k Gallium nitride nanotubes, TEM Gallium nitride nanotubes. Tranmission electron micrograph TEM of gallium nitride GaN nanotube crystals created by Peidong Yang and his team at the University of California, Berkeley, USA. These transparent, hollow tubes measure 30200 nanometres billionths of a metre in width and up to 20 micrometres thousandths of a metre in length. GaN is a semiconductor material used in industry to produce circuits, blue LEDs, ultraviolet lasers and other optoelectronic devices. Unlike nanotubes made of carbon, GaN nanotubes can be attached with organic molecules, such as proteins, making it possible to create nanoscale chemical sensors and labona chip devices. Photographed in 2003. Stock Photo - Afloimages
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Gallium nitride nanotubes, TEM Gallium nitride nanotubes. Tranmission electron micrograph  TEM  of gallium nitride  GaN  nanotube crystals created by Peidong Yang and his team at the University of California, Berkeley, USA. These transparent, hollow tubes measure 30 200 nanometres  billionths of a metre  in width and up to 20 micrometres  thousandths of a metre  in length. GaN is a semiconductor material used in industry to produce circuits, blue LEDs, ultraviolet lasers and other optoelectronic devices. Unlike nanotubes made of carbon, GaN nanotubes can be attached with organic molecules, such as proteins, making it possible to create nanoscale chemical sensors and lab on a  chip devices. Photographed in 2003.
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Gallium nitride nanotubes, TEM

Gallium nitride nanotubes. Tranmission electron micrograph (TEM) of gallium nitride (GaN) nanotube crystals created by Peidong Yang and his team at the University of California, Berkeley, USA. These transparent, hollow tubes measure 30-200 nanometres (billionths of a metre) in width and up to 20 micrometres (thousandths of a metre) in length. GaN is a semiconductor material used in industry to produce circuits, blue LEDs, ultraviolet lasers and other optoelectronic devices. Unlike nanotubes made of carbon, GaN nanotubes can be attached with organic molecules, such as proteins, making it possible to create nanoscale chemical sensors and lab-on-a- chip devices. Photographed in 2003.

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