Rapid biological synthesis process to produce semiconducting chalcogenide nanostructures for transistor or solar cell applications
作者： Mohamed Y. El-Naggar , Ian R. McFarlane
DOI:
关键词: Solar cell 、 Band gap 、 Chalcogenide 、 Transistor 、 Nanofiber 、 Arsenic sulfide 、 Materials science 、 Semiconductor 、 Solar energy 、 Nanotechnology
摘要: The process disclosed herein produces macroscopic quantities of semiconducting arsenic sulfide nanofibers within one to three days. is biotically influenced by the bacteria Shewanella sp. Strain ANA-3. fibers are semiconductors with bandgaps between 2.2 and 2.5 eV. Newly measured bandgap properties can lead applications in semiconductor, transistor, solar energy fields. A faster more robust biological component makes overall commercially feasible than it would have been otherwise. rate allows for larger yields a predetermined period time.
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