Emerging Nano Carbons

Researchers used a five-minute microwave method to convert pistachio shell waste into fluorescent carbon dots with antioxidant, anticancer, and antibacterial properties. The process achieved an 85% yield.

Researchers created a carbon nanofiber aerogel from coconut through freeze-drying and high-temperature carbonization.

Researchers review challenges in developing continuous biosensors using graphene quantum dots. The study identifies technical and integration hurdles that must be addressed for practical applications.

Scientists transformed cotton stalk waste into green fluorescent carbon dots that move from roots to fibers, allowing cotton to be labeled internally without damage.

Researchers have developed polymer membranes enhanced with carbon dots and titanium dioxide to effectively break down antibiotics in water.

Researchers synthesized graphene quantum dots from eucalyptus tree leaves.

Researchers have achieved over 20% efficiency in organic solar cells using fullerene acceptors, which excel at light harvesting.

Researchers have developed carbon dots capable of bending light uphill, enabling optical disks to potentially store up to 400 terabits of data on a DVD-sized disk.

Researchers developed a floating polymer sponge with graphene quantum dots that converts sunlight into hydrogen at 7.16 millimoles per gram.

Researchers have developed carbon dots from papaya leaves that can purify water and combat cancer cells without needing external dopants.

Researchers used quaternized carbon dots to fully prevent S. aureus biofilm formation at a concentration of 1,000 micrograms per milliliter.

The Advanced Carbons Council calls for a U.S. carbon materials innovation platform focused on standards, testing and buyer qualification. The paper links engineered-carbon supply chains to manufacturing, energy, defense and AI infrastructure. Serves as a model for governments world-wide.

Sofab Inks' Tinfab modules maintained 87% efficiency after 504 hours in damp-heat conditions, surpassing fullerene-based modules that retained just 74.4%.

Researchers have developed carbon dots that effectively kill bacteria and break down biofilms, offering a promising tool against superbugs.

Researchers developed dual-emission carbon dot films that allow smartphones to detect nitrite and Fe3+ ions in water.

Researchers in Houston found that C60-ser, a modified fullerene, reduced brain inflammation and improved spatial memory in mice after cranial radiation therapy.

Researchers tested carbon dots for removing methylene blue dye from textile wastewater.

Researchers at XCT have highlighted the importance of experimental conditions in C60 cyclic voltammetry. Solvent, electrolyte, and electrode variables significantly affect the observed reduction potentials and peak shapes.

Smoltek has joined the MAXBATT consortium, which includes Scania and Volvo, to enhance sustainable battery production using carbon nanofiber technology.

Researchers examined how proteins bind to charged graphene quantum dots, assessing the impact on toxicity, cellular uptake, and light emission.

Researchers at Kyushu University developed a pumpkin peel-based nanomaterial that surpasses plastic in blocking UV light, reducing microbial growth, and preserving antioxidants, offering a sustainable packaging alternative.

Bingel, Prato and Diels-Alder reactions each attach different groups to the C60 cage, changing solubility, electronic behaviour and how the fullerene organises with neighbouring molecules.

Researchers at City University of Hong Kong reached 20.5% power conversion efficiency in an organic solar cell by recovering normally non-emissive triplet excitons as extractable charge carriers.

Researchers at Chulalongkorn University used graphene quantum dots as nanoadditives in cement, tailoring interfacial processes during hydration to improve the mechanical performance of the set material.

Researchers have identified several uses for Fullerene C70 in organic photovoltaics, organic electronics, and advanced nanomaterials, noting its unique elongated carbon cage structure and electron-accepting behavior. This matters because C70's distinct optical and electronic properties, compared to C60, make it a valuable material for studying and optimizing charge transport and light absorption in these advanced carbon-based applications.

Researchers at Gannan Medical University and Shanghai University developed a gold nanoparticle–graphene oxide quantum dot (AuNPs/GOQDs) Schottky junction nanocomposite that achieved over 97% bacterial eradication in vitro and approximately 99% wound closure in mice within 9 days under 460 nm LED irradiation. The work advances graphene quantum dot applications by demonstrating that pairing GOQDs with AuNPs suppresses charge recombination to boost reactive oxygen species output while simultaneously enhancing photothermal conversion, offering a drug-free pathway to address multidrug-resistant infections.

Fullerene C60, a cage-like carbon nanomaterial discovered in 1985, is under active research for applications in organic electronics, photovoltaics, lubricants, coatings, biomedical systems, and perovskite/silicon tandem solar cells. Within the advanced carbon materials sector, C60 occupies a distinct niche from fiber- or graphene-based materials, with its electron-accepting properties and molecular tunability driving continued interest in energy and specialty coating applications.