Direct spectroscopic evidence of energy transfer from photo-excited semiconducting polymers to single-walled carbon nanotubes.

Single-walled carbon nanotubes have been efficiently dispersed in an organic solvent using the semiconducting polymers MEHPPV and PFO. It has been found that energy is transferred to the carbon nanotubes when the polymer is photo-excited across its minimum energy gap. This is shown using photolumine...

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প্রধান লেখক: Nish, A, Hwang, J, Doig, J, Nicholas, R
বিন্যাস: Journal article
ভাষা:English
প্রকাশিত: 2008
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author Nish, A
Hwang, J
Doig, J
Nicholas, R
author_facet Nish, A
Hwang, J
Doig, J
Nicholas, R
author_sort Nish, A
collection OXFORD
description Single-walled carbon nanotubes have been efficiently dispersed in an organic solvent using the semiconducting polymers MEHPPV and PFO. It has been found that energy is transferred to the carbon nanotubes when the polymer is photo-excited across its minimum energy gap. This is shown using photoluminescence excitation mapping in the range of both the polymer's and the nanotube's optical absorbance. Possible mechanisms for the energy transfer are discussed.
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spelling oxford-uuid:f8b055e4-dcca-4054-825f-224f10b922072022-03-27T12:52:12ZDirect spectroscopic evidence of energy transfer from photo-excited semiconducting polymers to single-walled carbon nanotubes.Journal articlehttp://purl.org/coar/resource_type/c_dcae04bcuuid:f8b055e4-dcca-4054-825f-224f10b92207EnglishSymplectic Elements at Oxford2008Nish, AHwang, JDoig, JNicholas, RSingle-walled carbon nanotubes have been efficiently dispersed in an organic solvent using the semiconducting polymers MEHPPV and PFO. It has been found that energy is transferred to the carbon nanotubes when the polymer is photo-excited across its minimum energy gap. This is shown using photoluminescence excitation mapping in the range of both the polymer's and the nanotube's optical absorbance. Possible mechanisms for the energy transfer are discussed.
spellingShingle Nish, A
Hwang, J
Doig, J
Nicholas, R
Direct spectroscopic evidence of energy transfer from photo-excited semiconducting polymers to single-walled carbon nanotubes.
title Direct spectroscopic evidence of energy transfer from photo-excited semiconducting polymers to single-walled carbon nanotubes.
title_full Direct spectroscopic evidence of energy transfer from photo-excited semiconducting polymers to single-walled carbon nanotubes.
title_fullStr Direct spectroscopic evidence of energy transfer from photo-excited semiconducting polymers to single-walled carbon nanotubes.
title_full_unstemmed Direct spectroscopic evidence of energy transfer from photo-excited semiconducting polymers to single-walled carbon nanotubes.
title_short Direct spectroscopic evidence of energy transfer from photo-excited semiconducting polymers to single-walled carbon nanotubes.
title_sort direct spectroscopic evidence of energy transfer from photo excited semiconducting polymers to single walled carbon nanotubes
work_keys_str_mv AT nisha directspectroscopicevidenceofenergytransferfromphotoexcitedsemiconductingpolymerstosinglewalledcarbonnanotubes
AT hwangj directspectroscopicevidenceofenergytransferfromphotoexcitedsemiconductingpolymerstosinglewalledcarbonnanotubes
AT doigj directspectroscopicevidenceofenergytransferfromphotoexcitedsemiconductingpolymerstosinglewalledcarbonnanotubes
AT nicholasr directspectroscopicevidenceofenergytransferfromphotoexcitedsemiconductingpolymerstosinglewalledcarbonnanotubes