sample heating to very high temperatures. While conventional thermometry is difficult in the case of nanomaterials, Raman spectral features, such as the
G
band of graphitic carbon and thermal emission spectra were used to estimate the temperature during light emission that led to extensive graphitization and evaporation of carbon nanomaterials, indicating local temperatures exceeding
3500
°
C
. |
doi_str_mv | 10.1063/1.2980321 |
format | article |
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G
band of graphitic carbon and thermal emission spectra were used to estimate the temperature during light emission that led to extensive graphitization and evaporation of carbon nanomaterials, indicating local temperatures exceeding
3500
°
C
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G
band of graphitic carbon and thermal emission spectra were used to estimate the temperature during light emission that led to extensive graphitization and evaporation of carbon nanomaterials, indicating local temperatures exceeding
3500
°
C
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G
band of graphitic carbon and thermal emission spectra were used to estimate the temperature during light emission that led to extensive graphitization and evaporation of carbon nanomaterials, indicating local temperatures exceeding
3500
°
C
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source | American Institute of Physics:Jisc Collections:Transitional Journals Agreement 2021-23 (Reading list) |
subjects | ABSORPTION BLACKBODY RADIATION CARBON BLACK EMISSION SPECTRA EVAPORATION GRAPHITE GRAPHITIZATION HEATING LASERS LEAD MATERIALS SCIENCE NANOTUBES PARTICLES PHOTOLUMINESCENCE RAMAN SPECTRA RAMAN SPECTROSCOPY TEMPERATURE RANGE 1000-4000 K THERMAL CONDUCTIVITY VISIBLE RADIATION WAVELENGTHS |
title | Laser-induced light emission from carbon nanoparticles |
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