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Applications for higher diamondoids are in a very
early stage. Many of the fundamental properties of higher diamondoids
have yet to be determined. This opens up many opportunities for
research and commercialization. |
Adamantane derivatives have
shown promise in pharmaceutical applications and have been used
as templates for crystallization of zeolite catalysts and as monomers
for the synthesis of higher temperature polymers, so interest in
this molecule and higher diamondoids comes from both pure and applied
sciences.
Higher diamondoids have high potential based on
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Bulk diamond properties |
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Surface diamond properties |
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Ultra-nanocrystalline diamond properties |
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Known applications for lower diamondoids |
Higher diamondoids offer a myriad of shapes and sizes.
Their variety of shapes (some showing handedness or chirality),
rigidity, stability, precision and potential for structural tailoring
and assembly may offer advantages over other, less-durable, single-structured
nano-materials and building blocks.
Diamondoids, or diamond molecule building blocks, have the potential
to enable a new generation of even smaller and more durable nanotechnology
devices and materials.
Scientists have in the past recognized the need for diamond-like
building block molecules with these properties. For example, diamond
has been used to improve the durability of MicroElectroMechanical
Systems (MEMS) devices.
Higher diamondoids may have significant potential in
Intellectual Property
Chevron has patents in the field of diamondoids and
their potential applications. They cover processes for producing
the higher diamondoids, their compositions, derivatives, and certain
applications.
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