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Topics Covered
Background
Introduction
Applications of Q-Graphene from Graphene Supermarket
Q-Graphene - A Valuable Addition to Biomedical Nanomaterials
Properties of Q-Graphene
Background
The goal of Graphene
Supermarket is to provide laboratory supplies for graphene community. At
Graphene
Supermarket, our philosophy is to offer quality products, hassle-free shopping,
easy order tracking, and fast delivery. Graphene
Supermarket has straightforward pricing, online shipping quote and checkout.
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Supermarket has no minimum order requirement for your convenience.
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Introduction
Graphene
Supermarket announces the latest addition to its family of nanoscale carbon
materials, Q-Graphene™.
This nanomaterial consists of hollow, porous, multi-wall carbon nanospheres
or polyhedral structures with a narrow size distribution and an average particle
size of approximately 80 nm and an average aspect ratio close to 7:5. Such structures
are also referred to as carbon Q-dots or nanoonions, which are close relatives
of fullerenes.
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Typical TEM images of Q-graphene
Applications of Q-Graphene from Graphene Supermarket
Q-Graphene™
is expected to find wide use in multiple practical applications. Q-Graphene™
is perfect for light-weight composite materials required in space and aircraft
design. Furthermore, Q-Graphene™
is an attractive material for the next generation of thin film batteries and
supercapacitors. One advantage of the carbon onion-based supercapacitors is
their outstanding discharge rate, i.e., the time period during which the stored
energy can be released. Carbon onion-based supercapacitors can be employed as
nanoscale energy storage elements incorporated directly on a chip.
In addition, high-volume 3D spheres of Q-Graphene™
can serve as an inert support substrate for catalysis applications as reagents
can be trapped both on the surface and inside of the carbon cage.
Q-Graphene - A Valuable Addition to Biomedical Nanomaterials
Owing to its true nanoscale size, Q-Graphene™
is a valuable addition to biomedical nanomaterials. The use of traditional semiconductor
nanoparticles in biology and medicine is hindered by concerns over their toxicity
and potential environmental hazard. In contrast, carbon nanospheres, such as
Q-Graphene™,
are expected to have low toxicity and few significant side effects.
Because of its low toxicity, there are numerous opportunities for the Q-Graphene™
to be used in biology and medicine. The quantum dots made of chemically modified
carbon are less toxic than the conventional CdSe/ZnS quantum dots and they possess
superior performance as fluorescence imaging agents. Due to their low toxicity,
the carbon nanoonions can also be used for the intercellular drug delivery vehicles
of membrane-impermeable molecules. Carbon nanospheres have been demonstrated
to target tumors, and as a result can be used for the infrared sensing of cancer
cells, in vivo imaging, and localized optothermal therapy.
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Typical SEM images of Q-graphene
Properties of Q-Graphene
Despite the high interest in this type of carbon nanomaterial, high-yield cost-effective
production has not yet been demonstrated. Q-Graphene™
is synthesized by a proprietary method based on substrate-free Chemical Vapor
Deposition (CVD) catalytic growth. Q-Graphene™
particles are highly graphitic and free of impurities and they possess a large
surface area (55 m2/g), good electrical conductivity, and outstanding
thermal and chemical stability. Its low cost as well as its unique chemical
and physical properties ensure the bright future of Q-Graphene™
in a variety of industrial applications.
Source: Graphene
Supermarket
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Supermarket.