Due to their unique absorption fingerprint, many materials can be conveniently characterized in the infrared spectral region. However, diffraction limits the spatial resolution to several microns. <\/p>\n
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Water crises have been characterized as having the highest impacts of all risks facing the planet. Natural fresh water supplies are limited, and current desalination technologies are hugely expensive - could graphene provide another way? <\/p>\n
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A space elevator may sound like an idea that could only exist in science fiction but we may be closer to seeing one in the near future than you might have previously thought. <\/p>\n
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Mass spectrometry is revolutionising the scientific understanding of matter allowing for breakthroughs in the fields of astronomy, biology, material science and medicine. <\/p>\n
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A strategic partnership between the NGI at the University of Manchester and a spin-off company has led to the development of a new graphene-based lightbulb with lower energy emissions, minimal manufacturing costs and a longer lifetime. <\/p>\n
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Read the original: Due to their unique absorption fingerprint, many materials can be conveniently characterized in the infrared spectral region. However, diffraction limits the spatial resolution to several microns Continue reading
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