Advanced Materials · 2008 · 246 citations · 201 references
Natural SciencesChemistryMaterials ScienceMaterials ChemistryNanomaterialsNanotechnologyCarbon NanomaterialsCarbon NanotubesNanostructured SurfacesNanotubesSurface FunctionalizationSurface Functionalization Of NanomaterialsCarbon Nanotube FunctionalizationChemical ModificationChemical Surface FunctionalizationChemical Surface ModificationCovalent FunctionalizationCovalent InteractionsFunctionalizationNanoscale Interfaces
SWNTs have emerged as legitimate nanoscale chemical reagents. The report updates covalent functionalization strategies for SWNTs and investigates the breadth of controlled covalent reactions, including sidewall modifications, while highlighting molecular insights into functional moiety binding. The study examines advances in forming nanotube derivatives that preserve or enhance performance metrics through precise chemical modification, focusing on controlled covalent reactions along sidewalls and ends. Controllable functionalization enables fine tuning of SWNT optical, electronic, and mechanical properties, paving the way for functional nanoscale devices.
Abstract In this Progress Report, we update covalent chemical strategies commonly used for the focused functionalization of single‐walled carbon nanotube (SWNT) surfaces. In recent years, SWNTs have been treated as legitimate nanoscale chemical reagents. Hence, herein we seek to understand, from a structural and mechanistic perspective, the breadth and types of controlled covalent reactions SWNTs can undergo in solution phase, not only at ends and defect sites but also along sidewalls. We explore advances in the formation of nanotube derivatives that essentially maintain and even enhance their performance metrics after precise chemical modification. We especially highlight molecular insights (and corresponding correlation with properties) into the binding of functional moieties onto carbon nanotube surfaces. Controllable chemical functionalization suggests that the unique optical, electronic, and mechanical properties of SWNTs can be much more readily tuned than ever before, with key implications for the generation of truly functional nanoscale working devices.
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